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kenyi22/Frikr_.idea_Frikr.iml

Created October 20, 2017 20:00
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Frikr_.idea_Frikr.iml
<?xml version="1.0" encoding="UTF-8"?>
<module type="PYTHON_MODULE" version="4">
<component name="NewModuleRootManager">
<content url="file://$MODULE_DIR$" />
<orderEntry type="inheritedJdk" />
<orderEntry type="sourceFolder" forTests="false" />
</component>
<component name="TestRunnerService">
<option name="projectConfiguration" value="Nosetests" />
<option name="PROJECT_TEST_RUNNER" value="Nosetests" />
</component>
</module>
Raw
Frikr_.idea_misc.xml
<?xml version="1.0" encoding="UTF-8"?>
<project version="4">
<component name="ProjectRootManager" version="2" project-jdk-name="Python 3.6.1 (C:\ProgramData\Anaconda3\python.exe)" project-jdk-type="Python SDK" />
</project>
Raw
Frikr_.idea_modules.xml
<?xml version="1.0" encoding="UTF-8"?>
<project version="4">
<component name="ProjectModuleManager">
<modules>
<module fileurl="file://$PROJECT_DIR$/.idea/Frikr.iml" filepath="$PROJECT_DIR$/.idea/Frikr.iml" />
</modules>
</component>
</project>
Raw
Frikr_Include_abstract.h
#ifndef Py_ABSTRACTOBJECT_H
#define Py_ABSTRACTOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#ifdef PY_SSIZE_T_CLEAN
#define PyObject_CallFunction _PyObject_CallFunction_SizeT
#define PyObject_CallMethod _PyObject_CallMethod_SizeT
#ifndef Py_LIMITED_API
#define _PyObject_CallMethodId _PyObject_CallMethodId_SizeT
#endif /* !Py_LIMITED_API */
#endif
/* Abstract Object Interface (many thanks to Jim Fulton) */
/*
PROPOSAL: A Generic Python Object Interface for Python C Modules
Problem
Python modules written in C that must access Python objects must do
so through routines whose interfaces are described by a set of
include files. Unfortunately, these routines vary according to the
object accessed. To use these routines, the C programmer must check
the type of the object being used and must call a routine based on
the object type. For example, to access an element of a sequence,
the programmer must determine whether the sequence is a list or a
tuple:
if(is_tupleobject(o))
e=gettupleitem(o,i)
else if(is_listitem(o))
e=getlistitem(o,i)
If the programmer wants to get an item from another type of object
that provides sequence behavior, there is no clear way to do it
correctly.
The persistent programmer may peruse object.h and find that the
_typeobject structure provides a means of invoking up to (currently
about) 41 special operators. So, for example, a routine can get an
item from any object that provides sequence behavior. However, to
use this mechanism, the programmer must make their code dependent on
the current Python implementation.
Also, certain semantics, especially memory management semantics, may
differ by the type of object being used. Unfortunately, these
semantics are not clearly described in the current include files.
An abstract interface providing more consistent semantics is needed.
Proposal
I propose the creation of a standard interface (with an associated
library of routines and/or macros) for generically obtaining the
services of Python objects. This proposal can be viewed as one
components of a Python C interface consisting of several components.
From the viewpoint of C access to Python services, we have (as
suggested by Guido in off-line discussions):
- "Very high level layer": two or three functions that let you exec or
eval arbitrary Python code given as a string in a module whose name is
given, passing C values in and getting C values out using
mkvalue/getargs style format strings. This does not require the user
to declare any variables of type "PyObject *". This should be enough
to write a simple application that gets Python code from the user,
execs it, and returns the output or errors. (Error handling must also
be part of this API.)
- "Abstract objects layer": which is the subject of this proposal.
It has many functions operating on objects, and lest you do many
things from C that you can also write in Python, without going
through the Python parser.
- "Concrete objects layer": This is the public type-dependent
interface provided by the standard built-in types, such as floats,
strings, and lists. This interface exists and is currently
documented by the collection of include files provided with the
Python distributions.
From the point of view of Python accessing services provided by C
modules:
- "Python module interface": this interface consist of the basic
routines used to define modules and their members. Most of the
current extensions-writing guide deals with this interface.
- "Built-in object interface": this is the interface that a new
built-in type must provide and the mechanisms and rules that a
developer of a new built-in type must use and follow.
This proposal is a "first-cut" that is intended to spur
discussion. See especially the lists of notes.
The Python C object interface will provide four protocols: object,
numeric, sequence, and mapping. Each protocol consists of a
collection of related operations. If an operation that is not
provided by a particular type is invoked, then a standard exception,
NotImplementedError is raised with an operation name as an argument.
In addition, for convenience this interface defines a set of
constructors for building objects of built-in types. This is needed
so new objects can be returned from C functions that otherwise treat
objects generically.
Memory Management
For all of the functions described in this proposal, if a function
retains a reference to a Python object passed as an argument, then the
function will increase the reference count of the object. It is
unnecessary for the caller to increase the reference count of an
argument in anticipation of the object's retention.
All Python objects returned from functions should be treated as new
objects. Functions that return objects assume that the caller will
retain a reference and the reference count of the object has already
been incremented to account for this fact. A caller that does not
retain a reference to an object that is returned from a function
must decrement the reference count of the object (using
DECREF(object)) to prevent memory leaks.
Note that the behavior mentioned here is different from the current
behavior for some objects (e.g. lists and tuples) when certain
type-specific routines are called directly (e.g. setlistitem). The
proposed abstraction layer will provide a consistent memory
management interface, correcting for inconsistent behavior for some
built-in types.
Protocols
xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx*/
/* Object Protocol: */
/* Implemented elsewhere:
int PyObject_Print(PyObject *o, FILE *fp, int flags);
Print an object, o, on file, fp. Returns -1 on
error. The flags argument is used to enable certain printing
options. The only option currently supported is Py_Print_RAW.
(What should be said about Py_Print_RAW?)
*/
/* Implemented elsewhere:
int PyObject_HasAttrString(PyObject *o, const char *attr_name);
Returns 1 if o has the attribute attr_name, and 0 otherwise.
This is equivalent to the Python expression:
hasattr(o,attr_name).
This function always succeeds.
*/
/* Implemented elsewhere:
PyObject* PyObject_GetAttrString(PyObject *o, const char *attr_name);
Retrieve an attributed named attr_name form object o.
Returns the attribute value on success, or NULL on failure.
This is the equivalent of the Python expression: o.attr_name.
*/
/* Implemented elsewhere:
int PyObject_HasAttr(PyObject *o, PyObject *attr_name);
Returns 1 if o has the attribute attr_name, and 0 otherwise.
This is equivalent to the Python expression:
hasattr(o,attr_name).
This function always succeeds.
*/
/* Implemented elsewhere:
PyObject* PyObject_GetAttr(PyObject *o, PyObject *attr_name);
Retrieve an attributed named attr_name form object o.
Returns the attribute value on success, or NULL on failure.
This is the equivalent of the Python expression: o.attr_name.
*/
/* Implemented elsewhere:
int PyObject_SetAttrString(PyObject *o, const char *attr_name, PyObject *v);
Set the value of the attribute named attr_name, for object o,
to the value v. Raise an exception and return -1 on failure; return 0 on
success. This is the equivalent of the Python statement o.attr_name=v.
*/
/* Implemented elsewhere:
int PyObject_SetAttr(PyObject *o, PyObject *attr_name, PyObject *v);
Set the value of the attribute named attr_name, for object o,
to the value v. Raise an exception and return -1 on failure; return 0 on
success. This is the equivalent of the Python statement o.attr_name=v.
*/
/* implemented as a macro:
int PyObject_DelAttrString(PyObject *o, const char *attr_name);
Delete attribute named attr_name, for object o. Returns
-1 on failure. This is the equivalent of the Python
statement: del o.attr_name.
*/
#define PyObject_DelAttrString(O,A) PyObject_SetAttrString((O),(A),NULL)
/* implemented as a macro:
int PyObject_DelAttr(PyObject *o, PyObject *attr_name);
Delete attribute named attr_name, for object o. Returns -1
on failure. This is the equivalent of the Python
statement: del o.attr_name.
*/
#define PyObject_DelAttr(O,A) PyObject_SetAttr((O),(A),NULL)
/* Implemented elsewhere:
PyObject *PyObject_Repr(PyObject *o);
Compute the string representation of object, o. Returns the
string representation on success, NULL on failure. This is
the equivalent of the Python expression: repr(o).
Called by the repr() built-in function.
*/
/* Implemented elsewhere:
PyObject *PyObject_Str(PyObject *o);
Compute the string representation of object, o. Returns the
string representation on success, NULL on failure. This is
the equivalent of the Python expression: str(o).)
Called by the str() and print() built-in functions.
*/
/* Declared elsewhere
PyAPI_FUNC(int) PyCallable_Check(PyObject *o);
Determine if the object, o, is callable. Return 1 if the
object is callable and 0 otherwise.
This function always succeeds.
*/
PyAPI_FUNC(PyObject *) PyObject_Call(PyObject *callable_object,
PyObject *args, PyObject *kwargs);
/*
Call a callable Python object, callable_object, with
arguments and keywords arguments. The 'args' argument can not be
NULL.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) _PyStack_AsTuple(
PyObject **stack,
Py_ssize_t nargs);
/* Convert keyword arguments from the (stack, kwnames) format to a Python
dictionary.
kwnames must only contains str strings, no subclass, and all keys must
be unique. kwnames is not checked, usually these checks are done before or later
calling _PyStack_AsDict(). For example, _PyArg_ParseStack() raises an
error if a key is not a string. */
PyAPI_FUNC(PyObject *) _PyStack_AsDict(
PyObject **values,
PyObject *kwnames);
/* Convert (args, nargs, kwargs) into a (stack, nargs, kwnames).
Return a new stack which should be released by PyMem_Free(), or return
args unchanged if kwargs is NULL or an empty dictionary.
The stack uses borrowed references.
The type of keyword keys is not checked, these checks should be done
later (ex: _PyArg_ParseStack). */
PyAPI_FUNC(PyObject **) _PyStack_UnpackDict(
PyObject **args,
Py_ssize_t nargs,
PyObject *kwargs,
PyObject **kwnames,
PyObject *func);
/* Call the callable object func with the "fast call" calling convention:
args is a C array for positional arguments (nargs is the number of
positional arguments), kwargs is a dictionary for keyword arguments.
If nargs is equal to zero, args can be NULL. kwargs can be NULL.
nargs must be greater or equal to zero.
Return the result on success. Raise an exception on return NULL on
error. */
PyAPI_FUNC(PyObject *) _PyObject_FastCallDict(PyObject *func,
PyObject **args, Py_ssize_t nargs,
PyObject *kwargs);
/* Call the callable object func with the "fast call" calling convention:
args is a C array for positional arguments followed by values of
keyword arguments. Keys of keyword arguments are stored as a tuple
of strings in kwnames. nargs is the number of positional parameters at
the beginning of stack. The size of kwnames gives the number of keyword
values in the stack after positional arguments.
kwnames must only contains str strings, no subclass, and all keys must
be unique.
If nargs is equal to zero and there is no keyword argument (kwnames is
NULL or its size is zero), args can be NULL.
Return the result on success. Raise an exception and return NULL on
error. */
PyAPI_FUNC(PyObject *) _PyObject_FastCallKeywords
(PyObject *func,
PyObject **args,
Py_ssize_t nargs,
PyObject *kwnames);
#define _PyObject_FastCall(func, args, nargs) \
_PyObject_FastCallDict((func), (args), (nargs), NULL)
#define _PyObject_CallNoArg(func) \
_PyObject_FastCall((func), NULL, 0)
#define _PyObject_CallArg1(func, arg) \
_PyObject_FastCall((func), &(arg), 1)
PyAPI_FUNC(PyObject *) _PyObject_Call_Prepend(PyObject *func,
PyObject *obj, PyObject *args,
PyObject *kwargs);
PyAPI_FUNC(PyObject *) _Py_CheckFunctionResult(PyObject *func,
PyObject *result,
const char *where);
#endif /* Py_LIMITED_API */
PyAPI_FUNC(PyObject *) PyObject_CallObject(PyObject *callable_object,
PyObject *args);
/*
Call a callable Python object, callable_object, with
arguments given by the tuple, args. If no arguments are
needed, then args may be NULL. Returns the result of the
call on success, or NULL on failure. This is the equivalent
of the Python expression: o(*args).
*/
PyAPI_FUNC(PyObject *) PyObject_CallFunction(PyObject *callable_object,
const char *format, ...);
/*
Call a callable Python object, callable_object, with a
variable number of C arguments. The C arguments are described
using a mkvalue-style format string. The format may be NULL,
indicating that no arguments are provided. Returns the
result of the call on success, or NULL on failure. This is
the equivalent of the Python expression: o(*args).
*/
PyAPI_FUNC(PyObject *) PyObject_CallMethod(PyObject *o,
const char *method,
const char *format, ...);
/*
Call the method named m of object o with a variable number of
C arguments. The C arguments are described by a mkvalue
format string. The format may be NULL, indicating that no
arguments are provided. Returns the result of the call on
success, or NULL on failure. This is the equivalent of the
Python expression: o.method(args).
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyObject_CallMethodId(PyObject *o,
_Py_Identifier *method,
const char *format, ...);
/*
Like PyObject_CallMethod, but expect a _Py_Identifier* as the
method name.
*/
#endif /* !Py_LIMITED_API */
PyAPI_FUNC(PyObject *) _PyObject_CallFunction_SizeT(PyObject *callable,
const char *format,
...);
PyAPI_FUNC(PyObject *) _PyObject_CallMethod_SizeT(PyObject *o,
const char *name,
const char *format,
...);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyObject_CallMethodId_SizeT(PyObject *o,
_Py_Identifier *name,
const char *format,
...);
#endif /* !Py_LIMITED_API */
PyAPI_FUNC(PyObject *) PyObject_CallFunctionObjArgs(PyObject *callable,
...);
/*
Call a callable Python object, callable_object, with a
variable number of C arguments. The C arguments are provided
as PyObject * values, terminated by a NULL. Returns the
result of the call on success, or NULL on failure. This is
the equivalent of the Python expression: o(*args).
*/
PyAPI_FUNC(PyObject *) PyObject_CallMethodObjArgs(PyObject *o,
PyObject *method, ...);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyObject_CallMethodIdObjArgs(PyObject *o,
struct _Py_Identifier *method,
...);
#endif /* !Py_LIMITED_API */
/*
Call the method named m of object o with a variable number of
C arguments. The C arguments are provided as PyObject *
values, terminated by NULL. Returns the result of the call
on success, or NULL on failure. This is the equivalent of
the Python expression: o.method(args).
*/
/* Implemented elsewhere:
long PyObject_Hash(PyObject *o);
Compute and return the hash, hash_value, of an object, o. On
failure, return -1. This is the equivalent of the Python
expression: hash(o).
*/
/* Implemented elsewhere:
int PyObject_IsTrue(PyObject *o);
Returns 1 if the object, o, is considered to be true, 0 if o is
considered to be false and -1 on failure. This is equivalent to the
Python expression: not not o
*/
/* Implemented elsewhere:
int PyObject_Not(PyObject *o);
Returns 0 if the object, o, is considered to be true, 1 if o is
considered to be false and -1 on failure. This is equivalent to the
Python expression: not o
*/
PyAPI_FUNC(PyObject *) PyObject_Type(PyObject *o);
/*
On success, returns a type object corresponding to the object
type of object o. On failure, returns NULL. This is
equivalent to the Python expression: type(o).
*/
PyAPI_FUNC(Py_ssize_t) PyObject_Size(PyObject *o);
/*
Return the size of object o. If the object, o, provides
both sequence and mapping protocols, the sequence size is
returned. On error, -1 is returned. This is the equivalent
to the Python expression: len(o).
*/
/* For DLL compatibility */
#undef PyObject_Length
PyAPI_FUNC(Py_ssize_t) PyObject_Length(PyObject *o);
#define PyObject_Length PyObject_Size
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyObject_HasLen(PyObject *o);
PyAPI_FUNC(Py_ssize_t) PyObject_LengthHint(PyObject *o, Py_ssize_t);
#endif
/*
Guess the size of object o using len(o) or o.__length_hint__().
If neither of those return a non-negative value, then return the
default value. If one of the calls fails, this function returns -1.
*/
PyAPI_FUNC(PyObject *) PyObject_GetItem(PyObject *o, PyObject *key);
/*
Return element of o corresponding to the object, key, or NULL
on failure. This is the equivalent of the Python expression:
o[key].
*/
PyAPI_FUNC(int) PyObject_SetItem(PyObject *o, PyObject *key, PyObject *v);
/*
Map the object key to the value v. Raise an exception and return -1
on failure; return 0 on success. This is the equivalent of the Python
statement o[key]=v.
*/
PyAPI_FUNC(int) PyObject_DelItemString(PyObject *o, const char *key);
/*
Remove the mapping for object, key, from the object *o.
Returns -1 on failure. This is equivalent to
the Python statement: del o[key].
*/
PyAPI_FUNC(int) PyObject_DelItem(PyObject *o, PyObject *key);
/*
Delete the mapping for key from *o. Returns -1 on failure.
This is the equivalent of the Python statement: del o[key].
*/
/* old buffer API
FIXME: usage of these should all be replaced in Python itself
but for backwards compatibility we will implement them.
Their usage without a corresponding "unlock" mechanism
may create issues (but they would already be there). */
PyAPI_FUNC(int) PyObject_AsCharBuffer(PyObject *obj,
const char **buffer,
Py_ssize_t *buffer_len);
/*
Takes an arbitrary object which must support the (character,
single segment) buffer interface and returns a pointer to a
read-only memory location useable as character based input
for subsequent processing.
0 is returned on success. buffer and buffer_len are only
set in case no error occurs. Otherwise, -1 is returned and
an exception set.
*/
PyAPI_FUNC(int) PyObject_CheckReadBuffer(PyObject *obj);
/*
Checks whether an arbitrary object supports the (character,
single segment) buffer interface. Returns 1 on success, 0
on failure.
*/
PyAPI_FUNC(int) PyObject_AsReadBuffer(PyObject *obj,
const void **buffer,
Py_ssize_t *buffer_len);
/*
Same as PyObject_AsCharBuffer() except that this API expects
(readable, single segment) buffer interface and returns a
pointer to a read-only memory location which can contain
arbitrary data.
0 is returned on success. buffer and buffer_len are only
set in case no error occurs. Otherwise, -1 is returned and
an exception set.
*/
PyAPI_FUNC(int) PyObject_AsWriteBuffer(PyObject *obj,
void **buffer,
Py_ssize_t *buffer_len);
/*
Takes an arbitrary object which must support the (writable,
single segment) buffer interface and returns a pointer to a
writable memory location in buffer of size buffer_len.
0 is returned on success. buffer and buffer_len are only
set in case no error occurs. Otherwise, -1 is returned and
an exception set.
*/
/* new buffer API */
#ifndef Py_LIMITED_API
#define PyObject_CheckBuffer(obj) \
(((obj)->ob_type->tp_as_buffer != NULL) && \
((obj)->ob_type->tp_as_buffer->bf_getbuffer != NULL))
/* Return 1 if the getbuffer function is available, otherwise
return 0 */
PyAPI_FUNC(int) PyObject_GetBuffer(PyObject *obj, Py_buffer *view,
int flags);
/* This is a C-API version of the getbuffer function call. It checks
to make sure object has the required function pointer and issues the
call. Returns -1 and raises an error on failure and returns 0 on
success
*/
PyAPI_FUNC(void *) PyBuffer_GetPointer(Py_buffer *view, Py_ssize_t *indices);
/* Get the memory area pointed to by the indices for the buffer given.
Note that view->ndim is the assumed size of indices
*/
PyAPI_FUNC(int) PyBuffer_SizeFromFormat(const char *);
/* Return the implied itemsize of the data-format area from a
struct-style description */
/* Implementation in memoryobject.c */
PyAPI_FUNC(int) PyBuffer_ToContiguous(void *buf, Py_buffer *view,
Py_ssize_t len, char order);
PyAPI_FUNC(int) PyBuffer_FromContiguous(Py_buffer *view, void *buf,
Py_ssize_t len, char order);
/* Copy len bytes of data from the contiguous chunk of memory
pointed to by buf into the buffer exported by obj. Return
0 on success and return -1 and raise a PyBuffer_Error on
error (i.e. the object does not have a buffer interface or
it is not working).
If fort is 'F', then if the object is multi-dimensional,
then the data will be copied into the array in
Fortran-style (first dimension varies the fastest). If
fort is 'C', then the data will be copied into the array
in C-style (last dimension varies the fastest). If fort
is 'A', then it does not matter and the copy will be made
in whatever way is more efficient.
*/
PyAPI_FUNC(int) PyObject_CopyData(PyObject *dest, PyObject *src);
/* Copy the data from the src buffer to the buffer of destination
*/
PyAPI_FUNC(int) PyBuffer_IsContiguous(const Py_buffer *view, char fort);
PyAPI_FUNC(void) PyBuffer_FillContiguousStrides(int ndims,
Py_ssize_t *shape,
Py_ssize_t *strides,
int itemsize,
char fort);
/* Fill the strides array with byte-strides of a contiguous
(Fortran-style if fort is 'F' or C-style otherwise)
array of the given shape with the given number of bytes
per element.
*/
PyAPI_FUNC(int) PyBuffer_FillInfo(Py_buffer *view, PyObject *o, void *buf,
Py_ssize_t len, int readonly,
int flags);
/* Fills in a buffer-info structure correctly for an exporter
that can only share a contiguous chunk of memory of
"unsigned bytes" of the given length. Returns 0 on success
and -1 (with raising an error) on error.
*/
PyAPI_FUNC(void) PyBuffer_Release(Py_buffer *view);
/* Releases a Py_buffer obtained from getbuffer ParseTuple's s*.
*/
#endif /* Py_LIMITED_API */
PyAPI_FUNC(PyObject *) PyObject_Format(PyObject* obj,
PyObject *format_spec);
/*
Takes an arbitrary object and returns the result of
calling obj.__format__(format_spec).
*/
/* Iterators */
PyAPI_FUNC(PyObject *) PyObject_GetIter(PyObject *);
/* Takes an object and returns an iterator for it.
This is typically a new iterator but if the argument
is an iterator, this returns itself. */
#define PyIter_Check(obj) \
((obj)->ob_type->tp_iternext != NULL && \
(obj)->ob_type->tp_iternext != &_PyObject_NextNotImplemented)
PyAPI_FUNC(PyObject *) PyIter_Next(PyObject *);
/* Takes an iterator object and calls its tp_iternext slot,
returning the next value. If the iterator is exhausted,
this returns NULL without setting an exception.
NULL with an exception means an error occurred. */
/* Number Protocol:*/
PyAPI_FUNC(int) PyNumber_Check(PyObject *o);
/*
Returns 1 if the object, o, provides numeric protocols, and
false otherwise.
This function always succeeds.
*/
PyAPI_FUNC(PyObject *) PyNumber_Add(PyObject *o1, PyObject *o2);
/*
Returns the result of adding o1 and o2, or null on failure.
This is the equivalent of the Python expression: o1+o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_Subtract(PyObject *o1, PyObject *o2);
/*
Returns the result of subtracting o2 from o1, or null on
failure. This is the equivalent of the Python expression:
o1-o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_Multiply(PyObject *o1, PyObject *o2);
/*
Returns the result of multiplying o1 and o2, or null on
failure. This is the equivalent of the Python expression:
o1*o2.
*/
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_FUNC(PyObject *) PyNumber_MatrixMultiply(PyObject *o1, PyObject *o2);
/*
This is the equivalent of the Python expression: o1 @ o2.
*/
#endif
PyAPI_FUNC(PyObject *) PyNumber_FloorDivide(PyObject *o1, PyObject *o2);
/*
Returns the result of dividing o1 by o2 giving an integral result,
or null on failure.
This is the equivalent of the Python expression: o1//o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_TrueDivide(PyObject *o1, PyObject *o2);
/*
Returns the result of dividing o1 by o2 giving a float result,
or null on failure.
This is the equivalent of the Python expression: o1/o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_Remainder(PyObject *o1, PyObject *o2);
/*
Returns the remainder of dividing o1 by o2, or null on
failure. This is the equivalent of the Python expression:
o1%o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_Divmod(PyObject *o1, PyObject *o2);
/*
See the built-in function divmod. Returns NULL on failure.
This is the equivalent of the Python expression:
divmod(o1,o2).
*/
PyAPI_FUNC(PyObject *) PyNumber_Power(PyObject *o1, PyObject *o2,
PyObject *o3);
/*
See the built-in function pow. Returns NULL on failure.
This is the equivalent of the Python expression:
pow(o1,o2,o3), where o3 is optional.
*/
PyAPI_FUNC(PyObject *) PyNumber_Negative(PyObject *o);
/*
Returns the negation of o on success, or null on failure.
This is the equivalent of the Python expression: -o.
*/
PyAPI_FUNC(PyObject *) PyNumber_Positive(PyObject *o);
/*
Returns the (what?) of o on success, or NULL on failure.
This is the equivalent of the Python expression: +o.
*/
PyAPI_FUNC(PyObject *) PyNumber_Absolute(PyObject *o);
/*
Returns the absolute value of o, or null on failure. This is
the equivalent of the Python expression: abs(o).
*/
PyAPI_FUNC(PyObject *) PyNumber_Invert(PyObject *o);
/*
Returns the bitwise negation of o on success, or NULL on
failure. This is the equivalent of the Python expression:
~o.
*/
PyAPI_FUNC(PyObject *) PyNumber_Lshift(PyObject *o1, PyObject *o2);
/*
Returns the result of left shifting o1 by o2 on success, or
NULL on failure. This is the equivalent of the Python
expression: o1 << o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_Rshift(PyObject *o1, PyObject *o2);
/*
Returns the result of right shifting o1 by o2 on success, or
NULL on failure. This is the equivalent of the Python
expression: o1 >> o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_And(PyObject *o1, PyObject *o2);
/*
Returns the result of bitwise and of o1 and o2 on success, or
NULL on failure. This is the equivalent of the Python
expression: o1&o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_Xor(PyObject *o1, PyObject *o2);
/*
Returns the bitwise exclusive or of o1 by o2 on success, or
NULL on failure. This is the equivalent of the Python
expression: o1^o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_Or(PyObject *o1, PyObject *o2);
/*
Returns the result of bitwise or on o1 and o2 on success, or
NULL on failure. This is the equivalent of the Python
expression: o1|o2.
*/
#define PyIndex_Check(obj) \
((obj)->ob_type->tp_as_number != NULL && \
(obj)->ob_type->tp_as_number->nb_index != NULL)
PyAPI_FUNC(PyObject *) PyNumber_Index(PyObject *o);
/*
Returns the object converted to a Python int
or NULL with an error raised on failure.
*/
PyAPI_FUNC(Py_ssize_t) PyNumber_AsSsize_t(PyObject *o, PyObject *exc);
/*
Returns the object converted to Py_ssize_t by going through
PyNumber_Index first. If an overflow error occurs while
converting the int to Py_ssize_t, then the second argument
is the error-type to return. If it is NULL, then the overflow error
is cleared and the value is clipped.
*/
PyAPI_FUNC(PyObject *) PyNumber_Long(PyObject *o);
/*
Returns the o converted to an integer object on success, or
NULL on failure. This is the equivalent of the Python
expression: int(o).
*/
PyAPI_FUNC(PyObject *) PyNumber_Float(PyObject *o);
/*
Returns the o converted to a float object on success, or NULL
on failure. This is the equivalent of the Python expression:
float(o).
*/
/* In-place variants of (some of) the above number protocol functions */
PyAPI_FUNC(PyObject *) PyNumber_InPlaceAdd(PyObject *o1, PyObject *o2);
/*
Returns the result of adding o2 to o1, possibly in-place, or null
on failure. This is the equivalent of the Python expression:
o1 += o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlaceSubtract(PyObject *o1, PyObject *o2);
/*
Returns the result of subtracting o2 from o1, possibly in-place or
null on failure. This is the equivalent of the Python expression:
o1 -= o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlaceMultiply(PyObject *o1, PyObject *o2);
/*
Returns the result of multiplying o1 by o2, possibly in-place, or
null on failure. This is the equivalent of the Python expression:
o1 *= o2.
*/
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_FUNC(PyObject *) PyNumber_InPlaceMatrixMultiply(PyObject *o1, PyObject *o2);
/*
This is the equivalent of the Python expression: o1 @= o2.
*/
#endif
PyAPI_FUNC(PyObject *) PyNumber_InPlaceFloorDivide(PyObject *o1,
PyObject *o2);
/*
Returns the result of dividing o1 by o2 giving an integral result,
possibly in-place, or null on failure.
This is the equivalent of the Python expression:
o1 /= o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlaceTrueDivide(PyObject *o1,
PyObject *o2);
/*
Returns the result of dividing o1 by o2 giving a float result,
possibly in-place, or null on failure.
This is the equivalent of the Python expression:
o1 /= o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlaceRemainder(PyObject *o1, PyObject *o2);
/*
Returns the remainder of dividing o1 by o2, possibly in-place, or
null on failure. This is the equivalent of the Python expression:
o1 %= o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlacePower(PyObject *o1, PyObject *o2,
PyObject *o3);
/*
Returns the result of raising o1 to the power of o2, possibly
in-place, or null on failure. This is the equivalent of the Python
expression: o1 **= o2, or pow(o1, o2, o3) if o3 is present.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlaceLshift(PyObject *o1, PyObject *o2);
/*
Returns the result of left shifting o1 by o2, possibly in-place, or
null on failure. This is the equivalent of the Python expression:
o1 <<= o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlaceRshift(PyObject *o1, PyObject *o2);
/*
Returns the result of right shifting o1 by o2, possibly in-place or
null on failure. This is the equivalent of the Python expression:
o1 >>= o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlaceAnd(PyObject *o1, PyObject *o2);
/*
Returns the result of bitwise and of o1 and o2, possibly in-place,
or null on failure. This is the equivalent of the Python
expression: o1 &= o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlaceXor(PyObject *o1, PyObject *o2);
/*
Returns the bitwise exclusive or of o1 by o2, possibly in-place, or
null on failure. This is the equivalent of the Python expression:
o1 ^= o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_InPlaceOr(PyObject *o1, PyObject *o2);
/*
Returns the result of bitwise or of o1 and o2, possibly in-place,
or null on failure. This is the equivalent of the Python
expression: o1 |= o2.
*/
PyAPI_FUNC(PyObject *) PyNumber_ToBase(PyObject *n, int base);
/*
Returns the integer n converted to a string with a base, with a base
marker of 0b, 0o or 0x prefixed if applicable.
If n is not an int object, it is converted with PyNumber_Index first.
*/
/* Sequence protocol:*/
PyAPI_FUNC(int) PySequence_Check(PyObject *o);
/*
Return 1 if the object provides sequence protocol, and zero
otherwise.
This function always succeeds.
*/
PyAPI_FUNC(Py_ssize_t) PySequence_Size(PyObject *o);
/*
Return the size of sequence object o, or -1 on failure.
*/
/* For DLL compatibility */
#undef PySequence_Length
PyAPI_FUNC(Py_ssize_t) PySequence_Length(PyObject *o);
#define PySequence_Length PySequence_Size
PyAPI_FUNC(PyObject *) PySequence_Concat(PyObject *o1, PyObject *o2);
/*
Return the concatenation of o1 and o2 on success, and NULL on
failure. This is the equivalent of the Python
expression: o1+o2.
*/
PyAPI_FUNC(PyObject *) PySequence_Repeat(PyObject *o, Py_ssize_t count);
/*
Return the result of repeating sequence object o count times,
or NULL on failure. This is the equivalent of the Python
expression: o1*count.
*/
PyAPI_FUNC(PyObject *) PySequence_GetItem(PyObject *o, Py_ssize_t i);
/*
Return the ith element of o, or NULL on failure. This is the
equivalent of the Python expression: o[i].
*/
PyAPI_FUNC(PyObject *) PySequence_GetSlice(PyObject *o, Py_ssize_t i1, Py_ssize_t i2);
/*
Return the slice of sequence object o between i1 and i2, or
NULL on failure. This is the equivalent of the Python
expression: o[i1:i2].
*/
PyAPI_FUNC(int) PySequence_SetItem(PyObject *o, Py_ssize_t i, PyObject *v);
/*
Assign object v to the ith element of o. Raise an exception and return
-1 on failure; return 0 on success. This is the equivalent of the
Python statement o[i]=v.
*/
PyAPI_FUNC(int) PySequence_DelItem(PyObject *o, Py_ssize_t i);
/*
Delete the ith element of object v. Returns
-1 on failure. This is the equivalent of the Python
statement: del o[i].
*/
PyAPI_FUNC(int) PySequence_SetSlice(PyObject *o, Py_ssize_t i1, Py_ssize_t i2,
PyObject *v);
/*
Assign the sequence object, v, to the slice in sequence
object, o, from i1 to i2. Returns -1 on failure. This is the
equivalent of the Python statement: o[i1:i2]=v.
*/
PyAPI_FUNC(int) PySequence_DelSlice(PyObject *o, Py_ssize_t i1, Py_ssize_t i2);
/*
Delete the slice in sequence object, o, from i1 to i2.
Returns -1 on failure. This is the equivalent of the Python
statement: del o[i1:i2].
*/
PyAPI_FUNC(PyObject *) PySequence_Tuple(PyObject *o);
/*
Returns the sequence, o, as a tuple on success, and NULL on failure.
This is equivalent to the Python expression: tuple(o)
*/
PyAPI_FUNC(PyObject *) PySequence_List(PyObject *o);
/*
Returns the sequence, o, as a list on success, and NULL on failure.
This is equivalent to the Python expression: list(o)
*/
PyAPI_FUNC(PyObject *) PySequence_Fast(PyObject *o, const char* m);
/*
Return the sequence, o, as a list, unless it's already a
tuple or list. Use PySequence_Fast_GET_ITEM to access the
members of this list, and PySequence_Fast_GET_SIZE to get its length.
Returns NULL on failure. If the object does not support iteration,
raises a TypeError exception with m as the message text.
*/
#define PySequence_Fast_GET_SIZE(o) \
(PyList_Check(o) ? PyList_GET_SIZE(o) : PyTuple_GET_SIZE(o))
/*
Return the size of o, assuming that o was returned by
PySequence_Fast and is not NULL.
*/
#define PySequence_Fast_GET_ITEM(o, i)\
(PyList_Check(o) ? PyList_GET_ITEM(o, i) : PyTuple_GET_ITEM(o, i))
/*
Return the ith element of o, assuming that o was returned by
PySequence_Fast, and that i is within bounds.
*/
#define PySequence_ITEM(o, i)\
( Py_TYPE(o)->tp_as_sequence->sq_item(o, i) )
/* Assume tp_as_sequence and sq_item exist and that i does not
need to be corrected for a negative index
*/
#define PySequence_Fast_ITEMS(sf) \
(PyList_Check(sf) ? ((PyListObject *)(sf))->ob_item \
: ((PyTupleObject *)(sf))->ob_item)
/* Return a pointer to the underlying item array for
an object retured by PySequence_Fast */
PyAPI_FUNC(Py_ssize_t) PySequence_Count(PyObject *o, PyObject *value);
/*
Return the number of occurrences on value on o, that is,
return the number of keys for which o[key]==value. On
failure, return -1. This is equivalent to the Python
expression: o.count(value).
*/
PyAPI_FUNC(int) PySequence_Contains(PyObject *seq, PyObject *ob);
/*
Return -1 if error; 1 if ob in seq; 0 if ob not in seq.
Use __contains__ if possible, else _PySequence_IterSearch().
*/
#ifndef Py_LIMITED_API
#define PY_ITERSEARCH_COUNT 1
#define PY_ITERSEARCH_INDEX 2
#define PY_ITERSEARCH_CONTAINS 3
PyAPI_FUNC(Py_ssize_t) _PySequence_IterSearch(PyObject *seq,
PyObject *obj, int operation);
#endif
/*
Iterate over seq. Result depends on the operation:
PY_ITERSEARCH_COUNT: return # of times obj appears in seq; -1 if
error.
PY_ITERSEARCH_INDEX: return 0-based index of first occurrence of
obj in seq; set ValueError and return -1 if none found;
also return -1 on error.
PY_ITERSEARCH_CONTAINS: return 1 if obj in seq, else 0; -1 on
error.
*/
/* For DLL-level backwards compatibility */
#undef PySequence_In
PyAPI_FUNC(int) PySequence_In(PyObject *o, PyObject *value);
/* For source-level backwards compatibility */
#define PySequence_In PySequence_Contains
/*
Determine if o contains value. If an item in o is equal to
X, return 1, otherwise return 0. On error, return -1. This
is equivalent to the Python expression: value in o.
*/
PyAPI_FUNC(Py_ssize_t) PySequence_Index(PyObject *o, PyObject *value);
/*
Return the first index for which o[i]=value. On error,
return -1. This is equivalent to the Python
expression: o.index(value).
*/
/* In-place versions of some of the above Sequence functions. */
PyAPI_FUNC(PyObject *) PySequence_InPlaceConcat(PyObject *o1, PyObject *o2);
/*
Append o2 to o1, in-place when possible. Return the resulting
object, which could be o1, or NULL on failure. This is the
equivalent of the Python expression: o1 += o2.
*/
PyAPI_FUNC(PyObject *) PySequence_InPlaceRepeat(PyObject *o, Py_ssize_t count);
/*
Repeat o1 by count, in-place when possible. Return the resulting
object, which could be o1, or NULL on failure. This is the
equivalent of the Python expression: o1 *= count.
*/
/* Mapping protocol:*/
PyAPI_FUNC(int) PyMapping_Check(PyObject *o);
/*
Return 1 if the object provides mapping protocol, and zero
otherwise.
This function always succeeds.
*/
PyAPI_FUNC(Py_ssize_t) PyMapping_Size(PyObject *o);
/*
Returns the number of keys in object o on success, and -1 on
failure. For objects that do not provide sequence protocol,
this is equivalent to the Python expression: len(o).
*/
/* For DLL compatibility */
#undef PyMapping_Length
PyAPI_FUNC(Py_ssize_t) PyMapping_Length(PyObject *o);
#define PyMapping_Length PyMapping_Size
/* implemented as a macro:
int PyMapping_DelItemString(PyObject *o, const char *key);
Remove the mapping for object, key, from the object *o.
Returns -1 on failure. This is equivalent to
the Python statement: del o[key].
*/
#define PyMapping_DelItemString(O,K) PyObject_DelItemString((O),(K))
/* implemented as a macro:
int PyMapping_DelItem(PyObject *o, PyObject *key);
Remove the mapping for object, key, from the object *o.
Returns -1 on failure. This is equivalent to
the Python statement: del o[key].
*/
#define PyMapping_DelItem(O,K) PyObject_DelItem((O),(K))
PyAPI_FUNC(int) PyMapping_HasKeyString(PyObject *o, const char *key);
/*
On success, return 1 if the mapping object has the key, key,
and 0 otherwise. This is equivalent to the Python expression:
key in o.
This function always succeeds.
*/
PyAPI_FUNC(int) PyMapping_HasKey(PyObject *o, PyObject *key);
/*
Return 1 if the mapping object has the key, key,
and 0 otherwise. This is equivalent to the Python expression:
key in o.
This function always succeeds.
*/
PyAPI_FUNC(PyObject *) PyMapping_Keys(PyObject *o);
/*
On success, return a list or tuple of the keys in object o.
On failure, return NULL.
*/
PyAPI_FUNC(PyObject *) PyMapping_Values(PyObject *o);
/*
On success, return a list or tuple of the values in object o.
On failure, return NULL.
*/
PyAPI_FUNC(PyObject *) PyMapping_Items(PyObject *o);
/*
On success, return a list or tuple of the items in object o,
where each item is a tuple containing a key-value pair.
On failure, return NULL.
*/
PyAPI_FUNC(PyObject *) PyMapping_GetItemString(PyObject *o,
const char *key);
/*
Return element of o corresponding to the object, key, or NULL
on failure. This is the equivalent of the Python expression:
o[key].
*/
PyAPI_FUNC(int) PyMapping_SetItemString(PyObject *o, const char *key,
PyObject *value);
/*
Map the object, key, to the value, v. Returns
-1 on failure. This is the equivalent of the Python
statement: o[key]=v.
*/
PyAPI_FUNC(int) PyObject_IsInstance(PyObject *object, PyObject *typeorclass);
/* isinstance(object, typeorclass) */
PyAPI_FUNC(int) PyObject_IsSubclass(PyObject *object, PyObject *typeorclass);
/* issubclass(object, typeorclass) */
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyObject_RealIsInstance(PyObject *inst, PyObject *cls);
PyAPI_FUNC(int) _PyObject_RealIsSubclass(PyObject *derived, PyObject *cls);
PyAPI_FUNC(char *const *) _PySequence_BytesToCharpArray(PyObject* self);
PyAPI_FUNC(void) _Py_FreeCharPArray(char *const array[]);
/* For internal use by buffer API functions */
PyAPI_FUNC(void) _Py_add_one_to_index_F(int nd, Py_ssize_t *index,
const Py_ssize_t *shape);
PyAPI_FUNC(void) _Py_add_one_to_index_C(int nd, Py_ssize_t *index,
const Py_ssize_t *shape);
#endif /* !Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* Py_ABSTRACTOBJECT_H */
Raw
Frikr_Include_accu.h
#ifndef Py_LIMITED_API
#ifndef Py_ACCU_H
#define Py_ACCU_H
/*** This is a private API for use by the interpreter and the stdlib.
*** Its definition may be changed or removed at any moment.
***/
/*
* A two-level accumulator of unicode objects that avoids both the overhead
* of keeping a huge number of small separate objects, and the quadratic
* behaviour of using a naive repeated concatenation scheme.
*/
#ifdef __cplusplus
extern "C" {
#endif
#undef small /* defined by some Windows headers */
typedef struct {
PyObject *large; /* A list of previously accumulated large strings */
PyObject *small; /* Pending small strings */
} _PyAccu;
PyAPI_FUNC(int) _PyAccu_Init(_PyAccu *acc);
PyAPI_FUNC(int) _PyAccu_Accumulate(_PyAccu *acc, PyObject *unicode);
PyAPI_FUNC(PyObject *) _PyAccu_FinishAsList(_PyAccu *acc);
PyAPI_FUNC(PyObject *) _PyAccu_Finish(_PyAccu *acc);
PyAPI_FUNC(void) _PyAccu_Destroy(_PyAccu *acc);
#ifdef __cplusplus
}
#endif
#endif /* Py_ACCU_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_asdl.h
#ifndef Py_ASDL_H
#define Py_ASDL_H
typedef PyObject * identifier;
typedef PyObject * string;
typedef PyObject * bytes;
typedef PyObject * object;
typedef PyObject * singleton;
typedef PyObject * constant;
/* It would be nice if the code generated by asdl_c.py was completely
independent of Python, but it is a goal the requires too much work
at this stage. So, for example, I'll represent identifiers as
interned Python strings.
*/
/* XXX A sequence should be typed so that its use can be typechecked. */
typedef struct {
Py_ssize_t size;
void *elements[1];
} asdl_seq;
typedef struct {
Py_ssize_t size;
int elements[1];
} asdl_int_seq;
asdl_seq *_Py_asdl_seq_new(Py_ssize_t size, PyArena *arena);
asdl_int_seq *_Py_asdl_int_seq_new(Py_ssize_t size, PyArena *arena);
#define asdl_seq_GET(S, I) (S)->elements[(I)]
#define asdl_seq_LEN(S) ((S) == NULL ? 0 : (S)->size)
#ifdef Py_DEBUG
#define asdl_seq_SET(S, I, V) \
do { \
Py_ssize_t _asdl_i = (I); \
assert((S) != NULL); \
assert(_asdl_i < (S)->size); \
(S)->elements[_asdl_i] = (V); \
} while (0)
#else
#define asdl_seq_SET(S, I, V) (S)->elements[I] = (V)
#endif
#endif /* !Py_ASDL_H */
Raw
Frikr_Include_ast.h
#ifndef Py_AST_H
#define Py_AST_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_FUNC(int) PyAST_Validate(mod_ty);
PyAPI_FUNC(mod_ty) PyAST_FromNode(
const node *n,
PyCompilerFlags *flags,
const char *filename, /* decoded from the filesystem encoding */
PyArena *arena);
PyAPI_FUNC(mod_ty) PyAST_FromNodeObject(
const node *n,
PyCompilerFlags *flags,
PyObject *filename,
PyArena *arena);
#ifdef __cplusplus
}
#endif
#endif /* !Py_AST_H */
Raw
Frikr_Include_bitset.h
#ifndef Py_BITSET_H
#define Py_BITSET_H
#ifdef __cplusplus
extern "C" {
#endif
/* Bitset interface */
#define BYTE char
typedef BYTE *bitset;
bitset newbitset(int nbits);
void delbitset(bitset bs);
#define testbit(ss, ibit) (((ss)[BIT2BYTE(ibit)] & BIT2MASK(ibit)) != 0)
int addbit(bitset bs, int ibit); /* Returns 0 if already set */
int samebitset(bitset bs1, bitset bs2, int nbits);
void mergebitset(bitset bs1, bitset bs2, int nbits);
#define BITSPERBYTE (8*sizeof(BYTE))
#define NBYTES(nbits) (((nbits) + BITSPERBYTE - 1) / BITSPERBYTE)
#define BIT2BYTE(ibit) ((ibit) / BITSPERBYTE)
#define BIT2SHIFT(ibit) ((ibit) % BITSPERBYTE)
#define BIT2MASK(ibit) (1 << BIT2SHIFT(ibit))
#define BYTE2BIT(ibyte) ((ibyte) * BITSPERBYTE)
#ifdef __cplusplus
}
#endif
#endif /* !Py_BITSET_H */
Raw
Frikr_Include_bltinmodule.h
#ifndef Py_BLTINMODULE_H
#define Py_BLTINMODULE_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_DATA(PyTypeObject) PyFilter_Type;
PyAPI_DATA(PyTypeObject) PyMap_Type;
PyAPI_DATA(PyTypeObject) PyZip_Type;
#ifdef __cplusplus
}
#endif
#endif /* !Py_BLTINMODULE_H */
Raw
Frikr_Include_boolobject.h
/* Boolean object interface */
#ifndef Py_BOOLOBJECT_H
#define Py_BOOLOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_DATA(PyTypeObject) PyBool_Type;
#define PyBool_Check(x) (Py_TYPE(x) == &PyBool_Type)
/* Py_False and Py_True are the only two bools in existence.
Don't forget to apply Py_INCREF() when returning either!!! */
/* Don't use these directly */
PyAPI_DATA(struct _longobject) _Py_FalseStruct, _Py_TrueStruct;
/* Use these macros */
#define Py_False ((PyObject *) &_Py_FalseStruct)
#define Py_True ((PyObject *) &_Py_TrueStruct)
/* Macros for returning Py_True or Py_False, respectively */
#define Py_RETURN_TRUE return Py_INCREF(Py_True), Py_True
#define Py_RETURN_FALSE return Py_INCREF(Py_False), Py_False
/* Function to return a bool from a C long */
PyAPI_FUNC(PyObject *) PyBool_FromLong(long);
#ifdef __cplusplus
}
#endif
#endif /* !Py_BOOLOBJECT_H */
Raw
Frikr_Include_bytearrayobject.h
/* ByteArray object interface */
#ifndef Py_BYTEARRAYOBJECT_H
#define Py_BYTEARRAYOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#include <stdarg.h>
/* Type PyByteArrayObject represents a mutable array of bytes.
* The Python API is that of a sequence;
* the bytes are mapped to ints in [0, 256).
* Bytes are not characters; they may be used to encode characters.
* The only way to go between bytes and str/unicode is via encoding
* and decoding.
* For the convenience of C programmers, the bytes type is considered
* to contain a char pointer, not an unsigned char pointer.
*/
/* Object layout */
#ifndef Py_LIMITED_API
typedef struct {
PyObject_VAR_HEAD
Py_ssize_t ob_alloc; /* How many bytes allocated in ob_bytes */
char *ob_bytes; /* Physical backing buffer */
char *ob_start; /* Logical start inside ob_bytes */
/* XXX(nnorwitz): should ob_exports be Py_ssize_t? */
int ob_exports; /* How many buffer exports */
} PyByteArrayObject;
#endif
/* Type object */
PyAPI_DATA(PyTypeObject) PyByteArray_Type;
PyAPI_DATA(PyTypeObject) PyByteArrayIter_Type;
/* Type check macros */
#define PyByteArray_Check(self) PyObject_TypeCheck(self, &PyByteArray_Type)
#define PyByteArray_CheckExact(self) (Py_TYPE(self) == &PyByteArray_Type)
/* Direct API functions */
PyAPI_FUNC(PyObject *) PyByteArray_FromObject(PyObject *);
PyAPI_FUNC(PyObject *) PyByteArray_Concat(PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyByteArray_FromStringAndSize(const char *, Py_ssize_t);
PyAPI_FUNC(Py_ssize_t) PyByteArray_Size(PyObject *);
PyAPI_FUNC(char *) PyByteArray_AsString(PyObject *);
PyAPI_FUNC(int) PyByteArray_Resize(PyObject *, Py_ssize_t);
/* Macros, trading safety for speed */
#ifndef Py_LIMITED_API
#define PyByteArray_AS_STRING(self) \
(assert(PyByteArray_Check(self)), \
Py_SIZE(self) ? ((PyByteArrayObject *)(self))->ob_start : _PyByteArray_empty_string)
#define PyByteArray_GET_SIZE(self) (assert(PyByteArray_Check(self)), Py_SIZE(self))
PyAPI_DATA(char) _PyByteArray_empty_string[];
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_BYTEARRAYOBJECT_H */
Raw
Frikr_Include_bytes_methods.h
#ifndef Py_LIMITED_API
#ifndef Py_BYTES_CTYPE_H
#define Py_BYTES_CTYPE_H
/*
* The internal implementation behind PyBytes (bytes) and PyByteArray (bytearray)
* methods of the given names, they operate on ASCII byte strings.
*/
extern PyObject* _Py_bytes_isspace(const char *cptr, Py_ssize_t len);
extern PyObject* _Py_bytes_isalpha(const char *cptr, Py_ssize_t len);
extern PyObject* _Py_bytes_isalnum(const char *cptr, Py_ssize_t len);
extern PyObject* _Py_bytes_isdigit(const char *cptr, Py_ssize_t len);
extern PyObject* _Py_bytes_islower(const char *cptr, Py_ssize_t len);
extern PyObject* _Py_bytes_isupper(const char *cptr, Py_ssize_t len);
extern PyObject* _Py_bytes_istitle(const char *cptr, Py_ssize_t len);
/* These store their len sized answer in the given preallocated *result arg. */
extern void _Py_bytes_lower(char *result, const char *cptr, Py_ssize_t len);
extern void _Py_bytes_upper(char *result, const char *cptr, Py_ssize_t len);
extern void _Py_bytes_title(char *result, const char *s, Py_ssize_t len);
extern void _Py_bytes_capitalize(char *result, const char *s, Py_ssize_t len);
extern void _Py_bytes_swapcase(char *result, const char *s, Py_ssize_t len);
extern PyObject *_Py_bytes_find(const char *str, Py_ssize_t len, PyObject *args);
extern PyObject *_Py_bytes_index(const char *str, Py_ssize_t len, PyObject *args);
extern PyObject *_Py_bytes_rfind(const char *str, Py_ssize_t len, PyObject *args);
extern PyObject *_Py_bytes_rindex(const char *str, Py_ssize_t len, PyObject *args);
extern PyObject *_Py_bytes_count(const char *str, Py_ssize_t len, PyObject *args);
extern int _Py_bytes_contains(const char *str, Py_ssize_t len, PyObject *arg);
extern PyObject *_Py_bytes_startswith(const char *str, Py_ssize_t len, PyObject *args);
extern PyObject *_Py_bytes_endswith(const char *str, Py_ssize_t len, PyObject *args);
/* The maketrans() static method. */
extern PyObject* _Py_bytes_maketrans(Py_buffer *frm, Py_buffer *to);
/* Shared __doc__ strings. */
extern const char _Py_isspace__doc__[];
extern const char _Py_isalpha__doc__[];
extern const char _Py_isalnum__doc__[];
extern const char _Py_isdigit__doc__[];
extern const char _Py_islower__doc__[];
extern const char _Py_isupper__doc__[];
extern const char _Py_istitle__doc__[];
extern const char _Py_lower__doc__[];
extern const char _Py_upper__doc__[];
extern const char _Py_title__doc__[];
extern const char _Py_capitalize__doc__[];
extern const char _Py_swapcase__doc__[];
extern const char _Py_count__doc__[];
extern const char _Py_find__doc__[];
extern const char _Py_index__doc__[];
extern const char _Py_rfind__doc__[];
extern const char _Py_rindex__doc__[];
extern const char _Py_startswith__doc__[];
extern const char _Py_endswith__doc__[];
extern const char _Py_maketrans__doc__[];
extern const char _Py_expandtabs__doc__[];
extern const char _Py_ljust__doc__[];
extern const char _Py_rjust__doc__[];
extern const char _Py_center__doc__[];
extern const char _Py_zfill__doc__[];
/* this is needed because some docs are shared from the .o, not static */
#define PyDoc_STRVAR_shared(name,str) const char name[] = PyDoc_STR(str)
#endif /* !Py_BYTES_CTYPE_H */
#endif /* !Py_LIMITED_API */
Raw
Frikr_Include_bytesobject.h
/* Bytes (String) object interface */
#ifndef Py_BYTESOBJECT_H
#define Py_BYTESOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#include <stdarg.h>
/*
Type PyBytesObject represents a character string. An extra zero byte is
reserved at the end to ensure it is zero-terminated, but a size is
present so strings with null bytes in them can be represented. This
is an immutable object type.
There are functions to create new string objects, to test
an object for string-ness, and to get the
string value. The latter function returns a null pointer
if the object is not of the proper type.
There is a variant that takes an explicit size as well as a
variant that assumes a zero-terminated string. Note that none of the
functions should be applied to nil objects.
*/
/* Caching the hash (ob_shash) saves recalculation of a string's hash value.
This significantly speeds up dict lookups. */
#ifndef Py_LIMITED_API
typedef struct {
PyObject_VAR_HEAD
Py_hash_t ob_shash;
char ob_sval[1];
/* Invariants:
* ob_sval contains space for 'ob_size+1' elements.
* ob_sval[ob_size] == 0.
* ob_shash is the hash of the string or -1 if not computed yet.
*/
} PyBytesObject;
#endif
PyAPI_DATA(PyTypeObject) PyBytes_Type;
PyAPI_DATA(PyTypeObject) PyBytesIter_Type;
#define PyBytes_Check(op) \
PyType_FastSubclass(Py_TYPE(op), Py_TPFLAGS_BYTES_SUBCLASS)
#define PyBytes_CheckExact(op) (Py_TYPE(op) == &PyBytes_Type)
PyAPI_FUNC(PyObject *) PyBytes_FromStringAndSize(const char *, Py_ssize_t);
PyAPI_FUNC(PyObject *) PyBytes_FromString(const char *);
PyAPI_FUNC(PyObject *) PyBytes_FromObject(PyObject *);
PyAPI_FUNC(PyObject *) PyBytes_FromFormatV(const char*, va_list)
Py_GCC_ATTRIBUTE((format(printf, 1, 0)));
PyAPI_FUNC(PyObject *) PyBytes_FromFormat(const char*, ...)
Py_GCC_ATTRIBUTE((format(printf, 1, 2)));
PyAPI_FUNC(Py_ssize_t) PyBytes_Size(PyObject *);
PyAPI_FUNC(char *) PyBytes_AsString(PyObject *);
PyAPI_FUNC(PyObject *) PyBytes_Repr(PyObject *, int);
PyAPI_FUNC(void) PyBytes_Concat(PyObject **, PyObject *);
PyAPI_FUNC(void) PyBytes_ConcatAndDel(PyObject **, PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyBytes_Resize(PyObject **, Py_ssize_t);
PyAPI_FUNC(PyObject*) _PyBytes_FormatEx(
const char *format,
Py_ssize_t format_len,
PyObject *args,
int use_bytearray);
PyAPI_FUNC(PyObject*) _PyBytes_FromHex(
PyObject *string,
int use_bytearray);
#endif
PyAPI_FUNC(PyObject *) PyBytes_DecodeEscape(const char *, Py_ssize_t,
const char *, Py_ssize_t,
const char *);
#ifndef Py_LIMITED_API
/* Helper for PyBytes_DecodeEscape that detects invalid escape chars. */
PyAPI_FUNC(PyObject *) _PyBytes_DecodeEscape(const char *, Py_ssize_t,
const char *, Py_ssize_t,
const char *,
const char **);
#endif
/* Macro, trading safety for speed */
#ifndef Py_LIMITED_API
#define PyBytes_AS_STRING(op) (assert(PyBytes_Check(op)), \
(((PyBytesObject *)(op))->ob_sval))
#define PyBytes_GET_SIZE(op) (assert(PyBytes_Check(op)),Py_SIZE(op))
#endif
/* _PyBytes_Join(sep, x) is like sep.join(x). sep must be PyBytesObject*,
x must be an iterable object. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyBytes_Join(PyObject *sep, PyObject *x);
#endif
/* Provides access to the internal data buffer and size of a string
object or the default encoded version of a Unicode object. Passing
NULL as *len parameter will force the string buffer to be
0-terminated (passing a string with embedded NULL characters will
cause an exception). */
PyAPI_FUNC(int) PyBytes_AsStringAndSize(
PyObject *obj, /* string or Unicode object */
char **s, /* pointer to buffer variable */
Py_ssize_t *len /* pointer to length variable or NULL
(only possible for 0-terminated
strings) */
);
/* Using the current locale, insert the thousands grouping
into the string pointed to by buffer. For the argument descriptions,
see Objects/stringlib/localeutil.h */
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_ssize_t) _PyBytes_InsertThousandsGroupingLocale(char *buffer,
Py_ssize_t n_buffer,
char *digits,
Py_ssize_t n_digits,
Py_ssize_t min_width);
/* Using explicit passed-in values, insert the thousands grouping
into the string pointed to by buffer. For the argument descriptions,
see Objects/stringlib/localeutil.h */
PyAPI_FUNC(Py_ssize_t) _PyBytes_InsertThousandsGrouping(char *buffer,
Py_ssize_t n_buffer,
char *digits,
Py_ssize_t n_digits,
Py_ssize_t min_width,
const char *grouping,
const char *thousands_sep);
#endif
/* Flags used by string formatting */
#define F_LJUST (1<<0)
#define F_SIGN (1<<1)
#define F_BLANK (1<<2)
#define F_ALT (1<<3)
#define F_ZERO (1<<4)
#ifndef Py_LIMITED_API
/* The _PyBytesWriter structure is big: it contains an embedded "stack buffer".
A _PyBytesWriter variable must be declared at the end of variables in a
function to optimize the memory allocation on the stack. */
typedef struct {
/* bytes, bytearray or NULL (when the small buffer is used) */
PyObject *buffer;
/* Number of allocated size. */
Py_ssize_t allocated;
/* Minimum number of allocated bytes,
incremented by _PyBytesWriter_Prepare() */
Py_ssize_t min_size;
/* If non-zero, use a bytearray instead of a bytes object for buffer. */
int use_bytearray;
/* If non-zero, overallocate the buffer (default: 0).
This flag must be zero if use_bytearray is non-zero. */
int overallocate;
/* Stack buffer */
int use_small_buffer;
char small_buffer[512];
} _PyBytesWriter;
/* Initialize a bytes writer
By default, the overallocation is disabled. Set the overallocate attribute
to control the allocation of the buffer. */
PyAPI_FUNC(void) _PyBytesWriter_Init(_PyBytesWriter *writer);
/* Get the buffer content and reset the writer.
Return a bytes object, or a bytearray object if use_bytearray is non-zero.
Raise an exception and return NULL on error. */
PyAPI_FUNC(PyObject *) _PyBytesWriter_Finish(_PyBytesWriter *writer,
void *str);
/* Deallocate memory of a writer (clear its internal buffer). */
PyAPI_FUNC(void) _PyBytesWriter_Dealloc(_PyBytesWriter *writer);
/* Allocate the buffer to write size bytes.
Return the pointer to the beginning of buffer data.
Raise an exception and return NULL on error. */
PyAPI_FUNC(void*) _PyBytesWriter_Alloc(_PyBytesWriter *writer,
Py_ssize_t size);
/* Ensure that the buffer is large enough to write *size* bytes.
Add size to the writer minimum size (min_size attribute).
str is the current pointer inside the buffer.
Return the updated current pointer inside the buffer.
Raise an exception and return NULL on error. */
PyAPI_FUNC(void*) _PyBytesWriter_Prepare(_PyBytesWriter *writer,
void *str,
Py_ssize_t size);
/* Resize the buffer to make it larger.
The new buffer may be larger than size bytes because of overallocation.
Return the updated current pointer inside the buffer.
Raise an exception and return NULL on error.
Note: size must be greater than the number of allocated bytes in the writer.
This function doesn't use the writer minimum size (min_size attribute).
See also _PyBytesWriter_Prepare().
*/
PyAPI_FUNC(void*) _PyBytesWriter_Resize(_PyBytesWriter *writer,
void *str,
Py_ssize_t size);
/* Write bytes.
Raise an exception and return NULL on error. */
PyAPI_FUNC(void*) _PyBytesWriter_WriteBytes(_PyBytesWriter *writer,
void *str,
const void *bytes,
Py_ssize_t size);
#endif /* Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_BYTESOBJECT_H */
Raw
Frikr_Include_cellobject.h
/* Cell object interface */
#ifndef Py_LIMITED_API
#ifndef Py_CELLOBJECT_H
#define Py_CELLOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
typedef struct {
PyObject_HEAD
PyObject *ob_ref; /* Content of the cell or NULL when empty */
} PyCellObject;
PyAPI_DATA(PyTypeObject) PyCell_Type;
#define PyCell_Check(op) (Py_TYPE(op) == &PyCell_Type)
PyAPI_FUNC(PyObject *) PyCell_New(PyObject *);
PyAPI_FUNC(PyObject *) PyCell_Get(PyObject *);
PyAPI_FUNC(int) PyCell_Set(PyObject *, PyObject *);
#define PyCell_GET(op) (((PyCellObject *)(op))->ob_ref)
#define PyCell_SET(op, v) (((PyCellObject *)(op))->ob_ref = v)
#ifdef __cplusplus
}
#endif
#endif /* !Py_TUPLEOBJECT_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_ceval.h
#ifndef Py_CEVAL_H
#define Py_CEVAL_H
#ifdef __cplusplus
extern "C" {
#endif
/* Interface to random parts in ceval.c */
PyAPI_FUNC(PyObject *) PyEval_CallObjectWithKeywords(
PyObject *func, PyObject *args, PyObject *kwargs);
/* Inline this */
#define PyEval_CallObject(func,arg) \
PyEval_CallObjectWithKeywords(func, arg, (PyObject *)NULL)
PyAPI_FUNC(PyObject *) PyEval_CallFunction(PyObject *obj,
const char *format, ...);
PyAPI_FUNC(PyObject *) PyEval_CallMethod(PyObject *obj,
const char *methodname,
const char *format, ...);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) PyEval_SetProfile(Py_tracefunc, PyObject *);
PyAPI_FUNC(void) PyEval_SetTrace(Py_tracefunc, PyObject *);
PyAPI_FUNC(void) _PyEval_SetCoroutineWrapper(PyObject *);
PyAPI_FUNC(PyObject *) _PyEval_GetCoroutineWrapper(void);
PyAPI_FUNC(void) _PyEval_SetAsyncGenFirstiter(PyObject *);
PyAPI_FUNC(PyObject *) _PyEval_GetAsyncGenFirstiter(void);
PyAPI_FUNC(void) _PyEval_SetAsyncGenFinalizer(PyObject *);
PyAPI_FUNC(PyObject *) _PyEval_GetAsyncGenFinalizer(void);
#endif
struct _frame; /* Avoid including frameobject.h */
PyAPI_FUNC(PyObject *) PyEval_GetBuiltins(void);
PyAPI_FUNC(PyObject *) PyEval_GetGlobals(void);
PyAPI_FUNC(PyObject *) PyEval_GetLocals(void);
PyAPI_FUNC(struct _frame *) PyEval_GetFrame(void);
/* Look at the current frame's (if any) code's co_flags, and turn on
the corresponding compiler flags in cf->cf_flags. Return 1 if any
flag was set, else return 0. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) PyEval_MergeCompilerFlags(PyCompilerFlags *cf);
#endif
PyAPI_FUNC(int) Py_AddPendingCall(int (*func)(void *), void *arg);
PyAPI_FUNC(int) Py_MakePendingCalls(void);
/* Protection against deeply nested recursive calls
In Python 3.0, this protection has two levels:
* normal anti-recursion protection is triggered when the recursion level
exceeds the current recursion limit. It raises a RecursionError, and sets
the "overflowed" flag in the thread state structure. This flag
temporarily *disables* the normal protection; this allows cleanup code
to potentially outgrow the recursion limit while processing the
RecursionError.
* "last chance" anti-recursion protection is triggered when the recursion
level exceeds "current recursion limit + 50". By construction, this
protection can only be triggered when the "overflowed" flag is set. It
means the cleanup code has itself gone into an infinite loop, or the
RecursionError has been mistakingly ignored. When this protection is
triggered, the interpreter aborts with a Fatal Error.
In addition, the "overflowed" flag is automatically reset when the
recursion level drops below "current recursion limit - 50". This heuristic
is meant to ensure that the normal anti-recursion protection doesn't get
disabled too long.
Please note: this scheme has its own limitations. See:
http://mail.python.org/pipermail/python-dev/2008-August/082106.html
for some observations.
*/
PyAPI_FUNC(void) Py_SetRecursionLimit(int);
PyAPI_FUNC(int) Py_GetRecursionLimit(void);
#define Py_EnterRecursiveCall(where) \
(_Py_MakeRecCheck(PyThreadState_GET()->recursion_depth) && \
_Py_CheckRecursiveCall(where))
#define Py_LeaveRecursiveCall() \
do{ if(_Py_MakeEndRecCheck(PyThreadState_GET()->recursion_depth)) \
PyThreadState_GET()->overflowed = 0; \
} while(0)
PyAPI_FUNC(int) _Py_CheckRecursiveCall(const char *where);
PyAPI_DATA(int) _Py_CheckRecursionLimit;
#ifdef USE_STACKCHECK
/* With USE_STACKCHECK, we artificially decrement the recursion limit in order
to trigger regular stack checks in _Py_CheckRecursiveCall(), except if
the "overflowed" flag is set, in which case we need the true value
of _Py_CheckRecursionLimit for _Py_MakeEndRecCheck() to function properly.
*/
# define _Py_MakeRecCheck(x) \
(++(x) > (_Py_CheckRecursionLimit += PyThreadState_GET()->overflowed - 1))
#else
# define _Py_MakeRecCheck(x) (++(x) > _Py_CheckRecursionLimit)
#endif
/* Compute the "lower-water mark" for a recursion limit. When
* Py_LeaveRecursiveCall() is called with a recursion depth below this mark,
* the overflowed flag is reset to 0. */
#define _Py_RecursionLimitLowerWaterMark(limit) \
(((limit) > 200) \
? ((limit) - 50) \
: (3 * ((limit) >> 2)))
#define _Py_MakeEndRecCheck(x) \
(--(x) < _Py_RecursionLimitLowerWaterMark(_Py_CheckRecursionLimit))
#define Py_ALLOW_RECURSION \
do { unsigned char _old = PyThreadState_GET()->recursion_critical;\
PyThreadState_GET()->recursion_critical = 1;
#define Py_END_ALLOW_RECURSION \
PyThreadState_GET()->recursion_critical = _old; \
} while(0);
PyAPI_FUNC(const char *) PyEval_GetFuncName(PyObject *);
PyAPI_FUNC(const char *) PyEval_GetFuncDesc(PyObject *);
PyAPI_FUNC(PyObject *) PyEval_GetCallStats(PyObject *);
PyAPI_FUNC(PyObject *) PyEval_EvalFrame(struct _frame *);
PyAPI_FUNC(PyObject *) PyEval_EvalFrameEx(struct _frame *f, int exc);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyEval_EvalFrameDefault(struct _frame *f, int exc);
#endif
/* Interface for threads.
A module that plans to do a blocking system call (or something else
that lasts a long time and doesn't touch Python data) can allow other
threads to run as follows:
...preparations here...
Py_BEGIN_ALLOW_THREADS
...blocking system call here...
Py_END_ALLOW_THREADS
...interpret result here...
The Py_BEGIN_ALLOW_THREADS/Py_END_ALLOW_THREADS pair expands to a
{}-surrounded block.
To leave the block in the middle (e.g., with return), you must insert
a line containing Py_BLOCK_THREADS before the return, e.g.
if (...premature_exit...) {
Py_BLOCK_THREADS
PyErr_SetFromErrno(PyExc_IOError);
return NULL;
}
An alternative is:
Py_BLOCK_THREADS
if (...premature_exit...) {
PyErr_SetFromErrno(PyExc_IOError);
return NULL;
}
Py_UNBLOCK_THREADS
For convenience, that the value of 'errno' is restored across
Py_END_ALLOW_THREADS and Py_BLOCK_THREADS.
WARNING: NEVER NEST CALLS TO Py_BEGIN_ALLOW_THREADS AND
Py_END_ALLOW_THREADS!!!
The function PyEval_InitThreads() should be called only from
init_thread() in "_threadmodule.c".
Note that not yet all candidates have been converted to use this
mechanism!
*/
PyAPI_FUNC(PyThreadState *) PyEval_SaveThread(void);
PyAPI_FUNC(void) PyEval_RestoreThread(PyThreadState *);
#ifdef WITH_THREAD
PyAPI_FUNC(int) PyEval_ThreadsInitialized(void);
PyAPI_FUNC(void) PyEval_InitThreads(void);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyEval_FiniThreads(void);
#endif /* !Py_LIMITED_API */
PyAPI_FUNC(void) PyEval_AcquireLock(void);
PyAPI_FUNC(void) PyEval_ReleaseLock(void);
PyAPI_FUNC(void) PyEval_AcquireThread(PyThreadState *tstate);
PyAPI_FUNC(void) PyEval_ReleaseThread(PyThreadState *tstate);
PyAPI_FUNC(void) PyEval_ReInitThreads(void);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyEval_SetSwitchInterval(unsigned long microseconds);
PyAPI_FUNC(unsigned long) _PyEval_GetSwitchInterval(void);
#endif
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_ssize_t) _PyEval_RequestCodeExtraIndex(freefunc);
#endif
#define Py_BEGIN_ALLOW_THREADS { \
PyThreadState *_save; \
_save = PyEval_SaveThread();
#define Py_BLOCK_THREADS PyEval_RestoreThread(_save);
#define Py_UNBLOCK_THREADS _save = PyEval_SaveThread();
#define Py_END_ALLOW_THREADS PyEval_RestoreThread(_save); \
}
#else /* !WITH_THREAD */
#define Py_BEGIN_ALLOW_THREADS {
#define Py_BLOCK_THREADS
#define Py_UNBLOCK_THREADS
#define Py_END_ALLOW_THREADS }
#endif /* !WITH_THREAD */
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyEval_SliceIndex(PyObject *, Py_ssize_t *);
PyAPI_FUNC(void) _PyEval_SignalAsyncExc(void);
#endif
/* Masks and values used by FORMAT_VALUE opcode. */
#define FVC_MASK 0x3
#define FVC_NONE 0x0
#define FVC_STR 0x1
#define FVC_REPR 0x2
#define FVC_ASCII 0x3
#define FVS_MASK 0x4
#define FVS_HAVE_SPEC 0x4
#ifdef __cplusplus
}
#endif
#endif /* !Py_CEVAL_H */
Raw
Frikr_Include_classobject.h
/* Former class object interface -- now only bound methods are here */
/* Revealing some structures (not for general use) */
#ifndef Py_LIMITED_API
#ifndef Py_CLASSOBJECT_H
#define Py_CLASSOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
typedef struct {
PyObject_HEAD
PyObject *im_func; /* The callable object implementing the method */
PyObject *im_self; /* The instance it is bound to */
PyObject *im_weakreflist; /* List of weak references */
} PyMethodObject;
PyAPI_DATA(PyTypeObject) PyMethod_Type;
#define PyMethod_Check(op) ((op)->ob_type == &PyMethod_Type)
PyAPI_FUNC(PyObject *) PyMethod_New(PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyMethod_Function(PyObject *);
PyAPI_FUNC(PyObject *) PyMethod_Self(PyObject *);
/* Macros for direct access to these values. Type checks are *not*
done, so use with care. */
#define PyMethod_GET_FUNCTION(meth) \
(((PyMethodObject *)meth) -> im_func)
#define PyMethod_GET_SELF(meth) \
(((PyMethodObject *)meth) -> im_self)
PyAPI_FUNC(int) PyMethod_ClearFreeList(void);
typedef struct {
PyObject_HEAD
PyObject *func;
} PyInstanceMethodObject;
PyAPI_DATA(PyTypeObject) PyInstanceMethod_Type;
#define PyInstanceMethod_Check(op) ((op)->ob_type == &PyInstanceMethod_Type)
PyAPI_FUNC(PyObject *) PyInstanceMethod_New(PyObject *);
PyAPI_FUNC(PyObject *) PyInstanceMethod_Function(PyObject *);
/* Macros for direct access to these values. Type checks are *not*
done, so use with care. */
#define PyInstanceMethod_GET_FUNCTION(meth) \
(((PyInstanceMethodObject *)meth) -> func)
#ifdef __cplusplus
}
#endif
#endif /* !Py_CLASSOBJECT_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_code.h
/* Definitions for bytecode */
#ifndef Py_LIMITED_API
#ifndef Py_CODE_H
#define Py_CODE_H
#ifdef __cplusplus
extern "C" {
#endif
typedef uint16_t _Py_CODEUNIT;
#ifdef WORDS_BIGENDIAN
# define _Py_OPCODE(word) ((word) >> 8)
# define _Py_OPARG(word) ((word) & 255)
#else
# define _Py_OPCODE(word) ((word) & 255)
# define _Py_OPARG(word) ((word) >> 8)
#endif
/* Bytecode object */
typedef struct {
PyObject_HEAD
int co_argcount; /* #arguments, except *args */
int co_kwonlyargcount; /* #keyword only arguments */
int co_nlocals; /* #local variables */
int co_stacksize; /* #entries needed for evaluation stack */
int co_flags; /* CO_..., see below */
int co_firstlineno; /* first source line number */
PyObject *co_code; /* instruction opcodes */
PyObject *co_consts; /* list (constants used) */
PyObject *co_names; /* list of strings (names used) */
PyObject *co_varnames; /* tuple of strings (local variable names) */
PyObject *co_freevars; /* tuple of strings (free variable names) */
PyObject *co_cellvars; /* tuple of strings (cell variable names) */
/* The rest aren't used in either hash or comparisons, except for co_name,
used in both. This is done to preserve the name and line number
for tracebacks and debuggers; otherwise, constant de-duplication
would collapse identical functions/lambdas defined on different lines.
*/
unsigned char *co_cell2arg; /* Maps cell vars which are arguments. */
PyObject *co_filename; /* unicode (where it was loaded from) */
PyObject *co_name; /* unicode (name, for reference) */
PyObject *co_lnotab; /* string (encoding addr<->lineno mapping) See
Objects/lnotab_notes.txt for details. */
void *co_zombieframe; /* for optimization only (see frameobject.c) */
PyObject *co_weakreflist; /* to support weakrefs to code objects */
/* Scratch space for extra data relating to the code object.
Type is a void* to keep the format private in codeobject.c to force
people to go through the proper APIs. */
void *co_extra;
} PyCodeObject;
/* Masks for co_flags above */
#define CO_OPTIMIZED 0x0001
#define CO_NEWLOCALS 0x0002
#define CO_VARARGS 0x0004
#define CO_VARKEYWORDS 0x0008
#define CO_NESTED 0x0010
#define CO_GENERATOR 0x0020
/* The CO_NOFREE flag is set if there are no free or cell variables.
This information is redundant, but it allows a single flag test
to determine whether there is any extra work to be done when the
call frame it setup.
*/
#define CO_NOFREE 0x0040
/* The CO_COROUTINE flag is set for coroutine functions (defined with
``async def`` keywords) */
#define CO_COROUTINE 0x0080
#define CO_ITERABLE_COROUTINE 0x0100
#define CO_ASYNC_GENERATOR 0x0200
/* These are no longer used. */
#if 0
#define CO_GENERATOR_ALLOWED 0x1000
#endif
#define CO_FUTURE_DIVISION 0x2000
#define CO_FUTURE_ABSOLUTE_IMPORT 0x4000 /* do absolute imports by default */
#define CO_FUTURE_WITH_STATEMENT 0x8000
#define CO_FUTURE_PRINT_FUNCTION 0x10000
#define CO_FUTURE_UNICODE_LITERALS 0x20000
#define CO_FUTURE_BARRY_AS_BDFL 0x40000
#define CO_FUTURE_GENERATOR_STOP 0x80000
/* This value is found in the co_cell2arg array when the associated cell
variable does not correspond to an argument. The maximum number of
arguments is 255 (indexed up to 254), so 255 work as a special flag.*/
#define CO_CELL_NOT_AN_ARG 255
/* This should be defined if a future statement modifies the syntax.
For example, when a keyword is added.
*/
#define PY_PARSER_REQUIRES_FUTURE_KEYWORD
#define CO_MAXBLOCKS 20 /* Max static block nesting within a function */
PyAPI_DATA(PyTypeObject) PyCode_Type;
#define PyCode_Check(op) (Py_TYPE(op) == &PyCode_Type)
#define PyCode_GetNumFree(op) (PyTuple_GET_SIZE((op)->co_freevars))
/* Public interface */
PyAPI_FUNC(PyCodeObject *) PyCode_New(
int, int, int, int, int, PyObject *, PyObject *,
PyObject *, PyObject *, PyObject *, PyObject *,
PyObject *, PyObject *, int, PyObject *);
/* same as struct above */
/* Creates a new empty code object with the specified source location. */
PyAPI_FUNC(PyCodeObject *)
PyCode_NewEmpty(const char *filename, const char *funcname, int firstlineno);
/* Return the line number associated with the specified bytecode index
in this code object. If you just need the line number of a frame,
use PyFrame_GetLineNumber() instead. */
PyAPI_FUNC(int) PyCode_Addr2Line(PyCodeObject *, int);
/* for internal use only */
typedef struct _addr_pair {
int ap_lower;
int ap_upper;
} PyAddrPair;
#ifndef Py_LIMITED_API
/* Update *bounds to describe the first and one-past-the-last instructions in the
same line as lasti. Return the number of that line.
*/
PyAPI_FUNC(int) _PyCode_CheckLineNumber(PyCodeObject* co,
int lasti, PyAddrPair *bounds);
/* Create a comparable key used to compare constants taking in account the
* object type. It is used to make sure types are not coerced (e.g., float and
* complex) _and_ to distinguish 0.0 from -0.0 e.g. on IEEE platforms
*
* Return (type(obj), obj, ...): a tuple with variable size (at least 2 items)
* depending on the type and the value. The type is the first item to not
* compare bytes and str which can raise a BytesWarning exception. */
PyAPI_FUNC(PyObject*) _PyCode_ConstantKey(PyObject *obj);
#endif
PyAPI_FUNC(PyObject*) PyCode_Optimize(PyObject *code, PyObject* consts,
PyObject *names, PyObject *lnotab);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyCode_GetExtra(PyObject *code, Py_ssize_t index,
void **extra);
PyAPI_FUNC(int) _PyCode_SetExtra(PyObject *code, Py_ssize_t index,
void *extra);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_CODE_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_codecs.h
#ifndef Py_CODECREGISTRY_H
#define Py_CODECREGISTRY_H
#ifdef __cplusplus
extern "C" {
#endif
/* ------------------------------------------------------------------------
Python Codec Registry and support functions
Written by Marc-Andre Lemburg (mal@lemburg.com).
Copyright (c) Corporation for National Research Initiatives.
------------------------------------------------------------------------ */
/* Register a new codec search function.
As side effect, this tries to load the encodings package, if not
yet done, to make sure that it is always first in the list of
search functions.
The search_function's refcount is incremented by this function. */
PyAPI_FUNC(int) PyCodec_Register(
PyObject *search_function
);
/* Codec registry lookup API.
Looks up the given encoding and returns a CodecInfo object with
function attributes which implement the different aspects of
processing the encoding.
The encoding string is looked up converted to all lower-case
characters. This makes encodings looked up through this mechanism
effectively case-insensitive.
If no codec is found, a KeyError is set and NULL returned.
As side effect, this tries to load the encodings package, if not
yet done. This is part of the lazy load strategy for the encodings
package.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyCodec_Lookup(
const char *encoding
);
PyAPI_FUNC(int) _PyCodec_Forget(
const char *encoding
);
#endif
/* Codec registry encoding check API.
Returns 1/0 depending on whether there is a registered codec for
the given encoding.
*/
PyAPI_FUNC(int) PyCodec_KnownEncoding(
const char *encoding
);
/* Generic codec based encoding API.
object is passed through the encoder function found for the given
encoding using the error handling method defined by errors. errors
may be NULL to use the default method defined for the codec.
Raises a LookupError in case no encoder can be found.
*/
PyAPI_FUNC(PyObject *) PyCodec_Encode(
PyObject *object,
const char *encoding,
const char *errors
);
/* Generic codec based decoding API.
object is passed through the decoder function found for the given
encoding using the error handling method defined by errors. errors
may be NULL to use the default method defined for the codec.
Raises a LookupError in case no encoder can be found.
*/
PyAPI_FUNC(PyObject *) PyCodec_Decode(
PyObject *object,
const char *encoding,
const char *errors
);
#ifndef Py_LIMITED_API
/* Text codec specific encoding and decoding API.
Checks the encoding against a list of codecs which do not
implement a str<->bytes encoding before attempting the
operation.
Please note that these APIs are internal and should not
be used in Python C extensions.
XXX (ncoghlan): should we make these, or something like them, public
in Python 3.5+?
*/
PyAPI_FUNC(PyObject *) _PyCodec_LookupTextEncoding(
const char *encoding,
const char *alternate_command
);
PyAPI_FUNC(PyObject *) _PyCodec_EncodeText(
PyObject *object,
const char *encoding,
const char *errors
);
PyAPI_FUNC(PyObject *) _PyCodec_DecodeText(
PyObject *object,
const char *encoding,
const char *errors
);
/* These two aren't actually text encoding specific, but _io.TextIOWrapper
* is the only current API consumer.
*/
PyAPI_FUNC(PyObject *) _PyCodecInfo_GetIncrementalDecoder(
PyObject *codec_info,
const char *errors
);
PyAPI_FUNC(PyObject *) _PyCodecInfo_GetIncrementalEncoder(
PyObject *codec_info,
const char *errors
);
#endif
/* --- Codec Lookup APIs --------------------------------------------------
All APIs return a codec object with incremented refcount and are
based on _PyCodec_Lookup(). The same comments w/r to the encoding
name also apply to these APIs.
*/
/* Get an encoder function for the given encoding. */
PyAPI_FUNC(PyObject *) PyCodec_Encoder(
const char *encoding
);
/* Get a decoder function for the given encoding. */
PyAPI_FUNC(PyObject *) PyCodec_Decoder(
const char *encoding
);
/* Get an IncrementalEncoder object for the given encoding. */
PyAPI_FUNC(PyObject *) PyCodec_IncrementalEncoder(
const char *encoding,
const char *errors
);
/* Get an IncrementalDecoder object function for the given encoding. */
PyAPI_FUNC(PyObject *) PyCodec_IncrementalDecoder(
const char *encoding,
const char *errors
);
/* Get a StreamReader factory function for the given encoding. */
PyAPI_FUNC(PyObject *) PyCodec_StreamReader(
const char *encoding,
PyObject *stream,
const char *errors
);
/* Get a StreamWriter factory function for the given encoding. */
PyAPI_FUNC(PyObject *) PyCodec_StreamWriter(
const char *encoding,
PyObject *stream,
const char *errors
);
/* Unicode encoding error handling callback registry API */
/* Register the error handling callback function error under the given
name. This function will be called by the codec when it encounters
unencodable characters/undecodable bytes and doesn't know the
callback name, when name is specified as the error parameter
in the call to the encode/decode function.
Return 0 on success, -1 on error */
PyAPI_FUNC(int) PyCodec_RegisterError(const char *name, PyObject *error);
/* Lookup the error handling callback function registered under the given
name. As a special case NULL can be passed, in which case
the error handling callback for "strict" will be returned. */
PyAPI_FUNC(PyObject *) PyCodec_LookupError(const char *name);
/* raise exc as an exception */
PyAPI_FUNC(PyObject *) PyCodec_StrictErrors(PyObject *exc);
/* ignore the unicode error, skipping the faulty input */
PyAPI_FUNC(PyObject *) PyCodec_IgnoreErrors(PyObject *exc);
/* replace the unicode encode error with ? or U+FFFD */
PyAPI_FUNC(PyObject *) PyCodec_ReplaceErrors(PyObject *exc);
/* replace the unicode encode error with XML character references */
PyAPI_FUNC(PyObject *) PyCodec_XMLCharRefReplaceErrors(PyObject *exc);
/* replace the unicode encode error with backslash escapes (\x, \u and \U) */
PyAPI_FUNC(PyObject *) PyCodec_BackslashReplaceErrors(PyObject *exc);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
/* replace the unicode encode error with backslash escapes (\N, \x, \u and \U) */
PyAPI_FUNC(PyObject *) PyCodec_NameReplaceErrors(PyObject *exc);
#endif
#ifndef Py_LIMITED_API
PyAPI_DATA(const char *) Py_hexdigits;
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_CODECREGISTRY_H */
Raw
Frikr_Include_compile.h
#ifndef Py_COMPILE_H
#define Py_COMPILE_H
#ifndef Py_LIMITED_API
#include "code.h"
#ifdef __cplusplus
extern "C" {
#endif
/* Public interface */
struct _node; /* Declare the existence of this type */
PyAPI_FUNC(PyCodeObject *) PyNode_Compile(struct _node *, const char *);
/* Future feature support */
typedef struct {
int ff_features; /* flags set by future statements */
int ff_lineno; /* line number of last future statement */
} PyFutureFeatures;
#define FUTURE_NESTED_SCOPES "nested_scopes"
#define FUTURE_GENERATORS "generators"
#define FUTURE_DIVISION "division"
#define FUTURE_ABSOLUTE_IMPORT "absolute_import"
#define FUTURE_WITH_STATEMENT "with_statement"
#define FUTURE_PRINT_FUNCTION "print_function"
#define FUTURE_UNICODE_LITERALS "unicode_literals"
#define FUTURE_BARRY_AS_BDFL "barry_as_FLUFL"
#define FUTURE_GENERATOR_STOP "generator_stop"
struct _mod; /* Declare the existence of this type */
#define PyAST_Compile(mod, s, f, ar) PyAST_CompileEx(mod, s, f, -1, ar)
PyAPI_FUNC(PyCodeObject *) PyAST_CompileEx(
struct _mod *mod,
const char *filename, /* decoded from the filesystem encoding */
PyCompilerFlags *flags,
int optimize,
PyArena *arena);
PyAPI_FUNC(PyCodeObject *) PyAST_CompileObject(
struct _mod *mod,
PyObject *filename,
PyCompilerFlags *flags,
int optimize,
PyArena *arena);
PyAPI_FUNC(PyFutureFeatures *) PyFuture_FromAST(
struct _mod * mod,
const char *filename /* decoded from the filesystem encoding */
);
PyAPI_FUNC(PyFutureFeatures *) PyFuture_FromASTObject(
struct _mod * mod,
PyObject *filename
);
/* _Py_Mangle is defined in compile.c */
PyAPI_FUNC(PyObject*) _Py_Mangle(PyObject *p, PyObject *name);
#define PY_INVALID_STACK_EFFECT INT_MAX
PyAPI_FUNC(int) PyCompile_OpcodeStackEffect(int opcode, int oparg);
#ifdef __cplusplus
}
#endif
#endif /* !Py_LIMITED_API */
/* These definitions must match corresponding definitions in graminit.h.
There's code in compile.c that checks that they are the same. */
#define Py_single_input 256
#define Py_file_input 257
#define Py_eval_input 258
#endif /* !Py_COMPILE_H */
Raw
Frikr_Include_complexobject.h
/* Complex number structure */
#ifndef Py_COMPLEXOBJECT_H
#define Py_COMPLEXOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
typedef struct {
double real;
double imag;
} Py_complex;
/* Operations on complex numbers from complexmodule.c */
PyAPI_FUNC(Py_complex) _Py_c_sum(Py_complex, Py_complex);
PyAPI_FUNC(Py_complex) _Py_c_diff(Py_complex, Py_complex);
PyAPI_FUNC(Py_complex) _Py_c_neg(Py_complex);
PyAPI_FUNC(Py_complex) _Py_c_prod(Py_complex, Py_complex);
PyAPI_FUNC(Py_complex) _Py_c_quot(Py_complex, Py_complex);
PyAPI_FUNC(Py_complex) _Py_c_pow(Py_complex, Py_complex);
PyAPI_FUNC(double) _Py_c_abs(Py_complex);
#endif
/* Complex object interface */
/*
PyComplexObject represents a complex number with double-precision
real and imaginary parts.
*/
#ifndef Py_LIMITED_API
typedef struct {
PyObject_HEAD
Py_complex cval;
} PyComplexObject;
#endif
PyAPI_DATA(PyTypeObject) PyComplex_Type;
#define PyComplex_Check(op) PyObject_TypeCheck(op, &PyComplex_Type)
#define PyComplex_CheckExact(op) (Py_TYPE(op) == &PyComplex_Type)
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyComplex_FromCComplex(Py_complex);
#endif
PyAPI_FUNC(PyObject *) PyComplex_FromDoubles(double real, double imag);
PyAPI_FUNC(double) PyComplex_RealAsDouble(PyObject *op);
PyAPI_FUNC(double) PyComplex_ImagAsDouble(PyObject *op);
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_complex) PyComplex_AsCComplex(PyObject *op);
#endif
/* Format the object based on the format_spec, as defined in PEP 3101
(Advanced String Formatting). */
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyComplex_FormatAdvancedWriter(
_PyUnicodeWriter *writer,
PyObject *obj,
PyObject *format_spec,
Py_ssize_t start,
Py_ssize_t end);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_COMPLEXOBJECT_H */
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Frikr_Include_datetime.h
/* datetime.h
*/
#ifndef Py_LIMITED_API
#ifndef DATETIME_H
#define DATETIME_H
#ifdef __cplusplus
extern "C" {
#endif
/* Fields are packed into successive bytes, each viewed as unsigned and
* big-endian, unless otherwise noted:
*
* byte offset
* 0 year 2 bytes, 1-9999
* 2 month 1 byte, 1-12
* 3 day 1 byte, 1-31
* 4 hour 1 byte, 0-23
* 5 minute 1 byte, 0-59
* 6 second 1 byte, 0-59
* 7 usecond 3 bytes, 0-999999
* 10
*/
/* # of bytes for year, month, and day. */
#define _PyDateTime_DATE_DATASIZE 4
/* # of bytes for hour, minute, second, and usecond. */
#define _PyDateTime_TIME_DATASIZE 6
/* # of bytes for year, month, day, hour, minute, second, and usecond. */
#define _PyDateTime_DATETIME_DATASIZE 10
typedef struct
{
PyObject_HEAD
Py_hash_t hashcode; /* -1 when unknown */
int days; /* -MAX_DELTA_DAYS <= days <= MAX_DELTA_DAYS */
int seconds; /* 0 <= seconds < 24*3600 is invariant */
int microseconds; /* 0 <= microseconds < 1000000 is invariant */
} PyDateTime_Delta;
typedef struct
{
PyObject_HEAD /* a pure abstract base class */
} PyDateTime_TZInfo;
/* The datetime and time types have hashcodes, and an optional tzinfo member,
* present if and only if hastzinfo is true.
*/
#define _PyTZINFO_HEAD \
PyObject_HEAD \
Py_hash_t hashcode; \
char hastzinfo; /* boolean flag */
/* No _PyDateTime_BaseTZInfo is allocated; it's just to have something
* convenient to cast to, when getting at the hastzinfo member of objects
* starting with _PyTZINFO_HEAD.
*/
typedef struct
{
_PyTZINFO_HEAD
} _PyDateTime_BaseTZInfo;
/* All time objects are of PyDateTime_TimeType, but that can be allocated
* in two ways, with or without a tzinfo member. Without is the same as
* tzinfo == None, but consumes less memory. _PyDateTime_BaseTime is an
* internal struct used to allocate the right amount of space for the
* "without" case.
*/
#define _PyDateTime_TIMEHEAD \
_PyTZINFO_HEAD \
unsigned char data[_PyDateTime_TIME_DATASIZE];
typedef struct
{
_PyDateTime_TIMEHEAD
} _PyDateTime_BaseTime; /* hastzinfo false */
typedef struct
{
_PyDateTime_TIMEHEAD
unsigned char fold;
PyObject *tzinfo;
} PyDateTime_Time; /* hastzinfo true */
/* All datetime objects are of PyDateTime_DateTimeType, but that can be
* allocated in two ways too, just like for time objects above. In addition,
* the plain date type is a base class for datetime, so it must also have
* a hastzinfo member (although it's unused there).
*/
typedef struct
{
_PyTZINFO_HEAD
unsigned char data[_PyDateTime_DATE_DATASIZE];
} PyDateTime_Date;
#define _PyDateTime_DATETIMEHEAD \
_PyTZINFO_HEAD \
unsigned char data[_PyDateTime_DATETIME_DATASIZE];
typedef struct
{
_PyDateTime_DATETIMEHEAD
} _PyDateTime_BaseDateTime; /* hastzinfo false */
typedef struct
{
_PyDateTime_DATETIMEHEAD
unsigned char fold;
PyObject *tzinfo;
} PyDateTime_DateTime; /* hastzinfo true */
/* Apply for date and datetime instances. */
#define PyDateTime_GET_YEAR(o) ((((PyDateTime_Date*)o)->data[0] << 8) | \
((PyDateTime_Date*)o)->data[1])
#define PyDateTime_GET_MONTH(o) (((PyDateTime_Date*)o)->data[2])
#define PyDateTime_GET_DAY(o) (((PyDateTime_Date*)o)->data[3])
#define PyDateTime_DATE_GET_HOUR(o) (((PyDateTime_DateTime*)o)->data[4])
#define PyDateTime_DATE_GET_MINUTE(o) (((PyDateTime_DateTime*)o)->data[5])
#define PyDateTime_DATE_GET_SECOND(o) (((PyDateTime_DateTime*)o)->data[6])
#define PyDateTime_DATE_GET_MICROSECOND(o) \
((((PyDateTime_DateTime*)o)->data[7] << 16) | \
(((PyDateTime_DateTime*)o)->data[8] << 8) | \
((PyDateTime_DateTime*)o)->data[9])
#define PyDateTime_DATE_GET_FOLD(o) (((PyDateTime_DateTime*)o)->fold)
/* Apply for time instances. */
#define PyDateTime_TIME_GET_HOUR(o) (((PyDateTime_Time*)o)->data[0])
#define PyDateTime_TIME_GET_MINUTE(o) (((PyDateTime_Time*)o)->data[1])
#define PyDateTime_TIME_GET_SECOND(o) (((PyDateTime_Time*)o)->data[2])
#define PyDateTime_TIME_GET_MICROSECOND(o) \
((((PyDateTime_Time*)o)->data[3] << 16) | \
(((PyDateTime_Time*)o)->data[4] << 8) | \
((PyDateTime_Time*)o)->data[5])
#define PyDateTime_TIME_GET_FOLD(o) (((PyDateTime_Time*)o)->fold)
/* Apply for time delta instances */
#define PyDateTime_DELTA_GET_DAYS(o) (((PyDateTime_Delta*)o)->days)
#define PyDateTime_DELTA_GET_SECONDS(o) (((PyDateTime_Delta*)o)->seconds)
#define PyDateTime_DELTA_GET_MICROSECONDS(o) \
(((PyDateTime_Delta*)o)->microseconds)
/* Define structure for C API. */
typedef struct {
/* type objects */
PyTypeObject *DateType;
PyTypeObject *DateTimeType;
PyTypeObject *TimeType;
PyTypeObject *DeltaType;
PyTypeObject *TZInfoType;
/* constructors */
PyObject *(*Date_FromDate)(int, int, int, PyTypeObject*);
PyObject *(*DateTime_FromDateAndTime)(int, int, int, int, int, int, int,
PyObject*, PyTypeObject*);
PyObject *(*Time_FromTime)(int, int, int, int, PyObject*, PyTypeObject*);
PyObject *(*Delta_FromDelta)(int, int, int, int, PyTypeObject*);
/* constructors for the DB API */
PyObject *(*DateTime_FromTimestamp)(PyObject*, PyObject*, PyObject*);
PyObject *(*Date_FromTimestamp)(PyObject*, PyObject*);
/* PEP 495 constructors */
PyObject *(*DateTime_FromDateAndTimeAndFold)(int, int, int, int, int, int, int,
PyObject*, int, PyTypeObject*);
PyObject *(*Time_FromTimeAndFold)(int, int, int, int, PyObject*, int, PyTypeObject*);
} PyDateTime_CAPI;
#define PyDateTime_CAPSULE_NAME "datetime.datetime_CAPI"
#ifdef Py_BUILD_CORE
/* Macros for type checking when building the Python core. */
#define PyDate_Check(op) PyObject_TypeCheck(op, &PyDateTime_DateType)
#define PyDate_CheckExact(op) (Py_TYPE(op) == &PyDateTime_DateType)
#define PyDateTime_Check(op) PyObject_TypeCheck(op, &PyDateTime_DateTimeType)
#define PyDateTime_CheckExact(op) (Py_TYPE(op) == &PyDateTime_DateTimeType)
#define PyTime_Check(op) PyObject_TypeCheck(op, &PyDateTime_TimeType)
#define PyTime_CheckExact(op) (Py_TYPE(op) == &PyDateTime_TimeType)
#define PyDelta_Check(op) PyObject_TypeCheck(op, &PyDateTime_DeltaType)
#define PyDelta_CheckExact(op) (Py_TYPE(op) == &PyDateTime_DeltaType)
#define PyTZInfo_Check(op) PyObject_TypeCheck(op, &PyDateTime_TZInfoType)
#define PyTZInfo_CheckExact(op) (Py_TYPE(op) == &PyDateTime_TZInfoType)
#else
/* Define global variable for the C API and a macro for setting it. */
static PyDateTime_CAPI *PyDateTimeAPI = NULL;
#define PyDateTime_IMPORT \
PyDateTimeAPI = (PyDateTime_CAPI *)PyCapsule_Import(PyDateTime_CAPSULE_NAME, 0)
/* Macros for type checking when not building the Python core. */
#define PyDate_Check(op) PyObject_TypeCheck(op, PyDateTimeAPI->DateType)
#define PyDate_CheckExact(op) (Py_TYPE(op) == PyDateTimeAPI->DateType)
#define PyDateTime_Check(op) PyObject_TypeCheck(op, PyDateTimeAPI->DateTimeType)
#define PyDateTime_CheckExact(op) (Py_TYPE(op) == PyDateTimeAPI->DateTimeType)
#define PyTime_Check(op) PyObject_TypeCheck(op, PyDateTimeAPI->TimeType)
#define PyTime_CheckExact(op) (Py_TYPE(op) == PyDateTimeAPI->TimeType)
#define PyDelta_Check(op) PyObject_TypeCheck(op, PyDateTimeAPI->DeltaType)
#define PyDelta_CheckExact(op) (Py_TYPE(op) == PyDateTimeAPI->DeltaType)
#define PyTZInfo_Check(op) PyObject_TypeCheck(op, PyDateTimeAPI->TZInfoType)
#define PyTZInfo_CheckExact(op) (Py_TYPE(op) == PyDateTimeAPI->TZInfoType)
/* Macros for accessing constructors in a simplified fashion. */
#define PyDate_FromDate(year, month, day) \
PyDateTimeAPI->Date_FromDate(year, month, day, PyDateTimeAPI->DateType)
#define PyDateTime_FromDateAndTime(year, month, day, hour, min, sec, usec) \
PyDateTimeAPI->DateTime_FromDateAndTime(year, month, day, hour, \
min, sec, usec, Py_None, PyDateTimeAPI->DateTimeType)
#define PyDateTime_FromDateAndTimeAndFold(year, month, day, hour, min, sec, usec, fold) \
PyDateTimeAPI->DateTime_FromDateAndTimeAndFold(year, month, day, hour, \
min, sec, usec, Py_None, fold, PyDateTimeAPI->DateTimeType)
#define PyTime_FromTime(hour, minute, second, usecond) \
PyDateTimeAPI->Time_FromTime(hour, minute, second, usecond, \
Py_None, PyDateTimeAPI->TimeType)
#define PyTime_FromTimeAndFold(hour, minute, second, usecond, fold) \
PyDateTimeAPI->Time_FromTimeAndFold(hour, minute, second, usecond, \
Py_None, fold, PyDateTimeAPI->TimeType)
#define PyDelta_FromDSU(days, seconds, useconds) \
PyDateTimeAPI->Delta_FromDelta(days, seconds, useconds, 1, \
PyDateTimeAPI->DeltaType)
/* Macros supporting the DB API. */
#define PyDateTime_FromTimestamp(args) \
PyDateTimeAPI->DateTime_FromTimestamp( \
(PyObject*) (PyDateTimeAPI->DateTimeType), args, NULL)
#define PyDate_FromTimestamp(args) \
PyDateTimeAPI->Date_FromTimestamp( \
(PyObject*) (PyDateTimeAPI->DateType), args)
#endif /* Py_BUILD_CORE */
#ifdef __cplusplus
}
#endif
#endif
#endif /* !Py_LIMITED_API */
Raw
Frikr_Include_descrobject.h
/* Descriptors */
#ifndef Py_DESCROBJECT_H
#define Py_DESCROBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
typedef PyObject *(*getter)(PyObject *, void *);
typedef int (*setter)(PyObject *, PyObject *, void *);
typedef struct PyGetSetDef {
char *name;
getter get;
setter set;
char *doc;
void *closure;
} PyGetSetDef;
#ifndef Py_LIMITED_API
typedef PyObject *(*wrapperfunc)(PyObject *self, PyObject *args,
void *wrapped);
typedef PyObject *(*wrapperfunc_kwds)(PyObject *self, PyObject *args,
void *wrapped, PyObject *kwds);
struct wrapperbase {
char *name;
int offset;
void *function;
wrapperfunc wrapper;
char *doc;
int flags;
PyObject *name_strobj;
};
/* Flags for above struct */
#define PyWrapperFlag_KEYWORDS 1 /* wrapper function takes keyword args */
/* Various kinds of descriptor objects */
typedef struct {
PyObject_HEAD
PyTypeObject *d_type;
PyObject *d_name;
PyObject *d_qualname;
} PyDescrObject;
#define PyDescr_COMMON PyDescrObject d_common
#define PyDescr_TYPE(x) (((PyDescrObject *)(x))->d_type)
#define PyDescr_NAME(x) (((PyDescrObject *)(x))->d_name)
typedef struct {
PyDescr_COMMON;
PyMethodDef *d_method;
} PyMethodDescrObject;
typedef struct {
PyDescr_COMMON;
struct PyMemberDef *d_member;
} PyMemberDescrObject;
typedef struct {
PyDescr_COMMON;
PyGetSetDef *d_getset;
} PyGetSetDescrObject;
typedef struct {
PyDescr_COMMON;
struct wrapperbase *d_base;
void *d_wrapped; /* This can be any function pointer */
} PyWrapperDescrObject;
#endif /* Py_LIMITED_API */
PyAPI_DATA(PyTypeObject) PyClassMethodDescr_Type;
PyAPI_DATA(PyTypeObject) PyGetSetDescr_Type;
PyAPI_DATA(PyTypeObject) PyMemberDescr_Type;
PyAPI_DATA(PyTypeObject) PyMethodDescr_Type;
PyAPI_DATA(PyTypeObject) PyWrapperDescr_Type;
PyAPI_DATA(PyTypeObject) PyDictProxy_Type;
#ifndef Py_LIMITED_API
PyAPI_DATA(PyTypeObject) _PyMethodWrapper_Type;
#endif /* Py_LIMITED_API */
PyAPI_FUNC(PyObject *) PyDescr_NewMethod(PyTypeObject *, PyMethodDef *);
PyAPI_FUNC(PyObject *) PyDescr_NewClassMethod(PyTypeObject *, PyMethodDef *);
struct PyMemberDef; /* forward declaration for following prototype */
PyAPI_FUNC(PyObject *) PyDescr_NewMember(PyTypeObject *,
struct PyMemberDef *);
PyAPI_FUNC(PyObject *) PyDescr_NewGetSet(PyTypeObject *,
struct PyGetSetDef *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyDescr_NewWrapper(PyTypeObject *,
struct wrapperbase *, void *);
#define PyDescr_IsData(d) (Py_TYPE(d)->tp_descr_set != NULL)
#endif
PyAPI_FUNC(PyObject *) PyDictProxy_New(PyObject *);
PyAPI_FUNC(PyObject *) PyWrapper_New(PyObject *, PyObject *);
PyAPI_DATA(PyTypeObject) PyProperty_Type;
#ifdef __cplusplus
}
#endif
#endif /* !Py_DESCROBJECT_H */
Raw
Frikr_Include_dictobject.h
#ifndef Py_DICTOBJECT_H
#define Py_DICTOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
/* Dictionary object type -- mapping from hashable object to object */
/* The distribution includes a separate file, Objects/dictnotes.txt,
describing explorations into dictionary design and optimization.
It covers typical dictionary use patterns, the parameters for
tuning dictionaries, and several ideas for possible optimizations.
*/
#ifndef Py_LIMITED_API
typedef struct _dictkeysobject PyDictKeysObject;
/* The ma_values pointer is NULL for a combined table
* or points to an array of PyObject* for a split table
*/
typedef struct {
PyObject_HEAD
/* Number of items in the dictionary */
Py_ssize_t ma_used;
/* Dictionary version: globally unique, value change each time
the dictionary is modified */
uint64_t ma_version_tag;
PyDictKeysObject *ma_keys;
/* If ma_values is NULL, the table is "combined": keys and values
are stored in ma_keys.
If ma_values is not NULL, the table is splitted:
keys are stored in ma_keys and values are stored in ma_values */
PyObject **ma_values;
} PyDictObject;
typedef struct {
PyObject_HEAD
PyDictObject *dv_dict;
} _PyDictViewObject;
#endif /* Py_LIMITED_API */
PyAPI_DATA(PyTypeObject) PyDict_Type;
PyAPI_DATA(PyTypeObject) PyDictIterKey_Type;
PyAPI_DATA(PyTypeObject) PyDictIterValue_Type;
PyAPI_DATA(PyTypeObject) PyDictIterItem_Type;
PyAPI_DATA(PyTypeObject) PyDictKeys_Type;
PyAPI_DATA(PyTypeObject) PyDictItems_Type;
PyAPI_DATA(PyTypeObject) PyDictValues_Type;
#define PyDict_Check(op) \
PyType_FastSubclass(Py_TYPE(op), Py_TPFLAGS_DICT_SUBCLASS)
#define PyDict_CheckExact(op) (Py_TYPE(op) == &PyDict_Type)
#define PyDictKeys_Check(op) PyObject_TypeCheck(op, &PyDictKeys_Type)
#define PyDictItems_Check(op) PyObject_TypeCheck(op, &PyDictItems_Type)
#define PyDictValues_Check(op) PyObject_TypeCheck(op, &PyDictValues_Type)
/* This excludes Values, since they are not sets. */
# define PyDictViewSet_Check(op) \
(PyDictKeys_Check(op) || PyDictItems_Check(op))
PyAPI_FUNC(PyObject *) PyDict_New(void);
PyAPI_FUNC(PyObject *) PyDict_GetItem(PyObject *mp, PyObject *key);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyDict_GetItem_KnownHash(PyObject *mp, PyObject *key,
Py_hash_t hash);
#endif
PyAPI_FUNC(PyObject *) PyDict_GetItemWithError(PyObject *mp, PyObject *key);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyDict_GetItemIdWithError(PyObject *dp,
struct _Py_Identifier *key);
PyAPI_FUNC(PyObject *) PyDict_SetDefault(
PyObject *mp, PyObject *key, PyObject *defaultobj);
#endif
PyAPI_FUNC(int) PyDict_SetItem(PyObject *mp, PyObject *key, PyObject *item);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyDict_SetItem_KnownHash(PyObject *mp, PyObject *key,
PyObject *item, Py_hash_t hash);
#endif
PyAPI_FUNC(int) PyDict_DelItem(PyObject *mp, PyObject *key);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyDict_DelItem_KnownHash(PyObject *mp, PyObject *key,
Py_hash_t hash);
PyAPI_FUNC(int) _PyDict_DelItemIf(PyObject *mp, PyObject *key,
int (*predicate)(PyObject *value));
#endif
PyAPI_FUNC(void) PyDict_Clear(PyObject *mp);
PyAPI_FUNC(int) PyDict_Next(
PyObject *mp, Py_ssize_t *pos, PyObject **key, PyObject **value);
#ifndef Py_LIMITED_API
PyDictKeysObject *_PyDict_NewKeysForClass(void);
PyAPI_FUNC(PyObject *) PyObject_GenericGetDict(PyObject *, void *);
PyAPI_FUNC(int) _PyDict_Next(
PyObject *mp, Py_ssize_t *pos, PyObject **key, PyObject **value, Py_hash_t *hash);
PyObject *_PyDictView_New(PyObject *, PyTypeObject *);
#endif
PyAPI_FUNC(PyObject *) PyDict_Keys(PyObject *mp);
PyAPI_FUNC(PyObject *) PyDict_Values(PyObject *mp);
PyAPI_FUNC(PyObject *) PyDict_Items(PyObject *mp);
PyAPI_FUNC(Py_ssize_t) PyDict_Size(PyObject *mp);
PyAPI_FUNC(PyObject *) PyDict_Copy(PyObject *mp);
PyAPI_FUNC(int) PyDict_Contains(PyObject *mp, PyObject *key);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyDict_Contains(PyObject *mp, PyObject *key, Py_hash_t hash);
PyAPI_FUNC(PyObject *) _PyDict_NewPresized(Py_ssize_t minused);
PyAPI_FUNC(void) _PyDict_MaybeUntrack(PyObject *mp);
PyAPI_FUNC(int) _PyDict_HasOnlyStringKeys(PyObject *mp);
Py_ssize_t _PyDict_KeysSize(PyDictKeysObject *keys);
Py_ssize_t _PyDict_SizeOf(PyDictObject *);
PyAPI_FUNC(PyObject *) _PyDict_Pop(PyObject *, PyObject *, PyObject *);
PyObject *_PyDict_Pop_KnownHash(PyObject *, PyObject *, Py_hash_t, PyObject *);
PyObject *_PyDict_FromKeys(PyObject *, PyObject *, PyObject *);
#define _PyDict_HasSplitTable(d) ((d)->ma_values != NULL)
PyAPI_FUNC(int) PyDict_ClearFreeList(void);
#endif
/* PyDict_Update(mp, other) is equivalent to PyDict_Merge(mp, other, 1). */
PyAPI_FUNC(int) PyDict_Update(PyObject *mp, PyObject *other);
/* PyDict_Merge updates/merges from a mapping object (an object that
supports PyMapping_Keys() and PyObject_GetItem()). If override is true,
the last occurrence of a key wins, else the first. The Python
dict.update(other) is equivalent to PyDict_Merge(dict, other, 1).
*/
PyAPI_FUNC(int) PyDict_Merge(PyObject *mp,
PyObject *other,
int override);
#ifndef Py_LIMITED_API
/* Like PyDict_Merge, but override can be 0, 1 or 2. If override is 0,
the first occurrence of a key wins, if override is 1, the last occurrence
of a key wins, if override is 2, a KeyError with conflicting key as
argument is raised.
*/
PyAPI_FUNC(int) _PyDict_MergeEx(PyObject *mp, PyObject *other, int override);
PyAPI_FUNC(PyObject *) _PyDictView_Intersect(PyObject* self, PyObject *other);
#endif
/* PyDict_MergeFromSeq2 updates/merges from an iterable object producing
iterable objects of length 2. If override is true, the last occurrence
of a key wins, else the first. The Python dict constructor dict(seq2)
is equivalent to dict={}; PyDict_MergeFromSeq(dict, seq2, 1).
*/
PyAPI_FUNC(int) PyDict_MergeFromSeq2(PyObject *d,
PyObject *seq2,
int override);
PyAPI_FUNC(PyObject *) PyDict_GetItemString(PyObject *dp, const char *key);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyDict_GetItemId(PyObject *dp, struct _Py_Identifier *key);
#endif /* !Py_LIMITED_API */
PyAPI_FUNC(int) PyDict_SetItemString(PyObject *dp, const char *key, PyObject *item);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyDict_SetItemId(PyObject *dp, struct _Py_Identifier *key, PyObject *item);
#endif /* !Py_LIMITED_API */
PyAPI_FUNC(int) PyDict_DelItemString(PyObject *dp, const char *key);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyDict_DelItemId(PyObject *mp, struct _Py_Identifier *key);
PyAPI_FUNC(void) _PyDict_DebugMallocStats(FILE *out);
int _PyObjectDict_SetItem(PyTypeObject *tp, PyObject **dictptr, PyObject *name, PyObject *value);
PyObject *_PyDict_LoadGlobal(PyDictObject *, PyDictObject *, PyObject *);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_DICTOBJECT_H */
Raw
Frikr_Include_dtoa.h
#ifndef Py_LIMITED_API
#ifndef PY_NO_SHORT_FLOAT_REPR
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_FUNC(double) _Py_dg_strtod(const char *str, char **ptr);
PyAPI_FUNC(char *) _Py_dg_dtoa(double d, int mode, int ndigits,
int *decpt, int *sign, char **rve);
PyAPI_FUNC(void) _Py_dg_freedtoa(char *s);
PyAPI_FUNC(double) _Py_dg_stdnan(int sign);
PyAPI_FUNC(double) _Py_dg_infinity(int sign);
#ifdef __cplusplus
}
#endif
#endif
#endif
Raw
Frikr_Include_dynamic_annotations.h
/* Copyright (c) 2008-2009, Google Inc.
* All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions are
* met:
*
* * Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
* * Neither the name of Google Inc. nor the names of its
* contributors may be used to endorse or promote products derived from
* this software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
* "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
* LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
* A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
* OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
* SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
* LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
* THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
* OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*
* ---
* Author: Kostya Serebryany
* Copied to CPython by Jeffrey Yasskin, with all macros renamed to
* start with _Py_ to avoid colliding with users embedding Python, and
* with deprecated macros removed.
*/
/* This file defines dynamic annotations for use with dynamic analysis
tool such as valgrind, PIN, etc.
Dynamic annotation is a source code annotation that affects
the generated code (that is, the annotation is not a comment).
Each such annotation is attached to a particular
instruction and/or to a particular object (address) in the program.
The annotations that should be used by users are macros in all upper-case
(e.g., _Py_ANNOTATE_NEW_MEMORY).
Actual implementation of these macros may differ depending on the
dynamic analysis tool being used.
See http://code.google.com/p/data-race-test/ for more information.
This file supports the following dynamic analysis tools:
- None (DYNAMIC_ANNOTATIONS_ENABLED is not defined or zero).
Macros are defined empty.
- ThreadSanitizer, Helgrind, DRD (DYNAMIC_ANNOTATIONS_ENABLED is 1).
Macros are defined as calls to non-inlinable empty functions
that are intercepted by Valgrind. */
#ifndef __DYNAMIC_ANNOTATIONS_H__
#define __DYNAMIC_ANNOTATIONS_H__
#ifndef DYNAMIC_ANNOTATIONS_ENABLED
# define DYNAMIC_ANNOTATIONS_ENABLED 0
#endif
#if DYNAMIC_ANNOTATIONS_ENABLED != 0
/* -------------------------------------------------------------
Annotations useful when implementing condition variables such as CondVar,
using conditional critical sections (Await/LockWhen) and when constructing
user-defined synchronization mechanisms.
The annotations _Py_ANNOTATE_HAPPENS_BEFORE() and
_Py_ANNOTATE_HAPPENS_AFTER() can be used to define happens-before arcs in
user-defined synchronization mechanisms: the race detector will infer an
arc from the former to the latter when they share the same argument
pointer.
Example 1 (reference counting):
void Unref() {
_Py_ANNOTATE_HAPPENS_BEFORE(&refcount_);
if (AtomicDecrementByOne(&refcount_) == 0) {
_Py_ANNOTATE_HAPPENS_AFTER(&refcount_);
delete this;
}
}
Example 2 (message queue):
void MyQueue::Put(Type *e) {
MutexLock lock(&mu_);
_Py_ANNOTATE_HAPPENS_BEFORE(e);
PutElementIntoMyQueue(e);
}
Type *MyQueue::Get() {
MutexLock lock(&mu_);
Type *e = GetElementFromMyQueue();
_Py_ANNOTATE_HAPPENS_AFTER(e);
return e;
}
Note: when possible, please use the existing reference counting and message
queue implementations instead of inventing new ones. */
/* Report that wait on the condition variable at address "cv" has succeeded
and the lock at address "lock" is held. */
#define _Py_ANNOTATE_CONDVAR_LOCK_WAIT(cv, lock) \
AnnotateCondVarWait(__FILE__, __LINE__, cv, lock)
/* Report that wait on the condition variable at "cv" has succeeded. Variant
w/o lock. */
#define _Py_ANNOTATE_CONDVAR_WAIT(cv) \
AnnotateCondVarWait(__FILE__, __LINE__, cv, NULL)
/* Report that we are about to signal on the condition variable at address
"cv". */
#define _Py_ANNOTATE_CONDVAR_SIGNAL(cv) \
AnnotateCondVarSignal(__FILE__, __LINE__, cv)
/* Report that we are about to signal_all on the condition variable at "cv". */
#define _Py_ANNOTATE_CONDVAR_SIGNAL_ALL(cv) \
AnnotateCondVarSignalAll(__FILE__, __LINE__, cv)
/* Annotations for user-defined synchronization mechanisms. */
#define _Py_ANNOTATE_HAPPENS_BEFORE(obj) _Py_ANNOTATE_CONDVAR_SIGNAL(obj)
#define _Py_ANNOTATE_HAPPENS_AFTER(obj) _Py_ANNOTATE_CONDVAR_WAIT(obj)
/* Report that the bytes in the range [pointer, pointer+size) are about
to be published safely. The race checker will create a happens-before
arc from the call _Py_ANNOTATE_PUBLISH_MEMORY_RANGE(pointer, size) to
subsequent accesses to this memory.
Note: this annotation may not work properly if the race detector uses
sampling, i.e. does not observe all memory accesses.
*/
#define _Py_ANNOTATE_PUBLISH_MEMORY_RANGE(pointer, size) \
AnnotatePublishMemoryRange(__FILE__, __LINE__, pointer, size)
/* Instruct the tool to create a happens-before arc between mu->Unlock() and
mu->Lock(). This annotation may slow down the race detector and hide real
races. Normally it is used only when it would be difficult to annotate each
of the mutex's critical sections individually using the annotations above.
