def __init__(self, datadir="data", outlabel="gainMeasurement"):
        self.outpathlabel = os.path.join(datadir, outlabel)

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        #set appropriate packet size
        self.write_data.femb.MAX_PACKET_SIZE = 8000

        #set status variables
        self.status_check_setup = 0
        self.status_record_data = 0
        self.status_do_analysis = 0
        self.status_archive_results = 0
        self.cppfr = CPP_FILE_RUNNER()

        #misc variables
        self.gain = 0
        self.shape = 0
        self.base = 0

        #json output, note module version number defined here
        self.jsondict = {'type':'quadFeAsic_gain_fpgadac'}
        self.jsondict['version'] = '1.0'
        self.jsondict['timestamp']  = str(self.write_data.date)
Beispiel #2
0
    def __init__(self, master=None, forceLong=False):
        Frame.__init__(self, master)
        self.pack()

        self.config = CONFIG()

        self.forceLong = forceLong

        self.timestamp = None
        self.iTry_david_adams = 1
        self.iTry_configure = 1
        self.waveform_window = None  # for live waveform
        self.waveform_root_windows = []  # for ROOT files
        self.waveform_root_viewers = []  # for ROOT files
        self.result_labels = []
        self.display_procs = []
        #Define general commands column
        self.define_test_details_column()
        self.reset()

        self.master.protocol("WM_DELETE_WINDOW", self.exit)

        self.data_base_dir = "/dsk/1/tmp"  #changed from data -> tmp
        try:
            self.data_base_dir = os.environ["FEMB_DATA_DIR"]
        except KeyError:
            pass
    def reset(self, iTrace=None):
        self.femb = FEMB_UDP()
        self.femb_config = CONFIG()
        self.figure.clf()
        self.subgs = [None] * 16 * 4
        self.ax = [None] * 16 * 4
        self.plot = [None] * 16 * 4

        # 4x4x4 grid, one cell per channel
        self.gs = gridspec.GridSpec(4, 16)
        self.gs.update(wspace=0.2, hspace=0.2)
        # 1 plots per channel
        for row in range(4):
            for col in range(16):
                self.subgs[col + 16 * row] = gridspec.GridSpecFromSubplotSpec(
                    1, 1, subplot_spec=self.gs[col + 16 * row], hspace=0.0)
                self.ax[col + 16 * row] = self.figure.add_subplot(
                    self.subgs[col + 16 * row][0])
                self.ax[col + 16 * row].tick_params(axis='x',
                                                    colors='black',
                                                    labelsize='medium')
                self.ax[col + 16 * row].tick_params(axis='y',
                                                    colors='black',
                                                    labelsize='smaller')

        if iTrace is None:
            self.ani = animation.FuncAnimation(self.figure,
                                               self.plotData,
                                               interval=100,
                                               blit=True)
        else:
            self.plotData(0, iTrace)
        self.canvas.draw()
Beispiel #4
0
    def __init__(self,
                 datadir="data",
                 outlabel="simpleMeasurement",
                 wib=0,
                 fembNum=0):
        #set internal variables
        self.datadir = datadir
        self.outlabel = outlabel + str("_femb_") + str(fembNum + 4 * wib)
        self.outpathlabel = os.path.join(self.datadir, self.outlabel)
        self.fembNum = int(fembNum)

        print("Test type\t" + str(self.outlabel))
        print("Data path\t" + str(datadir))
        print("FEMB #\t" + str(self.fembNum))

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        #set appropriate packet size
        self.write_data.femb.MAX_PACKET_SIZE = 9014
        self.cppfr = CPP_FILE_RUNNER()

        #set status variables
        self.status_check_setup = 0
        self.status_record_data = 0
        self.status_do_analysis = 0
        self.status_archive_results = 0

        #json output, note module version number defined here
        self.jsondict = {'type': 'fembTest_simple'}
        self.jsondict['version'] = '1.0'
        self.jsondict['timestamp'] = str(self.write_data.date)
def main():

    #initialize board
    femb_config = CONFIG()
    femb_config.COLD = True
    femb_config.doSpiWrite = False

    print("\n")
    print("Running ADC synchronization process")
    print("Configuration parameters:")
    femb_config.printParameters()

    #check if register interface still working
    regVal = femb_config.femb.read_reg(femb_config.REG_FIRMWARE_VERSION)
    if regVal == None :
        print( "Register interface error, could not synchronize ASIC " )
        return

    #do sync
    asicStatus = [1,1,1,1]
    for asic in [0,1,2,3]:
        asicNum = int(asic)
        if (asicNum < 0) or (asicNum>3) :
            continue 
        femb_config.doAdcAsicConfig(asicNum)
        if femb_config.adcSyncStatus == False :
            femb_config.fixUnsync(asicNum)
        if femb_config.adcSyncStatus == False :
            print( "Could not synchronize ASIC ", asicNum )
            asicStatus[asicNum] = 0

    print("ASIC SYNC STATUS","\t",asicStatus)
Beispiel #6
0
    def __init__(self,
                 datadir="data",
                 outlabel="simpleMeasurement",
                 asicnum=0,
                 isCold=False):
        #set internal variables
        self.datadir = datadir
        self.outlabel = outlabel + str("_asic_") + str(asicnum)
        self.outpathlabel = os.path.join(self.datadir, self.outlabel)
        self.asicnum = int(asicnum)

        print("Test type\t" + str(self.outlabel))
        print("Data path\t" + str(datadir))
        print("ASIC socket #\t" + str(self.asicnum))

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        self.cppfr = CPP_FILE_RUNNER()

        #set appropriate UDP packet size
        self.write_data.femb.MAX_PACKET_SIZE = 8000  #should be larger than largest expected packet size

        #set test module status variables
        self.status_check_setup = 0
        self.status_record_data = 0
        self.status_do_analysis = 0
        self.status_archive_results = 0
        self.isCold = isCold

        #define json output
        self.jsondict = {'type': 'quadAdcTest_simple'}
        #self.jsondict['version'] = '1.0'
        self.jsondict['timestamp'] = str(self.write_data.date)
        self.jsondict['asicnum'] = str(self.asicnum)
    def __init__(self, datadir="data", outlabel="OscillatorTesting"):
        self.outpathlabel = os.path.join(datadir, outlabel)
        self.femb_config = CONFIG()

        self.nFlashes = 4
        self.nPages = 10
        self.nTriesWrite = 3
        self.printData = False
 def __init__(self):
     self.sbnd = FEMB_DAQ()
     self.femb = FEMB_UDP()
     self.config = CONFIG()
     self.FunctionGenerator = None
     self.analyze = Data_Analysis()
     self.analyze2 = Data_Analysis2()
     self.analyze3 = Data_Analysis3()
Beispiel #9
0
    def __init__(self,
                 datadir="data",
                 outlabel="funcgenMeasurement",
                 asicnum=0,
                 doReconfig=True,
                 doLongRamp=False,
                 isExternalClock=True,
                 is1MHzSAMPLERATE=True,
                 isCold=False):
        #set internal variables
        self.datadir = datadir
        self.outlabel = outlabel + str("_asic_") + str(asicnum)
        self.outpathlabel = os.path.join(self.datadir, self.outlabel)
        self.asicnum = int(asicnum)

        print("Test type\t" + str(self.outlabel))
        print("Data path\t" + str(datadir))
        print("ASIC socket #\t" + str(self.asicnum))

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        self.cppfr = CPP_FILE_RUNNER()
        self.funcgen = Keysight_33600A("/dev/usbtmc0",
                                       1)  #hardcoded to usbtmc0

        #set appropriate UDP packet size
        self.write_data.femb.MAX_PACKET_SIZE = 8000  #should be larger than largest expected packet size

        #set test module status variables
        self.status_check_setup = 0
        self.status_record_data = 0
        self.status_do_analysis = 0
        self.status_archive_results = 0

        #assign input to test and config module internal variables
        self.doReconfig = doReconfig
        self.doLongRamp = doLongRamp
        self.isExternalClock = isExternalClock
        self.is1MHzSAMPLERATE = is1MHzSAMPLERATE
        self.isCold = isCold
        self.femb_config.isExternalClock = self.isExternalClock  #False = internal monostable, True = external
        self.femb_config.is1MHzSAMPLERATE = self.is1MHzSAMPLERATE  #False = 1MHz, True = 2MHz
        self.femb_config.COLD = self.isCold
        self.femb_config.enableTest = 1  # 0 = no test input, 1 = enabled

