def OSCDOut(address, args):
global AD
# convert output number in address String to Integer range (0-7)
pinOut = int(address[len(address) - 1]) % 8
# set or clear corresponding DAQC2 plate output
if (args == 1):
DAQC2.setDOUTbit(AD, pinOut)
else:
DAQC2.clrDOUTbit(AD, pinOut)
pass
def button():
if DAQC2.getDINbit(0,0) == 0:
global button_pressed
button_pressed = 1
#print button_pressed
print "Button Pressed"
DAQC2.setDOUTbit(0,0)
sleep(0.02)
DAQC2.clrDOUTbit(0,0)
sleep(0.2)
return()
def button():
if DAQC2.getDINbit(0,0) == 0:
global button_pressed
button_pressed = 1
print ("Button Pressed")
global insert_num
insert_num = input("Enter insert #: ")
DAQC2.setDOUTbit(0,0)
sleep(0.02)
DAQC2.clrDOUTbit(0,0)
sleep(0.015)
return
def button():
global flag
if flag == 2:
global button_pressed
button_pressed = 1
DAQC2.setDOUTbit(0,0)
time.sleep(0.02)
DAQC2.clrDOUTbit(0,0)
time.sleep(0.015)
relay()
time.sleep(0.01)
get_audio()
button_pressed = 0
def button():
if DAQC2.getDINbit(0,0) == 0:
global button_pressed
button_pressed = 1
DAQC2.setDOUTbit(0,0)
sleep(0.02)
DAQC2.clrDOUTbit(0,0)
sleep(0.015)
relay()
time.sleep(0.01)
get_audio()
button_pressed = 0
return
def photoTest():
elapsedTime = 0
tMax = 25
startReadTime = time.time()
onVolt = []
offVolt = []
## tRead = 0
while (tMax >= elapsedTime):
DAQC2.setDOUTbit(0, 7) #turn laser on
time.sleep(1)
tempVolt1 = []
tEnd1 = time.time() + 1
while (time.time() < tEnd1):
tempVolt1.append(DAQC2.getADC(0, 0))
DAQC2.clrDOUTbit(0, 7)
anaVolt = sum(tempVolt1) / len(tempVolt1)
print("number of reads: ", len(tempVolt1))
print("Voltage('ON'): ", anaVolt)
onVolt.append(anaVolt)
tempVolt2 = []
tEnd2 = time.time() + 1
while (time.time() < tEnd2):
tempVolt2.append(DAQC2.getADC(0, 0))
anaVolt = sum(tempVolt2) / len(tempVolt2)
print("number of reads: ", len(tempVolt2))
print("Voltage('OFF'): ", anaVolt)
offVolt.append(anaVolt)
elapsedTime = time.time() - startReadTime
print()
avgON = sum(onVolt) / len(onVolt)
avgOFF = sum(offVolt) / len(offVolt)
print("average ON volt: ", avgON)
print("avgerage OFF volt: ", avgOFF)
print()
def readOD():
DAQC2.setDOUTbit(0, 7)
time.sleep(1)
rowVolts = []
j = 0
k = 0
num = 1
while (k <= 5):
tempVolt = []
tEnd = time.time() + .5
while (time.time() < tEnd):
tempVolt.append(DAQC2.getADC(j, k))
currAvgVolt = sum(tempVolt) / len(tempVolt)
rowVolts.append(currAvgVolt)
print("Avg voltage for ", num, ": ", currAvgVolt)
k = k + 1
num = num + 1
if (k == 6 and j == 0):
j = 1
k = 0
elif (k == 2 and j == 1):
k = 10
DAQC2.clrDOUTbit(0, 7)
resp['bit'] = bit
resp['state'] = state
elif (cmd == "setDOUTbit"):
bit = args['bit']
try:
DP.setDOUTbit(addr, bit)
except AssertionError:
DP2.setDOUTbit(addr, bit)
resp['bit'] = bit
resp['state'] = 1
elif (cmd == "clrDOUTbit"):
bit = args['bit']
try:
DP.clrDOUTbit(addr, bit)