This annotation makes sense only for hybrid race detectors. For pure
happens-before detectors this is a no-op. For more details see
http://code.google.com/p/data-race-test/wiki/PureHappensBeforeVsHybrid . */
#define _Py_ANNOTATE_PURE_HAPPENS_BEFORE_MUTEX(mu) \
AnnotateMutexIsUsedAsCondVar(__FILE__, __LINE__, mu)
/* -------------------------------------------------------------
Annotations useful when defining memory allocators, or when memory that
was protected in one way starts to be protected in another. */
/* Report that a new memory at "address" of size "size" has been allocated.
This might be used when the memory has been retrieved from a free list and
is about to be reused, or when the locking discipline for a variable
changes. */
#define _Py_ANNOTATE_NEW_MEMORY(address, size) \
AnnotateNewMemory(__FILE__, __LINE__, address, size)
/* -------------------------------------------------------------
Annotations useful when defining FIFO queues that transfer data between
threads. */
/* Report that the producer-consumer queue (such as ProducerConsumerQueue) at
address "pcq" has been created. The _Py_ANNOTATE_PCQ_* annotations should
be used only for FIFO queues. For non-FIFO queues use
_Py_ANNOTATE_HAPPENS_BEFORE (for put) and _Py_ANNOTATE_HAPPENS_AFTER (for
get). */
#define _Py_ANNOTATE_PCQ_CREATE(pcq) \
AnnotatePCQCreate(__FILE__, __LINE__, pcq)
/* Report that the queue at address "pcq" is about to be destroyed. */
#define _Py_ANNOTATE_PCQ_DESTROY(pcq) \
AnnotatePCQDestroy(__FILE__, __LINE__, pcq)
/* Report that we are about to put an element into a FIFO queue at address
"pcq". */
#define _Py_ANNOTATE_PCQ_PUT(pcq) \
AnnotatePCQPut(__FILE__, __LINE__, pcq)
/* Report that we've just got an element from a FIFO queue at address "pcq". */
#define _Py_ANNOTATE_PCQ_GET(pcq) \
AnnotatePCQGet(__FILE__, __LINE__, pcq)
/* -------------------------------------------------------------
Annotations that suppress errors. It is usually better to express the
program's synchronization using the other annotations, but these can
be used when all else fails. */
/* Report that we may have a benign race at "pointer", with size
"sizeof(*(pointer))". "pointer" must be a non-void* pointer. Insert at the
point where "pointer" has been allocated, preferably close to the point
where the race happens. See also _Py_ANNOTATE_BENIGN_RACE_STATIC. */
#define _Py_ANNOTATE_BENIGN_RACE(pointer, description) \
AnnotateBenignRaceSized(__FILE__, __LINE__, pointer, \
sizeof(*(pointer)), description)
/* Same as _Py_ANNOTATE_BENIGN_RACE(address, description), but applies to
the memory range [address, address+size). */
#define _Py_ANNOTATE_BENIGN_RACE_SIZED(address, size, description) \
AnnotateBenignRaceSized(__FILE__, __LINE__, address, size, description)
/* Request the analysis tool to ignore all reads in the current thread
until _Py_ANNOTATE_IGNORE_READS_END is called.
Useful to ignore intentional racey reads, while still checking
other reads and all writes.
See also _Py_ANNOTATE_UNPROTECTED_READ. */
#define _Py_ANNOTATE_IGNORE_READS_BEGIN() \
AnnotateIgnoreReadsBegin(__FILE__, __LINE__)
/* Stop ignoring reads. */
#define _Py_ANNOTATE_IGNORE_READS_END() \
AnnotateIgnoreReadsEnd(__FILE__, __LINE__)
/* Similar to _Py_ANNOTATE_IGNORE_READS_BEGIN, but ignore writes. */
#define _Py_ANNOTATE_IGNORE_WRITES_BEGIN() \
AnnotateIgnoreWritesBegin(__FILE__, __LINE__)
/* Stop ignoring writes. */
#define _Py_ANNOTATE_IGNORE_WRITES_END() \
AnnotateIgnoreWritesEnd(__FILE__, __LINE__)
/* Start ignoring all memory accesses (reads and writes). */
#define _Py_ANNOTATE_IGNORE_READS_AND_WRITES_BEGIN() \
do {\
_Py_ANNOTATE_IGNORE_READS_BEGIN();\
_Py_ANNOTATE_IGNORE_WRITES_BEGIN();\
}while(0)\
/* Stop ignoring all memory accesses. */
#define _Py_ANNOTATE_IGNORE_READS_AND_WRITES_END() \
do {\
_Py_ANNOTATE_IGNORE_WRITES_END();\
_Py_ANNOTATE_IGNORE_READS_END();\
}while(0)\
/* Similar to _Py_ANNOTATE_IGNORE_READS_BEGIN, but ignore synchronization events:
RWLOCK* and CONDVAR*. */
#define _Py_ANNOTATE_IGNORE_SYNC_BEGIN() \
AnnotateIgnoreSyncBegin(__FILE__, __LINE__)
/* Stop ignoring sync events. */
#define _Py_ANNOTATE_IGNORE_SYNC_END() \
AnnotateIgnoreSyncEnd(__FILE__, __LINE__)
/* Enable (enable!=0) or disable (enable==0) race detection for all threads.
This annotation could be useful if you want to skip expensive race analysis
during some period of program execution, e.g. during initialization. */
#define _Py_ANNOTATE_ENABLE_RACE_DETECTION(enable) \
AnnotateEnableRaceDetection(__FILE__, __LINE__, enable)
/* -------------------------------------------------------------
Annotations useful for debugging. */
/* Request to trace every access to "address". */
#define _Py_ANNOTATE_TRACE_MEMORY(address) \
AnnotateTraceMemory(__FILE__, __LINE__, address)
/* Report the current thread name to a race detector. */
#define _Py_ANNOTATE_THREAD_NAME(name) \
AnnotateThreadName(__FILE__, __LINE__, name)
/* -------------------------------------------------------------
Annotations useful when implementing locks. They are not
normally needed by modules that merely use locks.
The "lock" argument is a pointer to the lock object. */
/* Report that a lock has been created at address "lock". */
#define _Py_ANNOTATE_RWLOCK_CREATE(lock) \
AnnotateRWLockCreate(__FILE__, __LINE__, lock)
/* Report that the lock at address "lock" is about to be destroyed. */
#define _Py_ANNOTATE_RWLOCK_DESTROY(lock) \
AnnotateRWLockDestroy(__FILE__, __LINE__, lock)
/* Report that the lock at address "lock" has been acquired.
is_w=1 for writer lock, is_w=0 for reader lock. */
#define _Py_ANNOTATE_RWLOCK_ACQUIRED(lock, is_w) \
AnnotateRWLockAcquired(__FILE__, __LINE__, lock, is_w)
/* Report that the lock at address "lock" is about to be released. */
#define _Py_ANNOTATE_RWLOCK_RELEASED(lock, is_w) \
AnnotateRWLockReleased(__FILE__, __LINE__, lock, is_w)
/* -------------------------------------------------------------
Annotations useful when implementing barriers. They are not
normally needed by modules that merely use barriers.
The "barrier" argument is a pointer to the barrier object. */
/* Report that the "barrier" has been initialized with initial "count".
If 'reinitialization_allowed' is true, initialization is allowed to happen
multiple times w/o calling barrier_destroy() */
#define _Py_ANNOTATE_BARRIER_INIT(barrier, count, reinitialization_allowed) \
AnnotateBarrierInit(__FILE__, __LINE__, barrier, count, \
reinitialization_allowed)
/* Report that we are about to enter barrier_wait("barrier"). */
#define _Py_ANNOTATE_BARRIER_WAIT_BEFORE(barrier) \
AnnotateBarrierWaitBefore(__FILE__, __LINE__, barrier)
/* Report that we just exited barrier_wait("barrier"). */
#define _Py_ANNOTATE_BARRIER_WAIT_AFTER(barrier) \
AnnotateBarrierWaitAfter(__FILE__, __LINE__, barrier)
/* Report that the "barrier" has been destroyed. */
#define _Py_ANNOTATE_BARRIER_DESTROY(barrier) \
AnnotateBarrierDestroy(__FILE__, __LINE__, barrier)
/* -------------------------------------------------------------
Annotations useful for testing race detectors. */
/* Report that we expect a race on the variable at "address".
Use only in unit tests for a race detector. */
#define _Py_ANNOTATE_EXPECT_RACE(address, description) \
AnnotateExpectRace(__FILE__, __LINE__, address, description)
/* A no-op. Insert where you like to test the interceptors. */
#define _Py_ANNOTATE_NO_OP(arg) \
AnnotateNoOp(__FILE__, __LINE__, arg)
/* Force the race detector to flush its state. The actual effect depends on
* the implementation of the detector. */
#define _Py_ANNOTATE_FLUSH_STATE() \
AnnotateFlushState(__FILE__, __LINE__)
#else /* DYNAMIC_ANNOTATIONS_ENABLED == 0 */
#define _Py_ANNOTATE_RWLOCK_CREATE(lock) /* empty */
#define _Py_ANNOTATE_RWLOCK_DESTROY(lock) /* empty */
#define _Py_ANNOTATE_RWLOCK_ACQUIRED(lock, is_w) /* empty */
#define _Py_ANNOTATE_RWLOCK_RELEASED(lock, is_w) /* empty */
#define _Py_ANNOTATE_BARRIER_INIT(barrier, count, reinitialization_allowed) /* */
#define _Py_ANNOTATE_BARRIER_WAIT_BEFORE(barrier) /* empty */
#define _Py_ANNOTATE_BARRIER_WAIT_AFTER(barrier) /* empty */
#define _Py_ANNOTATE_BARRIER_DESTROY(barrier) /* empty */
#define _Py_ANNOTATE_CONDVAR_LOCK_WAIT(cv, lock) /* empty */
#define _Py_ANNOTATE_CONDVAR_WAIT(cv) /* empty */
#define _Py_ANNOTATE_CONDVAR_SIGNAL(cv) /* empty */
#define _Py_ANNOTATE_CONDVAR_SIGNAL_ALL(cv) /* empty */
#define _Py_ANNOTATE_HAPPENS_BEFORE(obj) /* empty */
#define _Py_ANNOTATE_HAPPENS_AFTER(obj) /* empty */
#define _Py_ANNOTATE_PUBLISH_MEMORY_RANGE(address, size) /* empty */
#define _Py_ANNOTATE_UNPUBLISH_MEMORY_RANGE(address, size) /* empty */
#define _Py_ANNOTATE_SWAP_MEMORY_RANGE(address, size) /* empty */
#define _Py_ANNOTATE_PCQ_CREATE(pcq) /* empty */
#define _Py_ANNOTATE_PCQ_DESTROY(pcq) /* empty */
#define _Py_ANNOTATE_PCQ_PUT(pcq) /* empty */
#define _Py_ANNOTATE_PCQ_GET(pcq) /* empty */
#define _Py_ANNOTATE_NEW_MEMORY(address, size) /* empty */
#define _Py_ANNOTATE_EXPECT_RACE(address, description) /* empty */
#define _Py_ANNOTATE_BENIGN_RACE(address, description) /* empty */
#define _Py_ANNOTATE_BENIGN_RACE_SIZED(address, size, description) /* empty */
#define _Py_ANNOTATE_PURE_HAPPENS_BEFORE_MUTEX(mu) /* empty */
#define _Py_ANNOTATE_MUTEX_IS_USED_AS_CONDVAR(mu) /* empty */
#define _Py_ANNOTATE_TRACE_MEMORY(arg) /* empty */
#define _Py_ANNOTATE_THREAD_NAME(name) /* empty */
#define _Py_ANNOTATE_IGNORE_READS_BEGIN() /* empty */
#define _Py_ANNOTATE_IGNORE_READS_END() /* empty */
#define _Py_ANNOTATE_IGNORE_WRITES_BEGIN() /* empty */
#define _Py_ANNOTATE_IGNORE_WRITES_END() /* empty */
#define _Py_ANNOTATE_IGNORE_READS_AND_WRITES_BEGIN() /* empty */
#define _Py_ANNOTATE_IGNORE_READS_AND_WRITES_END() /* empty */
#define _Py_ANNOTATE_IGNORE_SYNC_BEGIN() /* empty */
#define _Py_ANNOTATE_IGNORE_SYNC_END() /* empty */
#define _Py_ANNOTATE_ENABLE_RACE_DETECTION(enable) /* empty */
#define _Py_ANNOTATE_NO_OP(arg) /* empty */
#define _Py_ANNOTATE_FLUSH_STATE() /* empty */
#endif /* DYNAMIC_ANNOTATIONS_ENABLED */
/* Use the macros above rather than using these functions directly. */
#ifdef __cplusplus
extern "C" {
#endif
void AnnotateRWLockCreate(const char *file, int line,
const volatile void *lock);
void AnnotateRWLockDestroy(const char *file, int line,
const volatile void *lock);
void AnnotateRWLockAcquired(const char *file, int line,
const volatile void *lock, long is_w);
void AnnotateRWLockReleased(const char *file, int line,
const volatile void *lock, long is_w);
void AnnotateBarrierInit(const char *file, int line,
const volatile void *barrier, long count,
long reinitialization_allowed);
void AnnotateBarrierWaitBefore(const char *file, int line,
const volatile void *barrier);
void AnnotateBarrierWaitAfter(const char *file, int line,
const volatile void *barrier);
void AnnotateBarrierDestroy(const char *file, int line,
const volatile void *barrier);
void AnnotateCondVarWait(const char *file, int line,
const volatile void *cv,
const volatile void *lock);
void AnnotateCondVarSignal(const char *file, int line,
const volatile void *cv);
void AnnotateCondVarSignalAll(const char *file, int line,
const volatile void *cv);
void AnnotatePublishMemoryRange(const char *file, int line,
const volatile void *address,
long size);
void AnnotateUnpublishMemoryRange(const char *file, int line,
const volatile void *address,
long size);
void AnnotatePCQCreate(const char *file, int line,
const volatile void *pcq);
void AnnotatePCQDestroy(const char *file, int line,
const volatile void *pcq);
void AnnotatePCQPut(const char *file, int line,
const volatile void *pcq);
void AnnotatePCQGet(const char *file, int line,
const volatile void *pcq);
void AnnotateNewMemory(const char *file, int line,
const volatile void *address,
long size);
void AnnotateExpectRace(const char *file, int line,
const volatile void *address,
const char *description);
void AnnotateBenignRace(const char *file, int line,
const volatile void *address,
const char *description);
void AnnotateBenignRaceSized(const char *file, int line,
const volatile void *address,
long size,
const char *description);
void AnnotateMutexIsUsedAsCondVar(const char *file, int line,
const volatile void *mu);
void AnnotateTraceMemory(const char *file, int line,
const volatile void *arg);
void AnnotateThreadName(const char *file, int line,
const char *name);
void AnnotateIgnoreReadsBegin(const char *file, int line);
void AnnotateIgnoreReadsEnd(const char *file, int line);
void AnnotateIgnoreWritesBegin(const char *file, int line);
void AnnotateIgnoreWritesEnd(const char *file, int line);
void AnnotateEnableRaceDetection(const char *file, int line, int enable);
void AnnotateNoOp(const char *file, int line,
const volatile void *arg);
void AnnotateFlushState(const char *file, int line);
/* Return non-zero value if running under valgrind.
If "valgrind.h" is included into dynamic_annotations.c,
the regular valgrind mechanism will be used.
See http://valgrind.org/docs/manual/manual-core-adv.html about
RUNNING_ON_VALGRIND and other valgrind "client requests".
The file "valgrind.h" may be obtained by doing
svn co svn://svn.valgrind.org/valgrind/trunk/include
If for some reason you can't use "valgrind.h" or want to fake valgrind,
there are two ways to make this function return non-zero:
- Use environment variable: export RUNNING_ON_VALGRIND=1
- Make your tool intercept the function RunningOnValgrind() and
change its return value.
*/
int RunningOnValgrind(void);
#ifdef __cplusplus
}
#endif
#if DYNAMIC_ANNOTATIONS_ENABLED != 0 && defined(__cplusplus)
/* _Py_ANNOTATE_UNPROTECTED_READ is the preferred way to annotate racey reads.
Instead of doing
_Py_ANNOTATE_IGNORE_READS_BEGIN();
... = x;
_Py_ANNOTATE_IGNORE_READS_END();
one can use
... = _Py_ANNOTATE_UNPROTECTED_READ(x); */
template <class T>
inline T _Py_ANNOTATE_UNPROTECTED_READ(const volatile T &x) {
_Py_ANNOTATE_IGNORE_READS_BEGIN();
T res = x;
_Py_ANNOTATE_IGNORE_READS_END();
return res;
}
/* Apply _Py_ANNOTATE_BENIGN_RACE_SIZED to a static variable. */
#define _Py_ANNOTATE_BENIGN_RACE_STATIC(static_var, description) \
namespace { \
class static_var ## _annotator { \
public: \
static_var ## _annotator() { \
_Py_ANNOTATE_BENIGN_RACE_SIZED(&static_var, \
sizeof(static_var), \
# static_var ": " description); \
} \
}; \
static static_var ## _annotator the ## static_var ## _annotator;\
}
#else /* DYNAMIC_ANNOTATIONS_ENABLED == 0 */
#define _Py_ANNOTATE_UNPROTECTED_READ(x) (x)
#define _Py_ANNOTATE_BENIGN_RACE_STATIC(static_var, description) /* empty */
#endif /* DYNAMIC_ANNOTATIONS_ENABLED */
#endif /* __DYNAMIC_ANNOTATIONS_H__ */
Raw
Frikr_Include_enumobject.h
#ifndef Py_ENUMOBJECT_H
#define Py_ENUMOBJECT_H
/* Enumerate Object */
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_DATA(PyTypeObject) PyEnum_Type;
PyAPI_DATA(PyTypeObject) PyReversed_Type;
#ifdef __cplusplus
}
#endif
#endif /* !Py_ENUMOBJECT_H */
Raw
Frikr_Include_errcode.h
#ifndef Py_ERRCODE_H
#define Py_ERRCODE_H
#ifdef __cplusplus
extern "C" {
#endif
/* Error codes passed around between file input, tokenizer, parser and
interpreter. This is necessary so we can turn them into Python
exceptions at a higher level. Note that some errors have a
slightly different meaning when passed from the tokenizer to the
parser than when passed from the parser to the interpreter; e.g.
the parser only returns E_EOF when it hits EOF immediately, and it
never returns E_OK. */
#define E_OK 10 /* No error */
#define E_EOF 11 /* End Of File */
#define E_INTR 12 /* Interrupted */
#define E_TOKEN 13 /* Bad token */
#define E_SYNTAX 14 /* Syntax error */
#define E_NOMEM 15 /* Ran out of memory */
#define E_DONE 16 /* Parsing complete */
#define E_ERROR 17 /* Execution error */
#define E_TABSPACE 18 /* Inconsistent mixing of tabs and spaces */
#define E_OVERFLOW 19 /* Node had too many children */
#define E_TOODEEP 20 /* Too many indentation levels */
#define E_DEDENT 21 /* No matching outer block for dedent */
#define E_DECODE 22 /* Error in decoding into Unicode */
#define E_EOFS 23 /* EOF in triple-quoted string */
#define E_EOLS 24 /* EOL in single-quoted string */
#define E_LINECONT 25 /* Unexpected characters after a line continuation */
#define E_IDENTIFIER 26 /* Invalid characters in identifier */
#define E_BADSINGLE 27 /* Ill-formed single statement input */
#ifdef __cplusplus
}
#endif
#endif /* !Py_ERRCODE_H */
Raw
Frikr_Include_eval.h
/* Interface to execute compiled code */
#ifndef Py_EVAL_H
#define Py_EVAL_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_FUNC(PyObject *) PyEval_EvalCode(PyObject *, PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyEval_EvalCodeEx(PyObject *co,
PyObject *globals,
PyObject *locals,
PyObject **args, int argc,
PyObject **kwds, int kwdc,
PyObject **defs, int defc,
PyObject *kwdefs, PyObject *closure);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyEval_CallTracing(PyObject *func, PyObject *args);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_EVAL_H */
Raw
Frikr_Include_fileobject.h
/* File object interface (what's left of it -- see io.py) */
#ifndef Py_FILEOBJECT_H
#define Py_FILEOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#define PY_STDIOTEXTMODE "b"
PyAPI_FUNC(PyObject *) PyFile_FromFd(int, const char *, const char *, int,
const char *, const char *,
const char *, int);
PyAPI_FUNC(PyObject *) PyFile_GetLine(PyObject *, int);
PyAPI_FUNC(int) PyFile_WriteObject(PyObject *, PyObject *, int);
PyAPI_FUNC(int) PyFile_WriteString(const char *, PyObject *);
PyAPI_FUNC(int) PyObject_AsFileDescriptor(PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(char *) Py_UniversalNewlineFgets(char *, int, FILE*, PyObject *);
#endif
/* The default encoding used by the platform file system APIs
If non-NULL, this is different than the default encoding for strings
*/
PyAPI_DATA(const char *) Py_FileSystemDefaultEncoding;
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03060000
PyAPI_DATA(const char *) Py_FileSystemDefaultEncodeErrors;
#endif
PyAPI_DATA(int) Py_HasFileSystemDefaultEncoding;
/* Internal API
The std printer acts as a preliminary sys.stderr until the new io
infrastructure is in place. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyFile_NewStdPrinter(int);
PyAPI_DATA(PyTypeObject) PyStdPrinter_Type;
#endif /* Py_LIMITED_API */
/* A routine to check if a file descriptor can be select()-ed. */
#ifdef HAVE_SELECT
#define _PyIsSelectable_fd(FD) (((FD) >= 0) && ((FD) < FD_SETSIZE))
#else
#define _PyIsSelectable_fd(FD) (1)
#endif /* HAVE_SELECT */
#ifdef __cplusplus
}
#endif
#endif /* !Py_FILEOBJECT_H */
Raw
Frikr_Include_fileutils.h
#ifndef Py_FILEUTILS_H
#define Py_FILEUTILS_H
#ifdef __cplusplus
extern "C" {
#endif
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_FUNC(wchar_t *) Py_DecodeLocale(
const char *arg,
size_t *size);
PyAPI_FUNC(char*) Py_EncodeLocale(
const wchar_t *text,
size_t *error_pos);
#endif
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _Py_device_encoding(int);
#ifdef MS_WINDOWS
struct _Py_stat_struct {
unsigned long st_dev;
__int64 st_ino;
unsigned short st_mode;
int st_nlink;
int st_uid;
int st_gid;
unsigned long st_rdev;
__int64 st_size;
time_t st_atime;
int st_atime_nsec;
time_t st_mtime;
int st_mtime_nsec;
time_t st_ctime;
int st_ctime_nsec;
unsigned long st_file_attributes;
};
#else
# define _Py_stat_struct stat
#endif
PyAPI_FUNC(int) _Py_fstat(
int fd,
struct _Py_stat_struct *status);
PyAPI_FUNC(int) _Py_fstat_noraise(
int fd,
struct _Py_stat_struct *status);
PyAPI_FUNC(int) _Py_stat(
PyObject *path,
struct stat *status);
PyAPI_FUNC(int) _Py_open(
const char *pathname,
int flags);
PyAPI_FUNC(int) _Py_open_noraise(
const char *pathname,
int flags);
PyAPI_FUNC(FILE *) _Py_wfopen(
const wchar_t *path,
const wchar_t *mode);
PyAPI_FUNC(FILE*) _Py_fopen(
const char *pathname,
const char *mode);
PyAPI_FUNC(FILE*) _Py_fopen_obj(
PyObject *path,
const char *mode);
PyAPI_FUNC(Py_ssize_t) _Py_read(
int fd,
void *buf,
size_t count);
PyAPI_FUNC(Py_ssize_t) _Py_write(
int fd,
const void *buf,
size_t count);
PyAPI_FUNC(Py_ssize_t) _Py_write_noraise(
int fd,
const void *buf,
size_t count);
#ifdef HAVE_READLINK
PyAPI_FUNC(int) _Py_wreadlink(
const wchar_t *path,
wchar_t *buf,
size_t bufsiz);
#endif
#ifdef HAVE_REALPATH
PyAPI_FUNC(wchar_t*) _Py_wrealpath(
const wchar_t *path,
wchar_t *resolved_path,
size_t resolved_path_size);
#endif
PyAPI_FUNC(wchar_t*) _Py_wgetcwd(
wchar_t *buf,
size_t size);
PyAPI_FUNC(int) _Py_get_inheritable(int fd);
PyAPI_FUNC(int) _Py_set_inheritable(int fd, int inheritable,
int *atomic_flag_works);
PyAPI_FUNC(int) _Py_dup(int fd);
#ifndef MS_WINDOWS
PyAPI_FUNC(int) _Py_get_blocking(int fd);
PyAPI_FUNC(int) _Py_set_blocking(int fd, int blocking);
#endif /* !MS_WINDOWS */
#endif /* Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_FILEUTILS_H */
Raw
Frikr_Include_floatobject.h
/* Float object interface */
/*
PyFloatObject represents a (double precision) floating point number.
*/
#ifndef Py_FLOATOBJECT_H
#define Py_FLOATOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
typedef struct {
PyObject_HEAD
double ob_fval;
} PyFloatObject;
#endif
PyAPI_DATA(PyTypeObject) PyFloat_Type;
#define PyFloat_Check(op) PyObject_TypeCheck(op, &PyFloat_Type)
#define PyFloat_CheckExact(op) (Py_TYPE(op) == &PyFloat_Type)
#ifdef Py_NAN
#define Py_RETURN_NAN return PyFloat_FromDouble(Py_NAN)
#endif
#define Py_RETURN_INF(sign) do \
if (copysign(1., sign) == 1.) { \
return PyFloat_FromDouble(Py_HUGE_VAL); \
} else { \
return PyFloat_FromDouble(-Py_HUGE_VAL); \
} while(0)
PyAPI_FUNC(double) PyFloat_GetMax(void);
PyAPI_FUNC(double) PyFloat_GetMin(void);
PyAPI_FUNC(PyObject *) PyFloat_GetInfo(void);
/* Return Python float from string PyObject. */
PyAPI_FUNC(PyObject *) PyFloat_FromString(PyObject*);
/* Return Python float from C double. */
PyAPI_FUNC(PyObject *) PyFloat_FromDouble(double);
/* Extract C double from Python float. The macro version trades safety for
speed. */
PyAPI_FUNC(double) PyFloat_AsDouble(PyObject *);
#ifndef Py_LIMITED_API
#define PyFloat_AS_DOUBLE(op) (((PyFloatObject *)(op))->ob_fval)
#endif
#ifndef Py_LIMITED_API
/* _PyFloat_{Pack,Unpack}{4,8}
*
* The struct and pickle (at least) modules need an efficient platform-
* independent way to store floating-point values as byte strings.
* The Pack routines produce a string from a C double, and the Unpack
* routines produce a C double from such a string. The suffix (4 or 8)
* specifies the number of bytes in the string.
*
* On platforms that appear to use (see _PyFloat_Init()) IEEE-754 formats
* these functions work by copying bits. On other platforms, the formats the
* 4- byte format is identical to the IEEE-754 single precision format, and
* the 8-byte format to the IEEE-754 double precision format, although the
* packing of INFs and NaNs (if such things exist on the platform) isn't
* handled correctly, and attempting to unpack a string containing an IEEE
* INF or NaN will raise an exception.
*
* On non-IEEE platforms with more precision, or larger dynamic range, than
* 754 supports, not all values can be packed; on non-IEEE platforms with less
* precision, or smaller dynamic range, not all values can be unpacked. What
* happens in such cases is partly accidental (alas).
*/
/* The pack routines write 2, 4 or 8 bytes, starting at p. le is a bool
* argument, true if you want the string in little-endian format (exponent
* last, at p+1, p+3 or p+7), false if you want big-endian format (exponent
* first, at p).
* Return value: 0 if all is OK, -1 if error (and an exception is
* set, most likely OverflowError).
* There are two problems on non-IEEE platforms:
* 1): What this does is undefined if x is a NaN or infinity.
* 2): -0.0 and +0.0 produce the same string.
*/
PyAPI_FUNC(int) _PyFloat_Pack2(double x, unsigned char *p, int le);
PyAPI_FUNC(int) _PyFloat_Pack4(double x, unsigned char *p, int le);
PyAPI_FUNC(int) _PyFloat_Pack8(double x, unsigned char *p, int le);
/* Needed for the old way for marshal to store a floating point number.
Returns the string length copied into p, -1 on error.
*/
PyAPI_FUNC(int) _PyFloat_Repr(double x, char *p, size_t len);
/* Used to get the important decimal digits of a double */
PyAPI_FUNC(int) _PyFloat_Digits(char *buf, double v, int *signum);
PyAPI_FUNC(void) _PyFloat_DigitsInit(void);
/* The unpack routines read 2, 4 or 8 bytes, starting at p. le is a bool
* argument, true if the string is in little-endian format (exponent
* last, at p+1, p+3 or p+7), false if big-endian (exponent first, at p).
* Return value: The unpacked double. On error, this is -1.0 and
* PyErr_Occurred() is true (and an exception is set, most likely
* OverflowError). Note that on a non-IEEE platform this will refuse
* to unpack a string that represents a NaN or infinity.
*/
PyAPI_FUNC(double) _PyFloat_Unpack2(const unsigned char *p, int le);
PyAPI_FUNC(double) _PyFloat_Unpack4(const unsigned char *p, int le);
PyAPI_FUNC(double) _PyFloat_Unpack8(const unsigned char *p, int le);
/* free list api */
PyAPI_FUNC(int) PyFloat_ClearFreeList(void);
PyAPI_FUNC(void) _PyFloat_DebugMallocStats(FILE* out);
/* Format the object based on the format_spec, as defined in PEP 3101
(Advanced String Formatting). */
PyAPI_FUNC(int) _PyFloat_FormatAdvancedWriter(
_PyUnicodeWriter *writer,
PyObject *obj,
PyObject *format_spec,
Py_ssize_t start,
Py_ssize_t end);
#endif /* Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_FLOATOBJECT_H */
Raw
Frikr_Include_frameobject.h
/* Frame object interface */
#ifndef Py_LIMITED_API
#ifndef Py_FRAMEOBJECT_H
#define Py_FRAMEOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
typedef struct {
int b_type; /* what kind of block this is */
int b_handler; /* where to jump to find handler */
int b_level; /* value stack level to pop to */
} PyTryBlock;
typedef struct _frame {
PyObject_VAR_HEAD
struct _frame *f_back; /* previous frame, or NULL */
PyCodeObject *f_code; /* code segment */
PyObject *f_builtins; /* builtin symbol table (PyDictObject) */
PyObject *f_globals; /* global symbol table (PyDictObject) */
PyObject *f_locals; /* local symbol table (any mapping) */
PyObject **f_valuestack; /* points after the last local */
/* Next free slot in f_valuestack. Frame creation sets to f_valuestack.
Frame evaluation usually NULLs it, but a frame that yields sets it
to the current stack top. */
PyObject **f_stacktop;
PyObject *f_trace; /* Trace function */
/* In a generator, we need to be able to swap between the exception
state inside the generator and the exception state of the calling
frame (which shouldn't be impacted when the generator "yields"
from an except handler).
These three fields exist exactly for that, and are unused for
non-generator frames. See the save_exc_state and swap_exc_state
functions in ceval.c for details of their use. */
PyObject *f_exc_type, *f_exc_value, *f_exc_traceback;
/* Borrowed reference to a generator, or NULL */
PyObject *f_gen;
int f_lasti; /* Last instruction if called */
/* Call PyFrame_GetLineNumber() instead of reading this field
directly. As of 2.3 f_lineno is only valid when tracing is
active (i.e. when f_trace is set). At other times we use
PyCode_Addr2Line to calculate the line from the current
bytecode index. */
int f_lineno; /* Current line number */
int f_iblock; /* index in f_blockstack */
char f_executing; /* whether the frame is still executing */
PyTryBlock f_blockstack[CO_MAXBLOCKS]; /* for try and loop blocks */
PyObject *f_localsplus[1]; /* locals+stack, dynamically sized */
} PyFrameObject;
/* Standard object interface */
PyAPI_DATA(PyTypeObject) PyFrame_Type;
#define PyFrame_Check(op) (Py_TYPE(op) == &PyFrame_Type)
PyAPI_FUNC(PyFrameObject *) PyFrame_New(PyThreadState *, PyCodeObject *,
PyObject *, PyObject *);
/* The rest of the interface is specific for frame objects */
/* Block management functions */
PyAPI_FUNC(void) PyFrame_BlockSetup(PyFrameObject *, int, int, int);
PyAPI_FUNC(PyTryBlock *) PyFrame_BlockPop(PyFrameObject *);
/* Extend the value stack */
PyAPI_FUNC(PyObject **) PyFrame_ExtendStack(PyFrameObject *, int, int);
/* Conversions between "fast locals" and locals in dictionary */
PyAPI_FUNC(void) PyFrame_LocalsToFast(PyFrameObject *, int);
PyAPI_FUNC(int) PyFrame_FastToLocalsWithError(PyFrameObject *f);
PyAPI_FUNC(void) PyFrame_FastToLocals(PyFrameObject *);
PyAPI_FUNC(int) PyFrame_ClearFreeList(void);
PyAPI_FUNC(void) _PyFrame_DebugMallocStats(FILE *out);
/* Return the line of code the frame is currently executing. */
PyAPI_FUNC(int) PyFrame_GetLineNumber(PyFrameObject *);
#ifdef __cplusplus
}
#endif
#endif /* !Py_FRAMEOBJECT_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_funcobject.h
/* Function object interface */
#ifndef Py_LIMITED_API
#ifndef Py_FUNCOBJECT_H
#define Py_FUNCOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
/* Function objects and code objects should not be confused with each other:
*
* Function objects are created by the execution of the 'def' statement.
* They reference a code object in their __code__ attribute, which is a
* purely syntactic object, i.e. nothing more than a compiled version of some
* source code lines. There is one code object per source code "fragment",
* but each code object can be referenced by zero or many function objects
* depending only on how many times the 'def' statement in the source was
* executed so far.
*/
typedef struct {
PyObject_HEAD
PyObject *func_code; /* A code object, the __code__ attribute */
PyObject *func_globals; /* A dictionary (other mappings won't do) */
PyObject *func_defaults; /* NULL or a tuple */
PyObject *func_kwdefaults; /* NULL or a dict */
PyObject *func_closure; /* NULL or a tuple of cell objects */
PyObject *func_doc; /* The __doc__ attribute, can be anything */
PyObject *func_name; /* The __name__ attribute, a string object */
PyObject *func_dict; /* The __dict__ attribute, a dict or NULL */
PyObject *func_weakreflist; /* List of weak references */
PyObject *func_module; /* The __module__ attribute, can be anything */
PyObject *func_annotations; /* Annotations, a dict or NULL */
PyObject *func_qualname; /* The qualified name */
/* Invariant:
* func_closure contains the bindings for func_code->co_freevars, so
* PyTuple_Size(func_closure) == PyCode_GetNumFree(func_code)
* (func_closure may be NULL if PyCode_GetNumFree(func_code) == 0).
*/
} PyFunctionObject;
PyAPI_DATA(PyTypeObject) PyFunction_Type;
#define PyFunction_Check(op) (Py_TYPE(op) == &PyFunction_Type)
PyAPI_FUNC(PyObject *) PyFunction_New(PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyFunction_NewWithQualName(PyObject *, PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyFunction_GetCode(PyObject *);
PyAPI_FUNC(PyObject *) PyFunction_GetGlobals(PyObject *);
PyAPI_FUNC(PyObject *) PyFunction_GetModule(PyObject *);
PyAPI_FUNC(PyObject *) PyFunction_GetDefaults(PyObject *);
PyAPI_FUNC(int) PyFunction_SetDefaults(PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyFunction_GetKwDefaults(PyObject *);
PyAPI_FUNC(int) PyFunction_SetKwDefaults(PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyFunction_GetClosure(PyObject *);
PyAPI_FUNC(int) PyFunction_SetClosure(PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyFunction_GetAnnotations(PyObject *);
PyAPI_FUNC(int) PyFunction_SetAnnotations(PyObject *, PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyFunction_FastCallDict(
PyObject *func,
PyObject **args,
Py_ssize_t nargs,
PyObject *kwargs);
PyAPI_FUNC(PyObject *) _PyFunction_FastCallKeywords(
PyObject *func,
PyObject **stack,
Py_ssize_t nargs,
PyObject *kwnames);
#endif
/* Macros for direct access to these values. Type checks are *not*
done, so use with care. */
#define PyFunction_GET_CODE(func) \
(((PyFunctionObject *)func) -> func_code)
#define PyFunction_GET_GLOBALS(func) \
(((PyFunctionObject *)func) -> func_globals)
#define PyFunction_GET_MODULE(func) \
(((PyFunctionObject *)func) -> func_module)
#define PyFunction_GET_DEFAULTS(func) \
(((PyFunctionObject *)func) -> func_defaults)
#define PyFunction_GET_KW_DEFAULTS(func) \
(((PyFunctionObject *)func) -> func_kwdefaults)
#define PyFunction_GET_CLOSURE(func) \
(((PyFunctionObject *)func) -> func_closure)
#define PyFunction_GET_ANNOTATIONS(func) \
(((PyFunctionObject *)func) -> func_annotations)
/* The classmethod and staticmethod types lives here, too */
PyAPI_DATA(PyTypeObject) PyClassMethod_Type;
PyAPI_DATA(PyTypeObject) PyStaticMethod_Type;
PyAPI_FUNC(PyObject *) PyClassMethod_New(PyObject *);
PyAPI_FUNC(PyObject *) PyStaticMethod_New(PyObject *);
#ifdef __cplusplus
}
#endif
#endif /* !Py_FUNCOBJECT_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_genobject.h
/* Generator object interface */
#ifndef Py_LIMITED_API
#ifndef Py_GENOBJECT_H
#define Py_GENOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
struct _frame; /* Avoid including frameobject.h */
/* _PyGenObject_HEAD defines the initial segment of generator
and coroutine objects. */
#define _PyGenObject_HEAD(prefix) \
PyObject_HEAD \
/* Note: gi_frame can be NULL if the generator is "finished" */ \
struct _frame *prefix##_frame; \
/* True if generator is being executed. */ \
char prefix##_running; \
/* The code object backing the generator */ \
PyObject *prefix##_code; \
/* List of weak reference. */ \
PyObject *prefix##_weakreflist; \
/* Name of the generator. */ \
PyObject *prefix##_name; \
/* Qualified name of the generator. */ \
PyObject *prefix##_qualname;
typedef struct {
/* The gi_ prefix is intended to remind of generator-iterator. */
_PyGenObject_HEAD(gi)
} PyGenObject;
PyAPI_DATA(PyTypeObject) PyGen_Type;
#define PyGen_Check(op) PyObject_TypeCheck(op, &PyGen_Type)
#define PyGen_CheckExact(op) (Py_TYPE(op) == &PyGen_Type)
PyAPI_FUNC(PyObject *) PyGen_New(struct _frame *);
PyAPI_FUNC(PyObject *) PyGen_NewWithQualName(struct _frame *,
PyObject *name, PyObject *qualname);
PyAPI_FUNC(int) PyGen_NeedsFinalizing(PyGenObject *);
PyAPI_FUNC(int) _PyGen_SetStopIterationValue(PyObject *);
PyAPI_FUNC(int) _PyGen_FetchStopIterationValue(PyObject **);
PyAPI_FUNC(PyObject *) _PyGen_Send(PyGenObject *, PyObject *);
PyObject *_PyGen_yf(PyGenObject *);
PyAPI_FUNC(void) _PyGen_Finalize(PyObject *self);
#ifndef Py_LIMITED_API
typedef struct {
_PyGenObject_HEAD(cr)
} PyCoroObject;
PyAPI_DATA(PyTypeObject) PyCoro_Type;
PyAPI_DATA(PyTypeObject) _PyCoroWrapper_Type;
PyAPI_DATA(PyTypeObject) _PyAIterWrapper_Type;
PyObject *_PyAIterWrapper_New(PyObject *aiter);
#define PyCoro_CheckExact(op) (Py_TYPE(op) == &PyCoro_Type)
PyObject *_PyCoro_GetAwaitableIter(PyObject *o);
PyAPI_FUNC(PyObject *) PyCoro_New(struct _frame *,
PyObject *name, PyObject *qualname);
/* Asynchronous Generators */
typedef struct {
_PyGenObject_HEAD(ag)
PyObject *ag_finalizer;
/* Flag is set to 1 when hooks set up by sys.set_asyncgen_hooks
were called on the generator, to avoid calling them more
than once. */
int ag_hooks_inited;
/* Flag is set to 1 when aclose() is called for the first time, or
when a StopAsyncIteration exception is raised. */
int ag_closed;
} PyAsyncGenObject;
PyAPI_DATA(PyTypeObject) PyAsyncGen_Type;
PyAPI_DATA(PyTypeObject) _PyAsyncGenASend_Type;
PyAPI_DATA(PyTypeObject) _PyAsyncGenWrappedValue_Type;
PyAPI_DATA(PyTypeObject) _PyAsyncGenAThrow_Type;
PyAPI_FUNC(PyObject *) PyAsyncGen_New(struct _frame *,
PyObject *name, PyObject *qualname);
#define PyAsyncGen_CheckExact(op) (Py_TYPE(op) == &PyAsyncGen_Type)
PyObject *_PyAsyncGenValueWrapperNew(PyObject *);
int PyAsyncGen_ClearFreeLists(void);
#endif
#undef _PyGenObject_HEAD
#ifdef __cplusplus
}
#endif
#endif /* !Py_GENOBJECT_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_graminit.h
/* Generated by Parser/pgen */
#define single_input 256
#define file_input 257
#define eval_input 258
#define decorator 259
#define decorators 260
#define decorated 261
#define async_funcdef 262
#define funcdef 263
#define parameters 264
#define typedargslist 265
#define tfpdef 266
#define varargslist 267
#define vfpdef 268
#define stmt 269
#define simple_stmt 270
#define small_stmt 271
#define expr_stmt 272
#define annassign 273
#define testlist_star_expr 274
#define augassign 275
#define del_stmt 276
#define pass_stmt 277
#define flow_stmt 278
#define break_stmt 279
#define continue_stmt 280
#define return_stmt 281
#define yield_stmt 282
#define raise_stmt 283
#define import_stmt 284
#define import_name 285
#define import_from 286
#define import_as_name 287
#define dotted_as_name 288
#define import_as_names 289
#define dotted_as_names 290
#define dotted_name 291
#define global_stmt 292
#define nonlocal_stmt 293
#define assert_stmt 294
#define compound_stmt 295
#define async_stmt 296
#define if_stmt 297
#define while_stmt 298
#define for_stmt 299
#define try_stmt 300
#define with_stmt 301
#define with_item 302
#define except_clause 303
#define suite 304
#define test 305
#define test_nocond 306
#define lambdef 307
#define lambdef_nocond 308
#define or_test 309
#define and_test 310
#define not_test 311
#define comparison 312
#define comp_op 313
#define star_expr 314
#define expr 315
#define xor_expr 316
#define and_expr 317
#define shift_expr 318
#define arith_expr 319
#define term 320
#define factor 321
#define power 322
#define atom_expr 323
#define atom 324
#define testlist_comp 325
#define trailer 326
#define subscriptlist 327
#define subscript 328
#define sliceop 329
#define exprlist 330
#define testlist 331
#define dictorsetmaker 332
#define classdef 333
#define arglist 334
#define argument 335
#define comp_iter 336
#define comp_for 337
#define comp_if 338
#define encoding_decl 339
#define yield_expr 340
#define yield_arg 341
Raw
Frikr_Include_grammar.h
/* Grammar interface */
#ifndef Py_GRAMMAR_H
#define Py_GRAMMAR_H
#ifdef __cplusplus
extern "C" {
#endif
#include "bitset.h" /* Sigh... */
/* A label of an arc */
typedef struct {
int lb_type;
char *lb_str;
} label;
#define EMPTY 0 /* Label number 0 is by definition the empty label */
/* A list of labels */
typedef struct {
int ll_nlabels;
label *ll_label;
} labellist;
/* An arc from one state to another */
typedef struct {
short a_lbl; /* Label of this arc */
short a_arrow; /* State where this arc goes to */
} arc;
/* A state in a DFA */
typedef struct {
int s_narcs;
arc *s_arc; /* Array of arcs */
/* Optional accelerators */
int s_lower; /* Lowest label index */
int s_upper; /* Highest label index */
int *s_accel; /* Accelerator */
int s_accept; /* Nonzero for accepting state */
} state;
/* A DFA */
typedef struct {
int d_type; /* Non-terminal this represents */
char *d_name; /* For printing */
int d_initial; /* Initial state */
int d_nstates;
state *d_state; /* Array of states */
bitset d_first;
} dfa;
/* A grammar */
typedef struct {
int g_ndfas;
dfa *g_dfa; /* Array of DFAs */
labellist g_ll;
int g_start; /* Start symbol of the grammar */
int g_accel; /* Set if accelerators present */
} grammar;
/* FUNCTIONS */
grammar *newgrammar(int start);
void freegrammar(grammar *g);
dfa *adddfa(grammar *g, int type, const char *name);
int addstate(dfa *d);
void addarc(dfa *d, int from, int to, int lbl);
dfa *PyGrammar_FindDFA(grammar *g, int type);
int addlabel(labellist *ll, int type, const char *str);
int findlabel(labellist *ll, int type, const char *str);
const char *PyGrammar_LabelRepr(label *lb);
void translatelabels(grammar *g);
void addfirstsets(grammar *g);
void PyGrammar_AddAccelerators(grammar *g);
void PyGrammar_RemoveAccelerators(grammar *);
void printgrammar(grammar *g, FILE *fp);
void printnonterminals(grammar *g, FILE *fp);
#ifdef __cplusplus
}
#endif
#endif /* !Py_GRAMMAR_H */
Raw
Frikr_Include_greenlet_greenlet.h
/* vim:set noet ts=8 sw=8 : */
/* Greenlet object interface */
#ifndef Py_GREENLETOBJECT_H
#define Py_GREENLETOBJECT_H
#include <Python.h>
#ifdef __cplusplus
extern "C" {
#endif
#define GREENLET_VERSION "0.4.12"
typedef struct _greenlet {
PyObject_HEAD
char* stack_start;
char* stack_stop;
char* stack_copy;
intptr_t stack_saved;
struct _greenlet* stack_prev;
struct _greenlet* parent;
PyObject* run_info;
struct _frame* top_frame;
int recursion_depth;
PyObject* weakreflist;
PyObject* exc_type;
PyObject* exc_value;
PyObject* exc_traceback;
PyObject* dict;
} PyGreenlet;
#define PyGreenlet_Check(op) PyObject_TypeCheck(op, &PyGreenlet_Type)
#define PyGreenlet_MAIN(op) (((PyGreenlet*)(op))->stack_stop == (char*) -1)
#define PyGreenlet_STARTED(op) (((PyGreenlet*)(op))->stack_stop != NULL)
#define PyGreenlet_ACTIVE(op) (((PyGreenlet*)(op))->stack_start != NULL)
#define PyGreenlet_GET_PARENT(op) (((PyGreenlet*)(op))->parent)
#if (PY_MAJOR_VERSION == 2 && PY_MINOR_VERSION >= 7) || (PY_MAJOR_VERSION == 3 && PY_MINOR_VERSION >= 1) || PY_MAJOR_VERSION > 3
#define GREENLET_USE_PYCAPSULE
#endif
/* C API functions */
/* Total number of symbols that are exported */
#define PyGreenlet_API_pointers 8
#define PyGreenlet_Type_NUM 0
#define PyExc_GreenletError_NUM 1
#define PyExc_GreenletExit_NUM 2
#define PyGreenlet_New_NUM 3
#define PyGreenlet_GetCurrent_NUM 4
#define PyGreenlet_Throw_NUM 5
#define PyGreenlet_Switch_NUM 6
#define PyGreenlet_SetParent_NUM 7
#ifndef GREENLET_MODULE
/* This section is used by modules that uses the greenlet C API */
static void **_PyGreenlet_API = NULL;
#define PyGreenlet_Type (*(PyTypeObject *) _PyGreenlet_API[PyGreenlet_Type_NUM])
#define PyExc_GreenletError \
((PyObject *) _PyGreenlet_API[PyExc_GreenletError_NUM])
#define PyExc_GreenletExit \
((PyObject *) _PyGreenlet_API[PyExc_GreenletExit_NUM])
/*
* PyGreenlet_New(PyObject *args)
*
* greenlet.greenlet(run, parent=None)
*/
#define PyGreenlet_New \
(* (PyGreenlet * (*)(PyObject *run, PyGreenlet *parent)) \
_PyGreenlet_API[PyGreenlet_New_NUM])
/*
* PyGreenlet_GetCurrent(void)
*
* greenlet.getcurrent()
*/
#define PyGreenlet_GetCurrent \
(* (PyGreenlet * (*)(void)) _PyGreenlet_API[PyGreenlet_GetCurrent_NUM])
/*
* PyGreenlet_Throw(
* PyGreenlet *greenlet,
* PyObject *typ,
* PyObject *val,
* PyObject *tb)
*
* g.throw(...)
*/
#define PyGreenlet_Throw \
(* (PyObject * (*) \
(PyGreenlet *self, PyObject *typ, PyObject *val, PyObject *tb)) \
_PyGreenlet_API[PyGreenlet_Throw_NUM])
/*
* PyGreenlet_Switch(PyGreenlet *greenlet, PyObject *args)
*
* g.switch(*args, **kwargs)
*/
#define PyGreenlet_Switch \
(* (PyObject * (*)(PyGreenlet *greenlet, PyObject *args, PyObject *kwargs)) \
_PyGreenlet_API[PyGreenlet_Switch_NUM])
/*
* PyGreenlet_SetParent(PyObject *greenlet, PyObject *new_parent)
*
* g.parent = new_parent
*/
#define PyGreenlet_SetParent \
(* (int (*)(PyGreenlet *greenlet, PyGreenlet *nparent)) \
_PyGreenlet_API[PyGreenlet_SetParent_NUM])
/* Macro that imports greenlet and initializes C API */
#ifdef GREENLET_USE_PYCAPSULE
#define PyGreenlet_Import() \
{ \
_PyGreenlet_API = (void**)PyCapsule_Import("greenlet._C_API", 0); \
}
#else
#define PyGreenlet_Import() \
{ \
PyObject *module = PyImport_ImportModule("greenlet"); \
if (module != NULL) { \
PyObject *c_api_object = PyObject_GetAttrString( \
module, "_C_API"); \
if (c_api_object != NULL && PyCObject_Check(c_api_object)) { \
_PyGreenlet_API = \
(void **) PyCObject_AsVoidPtr(c_api_object); \
Py_DECREF(c_api_object); \
} \
Py_DECREF(module); \
} \
}
#endif
#endif /* GREENLET_MODULE */
#ifdef __cplusplus
}
#endif
#endif /* !Py_GREENLETOBJECT_H */
Raw
Frikr_Include_import.h
/* Module definition and import interface */
#ifndef Py_IMPORT_H
#define Py_IMPORT_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyImportZip_Init(void);
PyMODINIT_FUNC PyInit_imp(void);
#endif /* !Py_LIMITED_API */
PyAPI_FUNC(long) PyImport_GetMagicNumber(void);
PyAPI_FUNC(const char *) PyImport_GetMagicTag(void);
PyAPI_FUNC(PyObject *) PyImport_ExecCodeModule(
const char *name, /* UTF-8 encoded string */
PyObject *co
);
PyAPI_FUNC(PyObject *) PyImport_ExecCodeModuleEx(
const char *name, /* UTF-8 encoded string */
PyObject *co,
const char *pathname /* decoded from the filesystem encoding */
);
PyAPI_FUNC(PyObject *) PyImport_ExecCodeModuleWithPathnames(
const char *name, /* UTF-8 encoded string */
PyObject *co,
const char *pathname, /* decoded from the filesystem encoding */
const char *cpathname /* decoded from the filesystem encoding */
);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject *) PyImport_ExecCodeModuleObject(
PyObject *name,
PyObject *co,
PyObject *pathname,
PyObject *cpathname
);
#endif
PyAPI_FUNC(PyObject *) PyImport_GetModuleDict(void);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject *) PyImport_AddModuleObject(
PyObject *name
);
#endif
PyAPI_FUNC(PyObject *) PyImport_AddModule(
const char *name /* UTF-8 encoded string */
);
PyAPI_FUNC(PyObject *) PyImport_ImportModule(
const char *name /* UTF-8 encoded string */
);
PyAPI_FUNC(PyObject *) PyImport_ImportModuleNoBlock(
const char *name /* UTF-8 encoded string */
);
PyAPI_FUNC(PyObject *) PyImport_ImportModuleLevel(
const char *name, /* UTF-8 encoded string */
PyObject *globals,
PyObject *locals,
PyObject *fromlist,
int level
);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_FUNC(PyObject *) PyImport_ImportModuleLevelObject(
PyObject *name,
PyObject *globals,
PyObject *locals,
PyObject *fromlist,
int level
);
#endif
#define PyImport_ImportModuleEx(n, g, l, f) \
PyImport_ImportModuleLevel(n, g, l, f, 0)
PyAPI_FUNC(PyObject *) PyImport_GetImporter(PyObject *path);
PyAPI_FUNC(PyObject *) PyImport_Import(PyObject *name);
PyAPI_FUNC(PyObject *) PyImport_ReloadModule(PyObject *m);
PyAPI_FUNC(void) PyImport_Cleanup(void);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(int) PyImport_ImportFrozenModuleObject(
PyObject *name
);
#endif
PyAPI_FUNC(int) PyImport_ImportFrozenModule(
const char *name /* UTF-8 encoded string */
);
#ifndef Py_LIMITED_API
#ifdef WITH_THREAD
PyAPI_FUNC(void) _PyImport_AcquireLock(void);
PyAPI_FUNC(int) _PyImport_ReleaseLock(void);
#else
#define _PyImport_AcquireLock()
#define _PyImport_ReleaseLock() 1
#endif
PyAPI_FUNC(void) _PyImport_ReInitLock(void);
PyAPI_FUNC(PyObject *) _PyImport_FindBuiltin(
const char *name /* UTF-8 encoded string */
);
PyAPI_FUNC(PyObject *) _PyImport_FindExtensionObject(PyObject *, PyObject *);
PyAPI_FUNC(int) _PyImport_FixupBuiltin(
PyObject *mod,
const char *name /* UTF-8 encoded string */
);
PyAPI_FUNC(int) _PyImport_FixupExtensionObject(PyObject*, PyObject *, PyObject *);
struct _inittab {
const char *name; /* ASCII encoded string */
PyObject* (*initfunc)(void);
};
PyAPI_DATA(struct _inittab *) PyImport_Inittab;
PyAPI_FUNC(int) PyImport_ExtendInittab(struct _inittab *newtab);
#endif /* Py_LIMITED_API */
PyAPI_DATA(PyTypeObject) PyNullImporter_Type;
PyAPI_FUNC(int) PyImport_AppendInittab(
const char *name, /* ASCII encoded string */
PyObject* (*initfunc)(void)
);
#ifndef Py_LIMITED_API
struct _frozen {
const char *name; /* ASCII encoded string */
const unsigned char *code;
int size;
};
/* Embedding apps may change this pointer to point to their favorite
collection of frozen modules: */
PyAPI_DATA(const struct _frozen *) PyImport_FrozenModules;
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_IMPORT_H */
Raw
Frikr_Include_intrcheck.h
#ifndef Py_INTRCHECK_H
#define Py_INTRCHECK_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_FUNC(int) PyOS_InterruptOccurred(void);
PyAPI_FUNC(void) PyOS_InitInterrupts(void);
PyAPI_FUNC(void) PyOS_AfterFork(void);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyOS_IsMainThread(void);
#ifdef MS_WINDOWS
/* windows.h is not included by Python.h so use void* instead of HANDLE */
PyAPI_FUNC(void*) _PyOS_SigintEvent(void);
#endif
#endif /* !Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_INTRCHECK_H */
Raw
Frikr_Include_iterobject.h
#ifndef Py_ITEROBJECT_H
#define Py_ITEROBJECT_H
/* Iterators (the basic kind, over a sequence) */
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_DATA(PyTypeObject) PySeqIter_Type;
PyAPI_DATA(PyTypeObject) PyCallIter_Type;
PyAPI_DATA(PyTypeObject) PyCmpWrapper_Type;
#define PySeqIter_Check(op) (Py_TYPE(op) == &PySeqIter_Type)
PyAPI_FUNC(PyObject *) PySeqIter_New(PyObject *);
#define PyCallIter_Check(op) (Py_TYPE(op) == &PyCallIter_Type)
PyAPI_FUNC(PyObject *) PyCallIter_New(PyObject *, PyObject *);
#ifdef __cplusplus
}
#endif
#endif /* !Py_ITEROBJECT_H */
Raw
Frikr_Include_listobject.h
/* List object interface */
/*
Another generally useful object type is a list of object pointers.
This is a mutable type: the list items can be changed, and items can be
added or removed. Out-of-range indices or non-list objects are ignored.
*** WARNING *** PyList_SetItem does not increment the new item's reference
count, but does decrement the reference count of the item it replaces,
if not nil. It does *decrement* the reference count if it is *not*
inserted in the list. Similarly, PyList_GetItem does not increment the
returned item's reference count.
*/
#ifndef Py_LISTOBJECT_H
#define Py_LISTOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
typedef struct {
PyObject_VAR_HEAD
/* Vector of pointers to list elements. list[0] is ob_item[0], etc. */
PyObject **ob_item;
/* ob_item contains space for 'allocated' elements. The number
* currently in use is ob_size.
* Invariants:
* 0 <= ob_size <= allocated
* len(list) == ob_size
* ob_item == NULL implies ob_size == allocated == 0
* list.sort() temporarily sets allocated to -1 to detect mutations.
*
* Items must normally not be NULL, except during construction when
* the list is not yet visible outside the function that builds it.
*/
Py_ssize_t allocated;
} PyListObject;
#endif
PyAPI_DATA(PyTypeObject) PyList_Type;
PyAPI_DATA(PyTypeObject) PyListIter_Type;
PyAPI_DATA(PyTypeObject) PyListRevIter_Type;
PyAPI_DATA(PyTypeObject) PySortWrapper_Type;
#define PyList_Check(op) \
PyType_FastSubclass(Py_TYPE(op), Py_TPFLAGS_LIST_SUBCLASS)
#define PyList_CheckExact(op) (Py_TYPE(op) == &PyList_Type)
PyAPI_FUNC(PyObject *) PyList_New(Py_ssize_t size);
PyAPI_FUNC(Py_ssize_t) PyList_Size(PyObject *);
PyAPI_FUNC(PyObject *) PyList_GetItem(PyObject *, Py_ssize_t);
PyAPI_FUNC(int) PyList_SetItem(PyObject *, Py_ssize_t, PyObject *);
PyAPI_FUNC(int) PyList_Insert(PyObject *, Py_ssize_t, PyObject *);
PyAPI_FUNC(int) PyList_Append(PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyList_GetSlice(PyObject *, Py_ssize_t, Py_ssize_t);
PyAPI_FUNC(int) PyList_SetSlice(PyObject *, Py_ssize_t, Py_ssize_t, PyObject *);
PyAPI_FUNC(int) PyList_Sort(PyObject *);
PyAPI_FUNC(int) PyList_Reverse(PyObject *);
PyAPI_FUNC(PyObject *) PyList_AsTuple(PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyList_Extend(PyListObject *, PyObject *);
PyAPI_FUNC(int) PyList_ClearFreeList(void);
PyAPI_FUNC(void) _PyList_DebugMallocStats(FILE *out);
#endif
/* Macro, trading safety for speed */
#ifndef Py_LIMITED_API
#define PyList_GET_ITEM(op, i) (((PyListObject *)(op))->ob_item[i])
#define PyList_SET_ITEM(op, i, v) (((PyListObject *)(op))->ob_item[i] = (v))
#define PyList_GET_SIZE(op) Py_SIZE(op)
#define _PyList_ITEMS(op) (((PyListObject *)(op))->ob_item)
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_LISTOBJECT_H */
Raw
Frikr_Include_longintrepr.h
#ifndef Py_LIMITED_API
#ifndef Py_LONGINTREPR_H
#define Py_LONGINTREPR_H
#ifdef __cplusplus
extern "C" {
#endif
/* This is published for the benefit of "friends" marshal.c and _decimal.c. */
/* Parameters of the integer representation. There are two different
sets of parameters: one set for 30-bit digits, stored in an unsigned 32-bit
integer type, and one set for 15-bit digits with each digit stored in an
unsigned short. The value of PYLONG_BITS_IN_DIGIT, defined either at
configure time or in pyport.h, is used to decide which digit size to use.
Type 'digit' should be able to hold 2*PyLong_BASE-1, and type 'twodigits'
should be an unsigned integer type able to hold all integers up to
PyLong_BASE*PyLong_BASE-1. x_sub assumes that 'digit' is an unsigned type,
and that overflow is handled by taking the result modulo 2**N for some N >
PyLong_SHIFT. The majority of the code doesn't care about the precise
value of PyLong_SHIFT, but there are some notable exceptions:
- long_pow() requires that PyLong_SHIFT be divisible by 5
- PyLong_{As,From}ByteArray require that PyLong_SHIFT be at least 8
- long_hash() requires that PyLong_SHIFT is *strictly* less than the number
of bits in an unsigned long, as do the PyLong <-> long (or unsigned long)
conversion functions
- the Python int <-> size_t/Py_ssize_t conversion functions expect that
PyLong_SHIFT is strictly less than the number of bits in a size_t
- the marshal code currently expects that PyLong_SHIFT is a multiple of 15
- NSMALLNEGINTS and NSMALLPOSINTS should be small enough to fit in a single
digit; with the current values this forces PyLong_SHIFT >= 9
The values 15 and 30 should fit all of the above requirements, on any
platform.
*/
#if PYLONG_BITS_IN_DIGIT == 30
typedef uint32_t digit;
typedef int32_t sdigit; /* signed variant of digit */
typedef uint64_t twodigits;
typedef int64_t stwodigits; /* signed variant of twodigits */
#define PyLong_SHIFT 30
#define _PyLong_DECIMAL_SHIFT 9 /* max(e such that 10**e fits in a digit) */
#define _PyLong_DECIMAL_BASE ((digit)1000000000) /* 10 ** DECIMAL_SHIFT */
#elif PYLONG_BITS_IN_DIGIT == 15
typedef unsigned short digit;
typedef short sdigit; /* signed variant of digit */
typedef unsigned long twodigits;
typedef long stwodigits; /* signed variant of twodigits */
#define PyLong_SHIFT 15
#define _PyLong_DECIMAL_SHIFT 4 /* max(e such that 10**e fits in a digit) */
#define _PyLong_DECIMAL_BASE ((digit)10000) /* 10 ** DECIMAL_SHIFT */
#else
#error "PYLONG_BITS_IN_DIGIT should be 15 or 30"
#endif
#define PyLong_BASE ((digit)1 << PyLong_SHIFT)
#define PyLong_MASK ((digit)(PyLong_BASE - 1))
#if PyLong_SHIFT % 5 != 0
#error "longobject.c requires that PyLong_SHIFT be divisible by 5"
#endif
/* Long integer representation.
The absolute value of a number is equal to
SUM(for i=0 through abs(ob_size)-1) ob_digit[i] * 2**(SHIFT*i)
Negative numbers are represented with ob_size < 0;
zero is represented by ob_size == 0.
In a normalized number, ob_digit[abs(ob_size)-1] (the most significant
digit) is never zero. Also, in all cases, for all valid i,
0 <= ob_digit[i] <= MASK.
The allocation function takes care of allocating extra memory
so that ob_digit[0] ... ob_digit[abs(ob_size)-1] are actually available.
CAUTION: Generic code manipulating subtypes of PyVarObject has to
aware that ints abuse ob_size's sign bit.
*/
struct _longobject {
PyObject_VAR_HEAD
digit ob_digit[1];
};
PyAPI_FUNC(PyLongObject *) _PyLong_New(Py_ssize_t);
/* Return a copy of src. */
PyAPI_FUNC(PyObject *) _PyLong_Copy(PyLongObject *src);
#ifdef __cplusplus
}
#endif
#endif /* !Py_LONGINTREPR_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_longobject.h
#ifndef Py_LONGOBJECT_H
#define Py_LONGOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
/* Long (arbitrary precision) integer object interface */
typedef struct _longobject PyLongObject; /* Revealed in longintrepr.h */
PyAPI_DATA(PyTypeObject) PyLong_Type;
#define PyLong_Check(op) \
PyType_FastSubclass(Py_TYPE(op), Py_TPFLAGS_LONG_SUBCLASS)
#define PyLong_CheckExact(op) (Py_TYPE(op) == &PyLong_Type)
PyAPI_FUNC(PyObject *) PyLong_FromLong(long);
PyAPI_FUNC(PyObject *) PyLong_FromUnsignedLong(unsigned long);
PyAPI_FUNC(PyObject *) PyLong_FromSize_t(size_t);
PyAPI_FUNC(PyObject *) PyLong_FromSsize_t(Py_ssize_t);
PyAPI_FUNC(PyObject *) PyLong_FromDouble(double);
PyAPI_FUNC(long) PyLong_AsLong(PyObject *);
PyAPI_FUNC(long) PyLong_AsLongAndOverflow(PyObject *, int *);
PyAPI_FUNC(Py_ssize_t) PyLong_AsSsize_t(PyObject *);
PyAPI_FUNC(size_t) PyLong_AsSize_t(PyObject *);
PyAPI_FUNC(unsigned long) PyLong_AsUnsignedLong(PyObject *);
PyAPI_FUNC(unsigned long) PyLong_AsUnsignedLongMask(PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyLong_AsInt(PyObject *);
#endif
PyAPI_FUNC(PyObject *) PyLong_GetInfo(void);
/* It may be useful in the future. I've added it in the PyInt -> PyLong
cleanup to keep the extra information. [CH] */
#define PyLong_AS_LONG(op) PyLong_AsLong(op)
/* Issue #1983: pid_t can be longer than a C long on some systems */
#if !defined(SIZEOF_PID_T) || SIZEOF_PID_T == SIZEOF_INT
#define _Py_PARSE_PID "i"
#define PyLong_FromPid PyLong_FromLong
#define PyLong_AsPid PyLong_AsLong
#elif SIZEOF_PID_T == SIZEOF_LONG
#define _Py_PARSE_PID "l"
#define PyLong_FromPid PyLong_FromLong
#define PyLong_AsPid PyLong_AsLong
#elif defined(SIZEOF_LONG_LONG) && SIZEOF_PID_T == SIZEOF_LONG_LONG
#define _Py_PARSE_PID "L"
#define PyLong_FromPid PyLong_FromLongLong
#define PyLong_AsPid PyLong_AsLongLong
#else
#error "sizeof(pid_t) is neither sizeof(int), sizeof(long) or sizeof(long long)"
#endif /* SIZEOF_PID_T */
#if SIZEOF_VOID_P == SIZEOF_INT
# define _Py_PARSE_INTPTR "i"
# define _Py_PARSE_UINTPTR "I"
#elif SIZEOF_VOID_P == SIZEOF_LONG
# define _Py_PARSE_INTPTR "l"
# define _Py_PARSE_UINTPTR "k"
#elif defined(SIZEOF_LONG_LONG) && SIZEOF_VOID_P == SIZEOF_LONG_LONG
# define _Py_PARSE_INTPTR "L"
# define _Py_PARSE_UINTPTR "K"
#else
# error "void* different in size from int, long and long long"
#endif /* SIZEOF_VOID_P */
/* Used by Python/mystrtoul.c, _PyBytes_FromHex(),
_PyBytes_DecodeEscapeRecode(), etc. */
#ifndef Py_LIMITED_API
PyAPI_DATA(unsigned char) _PyLong_DigitValue[256];
#endif
/* _PyLong_Frexp returns a double x and an exponent e such that the
true value is approximately equal to x * 2**e. e is >= 0. x is
0.0 if and only if the input is 0 (in which case, e and x are both
zeroes); otherwise, 0.5 <= abs(x) < 1.0. On overflow, which is
possible if the number of bits doesn't fit into a Py_ssize_t, sets
OverflowError and returns -1.0 for x, 0 for e. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(double) _PyLong_Frexp(PyLongObject *a, Py_ssize_t *e);
#endif
PyAPI_FUNC(double) PyLong_AsDouble(PyObject *);
PyAPI_FUNC(PyObject *) PyLong_FromVoidPtr(void *);
PyAPI_FUNC(void *) PyLong_AsVoidPtr(PyObject *);
PyAPI_FUNC(PyObject *) PyLong_FromLongLong(long long);
PyAPI_FUNC(PyObject *) PyLong_FromUnsignedLongLong(unsigned long long);
PyAPI_FUNC(long long) PyLong_AsLongLong(PyObject *);
PyAPI_FUNC(unsigned long long) PyLong_AsUnsignedLongLong(PyObject *);
PyAPI_FUNC(unsigned long long) PyLong_AsUnsignedLongLongMask(PyObject *);
PyAPI_FUNC(long long) PyLong_AsLongLongAndOverflow(PyObject *, int *);
PyAPI_FUNC(PyObject *) PyLong_FromString(const char *, char **, int);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyLong_FromUnicode(Py_UNICODE*, Py_ssize_t, int);
PyAPI_FUNC(PyObject *) PyLong_FromUnicodeObject(PyObject *u, int base);
PyAPI_FUNC(PyObject *) _PyLong_FromBytes(const char *, Py_ssize_t, int);
#endif
#ifndef Py_LIMITED_API
/* _PyLong_Sign. Return 0 if v is 0, -1 if v < 0, +1 if v > 0.
v must not be NULL, and must be a normalized long.
There are no error cases.
*/
PyAPI_FUNC(int) _PyLong_Sign(PyObject *v);
/* _PyLong_NumBits. Return the number of bits needed to represent the
absolute value of a long. For example, this returns 1 for 1 and -1, 2
for 2 and -2, and 2 for 3 and -3. It returns 0 for 0.
v must not be NULL, and must be a normalized long.
(size_t)-1 is returned and OverflowError set if the true result doesn't
fit in a size_t.
*/
PyAPI_FUNC(size_t) _PyLong_NumBits(PyObject *v);
/* _PyLong_DivmodNear. Given integers a and b, compute the nearest
integer q to the exact quotient a / b, rounding to the nearest even integer
in the case of a tie. Return (q, r), where r = a - q*b. The remainder r
will satisfy abs(r) <= abs(b)/2, with equality possible only if q is
even.
*/
PyAPI_FUNC(PyObject *) _PyLong_DivmodNear(PyObject *, PyObject *);
/* _PyLong_FromByteArray: View the n unsigned bytes as a binary integer in
base 256, and return a Python int with the same numeric value.
If n is 0, the integer is 0. Else:
If little_endian is 1/true, bytes[n-1] is the MSB and bytes[0] the LSB;
else (little_endian is 0/false) bytes[0] is the MSB and bytes[n-1] the
LSB.
If is_signed is 0/false, view the bytes as a non-negative integer.
If is_signed is 1/true, view the bytes as a 2's-complement integer,
non-negative if bit 0x80 of the MSB is clear, negative if set.
Error returns:
+ Return NULL with the appropriate exception set if there's not
enough memory to create the Python int.
*/
PyAPI_FUNC(PyObject *) _PyLong_FromByteArray(
const unsigned char* bytes, size_t n,
int little_endian, int is_signed);
/* _PyLong_AsByteArray: Convert the least-significant 8*n bits of long
v to a base-256 integer, stored in array bytes. Normally return 0,
return -1 on error.
If little_endian is 1/true, store the MSB at bytes[n-1] and the LSB at
bytes[0]; else (little_endian is 0/false) store the MSB at bytes[0] and
the LSB at bytes[n-1].
If is_signed is 0/false, it's an error if v < 0; else (v >= 0) n bytes
are filled and there's nothing special about bit 0x80 of the MSB.
If is_signed is 1/true, bytes is filled with the 2's-complement
representation of v's value. Bit 0x80 of the MSB is the sign bit.
Error returns (-1):
+ is_signed is 0 and v < 0. TypeError is set in this case, and bytes
isn't altered.
+ n isn't big enough to hold the full mathematical value of v. For
example, if is_signed is 0 and there are more digits in the v than
fit in n; or if is_signed is 1, v < 0, and n is just 1 bit shy of
being large enough to hold a sign bit. OverflowError is set in this
case, but bytes holds the least-significant n bytes of the true value.
*/
PyAPI_FUNC(int) _PyLong_AsByteArray(PyLongObject* v,
unsigned char* bytes, size_t n,
int little_endian, int is_signed);
/* _PyLong_FromNbInt: Convert the given object to a PyLongObject
using the nb_int slot, if available. Raise TypeError if either the
nb_int slot is not available or the result of the call to nb_int
returns something not of type int.
*/
PyAPI_FUNC(PyLongObject *)_PyLong_FromNbInt(PyObject *);
/* _PyLong_Format: Convert the long to a string object with given base,
appending a base prefix of 0[box] if base is 2, 8 or 16. */
PyAPI_FUNC(PyObject *) _PyLong_Format(PyObject *obj, int base);
PyAPI_FUNC(int) _PyLong_FormatWriter(
_PyUnicodeWriter *writer,
PyObject *obj,
int base,
int alternate);
PyAPI_FUNC(char*) _PyLong_FormatBytesWriter(
_PyBytesWriter *writer,
char *str,
PyObject *obj,
int base,
int alternate);
/* Format the object based on the format_spec, as defined in PEP 3101
(Advanced String Formatting). */
PyAPI_FUNC(int) _PyLong_FormatAdvancedWriter(
_PyUnicodeWriter *writer,
PyObject *obj,
PyObject *format_spec,
Py_ssize_t start,
Py_ssize_t end);
#endif /* Py_LIMITED_API */
/* These aren't really part of the int object, but they're handy. The
functions are in Python/mystrtoul.c.
*/
PyAPI_FUNC(unsigned long) PyOS_strtoul(const char *, char **, int);
PyAPI_FUNC(long) PyOS_strtol(const char *, char **, int);
#ifndef Py_LIMITED_API
/* For use by the gcd function in mathmodule.c */
PyAPI_FUNC(PyObject *) _PyLong_GCD(PyObject *, PyObject *);
#endif /* !Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_LONGOBJECT_H */
Raw
Frikr_Include_marshal.h
/* Interface for marshal.c */
#ifndef Py_MARSHAL_H
#define Py_MARSHAL_H
#ifdef __cplusplus
extern "C" {
#endif
#define Py_MARSHAL_VERSION 4
PyAPI_FUNC(void) PyMarshal_WriteLongToFile(long, FILE *, int);
PyAPI_FUNC(void) PyMarshal_WriteObjectToFile(PyObject *, FILE *, int);
PyAPI_FUNC(PyObject *) PyMarshal_WriteObjectToString(PyObject *, int);
#ifndef Py_LIMITED_API
PyAPI_FUNC(long) PyMarshal_ReadLongFromFile(FILE *);
PyAPI_FUNC(int) PyMarshal_ReadShortFromFile(FILE *);
PyAPI_FUNC(PyObject *) PyMarshal_ReadObjectFromFile(FILE *);
PyAPI_FUNC(PyObject *) PyMarshal_ReadLastObjectFromFile(FILE *);
#endif
PyAPI_FUNC(PyObject *) PyMarshal_ReadObjectFromString(const char *,
Py_ssize_t);
#ifdef __cplusplus
}
#endif
#endif /* !Py_MARSHAL_H */
Raw
Frikr_Include_memoryobject.h
/* Memory view object. In Python this is available as "memoryview". */
#ifndef Py_MEMORYOBJECT_H
#define Py_MEMORYOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
PyAPI_DATA(PyTypeObject) _PyManagedBuffer_Type;
#endif
PyAPI_DATA(PyTypeObject) PyMemoryView_Type;
#define PyMemoryView_Check(op) (Py_TYPE(op) == &PyMemoryView_Type)
#ifndef Py_LIMITED_API
/* Get a pointer to the memoryview's private copy of the exporter's buffer. */
#define PyMemoryView_GET_BUFFER(op) (&((PyMemoryViewObject *)(op))->view)
/* Get a pointer to the exporting object (this may be NULL!). */
#define PyMemoryView_GET_BASE(op) (((PyMemoryViewObject *)(op))->view.obj)
#endif
PyAPI_FUNC(PyObject *) PyMemoryView_FromObject(PyObject *base);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject *) PyMemoryView_FromMemory(char *mem, Py_ssize_t size,
int flags);
#endif
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyMemoryView_FromBuffer(Py_buffer *info);
#endif
PyAPI_FUNC(PyObject *) PyMemoryView_GetContiguous(PyObject *base,
int buffertype,
char order);
/* The structs are declared here so that macros can work, but they shouldn't
be considered public. Don't access their fields directly, use the macros
and functions instead! */
#ifndef Py_LIMITED_API
#define _Py_MANAGED_BUFFER_RELEASED 0x001 /* access to exporter blocked */
#define _Py_MANAGED_BUFFER_FREE_FORMAT 0x002 /* free format */
typedef struct {
PyObject_HEAD
int flags; /* state flags */
Py_ssize_t exports; /* number of direct memoryview exports */
Py_buffer master; /* snapshot buffer obtained from the original exporter */
} _PyManagedBufferObject;
/* memoryview state flags */
#define _Py_MEMORYVIEW_RELEASED 0x001 /* access to master buffer blocked */
#define _Py_MEMORYVIEW_C 0x002 /* C-contiguous layout */
#define _Py_MEMORYVIEW_FORTRAN 0x004 /* Fortran contiguous layout */
#define _Py_MEMORYVIEW_SCALAR 0x008 /* scalar: ndim = 0 */
#define _Py_MEMORYVIEW_PIL 0x010 /* PIL-style layout */
typedef struct {
PyObject_VAR_HEAD
_PyManagedBufferObject *mbuf; /* managed buffer */
Py_hash_t hash; /* hash value for read-only views */
int flags; /* state flags */
Py_ssize_t exports; /* number of buffer re-exports */
Py_buffer view; /* private copy of the exporter's view */
PyObject *weakreflist;
Py_ssize_t ob_array[1]; /* shape, strides, suboffsets */
} PyMemoryViewObject;
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_MEMORYOBJECT_H */
Raw
Frikr_Include_metagrammar.h
#ifndef Py_METAGRAMMAR_H
#define Py_METAGRAMMAR_H
#ifdef __cplusplus
extern "C" {
#endif
#define MSTART 256
#define RULE 257
#define RHS 258
#define ALT 259
#define ITEM 260
#define ATOM 261
#ifdef __cplusplus
}
#endif
#endif /* !Py_METAGRAMMAR_H */
Raw
Frikr_Include_methodobject.h
/* Method object interface */
#ifndef Py_METHODOBJECT_H
#define Py_METHODOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
/* This is about the type 'builtin_function_or_method',
not Python methods in user-defined classes. See classobject.h
for the latter. */
PyAPI_DATA(PyTypeObject) PyCFunction_Type;
#define PyCFunction_Check(op) (Py_TYPE(op) == &PyCFunction_Type)
typedef PyObject *(*PyCFunction)(PyObject *, PyObject *);
typedef PyObject *(*_PyCFunctionFast) (PyObject *self, PyObject **args,
Py_ssize_t nargs, PyObject *kwnames);
typedef PyObject *(*PyCFunctionWithKeywords)(PyObject *, PyObject *,
PyObject *);
typedef PyObject *(*PyNoArgsFunction)(PyObject *);
PyAPI_FUNC(PyCFunction) PyCFunction_GetFunction(PyObject *);
PyAPI_FUNC(PyObject *) PyCFunction_GetSelf(PyObject *);
PyAPI_FUNC(int) PyCFunction_GetFlags(PyObject *);
/* Macros for direct access to these values. Type checks are *not*
done, so use with care. */
#ifndef Py_LIMITED_API
#define PyCFunction_GET_FUNCTION(func) \
(((PyCFunctionObject *)func) -> m_ml -> ml_meth)
#define PyCFunction_GET_SELF(func) \
(((PyCFunctionObject *)func) -> m_ml -> ml_flags & METH_STATIC ? \
NULL : ((PyCFunctionObject *)func) -> m_self)
#define PyCFunction_GET_FLAGS(func) \
(((PyCFunctionObject *)func) -> m_ml -> ml_flags)
#endif
PyAPI_FUNC(PyObject *) PyCFunction_Call(PyObject *, PyObject *, PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyCFunction_FastCallDict(PyObject *func,
PyObject **args,
Py_ssize_t nargs,
PyObject *kwargs);
PyAPI_FUNC(PyObject *) _PyCFunction_FastCallKeywords(PyObject *func,
PyObject **stack,
Py_ssize_t nargs,
PyObject *kwnames);
#endif
struct PyMethodDef {
const char *ml_name; /* The name of the built-in function/method */
PyCFunction ml_meth; /* The C function that implements it */
int ml_flags; /* Combination of METH_xxx flags, which mostly
describe the args expected by the C func */
const char *ml_doc; /* The __doc__ attribute, or NULL */
};
typedef struct PyMethodDef PyMethodDef;
#define PyCFunction_New(ML, SELF) PyCFunction_NewEx((ML), (SELF), NULL)
PyAPI_FUNC(PyObject *) PyCFunction_NewEx(PyMethodDef *, PyObject *,
PyObject *);
/* Flag passed to newmethodobject */
/* #define METH_OLDARGS 0x0000 -- unsupported now */
#define METH_VARARGS 0x0001
#define METH_KEYWORDS 0x0002
/* METH_NOARGS and METH_O must not be combined with the flags above. */
#define METH_NOARGS 0x0004
#define METH_O 0x0008
/* METH_CLASS and METH_STATIC are a little different; these control
the construction of methods for a class. These cannot be used for
functions in modules. */
#define METH_CLASS 0x0010
#define METH_STATIC 0x0020
/* METH_COEXIST allows a method to be entered even though a slot has
already filled the entry. When defined, the flag allows a separate
method, "__contains__" for example, to coexist with a defined
slot like sq_contains. */
#define METH_COEXIST 0x0040
#ifndef Py_LIMITED_API
#define METH_FASTCALL 0x0080
typedef struct {
PyObject_HEAD
PyMethodDef *m_ml; /* Description of the C function to call */
PyObject *m_self; /* Passed as 'self' arg to the C func, can be NULL */
PyObject *m_module; /* The __module__ attribute, can be anything */
PyObject *m_weakreflist; /* List of weak references */
} PyCFunctionObject;
#endif
PyAPI_FUNC(int) PyCFunction_ClearFreeList(void);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyCFunction_DebugMallocStats(FILE *out);
PyAPI_FUNC(void) _PyMethod_DebugMallocStats(FILE *out);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_METHODOBJECT_H */
Raw
Frikr_Include_modsupport.h
#ifndef Py_MODSUPPORT_H
#define Py_MODSUPPORT_H
#ifdef __cplusplus
extern "C" {
#endif
/* Module support interface */
#include <stdarg.h>
/* If PY_SSIZE_T_CLEAN is defined, each functions treats #-specifier
to mean Py_ssize_t */
#ifdef PY_SSIZE_T_CLEAN
#define PyArg_Parse _PyArg_Parse_SizeT
#define PyArg_ParseTuple _PyArg_ParseTuple_SizeT
#define PyArg_ParseTupleAndKeywords _PyArg_ParseTupleAndKeywords_SizeT
#define PyArg_VaParse _PyArg_VaParse_SizeT
#define PyArg_VaParseTupleAndKeywords _PyArg_VaParseTupleAndKeywords_SizeT
#define Py_BuildValue _Py_BuildValue_SizeT
#define Py_VaBuildValue _Py_VaBuildValue_SizeT
#else
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _Py_VaBuildValue_SizeT(const char *, va_list);
#endif /* !Py_LIMITED_API */
#endif
/* Due to a glitch in 3.2, the _SizeT versions weren't exported from the DLL. */
#if !defined(PY_SSIZE_T_CLEAN) || !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(int) PyArg_Parse(PyObject *, const char *, ...);
PyAPI_FUNC(int) PyArg_ParseTuple(PyObject *, const char *, ...);
PyAPI_FUNC(int) PyArg_ParseTupleAndKeywords(PyObject *, PyObject *,
const char *, char **, ...);
PyAPI_FUNC(int) PyArg_VaParse(PyObject *, const char *, va_list);
PyAPI_FUNC(int) PyArg_VaParseTupleAndKeywords(PyObject *, PyObject *,
const char *, char **, va_list);
#endif
PyAPI_FUNC(int) PyArg_ValidateKeywordArguments(PyObject *);
PyAPI_FUNC(int) PyArg_UnpackTuple(PyObject *, const char *, Py_ssize_t, Py_ssize_t, ...);
PyAPI_FUNC(PyObject *) Py_BuildValue(const char *, ...);
PyAPI_FUNC(PyObject *) _Py_BuildValue_SizeT(const char *, ...);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyArg_NoKeywords(const char *funcname, PyObject *kw);
PyAPI_FUNC(int) _PyArg_NoPositional(const char *funcname, PyObject *args);
#endif
PyAPI_FUNC(PyObject *) Py_VaBuildValue(const char *, va_list);
#ifndef Py_LIMITED_API
typedef struct _PyArg_Parser {
const char *format;
const char * const *keywords;
const char *fname;
const char *custom_msg;
int pos; /* number of positional-only arguments */
int min; /* minimal number of arguments */
int max; /* maximal number of positional arguments */
PyObject *kwtuple; /* tuple of keyword parameter names */
struct _PyArg_Parser *next;
} _PyArg_Parser;
#ifdef PY_SSIZE_T_CLEAN
#define _PyArg_ParseTupleAndKeywordsFast _PyArg_ParseTupleAndKeywordsFast_SizeT
#define _PyArg_ParseStack _PyArg_ParseStack_SizeT
#define _PyArg_VaParseTupleAndKeywordsFast _PyArg_VaParseTupleAndKeywordsFast_SizeT
#endif
PyAPI_FUNC(int) _PyArg_ParseTupleAndKeywordsFast(PyObject *, PyObject *,
struct _PyArg_Parser *, ...);
PyAPI_FUNC(int) _PyArg_ParseStack(PyObject **args, Py_ssize_t nargs, PyObject *kwnames,
struct _PyArg_Parser *, ...);
PyAPI_FUNC(int) _PyArg_VaParseTupleAndKeywordsFast(PyObject *, PyObject *,
struct _PyArg_Parser *, va_list);
void _PyArg_Fini(void);
#endif
PyAPI_FUNC(int) PyModule_AddObject(PyObject *, const char *, PyObject *);
PyAPI_FUNC(int) PyModule_AddIntConstant(PyObject *, const char *, long);
PyAPI_FUNC(int) PyModule_AddStringConstant(PyObject *, const char *, const char *);
#define PyModule_AddIntMacro(m, c) PyModule_AddIntConstant(m, #c, c)
#define PyModule_AddStringMacro(m, c) PyModule_AddStringConstant(m, #c, c)
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
/* New in 3.5 */
PyAPI_FUNC(int) PyModule_SetDocString(PyObject *, const char *);
PyAPI_FUNC(int) PyModule_AddFunctions(PyObject *, PyMethodDef *);
PyAPI_FUNC(int) PyModule_ExecDef(PyObject *module, PyModuleDef *def);
#endif
#define Py_CLEANUP_SUPPORTED 0x20000
#define PYTHON_API_VERSION 1013
#define PYTHON_API_STRING "1013"
/* The API version is maintained (independently from the Python version)
so we can detect mismatches between the interpreter and dynamically
loaded modules. These are diagnosed by an error message but
the module is still loaded (because the mismatch can only be tested
after loading the module). The error message is intended to
explain the core dump a few seconds later.
The symbol PYTHON_API_STRING defines the same value as a string
literal. *** PLEASE MAKE SURE THE DEFINITIONS MATCH. ***
Please add a line or two to the top of this log for each API
version change:
22-Feb-2006 MvL 1013 PEP 353 - long indices for sequence lengths
19-Aug-2002 GvR 1012 Changes to string object struct for
interning changes, saving 3 bytes.
17-Jul-2001 GvR 1011 Descr-branch, just to be on the safe side
25-Jan-2001 FLD 1010 Parameters added to PyCode_New() and
PyFrame_New(); Python 2.1a2
14-Mar-2000 GvR 1009 Unicode API added
3-Jan-1999 GvR 1007 Decided to change back! (Don't reuse 1008!)
3-Dec-1998 GvR 1008 Python 1.5.2b1
18-Jan-1997 GvR 1007 string interning and other speedups
11-Oct-1996 GvR renamed Py_Ellipses to Py_Ellipsis :-(
30-Jul-1996 GvR Slice and ellipses syntax added
23-Jul-1996 GvR For 1.4 -- better safe than sorry this time :-)
7-Nov-1995 GvR Keyword arguments (should've been done at 1.3 :-( )
10-Jan-1995 GvR Renamed globals to new naming scheme
9-Jan-1995 GvR Initial version (incompatible with older API)
*/
/* The PYTHON_ABI_VERSION is introduced in PEP 384. For the lifetime of
Python 3, it will stay at the value of 3; changes to the limited API
must be performed in a strictly backwards-compatible manner. */
#define PYTHON_ABI_VERSION 3
#define PYTHON_ABI_STRING "3"
#ifdef Py_TRACE_REFS
/* When we are tracing reference counts, rename module creation functions so
modules compiled with incompatible settings will generate a
link-time error. */
#define PyModule_Create2 PyModule_Create2TraceRefs
#define PyModule_FromDefAndSpec2 PyModule_FromDefAndSpec2TraceRefs
#endif
PyAPI_FUNC(PyObject *) PyModule_Create2(struct PyModuleDef*,
int apiver);
#ifdef Py_LIMITED_API
#define PyModule_Create(module) \
PyModule_Create2(module, PYTHON_ABI_VERSION)
#else
#define PyModule_Create(module) \
PyModule_Create2(module, PYTHON_API_VERSION)
#endif
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
/* New in 3.5 */
PyAPI_FUNC(PyObject *) PyModule_FromDefAndSpec2(PyModuleDef *def,
PyObject *spec,
int module_api_version);
#ifdef Py_LIMITED_API
#define PyModule_FromDefAndSpec(module, spec) \
PyModule_FromDefAndSpec2(module, spec, PYTHON_ABI_VERSION)
#else
#define PyModule_FromDefAndSpec(module, spec) \
PyModule_FromDefAndSpec2(module, spec, PYTHON_API_VERSION)
#endif /* Py_LIMITED_API */
#endif /* New in 3.5 */
#ifndef Py_LIMITED_API
PyAPI_DATA(char *) _Py_PackageContext;
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_MODSUPPORT_H */
Raw
Frikr_Include_moduleobject.h
/* Module object interface */
#ifndef Py_MODULEOBJECT_H
#define Py_MODULEOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_DATA(PyTypeObject) PyModule_Type;
#define PyModule_Check(op) PyObject_TypeCheck(op, &PyModule_Type)
#define PyModule_CheckExact(op) (Py_TYPE(op) == &PyModule_Type)
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject *) PyModule_NewObject(
PyObject *name
);
#endif
PyAPI_FUNC(PyObject *) PyModule_New(
const char *name /* UTF-8 encoded string */
);
PyAPI_FUNC(PyObject *) PyModule_GetDict(PyObject *);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject *) PyModule_GetNameObject(PyObject *);
#endif
PyAPI_FUNC(const char *) PyModule_GetName(PyObject *);
PyAPI_FUNC(const char *) PyModule_GetFilename(PyObject *);
PyAPI_FUNC(PyObject *) PyModule_GetFilenameObject(PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyModule_Clear(PyObject *);
PyAPI_FUNC(void) _PyModule_ClearDict(PyObject *);
#endif
PyAPI_FUNC(struct PyModuleDef*) PyModule_GetDef(PyObject*);
PyAPI_FUNC(void*) PyModule_GetState(PyObject*);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
/* New in 3.5 */
PyAPI_FUNC(PyObject *) PyModuleDef_Init(struct PyModuleDef*);
PyAPI_DATA(PyTypeObject) PyModuleDef_Type;
#endif
typedef struct PyModuleDef_Base {
PyObject_HEAD
PyObject* (*m_init)(void);
Py_ssize_t m_index;
PyObject* m_copy;
} PyModuleDef_Base;
#define PyModuleDef_HEAD_INIT { \
PyObject_HEAD_INIT(NULL) \
NULL, /* m_init */ \
0, /* m_index */ \
NULL, /* m_copy */ \
}
struct PyModuleDef_Slot;
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
/* New in 3.5 */
typedef struct PyModuleDef_Slot{
int slot;
void *value;
} PyModuleDef_Slot;
#define Py_mod_create 1
#define Py_mod_exec 2
#ifndef Py_LIMITED_API
#define _Py_mod_LAST_SLOT 2
#endif
#endif /* New in 3.5 */
typedef struct PyModuleDef{
PyModuleDef_Base m_base;
const char* m_name;
const char* m_doc;
Py_ssize_t m_size;
PyMethodDef *m_methods;
struct PyModuleDef_Slot* m_slots;
traverseproc m_traverse;
inquiry m_clear;
freefunc m_free;
} PyModuleDef;
#ifdef __cplusplus
}
#endif
#endif /* !Py_MODULEOBJECT_H */
Raw
Frikr_Include_namespaceobject.h
/* simple namespace object interface */
#ifndef NAMESPACEOBJECT_H
#define NAMESPACEOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
PyAPI_DATA(PyTypeObject) _PyNamespace_Type;
PyAPI_FUNC(PyObject *) _PyNamespace_New(PyObject *kwds);
#endif /* !Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !NAMESPACEOBJECT_H */
Raw
Frikr_Include_node.h
/* Parse tree node interface */
#ifndef Py_NODE_H
#define Py_NODE_H
#ifdef __cplusplus
extern "C" {
#endif
typedef struct _node {
short n_type;
char *n_str;
int n_lineno;
int n_col_offset;
int n_nchildren;
struct _node *n_child;
} node;
PyAPI_FUNC(node *) PyNode_New(int type);
PyAPI_FUNC(int) PyNode_AddChild(node *n, int type,
char *str, int lineno, int col_offset);
PyAPI_FUNC(void) PyNode_Free(node *n);
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_ssize_t) _PyNode_SizeOf(node *n);
#endif
/* Node access functions */
#define NCH(n) ((n)->n_nchildren)
#define CHILD(n, i) (&(n)->n_child[i])
#define RCHILD(n, i) (CHILD(n, NCH(n) + i))
#define TYPE(n) ((n)->n_type)
#define STR(n) ((n)->n_str)
#define LINENO(n) ((n)->n_lineno)
/* Assert that the type of a node is what we expect */
#define REQ(n, type) assert(TYPE(n) == (type))
PyAPI_FUNC(void) PyNode_ListTree(node *);
#ifdef __cplusplus
}
#endif
#endif /* !Py_NODE_H */
Raw
Frikr_Include_object.h
#ifndef Py_OBJECT_H
#define Py_OBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
/* Object and type object interface */
/*
Objects are structures allocated on the heap. Special rules apply to
the use of objects to ensure they are properly garbage-collected.
Objects are never allocated statically or on the stack; they must be
accessed through special macros and functions only. (Type objects are
exceptions to the first rule; the standard types are represented by
statically initialized type objects, although work on type/class unification
for Python 2.2 made it possible to have heap-allocated type objects too).
An object has a 'reference count' that is increased or decreased when a
pointer to the object is copied or deleted; when the reference count
reaches zero there are no references to the object left and it can be
removed from the heap.
An object has a 'type' that determines what it represents and what kind
of data it contains. An object's type is fixed when it is created.
Types themselves are represented as objects; an object contains a
pointer to the corresponding type object. The type itself has a type
pointer pointing to the object representing the type 'type', which
contains a pointer to itself!).
Objects do not float around in memory; once allocated an object keeps
the same size and address. Objects that must hold variable-size data
can contain pointers to variable-size parts of the object. Not all
objects of the same type have the same size; but the size cannot change
after allocation. (These restrictions are made so a reference to an
object can be simply a pointer -- moving an object would require
updating all the pointers, and changing an object's size would require
moving it if there was another object right next to it.)
Objects are always accessed through pointers of the type 'PyObject *'.
The type 'PyObject' is a structure that only contains the reference count
and the type pointer. The actual memory allocated for an object
contains other data that can only be accessed after casting the pointer
to a pointer to a longer structure type. This longer type must start
with the reference count and type fields; the macro PyObject_HEAD should be
used for this (to accommodate for future changes). The implementation
of a particular object type can cast the object pointer to the proper
type and back.
A standard interface exists for objects that contain an array of items
whose size is determined when the object is allocated.
*/
/* Py_DEBUG implies Py_TRACE_REFS. */
#if defined(Py_DEBUG) && !defined(Py_TRACE_REFS)
#define Py_TRACE_REFS
#endif
/* Py_TRACE_REFS implies Py_REF_DEBUG. */
#if defined(Py_TRACE_REFS) && !defined(Py_REF_DEBUG)
#define Py_REF_DEBUG
#endif
#if defined(Py_LIMITED_API) && defined(Py_REF_DEBUG)
#error Py_LIMITED_API is incompatible with Py_DEBUG, Py_TRACE_REFS, and Py_REF_DEBUG
#endif
#ifdef Py_TRACE_REFS
/* Define pointers to support a doubly-linked list of all live heap objects. */
#define _PyObject_HEAD_EXTRA \
struct _object *_ob_next; \
struct _object *_ob_prev;
#define _PyObject_EXTRA_INIT 0, 0,
#else
#define _PyObject_HEAD_EXTRA
#define _PyObject_EXTRA_INIT
#endif
/* PyObject_HEAD defines the initial segment of every PyObject. */
#define PyObject_HEAD PyObject ob_base;
#define PyObject_HEAD_INIT(type) \
{ _PyObject_EXTRA_INIT \
1, type },
#define PyVarObject_HEAD_INIT(type, size) \
{ PyObject_HEAD_INIT(type) size },
/* PyObject_VAR_HEAD defines the initial segment of all variable-size
* container objects. These end with a declaration of an array with 1
* element, but enough space is malloc'ed so that the array actually
* has room for ob_size elements. Note that ob_size is an element count,
* not necessarily a byte count.
*/
#define PyObject_VAR_HEAD PyVarObject ob_base;
#define Py_INVALID_SIZE (Py_ssize_t)-1
/* Nothing is actually declared to be a PyObject, but every pointer to
* a Python object can be cast to a PyObject*. This is inheritance built
* by hand. Similarly every pointer to a variable-size Python object can,
* in addition, be cast to PyVarObject*.
*/
typedef struct _object {
_PyObject_HEAD_EXTRA
Py_ssize_t ob_refcnt;
struct _typeobject *ob_type;
} PyObject;
typedef struct {
PyObject ob_base;
Py_ssize_t ob_size; /* Number of items in variable part */
} PyVarObject;
#define Py_REFCNT(ob) (((PyObject*)(ob))->ob_refcnt)
#define Py_TYPE(ob) (((PyObject*)(ob))->ob_type)
#define Py_SIZE(ob) (((PyVarObject*)(ob))->ob_size)
#ifndef Py_LIMITED_API
/********************* String Literals ****************************************/
/* This structure helps managing static strings. The basic usage goes like this:
Instead of doing
r = PyObject_CallMethod(o, "foo", "args", ...);
do
_Py_IDENTIFIER(foo);
...
r = _PyObject_CallMethodId(o, &PyId_foo, "args", ...);
PyId_foo is a static variable, either on block level or file level. On first
usage, the string "foo" is interned, and the structures are linked. On interpreter
shutdown, all strings are released (through _PyUnicode_ClearStaticStrings).
Alternatively, _Py_static_string allows choosing the variable name.
_PyUnicode_FromId returns a borrowed reference to the interned string.
_PyObject_{Get,Set,Has}AttrId are __getattr__ versions using _Py_Identifier*.
*/
typedef struct _Py_Identifier {
struct _Py_Identifier *next;
const char* string;
PyObject *object;
} _Py_Identifier;
#define _Py_static_string_init(value) { .next = NULL, .string = value, .object = NULL }
#define _Py_static_string(varname, value) static _Py_Identifier varname = _Py_static_string_init(value)
#define _Py_IDENTIFIER(varname) _Py_static_string(PyId_##varname, #varname)
#endif /* !Py_LIMITED_API */
/*
Type objects contain a string containing the type name (to help somewhat
in debugging), the allocation parameters (see PyObject_New() and
PyObject_NewVar()),
and methods for accessing objects of the type. Methods are optional, a
nil pointer meaning that particular kind of access is not available for
this type. The Py_DECREF() macro uses the tp_dealloc method without
checking for a nil pointer; it should always be implemented except if
the implementation can guarantee that the reference count will never
reach zero (e.g., for statically allocated type objects).
NB: the methods for certain type groups are now contained in separate
method blocks.
*/
typedef PyObject * (*unaryfunc)(PyObject *);
typedef PyObject * (*binaryfunc)(PyObject *, PyObject *);
typedef PyObject * (*ternaryfunc)(PyObject *, PyObject *, PyObject *);
typedef int (*inquiry)(PyObject *);
typedef Py_ssize_t (*lenfunc)(PyObject *);
typedef PyObject *(*ssizeargfunc)(PyObject *, Py_ssize_t);
typedef PyObject *(*ssizessizeargfunc)(PyObject *, Py_ssize_t, Py_ssize_t);
typedef int(*ssizeobjargproc)(PyObject *, Py_ssize_t, PyObject *);
typedef int(*ssizessizeobjargproc)(PyObject *, Py_ssize_t, Py_ssize_t, PyObject *);
typedef int(*objobjargproc)(PyObject *, PyObject *, PyObject *);
#ifndef Py_LIMITED_API
/* buffer interface */
typedef struct bufferinfo {
void *buf;
PyObject *obj; /* owned reference */
Py_ssize_t len;
Py_ssize_t itemsize; /* This is Py_ssize_t so it can be
pointed to by strides in simple case.*/
int readonly;
int ndim;
char *format;
Py_ssize_t *shape;
Py_ssize_t *strides;
Py_ssize_t *suboffsets;
void *internal;
} Py_buffer;
typedef int (*getbufferproc)(PyObject *, Py_buffer *, int);
typedef void (*releasebufferproc)(PyObject *, Py_buffer *);
/* Maximum number of dimensions */
#define PyBUF_MAX_NDIM 64
/* Flags for getting buffers */
#define PyBUF_SIMPLE 0
#define PyBUF_WRITABLE 0x0001
/* we used to include an E, backwards compatible alias */
#define PyBUF_WRITEABLE PyBUF_WRITABLE
#define PyBUF_FORMAT 0x0004
#define PyBUF_ND 0x0008
#define PyBUF_STRIDES (0x0010 | PyBUF_ND)
#define PyBUF_C_CONTIGUOUS (0x0020 | PyBUF_STRIDES)
#define PyBUF_F_CONTIGUOUS (0x0040 | PyBUF_STRIDES)
#define PyBUF_ANY_CONTIGUOUS (0x0080 | PyBUF_STRIDES)
#define PyBUF_INDIRECT (0x0100 | PyBUF_STRIDES)
#define PyBUF_CONTIG (PyBUF_ND | PyBUF_WRITABLE)
#define PyBUF_CONTIG_RO (PyBUF_ND)
#define PyBUF_STRIDED (PyBUF_STRIDES | PyBUF_WRITABLE)
#define PyBUF_STRIDED_RO (PyBUF_STRIDES)
#define PyBUF_RECORDS (PyBUF_STRIDES | PyBUF_WRITABLE | PyBUF_FORMAT)
#define PyBUF_RECORDS_RO (PyBUF_STRIDES | PyBUF_FORMAT)
#define PyBUF_FULL (PyBUF_INDIRECT | PyBUF_WRITABLE | PyBUF_FORMAT)
#define PyBUF_FULL_RO (PyBUF_INDIRECT | PyBUF_FORMAT)
#define PyBUF_READ 0x100
#define PyBUF_WRITE 0x200
/* End buffer interface */
#endif /* Py_LIMITED_API */
typedef int (*objobjproc)(PyObject *, PyObject *);
typedef int (*visitproc)(PyObject *, void *);
typedef int (*traverseproc)(PyObject *, visitproc, void *);
#ifndef Py_LIMITED_API
typedef struct {
/* Number implementations must check *both*
arguments for proper type and implement the necessary conversions
in the slot functions themselves. */
binaryfunc nb_add;
binaryfunc nb_subtract;
binaryfunc nb_multiply;
binaryfunc nb_remainder;
binaryfunc nb_divmod;
ternaryfunc nb_power;
unaryfunc nb_negative;
unaryfunc nb_positive;
unaryfunc nb_absolute;
inquiry nb_bool;
unaryfunc nb_invert;
binaryfunc nb_lshift;
binaryfunc nb_rshift;
binaryfunc nb_and;
binaryfunc nb_xor;
binaryfunc nb_or;
unaryfunc nb_int;
void *nb_reserved; /* the slot formerly known as nb_long */
unaryfunc nb_float;
binaryfunc nb_inplace_add;
binaryfunc nb_inplace_subtract;
binaryfunc nb_inplace_multiply;
binaryfunc nb_inplace_remainder;
ternaryfunc nb_inplace_power;
binaryfunc nb_inplace_lshift;
binaryfunc nb_inplace_rshift;
binaryfunc nb_inplace_and;
binaryfunc nb_inplace_xor;
binaryfunc nb_inplace_or;
binaryfunc nb_floor_divide;
binaryfunc nb_true_divide;
binaryfunc nb_inplace_floor_divide;
binaryfunc nb_inplace_true_divide;
unaryfunc nb_index;
binaryfunc nb_matrix_multiply;
binaryfunc nb_inplace_matrix_multiply;
} PyNumberMethods;
typedef struct {
lenfunc sq_length;
binaryfunc sq_concat;
ssizeargfunc sq_repeat;
ssizeargfunc sq_item;
void *was_sq_slice;
ssizeobjargproc sq_ass_item;
void *was_sq_ass_slice;
objobjproc sq_contains;
binaryfunc sq_inplace_concat;
ssizeargfunc sq_inplace_repeat;
} PySequenceMethods;
typedef struct {
lenfunc mp_length;
binaryfunc mp_subscript;
objobjargproc mp_ass_subscript;
} PyMappingMethods;
typedef struct {
unaryfunc am_await;
unaryfunc am_aiter;
unaryfunc am_anext;
} PyAsyncMethods;
typedef struct {
getbufferproc bf_getbuffer;
releasebufferproc bf_releasebuffer;
} PyBufferProcs;
#endif /* Py_LIMITED_API */
typedef void (*freefunc)(void *);
typedef void (*destructor)(PyObject *);
#ifndef Py_LIMITED_API
/* We can't provide a full compile-time check that limited-API
users won't implement tp_print. However, not defining printfunc
and making tp_print of a different function pointer type
should at least cause a warning in most cases. */
typedef int (*printfunc)(PyObject *, FILE *, int);
#endif
typedef PyObject *(*getattrfunc)(PyObject *, char *);
typedef PyObject *(*getattrofunc)(PyObject *, PyObject *);
typedef int (*setattrfunc)(PyObject *, char *, PyObject *);
typedef int (*setattrofunc)(PyObject *, PyObject *, PyObject *);
typedef PyObject *(*reprfunc)(PyObject *);
typedef Py_hash_t (*hashfunc)(PyObject *);
typedef PyObject *(*richcmpfunc) (PyObject *, PyObject *, int);
typedef PyObject *(*getiterfunc) (PyObject *);
typedef PyObject *(*iternextfunc) (PyObject *);
typedef PyObject *(*descrgetfunc) (PyObject *, PyObject *, PyObject *);
typedef int (*descrsetfunc) (PyObject *, PyObject *, PyObject *);
typedef int (*initproc)(PyObject *, PyObject *, PyObject *);
typedef PyObject *(*newfunc)(struct _typeobject *, PyObject *, PyObject *);
typedef PyObject *(*allocfunc)(struct _typeobject *, Py_ssize_t);
#ifdef Py_LIMITED_API
typedef struct _typeobject PyTypeObject; /* opaque */
#else
typedef struct _typeobject {
PyObject_VAR_HEAD
const char *tp_name; /* For printing, in format "<module>.<name>" */
Py_ssize_t tp_basicsize, tp_itemsize; /* For allocation */
/* Methods to implement standard operations */
destructor tp_dealloc;
printfunc tp_print;
getattrfunc tp_getattr;
setattrfunc tp_setattr;
PyAsyncMethods *tp_as_async; /* formerly known as tp_compare (Python 2)
or tp_reserved (Python 3) */
reprfunc tp_repr;
/* Method suites for standard classes */
PyNumberMethods *tp_as_number;
PySequenceMethods *tp_as_sequence;
PyMappingMethods *tp_as_mapping;
/* More standard operations (here for binary compatibility) */
hashfunc tp_hash;
ternaryfunc tp_call;
reprfunc tp_str;
getattrofunc tp_getattro;
setattrofunc tp_setattro;
/* Functions to access object as input/output buffer */
PyBufferProcs *tp_as_buffer;
/* Flags to define presence of optional/expanded features */
unsigned long tp_flags;
const char *tp_doc; /* Documentation string */
/* Assigned meaning in release 2.0 */
/* call function for all accessible objects */
traverseproc tp_traverse;
/* delete references to contained objects */
inquiry tp_clear;
/* Assigned meaning in release 2.1 */
/* rich comparisons */
richcmpfunc tp_richcompare;
/* weak reference enabler */
Py_ssize_t tp_weaklistoffset;
/* Iterators */
getiterfunc tp_iter;
iternextfunc tp_iternext;
/* Attribute descriptor and subclassing stuff */
struct PyMethodDef *tp_methods;
struct PyMemberDef *tp_members;
struct PyGetSetDef *tp_getset;
struct _typeobject *tp_base;
PyObject *tp_dict;
descrgetfunc tp_descr_get;
descrsetfunc tp_descr_set;
Py_ssize_t tp_dictoffset;
initproc tp_init;
allocfunc tp_alloc;
newfunc tp_new;
freefunc tp_free; /* Low-level free-memory routine */
inquiry tp_is_gc; /* For PyObject_IS_GC */
PyObject *tp_bases;
PyObject *tp_mro; /* method resolution order */
PyObject *tp_cache;
PyObject *tp_subclasses;
PyObject *tp_weaklist;
destructor tp_del;
/* Type attribute cache version tag. Added in version 2.6 */
unsigned int tp_version_tag;
destructor tp_finalize;
#ifdef COUNT_ALLOCS
/* these must be last and never explicitly initialized */
Py_ssize_t tp_allocs;
Py_ssize_t tp_frees;
Py_ssize_t tp_maxalloc;
struct _typeobject *tp_prev;
struct _typeobject *tp_next;
#endif
} PyTypeObject;
#endif
typedef struct{
int slot; /* slot id, see below */
void *pfunc; /* function pointer */
} PyType_Slot;
typedef struct{
const char* name;
int basicsize;
int itemsize;
unsigned int flags;
PyType_Slot *slots; /* terminated by slot==0. */
} PyType_Spec;
PyAPI_FUNC(PyObject*) PyType_FromSpec(PyType_Spec*);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject*) PyType_FromSpecWithBases(PyType_Spec*, PyObject*);
#endif
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03040000
PyAPI_FUNC(void*) PyType_GetSlot(PyTypeObject*, int);
#endif
#ifndef Py_LIMITED_API
/* The *real* layout of a type object when allocated on the heap */
typedef struct _heaptypeobject {
/* Note: there's a dependency on the order of these members
in slotptr() in typeobject.c . */
PyTypeObject ht_type;
PyAsyncMethods as_async;
PyNumberMethods as_number;
PyMappingMethods as_mapping;
PySequenceMethods as_sequence; /* as_sequence comes after as_mapping,
so that the mapping wins when both
the mapping and the sequence define
a given operator (e.g. __getitem__).
see add_operators() in typeobject.c . */
PyBufferProcs as_buffer;
PyObject *ht_name, *ht_slots, *ht_qualname;
struct _dictkeysobject *ht_cached_keys;
/* here are optional user slots, followed by the members. */
} PyHeapTypeObject;
/* access macro to the members which are floating "behind" the object */
#define PyHeapType_GET_MEMBERS(etype) \
((PyMemberDef *)(((char *)etype) + Py_TYPE(etype)->tp_basicsize))
#endif
/* Generic type check */
PyAPI_FUNC(int) PyType_IsSubtype(PyTypeObject *, PyTypeObject *);
#define PyObject_TypeCheck(ob, tp) \
(Py_TYPE(ob) == (tp) || PyType_IsSubtype(Py_TYPE(ob), (tp)))
PyAPI_DATA(PyTypeObject) PyType_Type; /* built-in 'type' */
PyAPI_DATA(PyTypeObject) PyBaseObject_Type; /* built-in 'object' */
PyAPI_DATA(PyTypeObject) PySuper_Type; /* built-in 'super' */
PyAPI_FUNC(unsigned long) PyType_GetFlags(PyTypeObject*);
#define PyType_Check(op) \
PyType_FastSubclass(Py_TYPE(op), Py_TPFLAGS_TYPE_SUBCLASS)
#define PyType_CheckExact(op) (Py_TYPE(op) == &PyType_Type)
PyAPI_FUNC(int) PyType_Ready(PyTypeObject *);
PyAPI_FUNC(PyObject *) PyType_GenericAlloc(PyTypeObject *, Py_ssize_t);
PyAPI_FUNC(PyObject *) PyType_GenericNew(PyTypeObject *,
PyObject *, PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyType_Lookup(PyTypeObject *, PyObject *);
PyAPI_FUNC(PyObject *) _PyType_LookupId(PyTypeObject *, _Py_Identifier *);
PyAPI_FUNC(PyObject *) _PyObject_LookupSpecial(PyObject *, _Py_Identifier *);
PyAPI_FUNC(PyTypeObject *) _PyType_CalculateMetaclass(PyTypeObject *, PyObject *);
#endif
PyAPI_FUNC(unsigned int) PyType_ClearCache(void);
PyAPI_FUNC(void) PyType_Modified(PyTypeObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyType_GetDocFromInternalDoc(const char *, const char *);
PyAPI_FUNC(PyObject *) _PyType_GetTextSignatureFromInternalDoc(const char *, const char *);
#endif
/* Generic operations on objects */
#ifndef Py_LIMITED_API
struct _Py_Identifier;
PyAPI_FUNC(int) PyObject_Print(PyObject *, FILE *, int);
PyAPI_FUNC(void) _Py_BreakPoint(void);
PyAPI_FUNC(void) _PyObject_Dump(PyObject *);
#endif
PyAPI_FUNC(PyObject *) PyObject_Repr(PyObject *);
PyAPI_FUNC(PyObject *) PyObject_Str(PyObject *);
PyAPI_FUNC(PyObject *) PyObject_ASCII(PyObject *);
PyAPI_FUNC(PyObject *) PyObject_Bytes(PyObject *);
PyAPI_FUNC(PyObject *) PyObject_RichCompare(PyObject *, PyObject *, int);
PyAPI_FUNC(int) PyObject_RichCompareBool(PyObject *, PyObject *, int);
PyAPI_FUNC(PyObject *) PyObject_GetAttrString(PyObject *, const char *);
PyAPI_FUNC(int) PyObject_SetAttrString(PyObject *, const char *, PyObject *);
PyAPI_FUNC(int) PyObject_HasAttrString(PyObject *, const char *);
PyAPI_FUNC(PyObject *) PyObject_GetAttr(PyObject *, PyObject *);
PyAPI_FUNC(int) PyObject_SetAttr(PyObject *, PyObject *, PyObject *);
PyAPI_FUNC(int) PyObject_HasAttr(PyObject *, PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyObject_IsAbstract(PyObject *);
PyAPI_FUNC(PyObject *) _PyObject_GetAttrId(PyObject *, struct _Py_Identifier *);
PyAPI_FUNC(int) _PyObject_SetAttrId(PyObject *, struct _Py_Identifier *, PyObject *);
PyAPI_FUNC(int) _PyObject_HasAttrId(PyObject *, struct _Py_Identifier *);
PyAPI_FUNC(PyObject **) _PyObject_GetDictPtr(PyObject *);
#endif
PyAPI_FUNC(PyObject *) PyObject_SelfIter(PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyObject_NextNotImplemented(PyObject *);
#endif
PyAPI_FUNC(PyObject *) PyObject_GenericGetAttr(PyObject *, PyObject *);
PyAPI_FUNC(int) PyObject_GenericSetAttr(PyObject *,
PyObject *, PyObject *);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(int) PyObject_GenericSetDict(PyObject *, PyObject *, void *);
#endif
PyAPI_FUNC(Py_hash_t) PyObject_Hash(PyObject *);
PyAPI_FUNC(Py_hash_t) PyObject_HashNotImplemented(PyObject *);
PyAPI_FUNC(int) PyObject_IsTrue(PyObject *);
PyAPI_FUNC(int) PyObject_Not(PyObject *);
PyAPI_FUNC(int) PyCallable_Check(PyObject *);
PyAPI_FUNC(void) PyObject_ClearWeakRefs(PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) PyObject_CallFinalizer(PyObject *);
PyAPI_FUNC(int) PyObject_CallFinalizerFromDealloc(PyObject *);
#endif
#ifndef Py_LIMITED_API
/* Same as PyObject_Generic{Get,Set}Attr, but passing the attributes
dict as the last parameter. */
PyAPI_FUNC(PyObject *)
_PyObject_GenericGetAttrWithDict(PyObject *, PyObject *, PyObject *);
PyAPI_FUNC(int)
_PyObject_GenericSetAttrWithDict(PyObject *, PyObject *,
PyObject *, PyObject *);
#endif /* !Py_LIMITED_API */
/* Helper to look up a builtin object */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *)
_PyObject_GetBuiltin(const char *name);
#endif
/* PyObject_Dir(obj) acts like Python builtins.dir(obj), returning a
list of strings. PyObject_Dir(NULL) is like builtins.dir(),
returning the names of the current locals. In this case, if there are
no current locals, NULL is returned, and PyErr_Occurred() is false.
*/
PyAPI_FUNC(PyObject *) PyObject_Dir(PyObject *);
/* Helpers for printing recursive container types */
PyAPI_FUNC(int) Py_ReprEnter(PyObject *);
PyAPI_FUNC(void) Py_ReprLeave(PyObject *);
/* Flag bits for printing: */
#define Py_PRINT_RAW 1 /* No string quotes etc. */
/*
`Type flags (tp_flags)
These flags are used to extend the type structure in a backwards-compatible
fashion. Extensions can use the flags to indicate (and test) when a given
type structure contains a new feature. The Python core will use these when
introducing new functionality between major revisions (to avoid mid-version
changes in the PYTHON_API_VERSION).
Arbitration of the flag bit positions will need to be coordinated among
all extension writers who publically release their extensions (this will
be fewer than you might expect!)..
Most flags were removed as of Python 3.0 to make room for new flags. (Some
flags are not for backwards compatibility but to indicate the presence of an
optional feature; these flags remain of course.)
Type definitions should use Py_TPFLAGS_DEFAULT for their tp_flags value.
Code can use PyType_HasFeature(type_ob, flag_value) to test whether the
given type object has a specified feature.