        #define json output
        self.jsondict = {'type': 'quadAdcTest_funcgen'}
        #self.jsondict['version'] = '1.0'
        self.jsondict['timestamp'] = str(self.write_data.date)
        self.jsondict['asicnum'] = str(self.asicnum)
        self.jsondict['doreconfig'] = str(self.doReconfig)
        self.jsondict['extclock'] = str(self.isExternalClock)
        self.jsondict['is1MHz'] = str(self.is1MHzSAMPLERATE)
        self.jsondict['iscold'] = str(self.isCold)
Beispiel #10
0
    def __init__(self, datadir="data", outlabel="OscillatorTesting"):
        self.outpathlabel = os.path.join(datadir, outlabel)
        self.femb_config = CONFIG()

        self.nFlashes = 4
        self.nPages = 20
        self.nWriteTries = 3
        self.nTimeToErase = 180 #Erase bulk cycle time for EPCS64 is 160s max

        self.powerSupplyDevice = None
        self.printData = False
class FEMB_CONTROL_POWER(object):
    def __init__(self):
        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()

    def power_off(self):
        print("Powering down all four ASICs")
        self.femb_config.turnOffAsics()

    def power_on(self):
        print("Powering up all four ASICs")
        self.femb_config.turnOnAsics()
Beispiel #12
0
 def __init__(self, datadir="data", outlabel="check_current"):
     #set status variables
     self.status_check_setup = 0
     self.status_record_data = 0
     self.status_do_analysis = 0
     self.status_archive_results = 0
     self.config = CONFIG()
     self.results_current = {}
     self.fullresults_current = {}
     self.datadir = datadir
     self.outlabel = outlabel
     self.outpathlabel = os.path.join(self.datadir, self.outlabel)
Beispiel #13
0
def main():

    femb_config = CONFIG()

    #initialize readout to known working state
    print("Turn off ASICs")
    femb_config.turnOffAsics()

    #ideally check if function generator exists here...

    #initialize funciton generator
    funcgen = Keysight_33600A("/dev/usbtmc0", 1)  #hardcoded to usbtmc0
    funcgen.stop()
Beispiel #14
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    def __init__(self, master=None, forceQuick=False, forceLong=False):
        Frame.__init__(self, master)
        self.pack()

        self.config = CONFIG()

        self.result_labels = []
        self.display_procs = []
        #Define general commands column
        self.define_test_details_column()
        self.reset()

        self.master.protocol("WM_DELETE_WINDOW", self.exit)
Beispiel #15
0
    def __init__(self, datadir="data"):

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        #set appropriate packet size
        self.write_data.femb.MAX_PACKET_SIZE = 8000
	
        #set status variables
        self.status_check_setup = 0
        self.status_record_data = 0
        self.status_do_analysis = 0
        self.status_archive_results = 0
        self.cppfr = CPP_FILE_RUNNER()
Beispiel #16
0
 def __init__(self):
     self.xmlshapingtimeval = 0
     self.xmlgainval = 0
     self.configshapingtimeval = 0
     self.configgainval = 0
     self.femb_config = CONFIG()
     self.feasicLeakage = self.femb_config.feasicLeakage
     self.feasicLeakagex10 = self.femb_config.feasicLeakagex10
     self.feasicAcdc = self.femb_config.feasicAcdc
     self.feasicBaseline = self.femb_config.feasicBaseline
     self.feasicEnableTestInput = self.femb_config.feasicEnableTestInput
     self.feasicGain = self.femb_config.feasicGain
     self.feasicShape = self.femb_config.feasicShape
     self.feasicBuf = self.femb_config.feasicBuf
     self.femb_config.useLArIATmap = True
Beispiel #17
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    def __init__(self, datadir="data", outlabel="syncData"):
        self.outpathlabel = os.path.join(datadir, outlabel)

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        #set appropriate packet size
        self.plotting = plot_functions()
        self.write_data.femb.MAX_PACKET_SIZE = 8000

        self.cppfr = CPP_FILE_RUNNER()

        #json output, note module version number defined here
        self.jsondict = {'type': 'sync_adcs'}
        self.jsondict['version'] = '1.0'
        self.jsondict['timestamp'] = str(self.write_data.date)
Beispiel #18
0
    def __init__(self, master=None, forceQuick=False, forceLong=False):
        Frame.__init__(self, master)
        self.pack()

        self.config = CONFIG()

        if forceQuick and forceLong:
            raise Exception("Can't forceQuick and forceLong at the same time")
        self.forceQuick = forceQuick
        self.forceLong = forceLong

        self.timestamp = None
        self.result_labels = []
        self.display_procs = []
        #Define general commands column
        self.define_test_details_column()
        self.reset()

        self.master.protocol("WM_DELETE_WINDOW", self.exit)

        self.data_base_dir = "/dsk/1/data"
        try:
            self.data_base_dir = os.environ["FEMB_DATA_DIR"]
        except KeyError:
            pass
Beispiel #19
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    def __init__(self, datadir="data", outlabel="baselineTest"):
        
        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        #import data analysis and plotting objects
        self.plotting = plot_functions()
        self.analyze = Data_Analysis()
        
        #set appropriate packet size
        self.write_data.femb.MAX_PACKET_SIZE = 8000

        self.cppfr = CPP_FILE_RUNNER()
        
        #json output, note module version number defined here
        self.jsondict = {'type':'baseline_test'}
        self.jsondict['version'] = '1.0'
        self.jsondict['timestamp']  = str(self.write_data.date)     
 def __init__(self, datadir="data", outlabel="summary"):
     #set status variables
     self.status_check_setup = 0
     self.status_do_analysis = 0
     self.status_archive_results = 0
     self.config = CONFIG()
     self.datadir = datadir
     self.topdir = ""
     self.subdirs = []
     self.outlabel = outlabel
     self.outpathlabel = os.path.join(self.datadir, self.outlabel)
Beispiel #21
0
    def __init__(self, datadir="data", outlabel="xtalk", fembNum=0):
        #set internal variables
        self.datadir = datadir
        self.outlabel = outlabel + str("_femb_") + str(fembNum)
        self.outpathlabel = os.path.join(self.datadir, self.outlabel)
        self.fembNum = int(fembNum)

        print("FEMB # " + str(self.fembNum))

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(self.datadir)
        #set appropriate packet size
        self.write_data.femb.MAX_PACKET_SIZE = 8000
        self.cppfr = CPP_FILE_RUNNER()

        #set status variables
        self.status_check_setup = 0
        self.status_record_data = 0
        self.status_do_analysis = 0
        self.status_archive_results = 0

        #misc variables
        self.gain = 0
        self.shape = 0
        self.base = 0
        self.leakage = 0
        self.leakagex10 = 0
        self.buffer = 1
        self.acdc = 0
        self.useInternalPulser = False
        self.useExtAdcClock = False
        self.isRoomTemp = False
        self.isAPA = False
        self.useDefaultGainFactor = False

        #json output, note module version number defined here
        self.jsondict = {'type': 'fembTest_xtalk'}
        self.jsondict['version'] = '1.0'
        self.jsondict['timestamp'] = str(self.write_data.date)
Beispiel #22
0
class FEMB_POWER_CYCLE_TEST(object):
    def __init__(self):
        self.config = CONFIG()
        self.ntries = 5

    def callit(self, params):

        wibslots = params['wibslots']
        isRoomTemp = params['isRoomTemp']

        for icycle in range(0, self.ntries):
            if (icycle == 0):
                self.config.initWib()
            for ifemb in wibslots:
                self.config.powerOffFemb(ifemb)
                datadir = params['datadir']
                label = "simpleMeasurement_cycle_" + str(icycle)
                femb_test = FEMB_TEST_SIMPLE(datadir, label, ifemb)
                femb_test.isRoomTemp = isRoomTemp
                femb_test.check_setup()
                femb_test.record_data()
                femb_test.do_analysis()
                femb_test.archive_results()
        for ifemb in wibslots:
            self.config.powerOffFemb(ifemb)
Beispiel #23
0
    def __init__(self, master=None):
        Frame.__init__(self,master)
        self.pack()