except AssertionError:
DP2.clrDOUTbit(addr, bit)
resp['bit'] = bit
resp['state'] = 0
elif (cmd == "toggleDOUTbit"):
bit = args['bit']
try:
DP.toggleDOUTbit(addr, bit)
except AssertionError:
DP2.toggleDOUTbit(addr, bit)
resp['bit'] = bit
resp['state'] = 'UNKNOWN'
elif (cmd == "getADC"):
channel = args['channel']
try:
voltage = DP.getADC(addr, channel)
except AssertionError:
def set_value(self, value):
if value == True:
DQ.setDOUTbit(self.piid, self.tid)
else:
DQ.clrDOUTbit(self.piid, self.tid)
def chemostat(timeL, pumpPeriod):
elapsedTime = 0
tMax = timeL + 11
min = timeL / 60
pumpTime = pumpPeriod
startReadTime = time.time()
tStart = 0
tPump = time.time()
volts = np.zeros(shape=(min + 1, 8))
counter = 0
currTime = time.time()
print("\n")
while (tMax >= elapsedTime):
if (currTime - tStart >
60): #58 b/c lose two seconds with sleep and measure
tStart = time.time()
readTimeS = (tStart - startReadTime) / 60
print("Read ", counter, " at ", readTimeS, " min.")
###
DAQC2.setDOUTbit(0, 7)
time.sleep(1)
rowVolts = []
j = 0
k = 0
num = 1
while (k <= 5):
tempVolt = []
tEnd = time.time() + .5
while (time.time() < tEnd):
tempVolt.append(DAQC2.getADC(j, k))
currAvgVolt = sum(tempVolt) / len(tempVolt)
rowVolts.append(currAvgVolt)
print("Avg voltage for ", num, ": ", currAvgVolt)
k = k + 1
num = num + 1
if (k == 6 and j == 0):
j = 1
k = 0
elif (k == 2 and j == 1):
k = 10
DAQC2.clrDOUTbit(0, 7)
print("\n")
volts[counter] = rowVolts
counter = counter + 1
###
measureTime = (tStart - startReadTime) / 60.0
measureDateTime = datetime.now().strftime('%Y-%m-%d %H:%M:%S')
dateTime.append(measureDateTime)
readTime.append(measureTime)
if ((currTime - tPump - 1) > pumpTime * 60):
print("pump on/valves open")
tPump = (time.time() - startReadTime) / 60
print("pump on at: ", tPump)
j = 0
i = 0
while (i <= 5):
DAQC2.setDOUTbit(j, i)
DAQC2.setDOUTbit(0, 6)
time.sleep(2)
DAQC2.clrDOUTbit(0, 6)
DAQC2.clrDOUTbit(j, i)
time.sleep(.5)
i = i + 1
if (i == 6 and j == 0):
j = 1
i = 0
elif (i == 2 and j == 1):
i = 10
tPump = time.time()
print("pump off \n")
currTime = time.time()
elapsedTime = time.time() - startReadTime
morbido1 = volts[:, 0].tolist()
morbido2 = volts[:, 1].tolist()
morbido3 = volts[:, 2].tolist()
morbido4 = volts[:, 3].tolist()
morbido5 = volts[:, 4].tolist()
morbido6 = volts[:, 5].tolist()
morbido7 = volts[:, 6].tolist()
morbido8 = volts[:, 7].tolist()
OD1 = (((np.log10(morbido1) / logBlankVolts[0]) - .71891) /
-2.1235).tolist()
OD2 = (((np.log10(morbido2) / logBlankVolts[1]) - .71891) /
-2.1235).tolist()
OD3 = (((np.log10(morbido3) / logBlankVolts[2]) - .71891) /
-2.1235).tolist()
OD4 = (((np.log10(morbido4) / logBlankVolts[3]) - .71891) /
-2.1235).tolist()
OD5 = (((np.log10(morbido5) / logBlankVolts[4]) - .71891) /
-2.1235).tolist()
OD6 = (((np.log10(morbido6) / logBlankVolts[5]) - .71891) /