*/
/* Set if the type object is dynamically allocated */
#define Py_TPFLAGS_HEAPTYPE (1UL << 9)
/* Set if the type allows subclassing */
#define Py_TPFLAGS_BASETYPE (1UL << 10)
/* Set if the type is 'ready' -- fully initialized */
#define Py_TPFLAGS_READY (1UL << 12)
/* Set while the type is being 'readied', to prevent recursive ready calls */
#define Py_TPFLAGS_READYING (1UL << 13)
/* Objects support garbage collection (see objimp.h) */
#define Py_TPFLAGS_HAVE_GC (1UL << 14)
/* These two bits are preserved for Stackless Python, next after this is 17 */
#ifdef STACKLESS
#define Py_TPFLAGS_HAVE_STACKLESS_EXTENSION (3UL << 15)
#else
#define Py_TPFLAGS_HAVE_STACKLESS_EXTENSION 0
#endif
/* Objects support type attribute cache */
#define Py_TPFLAGS_HAVE_VERSION_TAG (1UL << 18)
#define Py_TPFLAGS_VALID_VERSION_TAG (1UL << 19)
/* Type is abstract and cannot be instantiated */
#define Py_TPFLAGS_IS_ABSTRACT (1UL << 20)
/* These flags are used to determine if a type is a subclass. */
#define Py_TPFLAGS_LONG_SUBCLASS (1UL << 24)
#define Py_TPFLAGS_LIST_SUBCLASS (1UL << 25)
#define Py_TPFLAGS_TUPLE_SUBCLASS (1UL << 26)
#define Py_TPFLAGS_BYTES_SUBCLASS (1UL << 27)
#define Py_TPFLAGS_UNICODE_SUBCLASS (1UL << 28)
#define Py_TPFLAGS_DICT_SUBCLASS (1UL << 29)
#define Py_TPFLAGS_BASE_EXC_SUBCLASS (1UL << 30)
#define Py_TPFLAGS_TYPE_SUBCLASS (1UL << 31)
#define Py_TPFLAGS_DEFAULT ( \
Py_TPFLAGS_HAVE_STACKLESS_EXTENSION | \
Py_TPFLAGS_HAVE_VERSION_TAG | \
0)
/* NOTE: The following flags reuse lower bits (removed as part of the
* Python 3.0 transition). */
/* Type structure has tp_finalize member (3.4) */
#define Py_TPFLAGS_HAVE_FINALIZE (1UL << 0)
#ifdef Py_LIMITED_API
#define PyType_HasFeature(t,f) ((PyType_GetFlags(t) & (f)) != 0)
#else
#define PyType_HasFeature(t,f) (((t)->tp_flags & (f)) != 0)
#endif
#define PyType_FastSubclass(t,f) PyType_HasFeature(t,f)
/*
The macros Py_INCREF(op) and Py_DECREF(op) are used to increment or decrement
reference counts. Py_DECREF calls the object's deallocator function when
the refcount falls to 0; for
objects that don't contain references to other objects or heap memory
this can be the standard function free(). Both macros can be used
wherever a void expression is allowed. The argument must not be a
NULL pointer. If it may be NULL, use Py_XINCREF/Py_XDECREF instead.
The macro _Py_NewReference(op) initialize reference counts to 1, and
in special builds (Py_REF_DEBUG, Py_TRACE_REFS) performs additional
bookkeeping appropriate to the special build.
We assume that the reference count field can never overflow; this can
be proven when the size of the field is the same as the pointer size, so
we ignore the possibility. Provided a C int is at least 32 bits (which
is implicitly assumed in many parts of this code), that's enough for
about 2**31 references to an object.
XXX The following became out of date in Python 2.2, but I'm not sure
XXX what the full truth is now. Certainly, heap-allocated type objects
XXX can and should be deallocated.
Type objects should never be deallocated; the type pointer in an object
is not considered to be a reference to the type object, to save
complications in the deallocation function. (This is actually a
decision that's up to the implementer of each new type so if you want,
you can count such references to the type object.)
*/
/* First define a pile of simple helper macros, one set per special
* build symbol. These either expand to the obvious things, or to
* nothing at all when the special mode isn't in effect. The main
* macros can later be defined just once then, yet expand to different
* things depending on which special build options are and aren't in effect.
* Trust me <wink>: while painful, this is 20x easier to understand than,
* e.g, defining _Py_NewReference five different times in a maze of nested
* #ifdefs (we used to do that -- it was impenetrable).
*/
#ifdef Py_REF_DEBUG
PyAPI_DATA(Py_ssize_t) _Py_RefTotal;
PyAPI_FUNC(void) _Py_NegativeRefcount(const char *fname,
int lineno, PyObject *op);
PyAPI_FUNC(Py_ssize_t) _Py_GetRefTotal(void);
#define _Py_INC_REFTOTAL _Py_RefTotal++
#define _Py_DEC_REFTOTAL _Py_RefTotal--
#define _Py_REF_DEBUG_COMMA ,
#define _Py_CHECK_REFCNT(OP) \
{ if (((PyObject*)OP)->ob_refcnt < 0) \
_Py_NegativeRefcount(__FILE__, __LINE__, \
(PyObject *)(OP)); \
}
/* Py_REF_DEBUG also controls the display of refcounts and memory block
* allocations at the interactive prompt and at interpreter shutdown
*/
PyAPI_FUNC(void) _PyDebug_PrintTotalRefs(void);
#define _PY_DEBUG_PRINT_TOTAL_REFS() _PyDebug_PrintTotalRefs()
#else
#define _Py_INC_REFTOTAL
#define _Py_DEC_REFTOTAL
#define _Py_REF_DEBUG_COMMA
#define _Py_CHECK_REFCNT(OP) /* a semicolon */;
#define _PY_DEBUG_PRINT_TOTAL_REFS()
#endif /* Py_REF_DEBUG */
#ifdef COUNT_ALLOCS
PyAPI_FUNC(void) inc_count(PyTypeObject *);
PyAPI_FUNC(void) dec_count(PyTypeObject *);
#define _Py_INC_TPALLOCS(OP) inc_count(Py_TYPE(OP))
#define _Py_INC_TPFREES(OP) dec_count(Py_TYPE(OP))
#define _Py_DEC_TPFREES(OP) Py_TYPE(OP)->tp_frees--
#define _Py_COUNT_ALLOCS_COMMA ,
#else
#define _Py_INC_TPALLOCS(OP)
#define _Py_INC_TPFREES(OP)
#define _Py_DEC_TPFREES(OP)
#define _Py_COUNT_ALLOCS_COMMA
#endif /* COUNT_ALLOCS */
#ifdef Py_TRACE_REFS
/* Py_TRACE_REFS is such major surgery that we call external routines. */
PyAPI_FUNC(void) _Py_NewReference(PyObject *);
PyAPI_FUNC(void) _Py_ForgetReference(PyObject *);
PyAPI_FUNC(void) _Py_Dealloc(PyObject *);
PyAPI_FUNC(void) _Py_PrintReferences(FILE *);
PyAPI_FUNC(void) _Py_PrintReferenceAddresses(FILE *);
PyAPI_FUNC(void) _Py_AddToAllObjects(PyObject *, int force);
#else
/* Without Py_TRACE_REFS, there's little enough to do that we expand code
* inline.
*/
#define _Py_NewReference(op) ( \
_Py_INC_TPALLOCS(op) _Py_COUNT_ALLOCS_COMMA \
_Py_INC_REFTOTAL _Py_REF_DEBUG_COMMA \
Py_REFCNT(op) = 1)
#define _Py_ForgetReference(op) _Py_INC_TPFREES(op)
#ifdef Py_LIMITED_API
PyAPI_FUNC(void) _Py_Dealloc(PyObject *);
#else
#define _Py_Dealloc(op) ( \
_Py_INC_TPFREES(op) _Py_COUNT_ALLOCS_COMMA \
(*Py_TYPE(op)->tp_dealloc)((PyObject *)(op)))
#endif
#endif /* !Py_TRACE_REFS */
#define Py_INCREF(op) ( \
_Py_INC_REFTOTAL _Py_REF_DEBUG_COMMA \
((PyObject *)(op))->ob_refcnt++)
#define Py_DECREF(op) \
do { \
PyObject *_py_decref_tmp = (PyObject *)(op); \
if (_Py_DEC_REFTOTAL _Py_REF_DEBUG_COMMA \
--(_py_decref_tmp)->ob_refcnt != 0) \
_Py_CHECK_REFCNT(_py_decref_tmp) \
else \
_Py_Dealloc(_py_decref_tmp); \
} while (0)
/* Safely decref `op` and set `op` to NULL, especially useful in tp_clear
* and tp_dealloc implementations.
*
* Note that "the obvious" code can be deadly:
*
* Py_XDECREF(op);
* op = NULL;
*
* Typically, `op` is something like self->containee, and `self` is done
* using its `containee` member. In the code sequence above, suppose
* `containee` is non-NULL with a refcount of 1. Its refcount falls to
* 0 on the first line, which can trigger an arbitrary amount of code,
* possibly including finalizers (like __del__ methods or weakref callbacks)
* coded in Python, which in turn can release the GIL and allow other threads
* to run, etc. Such code may even invoke methods of `self` again, or cause
* cyclic gc to trigger, but-- oops! --self->containee still points to the
* object being torn down, and it may be in an insane state while being torn
* down. This has in fact been a rich historic source of miserable (rare &
* hard-to-diagnose) segfaulting (and other) bugs.
*
* The safe way is:
*
* Py_CLEAR(op);
*
* That arranges to set `op` to NULL _before_ decref'ing, so that any code
* triggered as a side-effect of `op` getting torn down no longer believes
* `op` points to a valid object.
*
* There are cases where it's safe to use the naive code, but they're brittle.
* For example, if `op` points to a Python integer, you know that destroying
* one of those can't cause problems -- but in part that relies on that
* Python integers aren't currently weakly referencable. Best practice is
* to use Py_CLEAR() even if you can't think of a reason for why you need to.
*/
#define Py_CLEAR(op) \
do { \
PyObject *_py_tmp = (PyObject *)(op); \
if (_py_tmp != NULL) { \
(op) = NULL; \
Py_DECREF(_py_tmp); \
} \
} while (0)
/* Macros to use in case the object pointer may be NULL: */
#define Py_XINCREF(op) \
do { \
PyObject *_py_xincref_tmp = (PyObject *)(op); \
if (_py_xincref_tmp != NULL) \
Py_INCREF(_py_xincref_tmp); \
} while (0)
#define Py_XDECREF(op) \
do { \
PyObject *_py_xdecref_tmp = (PyObject *)(op); \
if (_py_xdecref_tmp != NULL) \
Py_DECREF(_py_xdecref_tmp); \
} while (0)
#ifndef Py_LIMITED_API
/* Safely decref `op` and set `op` to `op2`.
*
* As in case of Py_CLEAR "the obvious" code can be deadly:
*
* Py_DECREF(op);
* op = op2;
*
* The safe way is:
*
* Py_SETREF(op, op2);
*
* That arranges to set `op` to `op2` _before_ decref'ing, so that any code
* triggered as a side-effect of `op` getting torn down no longer believes
* `op` points to a valid object.
*
* Py_XSETREF is a variant of Py_SETREF that uses Py_XDECREF instead of
* Py_DECREF.
*/
#define Py_SETREF(op, op2) \
do { \
PyObject *_py_tmp = (PyObject *)(op); \
(op) = (op2); \
Py_DECREF(_py_tmp); \
} while (0)
#define Py_XSETREF(op, op2) \
do { \
PyObject *_py_tmp = (PyObject *)(op); \
(op) = (op2); \
Py_XDECREF(_py_tmp); \
} while (0)
#endif /* ifndef Py_LIMITED_API */
/*
These are provided as conveniences to Python runtime embedders, so that
they can have object code that is not dependent on Python compilation flags.
*/
PyAPI_FUNC(void) Py_IncRef(PyObject *);
PyAPI_FUNC(void) Py_DecRef(PyObject *);
#ifndef Py_LIMITED_API
PyAPI_DATA(PyTypeObject) _PyNone_Type;
PyAPI_DATA(PyTypeObject) _PyNotImplemented_Type;
#endif /* !Py_LIMITED_API */
/*
_Py_NoneStruct is an object of undefined type which can be used in contexts
where NULL (nil) is not suitable (since NULL often means 'error').
Don't forget to apply Py_INCREF() when returning this value!!!
*/
PyAPI_DATA(PyObject) _Py_NoneStruct; /* Don't use this directly */
#define Py_None (&_Py_NoneStruct)
/* Macro for returning Py_None from a function */
#define Py_RETURN_NONE return Py_INCREF(Py_None), Py_None
/*
Py_NotImplemented is a singleton used to signal that an operation is
not implemented for a given type combination.
*/
PyAPI_DATA(PyObject) _Py_NotImplementedStruct; /* Don't use this directly */
#define Py_NotImplemented (&_Py_NotImplementedStruct)
/* Macro for returning Py_NotImplemented from a function */
#define Py_RETURN_NOTIMPLEMENTED \
return Py_INCREF(Py_NotImplemented), Py_NotImplemented
/* Rich comparison opcodes */
#define Py_LT 0
#define Py_LE 1
#define Py_EQ 2
#define Py_NE 3
#define Py_GT 4
#define Py_GE 5
#ifndef Py_LIMITED_API
/* Maps Py_LT to Py_GT, ..., Py_GE to Py_LE.
* Defined in object.c.
*/
PyAPI_DATA(int) _Py_SwappedOp[];
#endif /* !Py_LIMITED_API */
/*
More conventions
================
Argument Checking
-----------------
Functions that take objects as arguments normally don't check for nil
arguments, but they do check the type of the argument, and return an
error if the function doesn't apply to the type.
Failure Modes
-------------
Functions may fail for a variety of reasons, including running out of
memory. This is communicated to the caller in two ways: an error string
is set (see errors.h), and the function result differs: functions that
normally return a pointer return NULL for failure, functions returning
an integer return -1 (which could be a legal return value too!), and
other functions return 0 for success and -1 for failure.
Callers should always check for errors before using the result. If
an error was set, the caller must either explicitly clear it, or pass
the error on to its caller.
Reference Counts
----------------
It takes a while to get used to the proper usage of reference counts.
Functions that create an object set the reference count to 1; such new
objects must be stored somewhere or destroyed again with Py_DECREF().
Some functions that 'store' objects, such as PyTuple_SetItem() and
PyList_SetItem(),
don't increment the reference count of the object, since the most
frequent use is to store a fresh object. Functions that 'retrieve'
objects, such as PyTuple_GetItem() and PyDict_GetItemString(), also
don't increment
the reference count, since most frequently the object is only looked at
quickly. Thus, to retrieve an object and store it again, the caller
must call Py_INCREF() explicitly.
NOTE: functions that 'consume' a reference count, like
PyList_SetItem(), consume the reference even if the object wasn't
successfully stored, to simplify error handling.
It seems attractive to make other functions that take an object as
argument consume a reference count; however, this may quickly get
confusing (even the current practice is already confusing). Consider
it carefully, it may save lots of calls to Py_INCREF() and Py_DECREF() at
times.
*/
/* Trashcan mechanism, thanks to Christian Tismer.
When deallocating a container object, it's possible to trigger an unbounded
chain of deallocations, as each Py_DECREF in turn drops the refcount on "the
next" object in the chain to 0. This can easily lead to stack faults, and
especially in threads (which typically have less stack space to work with).
A container object that participates in cyclic gc can avoid this by
bracketing the body of its tp_dealloc function with a pair of macros:
static void
mytype_dealloc(mytype *p)
{
... declarations go here ...
PyObject_GC_UnTrack(p); // must untrack first
Py_TRASHCAN_SAFE_BEGIN(p)
... The body of the deallocator goes here, including all calls ...
... to Py_DECREF on contained objects. ...
Py_TRASHCAN_SAFE_END(p)
}
CAUTION: Never return from the middle of the body! If the body needs to
"get out early", put a label immediately before the Py_TRASHCAN_SAFE_END
call, and goto it. Else the call-depth counter (see below) will stay
above 0 forever, and the trashcan will never get emptied.
How it works: The BEGIN macro increments a call-depth counter. So long
as this counter is small, the body of the deallocator is run directly without
further ado. But if the counter gets large, it instead adds p to a list of
objects to be deallocated later, skips the body of the deallocator, and
resumes execution after the END macro. The tp_dealloc routine then returns
without deallocating anything (and so unbounded call-stack depth is avoided).
When the call stack finishes unwinding again, code generated by the END macro
notices this, and calls another routine to deallocate all the objects that
may have been added to the list of deferred deallocations. In effect, a
chain of N deallocations is broken into N / PyTrash_UNWIND_LEVEL pieces,
with the call stack never exceeding a depth of PyTrash_UNWIND_LEVEL.
*/
#ifndef Py_LIMITED_API
/* This is the old private API, invoked by the macros before 3.2.4.
Kept for binary compatibility of extensions using the stable ABI. */
PyAPI_FUNC(void) _PyTrash_deposit_object(PyObject*);
PyAPI_FUNC(void) _PyTrash_destroy_chain(void);
PyAPI_DATA(int) _PyTrash_delete_nesting;
PyAPI_DATA(PyObject *) _PyTrash_delete_later;
#endif /* !Py_LIMITED_API */
/* The new thread-safe private API, invoked by the macros below. */
PyAPI_FUNC(void) _PyTrash_thread_deposit_object(PyObject*);
PyAPI_FUNC(void) _PyTrash_thread_destroy_chain(void);
#define PyTrash_UNWIND_LEVEL 50
#define Py_TRASHCAN_SAFE_BEGIN(op) \
do { \
PyThreadState *_tstate = PyThreadState_GET(); \
if (_tstate->trash_delete_nesting < PyTrash_UNWIND_LEVEL) { \
++_tstate->trash_delete_nesting;
/* The body of the deallocator is here. */
#define Py_TRASHCAN_SAFE_END(op) \
--_tstate->trash_delete_nesting; \
if (_tstate->trash_delete_later && _tstate->trash_delete_nesting <= 0) \
_PyTrash_thread_destroy_chain(); \
} \
else \
_PyTrash_thread_deposit_object((PyObject*)op); \
} while (0);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void)
_PyDebugAllocatorStats(FILE *out, const char *block_name, int num_blocks,
size_t sizeof_block);
PyAPI_FUNC(void)
_PyObject_DebugTypeStats(FILE *out);
#endif /* ifndef Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_OBJECT_H */
Raw
Frikr_Include_objimpl.h
/* The PyObject_ memory family: high-level object memory interfaces.
See pymem.h for the low-level PyMem_ family.
*/
#ifndef Py_OBJIMPL_H
#define Py_OBJIMPL_H
#include "pymem.h"
#ifdef __cplusplus
extern "C" {
#endif
/* BEWARE:
Each interface exports both functions and macros. Extension modules should
use the functions, to ensure binary compatibility across Python versions.
Because the Python implementation is free to change internal details, and
the macros may (or may not) expose details for speed, if you do use the
macros you must recompile your extensions with each Python release.
Never mix calls to PyObject_ memory functions with calls to the platform
malloc/realloc/ calloc/free, or with calls to PyMem_.
*/
/*
Functions and macros for modules that implement new object types.
- PyObject_New(type, typeobj) allocates memory for a new object of the given
type, and initializes part of it. 'type' must be the C structure type used
to represent the object, and 'typeobj' the address of the corresponding
type object. Reference count and type pointer are filled in; the rest of
the bytes of the object are *undefined*! The resulting expression type is
'type *'. The size of the object is determined by the tp_basicsize field
of the type object.
- PyObject_NewVar(type, typeobj, n) is similar but allocates a variable-size
object with room for n items. In addition to the refcount and type pointer
fields, this also fills in the ob_size field.
- PyObject_Del(op) releases the memory allocated for an object. It does not
run a destructor -- it only frees the memory. PyObject_Free is identical.
- PyObject_Init(op, typeobj) and PyObject_InitVar(op, typeobj, n) don't
allocate memory. Instead of a 'type' parameter, they take a pointer to a
new object (allocated by an arbitrary allocator), and initialize its object
header fields.
Note that objects created with PyObject_{New, NewVar} are allocated using the
specialized Python allocator (implemented in obmalloc.c), if WITH_PYMALLOC is
enabled. In addition, a special debugging allocator is used if PYMALLOC_DEBUG
is also #defined.
In case a specific form of memory management is needed (for example, if you
must use the platform malloc heap(s), or shared memory, or C++ local storage or
operator new), you must first allocate the object with your custom allocator,
then pass its pointer to PyObject_{Init, InitVar} for filling in its Python-
specific fields: reference count, type pointer, possibly others. You should
be aware that Python no control over these objects because they don't
cooperate with the Python memory manager. Such objects may not be eligible
for automatic garbage collection and you have to make sure that they are
released accordingly whenever their destructor gets called (cf. the specific
form of memory management you're using).
Unless you have specific memory management requirements, use
PyObject_{New, NewVar, Del}.
*/
/*
* Raw object memory interface
* ===========================
*/
/* Functions to call the same malloc/realloc/free as used by Python's
object allocator. If WITH_PYMALLOC is enabled, these may differ from
the platform malloc/realloc/free. The Python object allocator is
designed for fast, cache-conscious allocation of many "small" objects,
and with low hidden memory overhead.
PyObject_Malloc(0) returns a unique non-NULL pointer if possible.
PyObject_Realloc(NULL, n) acts like PyObject_Malloc(n).
PyObject_Realloc(p != NULL, 0) does not return NULL, or free the memory
at p.
Returned pointers must be checked for NULL explicitly; no action is
performed on failure other than to return NULL (no warning it printed, no
exception is set, etc).
For allocating objects, use PyObject_{New, NewVar} instead whenever
possible. The PyObject_{Malloc, Realloc, Free} family is exposed
so that you can exploit Python's small-block allocator for non-object
uses. If you must use these routines to allocate object memory, make sure
the object gets initialized via PyObject_{Init, InitVar} after obtaining
the raw memory.
*/
PyAPI_FUNC(void *) PyObject_Malloc(size_t size);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_FUNC(void *) PyObject_Calloc(size_t nelem, size_t elsize);
#endif
PyAPI_FUNC(void *) PyObject_Realloc(void *ptr, size_t new_size);
PyAPI_FUNC(void) PyObject_Free(void *ptr);
#ifndef Py_LIMITED_API
/* This function returns the number of allocated memory blocks, regardless of size */
PyAPI_FUNC(Py_ssize_t) _Py_GetAllocatedBlocks(void);
#endif /* !Py_LIMITED_API */
/* Macros */
#ifdef WITH_PYMALLOC
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyObject_DebugMallocStats(FILE *out);
#endif /* #ifndef Py_LIMITED_API */
#endif
/* Macros */
#define PyObject_MALLOC PyObject_Malloc
#define PyObject_REALLOC PyObject_Realloc
#define PyObject_FREE PyObject_Free
#define PyObject_Del PyObject_Free
#define PyObject_DEL PyObject_Free
/*
* Generic object allocator interface
* ==================================
*/
/* Functions */
PyAPI_FUNC(PyObject *) PyObject_Init(PyObject *, PyTypeObject *);
PyAPI_FUNC(PyVarObject *) PyObject_InitVar(PyVarObject *,
PyTypeObject *, Py_ssize_t);
PyAPI_FUNC(PyObject *) _PyObject_New(PyTypeObject *);
PyAPI_FUNC(PyVarObject *) _PyObject_NewVar(PyTypeObject *, Py_ssize_t);
#define PyObject_New(type, typeobj) \
( (type *) _PyObject_New(typeobj) )
#define PyObject_NewVar(type, typeobj, n) \
( (type *) _PyObject_NewVar((typeobj), (n)) )
/* Macros trading binary compatibility for speed. See also pymem.h.
Note that these macros expect non-NULL object pointers.*/
#define PyObject_INIT(op, typeobj) \
( Py_TYPE(op) = (typeobj), _Py_NewReference((PyObject *)(op)), (op) )
#define PyObject_INIT_VAR(op, typeobj, size) \
( Py_SIZE(op) = (size), PyObject_INIT((op), (typeobj)) )
#define _PyObject_SIZE(typeobj) ( (typeobj)->tp_basicsize )
/* _PyObject_VAR_SIZE returns the number of bytes (as size_t) allocated for a
vrbl-size object with nitems items, exclusive of gc overhead (if any). The
value is rounded up to the closest multiple of sizeof(void *), in order to
ensure that pointer fields at the end of the object are correctly aligned
for the platform (this is of special importance for subclasses of, e.g.,
str or int, so that pointers can be stored after the embedded data).
Note that there's no memory wastage in doing this, as malloc has to
return (at worst) pointer-aligned memory anyway.
*/
#if ((SIZEOF_VOID_P - 1) & SIZEOF_VOID_P) != 0
# error "_PyObject_VAR_SIZE requires SIZEOF_VOID_P be a power of 2"
#endif
#define _PyObject_VAR_SIZE(typeobj, nitems) \
_Py_SIZE_ROUND_UP((typeobj)->tp_basicsize + \
(nitems)*(typeobj)->tp_itemsize, \
SIZEOF_VOID_P)
#define PyObject_NEW(type, typeobj) \
( (type *) PyObject_Init( \
(PyObject *) PyObject_MALLOC( _PyObject_SIZE(typeobj) ), (typeobj)) )
#define PyObject_NEW_VAR(type, typeobj, n) \
( (type *) PyObject_InitVar( \
(PyVarObject *) PyObject_MALLOC(_PyObject_VAR_SIZE((typeobj),(n)) ),\
(typeobj), (n)) )
/* This example code implements an object constructor with a custom
allocator, where PyObject_New is inlined, and shows the important
distinction between two steps (at least):
1) the actual allocation of the object storage;
2) the initialization of the Python specific fields
in this storage with PyObject_{Init, InitVar}.
PyObject *
YourObject_New(...)
{
PyObject *op;
op = (PyObject *) Your_Allocator(_PyObject_SIZE(YourTypeStruct));
if (op == NULL)
return PyErr_NoMemory();
PyObject_Init(op, &YourTypeStruct);
op->ob_field = value;
...
return op;
}
Note that in C++, the use of the new operator usually implies that
the 1st step is performed automatically for you, so in a C++ class
constructor you would start directly with PyObject_Init/InitVar
*/
#ifndef Py_LIMITED_API
typedef struct {
/* user context passed as the first argument to the 2 functions */
void *ctx;
/* allocate an arena of size bytes */
void* (*alloc) (void *ctx, size_t size);
/* free an arena */
void (*free) (void *ctx, void *ptr, size_t size);
} PyObjectArenaAllocator;
/* Get the arena allocator. */
PyAPI_FUNC(void) PyObject_GetArenaAllocator(PyObjectArenaAllocator *allocator);
/* Set the arena allocator. */
PyAPI_FUNC(void) PyObject_SetArenaAllocator(PyObjectArenaAllocator *allocator);
#endif
/*
* Garbage Collection Support
* ==========================
*/
/* C equivalent of gc.collect() which ignores the state of gc.enabled. */
PyAPI_FUNC(Py_ssize_t) PyGC_Collect(void);
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_ssize_t) _PyGC_CollectNoFail(void);
PyAPI_FUNC(Py_ssize_t) _PyGC_CollectIfEnabled(void);
#endif
/* Test if a type has a GC head */
#define PyType_IS_GC(t) PyType_HasFeature((t), Py_TPFLAGS_HAVE_GC)
/* Test if an object has a GC head */
#define PyObject_IS_GC(o) (PyType_IS_GC(Py_TYPE(o)) && \
(Py_TYPE(o)->tp_is_gc == NULL || Py_TYPE(o)->tp_is_gc(o)))
PyAPI_FUNC(PyVarObject *) _PyObject_GC_Resize(PyVarObject *, Py_ssize_t);
#define PyObject_GC_Resize(type, op, n) \
( (type *) _PyObject_GC_Resize((PyVarObject *)(op), (n)) )
/* GC information is stored BEFORE the object structure. */
#ifndef Py_LIMITED_API
typedef union _gc_head {
struct {
union _gc_head *gc_next;
union _gc_head *gc_prev;
Py_ssize_t gc_refs;
} gc;
double dummy; /* force worst-case alignment */
} PyGC_Head;
extern PyGC_Head *_PyGC_generation0;
#define _Py_AS_GC(o) ((PyGC_Head *)(o)-1)
/* Bit 0 is set when tp_finalize is called */
#define _PyGC_REFS_MASK_FINALIZED (1 << 0)
/* The (N-1) most significant bits contain the gc state / refcount */
#define _PyGC_REFS_SHIFT (1)
#define _PyGC_REFS_MASK (((size_t) -1) << _PyGC_REFS_SHIFT)
#define _PyGCHead_REFS(g) ((g)->gc.gc_refs >> _PyGC_REFS_SHIFT)
#define _PyGCHead_SET_REFS(g, v) do { \
(g)->gc.gc_refs = ((g)->gc.gc_refs & ~_PyGC_REFS_MASK) \
| (((size_t)(v)) << _PyGC_REFS_SHIFT); \
} while (0)
#define _PyGCHead_DECREF(g) ((g)->gc.gc_refs -= 1 << _PyGC_REFS_SHIFT)
#define _PyGCHead_FINALIZED(g) (((g)->gc.gc_refs & _PyGC_REFS_MASK_FINALIZED) != 0)
#define _PyGCHead_SET_FINALIZED(g, v) do { \
(g)->gc.gc_refs = ((g)->gc.gc_refs & ~_PyGC_REFS_MASK_FINALIZED) \
| (v != 0); \
} while (0)
#define _PyGC_FINALIZED(o) _PyGCHead_FINALIZED(_Py_AS_GC(o))
#define _PyGC_SET_FINALIZED(o, v) _PyGCHead_SET_FINALIZED(_Py_AS_GC(o), v)
#define _PyGC_REFS(o) _PyGCHead_REFS(_Py_AS_GC(o))
#define _PyGC_REFS_UNTRACKED (-2)
#define _PyGC_REFS_REACHABLE (-3)
#define _PyGC_REFS_TENTATIVELY_UNREACHABLE (-4)
/* Tell the GC to track this object. NB: While the object is tracked the
* collector it must be safe to call the ob_traverse method. */
#define _PyObject_GC_TRACK(o) do { \
PyGC_Head *g = _Py_AS_GC(o); \
if (_PyGCHead_REFS(g) != _PyGC_REFS_UNTRACKED) \
Py_FatalError("GC object already tracked"); \
_PyGCHead_SET_REFS(g, _PyGC_REFS_REACHABLE); \
g->gc.gc_next = _PyGC_generation0; \
g->gc.gc_prev = _PyGC_generation0->gc.gc_prev; \
g->gc.gc_prev->gc.gc_next = g; \
_PyGC_generation0->gc.gc_prev = g; \
} while (0);
/* Tell the GC to stop tracking this object.
* gc_next doesn't need to be set to NULL, but doing so is a good
* way to provoke memory errors if calling code is confused.
*/
#define _PyObject_GC_UNTRACK(o) do { \
PyGC_Head *g = _Py_AS_GC(o); \
assert(_PyGCHead_REFS(g) != _PyGC_REFS_UNTRACKED); \
_PyGCHead_SET_REFS(g, _PyGC_REFS_UNTRACKED); \
g->gc.gc_prev->gc.gc_next = g->gc.gc_next; \
g->gc.gc_next->gc.gc_prev = g->gc.gc_prev; \
g->gc.gc_next = NULL; \
} while (0);
/* True if the object is currently tracked by the GC. */
#define _PyObject_GC_IS_TRACKED(o) \
(_PyGC_REFS(o) != _PyGC_REFS_UNTRACKED)
/* True if the object may be tracked by the GC in the future, or already is.
This can be useful to implement some optimizations. */
#define _PyObject_GC_MAY_BE_TRACKED(obj) \
(PyObject_IS_GC(obj) && \
(!PyTuple_CheckExact(obj) || _PyObject_GC_IS_TRACKED(obj)))
#endif /* Py_LIMITED_API */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyObject_GC_Malloc(size_t size);
PyAPI_FUNC(PyObject *) _PyObject_GC_Calloc(size_t size);
#endif /* !Py_LIMITED_API */
PyAPI_FUNC(PyObject *) _PyObject_GC_New(PyTypeObject *);
PyAPI_FUNC(PyVarObject *) _PyObject_GC_NewVar(PyTypeObject *, Py_ssize_t);
PyAPI_FUNC(void) PyObject_GC_Track(void *);
PyAPI_FUNC(void) PyObject_GC_UnTrack(void *);
PyAPI_FUNC(void) PyObject_GC_Del(void *);
#define PyObject_GC_New(type, typeobj) \
( (type *) _PyObject_GC_New(typeobj) )
#define PyObject_GC_NewVar(type, typeobj, n) \
( (type *) _PyObject_GC_NewVar((typeobj), (n)) )
/* Utility macro to help write tp_traverse functions.
* To use this macro, the tp_traverse function must name its arguments
* "visit" and "arg". This is intended to keep tp_traverse functions
* looking as much alike as possible.
*/
#define Py_VISIT(op) \
do { \
if (op) { \
int vret = visit((PyObject *)(op), arg); \
if (vret) \
return vret; \
} \
} while (0)
/* Test if a type supports weak references */
#define PyType_SUPPORTS_WEAKREFS(t) ((t)->tp_weaklistoffset > 0)
#define PyObject_GET_WEAKREFS_LISTPTR(o) \
((PyObject **) (((char *) (o)) + Py_TYPE(o)->tp_weaklistoffset))
#ifdef __cplusplus
}
#endif
#endif /* !Py_OBJIMPL_H */
Raw
Frikr_Include_odictobject.h
#ifndef Py_ODICTOBJECT_H
#define Py_ODICTOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
/* OrderedDict */
#ifndef Py_LIMITED_API
typedef struct _odictobject PyODictObject;
PyAPI_DATA(PyTypeObject) PyODict_Type;
PyAPI_DATA(PyTypeObject) PyODictIter_Type;
PyAPI_DATA(PyTypeObject) PyODictKeys_Type;
PyAPI_DATA(PyTypeObject) PyODictItems_Type;
PyAPI_DATA(PyTypeObject) PyODictValues_Type;
#define PyODict_Check(op) PyObject_TypeCheck(op, &PyODict_Type)
#define PyODict_CheckExact(op) (Py_TYPE(op) == &PyODict_Type)
#define PyODict_SIZE(op) ((PyDictObject *)op)->ma_used
#endif /* Py_LIMITED_API */
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_FUNC(PyObject *) PyODict_New(void);
PyAPI_FUNC(int) PyODict_SetItem(PyObject *od, PyObject *key, PyObject *item);
PyAPI_FUNC(int) PyODict_DelItem(PyObject *od, PyObject *key);
/* wrappers around PyDict* functions */
#define PyODict_GetItem(od, key) PyDict_GetItem((PyObject *)od, key)
#define PyODict_GetItemWithError(od, key) \
PyDict_GetItemWithError((PyObject *)od, key)
#define PyODict_Contains(od, key) PyDict_Contains((PyObject *)od, key)
#define PyODict_Size(od) PyDict_Size((PyObject *)od)
#define PyODict_GetItemString(od, key) \
PyDict_GetItemString((PyObject *)od, key)
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_ODICTOBJECT_H */
Raw
Frikr_Include_opcode.h
/* Auto-generated by Tools/scripts/generate_opcode_h.py */
#ifndef Py_OPCODE_H
#define Py_OPCODE_H
#ifdef __cplusplus
extern "C" {
#endif
/* Instruction opcodes for compiled code */
#define POP_TOP 1
#define ROT_TWO 2
#define ROT_THREE 3
#define DUP_TOP 4
#define DUP_TOP_TWO 5
#define NOP 9
#define UNARY_POSITIVE 10
#define UNARY_NEGATIVE 11
#define UNARY_NOT 12
#define UNARY_INVERT 15
#define BINARY_MATRIX_MULTIPLY 16
#define INPLACE_MATRIX_MULTIPLY 17
#define BINARY_POWER 19
#define BINARY_MULTIPLY 20
#define BINARY_MODULO 22
#define BINARY_ADD 23
#define BINARY_SUBTRACT 24
#define BINARY_SUBSCR 25
#define BINARY_FLOOR_DIVIDE 26
#define BINARY_TRUE_DIVIDE 27
#define INPLACE_FLOOR_DIVIDE 28
#define INPLACE_TRUE_DIVIDE 29
#define GET_AITER 50
#define GET_ANEXT 51
#define BEFORE_ASYNC_WITH 52
#define INPLACE_ADD 55
#define INPLACE_SUBTRACT 56
#define INPLACE_MULTIPLY 57
#define INPLACE_MODULO 59
#define STORE_SUBSCR 60
#define DELETE_SUBSCR 61
#define BINARY_LSHIFT 62
#define BINARY_RSHIFT 63
#define BINARY_AND 64
#define BINARY_XOR 65
#define BINARY_OR 66
#define INPLACE_POWER 67
#define GET_ITER 68
#define GET_YIELD_FROM_ITER 69
#define PRINT_EXPR 70
#define LOAD_BUILD_CLASS 71
#define YIELD_FROM 72
#define GET_AWAITABLE 73
#define INPLACE_LSHIFT 75
#define INPLACE_RSHIFT 76
#define INPLACE_AND 77
#define INPLACE_XOR 78
#define INPLACE_OR 79
#define BREAK_LOOP 80
#define WITH_CLEANUP_START 81
#define WITH_CLEANUP_FINISH 82
#define RETURN_VALUE 83
#define IMPORT_STAR 84
#define SETUP_ANNOTATIONS 85
#define YIELD_VALUE 86
#define POP_BLOCK 87
#define END_FINALLY 88
#define POP_EXCEPT 89
#define HAVE_ARGUMENT 90
#define STORE_NAME 90
#define DELETE_NAME 91
#define UNPACK_SEQUENCE 92
#define FOR_ITER 93
#define UNPACK_EX 94
#define STORE_ATTR 95
#define DELETE_ATTR 96
#define STORE_GLOBAL 97
#define DELETE_GLOBAL 98
#define LOAD_CONST 100
#define LOAD_NAME 101
#define BUILD_TUPLE 102
#define BUILD_LIST 103
#define BUILD_SET 104
#define BUILD_MAP 105
#define LOAD_ATTR 106
#define COMPARE_OP 107
#define IMPORT_NAME 108
#define IMPORT_FROM 109
#define JUMP_FORWARD 110
#define JUMP_IF_FALSE_OR_POP 111
#define JUMP_IF_TRUE_OR_POP 112
#define JUMP_ABSOLUTE 113
#define POP_JUMP_IF_FALSE 114
#define POP_JUMP_IF_TRUE 115
#define LOAD_GLOBAL 116
#define CONTINUE_LOOP 119
#define SETUP_LOOP 120
#define SETUP_EXCEPT 121
#define SETUP_FINALLY 122
#define LOAD_FAST 124
#define STORE_FAST 125
#define DELETE_FAST 126
#define STORE_ANNOTATION 127
#define RAISE_VARARGS 130
#define CALL_FUNCTION 131
#define MAKE_FUNCTION 132
#define BUILD_SLICE 133
#define LOAD_CLOSURE 135
#define LOAD_DEREF 136
#define STORE_DEREF 137
#define DELETE_DEREF 138
#define CALL_FUNCTION_KW 141
#define CALL_FUNCTION_EX 142
#define SETUP_WITH 143
#define EXTENDED_ARG 144
#define LIST_APPEND 145
#define SET_ADD 146
#define MAP_ADD 147
#define LOAD_CLASSDEREF 148
#define BUILD_LIST_UNPACK 149
#define BUILD_MAP_UNPACK 150
#define BUILD_MAP_UNPACK_WITH_CALL 151
#define BUILD_TUPLE_UNPACK 152
#define BUILD_SET_UNPACK 153
#define SETUP_ASYNC_WITH 154
#define FORMAT_VALUE 155
#define BUILD_CONST_KEY_MAP 156
#define BUILD_STRING 157
#define BUILD_TUPLE_UNPACK_WITH_CALL 158
/* EXCEPT_HANDLER is a special, implicit block type which is created when
entering an except handler. It is not an opcode but we define it here
as we want it to be available to both frameobject.c and ceval.c, while
remaining private.*/
#define EXCEPT_HANDLER 257
enum cmp_op {PyCmp_LT=Py_LT, PyCmp_LE=Py_LE, PyCmp_EQ=Py_EQ, PyCmp_NE=Py_NE,
PyCmp_GT=Py_GT, PyCmp_GE=Py_GE, PyCmp_IN, PyCmp_NOT_IN,
PyCmp_IS, PyCmp_IS_NOT, PyCmp_EXC_MATCH, PyCmp_BAD};
#define HAS_ARG(op) ((op) >= HAVE_ARGUMENT)
#ifdef __cplusplus
}
#endif
#endif /* !Py_OPCODE_H */
Raw
Frikr_Include_osdefs.h
#ifndef Py_OSDEFS_H
#define Py_OSDEFS_H
#ifdef __cplusplus
extern "C" {
#endif
/* Operating system dependencies */
#ifdef MS_WINDOWS
#define SEP L'\\'
#define ALTSEP L'/'
#define MAXPATHLEN 256
#define DELIM L';'
#endif
/* Filename separator */
#ifndef SEP
#define SEP L'/'
#endif
/* Max pathname length */
#ifdef __hpux
#include <sys/param.h>
#include <limits.h>
#ifndef PATH_MAX
#define PATH_MAX MAXPATHLEN
#endif
#endif
#ifndef MAXPATHLEN
#if defined(PATH_MAX) && PATH_MAX > 1024
#define MAXPATHLEN PATH_MAX
#else
#define MAXPATHLEN 1024
#endif
#endif
/* Search path entry delimiter */
#ifndef DELIM
#define DELIM L':'
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_OSDEFS_H */
Raw
Frikr_Include_osmodule.h
/* os module interface */
#ifndef Py_OSMODULE_H
#define Py_OSMODULE_H
#ifdef __cplusplus
extern "C" {
#endif
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03060000
PyAPI_FUNC(PyObject *) PyOS_FSPath(PyObject *path);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_OSMODULE_H */
Raw
Frikr_Include_parsetok.h
/* Parser-tokenizer link interface */
#ifndef Py_LIMITED_API
#ifndef Py_PARSETOK_H
#define Py_PARSETOK_H
#ifdef __cplusplus
extern "C" {
#endif
typedef struct {
int error;
#ifndef PGEN
/* The filename is useless for pgen, see comment in tok_state structure */
PyObject *filename;
#endif
int lineno;
int offset;
char *text; /* UTF-8-encoded string */
int token;
int expected;
} perrdetail;
#if 0
#define PyPARSE_YIELD_IS_KEYWORD 0x0001
#endif
#define PyPARSE_DONT_IMPLY_DEDENT 0x0002
#if 0
#define PyPARSE_WITH_IS_KEYWORD 0x0003
#define PyPARSE_PRINT_IS_FUNCTION 0x0004
#define PyPARSE_UNICODE_LITERALS 0x0008
#endif
#define PyPARSE_IGNORE_COOKIE 0x0010
#define PyPARSE_BARRY_AS_BDFL 0x0020
PyAPI_FUNC(node *) PyParser_ParseString(const char *, grammar *, int,
perrdetail *);
PyAPI_FUNC(node *) PyParser_ParseFile (FILE *, const char *, grammar *, int,
const char *, const char *,
perrdetail *);
PyAPI_FUNC(node *) PyParser_ParseStringFlags(const char *, grammar *, int,
perrdetail *, int);
PyAPI_FUNC(node *) PyParser_ParseFileFlags(
FILE *fp,
const char *filename, /* decoded from the filesystem encoding */
const char *enc,
grammar *g,
int start,
const char *ps1,
const char *ps2,
perrdetail *err_ret,
int flags);
PyAPI_FUNC(node *) PyParser_ParseFileFlagsEx(
FILE *fp,
const char *filename, /* decoded from the filesystem encoding */
const char *enc,
grammar *g,
int start,
const char *ps1,
const char *ps2,
perrdetail *err_ret,
int *flags);
PyAPI_FUNC(node *) PyParser_ParseFileObject(
FILE *fp,
PyObject *filename,
const char *enc,
grammar *g,
int start,
const char *ps1,
const char *ps2,
perrdetail *err_ret,
int *flags);
PyAPI_FUNC(node *) PyParser_ParseStringFlagsFilename(
const char *s,
const char *filename, /* decoded from the filesystem encoding */
grammar *g,
int start,
perrdetail *err_ret,
int flags);
PyAPI_FUNC(node *) PyParser_ParseStringFlagsFilenameEx(
const char *s,
const char *filename, /* decoded from the filesystem encoding */
grammar *g,
int start,
perrdetail *err_ret,
int *flags);
PyAPI_FUNC(node *) PyParser_ParseStringObject(
const char *s,
PyObject *filename,
grammar *g,
int start,
perrdetail *err_ret,
int *flags);
/* Note that the following functions are defined in pythonrun.c,
not in parsetok.c */
PyAPI_FUNC(void) PyParser_SetError(perrdetail *);
PyAPI_FUNC(void) PyParser_ClearError(perrdetail *);
#ifdef __cplusplus
}
#endif
#endif /* !Py_PARSETOK_H */
#endif /* !Py_LIMITED_API */
Raw
Frikr_Include_patchlevel.h
/* Python version identification scheme.
When the major or minor version changes, the VERSION variable in
configure.ac must also be changed.
There is also (independent) API version information in modsupport.h.
*/
/* Values for PY_RELEASE_LEVEL */
#define PY_RELEASE_LEVEL_ALPHA 0xA
#define PY_RELEASE_LEVEL_BETA 0xB
#define PY_RELEASE_LEVEL_GAMMA 0xC /* For release candidates */
#define PY_RELEASE_LEVEL_FINAL 0xF /* Serial should be 0 here */
/* Higher for patch releases */
/* Version parsed out into numeric values */
/*--start constants--*/
#define PY_MAJOR_VERSION 3
#define PY_MINOR_VERSION 6
#define PY_MICRO_VERSION 1
#define PY_RELEASE_LEVEL PY_RELEASE_LEVEL_FINAL
#define PY_RELEASE_SERIAL 0
/* Version as a string */
#define PY_VERSION "3.6.1"
/*--end constants--*/
/* Version as a single 4-byte hex number, e.g. 0x010502B2 == 1.5.2b2.
Use this for numeric comparisons, e.g. #if PY_VERSION_HEX >= ... */
#define PY_VERSION_HEX ((PY_MAJOR_VERSION << 24) | \
(PY_MINOR_VERSION << 16) | \
(PY_MICRO_VERSION << 8) | \
(PY_RELEASE_LEVEL << 4) | \
(PY_RELEASE_SERIAL << 0))
Raw
Frikr_Include_pgen.h
#ifndef Py_PGEN_H
#define Py_PGEN_H
#ifdef __cplusplus
extern "C" {
#endif
/* Parser generator interface */
extern grammar *meta_grammar(void);
struct _node;
extern grammar *pgen(struct _node *);
#ifdef __cplusplus
}
#endif
#endif /* !Py_PGEN_H */
Raw
Frikr_Include_pgenheaders.h
#ifndef Py_PGENHEADERS_H
#define Py_PGENHEADERS_H
#ifdef __cplusplus
extern "C" {
#endif
/* Include files and extern declarations used by most of the parser. */
#include "Python.h"
PyAPI_FUNC(void) PySys_WriteStdout(const char *format, ...)
Py_GCC_ATTRIBUTE((format(printf, 1, 2)));
PyAPI_FUNC(void) PySys_WriteStderr(const char *format, ...)
Py_GCC_ATTRIBUTE((format(printf, 1, 2)));
#define addarc _Py_addarc
#define addbit _Py_addbit
#define adddfa _Py_adddfa
#define addfirstsets _Py_addfirstsets
#define addlabel _Py_addlabel
#define addstate _Py_addstate
#define delbitset _Py_delbitset
#define dumptree _Py_dumptree
#define findlabel _Py_findlabel
#define freegrammar _Py_freegrammar
#define mergebitset _Py_mergebitset
#define meta_grammar _Py_meta_grammar
#define newbitset _Py_newbitset
#define newgrammar _Py_newgrammar
#define pgen _Py_pgen
#define printgrammar _Py_printgrammar
#define printnonterminals _Py_printnonterminals
#define printtree _Py_printtree
#define samebitset _Py_samebitset
#define showtree _Py_showtree
#define tok_dump _Py_tok_dump
#define translatelabels _Py_translatelabels
#ifdef __cplusplus
}
#endif
#endif /* !Py_PGENHEADERS_H */
Raw
Frikr_Include_py_curses.h
#ifndef Py_CURSES_H
#define Py_CURSES_H
#ifdef __APPLE__
/*
** On Mac OS X 10.2 [n]curses.h and stdlib.h use different guards
** against multiple definition of wchar_t.
*/
#ifdef _BSD_WCHAR_T_DEFINED_
#define _WCHAR_T
#endif
/* the following define is necessary for OS X 10.6; without it, the
Apple-supplied ncurses.h sets NCURSES_OPAQUE to 1, and then Python
can't get at the WINDOW flags field. */
#define NCURSES_OPAQUE 0
#endif /* __APPLE__ */
#ifdef __FreeBSD__
/*
** On FreeBSD, [n]curses.h and stdlib.h/wchar.h use different guards
** against multiple definition of wchar_t and wint_t.
*/
#ifdef _XOPEN_SOURCE_EXTENDED
#ifndef __FreeBSD_version
#include <osreldate.h>
#endif
#if __FreeBSD_version >= 500000
#ifndef __wchar_t
#define __wchar_t
#endif
#ifndef __wint_t
#define __wint_t
#endif
#else
#ifndef _WCHAR_T
#define _WCHAR_T
#endif
#ifndef _WINT_T
#define _WINT_T
#endif
#endif
#endif
#endif
#ifdef HAVE_NCURSES_H
#include <ncurses.h>
#else
#include <curses.h>
#ifdef HAVE_TERM_H
/* for tigetstr, which is not declared in SysV curses */
#include <term.h>
#endif
#endif
#ifdef HAVE_NCURSES_H
/* configure was checking <curses.h>, but we will
use <ncurses.h>, which has all these features. */
#ifndef WINDOW_HAS_FLAGS
#define WINDOW_HAS_FLAGS 1
#endif
#ifndef MVWDELCH_IS_EXPRESSION
#define MVWDELCH_IS_EXPRESSION 1
#endif
#endif
#ifdef __cplusplus
extern "C" {
#endif
#define PyCurses_API_pointers 4
/* Type declarations */
typedef struct {
PyObject_HEAD
WINDOW *win;
char *encoding;
} PyCursesWindowObject;
#define PyCursesWindow_Check(v) (Py_TYPE(v) == &PyCursesWindow_Type)
#define PyCurses_CAPSULE_NAME "_curses._C_API"
#ifdef CURSES_MODULE
/* This section is used when compiling _cursesmodule.c */
#else
/* This section is used in modules that use the _cursesmodule API */
static void **PyCurses_API;
#define PyCursesWindow_Type (*(PyTypeObject *) PyCurses_API[0])
#define PyCursesSetupTermCalled {if (! ((int (*)(void))PyCurses_API[1]) () ) return NULL;}
#define PyCursesInitialised {if (! ((int (*)(void))PyCurses_API[2]) () ) return NULL;}
#define PyCursesInitialisedColor {if (! ((int (*)(void))PyCurses_API[3]) () ) return NULL;}
#define import_curses() \
PyCurses_API = (void **)PyCapsule_Import(PyCurses_CAPSULE_NAME, 1);
#endif
/* general error messages */
static const char catchall_ERR[] = "curses function returned ERR";
static const char catchall_NULL[] = "curses function returned NULL";
/* Function Prototype Macros - They are ugly but very, very useful. ;-)
X - function name
TYPE - parameter Type
ERGSTR - format string for construction of the return value
PARSESTR - format string for argument parsing
*/
#define NoArgNoReturnFunction(X) \
static PyObject *PyCurses_ ## X (PyObject *self) \
{ \
PyCursesInitialised \
return PyCursesCheckERR(X(), # X); }
#define NoArgOrFlagNoReturnFunction(X) \
static PyObject *PyCurses_ ## X (PyObject *self, PyObject *args) \
{ \
int flag = 0; \
PyCursesInitialised \
switch(PyTuple_Size(args)) { \
case 0: \
return PyCursesCheckERR(X(), # X); \
case 1: \
if (!PyArg_ParseTuple(args, "i;True(1) or False(0)", &flag)) return NULL; \
if (flag) return PyCursesCheckERR(X(), # X); \
else return PyCursesCheckERR(no ## X (), # X); \
default: \
PyErr_SetString(PyExc_TypeError, # X " requires 0 or 1 arguments"); \
return NULL; } }
#define NoArgReturnIntFunction(X) \
static PyObject *PyCurses_ ## X (PyObject *self) \
{ \
PyCursesInitialised \
return PyLong_FromLong((long) X()); }
#define NoArgReturnStringFunction(X) \
static PyObject *PyCurses_ ## X (PyObject *self) \
{ \
PyCursesInitialised \
return PyBytes_FromString(X()); }
#define NoArgTrueFalseFunction(X) \
static PyObject *PyCurses_ ## X (PyObject *self) \
{ \
PyCursesInitialised \
if (X () == FALSE) { \
Py_INCREF(Py_False); \
return Py_False; \
} \
Py_INCREF(Py_True); \
return Py_True; }
#define NoArgNoReturnVoidFunction(X) \
static PyObject *PyCurses_ ## X (PyObject *self) \
{ \
PyCursesInitialised \
X(); \
Py_INCREF(Py_None); \
return Py_None; }
#ifdef __cplusplus
}
#endif
#endif /* !defined(Py_CURSES_H) */
Raw
Frikr_Include_pyarena.h
/* An arena-like memory interface for the compiler.
*/
#ifndef Py_LIMITED_API
#ifndef Py_PYARENA_H
#define Py_PYARENA_H
#ifdef __cplusplus
extern "C" {
#endif
typedef struct _arena PyArena;
/* PyArena_New() and PyArena_Free() create a new arena and free it,
respectively. Once an arena has been created, it can be used
to allocate memory via PyArena_Malloc(). Pointers to PyObject can
also be registered with the arena via PyArena_AddPyObject(), and the
arena will ensure that the PyObjects stay alive at least until
PyArena_Free() is called. When an arena is freed, all the memory it
allocated is freed, the arena releases internal references to registered
PyObject*, and none of its pointers are valid.
XXX (tim) What does "none of its pointers are valid" mean? Does it
XXX mean that pointers previously obtained via PyArena_Malloc() are
XXX no longer valid? (That's clearly true, but not sure that's what
XXX the text is trying to say.)
PyArena_New() returns an arena pointer. On error, it
returns a negative number and sets an exception.
XXX (tim): Not true. On error, PyArena_New() actually returns NULL,
XXX and looks like it may or may not set an exception (e.g., if the
XXX internal PyList_New(0) returns NULL, PyArena_New() passes that on
XXX and an exception is set; OTOH, if the internal
XXX block_new(DEFAULT_BLOCK_SIZE) returns NULL, that's passed on but
XXX an exception is not set in that case).
*/
PyAPI_FUNC(PyArena *) PyArena_New(void);
PyAPI_FUNC(void) PyArena_Free(PyArena *);
/* Mostly like malloc(), return the address of a block of memory spanning
* `size` bytes, or return NULL (without setting an exception) if enough
* new memory can't be obtained. Unlike malloc(0), PyArena_Malloc() with
* size=0 does not guarantee to return a unique pointer (the pointer
* returned may equal one or more other pointers obtained from
* PyArena_Malloc()).
* Note that pointers obtained via PyArena_Malloc() must never be passed to
* the system free() or realloc(), or to any of Python's similar memory-
* management functions. PyArena_Malloc()-obtained pointers remain valid
* until PyArena_Free(ar) is called, at which point all pointers obtained
* from the arena `ar` become invalid simultaneously.
*/
PyAPI_FUNC(void *) PyArena_Malloc(PyArena *, size_t size);
/* This routine isn't a proper arena allocation routine. It takes
* a PyObject* and records it so that it can be DECREFed when the
* arena is freed.
*/
PyAPI_FUNC(int) PyArena_AddPyObject(PyArena *, PyObject *);
#ifdef __cplusplus
}
#endif
#endif /* !Py_PYARENA_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_pyatomic.h
#ifndef Py_ATOMIC_H
#define Py_ATOMIC_H
#ifdef Py_BUILD_CORE
#include "dynamic_annotations.h"
#include "pyconfig.h"
#if defined(HAVE_STD_ATOMIC)
#include <stdatomic.h>
#endif
/* This is modeled after the atomics interface from C1x, according to
* the draft at
* http://www.open-std.org/JTC1/SC22/wg14/www/docs/n1425.pdf.
* Operations and types are named the same except with a _Py_ prefix
* and have the same semantics.
*
* Beware, the implementations here are deep magic.
*/
#if defined(HAVE_STD_ATOMIC)
typedef enum _Py_memory_order {
_Py_memory_order_relaxed = memory_order_relaxed,
_Py_memory_order_acquire = memory_order_acquire,
_Py_memory_order_release = memory_order_release,
_Py_memory_order_acq_rel = memory_order_acq_rel,
_Py_memory_order_seq_cst = memory_order_seq_cst
} _Py_memory_order;
typedef struct _Py_atomic_address {
atomic_uintptr_t _value;
} _Py_atomic_address;
typedef struct _Py_atomic_int {
atomic_int _value;
} _Py_atomic_int;
#define _Py_atomic_signal_fence(/*memory_order*/ ORDER) \
atomic_signal_fence(ORDER)
#define _Py_atomic_thread_fence(/*memory_order*/ ORDER) \
atomic_thread_fence(ORDER)
#define _Py_atomic_store_explicit(ATOMIC_VAL, NEW_VAL, ORDER) \
atomic_store_explicit(&(ATOMIC_VAL)->_value, NEW_VAL, ORDER)
#define _Py_atomic_load_explicit(ATOMIC_VAL, ORDER) \
atomic_load_explicit(&(ATOMIC_VAL)->_value, ORDER)
/* Use builtin atomic operations in GCC >= 4.7 */
#elif defined(HAVE_BUILTIN_ATOMIC)
typedef enum _Py_memory_order {
_Py_memory_order_relaxed = __ATOMIC_RELAXED,
_Py_memory_order_acquire = __ATOMIC_ACQUIRE,
_Py_memory_order_release = __ATOMIC_RELEASE,
_Py_memory_order_acq_rel = __ATOMIC_ACQ_REL,
_Py_memory_order_seq_cst = __ATOMIC_SEQ_CST
} _Py_memory_order;
typedef struct _Py_atomic_address {
uintptr_t _value;
} _Py_atomic_address;
typedef struct _Py_atomic_int {
int _value;
} _Py_atomic_int;
#define _Py_atomic_signal_fence(/*memory_order*/ ORDER) \
__atomic_signal_fence(ORDER)
#define _Py_atomic_thread_fence(/*memory_order*/ ORDER) \
__atomic_thread_fence(ORDER)
#define _Py_atomic_store_explicit(ATOMIC_VAL, NEW_VAL, ORDER) \
(assert((ORDER) == __ATOMIC_RELAXED \
|| (ORDER) == __ATOMIC_SEQ_CST \
|| (ORDER) == __ATOMIC_RELEASE), \
__atomic_store_n(&(ATOMIC_VAL)->_value, NEW_VAL, ORDER))
#define _Py_atomic_load_explicit(ATOMIC_VAL, ORDER) \
(assert((ORDER) == __ATOMIC_RELAXED \
|| (ORDER) == __ATOMIC_SEQ_CST \
|| (ORDER) == __ATOMIC_ACQUIRE \
|| (ORDER) == __ATOMIC_CONSUME), \
__atomic_load_n(&(ATOMIC_VAL)->_value, ORDER))
#else
typedef enum _Py_memory_order {
_Py_memory_order_relaxed,
_Py_memory_order_acquire,
_Py_memory_order_release,
_Py_memory_order_acq_rel,
_Py_memory_order_seq_cst
} _Py_memory_order;
typedef struct _Py_atomic_address {
uintptr_t _value;
} _Py_atomic_address;
typedef struct _Py_atomic_int {
int _value;
} _Py_atomic_int;
/* Only support GCC (for expression statements) and x86 (for simple
* atomic semantics) for now */
#if defined(__GNUC__) && (defined(__i386__) || defined(__amd64))
static __inline__ void
_Py_atomic_signal_fence(_Py_memory_order order)
{
if (order != _Py_memory_order_relaxed)
__asm__ volatile("":::"memory");
}
static __inline__ void
_Py_atomic_thread_fence(_Py_memory_order order)
{
if (order != _Py_memory_order_relaxed)
__asm__ volatile("mfence":::"memory");
}
/* Tell the race checker about this operation's effects. */
static __inline__ void
_Py_ANNOTATE_MEMORY_ORDER(const volatile void *address, _Py_memory_order order)
{
(void)address; /* shut up -Wunused-parameter */
switch(order) {
case _Py_memory_order_release:
case _Py_memory_order_acq_rel:
case _Py_memory_order_seq_cst:
_Py_ANNOTATE_HAPPENS_BEFORE(address);
break;
case _Py_memory_order_relaxed:
case _Py_memory_order_acquire:
break;
}
switch(order) {
case _Py_memory_order_acquire:
case _Py_memory_order_acq_rel:
case _Py_memory_order_seq_cst:
_Py_ANNOTATE_HAPPENS_AFTER(address);
break;
case _Py_memory_order_relaxed:
case _Py_memory_order_release:
break;
}
}
#define _Py_atomic_store_explicit(ATOMIC_VAL, NEW_VAL, ORDER) \
__extension__ ({ \
__typeof__(ATOMIC_VAL) atomic_val = ATOMIC_VAL; \
__typeof__(atomic_val->_value) new_val = NEW_VAL;\
volatile __typeof__(new_val) *volatile_data = &atomic_val->_value; \
_Py_memory_order order = ORDER; \
_Py_ANNOTATE_MEMORY_ORDER(atomic_val, order); \
\
/* Perform the operation. */ \
_Py_ANNOTATE_IGNORE_WRITES_BEGIN(); \
switch(order) { \
case _Py_memory_order_release: \
_Py_atomic_signal_fence(_Py_memory_order_release); \
/* fallthrough */ \
case _Py_memory_order_relaxed: \
*volatile_data = new_val; \
break; \
\
case _Py_memory_order_acquire: \
case _Py_memory_order_acq_rel: \
case _Py_memory_order_seq_cst: \
__asm__ volatile("xchg %0, %1" \
: "+r"(new_val) \
: "m"(atomic_val->_value) \
: "memory"); \
break; \
} \
_Py_ANNOTATE_IGNORE_WRITES_END(); \
})
#define _Py_atomic_load_explicit(ATOMIC_VAL, ORDER) \
__extension__ ({ \
__typeof__(ATOMIC_VAL) atomic_val = ATOMIC_VAL; \
__typeof__(atomic_val->_value) result; \
volatile __typeof__(result) *volatile_data = &atomic_val->_value; \
_Py_memory_order order = ORDER; \
_Py_ANNOTATE_MEMORY_ORDER(atomic_val, order); \
\
/* Perform the operation. */ \
_Py_ANNOTATE_IGNORE_READS_BEGIN(); \
switch(order) { \
case _Py_memory_order_release: \
case _Py_memory_order_acq_rel: \
case _Py_memory_order_seq_cst: \
/* Loads on x86 are not releases by default, so need a */ \
/* thread fence. */ \
_Py_atomic_thread_fence(_Py_memory_order_release); \
break; \
default: \
/* No fence */ \
break; \
} \
result = *volatile_data; \
switch(order) { \
case _Py_memory_order_acquire: \
case _Py_memory_order_acq_rel: \
case _Py_memory_order_seq_cst: \
/* Loads on x86 are automatically acquire operations so */ \
/* can get by with just a compiler fence. */ \
_Py_atomic_signal_fence(_Py_memory_order_acquire); \
break; \
default: \
/* No fence */ \
break; \
} \
_Py_ANNOTATE_IGNORE_READS_END(); \
result; \
})
#else /* !gcc x86 */
/* Fall back to other compilers and processors by assuming that simple
volatile accesses are atomic. This is false, so people should port
this. */
#define _Py_atomic_signal_fence(/*memory_order*/ ORDER) ((void)0)
#define _Py_atomic_thread_fence(/*memory_order*/ ORDER) ((void)0)
#define _Py_atomic_store_explicit(ATOMIC_VAL, NEW_VAL, ORDER) \
((ATOMIC_VAL)->_value = NEW_VAL)
#define _Py_atomic_load_explicit(ATOMIC_VAL, ORDER) \
((ATOMIC_VAL)->_value)
#endif /* !gcc x86 */
#endif
/* Standardized shortcuts. */
#define _Py_atomic_store(ATOMIC_VAL, NEW_VAL) \
_Py_atomic_store_explicit(ATOMIC_VAL, NEW_VAL, _Py_memory_order_seq_cst)
#define _Py_atomic_load(ATOMIC_VAL) \
_Py_atomic_load_explicit(ATOMIC_VAL, _Py_memory_order_seq_cst)
/* Python-local extensions */
#define _Py_atomic_store_relaxed(ATOMIC_VAL, NEW_VAL) \
_Py_atomic_store_explicit(ATOMIC_VAL, NEW_VAL, _Py_memory_order_relaxed)
#define _Py_atomic_load_relaxed(ATOMIC_VAL) \
_Py_atomic_load_explicit(ATOMIC_VAL, _Py_memory_order_relaxed)
#endif /* Py_BUILD_CORE */
#endif /* Py_ATOMIC_H */
Raw
Frikr_Include_pycapsule.h
/* Capsule objects let you wrap a C "void *" pointer in a Python
object. They're a way of passing data through the Python interpreter
without creating your own custom type.
Capsules are used for communication between extension modules.
They provide a way for an extension module to export a C interface
to other extension modules, so that extension modules can use the
Python import mechanism to link to one another.
For more information, please see "c-api/capsule.html" in the
documentation.
*/
#ifndef Py_CAPSULE_H
#define Py_CAPSULE_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_DATA(PyTypeObject) PyCapsule_Type;
typedef void (*PyCapsule_Destructor)(PyObject *);
#define PyCapsule_CheckExact(op) (Py_TYPE(op) == &PyCapsule_Type)
PyAPI_FUNC(PyObject *) PyCapsule_New(
void *pointer,
const char *name,
PyCapsule_Destructor destructor);
PyAPI_FUNC(void *) PyCapsule_GetPointer(PyObject *capsule, const char *name);
PyAPI_FUNC(PyCapsule_Destructor) PyCapsule_GetDestructor(PyObject *capsule);
PyAPI_FUNC(const char *) PyCapsule_GetName(PyObject *capsule);
PyAPI_FUNC(void *) PyCapsule_GetContext(PyObject *capsule);
PyAPI_FUNC(int) PyCapsule_IsValid(PyObject *capsule, const char *name);
PyAPI_FUNC(int) PyCapsule_SetPointer(PyObject *capsule, void *pointer);
PyAPI_FUNC(int) PyCapsule_SetDestructor(PyObject *capsule, PyCapsule_Destructor destructor);
PyAPI_FUNC(int) PyCapsule_SetName(PyObject *capsule, const char *name);
PyAPI_FUNC(int) PyCapsule_SetContext(PyObject *capsule, void *context);
PyAPI_FUNC(void *) PyCapsule_Import(
const char *name, /* UTF-8 encoded string */
int no_block);
#ifdef __cplusplus
}
#endif
#endif /* !Py_CAPSULE_H */
Raw
Frikr_Include_pyconfig.h
#ifndef Py_CONFIG_H
#define Py_CONFIG_H
/* pyconfig.h. NOT Generated automatically by configure.
This is a manually maintained version used for the Watcom,
Borland and Microsoft Visual C++ compilers. It is a
standard part of the Python distribution.
WINDOWS DEFINES:
The code specific to Windows should be wrapped around one of
the following #defines
MS_WIN64 - Code specific to the MS Win64 API
MS_WIN32 - Code specific to the MS Win32 (and Win64) API (obsolete, this covers all supported APIs)
MS_WINDOWS - Code specific to Windows, but all versions.
Py_ENABLE_SHARED - Code if the Python core is built as a DLL.
Also note that neither "_M_IX86" or "_MSC_VER" should be used for
any purpose other than "Windows Intel x86 specific" and "Microsoft
compiler specific". Therefore, these should be very rare.
NOTE: The following symbols are deprecated:
NT, USE_DL_EXPORT, USE_DL_IMPORT, DL_EXPORT, DL_IMPORT
MS_CORE_DLL.
WIN32 is still required for the locale module.
*/
/* Deprecated USE_DL_EXPORT macro - please use Py_BUILD_CORE */
#ifdef USE_DL_EXPORT
# define Py_BUILD_CORE
#endif /* USE_DL_EXPORT */
/* Visual Studio 2005 introduces deprecation warnings for
"insecure" and POSIX functions. The insecure functions should
be replaced by *_s versions (according to Microsoft); the
POSIX functions by _* versions (which, according to Microsoft,
would be ISO C conforming). Neither renaming is feasible, so
we just silence the warnings. */
#ifndef _CRT_SECURE_NO_DEPRECATE
#define _CRT_SECURE_NO_DEPRECATE 1
#endif
#ifndef _CRT_NONSTDC_NO_DEPRECATE
#define _CRT_NONSTDC_NO_DEPRECATE 1
#endif
#define HAVE_IO_H
#define HAVE_SYS_UTIME_H
#define HAVE_TEMPNAM
#define HAVE_TMPFILE
#define HAVE_TMPNAM
#define HAVE_CLOCK
#define HAVE_STRERROR
#include <io.h>
#define HAVE_HYPOT
#define HAVE_STRFTIME
#define DONT_HAVE_SIG_ALARM
#define DONT_HAVE_SIG_PAUSE
#define LONG_BIT 32
#define WORD_BIT 32
#define MS_WIN32 /* only support win32 and greater. */
#define MS_WINDOWS
#ifndef PYTHONPATH
# define PYTHONPATH L".\\DLLs;.\\lib"
#endif
#define NT_THREADS
#define WITH_THREAD
#ifndef NETSCAPE_PI
#define USE_SOCKET
#endif
/* Compiler specific defines */
/* ------------------------------------------------------------------------*/
/* Microsoft C defines _MSC_VER */
#ifdef _MSC_VER
/* We want COMPILER to expand to a string containing _MSC_VER's *value*.
* This is horridly tricky, because the stringization operator only works
* on macro arguments, and doesn't evaluate macros passed *as* arguments.
* Attempts simpler than the following appear doomed to produce "_MSC_VER"
* literally in the string.
*/
#define _Py_PASTE_VERSION(SUFFIX) \
("[MSC v." _Py_STRINGIZE(_MSC_VER) " " SUFFIX "]")
/* e.g., this produces, after compile-time string catenation,
* ("[MSC v.1200 32 bit (Intel)]")
*
* _Py_STRINGIZE(_MSC_VER) expands to
* _Py_STRINGIZE1((_MSC_VER)) expands to
* _Py_STRINGIZE2(_MSC_VER) but as this call is the result of token-pasting
* it's scanned again for macros and so further expands to (under MSVC 6)
* _Py_STRINGIZE2(1200) which then expands to
* "1200"
*/
#define _Py_STRINGIZE(X) _Py_STRINGIZE1((X))
#define _Py_STRINGIZE1(X) _Py_STRINGIZE2 ## X
#define _Py_STRINGIZE2(X) #X
/* MSVC defines _WINxx to differentiate the windows platform types
Note that for compatibility reasons _WIN32 is defined on Win32
*and* on Win64. For the same reasons, in Python, MS_WIN32 is
defined on Win32 *and* Win64. Win32 only code must therefore be
guarded as follows:
#if defined(MS_WIN32) && !defined(MS_WIN64)
Some modules are disabled on Itanium processors, therefore we
have MS_WINI64 set for those targets, otherwise MS_WINX64
*/
#ifdef _WIN64
#define MS_WIN64
#endif
/* set the COMPILER */
#ifdef MS_WIN64
#if defined(_M_IA64)
#define COMPILER _Py_PASTE_VERSION("64 bit (Itanium)")
#define MS_WINI64
#define PYD_PLATFORM_TAG "win_ia64"
#elif defined(_M_X64) || defined(_M_AMD64)
#if defined(__INTEL_COMPILER)
#define COMPILER ("[ICC v." _Py_STRINGIZE(__INTEL_COMPILER) " 64 bit (amd64) with MSC v." _Py_STRINGIZE(_MSC_VER) " CRT]")
#else
#define COMPILER _Py_PASTE_VERSION("64 bit (AMD64)")
#endif /* __INTEL_COMPILER */
#define MS_WINX64
#define PYD_PLATFORM_TAG "win_amd64"
#else
#define COMPILER _Py_PASTE_VERSION("64 bit (Unknown)")
#endif
#endif /* MS_WIN64 */
/* set the version macros for the windows headers */
/* Python 3.5+ requires Windows Vista or greater */
#define Py_WINVER 0x0600 /* _WIN32_WINNT_VISTA */
#define Py_NTDDI NTDDI_VISTA
/* We only set these values when building Python - we don't want to force
these values on extensions, as that will affect the prototypes and
structures exposed in the Windows headers. Even when building Python, we
allow a single source file to override this - they may need access to
structures etc so it can optionally use new Windows features if it
determines at runtime they are available.
*/
#if defined(Py_BUILD_CORE) || defined(Py_BUILD_CORE_MODULE)
#ifndef NTDDI_VERSION
#define NTDDI_VERSION Py_NTDDI
#endif
#ifndef WINVER
#define WINVER Py_WINVER
#endif
#ifndef _WIN32_WINNT
#define _WIN32_WINNT Py_WINVER
#endif
#endif
/* _W64 is not defined for VC6 or eVC4 */
#ifndef _W64
#define _W64
#endif
/* Define like size_t, omitting the "unsigned" */
#ifdef MS_WIN64
typedef __int64 ssize_t;
#else
typedef _W64 int ssize_t;
#endif
#define HAVE_SSIZE_T 1
#if defined(MS_WIN32) && !defined(MS_WIN64)
#if defined(_M_IX86)
#if defined(__INTEL_COMPILER)
#define COMPILER ("[ICC v." _Py_STRINGIZE(__INTEL_COMPILER) " 32 bit (Intel) with MSC v." _Py_STRINGIZE(_MSC_VER) " CRT]")
#else
#define COMPILER _Py_PASTE_VERSION("32 bit (Intel)")
#endif /* __INTEL_COMPILER */
#define PYD_PLATFORM_TAG "win32"
#elif defined(_M_ARM)
#define COMPILER _Py_PASTE_VERSION("32 bit (ARM)")
#define PYD_PLATFORM_TAG "win_arm"
#else
#define COMPILER _Py_PASTE_VERSION("32 bit (Unknown)")
#endif
#endif /* MS_WIN32 && !MS_WIN64 */
typedef int pid_t;
#include <float.h>
#define Py_IS_NAN _isnan
#define Py_IS_INFINITY(X) (!_finite(X) && !_isnan(X))
#define Py_IS_FINITE(X) _finite(X)
#define copysign _copysign
/* VS 2010 and above already defines hypot as _hypot */
#if _MSC_VER < 1600
#define hypot _hypot
#endif
/* VS 2015 defines these names with a leading underscore */
#if _MSC_VER >= 1900
#define timezone _timezone
#define daylight _daylight
#define tzname _tzname
#endif
/* Side by Side assemblies supported in VS 2005 and VS 2008 but not 2010*/
#if _MSC_VER >= 1400 && _MSC_VER < 1600
#define HAVE_SXS 1
#endif
/* define some ANSI types that are not defined in earlier Win headers */
#if _MSC_VER >= 1200
/* This file only exists in VC 6.0 or higher */
#include <basetsd.h>
#endif
#endif /* _MSC_VER */
/* ------------------------------------------------------------------------*/
/* egcs/gnu-win32 defines __GNUC__ and _WIN32 */
#if defined(__GNUC__) && defined(_WIN32)
/* XXX These defines are likely incomplete, but should be easy to fix.
They should be complete enough to build extension modules. */
/* Suggested by Rene Liebscher <R.Liebscher@gmx.de> to avoid a GCC 2.91.*
bug that requires structure imports. More recent versions of the
compiler don't exhibit this bug.
*/
#if (__GNUC__==2) && (__GNUC_MINOR__<=91)
#warning "Please use an up-to-date version of gcc! (>2.91 recommended)"
#endif
#define COMPILER "[gcc]"
#define hypot _hypot
#define PY_LONG_LONG long long
#define PY_LLONG_MIN LLONG_MIN
#define PY_LLONG_MAX LLONG_MAX
#define PY_ULLONG_MAX ULLONG_MAX
#endif /* GNUC */
/* ------------------------------------------------------------------------*/
/* lcc-win32 defines __LCC__ */
#if defined(__LCC__)
/* XXX These defines are likely incomplete, but should be easy to fix.
They should be complete enough to build extension modules. */
#define COMPILER "[lcc-win32]"
typedef int pid_t;
/* __declspec() is supported here too - do nothing to get the defaults */
#endif /* LCC */
/* ------------------------------------------------------------------------*/
/* End of compilers - finish up */
#ifndef NO_STDIO_H
# include <stdio.h>
#endif
/* 64 bit ints are usually spelt __int64 unless compiler has overridden */
#ifndef PY_LONG_LONG
# define PY_LONG_LONG __int64
# define PY_LLONG_MAX _I64_MAX
# define PY_LLONG_MIN _I64_MIN
# define PY_ULLONG_MAX _UI64_MAX
#endif
/* For Windows the Python core is in a DLL by default. Test
Py_NO_ENABLE_SHARED to find out. Also support MS_NO_COREDLL for b/w compat */
#if !defined(MS_NO_COREDLL) && !defined(Py_NO_ENABLE_SHARED)
# define Py_ENABLE_SHARED 1 /* standard symbol for shared library */
# define MS_COREDLL /* deprecated old symbol */
#endif /* !MS_NO_COREDLL && ... */
/* All windows compilers that use this header support __declspec */
#define HAVE_DECLSPEC_DLL
/* For an MSVC DLL, we can nominate the .lib files used by extensions */
#ifdef MS_COREDLL
# ifndef Py_BUILD_CORE /* not building the core - must be an ext */
# if defined(_MSC_VER)
/* So MSVC users need not specify the .lib file in
their Makefile (other compilers are generally
taken care of by distutils.) */
# if defined(_DEBUG)
# pragma comment(lib,"python36_d.lib")
# elif defined(Py_LIMITED_API)
# pragma comment(lib,"python3.lib")
# else
# pragma comment(lib,"python36.lib")
# endif /* _DEBUG */
# endif /* _MSC_VER */
# endif /* Py_BUILD_CORE */
#endif /* MS_COREDLL */
#if defined(MS_WIN64)
/* maintain "win32" sys.platform for backward compatibility of Python code,
the Win64 API should be close enough to the Win32 API to make this
preferable */
# define PLATFORM "win32"
# define SIZEOF_VOID_P 8
# define SIZEOF_TIME_T 8
# define SIZEOF_OFF_T 4
# define SIZEOF_FPOS_T 8
# define SIZEOF_HKEY 8
# define SIZEOF_SIZE_T 8
/* configure.ac defines HAVE_LARGEFILE_SUPPORT iff HAVE_LONG_LONG,
sizeof(off_t) > sizeof(long), and sizeof(PY_LONG_LONG) >= sizeof(off_t).
On Win64 the second condition is not true, but if fpos_t replaces off_t
then this is true. The uses of HAVE_LARGEFILE_SUPPORT imply that Win64
should define this. */
# define HAVE_LARGEFILE_SUPPORT
#elif defined(MS_WIN32)
# define PLATFORM "win32"
# define HAVE_LARGEFILE_SUPPORT
# define SIZEOF_VOID_P 4
# define SIZEOF_OFF_T 4
# define SIZEOF_FPOS_T 8
# define SIZEOF_HKEY 4
# define SIZEOF_SIZE_T 4
/* MS VS2005 changes time_t to a 64-bit type on all platforms */
# if defined(_MSC_VER) && _MSC_VER >= 1400
# define SIZEOF_TIME_T 8
# else
# define SIZEOF_TIME_T 4
# endif
#endif
#ifdef _DEBUG
# define Py_DEBUG
#endif
#ifdef MS_WIN32
#define SIZEOF_SHORT 2
#define SIZEOF_INT 4
#define SIZEOF_LONG 4
#define SIZEOF_LONG_LONG 8
#define SIZEOF_DOUBLE 8
#define SIZEOF_FLOAT 4
/* VC 7.1 has them and VC 6.0 does not. VC 6.0 has a version number of 1200.
Microsoft eMbedded Visual C++ 4.0 has a version number of 1201 and doesn't
define these.
If some compiler does not provide them, modify the #if appropriately. */
#if defined(_MSC_VER)
#if _MSC_VER > 1300
#define HAVE_UINTPTR_T 1
#define HAVE_INTPTR_T 1
#else
/* VC6, VS 2002 and eVC4 don't support the C99 LL suffix for 64-bit integer literals */
#define Py_LL(x) x##I64
#endif /* _MSC_VER > 1300 */
#endif /* _MSC_VER */
#endif
/* define signed and unsigned exact-width 32-bit and 64-bit types, used in the
implementation of Python integers. */
#define PY_UINT32_T uint32_t
#define PY_UINT64_T uint64_t
#define PY_INT32_T int32_t
#define PY_INT64_T int64_t
/* Fairly standard from here! */
/* Define to 1 if you have the `copysign' function. */
#define HAVE_COPYSIGN 1
/* Define to 1 if you have the `round' function. */
#if _MSC_VER >= 1800
#define HAVE_ROUND 1
#endif
/* Define to 1 if you have the `isinf' macro. */
#define HAVE_DECL_ISINF 1
/* Define to 1 if you have the `isnan' function. */
#define HAVE_DECL_ISNAN 1
/* Define if on AIX 3.
System headers sometimes define this.
We just want to avoid a redefinition error message. */
#ifndef _ALL_SOURCE
/* #undef _ALL_SOURCE */
#endif
/* Define to empty if the keyword does not work. */
/* #define const */
/* Define to 1 if you have the <conio.h> header file. */
#define HAVE_CONIO_H 1
/* Define to 1 if you have the <direct.h> header file. */
#define HAVE_DIRECT_H 1
/* Define if you have dirent.h. */
/* #define DIRENT 1 */
/* Define to the type of elements in the array set by `getgroups'.
Usually this is either `int' or `gid_t'. */
/* #undef GETGROUPS_T */
/* Define to `int' if <sys/types.h> doesn't define. */
/* #undef gid_t */
/* Define if your struct tm has tm_zone. */
/* #undef HAVE_TM_ZONE */
/* Define if you don't have tm_zone but do have the external array
tzname. */
#define HAVE_TZNAME
/* Define to `int' if <sys/types.h> doesn't define. */
/* #undef mode_t */
/* Define if you don't have dirent.h, but have ndir.h. */
/* #undef NDIR */
/* Define to `long' if <sys/types.h> doesn't define. */
/* #undef off_t */
/* Define to `int' if <sys/types.h> doesn't define. */
/* #undef pid_t */
/* Define if the system does not provide POSIX.1 features except
with this defined. */
/* #undef _POSIX_1_SOURCE */
/* Define if you need to in order for stat and other things to work. */
/* #undef _POSIX_SOURCE */
/* Define as the return type of signal handlers (int or void). */
#define RETSIGTYPE void
/* Define to `unsigned' if <sys/types.h> doesn't define. */
/* #undef size_t */
/* Define if you have the ANSI C header files. */
#define STDC_HEADERS 1
/* Define if you don't have dirent.h, but have sys/dir.h. */
/* #undef SYSDIR */
/* Define if you don't have dirent.h, but have sys/ndir.h. */
/* #undef SYSNDIR */
/* Define if you can safely include both <sys/time.h> and <time.h>. */
/* #undef TIME_WITH_SYS_TIME */
/* Define if your <sys/time.h> declares struct tm. */
/* #define TM_IN_SYS_TIME 1 */
/* Define to `int' if <sys/types.h> doesn't define. */
/* #undef uid_t */
/* Define if the closedir function returns void instead of int. */
/* #undef VOID_CLOSEDIR */
/* Define if getpgrp() must be called as getpgrp(0)
and (consequently) setpgrp() as setpgrp(0, 0). */
/* #undef GETPGRP_HAVE_ARGS */
/* Define this if your time.h defines altzone */
/* #define HAVE_ALTZONE */
/* Define if you have the putenv function. */
#define HAVE_PUTENV
/* Define if your compiler supports function prototypes */
#define HAVE_PROTOTYPES
/* Define if you can safely include both <sys/select.h> and <sys/time.h>
(which you can't on SCO ODT 3.0). */
/* #undef SYS_SELECT_WITH_SYS_TIME */
/* Define if you want documentation strings in extension modules */
#define WITH_DOC_STRINGS 1
/* Define if you want to compile in rudimentary thread support */
/* #undef WITH_THREAD */
/* Define if you want to use the GNU readline library */
/* #define WITH_READLINE 1 */
/* Use Python's own small-block memory-allocator. */
#define WITH_PYMALLOC 1
/* Define if you have clock. */
/* #define HAVE_CLOCK */
/* Define when any dynamic module loading is enabled */
#define HAVE_DYNAMIC_LOADING
/* Define if you have ftime. */
#define HAVE_FTIME
/* Define if you have getpeername. */
#define HAVE_GETPEERNAME
/* Define if you have getpgrp. */
/* #undef HAVE_GETPGRP */
/* Define if you have getpid. */
#define HAVE_GETPID
/* Define if you have gettimeofday. */
/* #undef HAVE_GETTIMEOFDAY */
/* Define if you have getwd. */
/* #undef HAVE_GETWD */
/* Define if you have lstat. */
/* #undef HAVE_LSTAT */
/* Define if you have the mktime function. */
#define HAVE_MKTIME
/* Define if you have nice. */
/* #undef HAVE_NICE */
/* Define if you have readlink. */
/* #undef HAVE_READLINK */
/* Define if you have select. */
/* #undef HAVE_SELECT */
/* Define if you have setpgid. */
/* #undef HAVE_SETPGID */
/* Define if you have setpgrp. */
/* #undef HAVE_SETPGRP */
/* Define if you have setsid. */
/* #undef HAVE_SETSID */
/* Define if you have setvbuf. */
#define HAVE_SETVBUF
/* Define if you have siginterrupt. */
/* #undef HAVE_SIGINTERRUPT */
/* Define if you have symlink. */
/* #undef HAVE_SYMLINK */
/* Define if you have tcgetpgrp. */
/* #undef HAVE_TCGETPGRP */
/* Define if you have tcsetpgrp. */
/* #undef HAVE_TCSETPGRP */
/* Define if you have times. */
/* #undef HAVE_TIMES */
/* Define if you have uname. */
/* #undef HAVE_UNAME */
/* Define if you have waitpid. */
/* #undef HAVE_WAITPID */
/* Define to 1 if you have the `wcsftime' function. */
#if defined(_MSC_VER) && _MSC_VER >= 1310
#define HAVE_WCSFTIME 1
#endif
/* Define to 1 if you have the `wcscoll' function. */
#define HAVE_WCSCOLL 1
/* Define to 1 if you have the `wcsxfrm' function. */
#define HAVE_WCSXFRM 1
/* Define if the zlib library has inflateCopy */
#define HAVE_ZLIB_COPY 1
/* Define if you have the <dlfcn.h> header file. */
/* #undef HAVE_DLFCN_H */
/* Define to 1 if you have the <errno.h> header file. */
#define HAVE_ERRNO_H 1
/* Define if you have the <fcntl.h> header file. */
#define HAVE_FCNTL_H 1
/* Define to 1 if you have the <process.h> header file. */
#define HAVE_PROCESS_H 1
/* Define to 1 if you have the <signal.h> header file. */
#define HAVE_SIGNAL_H 1
/* Define if you have the <stdarg.h> prototypes. */
#define HAVE_STDARG_PROTOTYPES
/* Define if you have the <stddef.h> header file. */
#define HAVE_STDDEF_H 1
/* Define if you have the <sys/audioio.h> header file. */
/* #undef HAVE_SYS_AUDIOIO_H */
/* Define if you have the <sys/param.h> header file. */
/* #define HAVE_SYS_PARAM_H 1 */
/* Define if you have the <sys/select.h> header file. */
/* #define HAVE_SYS_SELECT_H 1 */
/* Define to 1 if you have the <sys/stat.h> header file. */
#define HAVE_SYS_STAT_H 1
/* Define if you have the <sys/time.h> header file. */
/* #define HAVE_SYS_TIME_H 1 */
/* Define if you have the <sys/times.h> header file. */
/* #define HAVE_SYS_TIMES_H 1 */
/* Define to 1 if you have the <sys/types.h> header file. */
#define HAVE_SYS_TYPES_H 1
/* Define if you have the <sys/un.h> header file. */
/* #define HAVE_SYS_UN_H 1 */
/* Define if you have the <sys/utime.h> header file. */
/* #define HAVE_SYS_UTIME_H 1 */
/* Define if you have the <sys/utsname.h> header file. */
/* #define HAVE_SYS_UTSNAME_H 1 */
/* Define if you have the <unistd.h> header file. */
/* #define HAVE_UNISTD_H 1 */
/* Define if you have the <utime.h> header file. */
/* #define HAVE_UTIME_H 1 */
/* Define if the compiler provides a wchar.h header file. */
#define HAVE_WCHAR_H 1
/* The size of `wchar_t', as computed by sizeof. */
#define SIZEOF_WCHAR_T 2
/* The size of `_Bool', as computed by sizeof. */
#define SIZEOF__BOOL 1
/* The size of `pid_t', as computed by sizeof. */
#define SIZEOF_PID_T SIZEOF_INT
/* Define if you have the dl library (-ldl). */
/* #undef HAVE_LIBDL */
/* Define if you have the mpc library (-lmpc). */
/* #undef HAVE_LIBMPC */
/* Define if you have the nsl library (-lnsl). */
#define HAVE_LIBNSL 1
/* Define if you have the seq library (-lseq). */
/* #undef HAVE_LIBSEQ */
/* Define if you have the socket library (-lsocket). */
#define HAVE_LIBSOCKET 1
/* Define if you have the sun library (-lsun). */
/* #undef HAVE_LIBSUN */
/* Define if you have the termcap library (-ltermcap). */
/* #undef HAVE_LIBTERMCAP */
/* Define if you have the termlib library (-ltermlib). */
/* #undef HAVE_LIBTERMLIB */
/* Define if you have the thread library (-lthread). */
/* #undef HAVE_LIBTHREAD */
/* WinSock does not use a bitmask in select, and uses
socket handles greater than FD_SETSIZE */
#define Py_SOCKET_FD_CAN_BE_GE_FD_SETSIZE
/* Define if C doubles are 64-bit IEEE 754 binary format, stored with the
least significant byte first */
#define DOUBLE_IS_LITTLE_ENDIAN_IEEE754 1
#endif /* !Py_CONFIG_H */
Raw
Frikr_Include_pyctype.h
#ifndef Py_LIMITED_API
#ifndef PYCTYPE_H
#define PYCTYPE_H
#define PY_CTF_LOWER 0x01
#define PY_CTF_UPPER 0x02
#define PY_CTF_ALPHA (PY_CTF_LOWER|PY_CTF_UPPER)
#define PY_CTF_DIGIT 0x04
#define PY_CTF_ALNUM (PY_CTF_ALPHA|PY_CTF_DIGIT)
#define PY_CTF_SPACE 0x08
#define PY_CTF_XDIGIT 0x10
PyAPI_DATA(const unsigned int) _Py_ctype_table[256];
/* Unlike their C counterparts, the following macros are not meant to
* handle an int with any of the values [EOF, 0-UCHAR_MAX]. The argument
* must be a signed/unsigned char. */
#define Py_ISLOWER(c) (_Py_ctype_table[Py_CHARMASK(c)] & PY_CTF_LOWER)
#define Py_ISUPPER(c) (_Py_ctype_table[Py_CHARMASK(c)] & PY_CTF_UPPER)
#define Py_ISALPHA(c) (_Py_ctype_table[Py_CHARMASK(c)] & PY_CTF_ALPHA)
#define Py_ISDIGIT(c) (_Py_ctype_table[Py_CHARMASK(c)] & PY_CTF_DIGIT)
#define Py_ISXDIGIT(c) (_Py_ctype_table[Py_CHARMASK(c)] & PY_CTF_XDIGIT)
#define Py_ISALNUM(c) (_Py_ctype_table[Py_CHARMASK(c)] & PY_CTF_ALNUM)
#define Py_ISSPACE(c) (_Py_ctype_table[Py_CHARMASK(c)] & PY_CTF_SPACE)
PyAPI_DATA(const unsigned char) _Py_ctype_tolower[256];
PyAPI_DATA(const unsigned char) _Py_ctype_toupper[256];
#define Py_TOLOWER(c) (_Py_ctype_tolower[Py_CHARMASK(c)])
#define Py_TOUPPER(c) (_Py_ctype_toupper[Py_CHARMASK(c)])
#endif /* !PYCTYPE_H */
#endif /* !Py_LIMITED_API */
Raw
Frikr_Include_pydebug.h
#ifndef Py_LIMITED_API
#ifndef Py_PYDEBUG_H
#define Py_PYDEBUG_H
#ifdef __cplusplus
extern "C" {
#endif
/* These global variable are defined in pylifecycle.c */
/* XXX (ncoghlan): move these declarations to pylifecycle.h? */
PyAPI_DATA(int) Py_DebugFlag;
PyAPI_DATA(int) Py_VerboseFlag;
PyAPI_DATA(int) Py_QuietFlag;
PyAPI_DATA(int) Py_InteractiveFlag;
PyAPI_DATA(int) Py_InspectFlag;
PyAPI_DATA(int) Py_OptimizeFlag;
PyAPI_DATA(int) Py_NoSiteFlag;
PyAPI_DATA(int) Py_BytesWarningFlag;
PyAPI_DATA(int) Py_UseClassExceptionsFlag;
PyAPI_DATA(int) Py_FrozenFlag;
PyAPI_DATA(int) Py_IgnoreEnvironmentFlag;
PyAPI_DATA(int) Py_DontWriteBytecodeFlag;
PyAPI_DATA(int) Py_NoUserSiteDirectory;
PyAPI_DATA(int) Py_UnbufferedStdioFlag;
PyAPI_DATA(int) Py_HashRandomizationFlag;
PyAPI_DATA(int) Py_IsolatedFlag;
#ifdef MS_WINDOWS
PyAPI_DATA(int) Py_LegacyWindowsStdioFlag;
#endif
/* this is a wrapper around getenv() that pays attention to
Py_IgnoreEnvironmentFlag. It should be used for getting variables like
PYTHONPATH and PYTHONHOME from the environment */
#define Py_GETENV(s) (Py_IgnoreEnvironmentFlag ? NULL : getenv(s))
#ifdef __cplusplus
}
#endif
#endif /* !Py_PYDEBUG_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_pydtrace.d
/* Python DTrace provider */
provider python {
probe function__entry(const char *, const char *, int);
probe function__return(const char *, const char *, int);
probe instance__new__start(const char *, const char *);
probe instance__new__done(const char *, const char *);
probe instance__delete__start(const char *, const char *);
probe instance__delete__done(const char *, const char *);
probe line(const char *, const char *, int);
probe gc__start(int);
probe gc__done(long);
};
#pragma D attributes Evolving/Evolving/Common provider python provider
#pragma D attributes Evolving/Evolving/Common provider python module
#pragma D attributes Evolving/Evolving/Common provider python function
#pragma D attributes Evolving/Evolving/Common provider python name
#pragma D attributes Evolving/Evolving/Common provider python args
Raw
Frikr_Include_pydtrace.h
/* Static DTrace probes interface */
#ifndef Py_DTRACE_H
#define Py_DTRACE_H
#ifdef __cplusplus
extern "C" {
#endif
#ifdef WITH_DTRACE
#include "pydtrace_probes.h"
/* pydtrace_probes.h, on systems with DTrace, is auto-generated to include
`PyDTrace_{PROBE}` and `PyDTrace_{PROBE}_ENABLED()` macros for every probe
defined in pydtrace_provider.d.
Calling these functions must be guarded by a `PyDTrace_{PROBE}_ENABLED()`
check to minimize performance impact when probing is off. For example:
if (PyDTrace_FUNCTION_ENTRY_ENABLED())
PyDTrace_FUNCTION_ENTRY(f);
*/
#else
/* Without DTrace, compile to nothing. */
static inline void PyDTrace_LINE(const char *arg0, const char *arg1, int arg2) {}
static inline void PyDTrace_FUNCTION_ENTRY(const char *arg0, const char *arg1, int arg2) {}
static inline void PyDTrace_FUNCTION_RETURN(const char *arg0, const char *arg1, int arg2) {}
static inline void PyDTrace_GC_START(int arg0) {}
static inline void PyDTrace_GC_DONE(int arg0) {}
static inline void PyDTrace_INSTANCE_NEW_START(int arg0) {}
static inline void PyDTrace_INSTANCE_NEW_DONE(int arg0) {}
static inline void PyDTrace_INSTANCE_DELETE_START(int arg0) {}
static inline void PyDTrace_INSTANCE_DELETE_DONE(int arg0) {}
static inline int PyDTrace_LINE_ENABLED(void) { return 0; }
static inline int PyDTrace_FUNCTION_ENTRY_ENABLED(void) { return 0; }
static inline int PyDTrace_FUNCTION_RETURN_ENABLED(void) { return 0; }
static inline int PyDTrace_GC_START_ENABLED(void) { return 0; }
static inline int PyDTrace_GC_DONE_ENABLED(void) { return 0; }
static inline int PyDTrace_INSTANCE_NEW_START_ENABLED(void) { return 0; }
static inline int PyDTrace_INSTANCE_NEW_DONE_ENABLED(void) { return 0; }
static inline int PyDTrace_INSTANCE_DELETE_START_ENABLED(void) { return 0; }
static inline int PyDTrace_INSTANCE_DELETE_DONE_ENABLED(void) { return 0; }
#endif /* !WITH_DTRACE */
#ifdef __cplusplus
}
#endif
#endif /* !Py_DTRACE_H */
Raw
Frikr_Include_pyerrors.h
#ifndef Py_ERRORS_H
#define Py_ERRORS_H
#ifdef __cplusplus
extern "C" {
#endif
/* Error objects */
#ifndef Py_LIMITED_API
/* PyException_HEAD defines the initial segment of every exception class. */
#define PyException_HEAD PyObject_HEAD PyObject *dict;\
PyObject *args; PyObject *traceback;\
PyObject *context; PyObject *cause;\
char suppress_context;
typedef struct {
PyException_HEAD
} PyBaseExceptionObject;
typedef struct {
PyException_HEAD
PyObject *msg;
PyObject *filename;
PyObject *lineno;
PyObject *offset;
PyObject *text;
PyObject *print_file_and_line;
} PySyntaxErrorObject;
typedef struct {
PyException_HEAD
PyObject *msg;
PyObject *name;
PyObject *path;
} PyImportErrorObject;
typedef struct {
PyException_HEAD
PyObject *encoding;
PyObject *object;
Py_ssize_t start;
Py_ssize_t end;
PyObject *reason;
} PyUnicodeErrorObject;
typedef struct {
PyException_HEAD
PyObject *code;
} PySystemExitObject;
typedef struct {
PyException_HEAD
PyObject *myerrno;
PyObject *strerror;
PyObject *filename;
PyObject *filename2;
#ifdef MS_WINDOWS
PyObject *winerror;
#endif
Py_ssize_t written; /* only for BlockingIOError, -1 otherwise */
} PyOSErrorObject;
typedef struct {
PyException_HEAD
PyObject *value;
} PyStopIterationObject;
/* Compatibility typedefs */
typedef PyOSErrorObject PyEnvironmentErrorObject;
#ifdef MS_WINDOWS
typedef PyOSErrorObject PyWindowsErrorObject;
#endif
#endif /* !Py_LIMITED_API */
/* Error handling definitions */
PyAPI_FUNC(void) PyErr_SetNone(PyObject *);
PyAPI_FUNC(void) PyErr_SetObject(PyObject *, PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyErr_SetKeyError(PyObject *);
#endif
PyAPI_FUNC(void) PyErr_SetString(
PyObject *exception,
const char *string /* decoded from utf-8 */
);
PyAPI_FUNC(PyObject *) PyErr_Occurred(void);
PyAPI_FUNC(void) PyErr_Clear(void);
PyAPI_FUNC(void) PyErr_Fetch(PyObject **, PyObject **, PyObject **);
PyAPI_FUNC(void) PyErr_Restore(PyObject *, PyObject *, PyObject *);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(void) PyErr_GetExcInfo(PyObject **, PyObject **, PyObject **);
PyAPI_FUNC(void) PyErr_SetExcInfo(PyObject *, PyObject *, PyObject *);
#endif
#if defined(__clang__) || \
(defined(__GNUC_MAJOR__) && \
((__GNUC_MAJOR__ >= 3) || \
(__GNUC_MAJOR__ == 2) && (__GNUC_MINOR__ >= 5)))
#define _Py_NO_RETURN __attribute__((__noreturn__))
#else
#define _Py_NO_RETURN
#endif
/* Defined in Python/pylifecycle.c */
PyAPI_FUNC(void) Py_FatalError(const char *message) _Py_NO_RETURN;
#if defined(Py_DEBUG) || defined(Py_LIMITED_API)
#define _PyErr_OCCURRED() PyErr_Occurred()
#else
#define _PyErr_OCCURRED() (PyThreadState_GET()->curexc_type)
#endif
/* Error testing and normalization */
PyAPI_FUNC(int) PyErr_GivenExceptionMatches(PyObject *, PyObject *);
PyAPI_FUNC(int) PyErr_ExceptionMatches(PyObject *);
PyAPI_FUNC(void) PyErr_NormalizeException(PyObject**, PyObject**, PyObject**);
/* Traceback manipulation (PEP 3134) */
PyAPI_FUNC(int) PyException_SetTraceback(PyObject *, PyObject *);
PyAPI_FUNC(PyObject *) PyException_GetTraceback(PyObject *);
/* Cause manipulation (PEP 3134) */
PyAPI_FUNC(PyObject *) PyException_GetCause(PyObject *);
PyAPI_FUNC(void) PyException_SetCause(PyObject *, PyObject *);
/* Context manipulation (PEP 3134) */
PyAPI_FUNC(PyObject *) PyException_GetContext(PyObject *);
PyAPI_FUNC(void) PyException_SetContext(PyObject *, PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyErr_ChainExceptions(PyObject *, PyObject *, PyObject *);
#endif
/* */
#define PyExceptionClass_Check(x) \
(PyType_Check((x)) && \
PyType_FastSubclass((PyTypeObject*)(x), Py_TPFLAGS_BASE_EXC_SUBCLASS))
#define PyExceptionInstance_Check(x) \
PyType_FastSubclass((x)->ob_type, Py_TPFLAGS_BASE_EXC_SUBCLASS)
#define PyExceptionClass_Name(x) \
((char *)(((PyTypeObject*)(x))->tp_name))
#define PyExceptionInstance_Class(x) ((PyObject*)((x)->ob_type))
/* Predefined exceptions */
PyAPI_DATA(PyObject *) PyExc_BaseException;
PyAPI_DATA(PyObject *) PyExc_Exception;
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_DATA(PyObject *) PyExc_StopAsyncIteration;
#endif
PyAPI_DATA(PyObject *) PyExc_StopIteration;
PyAPI_DATA(PyObject *) PyExc_GeneratorExit;
PyAPI_DATA(PyObject *) PyExc_ArithmeticError;
PyAPI_DATA(PyObject *) PyExc_LookupError;
PyAPI_DATA(PyObject *) PyExc_AssertionError;
PyAPI_DATA(PyObject *) PyExc_AttributeError;
PyAPI_DATA(PyObject *) PyExc_BufferError;
PyAPI_DATA(PyObject *) PyExc_EOFError;
PyAPI_DATA(PyObject *) PyExc_FloatingPointError;
PyAPI_DATA(PyObject *) PyExc_OSError;
PyAPI_DATA(PyObject *) PyExc_ImportError;
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03060000
PyAPI_DATA(PyObject *) PyExc_ModuleNotFoundError;
#endif
PyAPI_DATA(PyObject *) PyExc_IndexError;
PyAPI_DATA(PyObject *) PyExc_KeyError;
PyAPI_DATA(PyObject *) PyExc_KeyboardInterrupt;
PyAPI_DATA(PyObject *) PyExc_MemoryError;
PyAPI_DATA(PyObject *) PyExc_NameError;
PyAPI_DATA(PyObject *) PyExc_OverflowError;
PyAPI_DATA(PyObject *) PyExc_RuntimeError;
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_DATA(PyObject *) PyExc_RecursionError;
#endif
PyAPI_DATA(PyObject *) PyExc_NotImplementedError;
PyAPI_DATA(PyObject *) PyExc_SyntaxError;
PyAPI_DATA(PyObject *) PyExc_IndentationError;
PyAPI_DATA(PyObject *) PyExc_TabError;
PyAPI_DATA(PyObject *) PyExc_ReferenceError;
PyAPI_DATA(PyObject *) PyExc_SystemError;
PyAPI_DATA(PyObject *) PyExc_SystemExit;
PyAPI_DATA(PyObject *) PyExc_TypeError;
PyAPI_DATA(PyObject *) PyExc_UnboundLocalError;
PyAPI_DATA(PyObject *) PyExc_UnicodeError;
PyAPI_DATA(PyObject *) PyExc_UnicodeEncodeError;
PyAPI_DATA(PyObject *) PyExc_UnicodeDecodeError;
PyAPI_DATA(PyObject *) PyExc_UnicodeTranslateError;
PyAPI_DATA(PyObject *) PyExc_ValueError;
PyAPI_DATA(PyObject *) PyExc_ZeroDivisionError;
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_DATA(PyObject *) PyExc_BlockingIOError;
PyAPI_DATA(PyObject *) PyExc_BrokenPipeError;
PyAPI_DATA(PyObject *) PyExc_ChildProcessError;
PyAPI_DATA(PyObject *) PyExc_ConnectionError;
PyAPI_DATA(PyObject *) PyExc_ConnectionAbortedError;
PyAPI_DATA(PyObject *) PyExc_ConnectionRefusedError;
PyAPI_DATA(PyObject *) PyExc_ConnectionResetError;
PyAPI_DATA(PyObject *) PyExc_FileExistsError;
PyAPI_DATA(PyObject *) PyExc_FileNotFoundError;
PyAPI_DATA(PyObject *) PyExc_InterruptedError;
PyAPI_DATA(PyObject *) PyExc_IsADirectoryError;
PyAPI_DATA(PyObject *) PyExc_NotADirectoryError;
PyAPI_DATA(PyObject *) PyExc_PermissionError;
PyAPI_DATA(PyObject *) PyExc_ProcessLookupError;
PyAPI_DATA(PyObject *) PyExc_TimeoutError;
#endif
/* Compatibility aliases */
PyAPI_DATA(PyObject *) PyExc_EnvironmentError;
PyAPI_DATA(PyObject *) PyExc_IOError;
#ifdef MS_WINDOWS
PyAPI_DATA(PyObject *) PyExc_WindowsError;
#endif
PyAPI_DATA(PyObject *) PyExc_RecursionErrorInst;
/* Predefined warning categories */
PyAPI_DATA(PyObject *) PyExc_Warning;
PyAPI_DATA(PyObject *) PyExc_UserWarning;
PyAPI_DATA(PyObject *) PyExc_DeprecationWarning;
PyAPI_DATA(PyObject *) PyExc_PendingDeprecationWarning;
PyAPI_DATA(PyObject *) PyExc_SyntaxWarning;
PyAPI_DATA(PyObject *) PyExc_RuntimeWarning;
PyAPI_DATA(PyObject *) PyExc_FutureWarning;
PyAPI_DATA(PyObject *) PyExc_ImportWarning;
PyAPI_DATA(PyObject *) PyExc_UnicodeWarning;
PyAPI_DATA(PyObject *) PyExc_BytesWarning;
PyAPI_DATA(PyObject *) PyExc_ResourceWarning;
/* Convenience functions */
PyAPI_FUNC(int) PyErr_BadArgument(void);
PyAPI_FUNC(PyObject *) PyErr_NoMemory(void);
PyAPI_FUNC(PyObject *) PyErr_SetFromErrno(PyObject *);
PyAPI_FUNC(PyObject *) PyErr_SetFromErrnoWithFilenameObject(
PyObject *, PyObject *);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03040000
PyAPI_FUNC(PyObject *) PyErr_SetFromErrnoWithFilenameObjects(
PyObject *, PyObject *, PyObject *);
#endif
PyAPI_FUNC(PyObject *) PyErr_SetFromErrnoWithFilename(
PyObject *exc,
const char *filename /* decoded from the filesystem encoding */
);
#if defined(MS_WINDOWS) && !defined(Py_LIMITED_API)
PyAPI_FUNC(PyObject *) PyErr_SetFromErrnoWithUnicodeFilename(
PyObject *, const Py_UNICODE *);
#endif /* MS_WINDOWS */
PyAPI_FUNC(PyObject *) PyErr_Format(
PyObject *exception,
const char *format, /* ASCII-encoded string */
...
);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_FUNC(PyObject *) PyErr_FormatV(
PyObject *exception,
const char *format,
va_list vargs);
#endif
#ifndef Py_LIMITED_API
/* Like PyErr_Format(), but saves current exception as __context__ and
__cause__.
*/
PyAPI_FUNC(PyObject *) _PyErr_FormatFromCause(
PyObject *exception,
const char *format, /* ASCII-encoded string */
...
);
#endif
#ifdef MS_WINDOWS
PyAPI_FUNC(PyObject *) PyErr_SetFromWindowsErrWithFilename(
int ierr,
const char *filename /* decoded from the filesystem encoding */
);
#ifndef Py_LIMITED_API
/* XXX redeclare to use WSTRING */
PyAPI_FUNC(PyObject *) PyErr_SetFromWindowsErrWithUnicodeFilename(
int, const Py_UNICODE *);
#endif
PyAPI_FUNC(PyObject *) PyErr_SetFromWindowsErr(int);
PyAPI_FUNC(PyObject *) PyErr_SetExcFromWindowsErrWithFilenameObject(
PyObject *,int, PyObject *);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03040000
PyAPI_FUNC(PyObject *) PyErr_SetExcFromWindowsErrWithFilenameObjects(
PyObject *,int, PyObject *, PyObject *);
#endif
PyAPI_FUNC(PyObject *) PyErr_SetExcFromWindowsErrWithFilename(
PyObject *exc,
int ierr,
const char *filename /* decoded from the filesystem encoding */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyErr_SetExcFromWindowsErrWithUnicodeFilename(
PyObject *,int, const Py_UNICODE *);
#endif
PyAPI_FUNC(PyObject *) PyErr_SetExcFromWindowsErr(PyObject *, int);
#endif /* MS_WINDOWS */
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03060000
PyAPI_FUNC(PyObject *) PyErr_SetImportErrorSubclass(PyObject *, PyObject *,
PyObject *, PyObject *);
#endif
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject *) PyErr_SetImportError(PyObject *, PyObject *,
PyObject *);
#endif
/* Export the old function so that the existing API remains available: */
PyAPI_FUNC(void) PyErr_BadInternalCall(void);
PyAPI_FUNC(void) _PyErr_BadInternalCall(const char *filename, int lineno);
/* Mask the old API with a call to the new API for code compiled under
Python 2.0: */
#define PyErr_BadInternalCall() _PyErr_BadInternalCall(__FILE__, __LINE__)
/* Function to create a new exception */
PyAPI_FUNC(PyObject *) PyErr_NewException(
const char *name, PyObject *base, PyObject *dict);
PyAPI_FUNC(PyObject *) PyErr_NewExceptionWithDoc(
const char *name, const char *doc, PyObject *base, PyObject *dict);
PyAPI_FUNC(void) PyErr_WriteUnraisable(PyObject *);
/* In exceptions.c */
#ifndef Py_LIMITED_API
/* Helper that attempts to replace the current exception with one of the
* same type but with a prefix added to the exception text. The resulting
* exception description looks like:
*
* prefix (exc_type: original_exc_str)
*
* Only some exceptions can be safely replaced. If the function determines
* it isn't safe to perform the replacement, it will leave the original
* unmodified exception in place.
*
* Returns a borrowed reference to the new exception (if any), NULL if the
* existing exception was left in place.
*/
PyAPI_FUNC(PyObject *) _PyErr_TrySetFromCause(
const char *prefix_format, /* ASCII-encoded string */
...
);
#endif
/* In sigcheck.c or signalmodule.c */
PyAPI_FUNC(int) PyErr_CheckSignals(void);
PyAPI_FUNC(void) PyErr_SetInterrupt(void);
/* In signalmodule.c */
#ifndef Py_LIMITED_API
int PySignal_SetWakeupFd(int fd);
#endif
/* Support for adding program text to SyntaxErrors */
PyAPI_FUNC(void) PyErr_SyntaxLocation(
const char *filename, /* decoded from the filesystem encoding */
int lineno);
PyAPI_FUNC(void) PyErr_SyntaxLocationEx(
const char *filename, /* decoded from the filesystem encoding */
int lineno,
int col_offset);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) PyErr_SyntaxLocationObject(
PyObject *filename,
int lineno,
int col_offset);
#endif
PyAPI_FUNC(PyObject *) PyErr_ProgramText(
const char *filename, /* decoded from the filesystem encoding */
int lineno);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyErr_ProgramTextObject(
PyObject *filename,
int lineno);
#endif
/* The following functions are used to create and modify unicode
exceptions from C */
/* create a UnicodeDecodeError object */
PyAPI_FUNC(PyObject *) PyUnicodeDecodeError_Create(
const char *encoding, /* UTF-8 encoded string */
const char *object,
Py_ssize_t length,
Py_ssize_t start,
Py_ssize_t end,
const char *reason /* UTF-8 encoded string */
);
/* create a UnicodeEncodeError object */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyUnicodeEncodeError_Create(
const char *encoding, /* UTF-8 encoded string */
const Py_UNICODE *object,
Py_ssize_t length,
Py_ssize_t start,
Py_ssize_t end,
const char *reason /* UTF-8 encoded string */
);
#endif
/* create a UnicodeTranslateError object */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyUnicodeTranslateError_Create(
const Py_UNICODE *object,
Py_ssize_t length,
Py_ssize_t start,
Py_ssize_t end,
const char *reason /* UTF-8 encoded string */
);
PyAPI_FUNC(PyObject *) _PyUnicodeTranslateError_Create(
PyObject *object,
Py_ssize_t start,
Py_ssize_t end,
const char *reason /* UTF-8 encoded string */
);
#endif
/* get the encoding attribute */
PyAPI_FUNC(PyObject *) PyUnicodeEncodeError_GetEncoding(PyObject *);
PyAPI_FUNC(PyObject *) PyUnicodeDecodeError_GetEncoding(PyObject *);
/* get the object attribute */
PyAPI_FUNC(PyObject *) PyUnicodeEncodeError_GetObject(PyObject *);
PyAPI_FUNC(PyObject *) PyUnicodeDecodeError_GetObject(PyObject *);
PyAPI_FUNC(PyObject *) PyUnicodeTranslateError_GetObject(PyObject *);
/* get the value of the start attribute (the int * may not be NULL)
return 0 on success, -1 on failure */
PyAPI_FUNC(int) PyUnicodeEncodeError_GetStart(PyObject *, Py_ssize_t *);
PyAPI_FUNC(int) PyUnicodeDecodeError_GetStart(PyObject *, Py_ssize_t *);
PyAPI_FUNC(int) PyUnicodeTranslateError_GetStart(PyObject *, Py_ssize_t *);
/* assign a new value to the start attribute
return 0 on success, -1 on failure */
PyAPI_FUNC(int) PyUnicodeEncodeError_SetStart(PyObject *, Py_ssize_t);
PyAPI_FUNC(int) PyUnicodeDecodeError_SetStart(PyObject *, Py_ssize_t);
PyAPI_FUNC(int) PyUnicodeTranslateError_SetStart(PyObject *, Py_ssize_t);
/* get the value of the end attribute (the int *may not be NULL)
return 0 on success, -1 on failure */
PyAPI_FUNC(int) PyUnicodeEncodeError_GetEnd(PyObject *, Py_ssize_t *);
PyAPI_FUNC(int) PyUnicodeDecodeError_GetEnd(PyObject *, Py_ssize_t *);
PyAPI_FUNC(int) PyUnicodeTranslateError_GetEnd(PyObject *, Py_ssize_t *);
/* assign a new value to the end attribute
return 0 on success, -1 on failure */
PyAPI_FUNC(int) PyUnicodeEncodeError_SetEnd(PyObject *, Py_ssize_t);
PyAPI_FUNC(int) PyUnicodeDecodeError_SetEnd(PyObject *, Py_ssize_t);
PyAPI_FUNC(int) PyUnicodeTranslateError_SetEnd(PyObject *, Py_ssize_t);
/* get the value of the reason attribute */
PyAPI_FUNC(PyObject *) PyUnicodeEncodeError_GetReason(PyObject *);
PyAPI_FUNC(PyObject *) PyUnicodeDecodeError_GetReason(PyObject *);
PyAPI_FUNC(PyObject *) PyUnicodeTranslateError_GetReason(PyObject *);
/* assign a new value to the reason attribute
return 0 on success, -1 on failure */
PyAPI_FUNC(int) PyUnicodeEncodeError_SetReason(
PyObject *exc,
const char *reason /* UTF-8 encoded string */
);
PyAPI_FUNC(int) PyUnicodeDecodeError_SetReason(
PyObject *exc,
const char *reason /* UTF-8 encoded string */
);
PyAPI_FUNC(int) PyUnicodeTranslateError_SetReason(
PyObject *exc,
const char *reason /* UTF-8 encoded string */
);
/* These APIs aren't really part of the error implementation, but
often needed to format error messages; the native C lib APIs are
not available on all platforms, which is why we provide emulations
for those platforms in Python/mysnprintf.c,
WARNING: The return value of snprintf varies across platforms; do
not rely on any particular behavior; eventually the C99 defn may
be reliable.
*/
#if defined(MS_WIN32) && !defined(HAVE_SNPRINTF)
# define HAVE_SNPRINTF
# define snprintf _snprintf
# define vsnprintf _vsnprintf
#endif
#include <stdarg.h>
PyAPI_FUNC(int) PyOS_snprintf(char *str, size_t size, const char *format, ...)
