antonhornquist

// This is a step sequencer with 8 tracks and 8 steps. The sequencer triggers playback of one sample per
// track. Sequencer tempo and swing amount is variable.

// The code below is split in two main sections (core + monome and arc UI) followed by an example of
// loading samples for the tracks, a pattern and tempo and swing amount setting.

(
// Section 1: Define the core step sequencer functionality. All step sequencer functionality is available
// using the exported functions.
var num_samples = 8, num_pattern_steps = 8, pattern_beats = 2, default_tempo = 100, default_swing_amount = 50;

antonhornquist

// Hello World

a=GRMonome64.new; // create a monome b=GRButton(a, 0@0); // a 1x1 button placed at top left key b.action = { |view, value| (value.if("Hello", "Goodbye") + "World").postln }; // an action triggered when the button is pressed

// A tour of widgets...

b.remove; // remove the button created above

antonhornquist

// Grrr for SuperCollider: an UI library for grid based controllers

// Grrr classes are loosely based on SuperCollider GUI classes. GRControllers are similar to Windows, GRView and its subclasses are similar to View and its subclasses. Like GUI classes a parent is typically passed to a GRView upon instantiation to indicate which controller or view the view will become a child of. Instead of GUI bounds (a Rect supplied to GUI Views) arguments origin (a Point), numCols and numRows designate where on the parent view or controller a Grrr widget is added and how large it is supposed to be.

a=GRScreenGrid.new; // A GRScreenGrid is a virtual grid with configurable size that defaults to 8x8 b=GRButton(a, 0@0, 2, 2); // a button spanning 2x2 keys is placed at top left key on the virtual grid b.action = { |view, value| (value.if("Hello", "Goodbye") + "World").postln }; // pressing the top-leftmost 2x2 grid keys will now post a message to the Post Window and toggle button value which in turn toggles led state

b.value

antonhornquist

(
s.boot;
s.latency = 0.02;
~grid=GRMonome64.new;
~grid.spawnGui;
~playpos=GRHToggle.newDecoupled(~grid, 0@7, 8, 1, nillable: true).value_(nil);
~pages=GRSwitcher(~grid, 0@1, 8, 6);
~pageselect=GRHToggle(~grid, 0@0, 4, 1).action_({ |view, value| ~pages.value = value });
~transport=GRHToggle(~grid, 6@0, 2, 1);
~transport.action = { |view, value| if (value == 1) { ~player.play } { ~player.stop } };

antonhornquist

( var plotpath, update, plotxy, position, size, alpha;

plotpath = { |to| var steps = 5; var delta = (to - position) / steps; fork { steps.do { position = position + delta; update.();

antonhornquist

( var app = \toggle; var state; var update; var client;

~disposeApp.();

state=Ref(Archive.global.at(\apps, app, \value) ? true);

antonhornquist

( var app = \bulb; var position, size, alpha; var plotpath, update; var client;

Archive.global.at(\apps, app).isNil.if { Archive.global.put(\apps, app, \position, (8.rand@8.rand))); Archive.global.put(\apps, app, \size, 50); Archive.global.put(\apps, app, \alpha, `0);

antonhornquist

require 'socket'
require 'tempfile'

file = Tempfile.new('foo')

# note: using pd netreceive is unsafe, only do this if you know what you're doing
lines =<<-PATCH
#N canvas 87 360 450 300 10;
#X obj 24 25 netreceive 2000 1;
#X obj 24 51 s pd-#{File.basename(file.path)};

antonhornquist

require 'tempfile'

# pure data patching dsl for ruby hack

file = Tempfile.new
begin
	my_patch = patch # 1. create patch
	my_patch + 'declare -stdpath creb' # 2. add object
	mod = my_patch + 'loadbang' >> 'list 200 10000' >> 'line~' >> 'osc~ 2' >> '*~ 800' >> '+~ 1000' # 3. connect
	sine = mod >> 'osc~ 429' >> '*~ 0.5'

antonhornquist

( // code below loads 16 samples into first kit ~loadKit.value( 0, // kit index. four kits, indexed 0 to 3, are available ( root: "/path/to/samples", // root path for samples samples: [ // an array of up to 16 samples "kick1.wav", "kick2.wav", "snare.wav",