protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
if (AnalysisInputParameters(inputParameters) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (selectedEquipList["DUT"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// open apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "OFF" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start Open apc");
dut.APCON();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(200);
bool isOpen = dut.APCStatus(out apcstring);
if (apcstring == "ON")
{
logoStr += logger.AdapterLogString(1, "APC ON");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT ON");
}
}
// open apc
logoStr += logger.AdapterLogString(0, "Step3...ReadDmiTemp");
tempDmi = dut.ReadDmiTemp();
tempDmiErr = tempDmi - GlobalParameters.CurrentTemp;
logoStr += logger.AdapterLogString(1, "tempDmi=" + tempDmi.ToString());
logoStr += logger.AdapterLogString(1, "tempDmiErr=" + tempDmiErr.ToString());
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(true);
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
logger.FlushLogBuffer();
return(false);
}
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
if (AnalysisInputParameters(inputParameters) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (selectedEquipList["DUT"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// open apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "OFF" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start Open apc");
dut.APCON();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(200);
bool isOpen = dut.APCStatus(out apcstring);
if (apcstring == "ON")
{
logoStr += logger.AdapterLogString(1, "APC ON");
}
else
{
logoStr += logger.AdapterLogString(1, "APC NOT ON");
}
}
// open apc
//temp
logoStr += logger.AdapterLogString(0, "Step3...CheckTempHighAlarm");
logoStr += logger.AdapterLogString(1, CheckTempHighAlarm(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step4...CheckTempHighWarning");
logoStr += logger.AdapterLogString(1, CheckTempHighWarning(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step5...CheckTempLowAlarm");
logoStr += logger.AdapterLogString(1, CheckTempLowAlarm(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step6...CheckTempLowWarning");
logoStr += logger.AdapterLogString(1, CheckTempLowWarning(dut).ToString());
//vcc
logoStr += logger.AdapterLogString(0, "Step7...CheckVccLowWarning");
logoStr += logger.AdapterLogString(1, CheckVccLowWarning(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step8...CheckVccLowAlarm");
logoStr += logger.AdapterLogString(1, CheckVccLowAlarm(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step9...CheckVccHighAlarm");
logoStr += logger.AdapterLogString(1, CheckVccHighAlarm(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step10...CheckVccHighWarning");
logoStr += logger.AdapterLogString(1, CheckVccHighWarning(dut).ToString());
//ibias
logoStr += logger.AdapterLogString(0, "Step11...CheckBiasHighAlarm");
logoStr += logger.AdapterLogString(1, CheckBiasHighAlarm(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step12...CheckBiasHighWarning");
logoStr += logger.AdapterLogString(1, CheckBiasHighWarning(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step13...CheckBiasLowWarning");
logoStr += logger.AdapterLogString(1, CheckBiasLowWarning(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step14...CheckBiasLowAlarm");
logoStr += logger.AdapterLogString(1, CheckBiasLowAlarm(dut).ToString());
// tx power
logoStr += logger.AdapterLogString(0, "Step15...CheckTxPowerHighAlarm");
logoStr += logger.AdapterLogString(1, CheckTxPowerHighAlarm(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step16...CheckTxPowerHighWarning");
logoStr += logger.AdapterLogString(1, CheckTxPowerHighWarning(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step17...CheckTxPowerLowWarning");
logoStr += logger.AdapterLogString(1, CheckTxPowerLowWarning(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step18...CheckTxPowerLowAlarm");
logoStr += logger.AdapterLogString(1, CheckTxPowerLowAlarm(dut).ToString());
// rx power
logoStr += logger.AdapterLogString(0, "Step19...CheckRxPowerHighAlarm");
logoStr += logger.AdapterLogString(1, CheckRxPowerHighAlarm(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step20...CheckRxPowerHighWarning");
logoStr += logger.AdapterLogString(1, CheckRxPowerHighWarning(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step21...CheckRxPowerLowWarning");
logoStr += logger.AdapterLogString(1, CheckRxPowerLowWarning(dut).ToString());
logoStr += logger.AdapterLogString(0, "Step22...CheckRxPowerLowAlarm");
logoStr += logger.AdapterLogString(1, CheckRxPowerLowAlarm(dut).ToString());
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(true);
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
logger.FlushLogBuffer();
return(false);
}
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
if (AnalysisInputParameters(inputParameters) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (selectedEquipList["DUT"] != null && selectedEquipList["ATTEN"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
Attennuator tempAtten = (Attennuator)selectedEquipList["ATTEN"];
// open apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "OFF" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start Open apc");
dut.APCON();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(500);
bool isOpen = dut.APCStatus(out apcstring);
if (apcstring == "ON")
{
logoStr += logger.AdapterLogString(1, "APC ON");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT ON");
}
}
// open apc
logoStr += logger.AdapterLogString(0, "Step3...Start Test RxDmi");
double[] tempRxPowerDmiArray = new double[testRxPowerDmiStruct.ArrayListRxInputPower.Count];
double[] tempRxPowerErrArray = new double[testRxPowerDmiStruct.ArrayListRxInputPower.Count];
for (byte i = 0; i < testRxPowerDmiStruct.ArrayListRxInputPower.Count; i++)
{
tempAtten.AttnValue(testRxPowerDmiStruct.ArrayListRxInputPower[i].ToString());