Py_GCC_ATTRIBUTE((format(printf, 3, 4)));
PyAPI_FUNC(int) PyOS_vsnprintf(char *str, size_t size, const char *format, va_list va)
Py_GCC_ATTRIBUTE((format(printf, 3, 0)));
#ifdef __cplusplus
}
#endif
#endif /* !Py_ERRORS_H */
Raw
Frikr_Include_pyexpat.h
/* Stuff to export relevant 'expat' entry points from pyexpat to other
* parser modules, such as cElementTree. */
/* note: you must import expat.h before importing this module! */
#define PyExpat_CAPI_MAGIC "pyexpat.expat_CAPI 1.0"
#define PyExpat_CAPSULE_NAME "pyexpat.expat_CAPI"
struct PyExpat_CAPI
{
char* magic; /* set to PyExpat_CAPI_MAGIC */
int size; /* set to sizeof(struct PyExpat_CAPI) */
int MAJOR_VERSION;
int MINOR_VERSION;
int MICRO_VERSION;
/* pointers to selected expat functions. add new functions at
the end, if needed */
const XML_LChar * (*ErrorString)(enum XML_Error code);
enum XML_Error (*GetErrorCode)(XML_Parser parser);
XML_Size (*GetErrorColumnNumber)(XML_Parser parser);
XML_Size (*GetErrorLineNumber)(XML_Parser parser);
enum XML_Status (*Parse)(
XML_Parser parser, const char *s, int len, int isFinal);
XML_Parser (*ParserCreate_MM)(
const XML_Char *encoding, const XML_Memory_Handling_Suite *memsuite,
const XML_Char *namespaceSeparator);
void (*ParserFree)(XML_Parser parser);
void (*SetCharacterDataHandler)(
XML_Parser parser, XML_CharacterDataHandler handler);
void (*SetCommentHandler)(
XML_Parser parser, XML_CommentHandler handler);
void (*SetDefaultHandlerExpand)(
XML_Parser parser, XML_DefaultHandler handler);
void (*SetElementHandler)(
XML_Parser parser, XML_StartElementHandler start,
XML_EndElementHandler end);
void (*SetNamespaceDeclHandler)(
XML_Parser parser, XML_StartNamespaceDeclHandler start,
XML_EndNamespaceDeclHandler end);
void (*SetProcessingInstructionHandler)(
XML_Parser parser, XML_ProcessingInstructionHandler handler);
void (*SetUnknownEncodingHandler)(
XML_Parser parser, XML_UnknownEncodingHandler handler,
void *encodingHandlerData);
void (*SetUserData)(XML_Parser parser, void *userData);
void (*SetStartDoctypeDeclHandler)(XML_Parser parser,
XML_StartDoctypeDeclHandler start);
enum XML_Status (*SetEncoding)(XML_Parser parser, const XML_Char *encoding);
int (*DefaultUnknownEncodingHandler)(
void *encodingHandlerData, const XML_Char *name, XML_Encoding *info);
/* always add new stuff to the end! */
};
Raw
Frikr_Include_pyfpe.h
#ifndef Py_PYFPE_H
#define Py_PYFPE_H
#ifdef __cplusplus
extern "C" {
#endif
/*
---------------------------------------------------------------------
/ Copyright (c) 1996. \
| The Regents of the University of California. |
| All rights reserved. |
| |
| Permission to use, copy, modify, and distribute this software for |
| any purpose without fee is hereby granted, provided that this en- |
| tire notice is included in all copies of any software which is or |
| includes a copy or modification of this software and in all |
| copies of the supporting documentation for such software. |
| |
| This work was produced at the University of California, Lawrence |
| Livermore National Laboratory under contract no. W-7405-ENG-48 |
| between the U.S. Department of Energy and The Regents of the |
| University of California for the operation of UC LLNL. |
| |
| DISCLAIMER |
| |
| This software was prepared as an account of work sponsored by an |
| agency of the United States Government. Neither the United States |
| Government nor the University of California nor any of their em- |
| ployees, makes any warranty, express or implied, or assumes any |
| liability or responsibility for the accuracy, completeness, or |
| usefulness of any information, apparatus, product, or process |
| disclosed, or represents that its use would not infringe |
| privately-owned rights. Reference herein to any specific commer- |
| cial products, process, or service by trade name, trademark, |
| manufacturer, or otherwise, does not necessarily constitute or |
| imply its endorsement, recommendation, or favoring by the United |
| States Government or the University of California. The views and |
| opinions of authors expressed herein do not necessarily state or |
| reflect those of the United States Government or the University |
| of California, and shall not be used for advertising or product |
\ endorsement purposes. /
---------------------------------------------------------------------
*/
/*
* Define macros for handling SIGFPE.
* Lee Busby, LLNL, November, 1996
* busby1@llnl.gov
*
*********************************************
* Overview of the system for handling SIGFPE:
*
* This file (Include/pyfpe.h) defines a couple of "wrapper" macros for
* insertion into your Python C code of choice. Their proper use is
* discussed below. The file Python/pyfpe.c defines a pair of global
* variables PyFPE_jbuf and PyFPE_counter which are used by the signal
* handler for SIGFPE to decide if a particular exception was protected
* by the macros. The signal handler itself, and code for enabling the
* generation of SIGFPE in the first place, is in a (new) Python module
* named fpectl. This module is standard in every respect. It can be loaded
* either statically or dynamically as you choose, and like any other
* Python module, has no effect until you import it.
*
* In the general case, there are three steps toward handling SIGFPE in any
* Python code:
*
* 1) Add the *_PROTECT macros to your C code as required to protect
* dangerous floating point sections.
*
* 2) Turn on the inclusion of the code by adding the ``--with-fpectl''
* flag at the time you run configure. If the fpectl or other modules
* which use the *_PROTECT macros are to be dynamically loaded, be
* sure they are compiled with WANT_SIGFPE_HANDLER defined.
*
* 3) When python is built and running, import fpectl, and execute
* fpectl.turnon_sigfpe(). This sets up the signal handler and enables
* generation of SIGFPE whenever an exception occurs. From this point
* on, any properly trapped SIGFPE should result in the Python
* FloatingPointError exception.
*
* Step 1 has been done already for the Python kernel code, and should be
* done soon for the NumPy array package. Step 2 is usually done once at
* python install time. Python's behavior with respect to SIGFPE is not
* changed unless you also do step 3. Thus you can control this new
* facility at compile time, or run time, or both.
*
********************************
* Using the macros in your code:
*
* static PyObject *foobar(PyObject *self,PyObject *args)
* {
* ....
* PyFPE_START_PROTECT("Error in foobar", return 0)
* result = dangerous_op(somearg1, somearg2, ...);
* PyFPE_END_PROTECT(result)
* ....
* }
*
* If a floating point error occurs in dangerous_op, foobar returns 0 (NULL),
* after setting the associated value of the FloatingPointError exception to
* "Error in foobar". ``Dangerous_op'' can be a single operation, or a block
* of code, function calls, or any combination, so long as no alternate
* return is possible before the PyFPE_END_PROTECT macro is reached.
*
* The macros can only be used in a function context where an error return
* can be recognized as signaling a Python exception. (Generally, most
* functions that return a PyObject * will qualify.)
*
* Guido's original design suggestion for PyFPE_START_PROTECT and
* PyFPE_END_PROTECT had them open and close a local block, with a locally
* defined jmp_buf and jmp_buf pointer. This would allow recursive nesting
* of the macros. The Ansi C standard makes it clear that such local
* variables need to be declared with the "volatile" type qualifier to keep
* setjmp from corrupting their values. Some current implementations seem
* to be more restrictive. For example, the HPUX man page for setjmp says
*
* Upon the return from a setjmp() call caused by a longjmp(), the
* values of any non-static local variables belonging to the routine
* from which setjmp() was called are undefined. Code which depends on
* such values is not guaranteed to be portable.
*
* I therefore decided on a more limited form of nesting, using a counter
* variable (PyFPE_counter) to keep track of any recursion. If an exception
* occurs in an ``inner'' pair of macros, the return will apparently
* come from the outermost level.
*
*/
#ifdef WANT_SIGFPE_HANDLER
#include <signal.h>
#include <setjmp.h>
#include <math.h>
extern jmp_buf PyFPE_jbuf;
extern int PyFPE_counter;
extern double PyFPE_dummy(void *);
#define PyFPE_START_PROTECT(err_string, leave_stmt) \
if (!PyFPE_counter++ && setjmp(PyFPE_jbuf)) { \
PyErr_SetString(PyExc_FloatingPointError, err_string); \
PyFPE_counter = 0; \
leave_stmt; \
}
/*
* This (following) is a heck of a way to decrement a counter. However,
* unless the macro argument is provided, code optimizers will sometimes move
* this statement so that it gets executed *before* the unsafe expression
* which we're trying to protect. That pretty well messes things up,
* of course.
*
* If the expression(s) you're trying to protect don't happen to return a
* value, you will need to manufacture a dummy result just to preserve the
* correct ordering of statements. Note that the macro passes the address
* of its argument (so you need to give it something which is addressable).
* If your expression returns multiple results, pass the last such result
* to PyFPE_END_PROTECT.
*
* Note that PyFPE_dummy returns a double, which is cast to int.
* This seeming insanity is to tickle the Floating Point Unit (FPU).
* If an exception has occurred in a preceding floating point operation,
* some architectures (notably Intel 80x86) will not deliver the interrupt
* until the *next* floating point operation. This is painful if you've
* already decremented PyFPE_counter.
*/
#define PyFPE_END_PROTECT(v) PyFPE_counter -= (int)PyFPE_dummy(&(v));
#else
#define PyFPE_START_PROTECT(err_string, leave_stmt)
#define PyFPE_END_PROTECT(v)
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_PYFPE_H */
Raw
Frikr_Include_pygetopt.h
#ifndef Py_PYGETOPT_H
#define Py_PYGETOPT_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
PyAPI_DATA(int) _PyOS_opterr;
PyAPI_DATA(int) _PyOS_optind;
PyAPI_DATA(wchar_t *) _PyOS_optarg;
PyAPI_FUNC(void) _PyOS_ResetGetOpt(void);
PyAPI_FUNC(int) _PyOS_GetOpt(int argc, wchar_t **argv, wchar_t *optstring);
#endif /* !Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_PYGETOPT_H */
Raw
Frikr_Include_pyhash.h
#ifndef Py_HASH_H
#define Py_HASH_H
#ifdef __cplusplus
extern "C" {
#endif
/* Helpers for hash functions */
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_hash_t) _Py_HashDouble(double);
PyAPI_FUNC(Py_hash_t) _Py_HashPointer(void*);
PyAPI_FUNC(Py_hash_t) _Py_HashBytes(const void*, Py_ssize_t);
#endif
/* Prime multiplier used in string and various other hashes. */
#define _PyHASH_MULTIPLIER 1000003UL /* 0xf4243 */
/* Parameters used for the numeric hash implementation. See notes for
_Py_HashDouble in Objects/object.c. Numeric hashes are based on
reduction modulo the prime 2**_PyHASH_BITS - 1. */
#if SIZEOF_VOID_P >= 8
# define _PyHASH_BITS 61
#else
# define _PyHASH_BITS 31
#endif
#define _PyHASH_MODULUS (((size_t)1 << _PyHASH_BITS) - 1)
#define _PyHASH_INF 314159
#define _PyHASH_NAN 0
#define _PyHASH_IMAG _PyHASH_MULTIPLIER
/* hash secret
*
* memory layout on 64 bit systems
* cccccccc cccccccc cccccccc uc -- unsigned char[24]
* pppppppp ssssssss ........ fnv -- two Py_hash_t
* k0k0k0k0 k1k1k1k1 ........ siphash -- two uint64_t
* ........ ........ ssssssss djbx33a -- 16 bytes padding + one Py_hash_t
* ........ ........ eeeeeeee pyexpat XML hash salt
*
* memory layout on 32 bit systems
* cccccccc cccccccc cccccccc uc
* ppppssss ........ ........ fnv -- two Py_hash_t
* k0k0k0k0 k1k1k1k1 ........ siphash -- two uint64_t (*)
* ........ ........ ssss.... djbx33a -- 16 bytes padding + one Py_hash_t
* ........ ........ eeee.... pyexpat XML hash salt
*
* (*) The siphash member may not be available on 32 bit platforms without
* an unsigned int64 data type.
*/
#ifndef Py_LIMITED_API
typedef union {
/* ensure 24 bytes */
unsigned char uc[24];
/* two Py_hash_t for FNV */
struct {
Py_hash_t prefix;
Py_hash_t suffix;
} fnv;
/* two uint64 for SipHash24 */
struct {
uint64_t k0;
uint64_t k1;
} siphash;
/* a different (!) Py_hash_t for small string optimization */
struct {
unsigned char padding[16];
Py_hash_t suffix;
} djbx33a;
struct {
unsigned char padding[16];
Py_hash_t hashsalt;
} expat;
} _Py_HashSecret_t;
PyAPI_DATA(_Py_HashSecret_t) _Py_HashSecret;
#endif
#ifdef Py_DEBUG
PyAPI_DATA(int) _Py_HashSecret_Initialized;
#endif
/* hash function definition */
#ifndef Py_LIMITED_API
typedef struct {
Py_hash_t (*const hash)(const void *, Py_ssize_t);
const char *name;
const int hash_bits;
const int seed_bits;
} PyHash_FuncDef;
PyAPI_FUNC(PyHash_FuncDef*) PyHash_GetFuncDef(void);
#endif
/* cutoff for small string DJBX33A optimization in range [1, cutoff).
*
* About 50% of the strings in a typical Python application are smaller than
* 6 to 7 chars. However DJBX33A is vulnerable to hash collision attacks.
* NEVER use DJBX33A for long strings!
*
* A Py_HASH_CUTOFF of 0 disables small string optimization. 32 bit platforms
* should use a smaller cutoff because it is easier to create colliding
* strings. A cutoff of 7 on 64bit platforms and 5 on 32bit platforms should
* provide a decent safety margin.
*/
#ifndef Py_HASH_CUTOFF
# define Py_HASH_CUTOFF 0
#elif (Py_HASH_CUTOFF > 7 || Py_HASH_CUTOFF < 0)
# error Py_HASH_CUTOFF must in range 0...7.
#endif /* Py_HASH_CUTOFF */
/* hash algorithm selection
*
* The values for Py_HASH_SIPHASH24 and Py_HASH_FNV are hard-coded in the
* configure script.
*
* - FNV is available on all platforms and architectures.
* - SIPHASH24 only works on plaforms that don't require aligned memory for integers.
* - With EXTERNAL embedders can provide an alternative implementation with::
*
* PyHash_FuncDef PyHash_Func = {...};
*
* XXX: Figure out __declspec() for extern PyHash_FuncDef.
*/
#define Py_HASH_EXTERNAL 0
#define Py_HASH_SIPHASH24 1
#define Py_HASH_FNV 2
#ifndef Py_HASH_ALGORITHM
# ifndef HAVE_ALIGNED_REQUIRED
# define Py_HASH_ALGORITHM Py_HASH_SIPHASH24
# else
# define Py_HASH_ALGORITHM Py_HASH_FNV
# endif /* uint64_t && uint32_t && aligned */
#endif /* Py_HASH_ALGORITHM */
#ifdef __cplusplus
}
#endif
#endif /* !Py_HASH_H */
Raw
Frikr_Include_pylifecycle.h
/* Interfaces to configure, query, create & destroy the Python runtime */
#ifndef Py_PYLIFECYCLE_H
#define Py_PYLIFECYCLE_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_FUNC(void) Py_SetProgramName(wchar_t *);
PyAPI_FUNC(wchar_t *) Py_GetProgramName(void);
PyAPI_FUNC(void) Py_SetPythonHome(wchar_t *);
PyAPI_FUNC(wchar_t *) Py_GetPythonHome(void);
#ifndef Py_LIMITED_API
/* Only used by applications that embed the interpreter and need to
* override the standard encoding determination mechanism
*/
PyAPI_FUNC(int) Py_SetStandardStreamEncoding(const char *encoding,
const char *errors);
#endif
PyAPI_FUNC(void) Py_Initialize(void);
PyAPI_FUNC(void) Py_InitializeEx(int);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _Py_InitializeEx_Private(int, int);
#endif
PyAPI_FUNC(void) Py_Finalize(void);
PyAPI_FUNC(int) Py_FinalizeEx(void);
PyAPI_FUNC(int) Py_IsInitialized(void);
PyAPI_FUNC(PyThreadState *) Py_NewInterpreter(void);
PyAPI_FUNC(void) Py_EndInterpreter(PyThreadState *);
/* Py_PyAtExit is for the atexit module, Py_AtExit is for low-level
* exit functions.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _Py_PyAtExit(void (*func)(void));
#endif
PyAPI_FUNC(int) Py_AtExit(void (*func)(void));
PyAPI_FUNC(void) Py_Exit(int);
/* Restore signals that the interpreter has called SIG_IGN on to SIG_DFL. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _Py_RestoreSignals(void);
PyAPI_FUNC(int) Py_FdIsInteractive(FILE *, const char *);
#endif
/* Bootstrap __main__ (defined in Modules/main.c) */
PyAPI_FUNC(int) Py_Main(int argc, wchar_t **argv);
/* In getpath.c */
PyAPI_FUNC(wchar_t *) Py_GetProgramFullPath(void);
PyAPI_FUNC(wchar_t *) Py_GetPrefix(void);
PyAPI_FUNC(wchar_t *) Py_GetExecPrefix(void);
PyAPI_FUNC(wchar_t *) Py_GetPath(void);
PyAPI_FUNC(void) Py_SetPath(const wchar_t *);
#ifdef MS_WINDOWS
int _Py_CheckPython3();
#endif
/* In their own files */
PyAPI_FUNC(const char *) Anaconda_GetVersion(void);
PyAPI_FUNC(const char *) Py_GetVersion(void);
PyAPI_FUNC(const char *) Py_GetPlatform(void);
PyAPI_FUNC(const char *) Py_GetCopyright(void);
PyAPI_FUNC(const char *) Py_GetCompiler(void);
PyAPI_FUNC(const char *) Py_GetBuildInfo(void);
#ifndef Py_LIMITED_API
PyAPI_FUNC(const char *) _Py_gitidentifier(void);
PyAPI_FUNC(const char *) _Py_gitversion(void);
#endif
/* Internal -- various one-time initializations */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyBuiltin_Init(void);
PyAPI_FUNC(PyObject *) _PySys_Init(void);
PyAPI_FUNC(void) _PyImport_Init(void);
PyAPI_FUNC(void) _PyExc_Init(PyObject * bltinmod);
PyAPI_FUNC(void) _PyImportHooks_Init(void);
PyAPI_FUNC(int) _PyFrame_Init(void);
PyAPI_FUNC(int) _PyFloat_Init(void);
PyAPI_FUNC(int) PyByteArray_Init(void);
PyAPI_FUNC(void) _PyRandom_Init(void);
#endif
/* Various internal finalizers */
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyExc_Fini(void);
PyAPI_FUNC(void) _PyImport_Fini(void);
PyAPI_FUNC(void) PyMethod_Fini(void);
PyAPI_FUNC(void) PyFrame_Fini(void);
PyAPI_FUNC(void) PyCFunction_Fini(void);
PyAPI_FUNC(void) PyDict_Fini(void);
PyAPI_FUNC(void) PyTuple_Fini(void);
PyAPI_FUNC(void) PyList_Fini(void);
PyAPI_FUNC(void) PySet_Fini(void);
PyAPI_FUNC(void) PyBytes_Fini(void);
PyAPI_FUNC(void) PyByteArray_Fini(void);
PyAPI_FUNC(void) PyFloat_Fini(void);
PyAPI_FUNC(void) PyOS_FiniInterrupts(void);
PyAPI_FUNC(void) _PyGC_DumpShutdownStats(void);
PyAPI_FUNC(void) _PyGC_Fini(void);
PyAPI_FUNC(void) PySlice_Fini(void);
PyAPI_FUNC(void) _PyType_Fini(void);
PyAPI_FUNC(void) _PyRandom_Fini(void);
PyAPI_FUNC(void) PyAsyncGen_Fini(void);
PyAPI_DATA(PyThreadState *) _Py_Finalizing;
#endif
/* Signals */
typedef void (*PyOS_sighandler_t)(int);
PyAPI_FUNC(PyOS_sighandler_t) PyOS_getsig(int);
PyAPI_FUNC(PyOS_sighandler_t) PyOS_setsig(int, PyOS_sighandler_t);
#ifndef Py_LIMITED_API
/* Random */
PyAPI_FUNC(int) _PyOS_URandom(void *buffer, Py_ssize_t size);
PyAPI_FUNC(int) _PyOS_URandomNonblock(void *buffer, Py_ssize_t size);
#endif /* !Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_PYLIFECYCLE_H */
Raw
Frikr_Include_pymacconfig.h
#ifndef PYMACCONFIG_H
#define PYMACCONFIG_H
/*
* This file moves some of the autoconf magic to compile-time
* when building on MacOSX. This is needed for building 4-way
* universal binaries and for 64-bit universal binaries because
* the values redefined below aren't configure-time constant but
* only compile-time constant in these scenarios.
*/
#if defined(__APPLE__)
# undef SIZEOF_LONG
# undef SIZEOF_PTHREAD_T
# undef SIZEOF_SIZE_T
# undef SIZEOF_TIME_T
# undef SIZEOF_VOID_P
# undef SIZEOF__BOOL
# undef SIZEOF_UINTPTR_T
# undef SIZEOF_PTHREAD_T
# undef WORDS_BIGENDIAN
# undef DOUBLE_IS_ARM_MIXED_ENDIAN_IEEE754
# undef DOUBLE_IS_BIG_ENDIAN_IEEE754
# undef DOUBLE_IS_LITTLE_ENDIAN_IEEE754
# undef HAVE_GCC_ASM_FOR_X87
# undef VA_LIST_IS_ARRAY
# if defined(__LP64__) && defined(__x86_64__)
# define VA_LIST_IS_ARRAY 1
# endif
# undef HAVE_LARGEFILE_SUPPORT
# ifndef __LP64__
# define HAVE_LARGEFILE_SUPPORT 1
# endif
# undef SIZEOF_LONG
# ifdef __LP64__
# define SIZEOF__BOOL 1
# define SIZEOF__BOOL 1
# define SIZEOF_LONG 8
# define SIZEOF_PTHREAD_T 8
# define SIZEOF_SIZE_T 8
# define SIZEOF_TIME_T 8
# define SIZEOF_VOID_P 8
# define SIZEOF_UINTPTR_T 8
# define SIZEOF_PTHREAD_T 8
# else
# ifdef __ppc__
# define SIZEOF__BOOL 4
# else
# define SIZEOF__BOOL 1
# endif
# define SIZEOF_LONG 4
# define SIZEOF_PTHREAD_T 4
# define SIZEOF_SIZE_T 4
# define SIZEOF_TIME_T 4
# define SIZEOF_VOID_P 4
# define SIZEOF_UINTPTR_T 4
# define SIZEOF_PTHREAD_T 4
# endif
# if defined(__LP64__)
/* MacOSX 10.4 (the first release to support 64-bit code
* at all) only supports 64-bit in the UNIX layer.
* Therefore suppress the toolbox-glue in 64-bit mode.
*/
/* In 64-bit mode setpgrp always has no arguments, in 32-bit
* mode that depends on the compilation environment
*/
# undef SETPGRP_HAVE_ARG
# endif
#ifdef __BIG_ENDIAN__
#define WORDS_BIGENDIAN 1
#define DOUBLE_IS_BIG_ENDIAN_IEEE754
#else
#define DOUBLE_IS_LITTLE_ENDIAN_IEEE754
#endif /* __BIG_ENDIAN */
#ifdef __i386__
# define HAVE_GCC_ASM_FOR_X87
#endif
/*
* The definition in pyconfig.h is only valid on the OS release
* where configure ran on and not necessarily for all systems where
* the executable can be used on.
*
* Specifically: OSX 10.4 has limited supported for '%zd', while
* 10.5 has full support for '%zd'. A binary built on 10.5 won't
* work properly on 10.4 unless we suppress the definition
* of PY_FORMAT_SIZE_T
*/
#undef PY_FORMAT_SIZE_T
#endif /* defined(_APPLE__) */
#endif /* PYMACCONFIG_H */
Raw
Frikr_Include_pymacro.h
#ifndef Py_PYMACRO_H
#define Py_PYMACRO_H
/* Minimum value between x and y */
#define Py_MIN(x, y) (((x) > (y)) ? (y) : (x))
/* Maximum value between x and y */
#define Py_MAX(x, y) (((x) > (y)) ? (x) : (y))
/* Absolute value of the number x */
#define Py_ABS(x) ((x) < 0 ? -(x) : (x))
#define _Py_XSTRINGIFY(x) #x
/* Convert the argument to a string. For example, Py_STRINGIFY(123) is replaced
with "123" by the preprocessor. Defines are also replaced by their value.
For example Py_STRINGIFY(__LINE__) is replaced by the line number, not
by "__LINE__". */
#define Py_STRINGIFY(x) _Py_XSTRINGIFY(x)
/* Get the size of a structure member in bytes */
#define Py_MEMBER_SIZE(type, member) sizeof(((type *)0)->member)
/* Argument must be a char or an int in [-128, 127] or [0, 255]. */
#define Py_CHARMASK(c) ((unsigned char)((c) & 0xff))
/* Assert a build-time dependency, as an expression.
Your compile will fail if the condition isn't true, or can't be evaluated
by the compiler. This can be used in an expression: its value is 0.
Example:
#define foo_to_char(foo) \
((char *)(foo) \
+ Py_BUILD_ASSERT_EXPR(offsetof(struct foo, string) == 0))
Written by Rusty Russell, public domain, http://ccodearchive.net/ */
#define Py_BUILD_ASSERT_EXPR(cond) \
(sizeof(char [1 - 2*!(cond)]) - 1)
#define Py_BUILD_ASSERT(cond) do { \
(void)Py_BUILD_ASSERT_EXPR(cond); \
} while(0)
/* Get the number of elements in a visible array
This does not work on pointers, or arrays declared as [], or function
parameters. With correct compiler support, such usage will cause a build
error (see Py_BUILD_ASSERT_EXPR).
Written by Rusty Russell, public domain, http://ccodearchive.net/
Requires at GCC 3.1+ */
#if (defined(__GNUC__) && !defined(__STRICT_ANSI__) && \
(((__GNUC__ == 3) && (__GNU_MINOR__ >= 1)) || (__GNUC__ >= 4)))
/* Two gcc extensions.
&a[0] degrades to a pointer: a different type from an array */
#define Py_ARRAY_LENGTH(array) \
(sizeof(array) / sizeof((array)[0]) \
+ Py_BUILD_ASSERT_EXPR(!__builtin_types_compatible_p(typeof(array), \
typeof(&(array)[0]))))
#else
#define Py_ARRAY_LENGTH(array) \
(sizeof(array) / sizeof((array)[0]))
#endif
/* Define macros for inline documentation. */
#define PyDoc_VAR(name) static char name[]
#define PyDoc_STRVAR(name,str) PyDoc_VAR(name) = PyDoc_STR(str)
#ifdef WITH_DOC_STRINGS
#define PyDoc_STR(str) str
#else
#define PyDoc_STR(str) ""
#endif
/* Below "a" is a power of 2. */
/* Round down size "n" to be a multiple of "a". */
#define _Py_SIZE_ROUND_DOWN(n, a) ((size_t)(n) & ~(size_t)((a) - 1))
/* Round up size "n" to be a multiple of "a". */
#define _Py_SIZE_ROUND_UP(n, a) (((size_t)(n) + \
(size_t)((a) - 1)) & ~(size_t)((a) - 1))
/* Round pointer "p" down to the closest "a"-aligned address <= "p". */
#define _Py_ALIGN_DOWN(p, a) ((void *)((uintptr_t)(p) & ~(uintptr_t)((a) - 1)))
/* Round pointer "p" up to the closest "a"-aligned address >= "p". */
#define _Py_ALIGN_UP(p, a) ((void *)(((uintptr_t)(p) + \
(uintptr_t)((a) - 1)) & ~(uintptr_t)((a) - 1)))
/* Check if pointer "p" is aligned to "a"-bytes boundary. */
#define _Py_IS_ALIGNED(p, a) (!((uintptr_t)(p) & (uintptr_t)((a) - 1)))
#ifdef __GNUC__
#define Py_UNUSED(name) _unused_ ## name __attribute__((unused))
#else
#define Py_UNUSED(name) _unused_ ## name
#endif
#endif /* Py_PYMACRO_H */
Raw
Frikr_Include_pymath.h
#ifndef Py_PYMATH_H
#define Py_PYMATH_H
#include "pyconfig.h" /* include for defines */
/**************************************************************************
Symbols and macros to supply platform-independent interfaces to mathematical
functions and constants
**************************************************************************/
/* Python provides implementations for copysign, round and hypot in
* Python/pymath.c just in case your math library doesn't provide the
* functions.
*
*Note: PC/pyconfig.h defines copysign as _copysign
*/
#ifndef HAVE_COPYSIGN
extern double copysign(double, double);
#endif
#ifndef HAVE_ROUND
extern double round(double);
#endif
#ifndef HAVE_HYPOT
extern double hypot(double, double);
#endif
/* extra declarations */
#ifndef _MSC_VER
#ifndef __STDC__
extern double fmod (double, double);
extern double frexp (double, int *);
extern double ldexp (double, int);
extern double modf (double, double *);
extern double pow(double, double);
#endif /* __STDC__ */
#endif /* _MSC_VER */
/* High precision definition of pi and e (Euler)
* The values are taken from libc6's math.h.
*/
#ifndef Py_MATH_PIl
#define Py_MATH_PIl 3.1415926535897932384626433832795029L
#endif
#ifndef Py_MATH_PI
#define Py_MATH_PI 3.14159265358979323846
#endif
#ifndef Py_MATH_El
#define Py_MATH_El 2.7182818284590452353602874713526625L
#endif
#ifndef Py_MATH_E
#define Py_MATH_E 2.7182818284590452354
#endif
/* Tau (2pi) to 40 digits, taken from tauday.com/tau-digits. */
#ifndef Py_MATH_TAU
#define Py_MATH_TAU 6.2831853071795864769252867665590057683943L
#endif
/* On x86, Py_FORCE_DOUBLE forces a floating-point number out of an x87 FPU
register and into a 64-bit memory location, rounding from extended
precision to double precision in the process. On other platforms it does
nothing. */
/* we take double rounding as evidence of x87 usage */
#ifndef Py_LIMITED_API
#ifndef Py_FORCE_DOUBLE
# ifdef X87_DOUBLE_ROUNDING
PyAPI_FUNC(double) _Py_force_double(double);
# define Py_FORCE_DOUBLE(X) (_Py_force_double(X))
# else
# define Py_FORCE_DOUBLE(X) (X)
# endif
#endif
#endif
#ifndef Py_LIMITED_API
#ifdef HAVE_GCC_ASM_FOR_X87
PyAPI_FUNC(unsigned short) _Py_get_387controlword(void);
PyAPI_FUNC(void) _Py_set_387controlword(unsigned short);
#endif
#endif
/* Py_IS_NAN(X)
* Return 1 if float or double arg is a NaN, else 0.
* Caution:
* X is evaluated more than once.
* This may not work on all platforms. Each platform has *some*
* way to spell this, though -- override in pyconfig.h if you have
* a platform where it doesn't work.
* Note: PC/pyconfig.h defines Py_IS_NAN as _isnan
*/
#ifndef Py_IS_NAN
#if defined HAVE_DECL_ISNAN && HAVE_DECL_ISNAN == 1
#define Py_IS_NAN(X) isnan(X)
#else
#define Py_IS_NAN(X) ((X) != (X))
#endif
#endif
/* Py_IS_INFINITY(X)
* Return 1 if float or double arg is an infinity, else 0.
* Caution:
* X is evaluated more than once.
* This implementation may set the underflow flag if |X| is very small;
* it really can't be implemented correctly (& easily) before C99.
* Override in pyconfig.h if you have a better spelling on your platform.
* Py_FORCE_DOUBLE is used to avoid getting false negatives from a
* non-infinite value v sitting in an 80-bit x87 register such that
* v becomes infinite when spilled from the register to 64-bit memory.
* Note: PC/pyconfig.h defines Py_IS_INFINITY as _isinf
*/
#ifndef Py_IS_INFINITY
# if defined HAVE_DECL_ISINF && HAVE_DECL_ISINF == 1
# define Py_IS_INFINITY(X) isinf(X)
# else
# define Py_IS_INFINITY(X) ((X) && \
(Py_FORCE_DOUBLE(X)*0.5 == Py_FORCE_DOUBLE(X)))
# endif
#endif
/* Py_IS_FINITE(X)
* Return 1 if float or double arg is neither infinite nor NAN, else 0.
* Some compilers (e.g. VisualStudio) have intrisics for this, so a special
* macro for this particular test is useful
* Note: PC/pyconfig.h defines Py_IS_FINITE as _finite
*/
#ifndef Py_IS_FINITE
#if defined HAVE_DECL_ISFINITE && HAVE_DECL_ISFINITE == 1
#define Py_IS_FINITE(X) isfinite(X)
#elif defined HAVE_FINITE
#define Py_IS_FINITE(X) finite(X)
#else
#define Py_IS_FINITE(X) (!Py_IS_INFINITY(X) && !Py_IS_NAN(X))
#endif
#endif
/* HUGE_VAL is supposed to expand to a positive double infinity. Python
* uses Py_HUGE_VAL instead because some platforms are broken in this
* respect. We used to embed code in pyport.h to try to worm around that,
* but different platforms are broken in conflicting ways. If you're on
* a platform where HUGE_VAL is defined incorrectly, fiddle your Python
* config to #define Py_HUGE_VAL to something that works on your platform.
*/
#ifndef Py_HUGE_VAL
#define Py_HUGE_VAL HUGE_VAL
#endif
/* Py_NAN
* A value that evaluates to a NaN. On IEEE 754 platforms INF*0 or
* INF/INF works. Define Py_NO_NAN in pyconfig.h if your platform
* doesn't support NaNs.
*/
#if !defined(Py_NAN) && !defined(Py_NO_NAN)
#if !defined(__INTEL_COMPILER)
#define Py_NAN (Py_HUGE_VAL * 0.)
#else /* __INTEL_COMPILER */
#if defined(ICC_NAN_STRICT)
#pragma float_control(push)
#pragma float_control(precise, on)
#pragma float_control(except, on)
#if defined(_MSC_VER)
__declspec(noinline)
#else /* Linux */
__attribute__((noinline))
#endif /* _MSC_VER */
static double __icc_nan()
{
return sqrt(-1.0);
}
#pragma float_control (pop)
#define Py_NAN __icc_nan()
#else /* ICC_NAN_RELAXED as default for Intel Compiler */
static const union { unsigned char buf[8]; double __icc_nan; } __nan_store = {0,0,0,0,0,0,0xf8,0x7f};
#define Py_NAN (__nan_store.__icc_nan)
#endif /* ICC_NAN_STRICT */
#endif /* __INTEL_COMPILER */
#endif
/* Py_OVERFLOWED(X)
* Return 1 iff a libm function overflowed. Set errno to 0 before calling
* a libm function, and invoke this macro after, passing the function
* result.
* Caution:
* This isn't reliable. C99 no longer requires libm to set errno under
* any exceptional condition, but does require +- HUGE_VAL return
* values on overflow. A 754 box *probably* maps HUGE_VAL to a
* double infinity, and we're cool if that's so, unless the input
* was an infinity and an infinity is the expected result. A C89
* system sets errno to ERANGE, so we check for that too. We're
* out of luck if a C99 754 box doesn't map HUGE_VAL to +Inf, or
* if the returned result is a NaN, or if a C89 box returns HUGE_VAL
* in non-overflow cases.
* X is evaluated more than once.
* Some platforms have better way to spell this, so expect some #ifdef'ery.
*
* OpenBSD uses 'isinf()' because a compiler bug on that platform causes
* the longer macro version to be mis-compiled. This isn't optimal, and
* should be removed once a newer compiler is available on that platform.
* The system that had the failure was running OpenBSD 3.2 on Intel, with
* gcc 2.95.3.
*
* According to Tim's checkin, the FreeBSD systems use isinf() to work
* around a FPE bug on that platform.
*/
#if defined(__FreeBSD__) || defined(__OpenBSD__)
#define Py_OVERFLOWED(X) isinf(X)
#else
#define Py_OVERFLOWED(X) ((X) != 0.0 && (errno == ERANGE || \
(X) == Py_HUGE_VAL || \
(X) == -Py_HUGE_VAL))
#endif
#endif /* Py_PYMATH_H */
Raw
Frikr_Include_pymem.h
/* The PyMem_ family: low-level memory allocation interfaces.
See objimpl.h for the PyObject_ memory family.
*/
#ifndef Py_PYMEM_H
#define Py_PYMEM_H
#include "pyport.h"
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
PyAPI_FUNC(void *) PyMem_RawMalloc(size_t size);
PyAPI_FUNC(void *) PyMem_RawCalloc(size_t nelem, size_t elsize);
PyAPI_FUNC(void *) PyMem_RawRealloc(void *ptr, size_t new_size);
PyAPI_FUNC(void) PyMem_RawFree(void *ptr);
/* Configure the Python memory allocators. Pass NULL to use default
allocators. */
PyAPI_FUNC(int) _PyMem_SetupAllocators(const char *opt);
#ifdef WITH_PYMALLOC
PyAPI_FUNC(int) _PyMem_PymallocEnabled(void);
#endif
/* Identifier of an address space (domain) in tracemalloc */
typedef unsigned int _PyTraceMalloc_domain_t;
/* Track an allocated memory block in the tracemalloc module.
Return 0 on success, return -1 on error (failed to allocate memory to store
the trace).
Return -2 if tracemalloc is disabled.
If memory block is already tracked, update the existing trace. */
PyAPI_FUNC(int) _PyTraceMalloc_Track(
_PyTraceMalloc_domain_t domain,
uintptr_t ptr,
size_t size);
/* Untrack an allocated memory block in the tracemalloc module.
Do nothing if the block was not tracked.
Return -2 if tracemalloc is disabled, otherwise return 0. */
PyAPI_FUNC(int) _PyTraceMalloc_Untrack(
_PyTraceMalloc_domain_t domain,
uintptr_t ptr);
/* Get the traceback where a memory block was allocated.
Return a tuple of (filename: str, lineno: int) tuples.
Return None if the tracemalloc module is disabled or if the memory block
is not tracked by tracemalloc.
Raise an exception and return NULL on error. */
PyAPI_FUNC(PyObject*) _PyTraceMalloc_GetTraceback(
_PyTraceMalloc_domain_t domain,
uintptr_t ptr);
#endif /* !Py_LIMITED_API */
/* BEWARE:
Each interface exports both functions and macros. Extension modules should
use the functions, to ensure binary compatibility across Python versions.
Because the Python implementation is free to change internal details, and
the macros may (or may not) expose details for speed, if you do use the
macros you must recompile your extensions with each Python release.
Never mix calls to PyMem_ with calls to the platform malloc/realloc/
calloc/free. For example, on Windows different DLLs may end up using
different heaps, and if you use PyMem_Malloc you'll get the memory from the
heap used by the Python DLL; it could be a disaster if you free()'ed that
directly in your own extension. Using PyMem_Free instead ensures Python
can return the memory to the proper heap. As another example, in
PYMALLOC_DEBUG mode, Python wraps all calls to all PyMem_ and PyObject_
memory functions in special debugging wrappers that add additional
debugging info to dynamic memory blocks. The system routines have no idea
what to do with that stuff, and the Python wrappers have no idea what to do
with raw blocks obtained directly by the system routines then.
The GIL must be held when using these APIs.
*/
/*
* Raw memory interface
* ====================
*/
/* Functions
Functions supplying platform-independent semantics for malloc/realloc/
free. These functions make sure that allocating 0 bytes returns a distinct
non-NULL pointer (whenever possible -- if we're flat out of memory, NULL
may be returned), even if the platform malloc and realloc don't.
Returned pointers must be checked for NULL explicitly. No action is
performed on failure (no exception is set, no warning is printed, etc).
*/
PyAPI_FUNC(void *) PyMem_Malloc(size_t size);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
PyAPI_FUNC(void *) PyMem_Calloc(size_t nelem, size_t elsize);
#endif
PyAPI_FUNC(void *) PyMem_Realloc(void *ptr, size_t new_size);
PyAPI_FUNC(void) PyMem_Free(void *ptr);
#ifndef Py_LIMITED_API
PyAPI_FUNC(char *) _PyMem_RawStrdup(const char *str);
PyAPI_FUNC(char *) _PyMem_Strdup(const char *str);
#endif
/* Macros. */
/* PyMem_MALLOC(0) means malloc(1). Some systems would return NULL
for malloc(0), which would be treated as an error. Some platforms
would return a pointer with no memory behind it, which would break
pymalloc. To solve these problems, allocate an extra byte. */
/* Returns NULL to indicate error if a negative size or size larger than
Py_ssize_t can represent is supplied. Helps prevents security holes. */
#define PyMem_MALLOC(n) PyMem_Malloc(n)
#define PyMem_REALLOC(p, n) PyMem_Realloc(p, n)
#define PyMem_FREE(p) PyMem_Free(p)
/*
* Type-oriented memory interface
* ==============================
*
* Allocate memory for n objects of the given type. Returns a new pointer
* or NULL if the request was too large or memory allocation failed. Use
* these macros rather than doing the multiplication yourself so that proper
* overflow checking is always done.
*/
#define PyMem_New(type, n) \
( ((size_t)(n) > PY_SSIZE_T_MAX / sizeof(type)) ? NULL : \
( (type *) PyMem_Malloc((n) * sizeof(type)) ) )
#define PyMem_NEW(type, n) \
( ((size_t)(n) > PY_SSIZE_T_MAX / sizeof(type)) ? NULL : \
( (type *) PyMem_MALLOC((n) * sizeof(type)) ) )
/*
* The value of (p) is always clobbered by this macro regardless of success.
* The caller MUST check if (p) is NULL afterwards and deal with the memory
* error if so. This means the original value of (p) MUST be saved for the
* caller's memory error handler to not lose track of it.
*/
#define PyMem_Resize(p, type, n) \
( (p) = ((size_t)(n) > PY_SSIZE_T_MAX / sizeof(type)) ? NULL : \
(type *) PyMem_Realloc((p), (n) * sizeof(type)) )
#define PyMem_RESIZE(p, type, n) \
( (p) = ((size_t)(n) > PY_SSIZE_T_MAX / sizeof(type)) ? NULL : \
(type *) PyMem_REALLOC((p), (n) * sizeof(type)) )
/* PyMem{Del,DEL} are left over from ancient days, and shouldn't be used
* anymore. They're just confusing aliases for PyMem_{Free,FREE} now.
*/
#define PyMem_Del PyMem_Free
#define PyMem_DEL PyMem_FREE
#ifndef Py_LIMITED_API
typedef enum {
/* PyMem_RawMalloc(), PyMem_RawRealloc() and PyMem_RawFree() */
PYMEM_DOMAIN_RAW,
/* PyMem_Malloc(), PyMem_Realloc() and PyMem_Free() */
PYMEM_DOMAIN_MEM,
/* PyObject_Malloc(), PyObject_Realloc() and PyObject_Free() */
PYMEM_DOMAIN_OBJ
} PyMemAllocatorDomain;
typedef struct {
/* user context passed as the first argument to the 4 functions */
void *ctx;
/* allocate a memory block */
void* (*malloc) (void *ctx, size_t size);
/* allocate a memory block initialized by zeros */
void* (*calloc) (void *ctx, size_t nelem, size_t elsize);
/* allocate or resize a memory block */
void* (*realloc) (void *ctx, void *ptr, size_t new_size);
/* release a memory block */
void (*free) (void *ctx, void *ptr);
} PyMemAllocatorEx;
/* Get the memory block allocator of the specified domain. */
PyAPI_FUNC(void) PyMem_GetAllocator(PyMemAllocatorDomain domain,
PyMemAllocatorEx *allocator);
/* Set the memory block allocator of the specified domain.
The new allocator must return a distinct non-NULL pointer when requesting
zero bytes.
For the PYMEM_DOMAIN_RAW domain, the allocator must be thread-safe: the GIL
is not held when the allocator is called.
If the new allocator is not a hook (don't call the previous allocator), the
PyMem_SetupDebugHooks() function must be called to reinstall the debug hooks
on top on the new allocator. */
PyAPI_FUNC(void) PyMem_SetAllocator(PyMemAllocatorDomain domain,
PyMemAllocatorEx *allocator);
/* Setup hooks to detect bugs in the following Python memory allocator
functions:
- PyMem_RawMalloc(), PyMem_RawRealloc(), PyMem_RawFree()
- PyMem_Malloc(), PyMem_Realloc(), PyMem_Free()
- PyObject_Malloc(), PyObject_Realloc() and PyObject_Free()
Newly allocated memory is filled with the byte 0xCB, freed memory is filled
with the byte 0xDB. Additionnal checks:
- detect API violations, ex: PyObject_Free() called on a buffer allocated
by PyMem_Malloc()
- detect write before the start of the buffer (buffer underflow)
- detect write after the end of the buffer (buffer overflow)
The function does nothing if Python is not compiled is debug mode. */
PyAPI_FUNC(void) PyMem_SetupDebugHooks(void);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_PYMEM_H */
Raw
Frikr_Include_pyport.h
#ifndef Py_PYPORT_H
#define Py_PYPORT_H
#include "pyconfig.h" /* include for defines */
#include <inttypes.h>
/**************************************************************************
Symbols and macros to supply platform-independent interfaces to basic
C language & library operations whose spellings vary across platforms.
Please try to make documentation here as clear as possible: by definition,
the stuff here is trying to illuminate C's darkest corners.
Config #defines referenced here:
SIGNED_RIGHT_SHIFT_ZERO_FILLS
Meaning: To be defined iff i>>j does not extend the sign bit when i is a
signed integral type and i < 0.
Used in: Py_ARITHMETIC_RIGHT_SHIFT
Py_DEBUG
Meaning: Extra checks compiled in for debug mode.
Used in: Py_SAFE_DOWNCAST
**************************************************************************/
/* typedefs for some C9X-defined synonyms for integral types.
*
* The names in Python are exactly the same as the C9X names, except with a
* Py_ prefix. Until C9X is universally implemented, this is the only way
* to ensure that Python gets reliable names that don't conflict with names
* in non-Python code that are playing their own tricks to define the C9X
* names.
*
* NOTE: don't go nuts here! Python has no use for *most* of the C9X
* integral synonyms. Only define the ones we actually need.
*/
/* long long is required. Ensure HAVE_LONG_LONG is defined for compatibility. */
#ifndef HAVE_LONG_LONG
#define HAVE_LONG_LONG 1
#endif
#ifndef PY_LONG_LONG
#define PY_LONG_LONG long long
/* If LLONG_MAX is defined in limits.h, use that. */
#define PY_LLONG_MIN LLONG_MIN
#define PY_LLONG_MAX LLONG_MAX
#define PY_ULLONG_MAX ULLONG_MAX
#endif
#define PY_UINT32_T uint32_t
#define PY_UINT64_T uint64_t
/* Signed variants of the above */
#define PY_INT32_T int32_t
#define PY_INT64_T int64_t
/* If PYLONG_BITS_IN_DIGIT is not defined then we'll use 30-bit digits if all
the necessary integer types are available, and we're on a 64-bit platform
(as determined by SIZEOF_VOID_P); otherwise we use 15-bit digits. */
#ifndef PYLONG_BITS_IN_DIGIT
#if SIZEOF_VOID_P >= 8
#define PYLONG_BITS_IN_DIGIT 30
#else
#define PYLONG_BITS_IN_DIGIT 15
#endif
#endif
/* uintptr_t is the C9X name for an unsigned integral type such that a
* legitimate void* can be cast to uintptr_t and then back to void* again
* without loss of information. Similarly for intptr_t, wrt a signed
* integral type.
*/
typedef uintptr_t Py_uintptr_t;
typedef intptr_t Py_intptr_t;
/* Py_ssize_t is a signed integral type such that sizeof(Py_ssize_t) ==
* sizeof(size_t). C99 doesn't define such a thing directly (size_t is an
* unsigned integral type). See PEP 353 for details.
*/
#ifdef HAVE_SSIZE_T
typedef ssize_t Py_ssize_t;
#elif SIZEOF_VOID_P == SIZEOF_SIZE_T
typedef Py_intptr_t Py_ssize_t;
#else
# error "Python needs a typedef for Py_ssize_t in pyport.h."
#endif
/* Py_hash_t is the same size as a pointer. */
#define SIZEOF_PY_HASH_T SIZEOF_SIZE_T
typedef Py_ssize_t Py_hash_t;
/* Py_uhash_t is the unsigned equivalent needed to calculate numeric hash. */
#define SIZEOF_PY_UHASH_T SIZEOF_SIZE_T
typedef size_t Py_uhash_t;
/* Only used for compatibility with code that may not be PY_SSIZE_T_CLEAN. */
#ifdef PY_SSIZE_T_CLEAN
typedef Py_ssize_t Py_ssize_clean_t;
#else
typedef int Py_ssize_clean_t;
#endif
/* Largest possible value of size_t. */
#define PY_SIZE_MAX SIZE_MAX
/* Largest positive value of type Py_ssize_t. */
#define PY_SSIZE_T_MAX ((Py_ssize_t)(((size_t)-1)>>1))
/* Smallest negative value of type Py_ssize_t. */
#define PY_SSIZE_T_MIN (-PY_SSIZE_T_MAX-1)
/* PY_FORMAT_SIZE_T is a platform-specific modifier for use in a printf
* format to convert an argument with the width of a size_t or Py_ssize_t.
* C99 introduced "z" for this purpose, but not all platforms support that;
* e.g., MS compilers use "I" instead.
*
* These "high level" Python format functions interpret "z" correctly on
* all platforms (Python interprets the format string itself, and does whatever
* the platform C requires to convert a size_t/Py_ssize_t argument):
*
* PyBytes_FromFormat
* PyErr_Format
* PyBytes_FromFormatV
* PyUnicode_FromFormatV
*
* Lower-level uses require that you interpolate the correct format modifier
* yourself (e.g., calling printf, fprintf, sprintf, PyOS_snprintf); for
* example,
*
* Py_ssize_t index;
* fprintf(stderr, "index %" PY_FORMAT_SIZE_T "d sucks\n", index);
*
* That will expand to %ld, or %Id, or to something else correct for a
* Py_ssize_t on the platform.
*/
#ifndef PY_FORMAT_SIZE_T
# if SIZEOF_SIZE_T == SIZEOF_INT && !defined(__APPLE__)
# define PY_FORMAT_SIZE_T ""
# elif SIZEOF_SIZE_T == SIZEOF_LONG
# define PY_FORMAT_SIZE_T "l"
# elif defined(MS_WINDOWS)
# define PY_FORMAT_SIZE_T "I"
# else
# error "This platform's pyconfig.h needs to define PY_FORMAT_SIZE_T"
# endif
#endif
/* Py_LOCAL can be used instead of static to get the fastest possible calling
* convention for functions that are local to a given module.
*
* Py_LOCAL_INLINE does the same thing, and also explicitly requests inlining,
* for platforms that support that.
*
* If PY_LOCAL_AGGRESSIVE is defined before python.h is included, more
* "aggressive" inlining/optimization is enabled for the entire module. This
* may lead to code bloat, and may slow things down for those reasons. It may
* also lead to errors, if the code relies on pointer aliasing. Use with
* care.
*
* NOTE: You can only use this for functions that are entirely local to a
* module; functions that are exported via method tables, callbacks, etc,
* should keep using static.
*/
#if defined(_MSC_VER)
#if defined(PY_LOCAL_AGGRESSIVE)
/* enable more aggressive optimization for visual studio */
#pragma optimize("agtw", on)
#endif
/* ignore warnings if the compiler decides not to inline a function */
#pragma warning(disable: 4710)
/* fastest possible local call under MSVC */
#define Py_LOCAL(type) static type __fastcall
#define Py_LOCAL_INLINE(type) static __inline type __fastcall
#elif defined(USE_INLINE)
#define Py_LOCAL(type) static type
#define Py_LOCAL_INLINE(type) static inline type
#else
#define Py_LOCAL(type) static type
#define Py_LOCAL_INLINE(type) static type
#endif
/* Py_MEMCPY is kept for backwards compatibility,
* see https://bugs.python.org/issue28126 */
#define Py_MEMCPY memcpy
#include <stdlib.h>
#ifdef HAVE_IEEEFP_H
#include <ieeefp.h> /* needed for 'finite' declaration on some platforms */
#endif
#include <math.h> /* Moved here from the math section, before extern "C" */
/********************************************
* WRAPPER FOR <time.h> and/or <sys/time.h> *
********************************************/
#ifdef TIME_WITH_SYS_TIME
#include <sys/time.h>
#include <time.h>
#else /* !TIME_WITH_SYS_TIME */
#ifdef HAVE_SYS_TIME_H
#include <sys/time.h>
#else /* !HAVE_SYS_TIME_H */
#include <time.h>
#endif /* !HAVE_SYS_TIME_H */
#endif /* !TIME_WITH_SYS_TIME */
/******************************
* WRAPPER FOR <sys/select.h> *
******************************/
/* NB caller must include <sys/types.h> */
#ifdef HAVE_SYS_SELECT_H
#include <sys/select.h>
#endif /* !HAVE_SYS_SELECT_H */
/*******************************
* stat() and fstat() fiddling *
*******************************/
#ifdef HAVE_SYS_STAT_H
#include <sys/stat.h>
#elif defined(HAVE_STAT_H)
#include <stat.h>
#endif
#ifndef S_IFMT
/* VisualAge C/C++ Failed to Define MountType Field in sys/stat.h */
#define S_IFMT 0170000
#endif
#ifndef S_IFLNK
/* Windows doesn't define S_IFLNK but posixmodule.c maps
* IO_REPARSE_TAG_SYMLINK to S_IFLNK */
# define S_IFLNK 0120000
#endif
#ifndef S_ISREG
#define S_ISREG(x) (((x) & S_IFMT) == S_IFREG)
#endif
#ifndef S_ISDIR
#define S_ISDIR(x) (((x) & S_IFMT) == S_IFDIR)
#endif
#ifndef S_ISCHR
#define S_ISCHR(x) (((x) & S_IFMT) == S_IFCHR)
#endif
#ifdef __cplusplus
/* Move this down here since some C++ #include's don't like to be included
inside an extern "C" */
extern "C" {
#endif
/* Py_ARITHMETIC_RIGHT_SHIFT
* C doesn't define whether a right-shift of a signed integer sign-extends
* or zero-fills. Here a macro to force sign extension:
* Py_ARITHMETIC_RIGHT_SHIFT(TYPE, I, J)
* Return I >> J, forcing sign extension. Arithmetically, return the
* floor of I/2**J.
* Requirements:
* I should have signed integer type. In the terminology of C99, this can
* be either one of the five standard signed integer types (signed char,
* short, int, long, long long) or an extended signed integer type.
* J is an integer >= 0 and strictly less than the number of bits in the
* type of I (because C doesn't define what happens for J outside that
* range either).
* TYPE used to specify the type of I, but is now ignored. It's been left
* in for backwards compatibility with versions <= 2.6 or 3.0.
* Caution:
* I may be evaluated more than once.
*/
#ifdef SIGNED_RIGHT_SHIFT_ZERO_FILLS
#define Py_ARITHMETIC_RIGHT_SHIFT(TYPE, I, J) \
((I) < 0 ? -1-((-1-(I)) >> (J)) : (I) >> (J))
#else
#define Py_ARITHMETIC_RIGHT_SHIFT(TYPE, I, J) ((I) >> (J))
#endif
/* Py_FORCE_EXPANSION(X)
* "Simply" returns its argument. However, macro expansions within the
* argument are evaluated. This unfortunate trickery is needed to get
* token-pasting to work as desired in some cases.
*/
#define Py_FORCE_EXPANSION(X) X
/* Py_SAFE_DOWNCAST(VALUE, WIDE, NARROW)
* Cast VALUE to type NARROW from type WIDE. In Py_DEBUG mode, this
* assert-fails if any information is lost.
* Caution:
* VALUE may be evaluated more than once.
*/
#ifdef Py_DEBUG
#define Py_SAFE_DOWNCAST(VALUE, WIDE, NARROW) \
(assert((WIDE)(NARROW)(VALUE) == (VALUE)), (NARROW)(VALUE))
#else
#define Py_SAFE_DOWNCAST(VALUE, WIDE, NARROW) (NARROW)(VALUE)
#endif
/* Py_SET_ERRNO_ON_MATH_ERROR(x)
* If a libm function did not set errno, but it looks like the result
* overflowed or not-a-number, set errno to ERANGE or EDOM. Set errno
* to 0 before calling a libm function, and invoke this macro after,
* passing the function result.
* Caution:
* This isn't reliable. See Py_OVERFLOWED comments.
* X is evaluated more than once.
*/
#if defined(__FreeBSD__) || defined(__OpenBSD__) || (defined(__hpux) && defined(__ia64))
#define _Py_SET_EDOM_FOR_NAN(X) if (isnan(X)) errno = EDOM;
#else
#define _Py_SET_EDOM_FOR_NAN(X) ;
#endif
#define Py_SET_ERRNO_ON_MATH_ERROR(X) \
do { \
if (errno == 0) { \
if ((X) == Py_HUGE_VAL || (X) == -Py_HUGE_VAL) \
errno = ERANGE; \
else _Py_SET_EDOM_FOR_NAN(X) \
} \
} while(0)
/* Py_SET_ERANGE_ON_OVERFLOW(x)
* An alias of Py_SET_ERRNO_ON_MATH_ERROR for backward-compatibility.
*/
#define Py_SET_ERANGE_IF_OVERFLOW(X) Py_SET_ERRNO_ON_MATH_ERROR(X)
/* Py_ADJUST_ERANGE1(x)
* Py_ADJUST_ERANGE2(x, y)
* Set errno to 0 before calling a libm function, and invoke one of these
* macros after, passing the function result(s) (Py_ADJUST_ERANGE2 is useful
* for functions returning complex results). This makes two kinds of
* adjustments to errno: (A) If it looks like the platform libm set
* errno=ERANGE due to underflow, clear errno. (B) If it looks like the
* platform libm overflowed but didn't set errno, force errno to ERANGE. In
* effect, we're trying to force a useful implementation of C89 errno
* behavior.
* Caution:
* This isn't reliable. See Py_OVERFLOWED comments.
* X and Y may be evaluated more than once.
*/
#define Py_ADJUST_ERANGE1(X) \
do { \
if (errno == 0) { \
if ((X) == Py_HUGE_VAL || (X) == -Py_HUGE_VAL) \
errno = ERANGE; \
} \
else if (errno == ERANGE && (X) == 0.0) \
errno = 0; \
} while(0)
#define Py_ADJUST_ERANGE2(X, Y) \
do { \
if ((X) == Py_HUGE_VAL || (X) == -Py_HUGE_VAL || \
(Y) == Py_HUGE_VAL || (Y) == -Py_HUGE_VAL) { \
if (errno == 0) \
errno = ERANGE; \
} \
else if (errno == ERANGE) \
errno = 0; \
} while(0)
/* The functions _Py_dg_strtod and _Py_dg_dtoa in Python/dtoa.c (which are
* required to support the short float repr introduced in Python 3.1) require
* that the floating-point unit that's being used for arithmetic operations
* on C doubles is set to use 53-bit precision. It also requires that the
* FPU rounding mode is round-half-to-even, but that's less often an issue.
*
* If your FPU isn't already set to 53-bit precision/round-half-to-even, and
* you want to make use of _Py_dg_strtod and _Py_dg_dtoa, then you should
*
* #define HAVE_PY_SET_53BIT_PRECISION 1
*
* and also give appropriate definitions for the following three macros:
*
* _PY_SET_53BIT_PRECISION_START : store original FPU settings, and
* set FPU to 53-bit precision/round-half-to-even
* _PY_SET_53BIT_PRECISION_END : restore original FPU settings
* _PY_SET_53BIT_PRECISION_HEADER : any variable declarations needed to
* use the two macros above.
*
* The macros are designed to be used within a single C function: see
* Python/pystrtod.c for an example of their use.
*/
/* get and set x87 control word for gcc/x86 */
#ifdef HAVE_GCC_ASM_FOR_X87
#define HAVE_PY_SET_53BIT_PRECISION 1
/* _Py_get/set_387controlword functions are defined in Python/pymath.c */
#define _Py_SET_53BIT_PRECISION_HEADER \
unsigned short old_387controlword, new_387controlword
#define _Py_SET_53BIT_PRECISION_START \
do { \
old_387controlword = _Py_get_387controlword(); \
new_387controlword = (old_387controlword & ~0x0f00) | 0x0200; \
if (new_387controlword != old_387controlword) \
_Py_set_387controlword(new_387controlword); \
} while (0)
#define _Py_SET_53BIT_PRECISION_END \
if (new_387controlword != old_387controlword) \
_Py_set_387controlword(old_387controlword)
#endif
/* get and set x87 control word for VisualStudio/x86 */
#if defined(_MSC_VER) && !defined(_WIN64) /* x87 not supported in 64-bit */
#define HAVE_PY_SET_53BIT_PRECISION 1
#define _Py_SET_53BIT_PRECISION_HEADER \
unsigned int old_387controlword, new_387controlword, out_387controlword
/* We use the __control87_2 function to set only the x87 control word.
The SSE control word is unaffected. */
#define _Py_SET_53BIT_PRECISION_START \
do { \
__control87_2(0, 0, &old_387controlword, NULL); \
new_387controlword = \
(old_387controlword & ~(_MCW_PC | _MCW_RC)) | (_PC_53 | _RC_NEAR); \
if (new_387controlword != old_387controlword) \
__control87_2(new_387controlword, _MCW_PC | _MCW_RC, \
&out_387controlword, NULL); \
} while (0)
#define _Py_SET_53BIT_PRECISION_END \
do { \
if (new_387controlword != old_387controlword) \
__control87_2(old_387controlword, _MCW_PC | _MCW_RC, \
&out_387controlword, NULL); \
} while (0)
#endif
#ifdef HAVE_GCC_ASM_FOR_MC68881
#define HAVE_PY_SET_53BIT_PRECISION 1
#define _Py_SET_53BIT_PRECISION_HEADER \
unsigned int old_fpcr, new_fpcr
#define _Py_SET_53BIT_PRECISION_START \
do { \
__asm__ ("fmove.l %%fpcr,%0" : "=g" (old_fpcr)); \
/* Set double precision / round to nearest. */ \
new_fpcr = (old_fpcr & ~0xf0) | 0x80; \
if (new_fpcr != old_fpcr) \
__asm__ volatile ("fmove.l %0,%%fpcr" : : "g" (new_fpcr)); \
} while (0)
#define _Py_SET_53BIT_PRECISION_END \
do { \
if (new_fpcr != old_fpcr) \
__asm__ volatile ("fmove.l %0,%%fpcr" : : "g" (old_fpcr)); \
} while (0)
#endif
/* default definitions are empty */
#ifndef HAVE_PY_SET_53BIT_PRECISION
#define _Py_SET_53BIT_PRECISION_HEADER
#define _Py_SET_53BIT_PRECISION_START
#define _Py_SET_53BIT_PRECISION_END
#endif
/* If we can't guarantee 53-bit precision, don't use the code
in Python/dtoa.c, but fall back to standard code. This
means that repr of a float will be long (17 sig digits).
Realistically, there are two things that could go wrong:
(1) doubles aren't IEEE 754 doubles, or
(2) we're on x86 with the rounding precision set to 64-bits
(extended precision), and we don't know how to change
the rounding precision.
*/
#if !defined(DOUBLE_IS_LITTLE_ENDIAN_IEEE754) && \
!defined(DOUBLE_IS_BIG_ENDIAN_IEEE754) && \
!defined(DOUBLE_IS_ARM_MIXED_ENDIAN_IEEE754)
#define PY_NO_SHORT_FLOAT_REPR
#endif
/* double rounding is symptomatic of use of extended precision on x86. If
we're seeing double rounding, and we don't have any mechanism available for
changing the FPU rounding precision, then don't use Python/dtoa.c. */
#if defined(X87_DOUBLE_ROUNDING) && !defined(HAVE_PY_SET_53BIT_PRECISION)
#define PY_NO_SHORT_FLOAT_REPR
#endif
/* Py_DEPRECATED(version)
* Declare a variable, type, or function deprecated.
* Usage:
* extern int old_var Py_DEPRECATED(2.3);
* typedef int T1 Py_DEPRECATED(2.4);
* extern int x() Py_DEPRECATED(2.5);
*/
#if defined(__GNUC__) && ((__GNUC__ >= 4) || \
(__GNUC__ == 3) && (__GNUC_MINOR__ >= 1))
#define Py_DEPRECATED(VERSION_UNUSED) __attribute__((__deprecated__))
#else
#define Py_DEPRECATED(VERSION_UNUSED)
#endif
/**************************************************************************
Prototypes that are missing from the standard include files on some systems
(and possibly only some versions of such systems.)
Please be conservative with adding new ones, document them and enclose them
in platform-specific #ifdefs.
**************************************************************************/
#ifdef SOLARIS
/* Unchecked */
extern int gethostname(char *, int);
#endif
#ifdef HAVE__GETPTY
#include <sys/types.h> /* we need to import mode_t */
extern char * _getpty(int *, int, mode_t, int);
#endif
/* On QNX 6, struct termio must be declared by including sys/termio.h
if TCGETA, TCSETA, TCSETAW, or TCSETAF are used. sys/termio.h must
be included before termios.h or it will generate an error. */
#if defined(HAVE_SYS_TERMIO_H) && !defined(__hpux)
#include <sys/termio.h>
#endif
#if defined(HAVE_OPENPTY) || defined(HAVE_FORKPTY)
#if !defined(HAVE_PTY_H) && !defined(HAVE_LIBUTIL_H)
/* BSDI does not supply a prototype for the 'openpty' and 'forkpty'
functions, even though they are included in libutil. */
#include <termios.h>
extern int openpty(int *, int *, char *, struct termios *, struct winsize *);
extern pid_t forkpty(int *, char *, struct termios *, struct winsize *);
#endif /* !defined(HAVE_PTY_H) && !defined(HAVE_LIBUTIL_H) */
#endif /* defined(HAVE_OPENPTY) || defined(HAVE_FORKPTY) */
/* On 4.4BSD-descendants, ctype functions serves the whole range of
* wchar_t character set rather than single byte code points only.
* This characteristic can break some operations of string object
* including str.upper() and str.split() on UTF-8 locales. This
* workaround was provided by Tim Robbins of FreeBSD project.
*/
#ifdef __FreeBSD__
#include <osreldate.h>
#if (__FreeBSD_version >= 500040 && __FreeBSD_version < 602113) || \
(__FreeBSD_version >= 700000 && __FreeBSD_version < 700054) || \
(__FreeBSD_version >= 800000 && __FreeBSD_version < 800001)
# define _PY_PORT_CTYPE_UTF8_ISSUE
#endif
#endif
#if defined(__APPLE__)
# define _PY_PORT_CTYPE_UTF8_ISSUE
#endif
#ifdef _PY_PORT_CTYPE_UTF8_ISSUE
#ifndef __cplusplus
/* The workaround below is unsafe in C++ because
* the <locale> defines these symbols as real functions,
* with a slightly different signature.
* See issue #10910
*/
#include <ctype.h>
#include <wctype.h>
#undef isalnum
#define isalnum(c) iswalnum(btowc(c))
#undef isalpha
#define isalpha(c) iswalpha(btowc(c))
#undef islower
#define islower(c) iswlower(btowc(c))
#undef isspace
#define isspace(c) iswspace(btowc(c))
#undef isupper
#define isupper(c) iswupper(btowc(c))
#undef tolower
#define tolower(c) towlower(btowc(c))
#undef toupper
#define toupper(c) towupper(btowc(c))
#endif
#endif
/* Declarations for symbol visibility.
PyAPI_FUNC(type): Declares a public Python API function and return type
PyAPI_DATA(type): Declares public Python data and its type
PyMODINIT_FUNC: A Python module init function. If these functions are
inside the Python core, they are private to the core.
If in an extension module, it may be declared with
external linkage depending on the platform.
As a number of platforms support/require "__declspec(dllimport/dllexport)",
we support a HAVE_DECLSPEC_DLL macro to save duplication.
*/
/*
All windows ports, except cygwin, are handled in PC/pyconfig.h.
Cygwin is the only other autoconf platform requiring special
linkage handling and it uses __declspec().
*/
#if defined(__CYGWIN__)
# define HAVE_DECLSPEC_DLL
#endif
/* only get special linkage if built as shared or platform is Cygwin */
#if defined(Py_ENABLE_SHARED) || defined(__CYGWIN__)
# if defined(HAVE_DECLSPEC_DLL)
# ifdef Py_BUILD_CORE
# define PyAPI_FUNC(RTYPE) __declspec(dllexport) RTYPE
# define PyAPI_DATA(RTYPE) extern __declspec(dllexport) RTYPE
/* module init functions inside the core need no external linkage */
/* except for Cygwin to handle embedding */
# if defined(__CYGWIN__)
# define PyMODINIT_FUNC __declspec(dllexport) PyObject*
# else /* __CYGWIN__ */
# define PyMODINIT_FUNC PyObject*
# endif /* __CYGWIN__ */
# else /* Py_BUILD_CORE */
/* Building an extension module, or an embedded situation */
/* public Python functions and data are imported */
/* Under Cygwin, auto-import functions to prevent compilation */
/* failures similar to those described at the bottom of 4.1: */
/* http://docs.python.org/extending/windows.html#a-cookbook-approach */
# if !defined(__CYGWIN__)
# define PyAPI_FUNC(RTYPE) __declspec(dllimport) RTYPE
# endif /* !__CYGWIN__ */
# define PyAPI_DATA(RTYPE) extern __declspec(dllimport) RTYPE
/* module init functions outside the core must be exported */
# if defined(__cplusplus)
# define PyMODINIT_FUNC extern "C" __declspec(dllexport) PyObject*
# else /* __cplusplus */
# define PyMODINIT_FUNC __declspec(dllexport) PyObject*
# endif /* __cplusplus */
# endif /* Py_BUILD_CORE */
# endif /* HAVE_DECLSPEC */
#endif /* Py_ENABLE_SHARED */
/* If no external linkage macros defined by now, create defaults */
#ifndef PyAPI_FUNC
# define PyAPI_FUNC(RTYPE) RTYPE
#endif
#ifndef PyAPI_DATA
# define PyAPI_DATA(RTYPE) extern RTYPE
#endif
#ifndef PyMODINIT_FUNC
# if defined(__cplusplus)
# define PyMODINIT_FUNC extern "C" PyObject*
# else /* __cplusplus */
# define PyMODINIT_FUNC PyObject*
# endif /* __cplusplus */
#endif
/* limits.h constants that may be missing */
#ifndef INT_MAX
#define INT_MAX 2147483647
#endif
#ifndef LONG_MAX
#if SIZEOF_LONG == 4
#define LONG_MAX 0X7FFFFFFFL
#elif SIZEOF_LONG == 8
#define LONG_MAX 0X7FFFFFFFFFFFFFFFL
#else
#error "could not set LONG_MAX in pyport.h"
#endif
#endif
#ifndef LONG_MIN
#define LONG_MIN (-LONG_MAX-1)
#endif
#ifndef LONG_BIT
#define LONG_BIT (8 * SIZEOF_LONG)
#endif
#if LONG_BIT != 8 * SIZEOF_LONG
/* 04-Oct-2000 LONG_BIT is apparently (mis)defined as 64 on some recent
* 32-bit platforms using gcc. We try to catch that here at compile-time
* rather than waiting for integer multiplication to trigger bogus
* overflows.
*/
#error "LONG_BIT definition appears wrong for platform (bad gcc/glibc config?)."
#endif
#ifdef __cplusplus
}
#endif
/*
* Hide GCC attributes from compilers that don't support them.
*/
#if (!defined(__GNUC__) || __GNUC__ < 2 || \
(__GNUC__ == 2 && __GNUC_MINOR__ < 7) )
#define Py_GCC_ATTRIBUTE(x)
#else
#define Py_GCC_ATTRIBUTE(x) __attribute__(x)
#endif
/*
* Specify alignment on compilers that support it.
*/
#if defined(__GNUC__) && __GNUC__ >= 3
#define Py_ALIGNED(x) __attribute__((aligned(x)))
#else
#define Py_ALIGNED(x)
#endif
/* Eliminate end-of-loop code not reached warnings from SunPro C
* when using do{...}while(0) macros
*/
#ifdef __SUNPRO_C
#pragma error_messages (off,E_END_OF_LOOP_CODE_NOT_REACHED)
#endif
#ifndef Py_LL
#define Py_LL(x) x##LL
#endif
#ifndef Py_ULL
#define Py_ULL(x) Py_LL(x##U)
#endif
#define Py_VA_COPY va_copy
/*
* Convenient macros to deal with endianness of the platform. WORDS_BIGENDIAN is
* detected by configure and defined in pyconfig.h. The code in pyconfig.h
* also takes care of Apple's universal builds.
*/
#ifdef WORDS_BIGENDIAN
#define PY_BIG_ENDIAN 1
#define PY_LITTLE_ENDIAN 0
#else
#define PY_BIG_ENDIAN 0
#define PY_LITTLE_ENDIAN 1
#endif
#ifdef Py_BUILD_CORE
/*
* Macros to protect CRT calls against instant termination when passed an
* invalid parameter (issue23524).
*/
#if defined _MSC_VER && _MSC_VER >= 1900
extern _invalid_parameter_handler _Py_silent_invalid_parameter_handler;
#define _Py_BEGIN_SUPPRESS_IPH { _invalid_parameter_handler _Py_old_handler = \
_set_thread_local_invalid_parameter_handler(_Py_silent_invalid_parameter_handler);
#define _Py_END_SUPPRESS_IPH _set_thread_local_invalid_parameter_handler(_Py_old_handler); }
#else
#define _Py_BEGIN_SUPPRESS_IPH
#define _Py_END_SUPPRESS_IPH
#endif /* _MSC_VER >= 1900 */
#endif /* Py_BUILD_CORE */
#ifdef __ANDROID__
#include <android/api-level.h>
#endif
#endif /* Py_PYPORT_H */
Raw
Frikr_Include_pystate.h
/* Thread and interpreter state structures and their interfaces */
#ifndef Py_PYSTATE_H
#define Py_PYSTATE_H
#ifdef __cplusplus
extern "C" {
#endif
/* This limitation is for performance and simplicity. If needed it can be
removed (with effort). */
#define MAX_CO_EXTRA_USERS 255
/* State shared between threads */
struct _ts; /* Forward */
struct _is; /* Forward */
struct _frame; /* Forward declaration for PyFrameObject. */
#ifdef Py_LIMITED_API
typedef struct _is PyInterpreterState;
#else
typedef PyObject* (*_PyFrameEvalFunction)(struct _frame *, int);
typedef struct _is {
struct _is *next;
struct _ts *tstate_head;
PyObject *modules;
PyObject *modules_by_index;
PyObject *sysdict;
PyObject *builtins;
PyObject *importlib;
PyObject *codec_search_path;
PyObject *codec_search_cache;
PyObject *codec_error_registry;
int codecs_initialized;
int fscodec_initialized;
#ifdef HAVE_DLOPEN
int dlopenflags;
#endif
PyObject *builtins_copy;
PyObject *import_func;
/* Initialized to PyEval_EvalFrameDefault(). */
_PyFrameEvalFunction eval_frame;
} PyInterpreterState;
#endif
/* State unique per thread */
#ifndef Py_LIMITED_API
/* Py_tracefunc return -1 when raising an exception, or 0 for success. */
typedef int (*Py_tracefunc)(PyObject *, struct _frame *, int, PyObject *);
/* The following values are used for 'what' for tracefunc functions: */
#define PyTrace_CALL 0
#define PyTrace_EXCEPTION 1
#define PyTrace_LINE 2
#define PyTrace_RETURN 3
#define PyTrace_C_CALL 4
#define PyTrace_C_EXCEPTION 5
#define PyTrace_C_RETURN 6
#endif
#ifdef Py_LIMITED_API
typedef struct _ts PyThreadState;
#else
typedef struct _ts {
/* See Python/ceval.c for comments explaining most fields */
struct _ts *prev;
struct _ts *next;
PyInterpreterState *interp;
struct _frame *frame;
int recursion_depth;
char overflowed; /* The stack has overflowed. Allow 50 more calls
to handle the runtime error. */
char recursion_critical; /* The current calls must not cause
a stack overflow. */
/* 'tracing' keeps track of the execution depth when tracing/profiling.
This is to prevent the actual trace/profile code from being recorded in
the trace/profile. */
int tracing;
int use_tracing;
Py_tracefunc c_profilefunc;
Py_tracefunc c_tracefunc;
PyObject *c_profileobj;
PyObject *c_traceobj;
PyObject *curexc_type;
PyObject *curexc_value;
PyObject *curexc_traceback;
PyObject *exc_type;
PyObject *exc_value;
PyObject *exc_traceback;
PyObject *dict; /* Stores per-thread state */
int gilstate_counter;
PyObject *async_exc; /* Asynchronous exception to raise */
long thread_id; /* Thread id where this tstate was created */
int trash_delete_nesting;
PyObject *trash_delete_later;
/* Called when a thread state is deleted normally, but not when it
* is destroyed after fork().
* Pain: to prevent rare but fatal shutdown errors (issue 18808),
* Thread.join() must wait for the join'ed thread's tstate to be unlinked
* from the tstate chain. That happens at the end of a thread's life,
* in pystate.c.
* The obvious way doesn't quite work: create a lock which the tstate
* unlinking code releases, and have Thread.join() wait to acquire that
* lock. The problem is that we _are_ at the end of the thread's life:
* if the thread holds the last reference to the lock, decref'ing the
* lock will delete the lock, and that may trigger arbitrary Python code
* if there's a weakref, with a callback, to the lock. But by this time
* _PyThreadState_Current is already NULL, so only the simplest of C code
* can be allowed to run (in particular it must not be possible to
* release the GIL).
* So instead of holding the lock directly, the tstate holds a weakref to
* the lock: that's the value of on_delete_data below. Decref'ing a
* weakref is harmless.
* on_delete points to _threadmodule.c's static release_sentinel() function.
* After the tstate is unlinked, release_sentinel is called with the
* weakref-to-lock (on_delete_data) argument, and release_sentinel releases
* the indirectly held lock.
*/
void (*on_delete)(void *);
void *on_delete_data;
PyObject *coroutine_wrapper;
int in_coroutine_wrapper;
Py_ssize_t co_extra_user_count;
freefunc co_extra_freefuncs[MAX_CO_EXTRA_USERS];
PyObject *async_gen_firstiter;
PyObject *async_gen_finalizer;
/* XXX signal handlers should also be here */
} PyThreadState;
#endif
PyAPI_FUNC(PyInterpreterState *) PyInterpreterState_New(void);
PyAPI_FUNC(void) PyInterpreterState_Clear(PyInterpreterState *);
PyAPI_FUNC(void) PyInterpreterState_Delete(PyInterpreterState *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyState_AddModule(PyObject*, struct PyModuleDef*);
#endif /* !Py_LIMITED_API */
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
/* New in 3.3 */
PyAPI_FUNC(int) PyState_AddModule(PyObject*, struct PyModuleDef*);
PyAPI_FUNC(int) PyState_RemoveModule(struct PyModuleDef*);
#endif
PyAPI_FUNC(PyObject*) PyState_FindModule(struct PyModuleDef*);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyState_ClearModules(void);
#endif
PyAPI_FUNC(PyThreadState *) PyThreadState_New(PyInterpreterState *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyThreadState *) _PyThreadState_Prealloc(PyInterpreterState *);
PyAPI_FUNC(void) _PyThreadState_Init(PyThreadState *);
#endif /* !Py_LIMITED_API */
PyAPI_FUNC(void) PyThreadState_Clear(PyThreadState *);
PyAPI_FUNC(void) PyThreadState_Delete(PyThreadState *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyThreadState_DeleteExcept(PyThreadState *tstate);
#endif /* !Py_LIMITED_API */
#ifdef WITH_THREAD
PyAPI_FUNC(void) PyThreadState_DeleteCurrent(void);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyGILState_Reinit(void);
#endif /* !Py_LIMITED_API */
#endif
/* Return the current thread state. The global interpreter lock must be held.
* When the current thread state is NULL, this issues a fatal error (so that
* the caller needn't check for NULL). */
PyAPI_FUNC(PyThreadState *) PyThreadState_Get(void);
#ifndef Py_LIMITED_API
/* Similar to PyThreadState_Get(), but don't issue a fatal error
* if it is NULL. */
PyAPI_FUNC(PyThreadState *) _PyThreadState_UncheckedGet(void);
#endif /* !Py_LIMITED_API */
PyAPI_FUNC(PyThreadState *) PyThreadState_Swap(PyThreadState *);
PyAPI_FUNC(PyObject *) PyThreadState_GetDict(void);
PyAPI_FUNC(int) PyThreadState_SetAsyncExc(long, PyObject *);
/* Variable and macro for in-line access to current thread state */
/* Assuming the current thread holds the GIL, this is the
PyThreadState for the current thread. */
#ifdef Py_BUILD_CORE
PyAPI_DATA(_Py_atomic_address) _PyThreadState_Current;
# define PyThreadState_GET() \
((PyThreadState*)_Py_atomic_load_relaxed(&_PyThreadState_Current))
#else
# define PyThreadState_GET() PyThreadState_Get()
#endif
typedef
enum {PyGILState_LOCKED, PyGILState_UNLOCKED}
PyGILState_STATE;
#ifdef WITH_THREAD
/* Ensure that the current thread is ready to call the Python
C API, regardless of the current state of Python, or of its
thread lock. This may be called as many times as desired
by a thread so long as each call is matched with a call to
PyGILState_Release(). In general, other thread-state APIs may
be used between _Ensure() and _Release() calls, so long as the
thread-state is restored to its previous state before the Release().
For example, normal use of the Py_BEGIN_ALLOW_THREADS/
Py_END_ALLOW_THREADS macros are acceptable.
The return value is an opaque "handle" to the thread state when
PyGILState_Ensure() was called, and must be passed to
PyGILState_Release() to ensure Python is left in the same state. Even
though recursive calls are allowed, these handles can *not* be shared -
each unique call to PyGILState_Ensure must save the handle for its
call to PyGILState_Release.
When the function returns, the current thread will hold the GIL.
Failure is a fatal error.
*/
PyAPI_FUNC(PyGILState_STATE) PyGILState_Ensure(void);
/* Release any resources previously acquired. After this call, Python's
state will be the same as it was prior to the corresponding
PyGILState_Ensure() call (but generally this state will be unknown to
the caller, hence the use of the GILState API.)
Every call to PyGILState_Ensure must be matched by a call to
PyGILState_Release on the same thread.
*/
PyAPI_FUNC(void) PyGILState_Release(PyGILState_STATE);
/* Helper/diagnostic function - get the current thread state for
this thread. May return NULL if no GILState API has been used
on the current thread. Note that the main thread always has such a
thread-state, even if no auto-thread-state call has been made
on the main thread.
*/
PyAPI_FUNC(PyThreadState *) PyGILState_GetThisThreadState(void);
#ifndef Py_LIMITED_API
/* Issue #26558: Flag to disable PyGILState_Check().
If set to non-zero, PyGILState_Check() always return 1. */
PyAPI_DATA(int) _PyGILState_check_enabled;
/* Helper/diagnostic function - return 1 if the current thread
currently holds the GIL, 0 otherwise.
The function returns 1 if _PyGILState_check_enabled is non-zero. */
PyAPI_FUNC(int) PyGILState_Check(void);
/* Unsafe function to get the single PyInterpreterState used by this process'
GILState implementation.
Return NULL before _PyGILState_Init() is called and after _PyGILState_Fini()
is called. */
PyAPI_FUNC(PyInterpreterState *) _PyGILState_GetInterpreterStateUnsafe(void);
#endif
#endif /* #ifdef WITH_THREAD */
/* The implementation of sys._current_frames() Returns a dict mapping
thread id to that thread's current frame.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyThread_CurrentFrames(void);
#endif
/* Routines for advanced debuggers, requested by David Beazley.
Don't use unless you know what you are doing! */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyInterpreterState *) PyInterpreterState_Head(void);
PyAPI_FUNC(PyInterpreterState *) PyInterpreterState_Next(PyInterpreterState *);
PyAPI_FUNC(PyThreadState *) PyInterpreterState_ThreadHead(PyInterpreterState *);
PyAPI_FUNC(PyThreadState *) PyThreadState_Next(PyThreadState *);
typedef struct _frame *(*PyThreadFrameGetter)(PyThreadState *self_);
#endif
/* hook for PyEval_GetFrame(), requested for Psyco */
#ifndef Py_LIMITED_API
PyAPI_DATA(PyThreadFrameGetter) _PyThreadState_GetFrame;
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_PYSTATE_H */
Raw
Frikr_Include_pystrcmp.h
#ifndef Py_STRCMP_H
#define Py_STRCMP_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_FUNC(int) PyOS_mystrnicmp(const char *, const char *, Py_ssize_t);
PyAPI_FUNC(int) PyOS_mystricmp(const char *, const char *);
#ifdef MS_WINDOWS
#define PyOS_strnicmp strnicmp
#define PyOS_stricmp stricmp
#else
#define PyOS_strnicmp PyOS_mystrnicmp
#define PyOS_stricmp PyOS_mystricmp
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_STRCMP_H */
Raw
Frikr_Include_pystrhex.h
#ifndef Py_STRHEX_H
#define Py_STRHEX_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
/* Returns a str() containing the hex representation of argbuf. */
PyAPI_FUNC(PyObject*) _Py_strhex(const char* argbuf, const Py_ssize_t arglen);
/* Returns a bytes() containing the ASCII hex representation of argbuf. */
PyAPI_FUNC(PyObject*) _Py_strhex_bytes(const char* argbuf, const Py_ssize_t arglen);
#endif /* !Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_STRHEX_H */
Raw
Frikr_Include_pystrtod.h
#ifndef Py_STRTOD_H
#define Py_STRTOD_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_FUNC(double) PyOS_string_to_double(const char *str,
char **endptr,
PyObject *overflow_exception);
/* The caller is responsible for calling PyMem_Free to free the buffer
that's is returned. */
PyAPI_FUNC(char *) PyOS_double_to_string(double val,
char format_code,
int precision,
int flags,
int *type);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _Py_string_to_number_with_underscores(
const char *str, Py_ssize_t len, const char *what, PyObject *obj, void *arg,
PyObject *(*innerfunc)(const char *, Py_ssize_t, void *));
PyAPI_FUNC(double) _Py_parse_inf_or_nan(const char *p, char **endptr);
#endif
/* PyOS_double_to_string's "flags" parameter can be set to 0 or more of: */
#define Py_DTSF_SIGN 0x01 /* always add the sign */
#define Py_DTSF_ADD_DOT_0 0x02 /* if the result is an integer add ".0" */
#define Py_DTSF_ALT 0x04 /* "alternate" formatting. it's format_code
specific */
/* PyOS_double_to_string's "type", if non-NULL, will be set to one of: */
#define Py_DTST_FINITE 0
#define Py_DTST_INFINITE 1
#define Py_DTST_NAN 2
#ifdef __cplusplus
}
#endif
#endif /* !Py_STRTOD_H */
Raw
Frikr_Include_Python-ast.h
/* File automatically generated by Parser/asdl_c.py. */
#include "asdl.h"
typedef struct _mod *mod_ty;
typedef struct _stmt *stmt_ty;
typedef struct _expr *expr_ty;
typedef enum _expr_context { Load=1, Store=2, Del=3, AugLoad=4, AugStore=5,
Param=6 } expr_context_ty;
typedef struct _slice *slice_ty;
typedef enum _boolop { And=1, Or=2 } boolop_ty;
typedef enum _operator { Add=1, Sub=2, Mult=3, MatMult=4, Div=5, Mod=6, Pow=7,
LShift=8, RShift=9, BitOr=10, BitXor=11, BitAnd=12,
FloorDiv=13 } operator_ty;
typedef enum _unaryop { Invert=1, Not=2, UAdd=3, USub=4 } unaryop_ty;
typedef enum _cmpop { Eq=1, NotEq=2, Lt=3, LtE=4, Gt=5, GtE=6, Is=7, IsNot=8,
In=9, NotIn=10 } cmpop_ty;
typedef struct _comprehension *comprehension_ty;
typedef struct _excepthandler *excepthandler_ty;
typedef struct _arguments *arguments_ty;
typedef struct _arg *arg_ty;
typedef struct _keyword *keyword_ty;
typedef struct _alias *alias_ty;
typedef struct _withitem *withitem_ty;
enum _mod_kind {Module_kind=1, Interactive_kind=2, Expression_kind=3,
Suite_kind=4};
struct _mod {
enum _mod_kind kind;
union {
struct {
asdl_seq *body;
} Module;
struct {
asdl_seq *body;
} Interactive;
struct {
expr_ty body;
} Expression;
struct {
asdl_seq *body;
} Suite;
} v;
};
enum _stmt_kind {FunctionDef_kind=1, AsyncFunctionDef_kind=2, ClassDef_kind=3,
Return_kind=4, Delete_kind=5, Assign_kind=6,
AugAssign_kind=7, AnnAssign_kind=8, For_kind=9,
AsyncFor_kind=10, While_kind=11, If_kind=12, With_kind=13,
AsyncWith_kind=14, Raise_kind=15, Try_kind=16,
Assert_kind=17, Import_kind=18, ImportFrom_kind=19,
Global_kind=20, Nonlocal_kind=21, Expr_kind=22, Pass_kind=23,
Break_kind=24, Continue_kind=25};
struct _stmt {
enum _stmt_kind kind;
union {
struct {
identifier name;
arguments_ty args;
asdl_seq *body;
asdl_seq *decorator_list;
expr_ty returns;
} FunctionDef;
struct {
identifier name;
arguments_ty args;
asdl_seq *body;
asdl_seq *decorator_list;
expr_ty returns;
} AsyncFunctionDef;
struct {
identifier name;
asdl_seq *bases;
asdl_seq *keywords;
asdl_seq *body;
asdl_seq *decorator_list;
} ClassDef;
struct {
expr_ty value;
} Return;
struct {
asdl_seq *targets;
} Delete;
struct {
asdl_seq *targets;
expr_ty value;
} Assign;
struct {
expr_ty target;
operator_ty op;
expr_ty value;
} AugAssign;
struct {
expr_ty target;
expr_ty annotation;
expr_ty value;
int simple;
} AnnAssign;
struct {
expr_ty target;
expr_ty iter;
asdl_seq *body;
asdl_seq *orelse;
} For;
struct {
expr_ty target;
expr_ty iter;
asdl_seq *body;
asdl_seq *orelse;
} AsyncFor;
struct {
expr_ty test;
asdl_seq *body;
asdl_seq *orelse;
} While;
struct {
expr_ty test;
asdl_seq *body;
asdl_seq *orelse;
} If;
struct {
asdl_seq *items;
asdl_seq *body;
} With;
struct {
asdl_seq *items;
asdl_seq *body;
} AsyncWith;
struct {
expr_ty exc;
expr_ty cause;
} Raise;
struct {
asdl_seq *body;
asdl_seq *handlers;
asdl_seq *orelse;
asdl_seq *finalbody;
} Try;
struct {
expr_ty test;
expr_ty msg;
} Assert;
struct {
asdl_seq *names;
} Import;
struct {
identifier module;
asdl_seq *names;
int level;
} ImportFrom;
struct {
asdl_seq *names;
} Global;
struct {
asdl_seq *names;
} Nonlocal;
struct {
expr_ty value;
} Expr;
} v;
int lineno;
int col_offset;
};
enum _expr_kind {BoolOp_kind=1, BinOp_kind=2, UnaryOp_kind=3, Lambda_kind=4,
IfExp_kind=5, Dict_kind=6, Set_kind=7, ListComp_kind=8,
SetComp_kind=9, DictComp_kind=10, GeneratorExp_kind=11,
Await_kind=12, Yield_kind=13, YieldFrom_kind=14,
Compare_kind=15, Call_kind=16, Num_kind=17, Str_kind=18,
FormattedValue_kind=19, JoinedStr_kind=20, Bytes_kind=21,
NameConstant_kind=22, Ellipsis_kind=23, Constant_kind=24,
Attribute_kind=25, Subscript_kind=26, Starred_kind=27,
Name_kind=28, List_kind=29, Tuple_kind=30};
struct _expr {
enum _expr_kind kind;
union {
struct {
boolop_ty op;
asdl_seq *values;
} BoolOp;
struct {
expr_ty left;
operator_ty op;
expr_ty right;
} BinOp;
struct {
unaryop_ty op;
expr_ty operand;
} UnaryOp;
struct {
arguments_ty args;
expr_ty body;
} Lambda;
struct {
expr_ty test;
expr_ty body;
expr_ty orelse;
} IfExp;
struct {
asdl_seq *keys;
asdl_seq *values;
} Dict;
struct {
asdl_seq *elts;
} Set;
struct {
expr_ty elt;
asdl_seq *generators;
} ListComp;
struct {
expr_ty elt;
asdl_seq *generators;
} SetComp;
struct {
expr_ty key;
expr_ty value;
asdl_seq *generators;
} DictComp;
struct {
expr_ty elt;
asdl_seq *generators;
} GeneratorExp;
struct {
expr_ty value;
} Await;
struct {
expr_ty value;
} Yield;
struct {
expr_ty value;
} YieldFrom;
struct {
expr_ty left;
asdl_int_seq *ops;
asdl_seq *comparators;
} Compare;
struct {
expr_ty func;
asdl_seq *args;
asdl_seq *keywords;
} Call;
struct {
object n;
} Num;
struct {
string s;
} Str;
struct {
expr_ty value;
int conversion;
expr_ty format_spec;
} FormattedValue;
struct {
asdl_seq *values;
} JoinedStr;
struct {
bytes s;
} Bytes;
struct {
singleton value;
} NameConstant;
struct {
constant value;
} Constant;
struct {
expr_ty value;
identifier attr;
expr_context_ty ctx;
} Attribute;
struct {
expr_ty value;
slice_ty slice;
expr_context_ty ctx;
} Subscript;
struct {
expr_ty value;
expr_context_ty ctx;
} Starred;
struct {
identifier id;
expr_context_ty ctx;
} Name;
struct {
asdl_seq *elts;
expr_context_ty ctx;
} List;
struct {
asdl_seq *elts;
expr_context_ty ctx;
} Tuple;
} v;
int lineno;
int col_offset;
};
enum _slice_kind {Slice_kind=1, ExtSlice_kind=2, Index_kind=3};
struct _slice {
enum _slice_kind kind;
union {
struct {
expr_ty lower;
expr_ty upper;
expr_ty step;
} Slice;
struct {
asdl_seq *dims;
} ExtSlice;
struct {
expr_ty value;
} Index;
} v;
};
struct _comprehension {
expr_ty target;
expr_ty iter;
asdl_seq *ifs;
int is_async;
};
enum _excepthandler_kind {ExceptHandler_kind=1};
struct _excepthandler {
enum _excepthandler_kind kind;
union {
struct {
expr_ty type;
identifier name;
asdl_seq *body;
} ExceptHandler;
} v;
int lineno;
int col_offset;
};
struct _arguments {
asdl_seq *args;
arg_ty vararg;
asdl_seq *kwonlyargs;
asdl_seq *kw_defaults;
arg_ty kwarg;
asdl_seq *defaults;
};
struct _arg {
identifier arg;
expr_ty annotation;
int lineno;
int col_offset;
};
struct _keyword {
identifier arg;
expr_ty value;
};
struct _alias {
identifier name;
identifier asname;
};
struct _withitem {
expr_ty context_expr;
expr_ty optional_vars;
};
#define Module(a0, a1) _Py_Module(a0, a1)
mod_ty _Py_Module(asdl_seq * body, PyArena *arena);
#define Interactive(a0, a1) _Py_Interactive(a0, a1)
mod_ty _Py_Interactive(asdl_seq * body, PyArena *arena);
#define Expression(a0, a1) _Py_Expression(a0, a1)
mod_ty _Py_Expression(expr_ty body, PyArena *arena);
#define Suite(a0, a1) _Py_Suite(a0, a1)
mod_ty _Py_Suite(asdl_seq * body, PyArena *arena);
#define FunctionDef(a0, a1, a2, a3, a4, a5, a6, a7) _Py_FunctionDef(a0, a1, a2, a3, a4, a5, a6, a7)
stmt_ty _Py_FunctionDef(identifier name, arguments_ty args, asdl_seq * body,
asdl_seq * decorator_list, expr_ty returns, int lineno,
int col_offset, PyArena *arena);
#define AsyncFunctionDef(a0, a1, a2, a3, a4, a5, a6, a7) _Py_AsyncFunctionDef(a0, a1, a2, a3, a4, a5, a6, a7)
stmt_ty _Py_AsyncFunctionDef(identifier name, arguments_ty args, asdl_seq *
body, asdl_seq * decorator_list, expr_ty returns,
int lineno, int col_offset, PyArena *arena);
#define ClassDef(a0, a1, a2, a3, a4, a5, a6, a7) _Py_ClassDef(a0, a1, a2, a3, a4, a5, a6, a7)
stmt_ty _Py_ClassDef(identifier name, asdl_seq * bases, asdl_seq * keywords,
asdl_seq * body, asdl_seq * decorator_list, int lineno,
int col_offset, PyArena *arena);
#define Return(a0, a1, a2, a3) _Py_Return(a0, a1, a2, a3)
stmt_ty _Py_Return(expr_ty value, int lineno, int col_offset, PyArena *arena);
#define Delete(a0, a1, a2, a3) _Py_Delete(a0, a1, a2, a3)
stmt_ty _Py_Delete(asdl_seq * targets, int lineno, int col_offset, PyArena
*arena);
#define Assign(a0, a1, a2, a3, a4) _Py_Assign(a0, a1, a2, a3, a4)
stmt_ty _Py_Assign(asdl_seq * targets, expr_ty value, int lineno, int
col_offset, PyArena *arena);
#define AugAssign(a0, a1, a2, a3, a4, a5) _Py_AugAssign(a0, a1, a2, a3, a4, a5)
stmt_ty _Py_AugAssign(expr_ty target, operator_ty op, expr_ty value, int
lineno, int col_offset, PyArena *arena);
#define AnnAssign(a0, a1, a2, a3, a4, a5, a6) _Py_AnnAssign(a0, a1, a2, a3, a4, a5, a6)
stmt_ty _Py_AnnAssign(expr_ty target, expr_ty annotation, expr_ty value, int
simple, int lineno, int col_offset, PyArena *arena);
#define For(a0, a1, a2, a3, a4, a5, a6) _Py_For(a0, a1, a2, a3, a4, a5, a6)
stmt_ty _Py_For(expr_ty target, expr_ty iter, asdl_seq * body, asdl_seq *
orelse, int lineno, int col_offset, PyArena *arena);
#define AsyncFor(a0, a1, a2, a3, a4, a5, a6) _Py_AsyncFor(a0, a1, a2, a3, a4, a5, a6)
stmt_ty _Py_AsyncFor(expr_ty target, expr_ty iter, asdl_seq * body, asdl_seq *
orelse, int lineno, int col_offset, PyArena *arena);
#define While(a0, a1, a2, a3, a4, a5) _Py_While(a0, a1, a2, a3, a4, a5)
stmt_ty _Py_While(expr_ty test, asdl_seq * body, asdl_seq * orelse, int lineno,
int col_offset, PyArena *arena);
#define If(a0, a1, a2, a3, a4, a5) _Py_If(a0, a1, a2, a3, a4, a5)
stmt_ty _Py_If(expr_ty test, asdl_seq * body, asdl_seq * orelse, int lineno,
int col_offset, PyArena *arena);
#define With(a0, a1, a2, a3, a4) _Py_With(a0, a1, a2, a3, a4)
stmt_ty _Py_With(asdl_seq * items, asdl_seq * body, int lineno, int col_offset,
PyArena *arena);
#define AsyncWith(a0, a1, a2, a3, a4) _Py_AsyncWith(a0, a1, a2, a3, a4)
stmt_ty _Py_AsyncWith(asdl_seq * items, asdl_seq * body, int lineno, int
col_offset, PyArena *arena);
#define Raise(a0, a1, a2, a3, a4) _Py_Raise(a0, a1, a2, a3, a4)
stmt_ty _Py_Raise(expr_ty exc, expr_ty cause, int lineno, int col_offset,
PyArena *arena);
#define Try(a0, a1, a2, a3, a4, a5, a6) _Py_Try(a0, a1, a2, a3, a4, a5, a6)
stmt_ty _Py_Try(asdl_seq * body, asdl_seq * handlers, asdl_seq * orelse,
asdl_seq * finalbody, int lineno, int col_offset, PyArena
*arena);
#define Assert(a0, a1, a2, a3, a4) _Py_Assert(a0, a1, a2, a3, a4)
stmt_ty _Py_Assert(expr_ty test, expr_ty msg, int lineno, int col_offset,
PyArena *arena);
#define Import(a0, a1, a2, a3) _Py_Import(a0, a1, a2, a3)
stmt_ty _Py_Import(asdl_seq * names, int lineno, int col_offset, PyArena
*arena);
#define ImportFrom(a0, a1, a2, a3, a4, a5) _Py_ImportFrom(a0, a1, a2, a3, a4, a5)
stmt_ty _Py_ImportFrom(identifier module, asdl_seq * names, int level, int
lineno, int col_offset, PyArena *arena);
#define Global(a0, a1, a2, a3) _Py_Global(a0, a1, a2, a3)
stmt_ty _Py_Global(asdl_seq * names, int lineno, int col_offset, PyArena
*arena);
#define Nonlocal(a0, a1, a2, a3) _Py_Nonlocal(a0, a1, a2, a3)
stmt_ty _Py_Nonlocal(asdl_seq * names, int lineno, int col_offset, PyArena
*arena);
#define Expr(a0, a1, a2, a3) _Py_Expr(a0, a1, a2, a3)
stmt_ty _Py_Expr(expr_ty value, int lineno, int col_offset, PyArena *arena);
#define Pass(a0, a1, a2) _Py_Pass(a0, a1, a2)
stmt_ty _Py_Pass(int lineno, int col_offset, PyArena *arena);
#define Break(a0, a1, a2) _Py_Break(a0, a1, a2)
stmt_ty _Py_Break(int lineno, int col_offset, PyArena *arena);
#define Continue(a0, a1, a2) _Py_Continue(a0, a1, a2)
stmt_ty _Py_Continue(int lineno, int col_offset, PyArena *arena);
#define BoolOp(a0, a1, a2, a3, a4) _Py_BoolOp(a0, a1, a2, a3, a4)
expr_ty _Py_BoolOp(boolop_ty op, asdl_seq * values, int lineno, int col_offset,
PyArena *arena);
#define BinOp(a0, a1, a2, a3, a4, a5) _Py_BinOp(a0, a1, a2, a3, a4, a5)
expr_ty _Py_BinOp(expr_ty left, operator_ty op, expr_ty right, int lineno, int
col_offset, PyArena *arena);
#define UnaryOp(a0, a1, a2, a3, a4) _Py_UnaryOp(a0, a1, a2, a3, a4)
expr_ty _Py_UnaryOp(unaryop_ty op, expr_ty operand, int lineno, int col_offset,
PyArena *arena);
#define Lambda(a0, a1, a2, a3, a4) _Py_Lambda(a0, a1, a2, a3, a4)
expr_ty _Py_Lambda(arguments_ty args, expr_ty body, int lineno, int col_offset,
PyArena *arena);
#define IfExp(a0, a1, a2, a3, a4, a5) _Py_IfExp(a0, a1, a2, a3, a4, a5)
expr_ty _Py_IfExp(expr_ty test, expr_ty body, expr_ty orelse, int lineno, int
col_offset, PyArena *arena);
#define Dict(a0, a1, a2, a3, a4) _Py_Dict(a0, a1, a2, a3, a4)
expr_ty _Py_Dict(asdl_seq * keys, asdl_seq * values, int lineno, int
col_offset, PyArena *arena);
#define Set(a0, a1, a2, a3) _Py_Set(a0, a1, a2, a3)
expr_ty _Py_Set(asdl_seq * elts, int lineno, int col_offset, PyArena *arena);
#define ListComp(a0, a1, a2, a3, a4) _Py_ListComp(a0, a1, a2, a3, a4)
expr_ty _Py_ListComp(expr_ty elt, asdl_seq * generators, int lineno, int
col_offset, PyArena *arena);
#define SetComp(a0, a1, a2, a3, a4) _Py_SetComp(a0, a1, a2, a3, a4)
expr_ty _Py_SetComp(expr_ty elt, asdl_seq * generators, int lineno, int
col_offset, PyArena *arena);
#define DictComp(a0, a1, a2, a3, a4, a5) _Py_DictComp(a0, a1, a2, a3, a4, a5)
expr_ty _Py_DictComp(expr_ty key, expr_ty value, asdl_seq * generators, int
lineno, int col_offset, PyArena *arena);
#define GeneratorExp(a0, a1, a2, a3, a4) _Py_GeneratorExp(a0, a1, a2, a3, a4)
expr_ty _Py_GeneratorExp(expr_ty elt, asdl_seq * generators, int lineno, int
col_offset, PyArena *arena);
#define Await(a0, a1, a2, a3) _Py_Await(a0, a1, a2, a3)
expr_ty _Py_Await(expr_ty value, int lineno, int col_offset, PyArena *arena);
#define Yield(a0, a1, a2, a3) _Py_Yield(a0, a1, a2, a3)
expr_ty _Py_Yield(expr_ty value, int lineno, int col_offset, PyArena *arena);
#define YieldFrom(a0, a1, a2, a3) _Py_YieldFrom(a0, a1, a2, a3)
expr_ty _Py_YieldFrom(expr_ty value, int lineno, int col_offset, PyArena
*arena);
#define Compare(a0, a1, a2, a3, a4, a5) _Py_Compare(a0, a1, a2, a3, a4, a5)
expr_ty _Py_Compare(expr_ty left, asdl_int_seq * ops, asdl_seq * comparators,
int lineno, int col_offset, PyArena *arena);
#define Call(a0, a1, a2, a3, a4, a5) _Py_Call(a0, a1, a2, a3, a4, a5)
expr_ty _Py_Call(expr_ty func, asdl_seq * args, asdl_seq * keywords, int
lineno, int col_offset, PyArena *arena);
#define Num(a0, a1, a2, a3) _Py_Num(a0, a1, a2, a3)
expr_ty _Py_Num(object n, int lineno, int col_offset, PyArena *arena);
#define Str(a0, a1, a2, a3) _Py_Str(a0, a1, a2, a3)
expr_ty _Py_Str(string s, int lineno, int col_offset, PyArena *arena);
#define FormattedValue(a0, a1, a2, a3, a4, a5) _Py_FormattedValue(a0, a1, a2, a3, a4, a5)
expr_ty _Py_FormattedValue(expr_ty value, int conversion, expr_ty format_spec,
int lineno, int col_offset, PyArena *arena);
#define JoinedStr(a0, a1, a2, a3) _Py_JoinedStr(a0, a1, a2, a3)
expr_ty _Py_JoinedStr(asdl_seq * values, int lineno, int col_offset, PyArena
*arena);
#define Bytes(a0, a1, a2, a3) _Py_Bytes(a0, a1, a2, a3)
expr_ty _Py_Bytes(bytes s, int lineno, int col_offset, PyArena *arena);
#define NameConstant(a0, a1, a2, a3) _Py_NameConstant(a0, a1, a2, a3)
expr_ty _Py_NameConstant(singleton value, int lineno, int col_offset, PyArena
*arena);
#define Ellipsis(a0, a1, a2) _Py_Ellipsis(a0, a1, a2)
expr_ty _Py_Ellipsis(int lineno, int col_offset, PyArena *arena);
#define Constant(a0, a1, a2, a3) _Py_Constant(a0, a1, a2, a3)
expr_ty _Py_Constant(constant value, int lineno, int col_offset, PyArena
*arena);
#define Attribute(a0, a1, a2, a3, a4, a5) _Py_Attribute(a0, a1, a2, a3, a4, a5)
expr_ty _Py_Attribute(expr_ty value, identifier attr, expr_context_ty ctx, int
lineno, int col_offset, PyArena *arena);
#define Subscript(a0, a1, a2, a3, a4, a5) _Py_Subscript(a0, a1, a2, a3, a4, a5)
expr_ty _Py_Subscript(expr_ty value, slice_ty slice, expr_context_ty ctx, int
lineno, int col_offset, PyArena *arena);
#define Starred(a0, a1, a2, a3, a4) _Py_Starred(a0, a1, a2, a3, a4)
expr_ty _Py_Starred(expr_ty value, expr_context_ty ctx, int lineno, int
col_offset, PyArena *arena);
#define Name(a0, a1, a2, a3, a4) _Py_Name(a0, a1, a2, a3, a4)
expr_ty _Py_Name(identifier id, expr_context_ty ctx, int lineno, int
col_offset, PyArena *arena);
#define List(a0, a1, a2, a3, a4) _Py_List(a0, a1, a2, a3, a4)
expr_ty _Py_List(asdl_seq * elts, expr_context_ty ctx, int lineno, int
col_offset, PyArena *arena);
#define Tuple(a0, a1, a2, a3, a4) _Py_Tuple(a0, a1, a2, a3, a4)
expr_ty _Py_Tuple(asdl_seq * elts, expr_context_ty ctx, int lineno, int
col_offset, PyArena *arena);
#define Slice(a0, a1, a2, a3) _Py_Slice(a0, a1, a2, a3)
slice_ty _Py_Slice(expr_ty lower, expr_ty upper, expr_ty step, PyArena *arena);
#define ExtSlice(a0, a1) _Py_ExtSlice(a0, a1)
slice_ty _Py_ExtSlice(asdl_seq * dims, PyArena *arena);
#define Index(a0, a1) _Py_Index(a0, a1)
slice_ty _Py_Index(expr_ty value, PyArena *arena);
#define comprehension(a0, a1, a2, a3, a4) _Py_comprehension(a0, a1, a2, a3, a4)
comprehension_ty _Py_comprehension(expr_ty target, expr_ty iter, asdl_seq *
ifs, int is_async, PyArena *arena);
#define ExceptHandler(a0, a1, a2, a3, a4, a5) _Py_ExceptHandler(a0, a1, a2, a3, a4, a5)
excepthandler_ty _Py_ExceptHandler(expr_ty type, identifier name, asdl_seq *
body, int lineno, int col_offset, PyArena
*arena);
#define arguments(a0, a1, a2, a3, a4, a5, a6) _Py_arguments(a0, a1, a2, a3, a4, a5, a6)
arguments_ty _Py_arguments(asdl_seq * args, arg_ty vararg, asdl_seq *
kwonlyargs, asdl_seq * kw_defaults, arg_ty kwarg,
asdl_seq * defaults, PyArena *arena);
#define arg(a0, a1, a2, a3, a4) _Py_arg(a0, a1, a2, a3, a4)
arg_ty _Py_arg(identifier arg, expr_ty annotation, int lineno, int col_offset,
PyArena *arena);
#define keyword(a0, a1, a2) _Py_keyword(a0, a1, a2)
keyword_ty _Py_keyword(identifier arg, expr_ty value, PyArena *arena);
#define alias(a0, a1, a2) _Py_alias(a0, a1, a2)
alias_ty _Py_alias(identifier name, identifier asname, PyArena *arena);
#define withitem(a0, a1, a2) _Py_withitem(a0, a1, a2)
withitem_ty _Py_withitem(expr_ty context_expr, expr_ty optional_vars, PyArena
*arena);
PyObject* PyAST_mod2obj(mod_ty t);
mod_ty PyAST_obj2mod(PyObject* ast, PyArena* arena, int mode);
int PyAST_Check(PyObject* obj);
Raw
Frikr_Include_Python.h
#ifndef Py_PYTHON_H
#define Py_PYTHON_H
/* Since this is a "meta-include" file, no #ifdef __cplusplus / extern "C" { */
/* Include nearly all Python header files */
#include "patchlevel.h"
#include "pyconfig.h"
#include "pymacconfig.h"
#include <limits.h>
#ifndef UCHAR_MAX
#error "Something's broken. UCHAR_MAX should be defined in limits.h."
#endif
#if UCHAR_MAX != 255
#error "Python's source code assumes C's unsigned char is an 8-bit type."
#endif
#if defined(__sgi) && defined(WITH_THREAD) && !defined(_SGI_MP_SOURCE)
#define _SGI_MP_SOURCE
#endif
#include <stdio.h>
#ifndef NULL
# error "Python.h requires that stdio.h define NULL."
#endif
#include <string.h>
#ifdef HAVE_ERRNO_H
#include <errno.h>
#endif
#include <stdlib.h>
#ifdef HAVE_UNISTD_H
#include <unistd.h>
#endif
/* For size_t? */
#ifdef HAVE_STDDEF_H
#include <stddef.h>
#endif
/* CAUTION: Build setups should ensure that NDEBUG is defined on the
* compiler command line when building Python in release mode; else
* assert() calls won't be removed.
*/
#include <assert.h>
#include "pyport.h"
#include "pymacro.h"
#include "pyatomic.h"
/* Debug-mode build with pymalloc implies PYMALLOC_DEBUG.
* PYMALLOC_DEBUG is in error if pymalloc is not in use.
*/
#if defined(Py_DEBUG) && defined(WITH_PYMALLOC) && !defined(PYMALLOC_DEBUG)
#define PYMALLOC_DEBUG
#endif
#if defined(PYMALLOC_DEBUG) && !defined(WITH_PYMALLOC)
#error "PYMALLOC_DEBUG requires WITH_PYMALLOC"
#endif
#include "pymath.h"
#include "pytime.h"
#include "pymem.h"
#include "object.h"
#include "objimpl.h"
#include "typeslots.h"
#include "pyhash.h"
#include "pydebug.h"
#include "bytearrayobject.h"
#include "bytesobject.h"
#include "unicodeobject.h"
#include "longobject.h"
#include "longintrepr.h"
#include "boolobject.h"
#include "floatobject.h"
#include "complexobject.h"
#include "rangeobject.h"
#include "memoryobject.h"
#include "tupleobject.h"
#include "listobject.h"
#include "dictobject.h"
#include "odictobject.h"
#include "enumobject.h"
#include "setobject.h"
#include "methodobject.h"
#include "moduleobject.h"
#include "funcobject.h"
#include "classobject.h"
#include "fileobject.h"
#include "pycapsule.h"
#include "traceback.h"
#include "sliceobject.h"
#include "cellobject.h"
#include "iterobject.h"
#include "genobject.h"
#include "descrobject.h"
#include "warnings.h"
#include "weakrefobject.h"
#include "structseq.h"
#include "namespaceobject.h"
#include "codecs.h"
#include "pyerrors.h"
#include "pystate.h"
#include "pyarena.h"
#include "modsupport.h"
#include "pythonrun.h"
#include "pylifecycle.h"
#include "ceval.h"
#include "sysmodule.h"
#include "osmodule.h"
#include "intrcheck.h"
#include "import.h"
#include "abstract.h"
#include "bltinmodule.h"
#include "compile.h"
#include "eval.h"
#include "pyctype.h"
#include "pystrtod.h"
#include "pystrcmp.h"
#include "dtoa.h"
#include "fileutils.h"
#include "pyfpe.h"
/* 'Fix' breakage reported at https://bugs.python.org/issue29943 */
#if PY_VERSION_HEX < 0x03070000 && defined(PySlice_GetIndicesEx)
#undef PySlice_GetIndicesEx
#endif
#endif /* !Py_PYTHON_H */
Raw
Frikr_Include_pythonrun.h
/* Interfaces to parse and execute pieces of python code */
#ifndef Py_PYTHONRUN_H
#define Py_PYTHONRUN_H
#ifdef __cplusplus
extern "C" {
#endif
#define PyCF_MASK (CO_FUTURE_DIVISION | CO_FUTURE_ABSOLUTE_IMPORT | \
CO_FUTURE_WITH_STATEMENT | CO_FUTURE_PRINT_FUNCTION | \
CO_FUTURE_UNICODE_LITERALS | CO_FUTURE_BARRY_AS_BDFL | \
CO_FUTURE_GENERATOR_STOP)
#define PyCF_MASK_OBSOLETE (CO_NESTED)
#define PyCF_SOURCE_IS_UTF8 0x0100
#define PyCF_DONT_IMPLY_DEDENT 0x0200
#define PyCF_ONLY_AST 0x0400
#define PyCF_IGNORE_COOKIE 0x0800
#ifndef Py_LIMITED_API
typedef struct {
int cf_flags; /* bitmask of CO_xxx flags relevant to future */
} PyCompilerFlags;
#endif
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) PyRun_SimpleStringFlags(const char *, PyCompilerFlags *);
PyAPI_FUNC(int) PyRun_AnyFileFlags(FILE *, const char *, PyCompilerFlags *);
PyAPI_FUNC(int) PyRun_AnyFileExFlags(
FILE *fp,
const char *filename, /* decoded from the filesystem encoding */
int closeit,
PyCompilerFlags *flags);
PyAPI_FUNC(int) PyRun_SimpleFileExFlags(
FILE *fp,
const char *filename, /* decoded from the filesystem encoding */
int closeit,
PyCompilerFlags *flags);
PyAPI_FUNC(int) PyRun_InteractiveOneFlags(
FILE *fp,
const char *filename, /* decoded from the filesystem encoding */
PyCompilerFlags *flags);
PyAPI_FUNC(int) PyRun_InteractiveOneObject(
FILE *fp,
PyObject *filename,
PyCompilerFlags *flags);
PyAPI_FUNC(int) PyRun_InteractiveLoopFlags(
FILE *fp,
const char *filename, /* decoded from the filesystem encoding */
PyCompilerFlags *flags);
PyAPI_FUNC(struct _mod *) PyParser_ASTFromString(
const char *s,
const char *filename, /* decoded from the filesystem encoding */
int start,
PyCompilerFlags *flags,
PyArena *arena);
PyAPI_FUNC(struct _mod *) PyParser_ASTFromStringObject(
const char *s,
PyObject *filename,
int start,
PyCompilerFlags *flags,
PyArena *arena);
PyAPI_FUNC(struct _mod *) PyParser_ASTFromFile(
FILE *fp,
const char *filename, /* decoded from the filesystem encoding */
const char* enc,
int start,
const char *ps1,
const char *ps2,
PyCompilerFlags *flags,
int *errcode,
PyArena *arena);
PyAPI_FUNC(struct _mod *) PyParser_ASTFromFileObject(
FILE *fp,
PyObject *filename,
const char* enc,
int start,
const char *ps1,
const char *ps2,
PyCompilerFlags *flags,
int *errcode,
PyArena *arena);
#endif
#ifndef PyParser_SimpleParseString
#define PyParser_SimpleParseString(S, B) \
PyParser_SimpleParseStringFlags(S, B, 0)
#define PyParser_SimpleParseFile(FP, S, B) \
PyParser_SimpleParseFileFlags(FP, S, B, 0)
#endif
PyAPI_FUNC(struct _node *) PyParser_SimpleParseStringFlags(const char *, int,
int);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(struct _node *) PyParser_SimpleParseStringFlagsFilename(const char *,
const char *,
int, int);
#endif
PyAPI_FUNC(struct _node *) PyParser_SimpleParseFileFlags(FILE *, const char *,
int, int);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyRun_StringFlags(const char *, int, PyObject *,
PyObject *, PyCompilerFlags *);
PyAPI_FUNC(PyObject *) PyRun_FileExFlags(
FILE *fp,
const char *filename, /* decoded from the filesystem encoding */
int start,
PyObject *globals,
PyObject *locals,
int closeit,
PyCompilerFlags *flags);
#endif
#ifdef Py_LIMITED_API
PyAPI_FUNC(PyObject *) Py_CompileString(const char *, const char *, int);
#else
#define Py_CompileString(str, p, s) Py_CompileStringExFlags(str, p, s, NULL, -1)
#define Py_CompileStringFlags(str, p, s, f) Py_CompileStringExFlags(str, p, s, f, -1)
PyAPI_FUNC(PyObject *) Py_CompileStringExFlags(
const char *str,
const char *filename, /* decoded from the filesystem encoding */
int start,
PyCompilerFlags *flags,
int optimize);
PyAPI_FUNC(PyObject *) Py_CompileStringObject(
const char *str,
PyObject *filename, int start,
PyCompilerFlags *flags,
int optimize);
#endif
PyAPI_FUNC(struct symtable *) Py_SymtableString(
const char *str,
const char *filename, /* decoded from the filesystem encoding */
int start);
#ifndef Py_LIMITED_API
PyAPI_FUNC(struct symtable *) Py_SymtableStringObject(
const char *str,
PyObject *filename,
int start);
#endif
PyAPI_FUNC(void) PyErr_Print(void);
PyAPI_FUNC(void) PyErr_PrintEx(int);
PyAPI_FUNC(void) PyErr_Display(PyObject *, PyObject *, PyObject *);
#ifndef Py_LIMITED_API
/* Use macros for a bunch of old variants */
#define PyRun_String(str, s, g, l) PyRun_StringFlags(str, s, g, l, NULL)
#define PyRun_AnyFile(fp, name) PyRun_AnyFileExFlags(fp, name, 0, NULL)
#define PyRun_AnyFileEx(fp, name, closeit) \
PyRun_AnyFileExFlags(fp, name, closeit, NULL)
#define PyRun_AnyFileFlags(fp, name, flags) \
PyRun_AnyFileExFlags(fp, name, 0, flags)
#define PyRun_SimpleString(s) PyRun_SimpleStringFlags(s, NULL)
#define PyRun_SimpleFile(f, p) PyRun_SimpleFileExFlags(f, p, 0, NULL)
#define PyRun_SimpleFileEx(f, p, c) PyRun_SimpleFileExFlags(f, p, c, NULL)
#define PyRun_InteractiveOne(f, p) PyRun_InteractiveOneFlags(f, p, NULL)
#define PyRun_InteractiveLoop(f, p) PyRun_InteractiveLoopFlags(f, p, NULL)
#define PyRun_File(fp, p, s, g, l) \
PyRun_FileExFlags(fp, p, s, g, l, 0, NULL)
#define PyRun_FileEx(fp, p, s, g, l, c) \
PyRun_FileExFlags(fp, p, s, g, l, c, NULL)
#define PyRun_FileFlags(fp, p, s, g, l, flags) \
PyRun_FileExFlags(fp, p, s, g, l, 0, flags)
#endif
/* Stuff with no proper home (yet) */
#ifndef Py_LIMITED_API
PyAPI_FUNC(char *) PyOS_Readline(FILE *, FILE *, const char *);
#endif
PyAPI_DATA(int) (*PyOS_InputHook)(void);
PyAPI_DATA(char) *(*PyOS_ReadlineFunctionPointer)(FILE *, FILE *, const char *);
#ifndef Py_LIMITED_API
PyAPI_DATA(PyThreadState*) _PyOS_ReadlineTState;
#endif
/* Stack size, in "pointers" (so we get extra safety margins
on 64-bit platforms). On a 32-bit platform, this translates
to an 8k margin. */
#define PYOS_STACK_MARGIN 2048
#if defined(WIN32) && !defined(MS_WIN64) && defined(_MSC_VER) && _MSC_VER >= 1300
/* Enable stack checking under Microsoft C */
#define USE_STACKCHECK
#endif
#ifdef USE_STACKCHECK
/* Check that we aren't overflowing our stack */
PyAPI_FUNC(int) PyOS_CheckStack(void);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_PYTHONRUN_H */
Raw
Frikr_Include_pythread.h
#ifndef Py_PYTHREAD_H
#define Py_PYTHREAD_H
typedef void *PyThread_type_lock;
typedef void *PyThread_type_sema;
#ifdef __cplusplus
extern "C" {
#endif
/* Return status codes for Python lock acquisition. Chosen for maximum
* backwards compatibility, ie failure -> 0, success -> 1. */
typedef enum PyLockStatus {
PY_LOCK_FAILURE = 0,
PY_LOCK_ACQUIRED = 1,
PY_LOCK_INTR
} PyLockStatus;
PyAPI_FUNC(void) PyThread_init_thread(void);
PyAPI_FUNC(long) PyThread_start_new_thread(void (*)(void *), void *);
PyAPI_FUNC(void) PyThread_exit_thread(void);
PyAPI_FUNC(long) PyThread_get_thread_ident(void);
PyAPI_FUNC(PyThread_type_lock) PyThread_allocate_lock(void);
PyAPI_FUNC(void) PyThread_free_lock(PyThread_type_lock);
PyAPI_FUNC(int) PyThread_acquire_lock(PyThread_type_lock, int);
#define WAIT_LOCK 1
#define NOWAIT_LOCK 0
/* PY_TIMEOUT_T is the integral type used to specify timeouts when waiting
on a lock (see PyThread_acquire_lock_timed() below).
