def __new__(cls, port_name=None):
"""Open a named port."""
if MidiPort.__instance is None:
if port_name is not None:
MidiPort.__instance = mido.open_output(port_name)
else:
MidiPort.__instance = mido.open_output()
return MidiPort.__instance
def __init__(self, input=None, output=None):
if input is None:
try:
input = mido.open_input('Launchpad S', callback=True)
except IOError:
input = mido.open_input('Launchpad S MIDI 1', callback=True)
if output is None:
try:
output = mido.open_output('Launchpad S')
except IOError:
output = mido.open_output('Launchpad S MIDI 1')
super(LaunchpadS, self).__init__(input, output)
def __init__(self, target=MIDIOUT_DEFAULT):
self.midi = None
self.debug = False
ports = mido.get_output_names()
if len(ports) == 0:
raise Exception("No MIDI output ports found")
for name in ports:
if name == target:
isobar.log("Found MIDI output (%s)" % name)
self.midi = mido.open_output(name)
if self.midi is None:
print "Could not find MIDI target %s, using default" % target
self.midi = mido.open_output()
def __init__(self, input=None, output=None):
if input is None:
try:
input = mido.open_input('Launchpad Mini', callback=True)
except IOError:
input = mido.open_input('Launchpad Mini MIDI 1', callback=True)
if output is None:
try:
output = mido.open_output('Launchpad Mini')
except IOError:
output = mido.open_output('Launchpad Mini MIDI 1')
self.lights = lights((8, 8))
self.buttons = buttons((8, 8))
super(Launchpad, self).__init__(input, output)
def __init__(self, input=None, output=None):
if input is None:
try:
input = mido.open_input('Launchpad Pro Standalone Port', callback=True)
except IOError:
input = mido.open_input('Launchpad Pro MIDI 2', callback=True)
if output is None:
try:
output = mido.open_output('Launchpad Pro Standalone Port')
except IOError:
output = mido.open_output('Launchpad Pro MIDI 2')
self.lights = lights((8, 8))
self.buttons = buttons((8, 8))
super(LaunchpadPro, self).__init__(input, output)
def __init__(self, _save_path, songfile, _plyr_ctrls):
super(PlayerThread, self).__init__()
self.name = 'Player'
self.stoprequest = threading.Event()
self.plyr_ctrls = _plyr_ctrls
self.chan_roles = [0 for i in range(10)]
self.plyr_ctrls['songfile'] = songfile
self.midifile = MidiFile(_save_path + songfile)
# 0 - drum fill
self.counter = [0 for i in range(4)]
self.wt = WolfTonesSong()
self.save_path = _save_path
self.load_song(songfile)
self.alt_meas = []
#get the portname (system specific)
env = socket.gethostname()
if(env == 'record_synth'):
names = str(mido.get_output_names())
ports = names.split(',')
sobj = re.search(r'Synth input port \(\d*:0\)', ports[0], flags=0)
portname = sobj.group()
if(env == 'colinsullivan.me'):
#dummy port for testing on a headless server with no audio
portname = 'Midi Through:Midi Through Port-0 14:0'
self.outport = mido.open_output(portname, autoreset=True)
def __init__(self, input_midi_port, output_midi_port, texture_type,
passthrough=True):
self._texture_type = texture_type
self._passthrough = passthrough
# When `passthrough` is True, this is the set of open MIDI note pitches.
self._open_notes = set()
# This lock is used by the serialized decorator.
self._lock = threading.RLock()
# A dictionary mapping a string-formatted mido.Messages to a condition
# variable that will be notified when a matching messsage is received,
# ignoring the time field.
self._signals = {}
# A dictionary mapping integer control numbers to most recently-received
# integer value.
self._control_values = {}
# Threads actively being used to capture incoming messages.
self._captors = []
# Potentially active player threads.
self._players = []
self._metronome = None
# Open MIDI ports.
self._inport = (
input_midi_port if isinstance(input_midi_port, mido.ports.BaseInput)
else mido.open_input(
input_midi_port,
virtual=input_midi_port not in get_available_input_ports()))
self._outport = (
output_midi_port if isinstance(output_midi_port, mido.ports.BaseOutput)
else mido.open_output(
output_midi_port,
virtual=output_midi_port not in get_available_output_ports()))
# Start processing incoming messages.
self._inport.callback = self._timestamp_and_handle_message
def open_output(self):
if self.backend == 'mido':
if self.debug>0:
print('------ OUTPUT ------')
for port in mido.get_output_names():
print(port)
print('-------------------------')
try:
self.outputport = mido.open_output(self.config.get('midi', 'device'))
print "Connected to MIDI output"
except:
print "Error: cannot connect to MIDI output"
raise RuntimeError("Error: cannot connect to MIDI output")
elif self.backend == 'midiosc':
try:
self.outputport = OSC.OSCClient()
self.outputport.connect((self.config.get('midi','hostname'), self.config.getint('midi','port')))
print "Connected to OSC server"
except:
print "Error: cannot connect to OSC server"
raise RuntimeErrror("cannot connect to OSC server")
else:
print 'Error: unsupported backend: ' + self.backend
raise RuntimeError('unsupported backend: ' + self.backend)
def main():
output_name = ''
input_name = ''
device_names = mido.get_input_names()
for device_name in device_names:
# FIXME: Heuristic to get our USB stick device
if '-' in device_name and 'Through' not in device_name:
output_name = device_name
break
else:
print "No appropriate MIDI device. MIDI device names: ", device_names
return
print "Connected devices: ", device_names
print "Opening device: ", output_name
# or, with mido.open_ioport(output_name) as iop:
with mido.open_output(output_name) as output:
with mido.open_input(output_name, callback=print_message) as inp:
#msg = mido.Message('sysex', data=[10]) Set type to digital output
#msg = mido.Message('sysex', data=[101]) # send watchdog timer reset
#msg = mido.Message('sysex', data=[99]) # Request device type
msg = mido.Message('sysex', data=[77]) # Request device name
#msg = mido.Message('sysex', data=[54,1,2,3,4]) # Set device name to '0x010203'
#msg = mido.Message('note_on')
print "sending msg: ", msg
output.send(msg);
print "waiting for response message"
time.sleep(1) # Pause while we get MIDO callback print-outs
print "script done"
def Run(fi, minnote=21, maxnote=108, forcelowest=False, minvelocity=64, maxvelocity=115, timingdivisor=127, shortestnoteon=0.00390625, step=3, mono=True, microgranny=True, sendCC=True, sendsamplechange=True, loop=False):
if minnote < 0:
print("Negative minimum note")
minnote = 0
if maxnote >127:
print("Maximum note too high")
maxnote = 127
if maxnote < minnote or minnote > maxnote:
print("Maxnote and minnote swapped")
hold = maxnote
maxnote = minnote
minnote = hold
##open file as a byte array
with open(fi, "rb") as inFile:
f = inFile.read()
b = bytearray(f)
##send midi
with mido.open_output() as o:
if(loop):
while True:
print("looping")
Play(o, b,minnote,maxnote, forcelowest, minvelocity, maxvelocity, timingdivisor,shortestnoteon,step,mono,microgranny,sendCC,sendsamplechange)
else:
Play(o, b,minnote,maxnote,forcelowest, minvelocity, maxvelocity,timingdivisor,shortestnoteon,step,mono,microgranny,sendCC,sendsamplechange)
def Run():
global mt
global nvalue
global pnvalue
with mido.open_output(autoreset = True) as o:
with mido.open_input() as i:
while True:
for message in i:
if message.type == 'control_change':## and not message.control == 13:
print("in : " + str(message))
Translate(message,o)
if 'note' in mt:
if not pnvalue == nvalue:
mo = mido.Message(mt,note = nvalue, velocity = 100)
print("out : " + str(mo))
o.send(mo)
pnvalue = nvalue
##microgranny tends not to respond to off or time, or anything it doesn't like
if 'off'in mt:
mt = ''
o.send(mido.Message('note_off',note = pnvalue))
o.send(mido.Message('note_off',note=nvalue))
print("out : note_off")
o.reset()
o.panic()
ManualPanic(o)
def __init__(self, input=None, output=None):
if input is None:
try:
input = mido.open_input(
'Ableton Push User Port',
callback=True)
except IOError:
input = mido.open_input('Ableton Push MIDI 2', callback=True)
if output is None:
try:
output = mido.open_output('Ableton Push User Port')
except IOError:
output = mido.open_output('Ableton Push MIDI 2')
self.lights = lights((8, 8))
self.buttons = buttons((8, 8))
super(Push, self).__init__(input, output)
def __init__(self, loop, scale, bpm=120, midi_port=u"TiMidity port 0", midi_chan=1):
self.loop = loop
self.scale = scale
self.bpm = 60 / bpm
self.start = True
# initialize midi output
self.midi_output = mido.open_output(midi_port)
self.midi_output.send(mido.Message("program_change", program=midi_chan))
def __init__(self, input_midi_port, output_midi_port): self._inport = mido.open_input(input_midi_port) self._outport = mido.open_output(output_midi_port) # This lock is used by the serialized decorator. self._lock = threading.RLock() self._control_cvs = dict() self._player = None self._capture_start_time = None self._sequence_start_time = None
def __init__(self):
QtGui.QWidget.__init__(self)
try:
self.output = mido.open_output(self.outputPort)
except IOError:
print ("sorry; couldn't setup MIDI player")
print ("perhapsoverruling outputPort (currently {0} will help".format(self.outputPort))
self.output = None
dbg_print('MidiPlayer:__init__', self.output)
def __init__(self, daemonize=False, buflen=80):
self.scrollwheel = 0
self.buflen = buflen
self.lines = collections.deque([''] * self.buflen)
self.lock = threading.Lock()
try:
# Ports on MAC OSX
self.output = mido.open_output('Ableton Push User Port')
self.input = mido.open_input('Ableton Push User Port',
callback=self.callback)
except IOError:
# Ports on Arch Linux
self.output = mido.open_output('Ableton Push MIDI 2')
self.input = mido.open_input('Ableton Push MIDI 2',
callback=self.callback)
while True:
line = sys.stdin.readline()
if not line:
# EOF from STDIN
break
# We need to use mutex because concurrent reads and writes on
# dequeue (scrolling while there is new text coming in from stdin)
# will issue warnings.
self.lock.acquire()
self.lines.append(line)
self.lines.popleft()
self.lock.release()
self.redraw()
# Do not quit process if running daemonized
# This enables scrolling for one-show piping to Push
#
# e.g. ping www.google.de | pushcat is scrollable as long as ping runs
# ls | pushcat is not scrollable as ls immediately terminates
# ls | pushcat -d enables scrolling
if daemonize:
while True:
try:
time.sleep(0.1)
except KeyboardInterrupt:
sys.exit(0)
def __init__(self, turtle, devname, cb=False):
self.turtle = turtle
if cb:
self.midi_in = mido.open_input(devname, callback=self.midi_callback)
else:
self.midi_in = mido.open_input(devname)
self.midi_out = mido.open_output(devname)
self.rgb = True
self.size = 1
self._update_rgb_indicator()
def say(message, times = 1):
message = message + " "
with mido.open_output(CONTROLLER) as output:
print("saying \"{}\"".format(message))
delay = lambda: sleep(0.25)
for i in range(0,times):
for frame in text_to_bitmap(message):
send_lights_to_output(frame, output)
delay()
delay()
def open_pair(input, output):
if not isinstance(input, mido.ports.BaseInput):
state.inp = mido.open_input([i for i in mido.get_input_names() if i.lower().startswith(input.lower())][0])
else:
state.inp = input
if not isinstance(output, mido.ports.BaseOutput):
state.out = mido.open_output([i for i in mido.get_output_names() if i.lower().startswith(output.lower())][0])
else: state.out = output
setup_threads()
state.metronome = Metronome()
def __init__(self, input_midi_ports, output_midi_ports, texture_type,
passthrough=True, playback_channel=0, playback_offset=0.0):
self._texture_type = texture_type
self._passthrough = passthrough
self._playback_channel = playback_channel
self._playback_offset = playback_offset
# When `passthrough` is True, this is the set of open MIDI note pitches.
self._open_notes = set()
# This lock is used by the serialized decorator.
self._lock = threading.RLock()
# A dictionary mapping a compiled MidiSignal regex to a condition variable
# that will be notified when a matching messsage is received.
self._signals = {}
# A dictionary mapping a compiled MidiSignal regex to a list of functions
# that will be called with the triggering message in individual threads when
# a matching message is received.
self._callbacks = collections.defaultdict(list)
# A dictionary mapping integer control numbers to most recently-received
# integer value.
self._control_values = {}
# Threads actively being used to capture incoming messages.
self._captors = []
# Potentially active player threads.
self._players = []
self._metronome = None
# Open MIDI ports.
if input_midi_ports:
for port in input_midi_ports:
if isinstance(port, mido.ports.BaseInput):
inport = port
else:
virtual = port not in get_available_input_ports()
if virtual:
tf.logging.info(
"Opening '%s' as a virtual MIDI port for input.", port)
inport = mido.open_input(port, virtual=virtual)
# Start processing incoming messages.
inport.callback = self._timestamp_and_handle_message
else:
tf.logging.warn('No input port specified. Capture disabled.')