Thread.Sleep(1000);
tempRxPowerDmiArray[i] = dut.ReadDmiRxp();
tempRxPowerErrArray[i] = Math.Abs(Convert.ToDouble(testRxPowerDmiStruct.ArrayListRxInputPower[i].ToString()) - tempRxPowerDmiArray[i]);
logoStr += logger.AdapterLogString(1, "testRxPowerDmiStruct.ArrayListRxInputPower[" + i.ToString() + "]:" + testRxPowerDmiStruct.ArrayListRxInputPower[i].ToString() + "tempRxPowerDmiArray[" + i.ToString() + "]:" + tempRxPowerDmiArray[i].ToString() + "tempRxPowerErrArray[" + i.ToString() + "]" + tempRxPowerErrArray[i].ToString());
}
byte maxIndex;
MaxErr = algorithm.SelectMaxValue(ArrayList.Adapter(tempRxPowerErrArray), out maxIndex);
ErrMaxPoint = Convert.ToDouble(testRxPowerDmiStruct.ArrayListRxInputPower[maxIndex].ToString());
logoStr += logger.AdapterLogString(1, "ErrMaxPoint=" + ErrMaxPoint.ToString() + " MaxErr" + MaxErr.ToString());
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(true);
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
logger.FlushLogBuffer();
return(false);
}
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
calledCount++;
if (calledCount > 1)
{
logger.AdapterLogString(0, "calledCount>1");
return(true);
}
if (AnalysisInputParameters(inputParameters) == false)
{
return(false);
}
if (selectedEquipList["POWERSUPPLY"] != null && selectedEquipList["DUT"] != null)
{
bool isWriteCoefCOk = false;
bool isWriteCoefBOk = false;
bool isWriteCoefAOk = false;
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// close apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "ON" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start close apc");
dut.APCOFF();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(200);
bool isclosed = dut.APCStatus(out apcstring);
if (apcstring == "OFF")
{
logoStr += logger.AdapterLogString(1, "APC OFF");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT OFF");
}
}
// close apc
vccAdcArray = new double[GlobalParameters.TotalVccCount, calVccDmiStruct.ArrayListVcc.Count];
ReadVccADCTM(dut, tempps);
logoStr += logger.AdapterLogString(0, "Step3...Start Fitting Curve");
double[] tempVccArray = new double[calVccDmiStruct.ArrayListVcc.Count];
for (byte i = 0; i < calVccDmiStruct.ArrayListVcc.Count; i++)
{
tempVccArray[i] = Convert.ToDouble(calVccDmiStruct.ArrayListVcc[i].ToString());
}
tempps.ConfigVoltageCurrent(Convert.ToString(GlobalParameters.VccOffset + calVccDmiStruct.generalVcc));
if (calVccDmiStruct.is1Stor2StorPid == 1)
{
for (byte i = 0; i < tempVccArray.Length; i++)
{
tempVccArray[i] = tempVccArray[i] * 10000;
}
for (byte i = 0; i < GlobalParameters.TotalVccCount; i++)
{
double[] tempAdc = new double[calVccDmiStruct.ArrayListVcc.Count];
for (byte j = 0; j < calVccDmiStruct.ArrayListVcc.Count; j++)
{
tempAdc[j] = vccAdcArray[i, j];
}
double[] coefArray = algorithm.MultiLine(tempAdc, tempVccArray, calVccDmiStruct.ArrayListVcc.Count, 1);
vccDmiCoefC = (float)coefArray[0];
vccDmiCoefB = (float)coefArray[1];
vccDmiCoefB = vccDmiCoefB * 256;
double[] tempCoefArray = new double[2] {
vccDmiCoefC, vccDmiCoefB
};
vccDmiCoefArray = ArrayList.Adapter(coefArray);
vccDmiCoefArray.Reverse();
for (byte k = 0; k < vccDmiCoefArray.Count; k++)
{
logoStr += logger.AdapterLogString(1, "vccDmiCoefArray[" + k.ToString() + "]=" + vccDmiCoefArray[k].ToString() + " " + algorithm.ByteArraytoString(2, ",", algorithm.INT16To2Bytes(vccDmiCoefArray[k])));
}
logoStr += logger.AdapterLogString(0, "Step4...WriteCoef");
#region W&R Vcccoefc
isWriteCoefCOk = dut.SetVcccoefc(vccDmiCoefC.ToString(), (byte)(i + 1));
if (isWriteCoefCOk)
{
isWriteCoefCOk = true;
logoStr += logger.AdapterLogString(1, "WritevccDmiCoefC:" + isWriteCoefCOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "WritevccDmiCoefC:" + isWriteCoefCOk.ToString());
}
#endregion
#region W&R Vcccoefb
isWriteCoefBOk = dut.SetVcccoefb(vccDmiCoefB.ToString(), (byte)(i + 1));
if (isWriteCoefBOk)
{
isWriteCoefBOk = true;
logoStr += logger.AdapterLogString(1, "WritevccDmiCoefB:" + isWriteCoefBOk.ToString());
}
else
{
isWriteCoefBOk = false;
logoStr += logger.AdapterLogString(3, "WritevccDmiCoefB:" + isWriteCoefBOk.ToString());
}
#endregion
if (isWriteCoefBOk & isWriteCoefCOk)
{
isCalVccDmiOk = true;
logoStr += logger.AdapterLogString(1, "isCalVccDmiOk:" + isCalVccDmiOk.ToString());
}
else
{
isCalVccDmiOk = false;
logoStr += logger.AdapterLogString(3, "isCalVccDmiOk:" + isCalVccDmiOk.ToString());
}
}
}
else if (calVccDmiStruct.is1Stor2StorPid == 2)
{
for (byte i = 0; i < tempVccArray.Length; i++)
{
tempVccArray[i] = tempVccArray[i] * 10000;
}
for (byte i = 0; i < GlobalParameters.TotalVccCount; i++)
{
double[] tempAdc = new double[calVccDmiStruct.ArrayListVcc.Count];
for (byte j = 0; j < calVccDmiStruct.ArrayListVcc.Count; j++)
{
tempAdc[j] = vccAdcArray[i, j];
}
double[] coefArray = algorithm.MultiLine(tempAdc, tempVccArray, calVccDmiStruct.ArrayListVcc.Count, 2);
vccDmiCoefC = (float)coefArray[0];
vccDmiCoefB = (float)coefArray[1];
vccDmiCoefA = (float)coefArray[2];
vccDmiCoefArray = ArrayList.Adapter(coefArray);
vccDmiCoefArray.Reverse();
for (byte k = 0; k < vccDmiCoefArray.Count; k++)
{
logoStr += logger.AdapterLogString(1, "vccDmiCoefArray[" + k.ToString() + "]=" + vccDmiCoefArray[k].ToString() + " " + algorithm.ByteArraytoString(2, ",", algorithm.INT16To2Bytes(vccDmiCoefArray[k])));
}
logoStr += logger.AdapterLogString(0, "Step4...WriteCoef");
#region W&R Vcccoefc
isWriteCoefCOk = dut.SetVcccoefc(vccDmiCoefC.ToString());
if (isWriteCoefCOk)
{
isWriteCoefCOk = true;
logoStr += logger.AdapterLogString(1, "WritevccDmiCoefC:" + isWriteCoefCOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "WritevccDmiCoefC:" + isWriteCoefCOk.ToString());
}
#endregion
#region W&R Vcccoefb
isWriteCoefBOk = dut.SetVcccoefb(vccDmiCoefB.ToString(), (byte)(i + 1));
if (isWriteCoefBOk)
{
isWriteCoefBOk = true;
logoStr += logger.AdapterLogString(1, "WritevccDmiCoefB:" + isWriteCoefBOk.ToString());
}
else
{
isWriteCoefBOk = false;