PY_TIMEOUT_MAX is the highest usable value (in microseconds) of that
type, and depends on the system threading API.
NOTE: this isn't the same value as `_thread.TIMEOUT_MAX`. The _thread
module exposes a higher-level API, with timeouts expressed in seconds
and floating-point numbers allowed.
*/
#define PY_TIMEOUT_T long long
#define PY_TIMEOUT_MAX PY_LLONG_MAX
/* In the NT API, the timeout is a DWORD and is expressed in milliseconds */
#if defined (NT_THREADS)
#if 0xFFFFFFFFLL * 1000 < PY_TIMEOUT_MAX
#undef PY_TIMEOUT_MAX
#define PY_TIMEOUT_MAX (0xFFFFFFFFLL * 1000)
#endif
#endif
/* If microseconds == 0, the call is non-blocking: it returns immediately
even when the lock can't be acquired.
If microseconds > 0, the call waits up to the specified duration.
If microseconds < 0, the call waits until success (or abnormal failure)
microseconds must be less than PY_TIMEOUT_MAX. Behaviour otherwise is
undefined.
If intr_flag is true and the acquire is interrupted by a signal, then the
call will return PY_LOCK_INTR. The caller may reattempt to acquire the
lock.
*/
PyAPI_FUNC(PyLockStatus) PyThread_acquire_lock_timed(PyThread_type_lock,
PY_TIMEOUT_T microseconds,
int intr_flag);
PyAPI_FUNC(void) PyThread_release_lock(PyThread_type_lock);
PyAPI_FUNC(size_t) PyThread_get_stacksize(void);
PyAPI_FUNC(int) PyThread_set_stacksize(size_t);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject*) PyThread_GetInfo(void);
#endif
/* Thread Local Storage (TLS) API */
PyAPI_FUNC(int) PyThread_create_key(void);
PyAPI_FUNC(void) PyThread_delete_key(int);
PyAPI_FUNC(int) PyThread_set_key_value(int, void *);
PyAPI_FUNC(void *) PyThread_get_key_value(int);
PyAPI_FUNC(void) PyThread_delete_key_value(int key);
/* Cleanup after a fork */
PyAPI_FUNC(void) PyThread_ReInitTLS(void);
#ifdef __cplusplus
}
#endif
#endif /* !Py_PYTHREAD_H */
Raw
Frikr_Include_pytime.h
#ifndef Py_LIMITED_API
#ifndef Py_PYTIME_H
#define Py_PYTIME_H
#include "pyconfig.h" /* include for defines */
#include "object.h"
/**************************************************************************
Symbols and macros to supply platform-independent interfaces to time related
functions and constants
**************************************************************************/
#ifdef __cplusplus
extern "C" {
#endif
/* _PyTime_t: Python timestamp with subsecond precision. It can be used to
store a duration, and so indirectly a date (related to another date, like
UNIX epoch). */
typedef int64_t _PyTime_t;
#define _PyTime_MIN PY_LLONG_MIN
#define _PyTime_MAX PY_LLONG_MAX
typedef enum {
/* Round towards minus infinity (-inf).
For example, used to read a clock. */
_PyTime_ROUND_FLOOR=0,
/* Round towards infinity (+inf).
For example, used for timeout to wait "at least" N seconds. */
_PyTime_ROUND_CEILING=1,
/* Round to nearest with ties going to nearest even integer.
For example, used to round from a Python float. */
_PyTime_ROUND_HALF_EVEN
} _PyTime_round_t;
/* Convert a time_t to a PyLong. */
PyAPI_FUNC(PyObject *) _PyLong_FromTime_t(
time_t sec);
/* Convert a PyLong to a time_t. */
PyAPI_FUNC(time_t) _PyLong_AsTime_t(
PyObject *obj);
/* Convert a number of seconds, int or float, to time_t. */
PyAPI_FUNC(int) _PyTime_ObjectToTime_t(
PyObject *obj,
time_t *sec,
_PyTime_round_t);
/* Convert a number of seconds, int or float, to a timeval structure.
usec is in the range [0; 999999] and rounded towards zero.
For example, -1.2 is converted to (-2, 800000). */
PyAPI_FUNC(int) _PyTime_ObjectToTimeval(
PyObject *obj,
time_t *sec,
long *usec,
_PyTime_round_t);
/* Convert a number of seconds, int or float, to a timespec structure.
nsec is in the range [0; 999999999] and rounded towards zero.
For example, -1.2 is converted to (-2, 800000000). */
PyAPI_FUNC(int) _PyTime_ObjectToTimespec(
PyObject *obj,
time_t *sec,
long *nsec,
_PyTime_round_t);
/* Create a timestamp from a number of seconds. */
PyAPI_FUNC(_PyTime_t) _PyTime_FromSeconds(int seconds);
/* Macro to create a timestamp from a number of seconds, no integer overflow.
Only use the macro for small values, prefer _PyTime_FromSeconds(). */
#define _PYTIME_FROMSECONDS(seconds) \
((_PyTime_t)(seconds) * (1000 * 1000 * 1000))
/* Create a timestamp from a number of nanoseconds. */
PyAPI_FUNC(_PyTime_t) _PyTime_FromNanoseconds(long long ns);
/* Convert a number of seconds (Python float or int) to a timetamp.
Raise an exception and return -1 on error, return 0 on success. */
PyAPI_FUNC(int) _PyTime_FromSecondsObject(_PyTime_t *t,
PyObject *obj,
_PyTime_round_t round);
/* Convert a number of milliseconds (Python float or int, 10^-3) to a timetamp.
Raise an exception and return -1 on error, return 0 on success. */
PyAPI_FUNC(int) _PyTime_FromMillisecondsObject(_PyTime_t *t,
PyObject *obj,
_PyTime_round_t round);
/* Convert a timestamp to a number of seconds as a C double. */
PyAPI_FUNC(double) _PyTime_AsSecondsDouble(_PyTime_t t);
/* Convert timestamp to a number of milliseconds (10^-3 seconds). */
PyAPI_FUNC(_PyTime_t) _PyTime_AsMilliseconds(_PyTime_t t,
_PyTime_round_t round);
/* Convert timestamp to a number of microseconds (10^-6 seconds). */
PyAPI_FUNC(_PyTime_t) _PyTime_AsMicroseconds(_PyTime_t t,
_PyTime_round_t round);
/* Convert timestamp to a number of nanoseconds (10^-9 seconds) as a Python int
object. */
PyAPI_FUNC(PyObject *) _PyTime_AsNanosecondsObject(_PyTime_t t);
/* Convert a timestamp to a timeval structure (microsecond resolution).
tv_usec is always positive.
Raise an exception and return -1 if the conversion overflowed,
return 0 on success. */
PyAPI_FUNC(int) _PyTime_AsTimeval(_PyTime_t t,
struct timeval *tv,
_PyTime_round_t round);
/* Similar to _PyTime_AsTimeval(), but don't raise an exception on error. */
PyAPI_FUNC(int) _PyTime_AsTimeval_noraise(_PyTime_t t,
struct timeval *tv,
_PyTime_round_t round);
/* Convert a timestamp to a number of seconds (secs) and microseconds (us).
us is always positive. This function is similar to _PyTime_AsTimeval()
except that secs is always a time_t type, whereas the timeval structure
uses a C long for tv_sec on Windows.
Raise an exception and return -1 if the conversion overflowed,
return 0 on success. */
PyAPI_FUNC(int) _PyTime_AsTimevalTime_t(
_PyTime_t t,
time_t *secs,
int *us,
_PyTime_round_t round);
#if defined(HAVE_CLOCK_GETTIME) || defined(HAVE_KQUEUE)
/* Convert a timestamp to a timespec structure (nanosecond resolution).
tv_nsec is always positive.
Raise an exception and return -1 on error, return 0 on success. */
PyAPI_FUNC(int) _PyTime_AsTimespec(_PyTime_t t, struct timespec *ts);
#endif
/* Get the current time from the system clock.
The function cannot fail. _PyTime_Init() ensures that the system clock
works. */
PyAPI_FUNC(_PyTime_t) _PyTime_GetSystemClock(void);
/* Get the time of a monotonic clock, i.e. a clock that cannot go backwards.
The clock is not affected by system clock updates. The reference point of
the returned value is undefined, so that only the difference between the
results of consecutive calls is valid.
The function cannot fail. _PyTime_Init() ensures that a monotonic clock
is available and works. */
PyAPI_FUNC(_PyTime_t) _PyTime_GetMonotonicClock(void);
/* Structure used by time.get_clock_info() */
typedef struct {
const char *implementation;
int monotonic;
int adjustable;
double resolution;
} _Py_clock_info_t;
/* Get the current time from the system clock.
* Fill clock information if info is not NULL.
* Raise an exception and return -1 on error, return 0 on success.
*/
PyAPI_FUNC(int) _PyTime_GetSystemClockWithInfo(
_PyTime_t *t,
_Py_clock_info_t *info);
/* Get the time of a monotonic clock, i.e. a clock that cannot go backwards.
The clock is not affected by system clock updates. The reference point of
the returned value is undefined, so that only the difference between the
results of consecutive calls is valid.
Fill info (if set) with information of the function used to get the time.
Return 0 on success, raise an exception and return -1 on error. */
PyAPI_FUNC(int) _PyTime_GetMonotonicClockWithInfo(
_PyTime_t *t,
_Py_clock_info_t *info);
/* Initialize time.
Return 0 on success, raise an exception and return -1 on error. */
PyAPI_FUNC(int) _PyTime_Init(void);
/* Converts a timestamp to the Gregorian time, using the local time zone.
Return 0 on success, raise an exception and return -1 on error. */
PyAPI_FUNC(int) _PyTime_localtime(time_t t, struct tm *tm);
/* Converts a timestamp to the Gregorian time, assuming UTC.
Return 0 on success, raise an exception and return -1 on error. */
PyAPI_FUNC(int) _PyTime_gmtime(time_t t, struct tm *tm);
#ifdef __cplusplus
}
#endif
#endif /* Py_PYTIME_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_rangeobject.h
/* Range object interface */
#ifndef Py_RANGEOBJECT_H
#define Py_RANGEOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
/*
A range object represents an integer range. This is an immutable object;
a range cannot change its value after creation.
Range objects behave like the corresponding tuple objects except that
they are represented by a start, stop, and step datamembers.
*/
PyAPI_DATA(PyTypeObject) PyRange_Type;
PyAPI_DATA(PyTypeObject) PyRangeIter_Type;
PyAPI_DATA(PyTypeObject) PyLongRangeIter_Type;
#define PyRange_Check(op) (Py_TYPE(op) == &PyRange_Type)
#ifdef __cplusplus
}
#endif
#endif /* !Py_RANGEOBJECT_H */
Raw
Frikr_Include_setobject.h
/* Set object interface */
#ifndef Py_SETOBJECT_H
#define Py_SETOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
/* There are three kinds of entries in the table:
1. Unused: key == NULL and hash == 0
2. Dummy: key == dummy and hash == -1
3. Active: key != NULL and key != dummy and hash != -1
The hash field of Unused slots is always zero.
The hash field of Dummy slots are set to -1
meaning that dummy entries can be detected by
either entry->key==dummy or by entry->hash==-1.
*/
#define PySet_MINSIZE 8
typedef struct {
PyObject *key;
Py_hash_t hash; /* Cached hash code of the key */
} setentry;
/* The SetObject data structure is shared by set and frozenset objects.
Invariant for sets:
- hash is -1
Invariants for frozensets:
- data is immutable.
- hash is the hash of the frozenset or -1 if not computed yet.
*/
typedef struct {
PyObject_HEAD
Py_ssize_t fill; /* Number active and dummy entries*/
Py_ssize_t used; /* Number active entries */
/* The table contains mask + 1 slots, and that's a power of 2.
* We store the mask instead of the size because the mask is more
* frequently needed.
*/
Py_ssize_t mask;
/* The table points to a fixed-size smalltable for small tables
* or to additional malloc'ed memory for bigger tables.
* The table pointer is never NULL which saves us from repeated
* runtime null-tests.
*/
setentry *table;
Py_hash_t hash; /* Only used by frozenset objects */
Py_ssize_t finger; /* Search finger for pop() */
setentry smalltable[PySet_MINSIZE];
PyObject *weakreflist; /* List of weak references */
} PySetObject;
#define PySet_GET_SIZE(so) (((PySetObject *)(so))->used)
PyAPI_DATA(PyObject *) _PySet_Dummy;
PyAPI_FUNC(int) _PySet_NextEntry(PyObject *set, Py_ssize_t *pos, PyObject **key, Py_hash_t *hash);
PyAPI_FUNC(int) _PySet_Update(PyObject *set, PyObject *iterable);
PyAPI_FUNC(int) PySet_ClearFreeList(void);
#endif /* Section excluded by Py_LIMITED_API */
PyAPI_DATA(PyTypeObject) PySet_Type;
PyAPI_DATA(PyTypeObject) PyFrozenSet_Type;
PyAPI_DATA(PyTypeObject) PySetIter_Type;
PyAPI_FUNC(PyObject *) PySet_New(PyObject *);
PyAPI_FUNC(PyObject *) PyFrozenSet_New(PyObject *);
PyAPI_FUNC(int) PySet_Add(PyObject *set, PyObject *key);
PyAPI_FUNC(int) PySet_Clear(PyObject *set);
PyAPI_FUNC(int) PySet_Contains(PyObject *anyset, PyObject *key);
PyAPI_FUNC(int) PySet_Discard(PyObject *set, PyObject *key);
PyAPI_FUNC(PyObject *) PySet_Pop(PyObject *set);
PyAPI_FUNC(Py_ssize_t) PySet_Size(PyObject *anyset);
#define PyFrozenSet_CheckExact(ob) (Py_TYPE(ob) == &PyFrozenSet_Type)
#define PyAnySet_CheckExact(ob) \
(Py_TYPE(ob) == &PySet_Type || Py_TYPE(ob) == &PyFrozenSet_Type)
#define PyAnySet_Check(ob) \
(Py_TYPE(ob) == &PySet_Type || Py_TYPE(ob) == &PyFrozenSet_Type || \
PyType_IsSubtype(Py_TYPE(ob), &PySet_Type) || \
PyType_IsSubtype(Py_TYPE(ob), &PyFrozenSet_Type))
#define PySet_Check(ob) \
(Py_TYPE(ob) == &PySet_Type || \
PyType_IsSubtype(Py_TYPE(ob), &PySet_Type))
#define PyFrozenSet_Check(ob) \
(Py_TYPE(ob) == &PyFrozenSet_Type || \
PyType_IsSubtype(Py_TYPE(ob), &PyFrozenSet_Type))
#ifdef __cplusplus
}
#endif
#endif /* !Py_SETOBJECT_H */
Raw
Frikr_Include_sip.h
/*
* The SIP module interface.
*
* Copyright (c) 2015 Riverbank Computing Limited <info@riverbankcomputing.com>
*
* This file is part of SIP.
*
* This copy of SIP is licensed for use under the terms of the SIP License
* Agreement. See the file LICENSE for more details.
*
* This copy of SIP may also used under the terms of the GNU General Public
* License v2 or v3 as published by the Free Software Foundation which can be
* found in the files LICENSE-GPL2 and LICENSE-GPL3 included in this package.
*
* SIP is supplied WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
*/
#ifndef _SIP_H
#define _SIP_H
/*
* This gets round a problem with Qt's moc and Python v2.3. Strictly speaking
* it's a Qt problem but later versions of Python include a fix for it so we
* might as well too.
*/
#undef slots
#include <Python.h>
/*
* There is a mis-feature somewhere with the Borland compiler. This works
* around it.
*/
#if defined(__BORLANDC__)
#include <rpc.h>
#endif
#ifdef __cplusplus
extern "C" {
#endif
/* Sanity check on the Python version. */
#if PY_VERSION_HEX < 0x02030000
#error "This version of SIP requires Python v2.3 or later"
#endif
/*
* Define the SIP version number.
*/
#define SIP_VERSION 0x041200
#define SIP_VERSION_STR "4.18"
/*
* Define the current API version number. SIP must handle modules with the
* same major number and with the same or earlier minor number. Whenever data
* structure elements are added they must be appended and the minor number
* incremented. Whenever data structure elements are removed or the order
* changed then the major number must be incremented and the minor number set
* to 0.
*
* History:
*
* 11.3 Added sip_api_get_interpreter() to the public API.
*
* 11.1 Added sip_api_invoke_slot_ex().
* 11.2 Added sip_api_get_reference() to the private API.
*
* 11.1 Added sip_api_invoke_slot_ex().
*
* 11.0 Added the pyqt5QtSignal and pyqt5ClassTypeDef structures.
* Removed qt_interface from pyqt4ClassTypeDef.
* Added hack to pyqt4QtSignal.
*
* 10.1 Added ctd_final to sipClassTypeDef.
* Added ctd_init_mixin to sipClassTypeDef.
* Added sip_api_get_mixin_address() to the public API.
* Added sip_api_convert_from_new_pytype() to the public API.
* Added sip_api_convert_to_array() to the public API.
* Added sip_api_convert_to_typed_array() to the public API.
* Added sip_api_register_proxy_resolver() to the public API.
* Added sip_api_init_mixin() to the private API.
* Added qt_interface to pyqt4ClassTypeDef.
*
* 10.0 Added sip_api_set_destroy_on_exit().
* Added sip_api_enable_autoconversion().
* Removed sip_api_call_error_handler_old().
* Removed sip_api_start_thread().
*
* 9.2 Added sip_gilstate_t and SIP_RELEASE_GIL to the public API.
* Renamed sip_api_call_error_handler() to
* sip_api_call_error_handler_old().
* Added the new sip_api_call_error_handler() to the private API.
*
* 9.1 Added the capsule type.
* Added the 'z' format character to sip_api_build_result().
* Added the 'z', '!' and '$' format characters to
* sip_api_parse_result_ex().
*
* 9.0 Changed the sipVariableGetterFunc signature.
* Added sip_api_parse_result_ex() to the private API.
* Added sip_api_call_error_handler() to the private API.
* Added em_virterrorhandlers to sipExportedModuleDef.
* Re-ordered the API functions.
*
* 8.1 Revised the sipVariableDef structure.
* sip_api_get_address() is now part of the public API.
*
* 8.0 Changed the size of the sipSimpleWrapper structure.
* Added sip_api_get_address().
*
* 7.1 Added the 'H' format character to sip_api_parse_result().
* Deprecated the 'D' format character of sip_api_parse_result().
*
* 7.0 Added sip_api_parse_kwd_args().
* Added sipErrorState, sip_api_add_exception().
* The type initialisation function is now passed a dictionary of keyword
* arguments.
* All argument parsers now update a set of error messages rather than an
* argument count.
* The signatures of sip_api_no_function() and sip_api_no_method() have
* changed.
* Added ctd_docstring to sipClassTypeDef.
* Added vf_docstring to sipVersionedFunctionDef.
*
* 6.0 Added the sipContainerDef structure to define the contents of a class
* or mapped type. Restructured sipClassDef and sipMappedTypeDef
* accordingly.
* Added the 'r' format character to sip_api_parse_args().
* Added the 'r' format character to sip_api_call_method() and
* sip_api_build_result().
* Added the assignment, array and copy allocation helpers.
*
* 5.0 Added sip_api_is_api_enabled().
* Renamed the td_version_nr member of sipTypeDef to be int and where -1
* indicates it is not versioned.
* Added the em_versions member to sipExportedModuleDef.
* Added the em_versioned_functions member to sipExportedModuleDef.
*
* 4.0 Much refactoring.
*
* 3.8 Added sip_api_register_qt_metatype() and sip_api_deprecated().
* Added qt_register_meta_type() to the Qt support API.
* The C/C++ names of enums and types are now always defined in the
* relevant structures and don't default to the Python name.
* Added the 'XE' format characters to sip_api_parse_args().
*
* 3.7 Added sip_api_convert_from_const_void_ptr(),
* sip_api_convert_from_void_ptr_and_size() and
* sip_api_convert_from_const_void_ptr_and_size().
* Added the 'g' and 'G' format characters (to replace the now deprecated
* 'a' and 'A' format characters) to sip_api_build_result(),
* sip_api_call_method() and sip_api_parse_result().
* Added the 'k' and 'K' format characters (to replace the now deprecated
* 'a' and 'A' format characters) to sip_api_parse_args().
* Added sip_api_invoke_slot().
* Added sip_api_parse_type().
* Added sip_api_is_exact_wrapped_type().
* Added sip_api_assign_instance().
* Added sip_api_assign_mapped_type().
* Added the td_assign and td_qt fields to the sipTypeDef structure.
* Added the mt_assign field to the sipMappedType structure.
*
* 3.6 Added the 'g' format character to sip_api_parse_args().
*
* 3.5 Added the td_pickle field to the sipTypeDef structure.
* Added sip_api_transfer_break().
*
* 3.4 Added qt_find_connection() to the Qt support API.
* Added sip_api_string_as_char(), sip_api_unicode_as_wchar(),
* sip_api_unicode_as_wstring(), sip_api_find_class(),
* sip_api_find_named_enum() and sip_api_parse_signature().
* Added the 'A', 'w' and 'x' format characters to sip_api_parse_args(),
* sip_api_parse_result(), sip_api_build_result() and
* sip_api_call_method().
*
* 3.3 Added sip_api_register_int_types().
*
* 3.2 Added sip_api_export_symbol() and sip_api_import_symbol().
*
* 3.1 Added sip_api_add_mapped_type_instance().
*
* 3.0 Moved the Qt support out of the sip module and into PyQt. This is
* such a dramatic change that there is no point in attempting to maintain
* backwards compatibility.
*
* 2.0 Added the td_flags field to the sipTypeDef structure.
* Added the first_child, sibling_next, sibling_prev and parent fields to
* the sipWrapper structure.
* Added the td_traverse and td_clear fields to the sipTypeDef structure.
* Added the em_api_minor field to the sipExportedModuleDef structure.
* Added sip_api_bad_operator_arg().
* Added sip_api_wrapper_check().
*
* 1.1 Added support for __pos__ and __abs__.
*
* 1.0 Removed all deprecated parts of the API.
* Removed the td_proxy field from the sipTypeDef structure.
* Removed the create proxy function from the 'q' and 'y' format
* characters to sip_api_parse_args().
* Removed sip_api_emit_to_slot().
* Reworked the enum related structures.
*
* 0.2 Added the 'H' format character to sip_api_parse_args().
*
* 0.1 Added sip_api_add_class_instance().
* Added the 't' format character to sip_api_parse_args().
* Deprecated the 'J' and 'K' format characters to sip_api_parse_result().
*
* 0.0 Original version.
*/
#define SIP_API_MAJOR_NR 11
#define SIP_API_MINOR_NR 3
/* The name of the sip module. */
#define SIP_MODULE_NAME "sip"
/*
* Qt includes this typedef and its meta-object system explicitly converts
* types to uint. If these correspond to signal arguments then that conversion
* is exposed. Therefore SIP generates code that uses it. This definition is
* for the cases that SIP is generating non-Qt related bindings with compilers
* that don't include it themselves (i.e. MSVC).
*/
typedef unsigned int uint;
/* Some Python compatibility stuff. */
#if PY_VERSION_HEX >= 0x02050000
#define SIP_SSIZE_T Py_ssize_t
#define SIP_SSIZE_T_FORMAT "%zd"
#define SIP_MLNAME_CAST(s) (s)
#define SIP_MLDOC_CAST(s) (s)
#define SIP_TPNAME_CAST(s) (s)
#else
#define SIP_SSIZE_T int
#define SIP_SSIZE_T_FORMAT "%d"
#define SIP_MLNAME_CAST(s) ((char *)(s))
#define SIP_MLDOC_CAST(s) ((char *)(s))
#define SIP_TPNAME_CAST(s) ((char *)(s))
#endif
#if PY_MAJOR_VERSION >= 3
#define SIPLong_FromLong PyLong_FromLong
#define SIPLong_AsLong PyLong_AsLong
#define SIPBytes_Check PyBytes_Check
#define SIPBytes_FromString PyBytes_FromString
#define SIPBytes_FromStringAndSize PyBytes_FromStringAndSize
#define SIPBytes_AS_STRING PyBytes_AS_STRING
#define SIPBytes_GET_SIZE PyBytes_GET_SIZE
#if PY_MINOR_VERSION >= 1
#define SIP_USE_PYCAPSULE
#endif
#if PY_MINOR_VERSION < 2
#define SIP_SUPPORT_PYCOBJECT
#endif
#else
#define SIPLong_FromLong PyInt_FromLong
#define SIPLong_AsLong PyInt_AsLong
#define SIPBytes_Check PyString_Check
#define SIPBytes_FromString PyString_FromString
#define SIPBytes_FromStringAndSize PyString_FromStringAndSize
#define SIPBytes_AS_STRING PyString_AS_STRING
#define SIPBytes_GET_SIZE PyString_GET_SIZE
#if PY_MINOR_VERSION >= 7
#define SIP_USE_PYCAPSULE
#endif
#define SIP_SUPPORT_PYCOBJECT
#endif
#if !defined(Py_REFCNT)
#define Py_REFCNT(ob) (((PyObject*)(ob))->ob_refcnt)
#endif
#if !defined(Py_TYPE)
#define Py_TYPE(ob) (((PyObject*)(ob))->ob_type)
#endif
#if !defined(PyVarObject_HEAD_INIT)
#define PyVarObject_HEAD_INIT(type, size) PyObject_HEAD_INIT(type) size,
#endif
#if defined(SIP_USE_PYCAPSULE)
#define SIPCapsule_FromVoidPtr(p, n) PyCapsule_New((p), (n), NULL)
#define SIPCapsule_AsVoidPtr(p, n) PyCapsule_GetPointer((p), (n))
#else
#define SIPCapsule_FromVoidPtr(p, n) sipConvertFromVoidPtr((p))
#define SIPCapsule_AsVoidPtr(p, n) sipConvertToVoidPtr((p))
#endif
/*
* The mask that can be passed to sipTrace().
*/
#define SIP_TRACE_CATCHERS 0x0001
#define SIP_TRACE_CTORS 0x0002
#define SIP_TRACE_DTORS 0x0004
#define SIP_TRACE_INITS 0x0008
#define SIP_TRACE_DEALLOCS 0x0010
#define SIP_TRACE_METHODS 0x0020
/*
* Hide some thread dependent stuff.
*/
#ifdef WITH_THREAD
typedef PyGILState_STATE sip_gilstate_t;
#define SIP_RELEASE_GIL(gs) PyGILState_Release(gs);
#define SIP_BLOCK_THREADS {PyGILState_STATE sipGIL = PyGILState_Ensure();
#define SIP_UNBLOCK_THREADS PyGILState_Release(sipGIL);}
#else
typedef int sip_gilstate_t;
#define SIP_RELEASE_GIL(gs)
#define SIP_BLOCK_THREADS
#define SIP_UNBLOCK_THREADS
#endif
/*
* Some convenient function pointers.
*/
/*
* The operation an access function is being asked to perform.
*/
typedef enum
{
UnguardedPointer, /* Return the unguarded pointer. */
GuardedPointer, /* Return the guarded pointer, ie. 0 if it has gone. */
ReleaseGuard /* Release the guard, if any. */
} AccessFuncOp;
struct _sipSimpleWrapper;
struct _sipTypeDef;
typedef void *(*sipInitFunc)(struct _sipSimpleWrapper *, PyObject *,
PyObject *, PyObject **, PyObject **, PyObject **);
typedef int (*sipFinalFunc)(PyObject *, void *, PyObject *, PyObject **);
typedef void *(*sipAccessFunc)(struct _sipSimpleWrapper *, AccessFuncOp);
typedef int (*sipTraverseFunc)(void *, visitproc, void *);
typedef int (*sipClearFunc)(void *);
#if PY_MAJOR_VERSION >= 3
typedef int (*sipGetBufferFunc)(PyObject *, void *, Py_buffer *, int);
typedef void (*sipReleaseBufferFunc)(PyObject *, void *, Py_buffer *);
#else
typedef SIP_SSIZE_T (*sipBufferFunc)(PyObject *, void *, SIP_SSIZE_T, void **);
typedef SIP_SSIZE_T (*sipSegCountFunc)(PyObject *, void *, SIP_SSIZE_T *);
#endif
typedef void (*sipDeallocFunc)(struct _sipSimpleWrapper *);
typedef void *(*sipCastFunc)(void *, const struct _sipTypeDef *);
typedef const struct _sipTypeDef *(*sipSubClassConvertFunc)(void **);
typedef int (*sipConvertToFunc)(PyObject *, void **, int *, PyObject *);
typedef PyObject *(*sipConvertFromFunc)(void *, PyObject *);
typedef void (*sipVirtErrorHandlerFunc)(struct _sipSimpleWrapper *,
sip_gilstate_t);
typedef int (*sipVirtHandlerFunc)(sip_gilstate_t, sipVirtErrorHandlerFunc,
struct _sipSimpleWrapper *, PyObject *, ...);
typedef void (*sipAssignFunc)(void *, SIP_SSIZE_T, const void *);
typedef void *(*sipArrayFunc)(SIP_SSIZE_T);
typedef void *(*sipCopyFunc)(const void *, SIP_SSIZE_T);
typedef void (*sipReleaseFunc)(void *, int);
typedef PyObject *(*sipPickleFunc)(void *);
typedef int (*sipAttrGetterFunc)(const struct _sipTypeDef *, PyObject *);
typedef PyObject *(*sipVariableGetterFunc)(void *, PyObject *, PyObject *);
typedef int (*sipVariableSetterFunc)(void *, PyObject *, PyObject *);
typedef void *(*sipProxyResolverFunc)(void *);
/*
* The meta-type of a wrapper type.
*/
typedef struct _sipWrapperType {
/*
* The super-metatype. This must be first in the structure so that it can
* be cast to a PyTypeObject *.
*/
PyHeapTypeObject super;
/* The generated type structure. */
struct _sipTypeDef *type;
/* The list of init extenders. */
struct _sipInitExtenderDef *iextend;
/* Set if the type's dictionary contains all lazy attributes. */
int dict_complete;
} sipWrapperType;
/*
* The type of a simple C/C++ wrapper object.
*/
typedef struct _sipSimpleWrapper {
PyObject_HEAD
/*
* The data, initially a pointer to the C/C++ object, as interpreted by the
* access function.
*/
void *data;
/* The optional access function. */
sipAccessFunc access_func;
/* Object flags. */
int flags;
/* The optional dictionary of extra references keyed by argument number. */
PyObject *extra_refs;
/* For the user to use. */
PyObject *user;
/* The instance dictionary. */
PyObject *dict;
/* The main instance if this is a mixin. */
PyObject *mixin_main;
/* Next object at this address. */
struct _sipSimpleWrapper *next;
} sipSimpleWrapper;
/*
* The type of a C/C++ wrapper object that supports parent/child relationships.
*/
typedef struct _sipWrapper {
/* The super-type. */
sipSimpleWrapper super;
/* First child object. */
struct _sipWrapper *first_child;
/* Next sibling. */
struct _sipWrapper *sibling_next;
/* Previous sibling. */
struct _sipWrapper *sibling_prev;
/* Owning object. */
struct _sipWrapper *parent;
} sipWrapper;
/*
* The meta-type of an enum type. (This is exposed only to support the
* deprecated sipConvertFromNamedEnum() macro.)
*/
typedef struct _sipEnumTypeObject {
/*
* The super-metatype. This must be first in the structure so that it can
* be cast to a PyTypeObject *.
*/
PyHeapTypeObject super;
/* The generated type structure. */
struct _sipTypeDef *type;
} sipEnumTypeObject;
/*
* The information describing an encoded type ID.
*/
typedef struct _sipEncodedTypeDef {
/* The type number. */
unsigned sc_type:16;
/* The module number (255 for this one). */
unsigned sc_module:8;
/* A context specific flag. */
unsigned sc_flag:1;
} sipEncodedTypeDef;
/*
* The information describing an enum member.
*/
typedef struct _sipEnumMemberDef {
/* The member name. */
const char *em_name;
/* The member value. */
int em_val;
/* The member enum, -ve if anonymous. */
int em_enum;
} sipEnumMemberDef;
/*
* The information describing static instances.
*/
typedef struct _sipInstancesDef {
/* The types. */
struct _sipTypeInstanceDef *id_type;
/* The void *. */
struct _sipVoidPtrInstanceDef *id_voidp;
/* The chars. */
struct _sipCharInstanceDef *id_char;
/* The strings. */
struct _sipStringInstanceDef *id_string;
/* The ints. */
struct _sipIntInstanceDef *id_int;
/* The longs. */
struct _sipLongInstanceDef *id_long;
/* The unsigned longs. */
struct _sipUnsignedLongInstanceDef *id_ulong;
/* The long longs. */
struct _sipLongLongInstanceDef *id_llong;
/* The unsigned long longs. */
struct _sipUnsignedLongLongInstanceDef *id_ullong;
/* The doubles. */
struct _sipDoubleInstanceDef *id_double;
} sipInstancesDef;
/*
* The information describing a type initialiser extender.
*/
typedef struct _sipInitExtenderDef {
/* The API version range index. */
int ie_api_range;
/* The extender function. */
sipInitFunc ie_extender;
/* The class being extended. */
sipEncodedTypeDef ie_class;
/* The next extender for this class. */
struct _sipInitExtenderDef *ie_next;
} sipInitExtenderDef;
/*
* The information describing a sub-class convertor.
*/
typedef struct _sipSubClassConvertorDef {
/* The convertor. */
sipSubClassConvertFunc scc_convertor;
/* The encoded base type. */
sipEncodedTypeDef scc_base;
/* The base type. */
struct _sipTypeDef *scc_basetype;
} sipSubClassConvertorDef;
/*
* The different error states of handwritten code.
*/
typedef enum {
sipErrorNone, /* There is no error. */
sipErrorFail, /* The error is a failure. */
sipErrorContinue /* It may not apply if a later operation succeeds. */
} sipErrorState;
/*
* The different Python slot types. New slots must be added to the end,
* otherwise the major version of the internal ABI must be changed.
*/
typedef enum {
str_slot, /* __str__ */
int_slot, /* __int__ */
#if PY_MAJOR_VERSION < 3
long_slot, /* __long__ */
#endif
float_slot, /* __float__ */
len_slot, /* __len__ */
contains_slot, /* __contains__ */
add_slot, /* __add__ for number */
concat_slot, /* __add__ for sequence types */
sub_slot, /* __sub__ */
mul_slot, /* __mul__ for number types */
repeat_slot, /* __mul__ for sequence types */
div_slot, /* __div__ */
mod_slot, /* __mod__ */
floordiv_slot, /* __floordiv__ */
truediv_slot, /* __truediv__ */
and_slot, /* __and__ */
or_slot, /* __or__ */
xor_slot, /* __xor__ */
lshift_slot, /* __lshift__ */
rshift_slot, /* __rshift__ */
iadd_slot, /* __iadd__ for number types */
iconcat_slot, /* __iadd__ for sequence types */
isub_slot, /* __isub__ */
imul_slot, /* __imul__ for number types */
irepeat_slot, /* __imul__ for sequence types */
idiv_slot, /* __idiv__ */
imod_slot, /* __imod__ */
ifloordiv_slot, /* __ifloordiv__ */
itruediv_slot, /* __itruediv__ */
iand_slot, /* __iand__ */
ior_slot, /* __ior__ */
ixor_slot, /* __ixor__ */
ilshift_slot, /* __ilshift__ */
irshift_slot, /* __irshift__ */
invert_slot, /* __invert__ */
call_slot, /* __call__ */
getitem_slot, /* __getitem__ */
setitem_slot, /* __setitem__ */
delitem_slot, /* __delitem__ */
lt_slot, /* __lt__ */
le_slot, /* __le__ */
eq_slot, /* __eq__ */
ne_slot, /* __ne__ */
gt_slot, /* __gt__ */
ge_slot, /* __ge__ */
#if PY_MAJOR_VERSION < 3
cmp_slot, /* __cmp__ */
#endif
bool_slot, /* __bool__, __nonzero__ */
neg_slot, /* __neg__ */
repr_slot, /* __repr__ */
hash_slot, /* __hash__ */
pos_slot, /* __pos__ */
abs_slot, /* __abs__ */
#if PY_VERSION_HEX >= 0x02050000
index_slot, /* __index__ */
#endif
iter_slot, /* __iter__ */
next_slot, /* __next__ */
setattr_slot, /* __setattr__, __delattr__ */
matmul_slot, /* __matmul__ (for Python v3.5 and later) */
imatmul_slot, /* __imatmul__ (for Python v3.5 and later) */
await_slot, /* __await__ (for Python v3.5 and later) */
aiter_slot, /* __aiter__ (for Python v3.5 and later) */
anext_slot, /* __anext__ (for Python v3.5 and later) */
} sipPySlotType;
/*
* The information describing a Python slot function.
*/
typedef struct _sipPySlotDef {
/* The function. */
void *psd_func;
/* The type. */
sipPySlotType psd_type;
} sipPySlotDef;
/*
* The information describing a Python slot extender.
*/
typedef struct _sipPySlotExtenderDef {
/* The function. */
void *pse_func;
/* The type. */
sipPySlotType pse_type;
/* The encoded class. */
sipEncodedTypeDef pse_class;
} sipPySlotExtenderDef;
/*
* The information describing a typedef.
*/
typedef struct _sipTypedefDef {
/* The typedef name. */
const char *tdd_name;
/* The typedef value. */
const char *tdd_type_name;
} sipTypedefDef;
/*
* The information describing a variable or property.
*/
typedef enum
{
PropertyVariable, /* A property. */
InstanceVariable, /* An instance variable. */
ClassVariable /* A class (i.e. static) variable. */
} sipVariableType;
typedef struct _sipVariableDef {
/* The type of variable. */
sipVariableType vd_type;
/* The name. */
const char *vd_name;
/*
* The getter. If this is a variable (rather than a property) then the
* actual type is sipVariableGetterFunc.
*/
PyMethodDef *vd_getter;
/*
* The setter. If this is a variable (rather than a property) then the
* actual type is sipVariableSetterFunc. It is NULL if the property cannot
* be set or the variable is const.
*/
PyMethodDef *vd_setter;
/* The property deleter. */
PyMethodDef *vd_deleter;
/* The docstring. */
const char *vd_docstring;
} sipVariableDef;
/*
* The information describing a type, either a C++ class (or C struct), a C++
* namespace, a mapped type or a named enum.
*/
typedef struct _sipTypeDef {
/* The version range index, -1 if the type isn't versioned. */
int td_version;
/* The next version of this type. */
struct _sipTypeDef *td_next_version;
/* The module, 0 if the type hasn't been initialised. */
struct _sipExportedModuleDef *td_module;
/* Type flags, see the sipType*() macros. */
int td_flags;
/* The C/C++ name of the type. */
int td_cname;
/*
* The Python type object. This needs to be a union until we remove the
* deprecated sipClass_* macros.
*/
union {
PyTypeObject *td_py_type;
sipWrapperType *td_wrapper_type;
} u;
} sipTypeDef;
/*
* The information describing a container (ie. a class, namespace or a mapped
* type).
*/
typedef struct _sipContainerDef {
/*
* The Python name of the type, -1 if this is a namespace extender (in the
* context of a class) or doesn't require a namespace (in the context of a
* mapped type). */
int cod_name;
/*
* The scoping type or the namespace this is extending if it is a namespace
* extender.
*/
sipEncodedTypeDef cod_scope;
/* The number of lazy methods. */
int cod_nrmethods;
/* The table of lazy methods. */
PyMethodDef *cod_methods;
/* The number of lazy enum members. */
int cod_nrenummembers;
/* The table of lazy enum members. */
sipEnumMemberDef *cod_enummembers;
/* The number of variables. */
int cod_nrvariables;
/* The table of variables. */
sipVariableDef *cod_variables;
/* The static instances. */
sipInstancesDef cod_instances;
} sipContainerDef;
/*
* The information describing a C++ class (or C struct) or a C++ namespace.
*/
typedef struct _sipClassTypeDef {
/* The base type information. */
sipTypeDef ctd_base;
/* The container information. */
sipContainerDef ctd_container;
/* The docstring. */
const char *ctd_docstring;
/*
* The meta-type name, -1 to use the meta-type of the first super-type
* (normally sipWrapperType).
*/
int ctd_metatype;
/* The super-type name, -1 to use sipWrapper. */
int ctd_supertype;
/* The super-types. */
sipEncodedTypeDef *ctd_supers;
/* The table of Python slots. */
sipPySlotDef *ctd_pyslots;
/* The initialisation function. */
sipInitFunc ctd_init;
/* The traverse function. */
sipTraverseFunc ctd_traverse;
/* The clear function. */
sipClearFunc ctd_clear;
#if PY_MAJOR_VERSION >= 3
/* The get buffer function. */
sipGetBufferFunc ctd_getbuffer;
/* The release buffer function. */
sipReleaseBufferFunc ctd_releasebuffer;
#else
/* The read buffer function. */
sipBufferFunc ctd_readbuffer;
/* The write buffer function. */
sipBufferFunc ctd_writebuffer;
/* The segment count function. */
sipSegCountFunc ctd_segcount;
/* The char buffer function. */
sipBufferFunc ctd_charbuffer;
#endif
/* The deallocation function. */
sipDeallocFunc ctd_dealloc;
/* The optional assignment function. */
sipAssignFunc ctd_assign;
/* The optional array allocation function. */
sipArrayFunc ctd_array;
/* The optional copy function. */
sipCopyFunc ctd_copy;
/* The release function, 0 if a C struct. */
sipReleaseFunc ctd_release;
/* The cast function, 0 if a C struct. */
sipCastFunc ctd_cast;
/* The optional convert to function. */
sipConvertToFunc ctd_cto;
/* The optional convert from function. */
sipConvertFromFunc ctd_cfrom;
/* The next namespace extender. */
struct _sipClassTypeDef *ctd_nsextender;
/* The pickle function. */
sipPickleFunc ctd_pickle;
/* The finalisation function. */
sipFinalFunc ctd_final;
/* The mixin initialisation function. */
initproc ctd_init_mixin;
} sipClassTypeDef;
/*
* The information describing a mapped type.
*/
typedef struct _sipMappedTypeDef {
/* The base type information. */
sipTypeDef mtd_base;
/* The container information. */
sipContainerDef mtd_container;
/* The optional assignment function. */
sipAssignFunc mtd_assign;
/* The optional array allocation function. */
sipArrayFunc mtd_array;
/* The optional copy function. */
sipCopyFunc mtd_copy;
/* The optional release function. */
sipReleaseFunc mtd_release;
/* The convert to function. */
sipConvertToFunc mtd_cto;
/* The convert from function. */
sipConvertFromFunc mtd_cfrom;
} sipMappedTypeDef;
/*
* The information describing a named enum.
*/
typedef struct _sipEnumTypeDef {
/* The base type information. */
sipTypeDef etd_base;
/* The Python name of the enum. */
int etd_name;
/* The scoping type, -1 if it is defined at the module level. */
int etd_scope;
/* The Python slots. */
struct _sipPySlotDef *etd_pyslots;
} sipEnumTypeDef;
/*
* The information describing an external type.
*/
typedef struct _sipExternalTypeDef {
/* The index into the type table. */
int et_nr;
/* The name of the type. */
const char *et_name;
} sipExternalTypeDef;
/*
* The information describing a mapped class. This (and anything that uses it)
* is deprecated.
*/
typedef sipTypeDef sipMappedType;
/*
* Defines an entry in the module specific list of delayed dtor calls.
*/
typedef struct _sipDelayedDtor {
/* The C/C++ instance. */
void *dd_ptr;
/* The class name. */
const char *dd_name;
/* Non-zero if dd_ptr is a derived class instance. */
int dd_isderived;
/* Next in the list. */
struct _sipDelayedDtor *dd_next;
} sipDelayedDtor;
/*
* Defines an entry in the table of global functions all of whose overloads
* are versioned (so their names can't be automatically added to the module
* dictionary).
*/
typedef struct _sipVersionedFunctionDef {
/* The name, -1 marks the end of the table. */
int vf_name;
/* The function itself. */
PyCFunction vf_function;
/* The METH_* flags. */
int vf_flags;
/* The docstring. */
const char *vf_docstring;
/* The API version range index. */
int vf_api_range;
} sipVersionedFunctionDef;
/*
* The information describing an imported module.
*/
typedef struct _sipImportedModuleDef {
/* The module name. */
const char *im_name;
/* The required version. */
int im_version;
/* The imported module. */
struct _sipExportedModuleDef *im_module;
} sipImportedModuleDef;
/*
* The main client module structure.
*/
typedef struct _sipExportedModuleDef {
/* The next in the list. */
struct _sipExportedModuleDef *em_next;
/* The SIP API minor version number. */
unsigned em_api_minor;
/* The module name. */
int em_name;
/* The module name as an object. */
PyObject *em_nameobj;
/* The module version. */
int em_version;
/* The string pool. */
const char *em_strings;
/* The imported modules. */
sipImportedModuleDef *em_imports;
/* The optional Qt support API. */
struct _sipQtAPI *em_qt_api;
/* The number of types. */
int em_nrtypes;
/* The table of types. */
sipTypeDef **em_types;
/* The table of external types. */
sipExternalTypeDef *em_external;
/* The number of members in global enums. */
int em_nrenummembers;
/* The table of members in global enums. */
sipEnumMemberDef *em_enummembers;
/* The number of typedefs. */
int em_nrtypedefs;
/* The table of typedefs. */
sipTypedefDef *em_typedefs;
/* The table of virtual handlers. */
sipVirtHandlerFunc *em_virthandlers;
/* The table of virtual error handlers. */
sipVirtErrorHandlerFunc *em_virterrorhandlers;
/* The sub-class convertors. */
sipSubClassConvertorDef *em_convertors;
/* The static instances. */
sipInstancesDef em_instances;
/* The license. */
struct _sipLicenseDef *em_license;
/* The table of exception types. */
PyObject **em_exceptions;
/* The table of Python slot extenders. */
sipPySlotExtenderDef *em_slotextend;
/* The table of initialiser extenders. */
sipInitExtenderDef *em_initextend;
/* The delayed dtor handler. */
void (*em_delayeddtors)(const sipDelayedDtor *);
/* The list of delayed dtors. */
sipDelayedDtor *em_ddlist;
/*
* The array of API version definitions. Each definition takes up 3
* elements. If the third element of a 3-tuple is negative then the first
* two elements define an API and its default version. All such
* definitions will appear at the end of the array. If the first element
* of a 3-tuple is negative then that is the last element of the array.
*/
int *em_versions;
/* The optional table of versioned functions. */
sipVersionedFunctionDef *em_versioned_functions;
} sipExportedModuleDef;
/*
* The information describing a license to be added to a dictionary.
*/
typedef struct _sipLicenseDef {
/* The type of license. */
const char *lc_type;
/* The licensee. */
const char *lc_licensee;
/* The timestamp. */
const char *lc_timestamp;
/* The signature. */
const char *lc_signature;
} sipLicenseDef;
/*
* The information describing a void pointer instance to be added to a
* dictionary.
*/
typedef struct _sipVoidPtrInstanceDef {
/* The void pointer name. */
const char *vi_name;
/* The void pointer value. */
void *vi_val;
} sipVoidPtrInstanceDef;
/*
* The information describing a char instance to be added to a dictionary.
*/
typedef struct _sipCharInstanceDef {
/* The char name. */
const char *ci_name;
/* The char value. */
char ci_val;
/* The encoding used, either 'A', 'L', '8' or 'N'. */
char ci_encoding;
} sipCharInstanceDef;
/*
* The information describing a string instance to be added to a dictionary.
*/
typedef struct _sipStringInstanceDef {
/* The string name. */
const char *si_name;
/* The string value. */
const char *si_val;
/* The encoding used, either 'A', 'L', '8' or 'N'. */
char si_encoding;
} sipStringInstanceDef;
/*
* The information describing an int instance to be added to a dictionary.
*/
typedef struct _sipIntInstanceDef {
/* The int name. */
const char *ii_name;
/* The int value. */
int ii_val;
} sipIntInstanceDef;
/*
* The information describing a long instance to be added to a dictionary.
*/
typedef struct _sipLongInstanceDef {
/* The long name. */
const char *li_name;
/* The long value. */
long li_val;
} sipLongInstanceDef;
/*
* The information describing an unsigned long instance to be added to a
* dictionary.
*/
typedef struct _sipUnsignedLongInstanceDef {
/* The unsigned long name. */
const char *uli_name;
/* The unsigned long value. */
unsigned long uli_val;
} sipUnsignedLongInstanceDef;
/*
* The information describing a long long instance to be added to a dictionary.
*/
typedef struct _sipLongLongInstanceDef {
/* The long long name. */
const char *lli_name;
/* The long long value. */
#if defined(HAVE_LONG_LONG)
PY_LONG_LONG lli_val;
#else
long lli_val;
#endif
} sipLongLongInstanceDef;
/*
* The information describing an unsigned long long instance to be added to a
* dictionary.
*/
typedef struct _sipUnsignedLongLongInstanceDef {
/* The unsigned long long name. */
const char *ulli_name;
/* The unsigned long long value. */
#if defined(HAVE_LONG_LONG)
unsigned PY_LONG_LONG ulli_val;
#else
unsigned long ulli_val;
#endif
} sipUnsignedLongLongInstanceDef;
/*
* The information describing a double instance to be added to a dictionary.
*/
typedef struct _sipDoubleInstanceDef {
/* The double name. */
const char *di_name;
/* The double value. */
double di_val;
} sipDoubleInstanceDef;
/*
* The information describing a class or enum instance to be added to a
* dictionary.
*/
typedef struct _sipTypeInstanceDef {
/* The type instance name. */
const char *ti_name;
/* The actual instance. */
void *ti_ptr;
/* A pointer to the generated type. */
struct _sipTypeDef **ti_type;
/* The wrapping flags. */
int ti_flags;
} sipTypeInstanceDef;
/*
* Define a mapping between a wrapped type identified by a string and the
* corresponding Python type. This is deprecated.
*/
typedef struct _sipStringTypeClassMap {
/* The type as a string. */
const char *typeString;
/* A pointer to the Python type. */
struct _sipWrapperType **pyType;
} sipStringTypeClassMap;
/*
* Define a mapping between a wrapped type identified by an integer and the
* corresponding Python type. This is deprecated.
*/
typedef struct _sipIntTypeClassMap {
/* The type as an integer. */
int typeInt;
/* A pointer to the Python type. */
struct _sipWrapperType **pyType;
} sipIntTypeClassMap;
/*
* A Python method's component parts. This allows us to re-create the method
* without changing the reference counts of the components.
*/
typedef struct _sipPyMethod {
/* The function. */
PyObject *mfunc;
/* Self if it is a bound method. */
PyObject *mself;
#if PY_MAJOR_VERSION < 3
/* The class. */
PyObject *mclass;
#endif
} sipPyMethod;
/*
* A slot (in the Qt, rather than Python, sense).
*/
typedef struct _sipSlot {
/* Name if a Qt or Python signal. */
char *name;
/* Signal or Qt slot object. */
PyObject *pyobj;
/* Python slot method, pyobj is NULL. */
sipPyMethod meth;
/* A weak reference to the slot, Py_True if pyobj has an extra reference. */
PyObject *weakSlot;
} sipSlot;
/*
* The API exported by the SIP module, ie. pointers to all the data and
* functions that can be used by generated code.
*/
typedef struct _sipAPIDef {
/*
* This must be the first entry and it's signature must not change so that
* version number mismatches can be detected and reported.
*/
int (*api_export_module)(sipExportedModuleDef *client, unsigned api_major,
unsigned api_minor, void *unused);
/*
* The following are part of the public API.
*/
PyTypeObject *api_simplewrapper_type;
PyTypeObject *api_wrapper_type;
PyTypeObject *api_wrappertype_type;
PyTypeObject *api_voidptr_type;
void (*api_bad_catcher_result)(PyObject *method);
void (*api_bad_length_for_slice)(SIP_SSIZE_T seqlen, SIP_SSIZE_T slicelen);
PyObject *(*api_build_result)(int *isErr, const char *fmt, ...);
PyObject *(*api_call_method)(int *isErr, PyObject *method, const char *fmt,
...);
PyObject *(*api_connect_rx)(PyObject *txObj, const char *sig,
PyObject *rxObj, const char *slot, int type);
SIP_SSIZE_T (*api_convert_from_sequence_index)(SIP_SSIZE_T idx,
SIP_SSIZE_T len);
int (*api_can_convert_to_type)(PyObject *pyObj, const sipTypeDef *td,
int flags);
void *(*api_convert_to_type)(PyObject *pyObj, const sipTypeDef *td,
PyObject *transferObj, int flags, int *statep, int *iserrp);
void *(*api_force_convert_to_type)(PyObject *pyObj, const sipTypeDef *td,
PyObject *transferObj, int flags, int *statep, int *iserrp);
int (*api_can_convert_to_enum)(PyObject *pyObj, const sipTypeDef *td);
void (*api_release_type)(void *cpp, const sipTypeDef *td, int state);
PyObject *(*api_convert_from_type)(void *cpp, const sipTypeDef *td,
PyObject *transferObj);
PyObject *(*api_convert_from_new_type)(void *cpp, const sipTypeDef *td,
PyObject *transferObj);
PyObject *(*api_convert_from_enum)(int eval, const sipTypeDef *td);
int (*api_get_state)(PyObject *transferObj);
PyObject *(*api_disconnect_rx)(PyObject *txObj, const char *sig,
PyObject *rxObj, const char *slot);
void (*api_free)(void *mem);
PyObject *(*api_get_pyobject)(void *cppPtr, const sipTypeDef *td);
void *(*api_malloc)(size_t nbytes);
int (*api_parse_result)(int *isErr, PyObject *method, PyObject *res,
const char *fmt, ...);
void (*api_trace)(unsigned mask, const char *fmt, ...);
void (*api_transfer_back)(PyObject *self);
void (*api_transfer_to)(PyObject *self, PyObject *owner);
void (*api_transfer_break)(PyObject *self);
unsigned long (*api_long_as_unsigned_long)(PyObject *o);
PyObject *(*api_convert_from_void_ptr)(void *val);
PyObject *(*api_convert_from_const_void_ptr)(const void *val);
PyObject *(*api_convert_from_void_ptr_and_size)(void *val,
SIP_SSIZE_T size);
PyObject *(*api_convert_from_const_void_ptr_and_size)(const void *val,
SIP_SSIZE_T size);
void *(*api_convert_to_void_ptr)(PyObject *obj);
int (*api_export_symbol)(const char *name, void *sym);
void *(*api_import_symbol)(const char *name);
const sipTypeDef *(*api_find_type)(const char *type);
int (*api_register_py_type)(PyTypeObject *type);
const sipTypeDef *(*api_type_from_py_type_object)(PyTypeObject *py_type);
const sipTypeDef *(*api_type_scope)(const sipTypeDef *td);
const char *(*api_resolve_typedef)(const char *name);
int (*api_register_attribute_getter)(const sipTypeDef *td,
sipAttrGetterFunc getter);
int (*api_is_api_enabled)(const char *name, int from, int to);
sipErrorState (*api_bad_callable_arg)(int arg_nr, PyObject *arg);
void *(*api_get_address)(struct _sipSimpleWrapper *w);
void (*api_set_destroy_on_exit)(int);
int (*api_enable_autoconversion)(const sipTypeDef *td, int enable);
/*
* The following are deprecated parts of the public API.
*/
PyTypeObject *(*api_find_named_enum)(const char *type);
const sipMappedType *(*api_find_mapped_type)(const char *type);
sipWrapperType *(*api_find_class)(const char *type);
sipWrapperType *(*api_map_int_to_class)(int typeInt,
const sipIntTypeClassMap *map, int maplen);
sipWrapperType *(*api_map_string_to_class)(const char *typeString,
const sipStringTypeClassMap *map, int maplen);
/*
* The following may be used by Qt support code but no other handwritten
* code.
*/
void (*api_free_sipslot)(sipSlot *slot);
int (*api_same_slot)(const sipSlot *sp, PyObject *rxObj, const char *slot);
void *(*api_convert_rx)(sipWrapper *txSelf, const char *sigargs,
PyObject *rxObj, const char *slot, const char **memberp,
int flags);
PyObject *(*api_invoke_slot)(const sipSlot *slot, PyObject *sigargs);
int (*api_save_slot)(sipSlot *sp, PyObject *rxObj, const char *slot);
void (*api_clear_any_slot_reference)(sipSlot *slot);
int (*api_visit_slot)(sipSlot *slot, visitproc visit, void *arg);
/*
* The following are not part of the public API.
*/
int (*api_init_module)(sipExportedModuleDef *client, PyObject *mod_dict);
int (*api_parse_args)(PyObject **parseErrp, PyObject *sipArgs,
const char *fmt, ...);
int (*api_parse_pair)(PyObject **parseErrp, PyObject *arg0, PyObject *arg1,
const char *fmt, ...);
void (*api_common_dtor)(sipSimpleWrapper *sipSelf);
void (*api_no_function)(PyObject *parseErr, const char *func,
const char *doc);
void (*api_no_method)(PyObject *parseErr, const char *scope,
const char *method, const char *doc);
void (*api_abstract_method)(const char *classname, const char *method);
void (*api_bad_class)(const char *classname);
void *(*api_get_cpp_ptr)(sipSimpleWrapper *w, const sipTypeDef *td);
void *(*api_get_complex_cpp_ptr)(sipSimpleWrapper *w);
PyObject *(*api_is_py_method)(sip_gilstate_t *gil, char *pymc,
sipSimpleWrapper *sipSelf, const char *cname, const char *mname);
void (*api_call_hook)(const char *hookname);
void (*api_end_thread)(void);
void (*api_raise_unknown_exception)(void);
void (*api_raise_type_exception)(const sipTypeDef *td, void *ptr);
int (*api_add_type_instance)(PyObject *dict, const char *name,
void *cppPtr, const sipTypeDef *td);
void (*api_bad_operator_arg)(PyObject *self, PyObject *arg,
sipPySlotType st);
PyObject *(*api_pyslot_extend)(sipExportedModuleDef *mod, sipPySlotType st,
const sipTypeDef *type, PyObject *arg0, PyObject *arg1);
void (*api_add_delayed_dtor)(sipSimpleWrapper *w);
char (*api_bytes_as_char)(PyObject *obj);
const char *(*api_bytes_as_string)(PyObject *obj);
char (*api_string_as_ascii_char)(PyObject *obj);
const char *(*api_string_as_ascii_string)(PyObject **obj);
char (*api_string_as_latin1_char)(PyObject *obj);
const char *(*api_string_as_latin1_string)(PyObject **obj);
char (*api_string_as_utf8_char)(PyObject *obj);
const char *(*api_string_as_utf8_string)(PyObject **obj);
#if defined(HAVE_WCHAR_H)
wchar_t (*api_unicode_as_wchar)(PyObject *obj);
wchar_t *(*api_unicode_as_wstring)(PyObject *obj);
#else
int (*api_unicode_as_wchar)(PyObject *obj);
int *(*api_unicode_as_wstring)(PyObject *obj);
#endif
int (*api_deprecated)(const char *classname, const char *method);
void (*api_keep_reference)(PyObject *self, int key, PyObject *obj);
int (*api_parse_kwd_args)(PyObject **parseErrp, PyObject *sipArgs,
PyObject *sipKwdArgs, const char **kwdlist, PyObject **unused,
const char *fmt, ...);
void (*api_add_exception)(sipErrorState es, PyObject **parseErrp);
int (*api_parse_result_ex)(sip_gilstate_t, sipVirtErrorHandlerFunc,
sipSimpleWrapper *, PyObject *method, PyObject *res,
const char *fmt, ...);
void (*api_call_error_handler)(sipVirtErrorHandlerFunc,
sipSimpleWrapper *, sip_gilstate_t);
int (*api_init_mixin)(PyObject *self, PyObject *args, PyObject *kwds,
const sipClassTypeDef *ctd);
/*
* The following are part of the public API.
*/
void *(*api_get_mixin_address)(struct _sipSimpleWrapper *w,
const sipTypeDef *td);
PyObject *(*api_convert_from_new_pytype)(void *cpp, PyTypeObject *py_type,
sipWrapper *owner, sipSimpleWrapper **selfp, const char *fmt, ...);
PyObject *(*api_convert_to_typed_array)(void *data, const sipTypeDef *td,
const char *format, size_t stride, SIP_SSIZE_T len, int flags);
PyObject *(*api_convert_to_array)(void *data, const char *format,
SIP_SSIZE_T len, int flags);
int (*api_register_proxy_resolver)(const sipTypeDef *td,
sipProxyResolverFunc resolver);
/*
* The following may be used by Qt support code but no other handwritten
* code.
*/
PyObject *(*api_invoke_slot_ex)(const sipSlot *slot, PyObject *sigargs,
int check_receiver);
/*
* The following is not part of the public API.
*/
PyObject *(*api_get_reference)(PyObject *self, int key);
/*
* The following is part of the public API.
*/
PyInterpreterState *(*api_get_interpreter)();
} sipAPIDef;
/*
* The API implementing the optional Qt support.
*/
typedef struct _sipQtAPI {
sipTypeDef **qt_qobject;
void *(*qt_create_universal_signal)(void *, const char **);
void *(*qt_find_universal_signal)(void *, const char **);
void *(*qt_create_universal_slot)(struct _sipWrapper *, const char *,
PyObject *, const char *, const char **, int);
void (*qt_destroy_universal_slot)(void *);
void *(*qt_find_slot)(void *, const char *, PyObject *, const char *,
const char **);
int (*qt_connect)(void *, const char *, void *, const char *, int);
int (*qt_disconnect)(void *, const char *, void *, const char *);
int (*qt_same_name)(const char *, const char *);
sipSlot *(*qt_find_sipslot)(void *, void **);
int (*qt_emit_signal)(PyObject *, const char *, PyObject *);
int (*qt_connect_py_signal)(PyObject *, const char *, PyObject *,
const char *);
void (*qt_disconnect_py_signal)(PyObject *, const char *, PyObject *,
const char *);
} sipQtAPI;
/*
* These are flags that can be passed to sipCanConvertToType(),
* sipConvertToType() and sipForceConvertToType().
*/
#define SIP_NOT_NONE 0x01 /* Disallow None. */
#define SIP_NO_CONVERTORS 0x02 /* Disable any type convertors. */
/*
* These are flags that can be passed to sipConvertToArray().
*/
#define SIP_READ_ONLY 0x01 /* The array is read-only. */
#define SIP_OWNS_MEMORY 0x02 /* The array owns its memory. */
/*
* These are the state flags returned by %ConvertToTypeCode. Note that these
* share the same "namespace" as the flags below.
*/
#define SIP_TEMPORARY 0x0001 /* A temporary instance. */
#define SIP_DERIVED_CLASS 0x0002 /* The instance is derived. */
/*
* These flags are specific to the Qt support API.
*/
#define SIP_SINGLE_SHOT 0x01 /* The connection is single shot. */
/*
* Useful macros, not part of the public API.
*/
#define SIP_PY_OWNED 0x0004 /* If owned by Python. */
#define SIP_INDIRECT 0x0008 /* If there is a level of indirection. */
#define SIP_ACCFUNC 0x0010 /* If there is an access function. */
#define SIP_NOT_IN_MAP 0x0020 /* If Python object is not in the map. */
#define SIP_SHARE_MAP 0x0040 /* If the map slot might be occupied. */
#define SIP_CPP_HAS_REF 0x0080 /* If C/C++ has a reference. */
#define SIP_POSSIBLE_PROXY 0x0100 /* If there might be a proxy slot. */
#define SIP_ALIAS 0x0200 /* If it is an alias. */
#define SIP_CREATED 0x0400 /* If the C/C++ object has been created. */
#define sipIsPyOwned(w) ((w)->flags & SIP_PY_OWNED)
#define sipSetPyOwned(w) ((w)->flags |= SIP_PY_OWNED)
#define sipResetPyOwned(w) ((w)->flags &= ~SIP_PY_OWNED)
#define sipIsDerived(w) ((w)->flags & SIP_DERIVED_CLASS)
#define sipIsIndirect(w) ((w)->flags & SIP_INDIRECT)
#define sipIsAccessFunc(w) ((w)->flags & SIP_ACCFUNC)
#define sipNotInMap(w) ((w)->flags & SIP_NOT_IN_MAP)
#define sipSetNotInMap(w) ((w)->flags |= SIP_NOT_IN_MAP)
#define sipCppHasRef(w) ((w)->flags & SIP_CPP_HAS_REF)
#define sipSetCppHasRef(w) ((w)->flags |= SIP_CPP_HAS_REF)
#define sipResetCppHasRef(w) ((w)->flags &= ~SIP_CPP_HAS_REF)
#define sipPossibleProxy(w) ((w)->flags & SIP_POSSIBLE_PROXY)
#define sipSetPossibleProxy(w) ((w)->flags |= SIP_POSSIBLE_PROXY)
#define sipIsAlias(w) ((w)->flags & SIP_ALIAS)
#define sipWasCreated(w) ((w)->flags & SIP_CREATED)
#define SIP_TYPE_TYPE_MASK 0x0007 /* The type type mask. */
#define SIP_TYPE_CLASS 0x0000 /* If the type is a C++ class. */
#define SIP_TYPE_NAMESPACE 0x0001 /* If the type is a C++ namespace. */
#define SIP_TYPE_MAPPED 0x0002 /* If the type is a mapped type. */
#define SIP_TYPE_ENUM 0x0003 /* If the type is a named enum. */
#define SIP_TYPE_ABSTRACT 0x0008 /* If the type is abstract. */
#define SIP_TYPE_SCC 0x0010 /* If the type is subject to sub-class convertors. */
#define SIP_TYPE_ALLOW_NONE 0x0020 /* If the type can handle None. */
#define SIP_TYPE_STUB 0x0040 /* If the type is a stub. */
#define SIP_TYPE_NONLAZY 0x0080 /* If the type has a non-lazy method. */
#define SIP_TYPE_SUPER_INIT 0x0100 /* If the instance's super init should be called. */
/*
* The following are part of the public API.
*/
#define sipTypeIsClass(td) (((td)->td_flags & SIP_TYPE_TYPE_MASK) == SIP_TYPE_CLASS)
#define sipTypeIsNamespace(td) (((td)->td_flags & SIP_TYPE_TYPE_MASK) == SIP_TYPE_NAMESPACE)
#define sipTypeIsMapped(td) (((td)->td_flags & SIP_TYPE_TYPE_MASK) == SIP_TYPE_MAPPED)
#define sipTypeIsEnum(td) (((td)->td_flags & SIP_TYPE_TYPE_MASK) == SIP_TYPE_ENUM)
#define sipTypeAsPyTypeObject(td) ((td)->u.td_py_type)
#define sipTypeName(td) sipNameFromPool((td)->td_module, (td)->td_cname)
#define sipIsExactWrappedType(wt) (sipTypeAsPyTypeObject((wt)->type) == (PyTypeObject *)(wt))
#if PY_VERSION_HEX >= 0x03020000
#define sipConvertFromSliceObject PySlice_GetIndicesEx
#else
#define sipConvertFromSliceObject(o, len, start, stop, step, slen) \
PySlice_GetIndicesEx((PySliceObject *)(o), (len), (start), (stop), \
(step), (slen))
#endif
/*
* The following are deprecated parts of the public API.
*/
#define sipClassName(w) PyString_FromString(Py_TYPE(w)->tp_name)
/*
* The following are not part of the public API.
*/
#define sipTypeIsAbstract(td) ((td)->td_flags & SIP_TYPE_ABSTRACT)
#define sipTypeHasSCC(td) ((td)->td_flags & SIP_TYPE_SCC)
#define sipTypeAllowNone(td) ((td)->td_flags & SIP_TYPE_ALLOW_NONE)
#define sipTypeIsStub(td) ((td)->td_flags & SIP_TYPE_STUB)
#define sipTypeSetStub(td) ((td)->td_flags |= SIP_TYPE_STUB)
#define sipTypeHasNonlazyMethod(td) ((td)->td_flags & SIP_TYPE_NONLAZY)
#define sipTypeCallSuperInit(td) ((td)->td_flags & SIP_TYPE_SUPER_INIT)
/*
* Get various names from the string pool for various data types.
*/
#define sipNameFromPool(em, mr) (&((em)->em_strings)[(mr)])
#define sipNameOfModule(em) sipNameFromPool((em), (em)->em_name)
#define sipPyNameOfContainer(cod, td) sipNameFromPool((td)->td_module, (cod)->cod_name)
#define sipPyNameOfEnum(etd) sipNameFromPool((etd)->etd_base.td_module, (etd)->etd_name)
/*
* The following are PyQt3-specific extensions. In SIP v5 they will be pushed
* out to a plugin supplied by PyQt3.
*/
/*
* Maps the name of a Qt signal to a wrapper function to emit it.
*/
typedef int (*pyqt3EmitFunc)(sipSimpleWrapper *, PyObject *);
typedef struct _pyqt3QtSignal {
/* The signal name. */
const char *st_name;
/* The emitter function. */
pyqt3EmitFunc st_emitfunc;
} pyqt3QtSignal;
/*
* This is the PyQt3-specific extension to the generated class type structure.
*/
typedef struct _pyqt3ClassTypeDef {
/*
* The super-type structure. This must be first in the structure so that
* it can be cast to sipClassTypeDef *.
*/
sipClassTypeDef super;
/* The emit table for Qt signals. */
pyqt3QtSignal *qt3_emit;
} pyqt3ClassTypeDef;
/*
* The following are PyQt4-specific extensions. In SIP v5 they will be pushed
* out to a plugin supplied by PyQt4.
*/
/*
* The description of a Qt signal for PyQt4.
*/
typedef struct _pyqt4QtSignal {
/* The C++ name and signature of the signal. */
const char *signature;
/* The optional docstring. */
const char *docstring;
/*
* If the signal is an overload of regular methods then this points to the
* code that implements those methods.
*/
PyMethodDef *non_signals;
/*
* The hack to apply when built against Qt5:
*
* 0 - no hack
* 1 - add an optional None
* 2 - add an optional []
* 3 - add an optional False
*/
int hack;
} pyqt4QtSignal;
/*
* This is the PyQt4-specific extension to the generated class type structure.
*/
typedef struct _pyqt4ClassTypeDef {
/*
* The super-type structure. This must be first in the structure so that
* it can be cast to sipClassTypeDef *.
*/
sipClassTypeDef super;
/* A pointer to the QObject sub-class's staticMetaObject class variable. */
const void *static_metaobject;
/*
* A set of flags. At the moment only bit 0 is used to say if the type is
* derived from QFlags.
*/
unsigned flags;
/*
* The table of signals emitted by the type. These are grouped by signal
* name.
*/
const pyqt4QtSignal *qt_signals;
} pyqt4ClassTypeDef;
/*
* The following are PyQt5-specific extensions. In SIP v5 they will be pushed
* out to a plugin supplied by PyQt5.
*/
/*
* The description of a Qt signal for PyQt5.
*/
typedef int (*pyqt5EmitFunc)(void *, PyObject *);
typedef struct _pyqt5QtSignal {
/* The normalised C++ name and signature of the signal. */
const char *signature;
/* The optional docstring. */
const char *docstring;
/*
* If the signal is an overload of regular methods then this points to the
* code that implements those methods.
*/
PyMethodDef *non_signals;
/*
* If the signal has optional arguments then this function will implement
* emit() for the signal.
*/
pyqt5EmitFunc emitter;
} pyqt5QtSignal;
/*
* This is the PyQt5-specific extension to the generated class type structure.
*/
typedef struct _pyqt5ClassTypeDef {
/*
* The super-type structure. This must be first in the structure so that
* it can be cast to sipClassTypeDef *.
*/
sipClassTypeDef super;
/* A pointer to the QObject sub-class's staticMetaObject class variable. */
const void *static_metaobject;
/*
* A set of flags. At the moment only bit 0 is used to say if the type is
* derived from QFlags.
*/
unsigned flags;
/*
* The table of signals emitted by the type. These are grouped by signal
* name.
*/
const pyqt5QtSignal *qt_signals;
/* The name of the interface that the class defines. */
const char *qt_interface;
} pyqt5ClassTypeDef;
#ifdef __cplusplus
}
#endif
#endif
Raw
Frikr_Include_sliceobject.h
#ifndef Py_SLICEOBJECT_H
#define Py_SLICEOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
/* The unique ellipsis object "..." */
PyAPI_DATA(PyObject) _Py_EllipsisObject; /* Don't use this directly */
#define Py_Ellipsis (&_Py_EllipsisObject)
/* Slice object interface */
/*
A slice object containing start, stop, and step data members (the
names are from range). After much talk with Guido, it was decided to
let these be any arbitrary python type. Py_None stands for omitted values.
*/
#ifndef Py_LIMITED_API
typedef struct {
PyObject_HEAD
PyObject *start, *stop, *step; /* not NULL */
} PySliceObject;
#endif
PyAPI_DATA(PyTypeObject) PySlice_Type;
PyAPI_DATA(PyTypeObject) PyEllipsis_Type;
#define PySlice_Check(op) (Py_TYPE(op) == &PySlice_Type)
PyAPI_FUNC(PyObject *) PySlice_New(PyObject* start, PyObject* stop,
PyObject* step);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PySlice_FromIndices(Py_ssize_t start, Py_ssize_t stop);
PyAPI_FUNC(int) _PySlice_GetLongIndices(PySliceObject *self, PyObject *length,
PyObject **start_ptr, PyObject **stop_ptr,
PyObject **step_ptr);
#endif
PyAPI_FUNC(int) PySlice_GetIndices(PyObject *r, Py_ssize_t length,
Py_ssize_t *start, Py_ssize_t *stop, Py_ssize_t *step);
PyAPI_FUNC(int) PySlice_GetIndicesEx(PyObject *r, Py_ssize_t length,
Py_ssize_t *start, Py_ssize_t *stop,
Py_ssize_t *step, Py_ssize_t *slicelength);
#if !defined(Py_LIMITED_API) || (Py_LIMITED_API+0 >= 0x03050400 && Py_LIMITED_API+0 < 0x03060000) || Py_LIMITED_API+0 >= 0x03060100
#define PySlice_GetIndicesEx(slice, length, start, stop, step, slicelen) ( \
PySlice_Unpack((slice), (start), (stop), (step)) < 0 ? \
((*(slicelen) = 0), -1) : \
((*(slicelen) = PySlice_AdjustIndices((length), (start), (stop), *(step))), \
0))
PyAPI_FUNC(int) PySlice_Unpack(PyObject *slice,
Py_ssize_t *start, Py_ssize_t *stop, Py_ssize_t *step);
PyAPI_FUNC(Py_ssize_t) PySlice_AdjustIndices(Py_ssize_t length,
Py_ssize_t *start, Py_ssize_t *stop,
Py_ssize_t step);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_SLICEOBJECT_H */
Raw
Frikr_Include_structmember.h
#ifndef Py_STRUCTMEMBER_H
#define Py_STRUCTMEMBER_H
#ifdef __cplusplus
extern "C" {
#endif
/* Interface to map C struct members to Python object attributes */
#include <stddef.h> /* For offsetof */
/* An array of PyMemberDef structures defines the name, type and offset
of selected members of a C structure. These can be read by
PyMember_GetOne() and set by PyMember_SetOne() (except if their READONLY
flag is set). The array must be terminated with an entry whose name
pointer is NULL. */
typedef struct PyMemberDef {
char *name;
int type;
Py_ssize_t offset;
int flags;
char *doc;
} PyMemberDef;
/* Types */
#define T_SHORT 0
#define T_INT 1
#define T_LONG 2
#define T_FLOAT 3
#define T_DOUBLE 4
#define T_STRING 5
#define T_OBJECT 6
/* XXX the ordering here is weird for binary compatibility */
#define T_CHAR 7 /* 1-character string */
#define T_BYTE 8 /* 8-bit signed int */
/* unsigned variants: */
#define T_UBYTE 9
#define T_USHORT 10
#define T_UINT 11
#define T_ULONG 12
/* Added by Jack: strings contained in the structure */
#define T_STRING_INPLACE 13
/* Added by Lillo: bools contained in the structure (assumed char) */
#define T_BOOL 14
#define T_OBJECT_EX 16 /* Like T_OBJECT, but raises AttributeError
when the value is NULL, instead of
converting to None. */
#define T_LONGLONG 17
#define T_ULONGLONG 18
#define T_PYSSIZET 19 /* Py_ssize_t */
#define T_NONE 20 /* Value is always None */
/* Flags */
#define READONLY 1
#define READ_RESTRICTED 2
#define PY_WRITE_RESTRICTED 4
#define RESTRICTED (READ_RESTRICTED | PY_WRITE_RESTRICTED)
/* Current API, use this */
PyAPI_FUNC(PyObject *) PyMember_GetOne(const char *, struct PyMemberDef *);
PyAPI_FUNC(int) PyMember_SetOne(char *, struct PyMemberDef *, PyObject *);
#ifdef __cplusplus
}
#endif
#endif /* !Py_STRUCTMEMBER_H */
Raw
Frikr_Include_structseq.h
/* Named tuple object interface */
#ifndef Py_STRUCTSEQ_H
#define Py_STRUCTSEQ_H
#ifdef __cplusplus
extern "C" {
#endif
typedef struct PyStructSequence_Field {
char *name;
char *doc;
} PyStructSequence_Field;
typedef struct PyStructSequence_Desc {
char *name;
char *doc;
struct PyStructSequence_Field *fields;
int n_in_sequence;
} PyStructSequence_Desc;
extern char* PyStructSequence_UnnamedField;
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) PyStructSequence_InitType(PyTypeObject *type,
PyStructSequence_Desc *desc);
PyAPI_FUNC(int) PyStructSequence_InitType2(PyTypeObject *type,
PyStructSequence_Desc *desc);
#endif
PyAPI_FUNC(PyTypeObject*) PyStructSequence_NewType(PyStructSequence_Desc *desc);
PyAPI_FUNC(PyObject *) PyStructSequence_New(PyTypeObject* type);
#ifndef Py_LIMITED_API
typedef PyTupleObject PyStructSequence;
/* Macro, *only* to be used to fill in brand new objects */
#define PyStructSequence_SET_ITEM(op, i, v) PyTuple_SET_ITEM(op, i, v)
#define PyStructSequence_GET_ITEM(op, i) PyTuple_GET_ITEM(op, i)
#endif
PyAPI_FUNC(void) PyStructSequence_SetItem(PyObject*, Py_ssize_t, PyObject*);
PyAPI_FUNC(PyObject*) PyStructSequence_GetItem(PyObject*, Py_ssize_t);
#ifdef __cplusplus
}
#endif
#endif /* !Py_STRUCTSEQ_H */
Raw
Frikr_Include_symtable.h
#ifndef Py_LIMITED_API
#ifndef Py_SYMTABLE_H
#define Py_SYMTABLE_H
#ifdef __cplusplus
extern "C" {
#endif
/* XXX(ncoghlan): This is a weird mix of public names and interpreter internal
* names.
*/
typedef enum _block_type { FunctionBlock, ClassBlock, ModuleBlock }
_Py_block_ty;
struct _symtable_entry;
struct symtable {
PyObject *st_filename; /* name of file being compiled,
decoded from the filesystem encoding */
struct _symtable_entry *st_cur; /* current symbol table entry */
struct _symtable_entry *st_top; /* symbol table entry for module */
PyObject *st_blocks; /* dict: map AST node addresses
* to symbol table entries */
PyObject *st_stack; /* list: stack of namespace info */
PyObject *st_global; /* borrowed ref to st_top->ste_symbols */
int st_nblocks; /* number of blocks used. kept for
consistency with the corresponding
compiler structure */
PyObject *st_private; /* name of current class or NULL */
PyFutureFeatures *st_future; /* module's future features that affect
the symbol table */
int recursion_depth; /* current recursion depth */
int recursion_limit; /* recursion limit */
};
typedef struct _symtable_entry {
PyObject_HEAD
PyObject *ste_id; /* int: key in ste_table->st_blocks */
PyObject *ste_symbols; /* dict: variable names to flags */
PyObject *ste_name; /* string: name of current block */
PyObject *ste_varnames; /* list of function parameters */
PyObject *ste_children; /* list of child blocks */
PyObject *ste_directives;/* locations of global and nonlocal statements */
_Py_block_ty ste_type; /* module, class, or function */
int ste_nested; /* true if block is nested */
unsigned ste_free : 1; /* true if block has free variables */
unsigned ste_child_free : 1; /* true if a child block has free vars,
including free refs to globals */
unsigned ste_generator : 1; /* true if namespace is a generator */
unsigned ste_coroutine : 1; /* true if namespace is a coroutine */
unsigned ste_varargs : 1; /* true if block has varargs */
unsigned ste_varkeywords : 1; /* true if block has varkeywords */
unsigned ste_returns_value : 1; /* true if namespace uses return with
an argument */
unsigned ste_needs_class_closure : 1; /* for class scopes, true if a
closure over __class__
should be created */
int ste_lineno; /* first line of block */
int ste_col_offset; /* offset of first line of block */
int ste_opt_lineno; /* lineno of last exec or import * */
int ste_opt_col_offset; /* offset of last exec or import * */
int ste_tmpname; /* counter for listcomp temp vars */
struct symtable *ste_table;
} PySTEntryObject;
PyAPI_DATA(PyTypeObject) PySTEntry_Type;
#define PySTEntry_Check(op) (Py_TYPE(op) == &PySTEntry_Type)
PyAPI_FUNC(int) PyST_GetScope(PySTEntryObject *, PyObject *);
PyAPI_FUNC(struct symtable *) PySymtable_Build(
mod_ty mod,
const char *filename, /* decoded from the filesystem encoding */
PyFutureFeatures *future);
PyAPI_FUNC(struct symtable *) PySymtable_BuildObject(
mod_ty mod,
PyObject *filename,
PyFutureFeatures *future);
PyAPI_FUNC(PySTEntryObject *) PySymtable_Lookup(struct symtable *, void *);
PyAPI_FUNC(void) PySymtable_Free(struct symtable *);
/* Flags for def-use information */
#define DEF_GLOBAL 1 /* global stmt */
#define DEF_LOCAL 2 /* assignment in code block */
#define DEF_PARAM 2<<1 /* formal parameter */
#define DEF_NONLOCAL 2<<2 /* nonlocal stmt */
#define USE 2<<3 /* name is used */
#define DEF_FREE 2<<4 /* name used but not defined in nested block */
#define DEF_FREE_CLASS 2<<5 /* free variable from class's method */
#define DEF_IMPORT 2<<6 /* assignment occurred via import */
#define DEF_ANNOT 2<<7 /* this name is annotated */
#define DEF_BOUND (DEF_LOCAL | DEF_PARAM | DEF_IMPORT)
/* GLOBAL_EXPLICIT and GLOBAL_IMPLICIT are used internally by the symbol
table. GLOBAL is returned from PyST_GetScope() for either of them.
It is stored in ste_symbols at bits 12-15.
*/
#define SCOPE_OFFSET 11
#define SCOPE_MASK (DEF_GLOBAL | DEF_LOCAL | DEF_PARAM | DEF_NONLOCAL)
#define LOCAL 1
#define GLOBAL_EXPLICIT 2
#define GLOBAL_IMPLICIT 3
#define FREE 4
#define CELL 5
#define GENERATOR 1
#define GENERATOR_EXPRESSION 2
#ifdef __cplusplus
}
#endif
#endif /* !Py_SYMTABLE_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_sysmodule.h
/* System module interface */
#ifndef Py_SYSMODULE_H
#define Py_SYSMODULE_H
#ifdef __cplusplus
extern "C" {
#endif
PyAPI_FUNC(PyObject *) PySys_GetObject(const char *);
PyAPI_FUNC(int) PySys_SetObject(const char *, PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PySys_GetObjectId(_Py_Identifier *key);
PyAPI_FUNC(int) _PySys_SetObjectId(_Py_Identifier *key, PyObject *);
#endif
PyAPI_FUNC(void) PySys_SetArgv(int, wchar_t **);
PyAPI_FUNC(void) PySys_SetArgvEx(int, wchar_t **, int);
PyAPI_FUNC(void) PySys_SetPath(const wchar_t *);
PyAPI_FUNC(void) PySys_WriteStdout(const char *format, ...)
Py_GCC_ATTRIBUTE((format(printf, 1, 2)));
PyAPI_FUNC(void) PySys_WriteStderr(const char *format, ...)
Py_GCC_ATTRIBUTE((format(printf, 1, 2)));
PyAPI_FUNC(void) PySys_FormatStdout(const char *format, ...);
PyAPI_FUNC(void) PySys_FormatStderr(const char *format, ...);
PyAPI_FUNC(void) PySys_ResetWarnOptions(void);
PyAPI_FUNC(void) PySys_AddWarnOption(const wchar_t *);
PyAPI_FUNC(void) PySys_AddWarnOptionUnicode(PyObject *);
PyAPI_FUNC(int) PySys_HasWarnOptions(void);
PyAPI_FUNC(void) PySys_AddXOption(const wchar_t *);
PyAPI_FUNC(PyObject *) PySys_GetXOptions(void);
#ifndef Py_LIMITED_API
PyAPI_FUNC(size_t) _PySys_GetSizeOf(PyObject *);
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_SYSMODULE_H */
Raw
Frikr_Include_token.h
/* Token types */
#ifndef Py_LIMITED_API
#ifndef Py_TOKEN_H
#define Py_TOKEN_H
#ifdef __cplusplus
extern "C" {
#endif
#undef TILDE /* Prevent clash of our definition with system macro. Ex AIX, ioctl.h */
#define ENDMARKER 0
#define NAME 1
#define NUMBER 2
#define STRING 3
#define NEWLINE 4
#define INDENT 5
#define DEDENT 6
#define LPAR 7
#define RPAR 8
#define LSQB 9
#define RSQB 10
#define COLON 11
#define COMMA 12
#define SEMI 13
#define PLUS 14
#define MINUS 15
#define STAR 16
#define SLASH 17
#define VBAR 18
#define AMPER 19
#define LESS 20
#define GREATER 21
#define EQUAL 22
#define DOT 23
#define PERCENT 24
#define LBRACE 25
#define RBRACE 26
#define EQEQUAL 27
#define NOTEQUAL 28
#define LESSEQUAL 29
#define GREATEREQUAL 30
#define TILDE 31
#define CIRCUMFLEX 32
#define LEFTSHIFT 33
#define RIGHTSHIFT 34
#define DOUBLESTAR 35
#define PLUSEQUAL 36
#define MINEQUAL 37
#define STAREQUAL 38
#define SLASHEQUAL 39
#define PERCENTEQUAL 40
#define AMPEREQUAL 41
#define VBAREQUAL 42
#define CIRCUMFLEXEQUAL 43
#define LEFTSHIFTEQUAL 44
#define RIGHTSHIFTEQUAL 45
#define DOUBLESTAREQUAL 46
#define DOUBLESLASH 47
#define DOUBLESLASHEQUAL 48
#define AT 49
#define ATEQUAL 50
#define RARROW 51
#define ELLIPSIS 52
/* Don't forget to update the table _PyParser_TokenNames in tokenizer.c! */
#define OP 53
#define AWAIT 54
#define ASYNC 55
#define ERRORTOKEN 56
#define N_TOKENS 57
/* Special definitions for cooperation with parser */
#define NT_OFFSET 256
#define ISTERMINAL(x) ((x) < NT_OFFSET)
#define ISNONTERMINAL(x) ((x) >= NT_OFFSET)
#define ISEOF(x) ((x) == ENDMARKER)
PyAPI_DATA(const char *) _PyParser_TokenNames[]; /* Token names */
PyAPI_FUNC(int) PyToken_OneChar(int);
PyAPI_FUNC(int) PyToken_TwoChars(int, int);
PyAPI_FUNC(int) PyToken_ThreeChars(int, int, int);
#ifdef __cplusplus
}
#endif
#endif /* !Py_TOKEN_H */
#endif /* Py_LIMITED_API */
Raw
Frikr_Include_traceback.h
#ifndef Py_TRACEBACK_H
#define Py_TRACEBACK_H
#ifdef __cplusplus
extern "C" {
#endif
#include "pystate.h"
struct _frame;
/* Traceback interface */
#ifndef Py_LIMITED_API
typedef struct _traceback {
PyObject_HEAD
struct _traceback *tb_next;
struct _frame *tb_frame;
int tb_lasti;
int tb_lineno;
} PyTracebackObject;
#endif
PyAPI_FUNC(int) PyTraceBack_Here(struct _frame *);
PyAPI_FUNC(int) PyTraceBack_Print(PyObject *, PyObject *);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _Py_DisplaySourceLine(PyObject *, PyObject *, int, int);
PyAPI_FUNC(void) _PyTraceback_Add(const char *, const char *, int);
#endif
/* Reveal traceback type so we can typecheck traceback objects */
PyAPI_DATA(PyTypeObject) PyTraceBack_Type;
#define PyTraceBack_Check(v) (Py_TYPE(v) == &PyTraceBack_Type)
#ifndef Py_LIMITED_API
/* Write the Python traceback into the file 'fd'. For example:
Traceback (most recent call first):
File "xxx", line xxx in <xxx>
File "xxx", line xxx in <xxx>
...
File "xxx", line xxx in <xxx>
This function is written for debug purpose only, to dump the traceback in
the worst case: after a segmentation fault, at fatal error, etc. That's why,
it is very limited. Strings are truncated to 100 characters and encoded to
ASCII with backslashreplace. It doesn't write the source code, only the
function name, filename and line number of each frame. Write only the first
100 frames: if the traceback is truncated, write the line " ...".
This function is signal safe. */
PyAPI_FUNC(void) _Py_DumpTraceback(
int fd,
PyThreadState *tstate);
/* Write the traceback of all threads into the file 'fd'. current_thread can be
NULL.
Return NULL on success, or an error message on error.
This function is written for debug purpose only. It calls
_Py_DumpTraceback() for each thread, and so has the same limitations. It
only write the traceback of the first 100 threads: write "..." if there are
more threads.
If current_tstate is NULL, the function tries to get the Python thread state
of the current thread. It is not an error if the function is unable to get
the current Python thread state.
If interp is NULL, the function tries to get the interpreter state from
the current Python thread state, or from
_PyGILState_GetInterpreterStateUnsafe() in last resort.
It is better to pass NULL to interp and current_tstate, the function tries
different options to retrieve these informations.
This function is signal safe. */
PyAPI_FUNC(const char*) _Py_DumpTracebackThreads(
int fd,
PyInterpreterState *interp,
PyThreadState *current_tstate);
#endif /* !Py_LIMITED_API */
#ifndef Py_LIMITED_API
/* Write a Unicode object into the file descriptor fd. Encode the string to
ASCII using the backslashreplace error handler.
Do nothing if text is not a Unicode object. The function accepts Unicode
string which is not ready (PyUnicode_WCHAR_KIND).
This function is signal safe. */
PyAPI_FUNC(void) _Py_DumpASCII(int fd, PyObject *text);
/* Format an integer as decimal into the file descriptor fd.
This function is signal safe. */
PyAPI_FUNC(void) _Py_DumpDecimal(
int fd,
unsigned long value);
/* Format an integer as hexadecimal into the file descriptor fd with at least
width digits.
The maximum width is sizeof(unsigned long)*2 digits.
This function is signal safe. */
PyAPI_FUNC(void) _Py_DumpHexadecimal(
int fd,
unsigned long value,
Py_ssize_t width);
#endif /* !Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_TRACEBACK_H */
Raw
Frikr_Include_tupleobject.h
/* Tuple object interface */
#ifndef Py_TUPLEOBJECT_H
#define Py_TUPLEOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
/*
Another generally useful object type is a tuple of object pointers.
For Python, this is an immutable type. C code can change the tuple items
(but not their number), and even use tuples are general-purpose arrays of
object references, but in general only brand new tuples should be mutated,
not ones that might already have been exposed to Python code.
*** WARNING *** PyTuple_SetItem does not increment the new item's reference
count, but does decrement the reference count of the item it replaces,
if not nil. It does *decrement* the reference count if it is *not*
inserted in the tuple. Similarly, PyTuple_GetItem does not increment the
returned item's reference count.
*/
#ifndef Py_LIMITED_API
typedef struct {
PyObject_VAR_HEAD
PyObject *ob_item[1];
/* ob_item contains space for 'ob_size' elements.
* Items must normally not be NULL, except during construction when
* the tuple is not yet visible outside the function that builds it.
*/
} PyTupleObject;
#endif
PyAPI_DATA(PyTypeObject) PyTuple_Type;
PyAPI_DATA(PyTypeObject) PyTupleIter_Type;
#define PyTuple_Check(op) \
PyType_FastSubclass(Py_TYPE(op), Py_TPFLAGS_TUPLE_SUBCLASS)
#define PyTuple_CheckExact(op) (Py_TYPE(op) == &PyTuple_Type)
PyAPI_FUNC(PyObject *) PyTuple_New(Py_ssize_t size);
PyAPI_FUNC(Py_ssize_t) PyTuple_Size(PyObject *);
PyAPI_FUNC(PyObject *) PyTuple_GetItem(PyObject *, Py_ssize_t);
PyAPI_FUNC(int) PyTuple_SetItem(PyObject *, Py_ssize_t, PyObject *);
PyAPI_FUNC(PyObject *) PyTuple_GetSlice(PyObject *, Py_ssize_t, Py_ssize_t);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyTuple_Resize(PyObject **, Py_ssize_t);
#endif
PyAPI_FUNC(PyObject *) PyTuple_Pack(Py_ssize_t, ...);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyTuple_MaybeUntrack(PyObject *);
#endif
/* Macro, trading safety for speed */
#ifndef Py_LIMITED_API
#define PyTuple_GET_ITEM(op, i) (((PyTupleObject *)(op))->ob_item[i])
#define PyTuple_GET_SIZE(op) Py_SIZE(op)
/* Macro, *only* to be used to fill in brand new tuples */
#define PyTuple_SET_ITEM(op, i, v) (((PyTupleObject *)(op))->ob_item[i] = v)
#endif
PyAPI_FUNC(int) PyTuple_ClearFreeList(void);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _PyTuple_DebugMallocStats(FILE *out);
#endif /* Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_TUPLEOBJECT_H */
Raw
Frikr_Include_typeslots.h
/* Do not renumber the file; these numbers are part of the stable ABI. */
/* Disabled, see #10181 */
#undef Py_bf_getbuffer
#undef Py_bf_releasebuffer
#define Py_mp_ass_subscript 3
#define Py_mp_length 4
#define Py_mp_subscript 5
#define Py_nb_absolute 6
#define Py_nb_add 7
#define Py_nb_and 8
#define Py_nb_bool 9
#define Py_nb_divmod 10
#define Py_nb_float 11
#define Py_nb_floor_divide 12
#define Py_nb_index 13
#define Py_nb_inplace_add 14
#define Py_nb_inplace_and 15
#define Py_nb_inplace_floor_divide 16
#define Py_nb_inplace_lshift 17
#define Py_nb_inplace_multiply 18
#define Py_nb_inplace_or 19
#define Py_nb_inplace_power 20
#define Py_nb_inplace_remainder 21
#define Py_nb_inplace_rshift 22
#define Py_nb_inplace_subtract 23
#define Py_nb_inplace_true_divide 24
#define Py_nb_inplace_xor 25
#define Py_nb_int 26
#define Py_nb_invert 27
#define Py_nb_lshift 28
#define Py_nb_multiply 29
#define Py_nb_negative 30
#define Py_nb_or 31
#define Py_nb_positive 32
#define Py_nb_power 33
#define Py_nb_remainder 34
#define Py_nb_rshift 35
#define Py_nb_subtract 36
#define Py_nb_true_divide 37
#define Py_nb_xor 38
#define Py_sq_ass_item 39
#define Py_sq_concat 40
#define Py_sq_contains 41
#define Py_sq_inplace_concat 42
#define Py_sq_inplace_repeat 43
#define Py_sq_item 44
#define Py_sq_length 45
#define Py_sq_repeat 46
#define Py_tp_alloc 47
#define Py_tp_base 48
#define Py_tp_bases 49
#define Py_tp_call 50
#define Py_tp_clear 51
#define Py_tp_dealloc 52
#define Py_tp_del 53
#define Py_tp_descr_get 54
#define Py_tp_descr_set 55
#define Py_tp_doc 56
#define Py_tp_getattr 57
#define Py_tp_getattro 58
#define Py_tp_hash 59
#define Py_tp_init 60
#define Py_tp_is_gc 61
#define Py_tp_iter 62
#define Py_tp_iternext 63
#define Py_tp_methods 64
#define Py_tp_new 65
#define Py_tp_repr 66
#define Py_tp_richcompare 67
#define Py_tp_setattr 68
#define Py_tp_setattro 69
#define Py_tp_str 70
#define Py_tp_traverse 71
#define Py_tp_members 72
#define Py_tp_getset 73
#define Py_tp_free 74
#define Py_nb_matrix_multiply 75
#define Py_nb_inplace_matrix_multiply 76
#define Py_am_await 77
#define Py_am_aiter 78
#define Py_am_anext 79
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03050000
/* New in 3.5 */
#define Py_tp_finalize 80
#endif
Raw
Frikr_Include_ucnhash.h
/* Unicode name database interface */
#ifndef Py_LIMITED_API
#ifndef Py_UCNHASH_H
#define Py_UCNHASH_H
#ifdef __cplusplus
extern "C" {
#endif
/* revised ucnhash CAPI interface (exported through a "wrapper") */
#define PyUnicodeData_CAPSULE_NAME "unicodedata.ucnhash_CAPI"
typedef struct {
/* Size of this struct */
int size;
/* Get name for a given character code. Returns non-zero if
success, zero if not. Does not set Python exceptions.
If self is NULL, data come from the default version of the database.
If it is not NULL, it should be a unicodedata.ucd_X_Y_Z object */
int (*getname)(PyObject *self, Py_UCS4 code, char* buffer, int buflen,
int with_alias_and_seq);
/* Get character code for a given name. Same error handling
as for getname. */
int (*getcode)(PyObject *self, const char* name, int namelen, Py_UCS4* code,
int with_named_seq);
} _PyUnicode_Name_CAPI;
#ifdef __cplusplus
}
#endif
#endif /* !Py_UCNHASH_H */
#endif /* !Py_LIMITED_API */
Raw
Frikr_Include_unicodeobject.h
#ifndef Py_UNICODEOBJECT_H
#define Py_UNICODEOBJECT_H
#include <stdarg.h>
/*
Unicode implementation based on original code by Fredrik Lundh,
modified by Marc-Andre Lemburg (mal@lemburg.com) according to the
Unicode Integration Proposal. (See
http://www.egenix.com/files/python/unicode-proposal.txt).
Copyright (c) Corporation for National Research Initiatives.
Original header:
--------------------------------------------------------------------
* Yet another Unicode string type for Python. This type supports the
* 16-bit Basic Multilingual Plane (BMP) only.
*
* Written by Fredrik Lundh, January 1999.
*
* Copyright (c) 1999 by Secret Labs AB.
* Copyright (c) 1999 by Fredrik Lundh.
*
* fredrik@pythonware.com
* http://www.pythonware.com
*
* --------------------------------------------------------------------
* This Unicode String Type is
*
* Copyright (c) 1999 by Secret Labs AB
* Copyright (c) 1999 by Fredrik Lundh
*
* By obtaining, using, and/or copying this software and/or its
* associated documentation, you agree that you have read, understood,
* and will comply with the following terms and conditions:
*
* Permission to use, copy, modify, and distribute this software and its
* associated documentation for any purpose and without fee is hereby
* granted, provided that the above copyright notice appears in all
* copies, and that both that copyright notice and this permission notice
* appear in supporting documentation, and that the name of Secret Labs
* AB or the author not be used in advertising or publicity pertaining to
* distribution of the software without specific, written prior
* permission.
*
* SECRET LABS AB AND THE AUTHOR DISCLAIMS ALL WARRANTIES WITH REGARD TO
* THIS SOFTWARE, INCLUDING ALL IMPLIED WARRANTIES OF MERCHANTABILITY AND
* FITNESS. IN NO EVENT SHALL SECRET LABS AB OR THE AUTHOR BE LIABLE FOR
* ANY SPECIAL, INDIRECT OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES
* WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN
* ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT
* OF OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
* -------------------------------------------------------------------- */
#include <ctype.h>
/* === Internal API ======================================================= */
/* --- Internal Unicode Format -------------------------------------------- */
/* Python 3.x requires unicode */
#define Py_USING_UNICODE
#ifndef SIZEOF_WCHAR_T
#error Must define SIZEOF_WCHAR_T
#endif
#define Py_UNICODE_SIZE SIZEOF_WCHAR_T
/* If wchar_t can be used for UCS-4 storage, set Py_UNICODE_WIDE.
Otherwise, Unicode strings are stored as UCS-2 (with limited support
for UTF-16) */
#if Py_UNICODE_SIZE >= 4
#define Py_UNICODE_WIDE
#endif
/* Set these flags if the platform has "wchar.h" and the
wchar_t type is a 16-bit unsigned type */
/* #define HAVE_WCHAR_H */
/* #define HAVE_USABLE_WCHAR_T */
/* Py_UNICODE was the native Unicode storage format (code unit) used by
Python and represents a single Unicode element in the Unicode type.
With PEP 393, Py_UNICODE is deprecated and replaced with a
typedef to wchar_t. */
#ifndef Py_LIMITED_API
#define PY_UNICODE_TYPE wchar_t
typedef wchar_t Py_UNICODE;
#endif
/* If the compiler provides a wchar_t type we try to support it
through the interface functions PyUnicode_FromWideChar(),
PyUnicode_AsWideChar() and PyUnicode_AsWideCharString(). */
#ifdef HAVE_USABLE_WCHAR_T
# ifndef HAVE_WCHAR_H
# define HAVE_WCHAR_H
# endif
#endif
#ifdef HAVE_WCHAR_H
/* Work around a cosmetic bug in BSDI 4.x wchar.h; thanks to Thomas Wouters */
# ifdef _HAVE_BSDI
# include <time.h>
# endif
# include <wchar.h>
#endif
/* Py_UCS4 and Py_UCS2 are typedefs for the respective
unicode representations. */
typedef uint32_t Py_UCS4;
typedef uint16_t Py_UCS2;
typedef uint8_t Py_UCS1;
/* --- Internal Unicode Operations ---------------------------------------- */
/* Since splitting on whitespace is an important use case, and
whitespace in most situations is solely ASCII whitespace, we
optimize for the common case by using a quick look-up table
_Py_ascii_whitespace (see below) with an inlined check.
*/
#ifndef Py_LIMITED_API
#define Py_UNICODE_ISSPACE(ch) \
((ch) < 128U ? _Py_ascii_whitespace[(ch)] : _PyUnicode_IsWhitespace(ch))
#define Py_UNICODE_ISLOWER(ch) _PyUnicode_IsLowercase(ch)
#define Py_UNICODE_ISUPPER(ch) _PyUnicode_IsUppercase(ch)
#define Py_UNICODE_ISTITLE(ch) _PyUnicode_IsTitlecase(ch)
#define Py_UNICODE_ISLINEBREAK(ch) _PyUnicode_IsLinebreak(ch)
#define Py_UNICODE_TOLOWER(ch) _PyUnicode_ToLowercase(ch)
#define Py_UNICODE_TOUPPER(ch) _PyUnicode_ToUppercase(ch)
#define Py_UNICODE_TOTITLE(ch) _PyUnicode_ToTitlecase(ch)
#define Py_UNICODE_ISDECIMAL(ch) _PyUnicode_IsDecimalDigit(ch)
#define Py_UNICODE_ISDIGIT(ch) _PyUnicode_IsDigit(ch)
#define Py_UNICODE_ISNUMERIC(ch) _PyUnicode_IsNumeric(ch)
#define Py_UNICODE_ISPRINTABLE(ch) _PyUnicode_IsPrintable(ch)
#define Py_UNICODE_TODECIMAL(ch) _PyUnicode_ToDecimalDigit(ch)
#define Py_UNICODE_TODIGIT(ch) _PyUnicode_ToDigit(ch)
#define Py_UNICODE_TONUMERIC(ch) _PyUnicode_ToNumeric(ch)
#define Py_UNICODE_ISALPHA(ch) _PyUnicode_IsAlpha(ch)
#define Py_UNICODE_ISALNUM(ch) \
(Py_UNICODE_ISALPHA(ch) || \
Py_UNICODE_ISDECIMAL(ch) || \
Py_UNICODE_ISDIGIT(ch) || \
Py_UNICODE_ISNUMERIC(ch))
#define Py_UNICODE_COPY(target, source, length) \
memcpy((target), (source), (length)*sizeof(Py_UNICODE))
#define Py_UNICODE_FILL(target, value, length) \
do {Py_ssize_t i_; Py_UNICODE *t_ = (target); Py_UNICODE v_ = (value);\
for (i_ = 0; i_ < (length); i_++) t_[i_] = v_;\
} while (0)
/* macros to work with surrogates */
#define Py_UNICODE_IS_SURROGATE(ch) (0xD800 <= (ch) && (ch) <= 0xDFFF)
#define Py_UNICODE_IS_HIGH_SURROGATE(ch) (0xD800 <= (ch) && (ch) <= 0xDBFF)
#define Py_UNICODE_IS_LOW_SURROGATE(ch) (0xDC00 <= (ch) && (ch) <= 0xDFFF)
/* Join two surrogate characters and return a single Py_UCS4 value. */
#define Py_UNICODE_JOIN_SURROGATES(high, low) \
(((((Py_UCS4)(high) & 0x03FF) << 10) | \
((Py_UCS4)(low) & 0x03FF)) + 0x10000)
/* high surrogate = top 10 bits added to D800 */
#define Py_UNICODE_HIGH_SURROGATE(ch) (0xD800 - (0x10000 >> 10) + ((ch) >> 10))
/* low surrogate = bottom 10 bits added to DC00 */
#define Py_UNICODE_LOW_SURROGATE(ch) (0xDC00 + ((ch) & 0x3FF))
/* Check if substring matches at given offset. The offset must be
valid, and the substring must not be empty. */
#define Py_UNICODE_MATCH(string, offset, substring) \
((*((string)->wstr + (offset)) == *((substring)->wstr)) && \
((*((string)->wstr + (offset) + (substring)->wstr_length-1) == *((substring)->wstr + (substring)->wstr_length-1))) && \
!memcmp((string)->wstr + (offset), (substring)->wstr, (substring)->wstr_length*sizeof(Py_UNICODE)))
#endif /* Py_LIMITED_API */
#ifdef __cplusplus
extern "C" {
#endif
/* --- Unicode Type ------------------------------------------------------- */
#ifndef Py_LIMITED_API
/* ASCII-only strings created through PyUnicode_New use the PyASCIIObject
structure. state.ascii and state.compact are set, and the data
immediately follow the structure. utf8_length and wstr_length can be found
in the length field; the utf8 pointer is equal to the data pointer. */
typedef struct {
/* There are 4 forms of Unicode strings:
- compact ascii:
* structure = PyASCIIObject
* test: PyUnicode_IS_COMPACT_ASCII(op)
* kind = PyUnicode_1BYTE_KIND
* compact = 1
* ascii = 1
* ready = 1
* (length is the length of the utf8 and wstr strings)
* (data starts just after the structure)
* (since ASCII is decoded from UTF-8, the utf8 string are the data)
- compact:
* structure = PyCompactUnicodeObject
* test: PyUnicode_IS_COMPACT(op) && !PyUnicode_IS_ASCII(op)
* kind = PyUnicode_1BYTE_KIND, PyUnicode_2BYTE_KIND or
PyUnicode_4BYTE_KIND
* compact = 1
* ready = 1
* ascii = 0
* utf8 is not shared with data
* utf8_length = 0 if utf8 is NULL
* wstr is shared with data and wstr_length=length
if kind=PyUnicode_2BYTE_KIND and sizeof(wchar_t)=2
or if kind=PyUnicode_4BYTE_KIND and sizeof(wchar_t)=4
* wstr_length = 0 if wstr is NULL
* (data starts just after the structure)
- legacy string, not ready:
* structure = PyUnicodeObject
* test: kind == PyUnicode_WCHAR_KIND
* length = 0 (use wstr_length)
* hash = -1
* kind = PyUnicode_WCHAR_KIND
* compact = 0
* ascii = 0
* ready = 0
* interned = SSTATE_NOT_INTERNED
* wstr is not NULL
* data.any is NULL
* utf8 is NULL
* utf8_length = 0
- legacy string, ready:
* structure = PyUnicodeObject structure
* test: !PyUnicode_IS_COMPACT(op) && kind != PyUnicode_WCHAR_KIND
* kind = PyUnicode_1BYTE_KIND, PyUnicode_2BYTE_KIND or
PyUnicode_4BYTE_KIND
* compact = 0
* ready = 1
* data.any is not NULL
* utf8 is shared and utf8_length = length with data.any if ascii = 1
* utf8_length = 0 if utf8 is NULL
* wstr is shared with data.any and wstr_length = length
if kind=PyUnicode_2BYTE_KIND and sizeof(wchar_t)=2
or if kind=PyUnicode_4BYTE_KIND and sizeof(wchar_4)=4
* wstr_length = 0 if wstr is NULL
Compact strings use only one memory block (structure + characters),
whereas legacy strings use one block for the structure and one block
for characters.
Legacy strings are created by PyUnicode_FromUnicode() and
PyUnicode_FromStringAndSize(NULL, size) functions. They become ready
when PyUnicode_READY() is called.
See also _PyUnicode_CheckConsistency().
*/
PyObject_HEAD
Py_ssize_t length; /* Number of code points in the string */
Py_hash_t hash; /* Hash value; -1 if not set */
struct {
/*
SSTATE_NOT_INTERNED (0)
SSTATE_INTERNED_MORTAL (1)
SSTATE_INTERNED_IMMORTAL (2)
If interned != SSTATE_NOT_INTERNED, the two references from the
dictionary to this object are *not* counted in ob_refcnt.
*/
unsigned int interned:2;
/* Character size:
- PyUnicode_WCHAR_KIND (0):
* character type = wchar_t (16 or 32 bits, depending on the
platform)
- PyUnicode_1BYTE_KIND (1):
* character type = Py_UCS1 (8 bits, unsigned)
* all characters are in the range U+0000-U+00FF (latin1)
* if ascii is set, all characters are in the range U+0000-U+007F
(ASCII), otherwise at least one character is in the range
U+0080-U+00FF
- PyUnicode_2BYTE_KIND (2):
* character type = Py_UCS2 (16 bits, unsigned)
* all characters are in the range U+0000-U+FFFF (BMP)
* at least one character is in the range U+0100-U+FFFF
- PyUnicode_4BYTE_KIND (4):
* character type = Py_UCS4 (32 bits, unsigned)
* all characters are in the range U+0000-U+10FFFF
* at least one character is in the range U+10000-U+10FFFF
*/
unsigned int kind:3;
/* Compact is with respect to the allocation scheme. Compact unicode
objects only require one memory block while non-compact objects use
one block for the PyUnicodeObject struct and another for its data
buffer. */
unsigned int compact:1;
/* The string only contains characters in the range U+0000-U+007F (ASCII)
and the kind is PyUnicode_1BYTE_KIND. If ascii is set and compact is
set, use the PyASCIIObject structure. */
unsigned int ascii:1;
/* The ready flag indicates whether the object layout is initialized
completely. This means that this is either a compact object, or
the data pointer is filled out. The bit is redundant, and helps
to minimize the test in PyUnicode_IS_READY(). */
unsigned int ready:1;
/* Padding to ensure that PyUnicode_DATA() is always aligned to
4 bytes (see issue #19537 on m68k). */
unsigned int :24;
} state;
wchar_t *wstr; /* wchar_t representation (null-terminated) */
} PyASCIIObject;
/* Non-ASCII strings allocated through PyUnicode_New use the
PyCompactUnicodeObject structure. state.compact is set, and the data
immediately follow the structure. */
typedef struct {
PyASCIIObject _base;
Py_ssize_t utf8_length; /* Number of bytes in utf8, excluding the
* terminating \0. */
char *utf8; /* UTF-8 representation (null-terminated) */
Py_ssize_t wstr_length; /* Number of code points in wstr, possible
* surrogates count as two code points. */
} PyCompactUnicodeObject;
/* Strings allocated through PyUnicode_FromUnicode(NULL, len) use the
PyUnicodeObject structure. The actual string data is initially in the wstr
block, and copied into the data block using _PyUnicode_Ready. */
typedef struct {
PyCompactUnicodeObject _base;
union {
void *any;
Py_UCS1 *latin1;
Py_UCS2 *ucs2;
Py_UCS4 *ucs4;
} data; /* Canonical, smallest-form Unicode buffer */
} PyUnicodeObject;
#endif
PyAPI_DATA(PyTypeObject) PyUnicode_Type;
PyAPI_DATA(PyTypeObject) PyUnicodeIter_Type;
#define PyUnicode_Check(op) \
PyType_FastSubclass(Py_TYPE(op), Py_TPFLAGS_UNICODE_SUBCLASS)
#define PyUnicode_CheckExact(op) (Py_TYPE(op) == &PyUnicode_Type)
/* Fast access macros */
#ifndef Py_LIMITED_API
#define PyUnicode_WSTR_LENGTH(op) \
(PyUnicode_IS_COMPACT_ASCII(op) ? \
((PyASCIIObject*)op)->length : \
((PyCompactUnicodeObject*)op)->wstr_length)
/* Returns the deprecated Py_UNICODE representation's size in code units
(this includes surrogate pairs as 2 units).
If the Py_UNICODE representation is not available, it will be computed
on request. Use PyUnicode_GET_LENGTH() for the length in code points. */
#define PyUnicode_GET_SIZE(op) \
(assert(PyUnicode_Check(op)), \
(((PyASCIIObject *)(op))->wstr) ? \
PyUnicode_WSTR_LENGTH(op) : \
((void)PyUnicode_AsUnicode((PyObject *)(op)), \
assert(((PyASCIIObject *)(op))->wstr), \
PyUnicode_WSTR_LENGTH(op)))
#define PyUnicode_GET_DATA_SIZE(op) \
(PyUnicode_GET_SIZE(op) * Py_UNICODE_SIZE)
/* Alias for PyUnicode_AsUnicode(). This will create a wchar_t/Py_UNICODE
representation on demand. Using this macro is very inefficient now,
try to port your code to use the new PyUnicode_*BYTE_DATA() macros or
use PyUnicode_WRITE() and PyUnicode_READ(). */
#define PyUnicode_AS_UNICODE(op) \
(assert(PyUnicode_Check(op)), \
(((PyASCIIObject *)(op))->wstr) ? (((PyASCIIObject *)(op))->wstr) : \
PyUnicode_AsUnicode((PyObject *)(op)))
#define PyUnicode_AS_DATA(op) \
((const char *)(PyUnicode_AS_UNICODE(op)))
/* --- Flexible String Representation Helper Macros (PEP 393) -------------- */
/* Values for PyASCIIObject.state: */
/* Interning state. */
#define SSTATE_NOT_INTERNED 0
#define SSTATE_INTERNED_MORTAL 1
#define SSTATE_INTERNED_IMMORTAL 2
/* Return true if the string contains only ASCII characters, or 0 if not. The
string may be compact (PyUnicode_IS_COMPACT_ASCII) or not, but must be
ready. */
#define PyUnicode_IS_ASCII(op) \
(assert(PyUnicode_Check(op)), \
assert(PyUnicode_IS_READY(op)), \
((PyASCIIObject*)op)->state.ascii)
/* Return true if the string is compact or 0 if not.
