def midiOutput() :
mididev = config.mididev
midiConn = -1
lastError = 0
while True :
try :
midiConn = os.open(config.mididev, os.O_WRONLY)
while 1 :
midiMsg = outq.get(True)
display = ""
for i in midiMsg :
display = display + "0x%x " % i
stats.midiout(display)
os.write(midiConn, bytearray(midiMsg))
except Exception as e :
stats.error(e)
print("**> Midi Output Exception cought: %s" % e)
if lastError + 5 > time.time() :
print("Waiting before trying again....")
time.sleep(5)
lastError = time.time()
except BaseException :
print("Keyboard / base interrupt received, stopping deamon...")
return 1
finally :
# close stuff we need to
try :
if midiConn != -1 :
os.close(midiConn)
except :
pass
def midiOutput():
mididev = config.mididev
midiConn = -1
lastError = 0
while True:
try:
midiConn = os.open(config.mididev, os.O_WRONLY)
while 1:
midiMsg = outq.get(True)
display = ""
for i in midiMsg:
display = display + "0x%x " % i
stats.midiout(display)
os.write(midiConn, bytearray(midiMsg))
except Exception as e:
stats.error(e)
print("**> Midi Output Exception cought: %s" % e)
if lastError + 5 > time.time():
print("Waiting before trying again....")
time.sleep(5)
lastError = time.time()
except BaseException:
print("Keyboard / base interrupt received, stopping deamon...")
return 1
finally:
# close stuff we need to
try:
if midiConn != -1:
os.close(midiConn)
except:
pass
def midiInput():
lastError = 0
while 1:
try:
midiIn = os.open(config.mididev, os.O_RDONLY)
sysexBuffer = []
while 1:
midiMsg = os.read(midiIn, 1024)
toSend = []
for i in midiMsg:
i = ord(i)
if len(sysexBuffer) > 0:
sysexBuffer.append(i)
if i == 0xF7:
toSend.extend(sysexBuffer)
sysexBuffer = []
elif i == 0xF0:
sysexBuffer.append(i)
else:
toSend.append(i)
if len(toSend) == 0:
continue
stats.midiin(toSend)
outq.put_nowait(toSend)
if config.sendport != 0:
oscMsg = "/midi/"
for i in toSend:
oscMsg = oscMsg + "%x " % i
# OSC string must be filled with nulls, multiples of 4
footer = len(oscMsg) % 4
if footer == 0:
footer = 4
oscMsg = oscMsg + ("\0" * footer)
networkConn = socket.socket(socket.AF_INET,
socket.SOCK_DGRAM)
networkConn.sendto(oscMsg,
(config.sendhost, config.sendport))
except Exception as e:
stats.error(e)
print("**> Midi Input Exception cought: %s" % e)
if lastError + 4 > time.time():
print("Waiting before trying again....")
time.sleep(4)
lastError = time.time()
except BaseException:
return 1
finally:
try:
os.close(midiIn)
except:
pass
def midiInput() :
lastError = 0
while 1 :
try :
midiIn = os.open(config.mididev, os.O_RDONLY)
sysexBuffer = []
while 1 :
midiMsg = os.read(midiIn, 1024);
toSend = []
for i in midiMsg :
i = ord(i)
if len(sysexBuffer) > 0 :
sysexBuffer.append(i)
if i == 0xF7 :
toSend.extend(sysexBuffer)
sysexBuffer = []
elif i == 0xF0 :
sysexBuffer.append(i)
else :
toSend.append(i)
if len(toSend) == 0 :
continue
stats.midiin(toSend);
outq.put_nowait(toSend)
if config.sendport != 0 :
oscMsg = "/midi/"
for i in toSend :
oscMsg = oscMsg + "%x " % i
# OSC string must be filled with nulls, multiples of 4
footer = len(oscMsg) % 4
if footer == 0 :
footer = 4
oscMsg = oscMsg + ("\0" * footer)
networkConn = socket.socket(socket.AF_INET, socket.SOCK_DGRAM)
networkConn.sendto(oscMsg, (config.sendhost, config.sendport))
except Exception as e :
stats.error(e)
print("**> Midi Input Exception cought: %s" % e)
if lastError + 4 > time.time() :
print("Waiting before trying again....")
