Jim Morris wolfmanjm

## scurve.py
import matplotlib.pyplot as plt

x0=0           # First Position  (Start)
xd=100         # Second Position  (End)
T=100          # Time

x= [0] * 101
for t in range(0,101):
    x[t]= x0+(xd-x0)*(10*((t/T)**3)-15*((t/T)**4)+6*((t/T)**5))

## spiral-e.g
G1 X0.000000 Y0.000000 E0.000000
G1 X0.000149 Y0.008564 E0.100000
G1 X0.000598 Y0.017119 E0.200000
G1 X0.001345 Y0.025659 E0.300000
G1 X0.002390 Y0.034176 E0.400000
G1 X0.003732 Y0.042661 E0.500000
G1 X0.005371 Y0.051107 E0.600000
G1 X0.007306 Y0.059507 E0.700000
G1 X0.009536 Y0.067852 E0.800000
G1 X0.012058 Y0.076134 E0.900000

## g2e.g
; 20mm cylinder with 0.3mm height 0.7mm width volumetric E
G92 E0
G1 X-10 Z0.3 F3000
G2 I10 J0 E11.98
G10
G1 Z0.6
G11
G92 E0
G2 I10 J0 E11.98
G10

## calc_volume.rb
# calculates E volumetric value given widthxheightxlength
# Usage: width height length

if ARGV.size < 3
    puts "Usage: width height length"
    exit 1
end

$layer_width = ARGV[0].to_f
$layer_height = ARGV[1].to_f

## spiral.g
G0 X0.000000 Y0.000000
G1 X0.000149 Y0.008564
G1 X0.000598 Y0.017119
G1 X0.001345 Y0.025659
G1 X0.002390 Y0.034176
G1 X0.003732 Y0.042661
G1 X0.005371 Y0.051107
G1 X0.007306 Y0.059507
G1 X0.009536 Y0.067852
G1 X0.012058 Y0.076134

## macros.ini
[script upload file]
name = Upload File
exec = upload-ym.py toprint.gcode ACM0

## probe-macros.rb
# issue probe commands to smoothie
require 'optparse'
require 'ostruct'

require 'rubyserial'

class Optparse
    def self.parse(args)
        options = OpenStruct.new
        options.verbose = false

## gist:d10aafe38fb95967471fa9f23dffe4e5
    // this is the time it should take to execute this cartesian move, it is approximate
    // as it does not take into account accel/decel
    float secs = distance / rate_mm_s;

    // check per-actuator speed limits by looking at the minimum time each axis can move its specified amount
    // this is regardless of wether it is mm/sec or deg/sec for a rotary axis
    for (size_t actuator = 0; actuator < n_motors; actuator++) {
        // actual distance moved for this actuator
        // NOTE for a rotary axis this will be degrees turned not distance
        float d = fabsf(actuator_pos[actuator] - actuators[actuator]->get_last_milestone());

## cnc.rb
  job= CNC.build 'plate' do
    @safe_z= 2
    @tool_dia= (1.0/8)*25.4 # 1/8" end mill
    @doc= 0.2
    @feedrate= 1000
    @laser= false

    # size of plate
    w = 100.0
    l = 25.0

## get-file.html
<html>
<head>
<meta http-equiv="Content-Type" content="text/html; charset=UTF-8">
<title>Upload Files</title>
</head>
<body>

    <h2>File Upload</h2>

    Select file
	import matplotlib.pyplot as plt

	x0=0 # First Position (Start)
	xd=100 # Second Position (End)
	T=100 # Time

	x= [0] * 101
	for t in range(0,101):
	x[t]= x0+(xd-x0)(10((t/T)*3)-15((t/T)*4)+6((t/T)**5))
	G1 X0.000000 Y0.000000 E0.000000
	G1 X0.000149 Y0.008564 E0.100000
	G1 X0.000598 Y0.017119 E0.200000
	G1 X0.001345 Y0.025659 E0.300000
	G1 X0.002390 Y0.034176 E0.400000
	G1 X0.003732 Y0.042661 E0.500000
	G1 X0.005371 Y0.051107 E0.600000
	G1 X0.007306 Y0.059507 E0.700000
	G1 X0.009536 Y0.067852 E0.800000
	G1 X0.012058 Y0.076134 E0.900000
	; 20mm cylinder with 0.3mm height 0.7mm width volumetric E
	G92 E0
	G1 X-10 Z0.3 F3000
	G2 I10 J0 E11.98
	G10
	G1 Z0.6
	G11
	G92 E0
	G2 I10 J0 E11.98
	G10
	# calculates E volumetric value given widthxheightxlength
	# Usage: width height length

	if ARGV.size < 3
	puts "Usage: width height length"
	exit 1
	end

	$layer_width = ARGV[0].to_f
	$layer_height = ARGV[1].to_f
	G0 X0.000000 Y0.000000
	G1 X0.000149 Y0.008564
	G1 X0.000598 Y0.017119
	G1 X0.001345 Y0.025659
	G1 X0.002390 Y0.034176
	G1 X0.003732 Y0.042661
	G1 X0.005371 Y0.051107
	G1 X0.007306 Y0.059507
	G1 X0.009536 Y0.067852
	G1 X0.012058 Y0.076134
	[script upload file]
	name = Upload File
	exec = upload-ym.py toprint.gcode ACM0
	# issue probe commands to smoothie
	require 'optparse'
	require 'ostruct'

	require 'rubyserial'

	class Optparse
	def self.parse(args)
	options = OpenStruct.new
	options.verbose = false
	// this is the time it should take to execute this cartesian move, it is approximate
	// as it does not take into account accel/decel
	float secs = distance / rate_mm_s;

	// check per-actuator speed limits by looking at the minimum time each axis can move its specified amount
	// this is regardless of wether it is mm/sec or deg/sec for a rotary axis
	for (size_t actuator = 0; actuator < n_motors; actuator++) {
	// actual distance moved for this actuator
	// NOTE for a rotary axis this will be degrees turned not distance
	float d = fabsf(actuator_pos[actuator] - actuators[actuator]->get_last_milestone());
	job= CNC.build 'plate' do
	@safe_z= 2
	@tool_dia= (1.0/8)*25.4 # 1/8" end mill
	@doc= 0.2
	@feedrate= 1000
	@laser= false

	# size of plate
	w = 100.0
	l = 25.0
	<html>
	<head>
	<meta http-equiv="Content-Type" content="text/html; charset=UTF-8">
	<title>Upload Files</title>
	</head>
	<body>

	<h2>File Upload</h2>

	Select file