        #Define configuration object
        self.femb_config = CONFIG()

        #Define general commands column
        self.define_general_commands_column()

        #Define configuration commands column
        self.define_config_commands_column()

        #Define fe-asic configuration column
        self.define_feasic_config_commands_column()

        #Define adc asic configuration column
        self.define_adcasic_config_commands_column()

        self.trace_fft_window = None
        #self.trace_fft_allchan_window = None
        self.trace_fft = None
Beispiel #24
0
def main():

    #initialize board
    femb_config = CONFIG()
    #femb_config.isExternalClock = True
    #femb_config.is1MHzSAMPLERATE = False #COOL

    #initialize readout to known working state
    print("Initializing board")
    initStatus = femb_config.initBoard()
    if initStatus == False :
        #setup in bad state
        completeFailure()
        return
    asicStatus = [1,1,1]
    initStatus = femb_config.initAsic(0)
    if initStatus == False :
        print( "Could not initialize ASIC ", 0 )
        asicStatus[0] = 0
    initStatus = femb_config.initAsic(1)
    if initStatus == False :
        print( "Could not initialize ASIC ", 1 )
        asicStatus[1] = 0
    initStatus = femb_config.initAsic(2)
    if initStatus == False :
        print( "Could not initialize ASIC ", 2 )
        asicStatus[2] = 0

    #use external pulser
    femb_config.setFPGADac(0,1,0,0) # write regs 4 and 5

    #ideally check if function generator exists here...

    #initialize funciton generator
    funcgen = Keysight_33600A("/dev/usbtmc0",1) #hardcoded to usbtmc0
    xLow = 0.1
    xHigh = 1.3
    offsetV = (xLow + xHigh)*0.5
    amplitudeV = (xHigh - xLow)*0.5
    freq = 20173
    funcgen.startSin(freq,amplitudeV,offsetV)

    #setup is in good state
    totalVictory()
    print("ASIC STATUS","\t",asicStatus)
Beispiel #25
0
class QUADADC_TEST_SIMPLE(object):
    def __init__(self,
                 datadir="data",
                 outlabel="simpleMeasurement",
                 asicnum=0,
                 isCold=False):
        #set internal variables
        self.datadir = datadir
        self.outlabel = outlabel + str("_asic_") + str(asicnum)
        self.outpathlabel = os.path.join(self.datadir, self.outlabel)
        self.asicnum = int(asicnum)

        print("Test type\t" + str(self.outlabel))
        print("Data path\t" + str(datadir))
        print("ASIC socket #\t" + str(self.asicnum))

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        self.cppfr = CPP_FILE_RUNNER()

        #set appropriate UDP packet size
        self.write_data.femb.MAX_PACKET_SIZE = 8000  #should be larger than largest expected packet size

        #set test module status variables
        self.status_check_setup = 0
        self.status_record_data = 0
        self.status_do_analysis = 0
        self.status_archive_results = 0
        self.isCold = isCold

        #define json output
        self.jsondict = {'type': 'quadAdcTest_simple'}
        #self.jsondict['version'] = '1.0'
        self.jsondict['timestamp'] = str(self.write_data.date)
        self.jsondict['asicnum'] = str(self.asicnum)

    def check_setup(self):
        #CHECK STATUS AND INITIALIZATION
        print("SIMPLE MEASUREMENT - CHECKING READOUT STATUS")
        self.status_check_setup = 0

        #make sure output directory exists (should catch permissions issues etc)
        isDir = self.write_data.assure_filedir()
        if isDir == None:
            print("Error running test - Output data directory note created.")
            return

        #check if register interface is working
        print("Checking register interface")
        regVal = self.femb_config.femb.read_reg(
            self.femb_config.REG_FIRMWARE_VERSION)
        if (regVal == None):
            print("Error running test - register interface is not working.")
            print(" Turn on or debug UDP readout.")
            return
        if (regVal < 0):
            print("Error running test - register interface is not working.")
            print(" Turn on or debug UDP readout.")
            return
        print("Read register 6, value = " + str(hex(regVal)))

        #check for any problems in input variables
        #check that input ASIC # is correct
        if self.asicnum == None:
            print(
                "Error running test - Invalid ASIC socket # specified, ending test"
            )
            return
        if (self.asicnum < 0) or (self.asicnum > self.femb_config.NASICS):
            print(
                "Error running test - Invalid ASIC socket # specified, ending test"
            )
            return

        #initialize readout to known working state
        #initialization may identify problem that cancels test
        print("Initializing board")
        initStatus = self.femb_config.initBoard()
        if initStatus == False:
            print(
                "Error running test - Could not initialize board, ending test")
            return
        initStatus = self.femb_config.initAsic(self.asicnum)
        if initStatus == False:
            print(
                "Error running test - Could not initialize ASIC, ending test")
            return

        #firmware version check should be done in initialize, otherwise do here
        #if self.femb_config.checkFirmwareVersion() == False:
        #    print('Error running doFembTest - Invalid firmware and/or register read error')
        #    return

        #check if data streaming is working, assume it's ON after board + ASIC initialize
        print("Checking data streaming")
        testData = self.write_data.femb.get_data_packets(1)
        if testData == None:
            print("Error running test - board is not streaming data.")
            print(" Turn on and initialize FEMB UDP readout.")
            return
        if len(testData) == 0:
            print("Error running test - board is not streaming data.")
            print(" Turn on and initialize FEMB UDP readout.")
            return

        print("Received data packet " + str(len(testData[0])) + " bytes long")

        #check for analysis executables
        if not self.cppfr.exists(
                'test_measurements/quadAdcTester/code/parseBinaryFile'):
            print(
                'Error running test - parseBinaryFile executable not found, run setup.sh'
            )
            return
        if not self.cppfr.exists(
                'test_measurements/quadAdcTester/code/processNtuple_simpleMeasurement'
        ):
            print(
                'Error running test - processNtuple_simpleMeasurement executable not found, run setup.sh'
            )
            return

        #Setup is ok
        print("SIMPLE MEASUREMENT - READOUT STATUS OK" + "\n")
        self.status_check_setup = 1

    def record_data(self):
        if self.status_check_setup == 0:
            print(
                "Error running test - Please run check_setup method before trying to take data"
            )
            return
        if self.status_record_data == 1:
            print(
                "Error running test - Data already recorded. Reset/restat GUI to begin a new measurement"
            )
            return

        #MEASUREMENT SECTION
        print("SIMPLE MEASUREMENT - RECORDING DATA")

        #wait to make sure HS link is back on after check_setup function
        sleep(1.)

        #setup output file and record data
        self.write_data.filename = self.outlabel + ".bin"
        print("Recording " + self.write_data.filename)

        isOpen = self.write_data.open_file()
        if isOpen == 0:
            print(
                "Error running test - Could not open output data file for writing, ending test"
            )

        #record data
        self.write_data.numpacketsrecord = 10
        self.write_data.run = 0
        self.write_data.runtype = 0
        self.write_data.runversion = 0

        #loop over each ASIC, record some data
        subrun = 0
        asic = self.asicnum
        asicCh = 0
        self.femb_config.selectAsic(asic)
        self.write_data.record_data(subrun, asic, asicCh)
        self.write_data.close_file()

        #Power off ASIC
        #self.femb_config.turnOffAsics()

        print("SIMPLE MEASUREMENT - DONE RECORDING DATA" + "\n")
        self.status_record_data = 1

    def do_analysis(self):
        if self.status_record_data == 0:
            print("Error running test - Please record data before analysis")
            return
        if self.status_do_analysis == 1:
            print("Error running test - Analysis already complete")
            return

        #ANALYSIS SECTION
        print("SIMPLE MEASUREMENT - ANALYZING AND SUMMARIZING DATA")

        #parse binary
        self.cppfr.run("test_measurements/quadAdcTester/code/parseBinaryFile",
                       [self.write_data.data_file_path])

        #check for parsed file here
        if os.path.isfile("output_parseBinaryFile.root") == False:
            print("Error running test - parsed data file not found.")
            return