time.sleep(4)
lastError = time.time()
except BaseException :
return 1
finally :
try :
os.close(midiIn)
except :
pass
def oscInput():
pilink_debug = "OSCinput: "
networkConn = -1
lastError = 0
while 1:
try:
networkConn = socket.socket(socket.AF_INET, socket.SOCK_DGRAM)
networkConn.bind(("0.0.0.0", config.receiveport))
print("PILINK: LISTENING UDP PORT %d" % config.receiveport)
while 1:
midiMsg = [] # send empty midi message
msg = networkConn.recvfrom(4096)[0]
try:
parsedMsg = []
oscParser(msg, parsedMsg)
#stats.oscin(str(parsedMsg))
for i in parsedMsg:
midiMsg.extend(osc2Midi(i))
except Exception as e:
stats.error(e)
exc_type, exc_value, exc_traceback = sys.exc_info()
print(
str(
traceback.format_exception(exc_type, exc_value,
exc_traceback)))
if len(midiMsg) != 0:
outq.put_nowait(midiMsg)
except Exception as e:
stats.error(e)
print("PILINK: **> Exception cought: %s" % e)
if lastError + 5 > time.time():
print("PILINK: Waiting before trying again....")
time.sleep(5)
lastError = time.time()
except BaseException:
print(
"PILINK: Keyboard / base interrupt received, stopping deamon..."
)
return 1
finally:
try:
if networkConn != -1:
networkConn.close()
except:
pass
def midiOutput():
pilink_debug = "MIDIout: "
midiConn = -1
lastError = 0
while True:
try:
midiConn = rtmidi.MidiOut() #neu
available_ports = midiConn.get_ports() #neu
print("PILINK: --> midioutports: ") #neu-test
for i in available_ports: #neu-test
print("PILINK: --> " + i) #neu-test
if available_ports: #neu
midiConn.open_port(config.rtmidi_PORT) #neu
else: #neu
midiConn.open_virtual_port("My virtual output") #neu
while 1:
midiMsg = outq.get(True)
display = ""
for i in midiMsg:
display = display + "0x%x " % i
#stats.midiout(display) # chan Note Vel
midiConn.send_message(midiMsg) #neu
except Exception as e:
stats.error(e)
print("PILINK: **> Midi Output Exception cought: %s" % e)
if lastError + 5 > time.time():
print("PILINK: Waiting before trying again....")
time.sleep(5)
lastError = time.time()
except BaseException:
print(
"PILINK: Keyboard / base interrupt received, stopping deamon..."
)
return 1
finally:
# close stuff we need to
try:
if midiConn != -1:
del midiConn #neu
except:
pass
def oscInput() :
networkConn = -1
lastError = 0
while 1 :
try :
networkConn = socket.socket(socket.AF_INET, socket.SOCK_DGRAM)
networkConn.bind(("0.0.0.0", config.receiveport))
print("LISTENING UDP PORT %d" % config.receiveport)
while 1 :
midiMsg = [] # send empty midi message
msg = networkConn.recvfrom(4096)[0]
try :
parsedMsg = []
oscParser(msg, parsedMsg)
stats.oscin(str(parsedMsg))
for i in parsedMsg :
midiMsg.extend(osc2Midi(i))
except Exception as e :
stats.error(e)
exc_type, exc_value, exc_traceback = sys.exc_info()
print(str(traceback.format_exception(exc_type, exc_value, exc_traceback)))
if len(midiMsg) != 0 :
outq.put_nowait(midiMsg)
except Exception as e :
stats.error(e)
print("**> Exception cought: %s" % e)
if lastError + 5 > time.time() :
print("Waiting before trying again....")
time.sleep(5)
lastError = time.time()
except BaseException :
print("Keyboard / base interrupt received, stopping deamon...")
