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ExtInstrument_Cal/Testrong.User.Program/UserProgram.cs
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YuYang Shen 18a986a128 Create Func : metadata_handler() 
Merged Func: WriteSingleFilePmu() + WriteSingleFileDps()
2025-03-18 16:03:59 +08:00

3179 lines
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using System.Collections.Generic;
using System.Linq;
using Testrong.Core.Common;
using Testrong.Core.Communicate;
using Testrong.Core.Primitives.Extend;
using Testrong.Core.Primitives;
using Testrong.Core.Model.Ppmu;
using Testrong.Core.Model.Relay;
using Testrong.Core.Primitives.TestrongSystem;
using Testrong.Core.Model.Dps;
using Testrong.Core.Model.ChannelMap;
using Testrong.Core.Model.Pattern;
using Testrong.Core.Model.Enums;
using Testrong.Core.Model.ACTiming;
using Testrong.Core.Primitives.Interface;
using System;
using System.Text;
using System.IO;
using System.Threading;
using ExternalCalibration;
using System.Runtime.Remoting.Contexts;
using System.Collections;
using Testrong.Core.Model;
using System.Globalization;
using Testrong.Core.Primitives.TestrongSystem.Obsolete;
using System.ComponentModel;
using System.Xml.Linq;
using Newtonsoft.Json;
using Newtonsoft.Json.Linq;
using Testrong.Core.Model.Binning;
using System.Runtime.CompilerServices;
using System.Xml.Serialization;
using System.Diagnostics.Contracts;
using Testrong.Core.Primitives.Service.AcTiming;
using System.Data.SqlClient;
using System.Text.RegularExpressions;
namespace Testrong.User.Program
{
public enum TestVersion
{
Board_1K_FT,
Board_1K_CP,
Board_2K_FT,
Board_2K_CP,
Board_Ppmu_CP,
Board_Ppmu_FT,
KM_2
}
public class TestParaSet
{
public int delayMs;
public int avgTimes;
public double samDelay;
}
public class TestInfoSet
{
public string chType;
public string Mode;
public List<string> Range;
public List<int> Channel;
}
public class Json
{
public int Version { get; set; }
public bool Default { get; set; }
public List<int> PMU_FVMV { get; set; }
public List<int> PMU_FVMI { get; set; }
public List<int> PMU_FIMV { get; set; }
public List<int> PMU_FZMV { get; set; }
public List<int> DPS_FVMV { get; set; }
public List<int> DPS_FVMI { get; set; }
public List<int> DPS_FIMV { get; set; }
}
public class UserProgram : TestrongCode
{
//-----global Parameters-----
#region 路径定义
const string EXT_CAL_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\ExtCal\\";
const string EXT_CAL_MV_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\ExtCal_bak\\";
const string EXT_CAL_HISTORY_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\ExtCal_History\\";
const string EXT_CAL_INIT_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\Init_Files\\";
const string EXT_CAL_FREQ_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\Ext_Freq\\";
const string EXT_CAL_FREQ_HISTORY_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\Ext_FreqHistory\\";
const string EXT_CAL_INITVALUE_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\DPSPPMUParam\\";
const string DOWN_INITVALUE_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\DownInitValue\\";
const string EXT_CAL_BOARDINFO_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\DeliverInspection\\BoardInfo\\";
const string CAL_COMPFILE_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\ExtInstrumentCalRecord\\CalResult\\";
const string CAL_PRECHECK_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\ExtInstrumentCalRecord\\PreCheck\\";
const string CAL_POSTCHECK_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\ExtInstrumentCalRecord\\PostCheck\\";
const string RINT_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\RintCal\\";
const string RINT_COMPFILE_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\RintCal\\CalResult\\";
const string RINT_FILE_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\RintCal\\PMUR\\";
const string RINT_PRECHECK_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\RintCal\\PreCheck\\";
const string RINT_POSTCHECK_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\RintCal\\PostCheck\\";
const string RINT_FAILLOG_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\RintCal\\FailResult\\";
const string RETEST_LOG_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\ExtInstrumentCalRecord\\FailLog.csv";
const string CONFIG_JSON_PATH = "C:\\ProgramData\\Testrong\\ATE_Tester\\CalibrationLog\\Init_Files\\config.json";
const string METADATA_PATH = EXT_CAL_PATH + "metadata" + ".csv";
#endregion
#region FVMV
Dictionary<string, TestParaSet> avgDelays_fvmv_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 40, avgTimes = 64, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_fvmv_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 40, avgTimes = 64, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"1A", new TestParaSet{delayMs = 30, avgTimes = 128, samDelay = 100 } },
};
#endregion
#region FZMV
Dictionary<string, TestParaSet> avgDelays_fzmv_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 30, avgTimes = 64, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100 } },
};
#endregion
#region FIMV PMU
Dictionary<string, TestParaSet> avgDelays_1kft_fimv_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 60, avgTimes = 128, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_1kcp_fimv_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 60, avgTimes = 128, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_2kft_fimv_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 60, avgTimes = 128, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 128, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_ppmucp_fimv_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 60, avgTimes = 255, samDelay = 300 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 128, samDelay = 300 } },
{"200uA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 300 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_ppmuft_fimv_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 60, avgTimes = 255, samDelay = 300 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 128, samDelay = 300 } },