        #run analysis program
        parseBinaryFile = "output_parseBinaryFile.root"
        self.cppfr.run(
            "test_measurements/quadAdcTester/code/processNtuple_simpleMeasurement",
            [parseBinaryFile])

        #check for online analysis result files here
        if os.path.isfile(
                "output_processNtuple_simpleMeasurement.root") == False:
            print("Error running test - parsed data file not found.")
            return

        #update output file names
        parseBinaryFile = self.outpathlabel + "-parseBinaryFile.root"
        call(["mv", "output_parseBinaryFile.root", parseBinaryFile])

        processNtupleFile = self.outpathlabel + "-processNtupleFile.root"
        call([
            "mv", "output_processNtuple_simpleMeasurement.root",
            processNtupleFile
        ])

        summaryPlot = self.outpathlabel + "-summaryPlot.png"
        call(["mv", "summaryPlot_simpleMeasurement.png", summaryPlot])

        print("SIMPLE MEASUREMENT - DONE ANALYZING AND SUMMARIZING DATA" +
              "\n")
        self.status_do_analysis = 1

    def archive_results(self):
        #NOTE: GENERALLY ALLOW ARCHIVE PROCESS TO RUN EVEN IF OTHER STEPS FAIL
        #if self.status_check_setup == 0 :
        #     print("Check setup status is 0, not archiving data")
        #     return
        #if self.status_do_analysis == 0:
        #    print("Please analyze data before archiving results")
        #    return
        if self.status_archive_results == 1:
            print("Error running test - Results already archived")
            return
        #ARCHIVE SECTION
        print("SIMPLE MEASUREMENT - ARCHIVE")

        #add summary variables to output
        self.jsondict['filedir'] = str(self.write_data.filedir)
        self.jsondict['status_check_setup'] = str(self.status_check_setup)
        self.jsondict['status_record_data'] = str(self.status_record_data)
        self.jsondict['status_do_analysis'] = str(self.status_do_analysis)
        self.jsondict['status_archive_results'] = str(1)

        #dump results into json
        jsonFile = self.outpathlabel + "-results.json"
        with open(jsonFile, 'w') as outfile:
            json.dump(self.jsondict, outfile, indent=4)

        print("SIMPLE MEASUREMENT - DONE ARCHIVING" + "\n")
        self.status_archive_results = 1
Beispiel #26
0
class FEMB_CHECK_CURRENT(object):
    def __init__(self, datadir="data", outlabel="check_current"):
        #set status variables
        self.status_check_setup = 0
        self.status_record_data = 0
        self.status_do_analysis = 0
        self.status_archive_results = 0
        self.config = CONFIG()
        self.results_current = {}
        self.fullresults_current = {}
        self.datadir = datadir
        self.outlabel = outlabel
        self.outpathlabel = os.path.join(self.datadir, self.outlabel)

    def check_setup(self):
        #CHECK STATUS AND INITIALIZATION
        print("CHECK SETUP")
        self.status_check_setup = 0

        #check if register interface is working
        print("Checking register interface")
        regVal = self.config.femb.read_reg(6)
        if (regVal == None):
            print(
                "Error running doFembTest - FEMB register interface is not working."
            )
            print(" Turn on or debug FEMB UDP readout.")
            return
        if (regVal < 0):
            print(
                "Error running doFembTest - FEMB register interface is not working."
            )
            print(" Turn on or debug FEMB UDP readout.")
            return
        print("Read register 6, value = " + str(hex(regVal)))

        #CHECK STATUS SUCCEEDED
        print("CHECK SETUP - STATUS OK" + "\n")
        self.status_check_setup = 1

    def record_data(self, ifemb, wibslots=[]):
        if self.status_check_setup == 0:
            print(
                "RECORD DATA - Please run check_setup method before trying to take data"
            )
            return

        #check that femb number is valid
        if ("all" not in ifemb and "off" not in ifemb):
            if ((int(ifemb) < 0) or (int(ifemb) >= self.config.NFEMBS)):
                print(
                    "Error running current check - Invalid FEMB # specified.")
                return

        print("Checking current for: ", ifemb)

        for j in range(0, 4, 1):
            self.config.powerOffFemb(j)

        if ("off" in ifemb):  #All off
            time.sleep(60)
            curr_measured = self.config.readCurrent()
            self.results_current["none_on"] = curr_measured

        elif ("all" not in ifemb):  #Single slot on
            self.config.powerOnFemb(ifemb)
            time.sleep(30)
            curr_measured = self.config.readCurrent()
            self.results_current["femb" + str(ifemb) + "on"] = curr_measured
            self.config.powerOffFemb(ifemb)

        #elif len(wibslots)>1: #All on
        else:
            for i in wibslots:
                self.config.powerOnFemb(i)
            time.sleep(30)
            curr_measured = self.config.readCurrent()
            self.results_current["all_on"] = curr_measured
            for j in wibslots:
                self.config.powerOffFemb(j)

        self.status_record_data = 1

    def do_analysis(self):
        if self.status_record_data == 0:
            print("DO ANALYSIS - Please record data before analysis")
            return
        if self.status_do_analysis == 1:
            print("DO ANALYSIS - Analysis already complete")
            return

        print("DO ANALYSIS")
        rsense = 0.1

        for key, resultlist in self.results_current.items():
            print(key, resultlist)
            i = 0
            for val in resultlist:
                if (i < 25):
                    jfemb = int(i / 6)
                    val1 = ((val >> 16) & 0xFFFF)
                    val2 = (val & 0xFFFF)

                    if i % 6 == 0:
                        v1 = val1 & 0x3FFF
                        vcc1 = v1 * 305.18e-6 + 2.5
                        self.fullresults_current[key + "_femb" + str(jfemb) +
                                                 "_vcc1"] = vcc1
                        v2 = val2 & 0x3FFF
                        temp1 = v2 * 0.0625
                        self.fullresults_current[key + "_femb" + str(jfemb) +
                                                 "_temp1"] = temp1
                    else:
                        v1 = val1 & 0x3FFF
                        vi = v1 * 305.18e-6
                        self.fullresults_current[key + "_femb" + str(jfemb) +
                                                 "_v" + str(i % 6)] = vi
                        v2 = val2 & 0x3FFF
                        ii = v2 * 19.075e-6 / rsense
                        if ii > 3.1:
                            ii = 0
                        self.fullresults_current[key + "_femb" + str(jfemb) +
                                                 "_i" + str(i % 6)] = ii
                i += 1

    def unpack(self, val, i):
        i -= 1
        rsense = 0.1
        unpacked_results = []
        if (i < 25):
            jfemb = int(i / 6)
            val1 = ((val >> 16) & 0xFFFF)
            val2 = (val & 0xFFFF)

            if i % 6 == 0:
                v1 = val1 & 0x3FFF
                vcc1 = v1 * 305.18e-6 + 2.5
                unpacked_results.append(vcc1)
                v2 = val2 & 0x3FFF
                temp1 = v2 * 0.0625
                unpacked_results.append(temp1)
            else:
                v1 = val1 & 0x3FFF
                vi = v1 * 305.18e-6
                unpacked_results.append(vi)
                v2 = val2 & 0x3FFF
                ii = v2 * 19.075e-6 / rsense
                if ii > 3.1:
                    ii = 0
                unpacked_results.append(ii)
        i += 1
        print(i, val, unpacked_results)

        return unpacked_results

    def archive_results(self):
        if self.status_record_data == 0:
            print(
                "ARCHIVE RESULTS - Please take data before archiving results")
            return
        if self.status_archive_results == 1:
            print("ARCHIVE RESULTS -Results already archived")
            return

        print("ARCHIVE RESULTS")

        jsonFile = self.outpathlabel + "-results.json"
        with open(jsonFile, 'w') as outfile:
            json.dump(self.fullresults_current, outfile, indent=4)

        #ARCHIVING SUCCEEDED
        print("ARCHIVE RESULTS - DONE" + "\n")
        self.status_archive_results = 1
Beispiel #27
0
class CONFIGURATION_WINDOW(Frame):


    def __init__(self, master=None):
        Frame.__init__(self,master)
        self.pack()

        #Define configuration object
        self.femb_config = CONFIG()

        #Define general commands column
        self.define_general_commands_column()

        #Define configuration commands column
        self.define_config_commands_column()