logoStr += logger.AdapterLogString(3, "WritevccDmiCoefB:" + isWriteCoefBOk.ToString());
}
#endregion
#region W&R Vcccoefa
//isWriteCoefAOk = dut.SetVcccoefa(vccDmiCoefA.ToString(), i + 1);
if (isWriteCoefAOk)
{
isWriteCoefAOk = true;
logoStr += logger.AdapterLogString(1, "WritevccDmiCoefA:" + isWriteCoefAOk.ToString());
}
else
{
isWriteCoefAOk = false;
logoStr += logger.AdapterLogString(3, "WritevccDmiCoefA:" + isWriteCoefAOk.ToString());
}
#endregion
if (isWriteCoefBOk & isWriteCoefCOk & isWriteCoefAOk)
{
isCalVccDmiOk = true;
logoStr += logger.AdapterLogString(1, "isCalVccDmiOk:" + isCalVccDmiOk.ToString());
}
else
{
isCalVccDmiOk = false;
logoStr += logger.AdapterLogString(3, "isCalVccDmiOk:" + isCalVccDmiOk.ToString());
}
}
}
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
isCalVccDmiOk = false;
logger.FlushLogBuffer();
return(isCalVccDmiOk);
}
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(isCalVccDmiOk);
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
if (!channelArray.ContainsKey(GlobalParameters.CurrentChannel.ToString().Trim().ToUpper()))
{
channelArray.Add(GlobalParameters.CurrentChannel.ToString().Trim().ToUpper(), GlobalParameters.CurrentChannel.ToString().Trim().ToUpper());
}
else
{
logger.AdapterLogString(0, "Curren Channel had exist");
return(true);
}
if (AnalysisInputParameters(inputParameters) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (selectedEquipList["ATTEN"] != null && selectedEquipList["DUT"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
bool isWriteCoefCOk = false;
bool isWriteCoefBOk = false;
bool isWriteCoefAOk = false;
Attennuator tempAtten = (Attennuator)selectedEquipList["ATTEN"];
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// close apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "ON" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start close apc");
dut.APCOFF();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(500);
bool isclosed = dut.APCStatus(out apcstring);
if (apcstring == "OFF")
{
logoStr += logger.AdapterLogString(1, "APC OFF");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT OFF");
}
}
// close apc
rxPoweruwArray = new double[calRxDmiStruct.ArrayListRxPower.Count];
rxPowerAdcArray = new double[calRxDmiStruct.ArrayListRxPower.Count];
for (byte i = 0; i < calRxDmiStruct.ArrayListRxPower.Count; i++)
{
rxPoweruwArray[i] = algorithm.ChangeDbmtoUw(Convert.ToDouble(calRxDmiStruct.ArrayListRxPower[i])) * 10;
tempAtten.AttnValue(calRxDmiStruct.ArrayListRxPower[i].ToString());
Thread.Sleep(1000);
UInt16 Temp;
dut.ReadRxpADC(out Temp);
rxPowerAdcArray[i] = Convert.ToDouble(Temp);
}
logoStr += logger.AdapterLogString(0, "Step3...Start Fitting Curve");
if (calRxDmiStruct.is1Stor2StorPid == 1)
{
double[] coefArray = algorithm.MultiLine(rxPowerAdcArray, rxPoweruwArray, calRxDmiStruct.ArrayListRxPower.Count, 1);
rxDmiCoefC = (float)coefArray[0];
rxDmiCoefB = (float)coefArray[1];
double[] tempCoefArray = new double[2] {
rxDmiCoefC, rxDmiCoefB
};
rxDmiCoefArray = ArrayList.Adapter(tempCoefArray);
rxDmiCoefArray.Reverse();
for (byte i = 0; i < rxDmiCoefArray.Count; i++)
{
logoStr += logger.AdapterLogString(1, "rxDmiCoefArray[" + i.ToString() + "]=" + rxDmiCoefArray[i].ToString() + " " + algorithm.ByteArraytoString(2, ",", algorithm.INT16To2Bytes(rxDmiCoefArray[i])));
}
logoStr += logger.AdapterLogString(0, "Step4...WriteCoef");
#region W&RRxpcoefc
isWriteCoefCOk = dut.SetRxpcoefc(rxDmiCoefC.ToString());
if (isWriteCoefCOk)
{
isWriteCoefCOk = true;
logoStr += logger.AdapterLogString(1, "WriterxDmiCoefC:" + isWriteCoefCOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "WriterxDmiCoefC:" + isWriteCoefCOk.ToString());
}
#endregion
#region W&R Rxpcoefb
isWriteCoefBOk = dut.SetRxpcoefb(rxDmiCoefB.ToString());
if (isWriteCoefBOk)
{
isWriteCoefBOk = true;
logoStr += logger.AdapterLogString(1, "WriterxDmiCoefB:" + isWriteCoefBOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "WriterxDmiCoefB:" + isWriteCoefBOk.ToString());
}
#endregion
if (isWriteCoefCOk & isWriteCoefBOk)
{
isCalRxDmiOk = true;
logoStr += logger.AdapterLogString(1, "isCalRxDmiOk:" + isCalRxDmiOk.ToString());
}
else
{
isCalRxDmiOk = false;
logoStr += logger.AdapterLogString(3, "isCalRxDmiOk:" + isCalRxDmiOk.ToString());
}
}
else if (calRxDmiStruct.is1Stor2StorPid == 2)
{
double[] coefArray = algorithm.MultiLine(rxPowerAdcArray, rxPoweruwArray, calRxDmiStruct.ArrayListRxPower.Count, 2);
rxDmiCoefC = (float)coefArray[0];
rxDmiCoefB = (float)coefArray[1];
rxDmiCoefA = (float)coefArray[2];
rxDmiCoefArray = ArrayList.Adapter(coefArray);
rxDmiCoefArray.Reverse();
for (byte i = 0; i < rxDmiCoefArray.Count; i++)
{
logoStr += logger.AdapterLogString(1, "rxDmiCoefArray[" + i.ToString() + "]=" + rxDmiCoefArray[i].ToString() + " " + algorithm.ByteArraytoString(2, ",", algorithm.INT16To2Bytes(rxDmiCoefArray[i])));
}
logoStr += logger.AdapterLogString(0, "Step4...WriteCoef");
#region W&RRxpcoefc
isWriteCoefCOk = dut.SetRxpcoefc(rxDmiCoefC.ToString());
if (isWriteCoefCOk)
{
isWriteCoefCOk = true;
logoStr += logger.AdapterLogString(1, "WriterxDmiCoefC:" + isWriteCoefCOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "WriterxDmiCoefC:" + isWriteCoefCOk.ToString());
}
#endregion
#region W&R Rxpcoefb
isWriteCoefBOk = dut.SetRxpcoefb(rxDmiCoefB.ToString());
//dut.ReadRxpcoefb(out tempString);
if (isWriteCoefBOk)
{
isWriteCoefBOk = true;
logoStr += logger.AdapterLogString(1, "WriterxDmiCoefB:" + isWriteCoefBOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "WriterxDmiCoefB:" + isWriteCoefBOk.ToString());
}
#endregion
#region W&R Rxpcoefa
isWriteCoefAOk = dut.SetRxpcoefa(rxDmiCoefA.ToString());
if (isWriteCoefAOk)
{
isWriteCoefAOk = true;
logoStr += logger.AdapterLogString(1, "WriterxDmiCoefA:" + isWriteCoefAOk.ToString());
}
else
{
isWriteCoefAOk = false;
logoStr += logger.AdapterLogString(3, "WriterxDmiCoefA:" + isWriteCoefAOk.ToString());
}
#endregion
if (isWriteCoefCOk & isWriteCoefBOk & isWriteCoefAOk)