self._inport = None
outports = []
for port in output_midi_ports:
if isinstance(port, mido.ports.BaseInput):
outports.append(port)
else:
virtual = port not in get_available_output_ports()
if virtual:
tf.logging.info(
"Opening '%s' as a virtual MIDI port for output.", port)
outports.append(mido.open_output(port, virtual=virtual))
self._outport = mido.ports.MultiPort(outports)
def main():
with open('a.csv','r') as csvfile:
reader=csv.reader(csvfile)
flag=0
c=0.0
t0=0
next(reader)
next(reader)
tmp=[(float(x),float(y)) for x,y,z1,z2,z3 in reader]
timelist,pitchlist=zip(*tmp)
a=69
with mido.open_output('LoopBe Internal MIDI') as mid:
#track=mido.midifiles.MidiTrack()
#mid.tracks.append(track)
mid.send(mido.Message('program_change',program=53,time=0.0))
#pitchlist=butter_lowpass_filter(pitchlist,5,50,5)
#filtered = scipy.signal.medfilt
#pitchlist=butter_lowpass_filter(pitchlist,5,100,1)
#pitchlist=butter_lowpass_filter(pitchlist,5,100,3)
#if 0:
for row in list(zip(timelist,pitchlist))[3:-15]:
row=list(row)
#print(row)
b=pitch(float(row[1]))
if b>100: continue
if not sticky(b,float(row[1]),a,0.8):
if flag:
sleep((float(row[0])-t0)/10)
mid.send(mido.Message('note_off',note=round(a,0),
time=float(row[0])-t0))
else:
t0=float(row[0])
flag=1
t0=float(row[0])
#last_state=(2**((round(b,0)-69)/120)*440)
print(row[0],int(round(a,0)),int(round(b,0)))
a=round(b,0)
mid.send(mido.Message('note_on',note=round(b),
time=float(row[0])-t0))
#timelist.append(float(row[0])-t0)
#pitchlist.append(float(row[1]))
#plt.plot(timelist,pitchlist)
threshold = 0.5
timelist=np.asarray(timelist[30:])
pitchlist=np.asarray(pitchlist[30:])
#deltas = periods(timelist, pitchlist, threshold)
#print(timelist,pitchlist,deltas)
plt.plot(timelist,pitchlist)
#trans_times = butter_lowpass_filter(pitchlist,5,100,3)
#print(trans_times)
#plt.plot(timelist,trans_times,'r')
#plt.plot(trans_times, threshold * np.ones_like(trans_times))
plt.show()
def _sendMidi(note, velocity, length, device):
velocity = int(round(velocity * 127))
note = int(note)
dsp.log(device)
out = mido.open_output(device)
msg = mido.Message('note_on', note=note, velocity=velocity)
out.send(msg)
dsp.delay(length)
msg = mido.Message('note_off', note=note, velocity=0)
out.send(msg)
def play(self):
port_name = 'Microsoft GS Wavetable Synth' #will need to pick up which port to use when used on different devices
filename = 'assets/game/enemies/level_1.MID' #use this to set which level is played
mido.set_backend('mido.backends.pygame')
with mido.open_output(port_name) as output:
with MidiFile(filename) as midi_file:
for message in midi_file.play():
if __main__.app.midi_thread.stopped_test(): #checks for stop thread flag
break
byte_message = message.bytes()
self.spawn_enemy(byte_message)
output.send(message)
def _open_output(self, port): if self._out_port is None: try: self._out_port = mido.open_output(port) except IOError: print "Couldn't open output port '%s'. The following MIDI ports are available:" % port for p in mido.get_output_names(): print "'%s'" % p raise else: assert self._out_port.name == port return self._out_port
def initialize_MIDI_out():
"""Initialize a MIDI output port using RTMIDI through mido
"""
# select rtmidi as our backend
mido.set_backend('mido.backends.rtmidi')
# print "Backend selected is %s " % mido.backend
# Enumerate the available port names
outports = mido.get_output_names()
# Now try to pick the right port to output on.
# If we're in the deployed configuration, it's a MIO adapter, but
# if we're in the lab, it might be something else.
# In either event, there might be more than one matching adapter!
# In that case, we'll punt and take the first one we find.
out = None
for name in outports:
if re.match(r'mio', name):
try:
out = mido.open_output(name)
break
except:
pass
if not out:
for name in outports:
try:
out = mido.open_output(name)
break
except:
pass
if not out:
print("Sorry, unable to open any MIDI output port.")
sys.exit(1)
return out
def __init__(self):
mido.set_backend('mido.backends.rtmidi')
try:
self.outport = mido.open_output('Ableton Push User Port')
except IOError:
pass
self.dialLine = ["","","","","","","",""]
self.statusLine = {}
self.modeNames = ["grain", "sample", "loop", "pattern"]
self.setNetMode(0)
self.setMidiMode(0)
self.thread = Thread( target = self.listenToMidi )
self.thread.start()
self.currentValues = {}
def __init__(self):
port_names = mido.get_output_names()
if not port_names:
raise IndexError("No MIDI output ports found")
if len(port_names) == 1:
idx = 0
logging.info("Choosing MIDI output port %s", port_names[0])
else:
print("MIDI output ports:")
for (idx, name) in enumerate(port_names):
print("{}. {}".format(idx, name))
idx = int(raw_input("Which MIDI output port? "))
assert 0 <= idx < len(port_names)
self.midi_out = mido.open_output(port_names[idx])
def __init__(
self,
loop,
scale,
x,
y,
width=800,
height=600,
foreground=(0, 0, 255),
background=(255, 0, 0),
midi_port="",
midi_chan=0,
bpm=120,
):
self.loop = loop
self.scale = scale
self.width = width
self.height = height
self.x = x
self.playhead_x = x
self.y = y
self.foreground = foreground
self.background = background
self.beat_width = float(width) / len(self.loop)
self.beat_height = float(height) / len(self.loop[0])
self.tt = 0
self.start = True
self.vertex_index = []
self.vertex_coords = []
self.vertex_colors = []
self.quads = 0
self.vertexes_from_loop()
self.bpm = 60 / bpm
print self.beat_width, self.beat_height
# initialize midi output
self.midi_output = mido.open_output(midi_port)
self.midi_output.send(mido.Message("program_change", program=midi_chan))
# render SVG
self.dwg = svgwrite.Drawing(filename="roll.svg", debug=True)
# load sprites
self.on = pyglet.image.load("resources/on.png")
self.on_sprite = pyglet.sprite.Sprite(self.on)
self.off = pyglet.image.load("resources/off.png")
self.off_sprite = pyglet.sprite.Sprite(self.off)
def Run():
##start camera and open midi out
cap = cv2.VideoCapture(0)
o = mido.open_output(autoreset=True)
##then play
try:
while True:
c = camera(cap)
on = Timer((1/16),play(o,c))
off = Timer(1,stopAll(o))
##ctrl-c to quit, closes camera and midi
finally:
cap.release()
cv2.destroyAllWindows()
o.close()
def __init__(self):
self.on_button_press = pypush2._utils.events.EventHandler(self)
'''
Event raised when a button is pressed. Handlers should be of the form:
handler(sender, button)
'''
self.on_button_release = pypush2._utils.events.EventHandler(self)
'''
Event raised when a button is released. Handlers should be of the form:
handler(sender, button)
'''
self.on_pad_touch = pypush2._utils.events.EventHandler(self)
'''
Event raised when a pad is touched. Handlers should be of the form:
handler(sender, padNote, velocity)
'''
self.on_pad_release = pypush2._utils.events.EventHandler(self)
'''
Event raised when a pad is released. Handlers should be of the form:
handler(sender, padNote, velocity)
'''
# Encoders not yet implemented-- need further work on the encoder
# abstraction before they can make sense
self.on_encoder_touch = pypush2._utils.events.EventHandler(self)
self.on_encoder_release = pypush2._utils.events.EventHandler(self)
self.on_encoder_change = pypush2._utils.events.EventHandler(self)
self.on_unhandled_midi_message = pypush2._utils.events.EventHandler(self)
'''
Event raised when a MIDI message is received but isn't handled by
one of the other event types. Handlers should be of the form:
handler(sender, midiMessage)
where midiMessage is a mido.Message.
