#!python from pycpsw import * import numpy as np import time from math import * import matplotlib.pyplot as plt import Tkinter from Tkinter import * import tkFont p = Path.loadYamlFile( '/afs/slac/u/el/jjo/images/AmcCarrierMrEthV2_project.yaml/000TopLevel.yaml', 'NetIODev' ) p_mmio = p.findByName('mmio') # Thresholds KlyWiperRegA = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/KlyWiperRegA') ) KlyWiperRegB = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/KlyWiperRegB') ) KlyNVRegA = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/KlyNVRegA') ) KlyNVRegB = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/KlyNVRegB') ) ModWiperRegA = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/ModWiperRegA') ) ModWiperRegB = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/ModWiperRegB') ) ModNVRegA = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/ModNVRegA') ) ModNVRegB = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/ModNVRegB') ) AdcFrameDelay = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/AdcFrameSetDelay') ) AdcSetDelay = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/AdcSetDelay') ) AdcIDelayLoad = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/AdcIDelayLoad') ) DataTrigDelay = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/TrigRtmData/PulseDelay') ) DataTrigMask = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/TrigRtmData/OpCodeMask[0-7]') ) AccelTrigDelay = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/TrigRtmAccel/PulseDelay') ) AccelTrigWidth = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/TrigRtmAccel/PulseWidth') ) AccelTrigMask = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/TrigRtmAccel/OpCodeMask[0-7]') ) StandbyTrigDelay = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/TrigRtmStandby/PulseDelay') ) StandbyTrigWidth = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/TrigRtmStandby/PulseWidth') ) StandbyTrigMask = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/TrigRtmStandby/OpCodeMask[0-7]') ) SoftBufferClear = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SoftBufferClear') ) SoftBufferTrigger = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SoftBufferTrigger') ) BeamVIData = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/RtmAdcBuffer[0]/MemoryArray[0-511]') ) BeamPwrData = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/RtmAdcBuffer[1]/MemoryArray[0-511]') ) Mode = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/Mode') ) FaultClear = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/FaultClear') ) FaultStatusBit = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/FaultOut') ) ClkConfig = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierCore/AxiSy56040/OutputConfig[0-3]') ) ClkSel = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierCore/AmcCarrierTiming/TimingFrameRx/ClkSel') ) TimingPolarity =ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierCore/AmcCarrierTiming/TimingFrameRx/RxPolarity') ) # CPLD Status = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/Status') ) # CfgRegister = ScalVal.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/CfgRegister') ) AdcIn0 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/AdcIn[0]') ) AdcIn1 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/AdcIn[1]') ) AdcIn2 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/AdcIn[2]') ) AdcIn3 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/AdcIn[3]') ) FirmwareVersion = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/FirmwareVersion') ) SystemId0 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SystemId[0]') ) SystemId1 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SystemId[1]') ) SystemId2 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SystemId[2]') ) SystemId3 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SystemId[3]') ) FirmwareDate0 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/FirmwareDate[0]') ) FirmwareDate1 