{
isCalRxDmiOk = true;
logoStr += logger.AdapterLogString(1, "isCalRxDmiOk:" + isCalRxDmiOk.ToString());
}
else
{
isCalRxDmiOk = false;
logoStr += logger.AdapterLogString(3, "isCalRxDmiOk:" + isCalRxDmiOk.ToString());
}
}
}
else
{
isCalRxDmiOk = false;
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
logger.FlushLogBuffer();
return(isCalRxDmiOk);
}
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(isCalRxDmiOk);
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
if (AnalysisInputParameters(inputParameters) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (selectedEquipList["ERRORDETE"] != null && selectedEquipList["ATTEN"] != null && selectedEquipList["DUT"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
bool isWriteCoefCOk = false;
bool isWriteCoefBOk = false;
bool isWriteCoefAOk = false;
ErrorDetector tempED = (ErrorDetector)selectedEquipList["ERRORDETE"];
Attennuator tempAtt = (Attennuator)selectedEquipList["ATTEN"];
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// add logo infor
logoStr += logger.AdapterLogString(0, "Setp2...SetAttenPoint:" + adjustAPDStruct.ApdCalPoint.ToString());
// add logo infor
bool ok = tempAtt.AttnValue(adjustAPDStruct.ApdCalPoint.ToString());
// add logo infor
logoStr += logger.AdapterLogString(0, ok.ToString());
// close apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "ON" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step3...Start close apc");
dut.APCOFF();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(200);
bool isclosed = dut.APCStatus(out apcstring);
if (apcstring == "OFF")
{
logoStr += logger.AdapterLogString(1, "APC OFF");
}
else
{
logoStr += logger.AdapterLogString(3, "APC OFF");
}
}
// close apc
UInt32[] tempApdArray = new UInt32[adjustAPDStruct.ArrayListApdBiasPoints.Count];
for (byte i = 0; i < adjustAPDStruct.ArrayListApdBiasPoints.Count; i++)
{
tempApdArray[i] = Convert.ToUInt32(adjustAPDStruct.ArrayListApdBiasPoints[i].ToString());
}
logoStr += logger.AdapterLogString(0, "Step4...StartCalApd");
ArrayList tempBerArray = new ArrayList();
ArrayList tempApdDacArray = new ArrayList();
double minBer = -1;
UInt32 targetAPDAC = EnumMethod(tempApdArray, dut, tempED, adjustAPDStruct.ApdBiasStep, out tempBerArray, out tempApdDacArray, out minBer);
minBer = Math.Round(minBer, 5);
for (byte i = 0; i < Math.Min(tempBerArray.Count, tempApdDacArray.Count); i++)
{
logoStr += logger.AdapterLogString(1, GlobalParameters.CurrentChannel.ToString());
logoStr += logger.AdapterLogString(1, tempApdDacArray[i].ToString() + " " + tempApdDacArray[i].ToString());
}
logoStr += logger.AdapterLogString(1, "minApdDac=" + targetAPDAC.ToString() + " minBer=" + minBer.ToString());
isApdAdjustOK = true;
#region CheckTempChange
if (!tempratureADCArray.ContainsKey(GlobalParameters.CurrentTemp.ToString().Trim().ToUpper()))
{
logoStr += logger.AdapterLogString(0, "Step4...TempChanged Read tempratureADC");
logoStr += logger.AdapterLogString(1, "realtemprature=" + GlobalParameters.CurrentTemp.ToString());
UInt16 tempratureADC;
dut.ReadTempADC(out tempratureADC, 1);
logoStr += logger.AdapterLogString(1, "tempratureADC=" + tempratureADC.ToString());
tempratureADCArray.Add(GlobalParameters.CurrentTemp.ToString().Trim().ToUpper(), tempratureADC.ToString().Trim());
tempratureADCArrayList.Add(tempratureADC);
}
#endregion
#region add current channel
if (!adjustAPDtValueRecordsStruct.ContainsKey(GlobalParameters.CurrentChannel.ToString().Trim().ToUpper()))
{
logoStr += logger.AdapterLogString(0, "Step6...add current channel records");
logoStr += logger.AdapterLogString(1, "GlobalParameters.CurrentChannel=" + GlobalParameters.CurrentChannel.ToString());
adjustAPDtValueRecordsStruct.Add(GlobalParameters.CurrentChannel.ToString().Trim().ToUpper(), new ArrayList());
adjustAPDtValueRecordsStruct[GlobalParameters.CurrentChannel.ToString().Trim().ToUpper()].Add(targetAPDAC);
}
else
{
adjustAPDtValueRecordsStruct[GlobalParameters.CurrentChannel.ToString().Trim().ToUpper()].Add(targetAPDAC);
}
#endregion
#region CurveCoef
if (adjustAPDtValueRecordsStruct.ContainsKey(GlobalParameters.CurrentChannel.ToString().Trim().ToUpper()))
{
if (tempratureADCArray.Count >= 2 && adjustAPDtValueRecordsStruct[GlobalParameters.CurrentChannel.ToString().Trim().ToUpper()].Count >= 2)
{
int tempCount = Math.Min(tempratureADCArray.Count, adjustAPDtValueRecordsStruct[GlobalParameters.CurrentChannel.ToString().Trim().ToUpper()].Count);
double[] tempAPDDacArray = new double[tempCount];
double[] tempTempAdcArray = new double[tempCount];
for (byte i = 0; i < tempCount; i++)
{
tempAPDDacArray[i] = double.Parse(adjustAPDtValueRecordsStruct[GlobalParameters.CurrentChannel.ToString().Trim().ToUpper()][i].ToString());
tempTempAdcArray[i] = double.Parse(tempratureADCArrayList[i].ToString());
}
logoStr += logger.AdapterLogString(0, "Step8...Start Fitting Curve");
if (adjustAPDStruct.is1Stor2StorPid == 2)
{
double[] coefArray = algorithm.MultiLine(tempTempAdcArray, tempAPDDacArray, tempratureADCArray.Count, 2);
apdPowerCoefC = (float)coefArray[0];
apdPowerCoefB = (float)coefArray[1];
apdPowerCoefA = (float)coefArray[2];
apdCoefArray = ArrayList.Adapter(coefArray);
apdCoefArray.Reverse();
for (byte i = 0; i < apdCoefArray.Count; i++)
{
logoStr += logger.AdapterLogString(1, "apdCoefArray[" + i.ToString() + "]=" + apdCoefArray[i].ToString() + " " + algorithm.ByteArraytoString(2, ",", algorithm.FloatToIEE754(apdCoefArray[i])));
}
logoStr += logger.AdapterLogString(0, "Step9...WriteCoef");
#region W&R Apddaccoefc
isWriteCoefCOk = dut.SetBiasdaccoefc(apdPowerCoefC.ToString());
if (isWriteCoefCOk)
{
isWriteCoefCOk = true;
logoStr += logger.AdapterLogString(1, "isWriteCoefCOk:" + isWriteCoefCOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "isWriteCoefCOk:" + isWriteCoefCOk.ToString());
}
#endregion
#region W&R Apddaccoefb
isWriteCoefBOk = dut.SetBiasdaccoefb(apdPowerCoefB.ToString());
if (isWriteCoefBOk)
{
