public TCLEDMHardware()
{
//Add the boards
Boards.Add("tclBoardPump", "/PXI1Slot5");
Boards.Add("tclBoardProbe", "/PXI1Slot2");
string tclBoardPump = (string)Boards["tclBoardPump"];
string tclBoardProbe = (string)Boards["tclBoardProbe"];
// Cavity inputs for the cavity that controls the Pump lasers
AddAnalogInputChannel("PumpCavityRampVoltage", tclBoardPump + "/ai8", AITerminalConfiguration.Rse); //tick
AddAnalogInputChannel("Pumpmaster", tclBoardPump + "/ai1", AITerminalConfiguration.Rse);
AddAnalogInputChannel("Pumpp1", tclBoardPump + "/ai2", AITerminalConfiguration.Rse);
AddAnalogInputChannel("Pumpp2", tclBoardPump + "/ai3", AITerminalConfiguration.Rse);
// Lasers locked to pump cavity
AddAnalogOutputChannel("KeopsysDiodeLaser", tclBoardPump + "/ao2", -4, 4); //tick
AddAnalogOutputChannel("MenloPZT", tclBoardPump + "/ao0", 0, 10); //tick
// Length stabilisation for pump cavity
AddAnalogOutputChannel("PumpCavityLengthVoltage", tclBoardPump + "/ao1", -10, 10); //tick
//TCL configuration for pump cavity
TCLConfig tcl1 = new TCLConfig("Pump Cavity");
tcl1.AddLaser("MenloPZT", "Pumpp1");
tcl1.AddLaser("KeopsysDiodeLaser", "Pumpp2");
tcl1.Trigger = tclBoardPump + "/PFI0";
tcl1.Cavity = "PumpCavityRampVoltage";
tcl1.MasterLaser = "Pumpmaster";
tcl1.Ramp = "PumpCavityLengthVoltage";
tcl1.TCPChannel = 1190;
tcl1.AnalogSampleRate = 61250;
tcl1.DefaultScanPoints = 500;
tcl1.MaximumNLMFSteps = 20;
tcl1.PointsToConsiderEitherSideOfPeakInFWHMs = 2.5;
tcl1.TriggerOnRisingEdge = false;
tcl1.AddFSRCalibration("MenloPZT", 3.84);
tcl1.AddFSRCalibration("KeopsysDiodeLaser", 3.84);
tcl1.AddDefaultGain("Master", 0.3);
tcl1.AddDefaultGain("MenloPZT", -0.2);
tcl1.AddDefaultGain("KeopsysDiodeLaser", 4);
Info.Add("PumpCavity", tcl1);
//Info.Add("DefaultCavity", tcl1);
// Probe cavity inputs
AddAnalogInputChannel("ProbeRampVoltage", tclBoardProbe + "/ai0", AITerminalConfiguration.Rse); //tick
AddAnalogInputChannel("Probemaster", tclBoardProbe + "/ai1", AITerminalConfiguration.Rse); //tick
AddAnalogInputChannel("Probep1", tclBoardProbe + "/ai2", AITerminalConfiguration.Rse); //tick
// Lasers locked to Probe cavity
AddAnalogOutputChannel("TopticaSHGPZT", tclBoardProbe + "/ao0", -4, 4); //tick
AddAnalogOutputChannel("ProbeCavityLengthVoltage", tclBoardProbe + "/ao1", -10, 10); //tick
// TCL configuration for Probe cavity
TCLConfig tcl2 = new TCLConfig("Probe Cavity");
tcl2.AddLaser("TopticaSHGPZT", "Probep1");
tcl2.Trigger = tclBoardProbe + "/PFI0";
tcl2.Cavity = "ProbeRampVoltage";
tcl2.MasterLaser = "Probemaster";
tcl2.Ramp = "ProbeCavityLengthVoltage";
tcl2.TCPChannel = 1191;
tcl2.AnalogSampleRate = 61250 / 2;
tcl2.DefaultScanPoints = 250;
tcl2.MaximumNLMFSteps = 20;
tcl2.PointsToConsiderEitherSideOfPeakInFWHMs = 12;
tcl2.AddFSRCalibration("TopticaSHGPZT", 3.84);
tcl2.TriggerOnRisingEdge = false;
tcl2.AddDefaultGain("Master", 0.4);
tcl2.AddDefaultGain("TopticaSHGPZT", 0.04);
Info.Add("ProbeCavity", tcl2);
Info.Add("DefaultCavity", tcl2);
}
public PXIEDMHardware()
{
// add the boards
Boards.Add("rfPulseGenerator", "PXI1Slot4");
Boards.Add("daq", "/PXI1Slot18");
Boards.Add("pg", "/PXI1Slot10");
Boards.Add("counter", "/PXI1Slot16");
Boards.Add("aoBoard", "/PXI1Slot2");
// this drives the rf attenuators
Boards.Add("usbDAQ1", "/Dev6");