-2.1235).tolist()
OD7 = (((np.log10(morbido7) / logBlankVolts[6]) - .71891) /
-2.1235).tolist()
OD8 = (((np.log10(morbido8) / logBlankVolts[7]) - .71891) /
-2.1235).tolist()
df = [
dateTime, readTime, morbido1, morbido2, morbido3, morbido4, morbido5,
morbido6, morbido7, morbido8, OD1, OD2, OD3, OD4, OD5, OD6, OD7, OD8
]
my_df = pd.DataFrame(df)
my_df = my_df.T
global globalDF
globalDF = my_df
csvTitle = datetime.now().strftime('%Y-%m-%d_%H-%M-%S') + '.csv'
my_df.to_csv(csvTitle,
index=True,
header=[
'DateTime', 'Time', 'V1', 'V2', 'V3', 'V4', 'V5', 'V6',
'V7', 'V8', 'OD1', 'OD2', 'OD3', 'OD4', 'OD5', 'OD6',
'OD7', 'OD8'
])
print(my_df)
print()
print("new csv file on Desktop: ", csvTitle)
fig = plt.figure()
ax1 = fig.add_subplot(111)
ax1.scatter(readTime, morbido1, s=10, c='b', marker="s", label='Culture#1')
ax1.scatter(readTime, morbido2, s=10, c='g', marker="o", label='Culture#2')
ax1.scatter(readTime, morbido3, s=10, c='r', marker="^", label='Culture#3')
ax1.scatter(readTime, morbido4, s=10, c='c', marker="p", label='Culture#4')
ax1.scatter(readTime, morbido5, s=10, c='m', marker="D", label='Culture#5')
ax1.scatter(readTime, morbido6, s=10, c='y', marker="v", label='Culture#6')
ax1.scatter(readTime, morbido7, s=10, c='k', marker="h", label='Culture#7')
ax1.scatter(readTime,
morbido8,
s=10,
c='violet',
marker="8",
label='Culture#8')
plt.ylabel('Voltage')
plt.xlabel('Time (min)')
Volttitle = datetime.now().strftime('%Y-%m-%d_%H-%M') + ' Voltage plot'
plt.title(Volttitle)
plt.legend(loc='upper right')
plt.show()
fig = plt.figure()
ax1 = fig.add_subplot(111)
ax1.scatter(readTime, OD1, s=10, c='b', marker="s", label='Culture#1')
ax1.scatter(readTime, OD2, s=10, c='g', marker="o", label='Culture#2')
ax1.scatter(readTime, OD3, s=10, c='r', marker="^", label='Culture#3')
ax1.scatter(readTime, OD4, s=10, c='c', marker="p", label='Culture#4')
ax1.scatter(readTime, OD5, s=10, c='m', marker="D", label='Culture#5')
ax1.scatter(readTime, OD6, s=10, c='y', marker="v", label='Culture#6')
ax1.scatter(readTime, OD7, s=10, c='k', marker="h", label='Culture#7')
ax1.scatter(readTime, OD8, s=10, c='violet', marker="8", label='Culture#8')
plt.ylabel('OD600')
plt.xlabel('Time (min)')
ODtitle = datetime.now().strftime('%Y-%m-%d_%H-%M') + ' OD plot'
plt.title(ODtitle)
plt.legend(loc='upper left')
plt.show()
def Turbido(timeL, pumpPeriod, NormVolt):
elapsedTime = 0
tMax = timeL + 45
min = timeL / 60
pumpTime = pumpPeriod
startReadTime = time.time()
tStart = 0
tPump = time.time()
volts = np.zeros(shape=(min + 1, 8))
setVolt = NormVolt
counter = 0
currTime = time.time()
print("\n")
currVolts = []
while (tMax >= elapsedTime):
if (currTime - tStart > 60):
tStart = time.time()
readTimeS = (currTime - startReadTime) / 60
print("Read ", counter, " at ", readTimeS, " min.")