        #Define fe-asic configuration column
        self.define_feasic_config_commands_column()

        #Define adc asic configuration column
        self.define_adcasic_config_commands_column()

        self.trace_fft_window = None
        #self.trace_fft_allchan_window = None
        self.trace_fft = None

    def define_general_commands_column(self):
        columnbase=0

        label = Label(self, text="General Commands")
        label.grid(row=0,column=columnbase, columnspan=2)

        label = Label(self,text="Register to read:")
        label.grid(sticky=W,row=1,column=columnbase+0)

        # Adding register number to read entry box
        self.readreg_number_entry = Entry(self,width=4)
        self.readreg_number_entry.grid(sticky=W,row=1,column=columnbase+1)

        # Adding read register result label
        label = Label(self,text="Register contents:")
        label.grid(sticky=W,row=2,column=columnbase+0)
        self.readreg_result = Label(self, text="",width=10)
        self.readreg_result.grid(sticky=W,row=2,column=columnbase+1)

        #Adding the read register button
        readreg_button = Button(self, text="Read Register", command=self.call_readRegister)
        readreg_button.grid(row=3,column=columnbase,columnspan=2)      

        label = Label(self,text="Register to write:")
        label.grid(sticky=W,row=4,column=columnbase+0)

        # Adding register number to write entry box
        self.writereg_number_entry = Entry(self,width=4)
        self.writereg_number_entry.grid(sticky=W,row=4,column=columnbase+1)

        label = Label(self,text="Value to write:")
        label.grid(sticky=W,row=5,column=columnbase+0)

        # Adding register value to write entry box
        self.writereg_value_entry = Entry(self,width=15)
        self.writereg_value_entry.grid(sticky=W,row=5,column=columnbase+1)

        #Adding the write register button
        writereg_button = Button(self, text="Write Register", command=self.call_writeRegister)
        writereg_button.grid(row=6,column=columnbase,columnspan=2)

        # Adding write register result label
        self.writereg_result = Label(self, text="")
        self.writereg_result.grid(sticky=W,row=7,column=columnbase,columnspan=2)

        #Adding the reset plot button
        reset_plot_button = Button(self, text="Show/Reset Plots", command=self.call_reset_plot)   
        reset_plot_button.grid(row=8,column=columnbase,columnspan=2)


    def define_config_commands_column(self):
        columnbase=10

        label = Label(self, text="Configuration Commands")
        label.grid(row=0,column=columnbase,columnspan=2)

        #Adding the reset button
        reset_button = Button(self, text="Reset", command=self.call_reset)
        reset_button.grid(row=1,column=columnbase,columnspan=2)

        #Adding the initialization button
        init_button = Button(self, text="Initialize", command=self.call_initialize)
        init_button.grid(row=2,column=columnbase,columnspan=2)

        # Adding femb number to select
        label = Label(self,text="FEMB:")
        label.grid(sticky=W,row=3,column=columnbase+0)
        self.femb_number_entry = Spinbox(self,from_=0,to=15,insertwidth=3,width=4)
        self.femb_number_entry.grid(sticky=W,row=3,column=columnbase+1)

        # Adding asic number to select
        label = Label(self,text="ASIC:")
        label.grid(sticky=W,row=4,column=columnbase+0)
        self.asic_number_entry = Spinbox(self,from_=0,to=7,insertwidth=1,width=4)
        self.asic_number_entry.grid(sticky=W,row=4,column=columnbase+1)

        # Adding channel number to select
        label = Label(self,text="Channel:")
        label.grid(sticky=W,row=5,column=columnbase+0)
        self.channel_number_entry = Spinbox(self,values=CHAN_OPTIONS,insertwidth=3,width=4)
        self.channel_number_entry.grid(sticky=W,row=5,column=columnbase+1)
        #self.channel_number_entry = Menu(self,insertwidth=3,width=4)
        #self.channel_number_entry.add_command(label="1")
        #self.channel_number_entry.grid(sticky=W,row=5,column=columnbase+1)

        #Adding the select channel button
        selectChannel_button = Button(self, text="Select Channel", command=self.call_selectChannel)
        selectChannel_button.grid(row=6,column=columnbase,columnspan=2)

        self.selectChannel_result = Label(self, text="")
        self.selectChannel_result.grid(sticky=W,row=7,column=columnbase)

    def define_feasic_config_commands_column(self):
        columnbase=20

        label = Label(self, text="FE ASIC Configuration Commands")
        label.grid(row=0,column=columnbase,columnspan=2)

        # FE ASIC config entry
        label = Label(self, text="Gain")
        label.grid(sticky=W,row=1,column=columnbase)
        self.feasic_config_gain_entry = Spinbox(self,values=GAINVALS,state="readonly")
        self.feasic_config_gain_entry.grid(sticky=W,row=1,column=columnbase+1)
        label = Label(self, text="Shape")
        label.grid(sticky=W,row=2,column=columnbase)
        self.feasic_config_shape_entry = Spinbox(self,values=SHAPEVALS,state="readonly")
        self.feasic_config_shape_entry.grid(sticky=W,row=2,column=columnbase+1)
        label = Label(self, text="Baseline")
        label.grid(sticky=W,row=3,column=columnbase)
        self.feasic_config_base_entry = Spinbox(self,values=BASEVALS,state="readonly")
        self.feasic_config_base_entry.grid(sticky=W,row=3,column=columnbase+1)
        
        #Adding the configure all FE-ASIC channels button
        feasic_config_button = Button(self, text="Config FE-ASIC", command=self.call_feasic_config)
        feasic_config_button.grid(row=4,column=columnbase,columnspan=2)

    def define_adcasic_config_commands_column(self):
        columnbase=30

        label = Label(self, text="ADC ASIC Configuration Commands")
        label.grid(row=0,column=columnbase)

    def call_readRegister(self):
        regnum = self.readreg_number_entry.get()
        try:
          regnum = int(regnum)
          if regnum < 0:
            raise ValueError("regnum must be >= 0")
        except ValueError:
          self.readreg_result["text"] = "Error: Register must be a number >= 0"
          return
        message = ""
        regVal = self.femb_config.femb.read_reg(regnum)
        if regVal != None:
                message = "0x{:08x}".format(regVal)
        else:
                message = "Error: regVal = None"
        self.readreg_result["text"] = message

    def call_writeRegister(self):
        regnum = self.writereg_number_entry.get()
        try:
          regnum = int(regnum)
          if regnum < 0:
            raise ValueError("regnum must be >= 0")
        except ValueError:
          self.writereg_result["text"] = "Error: Register must be a number >= 0"
          return
        regval = self.writereg_value_entry.get()
        message = "value must be int literal e.g. 123, 0xF3, 0b0101"
        if regval[:2] == "0x":
          try:
            regval = int(regval,16)
          except ValueError:
            self.writereg_result["text"] = message
            return
        elif regval[:2] == "0b":
          try:
            regval = int(regval,2)
          except ValueError:
            self.writereg_result["text"] = message
            return
        else:
          try:
            regval = int(regval)
          except ValueError:
            self.writereg_result["text"] = message
            return
        if (regval < 0) or (regval > 0xFFFFFFFF):
            message = 'Value must be > 0 and < 0xFFFFFFFF'
            self.writereg_result["text"] = message
            return
        self.femb_config.femb.write_reg(regnum,regval)
        self.writereg_result["text"] = ""

    def call_reset(self):
        self.femb_config.resetBoard()

    def call_initialize(self):
        self.femb_config.initBoard()

    def call_selectChannel(self):
        femb = None
        asic = None
        chan = None
        try:
          femb = int(self.femb_number_entry.get())
        except ValueError:
          self.selectChannel_result["text"] = "Error femb must be an int"
          return
        try:
          asic = int(self.asic_number_entry.get())
        except ValueError:
          self.selectChannel_result["text"] = "Error asic must be an int"
          return
        try:
          if self.channel_number_entry.get() != "ALL":
              chan = int(self.channel_number_entry.get())
          else: chan = self.channel_number_entry.get()
        except ValueError:
          self.selectChannel_result["text"] = "Error channel must be an int or ALL"
          return
        message = ""
        if femb < 0 or femb >=4 :
          self.selectChannel_result["text"] = "Error femb only from 0 to 3"
          return
        if asic < 0 or asic >= 7:
          self.selectChannel_result["text"] = "Error asic only from 0 to 7"
          return
        if chan != "ALL":
          if chan < 0 or chan >= 16:
            self.selectChannel_result["text"] = "Error channel only from 0 to 15 or ALL"
            return
        self.femb_config.selectFemb(femb)
        self.femb_config.selectChannel(asic,chan)
        self.selectChannel_result["text"] = ""