isWriteCoefBOk = true;
logoStr += logger.AdapterLogString(1, "isWriteCoefBOk:" + isWriteCoefBOk.ToString());
}
else
{
isWriteCoefBOk = false;
logoStr += logger.AdapterLogString(3, "isWriteCoefBOk:" + isWriteCoefBOk.ToString());
}
#endregion
#region W&R Apddaccoefa
isWriteCoefAOk = dut.SetBiasdaccoefa(apdPowerCoefA.ToString());
if (isWriteCoefAOk)
{
isWriteCoefAOk = true;
logoStr += logger.AdapterLogString(1, "isWriteCoefAOk:" + isWriteCoefAOk.ToString());
}
else
{
isWriteCoefAOk = false;
logoStr += logger.AdapterLogString(3, "isWriteCoefAOk:" + isWriteCoefAOk.ToString());
}
#endregion
if (isWriteCoefAOk & isWriteCoefBOk & isWriteCoefCOk)
{
isCalApdPowerOk = true;
logoStr += logger.AdapterLogString(1, "isCalApdPowerOk:" + isCalApdPowerOk.ToString());
}
else
{
isCalApdPowerOk = false;
logoStr += logger.AdapterLogString(3, "isCalApdPowerOk:" + isCalApdPowerOk.ToString());
}
}
else if (adjustAPDStruct.is1Stor2StorPid == 1)
{
double[] coefArray = algorithm.MultiLine(tempTempAdcArray, tempAPDDacArray, tempratureADCArray.Count, 1);
apdPowerCoefC = (float)coefArray[0];
apdPowerCoefB = (float)coefArray[1];
apdPowerCoefA = (float)coefArray[2];
apdCoefArray = ArrayList.Adapter(coefArray);
apdCoefArray.Reverse();
for (byte i = 0; i < apdCoefArray.Count; i++)
{
logoStr += logger.AdapterLogString(1, "apdCoefArray[" + i.ToString() + "]=" + apdCoefArray[i].ToString() + " " + algorithm.ByteArraytoString(2, ",", algorithm.FloatToIEE754(apdCoefArray[i])));
}
logoStr += logger.AdapterLogString(0, "Step9...WriteCoef");
#region W&R Apddaccoefc
isWriteCoefCOk = dut.SetBiasdaccoefc(apdPowerCoefC.ToString());
if (isWriteCoefCOk)
{
isWriteCoefCOk = true;
logoStr += logger.AdapterLogString(1, "isWriteCoefCOk:" + isWriteCoefCOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "isWriteCoefCOk:" + isWriteCoefCOk.ToString());
}
#endregion
#region W&R Apddaccoefb
isWriteCoefBOk = dut.SetBiasdaccoefb(apdPowerCoefB.ToString());
if (isWriteCoefBOk)
{
isWriteCoefBOk = true;
logoStr += logger.AdapterLogString(0, "isWriteCoefBOk:" + isWriteCoefBOk.ToString());
}
else
{
isWriteCoefBOk = false;
logoStr += logger.AdapterLogString(3, "isWriteCoefBOk:" + isWriteCoefBOk.ToString());
}
#endregion
if (isWriteCoefBOk & isWriteCoefCOk)
{
isCalApdPowerOk = true;
logoStr += logger.AdapterLogString(1, "isCalApdPowerOk:" + isCalApdPowerOk.ToString());
}
else
{
isCalApdPowerOk = false;
logoStr += logger.AdapterLogString(3, "isCalApdPowerOk:" + isCalApdPowerOk.ToString());
}
}
}
}
#endregion
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(isApdAdjustOK);
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
isApdAdjustOK = false;
logger.FlushLogBuffer();
return(isApdAdjustOK);
}
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
if (AnalysisInputParameters(inputParameters) == false)
{
return(false);
}
if (selectedEquipList["ATTEN"] != null && selectedEquipList["ERRORDETE"] != null && selectedEquipList["DUT"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// open apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "OFF" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start Open apc");
dut.APCON();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(200);
bool isOpen = dut.APCStatus(out apcstring);
if (apcstring == "ON")
{
logoStr += logger.AdapterLogString(1, "APC ON");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT ON");
}
}
// open apc
Attennuator tempAtten = (Attennuator)selectedEquipList["ATTEN"];
ErrorDetector tempED = (ErrorDetector)selectedEquipList["ERRORDETE"];
logoStr += logger.AdapterLogString(0, "Step3...SetAttenValue");
SetAttenValue(tempAtten, testBerStruct.CsenAlignRxPwr);
Thread.Sleep(200);
tempAtten.Switch(true);
double attPoint = 0;
logoStr += logger.AdapterLogString(0, "Step4...AutoAlaign");
bool isAutoAlaign = tempED.AutoAlaign(true);
if (isAutoAlaign)
{
logoStr += logger.AdapterLogString(1, isAutoAlaign.ToString());
}
else
{
logoStr += logger.AdapterLogString(4, isAutoAlaign.ToString());
logger.FlushLogBuffer();
return(isAutoAlaign);
}
if (isAutoAlaign)
{
if (testBerStruct.IsBerQuickTest == true)
{
tempAtten.AttnValue(testBerStruct.CsenStartingRxPwr.ToString());
Thread.Sleep(200);
double sensitivity = tempED.GetErrorRate();
logoStr += logger.AdapterLogString(1, "SetAtten=" + testBerStruct.CsenStartingRxPwr.ToString());
if (sensitivity.ToString().ToUpper().Trim() == "NAN")
{
sensitivityPoint = -1000;
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(false);
}
if (testBerStruct.CsenTargetBER == 1E-3)
{
if (sensitivity <= 1E-3)
{
sensitivityPoint = testBerStruct.CsenStartingRxPwr;
}
else
{
sensitivityPoint = -1000;
logoStr += logger.AdapterLogString(4, "AttPoint=" + testBerStruct.CsenStartingRxPwr.ToString() + "CSENCE>1E-3 ");
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(false);
}
}
else if (testBerStruct.CsenTargetBER == 1E-12)
{
if (sensitivity <= 1E-12)
{
sensitivityPoint = testBerStruct.CsenStartingRxPwr;
}
else
{
sensitivityPoint = -1000;
logoStr += logger.AdapterLogString(4, "AttPoint=" + testBerStruct.CsenStartingRxPwr.ToString() + "CSENCE>1E-12 ");
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(false);
}
}
sensitivityPoint = Math.Round(sensitivityPoint, 2);
logoStr += logger.AdapterLogString(1, "sensitivityPoint= " + sensitivityPoint.ToString());
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(true);
}
else
{
logoStr += logger.AdapterLogString(0, "Step5...SerchTargetPoint");
attPoint = SerchTargetPoint(tempAtten, tempED, testBerStruct.CsenStartingRxPwr, testBerStruct.SearchTargetBerLL, testBerStruct.SearchTargetBerUL, testBerStruct.SearchTargetBerAddStep, testBerStruct.SearchTargetBerSubStep);
logoStr += logger.AdapterLogString(1, "SetAtten=" + attPoint.ToString());
ArrayList attPoints;
ArrayList berPoints;
double intercept;
double slope;
logoStr += logger.AdapterLogString(0, "Step6...SerchCoefPoints");
if (testBerStruct.CsenTargetBER == 1E-3)
{