Boards.Add("analogIn", "/PXI1Slot15");
Boards.Add("usbDAQ2", "/Dev1");
Boards.Add("usbDAQ3", "/Dev2");
Boards.Add("usbDAQ4", "/Dev5");
Boards.Add("tclBoardPump", "/PXI1Slot17");
Boards.Add("tclBoardProbe", "/PXI1Slot9");
string rfPulseGenerator = (string)Boards["rfPulseGenerator"];
string pgBoard = (string)Boards["pg"];
string daqBoard = (string)Boards["daq"];
string counterBoard = (string)Boards["counter"];
string aoBoard = (string)Boards["aoBoard"];
string usbDAQ1 = (string)Boards["usbDAQ1"];
string analogIn = (string)Boards["analogIn"];
string usbDAQ2 = (string)Boards["usbDAQ2"];
string usbDAQ3 = (string)Boards["usbDAQ3"];
string usbDAQ4 = (string)Boards["usbDAQ4"];
string tclBoardPump = (string)Boards["tclBoardPump"];
string tclBoardProbe = (string)Boards["tclBoardProbe"];
// add things to the info
// the analog triggersf
Info.Add("analogTrigger0", (string)Boards["analogIn"] + "/PFI0");
Info.Add("analogTrigger1", (string)Boards["analogIn"] + "/PFI1");
Info.Add("sourceToDetect", 1.3);
Info.Add("moleculeMass", 193.0);
Info.Add("machineLengthRatio", 3.842);
Info.Add("defaultGate", new double[] { 2190, 80 });
Info.Add("phaseLockControlMethod", "synth");
Info.Add("PGClockLine", pgBoard + "/PFI4"); //Mapped to PFI2 on 6533 connector
Info.Add("PatternGeneratorBoard", pgBoard);
Info.Add("PGType", "dedicated");
// rf counter switch control seq``
Info.Add("IodineFreqMon", new bool[] { false, false }); // IN 1
Info.Add("pumpAOMFreqMon", new bool[] { false, true }); // IN 2
Info.Add("FLModulationFreqMon", new bool[] { true, false }); // IN 3
Info.Add("PGTrigger", pgBoard + "/PFI5"); //Mapped to PFI7 on 6533 connector
// YAG laser
yag = new BrilliantLaser("ASRL21::INSTR");
// add the GPIB/RS232 instruments
Instruments.Add("green", new HP8657ASynth("GPIB0::7::INSTR"));
Instruments.Add("gigatronix", new Gigatronics7100Synth("GPIB0::19::INSTR"));
Instruments.Add("red", new HP3325BSynth("GPIB0::12::INSTR"));
Instruments.Add("4861", new ICS4861A("GPIB0::4::INSTR"));
Instruments.Add("bCurrentMeter", new HP34401A("GPIB0::22::INSTR"));
Instruments.Add("rfCounter", new Agilent53131A("GPIB0::3::INSTR"));
//Instruments.Add("rfCounter2", new Agilent53131A("GPIB0::5::INSTR"));
Instruments.Add("rfPower", new HP438A("GPIB0::13::INSTR"));
Instruments.Add("BfieldController", new SerialDAQ("ASRL19::INSTR"));
Instruments.Add("rfCounter2", new SerialAgilent53131A("ASRL17::INSTR"));
Instruments.Add("probePolControl", new SerialMotorControllerBCD("ASRL8::INSTR"));
Instruments.Add("pumpPolControl", new SerialMotorControllerBCD("ASRL11::INSTR"));
// map the digital channels
// these channels are generally switched by the pattern generator
// they're all in the lower half of the pg
AddDigitalOutputChannel("valve", pgBoard, 0, 0);
AddDigitalOutputChannel("flash", pgBoard, 0, 1);
AddDigitalOutputChannel("q", pgBoard, 0, 2);
AddDigitalOutputChannel("detector", pgBoard, 0, 3);
AddDigitalOutputChannel("detectorprime", pgBoard, 1, 2); // this trigger is for switch scanning
// see ModulatedAnalogShotGatherer.cs
// for details.
AddDigitalOutputChannel("rfSwitch", pgBoard, 0, 4);
AddDigitalOutputChannel("pumprfSwitch", pgBoard, 3, 4);
AddDigitalOutputChannel("fmSelect", pgBoard, 1, 0); // This line selects which fm voltage is
// sent to the synth.