'''
self._midi_input = mido.open_input('Ableton Push 2 Live Port')
self._midi_output = mido.open_output('Ableton Push 2 Live Port')
import mido
from rstem.button import Button
from rstem.gpio import Output
output = mido.open_output('X18/XR18 MIDI 1')
button = Button(4)
clean_led = Output(2)
distorted_led = Output(22)
output.send(mido.Message('control_change', channel=1))
output.send(mido.Message('control_change', channel=1, control=1, value=127))
distorted = False
clean_led.on()
distorted_led.off()
while True:
if button.presses():
if distorted == True:
output.send(mido.Message('control_change', channel=1))
output.send(
mido.Message('control_change', channel=1, control=1,
value=127))
distorted = False
clean_led.on()
distorted_led.off()
elif distorted == False:
output.send(mido.Message('control_change', channel=1, value=127))
output.send(mido.Message('control_change', channel=1, control=1))
distorted = True
clean_led.off()
distorted_led.on()
import mido
import pigpio
pi1 = pigpio.pi()
outport = mido.open_output('f_midi') # open USB port
onmess = mido.Message('note_on', note=34, velocity=127)
offmess = mido.Message('note_off', note=34, velocity=127)
buttPin = 21
pi1.set_mode(buttPin, pigpio.INPUT)
def buttonDown(gpio, level, tick):
print("DOWN")
#outport.send(onmess)
def buttonUp(gpio, level, tick):
print("UP")
#outport.send(offmess)
cb = pi1.callback(buttPin, pigpio.RISING_EDGE, buttonDown)
cb2 = pi1.callback(buttPin, pigpio.FALLING_EDGE, buttonUp)
# Just loop and do nothing
while True:
pass
#!/usr/bin/env python3
# From: https://github.com/mido/mido
import mido
mido.open_output("MidiSport 1x1:MidiSport 1x1 MIDI 1 20:0").reset()
import pygame
import mido
from mido import Message
import os
import numpy as np
import mido.backends.rtmidi
#This version is for use with python 3
#Mido gets the name of all the output ports
print(mido.get_output_names())
#User decides what port to use
userPort = input('Enter the port you would like to use: ')
outport = mido.open_output(userPort)
# Define some colors
BLACK = (0, 0, 0)
WHITE = (255, 255, 255)
#This is for a wider controller support
safeCheck1 = 0
safeCheck2 = 0
#This function is what determines when to play which note from which button
#button_was_pressed is equal to 0 when it has gone two frames without being pressed.
#It is equal to 1 when it has gone one frame without being pressed.
#And equal to two when it is pressed.
def signalOnPress(note1, button1):
print('------ OUTPUT ------')
for port in mido.get_output_names():
print(port)
print('-------------------------')
mididevice = patch.getstring('midi', 'device')
try:
inputport = mido.open_input(mididevice)
if debug>0:
print "Connected to MIDI input"
except:
print "Error: cannot connect to MIDI input"
exit()
try:
outputport = mido.open_output(mididevice)
if debug>0:
print "Connected to MIDI output"
except:
print "Error: cannot connect to MIDI output"
exit()
try:
# channel 1-16 in the ini file should be mapped to 0-15
midichannel = patch.getint('midi', 'channel')-1
except:
# this happens if it is not specified in the ini file
# it will be determined on the basis of the first incoming message
midichannel = None
# the input scale and offset are used to map Redis values to MIDI values
def PerCon():
global pc
global ch
global ton
while True:
# Song start
if GPIO.input(5) == 0:
with mido.open_output("USB MIDI Interface MIDI 1") as outport:
time.sleep(0.5)
outport.send(
mido.Message('note_on', channel=15, note=27, velocity=65))
print('Song Start')
# Song Stopp
if GPIO.input(22) == 0:
with mido.open_output("USB MIDI Interface MIDI 1") as outport:
time.sleep(0.5)
outport.send(
mido.Message('note_on', channel=15, note=28, velocity=65))
print('Song Stopp')
# PC = 1
if GPIO.input(27) == 0:
time.sleep(0.5)
ch = 0
pc = 1
PC()
# PC = 2
if GPIO.input(17) == 0:
time.sleep(0.5)
ch = 0
pc = 2
PC()
# PC = 3
if GPIO.input(4) == 0:
time.sleep(0.5)
ch = 0
pc = 3
PC()
# PC = 4
if GPIO.input(12) == 0:
time.sleep(0.5)
ch = 0
pc = 4
PC()
# PC = 5
if GPIO.input(25) == 0:
time.sleep(0.5)
ch = 0
pc = 5
PC()
# PC = 6
if GPIO.input(24) == 0:
time.sleep(0.5)
ch = 0
pc = 6
PC()
# PC = 7
if GPIO.input(23) == 0:
with mido.open_output("USB MIDI Interface MIDI 1") as outport:
time.sleep(0.5)
outport.send(
mido.Message('note_on', channel=15, note=9, velocity=65))
print('All Notes Off')
# PC = 8
if GPIO.input(18) == 0:
global ton
time.sleep(0.5)
if ton == True:
with mido.open_output("USB MIDI Interface MIDI 1") as outport:
outport.send(
mido.Message('control_change',
channel=0,
control=64,
value=127))
print('Damper on')
ton = not ton
else:
with mido.open_output("USB MIDI Interface MIDI 1") as outport:
outport.send(
mido.Message('control_change',
channel=0,
control=64,
value=0))
print('Damper off')
ton = not ton
def stop(self, instance):
Clock.unschedule(play_loop)
outport = mido.open_output('HDSPMx73554b MIDI 3')
stop_msg = mido.Message('sysex', data=[127, 127, 6, 1])
outport.send(stop_msg)
import mido
import time
import math
ports = mido.get_output_names()
print(ports)
port_name = ''
# find the PyBadge port
for item in ports:
if item[:7] == 'PyBadge':
port_name = item
break
if port_name != '':
print('Opening port: ' + port_name)
port = mido.open_output(port_name)
counter = 0
start = True
bpm = 60
ppq = 24
beat_ms = math.floor(60000 / (bpm * ppq))
beat_seconds = beat_ms / 1000
print('BPM: ' + str(bpm))
print('beat_ms: ' + str(beat_ms))
print('beat_seconds: ' + str(beat_seconds))
while True:
counter += 1
msg = mido.Message('clock')
port.send(msg)
time.sleep(beat_seconds)
def __init__(self,
input_midi_ports,
output_midi_ports,
texture_type,
passthrough=True,
playback_offset=0.0):
self._texture_type = texture_type
self._passthrough = passthrough
self._playback_offset = playback_offset
# When `passthrough` is True, this is the set of open MIDI note
# pitches.
self._open_notes = set()
# This lock is used by the serialized decorator.
self._lock = threading.RLock()
# A dictionary mapping a compiled MidiSignal regex to a condition variable
# that will be notified when a matching messsage is received.
self._signals = {}
# A dictionary mapping a compiled MidiSignal regex to a list of functions
# that will be called with the triggering message in individual threads when
# a matching message is received.
self._callbacks = defaultdict(list)
# A dictionary mapping integer control numbers to most recently-received
# integer value.
self._control_values = {}
# Threads actively being used to capture incoming messages.
self._captors = []
# Potentially active player threads.
self._players = []
self._metronome = None
# Open MIDI ports.
if input_midi_ports:
for port in input_midi_ports:
if isinstance(port, ports.BaseInput):
inport = port
else:
virtual = port not in get_input_names()
if virtual:
logging.info(
"Opening '%s' as a virtual MIDI port for input.",
port)
inport = open_input(port, virtual=virtual)
# Start processing incoming messages.
inport.callback = self._timestamp_and_handle_message
# this is needed because otherwise inport will get
# garbage collected and stop receiving input events
self._inport = inport
else:
logging.warning('No input port specified. Capture disabled.')
self._inport = None
outports = []
for port in output_midi_ports:
if isinstance(port, ports.BaseInput):
outports.append(port)
else:
virtual = port not in get_output_names()
if virtual:
logging.info(
"Opening '%s' as a virtual MIDI port for output.",
port)
outports.append(open_output(port, virtual=virtual))
self._outport = ports.MultiPort(outports)
def applyPort(self):
self.currentPort = self.port
self.outport.close()
self.outport = mido.open_output(self.currentPort.get())
def __init__(self, master, config):
# Sets up main window and global config.
self.window = master
self.config = config
master.title("Cooltrollers")
#master.iconbitmap(default="controller.ico")
# Adds menus.
menuBar = Menu(master)
fileMenu = Menu(menuBar, tearoff=0)
optionsMenu = Menu(menuBar, tearoff=0)
menuBar.add_cascade(label="File", menu=fileMenu)
fileMenu.add_command(
label="Controller",
command=lambda: Controller(self.outport, self.config, self.