No type checks or Ready calls are performed. */
#define PyUnicode_IS_COMPACT(op) \
(((PyASCIIObject*)(op))->state.compact)
/* Return true if the string is a compact ASCII string (use PyASCIIObject
structure), or 0 if not. No type checks or Ready calls are performed. */
#define PyUnicode_IS_COMPACT_ASCII(op) \
(((PyASCIIObject*)op)->state.ascii && PyUnicode_IS_COMPACT(op))
enum PyUnicode_Kind {
/* String contains only wstr byte characters. This is only possible
when the string was created with a legacy API and _PyUnicode_Ready()
has not been called yet. */
PyUnicode_WCHAR_KIND = 0,
/* Return values of the PyUnicode_KIND() macro: */
PyUnicode_1BYTE_KIND = 1,
PyUnicode_2BYTE_KIND = 2,
PyUnicode_4BYTE_KIND = 4
};
/* Return pointers to the canonical representation cast to unsigned char,
Py_UCS2, or Py_UCS4 for direct character access.
No checks are performed, use PyUnicode_KIND() before to ensure
these will work correctly. */
#define PyUnicode_1BYTE_DATA(op) ((Py_UCS1*)PyUnicode_DATA(op))
#define PyUnicode_2BYTE_DATA(op) ((Py_UCS2*)PyUnicode_DATA(op))
#define PyUnicode_4BYTE_DATA(op) ((Py_UCS4*)PyUnicode_DATA(op))
/* Return one of the PyUnicode_*_KIND values defined above. */
#define PyUnicode_KIND(op) \
(assert(PyUnicode_Check(op)), \
assert(PyUnicode_IS_READY(op)), \
((PyASCIIObject *)(op))->state.kind)
/* Return a void pointer to the raw unicode buffer. */
#define _PyUnicode_COMPACT_DATA(op) \
(PyUnicode_IS_ASCII(op) ? \
((void*)((PyASCIIObject*)(op) + 1)) : \
((void*)((PyCompactUnicodeObject*)(op) + 1)))
#define _PyUnicode_NONCOMPACT_DATA(op) \
(assert(((PyUnicodeObject*)(op))->data.any), \
((((PyUnicodeObject *)(op))->data.any)))
#define PyUnicode_DATA(op) \
(assert(PyUnicode_Check(op)), \
PyUnicode_IS_COMPACT(op) ? _PyUnicode_COMPACT_DATA(op) : \
_PyUnicode_NONCOMPACT_DATA(op))
/* In the access macros below, "kind" may be evaluated more than once.
All other macro parameters are evaluated exactly once, so it is safe
to put side effects into them (such as increasing the index). */
/* Write into the canonical representation, this macro does not do any sanity
checks and is intended for usage in loops. The caller should cache the
kind and data pointers obtained from other macro calls.
index is the index in the string (starts at 0) and value is the new
code point value which should be written to that location. */
#define PyUnicode_WRITE(kind, data, index, value) \
do { \
switch ((kind)) { \
case PyUnicode_1BYTE_KIND: { \
((Py_UCS1 *)(data))[(index)] = (Py_UCS1)(value); \
break; \
} \
case PyUnicode_2BYTE_KIND: { \
((Py_UCS2 *)(data))[(index)] = (Py_UCS2)(value); \
break; \
} \
default: { \
assert((kind) == PyUnicode_4BYTE_KIND); \
((Py_UCS4 *)(data))[(index)] = (Py_UCS4)(value); \
} \
} \
} while (0)
/* Read a code point from the string's canonical representation. No checks
or ready calls are performed. */
#define PyUnicode_READ(kind, data, index) \
((Py_UCS4) \
((kind) == PyUnicode_1BYTE_KIND ? \
((const Py_UCS1 *)(data))[(index)] : \
((kind) == PyUnicode_2BYTE_KIND ? \
((const Py_UCS2 *)(data))[(index)] : \
((const Py_UCS4 *)(data))[(index)] \
) \
))
/* PyUnicode_READ_CHAR() is less efficient than PyUnicode_READ() because it
calls PyUnicode_KIND() and might call it twice. For single reads, use
PyUnicode_READ_CHAR, for multiple consecutive reads callers should
cache kind and use PyUnicode_READ instead. */
#define PyUnicode_READ_CHAR(unicode, index) \
(assert(PyUnicode_Check(unicode)), \
assert(PyUnicode_IS_READY(unicode)), \
(Py_UCS4) \
(PyUnicode_KIND((unicode)) == PyUnicode_1BYTE_KIND ? \
((const Py_UCS1 *)(PyUnicode_DATA((unicode))))[(index)] : \
(PyUnicode_KIND((unicode)) == PyUnicode_2BYTE_KIND ? \
((const Py_UCS2 *)(PyUnicode_DATA((unicode))))[(index)] : \
((const Py_UCS4 *)(PyUnicode_DATA((unicode))))[(index)] \
) \
))
/* Returns the length of the unicode string. The caller has to make sure that
the string has it's canonical representation set before calling
this macro. Call PyUnicode_(FAST_)Ready to ensure that. */
#define PyUnicode_GET_LENGTH(op) \
(assert(PyUnicode_Check(op)), \
assert(PyUnicode_IS_READY(op)), \
((PyASCIIObject *)(op))->length)
/* Fast check to determine whether an object is ready. Equivalent to
PyUnicode_IS_COMPACT(op) || ((PyUnicodeObject*)(op))->data.any) */
#define PyUnicode_IS_READY(op) (((PyASCIIObject*)op)->state.ready)
/* PyUnicode_READY() does less work than _PyUnicode_Ready() in the best
case. If the canonical representation is not yet set, it will still call
_PyUnicode_Ready().
Returns 0 on success and -1 on errors. */
#define PyUnicode_READY(op) \
(assert(PyUnicode_Check(op)), \
(PyUnicode_IS_READY(op) ? \
0 : _PyUnicode_Ready((PyObject *)(op))))
/* Return a maximum character value which is suitable for creating another
string based on op. This is always an approximation but more efficient
than iterating over the string. */
#define PyUnicode_MAX_CHAR_VALUE(op) \
(assert(PyUnicode_IS_READY(op)), \
(PyUnicode_IS_ASCII(op) ? \
(0x7f) : \
(PyUnicode_KIND(op) == PyUnicode_1BYTE_KIND ? \
(0xffU) : \
(PyUnicode_KIND(op) == PyUnicode_2BYTE_KIND ? \
(0xffffU) : \
(0x10ffffU)))))
#endif
/* --- Constants ---------------------------------------------------------- */
/* This Unicode character will be used as replacement character during
decoding if the errors argument is set to "replace". Note: the
Unicode character U+FFFD is the official REPLACEMENT CHARACTER in
Unicode 3.0. */
#define Py_UNICODE_REPLACEMENT_CHARACTER ((Py_UCS4) 0xFFFD)
/* === Public API ========================================================= */
/* --- Plain Py_UNICODE --------------------------------------------------- */
/* With PEP 393, this is the recommended way to allocate a new unicode object.
This function will allocate the object and its buffer in a single memory
block. Objects created using this function are not resizable. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_New(
Py_ssize_t size, /* Number of code points in the new string */
Py_UCS4 maxchar /* maximum code point value in the string */
);
#endif
/* Initializes the canonical string representation from the deprecated
wstr/Py_UNICODE representation. This function is used to convert Unicode
objects which were created using the old API to the new flexible format
introduced with PEP 393.
Don't call this function directly, use the public PyUnicode_READY() macro
instead. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) _PyUnicode_Ready(
PyObject *unicode /* Unicode object */
);
#endif
/* Get a copy of a Unicode string. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) _PyUnicode_Copy(
PyObject *unicode
);
#endif
/* Copy character from one unicode object into another, this function performs
character conversion when necessary and falls back to memcpy() if possible.
Fail if to is too small (smaller than *how_many* or smaller than
len(from)-from_start), or if kind(from[from_start:from_start+how_many]) >
kind(to), or if *to* has more than 1 reference.
Return the number of written character, or return -1 and raise an exception
on error.
Pseudo-code:
how_many = min(how_many, len(from) - from_start)
to[to_start:to_start+how_many] = from[from_start:from_start+how_many]
return how_many
Note: The function doesn't write a terminating null character.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_ssize_t) PyUnicode_CopyCharacters(
PyObject *to,
Py_ssize_t to_start,
PyObject *from,
Py_ssize_t from_start,
Py_ssize_t how_many
);
/* Unsafe version of PyUnicode_CopyCharacters(): don't check arguments and so
may crash if parameters are invalid (e.g. if the output string
is too short). */
PyAPI_FUNC(void) _PyUnicode_FastCopyCharacters(
PyObject *to,
Py_ssize_t to_start,
PyObject *from,
Py_ssize_t from_start,
Py_ssize_t how_many
);
#endif
#ifndef Py_LIMITED_API
/* Fill a string with a character: write fill_char into
unicode[start:start+length].
Fail if fill_char is bigger than the string maximum character, or if the
string has more than 1 reference.
Return the number of written character, or return -1 and raise an exception
on error. */
PyAPI_FUNC(Py_ssize_t) PyUnicode_Fill(
PyObject *unicode,
Py_ssize_t start,
Py_ssize_t length,
Py_UCS4 fill_char
);
/* Unsafe version of PyUnicode_Fill(): don't check arguments and so may crash
if parameters are invalid (e.g. if length is longer than the string). */
PyAPI_FUNC(void) _PyUnicode_FastFill(
PyObject *unicode,
Py_ssize_t start,
Py_ssize_t length,
Py_UCS4 fill_char
);
#endif
/* Create a Unicode Object from the Py_UNICODE buffer u of the given
size.
u may be NULL which causes the contents to be undefined. It is the
user's responsibility to fill in the needed data afterwards. Note
that modifying the Unicode object contents after construction is
only allowed if u was set to NULL.
The buffer is copied into the new object. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_FromUnicode(
const Py_UNICODE *u, /* Unicode buffer */
Py_ssize_t size /* size of buffer */
);
#endif
/* Similar to PyUnicode_FromUnicode(), but u points to UTF-8 encoded bytes */
PyAPI_FUNC(PyObject*) PyUnicode_FromStringAndSize(
const char *u, /* UTF-8 encoded string */
Py_ssize_t size /* size of buffer */
);
/* Similar to PyUnicode_FromUnicode(), but u points to null-terminated
UTF-8 encoded bytes. The size is determined with strlen(). */
PyAPI_FUNC(PyObject*) PyUnicode_FromString(
const char *u /* UTF-8 encoded string */
);
#ifndef Py_LIMITED_API
/* Create a new string from a buffer of Py_UCS1, Py_UCS2 or Py_UCS4 characters.
Scan the string to find the maximum character. */
PyAPI_FUNC(PyObject*) PyUnicode_FromKindAndData(
int kind,
const void *buffer,
Py_ssize_t size);
/* Create a new string from a buffer of ASCII characters.
WARNING: Don't check if the string contains any non-ASCII character. */
PyAPI_FUNC(PyObject*) _PyUnicode_FromASCII(
const char *buffer,
Py_ssize_t size);
#endif
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject*) PyUnicode_Substring(
PyObject *str,
Py_ssize_t start,
Py_ssize_t end);
#endif
#ifndef Py_LIMITED_API
/* Compute the maximum character of the substring unicode[start:end].
Return 127 for an empty string. */
PyAPI_FUNC(Py_UCS4) _PyUnicode_FindMaxChar (
PyObject *unicode,
Py_ssize_t start,
Py_ssize_t end);
#endif
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
/* Copy the string into a UCS4 buffer including the null character if copy_null
is set. Return NULL and raise an exception on error. Raise a SystemError if
the buffer is smaller than the string. Return buffer on success.
buflen is the length of the buffer in (Py_UCS4) characters. */
PyAPI_FUNC(Py_UCS4*) PyUnicode_AsUCS4(
PyObject *unicode,
Py_UCS4* buffer,
Py_ssize_t buflen,
int copy_null);
/* Copy the string into a UCS4 buffer. A new buffer is allocated using
* PyMem_Malloc; if this fails, NULL is returned with a memory error
exception set. */
PyAPI_FUNC(Py_UCS4*) PyUnicode_AsUCS4Copy(PyObject *unicode);
#endif
/* Return a read-only pointer to the Unicode object's internal
Py_UNICODE buffer.
If the wchar_t/Py_UNICODE representation is not yet available, this
function will calculate it. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_UNICODE *) PyUnicode_AsUnicode(
PyObject *unicode /* Unicode object */
);
#endif
/* Return a read-only pointer to the Unicode object's internal
Py_UNICODE buffer and save the length at size.
If the wchar_t/Py_UNICODE representation is not yet available, this
function will calculate it. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_UNICODE *) PyUnicode_AsUnicodeAndSize(
PyObject *unicode, /* Unicode object */
Py_ssize_t *size /* location where to save the length */
);
#endif
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
/* Get the length of the Unicode object. */
PyAPI_FUNC(Py_ssize_t) PyUnicode_GetLength(
PyObject *unicode
);
#endif
/* Get the number of Py_UNICODE units in the
string representation. */
PyAPI_FUNC(Py_ssize_t) PyUnicode_GetSize(
PyObject *unicode /* Unicode object */
);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
/* Read a character from the string. */
PyAPI_FUNC(Py_UCS4) PyUnicode_ReadChar(
PyObject *unicode,
Py_ssize_t index
);
/* Write a character to the string. The string must have been created through
PyUnicode_New, must not be shared, and must not have been hashed yet.
Return 0 on success, -1 on error. */
PyAPI_FUNC(int) PyUnicode_WriteChar(
PyObject *unicode,
Py_ssize_t index,
Py_UCS4 character
);
#endif
#ifndef Py_LIMITED_API
/* Get the maximum ordinal for a Unicode character. */
PyAPI_FUNC(Py_UNICODE) PyUnicode_GetMax(void);
#endif
/* Resize a Unicode object. The length is the number of characters, except
if the kind of the string is PyUnicode_WCHAR_KIND: in this case, the length
is the number of Py_UNICODE characters.
*unicode is modified to point to the new (resized) object and 0
returned on success.
Try to resize the string in place (which is usually faster than allocating
a new string and copy characters), or create a new string.
Error handling is implemented as follows: an exception is set, -1
is returned and *unicode left untouched.
WARNING: The function doesn't check string content, the result may not be a
string in canonical representation. */
PyAPI_FUNC(int) PyUnicode_Resize(
PyObject **unicode, /* Pointer to the Unicode object */
Py_ssize_t length /* New length */
);
/* Decode obj to a Unicode object.
bytes, bytearray and other bytes-like objects are decoded according to the
given encoding and error handler. The encoding and error handler can be
NULL to have the interface use UTF-8 and "strict".
All other objects (including Unicode objects) raise an exception.
The API returns NULL in case of an error. The caller is responsible
for decref'ing the returned objects.
*/
PyAPI_FUNC(PyObject*) PyUnicode_FromEncodedObject(
PyObject *obj, /* Object */
const char *encoding, /* encoding */
const char *errors /* error handling */
);
/* Copy an instance of a Unicode subtype to a new true Unicode object if
necessary. If obj is already a true Unicode object (not a subtype), return
the reference with *incremented* refcount.
The API returns NULL in case of an error. The caller is responsible
for decref'ing the returned objects.
*/
PyAPI_FUNC(PyObject*) PyUnicode_FromObject(
PyObject *obj /* Object */
);
PyAPI_FUNC(PyObject *) PyUnicode_FromFormatV(
const char *format, /* ASCII-encoded string */
va_list vargs
);
PyAPI_FUNC(PyObject *) PyUnicode_FromFormat(
const char *format, /* ASCII-encoded string */
...
);
#ifndef Py_LIMITED_API
typedef struct {
PyObject *buffer;
void *data;
enum PyUnicode_Kind kind;
Py_UCS4 maxchar;
Py_ssize_t size;
Py_ssize_t pos;
/* minimum number of allocated characters (default: 0) */
Py_ssize_t min_length;
/* minimum character (default: 127, ASCII) */
Py_UCS4 min_char;
/* If non-zero, overallocate the buffer (default: 0). */
unsigned char overallocate;
/* If readonly is 1, buffer is a shared string (cannot be modified)
and size is set to 0. */
unsigned char readonly;
} _PyUnicodeWriter ;
/* Initialize a Unicode writer.
*
* By default, the minimum buffer size is 0 character and overallocation is
* disabled. Set min_length, min_char and overallocate attributes to control
* the allocation of the buffer. */
PyAPI_FUNC(void)
_PyUnicodeWriter_Init(_PyUnicodeWriter *writer);
/* Prepare the buffer to write 'length' characters
with the specified maximum character.
Return 0 on success, raise an exception and return -1 on error. */
#define _PyUnicodeWriter_Prepare(WRITER, LENGTH, MAXCHAR) \
(((MAXCHAR) <= (WRITER)->maxchar \
&& (LENGTH) <= (WRITER)->size - (WRITER)->pos) \
? 0 \
: (((LENGTH) == 0) \
? 0 \
: _PyUnicodeWriter_PrepareInternal((WRITER), (LENGTH), (MAXCHAR))))
/* Don't call this function directly, use the _PyUnicodeWriter_Prepare() macro
instead. */
PyAPI_FUNC(int)
_PyUnicodeWriter_PrepareInternal(_PyUnicodeWriter *writer,
Py_ssize_t length, Py_UCS4 maxchar);
/* Prepare the buffer to have at least the kind KIND.
For example, kind=PyUnicode_2BYTE_KIND ensures that the writer will
support characters in range U+000-U+FFFF.
Return 0 on success, raise an exception and return -1 on error. */
#define _PyUnicodeWriter_PrepareKind(WRITER, KIND) \
(assert((KIND) != PyUnicode_WCHAR_KIND), \
(KIND) <= (WRITER)->kind \
? 0 \
: _PyUnicodeWriter_PrepareKindInternal((WRITER), (KIND)))
/* Don't call this function directly, use the _PyUnicodeWriter_PrepareKind()
macro instead. */
PyAPI_FUNC(int)
_PyUnicodeWriter_PrepareKindInternal(_PyUnicodeWriter *writer,
enum PyUnicode_Kind kind);
/* Append a Unicode character.
Return 0 on success, raise an exception and return -1 on error. */
PyAPI_FUNC(int)
_PyUnicodeWriter_WriteChar(_PyUnicodeWriter *writer,
Py_UCS4 ch
);
/* Append a Unicode string.
Return 0 on success, raise an exception and return -1 on error. */
PyAPI_FUNC(int)
_PyUnicodeWriter_WriteStr(_PyUnicodeWriter *writer,
PyObject *str /* Unicode string */
);
/* Append a substring of a Unicode string.
Return 0 on success, raise an exception and return -1 on error. */
PyAPI_FUNC(int)
_PyUnicodeWriter_WriteSubstring(_PyUnicodeWriter *writer,
PyObject *str, /* Unicode string */
Py_ssize_t start,
Py_ssize_t end
);
/* Append an ASCII-encoded byte string.
Return 0 on success, raise an exception and return -1 on error. */
PyAPI_FUNC(int)
_PyUnicodeWriter_WriteASCIIString(_PyUnicodeWriter *writer,
const char *str, /* ASCII-encoded byte string */
Py_ssize_t len /* number of bytes, or -1 if unknown */
);
/* Append a latin1-encoded byte string.
Return 0 on success, raise an exception and return -1 on error. */
PyAPI_FUNC(int)
_PyUnicodeWriter_WriteLatin1String(_PyUnicodeWriter *writer,
const char *str, /* latin1-encoded byte string */
Py_ssize_t len /* length in bytes */
);
/* Get the value of the writer as a Unicode string. Clear the
buffer of the writer. Raise an exception and return NULL
on error. */
PyAPI_FUNC(PyObject *)
_PyUnicodeWriter_Finish(_PyUnicodeWriter *writer);
/* Deallocate memory of a writer (clear its internal buffer). */
PyAPI_FUNC(void)
_PyUnicodeWriter_Dealloc(_PyUnicodeWriter *writer);
#endif
#ifndef Py_LIMITED_API
/* Format the object based on the format_spec, as defined in PEP 3101
(Advanced String Formatting). */
PyAPI_FUNC(int) _PyUnicode_FormatAdvancedWriter(
_PyUnicodeWriter *writer,
PyObject *obj,
PyObject *format_spec,
Py_ssize_t start,
Py_ssize_t end);
#endif
PyAPI_FUNC(void) PyUnicode_InternInPlace(PyObject **);
PyAPI_FUNC(void) PyUnicode_InternImmortal(PyObject **);
PyAPI_FUNC(PyObject *) PyUnicode_InternFromString(
const char *u /* UTF-8 encoded string */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void) _Py_ReleaseInternedUnicodeStrings(void);
#endif
/* Use only if you know it's a string */
#define PyUnicode_CHECK_INTERNED(op) \
(((PyASCIIObject *)(op))->state.interned)
/* --- wchar_t support for platforms which support it --------------------- */
#ifdef HAVE_WCHAR_H
/* Create a Unicode Object from the wchar_t buffer w of the given
size.
The buffer is copied into the new object. */
PyAPI_FUNC(PyObject*) PyUnicode_FromWideChar(
const wchar_t *w, /* wchar_t buffer */
Py_ssize_t size /* size of buffer */
);
/* Copies the Unicode Object contents into the wchar_t buffer w. At
most size wchar_t characters are copied.
Note that the resulting wchar_t string may or may not be
0-terminated. It is the responsibility of the caller to make sure
that the wchar_t string is 0-terminated in case this is required by
the application.
Returns the number of wchar_t characters copied (excluding a
possibly trailing 0-termination character) or -1 in case of an
error. */
PyAPI_FUNC(Py_ssize_t) PyUnicode_AsWideChar(
PyObject *unicode, /* Unicode object */
wchar_t *w, /* wchar_t buffer */
Py_ssize_t size /* size of buffer */
);
/* Convert the Unicode object to a wide character string. The output string
always ends with a nul character. If size is not NULL, write the number of
wide characters (excluding the null character) into *size.
Returns a buffer allocated by PyMem_Malloc() (use PyMem_Free() to free it)
on success. On error, returns NULL, *size is undefined and raises a
MemoryError. */
PyAPI_FUNC(wchar_t*) PyUnicode_AsWideCharString(
PyObject *unicode, /* Unicode object */
Py_ssize_t *size /* number of characters of the result */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(void*) _PyUnicode_AsKind(PyObject *s, unsigned int kind);
#endif
#endif
/* --- Unicode ordinals --------------------------------------------------- */
/* Create a Unicode Object from the given Unicode code point ordinal.
The ordinal must be in range(0x110000). A ValueError is
raised in case it is not.
*/
PyAPI_FUNC(PyObject*) PyUnicode_FromOrdinal(int ordinal);
/* --- Free-list management ----------------------------------------------- */
/* Clear the free list used by the Unicode implementation.
This can be used to release memory used for objects on the free
list back to the Python memory allocator.
*/
PyAPI_FUNC(int) PyUnicode_ClearFreeList(void);
/* === Builtin Codecs =====================================================
Many of these APIs take two arguments encoding and errors. These
parameters encoding and errors have the same semantics as the ones
of the builtin str() API.
Setting encoding to NULL causes the default encoding (UTF-8) to be used.
Error handling is set by errors which may also be set to NULL
meaning to use the default handling defined for the codec. Default
error handling for all builtin codecs is "strict" (ValueErrors are
raised).
The codecs all use a similar interface. Only deviation from the
generic ones are documented.
*/
/* --- Manage the default encoding ---------------------------------------- */
/* Returns a pointer to the default encoding (UTF-8) of the
Unicode object unicode and the size of the encoded representation
in bytes stored in *size.
In case of an error, no *size is set.
This function caches the UTF-8 encoded string in the unicodeobject
and subsequent calls will return the same string. The memory is released
when the unicodeobject is deallocated.
_PyUnicode_AsStringAndSize is a #define for PyUnicode_AsUTF8AndSize to
support the previous internal function with the same behaviour.
*** This API is for interpreter INTERNAL USE ONLY and will likely
*** be removed or changed in the future.
*** If you need to access the Unicode object as UTF-8 bytes string,
*** please use PyUnicode_AsUTF8String() instead.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(char *) PyUnicode_AsUTF8AndSize(
PyObject *unicode,
Py_ssize_t *size);
#define _PyUnicode_AsStringAndSize PyUnicode_AsUTF8AndSize
#endif
/* Returns a pointer to the default encoding (UTF-8) of the
Unicode object unicode.
Like PyUnicode_AsUTF8AndSize(), this also caches the UTF-8 representation
in the unicodeobject.
_PyUnicode_AsString is a #define for PyUnicode_AsUTF8 to
support the previous internal function with the same behaviour.
Use of this API is DEPRECATED since no size information can be
extracted from the returned data.
*** This API is for interpreter INTERNAL USE ONLY and will likely
*** be removed or changed for Python 3.1.
*** If you need to access the Unicode object as UTF-8 bytes string,
*** please use PyUnicode_AsUTF8String() instead.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(char *) PyUnicode_AsUTF8(PyObject *unicode);
#define _PyUnicode_AsString PyUnicode_AsUTF8
#endif
/* Returns "utf-8". */
PyAPI_FUNC(const char*) PyUnicode_GetDefaultEncoding(void);
/* --- Generic Codecs ----------------------------------------------------- */
/* Create a Unicode object by decoding the encoded string s of the
given size. */
PyAPI_FUNC(PyObject*) PyUnicode_Decode(
const char *s, /* encoded string */
Py_ssize_t size, /* size of buffer */
const char *encoding, /* encoding */
const char *errors /* error handling */
);
/* Decode a Unicode object unicode and return the result as Python
object.
This API is DEPRECATED. The only supported standard encoding is rot13.
Use PyCodec_Decode() to decode with rot13 and non-standard codecs
that decode from str. */
PyAPI_FUNC(PyObject*) PyUnicode_AsDecodedObject(
PyObject *unicode, /* Unicode object */
const char *encoding, /* encoding */
const char *errors /* error handling */
) Py_DEPRECATED(3.6);
/* Decode a Unicode object unicode and return the result as Unicode
object.
This API is DEPRECATED. The only supported standard encoding is rot13.
Use PyCodec_Decode() to decode with rot13 and non-standard codecs
that decode from str to str. */
PyAPI_FUNC(PyObject*) PyUnicode_AsDecodedUnicode(
PyObject *unicode, /* Unicode object */
const char *encoding, /* encoding */
const char *errors /* error handling */
) Py_DEPRECATED(3.6);
/* Encodes a Py_UNICODE buffer of the given size and returns a
Python string object. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_Encode(
const Py_UNICODE *s, /* Unicode char buffer */
Py_ssize_t size, /* number of Py_UNICODE chars to encode */
const char *encoding, /* encoding */
const char *errors /* error handling */
);
#endif
/* Encodes a Unicode object and returns the result as Python
object.
This API is DEPRECATED. It is superceeded by PyUnicode_AsEncodedString()
since all standard encodings (except rot13) encode str to bytes.
Use PyCodec_Encode() for encoding with rot13 and non-standard codecs
that encode form str to non-bytes. */
PyAPI_FUNC(PyObject*) PyUnicode_AsEncodedObject(
PyObject *unicode, /* Unicode object */
const char *encoding, /* encoding */
const char *errors /* error handling */
) Py_DEPRECATED(3.6);
/* Encodes a Unicode object and returns the result as Python string
object. */
PyAPI_FUNC(PyObject*) PyUnicode_AsEncodedString(
PyObject *unicode, /* Unicode object */
const char *encoding, /* encoding */
const char *errors /* error handling */
);
/* Encodes a Unicode object and returns the result as Unicode
object.
This API is DEPRECATED. The only supported standard encodings is rot13.
Use PyCodec_Encode() to encode with rot13 and non-standard codecs
that encode from str to str. */
PyAPI_FUNC(PyObject*) PyUnicode_AsEncodedUnicode(
PyObject *unicode, /* Unicode object */
const char *encoding, /* encoding */
const char *errors /* error handling */
) Py_DEPRECATED(3.6);
/* Build an encoding map. */
PyAPI_FUNC(PyObject*) PyUnicode_BuildEncodingMap(
PyObject* string /* 256 character map */
);
/* --- UTF-7 Codecs ------------------------------------------------------- */
PyAPI_FUNC(PyObject*) PyUnicode_DecodeUTF7(
const char *string, /* UTF-7 encoded string */
Py_ssize_t length, /* size of string */
const char *errors /* error handling */
);
PyAPI_FUNC(PyObject*) PyUnicode_DecodeUTF7Stateful(
const char *string, /* UTF-7 encoded string */
Py_ssize_t length, /* size of string */
const char *errors, /* error handling */
Py_ssize_t *consumed /* bytes consumed */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_EncodeUTF7(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length, /* number of Py_UNICODE chars to encode */
int base64SetO, /* Encode RFC2152 Set O characters in base64 */
int base64WhiteSpace, /* Encode whitespace (sp, ht, nl, cr) in base64 */
const char *errors /* error handling */
);
PyAPI_FUNC(PyObject*) _PyUnicode_EncodeUTF7(
PyObject *unicode, /* Unicode object */
int base64SetO, /* Encode RFC2152 Set O characters in base64 */
int base64WhiteSpace, /* Encode whitespace (sp, ht, nl, cr) in base64 */
const char *errors /* error handling */
);
#endif
/* --- UTF-8 Codecs ------------------------------------------------------- */
PyAPI_FUNC(PyObject*) PyUnicode_DecodeUTF8(
const char *string, /* UTF-8 encoded string */
Py_ssize_t length, /* size of string */
const char *errors /* error handling */
);
PyAPI_FUNC(PyObject*) PyUnicode_DecodeUTF8Stateful(
const char *string, /* UTF-8 encoded string */
Py_ssize_t length, /* size of string */
const char *errors, /* error handling */
Py_ssize_t *consumed /* bytes consumed */
);
PyAPI_FUNC(PyObject*) PyUnicode_AsUTF8String(
PyObject *unicode /* Unicode object */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) _PyUnicode_AsUTF8String(
PyObject *unicode,
const char *errors);
PyAPI_FUNC(PyObject*) PyUnicode_EncodeUTF8(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length, /* number of Py_UNICODE chars to encode */
const char *errors /* error handling */
);
#endif
/* --- UTF-32 Codecs ------------------------------------------------------ */
/* Decodes length bytes from a UTF-32 encoded buffer string and returns
the corresponding Unicode object.
errors (if non-NULL) defines the error handling. It defaults
to "strict".
If byteorder is non-NULL, the decoder starts decoding using the
given byte order:
*byteorder == -1: little endian
*byteorder == 0: native order
*byteorder == 1: big endian
In native mode, the first four bytes of the stream are checked for a
BOM mark. If found, the BOM mark is analysed, the byte order
adjusted and the BOM skipped. In the other modes, no BOM mark
interpretation is done. After completion, *byteorder is set to the
current byte order at the end of input data.
If byteorder is NULL, the codec starts in native order mode.
*/
PyAPI_FUNC(PyObject*) PyUnicode_DecodeUTF32(
const char *string, /* UTF-32 encoded string */
Py_ssize_t length, /* size of string */
const char *errors, /* error handling */
int *byteorder /* pointer to byteorder to use
0=native;-1=LE,1=BE; updated on
exit */
);
PyAPI_FUNC(PyObject*) PyUnicode_DecodeUTF32Stateful(
const char *string, /* UTF-32 encoded string */
Py_ssize_t length, /* size of string */
const char *errors, /* error handling */
int *byteorder, /* pointer to byteorder to use
0=native;-1=LE,1=BE; updated on
exit */
Py_ssize_t *consumed /* bytes consumed */
);
/* Returns a Python string using the UTF-32 encoding in native byte
order. The string always starts with a BOM mark. */
PyAPI_FUNC(PyObject*) PyUnicode_AsUTF32String(
PyObject *unicode /* Unicode object */
);
/* Returns a Python string object holding the UTF-32 encoded value of
the Unicode data.
If byteorder is not 0, output is written according to the following
byte order:
byteorder == -1: little endian
byteorder == 0: native byte order (writes a BOM mark)
byteorder == 1: big endian
If byteorder is 0, the output string will always start with the
Unicode BOM mark (U+FEFF). In the other two modes, no BOM mark is
prepended.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_EncodeUTF32(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length, /* number of Py_UNICODE chars to encode */
const char *errors, /* error handling */
int byteorder /* byteorder to use 0=BOM+native;-1=LE,1=BE */
);
PyAPI_FUNC(PyObject*) _PyUnicode_EncodeUTF32(
PyObject *object, /* Unicode object */
const char *errors, /* error handling */
int byteorder /* byteorder to use 0=BOM+native;-1=LE,1=BE */
);
#endif
/* --- UTF-16 Codecs ------------------------------------------------------ */
/* Decodes length bytes from a UTF-16 encoded buffer string and returns
the corresponding Unicode object.
errors (if non-NULL) defines the error handling. It defaults
to "strict".
If byteorder is non-NULL, the decoder starts decoding using the
given byte order:
*byteorder == -1: little endian
*byteorder == 0: native order
*byteorder == 1: big endian
In native mode, the first two bytes of the stream are checked for a
BOM mark. If found, the BOM mark is analysed, the byte order
adjusted and the BOM skipped. In the other modes, no BOM mark
interpretation is done. After completion, *byteorder is set to the
current byte order at the end of input data.
If byteorder is NULL, the codec starts in native order mode.
*/
PyAPI_FUNC(PyObject*) PyUnicode_DecodeUTF16(
const char *string, /* UTF-16 encoded string */
Py_ssize_t length, /* size of string */
const char *errors, /* error handling */
int *byteorder /* pointer to byteorder to use
0=native;-1=LE,1=BE; updated on
exit */
);
PyAPI_FUNC(PyObject*) PyUnicode_DecodeUTF16Stateful(
const char *string, /* UTF-16 encoded string */
Py_ssize_t length, /* size of string */
const char *errors, /* error handling */
int *byteorder, /* pointer to byteorder to use
0=native;-1=LE,1=BE; updated on
exit */
Py_ssize_t *consumed /* bytes consumed */
);
/* Returns a Python string using the UTF-16 encoding in native byte
order. The string always starts with a BOM mark. */
PyAPI_FUNC(PyObject*) PyUnicode_AsUTF16String(
PyObject *unicode /* Unicode object */
);
/* Returns a Python string object holding the UTF-16 encoded value of
the Unicode data.
If byteorder is not 0, output is written according to the following
byte order:
byteorder == -1: little endian
byteorder == 0: native byte order (writes a BOM mark)
byteorder == 1: big endian
If byteorder is 0, the output string will always start with the
Unicode BOM mark (U+FEFF). In the other two modes, no BOM mark is
prepended.
Note that Py_UNICODE data is being interpreted as UTF-16 reduced to
UCS-2. This trick makes it possible to add full UTF-16 capabilities
at a later point without compromising the APIs.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_EncodeUTF16(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length, /* number of Py_UNICODE chars to encode */
const char *errors, /* error handling */
int byteorder /* byteorder to use 0=BOM+native;-1=LE,1=BE */
);
PyAPI_FUNC(PyObject*) _PyUnicode_EncodeUTF16(
PyObject* unicode, /* Unicode object */
const char *errors, /* error handling */
int byteorder /* byteorder to use 0=BOM+native;-1=LE,1=BE */
);
#endif
/* --- Unicode-Escape Codecs ---------------------------------------------- */
PyAPI_FUNC(PyObject*) PyUnicode_DecodeUnicodeEscape(
const char *string, /* Unicode-Escape encoded string */
Py_ssize_t length, /* size of string */
const char *errors /* error handling */
);
#ifndef Py_LIMITED_API
/* Helper for PyUnicode_DecodeUnicodeEscape that detects invalid escape
chars. */
PyAPI_FUNC(PyObject*) _PyUnicode_DecodeUnicodeEscape(
const char *string, /* Unicode-Escape encoded string */
Py_ssize_t length, /* size of string */
const char *errors, /* error handling */
const char **first_invalid_escape /* on return, points to first
invalid escaped char in
string. */
);
#endif
PyAPI_FUNC(PyObject*) PyUnicode_AsUnicodeEscapeString(
PyObject *unicode /* Unicode object */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_EncodeUnicodeEscape(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length /* Number of Py_UNICODE chars to encode */
);
#endif
/* --- Raw-Unicode-Escape Codecs ------------------------------------------ */
PyAPI_FUNC(PyObject*) PyUnicode_DecodeRawUnicodeEscape(
const char *string, /* Raw-Unicode-Escape encoded string */
Py_ssize_t length, /* size of string */
const char *errors /* error handling */
);
PyAPI_FUNC(PyObject*) PyUnicode_AsRawUnicodeEscapeString(
PyObject *unicode /* Unicode object */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_EncodeRawUnicodeEscape(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length /* Number of Py_UNICODE chars to encode */
);
#endif
/* --- Unicode Internal Codec ---------------------------------------------
Only for internal use in _codecsmodule.c */
#ifndef Py_LIMITED_API
PyObject *_PyUnicode_DecodeUnicodeInternal(
const char *string,
Py_ssize_t length,
const char *errors
);
#endif
/* --- Latin-1 Codecs -----------------------------------------------------
Note: Latin-1 corresponds to the first 256 Unicode ordinals.
*/
PyAPI_FUNC(PyObject*) PyUnicode_DecodeLatin1(
const char *string, /* Latin-1 encoded string */
Py_ssize_t length, /* size of string */
const char *errors /* error handling */
);
PyAPI_FUNC(PyObject*) PyUnicode_AsLatin1String(
PyObject *unicode /* Unicode object */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) _PyUnicode_AsLatin1String(
PyObject* unicode,
const char* errors);
PyAPI_FUNC(PyObject*) PyUnicode_EncodeLatin1(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length, /* Number of Py_UNICODE chars to encode */
const char *errors /* error handling */
);
#endif
/* --- ASCII Codecs -------------------------------------------------------
Only 7-bit ASCII data is excepted. All other codes generate errors.
*/
PyAPI_FUNC(PyObject*) PyUnicode_DecodeASCII(
const char *string, /* ASCII encoded string */
Py_ssize_t length, /* size of string */
const char *errors /* error handling */
);
PyAPI_FUNC(PyObject*) PyUnicode_AsASCIIString(
PyObject *unicode /* Unicode object */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) _PyUnicode_AsASCIIString(
PyObject* unicode,
const char* errors);
PyAPI_FUNC(PyObject*) PyUnicode_EncodeASCII(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length, /* Number of Py_UNICODE chars to encode */
const char *errors /* error handling */
);
#endif
/* --- Character Map Codecs -----------------------------------------------
This codec uses mappings to encode and decode characters.
Decoding mappings must map single string characters to single
Unicode characters, integers (which are then interpreted as Unicode
ordinals) or None (meaning "undefined mapping" and causing an
error).
Encoding mappings must map single Unicode characters to single
string characters, integers (which are then interpreted as Latin-1
ordinals) or None (meaning "undefined mapping" and causing an
error).
If a character lookup fails with a LookupError, the character is
copied as-is meaning that its ordinal value will be interpreted as
Unicode or Latin-1 ordinal resp. Because of this mappings only need
to contain those mappings which map characters to different code
points.
*/
PyAPI_FUNC(PyObject*) PyUnicode_DecodeCharmap(
const char *string, /* Encoded string */
Py_ssize_t length, /* size of string */
PyObject *mapping, /* character mapping
(char ordinal -> unicode ordinal) */
const char *errors /* error handling */
);
PyAPI_FUNC(PyObject*) PyUnicode_AsCharmapString(
PyObject *unicode, /* Unicode object */
PyObject *mapping /* character mapping
(unicode ordinal -> char ordinal) */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_EncodeCharmap(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length, /* Number of Py_UNICODE chars to encode */
PyObject *mapping, /* character mapping
(unicode ordinal -> char ordinal) */
const char *errors /* error handling */
);
PyAPI_FUNC(PyObject*) _PyUnicode_EncodeCharmap(
PyObject *unicode, /* Unicode object */
PyObject *mapping, /* character mapping
(unicode ordinal -> char ordinal) */
const char *errors /* error handling */
);
#endif
/* Translate a Py_UNICODE buffer of the given length by applying a
character mapping table to it and return the resulting Unicode
object.
The mapping table must map Unicode ordinal integers to Unicode
ordinal integers or None (causing deletion of the character).
Mapping tables may be dictionaries or sequences. Unmapped character
ordinals (ones which cause a LookupError) are left untouched and
are copied as-is.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) PyUnicode_TranslateCharmap(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length, /* Number of Py_UNICODE chars to encode */
PyObject *table, /* Translate table */
const char *errors /* error handling */
);
#endif
#ifdef MS_WINDOWS
/* --- MBCS codecs for Windows -------------------------------------------- */
PyAPI_FUNC(PyObject*) PyUnicode_DecodeMBCS(
const char *string, /* MBCS encoded string */
Py_ssize_t length, /* size of string */
const char *errors /* error handling */
);
PyAPI_FUNC(PyObject*) PyUnicode_DecodeMBCSStateful(
const char *string, /* MBCS encoded string */
Py_ssize_t length, /* size of string */
const char *errors, /* error handling */
Py_ssize_t *consumed /* bytes consumed */
);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject*) PyUnicode_DecodeCodePageStateful(
int code_page, /* code page number */
const char *string, /* encoded string */
Py_ssize_t length, /* size of string */
const char *errors, /* error handling */
Py_ssize_t *consumed /* bytes consumed */
);
#endif
PyAPI_FUNC(PyObject*) PyUnicode_AsMBCSString(
PyObject *unicode /* Unicode object */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_EncodeMBCS(
const Py_UNICODE *data, /* Unicode char buffer */
Py_ssize_t length, /* number of Py_UNICODE chars to encode */
const char *errors /* error handling */
);
#endif
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
PyAPI_FUNC(PyObject*) PyUnicode_EncodeCodePage(
int code_page, /* code page number */
PyObject *unicode, /* Unicode object */
const char *errors /* error handling */
);
#endif
#endif /* MS_WINDOWS */
/* --- Decimal Encoder ---------------------------------------------------- */
/* Takes a Unicode string holding a decimal value and writes it into
an output buffer using standard ASCII digit codes.
The output buffer has to provide at least length+1 bytes of storage
area. The output string is 0-terminated.
The encoder converts whitespace to ' ', decimal characters to their
corresponding ASCII digit and all other Latin-1 characters except
\0 as-is. Characters outside this range (Unicode ordinals 1-256)
are treated as errors. This includes embedded NULL bytes.
Error handling is defined by the errors argument:
NULL or "strict": raise a ValueError
"ignore": ignore the wrong characters (these are not copied to the
output buffer)
"replace": replaces illegal characters with '?'
Returns 0 on success, -1 on failure.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) PyUnicode_EncodeDecimal(
Py_UNICODE *s, /* Unicode buffer */
Py_ssize_t length, /* Number of Py_UNICODE chars to encode */
char *output, /* Output buffer; must have size >= length */
const char *errors /* error handling */
);
#endif
/* Transforms code points that have decimal digit property to the
corresponding ASCII digit code points.
Returns a new Unicode string on success, NULL on failure.
*/
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) PyUnicode_TransformDecimalToASCII(
Py_UNICODE *s, /* Unicode buffer */
Py_ssize_t length /* Number of Py_UNICODE chars to transform */
);
#endif
/* Similar to PyUnicode_TransformDecimalToASCII(), but takes a PyObject
as argument instead of a raw buffer and length. This function additionally
transforms spaces to ASCII because this is what the callers in longobject,
floatobject, and complexobject did anyways. */
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) _PyUnicode_TransformDecimalAndSpaceToASCII(
PyObject *unicode /* Unicode object */
);
#endif
/* --- Locale encoding --------------------------------------------------- */
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
/* Decode a string from the current locale encoding. The decoder is strict if
*surrogateescape* is equal to zero, otherwise it uses the 'surrogateescape'
error handler (PEP 383) to escape undecodable bytes. If a byte sequence can
be decoded as a surrogate character and *surrogateescape* is not equal to
zero, the byte sequence is escaped using the 'surrogateescape' error handler
instead of being decoded. *str* must end with a null character but cannot
contain embedded null characters. */
PyAPI_FUNC(PyObject*) PyUnicode_DecodeLocaleAndSize(
const char *str,
Py_ssize_t len,
const char *errors);
/* Similar to PyUnicode_DecodeLocaleAndSize(), but compute the string
length using strlen(). */
PyAPI_FUNC(PyObject*) PyUnicode_DecodeLocale(
const char *str,
const char *errors);
/* Encode a Unicode object to the current locale encoding. The encoder is
strict is *surrogateescape* is equal to zero, otherwise the
"surrogateescape" error handler is used. Return a bytes object. The string
cannot contain embedded null characters. */
PyAPI_FUNC(PyObject*) PyUnicode_EncodeLocale(
PyObject *unicode,
const char *errors
);
#endif
/* --- File system encoding ---------------------------------------------- */
/* ParseTuple converter: encode str objects to bytes using
PyUnicode_EncodeFSDefault(); bytes objects are output as-is. */
PyAPI_FUNC(int) PyUnicode_FSConverter(PyObject*, void*);
/* ParseTuple converter: decode bytes objects to unicode using
PyUnicode_DecodeFSDefaultAndSize(); str objects are output as-is. */
PyAPI_FUNC(int) PyUnicode_FSDecoder(PyObject*, void*);
/* Decode a null-terminated string using Py_FileSystemDefaultEncoding
and the "surrogateescape" error handler.
If Py_FileSystemDefaultEncoding is not set, fall back to the locale
encoding.
Use PyUnicode_DecodeFSDefaultAndSize() if the string length is known.
*/
PyAPI_FUNC(PyObject*) PyUnicode_DecodeFSDefault(
const char *s /* encoded string */
);
/* Decode a string using Py_FileSystemDefaultEncoding
and the "surrogateescape" error handler.
If Py_FileSystemDefaultEncoding is not set, fall back to the locale
encoding.
*/
PyAPI_FUNC(PyObject*) PyUnicode_DecodeFSDefaultAndSize(
const char *s, /* encoded string */
Py_ssize_t size /* size */
);
/* Encode a Unicode object to Py_FileSystemDefaultEncoding with the
"surrogateescape" error handler, and return bytes.
If Py_FileSystemDefaultEncoding is not set, fall back to the locale
encoding.
*/
PyAPI_FUNC(PyObject*) PyUnicode_EncodeFSDefault(
PyObject *unicode
);
/* --- Methods & Slots ----------------------------------------------------
These are capable of handling Unicode objects and strings on input
(we refer to them as strings in the descriptions) and return
Unicode objects or integers as appropriate. */
/* Concat two strings giving a new Unicode string. */
PyAPI_FUNC(PyObject*) PyUnicode_Concat(
PyObject *left, /* Left string */
PyObject *right /* Right string */
);
/* Concat two strings and put the result in *pleft
(sets *pleft to NULL on error) */
PyAPI_FUNC(void) PyUnicode_Append(
PyObject **pleft, /* Pointer to left string */
PyObject *right /* Right string */
);
/* Concat two strings, put the result in *pleft and drop the right object
(sets *pleft to NULL on error) */
PyAPI_FUNC(void) PyUnicode_AppendAndDel(
PyObject **pleft, /* Pointer to left string */
PyObject *right /* Right string */
);
/* Split a string giving a list of Unicode strings.
If sep is NULL, splitting will be done at all whitespace
substrings. Otherwise, splits occur at the given separator.
At most maxsplit splits will be done. If negative, no limit is set.
Separators are not included in the resulting list.
*/
PyAPI_FUNC(PyObject*) PyUnicode_Split(
PyObject *s, /* String to split */
PyObject *sep, /* String separator */
Py_ssize_t maxsplit /* Maxsplit count */
);
/* Dito, but split at line breaks.
CRLF is considered to be one line break. Line breaks are not
included in the resulting list. */
PyAPI_FUNC(PyObject*) PyUnicode_Splitlines(
PyObject *s, /* String to split */
int keepends /* If true, line end markers are included */
);
/* Partition a string using a given separator. */
PyAPI_FUNC(PyObject*) PyUnicode_Partition(
PyObject *s, /* String to partition */
PyObject *sep /* String separator */
);
/* Partition a string using a given separator, searching from the end of the
string. */
PyAPI_FUNC(PyObject*) PyUnicode_RPartition(
PyObject *s, /* String to partition */
PyObject *sep /* String separator */
);
/* Split a string giving a list of Unicode strings.
If sep is NULL, splitting will be done at all whitespace
substrings. Otherwise, splits occur at the given separator.
At most maxsplit splits will be done. But unlike PyUnicode_Split
PyUnicode_RSplit splits from the end of the string. If negative,
no limit is set.
Separators are not included in the resulting list.
*/
PyAPI_FUNC(PyObject*) PyUnicode_RSplit(
PyObject *s, /* String to split */
PyObject *sep, /* String separator */
Py_ssize_t maxsplit /* Maxsplit count */
);
/* Translate a string by applying a character mapping table to it and
return the resulting Unicode object.
The mapping table must map Unicode ordinal integers to Unicode
ordinal integers or None (causing deletion of the character).
Mapping tables may be dictionaries or sequences. Unmapped character
ordinals (ones which cause a LookupError) are left untouched and
are copied as-is.
*/
PyAPI_FUNC(PyObject *) PyUnicode_Translate(
PyObject *str, /* String */
PyObject *table, /* Translate table */
const char *errors /* error handling */
);
/* Join a sequence of strings using the given separator and return
the resulting Unicode string. */
PyAPI_FUNC(PyObject*) PyUnicode_Join(
PyObject *separator, /* Separator string */
PyObject *seq /* Sequence object */
);
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject *) _PyUnicode_JoinArray(
PyObject *separator,
PyObject **items,
Py_ssize_t seqlen
);
#endif /* Py_LIMITED_API */
/* Return 1 if substr matches str[start:end] at the given tail end, 0
otherwise. */
PyAPI_FUNC(Py_ssize_t) PyUnicode_Tailmatch(
PyObject *str, /* String */
PyObject *substr, /* Prefix or Suffix string */
Py_ssize_t start, /* Start index */
Py_ssize_t end, /* Stop index */
int direction /* Tail end: -1 prefix, +1 suffix */
);
/* Return the first position of substr in str[start:end] using the
given search direction or -1 if not found. -2 is returned in case
an error occurred and an exception is set. */
PyAPI_FUNC(Py_ssize_t) PyUnicode_Find(
PyObject *str, /* String */
PyObject *substr, /* Substring to find */
Py_ssize_t start, /* Start index */
Py_ssize_t end, /* Stop index */
int direction /* Find direction: +1 forward, -1 backward */
);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03030000
/* Like PyUnicode_Find, but search for single character only. */
PyAPI_FUNC(Py_ssize_t) PyUnicode_FindChar(
PyObject *str,
Py_UCS4 ch,
Py_ssize_t start,
Py_ssize_t end,
int direction
);
#endif
/* Count the number of occurrences of substr in str[start:end]. */
PyAPI_FUNC(Py_ssize_t) PyUnicode_Count(
PyObject *str, /* String */
PyObject *substr, /* Substring to count */
Py_ssize_t start, /* Start index */
Py_ssize_t end /* Stop index */
);
/* Replace at most maxcount occurrences of substr in str with replstr
and return the resulting Unicode object. */
PyAPI_FUNC(PyObject *) PyUnicode_Replace(
PyObject *str, /* String */
PyObject *substr, /* Substring to find */
PyObject *replstr, /* Substring to replace */
Py_ssize_t maxcount /* Max. number of replacements to apply;
-1 = all */
);
/* Compare two strings and return -1, 0, 1 for less than, equal,
greater than resp.
Raise an exception and return -1 on error. */
PyAPI_FUNC(int) PyUnicode_Compare(
PyObject *left, /* Left string */
PyObject *right /* Right string */
);
#ifndef Py_LIMITED_API
/* Test whether a unicode is equal to ASCII identifier. Return 1 if true,
0 otherwise. The right argument must be ASCII identifier.
Any error occurs inside will be cleared before return. */
PyAPI_FUNC(int) _PyUnicode_EqualToASCIIId(
PyObject *left, /* Left string */
_Py_Identifier *right /* Right identifier */
);
#endif
/* Compare a Unicode object with C string and return -1, 0, 1 for less than,
equal, and greater than, respectively. It is best to pass only
ASCII-encoded strings, but the function interprets the input string as
ISO-8859-1 if it contains non-ASCII characters.
This function does not raise exceptions. */
PyAPI_FUNC(int) PyUnicode_CompareWithASCIIString(
PyObject *left,
const char *right /* ASCII-encoded string */
);
#ifndef Py_LIMITED_API
/* Test whether a unicode is equal to ASCII string. Return 1 if true,
0 otherwise. The right argument must be ASCII-encoded string.
Any error occurs inside will be cleared before return. */
PyAPI_FUNC(int) _PyUnicode_EqualToASCIIString(
PyObject *left,
const char *right /* ASCII-encoded string */
);
#endif
/* Rich compare two strings and return one of the following:
- NULL in case an exception was raised
- Py_True or Py_False for successful comparisons
- Py_NotImplemented in case the type combination is unknown
Possible values for op:
Py_GT, Py_GE, Py_EQ, Py_NE, Py_LT, Py_LE
*/
PyAPI_FUNC(PyObject *) PyUnicode_RichCompare(
PyObject *left, /* Left string */
PyObject *right, /* Right string */
int op /* Operation: Py_EQ, Py_NE, Py_GT, etc. */
);
/* Apply an argument tuple or dictionary to a format string and return
the resulting Unicode string. */
PyAPI_FUNC(PyObject *) PyUnicode_Format(
PyObject *format, /* Format string */
PyObject *args /* Argument tuple or dictionary */
);
/* Checks whether element is contained in container and return 1/0
accordingly.
element has to coerce to a one element Unicode string. -1 is
returned in case of an error. */
PyAPI_FUNC(int) PyUnicode_Contains(
PyObject *container, /* Container string */
PyObject *element /* Element string */
);
/* Checks whether argument is a valid identifier. */
PyAPI_FUNC(int) PyUnicode_IsIdentifier(PyObject *s);
#ifndef Py_LIMITED_API
/* Externally visible for str.strip(unicode) */
PyAPI_FUNC(PyObject *) _PyUnicode_XStrip(
PyObject *self,
int striptype,
PyObject *sepobj
);
#endif
/* Using explicit passed-in values, insert the thousands grouping
into the string pointed to by buffer. For the argument descriptions,
see Objects/stringlib/localeutil.h */
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_ssize_t) _PyUnicode_InsertThousandsGrouping(
PyObject *unicode,
Py_ssize_t index,
Py_ssize_t n_buffer,
void *digits,
Py_ssize_t n_digits,
Py_ssize_t min_width,
const char *grouping,
PyObject *thousands_sep,
Py_UCS4 *maxchar);
#endif
/* === Characters Type APIs =============================================== */
/* Helper array used by Py_UNICODE_ISSPACE(). */
#ifndef Py_LIMITED_API
PyAPI_DATA(const unsigned char) _Py_ascii_whitespace[];
/* These should not be used directly. Use the Py_UNICODE_IS* and
Py_UNICODE_TO* macros instead.
These APIs are implemented in Objects/unicodectype.c.
*/
PyAPI_FUNC(int) _PyUnicode_IsLowercase(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsUppercase(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsTitlecase(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsXidStart(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsXidContinue(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsWhitespace(
const Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsLinebreak(
const Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(Py_UCS4) _PyUnicode_ToLowercase(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(Py_UCS4) _PyUnicode_ToUppercase(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(Py_UCS4) _PyUnicode_ToTitlecase(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_ToLowerFull(
Py_UCS4 ch, /* Unicode character */
Py_UCS4 *res
);
PyAPI_FUNC(int) _PyUnicode_ToTitleFull(
Py_UCS4 ch, /* Unicode character */
Py_UCS4 *res
);
PyAPI_FUNC(int) _PyUnicode_ToUpperFull(
Py_UCS4 ch, /* Unicode character */
Py_UCS4 *res
);
PyAPI_FUNC(int) _PyUnicode_ToFoldedFull(
Py_UCS4 ch, /* Unicode character */
Py_UCS4 *res
);
PyAPI_FUNC(int) _PyUnicode_IsCaseIgnorable(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsCased(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_ToDecimalDigit(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_ToDigit(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(double) _PyUnicode_ToNumeric(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsDecimalDigit(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsDigit(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsNumeric(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsPrintable(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(int) _PyUnicode_IsAlpha(
Py_UCS4 ch /* Unicode character */
);
PyAPI_FUNC(size_t) Py_UNICODE_strlen(
const Py_UNICODE *u
);
PyAPI_FUNC(Py_UNICODE*) Py_UNICODE_strcpy(
Py_UNICODE *s1,
const Py_UNICODE *s2);
PyAPI_FUNC(Py_UNICODE*) Py_UNICODE_strcat(
Py_UNICODE *s1, const Py_UNICODE *s2);
PyAPI_FUNC(Py_UNICODE*) Py_UNICODE_strncpy(
Py_UNICODE *s1,
const Py_UNICODE *s2,
size_t n);
PyAPI_FUNC(int) Py_UNICODE_strcmp(
const Py_UNICODE *s1,
const Py_UNICODE *s2
);
PyAPI_FUNC(int) Py_UNICODE_strncmp(
const Py_UNICODE *s1,
const Py_UNICODE *s2,
size_t n
);
PyAPI_FUNC(Py_UNICODE*) Py_UNICODE_strchr(
const Py_UNICODE *s,
Py_UNICODE c
);
PyAPI_FUNC(Py_UNICODE*) Py_UNICODE_strrchr(
const Py_UNICODE *s,
Py_UNICODE c
);
PyAPI_FUNC(PyObject*) _PyUnicode_FormatLong(PyObject *, int, int, int);
/* Create a copy of a unicode string ending with a nul character. Return NULL
and raise a MemoryError exception on memory allocation failure, otherwise
return a new allocated buffer (use PyMem_Free() to free the buffer). */
PyAPI_FUNC(Py_UNICODE*) PyUnicode_AsUnicodeCopy(
PyObject *unicode
);
#endif /* Py_LIMITED_API */
#if defined(Py_DEBUG) && !defined(Py_LIMITED_API)
PyAPI_FUNC(int) _PyUnicode_CheckConsistency(
PyObject *op,
int check_content);
#endif
#ifndef Py_LIMITED_API
/* Return an interned Unicode object for an Identifier; may fail if there is no memory.*/
PyAPI_FUNC(PyObject*) _PyUnicode_FromId(_Py_Identifier*);
/* Clear all static strings. */
PyAPI_FUNC(void) _PyUnicode_ClearStaticStrings(void);
/* Fast equality check when the inputs are known to be exact unicode types
and where the hash values are equal (i.e. a very probable match) */
PyAPI_FUNC(int) _PyUnicode_EQ(PyObject *, PyObject *);
#endif /* !Py_LIMITED_API */
#ifdef __cplusplus
}
#endif
#endif /* !Py_UNICODEOBJECT_H */
Raw
Frikr_Include_warnings.h
#ifndef Py_WARNINGS_H
#define Py_WARNINGS_H
#ifdef __cplusplus
extern "C" {
#endif
#ifndef Py_LIMITED_API
PyAPI_FUNC(PyObject*) _PyWarnings_Init(void);
#endif
PyAPI_FUNC(int) PyErr_WarnEx(
PyObject *category,
const char *message, /* UTF-8 encoded string */
Py_ssize_t stack_level);
PyAPI_FUNC(int) PyErr_WarnFormat(
PyObject *category,
Py_ssize_t stack_level,
const char *format, /* ASCII-encoded string */
...);
#if !defined(Py_LIMITED_API) || Py_LIMITED_API+0 >= 0x03060000
/* Emit a ResourceWarning warning */
PyAPI_FUNC(int) PyErr_ResourceWarning(
PyObject *source,
Py_ssize_t stack_level,
const char *format, /* ASCII-encoded string */
...);
#endif
#ifndef Py_LIMITED_API
PyAPI_FUNC(int) PyErr_WarnExplicitObject(
PyObject *category,
PyObject *message,
PyObject *filename,
int lineno,
PyObject *module,
PyObject *registry);
#endif
PyAPI_FUNC(int) PyErr_WarnExplicit(
PyObject *category,
const char *message, /* UTF-8 encoded string */
const char *filename, /* decoded from the filesystem encoding */
int lineno,
const char *module, /* UTF-8 encoded string */
PyObject *registry);
#ifndef Py_LIMITED_API
PyAPI_FUNC(int)
PyErr_WarnExplicitFormat(PyObject *category,
const char *filename, int lineno,
const char *module, PyObject *registry,
const char *format, ...);
#endif
/* DEPRECATED: Use PyErr_WarnEx() instead. */
#ifndef Py_LIMITED_API
#define PyErr_Warn(category, msg) PyErr_WarnEx(category, msg, 1)
#endif
#ifdef __cplusplus
}
#endif
#endif /* !Py_WARNINGS_H */
Raw
Frikr_Include_weakrefobject.h
/* Weak references objects for Python. */
#ifndef Py_WEAKREFOBJECT_H
#define Py_WEAKREFOBJECT_H
#ifdef __cplusplus
extern "C" {
#endif
typedef struct _PyWeakReference PyWeakReference;
/* PyWeakReference is the base struct for the Python ReferenceType, ProxyType,
* and CallableProxyType.
*/
#ifndef Py_LIMITED_API
struct _PyWeakReference {
PyObject_HEAD
/* The object to which this is a weak reference, or Py_None if none.
* Note that this is a stealth reference: wr_object's refcount is
* not incremented to reflect this pointer.
*/
PyObject *wr_object;
/* A callable to invoke when wr_object dies, or NULL if none. */
PyObject *wr_callback;
/* A cache for wr_object's hash code. As usual for hashes, this is -1
* if the hash code isn't known yet.
*/
Py_hash_t hash;
/* If wr_object is weakly referenced, wr_object has a doubly-linked NULL-
* terminated list of weak references to it. These are the list pointers.
* If wr_object goes away, wr_object is set to Py_None, and these pointers
* have no meaning then.
*/
PyWeakReference *wr_prev;
PyWeakReference *wr_next;
};
#endif
PyAPI_DATA(PyTypeObject) _PyWeakref_RefType;
PyAPI_DATA(PyTypeObject) _PyWeakref_ProxyType;
PyAPI_DATA(PyTypeObject) _PyWeakref_CallableProxyType;
#define PyWeakref_CheckRef(op) PyObject_TypeCheck(op, &_PyWeakref_RefType)
#define PyWeakref_CheckRefExact(op) \
(Py_TYPE(op) == &_PyWeakref_RefType)
#define PyWeakref_CheckProxy(op) \
((Py_TYPE(op) == &_PyWeakref_ProxyType) || \
(Py_TYPE(op) == &_PyWeakref_CallableProxyType))
#define PyWeakref_Check(op) \
(PyWeakref_CheckRef(op) || PyWeakref_CheckProxy(op))
PyAPI_FUNC(PyObject *) PyWeakref_NewRef(PyObject *ob,
PyObject *callback);
PyAPI_FUNC(PyObject *) PyWeakref_NewProxy(PyObject *ob,
PyObject *callback);
PyAPI_FUNC(PyObject *) PyWeakref_GetObject(PyObject *ref);
#ifndef Py_LIMITED_API
PyAPI_FUNC(Py_ssize_t) _PyWeakref_GetWeakrefCount(PyWeakReference *head);
PyAPI_FUNC(void) _PyWeakref_ClearRef(PyWeakReference *self);
#endif
/* Explanation for the Py_REFCNT() check: when a weakref's target is part
of a long chain of deallocations which triggers the trashcan mechanism,
clearing the weakrefs can be delayed long after the target's refcount
has dropped to zero. In the meantime, code accessing the weakref will
be able to "see" the target object even though it is supposed to be
unreachable. See issue #16602. */
#define PyWeakref_GET_OBJECT(ref) \
(Py_REFCNT(((PyWeakReference *)(ref))->wr_object) > 0 \
? ((PyWeakReference *)(ref))->wr_object \
: Py_None)
#ifdef __cplusplus
}
#endif
#endif /* !Py_WEAKREFOBJECT_H */
Raw
Frikr_Lib___future__.py
"""Record of phased-in incompatible language changes.
Each line is of the form:
FeatureName = "_Feature(" OptionalRelease "," MandatoryRelease ","
CompilerFlag ")"
where, normally, OptionalRelease < MandatoryRelease, and both are 5-tuples
of the same form as sys.version_info:
(PY_MAJOR_VERSION, # the 2 in 2.1.0a3; an int
PY_MINOR_VERSION, # the 1; an int
PY_MICRO_VERSION, # the 0; an int
PY_RELEASE_LEVEL, # "alpha", "beta", "candidate" or "final"; string
PY_RELEASE_SERIAL # the 3; an int
)
OptionalRelease records the first release in which
from __future__ import FeatureName
was accepted.
In the case of MandatoryReleases that have not yet occurred,
MandatoryRelease predicts the release in which the feature will become part
of the language.
Else MandatoryRelease records when the feature became part of the language;
in releases at or after that, modules no longer need
from __future__ import FeatureName
to use the feature in question, but may continue to use such imports.
MandatoryRelease may also be None, meaning that a planned feature got
dropped.
Instances of class _Feature have two corresponding methods,
.getOptionalRelease() and .getMandatoryRelease().
CompilerFlag is the (bitfield) flag that should be passed in the fourth
argument to the builtin function compile() to enable the feature in
dynamically compiled code. This flag is stored in the .compiler_flag
attribute on _Future instances. These values must match the appropriate
#defines of CO_xxx flags in Include/compile.h.
No feature line is ever to be deleted from this file.
"""
all_feature_names = [
"nested_scopes",
"generators",
"division",
"absolute_import",
"with_statement",
"print_function",
"unicode_literals",
"barry_as_FLUFL",
"generator_stop",
]
__all__ = ["all_feature_names"] + all_feature_names
# The CO_xxx symbols are defined here under the same names used by
# compile.h, so that an editor search will find them here. However,
# they're not exported in __all__, because they don't really belong to
# this module.
CO_NESTED = 0x0010 # nested_scopes
CO_GENERATOR_ALLOWED = 0 # generators (obsolete, was 0x1000)
CO_FUTURE_DIVISION = 0x2000 # division
CO_FUTURE_ABSOLUTE_IMPORT = 0x4000 # perform absolute imports by default
CO_FUTURE_WITH_STATEMENT = 0x8000 # with statement
CO_FUTURE_PRINT_FUNCTION = 0x10000 # print function
CO_FUTURE_UNICODE_LITERALS = 0x20000 # unicode string literals
CO_FUTURE_BARRY_AS_BDFL = 0x40000
CO_FUTURE_GENERATOR_STOP = 0x80000 # StopIteration becomes RuntimeError in generators
class _Feature:
def __init__(self, optionalRelease, mandatoryRelease, compiler_flag):
self.optional = optionalRelease
self.mandatory = mandatoryRelease
self.compiler_flag = compiler_flag
def getOptionalRelease(self):
"""Return first release in which this feature was recognized.
This is a 5-tuple, of the same form as sys.version_info.
"""
return self.optional
def getMandatoryRelease(self):
"""Return release in which this feature will become mandatory.
This is a 5-tuple, of the same form as sys.version_info, or, if
the feature was dropped, is None.
"""
return self.mandatory
def __repr__(self):
return "_Feature" + repr((self.optional,
self.mandatory,
self.compiler_flag))
nested_scopes = _Feature((2, 1, 0, "beta", 1),
(2, 2, 0, "alpha", 0),
CO_NESTED)
generators = _Feature((2, 2, 0, "alpha", 1),
(2, 3, 0, "final", 0),
CO_GENERATOR_ALLOWED)
division = _Feature((2, 2, 0, "alpha", 2),
(3, 0, 0, "alpha", 0),
CO_FUTURE_DIVISION)
absolute_import = _Feature((2, 5, 0, "alpha", 1),
(3, 0, 0, "alpha", 0),
CO_FUTURE_ABSOLUTE_IMPORT)
with_statement = _Feature((2, 5, 0, "alpha", 1),
(2, 6, 0, "alpha", 0),
CO_FUTURE_WITH_STATEMENT)
print_function = _Feature((2, 6, 0, "alpha", 2),
(3, 0, 0, "alpha", 0),
CO_FUTURE_PRINT_FUNCTION)
unicode_literals = _Feature((2, 6, 0, "alpha", 2),
(3, 0, 0, "alpha", 0),
CO_FUTURE_UNICODE_LITERALS)
barry_as_FLUFL = _Feature((3, 1, 0, "alpha", 2),
(3, 9, 0, "alpha", 0),
CO_FUTURE_BARRY_AS_BDFL)
generator_stop = _Feature((3, 5, 0, "beta", 1),
(3, 7, 0, "alpha", 0),
CO_FUTURE_GENERATOR_STOP)
Raw
Frikr_Lib__bootlocale.py
"""A minimal subset of the locale module used at interpreter startup
(imported by the _io module), in order to reduce startup time.
Don't import directly from third-party code; use the `locale` module instead!
"""
import sys
import _locale
if sys.platform.startswith("win"):
def getpreferredencoding(do_setlocale=True):
return _locale._getdefaultlocale()[1]
else:
try:
_locale.CODESET
except AttributeError:
def getpreferredencoding(do_setlocale=True):
# This path for legacy systems needs the more complex
# getdefaultlocale() function, import the full locale module.
import locale
return locale.getpreferredencoding(do_setlocale)
else:
def getpreferredencoding(do_setlocale=True):
assert not do_setlocale
result = _locale.nl_langinfo(_locale.CODESET)
if not result and sys.platform == 'darwin':
# nl_langinfo can return an empty string
# when the setting has an invalid value.
# Default to UTF-8 in that case because
# UTF-8 is the default charset on OSX and
# returning nothing will crash the
# interpreter.
result = 'UTF-8'
return result
Raw
Frikr_Lib__collections_abc.py
# Copyright 2007 Google, Inc. All Rights Reserved.
# Licensed to PSF under a Contributor Agreement.
"""Abstract Base Classes (ABCs) for collections, according to PEP 3119.
Unit tests are in test_collections.
"""
from abc import ABCMeta, abstractmethod
import sys
__all__ = ["Awaitable", "Coroutine",
"AsyncIterable", "AsyncIterator", "AsyncGenerator",
"Hashable", "Iterable", "Iterator", "Generator", "Reversible",
"Sized", "Container", "Callable", "Collection",
"Set", "MutableSet",
"Mapping", "MutableMapping",
"MappingView", "KeysView", "ItemsView", "ValuesView",
"Sequence", "MutableSequence",
"ByteString",
]
# This module has been renamed from collections.abc to _collections_abc to
# speed up interpreter startup. Some of the types such as MutableMapping are
# required early but collections module imports a lot of other modules.
# See issue #19218
__name__ = "collections.abc"
# Private list of types that we want to register with the various ABCs
# so that they will pass tests like:
# it = iter(somebytearray)
# assert isinstance(it, Iterable)
# Note: in other implementations, these types might not be distinct
# and they may have their own implementation specific types that
# are not included on this list.
bytes_iterator = type(iter(b''))
bytearray_iterator = type(iter(bytearray()))
#callable_iterator = ???
dict_keyiterator = type(iter({}.keys()))
dict_valueiterator = type(iter({}.values()))
dict_itemiterator = type(iter({}.items()))
list_iterator = type(iter([]))
list_reverseiterator = type(iter(reversed([])))
range_iterator = type(iter(range(0)))
longrange_iterator = type(iter(range(1 << 1000)))
set_iterator = type(iter(set()))
str_iterator = type(iter(""))
tuple_iterator = type(iter(()))
zip_iterator = type(iter(zip()))
## views ##
dict_keys = type({}.keys())
dict_values = type({}.values())
dict_items = type({}.items())
## misc ##
mappingproxy = type(type.__dict__)
generator = type((lambda: (yield))())
## coroutine ##
async def _coro(): pass
_coro = _coro()
coroutine = type(_coro)
_coro.close() # Prevent ResourceWarning
del _coro
## asynchronous generator ##
async def _ag(): yield
_ag = _ag()
async_generator = type(_ag)
del _ag
### ONE-TRICK PONIES ###
def _check_methods(C, *methods):
mro = C.__mro__
for method in methods:
for B in mro:
if method in B.__dict__:
if B.__dict__[method] is None:
return NotImplemented
break
else:
return NotImplemented
return True
class Hashable(metaclass=ABCMeta):
__slots__ = ()
@abstractmethod
def __hash__(self):
return 0
@classmethod
def __subclasshook__(cls, C):
if cls is Hashable:
return _check_methods(C, "__hash__")
return NotImplemented
class Awaitable(metaclass=ABCMeta):
__slots__ = ()
@abstractmethod
def __await__(self):
yield
@classmethod
def __subclasshook__(cls, C):
if cls is Awaitable:
return _check_methods(C, "__await__")
return NotImplemented
class Coroutine(Awaitable):
__slots__ = ()
@abstractmethod
def send(self, value):
"""Send a value into the coroutine.
Return next yielded value or raise StopIteration.
"""
raise StopIteration
@abstractmethod
def throw(self, typ, val=None, tb=None):
"""Raise an exception in the coroutine.
Return next yielded value or raise StopIteration.
"""
if val is None:
if tb is None:
raise typ
val = typ()
if tb is not None:
val = val.with_traceback(tb)
raise val
def close(self):
"""Raise GeneratorExit inside coroutine.
"""
try:
self.throw(GeneratorExit)
except (GeneratorExit, StopIteration):
pass
else:
raise RuntimeError("coroutine ignored GeneratorExit")
@classmethod
def __subclasshook__(cls, C):
if cls is Coroutine:
return _check_methods(C, '__await__', 'send', 'throw', 'close')
return NotImplemented
Coroutine.register(coroutine)
class AsyncIterable(metaclass=ABCMeta):
__slots__ = ()
@abstractmethod
def __aiter__(self):
return AsyncIterator()
@classmethod
def __subclasshook__(cls, C):
if cls is AsyncIterable:
return _check_methods(C, "__aiter__")
return NotImplemented
class AsyncIterator(AsyncIterable):
__slots__ = ()
@abstractmethod
async def __anext__(self):
"""Return the next item or raise StopAsyncIteration when exhausted."""
raise StopAsyncIteration
def __aiter__(self):
return self
@classmethod
def __subclasshook__(cls, C):
if cls is AsyncIterator:
return _check_methods(C, "__anext__", "__aiter__")
return NotImplemented
class AsyncGenerator(AsyncIterator):
__slots__ = ()
async def __anext__(self):
"""Return the next item from the asynchronous generator.
When exhausted, raise StopAsyncIteration.
"""
return await self.asend(None)
@abstractmethod
async def asend(self, value):
"""Send a value into the asynchronous generator.
Return next yielded value or raise StopAsyncIteration.
"""
raise StopAsyncIteration
@abstractmethod
async def athrow(self, typ, val=None, tb=None):
"""Raise an exception in the asynchronous generator.
Return next yielded value or raise StopAsyncIteration.
"""
if val is None:
if tb is None:
raise typ
val = typ()
if tb is not None:
val = val.with_traceback(tb)
raise val
async def aclose(self):
"""Raise GeneratorExit inside coroutine.
"""
try:
await self.athrow(GeneratorExit)
except (GeneratorExit, StopAsyncIteration):
pass
else:
raise RuntimeError("asynchronous generator ignored GeneratorExit")
@classmethod
def __subclasshook__(cls, C):
if cls is AsyncGenerator:
return _check_methods(C, '__aiter__', '__anext__',
'asend', 'athrow', 'aclose')
return NotImplemented
AsyncGenerator.register(async_generator)
class Iterable(metaclass=ABCMeta):
__slots__ = ()
@abstractmethod
def __iter__(self):
while False:
yield None
@classmethod
def __subclasshook__(cls, C):
if cls is Iterable:
return _check_methods(C, "__iter__")
return NotImplemented
class Iterator(Iterable):
__slots__ = ()
@abstractmethod
def __next__(self):
'Return the next item from the iterator. When exhausted, raise StopIteration'
raise StopIteration
def __iter__(self):
return self
@classmethod
def __subclasshook__(cls, C):
if cls is Iterator:
return _check_methods(C, '__iter__', '__next__')
return NotImplemented
Iterator.register(bytes_iterator)
Iterator.register(bytearray_iterator)
#Iterator.register(callable_iterator)
Iterator.register(dict_keyiterator)
Iterator.register(dict_valueiterator)
Iterator.register(dict_itemiterator)
Iterator.register(list_iterator)
Iterator.register(list_reverseiterator)
Iterator.register(range_iterator)
Iterator.register(longrange_iterator)
Iterator.register(set_iterator)
Iterator.register(str_iterator)
Iterator.register(tuple_iterator)
Iterator.register(zip_iterator)
class Reversible(Iterable):
__slots__ = ()
@abstractmethod
def __reversed__(self):
while False:
yield None
@classmethod
def __subclasshook__(cls, C):
if cls is Reversible:
return _check_methods(C, "__reversed__", "__iter__")
return NotImplemented
class Generator(Iterator):
__slots__ = ()
def __next__(self):
"""Return the next item from the generator.
When exhausted, raise StopIteration.
"""
return self.send(None)
@abstractmethod
def send(self, value):
"""Send a value into the generator.
Return next yielded value or raise StopIteration.
"""
raise StopIteration
@abstractmethod
def throw(self, typ, val=None, tb=None):
"""Raise an exception in the generator.
Return next yielded value or raise StopIteration.
"""
if val is None:
if tb is None:
raise typ
val = typ()
if tb is not None:
val = val.with_traceback(tb)
raise val
def close(self):
"""Raise GeneratorExit inside generator.
"""
try:
self.throw(GeneratorExit)
except (GeneratorExit, StopIteration):
pass
else:
raise RuntimeError("generator ignored GeneratorExit")
@classmethod
def __subclasshook__(cls, C):
if cls is Generator:
return _check_methods(C, '__iter__', '__next__',
'send', 'throw', 'close')
return NotImplemented
Generator.register(generator)
class Sized(metaclass=ABCMeta):
__slots__ = ()
@abstractmethod
def __len__(self):
return 0
@classmethod
def __subclasshook__(cls, C):
if cls is Sized:
return _check_methods(C, "__len__")
return NotImplemented
class Container(metaclass=ABCMeta):
__slots__ = ()
@abstractmethod
def __contains__(self, x):
return False
@classmethod
def __subclasshook__(cls, C):
if cls is Container:
return _check_methods(C, "__contains__")
return NotImplemented
class Collection(Sized, Iterable, Container):
__slots__ = ()
@classmethod
def __subclasshook__(cls, C):
if cls is Collection:
return _check_methods(C, "__len__", "__iter__", "__contains__")
return NotImplemented
class Callable(metaclass=ABCMeta):
__slots__ = ()
@abstractmethod
def __call__(self, *args, **kwds):
return False
@classmethod
def __subclasshook__(cls, C):
if cls is Callable:
return _check_methods(C, "__call__")
return NotImplemented
### SETS ###
class Set(Collection):
"""A set is a finite, iterable container.
This class provides concrete generic implementations of all
methods except for __contains__, __iter__ and __len__.
To override the comparisons (presumably for speed, as the
semantics are fixed), redefine __le__ and __ge__,
then the other operations will automatically follow suit.
"""
__slots__ = ()
def __le__(self, other):
if not isinstance(other, Set):
return NotImplemented
if len(self) > len(other):
return False
for elem in self:
if elem not in other:
return False
return True
def __lt__(self, other):
if not isinstance(other, Set):
return NotImplemented
return len(self) < len(other) and self.__le__(other)
def __gt__(self, other):
if not isinstance(other, Set):
return NotImplemented
return len(self) > len(other) and self.__ge__(other)
def __ge__(self, other):
if not isinstance(other, Set):
return NotImplemented
if len(self) < len(other):
return False
for elem in other:
if elem not in self:
return False
return True
def __eq__(self, other):
if not isinstance(other, Set):
return NotImplemented
return len(self) == len(other) and self.__le__(other)
@classmethod
def _from_iterable(cls, it):
'''Construct an instance of the class from any iterable input.
Must override this method if the class constructor signature
does not accept an iterable for an input.
'''
return cls(it)
def __and__(self, other):
if not isinstance(other, Iterable):
return NotImplemented
return self._from_iterable(value for value in other if value in self)
__rand__ = __and__
def isdisjoint(self, other):
'Return True if two sets have a null intersection.'
for value in other:
if value in self:
return False
return True
def __or__(self, other):
if not isinstance(other, Iterable):
return NotImplemented
chain = (e for s in (self, other) for e in s)
return self._from_iterable(chain)
__ror__ = __or__
def __sub__(self, other):
if not isinstance(other, Set):
if not isinstance(other, Iterable):
return NotImplemented
other = self._from_iterable(other)
return self._from_iterable(value for value in self
if value not in other)
def __rsub__(self, other):
if not isinstance(other, Set):
if not isinstance(other, Iterable):
return NotImplemented
other = self._from_iterable(other)
return self._from_iterable(value for value in other
if value not in self)
def __xor__(self, other):
if not isinstance(other, Set):
if not isinstance(other, Iterable):
return NotImplemented
other = self._from_iterable(other)
return (self - other) | (other - self)
__rxor__ = __xor__
def _hash(self):
"""Compute the hash value of a set.
Note that we don't define __hash__: not all sets are hashable.
But if you define a hashable set type, its __hash__ should
call this function.
This must be compatible __eq__.
All sets ought to compare equal if they contain the same
elements, regardless of how they are implemented, and
regardless of the order of the elements; so there's not much
freedom for __eq__ or __hash__. We match the algorithm used
by the built-in frozenset type.
"""
MAX = sys.maxsize
MASK = 2 * MAX + 1
n = len(self)
h = 1927868237 * (n + 1)
h &= MASK
for x in self:
hx = hash(x)
h ^= (hx ^ (hx << 16) ^ 89869747) * 3644798167
h &= MASK
h = h * 69069 + 907133923
h &= MASK
if h > MAX:
h -= MASK + 1
if h == -1:
h = 590923713
return h
Set.register(frozenset)
class MutableSet(Set):
"""A mutable set is a finite, iterable container.
This class provides concrete generic implementations of all
methods except for __contains__, __iter__, __len__,
add(), and discard().
To override the comparisons (presumably for speed, as the
semantics are fixed), all you have to do is redefine __le__ and
then the other operations will automatically follow suit.
"""
__slots__ = ()
@abstractmethod
def add(self, value):
"""Add an element."""
raise NotImplementedError
@abstractmethod
def discard(self, value):
"""Remove an element. Do not raise an exception if absent."""
raise NotImplementedError
def remove(self, value):
"""Remove an element. If not a member, raise a KeyError."""
if value not in self:
raise KeyError(value)
self.discard(value)
def pop(self):
"""Return the popped value. Raise KeyError if empty."""
it = iter(self)
try:
value = next(it)
except StopIteration:
raise KeyError
self.discard(value)
return value
def clear(self):
"""This is slow (creates N new iterators!) but effective."""
try:
while True:
self.pop()
except KeyError:
pass
def __ior__(self, it):
for value in it:
self.add(value)
return self
def __iand__(self, it):
for value in (self - it):
self.discard(value)
return self
def __ixor__(self, it):
if it is self:
self.clear()
else:
if not isinstance(it, Set):
it = self._from_iterable(it)
for value in it:
if value in self:
self.discard(value)
else:
self.add(value)
return self
def __isub__(self, it):
if it is self:
self.clear()
else:
for value in it:
self.discard(value)
return self
MutableSet.register(set)
### MAPPINGS ###
class Mapping(Collection):
__slots__ = ()
"""A Mapping is a generic container for associating key/value
pairs.
This class provides concrete generic implementations of all
methods except for __getitem__, __iter__, and __len__.
"""
@abstractmethod
def __getitem__(self, key):
raise KeyError
def get(self, key, default=None):
'D.get(k[,d]) -> D[k] if k in D, else d. d defaults to None.'
try:
return self[key]
except KeyError:
return default
def __contains__(self, key):
try:
self[key]
except KeyError:
return False
else:
return True
def keys(self):
"D.keys() -> a set-like object providing a view on D's keys"
return KeysView(self)
def items(self):
"D.items() -> a set-like object providing a view on D's items"
return ItemsView(self)
def values(self):
"D.values() -> an object providing a view on D's values"
return ValuesView(self)
def __eq__(self, other):
if not isinstance(other, Mapping):
return NotImplemented
return dict(self.items()) == dict(other.items())
__reversed__ = None
Mapping.register(mappingproxy)
class MappingView(Sized):
__slots__ = '_mapping',
def __init__(self, mapping):
self._mapping = mapping
def __len__(self):
return len(self._mapping)
def __repr__(self):
return '{0.__class__.__name__}({0._mapping!r})'.format(self)
class KeysView(MappingView, Set):
__slots__ = ()
@classmethod
def _from_iterable(self, it):
return set(it)
def __contains__(self, key):
return key in self._mapping
def __iter__(self):
yield from self._mapping
KeysView.register(dict_keys)
class ItemsView(MappingView, Set):
__slots__ = ()
@classmethod
def _from_iterable(self, it):
return set(it)
def __contains__(self, item):
key, value = item
try:
v = self._mapping[key]
except KeyError:
return False
else:
return v is value or v == value
def __iter__(self):
for key in self._mapping:
yield (key, self._mapping[key])
ItemsView.register(dict_items)
class ValuesView(MappingView):
__slots__ = ()
def __contains__(self, value):
for key in self._mapping:
v = self._mapping[key]
if v is value or v == value:
return True
return False
def __iter__(self):
for key in self._mapping:
yield self._mapping[key]
ValuesView.register(dict_values)
class MutableMapping(Mapping):
__slots__ = ()
"""A MutableMapping is a generic container for associating
key/value pairs.
This class provides concrete generic implementations of all
methods except for __getitem__, __setitem__, __delitem__,
__iter__, and __len__.
"""
@abstractmethod
def __setitem__(self, key, value):
raise KeyError
@abstractmethod
def __delitem__(self, key):
raise KeyError
__marker = object()
def pop(self, key, default=__marker):
'''D.pop(k[,d]) -> v, remove specified key and return the corresponding value.
If key is not found, d is returned if given, otherwise KeyError is raised.
'''
try:
value = self[key]
except KeyError:
if default is self.__marker:
raise
return default
else:
del self[key]
return value
def popitem(self):
'''D.popitem() -> (k, v), remove and return some (key, value) pair
as a 2-tuple; but raise KeyError if D is empty.
'''
try:
key = next(iter(self))
except StopIteration:
raise KeyError
value = self[key]
del self[key]
return key, value
def clear(self):
'D.clear() -> None. Remove all items from D.'
try:
while True:
self.popitem()
except KeyError:
pass
def update(*args, **kwds):
''' D.update([E, ]**F) -> None. Update D from mapping/iterable E and F.
If E present and has a .keys() method, does: for k in E: D[k] = E[k]
If E present and lacks .keys() method, does: for (k, v) in E: D[k] = v
In either case, this is followed by: for k, v in F.items(): D[k] = v
'''
if not args:
raise TypeError("descriptor 'update' of 'MutableMapping' object "
"needs an argument")
self, *args = args
if len(args) > 1:
raise TypeError('update expected at most 1 arguments, got %d' %
len(args))
if args:
other = args[0]
if isinstance(other, Mapping):
for key in other:
self[key] = other[key]
elif hasattr(other, "keys"):
for key in other.keys():
self[key] = other[key]
else:
for key, value in other:
self[key] = value
for key, value in kwds.items():
self[key] = value
def setdefault(self, key, default=None):
'D.setdefault(k[,d]) -> D.get(k,d), also set D[k]=d if k not in D'
try:
return self[key]
except KeyError:
self[key] = default
return default
MutableMapping.register(dict)
### SEQUENCES ###
class Sequence(Reversible, Collection):
"""All the operations on a read-only sequence.
Concrete subclasses must override __new__ or __init__,
__getitem__, and __len__.
"""
__slots__ = ()
@abstractmethod
def __getitem__(self, index):
raise IndexError
def __iter__(self):
i = 0
try:
while True:
v = self[i]
yield v
i += 1
except IndexError:
return
def __contains__(self, value):
for v in self:
if v is value or v == value:
return True
return False
def __reversed__(self):
for i in reversed(range(len(self))):
yield self[i]
def index(self, value, start=0, stop=None):
'''S.index(value, [start, [stop]]) -> integer -- return first index of value.
Raises ValueError if the value is not present.
'''
if start is not None and start < 0:
start = max(len(self) + start, 0)
if stop is not None and stop < 0:
stop += len(self)
i = start
while stop is None or i < stop:
try:
if self[i] == value:
return i
except IndexError:
break
i += 1
raise ValueError
def count(self, value):
'S.count(value) -> integer -- return number of occurrences of value'
return sum(1 for v in self if v == value)
Sequence.register(tuple)
Sequence.register(str)
Sequence.register(range)
Sequence.register(memoryview)
class ByteString(Sequence):
"""This unifies bytes and bytearray.
XXX Should add all their methods.
"""
__slots__ = ()
ByteString.register(bytes)
ByteString.register(bytearray)
class MutableSequence(Sequence):
__slots__ = ()
"""All the operations on a read-write sequence.
Concrete subclasses must provide __new__ or __init__,
__getitem__, __setitem__, __delitem__, __len__, and insert().
"""
@abstractmethod
def __setitem__(self, index, value):
raise IndexError
@abstractmethod
def __delitem__(self, index):
raise IndexError
@abstractmethod
def insert(self, index, value):
'S.insert(index, value) -- insert value before index'
raise IndexError
def append(self, value):
'S.append(value) -- append value to the end of the sequence'
self.insert(len(self), value)
def clear(self):
'S.clear() -> None -- remove all items from S'
try:
while True:
self.pop()
except IndexError:
pass
def reverse(self):
'S.reverse() -- reverse *IN PLACE*'
n = len(self)
for i in range(n//2):
self[i], self[n-i-1] = self[n-i-1], self[i]
def extend(self, values):
'S.extend(iterable) -- extend sequence by appending elements from the iterable'
for v in values:
self.append(v)
def pop(self, index=-1):
'''S.pop([index]) -> item -- remove and return item at index (default last).
Raise IndexError if list is empty or index is out of range.
'''
v = self[index]
del self[index]
return v
def remove(self, value):
'''S.remove(value) -- remove first occurrence of value.
Raise ValueError if the value is not present.
'''
del self[self.index(value)]
def __iadd__(self, values):
self.extend(values)
return self
MutableSequence.register(list)
MutableSequence.register(bytearray) # Multiply inheriting, see ByteString
Raw
Frikr_Lib__dummy_thread.py
"""Drop-in replacement for the thread module.
Meant to be used as a brain-dead substitute so that threaded code does
not need to be rewritten for when the thread module is not present.
Suggested usage is::
try:
import _thread
except ImportError:
import _dummy_thread as _thread
"""
# Exports only things specified by thread documentation;
# skipping obsolete synonyms allocate(), start_new(), exit_thread().
__all__ = ['error', 'start_new_thread', 'exit', 'get_ident', 'allocate_lock',
'interrupt_main', 'LockType']
# A dummy value
TIMEOUT_MAX = 2**31
# NOTE: this module can be imported early in the extension building process,
# and so top level imports of other modules should be avoided. Instead, all
# imports are done when needed on a function-by-function basis. Since threads
# are disabled, the import lock should not be an issue anyway (??).
error = RuntimeError
def start_new_thread(function, args, kwargs={}):
"""Dummy implementation of _thread.start_new_thread().
Compatibility is maintained by making sure that ``args`` is a
tuple and ``kwargs`` is a dictionary. If an exception is raised
and it is SystemExit (which can be done by _thread.exit()) it is
caught and nothing is done; all other exceptions are printed out
by using traceback.print_exc().
If the executed function calls interrupt_main the KeyboardInterrupt will be
raised when the function returns.
"""
if type(args) != type(tuple()):
raise TypeError("2nd arg must be a tuple")
if type(kwargs) != type(dict()):
raise TypeError("3rd arg must be a dict")
global _main
_main = False
try:
function(*args, **kwargs)
except SystemExit:
pass
except:
import traceback
traceback.print_exc()
_main = True
global _interrupt
if _interrupt:
_interrupt = False
raise KeyboardInterrupt
def exit():
"""Dummy implementation of _thread.exit()."""
raise SystemExit
def get_ident():
"""Dummy implementation of _thread.get_ident().
Since this module should only be used when _threadmodule is not
available, it is safe to assume that the current process is the
only thread. Thus a constant can be safely returned.
"""
return -1
def allocate_lock():
"""Dummy implementation of _thread.allocate_lock()."""
return LockType()
def stack_size(size=None):
"""Dummy implementation of _thread.stack_size()."""
if size is not None:
raise error("setting thread stack size not supported")
return 0
def _set_sentinel():
"""Dummy implementation of _thread._set_sentinel()."""
return LockType()
class LockType(object):
"""Class implementing dummy implementation of _thread.LockType.
Compatibility is maintained by maintaining self.locked_status
which is a boolean that stores the state of the lock. Pickling of
the lock, though, should not be done since if the _thread module is
then used with an unpickled ``lock()`` from here problems could
occur from this class not having atomic methods.
"""
def __init__(self):
self.locked_status = False
def acquire(self, waitflag=None, timeout=-1):
"""Dummy implementation of acquire().
For blocking calls, self.locked_status is automatically set to
True and returned appropriately based on value of
``waitflag``. If it is non-blocking, then the value is
actually checked and not set if it is already acquired. This
is all done so that threading.Condition's assert statements
aren't triggered and throw a little fit.
"""
if waitflag is None or waitflag:
self.locked_status = True
return True
else:
if not self.locked_status:
self.locked_status = True
return True
else:
if timeout > 0:
import time
time.sleep(timeout)
return False
__enter__ = acquire
def __exit__(self, typ, val, tb):
self.release()
def release(self):
"""Release the dummy lock."""
# XXX Perhaps shouldn't actually bother to test? Could lead
# to problems for complex, threaded code.
if not self.locked_status:
raise error
self.locked_status = False
return True
def locked(self):
return self.locked_status
def __repr__(self):
return "<%s %s.%s object at %s>" % (
"locked" if self.locked_status else "unlocked",
self.__class__.__module__,
self.__class__.__qualname__,
hex(id(self))
)
# Used to signal that interrupt_main was called in a "thread"
_interrupt = False
# True when not executing in a "thread"
_main = True
def interrupt_main():
"""Set _interrupt flag to True to have start_new_thread raise
KeyboardInterrupt upon exiting."""
if _main:
raise KeyboardInterrupt
else:
global _interrupt
_interrupt = True
Raw
Frikr_Lib__weakrefset.py
# Access WeakSet through the weakref module.
# This code is separated-out because it is needed
# by abc.py to load everything else at startup.
from _weakref import ref
__all__ = ['WeakSet']
class _IterationGuard:
# This context manager registers itself in the current iterators of the
# weak container, such as to delay all removals until the context manager
# exits.
# This technique should be relatively thread-safe (since sets are).
def __init__(self, weakcontainer):
# Don't create cycles
self.weakcontainer = ref(weakcontainer)
def __enter__(self):
w = self.weakcontainer()
if w is not None:
w._iterating.add(self)
return self
def __exit__(self, e, t, b):
w = self.weakcontainer()
if w is not None:
s = w._iterating
s.remove(self)
if not s:
w._commit_removals()
class WeakSet:
def __init__(self, data=None):
self.data = set()
def _remove(item, selfref=ref(self)):
self = selfref()
if self is not None:
if self._iterating:
self._pending_removals.append(item)
else:
self.data.discard(item)
self._remove = _remove
# A list of keys to be removed
self._pending_removals = []
self._iterating = set()
if data is not None:
self.update(data)
def _commit_removals(self):
l = self._pending_removals
discard = self.data.discard
while l:
discard(l.pop())
def __iter__(self):
with _IterationGuard(self):
for itemref in self.data:
item = itemref()
if item is not None:
# Caveat: the iterator will keep a strong reference to
# `item` until it is resumed or closed.
yield item
def __len__(self):
return len(self.data) - len(self._pending_removals)
def __contains__(self, item):
try:
wr = ref(item)
except TypeError:
return False
return wr in self.data
def __reduce__(self):
return (self.__class__, (list(self),),
getattr(self, '__dict__', None))
def add(self, item):
if self._pending_removals:
self._commit_removals()
self.data.add(ref(item, self._remove))
def clear(self):
if self._pending_removals:
self._commit_removals()
self.data.clear()
def copy(self):
return self.__class__(self)
def pop(self):
if self._pending_removals:
self._commit_removals()
while True:
try:
itemref = self.data.pop()
except KeyError:
raise KeyError('pop from empty WeakSet')
item = itemref()
if item is not None:
return item
def remove(self, item):
if self._pending_removals:
self._commit_removals()
self.data.remove(ref(item))
def discard(self, item):
if self._pending_removals:
self._commit_removals()
self.data.discard(ref(item))
def update(self, other):
if self._pending_removals:
self._commit_removals()
for element in other:
self.add(element)
def __ior__(self, other):
self.update(other)
return self
def difference(self, other):
newset = self.copy()
newset.difference_update(other)
return newset
__sub__ = difference
def difference_update(self, other):
self.__isub__(other)
def __isub__(self, other):
if self._pending_removals:
self._commit_removals()
if self is other:
self.data.clear()
else:
self.data.difference_update(ref(item) for item in other)
return self
def intersection(self, other):
return self.__class__(item for item in other if item in self)
__and__ = intersection
def intersection_update(self, other):
self.__iand__(other)
def __iand__(self, other):
if self._pending_removals:
self._commit_removals()
self.data.intersection_update(ref(item) for item in other)
return self
def issubset(self, other):
return self.data.issubset(ref(item) for item in other)
__le__ = issubset
def __lt__(self, other):
return self.data < set(ref(item) for item in other)
def issuperset(self, other):
return self.data.issuperset(ref(item) for item in other)
__ge__ = issuperset
def __gt__(self, other):
return self.data > set(ref(item) for item in other)
def __eq__(self, other):
if not isinstance(other, self.__class__):
return NotImplemented
return self.data == set(ref(item) for item in other)
def symmetric_difference(self, other):
newset = self.copy()
newset.symmetric_difference_update(other)
return newset
__xor__ = symmetric_difference
def symmetric_difference_update(self, other):
self.__ixor__(other)
def __ixor__(self, other):
if self._pending_removals:
self._commit_removals()
if self is other:
self.data.clear()
else:
self.data.symmetric_difference_update(ref(item, self._remove) for item in other)
return self
def union(self, other):
return self.__class__(e for s in (self, other) for e in s)
__or__ = union
def isdisjoint(self, other):
return len(self.intersection(other)) == 0
Raw
Frikr_Lib_abc.py
# Copyright 2007 Google, Inc. All Rights Reserved.
# Licensed to PSF under a Contributor Agreement.
"""Abstract Base Classes (ABCs) according to PEP 3119."""
from _weakrefset import WeakSet
def abstractmethod(funcobj):
"""A decorator indicating abstract methods.
Requires that the metaclass is ABCMeta or derived from it. A
class that has a metaclass derived from ABCMeta cannot be
instantiated unless all of its abstract methods are overridden.
The abstract methods can be called using any of the normal
'super' call mechanisms.
Usage:
class C(metaclass=ABCMeta):
@abstractmethod
def my_abstract_method(self, ...):
...
"""
funcobj.__isabstractmethod__ = True
return funcobj
class abstractclassmethod(classmethod):
"""
A decorator indicating abstract classmethods.
Similar to abstractmethod.
Usage:
class C(metaclass=ABCMeta):
@abstractclassmethod
def my_abstract_classmethod(cls, ...):
...
'abstractclassmethod' is deprecated. Use 'classmethod' with
'abstractmethod' instead.
"""
__isabstractmethod__ = True
def __init__(self, callable):
callable.__isabstractmethod__ = True
super().__init__(callable)
class abstractstaticmethod(staticmethod):
"""
A decorator indicating abstract staticmethods.
Similar to abstractmethod.
Usage:
class C(metaclass=ABCMeta):
@abstractstaticmethod
def my_abstract_staticmethod(...):
...
'abstractstaticmethod' is deprecated. Use 'staticmethod' with
'abstractmethod' instead.
"""
__isabstractmethod__ = True
def __init__(self, callable):
callable.__isabstractmethod__ = True
super().__init__(callable)
class abstractproperty(property):
"""
A decorator indicating abstract properties.
Requires that the metaclass is ABCMeta or derived from it. A
class that has a metaclass derived from ABCMeta cannot be
instantiated unless all of its abstract properties are overridden.
The abstract properties can be called using any of the normal
'super' call mechanisms.
Usage:
class C(metaclass=ABCMeta):
@abstractproperty
def my_abstract_property(self):
...
This defines a read-only property; you can also define a read-write
abstract property using the 'long' form of property declaration:
class C(metaclass=ABCMeta):
def getx(self): ...
def setx(self, value): ...
x = abstractproperty(getx, setx)
'abstractproperty' is deprecated. Use 'property' with 'abstractmethod'
instead.
"""
__isabstractmethod__ = True
class ABCMeta(type):
"""Metaclass for defining Abstract Base Classes (ABCs).
Use this metaclass to create an ABC. An ABC can be subclassed
directly, and then acts as a mix-in class. You can also register
unrelated concrete classes (even built-in classes) and unrelated
ABCs as 'virtual subclasses' -- these and their descendants will
be considered subclasses of the registering ABC by the built-in
issubclass() function, but the registering ABC won't show up in
their MRO (Method Resolution Order) nor will method
implementations defined by the registering ABC be callable (not
even via super()).
"""
# A global counter that is incremented each time a class is
# registered as a virtual subclass of anything. It forces the
# negative cache to be cleared before its next use.
# Note: this counter is private. Use `abc.get_cache_token()` for
# external code.
_abc_invalidation_counter = 0
def __new__(mcls, name, bases, namespace):
cls = super().__new__(mcls, name, bases, namespace)
# Compute set of abstract method names
abstracts = {name
for name, value in namespace.items()
if getattr(value, "__isabstractmethod__", False)}
for base in bases:
for name in getattr(base, "__abstractmethods__", set()):
value = getattr(cls, name, None)
if getattr(value, "__isabstractmethod__", False):
abstracts.add(name)
cls.__abstractmethods__ = frozenset(abstracts)
# Set up inheritance registry
cls._abc_registry = WeakSet()
cls._abc_cache = WeakSet()
cls._abc_negative_cache = WeakSet()
cls._abc_negative_cache_version = ABCMeta._abc_invalidation_counter
return cls
def register(cls, subclass):
"""Register a virtual subclass of an ABC.
Returns the subclass, to allow usage as a class decorator.
"""
if not isinstance(subclass, type):
raise TypeError("Can only register classes")
if issubclass(subclass, cls):
return subclass # Already a subclass
# Subtle: test for cycles *after* testing for "already a subclass";
# this means we allow X.register(X) and interpret it as a no-op.
if issubclass(cls, subclass):
# This would create a cycle, which is bad for the algorithm below
raise RuntimeError("Refusing to create an inheritance cycle")
cls._abc_registry.add(subclass)
ABCMeta._abc_invalidation_counter += 1 # Invalidate negative cache
return subclass
def _dump_registry(cls, file=None):
"""Debug helper to print the ABC registry."""
print("Class: %s.%s" % (cls.__module__, cls.__qualname__), file=file)
print("Inv.counter: %s" % ABCMeta._abc_invalidation_counter, file=file)
for name in sorted(cls.__dict__.keys()):
if name.startswith("_abc_"):
value = getattr(cls, name)
print("%s: %r" % (name, value), file=file)
def __instancecheck__(cls, instance):
"""Override for isinstance(instance, cls)."""
# Inline the cache checking
subclass = instance.__class__
if subclass in cls._abc_cache:
return True
subtype = type(instance)
if subtype is subclass:
if (cls._abc_negative_cache_version ==
ABCMeta._abc_invalidation_counter and
subclass in cls._abc_negative_cache):
return False
# Fall back to the subclass check.
return cls.__subclasscheck__(subclass)
return any(cls.__subclasscheck__(c) for c in {subclass, subtype})
def __subclasscheck__(cls, subclass):
"""Override for issubclass(subclass, cls)."""
# Check cache
if subclass in cls._abc_cache:
return True
# Check negative cache; may have to invalidate
if cls._abc_negative_cache_version < ABCMeta._abc_invalidation_counter:
# Invalidate the negative cache
cls._abc_negative_cache = WeakSet()
cls._abc_negative_cache_version = ABCMeta._abc_invalidation_counter
elif subclass in cls._abc_negative_cache:
return False
# Check the subclass hook
ok = cls.__subclasshook__(subclass)
if ok is not NotImplemented:
assert isinstance(ok, bool)
if ok:
cls._abc_cache.add(subclass)
else:
cls._abc_negative_cache.add(subclass)
return ok
# Check if it's a direct subclass
if cls in getattr(subclass, '__mro__', ()):
cls._abc_cache.add(subclass)
return True
# Check if it's a subclass of a registered class (recursive)
for rcls in cls._abc_registry:
if issubclass(subclass, rcls):
cls._abc_cache.add(subclass)
return True
# Check if it's a subclass of a subclass (recursive)
for scls in cls.__subclasses__():
if issubclass(subclass, scls):
cls._abc_cache.add(subclass)
return True
# No dice; update negative cache
cls._abc_negative_cache.add(subclass)
return False
class ABC(metaclass=ABCMeta):
"""Helper class that provides a standard way to create an ABC using
inheritance.
"""
pass
def get_cache_token():
"""Returns the current ABC cache token.
The token is an opaque object (supporting equality testing) identifying the
current version of the ABC cache for virtual subclasses. The token changes
with every call to ``register()`` on any ABC.
"""
return ABCMeta._abc_invalidation_counter
Raw
Frikr_Lib_base64.py
#! /usr/bin/env python3
"""Base16, Base32, Base64 (RFC 3548), Base85 and Ascii85 data encodings"""
# Modified 04-Oct-1995 by Jack Jansen to use binascii module
# Modified 30-Dec-2003 by Barry Warsaw to add full RFC 3548 support
# Modified 22-May-2007 by Guido van Rossum to use bytes everywhere
import re
import struct
import binascii
__all__ = [
# Legacy interface exports traditional RFC 2045 Base64 encodings
'encode', 'decode', 'encodebytes', 'decodebytes',
# Generalized interface for other encodings
'b64encode', 'b64decode', 'b32encode', 'b32decode',
'b16encode', 'b16decode',
# Base85 and Ascii85 encodings
'b85encode', 'b85decode', 'a85encode', 'a85decode',
# Standard Base64 encoding
'standard_b64encode', 'standard_b64decode',
# Some common Base64 alternatives. As referenced by RFC 3458, see thread
# starting at:
#
# http://zgp.org/pipermail/p2p-hackers/2001-September/000316.html
'urlsafe_b64encode', 'urlsafe_b64decode',
]
bytes_types = (bytes, bytearray) # Types acceptable as binary data
def _bytes_from_decode_data(s):
if isinstance(s, str):
try:
return s.encode('ascii')
except UnicodeEncodeError:
raise ValueError('string argument should contain only ASCII characters')
if isinstance(s, bytes_types):
return s
try:
return memoryview(s).tobytes()
except TypeError:
raise TypeError("argument should be a bytes-like object or ASCII "
"string, not %r" % s.__class__.__name__) from None
# Base64 encoding/decoding uses binascii
def b64encode(s, altchars=None):
"""Encode the bytes-like object s using Base64 and return a bytes object.
Optional altchars should be a byte string of length 2 which specifies an
alternative alphabet for the '+' and '/' characters. This allows an
application to e.g. generate url or filesystem safe Base64 strings.
"""
encoded = binascii.b2a_base64(s, newline=False)
if altchars is not None:
assert len(altchars) == 2, repr(altchars)
return encoded.translate(bytes.maketrans(b'+/', altchars))
return encoded
def b64decode(s, altchars=None, validate=False):
"""Decode the Base64 encoded bytes-like object or ASCII string s.
Optional altchars must be a bytes-like object or ASCII string of length 2
which specifies the alternative alphabet used instead of the '+' and '/'
characters.
The result is returned as a bytes object. A binascii.Error is raised if
s is incorrectly padded.
If validate is False (the default), characters that are neither in the
normal base-64 alphabet nor the alternative alphabet are discarded prior
to the padding check. If validate is True, these non-alphabet characters
in the input result in a binascii.Error.
"""
s = _bytes_from_decode_data(s)
if altchars is not None:
altchars = _bytes_from_decode_data(altchars)
assert len(altchars) == 2, repr(altchars)
s = s.translate(bytes.maketrans(altchars, b'+/'))
if validate and not re.match(b'^[A-Za-z0-9+/]*={0,2}$', s):
raise binascii.Error('Non-base64 digit found')
return binascii.a2b_base64(s)
def standard_b64encode(s):
"""Encode bytes-like object s using the standard Base64 alphabet.
The result is returned as a bytes object.
"""
return b64encode(s)
def standard_b64decode(s):
"""Decode bytes encoded with the standard Base64 alphabet.
Argument s is a bytes-like object or ASCII string to decode. The result
is returned as a bytes object. A binascii.Error is raised if the input
is incorrectly padded. Characters that are not in the standard alphabet
are discarded prior to the padding check.
"""
return b64decode(s)
_urlsafe_encode_translation = bytes.maketrans(b'+/', b'-_')
_urlsafe_decode_translation = bytes.maketrans(b'-_', b'+/')
def urlsafe_b64encode(s):
"""Encode bytes using the URL- and filesystem-safe Base64 alphabet.
Argument s is a bytes-like object to encode. The result is returned as a
bytes object. The alphabet uses '-' instead of '+' and '_' instead of
'/'.
"""
return b64encode(s).translate(_urlsafe_encode_translation)
def urlsafe_b64decode(s):
"""Decode bytes using the URL- and filesystem-safe Base64 alphabet.
Argument s is a bytes-like object or ASCII string to decode. The result
is returned as a bytes object. A binascii.Error is raised if the input
is incorrectly padded. Characters that are not in the URL-safe base-64
alphabet, and are not a plus '+' or slash '/', are discarded prior to the
padding check.
The alphabet uses '-' instead of '+' and '_' instead of '/'.
"""
s = _bytes_from_decode_data(s)
s = s.translate(_urlsafe_decode_translation)
return b64decode(s)
# Base32 encoding/decoding must be done in Python
_b32alphabet = b'ABCDEFGHIJKLMNOPQRSTUVWXYZ234567'
_b32tab2 = None
_b32rev = None
def b32encode(s):
"""Encode the bytes-like object s using Base32 and return a bytes object.
"""
global _b32tab2
# Delay the initialization of the table to not waste memory
# if the function is never called
if _b32tab2 is None:
b32tab = [bytes((i,)) for i in _b32alphabet]
_b32tab2 = [a + b for a in b32tab for b in b32tab]
b32tab = None
if not isinstance(s, bytes_types):
s = memoryview(s).tobytes()
leftover = len(s) % 5
# Pad the last quantum with zero bits if necessary
if leftover:
s = s + b'\0' * (5 - leftover) # Don't use += !
encoded = bytearray()
from_bytes = int.from_bytes
b32tab2 = _b32tab2
for i in range(0, len(s), 5):
c = from_bytes(s[i: i + 5], 'big')
encoded += (b32tab2[c >> 30] + # bits 1 - 10
b32tab2[(c >> 20) & 0x3ff] + # bits 11 - 20
b32tab2[(c >> 10) & 0x3ff] + # bits 21 - 30
b32tab2[c & 0x3ff] # bits 31 - 40
)
# Adjust for any leftover partial quanta
if leftover == 1:
encoded[-6:] = b'======'
elif leftover == 2:
encoded[-4:] = b'===='
elif leftover == 3:
encoded[-3:] = b'==='
elif leftover == 4:
encoded[-1:] = b'='
return bytes(encoded)
def b32decode(s, casefold=False, map01=None):
"""Decode the Base32 encoded bytes-like object or ASCII string s.
Optional casefold is a flag specifying whether a lowercase alphabet is
acceptable as input. For security purposes, the default is False.
RFC 3548 allows for optional mapping of the digit 0 (zero) to the
letter O (oh), and for optional mapping of the digit 1 (one) to
either the letter I (eye) or letter L (el). The optional argument
map01 when not None, specifies which letter the digit 1 should be
mapped to (when map01 is not None, the digit 0 is always mapped to
the letter O). For security purposes the default is None, so that
0 and 1 are not allowed in the input.
The result is returned as a bytes object. A binascii.Error is raised if
the input is incorrectly padded or if there are non-alphabet
characters present in the input.
"""
global _b32rev
# Delay the initialization of the table to not waste memory
# if the function is never called
if _b32rev is None:
_b32rev = {v: k for k, v in enumerate(_b32alphabet)}
s = _bytes_from_decode_data(s)
if len(s) % 8:
raise binascii.Error('Incorrect padding')
# Handle section 2.4 zero and one mapping. The flag map01 will be either
# False, or the character to map the digit 1 (one) to. It should be
# either L (el) or I (eye).
if map01 is not None:
map01 = _bytes_from_decode_data(map01)
assert len(map01) == 1, repr(map01)
s = s.translate(bytes.maketrans(b'01', b'O' + map01))
if casefold:
s = s.upper()
# Strip off pad characters from the right. We need to count the pad
# characters because this will tell us how many null bytes to remove from
# the end of the decoded string.
l = len(s)
s = s.rstrip(b'=')
padchars = l - len(s)
# Now decode the full quanta
decoded = bytearray()
b32rev = _b32rev
for i in range(0, len(s), 8):
quanta = s[i: i + 8]
acc = 0
try:
for c in quanta:
acc = (acc << 5) + b32rev[c]
except KeyError:
raise binascii.Error('Non-base32 digit found') from None
decoded += acc.to_bytes(5, 'big')
# Process the last, partial quanta
if padchars:
acc <<= 5 * padchars
last = acc.to_bytes(5, 'big')
if padchars == 1:
decoded[-5:] = last[:-1]
elif padchars == 3:
decoded[-5:] = last[:-2]
elif padchars == 4:
decoded[-5:] = last[:-3]
elif padchars == 6:
decoded[-5:] = last[:-4]
else:
raise binascii.Error('Incorrect padding')
return bytes(decoded)
# RFC 3548, Base 16 Alphabet specifies uppercase, but hexlify() returns
# lowercase. The RFC also recommends against accepting input case
# insensitively.
def b16encode(s):
"""Encode the bytes-like object s using Base16 and return a bytes object.
"""
return binascii.hexlify(s).upper()
def b16decode(s, casefold=False):
"""Decode the Base16 encoded bytes-like object or ASCII string s.
Optional casefold is a flag specifying whether a lowercase alphabet is
acceptable as input. For security purposes, the default is False.
The result is returned as a bytes object. A binascii.Error is raised if
s is incorrectly padded or if there are non-alphabet characters present
in the input.
"""
s = _bytes_from_decode_data(s)
if casefold:
s = s.upper()
if re.search(b'[^0-9A-F]', s):
raise binascii.Error('Non-base16 digit found')
return binascii.unhexlify(s)
#
# Ascii85 encoding/decoding
#
_a85chars = None
_a85chars2 = None
_A85START = b"<~"
_A85END = b"~>"
def _85encode(b, chars, chars2, pad=False, foldnuls=False, foldspaces=False):
# Helper function for a85encode and b85encode
if not isinstance(b, bytes_types):
b = memoryview(b).tobytes()
padding = (-len(b)) % 4
if padding:
b = b + b'\0' * padding
words = struct.Struct('!%dI' % (len(b) // 4)).unpack(b)
chunks = [b'z' if foldnuls and not word else
b'y' if foldspaces and word == 0x20202020 else
(chars2[word // 614125] +
chars2[word // 85 % 7225] +
chars[word % 85])
for word in words]
if padding and not pad:
if chunks[-1] == b'z':
chunks[-1] = chars[0] * 5
chunks[-1] = chunks[-1][:-padding]
return b''.join(chunks)
def a85encode(b, *, foldspaces=False, wrapcol=0, pad=False, adobe=False):
"""Encode bytes-like object b using Ascii85 and return a bytes object.
foldspaces is an optional flag that uses the special short sequence 'y'
instead of 4 consecutive spaces (ASCII 0x20) as supported by 'btoa'. This
feature is not supported by the "standard" Adobe encoding.
wrapcol controls whether the output should have newline (b'\\n') characters
added to it. If this is non-zero, each output line will be at most this
many characters long.
pad controls whether the input is padded to a multiple of 4 before
encoding. Note that the btoa implementation always pads.
adobe controls whether the encoded byte sequence is framed with <~ and ~>,
which is used by the Adobe implementation.
"""
global _a85chars, _a85chars2
# Delay the initialization of tables to not waste memory
# if the function is never called
if _a85chars is None:
_a85chars = [bytes((i,)) for i in range(33, 118)]
_a85chars2 = [(a + b) for a in _a85chars for b in _a85chars]
result = _85encode(b, _a85chars, _a85chars2, pad, True, foldspaces)
if adobe:
result = _A85START + result
if wrapcol:
wrapcol = max(2 if adobe else 1, wrapcol)
chunks = [result[i: i + wrapcol]
for i in range(0, len(result), wrapcol)]
if adobe:
if len(chunks[-1]) + 2 > wrapcol:
chunks.append(b'')
result = b'\n'.join(chunks)
if adobe:
result += _A85END
return result
def a85decode(b, *, foldspaces=False, adobe=False, ignorechars=b' \t\n\r\v'):
"""Decode the Ascii85 encoded bytes-like object or ASCII string b.
foldspaces is a flag that specifies whether the 'y' short sequence should be
accepted as shorthand for 4 consecutive spaces (ASCII 0x20). This feature is
not supported by the "standard" Adobe encoding.
adobe controls whether the input sequence is in Adobe Ascii85 format (i.e.
is framed with <~ and ~>).
ignorechars should be a byte string containing characters to ignore from the
input. This should only contain whitespace characters, and by default
contains all whitespace characters in ASCII.
The result is returned as a bytes object.
"""
b = _bytes_from_decode_data(b)
if adobe:
if not b.endswith(_A85END):
raise ValueError(
"Ascii85 encoded byte sequences must end "
"with {!r}".format(_A85END)
)
if b.startswith(_A85START):
b = b[2:-2] # Strip off start/end markers
else:
b = b[:-2]
#
# We have to go through this stepwise, so as to ignore spaces and handle
# special short sequences
#
packI = struct.Struct('!I').pack
decoded = []
decoded_append = decoded.append
curr = []
curr_append = curr.append
curr_clear = curr.clear
for x in b + b'u' * 4:
if b'!'[0] <= x <= b'u'[0]:
curr_append(x)
if len(curr) == 5:
acc = 0
for x in curr:
acc = 85 * acc + (x - 33)
try:
decoded_append(packI(acc))
except struct.error:
raise ValueError('Ascii85 overflow') from None
curr_clear()
elif x == b'z'[0]:
if curr:
raise ValueError('z inside Ascii85 5-tuple')
decoded_append(b'\0\0\0\0')
elif foldspaces and x == b'y'[0]:
if curr:
raise ValueError('y inside Ascii85 5-tuple')
decoded_append(b'\x20\x20\x20\x20')
elif x in ignorechars:
# Skip whitespace
continue
else:
raise ValueError('Non-Ascii85 digit found: %c' % x)
result = b''.join(decoded)
padding = 4 - len(curr)
if padding:
# Throw away the extra padding
result = result[:-padding]
return result
# The following code is originally taken (with permission) from Mercurial
_b85alphabet = (b"0123456789ABCDEFGHIJKLMNOPQRSTUVWXYZ"
b"abcdefghijklmnopqrstuvwxyz!#$%&()*+-;<=>?@^_`{|}~")
_b85chars = None
_b85chars2 = None
_b85dec = None
def b85encode(b, pad=False):
"""Encode bytes-like object b in base85 format and return a bytes object.
If pad is true, the input is padded with b'\\0' so its length is a multiple of
4 bytes before encoding.
