def H2S(self):
# print("Configuring parameters for the H2S")
lmp.get_OPMODE(0x03)
lmp.get_TIAGAIN(0x00)
lmp.get_RLOAD(0x00)
lmp.get_INTZSEL(0x20)
lmp.get_REFVOLTAGE(0x80)
lmp.get_BIAS(0x08)
lmp.get_BIAS_SIGN(0x10)
lmp.get_ADC_GAIN(0x04)
ads.get_ads_config0(0x7C)
ads.get_ads_config1(0x00)
ads.get_ads_config2(0x40)
ads.get_ads_config3(0x00)
def O3():
print("Configuring parameters for the O3")
lmp.get_OPMODE(0x03)
lmp.get_TIAGAIN(0x00)
lmp.get_RLOAD(0x00)
lmp.get_INTZSEL(0x20)
lmp.get_REFVOLTAGE(0x80)
lmp.get_BIAS(0x01)
lmp.get_BIAS_SIGN(0x00)
lmp.get_ADC_GAIN(0x0C)
ads.get_ads_config0(0x7C)
ads.get_ads_config1(0x00)
ads.get_ads_config2(0x40)
ads.get_ads_config3(0x00)
def Test3(self):
# print(Bias = -1)
lmp.get_OPMODE(0x03)
lmp.get_TIAGAIN(0x00)
lmp.get_RLOAD(0x00)
lmp.get_INTZSEL(0x10)
lmp.get_REFVOLTAGE(0x80)
lmp.get_BIAS(0x01)
lmp.get_BIAS_SIGN(0x00)
lmp.get_ADC_GAIN(0x01)
ads.get_ads_config0(0x00)
ads.get_ads_config1(0x00)
ads.get_ads_config2(0x40)
ads.get_ads_config3(0x00)
def readSensors(boardAdr, s1, s2, cvals):
# parameters = {}
# parameters[boardAdr] = {"spec1": eeprom.realSensorData(boardAdr,1), "spec2": eeprom.realSensorData(boardAdr,2)}
# print parameters
# cvals = parameters#calibrate(boardAdr)
#print boardAdr, s1, s2, cvals
temperature, humidity, pressure = other_sensor()
board.call_pca(boardAdr)
time.sleep(0.4)
time.sleep(0.4)
time.sleep(0.4)
ads.get_ads_config0(0x70)
time.sleep(0.4)
#print "sensor 1"
val2 = float(conf_sensor1())
time.sleep(0.4)
ads.get_ads_config0(0x60)
time.sleep(0.4)
#print "sensor2"
val1 = float(conf_sensor2())
time.sleep(0.4)
time.sleep(0.39)
#print cvals
type1 = str(cvals[boardAdr]['spec1'][0])
type2 = str(cvals[boardAdr]['spec2'][0])
sensitivity1 = float(cvals[boardAdr]['spec1'][1])
sensitivity2 = float(cvals[boardAdr]['spec2'][1])
baseline1 = float(cvals[boardAdr]['spec1'][2])
baseline2 = float(cvals[boardAdr]['spec2'][2])
zero1 = float(cvals[boardAdr]['spec1'][3])
zero2 = float(cvals[boardAdr]['spec2'][3])
span1 = float(cvals[boardAdr]['spec1'][4])
span2 = float(cvals[boardAdr]['spec2'][4])
unit1 = cvals[boardAdr]['spec1'][5]
unit2 = cvals[boardAdr]['spec2'][5]
#print val1, val2
#con1 = transform(temperature, val1, sensitivity1, baseline1, zero1, span1, type1)
#con2 = transform(temperature, val2, sensitivity2, baseline2, zero2, span2, type2)
con1 = val1
con2 = val2
print str("Concentration " + str(type1)+ ":" + str(con1)+", " + "Concentration " + str(type2)+ ":" + str(con2))
#if boardAdr=='87':
dataline = {"temperature": temperature, "humidity": humidity, "pressure": pressure, "address": boardAdr, "typeSensor1": str(str(type1)+"("+str(boardAdr)+")"), "valueSensor1": val1, "concentrationSensor1": str(con1), "unit1": str(unit1), "typeSensor2":str(str(type2)+"("+str(boardAdr)+")"), "valueSensor2": val2, "unit2": str(unit2), "concentrationSensor2": str(con2)}
print dataline
return dataline
def NO2():
print("Configuring parameters for the NO2")
lmp.get_OPMODE(0x03)
lmp.get_TIAGAIN(0x00)
lmp.get_RLOAD(0x00)
lmp.get_INTZSEL(0x20)
lmp.get_REFVOLTAGE(0x80)
# print "AT NO2 Bias"
lmp.get_BIAS(0x06)
lmp.get_BIAS_SIGN(0x00)
lmp.get_ADC_GAIN(0x0C)
ads.get_ads_config0(0x64)
ads.get_ads_config1(0x00)
ads.get_ads_config2(0x40)
ads.get_ads_config3(0x00)
def Tox():
# print("Configuring parameters for the Tox")
lmp.get_OPMODE(0x03)
lmp.get_TIAGAIN(0x00)
lmp.get_RLOAD(0x00)
lmp.get_INTZSEL(0x20)
lmp.get_REFVOLTAGE(0x80)
# print "AT TOX Bias"
lmp.get_BIAS(0x05)
lmp.get_BIAS_SIGN(0x10)
lmp.get_ADC_GAIN(0x04)
ads.get_ads_config0(0x50)
ads.get_ads_config1(0x00)
ads.get_ads_config2(0x40)
ads.get_ads_config3(0x00)
def Tor(self):
# print("Configuring parameters for the Tor")
try:
lmp.get_OPMODE(0x03)
lmp.get_TIAGAIN(0x00)
lmp.get_RLOAD(0x00)