DAQC2.setDOUTbit(0, 7)
time.sleep(1)
rowVolts = []
j = 0
k = 0
num = 1
while (k <= 5):
tempVolt = []
tEnd = time.time() + .5
while (time.time() < tEnd):
tempVolt.append(DAQC2.getADC(j, k))
currAvgVolt = sum(tempVolt) / len(tempVolt)
rowVolts.append(currAvgVolt)
print("Avg voltage for ", num, ": ", currAvgVolt)
k = k + 1
num = num + 1
if (k == 6 and j == 0):
j = 1
k = 0
elif (k == 2 and j == 1):
k = 10
DAQC2.clrDOUTbit(0, 7)
currVolts = rowVolts
volts[counter] = rowVolts
counter = counter + 1
measureTime = (tStart - startReadTime) / 60.0
measureDateTime = datetime.now().strftime('%Y-%m-%d %H:%M:%S')
dateTime.append(measureDateTime)
readTime.append(measureTime)
print("\n")
if ((currTime - tPump - .05) > pumpTime * 60):
tPump = time.time()
timePump = (currTime - startReadTime) / 60
print("pump check at: ", timePump)
tempLog = 0
currLogVolts = []
f = 0
while (f < 8):
print(f)
tempLog = np.log10(currVolts[f]) / logBlankVolts[f]
print(tempLog)
currLogVolts.append(tempLog)
f = f + 1
print("CurrLogVolts: ", currLogVolts)
j = 0
i = 0
iter = 0
currHighVolt = 10
while (iter < 8):
print("iter: ", iter)
currHighVolt = currLogVolts[iter]
if (currHighVolt < setVolt):
count = 0
while (currHighVolt < setVolt):
DAQC2.setDOUTbit(j, i)
DAQC2.setDOUTbit(0, 6)
DAQC2.setDOUTbit(0, 7)
time.sleep(.25)
count = count + 1
avgV = 0
currHighVolt = 0
tVolt = []
tEnd = time.time() + .25
## print("tmie read: ", tEnd)
while (time.time() < tEnd):
tVolt.append(DAQC2.getADC(j, i))
avgV = sum(tVolt) / len(tVolt)
print("avg. volt: ", avgV)
currHighVolt = np.log10(avgV) / logBlankVolts[iter]
print("New currHighVolt: ", currHighVolt)
print(count)
DAQC2.clrDOUTbit(0, 7)
DAQC2.clrDOUTbit(0, 6)
DAQC2.clrDOUTbit(j, i)
iter = iter + 1
i = i + 1
if (i == 6 and j == 0):
j = 1
i = 0
elif (i == 2 and j == 1):
i = 10
print("pump off \n")
currTime = time.time()
elapsedTime = time.time() - startReadTime
morbido1 = volts[:, 0].tolist()
morbido2 = volts[:, 1].tolist()
morbido3 = volts[:, 2].tolist()
morbido4 = volts[:, 3].tolist()
morbido5 = volts[:, 4].tolist()
morbido6 = volts[:, 5].tolist()
morbido7 = volts[:, 6].tolist()
morbido8 = volts[:, 7].tolist()
OD1 = (((np.log10(morbido1) / logBlankVolts[0]) - .71891) /
-2.1235).tolist()
OD2 = (((np.log10(morbido2) / logBlankVolts[1]) - .71891) /
-2.1235).tolist()
OD3 = (((np.log10(morbido3) / logBlankVolts[2]) - .71891) /
-2.1235).tolist()
OD4 = (((np.log10(morbido4) / logBlankVolts[3]) - .71891) /
-2.1235).tolist()
OD5 = (((np.log10(morbido5) / logBlankVolts[4]) - .71891) /
-2.1235).tolist()
OD6 = (((np.log10(morbido6) / logBlankVolts[5]) - .71891) /
-2.1235).tolist()
OD7 = (((np.log10(morbido7) / logBlankVolts[6]) - .71891) /
-2.1235).tolist()
OD8 = (((np.log10(morbido8) / logBlankVolts[7]) - .71891) /
-2.1235).tolist()
df = [
dateTime, readTime, morbido1, morbido2, morbido3, morbido4, morbido5,