        #WIB specific
        if isinstance( chan, int ): self.trace_fft_window.selChan = chan
        self.call_reset_plot()

    def call_feasic_config(self):
        gain = GAINVALS.index(self.feasic_config_gain_entry.get())
        shape = SHAPEVALS.index(self.feasic_config_shape_entry.get())
        base = BASEVALS.index(self.feasic_config_base_entry.get())
        self.femb_config.configFeAsic(gain,shape,base)

    def call_set_pulser(self):
        enabled = self.pulser_enable_var.get()
        if not(enabled == 0 or enabled == 1):
           raise ValueError("Pulser enabled must be 0 or 1")
        pulseHeight = None
        try:
          pulseHeight = int(self.pulser_height_entry.get())
        except ValueError:
          self.pulser_result["text"] = "Error pulseHeight must be an int"
          return
        if pulseHeight < 0 or pulseHeight >= 32:
          self.pulser_result["text"] = "Error pulseHeight must be 0 to 31"
          return
        self.pulser_result["text"] = ""
        self.femb_config.setInternalPulser(enabled,pulseHeight)

    def call_adcasic_config(self):
        print("call_adcasic_config")
        enabled = self.adc_offset_enable_var.get()
        if not(enabled == 0 or enabled == 1):
           raise ValueError("Pulser enabled must be 0 or 1")
        offsetCurrent = None
        try:
          offsetCurrent = int(self.adc_offset_current_entry.get())
        except ValueError:
          self.adc_result["text"] = "Error offsetCurrent must be an int"
          return
        if offsetCurrent < 0 or offsetCurrent >= 16:
          self.adc_result["text"] = "Error offsetCurrent must be 0 to 15"
          return
        self.adc_result["text"] = ""

        f2default = 0
        clkdefault = "fifo"
        if hasattr(self.femb_config,"F2DEFAULT"):
            f2default = self.femb_config.F2DEFAULT
        if hasattr(self.femb_config,"CLKDEFAULT"):
            clkdefault = self.femb_config.CLKDEFAULT

        clockMonostable = False
        clockExternal = False
        clockFromFIFO = False
        if clkdefault=="fifo":
          clockFromFIFO = True
        elif clkdefault=="monostable":
          clockMonostable = True
        elif clkdefault=="external":
          clockExternal = True
        else:
          print("Error: CLKDEFAULT='{}' not one of the allowed options. Try fife, monostable, or external..".format(clkdefault))

        self.femb_config.configAdcAsic(enableOffsetCurrent=enabled,offsetCurrent=offsetCurrent,f2=f2default,clockMonostable=clockMonostable,clockExternal=clockExternal,clockFromFIFO=clockFromFIFO,pdsr=1,pcsr=1)
        #nRetries = 5
        #for iRetry in range(nRetries):
        #    self.femb_config.configAdcAsic(enableOffsetCurrent=enabled,offsetCurrent=offsetCurrent,f2=f2default,clockMonostable=clockMonostable,clockExternal=clockExternal,clockFromFIFO=clockFromFIFO)
        #    # Check that board streams data
        #    data = self.femb.get_data(1)
        #    if data == None:
        #        print("Board not streaming data, retrying initialization...")
        #        continue # try initializing again
        #    self.adc_result["text"] = ""
        #    return
        #self.adc_result["text"] = "Board not streaming data after {} tries".format(nRetries)

    def call_sync_adc(self):
        print("call_sync_adc")
        message = "Sync Error"
        isAlreadySynced, latchloc1, latchloc2, phase = self.femb_config.syncADC()
        if isAlreadySynced: 
           message = "Already Sync'd"
        else:

      	   message = "Sync'd: latch latency " + str(hex(latchloc1)) + str(hex(latchloc2)) + "\tPhase " + str(hex(phase))
        self.adc_sync_result["text"] = message

    def call_quit(self):
        print("call_adcasic_config")

    def call_reset_plot(self):
        selChan = self.channel_number_entry.get()
        if self.trace_fft_window:
            self.trace_fft_window.destroy()
        if selChan == "ALL":
            self.trace_fft_window = Toplevel(self)
            self.trace_fft_window.title("Trace FFT Window")
            self.trace_fft = TRACE_FFT_ALLCHAN_WINDOW(self.trace_fft_window)
        else:
            self.trace_fft_window = Toplevel(self)
            self.trace_fft_window.title("Trace FFT Window")
            self.trace_fft = TRACE_FFT_WINDOW(self.trace_fft_window)
Beispiel #28
0
class GUI_WINDOW(Frame):

    #GUI window defined entirely in init function
    def __init__(self, master=None, forceQuick=False, forceLong=False):
        Frame.__init__(self, master)
        self.pack()

        self.config = CONFIG()

        self.result_labels = []
        self.display_procs = []
        #Define general commands column
        self.define_test_details_column()
        self.reset()

        self.master.protocol("WM_DELETE_WINDOW", self.exit)

    def define_test_details_column(self):
        columnbase = 0
        """
        # Adding operator name label and read entry box
        self.operator_label = Label(self,text="Operator Name:",width=25)
        self.operator_label.grid(sticky=W,row=1,column=columnbase+0)

        self.operator_entry = Entry(self,width=25)
        self.operator_entry.grid(sticky=W,row=1,column=columnbase+1)

        # Adding electronics ID and read entry box
        self.boxid_label = Label(self,text="Electronics ID:",width=25)
        self.boxid_label.grid(sticky=W,row=3,column=columnbase+0)

        self.boxid_entry = Entry(self,width=25)
        self.boxid_entry.grid(sticky=W,row=3,column=columnbase+1)
        """
        # Adding electronics ID and read entry box
        self.sync_button = Button(self,
                                  text="Sync ADC",
                                  command=self.adc_sync,
                                  width=25)
        self.sync_button.grid(row=22, column=columnbase, columnspan=2, pady=30)

        #
        self.reset_button = Button(self,
                                   text="Reset",
                                   command=self.reset,
                                   width=25,
                                   bg="#FF8000")
        self.reset_button.grid(row=24, column=columnbase, columnspan=2)

        self.runid_label = Label(self, text="")
        self.runid_label.grid(row=25, column=columnbase, columnspan=2, pady=20)

        self.status_label = Label(self,
                                  text="NOT STARTED",
                                  bd=1,
                                  relief=SUNKEN,
                                  width=50)
        self.status_label.grid(row=100, column=columnbase, columnspan=2)
        self.bkg_color = self.status_label.cget("background")

    """
    def get_options(self,getCurrent=False):
        operator = self.operator_entry.get()
        boxid = self.boxid_entry.get()

        variables = [operator,boxid]
        for var in variables:
            if var == "" :
                return
        print("Operator Name: '{}'".format(operator))
        print("CE Box ID: '{}'".format(boxid))

        inputOptions = {
            "operator": operator,
            "box_id": boxid,
        }
        print(inputOptions)
        return inputOptions
    """

    def reset(self):
        for i in reversed(range(len(self.display_procs))):
            tmp = self.display_procs.pop(i)
            tmp.terminate()
            try:
                tmp.wait(2)
            except subprocess.TimeoutExpired:
                tmp.kill()
            del tmp
        for i in reversed(range(len(self.result_labels))):
            tmp = self.result_labels.pop(i)
            tmp.destroy()
        self.status_label["text"] = "NOT STARTED"
        self.status_label["fg"] = "#000000"
        self.status_label["bg"] = self.bkg_color
        self.runid_label["text"] = ""
        self.sync_button["state"] = "normal"
        #self.operator_label["state"] = "normal"
        #self.operator_entry["state"] = "normal"
        #self.boxid_label["state"] = "normal"
        #self.boxid_entry["state"] = "normal"