AddDigitalOutputChannel("attenuatorSelect", pgBoard, 0, 5); // This line selects the attenuator voltage
// sent to the voltage-controlled attenuator.
AddDigitalOutputChannel("piFlip", pgBoard, 1, 1);
AddDigitalOutputChannel("ttlSwitch", pgBoard, 1, 3); // This is the output that the pg
// will switch if it's switch scanning.
AddDigitalOutputChannel("scramblerEnable", pgBoard, 1, 4);
//RF Counter Control (single pole 4 throw)
//AddDigitalOutputChannel("rfCountSwBit1", pgBoard, 3, 5);
//AddDigitalOutputChannel("rfCountSwBit2", pgBoard, 3, 6);
// new rf amp blanking
AddDigitalOutputChannel("rfAmpBlanking", pgBoard, 1, 5);
// these channel are usually software switched - they should not be in
// the lower half of the pattern generator
AddDigitalOutputChannel("b", pgBoard, 2, 0);
AddDigitalOutputChannel("notB", pgBoard, 2, 1);
AddDigitalOutputChannel("db", pgBoard, 2, 2);
AddDigitalOutputChannel("notDB", pgBoard, 2, 3);
// AddDigitalOutputChannel("notEOnOff", pgBoard, 2, 4); // this line seems to be broken on our pg board
// AddDigitalOutputChannel("eOnOff", pgBoard, 2, 5); // this and the above are not used now we have analog E control
AddDigitalOutputChannel("ePol", pgBoard, 2, 6);
AddDigitalOutputChannel("notEPol", pgBoard, 2, 7);
AddDigitalOutputChannel("eBleed", pgBoard, 3, 0);
AddDigitalOutputChannel("eSwitching", aoBoard, 0, 3);
AddDigitalOutputChannel("piFlipEnable", pgBoard, 3, 1);
AddDigitalOutputChannel("notPIFlipEnable", pgBoard, 3, 5);
AddDigitalOutputChannel("mwEnable", pgBoard, 3, 3);
AddDigitalOutputChannel("mwSelectPumpChannel", pgBoard, 3, 6);
AddDigitalOutputChannel("mwSelectTopProbeChannel", pgBoard, 3, 2);
AddDigitalOutputChannel("mwSelectBottomProbeChannel", pgBoard, 2, 4);
// these digitial outputs are are not switched during the pattern
AddDigitalOutputChannel("argonShutter", aoBoard, 0, 0);
AddDigitalOutputChannel("patternTTL", aoBoard, 0, 7);
AddDigitalOutputChannel("rfPowerAndFreqSelectSwitch", aoBoard, 0, 1);
AddDigitalOutputChannel("targetStepper", aoBoard, 0, 2);;
// map the analog channels
// These channels are on the daq board. Used mainly for diagnostic purposes.
AddAnalogInputChannel("iodine", daqBoard + "/ai2", AITerminalConfiguration.Nrse);
AddAnalogInputChannel("cavity", daqBoard + "/ai3", AITerminalConfiguration.Nrse);
AddAnalogInputChannel("probePD", daqBoard + "/ai4", AITerminalConfiguration.Nrse);
AddAnalogInputChannel("pumpPD", daqBoard + "/ai5", AITerminalConfiguration.Nrse);
AddAnalogInputChannel("northLeakage", daqBoard + "/ai6", AITerminalConfiguration.Nrse);
AddAnalogInputChannel("southLeakage", daqBoard + "/ai7", AITerminalConfiguration.Nrse);
//AddAnalogInputChannel("northLeakage", usbDAQ4 + "/ai0", AITerminalConfiguration.Rse);
//AddAnalogInputChannel("southLeakage", usbDAQ4 + "/ai1", AITerminalConfiguration.Rse);
// Used ai13,11 & 12 over 6,7 & 8 for miniFluxgates, because ai8, 9 have an isolated ground.