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/FirmwareDate[1]') ) FirmwareDate2 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/FirmwareDate[2]') ) FirmwareDate3 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/FirmwareDate[3]') ) SubType0 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SubType[0]') ) SubType1 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SubType[1]') ) SubType2 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SubType[2]') ) SubType3 = ScalVal_RO.create( p_mmio.findByName('AmcCarrierMrEthV2/AmcCarrierMrLlrfApp/RtmLlrfCore/SubType[3]') ) StatusBits1 = ['Normal Mode', 'Motor Time out', 'Detuning', 'Tuning', 'Lower Tuned', 'Upper Tuned', 'Motor Not Tuned', 'Lower Detuned', 'Upper Detuned', 'Motor Not Detuned', 'Modulator Fault', 'Beam Under Current', 'Beam Over Current', 'Beam Over Voltage', 'Forward Power Over', 'Reflected Power Over'] StatusBits0 = ['Standby Mode', 'Motor Not Timed out', 'Not Detuning', 'Not Tuning', 'Lower Not Tuned', 'Upper Not Tuned', 'Motor Tuned', 'Lower Not Detuned', 'Upper not Detuned', 'Motor Detuned', 'Modulator Ok', 'Beam Under Current OK', 'Beam Over Current Ok', 'Beam Over Voltage Ok', 'Forward Power Over Ok', 'Reflected Power Over Ok'] TimingClk = 119 def PotVolts2Counts(Threshold): RTop = 1 RChip = 10 RBottom = 1 VSource = 3.3 I = VSource/(RTop + RChip + RBottom) Counts = int((Threshold-I*RBottom)*255/I/RChip) return Counts def ADCCounts2Volts(Counts): Volts = float(Counts)*2.5/65535 return Volts def DecodeStatus(Stat): for i in range(15,-1,-1): # print(i) if ((int(Stat) & int(pow(2,i))) > 0): print StatusBits1[(15-i)] else: print StatusBits0[(15-i)] return def StatClear(): FaultClear.setVal([1]) FaultClear.setVal([0]) def SLEDStatus(Stat): SLEDBITs = (Stat >> 6) & 0x3F if (SLEDBITs == 0x31): print("SLED Tuned") elif (SLEDBITs == 0x0E): print ('SLED Detuned') else: print ('SLED Fault') return def PulseWidth(Time): Counts = int(Time*119) return Counts def FastADCCounts2Volts(Counts): Volts = (float(Counts) - 2048)/2048 return Volts def us2Counts(val): Counts = int(val*TimingClk) return Counts def Counts2us(val): t = float(val/TimingClk) return t def ADCDataDelay(Taps): AdcSetDelay.setVal([(Taps)]) AdcIDelayLoad.setVal([1]) AdCIDelayLoad.setVal([0]) #KlyWiperRegAB.setVal( [0x55] ) #print("AB=0x%x" % (KlyWiperRegAB.getVal())) #Mode.setVal( [0x1] ) #print("Mode=0x%x" % (Mode.getVal())) print("FIrmware=0x%x" % (FirmwareVersion.getVal())) #Mode.setVal( [0x1] ) #Mode.setVal( [0x0] ) #Registers print("SystemId0=0x%4x" % (SystemId0.getVal())) print("SystemId1=0x%4x" % (SystemId1.getVal())) print("SystemId2=0x%4x" % (SystemId2.getVal())) print("SystemId3=0x%4x" % (SystemId3.getVal())) print("Status=0x%4x" % (Status.getVal())) DateString ='' DateString = chr((FirmwareDate0.getVal()) >> 8) DateString = DateString + chr((FirmwareDate0.getVal()) & 255) DateString = DateString + chr((FirmwareDate1.getVal()) >> 8) DateString = DateString + chr((FirmwareDate1.getVal()) & 255) DateString = DateString + chr((FirmwareDate2.getVal()) >> 8) DateString = DateString + chr((FirmwareDate2.getVal()) & 255) DateString = DateString + chr((FirmwareDate3.getVal()) >> 8) DateString = DateString + chr((FirmwareDate3.getVal()) & 255) IdString ='' IdString = chr((SystemId0.getVal()) >> 8) IdString = IdString + chr((SystemId0.getVal()) & 255) IdString = IdString + chr((SystemId1.getVal()) >> 8) IdString = IdString + chr((SystemId1.getVal()) & 255) IdString = IdString + chr((SystemId2.getVal()) >> 8) IdString = IdString + chr((SystemId2.getVal()) & 255) IdString = IdString + chr((SystemId3.getVal()) >> 8) IdString = IdString + chr((SystemId3.getVal()) & 255) SubTypeString ='' SubTypeString = chr((SubType0.getVal()) >> 8) SubTypeString = SubTypeString + chr((SubType0.getVal()) & 255) SubTypeString = SubTypeString + chr((SubType1.getVal()) >> 8) SubTypeString = SubTypeString + chr((SubType1.getVal()) & 255) SubTypeString = SubTypeString + chr((SubType2.getVal()) >> 