lmp.get_INTZSEL(0x20)
lmp.get_REFVOLTAGE(0x80)
lmp.get_BIAS(0x06)
lmp.get_BIAS_SIGN(0x00)
lmp.get_ADC_GAIN(0x0C)
ads.get_ads_config0(0x7C)
ads.get_ads_config1(0x00)
ads.get_ads_config2(0x40)
ads.get_ads_config3(0x00)
except:
print "FAIL"
def load_board(boardAdr):
board.call_pca(boardAdr)
t.sleep(0.4)
ts = t.time()
t.sleep(0.4)
print ts,
t.sleep(0.4)
ads.get_ads_config0(0x70)
t.sleep(0.4)
#print "sensor 1"
conf_sensor1()
t.sleep(0.4)
ads.get_ads_config0(0x60)
t.sleep(0.4)
#print "sensor2"
conf_sensor2()
t.sleep(0.4)
t.sleep(0.39)
def load_board():
# for i in range (0,1):
# addr = board_addr[i]
board.call_pca(0x57)
t.sleep(1)
# print "\n Board %ld %ld" %(i, board_addr[i])
logfile.write("\n Board ")
# logfile.write(str(board_addr[i]))
ts = t.time()
print "\n time %ld" %ts
logfile.write("\nTimestamp = ")
logfile.write(str(ts))
print("\n SENSOR 1 ")
ads.get_ads_config0(0x7C)
sensor1_conf()
t.sleep(0.1)
print("\n SENSOR 2 ")
ads.get_ads_config0(0x64)
sensor2_conf()
#board_init(board_addr[1])
#board_init(board_addr[2])
board_init(board_addr[3])
def conf_sensor1():
# print("sensor 1:")
dc.s1_avg_data()
sensor1Data = ads.get_readData()
s1_avg = dc.get_s1Avg()
def conf_sensor2():
# print("sensor 2:")
dc.s2_avg_data()
sensor2Data = ads.get_readData()
s2_avg = dc.get_s2Avg()
while 1==1:
ts = t.time()
t.sleep(0.4)
ads.get_ads_config0(0x70)
t.sleep(0.4)
conf_sensor1()
t.sleep(0.4)
ads.get_ads_config0(0x60)
t.sleep(0.4)
conf_sensor2()
def read(self, board, slot1, slot2, selftest=False):
pca.pca_init(board)
# pm_types = ["OPC", "PPD42", "PPD60", "SHARP"]
# else:
# print "Reading Sensors on "+str(board)+", where Slot1: "+str(slot1)+" / Slot2: "+str(slot2)
temperature, humidity, pressure = self.met_sensors()
# time.sleep(0.1)
ads.get_ads_config0(0x60)
# time.sleep(0.2)
s1vals = self.__conf_gas1__(board)
val1 = float(s1vals[0])
# time.sleep(0.2)
ads.get_ads_config0(0x70)
s2vals = self.__conf_gas2__(board)
# time.sleep(0.2)
val2 = float(s2vals[0])
testval1 = s1vals[2]
testval2 = s2vals[2]
type1, type2 = str(slot1[5]), str(slot2[5])
sensitivity1, sensitivity2 = str(slot1[4]), str(slot2[4])
baseline1, baseline2 = str(slot1[3]), str(slot2[3])
# if temperature <= 25:
# zero1, zero2 = str(list(slot1[2])[0]), str(list(slot2[2])[0])
# span1, span2 = str(list(slot1[1])[0]), str(list(slot2[1])[0])
# else:
zero1, zero2 = (
str(slot1[2]),
str(slot2[2]),
) # str(list(slot1[2])[2]), str(list(slot2[2])[2])# str(slot1[2]), str(slot2[2])
span1, span2 = (
str(slot1[1]),
str(slot2[1]),
) # str(list(slot1[1])[2]), str(list(slot2[1])[2])#str(slot1[1]), str(slot2[1])
print zero1, zero2, span1, span2
unit1, unit2 = str(slot1[0]), str(slot2[0])
con1 = self.__calculate_concentration__(
temperature, val1, sensitivity1, baseline1, zero1, span1, type1.lower().strip("-")
)
con2 = self.__calculate_concentration__(
temperature, val2, sensitivity2, baseline2, zero2, span2, type2.lower().strip("-")
)
print str("Raw: " + str(type1) + ":" + str(val1) + ", " + "Raw " + str(type2) + ":" + str(val2))
dataline = {
"temperature": temperature,
"humidity": humidity,
"pressure": pressure,
"address": board,
"typeSensor1": str(str(type1)),
"raw_value_slot1": val1,
"concentration_slot1": str(con1),
"unit1": str(unit1),
"typeSensor2": str(str(type2)),
"raw_value_slot2": val2,
"unit2": str(unit2),
"concentration_slot2": str(con2),
}
testdataline = {
"temperature": temperature,
"humidity": humidity,
"pressure": pressure,
"address": board,
"typeSensor1": str(str(type1)),
"raw_value_slot1": testval1,
"concentration_slot1": str(testval1),
"unit1": str(unit1),
"typeSensor2": str(str(type2)),
"raw_value_slot2": testval2,
"unit2": str(unit2),
"concentration_slot2": str(testval2),
}
if selftest:
return testdataline
else:
return dataline
