ctford

(ns tuesday.song
  (:require [overtone.live :refer :all]
            [leipzig.melody :refer :all]
            [leipzig.scale :as scale]
            [leipzig.live :as live]
            [leipzig.chord :as chord]
            [leipzig.temperament :as temperament]))

; Instruments
(definst bass [freq 110 volume 1.0]

xavriley

def note_range_demo(low_note, high_note, options={})
  low_note = Note.resolve_midi_note(low_note)
  high_note = Note.resolve_midi_note(high_note)

  potential_note_range = Range.new(low_note, high_note)

  if options[:pitches]
    pitch_classes = options[:pitches].map {|x| Note.resolve_note_name(x) }

    note_pool = potential_note_range.select {|n|

kindohm

live_loop :thing do
  sample :drum_bass_hard
  sleep 0.75
  4.times do
      sample :drum_cymbal_soft, rate: rrand(2,4)
      sleep 0.125
  end
end

live_loop :snare do

rbnpi

#loading...#scaletypecontrolledarpeggios.rb by Robin Newman, July 2015. Requires sp2.6

#A study using arpeggios with different scale formats. Also utilising rings and ticks
#This was a great exercise to explore different Sonic Pi (and Ruby) commands
#eg tick, look, ring, note_range for SP and string manipulation commands and eval for Ruby to mention some.
#First of all in the defined procedures which enable you to extract info about different scale types
#and to generate the rings required for the piece to work.

#Basically the code generates a pool of notes for three separate chords and then transposes those notes
#using notes 0,3,4 and 4 (down an octave) for each of the distinct 8 note scales supported in Sonic Pi

samaaron

# Both live loops play in total rhythmical sync. 
# Notice that they are both using the same seed
# One in Ruby and the other in the synthdef ;-)

# Note: needs Sonic Pi v2.7 to work correctly


live_loop :foo do
  use_random_seed 10
  64.times do

jeremywen

#samples = Dir.glob("/path/to/samples/*.wav")
#samples = [:loop_amen_full, :ambi_choir]
#samples = [:ambi_choir]
samples = [:guit_harmonics]


#starts = (ring 0, 0.25, 0.5, 0.75)
#starts = range(0, 0.875, 0.125)
starts = range(0, 0.875, 0.0625)
#starts = (0..10).collect{rand(1)}

jeremywen

live_loop :drums do
  with_fx :level, amp:1.0 do
    sample :bd_ada, attack:0, sustain_level:0, decay: 0.1, start: 0, amp:2, rate:0.5
    sleep 0.125
    with_fx :reverb, mix:0.2, room:0.5 do
      sample :perc_snap, attack:0, sustain_level:0, decay: (ring 0.1, 0.1, 0.1, 0.5).tick(:t1), start: 0, amp:1, rate:(ring -2, -3, -4, -5).tick(:t1b)
      sleep 0.125
      with_fx :krush, mix:0.7 do
        sample :misc_burp, attack:0, sustain_level:0, decay: 0.4, start: 0.5, amp:(ring 0.4, 0.6, 0.8, 0).tick(:t2), rate:0.9
      end

samaaron

# Coded by Sam Aaron
bizet_bass = (ring :d, :r, :r, :a, :f5, :r, :a, :r)
#bizet_bass = (ring :d, :r, :r, :Bb, :g5, :r, :Bb, :r)

live_loop :bizet do
  with_fx :reverb, room: 1, mix: 0.3 do
    with_fx :slicer, phase: 0.125 do
      synth :blade, note: :d4, release: 8, cutoff: 100, amp: 1.5
    end
    16.times do

rbnpi

SONIC PI DETAILED BUILD YOUR OWN INSTRUCTIONS FOR WINDOWS 10 BASED ON LATEST SP 2.9dev after e7fde3a

Last revision 23rd December 2015 @ 11;25 (added win32-process gem install)

Test bed was a Windows 10 64bit install (running under vmware fusion on a Mac)

This document details the process from beginning to end to build Sonic Pi 2.9dev and I hope it will be useful to others, and encourage them to have a go themselves.

Prerequisite. A windows 10 computer with internet connection and working soundcard.

wojtekerbetowski

Output on 14.03.2017

$ python pywaw.py 
Collecting beautifulsoup4
  Using cached beautifulsoup4-4.5.3-py3-none-any.whl
Collecting requests
  Using cached requests-2.13.0-py2.py3-none-any.whl
Installing collected packages: beautifulsoup4, requests
Successfully installed beautifulsoup4-4.5.3 requests-2.13.0