morbido6, morbido7, morbido8, OD1, OD2, OD3, OD4, OD5, OD6, OD7, OD8
]
my_df = pd.DataFrame(df)
my_df = my_df.T
global globalDF
globalDF = my_df
csvTitle = datetime.now().strftime('%Y-%m-%d_%H-%M-%S') + '.csv'
my_df.to_csv(csvTitle,
index=True,
header=[
'DateTime', 'Time', 'V1', 'V2', 'V3', 'V4', 'V5', 'V6',
'V7', 'V8', 'OD1', 'OD2', 'OD3', 'OD4', 'OD5', 'OD6',
'OD7', 'OD8'
])
print(my_df)
print()
print("new csv file on Desktop: ", csvTitle)
fig = plt.figure()
ax1 = fig.add_subplot(111)
ax1.scatter(readTime, morbido1, s=10, c='b', marker="s", label='Culture#1')
ax1.scatter(readTime, morbido2, s=10, c='g', marker="o", label='Culture#2')
ax1.scatter(readTime, morbido3, s=10, c='r', marker="^", label='Culture#3')
ax1.scatter(readTime, morbido4, s=10, c='c', marker="p", label='Culture#4')
ax1.scatter(readTime, morbido5, s=10, c='m', marker="D", label='Culture#5')
ax1.scatter(readTime, morbido6, s=10, c='y', marker="v", label='Culture#6')
ax1.scatter(readTime, morbido7, s=10, c='k', marker="h", label='Culture#7')
ax1.scatter(readTime,
morbido8,
s=10,
c='violet',
marker="8",
label='Culture#8')
plt.ylabel('Voltage')
plt.xlabel('Time (min)')
Volttitle = datetime.now().strftime('%Y-%m-%d_%H-%M') + ' Voltage plot'
plt.title(Volttitle)
plt.legend(loc='upper right')
plt.show()
fig = plt.figure()
ax1 = fig.add_subplot(111)
ax1.scatter(readTime, OD1, s=10, c='b', marker="s", label='Culture#1')
ax1.scatter(readTime, OD2, s=10, c='g', marker="o", label='Culture#2')
ax1.scatter(readTime, OD3, s=10, c='r', marker="^", label='Culture#3')
ax1.scatter(readTime, OD4, s=10, c='c', marker="p", label='Culture#4')
ax1.scatter(readTime, OD5, s=10, c='m', marker="D", label='Culture#5')
ax1.scatter(readTime, OD6, s=10, c='y', marker="v", label='Culture#6')
ax1.scatter(readTime, OD7, s=10, c='k', marker="h", label='Culture#7')
ax1.scatter(readTime, OD8, s=10, c='violet', marker="8", label='Culture#8')
plt.ylabel('OD600')
plt.xlabel('Time (min)')
ODtitle = datetime.now().strftime('%Y-%m-%d_%H-%M') + ' OD plot'
plt.title(ODtitle)
plt.legend(loc='upper left')
plt.show()
def sysTest():
print("testing parts")
i = 0
while (i < 1):
print("\n")
print("quit: 0")
print("pumps: 1")
print("valves:2")
print("Photodiodes: 3")
print("lasers: 4")
var = input(": ")
currInput = int(var)
print("current input: ", currInput)
if (currInput == 0):
print(
"turning off pump, closing all valves, turning off lasers, quitting"
)
DAQC2.clrDOUTbit(0, 6) #turn off pump1
DAQC2.clrDOUTbit(1, 6) #turn off pump2
DAQC2.clrDOUTbit(0, 0) #turn off valves
DAQC2.clrDOUTbit(0, 1)
DAQC2.clrDOUTbit(0, 2)
DAQC2.clrDOUTbit(0, 3)
DAQC2.clrDOUTbit(0, 4)
DAQC2.clrDOUTbit(0, 5)
DAQC2.clrDOUTbit(1, 0)
DAQC2.clrDOUTbit(1, 1)
DAQC2.clrDOUTbit(1, 2)
DAQC2.clrDOUTbit(1, 3)
DAQC2.clrDOUTbit(1, 4)
DAQC2.clrDOUTbit(1, 5)
DAQC2.clrDOUTbit(0, 7) #turn off lasers
i = 5
print("quitting")
break
