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use_real_time # Preventing latency
use_tuning :just, :c # Just Intonation
bass = (ring 48, 53, 48, 43, 53, 48, 55, 41) # Alternating between C, F, and G
with_fx :compressor, threshold: 0.1 do # Preventing clipping
  with_fx :reverb do # Everything on the same reverb
    melody = synth :prophet, note: 0, release: 1000, cutoff_slide: 0.02, amp: 0
    live_loop :notes do
      note_on, velocity = sync "/midi/USB_Midi_Cable/4/1/note_on" # Incoming notes from Yamaha WX-11 wind controller
      if velocity > 0 # Only use actual note-ons
        control melody, note: note_on, amp: velocity / 127.0 # Incoming note

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use_real_time # Preventing latency
use_tuning :just, :c # Just Intonation, chords are diatonic in C major 

with_fx :compressor, threshold: 0.1 do # Preventing clipping
  with_fx :reverb do # Everything on the same reverb
    with_fx :lpf, cutoff_slide: 0.02 do |filtre| # Everything on the same breath-controlled filter
      baritone = synth :hoover, note: 0, release: 1000, amp: 0 # “Classic early 90’s rave synth”
      tenor = synth :chipbass, note: 0, release: 1000, amp: 0 # “A 16 step triangle wave modelled after the 2A03 chip found in voice 3 of the NES games console.”
      alto = synth :beep, note: 0, release: 1000, amp: 0 # Sine wave
      soprano = synth :chiplead, note: 0, release: 1000, amp: 0 # “A slightly clipped square (pulse) wave with phases of 12.5%, 25% or 50% modelled after the 2A03 chip found in voices 1 and 2 of the NES games console.”

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# Thirty years ago, Robby Kilgore invented a neat harmonization effect for Michael Brecker: http://robbykilgore.com/?p=19
# The basic idea is that incoming notes are doubled by rotating intervals. So you get diverse chords from the same melodic notes.
# This script is an attempt to reproduce the same effect.

use_real_time # Prevents latency
use_synth :fm # Other interesting synth sounds for this: [:hoover, :prophet, :blade, :fm]

middle=[-8, -5, -7, -1].ring # Rotating intervals for the middle note of each chord.
low=[-12, -17, 0].ring # Rotating intervals for the “bass” note of each chord.

Enkerli

// Passing on OSC data to Sonic Pi
import oscP5.*;
import netP5.*;

OscP5 oscP5;
NetAddress myBroadcastLocation; 

void setup() {
  background(0);
  frameRate(60);

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"""Based on Small example OSC client from Python-OSC, and Synth.py from Pimoroni's Skywriter examples.
This sends the Skywriter HAT's xyz coordinates as OSC messages to Sonic Pi.
"""
import argparse
import random
import time
import skywriter
import os
import signal

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set_sched_ahead_time! 0 # Setting that one to a negative value makes Sonic Pi complain, it sounds like.

with_fx :bpf do |s| # Setting up the fx to be controlled internally
  synth :square, note: 32,release: 400 # Long release as the control will affect a single note
  live_loop :ctl do # The loop is inside the fx as this is where the action will be.
    ctl=sync "/ctl" # The OSC message which Processing sends, based on mouse coordinates.
    rz=ctl[:args][0] # Assigning the first argument to resonance.
    ct=ctl[:args][1] # Assigning the second argument to centre.
    control s, res: rz, centre: ct # The actual control of the fx.
    set_sched_ahead_time! -2 # Sounds like setting this again every time actually helps.

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// Learning Processing
// Daniel Shiffman
// http://www.learningprocessing.com

// Exercise 13-5: Using Example 13-5, draw a spiral path. Start in the center and move 
// outward. Note that this can be done by changing only one line of code and adding one line 
// of code!           

// A Polar coordinate, radius now starts at 0 to spiral outwards
float r = 1; 

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from gpiozero import *
from time import sleep

sensor = DistanceSensor(24, 23)
n = 0
bz = PWMOutputDevice(18, initial_value=0.4)
bz.pulse(fade_in_time=0.3)
    
while True:
    print('Distance to nearest object is', sensor.distance, 'm')

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import RPi.GPIO as GPIO   #import the GPIO library
import time               #import the time library
from gpiozero import DistanceSensor

class Buzzer(object):
 def __init__(self):
  GPIO.setmode(GPIO.BCM)  
  self.buzzer_pin = 22 #set to GPIO pin 22
  GPIO.setup(self.buzzer_pin, GPIO.IN)
  GPIO.setup(self.buzzer_pin, GPIO.OUT)

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#N canvas 431 139 708 570 10;
#N canvas 553 258 450 300 soundload 0;
#X obj 100 157 openpanel;
#X obj 100 100 bng 45 250 50 0 empty empty Load 11 22 0 10 -261682
-33289 -33289;
#X msg 100 182 read -resize \$1 soundfile1;
#X obj 100 209 soundfiler;
#X floatatom 100 233 10 0 0 0 - - -;
#X obj 100 256 s filelength;
#X obj 254 238 samplerate~;