SerchCoefPointsTarget1E3(tempAtten, tempED, attPoint, testBerStruct.CsenTargetBER, testBerStruct.CoefCsenSubStep, testBerStruct.CoefCsenAddStep, out attPoints, out berPoints);
byte tmepCount = (byte)Math.Min(attPoints.Count, berPoints.Count);
double[] tempattPoints = new double[tmepCount];
double[] tempberPoints = new double[tmepCount];
for (byte i = 0; i < tmepCount; i++)
{
tempattPoints[i] = double.Parse(attPoints[i].ToString());
tempberPoints[i] = double.Parse(berPoints[i].ToString());
logoStr += logger.AdapterLogString(1, "attPoints[ " + i.ToString() + "]" + double.Parse(attPoints[i].ToString()) + " " + "berPoints[ " + i.ToString() + "]" + double.Parse(berPoints[i].ToString()));
}
algorithm.LinearRegression(algorithm.Getlog10(algorithm.GetNegative(algorithm.Getlog10(tempberPoints))), tempattPoints, out slope, out intercept);
sensitivityPoint = slope + (intercept * System.Math.Log10(System.Math.Log10(testBerStruct.CsenTargetBER) * (-1)));
}
else if (testBerStruct.CsenTargetBER == 1E-12)
{
SerchCoefPoints1E12(tempAtten, tempED, attPoint, testBerStruct.CsenTargetBER, testBerStruct.CoefCsenSubStep, testBerStruct.CoefCsenAddStep, out attPoints, out berPoints);
byte tmepCount = (byte)Math.Min(attPoints.Count, berPoints.Count);
double[] tempattPoints = new double[tmepCount];
double[] tempberPoints = new double[tmepCount];
for (byte i = 0; i < tmepCount; i++)
{
tempattPoints[i] = double.Parse(attPoints[i].ToString());
tempberPoints[i] = double.Parse(berPoints[i].ToString());
logoStr += logger.AdapterLogString(1, "attPoints[ " + i.ToString() + "]" + double.Parse(attPoints[i].ToString()) + " " + "berPoints[ " + i.ToString() + "]" + double.Parse(berPoints[i].ToString()));
}
algorithm.LinearRegression(algorithm.Getlog10(algorithm.GetNegative(algorithm.Getlog10(tempberPoints))), tempattPoints, out slope, out intercept);
sensitivityPoint = slope + (intercept * System.Math.Log10(System.Math.Log10(testBerStruct.CsenTargetBER) * (-1)));
}
if (sensitivityPoint.ToString().ToUpper().Trim() == "NAN")
{
sensitivityPoint = -1000;
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(false);
}
sensitivityPoint = Math.Round(sensitivityPoint, 2);
logoStr += logger.AdapterLogString(1, "sensitivityPoint= " + sensitivityPoint.ToString());
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(true);
}
}
else
{
logger.FlushLogBuffer();
return(false);
}
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
logger.FlushLogBuffer();
return(false);
}
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
IList <string> tempKeys = realTempratureArray.Keys;
for (byte i = 0; i < tempKeys.Count; i++)
{
if (tempKeys[i].ToUpper().Substring(0, tempKeys[i].ToUpper().Length - 1) == (GlobalParameters.CurrentTemp.ToString().Trim().ToUpper()))
{
logger.AdapterLogString(0, "Current temprature had exist");
return(true);
}
}
if (AnalysisInputParameters(inputParameters) == false)
{
return(false);
}
if (selectedEquipList["DUT"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
bool isWriteCoefCOk = false;
bool isWriteCoefBOk = false;
bool isWriteCoefAOk = false;
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// close apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "ON" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start close apc");
dut.APCOFF();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(500);
bool isclosed = dut.APCStatus(out apcstring);
if (apcstring == "OFF")
{
logoStr += logger.AdapterLogString(1, "APC OFF");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT OFF");
}
}
// close apc
#region CheckTempChange
if (!realTempratureArray.ContainsKey(GlobalParameters.CurrentTemp.ToString().Trim().ToUpper()))
{
logoStr += logger.AdapterLogString(0, "Step3...TempChanged Read tempratureADC");
for (byte i = 0; i < GlobalParameters.TotalTempCount; i++)
{
realTempratureArray.Add(GlobalParameters.CurrentTemp.ToString().Trim().ToUpper() + i.ToString().ToUpper().Trim(), GlobalParameters.CurrentTemp.ToString().Trim());
logoStr += logger.AdapterLogString(1, "realtemprature=" + i.ToString() + GlobalParameters.CurrentTemp.ToString());
UInt16 tempratureADC;
dut.ReadTempADC(out tempratureADC, (byte)(i + 1));
logoStr += logger.AdapterLogString(1, "tempratureADC" + i.ToString() + tempratureADC.ToString());
tempratureADCArray.Add(GlobalParameters.CurrentTemp.ToString().Trim().ToUpper() + i.ToString().ToUpper().Trim(), tempratureADC.ToString().Trim());
}
}
#endregion
int tempCount = 0;
tempCount = Math.Min(tempratureADCArray.Count / GlobalParameters.TotalTempCount, realTempratureArray.Count / GlobalParameters.TotalTempCount);
double[,] tempTempAdcArray = new double[GlobalParameters.TotalTempCount, tempCount];
double[,] tempTempValueArray = new double[GlobalParameters.TotalTempCount, tempCount];
logoStr += logger.AdapterLogString(0, "Step4...Start Fitting Curve");
if (tempCount >= 2)
{
for (byte i = 0; i < GlobalParameters.TotalTempCount; i++)
{
int tempcount1 = 0;
for (byte j = 0; j < Math.Min(realTempratureArray.Count, tempratureADCArray.Count); j++)
{
int tempstr2 = tempratureADCArray.Keys[j].ToUpper().Length;
string tempstring = tempratureADCArray.Keys[j].ToUpper().Substring(tempratureADCArray.Keys[j].ToUpper().Length - 1, 1);
string iStr = i.ToString().ToUpper().Trim();
if (tempstring == iStr)
{
tempTempAdcArray[i, tempcount1] = double.Parse(tempratureADCArray.Values[j]);
tempTempValueArray[i, tempcount1] = double.Parse(realTempratureArray.Values[j]);
tempcount1++;
}
}
}
for (byte i = 0; i < GlobalParameters.TotalTempCount; i++)
{
for (byte j = 0; j < tempCount; j++)
{
tempTempValueArray[i, j] = tempTempValueArray[i, j] * 256;
}
}
double[] adcArray = new double[tempCount];
double[] realArray = new double[tempCount];
if (calTempDmiStruct.is1Stor2StorPid == 2)
{
for (byte i = 0; i < GlobalParameters.TotalTempCount; i++)
{
for (byte j = 0; j < tempCount; j++)
{
adcArray[j] = tempTempAdcArray[i, j];
realArray[j] = tempTempValueArray[i, j];
}
double[] coefArray = algorithm.MultiLine(adcArray, realArray, tempCount, 2);