instruString, self.window))
fileMenu.add_command(label="Exit", command=sys.exit)
menuBar.add_cascade(label="Options", menu=optionsMenu)
optionsMenu.add_command(label="Button Manager",
command=self.buttonManager)
optionsMenu.add_command(label="Controller Manager",
command=self.controllerManager)
master.config(menu=menuBar)
master.resizable(0, 0)
# Initializes mido, the MIDI outport, and global variables that are used in functionality().
midi_out = mido.get_output_names()
self.octave = 0
self.counter = -1
# Sets up octave display. Every time it's changed via + or -, the display updates accordingly (via statements in functionality())
self.currentOctaveText = StringVar()
self.currentOctaveText.set("Current octave: {0}".format(
int((self.octave / 12) + 4)))
octaveDisplay = Label(master,
textvariable=self.currentOctaveText,
anchor=NE)
octaveDisplay.grid(row=0, columnspan=2)
# Any key that's pressed activates functionality(), which plays notes.
master.bind("<Key>", self.functionality)
# Combo box and apply button for selecting MIDI port.
self.port = StringVar(master)
self.port.set(midi_out[0])
self.currentPort = self.port
portSelect = OptionMenu(master, self.port, *midi_out)
portSelect.grid(row=1)
applyPortButton = Button(master, text="Apply", command=self.applyPort)
applyPortButton.grid(row=1, column=1)
self.outport = mido.open_output(self.currentPort.get())
# Setting up proper binding settings for playback.
# This right here is all the General MIDI instruments in one list.
self.instruList = [
'1 Acoustic Grand Piano', '2 Bright Acoustic Piano',
'3 Electric Grand Piano', '4 Honky-tonk Piano',
'5 Electric Piano 1', '6 Electric Piano 2', '7 Harpsichord',
'8 Clavinet', '9 Celesta', '10 Glockenspiel', '11 Music Box',
'12 Vibraphone', '13 Marimba', '14 Xylophone', '15 Tubular Bells',
'16 Dulcimer', '17 Drawbar Organ', '18 Percussive Organ',
'19 Rock Organ', '20 Church Organ', '21 Reed Organ',
'22 Accordion', '23 Harmonica', '24 Tango Accordion',
'25 Acoustic Guitar (nylon)', '26 Acoustic Guitar (steel)',
'27 Electric Guitar (jazz)', '28 Electric Guitar (clean)',
'29 Electric Guitar (muted)', '30 Overdriven Guitar',
'31 Distortion Guitar', '32 Guitar harmonics', '33 Acoustic Bass',
'34 Electric Bass (finger)', '35 Electric Bass (pick)',
'36 Fretless Bass', '37 Slap Bass 1', '38 SlapBass 2',
'39 Synth Bass 1', '40 Synth Bass 2', '41 Violin', '42 Viola',
'43 Cello', '44 Contrabass', '45 Tremolo Strings',
'46 Pizzicato Strings', '47 Orchestral Harp', '48 Timpani',
'49 String Ensemble 1', '50 String Ensemble 2',
'51 Synth Strings 1', '52 Synth Strings 2', '53 Choir Aahs',
'54 Voice Oohs', '55 Synth Voice', '56 Orchestra Hit',
'57 Trumpet', '58 Trombone', '59 Tuba', '60 Muted Trumpet',
'61 French Horn', '62 Brass Section', '63 Synth Brass 1',
'64 Synth Brass 2', '65 Soprano Sax', '66 Alto Sax',
'67 Tenor Sax', '68 Baritone Sax', '69 Oboe', '70 English Horn',
'71 Bassoon', '72 Clarinet', '73 Piccolo', '74 Flute',
'75 Recorder', '76 Pan Flute', '77 Blown Bottle', '78 Shakuhachi',
'79 Whistle', '80 Ocarina', '81 Lead 1 (square)',
'82 Lead 2 (sawtooth)', '83 Lead 3 (calliope)',
'84 Lead 4 (chiff)', '85 Lead 5 (charang)', '86 Lead 6 (voice)',
'87 Lead 7 (fifths)', '88 Lead 8 (bass + lead)',
'89 Pad 1 (new age)', '90 Pad 2 (warm)', '91 Pad 3 (polysynth)',
'92 Pad 4 (choir)', '93 Pad 5 (bowed)', '94 Pad 6 (metallic)',
'95 Pad 7 (halo)', '96 Pad 8 (sweep)', '97 FX 1 (rain)',
'98 FX 2 (soundtrack)', '99 FX 3 (crystal)',
'100 FX 4 (atmosphere)', '101 FX 5 (brightness)',
'102 FX 6 (goblins)', '103 FX 7 (echoes)', '104 FX 8 (sci-fi)',
'105 Sitar', '106 Banjo', '107 Shamisen', '108 Koto',
'109 Kalimba', '110 Bag pipe', '111 Fiddle', '112 Shanai',
'113 Tinkle Bell', '114 Agogo', '115 Steel Drums', '116 Woodblock',
'117 Taiko Drum', '118 Melodic Tom', '119 Synth Drum',
'120 Reverse Cymbal', '121 Guitar Fret Noise', '122 Breath Noise',
'123 Seashore', '124 Bird Tweet', '125 Telephone Ring',
'126 Helicopter', '127 Applause', '128 Gunshot'
]
# Checks whether there's a settings file. Otherwise, the user must set up button binds in the bind manager.
if (os.path.isfile('settings.ini')):
self.config.read('settings.ini')
keyString = self.config.get('Button Binds', 'Keys')
instrumentString = self.config.get('Button Binds', 'Instruments')
noteString = self.config.get('Button Binds', 'Notes')
self.key = keyString.split(",")
self.instruString = instrumentString.split(",")
self.note = noteString.split(",")
buttonString = self.config.get('Joystick Binds', 'Buttons')
btnInstrumentString = self.config.get('Joystick Binds',
'Instruments')
btnNoteString = self.config.get('Joystick Binds', 'Notes')
self.button = buttonString.split(",")
self.btnInstruString = btnInstrumentString.split(",")
self.btnNote = btnNoteString.split(",")
for x in range(16):
self.button[x] = int(self.button[x])
else:
# Config file initial setup. Uses strings with commas separating list items to store in the file.
self.clearBinds()
self.clearCtrlBinds()
#!/usr/bin/env python3
# From: https://github.com/mido/mido
import mido
import time
import subprocess, signal, os
# See what ports are out there
# print(mido.get_output_names())
# print(mido.get_input_names())
organ = "MidiSport 1x1:MidiSport 1x1 MIDI 1 20:0"
outport = mido.open_output(organ)
mypath = 'midifiles'
from os import listdir
from os.path import isfile, join
files = [f for f in listdir(mypath) if isfile(join(mypath, f))]
offset = 3 # Number of tabs in to start
files.sort()
print(files)
print(len(files))
def lightsOn(count):
print("Sending cancel")
msg = mido.Message('sysex', data=[0, 74, 79, 72, 65, 83, 127])
outport.send(msg)
type=int,
default=9997,
help="The port for server listen on")
parser.add_argument("--clientport",
type=int,
default=9996,
help="The client port")
parser.add_argument(
"--datafile",
default="fretdata.p",
help="File to write data to (extension should be '.p')")
parser.add_argument("--max_notes_per_chord", type=int, default=6)
parser.add_argument("--midi_port", default='IAC Driver Bus 1')
args = parser.parse_args()
try:
midiout = mido.open_output(args.midi_port)
except:
print("The midi port {} could not be found".format(args.midi_port))
print(
"To run with a different midi port, rerun this program with the command line"
+ "argument '--midi_port 'port name goes here' ")
print(
"Where 'port name goes here' corresponds to one of the following recognized midi ports:"
)
print(mido.get_output_names())
sys.exit()
guitar_notes = create_notebins(min_note='E2', max_note='C#6')
NONZERO_COEFS = args.max_notes_per_chord
datafilename = args.datafile
dispatcher = dispatcher.Dispatcher()
from __future__ import print_function
import sys
from DeepSymphony.utils import Song
import mido
if __name__ == '__main__':
if len(sys.argv) < 2:
sys.argv.append('simple_rnn.mid')
song = Song(sys.argv[1])
# run `timidity -iA` to open the daemon synthesizer
# use port to send message to the daemon synthesizer
port = mido.open_output(name='TiMidity port 0')
keyboard = ['_'] * 128
for msg in song.playback():
if msg.type == 'note_on':
keyboard[msg.note] = '^'
elif msg.type == 'note_off':
keyboard[msg.note] = '_'
print(''.join(keyboard), end='\r')
sys.stdout.flush()
port.send(msg)
text=True).stdout
temp_decimal = temp_str.split('.')[1][0]
return int(temp_decimal)
if __name__ == "__main__":
sensor_list = [temperature_note_test
] # A list of functions that return a value in sensor_list
# We'll need to store channel state. Initialising to nonsense.
frozen_msg = mido.Message('note_off')
last_msgs_sent = [frozen_msg] * len(sensor_list)
# Set up Midi outputs
out = mido.open_output('UM-ONE:UM-ONE MIDI 1 20:0')
# Now and forever more, do things.
while 1 == 1:
# Poll sensors
for channel, sensor in enumerate(sensor_list):
reading = sensor()
print("Sensor {} reading = {}".format(sensor, reading))
# Kill last note (for now, we're assuming that we only control note with sensor)
print("Note off on channel {}".format(channel))
last_note = last_msgs_sent[channel].note
msg = Message('note_off', note=last_note, channel=channel)
out.send(msg)
def __init__(self, control_channel=1, midi_out_name=False):
if midi_out_name is False:
self._port = mido.open_output('video2midi', virtual=True)
else:
self._port = mido.open_output(midi_out_name)
self.set_control_channel(control_channel)
import pygame
import mido
from mido import Message
import os
import mido.backends.rtmidi
#This version is for use with python 2
button_was_pressed = False
print(mido.get_output_names())
outport = mido.open_output("lport 3")
# Define some colors
BLACK = (0, 0, 0)
WHITE = (255, 255, 255)
# This is a simple class that will help us print to the screen
# It has nothing to do with the joysticks, just outputting the
# information.
'''
class TextPrint:
def __init__(self):
self.reset()
self.font = pygame.font.Font(None, 20)
def print(self, screen, textString):
textBitmap = self.font.render(textString, True, BLACK)
screen.blit(textBitmap, [self.x, self.y])
self.y += self.line_height
def reset(self):
)
chord_progression.insert(0, note_queue)
note_queue = []
return
print('computer should not record.')
computer_should_record = False
time_since_pedal_released = time.time()
else:
pass
input_name = mido.get_input_names()[0]
input_port = mido.open_input(input_name, callback=handle_message)
output_name = mido.get_output_names()[0]
output_port = mido.open_output(output_name)
def main():
global note_queue
global input_port
global output_port
global computer_should_record
global init_time
global last_time
while not init:
time.sleep(0.1)
init_time = time.time()
print("Record!")
def __init__(self, binding):
self.port = mido.open_output(binding.midi_port_name)
wait = False #PAUSE FOR WHEN NOTE DROPS TOO FAR
#mapping = {:1,:2,:3,:4,60:5,:6,:7,:8,:9,:10}
notespeed = 5 #speed at which notes fall/rise
'''FIRE UP TiMIDIty++'''
'''def starttimidity():
os.system('timidity -iAqq')
def startstarttimidity():
timiditythread = Thread(target = starttimidity)
timiditythread.daemon = True
timiditythread.start()
startstarttimidity()'''
mido.set_backend('mido.backends.pygame')
port = mido.open_output(mido.get_output_names()[1])
pygame.init()
'''TITLESCREENS'''
def readtitle():
global screenw, screenh, screen
while True:
screen.fill((0, 0, 0))
titlefont = pygame.font.Font(None, 300)
normalfont = pygame.font.Font(None, 100)
screen.blit(titlefont.render('Learn', 1, (100, 100, 100)),
(screenw * 0.1 + 20, screenh * 0.25 + 20))
screen.blit(titlefont.render('Learn', 1, (100, 255, 100)),
(screenw * 0.1, screenh * 0.25))
pygame.display.flip()
print("\nprogram exiting gracefully")
midiout.close()
sys.exit(0)
signal.signal(signal.SIGINT, signal_handler)
# here we're printing the ports to check that we see the one that loopMidi created.
# In the list we should see a port called "loopMIDI port".
midi_connected = False
for i, port in enumerate(available_ports):
if midiportname in port:
print('Connecting to midi port: ' + port)
midiout = port = mido.open_output(port)
midi_connected = True
if not midi_connected:
print('Could not find port ' + midiportname + ' in following midi ports')
print(available_ports)
if args.no_osc:
osc_client = None
else:
osc_client = udp_client.SimpleUDPClient(args.ip, args.port)
import json
with open('ranges_dict.json', 'r') as f:
cube_ranges = json.load(f)
import pyaudio
import audioop
import mido
mido.set_backend('mido.backends.rtmidi')
output = mido.open_output()
# CHUNK = 256
CHUNK = 1024
FORMAT = pyaudio.paInt16
CHANNELS = 2
RATE = 44100
RECORD_SECONDS = 50 # set for how many seconds it is active
WAVE_OUTPUT_FILENAME = "output.wav"
p = pyaudio.PyAudio()
maxRMS = 8000 # adjust according to the input device used, noise etc.