return 1
finally :
try :
if networkConn != - 1 :
networkConn.close()
except :
pass
def osc2Midi(msg) :
oscToken = msg[0].split("/")[1:]
token = oscToken.pop(0)
midiMsg = []
# missing link protocol
if token == 'midi' :
token = oscToken.pop(0)
if token == 'z' :
while len(oscToken) != 0 :
token = oscToken.pop(0)
midiMsg.extend(parseMidiMsg(token, msg[1:]))
else :
midiMsg = parseMidiMsg(token, msg[1:])
# TouchOSC and Reaktor protocol
elif token.isdigit() :
chl = int(token)
if chl >= 0 and chl < 16 :
if len(oscToken) == 0 :
return midiMsg
else :
token = oscToken.pop()
# Reaktor vs TouchOSC protocol
if token.find('_') >= 0 :
token.replace('_', ' ')
msgToken = token.split()
action = msgToken.pop()
### TODO add more OSC actions here
if action == 'note' :
midiMsg = [ ( '0x90' + chl ), int(msgToken[0]), int(msgToken[1]) ]
else :
stats.error("Unknown OSC action %s" % action)
return midiMsg
def osc2Midi(msg):
oscToken = msg[0].split("/")[1:]
token = oscToken.pop(0)
midiMsg = []
# missing link protocol
if token == 'midi':
token = oscToken.pop(0)
if token == 'z':
while len(oscToken) != 0:
token = oscToken.pop(0)
midiMsg.extend(parseMidiMsg(token, msg[1:]))
else:
midiMsg = parseMidiMsg(token, msg[1:])
# TouchOSC and Reaktor protocol
elif token.isdigit():
chl = int(token)
if chl >= 0 and chl < 16:
if len(oscToken) == 0:
return midiMsg
else:
token = oscToken.pop()
# Reaktor vs TouchOSC protocol
if token.find('_') >= 0:
token.replace('_', ' ')
msgToken = token.split()
action = msgToken.pop()
### TODO add more OSC actions here
if action == 'note':
midiMsg = [('0x90' + chl), int(msgToken[0]), int(msgToken[1])]
else:
stats.error("Unknown OSC action %s" % action)
return midiMsg
# single bead move
new_x0 = old_x0
new_x1 = old_x1 + np.random.randn() * opt_sig(omega, tau, lam)
path[islice] = new_x0
path[(islice + 1) % nslice] = new_x1
# calculate action change
new_action = action(path, omega, beta, lam)
prob = np.exp(-(new_action - old_action)) # action = -ln_rho
# accept or recject
if np.random.rand() < prob:
naccept += 1
else:
path[islice] = old_x0
path[(islice + 1) % nslice] = old_x1
# end if prob
nmove += 1
# end for islice
# end for istep
# end for isample
np.savetxt('pos.dat', pos)
pos2 = pos[nequil:] * pos[nequil:]
x2eq = x2[nequil:]
accept = float(naccept) / nmove #float(naccept)/nsample/nslice/block_size
print(omega, beta, sig, accept, corr(pos2), np.mean(x2eq), error(x2eq))
# end __main__
return args.omega, args.beta, args.lam, args.sig, args.nequil, args.nsample, args.use_opt_sig, args.block_size
# end def
if __name__ == '__main__':
omega, beta, lam, sig, nequil, nsample, use_opt_sig, block_size = parse_inputs(
)
# calculate optimal step size
if use_opt_sig:
sig = opt_sig(omega, beta, lam)
# end if
accept, x2 = sample_1d_harmonic_analytic(ln_rho, omega, beta, lam, sig,
block_size)
x2eq = x2[nequil:]
fmt = "{omega:6.2f} {beta:4.2f} {sig:4.2f} {accept:3.2f} {corr:3.1f} {x2:4.6f} {x2e:4.6f}"
output = fmt.format(omega=omega,
beta=beta,
sig=sig,
accept=accept,
corr=corr(x2eq),
x2=np.mean(x2eq),
x2e=error(x2eq))
print(output)
#print( omega,beta,sig,accept,corr(x2eq),np.mean(x2eq),error(x2eq) )
np.savetxt('ax2.dat', x2)
# end __main__
prob = np.exp(-(new_action - old_action))
if np.random.rand() < prob:
naccept += 1
old_action = new_action
else:
path[islice] -= move
# end if
# end for islice
# end for istep
# end for isample
print(float(naccept) / nsample / block_size / (nslice - 1))
np.savetxt('action.dat', action_arr)
acteq = action_arr[nequil:]
act_mean = np.mean(acteq)
act_error = error(acteq)
path_mean = np.mean(all_paths, axis=1)
path_sig = np.std(all_paths, axis=1)
fig, ax = plt.subplots(1, 1)
ax.set_xlabel('x', fontsize=16)
ax.set_ylabel('t', fontsize=16)
ax.errorbar(path_mean,
tau * np.arange(nslice),
xerr=path_sig / np.sqrt(nsample - nequil),
fmt='.-',
label='sampled path')
ax.plot(path0, tau * np.arange(nslice), c='k', label='classical path')
#ax.annotate(xy=(-0.5,3),s='true=%3.2f'%action0)
#ax.annotate(xy=(0.5,3),s='link=%3.2f+-%3.2f'%(act_mean,act_error))
print(action0, act_mean, '+-', act_error)