AddAnalogInputChannel("miniFlux1", daqBoard + "/ai13", AITerminalConfiguration.Nrse);
AddAnalogInputChannel("miniFlux2", daqBoard + "/ai11", AITerminalConfiguration.Nrse);
AddAnalogInputChannel("miniFlux3", daqBoard + "/ai12", AITerminalConfiguration.Nrse);
AddAnalogInputChannel("ground", daqBoard + "/ai14", AITerminalConfiguration.Nrse);
AddAnalogInputChannel("piMonitor", daqBoard + "/ai10", AITerminalConfiguration.Nrse);
//AddAnalogInputChannel("diodeLaserRefCavity", daqBoard + "/ai13", AITerminalConfiguration.Nrse);
// Don't use ai10, cross talk with other channels on this line
// high quality analog inputs (will be) on the S-series analog in board
// The last number in AddAnalogInputChannel is an optional calibration which turns VuS and MHz
AddAnalogInputChannel("topProbe", analogIn + "/ai0", AITerminalConfiguration.Differential, 0.1);
AddAnalogInputChannel("bottomProbe", analogIn + "/ai1", AITerminalConfiguration.Differential, 0.02);
AddAnalogInputChannel("magnetometer", analogIn + "/ai2", AITerminalConfiguration.Differential);
AddAnalogInputChannel("gnd", analogIn + "/ai3", AITerminalConfiguration.Differential);
AddAnalogInputChannel("battery", analogIn + "/ai4", AITerminalConfiguration.Differential);
//AddAnalogInputChannel("piMonitor", analogIn + "/ai5", AITerminalConfiguration.Differential);
//AddAnalogInputChannel("bFieldCurrentMonitor", analogIn + "/ai6", AITerminalConfiguration.Differential);
AddAnalogInputChannel("reflectedrf1Amplitude", analogIn + "/ai5", AITerminalConfiguration.Differential);
AddAnalogInputChannel("reflectedrf2Amplitude", analogIn + "/ai6", AITerminalConfiguration.Differential);
AddAnalogInputChannel("rfCurrent", analogIn + "/ai7 ", AITerminalConfiguration.Differential);
AddAnalogOutputChannel("phaseScramblerVoltage", aoBoard + "/ao10");
AddAnalogOutputChannel("b", aoBoard + "/ao2");
// rf rack control
//AddAnalogInputChannel("rfPower", usbDAQ1 + "/ai0", AITerminalConfiguration.Rse);
AddAnalogOutputChannel("rf1Attenuator", usbDAQ1 + "/ao0", 0, 5);
AddAnalogOutputChannel("rf2Attenuator", usbDAQ1 + "/ao1", 0, 5);
AddAnalogOutputChannel("rf1FM", usbDAQ2 + "/ao0", 0, 5);
AddAnalogOutputChannel("rf2FM", usbDAQ2 + "/ao1", 0, 5);
// E field control and monitoring
//AddAnalogInputChannel("cPlusMonitor", usbDAQ3 + "/ai1", AITerminalConfiguration.Differential);
//AddAnalogInputChannel("cMinusMonitor", usbDAQ3 + "/ai2", AITerminalConfiguration.Differential);
AddAnalogInputChannel("cPlusMonitor", daqBoard + "/ai0", AITerminalConfiguration.Differential);
AddAnalogInputChannel("cMinusMonitor", daqBoard + "/ai1", AITerminalConfiguration.Differential);
AddAnalogOutputChannel("cPlus", usbDAQ3 + "/ao0", 0, 10);
AddAnalogOutputChannel("cMinus", usbDAQ3 + "/ao1", 0, 10);
// B field control
//AddAnalogOutputChannel("steppingBBias", usbDAQ4 + "/ao0", 0, 5);
// map the counter channels
AddCounterChannel("phaseLockOscillator", counterBoard + "/ctr7");
AddCounterChannel("phaseLockReference", counterBoard + "/pfi10");
//AddCounterChannel("northLeakage", counterBoard + "/ctr0");
//AddCounterChannel("southLeakage", counterBoard + "/ctr1");
// Cavity inputs for the cavity that controls the Pump lasers
AddAnalogInputChannel("PumpCavityRampVoltage", tclBoardPump + "/ai8", AITerminalConfiguration.Rse); //tick
AddAnalogInputChannel("Pumpmaster", tclBoardPump + "/ai1", AITerminalConfiguration.Rse);
AddAnalogInputChannel("Pumpp1", tclBoardPump + "/ai2", AITerminalConfiguration.Rse);