lastMax = 0
maxMIDI = 0
averageLast = []
maxAvgLast = 50
def retAverage(last):
global averageLast
if len(averageLast) == maxAvgLast:
def main_app(offline: bool):
global_storage = GlobalStorage()
sm = None
aq = None
ae = None
if not offline:
sm = SimConnect()
aq = AircraftRequests(sm, _time=200)
ae = AircraftEvents(sm)
global_storage.set_aircraft_events(ae)
global_storage.set_aircraft_requests(aq)
else:
global_storage.set_aircraft_events(MockAircraftEvents())
global_storage.set_aircraft_requests(MockAircraftRequests())
print('Midi input devices:', mido.get_input_names())
print('Midi output devices:', mido.get_output_names())
selected_input = ConfigFile.get_midi_input()
selected_output = ConfigFile.get_midi_output()
print('Using midi input device:', selected_input)
print('Using midi output device:', selected_output)
aircraft = aq.get('TITLE')
print("Current aircraft:", aircraft)
outport = mido.open_output(selected_output) # pylint: disable=no-member
control_change_dict = {}
note_dict = {}
def handle_message(msg: mido.Message):
# print(msg)
if msg.type == 'control_change':
if msg.control in control_change_dict:
control_change_dict[msg.control].on_cc_data(msg.value)
elif msg.type == 'note_on':
if msg.note in note_dict:
note_dict[msg.note].on_note_data(True)
elif msg.type == 'note_off':
if msg.note in note_dict:
note_dict[msg.note].on_note_data(False)
inport = mido.open_input(selected_input, callback=handle_message) # pylint: disable=no-member
for e in range(1, 17):
encoder = RotaryEncoder(e, outport)
global_storage.add_encoder(encoder)
for b in range(1, 33):
btn = PushButton(b, outport)
global_storage.add_button(btn)
for f in range(1, 3):
fader = Fader(f)
global_storage.add_fader(fader)
c = ConfigFile(aircraft)
c.configure()
triggers = c.triggers
for encoder in GlobalStorage().encoders:
control_change_dict[encoder.rotary_control_channel] = encoder
note_dict[encoder.button_note] = encoder
for btn in GlobalStorage().buttons:
note_dict[btn.button_note] = btn
for f in GlobalStorage().faders:
control_change_dict[f.control_channel] = f
while True:
for obj in GlobalStorage().all_elements:
if obj.bound_simvar and aq:
sv = aq.get(obj.bound_simvar)
obj.on_simvar_data(sv)
current_aircraft = aq.get('TITLE')
if current_aircraft and aircraft != current_aircraft:
print("Aircraft changed from", aircraft, "to", current_aircraft)
break
time.sleep(0.05)
global_storage.clear()
inport.close()
outport.close()
def _start():
'''Start the module
This uses the global variables from setup and adds a set of global variables
'''
global parser, args, config, r, response, patch, name
global debug, mididevice, port, previous_note, UpdateVelocity, UpdateDuration, TriggerThread, trigger_name, trigger_code, code, trigger, this, thread, control_name, control_code, previous_val, SetNoteOff, SetNoteOn, duration_note, lock, midichannel, monitor, monophonic, offset_duration, offset_velocity, outputport, scale_duration, scale_velocity, sendMidi, velocity_note
# this can be used to show parameters that have changed
monitor = EEGsynth.monitor(name=name,
debug=patch.getint('general', 'debug'))
# get the options from the configuration file
debug = patch.getint('general', 'debug')
monophonic = patch.getint('general', 'monophonic', default=1)
midichannel = patch.getint(
'midi', 'channel') - 1 # channel 1-16 get mapped to 0-15
mididevice = patch.getstring('midi', 'device')
mididevice = EEGsynth.trimquotes(mididevice)
mididevice = process.extractOne(
mididevice, mido.get_output_names())[0] # select the closest match
# values between 0 and 1 work well for the note duration
scale_duration = patch.getfloat('scale', 'duration', default=1)
offset_duration = patch.getfloat('offset', 'duration', default=0)
# values around 64 work well for the note velocity
scale_velocity = patch.getfloat('scale', 'velocity', default=1)
offset_velocity = patch.getfloat('offset', 'velocity', default=0)
# this is only for debugging, and to check which MIDI devices are accessible
monitor.info('------ INPUT ------')
for port in mido.get_input_names():
monitor.info(port)
monitor.info('------ OUTPUT ------')
for port in mido.get_output_names():
monitor.info(port)
monitor.info('-------------------------')
try:
outputport = mido.open_output(mididevice)
monitor.success('Connected to MIDI output')
except:
raise RuntimeError("cannot connect to MIDI output")
# this is to prevent two messages from being sent at the same time
lock = threading.Lock()
previous_note = None
velocity_note = None
duration_note = None
def UpdateVelocity():
global velocity_note
velocity_note = patch.getfloat('velocity', 'note', default=64)
velocity_note = int(
EEGsynth.rescale(velocity_note,
slope=scale_velocity,
offset=offset_velocity))
def UpdateDuration():
global duration_note
duration_note = patch.getfloat('duration', 'note', default=None)
if duration_note != None:
duration_note = EEGsynth.rescale(duration_note,
slope=scale_duration,
offset=offset_duration)
# some minimal time is needed for the duration
duration_note = EEGsynth.limit(duration_note, 0.05, float('Inf'))
# call them once at the start
UpdateVelocity()
UpdateDuration()
trigger_name = []
trigger_code = []
for code in range(1, 128):
trigger_name.append("note%03d" % code)
trigger_code.append(code)
trigger_name.append("control%03d" % code)
trigger_code.append(code)
trigger_name.append("polytouch%03d" % code)
trigger_code.append(code)
for name in [
'note', 'aftertouch', 'pitchwheel', 'start', 'continue', 'stop',
'reset'
]:
trigger_name.append(name)
trigger_code.append(None)
# each of the Redis messages is mapped onto a different MIDI message
trigger = []
for name, code in zip(trigger_name, trigger_code):
if config.has_option('trigger', name):
# start the background thread that deals with this note
this = TriggerThread(patch.getstring('trigger', name), name, code)
trigger.append(this)
monitor.debug(name, 'trigger configured')
# start the thread for each of the triggers
for thread in trigger:
thread.start()
control_name = []
control_code = []
for code in range(1, 128):
control_name.append("note%03d" % code)
control_code.append(code)
control_name.append("control%03d" % code)
control_code.append(code)
control_name.append("polytouch%03d" % code)
control_code.append(code)
for name in [
'note', 'aftertouch', 'pitchwheel', 'start', 'continue', 'stop',
'reset'
]:
control_name.append(name)
control_code.append(None)
# control values are only interesting when different from the previous value
previous_val = {}
for name in control_name:
previous_val[name] = None
# there should not be any local variables in this function, they should all be global
if len(locals()):
print('LOCALS: ' + ', '.join(locals().keys()))
sleep(0.8)
def on_screen_ready(screen):
from threading import Thread
ui_thread = Thread(target=demo, args=(screen, ))
ui_thread.start()
### MAIN PROGRAM ######
#MIDI output print_ports
print_ports('Output Ports:', mido.get_output_names())
names = mido.get_output_names()
print(names[1])
port = mido.open_output(names[1])
#COINMARKET credentials
session = Session()
session.headers.update(headers)
#block count
r = requests.get("https://blockchain.info/q/getblockcount")
#print("Block Count: ", r.content.decode("utf-8"))
blockCount = r.content.decode("utf-8") # global variable for displaying
#get Bitcoin info at the beginning
threading.Thread(target=updateBitcoin).start()
#parallel processes
#threading.Thread(target=transactions).start()
from __future__ import print_function
import sys
import time
import random
import mido
from mido import Message
if len(sys.argv) > 1:
portname = sys.argv[1]
else:
portname = None # Use default port
# A pentatonic scale
notes = [60, 62, 64, 67, 69, 72]
with mido.open_output(portname, autoreset=True) as port:
print('Using {}'.format(port))
while 1:
note = random.choice(notes)
on = Message('note_on', note=note)
print('Sending {}'.format(on))
port.send(on)
time.sleep(0.05)
off = Message('note_off', note=note)
print('Sending {}'.format(off))
port.send(off)
time.sleep(0.1)
print()
def _loop_once():
"""Run the main loop once
This uses the global variables from setup and start, and adds a set of global variables
"""
global parser, args, config, r, response, patch
global monitor, stepsize, scale_rate, offset_rate, scale_shift, offset_shift, scale_ppqn, offset_ppqn, lock, clock, i, clockthread, midithread, redisthread, midiport, previous_midi_play, previous_midi_start, previous_redis_play
global start, redis_play, midi_play, midi_start, rate, shift, ppqn, elapsed, naptime
redis_play = patch.getint('redis', 'play')
midi_play = patch.getint('midi', 'play')
midi_start = patch.getint('midi', 'start')
if previous_redis_play is None and redis_play is not None:
previous_redis_play = not (redis_play)
if previous_midi_play is None and midi_play is not None:
previous_midi_play = not (midi_play)
if previous_midi_start is None and midi_start is not None:
previous_midi_start = not (midi_start)
# the MIDI port should only be opened once, and only if needed
if midi_play and midiport == None:
mididevice = patch.getstring('midi', 'device')
mididevice = EEGsynth.trimquotes(mididevice)
mididevice = process.extractOne(
mididevice, mido.get_output_names())[0] # select the closest match
try:
outputport = mido.open_output(mididevice)
monitor.success('Connected to MIDI output')
except:
raise RuntimeError("cannot connect to MIDI output")
# do something whenever the value changes
if redis_play and not previous_redis_play:
redisthread.setEnabled(True)
previous_redis_play = True
elif not redis_play and previous_redis_play:
redisthread.setEnabled(False)
previous_redis_play = False
# do something whenever the value changes
if midi_play and not previous_midi_play:
midithread.setEnabled(True)
previous_midi_play = True
elif not midi_play and previous_midi_play:
midithread.setEnabled(False)
previous_midi_play = False
# do something whenever the value changes
if midi_start and not previous_midi_start:
if midiport != None:
midiport.send(mido.Message('start'))
previous_midi_start = True
elif not midi_start and previous_midi_start:
if midiport != None:
midiport.send(mido.Message('stop'))
previous_midi_start = False
rate = patch.getfloat('input', 'rate', default=0)
rate = EEGsynth.rescale(rate, slope=scale_rate, offset=offset_rate)
rate = EEGsynth.limit(rate, 30., 240.)