8) SubTypeString = SubTypeString + chr((SubType2.getVal()) & 255) SubTypeString = SubTypeString + chr((SubType3.getVal()) >> 8) SubTypeString = SubTypeString + chr((SubType3.getVal()) & 255) print print ("FirmwareVersion = 0x%4x" % (FirmwareVersion.getVal())) print (" Compile Date = " + DateString) print (" ID String = " + IdString) print (" Sub Type = " + SubTypeString) print ("Timing Setup") ClockConfig = [0,0,0,0] ClkConfig.setVal(ClockConfig) ClockConfig = ClkConfig.getVal() print ClockConfig TimingPolarity.setVal([1]) print "Clock Select" ClkSel.setVal([0]) print ClkSel.getVal() DataTrigMask.setVal([0x00000000, 0x00000100, 0x00000000, 0x00000000, 0x00000000, 0x00000000, 0x00000000, 0x00000000]) DataTrigDelay.setVal([50]) AccelTrigWidth.setVal([PulseWidth(5)]) AccelTrigDelay.setVal([0]) AccelTrigMask.setVal([0x00000000, 0x00000100, 0x00000000, 0x00000000, 0x00000000, 0x00000000, 0x00000000, 0x00000000]) StandbyTrigWidth.setVal([PulseWidth(5)]) StandbyTrigDelay.setVal([2000]) StandbyTrigMask.setVal([0x00000000, 0x00000100, 0x00000000, 0x00000000, 0x00000000, 0x00000000, 0x00000000, 0x00000000]) print print ("Test Threshold Pot and ADC") Thres = 0x00 BCThres = 2.5 BVThres = 1.0 FWDThres = 1.5 REFLThres = 2.0 ThresMin = 0.275 ThresMax = 3.025 def writeBeamVoltThres(val): Thres = float(val) if (Thres < ThresMin): Thres = ThresMin elif (Thres > ThresMax): Thres = ThresMax KlyWiperRegB.setVal( [PotVolts2Counts(Thres)] ) time.sleep(.02) s_BeamVoltsADC.set('{:06.4f}'.format(ADCCounts2Volts(AdcIn1.getVal()))) return def writeBeamCurrentThres(val): Thres = float(val) if (Thres < ThresMin): Thres = ThresMin elif (Thres > ThresMax): Thres = ThresMax KlyWiperRegA.setVal( [PotVolts2Counts(Thres)] ) time.sleep(.02) s_BeamCurrentADC.set('{:06.4f}'.format(ADCCounts2Volts(AdcIn0.getVal()))) return def writeFwdPwrThres(val): Thres = float(val) if (Thres < ThresMin): Thres = ThresMin elif (Thres > ThresMax): Thres = ThresMax ModWiperRegA.setVal( [PotVolts2Counts(Thres)] ) time.sleep(.02) s_FwdPwrADC.set('{:06.4f}'.format(ADCCounts2Volts(AdcIn2.getVal()))) return def writeReflPwrThres(val): Thres = float(val) if (Thres < ThresMin): Thres = ThresMin elif (Thres > ThresMax): Thres = ThresMax ModWiperRegB.setVal( [PotVolts2Counts(Thres)] ) time.sleep(.02) s_ReflPwrADC.set('{:06.4f}'.format(ADCCounts2Volts(AdcIn3.getVal()))) return def writeAccelWidth(val): Counts = int(us2Counts(float(val))) AccelTrigWidth.setVal(Counts) s_AccelWidth.set(str(Counts2us(AccelTrigWidth.getVal()))) return #while (True) : #KlyWiperRegA.setVal( [PotVolts2Counts(BCThres)] ) #KlyWiperRegB.setVal( [PotVolts2Counts(BVThres)] ) #ModWiperRegA.setVal( [PotVolts2Counts(FWDThres)] ) #ModWiperRegB.setVal( [PotVolts2Counts(REFLThres)] ) # write CFG to scan CfgRegister.setVal([0xFF1C]) time.sleep(0.1) # Write CFG to no longer update # clear msb, writing 0 does not work! CfgRegister.setVal([0x7F1C]) time.sleep(0.1) print print # Read adc's BCThresADC = ADCCounts2Volts(AdcIn0.getVal()) BVThresADC = ADCCounts2Volts(AdcIn1.getVal()) FWDThresADC = ADCCounts2Volts(AdcIn2.getVal()) REFLThresADC = ADCCounts2Volts(AdcIn3.getVal()) BCThresErr = (BCThresADC - BCThres)/BCThres * 100 BVThresErr = (BVThresADC - BVThres)/BVThres * 100 FWDThresErr = (FWDThresADC - FWDThres)/FWDThres * 100 REFLThresErr = (REFLThresADC - REFLThres)/REFLThres * 100 print(' Beam Current Threshold {:06.4f} {:6.2f}%'.format(BCThresADC, BCThresErr)) print(' Beam Voltage Thershold {:06.4f} {:6.2f}%'.format(BVThresADC, BVThresErr)) print(' Forward Power Threshold {:06.4f} {:6.2f}%'.format(FWDThresADC, FWDThresErr)) print('Reflected Power Threshold {:06.4f} {:6.2f}%'.format(REFLThresADC, REFLThresErr)) print def UpdateBeamVThres(): return top = Tk() v_Firmware = StringVar() v_DateString = StringVar() v_IdString = StringVar() v_SubTypeString = StringVar() v_BeamVoltThreshold = DoubleVar() s_BeamVoltsADC = StringVar() v_BeamCurrentThreshold = DoubleVar() s_BeamCurrentADC = StringVar() v_FwdPwrThreshold = DoubleVar() s_FwdPwrADC = StringVar() v_ReflPwrThreshold = DoubleVar() s_ReflPwrADC = StringVar() s_AccelWidth = StringVar() s_AccelDelay = StringVar() f_title = Frame(top) f_title.grid(row = 0, column = 0, columnspan=3) Label(f_title, text = 'RF Interlock Test', fg = "blue", font = ('Times', '24', 'bold italic')).grid(row=0, column = 0) l_Title = Label(f_title, text = 'RF Interlock Test', fg = "blue", font = ('Times', '24', 'bold italic')) l_Title.pack(side=TOP, anchor=W, expand=YES) f_ID = Frame(top, bd=4, relief=RIDGE) f_ID.grid(row = 1, column = 0, sticky= N) Label(f_ID, text = 'RTM ID', fg = "blue", font = ('Times', '16', 'bold italic')).grid(row=1, column = 0) Label(f_ID, text = 'Version ' + str(FirmwareVersion.getVal())).grid(row = 2, column=0, sticky = W) Label(f_ID, text = 'Date ' + DateString).grid(row = 3, column=0, sticky = W) Label(f_ID, text = 'ID ' + IdString).grid(row = 4, column=0, sticky = W) Label(f_ID, text = 'Sub Type ' + SubTypeString).grid(row = 5, column=0, sticky = W) f_Threshold = Frame(top, bd=4, relief=RIDGE) f_Threshold.grid(row=2, column = 0, sticky = N) l_ThresTitle = Label(f_Threshold, text = 'Thresholds', fg = "blue", font = ('Times', '16', 'bold italic')).grid(row = 0, column=0, sticky=N) l_BeamVolts = Label(f_Threshold, text = 'BeamVolts') l_BeamVolts.grid(row = 1, column = 0, sticky = W) SldrBV = Scale(f_Threshold, from_=0.275, to=3.025, orient="horizontal",length=100, resolution=0.01, command=writeBeamVoltThres) SldrBV.grid(row = 1, column = 1, sticky = W) SldrBV.set(ADCCounts2Volts(AdcIn1.getVal())) ebx_BeamVoltsThreshold = Entry(f_Threshold, textvariable = s_BeamVoltsADC, width=10) ebx_BeamVoltsThreshold.grid(row=1, column=2) l_BeamCurrent = Label(f_Threshold, text = 'BeamCurrent') l_BeamCurrent.grid(row = 3, column = 0, sticky = W) SldrBC = Scale(f_Threshold, from_=0.275, to=3.025, orient="horizontal",length=100, resolution=0.01, command=writeBeamCurrentThres) SldrBC.grid(row = 3, column = 1, sticky = W) SldrBC.set(ADCCounts2Volts(AdcIn0.getVal())) ebx_BeamCurrentThreshold = Entry(f_Threshold, textvariable = s_BeamCurrentADC, width=10) ebx_BeamCurrentThreshold.grid(row=3, column=2) l_FwdPwr = Label(f_Threshold, text = 'Forward Power ') l_FwdPwr.grid(row = 5, column = 0, sticky = W) SldrFP = Scale(f_Threshold, from_=0.275, to=3.025, orient="horizontal",length=100, resolution=0.01, command=writeFwdPwrThres) SldrFP.grid(row = 5, column = 1, sticky = W) SldrFP.set(ADCCounts2Volts(AdcIn2.getVal())) ebx_FwdPwrThreshold = Entry(f_Threshold, textvariable = s_FwdPwrADC, width=10) ebx_FwdPwrThreshold.grid(row=5, column=2) l_ReflPwr = Label(f_Threshold, text = 'Reflected Power') l_ReflPwr.grid(row = 7, column = 0, sticky = W) SldrRP = Scale(f_Threshold, from_=0.275, to=3.025, orient="horizontal",length=100, resolution=0.01, command=writeReflPwrThres) SldrRP.grid(row = 7, column = 1, sticky = W) SldrRP.set(ADCCounts2Volts(AdcIn3.getVal())) ebx_ReflPwrThreshold = Entry(f_Threshold, textvariable = s_ReflPwrADC, width=10) ebx_ReflPwrThreshold.grid(row=7, column=2) f_Triggers = Frame(top, bd=4, relief=RIDGE) f_Triggers.grid(row = 1, column = 1, columnspan=3) l_TriggersTitle = Label(f_Threshold, text = 'Triggers', fg = "blue", font = ('Times', '16', 'bold italic')).grid(row = 0, column=0, sticky=N) l_AccelWidth = Label(f_Triggers, text = 'Accelerate Width') l_AccelWidth.grid(row = 1, column = 0) ebx_AccelWidth = Entry(f_Triggers, textvariable = s_AccelWidth, width=10) ebx_AccelWidth.grid(row=1, column = 1) l_AccelDelay = Label(f_Triggers, text = 'Accelerate Delay') l_AccelDelay.grid(row = 2, column = 0) ebx_AccelDelay = Entry(f_Triggers, textvariable = s_AccelDelay, width=10) ebx_AccelDelay.grid(row=2, column = 1) top.mainloop() time.sleep(1) x=0 while (True): StatVal = Status.getVal() DecodeStatus(StatVal) print if (FaultStatusBit.getVal() == 1): print('Faulted') else: print('No Fault') SLEDStatus(StatVal) time.sleep(2) print print print x x=x+1 if (x == 10): print ('Clear') StatClear() x = 1