elif (currInput == 1):
print("pumps")
j = 0
while (j < 1):
print("\n")
print("to go back: 0")
print("turn on pump#1: 1")
print("turn on pump#2: 2")
print("turn off pump#1: 3")
print("turn off pump#2: 4")
var = input(": ")
currInput1 = int(var)
print("current input: ", currInput1)
if (currInput1 == 0):
print("back to main test menu")
j = 5
elif (currInput1 == 1):
print("turning on pump#1")
DAQC2.setDOUTbit(0, 6)
elif (currInput1 == 2):
print("turning on pump#2")
DAQC2.setDOUTbit(1, 6)
elif (currInput1 == 3):
print("turning off pump#1")
DAQC2.clrDOUTbit(0, 6)
elif (currInput1 == 4):
print("turning off pump#1")
DAQC2.clrDOUTbit(1, 6)
elif (currInput == 4):
print("Lasers")
j = 0
while (j < 1):
print("\n")
print("turn lasers on: 1")
print("turn lasers off: 2")
print("go back to test menu: 0")
var = input(": ")
currInput2 = int(var)
print("current input: ", currInput2)
if (currInput2 == 0):
print("back to main test menu")
j = 5
elif (currInput2 == 1):
print("lasers on")
DAQC2.setDOUTbit(0, 7)
elif (currInput2 == 2):
print("lasers off")
DAQC2.clrDOUTbit(0, 7)
elif (currInput == 2):
print("Valves")
j = 0
while (j < 1):
print("\n")
print("to go back: 0")
print("to open individual valves: 1-12")
print("to close individual valves 21-32")
print("to open all valves: 13")
print("to close all valves: 14")
var = input(": ")
currInput3 = int(var)
print("current input: ", currInput3)
if (currInput3 == 0):
print("back to main test menu")
j = 5
elif (currInput3 == 13):
print("opening all valves")
DAQC2.setDOUTbit(0, 0) #open all valves
DAQC2.setDOUTbit(0, 1)
DAQC2.setDOUTbit(0, 2)
DAQC2.setDOUTbit(0, 3)
DAQC2.setDOUTbit(0, 4)
DAQC2.setDOUTbit(0, 5)
DAQC2.setDOUTbit(1, 0)
DAQC2.setDOUTbit(1, 1)
DAQC2.setDOUTbit(1, 2)
DAQC2.setDOUTbit(1, 3)
DAQC2.setDOUTbit(1, 4)
DAQC2.setDOUTbit(1, 5)
elif (currInput3 == 14):
print("closing all valves")
DAQC2.clrDOUTbit(0, 0) #close all valves
DAQC2.clrDOUTbit(0, 1)
DAQC2.clrDOUTbit(0, 2)
DAQC2.clrDOUTbit(0, 3)
DAQC2.clrDOUTbit(0, 4)
DAQC2.clrDOUTbit(0, 5)
DAQC2.clrDOUTbit(1, 0)
DAQC2.clrDOUTbit(1, 1)
DAQC2.clrDOUTbit(1, 2)
DAQC2.clrDOUTbit(1, 3)
DAQC2.clrDOUTbit(1, 4)
DAQC2.clrDOUTbit(1, 5)
elif (currInput3 == 1):
print("opening valve #1")
DAQC2.setDOUTbit(0, 0)
elif (currInput3 == 2):
print("opening valve #2")
DAQC2.setDOUTbit(0, 1)
elif (currInput3 == 3):
print("opening valve #3")
DAQC2.setDOUTbit(0, 2)
elif (currInput3 == 4):
print("opening valve #4")
DAQC2.setDOUTbit(0, 3)
elif (currInput3 == 5):
print("opening valve #5")
DAQC2.setDOUTbit(0, 4)
elif (currInput3 == 6):
print("opening valve #6")
DAQC2.setDOUTbit(0, 5)
elif (currInput3 == 7):
print("opening valve #7")
DAQC2.setDOUTbit(1, 0)
elif (currInput3 == 8):
print("opening valve #8")
DAQC2.setDOUTbit(1, 1)
elif (currInput3 == 9):
print("opening valve #9")
DAQC2.setDOUTbit(1, 2)
elif (currInput3 == 10):
print("opening valve #10")
DAQC2.setDOUTbit(1, 3)