        #self.boxid_entry.delete(0,END)

        self.reset_button["bg"] = "#FF9900"
        self.reset_button["activebackground"] = "#FFCF87"

    def adc_sync(self):
        #operator_name = self.operator_entry.get()
        #test_stand = self.test_stand_entry.get()
        #boardid = self.boardid_entry.get()
        #traveller = self.traveller_entry.get()
        #print("Operator Name: " + str( operator_name ) )
        #print("Test Stand # : " + str( test_stand ) )
        #print("Board/Chip ID: " + str( boardid ) )
        #print("Traveller #  : " + str( traveller ) )

        self.config.femb.init_ports(hostIP=settings.PC_IP,
                                    destIP=settings.FPGA_IP)
        self.config.resetFEMBBoard()
        self.config.initBoard()
        self.config.syncADC()
        self.config.initFunctionGenerator()
        """
        if self.femb_test.status_check_setup == 0:
            self.check_setup_result["text"] = "TERRIBLE FAILURE"
        else:
            self.check_setup_result["text"] = "SUCCESS"
        """

    """
    def start_measurements(self):
        params = self.get_options()
        if params is None:
            print("ENTER REQUIRED INFO")
            return

        print("BEGIN TESTS")
        self.status_label["text"] = "TESTS IN PROGRESS..."
        self.status_label["fg"] = "#000000"
        self.update_idletasks()
        run_main(self.config,**params)
        self.done_measuring(params)
    """

    def done_measuring(self, params):
        print("TESTS COMPLETE")
        self.status_label["text"] = "Tests done"
        self.reset_button["bg"] = "#00CC00"
        self.reset_button["activebackground"] = "#A3CCA3"
        titles_made = False
        testNames = None
        columnbase = 0
        rowbase = 50

    def exit(self, *args, **kargs):
        for i in reversed(range(len(self.display_procs))):
            tmp = self.display_procs.pop(i)
            tmp.terminate()
            try:
                tmp.wait(4)
            except subprocess.TimeoutExpired:
                tmp.kill()
            del tmp
        self.destroy()
        self.master.destroy()
Beispiel #29
0
class MONITOR_TESTER(object):
    def __init__(self, datadir="data", outlabel="monitorTest"):
        self.outpathlabel = os.path.join(datadir, outlabel)

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        #import data analysis and plotting objects
        self.plotting = plot_functions()
        self.analyze2 = Data_Analysis2()

        #set appropriate packet size
        self.write_data.femb.MAX_PACKET_SIZE = 8000

        self.cppfr = CPP_FILE_RUNNER()

        #json output, note module version number defined here
        self.jsondict = {'type': 'monitor_test'}
        self.jsondict['version'] = '1.0'
        self.jsondict['timestamp'] = str(self.write_data.date)

    def get_data(self):
        for num, i in enumerate(self.chip_list):
            if self.config_list[i[0]]:
                folder_path = os.path.join(self.datadir, i[1])
                self.save_monitor_data(folder_path,
                                       chip_index=i[0],
                                       chip_name=i[1])

    def save_monitor_data(self, folder_path, chip_index, chip_name):
        sys.stdout.flush()

        test_directory = os.path.join(folder_path, self.datasubdir)
        os.makedirs(test_directory)

        data_directory = os.path.join(test_directory, "Data")
        os.makedirs(data_directory)

        #Select the monitor readout
        self.femb_config.femb.write_reg(9, 3)

        #Get the ASIC to send out pulses.  Bit 6 needs to be high for ASIC DAC
        reg17_value = (self.femb_config.monitor_freq << 16) + (
            self.femb_config.monitor_delay << 8) + (0b01000000)
        self.femb_config.femb.write_reg(17, reg17_value)

        #Make sure the input to the DAC is not on
        self.femb_config.femb.write_reg(7, 0)

        #Read from test output ADCs
        self.femb_config.femb.write_reg(60, 1)

        for chn in range(self.femb_config.channels):
            #            This was from the old code, not sure why the choice of hardcoded values
            #            self.femb_config.set_fe_board(sts=a["test_int"][0], snc=a["200mV"], sg=a["14mV"], st=a["2us"],
            #					smn=0, sbf=a["b_on"], slk = a["500pA"][1], stb = 0, s16=0, slkh=a["500pA"][0], sdc=0,
            #					sdacsw2=1, sdacsw1=0, sdac=settings.monitor_amplitude)

            self.femb_config.fe_reg.set_fe_board(
                sts=0,
                snc=0,
                sg=2,
                st=2,
                smn=0,
                sbf=1,
                slk=0,
                stb=0,
                s16=0,
                slkh=0,
                sdc=0,
                sdacsw2=1,
                sdacsw1=0,
                sdac=self.femb_config.monitor_amplitude,
                remapping=True
            )  #remapping is to make gain/shaping times/base settings (0-3) consecutive in output and GUI

            self.femb_config.fe_reg.set_fe_chn(chip=chip_index,
                                               chn=chn,
                                               sts=1,
                                               snc=-1,
                                               sg=-1,
                                               st=-1,
                                               smn=1,
                                               sbf=-1)
            self.config_list = self.femb_config.configFeAsic(to_print=False)

            self.femb_config.select_chip_chn(chip=chip_index, chn=chn)
            filename = self.femb_config.Monitor_Naming.format(chn)
            rawdata = bytearray()
            full_filename = os.path.join(data_directory, filename)

            #            rawdata += self.femb_config.femb.get_data_packets(data_type = "bin", num = 1, header = True)
            rawdata += self.femb_config.femb.get_data_packets(data_type="bin",
                                                              num=1,
                                                              header=False)[2:]
            for pack in range(self.femb_config.monitor_length):
                rawdata += self.femb_config.femb.get_data_packets(
                    data_type="bin", num=1, header=False)[2:]
                with open(full_filename, "wb") as f:
                    f.write(rawdata)
                    f.close()

        self.femb_config.femb.write_reg(17, 0)

        print("Test--> Monitor check data collected for Chip {}".format(
            chip_name))

    def analyze_data(self):
        for num, i in enumerate(self.chip_list):
            if self.config_list[i[0]]:
                folder_path = os.path.join(self.datadir, i[1])
                self.result, self.peaks, self.differences, self.average_peak = self.analyze2.monitor_directory(
                    folder_path, i[1], self.datasubdir, self.datadir,
                    self.gain, self.shape, self.leak, self.buff, self.base)
                self.archive_results(i[1], i[0])
                if (self.result == True):
                    print("Chip {} (Socket {}) PASSED!".format(i[1], i[0]))
                if (self.result == False):
                    print("Chip {} (Socket {}) FAILED!".format(i[1], i[0]))

    def archive_results(self, chip_name, chip_index):
        print("MONITOR DATA RESULTS - ARCHIVE")

        #add summary variables to output
        #add summary variables to output
        self.jsondict['filedir'] = str(self.write_data.filedir)
        self.jsondict['config_gain'] = str(
            self.femb_config.gainArray[self.gain])
        self.jsondict['config_shape'] = str(
            self.femb_config.shapeArray[self.shape])
        self.jsondict['config_base'] = str(
            self.femb_config.baseArray[self.base])
        self.jsondict['config_buff'] = str(
            self.femb_config.buffArray[self.buff])
        self.jsondict['average_peak'] = str(self.average_peak)
        self.jsondict['chip_name'] = str(chip_name)
        self.jsondict['chip_index'] = str(chip_index)
        self.jsondict['config_list'] = self.config_list
        if self.result:
            self.jsondict['result'] = "Pass"
        else:
            self.jsondict['result'] = "Fail"

        self.jsondict['average_peak'] = self.average_peak

        results = []
        for i, ch_peak in enumerate(self.peaks):
            measurement = {}
            measurement["ch"] = str(ch_peak[0])
            measurement["peak"] = str(ch_peak[1])
            measurement["difference"] = str(self.differences[i])
            results.append(measurement)
        self.jsondict['results'] = results
        #dump results
        jsonFile = os.path.join(self.datadir, chip_name, self.datasubdir,
                                "results.json")
        with open(jsonFile, 'w') as outfile:
            json.dump(self.jsondict, outfile, indent=4)
Beispiel #30
0
class FEMB_TEST_SIMPLE(object):
    def __init__(self,
                 datadir="data",
                 outlabel="simpleMeasurement",
                 wib=0,
                 fembNum=0):
        #set internal variables
        self.datadir = datadir
        self.outlabel = outlabel + str("_femb_") + str(fembNum + 4 * wib)
        self.outpathlabel = os.path.join(self.datadir, self.outlabel)
        self.fembNum = int(fembNum)

        print("Test type\t" + str(self.outlabel))
        print("Data path\t" + str(datadir))
        print("FEMB #\t" + str(self.fembNum))

