def valve2(self,toggle_v2):
if toggle_v2:
print "valve2 ON"
#device.setFIOState(v2_lj, 1)
DAC1_VALUE = device.voltageToDACBits(5.5, dacNumber = 1, is16Bits = False)
device.getFeedback(u3.DAC1_8(DAC1_VALUE)) # Set DAC0 to 5 V
if self.Valve1.isChecked() : #if valve1 activated
self.odo.setValue(2) #odor 2
print "odor: 2"
else :
self.odo.setValue(0) #no odor
print "odor: 0"
else :
print "valve2 OFF"
#device.setFIOState(v2_lj, 0)
DAC1_VALUE = device.voltageToDACBits(0, dacNumber = 1, is16Bits = False)
device.getFeedback(u3.DAC1_8(DAC1_VALUE)) # Set DAC0 to 5 V
if self.Valve1.isChecked() : #if valve2 activated
self.odo.setValue(1) #odor 2
print "odor: 1"
else :
self.odo.setValue(0) #no odor
print "odor: 0"
self.odo.setValue(1) #odor 1
def setOdor(device,odor):
if odor == 0:
#device.setFIOState(v1_lj, 0)
DAC0_VALUE = device.voltageToDACBits(0, dacNumber = 0, is16Bits = False)
device.getFeedback(u3.DAC0_8(DAC0_VALUE))
else :
if odor == 1 :
#device.setFIOState(v2_lj, 0)
DAC1_VALUE = device.voltageToDACBits(0, dacNumber = 1, is16Bits = False)
device.getFeedback(u3.DAC1_8(DAC1_VALUE))
#device.setFIOState(v1_lj, 1)
DAC0_VALUE = device.voltageToDACBits(5.5, dacNumber = 0, is16Bits = False)
device.getFeedback(u3.DAC0_8(DAC0_VALUE))
else:
#device.setFIOState(v2_lj, 1)
DAC1_VALUE = device.voltageToDACBits(5.5, dacNumber = 1, is16Bits = False)
device.getFeedback(u3.DAC1_8(DAC1_VALUE))
#device.setFIOState(v1_lj, 1)
DAC0_VALUE = device.voltageToDACBits(5.5, dacNumber =0, is16Bits = False)
device.getFeedback(u3.DAC0_8(DAC0_VALUE))
print "set odor to: "+str(odor)
def closeEvent(self, event): # to clean up, closes labjack and windows
#global device
self.win.close()
device.setFIOState(green_lj, 0)
device.setFIOState(red_lj, 0)
#device.setFIOState(v1_lj, 0)
#device.setFIOState(v2_lj, 0)
DAC0_VALUE = device.voltageToDACBits(0, dacNumber = 0, is16Bits = False)
device.getFeedback(u3.DAC0_8(DAC0_VALUE))
DAC1_VALUE = device.voltageToDACBits(0, dacNumber = 1, is16Bits = False)
device.getFeedback(u3.DAC1_8(DAC1_VALUE))
device.close()
print "closing device"
ser.close() #arduino serial
mmc.unloadAllDevices()
event.accept()
def setDACVoltage(self, dac_channel, voltage):
'''Set the voltage on the DAC0'''
# Set DAC using Modbus
#if dac_channel == 0:
# DAC0_REGISTER = 5000
# self.lj.writeRegister(DAC0_REGISTER, voltage)
#elif dac_channel == 1:
# DAC1_REGISTER = 5002
# self.lj.writeRegister(DAC1_REGISTER, voltage)
#else:
# print 'Error: Not a channel'
# Set DAC using 8 bit low level command
dac_value = int(voltage * 255 / 4.95)
if dac_channel == 0:
self.lj.getFeedback(u3.DAC0_8(dac_value))
elif dac_channel == 1:
self.lj.getFeedback(u3.DAC1_8(dac_value))
else:
print 'Error: Not a channel'
def generate_command_lists(self, states):
command_lists = []
previous_state = self.default
for state in states:
command_list = []
# FIOs
for i in range(4, 8):
if previous_state[i - 4] != state[i - 4]:
command_list.append(u3.BitStateWrite(i, state[i - 4]))
# DACs
if previous_state[4] != state[4]:
voltage_in_bits = self._device.voltageToDACBits(volts=state[4],
dacNumber=0)
command_list.append(u3.DAC0_8(voltage_in_bits))
if previous_state[5] != state[5]:
voltage_in_bits = self._device.voltageToDACBits(volts=state[5],
dacNumber=1)
command_list.append(u3.DAC1_8(voltage_in_bits))
command_lists.append(command_list)
previous_state = state
return command_lists