elif (currInput3 == 11):
print("opening valve #11")
DAQC2.setDOUTbit(1, 4)
elif (currInput3 == 12):
print("opening valve #12")
DAQC2.setDOUTbit(1, 5)
elif (currInput3 == 21):
print("closing valve #1")
DAQC2.clrDOUTbit(0, 0)
elif (currInput3 == 22):
print("closing valve #2")
DAQC2.clrDOUTbit(0, 1)
elif (currInput3 == 23):
print("closing valve #3")
DAQC2.clrDOUTbit(0, 2)
elif (currInput3 == 24):
print("closing valve #4")
DAQC2.clrDOUTbit(0, 3)
elif (currInput3 == 25):
print("closing valve #5")
DAQC2.clrDOUTbit(0, 4)
elif (currInput3 == 26):
print("closing valve #6")
DAQC2.clrDOUTbit(0, 5)
elif (currInput3 == 27):
print("closing valve #7")
DAQC2.clrDOUTbit(1, 0)
elif (currInput3 == 28):
print("closing valve #8")
DAQC2.clrDOUTbit(1, 1)
elif (currInput3 == 29):
print("closing valve #9")
DAQC2.clrDOUTbit(1, 2)
elif (currInput3 == 30):
print("closing valve #10")
DAQC2.clrDOUTbit(1, 3)
elif (currInput3 == 31):
print("closing valve #11")
DAQC2.clrDOUTbit(1, 4)
elif (currInput3 == 32):
print("closing valve #12")
DAQC2.clrDOUTbit(1, 5)
elif (currInput == 3):
print("Photodiodes")
j = 0
while (j < 1):
print("\n")
print("to go back: 0")
print("to take a reading from a single morbidostat: 1-12")
print("to take a reading from all morbidostats: 13")
var = input(": ")
currInput4 = int(var)
print("current input: ", currInput4)
if (currInput4 == 0):
print("back to main test menu")
j = 5
elif (currInput4 == 13):
print("reading from all morbidostats")
plate1 = DAQC2.getADCall(0)
plate2 = DAQC2.getADCall(1)
j = 0
k = 0
num = 1
while (k < 12):
if (k <= 5):
currVolt = plate1[k]
print(num, ": ", currVolt)
k = k + 1
num = num + 1
elif (k > 5):
a = k - 6
currVolt = plate2[a]
print(num, ": ", currVolt)
k = k + 1
num = num + 1
elif (currInput4 == 1):
currVolt = DAQC2.getADC(0, 0)
print("Morbidostat#1: ", currVolt)
elif (currInput4 == 2):
currVolt = DAQC2.getADC(0, 1)
print("Morbidostat#2: ", currVolt)
elif (currInput4 == 3):
currVolt = DAQC2.getADC(0, 2)
print("Morbidostat#3: ", currVolt)
elif (currInput4 == 4):
currVolt = DAQC2.getADC(0, 3)
print("Morbidostat#4: ", currVolt)
elif (currInput4 == 5):
currVolt = DAQC2.getADC(0, 4)
print("Morbidostat#4: ", currVolt)
elif (currInput4 == 6):
currVolt = DAQC2.getADC(0, 5)
print("Morbidostat#6: ", currVolt)
elif (currInput4 == 7):
currVolt = DAQC2.getADC(1, 0)
print("Morbidostat#7: ", currVolt)
elif (currInput4 == 8):
currVolt = DAQC2.getADC(1, 1)
print("Morbidostat#8: ", currVolt)
elif (currInput4 == 9):
currVolt = DAQC2.getADC(1, 2)
print("Morbidostat#9: ", currVolt)
elif (currInput4 == 10):
currVolt = DAQC2.getADC(1, 3)
print("Morbidostat#10: ", currVolt)
elif (currInput4 == 11):
currVolt = DAQC2.getADC(1, 4)
print("Morbidostat#11: ", currVolt)
elif (currInput4 == 12):
currVolt = DAQC2.getADC(1, 5)
print("Morbidostat#12: ", currVolt)
def sysPrime():
print("priming pumps...")
