def __init__(self,device_file,address):
try:
if "/" not in device_file: # means it is not a path to /dev/xxx
self.using_GPIB_to_Ethernet = True
self.device = prologix_ethernet(device_file)
else:
self.device = open(device_file, "w+")
self.using_GPIB_to_Ethernet = False
except:
return -1
#self.write_to_dev("++mode 1")
#self.write_to_dev("++addr " + str(address))
#self.write_to_dev("++auto 1")
self.what_is_measured = ""
self.nplc_delay_time = 0.9
self.slot = None
self.channel = None
self.nplc = 1 # number of power line cycles
self.channel_setup_done = False
self.debug = False
self.write_to_dev("++mode 1")
self.write_to_dev("++addr " + str(address))
self.write_to_dev("++auto 0")
self.write_to_dev("++eos 3") # Dont append anything 0=CRLF 1=CR 2=LF 3=None
self.write_to_dev("++eoi 1") # Indicate End-of-data
self.write_to_dev("*RST") # reset device
time.sleep(1.0)
def __init__(self, device_file, address):
try:
if "/" not in device_file: # means it is not a path to /dev/xxx
self.using_GPIB_to_Ethernet = True
self.device = prologix_ethernet(device_file)
else:
self.device = open(device_file, "w+")
self.using_GPIB_to_Ethernet = False
except:
return -1
self.debug = False
self.write_to_dev("++mode 1")
self.write_to_dev("++addr " + str(address))
self.write_to_dev("++auto 0")
self.write_to_dev(
"++eos 0") # Dont append anything 0=CRLF 1=CR 2=LF 3=None
self.write_to_dev("++eoi 1") # Indicate End-of-data
time.sleep(1)
def __init__(self,prologic_ip,address):
try:
self.device = prologix_ethernet(prologic_ip)
except:
return -1
self.compliance = 0.01
self.source_range = 0
self.cur_voltage = 0
self.source_mode = "DV1"
self.measure_mode = "TI"
self.debug = False
self.read_wait_time = 0.1
self.path2dir_temp_4200 = os.path.abspath("/home/electrochem/umdata/temp_4200/")
self.device.settimeout( 10 )
self.write_to_dev("++mode 1")
self.write_to_dev("++addr " + str(address))
self.write_to_dev("++auto 1") # nicht automatisch auf Antwort warten
self.write_to_dev("++eos 0") # Dont append anything 0=CRLF 1=CR 2=LF 3=None
self.write_to_dev("++eoi 1") # Indicate End-of-data
time.sleep(0.1)
def __init__(self, device_file, address):
try:
if "/" not in device_file: # means it is not a path to /dev/xxx
self.using_GPIB_to_Ethernet = True
self.device = prologix_ethernet(device_file)
else:
self.device = open(device_file, "w+")
self.using_GPIB_to_Ethernet = False
except:
return -1
self.debug = True
self.write_to_dev("++mode 1")
self.write_to_dev("++addr " + str(address))
self.write_to_dev("++auto 0")
self.write_to_dev(
"++eos 3") # Dont append anything 0=CRLF 1=CR 2=LF 3=None
self.write_to_dev("++eoi 1") # Indicate End-of-data
#self.write_to_dev("CAL:UNPR:ACAL:INIT") # prepare for calibration
#time.sleep(2.0)
#self.write_to_dev("CAL:UNPR:ACAL:STEP2") # prepare for 10mV range calibration
#time.sleep(5.0)
#self.write_to_dev("CAL:UNPR:ACAL:DONE") # prepare for 10mV range calibration
self.nplc_delay_time = 0.1
time.sleep(1.0)
def __init__(self, device_file="electrochem-m31", mode="Potentiostat"):
try:
if "/" not in device_file: # means it is not a path to /dev/xxx
self.using_GPIB_to_Ethernet = True
self.device = prologix_ethernet(device_file)
else:
self.device = open(device_file, "w+")
self.using_GPIB_to_Ethernet = False
except:
return -1
self.solartron_1287_address = 6 # address +1 is the minor address to get binary data. *Potentiostat/Galvanostat*
self.solartron_1260_address = 4 # address +1 is the minor address to get binary data. *Analyzer*
self.sleep_time = 0.3 # time between asking and getting the answer
self.current_address = self.solartron_1260_address
#self.sleep_time = 2 # time between asking and getting the answer
self.sleep_time_specific_measurement = 0
self.bias = 0
self.ready = False
self.mode = mode
self.debug = True
self.write_to_dev("++mode 1")
self.talk_to_analyzer() # 1260
self.write_to_dev("++auto 0")
self.write_to_dev(
"++eos 3") # Dont append anything 0=CRLF 1=CR 2=LF 3=None
self.write_to_dev("++eoi 1") # Indicate End-of-data
#self.write_to_dev("TT1"self.solartron_1260_address) # initialize device
#time.sleep(5.0)
self.write_to_dev("TT2",
self.solartron_1260_address) # reset device poland
time.sleep(5.0)
##self.write_to_dev("TT3"self.solartron_1260_address) # reset device
##time.sleep(5.0)
# Poland
#self.write_to_dev("OP1,0") # no RS232 output
#self.write_to_dev("OP2,1") # GPIB output
#self.write_to_dev("OP3,0") # no file output
#self.write_to_dev("RH0") # data output heading, poland
#self.write_to_dev("BP1") # ?
#self.write_to_dev("SW0") # sweep?
#self.write_to_dev("VI0") # ?
#self.write_to_dev("UW0") # ?
#self.write_to_dev("CV1") # ?
#self.write_to_dev("RR0") # ?
#self.write_to_dev("AU0") # ?
#self.write_to_dev("SO2,1") # ?