def dac1out8(d,v=0.0): # v is the floating point voltage. Range is 0 to 4.95 DAC1_VALUE = d.voltageToDACBits(v, dacNumber = 1, is16Bits = False) d.getFeedback(u3.DAC1_8(DAC1_VALUE)) # Set DAC1 to v Volts
def runEpoch(mmc,device,rep):
import time
global epoch_seq #epochs items as list (name,exp,led,odor,duration,noRec)
global meta_index # list: epoch name, start frame, end frame
namep=window.path.text()
print "create hdf5"
hdfpath = createHdf5andClose(namep,savepath)
n_epoch=len(epoch_seq)
total =0
epoch_times =[]
eps = 0.005 #delay... error in time passed
lj_delay = 0#0.012
count = 1 #epoch 0 effectuated before loop
m=0 #tiff saving index
namep=window.path.text()
print "namep..."+str(namep)
window.progressBar.setMinimum(0)
window.progressBar.setMaximum(n_epoch+(rep-1)*n_epoch)
print str(n_epoch)
for i in range(n_epoch):
total += epoch_seq[i][4]
epoch_times.append(total)
print str(n_epoch)+" epochs"
print "should take "+str(total)+"s and repeated "+str(rep)+" time(s)"
mmc.prepareSequenceAcquisition('Zyla')
#print "preparing sequence acquisition took", time.clock()-start, "seconds"
# cv2.namedWindow('Video')
text_file_globalTime = open(savepath+"/globalTime"+namep+".txt", 'w')
#text_file_globalTime.write(str(time.clock()-start)+", "+ser.readline()+"\n")
for i in range(rep): #LOOP FOR TRIALS
print "trial "+str(i+1)
text_file = open(savepath+"/respi"+namep+"_trial_"+str(i+1)+".txt", 'w')
text_file_globalTime.write( str(time.time())+", "+str(i+1)+"\n")
frame_i=0
#mmc.setProperty(DEVICE[0], 'Exposure', epoch_seq[0][1])
setLed(device,epoch_seq[0][2])
setOdor(device,epoch_seq[0][3])
mmc.initializeCircularBuffer()
mmc.startContinuousSequenceAcquisition(10)
start=time.clock()
while time.clock()-start < total:
if mmc.getRemainingImageCount()>0 :
im = mmc.popNextImage()
#im = mmc.getLastImage()
#cv2.imshow('Video', im)
#raw_input("pause")
frames.append(im)
timestamps.append(time.clock()-start) #0.6s from start !!!
meta.append( (epoch_seq[count-1], i))
if (count < n_epoch) and (time.clock()-start+eps > epoch_times[count-1]) :
print "count "+str(count)
print epoch_seq[count-1][0]
print frame_i
print len(frames)-1
#mmc.setProperty(DEVICE[0], 'Exposure', epoch_seq[count][1])
setLed(device,epoch_seq[count][2])
setOdor(device,epoch_seq[count][3])
window.progressBar.setValue(count+i*n_epoch)
# #saving index of previous epoch (name,start frame, end frame)
# frame_f=len(frames)-1
# meta_index.append((epoch_seq[count-1][0],frame_i,frame_f))
# frame_i=len(frames)
if epoch_seq[count-1][5] == 0 :
frame_f=len(frames)-1
meta_index.append((epoch_seq[count-1][0],frame_i,frame_f))
frame_i=len(frames)
# nrec = 0
# mmc.stopSequenceAcquisition()
# mmc.clearCircularBuffer()
if (epoch_seq[count][5] == 1):
print "stop recording "+str(epoch_seq[count][4])+ "sec"
time.sleep(epoch_seq[count][4])
mmc.clearCircularBuffer()
#meta_index.pop()
# if epoch_seq[count-1][5] == 1:
# mmc.initializeCircularBuffer()
# mmc.startContinuousSequenceAcquisition(10)
# nrec=1
count += 1
if ser.inWaiting() :
text_file.write(str(time.clock()-start)+", "+ser.readline()+"\n")
# if cv2.waitKey(1) >= 0:
# break
frame_f=len(frames)-1
meta_index.append((epoch_seq[count-1][0],frame_i,frame_f))
frame_i=len(frames)
m_i_trial.append(meta_index)
meta_index=[]
window.progressBar.setValue(n_epoch+i*n_epoch)
#reset
device.setFIOState(green_lj, 0)
device.setFIOState(red_lj, 1)
#device.setFIOState(v1_lj, 0)