shift = patch.getfloat('input', 'shift', default=0)
shift = EEGsynth.rescale(shift, slope=scale_shift, offset=offset_shift)
shift = int(shift)
ppqn = patch.getfloat('input', 'ppqn', default=0)
ppqn = EEGsynth.rescale(ppqn, slope=scale_ppqn, offset=offset_ppqn)
ppqn = find_nearest_value([1, 2, 3, 4, 6, 8, 12, 24], ppqn)
# show the parameters whose value has changed
monitor.update("redis_play", redis_play)
monitor.update("midi_play", midi_play)
monitor.update("midi_start", midi_start)
monitor.update("rate", rate)
monitor.update("shift", shift)
monitor.update("ppqn", ppqn)
# update the clock and redis
clockthread.setRate(rate)
redisthread.setShift(shift)
redisthread.setPpqn(ppqn)
# there should not be any local variables in this function, they should all be global
if len(locals()):
print("LOCALS: " + ", ".join(locals().keys()))
import rtmidi_python as rtmidi
import time
from pygame import *
from mido import *
from mido import Message
import mido
import pygame
import time
mido.set_backend("mido.backends.pygame")
names = mido.get_output_names()
print names
outport = mido.open_output(names[3])
if (len(argv) < 3):
print("Usage- python %s COM_PORT note1 [note2 note3 ...]" % (argv[0]))
exit(0)
notes = []
for note in argv[2:]: # append all notes (params) passed in command line
notes.append(note)
print "Notes- " + str(notes)
com_port = argv[1]
print "Using COM port- " + com_port
ser = serial.Serial(com_port, 9600)
#ser.reset_input_buffer()
def main():
#Get options from input
parser = argparse.ArgumentParser(
description='Superpermutation to midi converter')
parser.add_argument(
'inputfile',
help='The file containing the superpermutation to convert.')
parser.add_argument('outputfile',
nargs='?',
default='inputfile',
help='The file to store the midi output in.')
parser.add_argument(
'-s',
'--scale',
nargs='?',
default="default",
help='Scale to translate the numbers into. Possible scales:\
major, natural-minor, harmonic-minor, whole-note')
parser.add_argument(
'-p',
'--play',
action='store_true',
help=
'Play back the midifile when running the script(requires python-rtmidi)'
)
parser.add_argument(
'-I',
'--instrument',
default=46,
help='General MIDI instrument number from 0 to 127. Default: 46 (harp)'
)
parser.add_argument('-l',
'--note_length',
default='edge-weight',
help='The method to decide note lengths.\
Possible values are: edge-weight, free-space, even')
args = parser.parse_args()
input_string = open(args.inputfile, 'r').read().strip()
superpermutation = np.array(list(input_string), dtype=int)
#Make sure it is zero indexed
superpermutation -= superpermutation.min()
N = superpermutation.max() + 1
note_lengths = np.zeros_like(superpermutation)
scale = args.scale
if args.scale == "default":
if N == 7:
scale = "major"
elif N == 6:
scale = "whole-note"
elif N == 5:
scale = "major-pentatonic"
scaleFunction = {
"major": partial(numberToScale, scale=Scales.major),
"natural-minor": partial(numberToScale, scale=Scales.natural_minor),
"harmonic-minor": partial(numberToScale, scale=Scales.harmonic_minor),
"whole-note": partial(numberToScale, scale=Scales.whole_note),
"major-pentatonic": partial(numberToScale,
scale=Scales.major_pentatonic),
"miyako-bushi": partial(numberToScale, scale=Scales.miyako_bushi)
}.get(scale, "major")
if args.note_length == 'free-space':
for i, number in enumerate(superpermutation):
num_perms = 0
# Length based on how far it is to the same value on both sides
for j in range(1, N):
if i - j < 0 or superpermutation[i - j] == number:
break
num_perms += 1
for j in range(1, N):
if i + j >= superpermutation.size or superpermutation[
i + j] == number:
break
num_perms += 1
note_lengths[i] = num_perms - N + 1
elif args.note_length == 'edge-weight':
for i, number in enumerate(superpermutation):
weight = 0
for j in range(i + 1, i + N + 1):
if j >= N and j < superpermutation.size:
if isLegalPermutation(superpermutation[j - N:j]):
break
weight += 1
note_lengths[i] = N - weight - 1
else:
note_lengths[:] = N - 1
# Fix the end values
note_lengths[0:N - 1] = N - 1
mid = MidiFile()
track = MidiTrack()
mid.tracks.append(track)
track.append(Message('program_change', program=args.instrument, time=0))
for i in range(superpermutation.size):
note = scaleFunction(superpermutation[i])
track.append(Message('note_on', note=note, time=0))
track.append(
Message('note_off', note=note, time=2**(note_lengths[i] + 10 - N)))
if args.outputfile == "inputfile":
mid.save(args.inputfile.split('.')[0] + ".mid")
else:
mid.save(args.outputfile)
if args.play:
port = mido.open_output()
for msg in mid.play():
port.send(msg)
#print(rectArray[:,:NUM_TRACKS * chunk + NUM_TRACKS])
chunk += 1
return rectArray
def playMidi(mid):
for message in mid.play():
#print(message)
outport.send(message)
outport = mido.open_output()
noteArray = np.random.randint(0, 128, size=(NUM_TRACKS, SONG_LENGTH))
velocityArray = np.random.randint(0, 128, size=(NUM_TRACKS, SONG_LENGTH))
onOffArray = np.random.randint(-1, 2, size=(NUM_TRACKS, SONG_LENGTH))
noteArray_square = toSquareArray(noteArray)
#midiFunctions.createMidi(noteArray, velocityArray, onOffArray, int(round(60000000 / TEMPO)), "new_song")
noteArray_sources = []
velocityArray_sources = []
onOffArray_sources = []
for i in range(len(FILESOURCES)):
noteArray_source, velocityArray_source, onOffArray_source = midiFunctions.parseMidi(