tempDmiCoefC = (float)coefArray[0];
tempDmiCoefB = (float)coefArray[1];
tempDmiCoefA = (float)coefArray[2];
tempDmiCoefArray = ArrayList.Adapter(coefArray);
tempDmiCoefArray.Reverse();
for (byte k = 0; k < tempDmiCoefArray.Count; k++)
{
logoStr += logger.AdapterLogString(1, "tempDmiCoefArray[" + k.ToString() + "]=" + tempDmiCoefArray[k].ToString() + " " + algorithm.ByteArraytoString(2, ",", algorithm.INT16To2Bytes(tempDmiCoefArray[k])));
}
logoStr += logger.AdapterLogString(0, "Step5...WriteCoef");
#region W&R Tempcoefc
isWriteCoefCOk = dut.SetTempcoefc(tempDmiCoefC.ToString(), (byte)(i + 1));
if (isWriteCoefCOk)
{
isWriteCoefCOk = true;
logoStr += logger.AdapterLogString(1, "WritetempDmiCoefC:" + isWriteCoefCOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "WritetempDmiCoefC:" + isWriteCoefCOk.ToString());
}
#endregion
#region W&R Tempcoefb
isWriteCoefBOk = dut.SetTempcoefb(tempDmiCoefB.ToString(), (byte)(i + 1));
if (isWriteCoefBOk)
{
isWriteCoefBOk = true;
logoStr += logger.AdapterLogString(1, "WritetempDmiCoefB:" + isWriteCoefBOk.ToString());
}
else
{
isWriteCoefBOk = false;
logoStr += logger.AdapterLogString(3, "WritetempDmiCoefB:" + isWriteCoefBOk.ToString());
}
#endregion
#region W&R Tempcoefa
//isWriteCoefAOk = dut.SetTempcoefa(tempDmiCoefA.ToString(), i + 1);
if (isWriteCoefAOk)
{
isWriteCoefAOk = true;
logoStr += logger.AdapterLogString(1, "WritetempDmiCoefA:" + isWriteCoefAOk.ToString());
}
else
{
isWriteCoefAOk = false;
logoStr += logger.AdapterLogString(3, "WritetempDmiCoefA:" + isWriteCoefAOk.ToString());
}
#endregion
if (isWriteCoefAOk & isWriteCoefBOk & isWriteCoefCOk)
{
isCalTempDmiOk = true;
logoStr += logger.AdapterLogString(1, "isCalTempDmiOk:" + isCalTempDmiOk.ToString());
}
else
{
isCalTempDmiOk = false;
logoStr += logger.AdapterLogString(3, "isCalTempDmiOk:" + isCalTempDmiOk.ToString());
}
}
}
else if (calTempDmiStruct.is1Stor2StorPid == 1)
{
for (byte i = 0; i < GlobalParameters.TotalTempCount; i++)
{
for (byte j = 0; j < tempCount; j++)
{
adcArray[j] = tempTempAdcArray[i, j];
realArray[j] = tempTempValueArray[i, j];
}
double[] coefArray = algorithm.MultiLine(adcArray, realArray, tempCount, 1);
tempDmiCoefC = (float)coefArray[0];
tempDmiCoefB = (float)coefArray[1];
double[] tempCoefArray = new double[2] {
tempDmiCoefC, tempDmiCoefB
};
tempDmiCoefArray = ArrayList.Adapter(tempCoefArray);
tempDmiCoefArray.Reverse();
for (byte k = 0; k < tempDmiCoefArray.Count; k++)
{
logoStr += logger.AdapterLogString(1, "tempDmiCoefArray[" + k.ToString() + "]=" + tempDmiCoefArray[k].ToString() + " " + algorithm.ByteArraytoString(2, ",", algorithm.INT16To2Bytes(tempDmiCoefArray[k])));
}
logoStr += logger.AdapterLogString(0, "Step5...WriteCoef");
#region W&R Tempcoefc
isWriteCoefCOk = dut.SetTempcoefc(tempDmiCoefC.ToString(), (byte)(i + 1));
if (isWriteCoefCOk)
{
isWriteCoefCOk = true;
logoStr += logger.AdapterLogString(1, "WritetempDmiCoefC:" + isWriteCoefCOk.ToString());
}
else
{
isWriteCoefCOk = false;
logoStr += logger.AdapterLogString(3, "WritetempDmiCoefC:" + isWriteCoefCOk.ToString());
}
#endregion
#region W&R Tempcoefb
isWriteCoefBOk = dut.SetTempcoefb(tempDmiCoefB.ToString(), (byte)(i + 1));
if (isWriteCoefBOk)
{
isWriteCoefBOk = true;
logoStr += logger.AdapterLogString(1, "WritetempDmiCoefB:" + isWriteCoefBOk.ToString());
}
else
{
isWriteCoefBOk = false;
logoStr += logger.AdapterLogString(3, "WritetempDmiCoefB:" + isWriteCoefBOk.ToString());
}
#endregion
if (isWriteCoefBOk & isWriteCoefCOk)
{
isCalTempDmiOk = true;
logoStr += logger.AdapterLogString(1, "isCalTempDmiOk:" + isCalTempDmiOk.ToString());
}
else
{
isCalTempDmiOk = false;
logoStr += logger.AdapterLogString(3, "isCalTempDmiOk:" + isCalTempDmiOk.ToString());
}
}
}
}
else
{
logoStr += logger.AdapterLogString(0, "TempCount<2:");
isCalTempDmiOk = true;
}
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
isCalTempDmiOk = false;
logger.FlushLogBuffer();
return(isCalTempDmiOk);
}
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(isCalTempDmiOk);
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
if (AnalysisInputParameters(inputParameters) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (PrepareEnvironment(selectedEquipList) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (selectedEquipList["SCOPE"] != null && selectedEquipList["DUT"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
Scope tempScope = (Scope)selectedEquipList["SCOPE"];
// open apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "OFF" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start Open apc");
dut.APCON();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(200);
bool isOpen = dut.APCStatus(out apcstring);
if (apcstring == "ON")
{
logoStr += logger.AdapterLogString(1, "APC ON");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT ON");
}
}
// open apc
logoStr += logger.AdapterLogString(0, "Step3...Read DCA TxPower");
txDCAPowerDmi = tempScope.GetAveragePowerdbm();
logoStr += logger.AdapterLogString(1, "txDCAPowerDmi:" + txDCAPowerDmi.ToString());
logoStr += logger.AdapterLogString(0, "Step4...Read DUT Txpower");
txPowerDmi = dut.ReadDmiTxp();
logoStr += logger.AdapterLogString(1, "txPowerDmi:" + txPowerDmi.ToString());
txDmiPowerErr = txPowerDmi - txDCAPowerDmi;
logoStr += logger.AdapterLogString(1, "txDmiPowerErr:" + txDmiPowerErr.ToString());
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return(true);
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
logger.FlushLogBuffer();
return(false);
}
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
if (AnalysisInputParameters(inputParameters) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (selectedEquipList["DUT"] != null && selectedEquipList["ATTEN"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
Attennuator tempAtt = (Attennuator)selectedEquipList["ATTEN"];
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// close apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "ON" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start close apc");