#open all valves and turn on both pumps for 10s
DAQC2.setDOUTbit(0, 0)
DAQC2.setDOUTbit(0, 1)
DAQC2.setDOUTbit(0, 2)
DAQC2.setDOUTbit(0, 3)
DAQC2.setDOUTbit(0, 4)
DAQC2.setDOUTbit(0, 5)
DAQC2.setDOUTbit(1, 0)
DAQC2.setDOUTbit(1, 1)
DAQC2.setDOUTbit(1, 2)
DAQC2.setDOUTbit(1, 3)
DAQC2.setDOUTbit(1, 4)
DAQC2.setDOUTbit(1, 5)
DAQC2.setDOUTbit(0, 6)
DAQC2.setDOUTbit(1, 6)
time.sleep(10)
#pumps off
DAQC2.clrDOUTbit(0, 6)
DAQC2.clrDOUTbit(1, 6)
i = 0
while (i < 1):
print("\n")
print("turn off pump#1: 13")
print("turn pump#1 on: 14")
print("turn on pump#2: 15")
print("turn off pump#2: 16")
print("close valve: 1-12")
print("quit: 0")
var = input(": ")
currInput = int(var)
print("current input: ", currInput)
if (currInput == 0):
print("turning off pump, closing all valves, quitting")
DAQC2.clrDOUTbit(0, 6)
DAQC2.clrDOUTbit(1, 6)
DAQC2.clrDOUTbit(0, 0)
DAQC2.clrDOUTbit(0, 1)
DAQC2.clrDOUTbit(0, 2)
DAQC2.clrDOUTbit(0, 3)
DAQC2.clrDOUTbit(0, 4)
DAQC2.clrDOUTbit(0, 5)
DAQC2.clrDOUTbit(1, 0)
DAQC2.clrDOUTbit(1, 1)
DAQC2.clrDOUTbit(1, 2)
DAQC2.clrDOUTbit(1, 3)
DAQC2.clrDOUTbit(1, 4)
DAQC2.clrDOUTbit(1, 5)
i = 5
print("quitting")
break
if (currInput == 13):
print("turning off pump#1")
DAQC2.clrDOUTbit(0, 6)
elif (currInput == 14):
print("turning on pump#1")
DAQC2.setDOUTbit(0, 6)
if (currInput == 16):
print("turning off pump#6")
DAQC2.clrDOUTbit(1, 6)
elif (currInput == 15):
print("turning on pump#6")
DAQC2.setDOUTbit(1, 6)
elif (currInput == 1):
print("closing valve #1")
DAQC2.clrDOUTbit(0, 0)
elif (currInput == 2):
print("closing valve #2")
DAQC2.clrDOUTbit(0, 1)
elif (currInput == 3):
print("closing valve #3")
DAQC2.clrDOUTbit(0, 2)
elif (currInput == 4):
print("closing valve #4")
DAQC2.clrDOUTbit(0, 3)
elif (currInput == 5):
print("closing valve #5")
DAQC2.clrDOUTbit(0, 4)
elif (currInput == 6):
print("closing valve #6")
DAQC2.clrDOUTbit(0, 5)
elif (currInput == 7):
print("closing valve #7")
DAQC2.clrDOUTbit(1, 0)
elif (currInput == 8):
print("closing valve #8")
DAQC2.clrDOUTbit(1, 1)
elif (currInput == 9):
print("closing valve #9")
DAQC2.clrDOUTbit(1, 2)
elif (currInput == 10):
print("closing valve #10")
DAQC2.clrDOUTbit(1, 3)
elif (currInput == 11):
print("closing valve #11")
DAQC2.clrDOUTbit(1, 4)
elif (currInput == 12):
print("closing valve #12")
DAQC2.clrDOUTbit(1, 5)