"""
global _b85chars, _b85chars2
# Delay the initialization of tables to not waste memory
# if the function is never called
if _b85chars is None:
_b85chars = [bytes((i,)) for i in _b85alphabet]
_b85chars2 = [(a + b) for a in _b85chars for b in _b85chars]
return _85encode(b, _b85chars, _b85chars2, pad)
def b85decode(b):
"""Decode the base85-encoded bytes-like object or ASCII string b
The result is returned as a bytes object.
"""
global _b85dec
# Delay the initialization of tables to not waste memory
# if the function is never called
if _b85dec is None:
_b85dec = [None] * 256
for i, c in enumerate(_b85alphabet):
_b85dec[c] = i
b = _bytes_from_decode_data(b)
padding = (-len(b)) % 5
b = b + b'~' * padding
out = []
packI = struct.Struct('!I').pack
for i in range(0, len(b), 5):
chunk = b[i:i + 5]
acc = 0
try:
for c in chunk:
acc = acc * 85 + _b85dec[c]
except TypeError:
for j, c in enumerate(chunk):
if _b85dec[c] is None:
raise ValueError('bad base85 character at position %d'
% (i + j)) from None
raise
try:
out.append(packI(acc))
except struct.error:
raise ValueError('base85 overflow in hunk starting at byte %d'
% i) from None
result = b''.join(out)
if padding:
result = result[:-padding]
return result
# Legacy interface. This code could be cleaned up since I don't believe
# binascii has any line length limitations. It just doesn't seem worth it
# though. The files should be opened in binary mode.
MAXLINESIZE = 76 # Excluding the CRLF
MAXBINSIZE = (MAXLINESIZE//4)*3
def encode(input, output):
"""Encode a file; input and output are binary files."""
while True:
s = input.read(MAXBINSIZE)
if not s:
break
while len(s) < MAXBINSIZE:
ns = input.read(MAXBINSIZE-len(s))
if not ns:
break
s += ns
line = binascii.b2a_base64(s)
output.write(line)
def decode(input, output):
"""Decode a file; input and output are binary files."""
while True:
line = input.readline()
if not line:
break
s = binascii.a2b_base64(line)
output.write(s)
def _input_type_check(s):
try:
m = memoryview(s)
except TypeError as err:
msg = "expected bytes-like object, not %s" % s.__class__.__name__
raise TypeError(msg) from err
if m.format not in ('c', 'b', 'B'):
msg = ("expected single byte elements, not %r from %s" %
(m.format, s.__class__.__name__))
raise TypeError(msg)
if m.ndim != 1:
msg = ("expected 1-D data, not %d-D data from %s" %
(m.ndim, s.__class__.__name__))
raise TypeError(msg)
def encodebytes(s):
"""Encode a bytestring into a bytes object containing multiple lines
of base-64 data."""
_input_type_check(s)
pieces = []
for i in range(0, len(s), MAXBINSIZE):
chunk = s[i : i + MAXBINSIZE]
pieces.append(binascii.b2a_base64(chunk))
return b"".join(pieces)
def encodestring(s):
"""Legacy alias of encodebytes()."""
import warnings
warnings.warn("encodestring() is a deprecated alias since 3.1, "
"use encodebytes()",
DeprecationWarning, 2)
return encodebytes(s)
def decodebytes(s):
"""Decode a bytestring of base-64 data into a bytes object."""
_input_type_check(s)
return binascii.a2b_base64(s)
def decodestring(s):
"""Legacy alias of decodebytes()."""
import warnings
warnings.warn("decodestring() is a deprecated alias since Python 3.1, "
"use decodebytes()",
DeprecationWarning, 2)
return decodebytes(s)
# Usable as a script...
def main():
"""Small main program"""
import sys, getopt
try:
opts, args = getopt.getopt(sys.argv[1:], 'deut')
except getopt.error as msg:
sys.stdout = sys.stderr
print(msg)
print("""usage: %s [-d|-e|-u|-t] [file|-]
-d, -u: decode
-e: encode (default)
-t: encode and decode string 'Aladdin:open sesame'"""%sys.argv[0])
sys.exit(2)
func = encode
for o, a in opts:
if o == '-e': func = encode
if o == '-d': func = decode
if o == '-u': func = decode
if o == '-t': test(); return
if args and args[0] != '-':
with open(args[0], 'rb') as f:
func(f, sys.stdout.buffer)
else:
func(sys.stdin.buffer, sys.stdout.buffer)
def test():
s0 = b"Aladdin:open sesame"
print(repr(s0))
s1 = encodebytes(s0)
print(repr(s1))
s2 = decodebytes(s1)
print(repr(s2))
assert s0 == s2
if __name__ == '__main__':
main()
Raw
Frikr_Lib_bisect.py
"""Bisection algorithms."""
def insort_right(a, x, lo=0, hi=None):
"""Insert item x in list a, and keep it sorted assuming a is sorted.
If x is already in a, insert it to the right of the rightmost x.
Optional args lo (default 0) and hi (default len(a)) bound the
slice of a to be searched.
"""
if lo < 0:
raise ValueError('lo must be non-negative')
if hi is None:
hi = len(a)
while lo < hi:
mid = (lo+hi)//2
if x < a[mid]: hi = mid
else: lo = mid+1
a.insert(lo, x)
insort = insort_right # backward compatibility
def bisect_right(a, x, lo=0, hi=None):
"""Return the index where to insert item x in list a, assuming a is sorted.
The return value i is such that all e in a[:i] have e <= x, and all e in
a[i:] have e > x. So if x already appears in the list, a.insert(x) will
insert just after the rightmost x already there.
Optional args lo (default 0) and hi (default len(a)) bound the
slice of a to be searched.
"""
if lo < 0:
raise ValueError('lo must be non-negative')
if hi is None:
hi = len(a)
while lo < hi:
mid = (lo+hi)//2
if x < a[mid]: hi = mid
else: lo = mid+1
return lo
bisect = bisect_right # backward compatibility
def insort_left(a, x, lo=0, hi=None):
"""Insert item x in list a, and keep it sorted assuming a is sorted.
If x is already in a, insert it to the left of the leftmost x.
Optional args lo (default 0) and hi (default len(a)) bound the
slice of a to be searched.
"""
if lo < 0:
raise ValueError('lo must be non-negative')
if hi is None:
hi = len(a)
while lo < hi:
mid = (lo+hi)//2
if a[mid] < x: lo = mid+1
else: hi = mid
a.insert(lo, x)
def bisect_left(a, x, lo=0, hi=None):
"""Return the index where to insert item x in list a, assuming a is sorted.
The return value i is such that all e in a[:i] have e < x, and all e in
a[i:] have e >= x. So if x already appears in the list, a.insert(x) will
insert just before the leftmost x already there.
Optional args lo (default 0) and hi (default len(a)) bound the
slice of a to be searched.
"""
if lo < 0:
raise ValueError('lo must be non-negative')
if hi is None:
hi = len(a)
while lo < hi:
mid = (lo+hi)//2
if a[mid] < x: lo = mid+1
else: hi = mid
return lo
# Overwrite above definitions with a fast C implementation
try:
from _bisect import *
except ImportError:
pass
Raw
Frikr_Lib_codecs.py
""" codecs -- Python Codec Registry, API and helpers.
Written by Marc-Andre Lemburg (mal@lemburg.com).
(c) Copyright CNRI, All Rights Reserved. NO WARRANTY.
"""#"
import builtins, sys
### Registry and builtin stateless codec functions
try:
from _codecs import *
except ImportError as why:
raise SystemError('Failed to load the builtin codecs: %s' % why)
__all__ = ["register", "lookup", "open", "EncodedFile", "BOM", "BOM_BE",
"BOM_LE", "BOM32_BE", "BOM32_LE", "BOM64_BE", "BOM64_LE",
"BOM_UTF8", "BOM_UTF16", "BOM_UTF16_LE", "BOM_UTF16_BE",
"BOM_UTF32", "BOM_UTF32_LE", "BOM_UTF32_BE",
"CodecInfo", "Codec", "IncrementalEncoder", "IncrementalDecoder",
"StreamReader", "StreamWriter",
"StreamReaderWriter", "StreamRecoder",
"getencoder", "getdecoder", "getincrementalencoder",
"getincrementaldecoder", "getreader", "getwriter",
"encode", "decode", "iterencode", "iterdecode",
"strict_errors", "ignore_errors", "replace_errors",
"xmlcharrefreplace_errors",
"backslashreplace_errors", "namereplace_errors",
"register_error", "lookup_error"]
### Constants
#
# Byte Order Mark (BOM = ZERO WIDTH NO-BREAK SPACE = U+FEFF)
# and its possible byte string values
# for UTF8/UTF16/UTF32 output and little/big endian machines
#
# UTF-8
BOM_UTF8 = b'\xef\xbb\xbf'
# UTF-16, little endian
BOM_LE = BOM_UTF16_LE = b'\xff\xfe'
# UTF-16, big endian
BOM_BE = BOM_UTF16_BE = b'\xfe\xff'
# UTF-32, little endian
BOM_UTF32_LE = b'\xff\xfe\x00\x00'
# UTF-32, big endian
BOM_UTF32_BE = b'\x00\x00\xfe\xff'
if sys.byteorder == 'little':
# UTF-16, native endianness
BOM = BOM_UTF16 = BOM_UTF16_LE
# UTF-32, native endianness
BOM_UTF32 = BOM_UTF32_LE
else:
# UTF-16, native endianness
BOM = BOM_UTF16 = BOM_UTF16_BE
# UTF-32, native endianness
BOM_UTF32 = BOM_UTF32_BE
# Old broken names (don't use in new code)
BOM32_LE = BOM_UTF16_LE
BOM32_BE = BOM_UTF16_BE
BOM64_LE = BOM_UTF32_LE
BOM64_BE = BOM_UTF32_BE
### Codec base classes (defining the API)
class CodecInfo(tuple):
"""Codec details when looking up the codec registry"""
# Private API to allow Python 3.4 to blacklist the known non-Unicode
# codecs in the standard library. A more general mechanism to
# reliably distinguish test encodings from other codecs will hopefully
# be defined for Python 3.5
#
# See http://bugs.python.org/issue19619
_is_text_encoding = True # Assume codecs are text encodings by default
def __new__(cls, encode, decode, streamreader=None, streamwriter=None,
incrementalencoder=None, incrementaldecoder=None, name=None,
*, _is_text_encoding=None):
self = tuple.__new__(cls, (encode, decode, streamreader, streamwriter))
self.name = name
self.encode = encode
self.decode = decode
self.incrementalencoder = incrementalencoder
self.incrementaldecoder = incrementaldecoder
self.streamwriter = streamwriter
self.streamreader = streamreader
if _is_text_encoding is not None:
self._is_text_encoding = _is_text_encoding
return self
def __repr__(self):
return "<%s.%s object for encoding %s at %#x>" % \
(self.__class__.__module__, self.__class__.__qualname__,
self.name, id(self))
class Codec:
""" Defines the interface for stateless encoders/decoders.
The .encode()/.decode() methods may use different error
handling schemes by providing the errors argument. These
string values are predefined:
'strict' - raise a ValueError error (or a subclass)
'ignore' - ignore the character and continue with the next
'replace' - replace with a suitable replacement character;
Python will use the official U+FFFD REPLACEMENT
CHARACTER for the builtin Unicode codecs on
decoding and '?' on encoding.
'surrogateescape' - replace with private code points U+DCnn.
'xmlcharrefreplace' - Replace with the appropriate XML
character reference (only for encoding).
'backslashreplace' - Replace with backslashed escape sequences.
'namereplace' - Replace with \\N{...} escape sequences
(only for encoding).
The set of allowed values can be extended via register_error.
"""
def encode(self, input, errors='strict'):
""" Encodes the object input and returns a tuple (output
object, length consumed).
errors defines the error handling to apply. It defaults to
'strict' handling.
The method may not store state in the Codec instance. Use
StreamWriter for codecs which have to keep state in order to
make encoding efficient.
The encoder must be able to handle zero length input and
return an empty object of the output object type in this
situation.
"""
raise NotImplementedError
def decode(self, input, errors='strict'):
""" Decodes the object input and returns a tuple (output
object, length consumed).
input must be an object which provides the bf_getreadbuf
buffer slot. Python strings, buffer objects and memory
mapped files are examples of objects providing this slot.
errors defines the error handling to apply. It defaults to
'strict' handling.
The method may not store state in the Codec instance. Use
StreamReader for codecs which have to keep state in order to
make decoding efficient.
The decoder must be able to handle zero length input and
return an empty object of the output object type in this
situation.
"""
raise NotImplementedError
class IncrementalEncoder(object):
"""
An IncrementalEncoder encodes an input in multiple steps. The input can
be passed piece by piece to the encode() method. The IncrementalEncoder
remembers the state of the encoding process between calls to encode().
"""
def __init__(self, errors='strict'):
"""
Creates an IncrementalEncoder instance.
The IncrementalEncoder may use different error handling schemes by
providing the errors keyword argument. See the module docstring
for a list of possible values.
"""
self.errors = errors
self.buffer = ""
def encode(self, input, final=False):
"""
Encodes input and returns the resulting object.
"""
raise NotImplementedError
def reset(self):
"""
Resets the encoder to the initial state.
"""
def getstate(self):
"""
Return the current state of the encoder.
"""
return 0
def setstate(self, state):
"""
Set the current state of the encoder. state must have been
returned by getstate().
"""
class BufferedIncrementalEncoder(IncrementalEncoder):
"""
This subclass of IncrementalEncoder can be used as the baseclass for an
incremental encoder if the encoder must keep some of the output in a
buffer between calls to encode().
"""
def __init__(self, errors='strict'):
IncrementalEncoder.__init__(self, errors)
# unencoded input that is kept between calls to encode()
self.buffer = ""
def _buffer_encode(self, input, errors, final):
# Overwrite this method in subclasses: It must encode input
# and return an (output, length consumed) tuple
raise NotImplementedError
def encode(self, input, final=False):
# encode input (taking the buffer into account)
data = self.buffer + input
(result, consumed) = self._buffer_encode(data, self.errors, final)
# keep unencoded input until the next call
self.buffer = data[consumed:]
return result
def reset(self):
IncrementalEncoder.reset(self)
self.buffer = ""
def getstate(self):
return self.buffer or 0
def setstate(self, state):
self.buffer = state or ""
class IncrementalDecoder(object):
"""
An IncrementalDecoder decodes an input in multiple steps. The input can
be passed piece by piece to the decode() method. The IncrementalDecoder
remembers the state of the decoding process between calls to decode().
"""
def __init__(self, errors='strict'):
"""
Create an IncrementalDecoder instance.
The IncrementalDecoder may use different error handling schemes by
providing the errors keyword argument. See the module docstring
for a list of possible values.
"""
self.errors = errors
def decode(self, input, final=False):
"""
Decode input and returns the resulting object.
"""
raise NotImplementedError
def reset(self):
"""
Reset the decoder to the initial state.
"""
def getstate(self):
"""
Return the current state of the decoder.
This must be a (buffered_input, additional_state_info) tuple.
buffered_input must be a bytes object containing bytes that
were passed to decode() that have not yet been converted.
additional_state_info must be a non-negative integer
representing the state of the decoder WITHOUT yet having
processed the contents of buffered_input. In the initial state
and after reset(), getstate() must return (b"", 0).
"""
return (b"", 0)
def setstate(self, state):
"""
Set the current state of the decoder.
state must have been returned by getstate(). The effect of
setstate((b"", 0)) must be equivalent to reset().
"""
class BufferedIncrementalDecoder(IncrementalDecoder):
"""
This subclass of IncrementalDecoder can be used as the baseclass for an
incremental decoder if the decoder must be able to handle incomplete
byte sequences.
"""
def __init__(self, errors='strict'):
IncrementalDecoder.__init__(self, errors)
# undecoded input that is kept between calls to decode()
self.buffer = b""
def _buffer_decode(self, input, errors, final):
# Overwrite this method in subclasses: It must decode input
# and return an (output, length consumed) tuple
raise NotImplementedError
def decode(self, input, final=False):
# decode input (taking the buffer into account)
data = self.buffer + input
(result, consumed) = self._buffer_decode(data, self.errors, final)
# keep undecoded input until the next call
self.buffer = data[consumed:]
return result
def reset(self):
IncrementalDecoder.reset(self)
self.buffer = b""
def getstate(self):
# additional state info is always 0
return (self.buffer, 0)
def setstate(self, state):
# ignore additional state info
self.buffer = state[0]
#
# The StreamWriter and StreamReader class provide generic working
# interfaces which can be used to implement new encoding submodules
# very easily. See encodings/utf_8.py for an example on how this is
# done.
#
class StreamWriter(Codec):
def __init__(self, stream, errors='strict'):
""" Creates a StreamWriter instance.
stream must be a file-like object open for writing.
The StreamWriter may use different error handling
schemes by providing the errors keyword argument. These
parameters are predefined:
'strict' - raise a ValueError (or a subclass)
'ignore' - ignore the character and continue with the next
'replace'- replace with a suitable replacement character
'xmlcharrefreplace' - Replace with the appropriate XML
character reference.
'backslashreplace' - Replace with backslashed escape
sequences.
'namereplace' - Replace with \\N{...} escape sequences.
The set of allowed parameter values can be extended via
register_error.
"""
self.stream = stream
self.errors = errors
def write(self, object):
""" Writes the object's contents encoded to self.stream.
"""
data, consumed = self.encode(object, self.errors)
self.stream.write(data)
def writelines(self, list):
""" Writes the concatenated list of strings to the stream
using .write().
"""
self.write(''.join(list))
def reset(self):
""" Flushes and resets the codec buffers used for keeping state.
Calling this method should ensure that the data on the
output is put into a clean state, that allows appending
of new fresh data without having to rescan the whole
stream to recover state.
"""
pass
def seek(self, offset, whence=0):
self.stream.seek(offset, whence)
if whence == 0 and offset == 0:
self.reset()
def __getattr__(self, name,
getattr=getattr):
""" Inherit all other methods from the underlying stream.
"""
return getattr(self.stream, name)
def __enter__(self):
return self
def __exit__(self, type, value, tb):
self.stream.close()
###
class StreamReader(Codec):
charbuffertype = str
def __init__(self, stream, errors='strict'):
""" Creates a StreamReader instance.
stream must be a file-like object open for reading.
The StreamReader may use different error handling
schemes by providing the errors keyword argument. These
parameters are predefined:
'strict' - raise a ValueError (or a subclass)
'ignore' - ignore the character and continue with the next
'replace'- replace with a suitable replacement character
'backslashreplace' - Replace with backslashed escape sequences;
The set of allowed parameter values can be extended via
register_error.
"""
self.stream = stream
self.errors = errors
self.bytebuffer = b""
self._empty_charbuffer = self.charbuffertype()
self.charbuffer = self._empty_charbuffer
self.linebuffer = None
def decode(self, input, errors='strict'):
raise NotImplementedError
def read(self, size=-1, chars=-1, firstline=False):
""" Decodes data from the stream self.stream and returns the
resulting object.
chars indicates the number of decoded code points or bytes to
return. read() will never return more data than requested,
but it might return less, if there is not enough available.
size indicates the approximate maximum number of decoded
bytes or code points to read for decoding. The decoder
can modify this setting as appropriate. The default value
-1 indicates to read and decode as much as possible. size
is intended to prevent having to decode huge files in one
step.
If firstline is true, and a UnicodeDecodeError happens
after the first line terminator in the input only the first line
will be returned, the rest of the input will be kept until the
next call to read().
The method should use a greedy read strategy, meaning that
it should read as much data as is allowed within the
definition of the encoding and the given size, e.g. if
optional encoding endings or state markers are available
on the stream, these should be read too.
"""
# If we have lines cached, first merge them back into characters
if self.linebuffer:
self.charbuffer = self._empty_charbuffer.join(self.linebuffer)
self.linebuffer = None
# read until we get the required number of characters (if available)
while True:
# can the request be satisfied from the character buffer?
if chars >= 0:
if len(self.charbuffer) >= chars:
break
elif size >= 0:
if len(self.charbuffer) >= size:
break
# we need more data
if size < 0:
newdata = self.stream.read()
else:
newdata = self.stream.read(size)
# decode bytes (those remaining from the last call included)
data = self.bytebuffer + newdata
if not data:
break
try:
newchars, decodedbytes = self.decode(data, self.errors)
except UnicodeDecodeError as exc:
if firstline:
newchars, decodedbytes = \
self.decode(data[:exc.start], self.errors)
lines = newchars.splitlines(keepends=True)
if len(lines)<=1:
raise
else:
raise
# keep undecoded bytes until the next call
self.bytebuffer = data[decodedbytes:]
# put new characters in the character buffer
self.charbuffer += newchars
# there was no data available
if not newdata:
break
if chars < 0:
# Return everything we've got
result = self.charbuffer
self.charbuffer = self._empty_charbuffer
else:
# Return the first chars characters
result = self.charbuffer[:chars]
self.charbuffer = self.charbuffer[chars:]
return result
def readline(self, size=None, keepends=True):
""" Read one line from the input stream and return the
decoded data.
size, if given, is passed as size argument to the
read() method.
"""
# If we have lines cached from an earlier read, return
# them unconditionally
if self.linebuffer:
line = self.linebuffer[0]
del self.linebuffer[0]
if len(self.linebuffer) == 1:
# revert to charbuffer mode; we might need more data
# next time
self.charbuffer = self.linebuffer[0]
self.linebuffer = None
if not keepends:
line = line.splitlines(keepends=False)[0]
return line
readsize = size or 72
line = self._empty_charbuffer
# If size is given, we call read() only once
while True:
data = self.read(readsize, firstline=True)
if data:
# If we're at a "\r" read one extra character (which might
# be a "\n") to get a proper line ending. If the stream is
# temporarily exhausted we return the wrong line ending.
if (isinstance(data, str) and data.endswith("\r")) or \
(isinstance(data, bytes) and data.endswith(b"\r")):
data += self.read(size=1, chars=1)
line += data
lines = line.splitlines(keepends=True)
if lines:
if len(lines) > 1:
# More than one line result; the first line is a full line
# to return
line = lines[0]
del lines[0]
if len(lines) > 1:
# cache the remaining lines
lines[-1] += self.charbuffer
self.linebuffer = lines
self.charbuffer = None
else:
# only one remaining line, put it back into charbuffer
self.charbuffer = lines[0] + self.charbuffer
if not keepends:
line = line.splitlines(keepends=False)[0]
break
line0withend = lines[0]
line0withoutend = lines[0].splitlines(keepends=False)[0]
if line0withend != line0withoutend: # We really have a line end
# Put the rest back together and keep it until the next call
self.charbuffer = self._empty_charbuffer.join(lines[1:]) + \
self.charbuffer
if keepends:
line = line0withend
else:
line = line0withoutend
break
# we didn't get anything or this was our only try
if not data or size is not None:
if line and not keepends:
line = line.splitlines(keepends=False)[0]
break
if readsize < 8000:
readsize *= 2
return line
def readlines(self, sizehint=None, keepends=True):
""" Read all lines available on the input stream
and return them as a list.
Line breaks are implemented using the codec's decoder
method and are included in the list entries.
sizehint, if given, is ignored since there is no efficient
way to finding the true end-of-line.
"""
data = self.read()
return data.splitlines(keepends)
def reset(self):
""" Resets the codec buffers used for keeping state.
Note that no stream repositioning should take place.
This method is primarily intended to be able to recover
from decoding errors.
"""
self.bytebuffer = b""
self.charbuffer = self._empty_charbuffer
self.linebuffer = None
def seek(self, offset, whence=0):
""" Set the input stream's current position.
Resets the codec buffers used for keeping state.
"""
self.stream.seek(offset, whence)
self.reset()
def __next__(self):
""" Return the next decoded line from the input stream."""
line = self.readline()
if line:
return line
raise StopIteration
def __iter__(self):
return self
def __getattr__(self, name,
getattr=getattr):
""" Inherit all other methods from the underlying stream.
"""
return getattr(self.stream, name)
def __enter__(self):
return self
def __exit__(self, type, value, tb):
self.stream.close()
###
class StreamReaderWriter:
""" StreamReaderWriter instances allow wrapping streams which
work in both read and write modes.
The design is such that one can use the factory functions
returned by the codec.lookup() function to construct the
instance.
"""
# Optional attributes set by the file wrappers below
encoding = 'unknown'
def __init__(self, stream, Reader, Writer, errors='strict'):
""" Creates a StreamReaderWriter instance.
stream must be a Stream-like object.
Reader, Writer must be factory functions or classes
providing the StreamReader, StreamWriter interface resp.
Error handling is done in the same way as defined for the
StreamWriter/Readers.
"""
self.stream = stream
self.reader = Reader(stream, errors)
self.writer = Writer(stream, errors)
self.errors = errors
def read(self, size=-1):
return self.reader.read(size)
def readline(self, size=None):
return self.reader.readline(size)
def readlines(self, sizehint=None):
return self.reader.readlines(sizehint)
def __next__(self):
""" Return the next decoded line from the input stream."""
return next(self.reader)
def __iter__(self):
return self
def write(self, data):
return self.writer.write(data)
def writelines(self, list):
return self.writer.writelines(list)
def reset(self):
self.reader.reset()
self.writer.reset()
def seek(self, offset, whence=0):
self.stream.seek(offset, whence)
self.reader.reset()
if whence == 0 and offset == 0:
self.writer.reset()
def __getattr__(self, name,
getattr=getattr):
""" Inherit all other methods from the underlying stream.
"""
return getattr(self.stream, name)
# these are needed to make "with codecs.open(...)" work properly
def __enter__(self):
return self
def __exit__(self, type, value, tb):
self.stream.close()
###
class StreamRecoder:
""" StreamRecoder instances translate data from one encoding to another.
They use the complete set of APIs returned by the
codecs.lookup() function to implement their task.
Data written to the StreamRecoder is first decoded into an
intermediate format (depending on the "decode" codec) and then
written to the underlying stream using an instance of the provided
Writer class.
In the other direction, data is read from the underlying stream using
a Reader instance and then encoded and returned to the caller.
"""
# Optional attributes set by the file wrappers below
data_encoding = 'unknown'
file_encoding = 'unknown'
def __init__(self, stream, encode, decode, Reader, Writer,
errors='strict'):
""" Creates a StreamRecoder instance which implements a two-way
conversion: encode and decode work on the frontend (the
data visible to .read() and .write()) while Reader and Writer
work on the backend (the data in stream).
You can use these objects to do transparent
transcodings from e.g. latin-1 to utf-8 and back.
stream must be a file-like object.
encode and decode must adhere to the Codec interface; Reader and
Writer must be factory functions or classes providing the
StreamReader and StreamWriter interfaces resp.
Error handling is done in the same way as defined for the
StreamWriter/Readers.
"""
self.stream = stream
self.encode = encode
self.decode = decode
self.reader = Reader(stream, errors)
self.writer = Writer(stream, errors)
self.errors = errors
def read(self, size=-1):
data = self.reader.read(size)
data, bytesencoded = self.encode(data, self.errors)
return data
def readline(self, size=None):
if size is None:
data = self.reader.readline()
else:
data = self.reader.readline(size)
data, bytesencoded = self.encode(data, self.errors)
return data
def readlines(self, sizehint=None):
data = self.reader.read()
data, bytesencoded = self.encode(data, self.errors)
return data.splitlines(keepends=True)
def __next__(self):
""" Return the next decoded line from the input stream."""
data = next(self.reader)
data, bytesencoded = self.encode(data, self.errors)
return data
def __iter__(self):
return self
def write(self, data):
data, bytesdecoded = self.decode(data, self.errors)
return self.writer.write(data)
def writelines(self, list):
data = ''.join(list)
data, bytesdecoded = self.decode(data, self.errors)
return self.writer.write(data)
def reset(self):
self.reader.reset()
self.writer.reset()
def __getattr__(self, name,
getattr=getattr):
""" Inherit all other methods from the underlying stream.
"""
return getattr(self.stream, name)
def __enter__(self):
return self
def __exit__(self, type, value, tb):
self.stream.close()
### Shortcuts
def open(filename, mode='r', encoding=None, errors='strict', buffering=1):
""" Open an encoded file using the given mode and return
a wrapped version providing transparent encoding/decoding.
Note: The wrapped version will only accept the object format
defined by the codecs, i.e. Unicode objects for most builtin
codecs. Output is also codec dependent and will usually be
Unicode as well.
Underlying encoded files are always opened in binary mode.
The default file mode is 'r', meaning to open the file in read mode.
encoding specifies the encoding which is to be used for the
file.
errors may be given to define the error handling. It defaults
to 'strict' which causes ValueErrors to be raised in case an
encoding error occurs.
buffering has the same meaning as for the builtin open() API.
It defaults to line buffered.
The returned wrapped file object provides an extra attribute
.encoding which allows querying the used encoding. This
attribute is only available if an encoding was specified as
parameter.
"""
if encoding is not None and \
'b' not in mode:
# Force opening of the file in binary mode
mode = mode + 'b'
file = builtins.open(filename, mode, buffering)
if encoding is None:
return file
info = lookup(encoding)
srw = StreamReaderWriter(file, info.streamreader, info.streamwriter, errors)
# Add attributes to simplify introspection
srw.encoding = encoding
return srw
def EncodedFile(file, data_encoding, file_encoding=None, errors='strict'):
""" Return a wrapped version of file which provides transparent
encoding translation.
Data written to the wrapped file is decoded according
to the given data_encoding and then encoded to the underlying
file using file_encoding. The intermediate data type
will usually be Unicode but depends on the specified codecs.
Bytes read from the file are decoded using file_encoding and then
passed back to the caller encoded using data_encoding.
If file_encoding is not given, it defaults to data_encoding.
errors may be given to define the error handling. It defaults
to 'strict' which causes ValueErrors to be raised in case an
encoding error occurs.
The returned wrapped file object provides two extra attributes
.data_encoding and .file_encoding which reflect the given
parameters of the same name. The attributes can be used for
introspection by Python programs.
"""
if file_encoding is None:
file_encoding = data_encoding
data_info = lookup(data_encoding)
file_info = lookup(file_encoding)
sr = StreamRecoder(file, data_info.encode, data_info.decode,
file_info.streamreader, file_info.streamwriter, errors)
# Add attributes to simplify introspection
sr.data_encoding = data_encoding
sr.file_encoding = file_encoding
return sr
### Helpers for codec lookup
def getencoder(encoding):
""" Lookup up the codec for the given encoding and return
its encoder function.
Raises a LookupError in case the encoding cannot be found.
"""
return lookup(encoding).encode
def getdecoder(encoding):
""" Lookup up the codec for the given encoding and return
its decoder function.
Raises a LookupError in case the encoding cannot be found.
"""
return lookup(encoding).decode
def getincrementalencoder(encoding):
""" Lookup up the codec for the given encoding and return
its IncrementalEncoder class or factory function.
Raises a LookupError in case the encoding cannot be found
or the codecs doesn't provide an incremental encoder.
"""
encoder = lookup(encoding).incrementalencoder
if encoder is None:
raise LookupError(encoding)
return encoder
def getincrementaldecoder(encoding):
""" Lookup up the codec for the given encoding and return
its IncrementalDecoder class or factory function.
Raises a LookupError in case the encoding cannot be found
or the codecs doesn't provide an incremental decoder.
"""
decoder = lookup(encoding).incrementaldecoder
if decoder is None:
raise LookupError(encoding)
return decoder
def getreader(encoding):
""" Lookup up the codec for the given encoding and return
its StreamReader class or factory function.
Raises a LookupError in case the encoding cannot be found.
"""
return lookup(encoding).streamreader
def getwriter(encoding):
""" Lookup up the codec for the given encoding and return
its StreamWriter class or factory function.
Raises a LookupError in case the encoding cannot be found.
"""
return lookup(encoding).streamwriter
def iterencode(iterator, encoding, errors='strict', **kwargs):
"""
Encoding iterator.
Encodes the input strings from the iterator using an IncrementalEncoder.
errors and kwargs are passed through to the IncrementalEncoder
constructor.
"""
encoder = getincrementalencoder(encoding)(errors, **kwargs)
for input in iterator:
output = encoder.encode(input)
if output:
yield output
output = encoder.encode("", True)
if output:
yield output
def iterdecode(iterator, encoding, errors='strict', **kwargs):
"""
Decoding iterator.
Decodes the input strings from the iterator using an IncrementalDecoder.
errors and kwargs are passed through to the IncrementalDecoder
constructor.
"""
decoder = getincrementaldecoder(encoding)(errors, **kwargs)
for input in iterator:
output = decoder.decode(input)
if output:
yield output
output = decoder.decode(b"", True)
if output:
yield output
### Helpers for charmap-based codecs
def make_identity_dict(rng):
""" make_identity_dict(rng) -> dict
Return a dictionary where elements of the rng sequence are
mapped to themselves.
"""
return {i:i for i in rng}
def make_encoding_map(decoding_map):
""" Creates an encoding map from a decoding map.
If a target mapping in the decoding map occurs multiple
times, then that target is mapped to None (undefined mapping),
causing an exception when encountered by the charmap codec
during translation.
One example where this happens is cp875.py which decodes
multiple character to \\u001a.
"""
m = {}
for k,v in decoding_map.items():
if not v in m:
m[v] = k
else:
m[v] = None
return m
### error handlers
try:
strict_errors = lookup_error("strict")
ignore_errors = lookup_error("ignore")
replace_errors = lookup_error("replace")
xmlcharrefreplace_errors = lookup_error("xmlcharrefreplace")
backslashreplace_errors = lookup_error("backslashreplace")
namereplace_errors = lookup_error("namereplace")
except LookupError:
# In --disable-unicode builds, these error handler are missing
strict_errors = None
ignore_errors = None
replace_errors = None
xmlcharrefreplace_errors = None
backslashreplace_errors = None
namereplace_errors = None
# Tell modulefinder that using codecs probably needs the encodings
# package
_false = 0
if _false:
import encodings
### Tests
if __name__ == '__main__':
# Make stdout translate Latin-1 output into UTF-8 output
sys.stdout = EncodedFile(sys.stdout, 'latin-1', 'utf-8')
# Have stdin translate Latin-1 input into UTF-8 input
sys.stdin = EncodedFile(sys.stdin, 'utf-8', 'latin-1')
Raw
Frikr_Lib_collections___init__.py
'''This module implements specialized container datatypes providing
alternatives to Python's general purpose built-in containers, dict,
list, set, and tuple.
* namedtuple factory function for creating tuple subclasses with named fields
* deque list-like container with fast appends and pops on either end
* ChainMap dict-like class for creating a single view of multiple mappings
* Counter dict subclass for counting hashable objects
* OrderedDict dict subclass that remembers the order entries were added
* defaultdict dict subclass that calls a factory function to supply missing values
* UserDict wrapper around dictionary objects for easier dict subclassing
* UserList wrapper around list objects for easier list subclassing
* UserString wrapper around string objects for easier string subclassing
'''
__all__ = ['deque', 'defaultdict', 'namedtuple', 'UserDict', 'UserList',
'UserString', 'Counter', 'OrderedDict', 'ChainMap']
# For backwards compatibility, continue to make the collections ABCs
# available through the collections module.
from _collections_abc import *
import _collections_abc
__all__ += _collections_abc.__all__
from operator import itemgetter as _itemgetter, eq as _eq
from keyword import iskeyword as _iskeyword
import sys as _sys
import heapq as _heapq
from _weakref import proxy as _proxy
from itertools import repeat as _repeat, chain as _chain, starmap as _starmap
from reprlib import recursive_repr as _recursive_repr
try:
from _collections import deque
except ImportError:
pass
else:
MutableSequence.register(deque)
try:
from _collections import defaultdict
except ImportError:
pass
################################################################################
### OrderedDict
################################################################################
class _OrderedDictKeysView(KeysView):
def __reversed__(self):
yield from reversed(self._mapping)
class _OrderedDictItemsView(ItemsView):
def __reversed__(self):
for key in reversed(self._mapping):
yield (key, self._mapping[key])
class _OrderedDictValuesView(ValuesView):
def __reversed__(self):
for key in reversed(self._mapping):
yield self._mapping[key]
class _Link(object):
__slots__ = 'prev', 'next', 'key', '__weakref__'
class OrderedDict(dict):
'Dictionary that remembers insertion order'
# An inherited dict maps keys to values.
# The inherited dict provides __getitem__, __len__, __contains__, and get.
# The remaining methods are order-aware.
# Big-O running times for all methods are the same as regular dictionaries.
# The internal self.__map dict maps keys to links in a doubly linked list.
# The circular doubly linked list starts and ends with a sentinel element.
# The sentinel element never gets deleted (this simplifies the algorithm).
# The sentinel is in self.__hardroot with a weakref proxy in self.__root.
# The prev links are weakref proxies (to prevent circular references).
# Individual links are kept alive by the hard reference in self.__map.
# Those hard references disappear when a key is deleted from an OrderedDict.
def __init__(*args, **kwds):
'''Initialize an ordered dictionary. The signature is the same as
regular dictionaries, but keyword arguments are not recommended because
their insertion order is arbitrary.
'''
if not args:
raise TypeError("descriptor '__init__' of 'OrderedDict' object "
"needs an argument")
self, *args = args
if len(args) > 1:
raise TypeError('expected at most 1 arguments, got %d' % len(args))
try:
self.__root
except AttributeError:
self.__hardroot = _Link()
self.__root = root = _proxy(self.__hardroot)
root.prev = root.next = root
self.__map = {}
self.__update(*args, **kwds)
def __setitem__(self, key, value,
dict_setitem=dict.__setitem__, proxy=_proxy, Link=_Link):
'od.__setitem__(i, y) <==> od[i]=y'
# Setting a new item creates a new link at the end of the linked list,
# and the inherited dictionary is updated with the new key/value pair.
if key not in self:
self.__map[key] = link = Link()
root = self.__root
last = root.prev
link.prev, link.next, link.key = last, root, key
last.next = link
root.prev = proxy(link)
dict_setitem(self, key, value)
def __delitem__(self, key, dict_delitem=dict.__delitem__):
'od.__delitem__(y) <==> del od[y]'
# Deleting an existing item uses self.__map to find the link which gets
# removed by updating the links in the predecessor and successor nodes.
dict_delitem(self, key)
link = self.__map.pop(key)
link_prev = link.prev
link_next = link.next
link_prev.next = link_next
link_next.prev = link_prev
link.prev = None
link.next = None
def __iter__(self):
'od.__iter__() <==> iter(od)'
# Traverse the linked list in order.
root = self.__root
curr = root.next
while curr is not root:
yield curr.key
curr = curr.next
def __reversed__(self):
'od.__reversed__() <==> reversed(od)'
# Traverse the linked list in reverse order.
root = self.__root
curr = root.prev
while curr is not root:
yield curr.key
curr = curr.prev
def clear(self):
'od.clear() -> None. Remove all items from od.'
root = self.__root
root.prev = root.next = root
self.__map.clear()
dict.clear(self)
def popitem(self, last=True):
'''od.popitem() -> (k, v), return and remove a (key, value) pair.
Pairs are returned in LIFO order if last is true or FIFO order if false.
'''
if not self:
raise KeyError('dictionary is empty')
root = self.__root
if last:
link = root.prev
link_prev = link.prev
link_prev.next = root
root.prev = link_prev
else:
link = root.next
link_next = link.next
root.next = link_next
link_next.prev = root
key = link.key
del self.__map[key]
value = dict.pop(self, key)
return key, value
def move_to_end(self, key, last=True):
'''Move an existing element to the end (or beginning if last==False).
Raises KeyError if the element does not exist.
When last=True, acts like a fast version of self[key]=self.pop(key).
'''
link = self.__map[key]
link_prev = link.prev
link_next = link.next
soft_link = link_next.prev
link_prev.next = link_next
link_next.prev = link_prev
root = self.__root
if last:
last = root.prev
link.prev = last
link.next = root
root.prev = soft_link
last.next = link
else:
first = root.next
link.prev = root
link.next = first
first.prev = soft_link
root.next = link
def __sizeof__(self):
sizeof = _sys.getsizeof
n = len(self) + 1 # number of links including root
size = sizeof(self.__dict__) # instance dictionary
size += sizeof(self.__map) * 2 # internal dict and inherited dict
size += sizeof(self.__hardroot) * n # link objects
size += sizeof(self.__root) * n # proxy objects
return size
update = __update = MutableMapping.update
def keys(self):
"D.keys() -> a set-like object providing a view on D's keys"
return _OrderedDictKeysView(self)
def items(self):
"D.items() -> a set-like object providing a view on D's items"
return _OrderedDictItemsView(self)
def values(self):
"D.values() -> an object providing a view on D's values"
return _OrderedDictValuesView(self)
__ne__ = MutableMapping.__ne__
__marker = object()
def pop(self, key, default=__marker):
'''od.pop(k[,d]) -> v, remove specified key and return the corresponding
value. If key is not found, d is returned if given, otherwise KeyError
is raised.
'''
if key in self:
result = self[key]
del self[key]
return result
if default is self.__marker:
raise KeyError(key)
return default
def setdefault(self, key, default=None):
'od.setdefault(k[,d]) -> od.get(k,d), also set od[k]=d if k not in od'
if key in self:
return self[key]
self[key] = default
return default
@_recursive_repr()
def __repr__(self):
'od.__repr__() <==> repr(od)'
if not self:
return '%s()' % (self.__class__.__name__,)
return '%s(%r)' % (self.__class__.__name__, list(self.items()))
def __reduce__(self):
'Return state information for pickling'
inst_dict = vars(self).copy()
for k in vars(OrderedDict()):
inst_dict.pop(k, None)
return self.__class__, (), inst_dict or None, None, iter(self.items())
def copy(self):
'od.copy() -> a shallow copy of od'
return self.__class__(self)
@classmethod
def fromkeys(cls, iterable, value=None):
'''OD.fromkeys(S[, v]) -> New ordered dictionary with keys from S.
If not specified, the value defaults to None.
'''
self = cls()
for key in iterable:
self[key] = value
return self
def __eq__(self, other):
'''od.__eq__(y) <==> od==y. Comparison to another OD is order-sensitive
while comparison to a regular mapping is order-insensitive.
'''
if isinstance(other, OrderedDict):
return dict.__eq__(self, other) and all(map(_eq, self, other))
return dict.__eq__(self, other)
try:
from _collections import OrderedDict
except ImportError:
# Leave the pure Python version in place.
pass
################################################################################
### namedtuple
################################################################################
_class_template = """\
from builtins import property as _property, tuple as _tuple
from operator import itemgetter as _itemgetter
from collections import OrderedDict
class {typename}(tuple):
'{typename}({arg_list})'
__slots__ = ()
_fields = {field_names!r}
def __new__(_cls, {arg_list}):
'Create new instance of {typename}({arg_list})'
return _tuple.__new__(_cls, ({arg_list}))
@classmethod
def _make(cls, iterable, new=tuple.__new__, len=len):
'Make a new {typename} object from a sequence or iterable'
result = new(cls, iterable)
if len(result) != {num_fields:d}:
raise TypeError('Expected {num_fields:d} arguments, got %d' % len(result))
return result
def _replace(_self, **kwds):
'Return a new {typename} object replacing specified fields with new values'
result = _self._make(map(kwds.pop, {field_names!r}, _self))
if kwds:
raise ValueError('Got unexpected field names: %r' % list(kwds))
return result
def __repr__(self):
'Return a nicely formatted representation string'
return self.__class__.__name__ + '({repr_fmt})' % self
def _asdict(self):
'Return a new OrderedDict which maps field names to their values.'
return OrderedDict(zip(self._fields, self))
def __getnewargs__(self):
'Return self as a plain tuple. Used by copy and pickle.'
return tuple(self)
{field_defs}
"""
_repr_template = '{name}=%r'
_field_template = '''\
{name} = _property(_itemgetter({index:d}), doc='Alias for field number {index:d}')
'''
def namedtuple(typename, field_names, *, verbose=False, rename=False, module=None):
"""Returns a new subclass of tuple with named fields.
>>> Point = namedtuple('Point', ['x', 'y'])
>>> Point.__doc__ # docstring for the new class
'Point(x, y)'
>>> p = Point(11, y=22) # instantiate with positional args or keywords
>>> p[0] + p[1] # indexable like a plain tuple
33
>>> x, y = p # unpack like a regular tuple
>>> x, y
(11, 22)
>>> p.x + p.y # fields also accessible by name
33
>>> d = p._asdict() # convert to a dictionary
>>> d['x']
11
>>> Point(**d) # convert from a dictionary
Point(x=11, y=22)
>>> p._replace(x=100) # _replace() is like str.replace() but targets named fields
Point(x=100, y=22)
"""
# Validate the field names. At the user's option, either generate an error
# message or automatically replace the field name with a valid name.
if isinstance(field_names, str):
field_names = field_names.replace(',', ' ').split()
field_names = list(map(str, field_names))
typename = str(typename)
if rename:
seen = set()
for index, name in enumerate(field_names):
if (not name.isidentifier()
or _iskeyword(name)
or name.startswith('_')
or name in seen):
field_names[index] = '_%d' % index
seen.add(name)
for name in [typename] + field_names:
if type(name) is not str:
raise TypeError('Type names and field names must be strings')
if not name.isidentifier():
raise ValueError('Type names and field names must be valid '
'identifiers: %r' % name)
if _iskeyword(name):
raise ValueError('Type names and field names cannot be a '
'keyword: %r' % name)
seen = set()
for name in field_names:
if name.startswith('_') and not rename:
raise ValueError('Field names cannot start with an underscore: '
'%r' % name)
if name in seen:
raise ValueError('Encountered duplicate field name: %r' % name)
seen.add(name)
# Fill-in the class template
class_definition = _class_template.format(
typename = typename,
field_names = tuple(field_names),
num_fields = len(field_names),
arg_list = repr(tuple(field_names)).replace("'", "")[1:-1],
repr_fmt = ', '.join(_repr_template.format(name=name)
for name in field_names),
field_defs = '\n'.join(_field_template.format(index=index, name=name)
for index, name in enumerate(field_names))
)
# Execute the template string in a temporary namespace and support
# tracing utilities by setting a value for frame.f_globals['__name__']
namespace = dict(__name__='namedtuple_%s' % typename)
exec(class_definition, namespace)
result = namespace[typename]
result._source = class_definition
if verbose:
print(result._source)
# For pickling to work, the __module__ variable needs to be set to the frame
# where the named tuple is created. Bypass this step in environments where
# sys._getframe is not defined (Jython for example) or sys._getframe is not
# defined for arguments greater than 0 (IronPython), or where the user has
# specified a particular module.
if module is None:
try:
module = _sys._getframe(1).f_globals.get('__name__', '__main__')
except (AttributeError, ValueError):
pass
if module is not None:
result.__module__ = module
return result
########################################################################
### Counter
########################################################################
def _count_elements(mapping, iterable):
'Tally elements from the iterable.'
mapping_get = mapping.get
for elem in iterable:
mapping[elem] = mapping_get(elem, 0) + 1
try: # Load C helper function if available
from _collections import _count_elements
except ImportError:
pass
class Counter(dict):
'''Dict subclass for counting hashable items. Sometimes called a bag
or multiset. Elements are stored as dictionary keys and their counts
are stored as dictionary values.
>>> c = Counter('abcdeabcdabcaba') # count elements from a string
>>> c.most_common(3) # three most common elements
[('a', 5), ('b', 4), ('c', 3)]
>>> sorted(c) # list all unique elements
['a', 'b', 'c', 'd', 'e']
>>> ''.join(sorted(c.elements())) # list elements with repetitions
'aaaaabbbbcccdde'
>>> sum(c.values()) # total of all counts
15
>>> c['a'] # count of letter 'a'
5
>>> for elem in 'shazam': # update counts from an iterable
... c[elem] += 1 # by adding 1 to each element's count
>>> c['a'] # now there are seven 'a'
7
>>> del c['b'] # remove all 'b'
>>> c['b'] # now there are zero 'b'
0
>>> d = Counter('simsalabim') # make another counter
>>> c.update(d) # add in the second counter
>>> c['a'] # now there are nine 'a'
9
>>> c.clear() # empty the counter
>>> c
Counter()
Note: If a count is set to zero or reduced to zero, it will remain
in the counter until the entry is deleted or the counter is cleared:
>>> c = Counter('aaabbc')
>>> c['b'] -= 2 # reduce the count of 'b' by two
>>> c.most_common() # 'b' is still in, but its count is zero
[('a', 3), ('c', 1), ('b', 0)]
'''
# References:
# http://en.wikipedia.org/wiki/Multiset
# http://www.gnu.org/software/smalltalk/manual-base/html_node/Bag.html
# http://www.demo2s.com/Tutorial/Cpp/0380__set-multiset/Catalog0380__set-multiset.htm
# http://code.activestate.com/recipes/259174/
# Knuth, TAOCP Vol. II section 4.6.3
def __init__(*args, **kwds):
'''Create a new, empty Counter object. And if given, count elements
from an input iterable. Or, initialize the count from another mapping
of elements to their counts.
>>> c = Counter() # a new, empty counter
>>> c = Counter('gallahad') # a new counter from an iterable
>>> c = Counter({'a': 4, 'b': 2}) # a new counter from a mapping
>>> c = Counter(a=4, b=2) # a new counter from keyword args
'''
if not args:
raise TypeError("descriptor '__init__' of 'Counter' object "
"needs an argument")
self, *args = args
if len(args) > 1:
raise TypeError('expected at most 1 arguments, got %d' % len(args))
super(Counter, self).__init__()
self.update(*args, **kwds)
def __missing__(self, key):
'The count of elements not in the Counter is zero.'
# Needed so that self[missing_item] does not raise KeyError
return 0
def most_common(self, n=None):
'''List the n most common elements and their counts from the most
common to the least. If n is None, then list all element counts.
>>> Counter('abcdeabcdabcaba').most_common(3)
[('a', 5), ('b', 4), ('c', 3)]
'''
# Emulate Bag.sortedByCount from Smalltalk
if n is None:
return sorted(self.items(), key=_itemgetter(1), reverse=True)
return _heapq.nlargest(n, self.items(), key=_itemgetter(1))
def elements(self):
'''Iterator over elements repeating each as many times as its count.
>>> c = Counter('ABCABC')
>>> sorted(c.elements())
['A', 'A', 'B', 'B', 'C', 'C']
# Knuth's example for prime factors of 1836: 2**2 * 3**3 * 17**1
>>> prime_factors = Counter({2: 2, 3: 3, 17: 1})
>>> product = 1
>>> for factor in prime_factors.elements(): # loop over factors
... product *= factor # and multiply them
>>> product
1836
Note, if an element's count has been set to zero or is a negative
number, elements() will ignore it.
'''
# Emulate Bag.do from Smalltalk and Multiset.begin from C++.
return _chain.from_iterable(_starmap(_repeat, self.items()))
# Override dict methods where necessary
@classmethod
def fromkeys(cls, iterable, v=None):
# There is no equivalent method for counters because setting v=1
# means that no element can have a count greater than one.
raise NotImplementedError(
'Counter.fromkeys() is undefined. Use Counter(iterable) instead.')
def update(*args, **kwds):
'''Like dict.update() but add counts instead of replacing them.
Source can be an iterable, a dictionary, or another Counter instance.
>>> c = Counter('which')
>>> c.update('witch') # add elements from another iterable
>>> d = Counter('watch')
>>> c.update(d) # add elements from another counter
>>> c['h'] # four 'h' in which, witch, and watch
4
'''
# The regular dict.update() operation makes no sense here because the
# replace behavior results in the some of original untouched counts
# being mixed-in with all of the other counts for a mismash that
# doesn't have a straight-forward interpretation in most counting
# contexts. Instead, we implement straight-addition. Both the inputs
# and outputs are allowed to contain zero and negative counts.
if not args:
raise TypeError("descriptor 'update' of 'Counter' object "
"needs an argument")
self, *args = args
if len(args) > 1:
raise TypeError('expected at most 1 arguments, got %d' % len(args))
iterable = args[0] if args else None
if iterable is not None:
if isinstance(iterable, Mapping):
if self:
self_get = self.get
for elem, count in iterable.items():
self[elem] = count + self_get(elem, 0)
else:
super(Counter, self).update(iterable) # fast path when counter is empty
else:
_count_elements(self, iterable)
if kwds:
self.update(kwds)
def subtract(*args, **kwds):
'''Like dict.update() but subtracts counts instead of replacing them.
Counts can be reduced below zero. Both the inputs and outputs are
allowed to contain zero and negative counts.
Source can be an iterable, a dictionary, or another Counter instance.
>>> c = Counter('which')
>>> c.subtract('witch') # subtract elements from another iterable
>>> c.subtract(Counter('watch')) # subtract elements from another counter
>>> c['h'] # 2 in which, minus 1 in witch, minus 1 in watch
0
>>> c['w'] # 1 in which, minus 1 in witch, minus 1 in watch
-1
'''
if not args:
raise TypeError("descriptor 'subtract' of 'Counter' object "
"needs an argument")
self, *args = args
if len(args) > 1:
raise TypeError('expected at most 1 arguments, got %d' % len(args))
iterable = args[0] if args else None
if iterable is not None:
self_get = self.get
if isinstance(iterable, Mapping):
for elem, count in iterable.items():
self[elem] = self_get(elem, 0) - count
else:
for elem in iterable:
self[elem] = self_get(elem, 0) - 1
if kwds:
self.subtract(kwds)
def copy(self):
'Return a shallow copy.'
return self.__class__(self)
def __reduce__(self):
return self.__class__, (dict(self),)
def __delitem__(self, elem):
'Like dict.__delitem__() but does not raise KeyError for missing values.'
if elem in self:
super().__delitem__(elem)
def __repr__(self):
if not self:
return '%s()' % self.__class__.__name__
try:
items = ', '.join(map('%r: %r'.__mod__, self.most_common()))
return '%s({%s})' % (self.__class__.__name__, items)
except TypeError:
# handle case where values are not orderable
return '{0}({1!r})'.format(self.__class__.__name__, dict(self))
# Multiset-style mathematical operations discussed in:
# Knuth TAOCP Volume II section 4.6.3 exercise 19
# and at http://en.wikipedia.org/wiki/Multiset
#
# Outputs guaranteed to only include positive counts.
#
# To strip negative and zero counts, add-in an empty counter:
# c += Counter()
def __add__(self, other):
'''Add counts from two counters.
>>> Counter('abbb') + Counter('bcc')
Counter({'b': 4, 'c': 2, 'a': 1})
'''
if not isinstance(other, Counter):
return NotImplemented
result = Counter()
for elem, count in self.items():
newcount = count + other[elem]
if newcount > 0:
result[elem] = newcount
for elem, count in other.items():
if elem not in self and count > 0:
result[elem] = count
return result
def __sub__(self, other):
''' Subtract count, but keep only results with positive counts.
>>> Counter('abbbc') - Counter('bccd')
Counter({'b': 2, 'a': 1})
'''
if not isinstance(other, Counter):
return NotImplemented
result = Counter()
for elem, count in self.items():
newcount = count - other[elem]
if newcount > 0:
result[elem] = newcount
for elem, count in other.items():
if elem not in self and count < 0:
result[elem] = 0 - count
return result
def __or__(self, other):
'''Union is the maximum of value in either of the input counters.
>>> Counter('abbb') | Counter('bcc')
Counter({'b': 3, 'c': 2, 'a': 1})
'''
if not isinstance(other, Counter):
return NotImplemented
result = Counter()
for elem, count in self.items():
other_count = other[elem]
newcount = other_count if count < other_count else count
if newcount > 0:
result[elem] = newcount
for elem, count in other.items():
if elem not in self and count > 0:
result[elem] = count
return result
def __and__(self, other):
''' Intersection is the minimum of corresponding counts.
>>> Counter('abbb') & Counter('bcc')
Counter({'b': 1})
'''
if not isinstance(other, Counter):
return NotImplemented
result = Counter()
for elem, count in self.items():
other_count = other[elem]
newcount = count if count < other_count else other_count
if newcount > 0:
result[elem] = newcount
return result
def __pos__(self):
'Adds an empty counter, effectively stripping negative and zero counts'
result = Counter()
for elem, count in self.items():
if count > 0:
result[elem] = count
return result
def __neg__(self):
'''Subtracts from an empty counter. Strips positive and zero counts,
and flips the sign on negative counts.
'''
result = Counter()
for elem, count in self.items():
if count < 0:
result[elem] = 0 - count
return result
def _keep_positive(self):
'''Internal method to strip elements with a negative or zero count'''
nonpositive = [elem for elem, count in self.items() if not count > 0]
for elem in nonpositive:
del self[elem]
return self
def __iadd__(self, other):
'''Inplace add from another counter, keeping only positive counts.
>>> c = Counter('abbb')
>>> c += Counter('bcc')
>>> c
Counter({'b': 4, 'c': 2, 'a': 1})
'''
for elem, count in other.items():
self[elem] += count
return self._keep_positive()
def __isub__(self, other):
'''Inplace subtract counter, but keep only results with positive counts.
>>> c = Counter('abbbc')
>>> c -= Counter('bccd')
>>> c
Counter({'b': 2, 'a': 1})
'''
for elem, count in other.items():
self[elem] -= count
return self._keep_positive()
def __ior__(self, other):
'''Inplace union is the maximum of value from either counter.
>>> c = Counter('abbb')
>>> c |= Counter('bcc')
>>> c
Counter({'b': 3, 'c': 2, 'a': 1})
'''
for elem, other_count in other.items():
count = self[elem]
if other_count > count:
self[elem] = other_count
return self._keep_positive()
def __iand__(self, other):
'''Inplace intersection is the minimum of corresponding counts.
>>> c = Counter('abbb')
>>> c &= Counter('bcc')
>>> c
Counter({'b': 1})
'''
for elem, count in self.items():
other_count = other[elem]
if other_count < count:
self[elem] = other_count
return self._keep_positive()
########################################################################
### ChainMap
########################################################################
class ChainMap(MutableMapping):
''' A ChainMap groups multiple dicts (or other mappings) together
to create a single, updateable view.
The underlying mappings are stored in a list. That list is public and can
be accessed or updated using the *maps* attribute. There is no other
state.
Lookups search the underlying mappings successively until a key is found.
In contrast, writes, updates, and deletions only operate on the first
mapping.
'''
def __init__(self, *maps):
'''Initialize a ChainMap by setting *maps* to the given mappings.
If no mappings are provided, a single empty dictionary is used.
'''
self.maps = list(maps) or [{}] # always at least one map
def __missing__(self, key):
raise KeyError(key)
def __getitem__(self, key):
for mapping in self.maps:
try:
return mapping[key] # can't use 'key in mapping' with defaultdict
except KeyError:
pass
return self.__missing__(key) # support subclasses that define __missing__
def get(self, key, default=None):
return self[key] if key in self else default
def __len__(self):
return len(set().union(*self.maps)) # reuses stored hash values if possible
def __iter__(self):
return iter(set().union(*self.maps))
def __contains__(self, key):
return any(key in m for m in self.maps)
def __bool__(self):
return any(self.maps)
@_recursive_repr()
def __repr__(self):
return '{0.__class__.__name__}({1})'.format(
self, ', '.join(map(repr, self.maps)))
@classmethod
def fromkeys(cls, iterable, *args):
'Create a ChainMap with a single dict created from the iterable.'
return cls(dict.fromkeys(iterable, *args))
def copy(self):
'New ChainMap or subclass with a new copy of maps[0] and refs to maps[1:]'
return self.__class__(self.maps[0].copy(), *self.maps[1:])
__copy__ = copy
def new_child(self, m=None): # like Django's Context.push()
'''New ChainMap with a new map followed by all previous maps.
If no map is provided, an empty dict is used.
'''
if m is None:
m = {}
return self.__class__(m, *self.maps)
@property
def parents(self): # like Django's Context.pop()
'New ChainMap from maps[1:].'
return self.__class__(*self.maps[1:])
def __setitem__(self, key, value):
self.maps[0][key] = value
def __delitem__(self, key):
try:
del self.maps[0][key]
except KeyError:
raise KeyError('Key not found in the first mapping: {!r}'.format(key))
def popitem(self):
'Remove and return an item pair from maps[0]. Raise KeyError is maps[0] is empty.'
try:
return self.maps[0].popitem()
except KeyError:
raise KeyError('No keys found in the first mapping.')
def pop(self, key, *args):
'Remove *key* from maps[0] and return its value. Raise KeyError if *key* not in maps[0].'
try:
return self.maps[0].pop(key, *args)
except KeyError:
raise KeyError('Key not found in the first mapping: {!r}'.format(key))
def clear(self):
'Clear maps[0], leaving maps[1:] intact.'
self.maps[0].clear()
################################################################################
### UserDict
################################################################################
class UserDict(MutableMapping):
# Start by filling-out the abstract methods
def __init__(*args, **kwargs):
if not args:
raise TypeError("descriptor '__init__' of 'UserDict' object "
"needs an argument")
self, *args = args
if len(args) > 1:
raise TypeError('expected at most 1 arguments, got %d' % len(args))
if args:
dict = args[0]
elif 'dict' in kwargs:
dict = kwargs.pop('dict')
import warnings
warnings.warn("Passing 'dict' as keyword argument is deprecated",
DeprecationWarning, stacklevel=2)
else:
dict = None
self.data = {}
if dict is not None:
self.update(dict)
if len(kwargs):
self.update(kwargs)
def __len__(self): return len(self.data)
def __getitem__(self, key):
if key in self.data:
return self.data[key]
if hasattr(self.__class__, "__missing__"):
return self.__class__.__missing__(self, key)
raise KeyError(key)
def __setitem__(self, key, item): self.data[key] = item
def __delitem__(self, key): del self.data[key]
def __iter__(self):
return iter(self.data)
# Modify __contains__ to work correctly when __missing__ is present
def __contains__(self, key):
return key in self.data
# Now, add the methods in dicts but not in MutableMapping
def __repr__(self): return repr(self.data)
def copy(self):
if self.__class__ is UserDict:
return UserDict(self.data.copy())
import copy
data = self.data
try:
self.data = {}
c = copy.copy(self)
finally:
self.data = data
c.update(self)
return c
@classmethod
def fromkeys(cls, iterable, value=None):
d = cls()
for key in iterable:
d[key] = value
return d
################################################################################
### UserList
################################################################################
class UserList(MutableSequence):
"""A more or less complete user-defined wrapper around list objects."""
def __init__(self, initlist=None):
self.data = []
if initlist is not None:
# XXX should this accept an arbitrary sequence?
if type(initlist) == type(self.data):
self.data[:] = initlist
elif isinstance(initlist, UserList):
self.data[:] = initlist.data[:]
else:
self.data = list(initlist)
def __repr__(self): return repr(self.data)
def __lt__(self, other): return self.data < self.__cast(other)
def __le__(self, other): return self.data <= self.__cast(other)
def __eq__(self, other): return self.data == self.__cast(other)
def __gt__(self, other): return self.data > self.__cast(other)
def __ge__(self, other): return self.data >= self.__cast(other)
def __cast(self, other):
return other.data if isinstance(other, UserList) else other
def __contains__(self, item): return item in self.data
def __len__(self): return len(self.data)
def __getitem__(self, i): return self.data[i]
def __setitem__(self, i, item): self.data[i] = item
def __delitem__(self, i): del self.data[i]
def __add__(self, other):
if isinstance(other, UserList):
return self.__class__(self.data + other.data)
elif isinstance(other, type(self.data)):
return self.__class__(self.data + other)
return self.__class__(self.data + list(other))
def __radd__(self, other):
if isinstance(other, UserList):
return self.__class__(other.data + self.data)
elif isinstance(other, type(self.data)):
return self.__class__(other + self.data)
return self.__class__(list(other) + self.data)
def __iadd__(self, other):
if isinstance(other, UserList):
self.data += other.data
elif isinstance(other, type(self.data)):
self.data += other
else:
self.data += list(other)
return self
def __mul__(self, n):
return self.__class__(self.data*n)
__rmul__ = __mul__
def __imul__(self, n):
self.data *= n
return self
def append(self, item): self.data.append(item)
def insert(self, i, item): self.data.insert(i, item)
def pop(self, i=-1): return self.data.pop(i)
def remove(self, item): self.data.remove(item)
def clear(self): self.data.clear()
def copy(self): return self.__class__(self)
def count(self, item): return self.data.count(item)
def index(self, item, *args): return self.data.index(item, *args)
def reverse(self): self.data.reverse()
def sort(self, *args, **kwds): self.data.sort(*args, **kwds)
def extend(self, other):
if isinstance(other, UserList):
self.data.extend(other.data)
else:
self.data.extend(other)
################################################################################
### UserString
################################################################################
class UserString(Sequence):
def __init__(self, seq):
if isinstance(seq, str):
self.data = seq
elif isinstance(seq, UserString):
self.data = seq.data[:]
else:
self.data = str(seq)
def __str__(self): return str(self.data)
def __repr__(self): return repr(self.data)
def __int__(self): return int(self.data)
def __float__(self): return float(self.data)
def __complex__(self): return complex(self.data)
def __hash__(self): return hash(self.data)
def __getnewargs__(self):
return (self.data[:],)
def __eq__(self, string):
if isinstance(string, UserString):
return self.data == string.data
return self.data == string
def __lt__(self, string):
if isinstance(string, UserString):
return self.data < string.data
return self.data < string
def __le__(self, string):
if isinstance(string, UserString):
return self.data <= string.data
return self.data <= string
def __gt__(self, string):
if isinstance(string, UserString):
return self.data > string.data
return self.data > string
def __ge__(self, string):
if isinstance(string, UserString):
return self.data >= string.data
return self.data >= string
def __contains__(self, char):
if isinstance(char, UserString):
char = char.data
return char in self.data
def __len__(self): return len(self.data)
def __getitem__(self, index): return self.__class__(self.data[index])
def __add__(self, other):
if isinstance(other, UserString):
return self.__class__(self.data + other.data)
elif isinstance(other, str):
return self.__class__(self.data + other)
return self.__class__(self.data + str(other))
def __radd__(self, other):
if isinstance(other, str):
return self.__class__(other + self.data)
return self.__class__(str(other) + self.data)
def __mul__(self, n):
return self.__class__(self.data*n)
__rmul__ = __mul__
def __mod__(self, args):
return self.__class__(self.data % args)
def __rmod__(self, format):
return self.__class__(format % args)
# the following methods are defined in alphabetical order:
def capitalize(self): return self.__class__(self.data.capitalize())
def casefold(self):
return self.__class__(self.data.casefold())
def center(self, width, *args):
return self.__class__(self.data.center(width, *args))
def count(self, sub, start=0, end=_sys.maxsize):
if isinstance(sub, UserString):
sub = sub.data
return self.data.count(sub, start, end)
def encode(self, encoding=None, errors=None): # XXX improve this?
if encoding:
if errors:
return self.__class__(self.data.encode(encoding, errors))
return self.__class__(self.data.encode(encoding))
return self.__class__(self.data.encode())
def endswith(self, suffix, start=0, end=_sys.maxsize):
return self.data.endswith(suffix, start, end)
def expandtabs(self, tabsize=8):
return self.__class__(self.data.expandtabs(tabsize))
def find(self, sub, start=0, end=_sys.maxsize):
if isinstance(sub, UserString):
sub = sub.data
return self.data.find(sub, start, end)
def format(self, *args, **kwds):
return self.data.format(*args, **kwds)
def format_map(self, mapping):
return self.data.format_map(mapping)
def index(self, sub, start=0, end=_sys.maxsize):
return self.data.index(sub, start, end)
def isalpha(self): return self.data.isalpha()
def isalnum(self): return self.data.isalnum()
def isdecimal(self): return self.data.isdecimal()
def isdigit(self): return self.data.isdigit()
def isidentifier(self): return self.data.isidentifier()
def islower(self): return self.data.islower()
def isnumeric(self): return self.data.isnumeric()
def isprintable(self): return self.data.isprintable()
def isspace(self): return self.data.isspace()
def istitle(self): return self.data.istitle()
def isupper(self): return self.data.isupper()
def join(self, seq): return self.data.join(seq)
def ljust(self, width, *args):
return self.__class__(self.data.ljust(width, *args))
def lower(self): return self.__class__(self.data.lower())
def lstrip(self, chars=None): return self.__class__(self.data.lstrip(chars))
maketrans = str.maketrans
def partition(self, sep):
return self.data.partition(sep)
def replace(self, old, new, maxsplit=-1):
if isinstance(old, UserString):
old = old.data
if isinstance(new, UserString):
new = new.data
return self.__class__(self.data.replace(old, new, maxsplit))
def rfind(self, sub, start=0, end=_sys.maxsize):
if isinstance(sub, UserString):
sub = sub.data
return self.data.rfind(sub, start, end)
def rindex(self, sub, start=0, end=_sys.maxsize):
return self.data.rindex(sub, start, end)
def rjust(self, width, *args):
return self.__class__(self.data.rjust(width, *args))
def rpartition(self, sep):
return self.data.rpartition(sep)
def rstrip(self, chars=None):
return self.__class__(self.data.rstrip(chars))
def split(self, sep=None, maxsplit=-1):
return self.data.split(sep, maxsplit)
def rsplit(self, sep=None, maxsplit=-1):
return self.data.rsplit(sep, maxsplit)
def splitlines(self, keepends=False): return self.data.splitlines(keepends)
def startswith(self, prefix, start=0, end=_sys.maxsize):
return self.data.startswith(prefix, start, end)
def strip(self, chars=None): return self.__class__(self.data.strip(chars))
def swapcase(self): return self.__class__(self.data.swapcase())
def title(self): return self.__class__(self.data.title())
def translate(self, *args):
return self.__class__(self.data.translate(*args))
def upper(self): return self.__class__(self.data.upper())
def zfill(self, width): return self.__class__(self.data.zfill(width))
Raw
Frikr_Lib_collections_abc.py
from _collections_abc import *
from _collections_abc import __all__
Raw
Frikr_Lib_copy.py
"""Generic (shallow and deep) copying operations.
Interface summary:
import copy
x = copy.copy(y) # make a shallow copy of y
x = copy.deepcopy(y) # make a deep copy of y
For module specific errors, copy.Error is raised.
The difference between shallow and deep copying is only relevant for
compound objects (objects that contain other objects, like lists or
class instances).
- A shallow copy constructs a new compound object and then (to the
extent possible) inserts *the same objects* into it that the
original contains.
- A deep copy constructs a new compound object and then, recursively,
inserts *copies* into it of the objects found in the original.
Two problems often exist with deep copy operations that don't exist
with shallow copy operations:
a) recursive objects (compound objects that, directly or indirectly,
contain a reference to themselves) may cause a recursive loop
b) because deep copy copies *everything* it may copy too much, e.g.
administrative data structures that should be shared even between
copies
Python's deep copy operation avoids these problems by:
a) keeping a table of objects already copied during the current
copying pass
b) letting user-defined classes override the copying operation or the
set of components copied
This version does not copy types like module, class, function, method,
nor stack trace, stack frame, nor file, socket, window, nor array, nor
any similar types.
Classes can use the same interfaces to control copying that they use
to control pickling: they can define methods called __getinitargs__(),
__getstate__() and __setstate__(). See the documentation for module
"pickle" for information on these methods.
"""
import types
import weakref
from copyreg import dispatch_table
class Error(Exception):
pass
error = Error # backward compatibility
try:
from org.python.core import PyStringMap
except ImportError:
PyStringMap = None
__all__ = ["Error", "copy", "deepcopy"]
def copy(x):
"""Shallow copy operation on arbitrary Python objects.
See the module's __doc__ string for more info.
"""
cls = type(x)
copier = _copy_dispatch.get(cls)
if copier:
return copier(x)
try:
issc = issubclass(cls, type)
except TypeError: # cls is not a class
issc = False
if issc:
# treat it as a regular class:
return _copy_immutable(x)
copier = getattr(cls, "__copy__", None)
if copier:
return copier(x)
reductor = dispatch_table.get(cls)
if reductor:
rv = reductor(x)
else:
reductor = getattr(x, "__reduce_ex__", None)
if reductor:
rv = reductor(4)
else:
reductor = getattr(x, "__reduce__", None)
if reductor:
rv = reductor()
else:
raise Error("un(shallow)copyable object of type %s" % cls)
if isinstance(rv, str):
return x
return _reconstruct(x, None, *rv)
_copy_dispatch = d = {}
def _copy_immutable(x):
return x
for t in (type(None), int, float, bool, complex, str, tuple,
bytes, frozenset, type, range, slice,
types.BuiltinFunctionType, type(Ellipsis), type(NotImplemented),
types.FunctionType, weakref.ref):
d[t] = _copy_immutable
t = getattr(types, "CodeType", None)
if t is not None:
d[t] = _copy_immutable
d[list] = list.copy
d[dict] = dict.copy
d[set] = set.copy
d[bytearray] = bytearray.copy
if PyStringMap is not None:
d[PyStringMap] = PyStringMap.copy
del d, t
def deepcopy(x, memo=None, _nil=[]):
"""Deep copy operation on arbitrary Python objects.
See the module's __doc__ string for more info.
"""
if memo is None:
memo = {}
d = id(x)
y = memo.get(d, _nil)
if y is not _nil:
return y
cls = type(x)
copier = _deepcopy_dispatch.get(cls)
if copier:
y = copier(x, memo)
else:
try:
issc = issubclass(cls, type)
except TypeError: # cls is not a class (old Boost; see SF #502085)
issc = 0
if issc:
y = _deepcopy_atomic(x, memo)
else:
copier = getattr(x, "__deepcopy__", None)
if copier:
y = copier(memo)
else:
reductor = dispatch_table.get(cls)
if reductor:
rv = reductor(x)
else:
reductor = getattr(x, "__reduce_ex__", None)
if reductor:
rv = reductor(4)
else:
reductor = getattr(x, "__reduce__", None)
if reductor:
rv = reductor()
else:
raise Error(
"un(deep)copyable object of type %s" % cls)
if isinstance(rv, str):
y = x
else:
y = _reconstruct(x, memo, *rv)
# If is its own copy, don't memoize.
if y is not x:
memo[d] = y
_keep_alive(x, memo) # Make sure x lives at least as long as d
return y
_deepcopy_dispatch = d = {}
def _deepcopy_atomic(x, memo):
return x
d[type(None)] = _deepcopy_atomic
d[type(Ellipsis)] = _deepcopy_atomic
d[type(NotImplemented)] = _deepcopy_atomic
d[int] = _deepcopy_atomic
d[float] = _deepcopy_atomic
d[bool] = _deepcopy_atomic
d[complex] = _deepcopy_atomic
d[bytes] = _deepcopy_atomic
d[str] = _deepcopy_atomic
try:
d[types.CodeType] = _deepcopy_atomic
except AttributeError:
pass
d[type] = _deepcopy_atomic
d[types.BuiltinFunctionType] = _deepcopy_atomic
d[types.FunctionType] = _deepcopy_atomic
d[weakref.ref] = _deepcopy_atomic
def _deepcopy_list(x, memo, deepcopy=deepcopy):
y = []
memo[id(x)] = y
append = y.append
for a in x:
append(deepcopy(a, memo))
return y
d[list] = _deepcopy_list
def _deepcopy_tuple(x, memo, deepcopy=deepcopy):
y = [deepcopy(a, memo) for a in x]
# We're not going to put the tuple in the memo, but it's still important we
# check for it, in case the tuple contains recursive mutable structures.
try:
return memo[id(x)]
except KeyError:
pass
for k, j in zip(x, y):
if k is not j:
y = tuple(y)
break
else:
y = x
return y
d[tuple] = _deepcopy_tuple
def _deepcopy_dict(x, memo, deepcopy=deepcopy):
y = {}
memo[id(x)] = y
for key, value in x.items():
y[deepcopy(key, memo)] = deepcopy(value, memo)
return y
d[dict] = _deepcopy_dict
if PyStringMap is not None:
d[PyStringMap] = _deepcopy_dict
def _deepcopy_method(x, memo): # Copy instance methods
return type(x)(x.__func__, deepcopy(x.__self__, memo))
d[types.MethodType] = _deepcopy_method
del d
def _keep_alive(x, memo):
"""Keeps a reference to the object x in the memo.
Because we remember objects by their id, we have
to assure that possibly temporary objects are kept
alive by referencing them.
We store a reference at the id of the memo, which should
normally not be used unless someone tries to deepcopy
the memo itself...
"""
try:
memo[id(memo)].append(x)
except KeyError:
# aha, this is the first one :-)
memo[id(memo)]=[x]
def _reconstruct(x, memo, func, args,
state=None, listiter=None, dictiter=None,
deepcopy=deepcopy):
deep = memo is not None
if deep and args:
args = (deepcopy(arg, memo) for arg in args)
y = func(*args)
if deep:
memo[id(x)] = y
if state is not None:
if deep:
state = deepcopy(state, memo)
if hasattr(y, '__setstate__'):
y.__setstate__(state)
else:
if isinstance(state, tuple) and len(state) == 2:
state, slotstate = state
else:
slotstate = None
if state is not None:
y.__dict__.update(state)
if slotstate is not None:
for key, value in slotstate.items():
setattr(y, key, value)
if listiter is not None:
if deep:
for item in listiter:
item = deepcopy(item, memo)
y.append(item)
else:
for item in listiter:
y.append(item)
if dictiter is not None:
if deep:
for key, value in dictiter:
key = deepcopy(key, memo)
value = deepcopy(value, memo)
y[key] = value
else:
for key, value in dictiter:
y[key] = value
return y
del types, weakref, PyStringMap
Raw
Frikr_Lib_copyreg.py
"""Helper to provide extensibility for pickle.
This is only useful to add pickle support for extension types defined in
C, not for instances of user-defined classes.
"""
__all__ = ["pickle", "constructor",
"add_extension", "remove_extension", "clear_extension_cache"]
dispatch_table = {}
def pickle(ob_type, pickle_function, constructor_ob=None):
if not callable(pickle_function):
raise TypeError("reduction functions must be callable")
dispatch_table[ob_type] = pickle_function
# The constructor_ob function is a vestige of safe for unpickling.
# There is no reason for the caller to pass it anymore.
if constructor_ob is not None:
constructor(constructor_ob)
def constructor(object):
if not callable(object):
raise TypeError("constructors must be callable")
# Example: provide pickling support for complex numbers.
try:
complex
except NameError:
pass
else:
def pickle_complex(c):
return complex, (c.real, c.imag)
pickle(complex, pickle_complex, complex)
# Support for pickling new-style objects
def _reconstructor(cls, base, state):
if base is object:
obj = object.__new__(cls)
else:
obj = base.__new__(cls, state)
if base.__init__ != object.__init__:
base.__init__(obj, state)
return obj
_HEAPTYPE = 1<<9
# Python code for object.__reduce_ex__ for protocols 0 and 1
def _reduce_ex(self, proto):
assert proto < 2
for base in self.__class__.__mro__:
if hasattr(base, '__flags__') and not base.__flags__ & _HEAPTYPE:
break
else:
base = object # not really reachable
if base is object:
state = None
else:
if base is self.__class__:
raise TypeError("can't pickle %s objects" % base.__name__)
state = base(self)
args = (self.__class__, base, state)
try:
getstate = self.__getstate__
except AttributeError:
if getattr(self, "__slots__", None):
raise TypeError("a class that defines __slots__ without "
"defining __getstate__ cannot be pickled")
try:
dict = self.__dict__
except AttributeError:
dict = None
else:
dict = getstate()
if dict:
return _reconstructor, args, dict
else:
return _reconstructor, args
# Helper for __reduce_ex__ protocol 2
def __newobj__(cls, *args):
return cls.__new__(cls, *args)
def __newobj_ex__(cls, args, kwargs):
"""Used by pickle protocol 4, instead of __newobj__ to allow classes with
keyword-only arguments to be pickled correctly.
"""
return cls.__new__(cls, *args, **kwargs)
def _slotnames(cls):
"""Return a list of slot names for a given class.
This needs to find slots defined by the class and its bases, so we
can't simply return the __slots__ attribute. We must walk down
the Method Resolution Order and concatenate the __slots__ of each
class found there. (This assumes classes don't modify their
__slots__ attribute to misrepresent their slots after the class is
defined.)
"""
# Get the value from a cache in the class if possible
names = cls.__dict__.get("__slotnames__")
if names is not None:
return names
# Not cached -- calculate the value
names = []
if not hasattr(cls, "__slots__"):
# This class has no slots
pass
else:
# Slots found -- gather slot names from all base classes
for c in cls.__mro__:
if "__slots__" in c.__dict__:
slots = c.__dict__['__slots__']
# if class has a single slot, it can be given as a string
if isinstance(slots, str):
slots = (slots,)
for name in slots:
# special descriptors
if name in ("__dict__", "__weakref__"):
continue
# mangled names
elif name.startswith('__') and not name.endswith('__'):
names.append('_%s%s' % (c.__name__, name))
else:
names.append(name)
# Cache the outcome in the class if at all possible
try:
cls.__slotnames__ = names
except:
pass # But don't die if we can't
return names
# A registry of extension codes. This is an ad-hoc compression
# mechanism. Whenever a global reference to <module>, <name> is about
# to be pickled, the (<module>, <name>) tuple is looked up here to see
# if it is a registered extension code for it. Extension codes are
# universal, so that the meaning of a pickle does not depend on
# context. (There are also some codes reserved for local use that
# don't have this restriction.) Codes are positive ints; 0 is
# reserved.
_extension_registry = {} # key -> code
_inverted_registry = {} # code -> key
_extension_cache = {} # code -> object
# Don't ever rebind those names: pickling grabs a reference to them when
# it's initialized, and won't see a rebinding.
def add_extension(module, name, code):
"""Register an extension code."""
code = int(code)
if not 1 <= code <= 0x7fffffff:
raise ValueError("code out of range")
key = (module, name)
if (_extension_registry.get(key) == code and
_inverted_registry.get(code) == key):
return # Redundant registrations are benign
if key in _extension_registry:
raise ValueError("key %s is already registered with code %s" %
(key, _extension_registry[key]))
if code in _inverted_registry:
raise ValueError("code %s is already in use for key %s" %
(code, _inverted_registry[code]))
_extension_registry[key] = code
_inverted_registry[code] = key
def remove_extension(module, name, code):
"""Unregister an extension code. For testing only."""
key = (module, name)
if (_extension_registry.get(key) != code or
_inverted_registry.get(code) != key):
raise ValueError("key %s is not registered with code %s" %
(key, code))
del _extension_registry[key]
del _inverted_registry[code]
if code in _extension_cache:
del _extension_cache[code]
def clear_extension_cache():
_extension_cache.clear()
# Standard extension code assignments
# Reserved ranges
# First Last Count Purpose
# 1 127 127 Reserved for Python standard library
# 128 191 64 Reserved for Zope
# 192 239 48 Reserved for 3rd parties
# 240 255 16 Reserved for private use (will never be assigned)
# 256 Inf Inf Reserved for future assignment
# Extension codes are assigned by the Python Software Foundation.
Raw
Frikr_Lib_distutils___init__.py
import os
import sys
import warnings
import imp
import opcode # opcode is not a virtualenv module, so we can use it to find the stdlib
# Important! To work on pypy, this must be a module that resides in the
# lib-python/modified-x.y.z directory
dirname = os.path.dirname
distutils_path = os.path.join(os.path.dirname(opcode.__file__), 'distutils')
if os.path.normpath(distutils_path) == os.path.dirname(os.path.normpath(__file__)):
warnings.warn(
"The virtualenv distutils package at %s appears to be in the same location as the system distutils?")
else:
__path__.insert(0, distutils_path)
real_distutils = imp.load_module("_virtualenv_distutils", None, distutils_path, ('', '', imp.PKG_DIRECTORY))
# Copy the relevant attributes
try:
__revision__ = real_distutils.__revision__
except AttributeError:
pass
__version__ = real_distutils.__version__
from distutils import dist, sysconfig
try:
basestring
except NameError:
basestring = str
## patch build_ext (distutils doesn't know how to get the libs directory
## path on windows - it hardcodes the paths around the patched sys.prefix)
if sys.platform == 'win32':
from distutils.command.build_ext import build_ext as old_build_ext
class build_ext(old_build_ext):
def finalize_options (self):
if self.library_dirs is None:
self.library_dirs = []
elif isinstance(self.library_dirs, basestring):
self.library_dirs = self.library_dirs.split(os.pathsep)
self.library_dirs.insert(0, os.path.join(sys.real_prefix, "Libs"))
old_build_ext.finalize_options(self)
from distutils.command import build_ext as build_ext_module
build_ext_module.build_ext = build_ext
## distutils.dist patches:
old_find_config_files = dist.Distribution.find_config_files
def find_config_files(self):
found = old_find_config_files(self)
system_distutils = os.path.join(distutils_path, 'distutils.cfg')
#if os.path.exists(system_distutils):
# found.insert(0, system_distutils)
# What to call the per-user config file
if os.name == 'posix':
user_filename = ".pydistutils.cfg"
else:
user_filename = "pydistutils.cfg"
user_filename = os.path.join(sys.prefix, user_filename)
if os.path.isfile(user_filename):
for item in list(found):
if item.endswith('pydistutils.cfg'):
found.remove(item)
found.append(user_filename)
return found
dist.Distribution.find_config_files = find_config_files
## distutils.sysconfig patches:
old_get_python_inc = sysconfig.get_python_inc
def sysconfig_get_python_inc(plat_specific=0, prefix=None):
if prefix is None:
prefix = sys.real_prefix
return old_get_python_inc(plat_specific, prefix)
sysconfig_get_python_inc.__doc__ = old_get_python_inc.__doc__
sysconfig.get_python_inc = sysconfig_get_python_inc
old_get_python_lib = sysconfig.get_python_lib
def sysconfig_get_python_lib(plat_specific=0, standard_lib=0, prefix=None):
if standard_lib and prefix is None:
prefix = sys.real_prefix
return old_get_python_lib(plat_specific, standard_lib, prefix)
sysconfig_get_python_lib.__doc__ = old_get_python_lib.__doc__
sysconfig.get_python_lib = sysconfig_get_python_lib
old_get_config_vars = sysconfig.get_config_vars
def sysconfig_get_config_vars(*args):
real_vars = old_get_config_vars(*args)
if sys.platform == 'win32':
lib_dir = os.path.join(sys.real_prefix, "libs")
if isinstance(real_vars, dict) and 'LIBDIR' not in real_vars:
real_vars['LIBDIR'] = lib_dir # asked for all
elif isinstance(real_vars, list) and 'LIBDIR' in args:
real_vars = real_vars + [lib_dir] # asked for list
return real_vars
sysconfig_get_config_vars.__doc__ = old_get_config_vars.__doc__
sysconfig.get_config_vars = sysconfig_get_config_vars
Raw
Frikr_Lib_distutils_distutils.cfg
# This is a config file local to this virtualenv installation
# You may include options that will be used by all distutils commands,
# and by easy_install. For instance:
#
# [easy_install]
# find_links = http://mylocalsite
Raw
Frikr_Lib_encodings___init__.py
""" Standard "encodings" Package
Standard Python encoding modules are stored in this package
directory.
Codec modules must have names corresponding to normalized encoding
names as defined in the normalize_encoding() function below, e.g.
'utf-8' must be implemented by the module 'utf_8.py'.
Each codec module must export the following interface:
* getregentry() -> codecs.CodecInfo object
The getregentry() API must return a CodecInfo object with encoder, decoder,
incrementalencoder, incrementaldecoder, streamwriter and streamreader
atttributes which adhere to the Python Codec Interface Standard.
In addition, a module may optionally also define the following
APIs which are then used by the package's codec search function:
* getaliases() -> sequence of encoding name strings to use as aliases
Alias names returned by getaliases() must be normalized encoding
names as defined by normalize_encoding().
Written by Marc-Andre Lemburg (mal@lemburg.com).
(c) Copyright CNRI, All Rights Reserved. NO WARRANTY.
"""#"
import codecs
import sys
from . import aliases
_cache = {}
_unknown = '--unknown--'
_import_tail = ['*']
_aliases = aliases.aliases
class CodecRegistryError(LookupError, SystemError):
pass
def normalize_encoding(encoding):
""" Normalize an encoding name.
Normalization works as follows: all non-alphanumeric
characters except the dot used for Python package names are
collapsed and replaced with a single underscore, e.g. ' -;#'
becomes '_'. Leading and trailing underscores are removed.
Note that encoding names should be ASCII only; if they do use
non-ASCII characters, these must be Latin-1 compatible.
"""
if isinstance(encoding, bytes):
encoding = str(encoding, "ascii")
chars = []
punct = False
for c in encoding:
if c.isalnum() or c == '.':
if punct and chars:
chars.append('_')
chars.append(c)
punct = False
else:
punct = True
return ''.join(chars)
def search_function(encoding):
# Cache lookup
entry = _cache.get(encoding, _unknown)
if entry is not _unknown:
return entry
# Import the module:
#
# First try to find an alias for the normalized encoding
# name and lookup the module using the aliased name, then try to
# lookup the module using the standard import scheme, i.e. first
# try in the encodings package, then at top-level.
#
norm_encoding = normalize_encoding(encoding)
aliased_encoding = _aliases.get(norm_encoding) or \
_aliases.get(norm_encoding.replace('.', '_'))
if aliased_encoding is not None:
modnames = [aliased_encoding,
norm_encoding]
else:
modnames = [norm_encoding]
for modname in modnames:
if not modname or '.' in modname:
continue
try:
# Import is absolute to prevent the possibly malicious import of a
# module with side-effects that is not in the 'encodings' package.
mod = __import__('encodings.' + modname, fromlist=_import_tail,
level=0)
except ImportError:
# ImportError may occur because 'encodings.(modname)' does not exist,
# or because it imports a name that does not exist (see mbcs and oem)
pass
else:
break
else:
mod = None
try:
getregentry = mod.getregentry
except AttributeError:
# Not a codec module
mod = None
if mod is None:
# Cache misses
_cache[encoding] = None
return None
# Now ask the module for the registry entry
entry = getregentry()
if not isinstance(entry, codecs.CodecInfo):
if not 4 <= len(entry) <= 7:
raise CodecRegistryError('module "%s" (%s) failed to register'
% (mod.__name__, mod.__file__))
if not callable(entry[0]) or not callable(entry[1]) or \
(entry[2] is not None and not callable(entry[2])) or \
(entry[3] is not None and not callable(entry[3])) or \
(len(entry) > 4 and entry[4] is not None and not callable(entry[4])) or \
(len(entry) > 5 and entry[5] is not None and not callable(entry[5])):
raise CodecRegistryError('incompatible codecs in module "%s" (%s)'
% (mod.__name__, mod.__file__))
if len(entry)<7 or entry[6] is None:
entry += (None,)*(6-len(entry)) + (mod.__name__.split(".", 1)[1],)
entry = codecs.CodecInfo(*entry)
# Cache the codec registry entry
_cache[encoding] = entry
# Register its aliases (without overwriting previously registered
# aliases)
try:
codecaliases = mod.getaliases()
except AttributeError:
pass
else:
for alias in codecaliases:
if alias not in _aliases:
_aliases[alias] = modname
# Return the registry entry
return entry
# Register the search_function in the Python codec registry
codecs.register(search_function)
if sys.platform == 'win32':
def _alias_mbcs(encoding):
try:
import _bootlocale
if encoding == _bootlocale.getpreferredencoding(False):
import encodings.mbcs
return encodings.mbcs.getregentry()
except ImportError:
# Imports may fail while we are shutting down
pass
codecs.register(_alias_mbcs)
Raw
Frikr_Lib_encodings_aliases.py
""" Encoding Aliases Support
This module is used by the encodings package search function to
map encodings names to module names.
Note that the search function normalizes the encoding names before
doing the lookup, so the mapping will have to map normalized
encoding names to module names.
Contents:
The following aliases dictionary contains mappings of all IANA
character set names for which the Python core library provides
codecs. In addition to these, a few Python specific codec
aliases have also been added.
"""
aliases = {
# Please keep this list sorted alphabetically by value !
# ascii codec
'646' : 'ascii',
'ansi_x3.4_1968' : 'ascii',
'ansi_x3_4_1968' : 'ascii', # some email headers use this non-standard name
'ansi_x3.4_1986' : 'ascii',
'cp367' : 'ascii',
'csascii' : 'ascii',
'ibm367' : 'ascii',
'iso646_us' : 'ascii',
'iso_646.irv_1991' : 'ascii',
'iso_ir_6' : 'ascii',
'us' : 'ascii',
'us_ascii' : 'ascii',
# base64_codec codec
'base64' : 'base64_codec',
'base_64' : 'base64_codec',
# big5 codec
'big5_tw' : 'big5',
'csbig5' : 'big5',
# big5hkscs codec
'big5_hkscs' : 'big5hkscs',
'hkscs' : 'big5hkscs',
# bz2_codec codec
'bz2' : 'bz2_codec',
# cp037 codec
'037' : 'cp037',
'csibm037' : 'cp037',
'ebcdic_cp_ca' : 'cp037',
'ebcdic_cp_nl' : 'cp037',
'ebcdic_cp_us' : 'cp037',
'ebcdic_cp_wt' : 'cp037',
'ibm037' : 'cp037',
'ibm039' : 'cp037',
# cp1026 codec
'1026' : 'cp1026',
'csibm1026' : 'cp1026',
'ibm1026' : 'cp1026',
# cp1125 codec
'1125' : 'cp1125',
'ibm1125' : 'cp1125',
'cp866u' : 'cp1125',
'ruscii' : 'cp1125',
# cp1140 codec
'1140' : 'cp1140',
'ibm1140' : 'cp1140',
# cp1250 codec
'1250' : 'cp1250',
'windows_1250' : 'cp1250',
# cp1251 codec
'1251' : 'cp1251',
'windows_1251' : 'cp1251',
# cp1252 codec
'1252' : 'cp1252',
'windows_1252' : 'cp1252',
# cp1253 codec
'1253' : 'cp1253',
'windows_1253' : 'cp1253',
# cp1254 codec
'1254' : 'cp1254',
'windows_1254' : 'cp1254',
# cp1255 codec
'1255' : 'cp1255',
'windows_1255' : 'cp1255',
# cp1256 codec
'1256' : 'cp1256',
'windows_1256' : 'cp1256',
# cp1257 codec
'1257' : 'cp1257',
'windows_1257' : 'cp1257',
# cp1258 codec
'1258' : 'cp1258',
'windows_1258' : 'cp1258',
# cp273 codec
'273' : 'cp273',
'ibm273' : 'cp273',
'csibm273' : 'cp273',
# cp424 codec
'424' : 'cp424',
'csibm424' : 'cp424',
'ebcdic_cp_he' : 'cp424',
'ibm424' : 'cp424',
# cp437 codec
'437' : 'cp437',
'cspc8codepage437' : 'cp437',
'ibm437' : 'cp437',
# cp500 codec
'500' : 'cp500',
'csibm500' : 'cp500',
'ebcdic_cp_be' : 'cp500',
'ebcdic_cp_ch' : 'cp500',
'ibm500' : 'cp500',
# cp775 codec
'775' : 'cp775',
'cspc775baltic' : 'cp775',
'ibm775' : 'cp775',
# cp850 codec
'850' : 'cp850',
'cspc850multilingual' : 'cp850',
'ibm850' : 'cp850',
# cp852 codec
'852' : 'cp852',
'cspcp852' : 'cp852',
'ibm852' : 'cp852',
# cp855 codec
'855' : 'cp855',
'csibm855' : 'cp855',
'ibm855' : 'cp855',
# cp857 codec
'857' : 'cp857',
'csibm857' : 'cp857',
'ibm857' : 'cp857',
# cp858 codec
'858' : 'cp858',
'csibm858' : 'cp858',
'ibm858' : 'cp858',
# cp860 codec
'860' : 'cp860',
'csibm860' : 'cp860',
'ibm860' : 'cp860',
# cp861 codec
'861' : 'cp861',
'cp_is' : 'cp861',
'csibm861' : 'cp861',
'ibm861' : 'cp861',
# cp862 codec
'862' : 'cp862',
'cspc862latinhebrew' : 'cp862',
'ibm862' : 'cp862',
# cp863 codec
'863' : 'cp863',
'csibm863' : 'cp863',
'ibm863' : 'cp863',
# cp864 codec
'864' : 'cp864',
'csibm864' : 'cp864',
'ibm864' : 'cp864',
# cp865 codec
'865' : 'cp865',
'csibm865' : 'cp865',
'ibm865' : 'cp865',
# cp866 codec
'866' : 'cp866',
'csibm866' : 'cp866',
'ibm866' : 'cp866',
# cp869 codec
'869' : 'cp869',
'cp_gr' : 'cp869',
'csibm869' : 'cp869',
'ibm869' : 'cp869',
# cp932 codec
'932' : 'cp932',
'ms932' : 'cp932',
'mskanji' : 'cp932',
'ms_kanji' : 'cp932',
# cp949 codec
'949' : 'cp949',
'ms949' : 'cp949',
'uhc' : 'cp949',
# cp950 codec
'950' : 'cp950',
'ms950' : 'cp950',
# euc_jis_2004 codec
'jisx0213' : 'euc_jis_2004',
'eucjis2004' : 'euc_jis_2004',
'euc_jis2004' : 'euc_jis_2004',
# euc_jisx0213 codec
'eucjisx0213' : 'euc_jisx0213',
# euc_jp codec
'eucjp' : 'euc_jp',
'ujis' : 'euc_jp',
'u_jis' : 'euc_jp',
# euc_kr codec
'euckr' : 'euc_kr',
'korean' : 'euc_kr',
'ksc5601' : 'euc_kr',
'ks_c_5601' : 'euc_kr',
'ks_c_5601_1987' : 'euc_kr',
'ksx1001' : 'euc_kr',
'ks_x_1001' : 'euc_kr',
# gb18030 codec
'gb18030_2000' : 'gb18030',
# gb2312 codec
'chinese' : 'gb2312',
'csiso58gb231280' : 'gb2312',
'euc_cn' : 'gb2312',
'euccn' : 'gb2312',
'eucgb2312_cn' : 'gb2312',
'gb2312_1980' : 'gb2312',
'gb2312_80' : 'gb2312',
'iso_ir_58' : 'gb2312',
# gbk codec
'936' : 'gbk',
'cp936' : 'gbk',
'ms936' : 'gbk',
# hex_codec codec
'hex' : 'hex_codec',
# hp_roman8 codec
'roman8' : 'hp_roman8',
'r8' : 'hp_roman8',
'csHPRoman8' : 'hp_roman8',
# hz codec
'hzgb' : 'hz',
'hz_gb' : 'hz',
'hz_gb_2312' : 'hz',
# iso2022_jp codec
'csiso2022jp' : 'iso2022_jp',
'iso2022jp' : 'iso2022_jp',
'iso_2022_jp' : 'iso2022_jp',
# iso2022_jp_1 codec
'iso2022jp_1' : 'iso2022_jp_1',
'iso_2022_jp_1' : 'iso2022_jp_1',
# iso2022_jp_2 codec
'iso2022jp_2' : 'iso2022_jp_2',
'iso_2022_jp_2' : 'iso2022_jp_2',
# iso2022_jp_2004 codec
'iso_2022_jp_2004' : 'iso2022_jp_2004',
'iso2022jp_2004' : 'iso2022_jp_2004',
# iso2022_jp_3 codec
'iso2022jp_3' : 'iso2022_jp_3',
'iso_2022_jp_3' : 'iso2022_jp_3',
# iso2022_jp_ext codec
'iso2022jp_ext' : 'iso2022_jp_ext',
'iso_2022_jp_ext' : 'iso2022_jp_ext',
# iso2022_kr codec
'csiso2022kr' : 'iso2022_kr',
'iso2022kr' : 'iso2022_kr',
'iso_2022_kr' : 'iso2022_kr',
# iso8859_10 codec
'csisolatin6' : 'iso8859_10',
'iso_8859_10' : 'iso8859_10',
'iso_8859_10_1992' : 'iso8859_10',
'iso_ir_157' : 'iso8859_10',
'l6' : 'iso8859_10',
'latin6' : 'iso8859_10',
# iso8859_11 codec
'thai' : 'iso8859_11',
'iso_8859_11' : 'iso8859_11',
'iso_8859_11_2001' : 'iso8859_11',
# iso8859_13 codec
'iso_8859_13' : 'iso8859_13',
'l7' : 'iso8859_13',
'latin7' : 'iso8859_13',
# iso8859_14 codec
'iso_8859_14' : 'iso8859_14',
'iso_8859_14_1998' : 'iso8859_14',
'iso_celtic' : 'iso8859_14',
'iso_ir_199' : 'iso8859_14',
'l8' : 'iso8859_14',
'latin8' : 'iso8859_14',
# iso8859_15 codec
'iso_8859_15' : 'iso8859_15',
'l9' : 'iso8859_15',
'latin9' : 'iso8859_15',
# iso8859_16 codec
'iso_8859_16' : 'iso8859_16',
'iso_8859_16_2001' : 'iso8859_16',
'iso_ir_226' : 'iso8859_16',
'l10' : 'iso8859_16',
'latin10' : 'iso8859_16',
# iso8859_2 codec
'csisolatin2' : 'iso8859_2',
'iso_8859_2' : 'iso8859_2',
'iso_8859_2_1987' : 'iso8859_2',
'iso_ir_101' : 'iso8859_2',
'l2' : 'iso8859_2',
'latin2' : 'iso8859_2',
# iso8859_3 codec
'csisolatin3' : 'iso8859_3',
'iso_8859_3' : 'iso8859_3',
'iso_8859_3_1988' : 'iso8859_3',
'iso_ir_109' : 'iso8859_3',
'l3' : 'iso8859_3',
'latin3' : 'iso8859_3',
# iso8859_4 codec
'csisolatin4' : 'iso8859_4',
'iso_8859_4' : 'iso8859_4',
'iso_8859_4_1988' : 'iso8859_4',
'iso_ir_110' : 'iso8859_4',
'l4' : 'iso8859_4',
'latin4' : 'iso8859_4',
# iso8859_5 codec
'csisolatincyrillic' : 'iso8859_5',
'cyrillic' : 'iso8859_5',
'iso_8859_5' : 'iso8859_5',
'iso_8859_5_1988' : 'iso8859_5',
'iso_ir_144' : 'iso8859_5',
# iso8859_6 codec
'arabic' : 'iso8859_6',
'asmo_708' : 'iso8859_6',
'csisolatinarabic' : 'iso8859_6',
'ecma_114' : 'iso8859_6',
'iso_8859_6' : 'iso8859_6',
'iso_8859_6_1987' : 'iso8859_6',
'iso_ir_127' : 'iso8859_6',
# iso8859_7 codec
'csisolatingreek' : 'iso8859_7',
'ecma_118' : 'iso8859_7',
'elot_928' : 'iso8859_7',
'greek' : 'iso8859_7',
'greek8' : 'iso8859_7',
'iso_8859_7' : 'iso8859_7',
'iso_8859_7_1987' : 'iso8859_7',
'iso_ir_126' : 'iso8859_7',
# iso8859_8 codec
'csisolatinhebrew' : 'iso8859_8',
'hebrew' : 'iso8859_8',
'iso_8859_8' : 'iso8859_8',
'iso_8859_8_1988' : 'iso8859_8',
'iso_ir_138' : 'iso8859_8',
# iso8859_9 codec
'csisolatin5' : 'iso8859_9',
'iso_8859_9' : 'iso8859_9',
'iso_8859_9_1989' : 'iso8859_9',
'iso_ir_148' : 'iso8859_9',
'l5' : 'iso8859_9',
'latin5' : 'iso8859_9',
# johab codec
'cp1361' : 'johab',
'ms1361' : 'johab',
# koi8_r codec
'cskoi8r' : 'koi8_r',
# kz1048 codec
'kz_1048' : 'kz1048',
'rk1048' : 'kz1048',
'strk1048_2002' : 'kz1048',
# latin_1 codec
#
# Note that the latin_1 codec is implemented internally in C and a
# lot faster than the charmap codec iso8859_1 which uses the same
# encoding. This is why we discourage the use of the iso8859_1
# codec and alias it to latin_1 instead.
#
'8859' : 'latin_1',
'cp819' : 'latin_1',
'csisolatin1' : 'latin_1',
'ibm819' : 'latin_1',
'iso8859' : 'latin_1',
'iso8859_1' : 'latin_1',
'iso_8859_1' : 'latin_1',
'iso_8859_1_1987' : 'latin_1',
'iso_ir_100' : 'latin_1',
'l1' : 'latin_1',
'latin' : 'latin_1',
'latin1' : 'latin_1',
# mac_cyrillic codec
'maccyrillic' : 'mac_cyrillic',
# mac_greek codec
'macgreek' : 'mac_greek',
# mac_iceland codec
'maciceland' : 'mac_iceland',
# mac_latin2 codec
'maccentraleurope' : 'mac_latin2',
'maclatin2' : 'mac_latin2',
# mac_roman codec
'macintosh' : 'mac_roman',
'macroman' : 'mac_roman',
# mac_turkish codec
'macturkish' : 'mac_turkish',
# mbcs codec
'ansi' : 'mbcs',
'dbcs' : 'mbcs',
# ptcp154 codec
'csptcp154' : 'ptcp154',
'pt154' : 'ptcp154',
'cp154' : 'ptcp154',
'cyrillic_asian' : 'ptcp154',
# quopri_codec codec
'quopri' : 'quopri_codec',
'quoted_printable' : 'quopri_codec',
'quotedprintable' : 'quopri_codec',
# rot_13 codec
'rot13' : 'rot_13',
# shift_jis codec
'csshiftjis' : 'shift_jis',
'shiftjis' : 'shift_jis',
'sjis' : 'shift_jis',
's_jis' : 'shift_jis',
# shift_jis_2004 codec
'shiftjis2004' : 'shift_jis_2004',
'sjis_2004' : 'shift_jis_2004',
's_jis_2004' : 'shift_jis_2004',
# shift_jisx0213 codec
'shiftjisx0213' : 'shift_jisx0213',
'sjisx0213' : 'shift_jisx0213',
's_jisx0213' : 'shift_jisx0213',
# tactis codec
'tis260' : 'tactis',
# tis_620 codec
'tis620' : 'tis_620',
'tis_620_0' : 'tis_620',
'tis_620_2529_0' : 'tis_620',
'tis_620_2529_1' : 'tis_620',
'iso_ir_166' : 'tis_620',
# utf_16 codec
'u16' : 'utf_16',
'utf16' : 'utf_16',
# utf_16_be codec
'unicodebigunmarked' : 'utf_16_be',
'utf_16be' : 'utf_16_be',
# utf_16_le codec
'unicodelittleunmarked' : 'utf_16_le',
'utf_16le' : 'utf_16_le',
# utf_32 codec
'u32' : 'utf_32',
'utf32' : 'utf_32',
# utf_32_be codec
'utf_32be' : 'utf_32_be',
# utf_32_le codec
'utf_32le' : 'utf_32_le',
# utf_7 codec
'u7' : 'utf_7',
'utf7' : 'utf_7',
'unicode_1_1_utf_7' : 'utf_7',
# utf_8 codec
'u8' : 'utf_8',
'utf' : 'utf_8',
'utf8' : 'utf_8',
'utf8_ucs2' : 'utf_8',
'utf8_ucs4' : 'utf_8',
# uu_codec codec
'uu' : 'uu_codec',
# zlib_codec codec
'zip' : 'zlib_codec',
'zlib' : 'zlib_codec',
# temporary mac CJK aliases, will be replaced by proper codecs in 3.1
'x_mac_japanese' : 'shift_jis',
'x_mac_korean' : 'euc_kr',
'x_mac_simp_chinese' : 'gb2312',
'x_mac_trad_chinese' : 'big5',
}
Raw
Frikr_Lib_encodings_ascii.py
""" Python 'ascii' Codec
Written by Marc-Andre Lemburg (mal@lemburg.com).
(c) Copyright CNRI, All Rights Reserved. NO WARRANTY.
"""
import codecs
### Codec APIs
class Codec(codecs.Codec):
# Note: Binding these as C functions will result in the class not
# converting them to methods. This is intended.
encode = codecs.ascii_encode
decode = codecs.ascii_decode
class IncrementalEncoder(codecs.IncrementalEncoder):
def encode(self, input, final=False):
return codecs.ascii_encode(input, self.errors)[0]
class IncrementalDecoder(codecs.IncrementalDecoder):
def decode(self, input, final=False):
return codecs.ascii_decode(input, self.errors)[0]
class StreamWriter(Codec,codecs.StreamWriter):
pass
class StreamReader(Codec,codecs.StreamReader):
pass
class StreamConverter(StreamWriter,StreamReader):
encode = codecs.ascii_decode
decode = codecs.ascii_encode
### encodings module API
def getregentry():
return codecs.CodecInfo(
name='ascii',
encode=Codec.encode,
decode=Codec.decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamwriter=StreamWriter,
streamreader=StreamReader,
)
Raw
Frikr_Lib_encodings_base64_codec.py
"""Python 'base64_codec' Codec - base64 content transfer encoding.
This codec de/encodes from bytes to bytes.
Written by Marc-Andre Lemburg (mal@lemburg.com).
"""
import codecs
import base64
### Codec APIs
def base64_encode(input, errors='strict'):
assert errors == 'strict'
return (base64.encodebytes(input), len(input))
def base64_decode(input, errors='strict'):
assert errors == 'strict'
return (base64.decodebytes(input), len(input))
class Codec(codecs.Codec):
def encode(self, input, errors='strict'):
return base64_encode(input, errors)
def decode(self, input, errors='strict'):
return base64_decode(input, errors)
class IncrementalEncoder(codecs.IncrementalEncoder):
def encode(self, input, final=False):
assert self.errors == 'strict'
return base64.encodebytes(input)
class IncrementalDecoder(codecs.IncrementalDecoder):
def decode(self, input, final=False):
assert self.errors == 'strict'
return base64.decodebytes(input)
class StreamWriter(Codec, codecs.StreamWriter):
charbuffertype = bytes
class StreamReader(Codec, codecs.StreamReader):
charbuffertype = bytes
### encodings module API
def getregentry():
return codecs.CodecInfo(
name='base64',
encode=base64_encode,
decode=base64_decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamwriter=StreamWriter,
streamreader=StreamReader,
_is_text_encoding=False,
)
Raw
Frikr_Lib_encodings_big5.py
#
# big5.py: Python Unicode Codec for BIG5
#
# Written by Hye-Shik Chang <perky@FreeBSD.org>
#
import _codecs_tw, codecs
import _multibytecodec as mbc
codec = _codecs_tw.getcodec('big5')
class Codec(codecs.Codec):
encode = codec.encode
decode = codec.decode
class IncrementalEncoder(mbc.MultibyteIncrementalEncoder,
codecs.IncrementalEncoder):
codec = codec
class IncrementalDecoder(mbc.MultibyteIncrementalDecoder,
codecs.IncrementalDecoder):
codec = codec
class StreamReader(Codec, mbc.MultibyteStreamReader, codecs.StreamReader):
codec = codec
class StreamWriter(Codec, mbc.MultibyteStreamWriter, codecs.StreamWriter):
codec = codec
def getregentry():
return codecs.CodecInfo(
name='big5',
encode=Codec().encode,
decode=Codec().decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamreader=StreamReader,
streamwriter=StreamWriter,
)
Raw
Frikr_Lib_encodings_big5hkscs.py
#
# big5hkscs.py: Python Unicode Codec for BIG5HKSCS
#
# Written by Hye-Shik Chang <perky@FreeBSD.org>
#
import _codecs_hk, codecs
import _multibytecodec as mbc
codec = _codecs_hk.getcodec('big5hkscs')
class Codec(codecs.Codec):
encode = codec.encode
decode = codec.decode
class IncrementalEncoder(mbc.MultibyteIncrementalEncoder,
codecs.IncrementalEncoder):
codec = codec
class IncrementalDecoder(mbc.MultibyteIncrementalDecoder,
codecs.IncrementalDecoder):
codec = codec
class StreamReader(Codec, mbc.MultibyteStreamReader, codecs.StreamReader):
codec = codec
class StreamWriter(Codec, mbc.MultibyteStreamWriter, codecs.StreamWriter):
codec = codec
def getregentry():
return codecs.CodecInfo(
name='big5hkscs',
encode=Codec().encode,
decode=Codec().decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamreader=StreamReader,
streamwriter=StreamWriter,
)
Raw
Frikr_Lib_encodings_bz2_codec.py
"""Python 'bz2_codec' Codec - bz2 compression encoding.
This codec de/encodes from bytes to bytes and is therefore usable with
bytes.transform() and bytes.untransform().
Adapted by Raymond Hettinger from zlib_codec.py which was written
by Marc-Andre Lemburg (mal@lemburg.com).
"""
import codecs
import bz2 # this codec needs the optional bz2 module !
### Codec APIs
def bz2_encode(input, errors='strict'):
assert errors == 'strict'
return (bz2.compress(input), len(input))
def bz2_decode(input, errors='strict'):
assert errors == 'strict'
return (bz2.decompress(input), len(input))
class Codec(codecs.Codec):
def encode(self, input, errors='strict'):
return bz2_encode(input, errors)
def decode(self, input, errors='strict'):
return bz2_decode(input, errors)
class IncrementalEncoder(codecs.IncrementalEncoder):
def __init__(self, errors='strict'):
assert errors == 'strict'
self.errors = errors
self.compressobj = bz2.BZ2Compressor()
def encode(self, input, final=False):
if final:
c = self.compressobj.compress(input)
return c + self.compressobj.flush()
else:
return self.compressobj.compress(input)
def reset(self):
self.compressobj = bz2.BZ2Compressor()
class IncrementalDecoder(codecs.IncrementalDecoder):
def __init__(self, errors='strict'):
assert errors == 'strict'
self.errors = errors
self.decompressobj = bz2.BZ2Decompressor()
def decode(self, input, final=False):
try:
return self.decompressobj.decompress(input)
except EOFError:
return ''
def reset(self):
self.decompressobj = bz2.BZ2Decompressor()
class StreamWriter(Codec, codecs.StreamWriter):
charbuffertype = bytes
class StreamReader(Codec, codecs.StreamReader):
charbuffertype = bytes
### encodings module API
def getregentry():
return codecs.CodecInfo(
name="bz2",
encode=bz2_encode,
decode=bz2_decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamwriter=StreamWriter,
streamreader=StreamReader,
_is_text_encoding=False,
)
Raw
Frikr_Lib_encodings_charmap.py
""" Generic Python Character Mapping Codec.
Use this codec directly rather than through the automatic
conversion mechanisms supplied by unicode() and .encode().
Written by Marc-Andre Lemburg (mal@lemburg.com).
(c) Copyright CNRI, All Rights Reserved. NO WARRANTY.
"""#"
import codecs
### Codec APIs
class Codec(codecs.Codec):
# Note: Binding these as C functions will result in the class not
# converting them to methods. This is intended.
encode = codecs.charmap_encode
decode = codecs.charmap_decode
class IncrementalEncoder(codecs.IncrementalEncoder):
def __init__(self, errors='strict', mapping=None):
codecs.IncrementalEncoder.__init__(self, errors)
self.mapping = mapping
def encode(self, input, final=False):
return codecs.charmap_encode(input, self.errors, self.mapping)[0]
class IncrementalDecoder(codecs.IncrementalDecoder):
def __init__(self, errors='strict', mapping=None):
codecs.IncrementalDecoder.__init__(self, errors)
self.mapping = mapping
def decode(self, input, final=False):
return codecs.charmap_decode(input, self.errors, self.mapping)[0]
class StreamWriter(Codec,codecs.StreamWriter):
def __init__(self,stream,errors='strict',mapping=None):
codecs.StreamWriter.__init__(self,stream,errors)
self.mapping = mapping
def encode(self,input,errors='strict'):
return Codec.encode(input,errors,self.mapping)
class StreamReader(Codec,codecs.StreamReader):
def __init__(self,stream,errors='strict',mapping=None):
codecs.StreamReader.__init__(self,stream,errors)
self.mapping = mapping
def decode(self,input,errors='strict'):
return Codec.decode(input,errors,self.mapping)
### encodings module API
def getregentry():
return codecs.CodecInfo(
name='charmap',
encode=Codec.encode,
decode=Codec.decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamwriter=StreamWriter,
streamreader=StreamReader,
)
Raw
Frikr_Lib_encodings_cp037.py
""" Python Character Mapping Codec cp037 generated from 'MAPPINGS/VENDORS/MICSFT/EBCDIC/CP037.TXT' with gencodec.py.