AddAnalogInputChannel("Pumpp2", tclBoardPump + "/ai3", AITerminalConfiguration.Rse);
// Lasers locked to pump cavity
AddAnalogOutputChannel("KeopsysDiodeLaser", tclBoardPump + "/ao2", -4, 4); //tick
AddAnalogOutputChannel("MenloPZT", tclBoardPump + "/ao0", 0, 10); //tick
// Length stabilisation for pump cavity
AddAnalogOutputChannel("PumpCavityLengthVoltage", tclBoardPump + "/ao1", -10, 10); //tick
//TCL configuration for pump cavity
TCLConfig tcl1 = new TCLConfig("Pump Cavity");
tcl1.AddLaser("MenloPZT", "Pumpp1");
tcl1.AddLaser("KeopsysDiodeLaser", "Pumpp2");
tcl1.Trigger = tclBoardPump + "/PFI0";
tcl1.Cavity = "PumpCavityRampVoltage";
tcl1.MasterLaser = "Pumpmaster";
tcl1.Ramp = "PumpCavityLengthVoltage";
tcl1.TCPChannel = 1190;
tcl1.AnalogSampleRate = 61250;
tcl1.DefaultScanPoints = 500;
tcl1.MaximumNLMFSteps = 20;
tcl1.PointsToConsiderEitherSideOfPeakInFWHMs = 2.5;
tcl1.TriggerOnRisingEdge = false;
tcl1.AddFSRCalibration("MenloPZT", 3.84);
tcl1.AddFSRCalibration("KeopsysDiodeLaser", 3.84);
tcl1.AddDefaultGain("Master", 0.3);
tcl1.AddDefaultGain("MenloPZT", -0.2);
tcl1.AddDefaultGain("KeopsysDiodeLaser", 4);
Info.Add("PumpCavity", tcl1);
Info.Add("DefaultCavity", tcl1);
// Probe cavity inputs
AddAnalogInputChannel("ProbeRampVoltage", tclBoardProbe + "/ai0", AITerminalConfiguration.Rse); //tick
AddAnalogInputChannel("Probemaster", tclBoardProbe + "/ai1", AITerminalConfiguration.Rse); //tick
AddAnalogInputChannel("Probep1", tclBoardProbe + "/ai2", AITerminalConfiguration.Rse); //tick
// Lasers locked to Probe cavity
AddAnalogOutputChannel("TopticaSHGPZT", tclBoardProbe + "/ao0", -4, 4); //tick
AddAnalogOutputChannel("ProbeCavityLengthVoltage", tclBoardProbe + "/ao1", -10, 10); //tick
// TCL configuration for Probe cavity
TCLConfig tcl2 = new TCLConfig("Probe Cavity");
tcl2.AddLaser("TopticaSHGPZT", "Probep1");
tcl2.Trigger = tclBoardProbe + "/PFI0";
tcl2.Cavity = "ProbeRampVoltage";
tcl2.MasterLaser = "Probemaster";
tcl2.Ramp = "ProbeCavityLengthVoltage";
tcl2.TCPChannel = 1191;
tcl2.AnalogSampleRate = 61250 / 2;
tcl2.DefaultScanPoints = 250;
tcl2.MaximumNLMFSteps = 20;
tcl2.PointsToConsiderEitherSideOfPeakInFWHMs = 12;
tcl2.AddFSRCalibration("TopticaSHGPZT", 3.84);
tcl2.TriggerOnRisingEdge = false;
tcl2.AddDefaultGain("Master", 0.4);
tcl2.AddDefaultGain("TopticaSHGPZT", 0.04);
Info.Add("ProbeCavity", tcl2);
//Info.Add("DefaultCavity", tcl2);
// Obsolete Laser control
AddAnalogOutputChannel("probeAOM", aoBoard + "/ao19", 0, 10);
AddAnalogOutputChannel("pumpAOM", aoBoard + "/ao20", 0, 10);
AddAnalogOutputChannel("fibreAmpPwr", aoBoard + "/ao3");
AddAnalogOutputChannel("I2LockBias", aoBoard + "/ao5", 0, 5);
//Microwave Control Channels
AddAnalogOutputChannel("uWaveDCFM", aoBoard + "/ao11", -2.5, 2.5);
//AddAnalogOutputChannel("uWaveMixerV", aoBoard + "/ao12", 0, 10);
AddAnalogOutputChannel("pumpMixerV", aoBoard + "/ao19", 0, 5);
AddAnalogOutputChannel("bottomProbeMixerV", aoBoard + "/ao24", 0, 5);
AddAnalogOutputChannel("topProbeMixerV", aoBoard + "/ao25", 0, 5);
//RF control Channels
AddAnalogOutputChannel("VCO161Amp", aoBoard + "/ao13", 0, 10);
AddAnalogOutputChannel("VCO161Freq", aoBoard + "/ao14", 0, 10);
AddAnalogOutputChannel("VCO30Amp", aoBoard + "/ao15", 0, 10);
AddAnalogOutputChannel("VCO30Freq", aoBoard + "/ao16", 0, 10);
AddAnalogOutputChannel("VCO155Amp", aoBoard + "/ao17", 0, 10);
AddAnalogOutputChannel("VCO155Freq", aoBoard + "/ao18", 0, 10);
}