#device.setFIOState(v2_lj, 0)
DAC0_VALUE = device.voltageToDACBits(0, dacNumber = 0, is16Bits = False)
device.getFeedback(u3.DAC0_8(DAC0_VALUE))
DAC1_VALUE = device.voltageToDACBits(0, dacNumber = 1, is16Bits = False)
device.getFeedback(u3.DAC1_8(DAC1_VALUE))
print str(total)+"s acquisition took", time.clock()-start, "seconds"
mmc.stopSequenceAcquisition()
mmc.clearCircularBuffer()
if i < rep: #end of an epoch
#time spent savong files
savingTime=time.time()
#print "saving tiff.."+str(len(frames))+" frames"
#namep=window.path.text()
framesnp = np.asarray(frames)
#display avg green
print "save green"+str(i)+" in "+savepath
scipy.misc.imsave(savepath+'/green'+str(i)+'.jpg', np.mean(framesnp[0:20],axis=0))
#plt.imshow(np.mean(framesnp[0:20],axis=0))
#saveAsMultipageTif(framesnp,savepath,namep,meta,k=512)#
#m = saveAsMultipageTif_inter(framesnp,savepath,namep,m)
#print "number of tiff files :"+str(m)
print "save trial hdf5"
print m_i_trial[-1]
print i+1
hdfs=saveTrialHdf5andClose(hdfpath,framesnp,m_i_trial[-1],i+1,epoch_seq) #modified added epoch
print "closing hdfs"
hdfs.close()
print "closed"
#print "save respiratory signal"
# text_file = open("respi"+".txt", 'w')
print "empty frames list.."
frames[:]=[]
text_file.close()
timeSpentSaving=time.time()-savingTime
newDelay=window.dur_2.value()-timeSpentSaving
print "in total wating for "+str(window.dur_2.value())+" s"
print "after time spent saving wating for "+str(newDelay)+" s"
if (newDelay>0):
time.sleep(newDelay)
count =1
#cv2.destroyAllWindows()
#print "nOfFrames :"+str(len(frames))
print "exposure was", mmc.getProperty('Zyla','Exposure')
print "Framerate was", mmc.getProperty('Zyla','FrameRate')
print "saving metadata, timestamps and comments"
if not os.path.exists(savepath+"/"+namep):
os.makedirs(savepath+"/"+namep)
with open(savepath+"/"+namep+"/epoch.p", "wb") as fp: #Pickling
pickle.dump(epoch_seq, fp)
with open(savepath+"/"+namep+"/comment.p", "wb") as fpp: #Pickling
pickle.dump(window.comment.toPlainText(), fpp)
with open(savepath+"/"+namep+"/timestamps.p", "wb") as fppp: #Pickling
pickle.dump(timestamps, fppp)
with open(savepath+"/"+namep+"/meta.p", "wb") as fppp: #Pickling
pickle.dump(meta, fppp)
with open(savepath+"/"+namep+"/m_i_trial.p", "wb") as fppp: #Pickling
pickle.dump(m_i_trial, fppp)
print "restart kernel to be safe"
text_file_globalTime.close()
print "global time txt closed"
window.progressBar.setValue(0)
a12_averages_NGENon = []
a13_averages_NGENon = []
a14_averages_NGENon = []
a15_averages_NGENon = []
save_values = []
times = []
################################################################################
## Measurement Loop
################################################################################
#LabJack and SA
dig_offset = 0.024
DAC1_VALUE = lj.voltageToDACBits(
3 + dig_offset, dacNumber=1,
is16Bits=False) #CAL voltage value is set to 3V
lj.getFeedback(u3.DAC1_8(DAC1_VALUE))
# Get data when NGEN is OFF
DAC0_VALUE = lj.voltageToDACBits(0 - dig_offset + 0.010,
dacNumber=1,
is16Bits=False) #NGEN is OFF
lj.getFeedback(u3.DAC0_8(DAC0_VALUE))
k = 0
with GracefulInterruptHandler() as h:
while True:
for i in range(n_avg):
a0 = lj.getAIN(0)
a1 = lj.getAIN(1)
a2 = lj.getAIN(2)
a3 = lj.getAIN(3)
def set_DAC1(self, voltage):
voltage_in_bits = self._device.voltageToDACBits(volts=voltage,
dacNumber=1)
self._try_command('getFeedback', u3.DAC1_8(voltage_in_bits))