#self.write_to_dev("FC") # file clear
# Solartron self
self.write_to_dev("OP2,1",
self.solartron_1260_address) # GPIB output all
self.talk_to_generator() # 1287
self.write_to_dev(
"IL6", self.solartron_1287_address) # current limit range 2A
self.write_to_dev("OL2",
self.solartron_1287_address) # no current off limit
self.write_to_dev("PB2", self.solartron_1287_address
) # type C potentiostat mode >1MHz bandwith
self.write_to_dev(
"RG0", self.solartron_1287_address) # DVM Control input range auto
self.write_to_dev(
"DG0", self.solartron_1287_address) # DVM Control 5x9 digits
self.switch_polVI_mode_on() # 1287
self.switch_cell_on(
) # measure RE1,Re2 delta-RE, delta-RE-Bi, POL, delta-POL, CE, I, I-Bi, Half-Standby (1287)
self.set_filter_off() # 10Hz Filter off (1287)
self.set_dc_potential_accross_RE1_and_RE2(
0.0
) # dc potential accross RE1 and RE2 for the potentiostat 0.0V (-14.5 to 14.5) (1287)
self.set_voltage_bias_rejection_voltage(
0.0) # fixed rejection voltage 0.0V (0 to 14.5V) (1287)
#self.write_to_dev("OT1") # GPIB Output terminator cr lf and EOI TODO could also be for analyser
self.write_to_dev("OT1",
self.solartron_1260_address) # no file output TODO
self.write_to_dev("OP3,0",
self.solartron_1260_address) # no file output
self.write_to_dev(
"OP2,0", self.solartron_1260_address) # GPIB output off ??? WFT
self.write_to_dev("VI0",
self.solartron_1260_address) # display frequency
self.write_to_dev("SW0",
self.solartron_1260_address) # disable sweeping
self.write_to_dev("CV0",
self.solartron_1260_address) # display options
self.write_to_dev("UW0", self.solartron_1260_address) # normal phase
self.set_potentiostatic_mode() # 1260
self.write_to_dev(
"IA0", self.solartron_1260_address
) # generator I amplitude 0A (you need to tell this to the analyser, stupid but true)
self.write_to_dev(
"IB0", self.solartron_1260_address
) # generator I bias 0A (you need to tell this to the analyser, stupid but true)
self.write_to_dev("ME0", self.solartron_1260_address) # monitor off
#self.write_to_dev("RA3,5",self.solartron_1260_address) # input I range 60mA
self.write_to_dev(
"RA3,0", self.solartron_1260_address
) # input I auto-range TODO doesn't this make more sense?
self.set_input_current_coupling("dc") #1260
self.write_to_dev("FV0",
self.solartron_1260_address) # display options
self.write_to_dev("CI0",
self.solartron_1260_address) # display options
self.write_to_dev("CZ0",
self.solartron_1260_address) # display options
self.write_to_dev("CY0",
self.solartron_1260_address) # display options
self.write_to_dev(
"VA0", self.solartron_1260_address
) # generator voltage amplitude 0A (you need to tell this to the analyser, stupid but true)
self.set_potential_bias(
0.0
) # generator voltage bias 0A (you need to tell this to the analyser, stupid but true) (1260)
self.write_to_dev("AU0",
self.solartron_1260_address) # auto integration off
self.set_integration_time(0.2) # integration time 0.2s (1260)
self.set_integration_delay(0.0) # delay 0s (1260)
self.write_to_dev("RA1,0",
self.solartron_1260_address) # input V1 autorange
self.write_to_dev("RA2,0",
self.solartron_1260_address) # input V2 autorange
self.set_input_voltage_coupling(1, "dc") # 1260
self.set_input_voltage_coupling(2, "dc") # 1260
self.set_input_mode(1, "single") # 1260
self.set_input_mode(2, "single") # 1260
self.set_outer_bnc(1, "floating") # 1260
self.set_outer_bnc(2, "floating") # 1260
self.set_outer_bnc(1, "floating") # Why do I need to repeat? (1260)
self.write_to_dev(
"SO1,2",
self.solartron_1260_address) # source V1 / V2 could be 2,1
#self.write_to_dev("SO2,0",self.solartron_1260_address) # current on V2 TODO
#self.write_to_dev("SO0,2",self.solartron_1260_address) # current on V2 TODO
#self.write_to_dev("SO3,0",self.solartron_1260_address) # current on V2 TODO
#self.write_to_dev("SO3,2",self.solartron_1260_address) # current on V2 TODO
#self.write_to_dev("SO2,3",self.solartron_1260_address) # current on V2 TODO
self.write_to_dev("BP0", self.solartron_1260_address) # error beep off
self.write_to_dev(
"CE", self.solartron_1260_address) # clear errors TODO 1287
self.write_to_dev("OP2,1",
self.solartron_1260_address) # GPIB output all
self.write_to_dev(
"VA0", self.solartron_1260_address
) # generator voltage amplitude 0A (you need to tell this to the analyser, stupid but true)
self.set_potential_bias(
0.0
) # generator voltage bias 0A (you need to tell this to the analyser, stupid but true)
self.write_to_dev(
"PI1", self.solartron_1287_address
) # Add external signal to the polarization (from PVF pr PC F at gain of x0.01
self.switch_polarization_on() # 1287
self.write_to_dev(
"TR1", self.solartron_1287_address
) # measurement trigger set to continuous measurements
self.write_to_dev("RU1",
self.solartron_1287_address) # digital voltmeter RUN
self.write_to_dev("BR1", self.solartron_1287_address) # bias reject ON
self.write_to_dev("VX1", self.solartron_1287_address
) # 10x voltage amplification to rear output
self.write_to_dev("IX1", self.solartron_1287_address
) # 10x current amplification to rear output