        #import femb_udp modules from femb_udp package
        self.femb_config = CONFIG()
        self.write_data = WRITE_DATA(datadir)
        #set appropriate packet size
        self.write_data.femb.MAX_PACKET_SIZE = 9014
        self.cppfr = CPP_FILE_RUNNER()

        #set status variables
        self.status_check_setup = 0
        self.status_record_data = 0
        self.status_do_analysis = 0
        self.status_archive_results = 0

        #json output, note module version number defined here
        self.jsondict = {'type': 'fembTest_simple'}
        self.jsondict['version'] = '1.0'
        self.jsondict['timestamp'] = str(self.write_data.date)

    def check_setup(self):
        #CHECK STATUS AND INITIALIZATION
        print("SIMPLE MEASUREMENT - CHECKING READOUT STATUS")
        self.status_check_setup = 0

        #make sure output directory exists
        self.write_data.assure_filedir()

        #check if register interface is working
        print("Checking register interface")
        regVal = self.femb_config.femb.read_reg(6)
        if (regVal == None):
            print(
                "Error running test - FEMB register interface is not working.")
            print(" Turn on or debug FEMB UDP readout.")
            return
        if (regVal < 0):
            print(
                "Error running test - FEMB register interface is not working.")
            print(" Turn on or debug FEMB UDP readout.")
            return
        print("Read register 6, value = " + str(hex(regVal)))

        #check that femb number is valid
        if (int(self.fembNum) < 0) or (int(self.fembNum) >=
                                       self.femb_config.NFEMBS):
            print("Error running doFembTest - Invalid FEMB # specified.")
            return

        #DO NOT CONFIGURE, except to enable streaming
        self.femb_config.wib_reg_enable()

        self.femb_config.femb.write_reg(20, 3)
        self.femb_config.femb.write_reg(20, 3)
        time.sleep(0.001)
        self.femb_config.femb.write_reg(20, 0)
        self.femb_config.femb.write_reg(20, 0)
        time.sleep(0.001)

        # start streaming data from ASIC 0 in initialization
        self.femb_config.femb.write_reg(7, 0x80000000)
        self.femb_config.femb.write_reg(7, 0x80000000)
        femb_asic = 0 & 0x0F
        wib_asic = (((self.fembNum << 16) & 0x000F0000) +
                    ((femb_asic << 8) & 0xFF00))
        self.femb_config.femb.write_reg(7, wib_asic | 0x80000000)
        self.femb_config.femb.write_reg(7, wib_asic | 0x80000000)
        self.femb_config.femb.write_reg(7, wib_asic)
        self.femb_config.femb.write_reg(7, wib_asic)

        self.femb_config.selectFemb(self.fembNum)

        #Enable Streaming
        self.femb_config.femb.write_reg(9, 9)
        self.femb_config.femb.write_reg(9, 9)
        time.sleep(0.1)

        #test firmware versions
        if self.femb_config.checkFirmwareVersion() == False:
            print(
                'Error running doFembTest - Invalid firmware and/or register read error'
            )
            return

        if self.femb_config.syncStatus != 0:
            print('Error running doFembTest - ADC SYNC failed')
            return

        if self.femb_config.spiStatus != 0:
            print('Error running doFembTest - ADC SPI failed')
            return

        #check if data streaming is working
        print("Checking data streaming")
        testData = self.write_data.femb.get_data_packets(1)
        if testData == None:
            print("Error running doFembTest - FEMB is not streaming data.")
            print(" Turn on and initialize FEMB UDP readout.")
            return
        if len(testData) == 0:
            print("Error running doFembTest - FEMB is not streaming data.")
            print(" Turn on and initialize FEMB UDP readout.")
            return

        print("Received data packet " + str(len(testData[0])) + " bytes long")

        #check for analysis executables
        if not self.cppfr.exists(
                'test_measurements/fembTest/code/parseBinaryFile'):
            print('parseBinaryFile not found, run setup.sh')
            return

        print("SIMPLE MEASUREMENT - READOUT STATUS OK" + "\n")
        self.status_check_setup = 1

    def record_data(self):
        if self.status_check_setup == 0:
            print("Please run check_setup method before trying to take data")
            return
        if self.status_record_data == 1:
            print(
                "Data already recorded. Reset/restat GUI to begin a new measurement"
            )
            return

        #MEASUREMENT SECTION
        print("SIMPLE MEASUREMENT - RECORDING DATA")

        #wait to make sure HS link is back on after check_setup
        sleep(5)

        self.femb_config.printParameters()

        #setup output file and record data
        self.write_data.filename = self.outlabel + ".bin"
        print("Recording " + self.write_data.filename)

        isOpen = self.write_data.open_file()
        if isOpen == 0:
            print(
                "Error running doFembTest - Could not open output data file for writing, ending test"
            )
        subrun = 0

        #record data
        self.write_data.numpacketsrecord = 100
        self.write_data.run = 0
        self.write_data.runtype = 0
        self.write_data.runversion = 0

        asicCh = 0
        for asic in range(0, 8, 1):
            self.femb_config.selectChannel(asic, asicCh)
            self.write_data.record_data(subrun, asic, asicCh)
        self.write_data.close_file()

        print("SIMPLE MEASUREMENT - DONE RECORDING DATA" + "\n")
        self.status_record_data = 1

    def do_analysis(self):
        if self.status_record_data == 0:
            print("Please record data before analysis")
            return
        if self.status_do_analysis == 1:
            print("Analysis already complete")
            return
        #ANALYSIS SECTION

        print("SIMPLE MEASUREMENT - ANALYZING AND SUMMARIZING DATA")

        #parse binary
        self.cppfr.run("test_measurements/fembTest/code/parseBinaryFile",
                       [self.write_data.data_file_path])

        #run analysis program
        parseBinaryFile = self.outpathlabel + "-parseBinaryFile.root"
        call(["mv", "output_parseBinaryFile.root", parseBinaryFile])
        self.cppfr.run(
            "test_measurements/fembTest/code/processNtuple_simpleMeasurement",
            [parseBinaryFile])

        processNtupleFile = self.outpathlabel + "-processNtupleFile.root"
        call([
            "mv", "output_processNtuple_simpleMeasurement.root",
            processNtupleFile
        ])

        summaryPlot = self.outpathlabel + "-summaryPlot.png"
        call(["mv", "summaryPlot_simpleMeasurement.png", summaryPlot])

        print("SIMPLE MEASUREMENT - DONE ANALYZING AND SUMMARIZING DATA" +
              "\n")
        self.status_do_analysis = 1

    def archive_results(self):
        #if self.status_check_setup == 0 :
        #     print("Check setup status is 0, not archiving data")
        #     return
        #if self.status_do_analysis == 0:
        #    print("Please analyze data before archiving results")
        #    return
        if self.status_archive_results == 1:
            print("Results already archived")
            return
        #ARCHIVE SECTION
        print("SIMPLE MEASUREMENT - ARCHIVE")

        #add summary variables to output
        self.jsondict['femb'] = self.fembNum
        self.jsondict['filedir'] = str(self.write_data.filedir)
        self.jsondict['status_check_setup'] = str(self.status_check_setup)
        self.jsondict['status_record_data'] = str(self.status_record_data)
        self.jsondict['status_do_analysis'] = str(self.status_do_analysis)
        self.jsondict['status_archive_results'] = str(1)
        self.jsondict['syncStatus'] = str(self.femb_config.syncStatus)

        #dump results into json
        jsonFile = self.outpathlabel + "-results.json"
        with open(jsonFile, 'w') as outfile:
            json.dump(self.jsondict, outfile, indent=4)

        print("SIMPLE MEASUREMENT - DONE ARCHIVING" + "\n")
        self.status_archive_results = 1