dut.APCOFF();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(200);
bool isclosed = dut.APCStatus(out apcstring);
if (apcstring == "OFF")
{
logoStr += logger.AdapterLogString(1, "APC OFF");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT OFF");
}
}
// close apc
logoStr += logger.AdapterLogString(0, "Step3...Start Adjust LosA");
if (adjustLosStruct.islosalosdcombin)
{
logoStr += logger.AdapterLogString(1, "Set LosA RxPower:" + adjustLosStruct.LosAInputPower.ToString());
tempAtt.AttnValue(adjustLosStruct.LosAInputPower.ToString());
isLosA = LosAEqualLosDAdjust(adjustLosStruct.LosAVoltageStartValue, adjustLosStruct.LosAVoltageTuneStep, adjustLosStruct.LosAVoltageUperLimit, adjustLosStruct.LosAVoltageLowLimit, dut, adjustLosStruct.LosToleranceStep, out targetLosAac);
logoStr += logger.AdapterLogString(1, "targetLosADac=" + targetLosDac.ToString());
logoStr += logger.AdapterLogString(1, isLosA.ToString());
}
else
{
logoStr += logger.AdapterLogString(1, "Set LosA RxPower:" + adjustLosStruct.LosAInputPower.ToString());
tempAtt.AttnValue(adjustLosStruct.LosAInputPower.ToString());
isLosA = OneSectionMethodLosAdjust(adjustLosStruct.LosAVoltageStartValue, adjustLosStruct.LosAVoltageTuneStep, adjustLosStruct.LosAVoltageUperLimit, adjustLosStruct.LosAVoltageLowLimit, dut, adjustLosStruct.LosToleranceStep, out targetLosDac);
logoStr += logger.AdapterLogString(1, "targetLosADac=" + targetLosDac.ToString());
logoStr += logger.AdapterLogString(1, isLosA.ToString());
logoStr += logger.AdapterLogString(0, "Step4...Start Adjust LosD");
logoStr += logger.AdapterLogString(1, "Set LosD RxPower:" + adjustLosStruct.LosDInputPower.ToString());
tempAtt.AttnValue(adjustLosStruct.LosDInputPower.ToString());
isLosD = OneSectionMethodLosDAdjust(adjustLosStruct.LosDVoltageStartValue, adjustLosStruct.LosDVoltageTuneStep, adjustLosStruct.LosDVoltageUperLimit, adjustLosStruct.LosDVoltageLowLimit, dut, adjustLosStruct.LosToleranceStep, out targetLosDac);
logoStr += logger.AdapterLogString(1, "targetLosDDac=" + targetLosDac.ToString());
logoStr += logger.AdapterLogString(1, isLosD.ToString());
}
AnalysisOutputParameters(outputParameters);
if (adjustLosStruct.islosalosdcombin)
{
logger.FlushLogBuffer();
return(isLosA);
}
else
{
logger.FlushLogBuffer();
return(isLosA == true && isLosD == true);
}
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
logger.FlushLogBuffer();
return(false);
}
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
if (AnalysisInputParameters(inputParameters) == false)
{
logger.FlushLogBuffer();
return(false);
}
bool isLosA = false;
bool isLosD = true;
double tempRxPoint;
tempRxPoint = testRXLosADStruct.LosAMax;
if (selectedEquipList["DUT"] != null && selectedEquipList["ATTEN"] != null && selectedEquipList["POWERSUPPLY"] != null)
{
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// open apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "OFF" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start Open apc");
dut.APCON();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(200);
bool isOpen = dut.APCStatus(out apcstring);
if (apcstring == "ON")
{
logoStr += logger.AdapterLogString(0, "APC ON");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT ON");
}
}
// open apc
Attennuator tempAtten = (Attennuator)selectedEquipList["ATTEN"];
logoStr += logger.AdapterLogString(0, "Step3...TestLosA");
if (testRXLosADStruct.isLosDetail)
{
isLosA = LOSADetailTest(tempAtten, tempRxPoint, false);
}
else
{
isLosA = LOSAQuickTest(tempAtten, testRXLosADStruct.LosAMin, false);
}
if (isLosA == false)
{
logoStr += logger.AdapterLogString(3, "losA=" + isLosA.ToString());
return(false);
}
tempRxPoint = losA;
logoStr += logger.AdapterLogString(1, "losA=" + losA.ToString());
logoStr += logger.AdapterLogString(0, "Step5...TestLosD");
if (testRXLosADStruct.isLosDetail)
{
isLosD = LOSDDetailTest(tempAtten, tempRxPoint, true);
}
else
{
isLosD = LOSDQuickTest(tempAtten, testRXLosADStruct.LosDMax, true);
}
if (isLosD == false)
{
logoStr += logger.AdapterLogString(3, "losD=" + (!isLosD).ToString());
return(false);
}
losH = losD - losA;
logoStr += logger.AdapterLogString(1, "losD=" + losD.ToString() + "losH=" + losH.ToString());
AnalysisOutputParameters(outputParameters);
logger.FlushLogBuffer();
return((isLosD == true) && (isLosA == true));
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
logger.FlushLogBuffer();
return(false);
}
}
protected override bool StartTest()
{
logger.FlushLogBuffer();
logoStr = "";
//// 是否要测试需要添加判定
if (AnalysisInputParameters(inputParameters) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (PrepareEnvironment(selectedEquipList) == false)
{
logger.FlushLogBuffer();
return(false);
}
if (selectedEquipList["POWERSUPPLY"] != null && selectedEquipList["SCOPE"] != null)
{
Powersupply tempps = (Powersupply)selectedEquipList["POWERSUPPLY"];
// open apc
string apcstring = null;
dut.APCStatus(out apcstring);
if (apcstring == "OFF" || apcstring == "FF")
{
logoStr += logger.AdapterLogString(0, "Step2...Start Open apc");
dut.APCON();
logoStr += logger.AdapterLogString(0, "Power off");
tempps.Switch(false);
Thread.Sleep(200);
logoStr += logger.AdapterLogString(0, "Power on");
tempps.Switch(true);
Thread.Sleep(200);
bool isOpen = dut.APCStatus(out apcstring);
if (apcstring == "ON")
{
logoStr += logger.AdapterLogString(1, "APC ON");
}
else
{
logoStr += logger.AdapterLogString(3, "APC NOT ON");
}
}
// open apc
logoStr += logger.AdapterLogString(0, "Step3...StartTestOptical Eye");
if (testEyeStruct.isOpticalEyeORElecEye)
{
logoStr += logger.AdapterLogString(0, "OpticalEyeTest");
OpticalTest();
}
else
{
logoStr += logger.AdapterLogString(0, "ElecEyeTest");
ElecTest();
}
AnalysisOutputParameters(outputParameters);//test
logger.FlushLogBuffer();
return(true);
}
else
{
logoStr += logger.AdapterLogString(4, "Equipments is not enough!");
logger.FlushLogBuffer();
return(false);
}
}