"""#"
import codecs
### Codec APIs
class Codec(codecs.Codec):
def encode(self,input,errors='strict'):
return codecs.charmap_encode(input,errors,encoding_table)
def decode(self,input,errors='strict'):
return codecs.charmap_decode(input,errors,decoding_table)
class IncrementalEncoder(codecs.IncrementalEncoder):
def encode(self, input, final=False):
return codecs.charmap_encode(input,self.errors,encoding_table)[0]
class IncrementalDecoder(codecs.IncrementalDecoder):
def decode(self, input, final=False):
return codecs.charmap_decode(input,self.errors,decoding_table)[0]
class StreamWriter(Codec,codecs.StreamWriter):
pass
class StreamReader(Codec,codecs.StreamReader):
pass
### encodings module API
def getregentry():
return codecs.CodecInfo(
name='cp037',
encode=Codec().encode,
decode=Codec().decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamreader=StreamReader,
streamwriter=StreamWriter,
)
### Decoding Table
decoding_table = (
'\x00' # 0x00 -> NULL
'\x01' # 0x01 -> START OF HEADING
'\x02' # 0x02 -> START OF TEXT
'\x03' # 0x03 -> END OF TEXT
'\x9c' # 0x04 -> CONTROL
'\t' # 0x05 -> HORIZONTAL TABULATION
'\x86' # 0x06 -> CONTROL
'\x7f' # 0x07 -> DELETE
'\x97' # 0x08 -> CONTROL
'\x8d' # 0x09 -> CONTROL
'\x8e' # 0x0A -> CONTROL
'\x0b' # 0x0B -> VERTICAL TABULATION
'\x0c' # 0x0C -> FORM FEED
'\r' # 0x0D -> CARRIAGE RETURN
'\x0e' # 0x0E -> SHIFT OUT
'\x0f' # 0x0F -> SHIFT IN
'\x10' # 0x10 -> DATA LINK ESCAPE
'\x11' # 0x11 -> DEVICE CONTROL ONE
'\x12' # 0x12 -> DEVICE CONTROL TWO
'\x13' # 0x13 -> DEVICE CONTROL THREE
'\x9d' # 0x14 -> CONTROL
'\x85' # 0x15 -> CONTROL
'\x08' # 0x16 -> BACKSPACE
'\x87' # 0x17 -> CONTROL
'\x18' # 0x18 -> CANCEL
'\x19' # 0x19 -> END OF MEDIUM
'\x92' # 0x1A -> CONTROL
'\x8f' # 0x1B -> CONTROL
'\x1c' # 0x1C -> FILE SEPARATOR
'\x1d' # 0x1D -> GROUP SEPARATOR
'\x1e' # 0x1E -> RECORD SEPARATOR
'\x1f' # 0x1F -> UNIT SEPARATOR
'\x80' # 0x20 -> CONTROL
'\x81' # 0x21 -> CONTROL
'\x82' # 0x22 -> CONTROL
'\x83' # 0x23 -> CONTROL
'\x84' # 0x24 -> CONTROL
'\n' # 0x25 -> LINE FEED
'\x17' # 0x26 -> END OF TRANSMISSION BLOCK
'\x1b' # 0x27 -> ESCAPE
'\x88' # 0x28 -> CONTROL
'\x89' # 0x29 -> CONTROL
'\x8a' # 0x2A -> CONTROL
'\x8b' # 0x2B -> CONTROL
'\x8c' # 0x2C -> CONTROL
'\x05' # 0x2D -> ENQUIRY
'\x06' # 0x2E -> ACKNOWLEDGE
'\x07' # 0x2F -> BELL
'\x90' # 0x30 -> CONTROL
'\x91' # 0x31 -> CONTROL
'\x16' # 0x32 -> SYNCHRONOUS IDLE
'\x93' # 0x33 -> CONTROL
'\x94' # 0x34 -> CONTROL
'\x95' # 0x35 -> CONTROL
'\x96' # 0x36 -> CONTROL
'\x04' # 0x37 -> END OF TRANSMISSION
'\x98' # 0x38 -> CONTROL
'\x99' # 0x39 -> CONTROL
'\x9a' # 0x3A -> CONTROL
'\x9b' # 0x3B -> CONTROL
'\x14' # 0x3C -> DEVICE CONTROL FOUR
'\x15' # 0x3D -> NEGATIVE ACKNOWLEDGE
'\x9e' # 0x3E -> CONTROL
'\x1a' # 0x3F -> SUBSTITUTE
' ' # 0x40 -> SPACE
'\xa0' # 0x41 -> NO-BREAK SPACE
'\xe2' # 0x42 -> LATIN SMALL LETTER A WITH CIRCUMFLEX
'\xe4' # 0x43 -> LATIN SMALL LETTER A WITH DIAERESIS
'\xe0' # 0x44 -> LATIN SMALL LETTER A WITH GRAVE
'\xe1' # 0x45 -> LATIN SMALL LETTER A WITH ACUTE
'\xe3' # 0x46 -> LATIN SMALL LETTER A WITH TILDE
'\xe5' # 0x47 -> LATIN SMALL LETTER A WITH RING ABOVE
'\xe7' # 0x48 -> LATIN SMALL LETTER C WITH CEDILLA
'\xf1' # 0x49 -> LATIN SMALL LETTER N WITH TILDE
'\xa2' # 0x4A -> CENT SIGN
'.' # 0x4B -> FULL STOP
'<' # 0x4C -> LESS-THAN SIGN
'(' # 0x4D -> LEFT PARENTHESIS
'+' # 0x4E -> PLUS SIGN
'|' # 0x4F -> VERTICAL LINE
'&' # 0x50 -> AMPERSAND
'\xe9' # 0x51 -> LATIN SMALL LETTER E WITH ACUTE
'\xea' # 0x52 -> LATIN SMALL LETTER E WITH CIRCUMFLEX
'\xeb' # 0x53 -> LATIN SMALL LETTER E WITH DIAERESIS
'\xe8' # 0x54 -> LATIN SMALL LETTER E WITH GRAVE
'\xed' # 0x55 -> LATIN SMALL LETTER I WITH ACUTE
'\xee' # 0x56 -> LATIN SMALL LETTER I WITH CIRCUMFLEX
'\xef' # 0x57 -> LATIN SMALL LETTER I WITH DIAERESIS
'\xec' # 0x58 -> LATIN SMALL LETTER I WITH GRAVE
'\xdf' # 0x59 -> LATIN SMALL LETTER SHARP S (GERMAN)
'!' # 0x5A -> EXCLAMATION MARK
'$' # 0x5B -> DOLLAR SIGN
'*' # 0x5C -> ASTERISK
')' # 0x5D -> RIGHT PARENTHESIS
';' # 0x5E -> SEMICOLON
'\xac' # 0x5F -> NOT SIGN
'-' # 0x60 -> HYPHEN-MINUS
'/' # 0x61 -> SOLIDUS
'\xc2' # 0x62 -> LATIN CAPITAL LETTER A WITH CIRCUMFLEX
'\xc4' # 0x63 -> LATIN CAPITAL LETTER A WITH DIAERESIS
'\xc0' # 0x64 -> LATIN CAPITAL LETTER A WITH GRAVE
'\xc1' # 0x65 -> LATIN CAPITAL LETTER A WITH ACUTE
'\xc3' # 0x66 -> LATIN CAPITAL LETTER A WITH TILDE
'\xc5' # 0x67 -> LATIN CAPITAL LETTER A WITH RING ABOVE
'\xc7' # 0x68 -> LATIN CAPITAL LETTER C WITH CEDILLA
'\xd1' # 0x69 -> LATIN CAPITAL LETTER N WITH TILDE
'\xa6' # 0x6A -> BROKEN BAR
',' # 0x6B -> COMMA
'%' # 0x6C -> PERCENT SIGN
'_' # 0x6D -> LOW LINE
'>' # 0x6E -> GREATER-THAN SIGN
'?' # 0x6F -> QUESTION MARK
'\xf8' # 0x70 -> LATIN SMALL LETTER O WITH STROKE
'\xc9' # 0x71 -> LATIN CAPITAL LETTER E WITH ACUTE
'\xca' # 0x72 -> LATIN CAPITAL LETTER E WITH CIRCUMFLEX
'\xcb' # 0x73 -> LATIN CAPITAL LETTER E WITH DIAERESIS
'\xc8' # 0x74 -> LATIN CAPITAL LETTER E WITH GRAVE
'\xcd' # 0x75 -> LATIN CAPITAL LETTER I WITH ACUTE
'\xce' # 0x76 -> LATIN CAPITAL LETTER I WITH CIRCUMFLEX
'\xcf' # 0x77 -> LATIN CAPITAL LETTER I WITH DIAERESIS
'\xcc' # 0x78 -> LATIN CAPITAL LETTER I WITH GRAVE
'`' # 0x79 -> GRAVE ACCENT
':' # 0x7A -> COLON
'#' # 0x7B -> NUMBER SIGN
'@' # 0x7C -> COMMERCIAL AT
"'" # 0x7D -> APOSTROPHE
'=' # 0x7E -> EQUALS SIGN
'"' # 0x7F -> QUOTATION MARK
'\xd8' # 0x80 -> LATIN CAPITAL LETTER O WITH STROKE
'a' # 0x81 -> LATIN SMALL LETTER A
'b' # 0x82 -> LATIN SMALL LETTER B
'c' # 0x83 -> LATIN SMALL LETTER C
'd' # 0x84 -> LATIN SMALL LETTER D
'e' # 0x85 -> LATIN SMALL LETTER E
'f' # 0x86 -> LATIN SMALL LETTER F
'g' # 0x87 -> LATIN SMALL LETTER G
'h' # 0x88 -> LATIN SMALL LETTER H
'i' # 0x89 -> LATIN SMALL LETTER I
'\xab' # 0x8A -> LEFT-POINTING DOUBLE ANGLE QUOTATION MARK
'\xbb' # 0x8B -> RIGHT-POINTING DOUBLE ANGLE QUOTATION MARK
'\xf0' # 0x8C -> LATIN SMALL LETTER ETH (ICELANDIC)
'\xfd' # 0x8D -> LATIN SMALL LETTER Y WITH ACUTE
'\xfe' # 0x8E -> LATIN SMALL LETTER THORN (ICELANDIC)
'\xb1' # 0x8F -> PLUS-MINUS SIGN
'\xb0' # 0x90 -> DEGREE SIGN
'j' # 0x91 -> LATIN SMALL LETTER J
'k' # 0x92 -> LATIN SMALL LETTER K
'l' # 0x93 -> LATIN SMALL LETTER L
'm' # 0x94 -> LATIN SMALL LETTER M
'n' # 0x95 -> LATIN SMALL LETTER N
'o' # 0x96 -> LATIN SMALL LETTER O
'p' # 0x97 -> LATIN SMALL LETTER P
'q' # 0x98 -> LATIN SMALL LETTER Q
'r' # 0x99 -> LATIN SMALL LETTER R
'\xaa' # 0x9A -> FEMININE ORDINAL INDICATOR
'\xba' # 0x9B -> MASCULINE ORDINAL INDICATOR
'\xe6' # 0x9C -> LATIN SMALL LIGATURE AE
'\xb8' # 0x9D -> CEDILLA
'\xc6' # 0x9E -> LATIN CAPITAL LIGATURE AE
'\xa4' # 0x9F -> CURRENCY SIGN
'\xb5' # 0xA0 -> MICRO SIGN
'~' # 0xA1 -> TILDE
's' # 0xA2 -> LATIN SMALL LETTER S
't' # 0xA3 -> LATIN SMALL LETTER T
'u' # 0xA4 -> LATIN SMALL LETTER U
'v' # 0xA5 -> LATIN SMALL LETTER V
'w' # 0xA6 -> LATIN SMALL LETTER W
'x' # 0xA7 -> LATIN SMALL LETTER X
'y' # 0xA8 -> LATIN SMALL LETTER Y
'z' # 0xA9 -> LATIN SMALL LETTER Z
'\xa1' # 0xAA -> INVERTED EXCLAMATION MARK
'\xbf' # 0xAB -> INVERTED QUESTION MARK
'\xd0' # 0xAC -> LATIN CAPITAL LETTER ETH (ICELANDIC)
'\xdd' # 0xAD -> LATIN CAPITAL LETTER Y WITH ACUTE
'\xde' # 0xAE -> LATIN CAPITAL LETTER THORN (ICELANDIC)
'\xae' # 0xAF -> REGISTERED SIGN
'^' # 0xB0 -> CIRCUMFLEX ACCENT
'\xa3' # 0xB1 -> POUND SIGN
'\xa5' # 0xB2 -> YEN SIGN
'\xb7' # 0xB3 -> MIDDLE DOT
'\xa9' # 0xB4 -> COPYRIGHT SIGN
'\xa7' # 0xB5 -> SECTION SIGN
'\xb6' # 0xB6 -> PILCROW SIGN
'\xbc' # 0xB7 -> VULGAR FRACTION ONE QUARTER
'\xbd' # 0xB8 -> VULGAR FRACTION ONE HALF
'\xbe' # 0xB9 -> VULGAR FRACTION THREE QUARTERS
'[' # 0xBA -> LEFT SQUARE BRACKET
']' # 0xBB -> RIGHT SQUARE BRACKET
'\xaf' # 0xBC -> MACRON
'\xa8' # 0xBD -> DIAERESIS
'\xb4' # 0xBE -> ACUTE ACCENT
'\xd7' # 0xBF -> MULTIPLICATION SIGN
'{' # 0xC0 -> LEFT CURLY BRACKET
'A' # 0xC1 -> LATIN CAPITAL LETTER A
'B' # 0xC2 -> LATIN CAPITAL LETTER B
'C' # 0xC3 -> LATIN CAPITAL LETTER C
'D' # 0xC4 -> LATIN CAPITAL LETTER D
'E' # 0xC5 -> LATIN CAPITAL LETTER E
'F' # 0xC6 -> LATIN CAPITAL LETTER F
'G' # 0xC7 -> LATIN CAPITAL LETTER G
'H' # 0xC8 -> LATIN CAPITAL LETTER H
'I' # 0xC9 -> LATIN CAPITAL LETTER I
'\xad' # 0xCA -> SOFT HYPHEN
'\xf4' # 0xCB -> LATIN SMALL LETTER O WITH CIRCUMFLEX
'\xf6' # 0xCC -> LATIN SMALL LETTER O WITH DIAERESIS
'\xf2' # 0xCD -> LATIN SMALL LETTER O WITH GRAVE
'\xf3' # 0xCE -> LATIN SMALL LETTER O WITH ACUTE
'\xf5' # 0xCF -> LATIN SMALL LETTER O WITH TILDE
'}' # 0xD0 -> RIGHT CURLY BRACKET
'J' # 0xD1 -> LATIN CAPITAL LETTER J
'K' # 0xD2 -> LATIN CAPITAL LETTER K
'L' # 0xD3 -> LATIN CAPITAL LETTER L
'M' # 0xD4 -> LATIN CAPITAL LETTER M
'N' # 0xD5 -> LATIN CAPITAL LETTER N
'O' # 0xD6 -> LATIN CAPITAL LETTER O
'P' # 0xD7 -> LATIN CAPITAL LETTER P
'Q' # 0xD8 -> LATIN CAPITAL LETTER Q
'R' # 0xD9 -> LATIN CAPITAL LETTER R
'\xb9' # 0xDA -> SUPERSCRIPT ONE
'\xfb' # 0xDB -> LATIN SMALL LETTER U WITH CIRCUMFLEX
'\xfc' # 0xDC -> LATIN SMALL LETTER U WITH DIAERESIS
'\xf9' # 0xDD -> LATIN SMALL LETTER U WITH GRAVE
'\xfa' # 0xDE -> LATIN SMALL LETTER U WITH ACUTE
'\xff' # 0xDF -> LATIN SMALL LETTER Y WITH DIAERESIS
'\\' # 0xE0 -> REVERSE SOLIDUS
'\xf7' # 0xE1 -> DIVISION SIGN
'S' # 0xE2 -> LATIN CAPITAL LETTER S
'T' # 0xE3 -> LATIN CAPITAL LETTER T
'U' # 0xE4 -> LATIN CAPITAL LETTER U
'V' # 0xE5 -> LATIN CAPITAL LETTER V
'W' # 0xE6 -> LATIN CAPITAL LETTER W
'X' # 0xE7 -> LATIN CAPITAL LETTER X
'Y' # 0xE8 -> LATIN CAPITAL LETTER Y
'Z' # 0xE9 -> LATIN CAPITAL LETTER Z
'\xb2' # 0xEA -> SUPERSCRIPT TWO
'\xd4' # 0xEB -> LATIN CAPITAL LETTER O WITH CIRCUMFLEX
'\xd6' # 0xEC -> LATIN CAPITAL LETTER O WITH DIAERESIS
'\xd2' # 0xED -> LATIN CAPITAL LETTER O WITH GRAVE
'\xd3' # 0xEE -> LATIN CAPITAL LETTER O WITH ACUTE
'\xd5' # 0xEF -> LATIN CAPITAL LETTER O WITH TILDE
'0' # 0xF0 -> DIGIT ZERO
'1' # 0xF1 -> DIGIT ONE
'2' # 0xF2 -> DIGIT TWO
'3' # 0xF3 -> DIGIT THREE
'4' # 0xF4 -> DIGIT FOUR
'5' # 0xF5 -> DIGIT FIVE
'6' # 0xF6 -> DIGIT SIX
'7' # 0xF7 -> DIGIT SEVEN
'8' # 0xF8 -> DIGIT EIGHT
'9' # 0xF9 -> DIGIT NINE
'\xb3' # 0xFA -> SUPERSCRIPT THREE
'\xdb' # 0xFB -> LATIN CAPITAL LETTER U WITH CIRCUMFLEX
'\xdc' # 0xFC -> LATIN CAPITAL LETTER U WITH DIAERESIS
'\xd9' # 0xFD -> LATIN CAPITAL LETTER U WITH GRAVE
'\xda' # 0xFE -> LATIN CAPITAL LETTER U WITH ACUTE
'\x9f' # 0xFF -> CONTROL
)
### Encoding table
encoding_table=codecs.charmap_build(decoding_table)
Raw
Frikr_Lib_encodings_cp1006.py
""" Python Character Mapping Codec cp1006 generated from 'MAPPINGS/VENDORS/MISC/CP1006.TXT' with gencodec.py.
"""#"
import codecs
### Codec APIs
class Codec(codecs.Codec):
def encode(self,input,errors='strict'):
return codecs.charmap_encode(input,errors,encoding_table)
def decode(self,input,errors='strict'):
return codecs.charmap_decode(input,errors,decoding_table)
class IncrementalEncoder(codecs.IncrementalEncoder):
def encode(self, input, final=False):
return codecs.charmap_encode(input,self.errors,encoding_table)[0]
class IncrementalDecoder(codecs.IncrementalDecoder):
def decode(self, input, final=False):
return codecs.charmap_decode(input,self.errors,decoding_table)[0]
class StreamWriter(Codec,codecs.StreamWriter):
pass
class StreamReader(Codec,codecs.StreamReader):
pass
### encodings module API
def getregentry():
return codecs.CodecInfo(
name='cp1006',
encode=Codec().encode,
decode=Codec().decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamreader=StreamReader,
streamwriter=StreamWriter,
)
### Decoding Table
decoding_table = (
'\x00' # 0x00 -> NULL
'\x01' # 0x01 -> START OF HEADING
'\x02' # 0x02 -> START OF TEXT
'\x03' # 0x03 -> END OF TEXT
'\x04' # 0x04 -> END OF TRANSMISSION
'\x05' # 0x05 -> ENQUIRY
'\x06' # 0x06 -> ACKNOWLEDGE
'\x07' # 0x07 -> BELL
'\x08' # 0x08 -> BACKSPACE
'\t' # 0x09 -> HORIZONTAL TABULATION
'\n' # 0x0A -> LINE FEED
'\x0b' # 0x0B -> VERTICAL TABULATION
'\x0c' # 0x0C -> FORM FEED
'\r' # 0x0D -> CARRIAGE RETURN
'\x0e' # 0x0E -> SHIFT OUT
'\x0f' # 0x0F -> SHIFT IN
'\x10' # 0x10 -> DATA LINK ESCAPE
'\x11' # 0x11 -> DEVICE CONTROL ONE
'\x12' # 0x12 -> DEVICE CONTROL TWO
'\x13' # 0x13 -> DEVICE CONTROL THREE
'\x14' # 0x14 -> DEVICE CONTROL FOUR
'\x15' # 0x15 -> NEGATIVE ACKNOWLEDGE
'\x16' # 0x16 -> SYNCHRONOUS IDLE
'\x17' # 0x17 -> END OF TRANSMISSION BLOCK
'\x18' # 0x18 -> CANCEL
'\x19' # 0x19 -> END OF MEDIUM
'\x1a' # 0x1A -> SUBSTITUTE
'\x1b' # 0x1B -> ESCAPE
'\x1c' # 0x1C -> FILE SEPARATOR
'\x1d' # 0x1D -> GROUP SEPARATOR
'\x1e' # 0x1E -> RECORD SEPARATOR
'\x1f' # 0x1F -> UNIT SEPARATOR
' ' # 0x20 -> SPACE
'!' # 0x21 -> EXCLAMATION MARK
'"' # 0x22 -> QUOTATION MARK
'#' # 0x23 -> NUMBER SIGN
'$' # 0x24 -> DOLLAR SIGN
'%' # 0x25 -> PERCENT SIGN
'&' # 0x26 -> AMPERSAND
"'" # 0x27 -> APOSTROPHE
'(' # 0x28 -> LEFT PARENTHESIS
')' # 0x29 -> RIGHT PARENTHESIS
'*' # 0x2A -> ASTERISK
'+' # 0x2B -> PLUS SIGN
',' # 0x2C -> COMMA
'-' # 0x2D -> HYPHEN-MINUS
'.' # 0x2E -> FULL STOP
'/' # 0x2F -> SOLIDUS
'0' # 0x30 -> DIGIT ZERO
'1' # 0x31 -> DIGIT ONE
'2' # 0x32 -> DIGIT TWO
'3' # 0x33 -> DIGIT THREE
'4' # 0x34 -> DIGIT FOUR
'5' # 0x35 -> DIGIT FIVE
'6' # 0x36 -> DIGIT SIX
'7' # 0x37 -> DIGIT SEVEN
'8' # 0x38 -> DIGIT EIGHT
'9' # 0x39 -> DIGIT NINE
':' # 0x3A -> COLON
';' # 0x3B -> SEMICOLON
'<' # 0x3C -> LESS-THAN SIGN
'=' # 0x3D -> EQUALS SIGN
'>' # 0x3E -> GREATER-THAN SIGN
'?' # 0x3F -> QUESTION MARK
'@' # 0x40 -> COMMERCIAL AT
'A' # 0x41 -> LATIN CAPITAL LETTER A
'B' # 0x42 -> LATIN CAPITAL LETTER B
'C' # 0x43 -> LATIN CAPITAL LETTER C
'D' # 0x44 -> LATIN CAPITAL LETTER D
'E' # 0x45 -> LATIN CAPITAL LETTER E
'F' # 0x46 -> LATIN CAPITAL LETTER F
'G' # 0x47 -> LATIN CAPITAL LETTER G
'H' # 0x48 -> LATIN CAPITAL LETTER H
'I' # 0x49 -> LATIN CAPITAL LETTER I
'J' # 0x4A -> LATIN CAPITAL LETTER J
'K' # 0x4B -> LATIN CAPITAL LETTER K
'L' # 0x4C -> LATIN CAPITAL LETTER L
'M' # 0x4D -> LATIN CAPITAL LETTER M
'N' # 0x4E -> LATIN CAPITAL LETTER N
'O' # 0x4F -> LATIN CAPITAL LETTER O
'P' # 0x50 -> LATIN CAPITAL LETTER P
'Q' # 0x51 -> LATIN CAPITAL LETTER Q
'R' # 0x52 -> LATIN CAPITAL LETTER R
'S' # 0x53 -> LATIN CAPITAL LETTER S
'T' # 0x54 -> LATIN CAPITAL LETTER T
'U' # 0x55 -> LATIN CAPITAL LETTER U
'V' # 0x56 -> LATIN CAPITAL LETTER V
'W' # 0x57 -> LATIN CAPITAL LETTER W
'X' # 0x58 -> LATIN CAPITAL LETTER X
'Y' # 0x59 -> LATIN CAPITAL LETTER Y
'Z' # 0x5A -> LATIN CAPITAL LETTER Z
'[' # 0x5B -> LEFT SQUARE BRACKET
'\\' # 0x5C -> REVERSE SOLIDUS
']' # 0x5D -> RIGHT SQUARE BRACKET
'^' # 0x5E -> CIRCUMFLEX ACCENT
'_' # 0x5F -> LOW LINE
'`' # 0x60 -> GRAVE ACCENT
'a' # 0x61 -> LATIN SMALL LETTER A
'b' # 0x62 -> LATIN SMALL LETTER B
'c' # 0x63 -> LATIN SMALL LETTER C
'd' # 0x64 -> LATIN SMALL LETTER D
'e' # 0x65 -> LATIN SMALL LETTER E
'f' # 0x66 -> LATIN SMALL LETTER F
'g' # 0x67 -> LATIN SMALL LETTER G
'h' # 0x68 -> LATIN SMALL LETTER H
'i' # 0x69 -> LATIN SMALL LETTER I
'j' # 0x6A -> LATIN SMALL LETTER J
'k' # 0x6B -> LATIN SMALL LETTER K
'l' # 0x6C -> LATIN SMALL LETTER L
'm' # 0x6D -> LATIN SMALL LETTER M
'n' # 0x6E -> LATIN SMALL LETTER N
'o' # 0x6F -> LATIN SMALL LETTER O
'p' # 0x70 -> LATIN SMALL LETTER P
'q' # 0x71 -> LATIN SMALL LETTER Q
'r' # 0x72 -> LATIN SMALL LETTER R
's' # 0x73 -> LATIN SMALL LETTER S
't' # 0x74 -> LATIN SMALL LETTER T
'u' # 0x75 -> LATIN SMALL LETTER U
'v' # 0x76 -> LATIN SMALL LETTER V
'w' # 0x77 -> LATIN SMALL LETTER W
'x' # 0x78 -> LATIN SMALL LETTER X
'y' # 0x79 -> LATIN SMALL LETTER Y
'z' # 0x7A -> LATIN SMALL LETTER Z
'{' # 0x7B -> LEFT CURLY BRACKET
'|' # 0x7C -> VERTICAL LINE
'}' # 0x7D -> RIGHT CURLY BRACKET
'~' # 0x7E -> TILDE
'\x7f' # 0x7F -> DELETE
'\x80' # 0x80 -> <control>
'\x81' # 0x81 -> <control>
'\x82' # 0x82 -> <control>
'\x83' # 0x83 -> <control>
'\x84' # 0x84 -> <control>
'\x85' # 0x85 -> <control>
'\x86' # 0x86 -> <control>
'\x87' # 0x87 -> <control>
'\x88' # 0x88 -> <control>
'\x89' # 0x89 -> <control>
'\x8a' # 0x8A -> <control>
'\x8b' # 0x8B -> <control>
'\x8c' # 0x8C -> <control>
'\x8d' # 0x8D -> <control>
'\x8e' # 0x8E -> <control>
'\x8f' # 0x8F -> <control>
'\x90' # 0x90 -> <control>
'\x91' # 0x91 -> <control>
'\x92' # 0x92 -> <control>
'\x93' # 0x93 -> <control>
'\x94' # 0x94 -> <control>
'\x95' # 0x95 -> <control>
'\x96' # 0x96 -> <control>
'\x97' # 0x97 -> <control>
'\x98' # 0x98 -> <control>
'\x99' # 0x99 -> <control>
'\x9a' # 0x9A -> <control>
'\x9b' # 0x9B -> <control>
'\x9c' # 0x9C -> <control>
'\x9d' # 0x9D -> <control>
'\x9e' # 0x9E -> <control>
'\x9f' # 0x9F -> <control>
'\xa0' # 0xA0 -> NO-BREAK SPACE
'\u06f0' # 0xA1 -> EXTENDED ARABIC-INDIC DIGIT ZERO
'\u06f1' # 0xA2 -> EXTENDED ARABIC-INDIC DIGIT ONE
'\u06f2' # 0xA3 -> EXTENDED ARABIC-INDIC DIGIT TWO
'\u06f3' # 0xA4 -> EXTENDED ARABIC-INDIC DIGIT THREE
'\u06f4' # 0xA5 -> EXTENDED ARABIC-INDIC DIGIT FOUR
'\u06f5' # 0xA6 -> EXTENDED ARABIC-INDIC DIGIT FIVE
'\u06f6' # 0xA7 -> EXTENDED ARABIC-INDIC DIGIT SIX
'\u06f7' # 0xA8 -> EXTENDED ARABIC-INDIC DIGIT SEVEN
'\u06f8' # 0xA9 -> EXTENDED ARABIC-INDIC DIGIT EIGHT
'\u06f9' # 0xAA -> EXTENDED ARABIC-INDIC DIGIT NINE
'\u060c' # 0xAB -> ARABIC COMMA
'\u061b' # 0xAC -> ARABIC SEMICOLON
'\xad' # 0xAD -> SOFT HYPHEN
'\u061f' # 0xAE -> ARABIC QUESTION MARK
'\ufe81' # 0xAF -> ARABIC LETTER ALEF WITH MADDA ABOVE ISOLATED FORM
'\ufe8d' # 0xB0 -> ARABIC LETTER ALEF ISOLATED FORM
'\ufe8e' # 0xB1 -> ARABIC LETTER ALEF FINAL FORM
'\ufe8e' # 0xB2 -> ARABIC LETTER ALEF FINAL FORM
'\ufe8f' # 0xB3 -> ARABIC LETTER BEH ISOLATED FORM
'\ufe91' # 0xB4 -> ARABIC LETTER BEH INITIAL FORM
'\ufb56' # 0xB5 -> ARABIC LETTER PEH ISOLATED FORM
'\ufb58' # 0xB6 -> ARABIC LETTER PEH INITIAL FORM
'\ufe93' # 0xB7 -> ARABIC LETTER TEH MARBUTA ISOLATED FORM
'\ufe95' # 0xB8 -> ARABIC LETTER TEH ISOLATED FORM
'\ufe97' # 0xB9 -> ARABIC LETTER TEH INITIAL FORM
'\ufb66' # 0xBA -> ARABIC LETTER TTEH ISOLATED FORM
'\ufb68' # 0xBB -> ARABIC LETTER TTEH INITIAL FORM
'\ufe99' # 0xBC -> ARABIC LETTER THEH ISOLATED FORM
'\ufe9b' # 0xBD -> ARABIC LETTER THEH INITIAL FORM
'\ufe9d' # 0xBE -> ARABIC LETTER JEEM ISOLATED FORM
'\ufe9f' # 0xBF -> ARABIC LETTER JEEM INITIAL FORM
'\ufb7a' # 0xC0 -> ARABIC LETTER TCHEH ISOLATED FORM
'\ufb7c' # 0xC1 -> ARABIC LETTER TCHEH INITIAL FORM
'\ufea1' # 0xC2 -> ARABIC LETTER HAH ISOLATED FORM
'\ufea3' # 0xC3 -> ARABIC LETTER HAH INITIAL FORM
'\ufea5' # 0xC4 -> ARABIC LETTER KHAH ISOLATED FORM
'\ufea7' # 0xC5 -> ARABIC LETTER KHAH INITIAL FORM
'\ufea9' # 0xC6 -> ARABIC LETTER DAL ISOLATED FORM
'\ufb84' # 0xC7 -> ARABIC LETTER DAHAL ISOLATED FORMN
'\ufeab' # 0xC8 -> ARABIC LETTER THAL ISOLATED FORM
'\ufead' # 0xC9 -> ARABIC LETTER REH ISOLATED FORM
'\ufb8c' # 0xCA -> ARABIC LETTER RREH ISOLATED FORM
'\ufeaf' # 0xCB -> ARABIC LETTER ZAIN ISOLATED FORM
'\ufb8a' # 0xCC -> ARABIC LETTER JEH ISOLATED FORM
'\ufeb1' # 0xCD -> ARABIC LETTER SEEN ISOLATED FORM
'\ufeb3' # 0xCE -> ARABIC LETTER SEEN INITIAL FORM
'\ufeb5' # 0xCF -> ARABIC LETTER SHEEN ISOLATED FORM
'\ufeb7' # 0xD0 -> ARABIC LETTER SHEEN INITIAL FORM
'\ufeb9' # 0xD1 -> ARABIC LETTER SAD ISOLATED FORM
'\ufebb' # 0xD2 -> ARABIC LETTER SAD INITIAL FORM
'\ufebd' # 0xD3 -> ARABIC LETTER DAD ISOLATED FORM
'\ufebf' # 0xD4 -> ARABIC LETTER DAD INITIAL FORM
'\ufec1' # 0xD5 -> ARABIC LETTER TAH ISOLATED FORM
'\ufec5' # 0xD6 -> ARABIC LETTER ZAH ISOLATED FORM
'\ufec9' # 0xD7 -> ARABIC LETTER AIN ISOLATED FORM
'\ufeca' # 0xD8 -> ARABIC LETTER AIN FINAL FORM
'\ufecb' # 0xD9 -> ARABIC LETTER AIN INITIAL FORM
'\ufecc' # 0xDA -> ARABIC LETTER AIN MEDIAL FORM
'\ufecd' # 0xDB -> ARABIC LETTER GHAIN ISOLATED FORM
'\ufece' # 0xDC -> ARABIC LETTER GHAIN FINAL FORM
'\ufecf' # 0xDD -> ARABIC LETTER GHAIN INITIAL FORM
'\ufed0' # 0xDE -> ARABIC LETTER GHAIN MEDIAL FORM
'\ufed1' # 0xDF -> ARABIC LETTER FEH ISOLATED FORM
'\ufed3' # 0xE0 -> ARABIC LETTER FEH INITIAL FORM
'\ufed5' # 0xE1 -> ARABIC LETTER QAF ISOLATED FORM
'\ufed7' # 0xE2 -> ARABIC LETTER QAF INITIAL FORM
'\ufed9' # 0xE3 -> ARABIC LETTER KAF ISOLATED FORM
'\ufedb' # 0xE4 -> ARABIC LETTER KAF INITIAL FORM
'\ufb92' # 0xE5 -> ARABIC LETTER GAF ISOLATED FORM
'\ufb94' # 0xE6 -> ARABIC LETTER GAF INITIAL FORM
'\ufedd' # 0xE7 -> ARABIC LETTER LAM ISOLATED FORM
'\ufedf' # 0xE8 -> ARABIC LETTER LAM INITIAL FORM
'\ufee0' # 0xE9 -> ARABIC LETTER LAM MEDIAL FORM
'\ufee1' # 0xEA -> ARABIC LETTER MEEM ISOLATED FORM
'\ufee3' # 0xEB -> ARABIC LETTER MEEM INITIAL FORM
'\ufb9e' # 0xEC -> ARABIC LETTER NOON GHUNNA ISOLATED FORM
'\ufee5' # 0xED -> ARABIC LETTER NOON ISOLATED FORM
'\ufee7' # 0xEE -> ARABIC LETTER NOON INITIAL FORM
'\ufe85' # 0xEF -> ARABIC LETTER WAW WITH HAMZA ABOVE ISOLATED FORM
'\ufeed' # 0xF0 -> ARABIC LETTER WAW ISOLATED FORM
'\ufba6' # 0xF1 -> ARABIC LETTER HEH GOAL ISOLATED FORM
'\ufba8' # 0xF2 -> ARABIC LETTER HEH GOAL INITIAL FORM
'\ufba9' # 0xF3 -> ARABIC LETTER HEH GOAL MEDIAL FORM
'\ufbaa' # 0xF4 -> ARABIC LETTER HEH DOACHASHMEE ISOLATED FORM
'\ufe80' # 0xF5 -> ARABIC LETTER HAMZA ISOLATED FORM
'\ufe89' # 0xF6 -> ARABIC LETTER YEH WITH HAMZA ABOVE ISOLATED FORM
'\ufe8a' # 0xF7 -> ARABIC LETTER YEH WITH HAMZA ABOVE FINAL FORM
'\ufe8b' # 0xF8 -> ARABIC LETTER YEH WITH HAMZA ABOVE INITIAL FORM
'\ufef1' # 0xF9 -> ARABIC LETTER YEH ISOLATED FORM
'\ufef2' # 0xFA -> ARABIC LETTER YEH FINAL FORM
'\ufef3' # 0xFB -> ARABIC LETTER YEH INITIAL FORM
'\ufbb0' # 0xFC -> ARABIC LETTER YEH BARREE WITH HAMZA ABOVE ISOLATED FORM
'\ufbae' # 0xFD -> ARABIC LETTER YEH BARREE ISOLATED FORM
'\ufe7c' # 0xFE -> ARABIC SHADDA ISOLATED FORM
'\ufe7d' # 0xFF -> ARABIC SHADDA MEDIAL FORM
)
### Encoding table
encoding_table=codecs.charmap_build(decoding_table)
Raw
Frikr_Lib_encodings_cp1026.py
""" Python Character Mapping Codec cp1026 generated from 'MAPPINGS/VENDORS/MICSFT/EBCDIC/CP1026.TXT' with gencodec.py.
"""#"
import codecs
### Codec APIs
class Codec(codecs.Codec):
def encode(self,input,errors='strict'):
return codecs.charmap_encode(input,errors,encoding_table)
def decode(self,input,errors='strict'):
return codecs.charmap_decode(input,errors,decoding_table)
class IncrementalEncoder(codecs.IncrementalEncoder):
def encode(self, input, final=False):
return codecs.charmap_encode(input,self.errors,encoding_table)[0]
class IncrementalDecoder(codecs.IncrementalDecoder):
def decode(self, input, final=False):
return codecs.charmap_decode(input,self.errors,decoding_table)[0]
class StreamWriter(Codec,codecs.StreamWriter):
pass
class StreamReader(Codec,codecs.StreamReader):
pass
### encodings module API
def getregentry():
return codecs.CodecInfo(
name='cp1026',
encode=Codec().encode,
decode=Codec().decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamreader=StreamReader,
streamwriter=StreamWriter,
)
### Decoding Table
decoding_table = (
'\x00' # 0x00 -> NULL
'\x01' # 0x01 -> START OF HEADING
'\x02' # 0x02 -> START OF TEXT
'\x03' # 0x03 -> END OF TEXT
'\x9c' # 0x04 -> CONTROL
'\t' # 0x05 -> HORIZONTAL TABULATION
'\x86' # 0x06 -> CONTROL
'\x7f' # 0x07 -> DELETE
'\x97' # 0x08 -> CONTROL
'\x8d' # 0x09 -> CONTROL
'\x8e' # 0x0A -> CONTROL
'\x0b' # 0x0B -> VERTICAL TABULATION
'\x0c' # 0x0C -> FORM FEED
'\r' # 0x0D -> CARRIAGE RETURN
'\x0e' # 0x0E -> SHIFT OUT
'\x0f' # 0x0F -> SHIFT IN
'\x10' # 0x10 -> DATA LINK ESCAPE
'\x11' # 0x11 -> DEVICE CONTROL ONE
'\x12' # 0x12 -> DEVICE CONTROL TWO
'\x13' # 0x13 -> DEVICE CONTROL THREE
'\x9d' # 0x14 -> CONTROL
'\x85' # 0x15 -> CONTROL
'\x08' # 0x16 -> BACKSPACE
'\x87' # 0x17 -> CONTROL
'\x18' # 0x18 -> CANCEL
'\x19' # 0x19 -> END OF MEDIUM
'\x92' # 0x1A -> CONTROL
'\x8f' # 0x1B -> CONTROL
'\x1c' # 0x1C -> FILE SEPARATOR
'\x1d' # 0x1D -> GROUP SEPARATOR
'\x1e' # 0x1E -> RECORD SEPARATOR
'\x1f' # 0x1F -> UNIT SEPARATOR
'\x80' # 0x20 -> CONTROL
'\x81' # 0x21 -> CONTROL
'\x82' # 0x22 -> CONTROL
'\x83' # 0x23 -> CONTROL
'\x84' # 0x24 -> CONTROL
'\n' # 0x25 -> LINE FEED
'\x17' # 0x26 -> END OF TRANSMISSION BLOCK
'\x1b' # 0x27 -> ESCAPE
'\x88' # 0x28 -> CONTROL
'\x89' # 0x29 -> CONTROL
'\x8a' # 0x2A -> CONTROL
'\x8b' # 0x2B -> CONTROL
'\x8c' # 0x2C -> CONTROL
'\x05' # 0x2D -> ENQUIRY
'\x06' # 0x2E -> ACKNOWLEDGE
'\x07' # 0x2F -> BELL
'\x90' # 0x30 -> CONTROL
'\x91' # 0x31 -> CONTROL
'\x16' # 0x32 -> SYNCHRONOUS IDLE
'\x93' # 0x33 -> CONTROL
'\x94' # 0x34 -> CONTROL
'\x95' # 0x35 -> CONTROL
'\x96' # 0x36 -> CONTROL
'\x04' # 0x37 -> END OF TRANSMISSION
'\x98' # 0x38 -> CONTROL
'\x99' # 0x39 -> CONTROL
'\x9a' # 0x3A -> CONTROL
'\x9b' # 0x3B -> CONTROL
'\x14' # 0x3C -> DEVICE CONTROL FOUR
'\x15' # 0x3D -> NEGATIVE ACKNOWLEDGE
'\x9e' # 0x3E -> CONTROL
'\x1a' # 0x3F -> SUBSTITUTE
' ' # 0x40 -> SPACE
'\xa0' # 0x41 -> NO-BREAK SPACE
'\xe2' # 0x42 -> LATIN SMALL LETTER A WITH CIRCUMFLEX
'\xe4' # 0x43 -> LATIN SMALL LETTER A WITH DIAERESIS
'\xe0' # 0x44 -> LATIN SMALL LETTER A WITH GRAVE
'\xe1' # 0x45 -> LATIN SMALL LETTER A WITH ACUTE
'\xe3' # 0x46 -> LATIN SMALL LETTER A WITH TILDE
'\xe5' # 0x47 -> LATIN SMALL LETTER A WITH RING ABOVE
'{' # 0x48 -> LEFT CURLY BRACKET
'\xf1' # 0x49 -> LATIN SMALL LETTER N WITH TILDE
'\xc7' # 0x4A -> LATIN CAPITAL LETTER C WITH CEDILLA
'.' # 0x4B -> FULL STOP
'<' # 0x4C -> LESS-THAN SIGN
'(' # 0x4D -> LEFT PARENTHESIS
'+' # 0x4E -> PLUS SIGN
'!' # 0x4F -> EXCLAMATION MARK
'&' # 0x50 -> AMPERSAND
'\xe9' # 0x51 -> LATIN SMALL LETTER E WITH ACUTE
'\xea' # 0x52 -> LATIN SMALL LETTER E WITH CIRCUMFLEX
'\xeb' # 0x53 -> LATIN SMALL LETTER E WITH DIAERESIS
'\xe8' # 0x54 -> LATIN SMALL LETTER E WITH GRAVE
'\xed' # 0x55 -> LATIN SMALL LETTER I WITH ACUTE
'\xee' # 0x56 -> LATIN SMALL LETTER I WITH CIRCUMFLEX
'\xef' # 0x57 -> LATIN SMALL LETTER I WITH DIAERESIS
'\xec' # 0x58 -> LATIN SMALL LETTER I WITH GRAVE
'\xdf' # 0x59 -> LATIN SMALL LETTER SHARP S (GERMAN)
'\u011e' # 0x5A -> LATIN CAPITAL LETTER G WITH BREVE
'\u0130' # 0x5B -> LATIN CAPITAL LETTER I WITH DOT ABOVE
'*' # 0x5C -> ASTERISK
')' # 0x5D -> RIGHT PARENTHESIS
';' # 0x5E -> SEMICOLON
'^' # 0x5F -> CIRCUMFLEX ACCENT
'-' # 0x60 -> HYPHEN-MINUS
'/' # 0x61 -> SOLIDUS
'\xc2' # 0x62 -> LATIN CAPITAL LETTER A WITH CIRCUMFLEX
'\xc4' # 0x63 -> LATIN CAPITAL LETTER A WITH DIAERESIS
'\xc0' # 0x64 -> LATIN CAPITAL LETTER A WITH GRAVE
'\xc1' # 0x65 -> LATIN CAPITAL LETTER A WITH ACUTE
'\xc3' # 0x66 -> LATIN CAPITAL LETTER A WITH TILDE
'\xc5' # 0x67 -> LATIN CAPITAL LETTER A WITH RING ABOVE
'[' # 0x68 -> LEFT SQUARE BRACKET
'\xd1' # 0x69 -> LATIN CAPITAL LETTER N WITH TILDE
'\u015f' # 0x6A -> LATIN SMALL LETTER S WITH CEDILLA
',' # 0x6B -> COMMA
'%' # 0x6C -> PERCENT SIGN
'_' # 0x6D -> LOW LINE
'>' # 0x6E -> GREATER-THAN SIGN
'?' # 0x6F -> QUESTION MARK
'\xf8' # 0x70 -> LATIN SMALL LETTER O WITH STROKE
'\xc9' # 0x71 -> LATIN CAPITAL LETTER E WITH ACUTE
'\xca' # 0x72 -> LATIN CAPITAL LETTER E WITH CIRCUMFLEX
'\xcb' # 0x73 -> LATIN CAPITAL LETTER E WITH DIAERESIS
'\xc8' # 0x74 -> LATIN CAPITAL LETTER E WITH GRAVE
'\xcd' # 0x75 -> LATIN CAPITAL LETTER I WITH ACUTE
'\xce' # 0x76 -> LATIN CAPITAL LETTER I WITH CIRCUMFLEX
'\xcf' # 0x77 -> LATIN CAPITAL LETTER I WITH DIAERESIS
'\xcc' # 0x78 -> LATIN CAPITAL LETTER I WITH GRAVE
'\u0131' # 0x79 -> LATIN SMALL LETTER DOTLESS I
':' # 0x7A -> COLON
'\xd6' # 0x7B -> LATIN CAPITAL LETTER O WITH DIAERESIS
'\u015e' # 0x7C -> LATIN CAPITAL LETTER S WITH CEDILLA
"'" # 0x7D -> APOSTROPHE
'=' # 0x7E -> EQUALS SIGN
'\xdc' # 0x7F -> LATIN CAPITAL LETTER U WITH DIAERESIS
'\xd8' # 0x80 -> LATIN CAPITAL LETTER O WITH STROKE
'a' # 0x81 -> LATIN SMALL LETTER A
'b' # 0x82 -> LATIN SMALL LETTER B
'c' # 0x83 -> LATIN SMALL LETTER C
'd' # 0x84 -> LATIN SMALL LETTER D
'e' # 0x85 -> LATIN SMALL LETTER E
'f' # 0x86 -> LATIN SMALL LETTER F
'g' # 0x87 -> LATIN SMALL LETTER G
'h' # 0x88 -> LATIN SMALL LETTER H
'i' # 0x89 -> LATIN SMALL LETTER I
'\xab' # 0x8A -> LEFT-POINTING DOUBLE ANGLE QUOTATION MARK
'\xbb' # 0x8B -> RIGHT-POINTING DOUBLE ANGLE QUOTATION MARK
'}' # 0x8C -> RIGHT CURLY BRACKET
'`' # 0x8D -> GRAVE ACCENT
'\xa6' # 0x8E -> BROKEN BAR
'\xb1' # 0x8F -> PLUS-MINUS SIGN
'\xb0' # 0x90 -> DEGREE SIGN
'j' # 0x91 -> LATIN SMALL LETTER J
'k' # 0x92 -> LATIN SMALL LETTER K
'l' # 0x93 -> LATIN SMALL LETTER L
'm' # 0x94 -> LATIN SMALL LETTER M
'n' # 0x95 -> LATIN SMALL LETTER N
'o' # 0x96 -> LATIN SMALL LETTER O
'p' # 0x97 -> LATIN SMALL LETTER P
'q' # 0x98 -> LATIN SMALL LETTER Q
'r' # 0x99 -> LATIN SMALL LETTER R
'\xaa' # 0x9A -> FEMININE ORDINAL INDICATOR
'\xba' # 0x9B -> MASCULINE ORDINAL INDICATOR
'\xe6' # 0x9C -> LATIN SMALL LIGATURE AE
'\xb8' # 0x9D -> CEDILLA
'\xc6' # 0x9E -> LATIN CAPITAL LIGATURE AE
'\xa4' # 0x9F -> CURRENCY SIGN
'\xb5' # 0xA0 -> MICRO SIGN
'\xf6' # 0xA1 -> LATIN SMALL LETTER O WITH DIAERESIS
's' # 0xA2 -> LATIN SMALL LETTER S
't' # 0xA3 -> LATIN SMALL LETTER T
'u' # 0xA4 -> LATIN SMALL LETTER U
'v' # 0xA5 -> LATIN SMALL LETTER V
'w' # 0xA6 -> LATIN SMALL LETTER W
'x' # 0xA7 -> LATIN SMALL LETTER X
'y' # 0xA8 -> LATIN SMALL LETTER Y
'z' # 0xA9 -> LATIN SMALL LETTER Z
'\xa1' # 0xAA -> INVERTED EXCLAMATION MARK
'\xbf' # 0xAB -> INVERTED QUESTION MARK
']' # 0xAC -> RIGHT SQUARE BRACKET
'$' # 0xAD -> DOLLAR SIGN
'@' # 0xAE -> COMMERCIAL AT
'\xae' # 0xAF -> REGISTERED SIGN
'\xa2' # 0xB0 -> CENT SIGN
'\xa3' # 0xB1 -> POUND SIGN
'\xa5' # 0xB2 -> YEN SIGN
'\xb7' # 0xB3 -> MIDDLE DOT
'\xa9' # 0xB4 -> COPYRIGHT SIGN
'\xa7' # 0xB5 -> SECTION SIGN
'\xb6' # 0xB6 -> PILCROW SIGN
'\xbc' # 0xB7 -> VULGAR FRACTION ONE QUARTER
'\xbd' # 0xB8 -> VULGAR FRACTION ONE HALF
'\xbe' # 0xB9 -> VULGAR FRACTION THREE QUARTERS
'\xac' # 0xBA -> NOT SIGN
'|' # 0xBB -> VERTICAL LINE
'\xaf' # 0xBC -> MACRON
'\xa8' # 0xBD -> DIAERESIS
'\xb4' # 0xBE -> ACUTE ACCENT
'\xd7' # 0xBF -> MULTIPLICATION SIGN
'\xe7' # 0xC0 -> LATIN SMALL LETTER C WITH CEDILLA
'A' # 0xC1 -> LATIN CAPITAL LETTER A
'B' # 0xC2 -> LATIN CAPITAL LETTER B
'C' # 0xC3 -> LATIN CAPITAL LETTER C
'D' # 0xC4 -> LATIN CAPITAL LETTER D
'E' # 0xC5 -> LATIN CAPITAL LETTER E
'F' # 0xC6 -> LATIN CAPITAL LETTER F
'G' # 0xC7 -> LATIN CAPITAL LETTER G
'H' # 0xC8 -> LATIN CAPITAL LETTER H
'I' # 0xC9 -> LATIN CAPITAL LETTER I
'\xad' # 0xCA -> SOFT HYPHEN
'\xf4' # 0xCB -> LATIN SMALL LETTER O WITH CIRCUMFLEX
'~' # 0xCC -> TILDE
'\xf2' # 0xCD -> LATIN SMALL LETTER O WITH GRAVE
'\xf3' # 0xCE -> LATIN SMALL LETTER O WITH ACUTE
'\xf5' # 0xCF -> LATIN SMALL LETTER O WITH TILDE
'\u011f' # 0xD0 -> LATIN SMALL LETTER G WITH BREVE
'J' # 0xD1 -> LATIN CAPITAL LETTER J
'K' # 0xD2 -> LATIN CAPITAL LETTER K
'L' # 0xD3 -> LATIN CAPITAL LETTER L
'M' # 0xD4 -> LATIN CAPITAL LETTER M
'N' # 0xD5 -> LATIN CAPITAL LETTER N
'O' # 0xD6 -> LATIN CAPITAL LETTER O
'P' # 0xD7 -> LATIN CAPITAL LETTER P
'Q' # 0xD8 -> LATIN CAPITAL LETTER Q
'R' # 0xD9 -> LATIN CAPITAL LETTER R
'\xb9' # 0xDA -> SUPERSCRIPT ONE
'\xfb' # 0xDB -> LATIN SMALL LETTER U WITH CIRCUMFLEX
'\\' # 0xDC -> REVERSE SOLIDUS
'\xf9' # 0xDD -> LATIN SMALL LETTER U WITH GRAVE
'\xfa' # 0xDE -> LATIN SMALL LETTER U WITH ACUTE
'\xff' # 0xDF -> LATIN SMALL LETTER Y WITH DIAERESIS
'\xfc' # 0xE0 -> LATIN SMALL LETTER U WITH DIAERESIS
'\xf7' # 0xE1 -> DIVISION SIGN
'S' # 0xE2 -> LATIN CAPITAL LETTER S
'T' # 0xE3 -> LATIN CAPITAL LETTER T
'U' # 0xE4 -> LATIN CAPITAL LETTER U
'V' # 0xE5 -> LATIN CAPITAL LETTER V
'W' # 0xE6 -> LATIN CAPITAL LETTER W
'X' # 0xE7 -> LATIN CAPITAL LETTER X
'Y' # 0xE8 -> LATIN CAPITAL LETTER Y
'Z' # 0xE9 -> LATIN CAPITAL LETTER Z
'\xb2' # 0xEA -> SUPERSCRIPT TWO
'\xd4' # 0xEB -> LATIN CAPITAL LETTER O WITH CIRCUMFLEX
'#' # 0xEC -> NUMBER SIGN
'\xd2' # 0xED -> LATIN CAPITAL LETTER O WITH GRAVE
'\xd3' # 0xEE -> LATIN CAPITAL LETTER O WITH ACUTE
'\xd5' # 0xEF -> LATIN CAPITAL LETTER O WITH TILDE
'0' # 0xF0 -> DIGIT ZERO
'1' # 0xF1 -> DIGIT ONE
'2' # 0xF2 -> DIGIT TWO
'3' # 0xF3 -> DIGIT THREE
'4' # 0xF4 -> DIGIT FOUR
'5' # 0xF5 -> DIGIT FIVE
'6' # 0xF6 -> DIGIT SIX
'7' # 0xF7 -> DIGIT SEVEN
'8' # 0xF8 -> DIGIT EIGHT
'9' # 0xF9 -> DIGIT NINE
'\xb3' # 0xFA -> SUPERSCRIPT THREE
'\xdb' # 0xFB -> LATIN CAPITAL LETTER U WITH CIRCUMFLEX
'"' # 0xFC -> QUOTATION MARK
'\xd9' # 0xFD -> LATIN CAPITAL LETTER U WITH GRAVE
'\xda' # 0xFE -> LATIN CAPITAL LETTER U WITH ACUTE
'\x9f' # 0xFF -> CONTROL
)
### Encoding table
encoding_table=codecs.charmap_build(decoding_table)
Raw
Frikr_Lib_encodings_cp1125.py
""" Python Character Mapping Codec for CP1125
"""#"
import codecs
### Codec APIs
class Codec(codecs.Codec):
def encode(self,input,errors='strict'):
return codecs.charmap_encode(input,errors,encoding_map)
def decode(self,input,errors='strict'):
return codecs.charmap_decode(input,errors,decoding_table)
class IncrementalEncoder(codecs.IncrementalEncoder):
def encode(self, input, final=False):
return codecs.charmap_encode(input,self.errors,encoding_map)[0]
class IncrementalDecoder(codecs.IncrementalDecoder):
def decode(self, input, final=False):
return codecs.charmap_decode(input,self.errors,decoding_table)[0]
class StreamWriter(Codec,codecs.StreamWriter):
pass
class StreamReader(Codec,codecs.StreamReader):
pass
### encodings module API
def getregentry():
return codecs.CodecInfo(
name='cp1125',
encode=Codec().encode,
decode=Codec().decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamreader=StreamReader,
streamwriter=StreamWriter,
)
### Decoding Map
decoding_map = codecs.make_identity_dict(range(256))
decoding_map.update({
0x0080: 0x0410, # CYRILLIC CAPITAL LETTER A
0x0081: 0x0411, # CYRILLIC CAPITAL LETTER BE
0x0082: 0x0412, # CYRILLIC CAPITAL LETTER VE
0x0083: 0x0413, # CYRILLIC CAPITAL LETTER GHE
0x0084: 0x0414, # CYRILLIC CAPITAL LETTER DE
0x0085: 0x0415, # CYRILLIC CAPITAL LETTER IE
0x0086: 0x0416, # CYRILLIC CAPITAL LETTER ZHE
0x0087: 0x0417, # CYRILLIC CAPITAL LETTER ZE
0x0088: 0x0418, # CYRILLIC CAPITAL LETTER I
0x0089: 0x0419, # CYRILLIC CAPITAL LETTER SHORT I
0x008a: 0x041a, # CYRILLIC CAPITAL LETTER KA
0x008b: 0x041b, # CYRILLIC CAPITAL LETTER EL
0x008c: 0x041c, # CYRILLIC CAPITAL LETTER EM
0x008d: 0x041d, # CYRILLIC CAPITAL LETTER EN
0x008e: 0x041e, # CYRILLIC CAPITAL LETTER O
0x008f: 0x041f, # CYRILLIC CAPITAL LETTER PE
0x0090: 0x0420, # CYRILLIC CAPITAL LETTER ER
0x0091: 0x0421, # CYRILLIC CAPITAL LETTER ES
0x0092: 0x0422, # CYRILLIC CAPITAL LETTER TE
0x0093: 0x0423, # CYRILLIC CAPITAL LETTER U
0x0094: 0x0424, # CYRILLIC CAPITAL LETTER EF
0x0095: 0x0425, # CYRILLIC CAPITAL LETTER HA
0x0096: 0x0426, # CYRILLIC CAPITAL LETTER TSE
0x0097: 0x0427, # CYRILLIC CAPITAL LETTER CHE
0x0098: 0x0428, # CYRILLIC CAPITAL LETTER SHA
0x0099: 0x0429, # CYRILLIC CAPITAL LETTER SHCHA
0x009a: 0x042a, # CYRILLIC CAPITAL LETTER HARD SIGN
0x009b: 0x042b, # CYRILLIC CAPITAL LETTER YERU
0x009c: 0x042c, # CYRILLIC CAPITAL LETTER SOFT SIGN
0x009d: 0x042d, # CYRILLIC CAPITAL LETTER E
0x009e: 0x042e, # CYRILLIC CAPITAL LETTER YU
0x009f: 0x042f, # CYRILLIC CAPITAL LETTER YA
0x00a0: 0x0430, # CYRILLIC SMALL LETTER A
0x00a1: 0x0431, # CYRILLIC SMALL LETTER BE
0x00a2: 0x0432, # CYRILLIC SMALL LETTER VE
0x00a3: 0x0433, # CYRILLIC SMALL LETTER GHE
0x00a4: 0x0434, # CYRILLIC SMALL LETTER DE
0x00a5: 0x0435, # CYRILLIC SMALL LETTER IE
0x00a6: 0x0436, # CYRILLIC SMALL LETTER ZHE
0x00a7: 0x0437, # CYRILLIC SMALL LETTER ZE
0x00a8: 0x0438, # CYRILLIC SMALL LETTER I
0x00a9: 0x0439, # CYRILLIC SMALL LETTER SHORT I
0x00aa: 0x043a, # CYRILLIC SMALL LETTER KA
0x00ab: 0x043b, # CYRILLIC SMALL LETTER EL
0x00ac: 0x043c, # CYRILLIC SMALL LETTER EM
0x00ad: 0x043d, # CYRILLIC SMALL LETTER EN
0x00ae: 0x043e, # CYRILLIC SMALL LETTER O
0x00af: 0x043f, # CYRILLIC SMALL LETTER PE
0x00b0: 0x2591, # LIGHT SHADE
0x00b1: 0x2592, # MEDIUM SHADE
0x00b2: 0x2593, # DARK SHADE
0x00b3: 0x2502, # BOX DRAWINGS LIGHT VERTICAL
0x00b4: 0x2524, # BOX DRAWINGS LIGHT VERTICAL AND LEFT
0x00b5: 0x2561, # BOX DRAWINGS VERTICAL SINGLE AND LEFT DOUBLE
0x00b6: 0x2562, # BOX DRAWINGS VERTICAL DOUBLE AND LEFT SINGLE
0x00b7: 0x2556, # BOX DRAWINGS DOWN DOUBLE AND LEFT SINGLE
0x00b8: 0x2555, # BOX DRAWINGS DOWN SINGLE AND LEFT DOUBLE
0x00b9: 0x2563, # BOX DRAWINGS DOUBLE VERTICAL AND LEFT
0x00ba: 0x2551, # BOX DRAWINGS DOUBLE VERTICAL
0x00bb: 0x2557, # BOX DRAWINGS DOUBLE DOWN AND LEFT
0x00bc: 0x255d, # BOX DRAWINGS DOUBLE UP AND LEFT
0x00bd: 0x255c, # BOX DRAWINGS UP DOUBLE AND LEFT SINGLE
0x00be: 0x255b, # BOX DRAWINGS UP SINGLE AND LEFT DOUBLE
0x00bf: 0x2510, # BOX DRAWINGS LIGHT DOWN AND LEFT
0x00c0: 0x2514, # BOX DRAWINGS LIGHT UP AND RIGHT
0x00c1: 0x2534, # BOX DRAWINGS LIGHT UP AND HORIZONTAL
0x00c2: 0x252c, # BOX DRAWINGS LIGHT DOWN AND HORIZONTAL
0x00c3: 0x251c, # BOX DRAWINGS LIGHT VERTICAL AND RIGHT
0x00c4: 0x2500, # BOX DRAWINGS LIGHT HORIZONTAL
0x00c5: 0x253c, # BOX DRAWINGS LIGHT VERTICAL AND HORIZONTAL
0x00c6: 0x255e, # BOX DRAWINGS VERTICAL SINGLE AND RIGHT DOUBLE
0x00c7: 0x255f, # BOX DRAWINGS VERTICAL DOUBLE AND RIGHT SINGLE
0x00c8: 0x255a, # BOX DRAWINGS DOUBLE UP AND RIGHT
0x00c9: 0x2554, # BOX DRAWINGS DOUBLE DOWN AND RIGHT
0x00ca: 0x2569, # BOX DRAWINGS DOUBLE UP AND HORIZONTAL
0x00cb: 0x2566, # BOX DRAWINGS DOUBLE DOWN AND HORIZONTAL
0x00cc: 0x2560, # BOX DRAWINGS DOUBLE VERTICAL AND RIGHT
0x00cd: 0x2550, # BOX DRAWINGS DOUBLE HORIZONTAL
0x00ce: 0x256c, # BOX DRAWINGS DOUBLE VERTICAL AND HORIZONTAL
0x00cf: 0x2567, # BOX DRAWINGS UP SINGLE AND HORIZONTAL DOUBLE
0x00d0: 0x2568, # BOX DRAWINGS UP DOUBLE AND HORIZONTAL SINGLE
0x00d1: 0x2564, # BOX DRAWINGS DOWN SINGLE AND HORIZONTAL DOUBLE
0x00d2: 0x2565, # BOX DRAWINGS DOWN DOUBLE AND HORIZONTAL SINGLE
0x00d3: 0x2559, # BOX DRAWINGS UP DOUBLE AND RIGHT SINGLE
0x00d4: 0x2558, # BOX DRAWINGS UP SINGLE AND RIGHT DOUBLE
0x00d5: 0x2552, # BOX DRAWINGS DOWN SINGLE AND RIGHT DOUBLE
0x00d6: 0x2553, # BOX DRAWINGS DOWN DOUBLE AND RIGHT SINGLE
0x00d7: 0x256b, # BOX DRAWINGS VERTICAL DOUBLE AND HORIZONTAL SINGLE
0x00d8: 0x256a, # BOX DRAWINGS VERTICAL SINGLE AND HORIZONTAL DOUBLE
0x00d9: 0x2518, # BOX DRAWINGS LIGHT UP AND LEFT
0x00da: 0x250c, # BOX DRAWINGS LIGHT DOWN AND RIGHT
0x00db: 0x2588, # FULL BLOCK
0x00dc: 0x2584, # LOWER HALF BLOCK
0x00dd: 0x258c, # LEFT HALF BLOCK
0x00de: 0x2590, # RIGHT HALF BLOCK
0x00df: 0x2580, # UPPER HALF BLOCK
0x00e0: 0x0440, # CYRILLIC SMALL LETTER ER
0x00e1: 0x0441, # CYRILLIC SMALL LETTER ES
0x00e2: 0x0442, # CYRILLIC SMALL LETTER TE
0x00e3: 0x0443, # CYRILLIC SMALL LETTER U
0x00e4: 0x0444, # CYRILLIC SMALL LETTER EF
0x00e5: 0x0445, # CYRILLIC SMALL LETTER HA
0x00e6: 0x0446, # CYRILLIC SMALL LETTER TSE
0x00e7: 0x0447, # CYRILLIC SMALL LETTER CHE
0x00e8: 0x0448, # CYRILLIC SMALL LETTER SHA
0x00e9: 0x0449, # CYRILLIC SMALL LETTER SHCHA
0x00ea: 0x044a, # CYRILLIC SMALL LETTER HARD SIGN
0x00eb: 0x044b, # CYRILLIC SMALL LETTER YERU
0x00ec: 0x044c, # CYRILLIC SMALL LETTER SOFT SIGN
0x00ed: 0x044d, # CYRILLIC SMALL LETTER E
0x00ee: 0x044e, # CYRILLIC SMALL LETTER YU
0x00ef: 0x044f, # CYRILLIC SMALL LETTER YA
0x00f0: 0x0401, # CYRILLIC CAPITAL LETTER IO
0x00f1: 0x0451, # CYRILLIC SMALL LETTER IO
0x00f2: 0x0490, # CYRILLIC CAPITAL LETTER GHE WITH UPTURN
0x00f3: 0x0491, # CYRILLIC SMALL LETTER GHE WITH UPTURN
0x00f4: 0x0404, # CYRILLIC CAPITAL LETTER UKRAINIAN IE
0x00f5: 0x0454, # CYRILLIC SMALL LETTER UKRAINIAN IE
0x00f6: 0x0406, # CYRILLIC CAPITAL LETTER BYELORUSSIAN-UKRAINIAN I
0x00f7: 0x0456, # CYRILLIC SMALL LETTER BYELORUSSIAN-UKRAINIAN I
0x00f8: 0x0407, # CYRILLIC CAPITAL LETTER YI
0x00f9: 0x0457, # CYRILLIC SMALL LETTER YI
0x00fa: 0x00b7, # MIDDLE DOT
0x00fb: 0x221a, # SQUARE ROOT
0x00fc: 0x2116, # NUMERO SIGN
0x00fd: 0x00a4, # CURRENCY SIGN
0x00fe: 0x25a0, # BLACK SQUARE
0x00ff: 0x00a0, # NO-BREAK SPACE
})
### Decoding Table
decoding_table = (
'\x00' # 0x0000 -> NULL
'\x01' # 0x0001 -> START OF HEADING
'\x02' # 0x0002 -> START OF TEXT
'\x03' # 0x0003 -> END OF TEXT
'\x04' # 0x0004 -> END OF TRANSMISSION
'\x05' # 0x0005 -> ENQUIRY
'\x06' # 0x0006 -> ACKNOWLEDGE
'\x07' # 0x0007 -> BELL
'\x08' # 0x0008 -> BACKSPACE
'\t' # 0x0009 -> HORIZONTAL TABULATION
'\n' # 0x000a -> LINE FEED
'\x0b' # 0x000b -> VERTICAL TABULATION
'\x0c' # 0x000c -> FORM FEED
'\r' # 0x000d -> CARRIAGE RETURN
'\x0e' # 0x000e -> SHIFT OUT
'\x0f' # 0x000f -> SHIFT IN
'\x10' # 0x0010 -> DATA LINK ESCAPE
'\x11' # 0x0011 -> DEVICE CONTROL ONE
'\x12' # 0x0012 -> DEVICE CONTROL TWO
'\x13' # 0x0013 -> DEVICE CONTROL THREE
'\x14' # 0x0014 -> DEVICE CONTROL FOUR
'\x15' # 0x0015 -> NEGATIVE ACKNOWLEDGE
'\x16' # 0x0016 -> SYNCHRONOUS IDLE
'\x17' # 0x0017 -> END OF TRANSMISSION BLOCK
'\x18' # 0x0018 -> CANCEL
'\x19' # 0x0019 -> END OF MEDIUM
'\x1a' # 0x001a -> SUBSTITUTE
'\x1b' # 0x001b -> ESCAPE
'\x1c' # 0x001c -> FILE SEPARATOR
'\x1d' # 0x001d -> GROUP SEPARATOR
'\x1e' # 0x001e -> RECORD SEPARATOR
'\x1f' # 0x001f -> UNIT SEPARATOR
' ' # 0x0020 -> SPACE
'!' # 0x0021 -> EXCLAMATION MARK
'"' # 0x0022 -> QUOTATION MARK
'#' # 0x0023 -> NUMBER SIGN
'$' # 0x0024 -> DOLLAR SIGN
'%' # 0x0025 -> PERCENT SIGN
'&' # 0x0026 -> AMPERSAND
"'" # 0x0027 -> APOSTROPHE
'(' # 0x0028 -> LEFT PARENTHESIS
')' # 0x0029 -> RIGHT PARENTHESIS
'*' # 0x002a -> ASTERISK
'+' # 0x002b -> PLUS SIGN
',' # 0x002c -> COMMA
'-' # 0x002d -> HYPHEN-MINUS
'.' # 0x002e -> FULL STOP
'/' # 0x002f -> SOLIDUS
'0' # 0x0030 -> DIGIT ZERO
'1' # 0x0031 -> DIGIT ONE
'2' # 0x0032 -> DIGIT TWO
'3' # 0x0033 -> DIGIT THREE
'4' # 0x0034 -> DIGIT FOUR
'5' # 0x0035 -> DIGIT FIVE
'6' # 0x0036 -> DIGIT SIX
'7' # 0x0037 -> DIGIT SEVEN
'8' # 0x0038 -> DIGIT EIGHT
'9' # 0x0039 -> DIGIT NINE
':' # 0x003a -> COLON
';' # 0x003b -> SEMICOLON
'<' # 0x003c -> LESS-THAN SIGN
'=' # 0x003d -> EQUALS SIGN
'>' # 0x003e -> GREATER-THAN SIGN
'?' # 0x003f -> QUESTION MARK
'@' # 0x0040 -> COMMERCIAL AT
'A' # 0x0041 -> LATIN CAPITAL LETTER A
'B' # 0x0042 -> LATIN CAPITAL LETTER B
'C' # 0x0043 -> LATIN CAPITAL LETTER C
'D' # 0x0044 -> LATIN CAPITAL LETTER D
'E' # 0x0045 -> LATIN CAPITAL LETTER E
'F' # 0x0046 -> LATIN CAPITAL LETTER F
'G' # 0x0047 -> LATIN CAPITAL LETTER G
'H' # 0x0048 -> LATIN CAPITAL LETTER H
'I' # 0x0049 -> LATIN CAPITAL LETTER I
'J' # 0x004a -> LATIN CAPITAL LETTER J
'K' # 0x004b -> LATIN CAPITAL LETTER K
'L' # 0x004c -> LATIN CAPITAL LETTER L
'M' # 0x004d -> LATIN CAPITAL LETTER M
'N' # 0x004e -> LATIN CAPITAL LETTER N
'O' # 0x004f -> LATIN CAPITAL LETTER O
'P' # 0x0050 -> LATIN CAPITAL LETTER P
'Q' # 0x0051 -> LATIN CAPITAL LETTER Q
'R' # 0x0052 -> LATIN CAPITAL LETTER R
'S' # 0x0053 -> LATIN CAPITAL LETTER S
'T' # 0x0054 -> LATIN CAPITAL LETTER T
'U' # 0x0055 -> LATIN CAPITAL LETTER U
'V' # 0x0056 -> LATIN CAPITAL LETTER V
'W' # 0x0057 -> LATIN CAPITAL LETTER W
'X' # 0x0058 -> LATIN CAPITAL LETTER X
'Y' # 0x0059 -> LATIN CAPITAL LETTER Y
'Z' # 0x005a -> LATIN CAPITAL LETTER Z
'[' # 0x005b -> LEFT SQUARE BRACKET
'\\' # 0x005c -> REVERSE SOLIDUS
']' # 0x005d -> RIGHT SQUARE BRACKET
'^' # 0x005e -> CIRCUMFLEX ACCENT
'_' # 0x005f -> LOW LINE
'`' # 0x0060 -> GRAVE ACCENT
'a' # 0x0061 -> LATIN SMALL LETTER A
'b' # 0x0062 -> LATIN SMALL LETTER B
'c' # 0x0063 -> LATIN SMALL LETTER C
'd' # 0x0064 -> LATIN SMALL LETTER D
'e' # 0x0065 -> LATIN SMALL LETTER E
'f' # 0x0066 -> LATIN SMALL LETTER F
'g' # 0x0067 -> LATIN SMALL LETTER G
'h' # 0x0068 -> LATIN SMALL LETTER H
'i' # 0x0069 -> LATIN SMALL LETTER I
'j' # 0x006a -> LATIN SMALL LETTER J
'k' # 0x006b -> LATIN SMALL LETTER K
'l' # 0x006c -> LATIN SMALL LETTER L
'm' # 0x006d -> LATIN SMALL LETTER M
'n' # 0x006e -> LATIN SMALL LETTER N
'o' # 0x006f -> LATIN SMALL LETTER O
'p' # 0x0070 -> LATIN SMALL LETTER P
'q' # 0x0071 -> LATIN SMALL LETTER Q
'r' # 0x0072 -> LATIN SMALL LETTER R
's' # 0x0073 -> LATIN SMALL LETTER S
't' # 0x0074 -> LATIN SMALL LETTER T
'u' # 0x0075 -> LATIN SMALL LETTER U
'v' # 0x0076 -> LATIN SMALL LETTER V
'w' # 0x0077 -> LATIN SMALL LETTER W
'x' # 0x0078 -> LATIN SMALL LETTER X
'y' # 0x0079 -> LATIN SMALL LETTER Y
'z' # 0x007a -> LATIN SMALL LETTER Z
'{' # 0x007b -> LEFT CURLY BRACKET
'|' # 0x007c -> VERTICAL LINE
'}' # 0x007d -> RIGHT CURLY BRACKET
'~' # 0x007e -> TILDE
'\x7f' # 0x007f -> DELETE
'\u0410' # 0x0080 -> CYRILLIC CAPITAL LETTER A
'\u0411' # 0x0081 -> CYRILLIC CAPITAL LETTER BE
'\u0412' # 0x0082 -> CYRILLIC CAPITAL LETTER VE
'\u0413' # 0x0083 -> CYRILLIC CAPITAL LETTER GHE
'\u0414' # 0x0084 -> CYRILLIC CAPITAL LETTER DE
'\u0415' # 0x0085 -> CYRILLIC CAPITAL LETTER IE
'\u0416' # 0x0086 -> CYRILLIC CAPITAL LETTER ZHE
'\u0417' # 0x0087 -> CYRILLIC CAPITAL LETTER ZE
'\u0418' # 0x0088 -> CYRILLIC CAPITAL LETTER I
'\u0419' # 0x0089 -> CYRILLIC CAPITAL LETTER SHORT I
'\u041a' # 0x008a -> CYRILLIC CAPITAL LETTER KA
'\u041b' # 0x008b -> CYRILLIC CAPITAL LETTER EL
'\u041c' # 0x008c -> CYRILLIC CAPITAL LETTER EM
'\u041d' # 0x008d -> CYRILLIC CAPITAL LETTER EN
'\u041e' # 0x008e -> CYRILLIC CAPITAL LETTER O
'\u041f' # 0x008f -> CYRILLIC CAPITAL LETTER PE
'\u0420' # 0x0090 -> CYRILLIC CAPITAL LETTER ER
'\u0421' # 0x0091 -> CYRILLIC CAPITAL LETTER ES
'\u0422' # 0x0092 -> CYRILLIC CAPITAL LETTER TE
'\u0423' # 0x0093 -> CYRILLIC CAPITAL LETTER U
'\u0424' # 0x0094 -> CYRILLIC CAPITAL LETTER EF
'\u0425' # 0x0095 -> CYRILLIC CAPITAL LETTER HA
'\u0426' # 0x0096 -> CYRILLIC CAPITAL LETTER TSE
'\u0427' # 0x0097 -> CYRILLIC CAPITAL LETTER CHE
'\u0428' # 0x0098 -> CYRILLIC CAPITAL LETTER SHA
'\u0429' # 0x0099 -> CYRILLIC CAPITAL LETTER SHCHA
'\u042a' # 0x009a -> CYRILLIC CAPITAL LETTER HARD SIGN
'\u042b' # 0x009b -> CYRILLIC CAPITAL LETTER YERU
'\u042c' # 0x009c -> CYRILLIC CAPITAL LETTER SOFT SIGN
'\u042d' # 0x009d -> CYRILLIC CAPITAL LETTER E
'\u042e' # 0x009e -> CYRILLIC CAPITAL LETTER YU
'\u042f' # 0x009f -> CYRILLIC CAPITAL LETTER YA
'\u0430' # 0x00a0 -> CYRILLIC SMALL LETTER A
'\u0431' # 0x00a1 -> CYRILLIC SMALL LETTER BE
'\u0432' # 0x00a2 -> CYRILLIC SMALL LETTER VE
'\u0433' # 0x00a3 -> CYRILLIC SMALL LETTER GHE
'\u0434' # 0x00a4 -> CYRILLIC SMALL LETTER DE
'\u0435' # 0x00a5 -> CYRILLIC SMALL LETTER IE
'\u0436' # 0x00a6 -> CYRILLIC SMALL LETTER ZHE
'\u0437' # 0x00a7 -> CYRILLIC SMALL LETTER ZE
'\u0438' # 0x00a8 -> CYRILLIC SMALL LETTER I
'\u0439' # 0x00a9 -> CYRILLIC SMALL LETTER SHORT I
'\u043a' # 0x00aa -> CYRILLIC SMALL LETTER KA
'\u043b' # 0x00ab -> CYRILLIC SMALL LETTER EL
'\u043c' # 0x00ac -> CYRILLIC SMALL LETTER EM
'\u043d' # 0x00ad -> CYRILLIC SMALL LETTER EN
'\u043e' # 0x00ae -> CYRILLIC SMALL LETTER O
'\u043f' # 0x00af -> CYRILLIC SMALL LETTER PE
'\u2591' # 0x00b0 -> LIGHT SHADE
'\u2592' # 0x00b1 -> MEDIUM SHADE
'\u2593' # 0x00b2 -> DARK SHADE
'\u2502' # 0x00b3 -> BOX DRAWINGS LIGHT VERTICAL
'\u2524' # 0x00b4 -> BOX DRAWINGS LIGHT VERTICAL AND LEFT
'\u2561' # 0x00b5 -> BOX DRAWINGS VERTICAL SINGLE AND LEFT DOUBLE
'\u2562' # 0x00b6 -> BOX DRAWINGS VERTICAL DOUBLE AND LEFT SINGLE
'\u2556' # 0x00b7 -> BOX DRAWINGS DOWN DOUBLE AND LEFT SINGLE
'\u2555' # 0x00b8 -> BOX DRAWINGS DOWN SINGLE AND LEFT DOUBLE
'\u2563' # 0x00b9 -> BOX DRAWINGS DOUBLE VERTICAL AND LEFT
'\u2551' # 0x00ba -> BOX DRAWINGS DOUBLE VERTICAL
'\u2557' # 0x00bb -> BOX DRAWINGS DOUBLE DOWN AND LEFT
'\u255d' # 0x00bc -> BOX DRAWINGS DOUBLE UP AND LEFT
'\u255c' # 0x00bd -> BOX DRAWINGS UP DOUBLE AND LEFT SINGLE
'\u255b' # 0x00be -> BOX DRAWINGS UP SINGLE AND LEFT DOUBLE
'\u2510' # 0x00bf -> BOX DRAWINGS LIGHT DOWN AND LEFT
'\u2514' # 0x00c0 -> BOX DRAWINGS LIGHT UP AND RIGHT
'\u2534' # 0x00c1 -> BOX DRAWINGS LIGHT UP AND HORIZONTAL
'\u252c' # 0x00c2 -> BOX DRAWINGS LIGHT DOWN AND HORIZONTAL
'\u251c' # 0x00c3 -> BOX DRAWINGS LIGHT VERTICAL AND RIGHT
'\u2500' # 0x00c4 -> BOX DRAWINGS LIGHT HORIZONTAL
'\u253c' # 0x00c5 -> BOX DRAWINGS LIGHT VERTICAL AND HORIZONTAL
'\u255e' # 0x00c6 -> BOX DRAWINGS VERTICAL SINGLE AND RIGHT DOUBLE
'\u255f' # 0x00c7 -> BOX DRAWINGS VERTICAL DOUBLE AND RIGHT SINGLE
'\u255a' # 0x00c8 -> BOX DRAWINGS DOUBLE UP AND RIGHT
'\u2554' # 0x00c9 -> BOX DRAWINGS DOUBLE DOWN AND RIGHT
'\u2569' # 0x00ca -> BOX DRAWINGS DOUBLE UP AND HORIZONTAL
'\u2566' # 0x00cb -> BOX DRAWINGS DOUBLE DOWN AND HORIZONTAL
'\u2560' # 0x00cc -> BOX DRAWINGS DOUBLE VERTICAL AND RIGHT
'\u2550' # 0x00cd -> BOX DRAWINGS DOUBLE HORIZONTAL
'\u256c' # 0x00ce -> BOX DRAWINGS DOUBLE VERTICAL AND HORIZONTAL
'\u2567' # 0x00cf -> BOX DRAWINGS UP SINGLE AND HORIZONTAL DOUBLE
'\u2568' # 0x00d0 -> BOX DRAWINGS UP DOUBLE AND HORIZONTAL SINGLE
'\u2564' # 0x00d1 -> BOX DRAWINGS DOWN SINGLE AND HORIZONTAL DOUBLE
'\u2565' # 0x00d2 -> BOX DRAWINGS DOWN DOUBLE AND HORIZONTAL SINGLE
'\u2559' # 0x00d3 -> BOX DRAWINGS UP DOUBLE AND RIGHT SINGLE
'\u2558' # 0x00d4 -> BOX DRAWINGS UP SINGLE AND RIGHT DOUBLE
'\u2552' # 0x00d5 -> BOX DRAWINGS DOWN SINGLE AND RIGHT DOUBLE
'\u2553' # 0x00d6 -> BOX DRAWINGS DOWN DOUBLE AND RIGHT SINGLE
'\u256b' # 0x00d7 -> BOX DRAWINGS VERTICAL DOUBLE AND HORIZONTAL SINGLE
'\u256a' # 0x00d8 -> BOX DRAWINGS VERTICAL SINGLE AND HORIZONTAL DOUBLE
'\u2518' # 0x00d9 -> BOX DRAWINGS LIGHT UP AND LEFT
'\u250c' # 0x00da -> BOX DRAWINGS LIGHT DOWN AND RIGHT
'\u2588' # 0x00db -> FULL BLOCK
'\u2584' # 0x00dc -> LOWER HALF BLOCK
'\u258c' # 0x00dd -> LEFT HALF BLOCK
'\u2590' # 0x00de -> RIGHT HALF BLOCK
'\u2580' # 0x00df -> UPPER HALF BLOCK
'\u0440' # 0x00e0 -> CYRILLIC SMALL LETTER ER
'\u0441' # 0x00e1 -> CYRILLIC SMALL LETTER ES
'\u0442' # 0x00e2 -> CYRILLIC SMALL LETTER TE
'\u0443' # 0x00e3 -> CYRILLIC SMALL LETTER U
'\u0444' # 0x00e4 -> CYRILLIC SMALL LETTER EF
'\u0445' # 0x00e5 -> CYRILLIC SMALL LETTER HA
'\u0446' # 0x00e6 -> CYRILLIC SMALL LETTER TSE
'\u0447' # 0x00e7 -> CYRILLIC SMALL LETTER CHE
'\u0448' # 0x00e8 -> CYRILLIC SMALL LETTER SHA
'\u0449' # 0x00e9 -> CYRILLIC SMALL LETTER SHCHA
'\u044a' # 0x00ea -> CYRILLIC SMALL LETTER HARD SIGN
'\u044b' # 0x00eb -> CYRILLIC SMALL LETTER YERU
'\u044c' # 0x00ec -> CYRILLIC SMALL LETTER SOFT SIGN
'\u044d' # 0x00ed -> CYRILLIC SMALL LETTER E
'\u044e' # 0x00ee -> CYRILLIC SMALL LETTER YU
'\u044f' # 0x00ef -> CYRILLIC SMALL LETTER YA
'\u0401' # 0x00f0 -> CYRILLIC CAPITAL LETTER IO
'\u0451' # 0x00f1 -> CYRILLIC SMALL LETTER IO
'\u0490' # 0x00f2 -> CYRILLIC CAPITAL LETTER GHE WITH UPTURN
'\u0491' # 0x00f3 -> CYRILLIC SMALL LETTER GHE WITH UPTURN
'\u0404' # 0x00f4 -> CYRILLIC CAPITAL LETTER UKRAINIAN IE
'\u0454' # 0x00f5 -> CYRILLIC SMALL LETTER UKRAINIAN IE
'\u0406' # 0x00f6 -> CYRILLIC CAPITAL LETTER BYELORUSSIAN-UKRAINIAN I
'\u0456' # 0x00f7 -> CYRILLIC SMALL LETTER BYELORUSSIAN-UKRAINIAN I
'\u0407' # 0x00f8 -> CYRILLIC CAPITAL LETTER YI
'\u0457' # 0x00f9 -> CYRILLIC SMALL LETTER YI
'\xb7' # 0x00fa -> MIDDLE DOT
'\u221a' # 0x00fb -> SQUARE ROOT
'\u2116' # 0x00fc -> NUMERO SIGN
'\xa4' # 0x00fd -> CURRENCY SIGN
'\u25a0' # 0x00fe -> BLACK SQUARE
'\xa0' # 0x00ff -> NO-BREAK SPACE
)
### Encoding Map
encoding_map = {
0x0000: 0x0000, # NULL
0x0001: 0x0001, # START OF HEADING
0x0002: 0x0002, # START OF TEXT
0x0003: 0x0003, # END OF TEXT
0x0004: 0x0004, # END OF TRANSMISSION
0x0005: 0x0005, # ENQUIRY
0x0006: 0x0006, # ACKNOWLEDGE
0x0007: 0x0007, # BELL
0x0008: 0x0008, # BACKSPACE
0x0009: 0x0009, # HORIZONTAL TABULATION
0x000a: 0x000a, # LINE FEED
0x000b: 0x000b, # VERTICAL TABULATION
0x000c: 0x000c, # FORM FEED
0x000d: 0x000d, # CARRIAGE RETURN
0x000e: 0x000e, # SHIFT OUT
0x000f: 0x000f, # SHIFT IN
0x0010: 0x0010, # DATA LINK ESCAPE
0x0011: 0x0011, # DEVICE CONTROL ONE
0x0012: 0x0012, # DEVICE CONTROL TWO
0x0013: 0x0013, # DEVICE CONTROL THREE
0x0014: 0x0014, # DEVICE CONTROL FOUR
0x0015: 0x0015, # NEGATIVE ACKNOWLEDGE
0x0016: 0x0016, # SYNCHRONOUS IDLE
0x0017: 0x0017, # END OF TRANSMISSION BLOCK
0x0018: 0x0018, # CANCEL
0x0019: 0x0019, # END OF MEDIUM
0x001a: 0x001a, # SUBSTITUTE
0x001b: 0x001b, # ESCAPE
0x001c: 0x001c, # FILE SEPARATOR
0x001d: 0x001d, # GROUP SEPARATOR
0x001e: 0x001e, # RECORD SEPARATOR
0x001f: 0x001f, # UNIT SEPARATOR
0x0020: 0x0020, # SPACE
0x0021: 0x0021, # EXCLAMATION MARK
0x0022: 0x0022, # QUOTATION MARK
0x0023: 0x0023, # NUMBER SIGN
0x0024: 0x0024, # DOLLAR SIGN
0x0025: 0x0025, # PERCENT SIGN
0x0026: 0x0026, # AMPERSAND
0x0027: 0x0027, # APOSTROPHE
0x0028: 0x0028, # LEFT PARENTHESIS
0x0029: 0x0029, # RIGHT PARENTHESIS
0x002a: 0x002a, # ASTERISK
0x002b: 0x002b, # PLUS SIGN
0x002c: 0x002c, # COMMA
0x002d: 0x002d, # HYPHEN-MINUS
0x002e: 0x002e, # FULL STOP
0x002f: 0x002f, # SOLIDUS
0x0030: 0x0030, # DIGIT ZERO
0x0031: 0x0031, # DIGIT ONE
0x0032: 0x0032, # DIGIT TWO
0x0033: 0x0033, # DIGIT THREE
0x0034: 0x0034, # DIGIT FOUR
0x0035: 0x0035, # DIGIT FIVE
0x0036: 0x0036, # DIGIT SIX
0x0037: 0x0037, # DIGIT SEVEN
0x0038: 0x0038, # DIGIT EIGHT
0x0039: 0x0039, # DIGIT NINE
0x003a: 0x003a, # COLON
0x003b: 0x003b, # SEMICOLON
0x003c: 0x003c, # LESS-THAN SIGN
0x003d: 0x003d, # EQUALS SIGN
0x003e: 0x003e, # GREATER-THAN SIGN
0x003f: 0x003f, # QUESTION MARK
0x0040: 0x0040, # COMMERCIAL AT
0x0041: 0x0041, # LATIN CAPITAL LETTER A
0x0042: 0x0042, # LATIN CAPITAL LETTER B
0x0043: 0x0043, # LATIN CAPITAL LETTER C
0x0044: 0x0044, # LATIN CAPITAL LETTER D
0x0045: 0x0045, # LATIN CAPITAL LETTER E
0x0046: 0x0046, # LATIN CAPITAL LETTER F
0x0047: 0x0047, # LATIN CAPITAL LETTER G
0x0048: 0x0048, # LATIN CAPITAL LETTER H
0x0049: 0x0049, # LATIN CAPITAL LETTER I
0x004a: 0x004a, # LATIN CAPITAL LETTER J
0x004b: 0x004b, # LATIN CAPITAL LETTER K
0x004c: 0x004c, # LATIN CAPITAL LETTER L
0x004d: 0x004d, # LATIN CAPITAL LETTER M
0x004e: 0x004e, # LATIN CAPITAL LETTER N
0x004f: 0x004f, # LATIN CAPITAL LETTER O
0x0050: 0x0050, # LATIN CAPITAL LETTER P
0x0051: 0x0051, # LATIN CAPITAL LETTER Q
0x0052: 0x0052, # LATIN CAPITAL LETTER R
0x0053: 0x0053, # LATIN CAPITAL LETTER S
0x0054: 0x0054, # LATIN CAPITAL LETTER T
0x0055: 0x0055, # LATIN CAPITAL LETTER U
0x0056: 0x0056, # LATIN CAPITAL LETTER V
0x0057: 0x0057, # LATIN CAPITAL LETTER W
0x0058: 0x0058, # LATIN CAPITAL LETTER X
0x0059: 0x0059, # LATIN CAPITAL LETTER Y
0x005a: 0x005a, # LATIN CAPITAL LETTER Z
0x005b: 0x005b, # LEFT SQUARE BRACKET
0x005c: 0x005c, # REVERSE SOLIDUS
0x005d: 0x005d, # RIGHT SQUARE BRACKET
0x005e: 0x005e, # CIRCUMFLEX ACCENT
0x005f: 0x005f, # LOW LINE
0x0060: 0x0060, # GRAVE ACCENT
0x0061: 0x0061, # LATIN SMALL LETTER A
0x0062: 0x0062, # LATIN SMALL LETTER B
0x0063: 0x0063, # LATIN SMALL LETTER C
0x0064: 0x0064, # LATIN SMALL LETTER D
0x0065: 0x0065, # LATIN SMALL LETTER E
0x0066: 0x0066, # LATIN SMALL LETTER F
0x0067: 0x0067, # LATIN SMALL LETTER G
0x0068: 0x0068, # LATIN SMALL LETTER H
0x0069: 0x0069, # LATIN SMALL LETTER I
0x006a: 0x006a, # LATIN SMALL LETTER J
0x006b: 0x006b, # LATIN SMALL LETTER K
0x006c: 0x006c, # LATIN SMALL LETTER L
0x006d: 0x006d, # LATIN SMALL LETTER M
0x006e: 0x006e, # LATIN SMALL LETTER N
0x006f: 0x006f, # LATIN SMALL LETTER O
0x0070: 0x0070, # LATIN SMALL LETTER P
0x0071: 0x0071, # LATIN SMALL LETTER Q
0x0072: 0x0072, # LATIN SMALL LETTER R
0x0073: 0x0073, # LATIN SMALL LETTER S
0x0074: 0x0074, # LATIN SMALL LETTER T
0x0075: 0x0075, # LATIN SMALL LETTER U
0x0076: 0x0076, # LATIN SMALL LETTER V
0x0077: 0x0077, # LATIN SMALL LETTER W
0x0078: 0x0078, # LATIN SMALL LETTER X
0x0079: 0x0079, # LATIN SMALL LETTER Y
0x007a: 0x007a, # LATIN SMALL LETTER Z
0x007b: 0x007b, # LEFT CURLY BRACKET
0x007c: 0x007c, # VERTICAL LINE
0x007d: 0x007d, # RIGHT CURLY BRACKET
0x007e: 0x007e, # TILDE
0x007f: 0x007f, # DELETE
0x00a0: 0x00ff, # NO-BREAK SPACE
0x00a4: 0x00fd, # CURRENCY SIGN
0x00b7: 0x00fa, # MIDDLE DOT
0x0401: 0x00f0, # CYRILLIC CAPITAL LETTER IO
0x0404: 0x00f4, # CYRILLIC CAPITAL LETTER UKRAINIAN IE
0x0406: 0x00f6, # CYRILLIC CAPITAL LETTER BYELORUSSIAN-UKRAINIAN I
0x0407: 0x00f8, # CYRILLIC CAPITAL LETTER YI
0x0410: 0x0080, # CYRILLIC CAPITAL LETTER A
0x0411: 0x0081, # CYRILLIC CAPITAL LETTER BE
0x0412: 0x0082, # CYRILLIC CAPITAL LETTER VE
0x0413: 0x0083, # CYRILLIC CAPITAL LETTER GHE
0x0414: 0x0084, # CYRILLIC CAPITAL LETTER DE
0x0415: 0x0085, # CYRILLIC CAPITAL LETTER IE
0x0416: 0x0086, # CYRILLIC CAPITAL LETTER ZHE
0x0417: 0x0087, # CYRILLIC CAPITAL LETTER ZE
0x0418: 0x0088, # CYRILLIC CAPITAL LETTER I
0x0419: 0x0089, # CYRILLIC CAPITAL LETTER SHORT I
0x041a: 0x008a, # CYRILLIC CAPITAL LETTER KA
0x041b: 0x008b, # CYRILLIC CAPITAL LETTER EL
0x041c: 0x008c, # CYRILLIC CAPITAL LETTER EM
0x041d: 0x008d, # CYRILLIC CAPITAL LETTER EN
0x041e: 0x008e, # CYRILLIC CAPITAL LETTER O
0x041f: 0x008f, # CYRILLIC CAPITAL LETTER PE
0x0420: 0x0090, # CYRILLIC CAPITAL LETTER ER
0x0421: 0x0091, # CYRILLIC CAPITAL LETTER ES
0x0422: 0x0092, # CYRILLIC CAPITAL LETTER TE
0x0423: 0x0093, # CYRILLIC CAPITAL LETTER U
0x0424: 0x0094, # CYRILLIC CAPITAL LETTER EF
0x0425: 0x0095, # CYRILLIC CAPITAL LETTER HA
0x0426: 0x0096, # CYRILLIC CAPITAL LETTER TSE
0x0427: 0x0097, # CYRILLIC CAPITAL LETTER CHE
0x0428: 0x0098, # CYRILLIC CAPITAL LETTER SHA
0x0429: 0x0099, # CYRILLIC CAPITAL LETTER SHCHA
0x042a: 0x009a, # CYRILLIC CAPITAL LETTER HARD SIGN
0x042b: 0x009b, # CYRILLIC CAPITAL LETTER YERU
0x042c: 0x009c, # CYRILLIC CAPITAL LETTER SOFT SIGN
0x042d: 0x009d, # CYRILLIC CAPITAL LETTER E
0x042e: 0x009e, # CYRILLIC CAPITAL LETTER YU
0x042f: 0x009f, # CYRILLIC CAPITAL LETTER YA
0x0430: 0x00a0, # CYRILLIC SMALL LETTER A
0x0431: 0x00a1, # CYRILLIC SMALL LETTER BE
0x0432: 0x00a2, # CYRILLIC SMALL LETTER VE
0x0433: 0x00a3, # CYRILLIC SMALL LETTER GHE
0x0434: 0x00a4, # CYRILLIC SMALL LETTER DE
0x0435: 0x00a5, # CYRILLIC SMALL LETTER IE
0x0436: 0x00a6, # CYRILLIC SMALL LETTER ZHE
0x0437: 0x00a7, # CYRILLIC SMALL LETTER ZE
0x0438: 0x00a8, # CYRILLIC SMALL LETTER I
0x0439: 0x00a9, # CYRILLIC SMALL LETTER SHORT I
0x043a: 0x00aa, # CYRILLIC SMALL LETTER KA
0x043b: 0x00ab, # CYRILLIC SMALL LETTER EL
0x043c: 0x00ac, # CYRILLIC SMALL LETTER EM
0x043d: 0x00ad, # CYRILLIC SMALL LETTER EN
0x043e: 0x00ae, # CYRILLIC SMALL LETTER O
0x043f: 0x00af, # CYRILLIC SMALL LETTER PE
0x0440: 0x00e0, # CYRILLIC SMALL LETTER ER
0x0441: 0x00e1, # CYRILLIC SMALL LETTER ES
0x0442: 0x00e2, # CYRILLIC SMALL LETTER TE
0x0443: 0x00e3, # CYRILLIC SMALL LETTER U
0x0444: 0x00e4, # CYRILLIC SMALL LETTER EF
0x0445: 0x00e5, # CYRILLIC SMALL LETTER HA
0x0446: 0x00e6, # CYRILLIC SMALL LETTER TSE
0x0447: 0x00e7, # CYRILLIC SMALL LETTER CHE
0x0448: 0x00e8, # CYRILLIC SMALL LETTER SHA
0x0449: 0x00e9, # CYRILLIC SMALL LETTER SHCHA
0x044a: 0x00ea, # CYRILLIC SMALL LETTER HARD SIGN
0x044b: 0x00eb, # CYRILLIC SMALL LETTER YERU
0x044c: 0x00ec, # CYRILLIC SMALL LETTER SOFT SIGN
0x044d: 0x00ed, # CYRILLIC SMALL LETTER E
0x044e: 0x00ee, # CYRILLIC SMALL LETTER YU
0x044f: 0x00ef, # CYRILLIC SMALL LETTER YA
0x0451: 0x00f1, # CYRILLIC SMALL LETTER IO
0x0454: 0x00f5, # CYRILLIC SMALL LETTER UKRAINIAN IE
0x0456: 0x00f7, # CYRILLIC SMALL LETTER BYELORUSSIAN-UKRAINIAN I
0x0457: 0x00f9, # CYRILLIC SMALL LETTER YI
0x0490: 0x00f2, # CYRILLIC CAPITAL LETTER GHE WITH UPTURN
0x0491: 0x00f3, # CYRILLIC SMALL LETTER GHE WITH UPTURN
0x2116: 0x00fc, # NUMERO SIGN
0x221a: 0x00fb, # SQUARE ROOT
0x2500: 0x00c4, # BOX DRAWINGS LIGHT HORIZONTAL
0x2502: 0x00b3, # BOX DRAWINGS LIGHT VERTICAL
0x250c: 0x00da, # BOX DRAWINGS LIGHT DOWN AND RIGHT
0x2510: 0x00bf, # BOX DRAWINGS LIGHT DOWN AND LEFT
0x2514: 0x00c0, # BOX DRAWINGS LIGHT UP AND RIGHT
0x2518: 0x00d9, # BOX DRAWINGS LIGHT UP AND LEFT
0x251c: 0x00c3, # BOX DRAWINGS LIGHT VERTICAL AND RIGHT
0x2524: 0x00b4, # BOX DRAWINGS LIGHT VERTICAL AND LEFT
0x252c: 0x00c2, # BOX DRAWINGS LIGHT DOWN AND HORIZONTAL
0x2534: 0x00c1, # BOX DRAWINGS LIGHT UP AND HORIZONTAL
0x253c: 0x00c5, # BOX DRAWINGS LIGHT VERTICAL AND HORIZONTAL
0x2550: 0x00cd, # BOX DRAWINGS DOUBLE HORIZONTAL
0x2551: 0x00ba, # BOX DRAWINGS DOUBLE VERTICAL
0x2552: 0x00d5, # BOX DRAWINGS DOWN SINGLE AND RIGHT DOUBLE
0x2553: 0x00d6, # BOX DRAWINGS DOWN DOUBLE AND RIGHT SINGLE
0x2554: 0x00c9, # BOX DRAWINGS DOUBLE DOWN AND RIGHT
0x2555: 0x00b8, # BOX DRAWINGS DOWN SINGLE AND LEFT DOUBLE
0x2556: 0x00b7, # BOX DRAWINGS DOWN DOUBLE AND LEFT SINGLE
0x2557: 0x00bb, # BOX DRAWINGS DOUBLE DOWN AND LEFT
0x2558: 0x00d4, # BOX DRAWINGS UP SINGLE AND RIGHT DOUBLE
0x2559: 0x00d3, # BOX DRAWINGS UP DOUBLE AND RIGHT SINGLE
0x255a: 0x00c8, # BOX DRAWINGS DOUBLE UP AND RIGHT
0x255b: 0x00be, # BOX DRAWINGS UP SINGLE AND LEFT DOUBLE
0x255c: 0x00bd, # BOX DRAWINGS UP DOUBLE AND LEFT SINGLE
0x255d: 0x00bc, # BOX DRAWINGS DOUBLE UP AND LEFT
0x255e: 0x00c6, # BOX DRAWINGS VERTICAL SINGLE AND RIGHT DOUBLE
0x255f: 0x00c7, # BOX DRAWINGS VERTICAL DOUBLE AND RIGHT SINGLE
0x2560: 0x00cc, # BOX DRAWINGS DOUBLE VERTICAL AND RIGHT
0x2561: 0x00b5, # BOX DRAWINGS VERTICAL SINGLE AND LEFT DOUBLE
0x2562: 0x00b6, # BOX DRAWINGS VERTICAL DOUBLE AND LEFT SINGLE
0x2563: 0x00b9, # BOX DRAWINGS DOUBLE VERTICAL AND LEFT
0x2564: 0x00d1, # BOX DRAWINGS DOWN SINGLE AND HORIZONTAL DOUBLE
0x2565: 0x00d2, # BOX DRAWINGS DOWN DOUBLE AND HORIZONTAL SINGLE
0x2566: 0x00cb, # BOX DRAWINGS DOUBLE DOWN AND HORIZONTAL
0x2567: 0x00cf, # BOX DRAWINGS UP SINGLE AND HORIZONTAL DOUBLE
0x2568: 0x00d0, # BOX DRAWINGS UP DOUBLE AND HORIZONTAL SINGLE
0x2569: 0x00ca, # BOX DRAWINGS DOUBLE UP AND HORIZONTAL
0x256a: 0x00d8, # BOX DRAWINGS VERTICAL SINGLE AND HORIZONTAL DOUBLE
0x256b: 0x00d7, # BOX DRAWINGS VERTICAL DOUBLE AND HORIZONTAL SINGLE
0x256c: 0x00ce, # BOX DRAWINGS DOUBLE VERTICAL AND HORIZONTAL
0x2580: 0x00df, # UPPER HALF BLOCK
0x2584: 0x00dc, # LOWER HALF BLOCK
0x2588: 0x00db, # FULL BLOCK
0x258c: 0x00dd, # LEFT HALF BLOCK
0x2590: 0x00de, # RIGHT HALF BLOCK
0x2591: 0x00b0, # LIGHT SHADE
0x2592: 0x00b1, # MEDIUM SHADE
0x2593: 0x00b2, # DARK SHADE
0x25a0: 0x00fe, # BLACK SQUARE
}
Raw
Frikr_Lib_encodings_cp1140.py
This file has been truncated, but you can view the full file.
""" Python Character Mapping Codec cp1140 generated from 'python-mappings/CP1140.TXT' with gencodec.py.
"""#"
import codecs
### Codec APIs
class Codec(codecs.Codec):
def encode(self,input,errors='strict'):
return codecs.charmap_encode(input,errors,encoding_table)
def decode(self,input,errors='strict'):
return codecs.charmap_decode(input,errors,decoding_table)
class IncrementalEncoder(codecs.IncrementalEncoder):
def encode(self, input, final=False):
return codecs.charmap_encode(input,self.errors,encoding_table)[0]
class IncrementalDecoder(codecs.IncrementalDecoder):
def decode(self, input, final=False):
return codecs.charmap_decode(input,self.errors,decoding_table)[0]
class StreamWriter(Codec,codecs.StreamWriter):
pass
class StreamReader(Codec,codecs.StreamReader):
pass
### encodings module API
def getregentry():
return codecs.CodecInfo(
name='cp1140',
encode=Codec().encode,
decode=Codec().decode,
incrementalencoder=IncrementalEncoder,
incrementaldecoder=IncrementalDecoder,
streamreader=StreamReader,
streamwriter=StreamWriter,
)
### Decoding Table
decoding_table = (
'\x00' # 0x00 -> NULL
'\x01' # 0x01 -> START OF HEADING
'\x02' # 0x02 -> START OF TEXT
'\x03' # 0x03 -> END OF TEXT
'\x9c' # 0x04 -> CONTROL
'\t' # 0x05 -> HORIZONTAL TABULATION
'\x86' # 0x06 -> CONTROL
'\x7f' # 0x07 -> DELETE
'\x97' # 0x08 -> CONTROL
'\x8d' # 0x09 -> CONTROL
'\x8e' # 0x0A -> CONTROL
'\x0b' # 0x0B -> VERTICAL TABULATION
'\x0c' # 0x0C -> FORM FEED
'\r' # 0x0D -> CARRIAGE RETURN
'\x0e' # 0x0E -> SHIFT OUT
'\x0f' # 0x0F -> SHIFT IN
'\x10' # 0x10 -> DATA LINK ESCAPE
'\x11' # 0x11 -> DEVICE CONTROL ONE
'\x12' # 0x12 -> DEVICE CONTROL TWO
'\x13' # 0x13 -> DEVICE CONTROL THREE
'\x9d' # 0x14 -> CONTROL
'\x85' # 0x15 -> CONTROL
'\x08' # 0x16 -> BACKSPACE
'\x87' # 0x17 -> CONTROL
'\x18' # 0x18 -> CANCEL
'\x19' # 0x19 -> END OF MEDIUM
'\x92' # 0x1A -> CONTROL
'\x8f' # 0x1B -> CONTROL
'\x1c' # 0x1C -> FILE SEPARATOR
'\x1d' # 0x1D -> GROUP SEPARATOR
'\x1e' # 0x1E -> RECORD SEPARATOR
'\x1f' # 0x1F -> UNIT SEPARATOR
'\x80' # 0x20 -> CONTROL
'\x81' # 0x21 -> CONTROL
'\x82' # 0x22 -> CONTROL
'\x83' # 0x23 -> CONTROL
'\x84' # 0x24 -> CONTROL
'\n' # 0x25 -> LINE FEED
'\x17' # 0x26 -> END OF TRANSMISSION BLOCK
'\x1b' # 0x27 -> ESCAPE
'\x88' # 0x28 -> CONTROL
'\x89' # 0x29 -> CONTROL
'\x8a' # 0x2A -> CONTROL
'\x8b' # 0x2B -> CONTROL
'\x8c' # 0x2C -> CONTROL
'\x05' # 0x2D -> ENQUIRY
'\x06' # 0x2E -> ACKNOWLEDGE
'\x07' # 0x2F -> BELL
'\x90' # 0x30 -> CONTROL
'\x91' # 0x31 -> CONTROL
'\x16' # 0x32 -> SYNCHRONOUS IDLE
'\x93' # 0x33 -> CONTROL
'\x94' # 0x34 -> CONTROL
'\x95' # 0x35 -> CONTROL
'\x96' # 0x36 -> CONTROL
'\x04' # 0x37 -> END OF TRANSMISSION
'\x98' # 0x38 -> CONTROL
'\x99' # 0x39 -> CONTROL
'\x9a' # 0x3A -> CONTROL
'\x9b' # 0x3B -> CONTROL
'\x14' # 0x3C -> DEVICE CONTROL FOUR
'\x15' # 0x3D -> NEGATIVE ACKNOWLEDGE
'\x9e' # 0x3E -> CONTROL
'\x1a' # 0x3F -> SUBSTITUTE
' ' # 0x40 -> SPACE
'\xa0' # 0x41 -> NO-BREAK SPACE
'\xe2' # 0x42 -> LATIN SMALL LETTER A WITH CIRCUMFLEX
'\xe4' # 0x43 -> LATIN SMALL LETTER A WITH DIAERESIS
'\xe0' # 0x44 -> LATIN SMALL LETTER A WITH GRAVE
'\xe1' # 0x45 -> LATIN SMALL LETTER A WITH ACUTE
'\xe3' # 0x46 -> LATIN SMALL LETTER A WITH TILDE
'\xe5' # 0x47 -> LATIN SMALL LETTER A WITH RING ABOVE
'\xe7' # 0x48 -> LATIN SMALL LETTER C WITH CEDILLA
'\xf1' # 0x49 -> LATIN SMALL LETTER N WITH TILDE
'\xa2' # 0x4A -> CENT SIGN
'.' # 0x4B -> FULL STOP
'<' # 0x4C -> LESS-THAN SIGN
'(' # 0x4D -> LEFT PARENTHESIS
'+' # 0x4E -> PLUS SIGN
'|' # 0x4F -> VERTICAL LINE
'&' # 0x50 -> AMPERSAND
'\xe9' # 0x51 -> LATIN SMALL LETTER E WITH ACUTE
'\xea' # 0x52 -> LATIN SMALL LETTER E WITH CIRCUMFLEX
'\xeb' # 0x53 -> LATIN SMALL LETTER E WITH DIAERESIS
'\xe8' # 0x54 -> LATIN SMALL LETTER E WITH GRAVE
'\xed' # 0x55 -> LATIN SMALL LETTER I WITH ACUTE
'\xee' # 0x56 -> LATIN SMALL LETTER I WITH CIRCUMFLEX
'\xef' # 0x57 -> LATIN SMALL LETTER I WITH DIAERESIS
'\xec' # 0x58 -> LATIN SMALL LETTER I WITH GRAVE
'\xdf' # 0x59 -> LATIN SMALL LETTER SHARP S (GERMAN)
'!' # 0x5A -> EXCLAMATION MARK
'$' # 0x5B -> DOLLAR SIGN
'*' # 0x5C -> ASTERISK
')' # 0x5D -> RIGHT PARENTHESIS
';' # 0x5E -> SEMICOLON
'\xac' # 0x5F -> NOT SIGN
'-' # 0x60 -> HYPHEN-MINUS
'/' # 0x61 -> SOLIDUS
'\xc2' # 0x62 -> LATIN CAPITAL LETTER A WITH CIRCUMFLEX
'\xc4' # 0x63 -> LATIN CAPITAL LETTER A WITH DIAERESIS
'\xc0' # 0x64 -> LATIN CAPITAL LETTER A WITH GRAVE
'\xc1' # 0x65 -> LATIN CAPITAL LETTER A WITH ACUTE
'\xc3' # 0x66 -> LATIN CAPITAL LETTER A WITH TILDE
'\xc5' # 0x67 -> LATIN CAPITAL LETTER A WITH RING ABOVE
'\xc7' # 0x68 -> LATIN CAPITAL LETTER C WITH CEDILLA
'\xd1' # 0x69 -> LATIN CAPITAL LETTER N WITH TILDE
'\xa6' # 0x6A -> BROKEN BAR
',' # 0x6B -> COMMA
'%' # 0x6C -> PERCENT SIGN
'_' # 0x6D -> LOW LINE
'>' # 0x6E -> GREATER-THAN SIGN
'?' # 0x6F -> QUESTION MARK
'\xf8' # 0x70 -> LATIN SMALL LETTER O WITH STROKE
'\xc9' # 0x71 -> LATIN CAPITAL LETTER E WITH ACUTE
'\xca' # 0x72 -> LATIN CAPITAL LETTER E WITH CIRCUMFLEX
'\xcb' # 0x73 -> LATIN CAPITAL LETTER E WITH DIAERESIS
'\xc8' # 0x74 -> LATIN CAPITAL LETTER E WITH GRAVE
'\xcd' # 0x75 -> LATIN CAPITAL LETTER I WITH ACUTE
'\xce' # 0x76 -> LATIN CAPITAL LETTER I WITH CIRCUMFLEX
'\xcf' # 0x77 -> LATIN CAPITAL LETTER I WITH DIAERESIS
'\xcc' # 0x78 -> LATIN CAPITAL LETTER I WITH GRAVE
'`' # 0x79 -> GRAVE ACCENT
':' # 0x7A -> COLON
'#' # 0x7B -> NUMBER SIGN
'@' # 0x7C -> COMMERCIAL AT
"'" # 0x7D -> APOSTROPHE
'=' # 0x7E -> EQUALS SIGN
'"' # 0x7F -> QUOTATION MARK
'\xd8' # 0x80 -> LATIN CAPITAL LETTER O WITH STROKE
'a' # 0x81 -> LATIN SMALL LETTER A
'b' # 0x82 -> LATIN SMALL LETTER B
'c' # 0x83 -> LATIN SMALL LETTER C
'd' # 0x84 -> LATIN SMALL LETTER D
'e' # 0x85 -> LATIN SMALL LETTER E
'f' # 0x86 -> LATIN SMALL LETTER F
'g' # 0x87 -> LATIN SMALL LETTER G
'h' # 0x88 -> LATIN SMALL LETTER H
'i' # 0x89 -> LATIN SMALL LETTER I
'\xab' # 0x8A -> LEFT-POINTING DOUBLE ANGLE QUOTATION MARK
'\xbb' # 0x8B -> RIGHT-POINTING DOUBLE ANGLE QUOTATION MARK
'\xf0' # 0x8C -> LATIN SMALL LETTER ETH (ICELANDIC)
'\xfd' # 0x8D -> LATIN SMALL LETTER Y WITH ACUTE
'\xfe' # 0x8E -> LATIN SMALL LETTER THORN (ICELANDIC)
'\xb1' # 0x8F -> PLUS-MINUS SIGN
'\xb0' # 0x90 -> DEGREE SIGN
'j' # 0x91 -> LATIN SMALL LETTER J
'k' # 0x92 -> LATIN SMALL LETTER K
'l' # 0x93 -> LATIN SMALL LETTER L
'm' # 0x94 -> LATIN SMALL LETTER M
'n' # 0x95 -> LATIN SMALL LETTER N
'o' # 0x96 -> LATIN SMALL LETTER O
'p' # 0x97 -> LATIN SMALL LETTER P
'q' # 0x98 -> LATIN SMALL LETTER Q
'r' # 0x99 -> LATIN SMALL LETTER R
'\xaa' # 0x9A -> FEMININE ORDINAL INDICATOR
'\xba' # 0x9B -> MASCULINE ORDINAL INDICATOR
'\xe6' # 0x9C -> LATIN SMALL LIGATURE AE
'\xb8' # 0x9D -> CEDILLA
'\xc6' # 0x9E -> LATIN CAPITAL LIGATURE AE
'\u20ac' # 0x9F -> EURO SIGN
'\xb5' # 0xA0 -> MICRO SIGN
'~' # 0xA1 -> TILDE
's' # 0xA2 -> LATIN SMALL LETTER S
't' # 0xA3 -> LATIN SMALL LETTER T
'u' # 0xA4 -> LATIN SMALL LETTER U
'v' # 0xA5 -> LATIN SMALL LETTER V
'w' # 0xA6 -> LATIN SMALL LETTER W
'x' # 0xA7 -> LATIN SMALL LETTER X
'y' # 0xA8 -> LATIN SMALL LETTER Y
'z' # 0xA9 -> LATIN SMALL LETTER Z
'\xa1' # 0xAA -> INVERTED EXCLAMATION MARK
'\xbf' # 0xAB -> INVERTED QUESTION MARK
'\xd0' # 0xAC -> LATIN CAPITAL LETTER ETH (ICELANDIC)
'\xdd' # 0xAD -> LATIN CAPITAL LETTER Y WITH ACUTE
'\xde' # 0xAE -> LATIN CAPITAL LETTER THORN (ICELANDIC)
'\xae' # 0xAF -> REGISTERED SIGN
'^' # 0xB0 -> CIRCUMFLEX ACCENT
'\xa3' # 0xB1 -> POUND SIGN
'\xa5' # 0xB2 -> YEN SIGN
'\xb7' # 0xB3 -> MIDDLE DOT
'\xa9' # 0xB4 -> COPYRIGHT SIGN
'\xa7' # 0xB5 -> SECTION SIGN
'\xb6' # 0xB6 -> PILCROW SIGN
'\xbc' # 0xB7 -> VULGAR FRACTION ONE QUARTER
'\xbd' # 0xB8 -> VULGAR FRACTION ONE HALF
'\xbe' # 0xB9 -> VULGAR FRACTION THREE QUARTERS
'[' # 0xBA -> LEFT SQUARE BRACKET
']' # 0xBB -> RIGHT SQUARE BRACKET
'\xaf' # 0xBC -> MACRON
'\xa8' # 0xBD -> DIAERESIS
'\xb4' # 0xBE -> ACUTE ACCENT
'\xd7' # 0xBF -> MULTIPLICATION SIGN
'{' # 0xC0 -> LEFT CURLY BRACKET
'A' # 0xC1 -> LATIN CAPITAL LETTER A
'B' # 0xC2 -> LATIN CAPITAL LETTER B
'C' # 0xC3 -> LATIN CAPITAL LETTER C
'D' # 0xC4 -> LATIN CAPITAL LETTER D
'E' # 0xC5 -> LATIN CAPITAL LETTER E
'F' # 0xC6 -> LATIN CAPITAL LETTER F
'G' # 0xC7 -> LATIN CAPITAL LETTER G
'H' # 0xC8 -> LATIN CAPITAL LETTER H
'I' # 0xC9 -> LATIN CAPITAL LETTER I
'\xad' # 0xCA -> SOFT HYPHEN
'\xf4' # 0xCB -> LATIN SMALL LETTER O WITH CIRCUMFLEX
'\xf6' # 0xCC -> LATIN SMALL LETTER O WITH DIAERESIS
'\xf2' # 0xCD -> LATIN SMALL LETTER O WITH GRAVE
'\xf3' # 0xCE -> LATIN SMALL LETTER O WITH ACUTE
'\xf5' # 0xCF -> LATIN SMALL LETTER O WITH TILDE
'}' # 0xD0 -> RIGHT CURLY BRACKET
'J' # 0xD1 -> LATIN CAPITAL LETTER J
'K' # 0xD2 -> LATIN CAPITAL LETTER K
'L' # 0xD3 -> LATIN CAPITAL LETTER L
'M' # 0xD4 -> LATIN CAPITAL LETTER M
'N' # 0xD5 -> LATIN CAPITAL LETTER N
'O' # 0xD6 -> LATIN CAPITAL LETTER O
'P' # 0xD7 -> LATIN CAPITAL LETTER P
'Q' # 0xD8 -> LATIN CAPITAL LETTER Q
'R' # 0xD9 -> LATIN CAPITAL LETTER R
'\xb9' # 0xDA -> SUPERSCRIPT ONE
'\xfb' # 0xDB -> LATIN SMALL LETTER U WITH CIRCUMFLEX
'\xfc' # 0xDC -> LATIN SMALL LETTER U WITH DIAERESIS
'\xf9' # 0xDD -> LATIN SMALL LETTER U WITH GRAVE
'\xfa' # 0xDE -> LATIN SMALL LETTER U WITH ACUTE
'\xff' # 0xDF -> LATIN SMALL LETTER Y WITH DIAERESIS
'\\' # 0xE0 -> REVERSE SOLIDUS
'\xf7' # 0xE1 -> DIVISION SIGN
'S' # 0xE2 -> LATIN CAPITAL LETTER S
'T' # 0xE3 -> LATIN CAPITAL LETTER T
'U' # 0xE4 -> LATIN CAPITAL LETTER U
'V' # 0xE5 -> LATIN CAPITAL LETTER V
'W' # 0xE6 -> LATIN CAPITAL LETTER W
'X' # 0xE7 -> LATIN CAPITAL LETTER X
'Y' # 0xE8 -> LATIN CAPITAL LETTER Y
'Z' # 0xE9 -> LATIN CAPITAL LETTER Z
'\xb2' # 0xEA -> SUPERSCRIPT TWO
'\xd4' # 0xEB -> LATIN CAPITAL LETTER O WITH CIRCUMFLEX
'\xd6' # 0xEC -> LATIN CAPITAL LETTER O WITH DIAERESIS
'\xd2' # 0xED -> LATIN CAPITAL LETTER O WITH GRAVE
'\xd3' # 0xEE -> LATIN CAPITAL LETTER O WITH ACUTE
'\xd5' # 0xEF -> LATIN CAPITAL LETTER O WITH TILDE
'0' # 0xF0 -> DIGIT ZERO
'1' # 0xF1 -> DIGIT ONE
'2' # 0xF2 -> DIGIT TWO
'3' # 0xF3 -> DIGIT THREE
'4' # 0xF4 -> DIGIT FOUR
'5' # 0xF5 -> DIGIT FIVE
'6' # 0xF6 -> DIGIT SIX
'7' # 0xF7 -> DIGIT SEVEN
'8' # 0xF8 -> DIGIT EIGHT
'9' # 0xF9 -> DIGIT NINE
'\xb3' # 0xFA -> SUPERSCRIPT THREE
'\xdb' # 0xFB -> LATIN CAPITAL LETTER U WITH CIRCUMFLEX
'\xdc' # 0xFC -> LATIN CAPITAL LETTER U WITH DIAERESIS
'\xd9' # 0xFD ->
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Frikr_Lib_encodings_cp1250.py
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