{"200uA", new TestParaSet{delayMs = 30, avgTimes = 64, samDelay = 300 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_2km_fimv_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 60, avgTimes = 255, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 128, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
};
#endregion
#region FIMV DPS
Dictionary<string, TestParaSet> avgDelays_1kft_fimv_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 250, avgTimes = 64, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 70, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_1kcp_fimv_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 250, avgTimes = 64, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 70, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_2kft_fimv_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 250, avgTimes = 64, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 70, avgTimes = 32, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 15, avgTimes = 32, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 32, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 15, avgTimes = 32, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_ppmucp_fimv_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 250, avgTimes = 64, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 70, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_ppmuft_fimv_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 250, avgTimes = 64, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 70, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_2km_fimv_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 250, avgTimes = 64, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 70, avgTimes = 64, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 20, avgTimes = 64, samDelay = 100 } },
};
#endregion
#region FVMI PMU
Dictionary<string, TestParaSet> avgDelays_1kft_fvmi_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 128, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100} },
{"2mA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 10, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_1kcp_fvmi_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 200 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 128, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 10, avgTimes = 128, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_2kft_fvmi_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 500 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 128, samDelay = 300 } },
{"200uA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 10, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 10, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_ppmucp_fvmi_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 500 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 255, samDelay = 300 } },
{"200uA", new TestParaSet{delayMs = 10, avgTimes = 128, samDelay = 200 } },
{"2mA", new TestParaSet{delayMs = 30, avgTimes = 128, samDelay = 200 } },
{"60mA", new TestParaSet{delayMs = 10, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_ppmuft_fvmi_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 300 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 255, samDelay = 300 } },
{"200uA", new TestParaSet{delayMs = 10, avgTimes = 128, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 10, avgTimes = 128, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 10, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_2km_fvmi_pmu = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 500 } },
{"20uA", new TestParaSet{delayMs = 20, avgTimes = 255, samDelay = 500 } },
{"200uA", new TestParaSet{delayMs = 10, avgTimes = 128, samDelay = 500 } },
{"2mA", new TestParaSet{delayMs = 10, avgTimes = 128, samDelay = 500 } },
{"60mA", new TestParaSet{delayMs = 10, avgTimes = 255, samDelay = 500 } },
};
#endregion
#region FVMI DPS
Dictionary<string, TestParaSet> avgDelays_1kft_fvmi_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 70, avgTimes = 255, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 30, avgTimes = 64, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 30, avgTimes = 64, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
{"1A", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_1kcp_fvmi_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 70, avgTimes = 255, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 70, avgTimes = 255, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 64, samDelay = 100 } },
{"1A", new TestParaSet{delayMs = 30, avgTimes = 64, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_2kft_fvmi_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 70, avgTimes = 255, samDelay = 200 } },
{"20uA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 15, avgTimes = 128, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 15, avgTimes = 128, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 20, avgTimes = 128, samDelay = 100 } },
{"1A", new TestParaSet{delayMs = 20, avgTimes = 128, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_ppmucp_fvmi_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 70, avgTimes = 255, samDelay = 100 } },
{"20uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 300 } },
{"200uA", new TestParaSet{delayMs = 50, avgTimes = 128, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 50, avgTimes = 128, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 200 } },
{"1A", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 200 } },
};
Dictionary<string, TestParaSet> avgDelays_ppmuft_fvmi_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 70, avgTimes = 255, samDelay = 500 } },
{"20uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 500 } },
{"200uA", new TestParaSet{delayMs = 50, avgTimes = 128, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 50, avgTimes = 128, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
{"1A", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
};
Dictionary<string, TestParaSet> avgDelays_2km_fvmi_dps = new Dictionary<string, TestParaSet>()
{
{"5uA", new TestParaSet{delayMs = 70, avgTimes = 255, samDelay = 500 } },
{"20uA", new TestParaSet{delayMs = 50, avgTimes = 255, samDelay = 100 } },
{"200uA", new TestParaSet{delayMs = 50, avgTimes = 128, samDelay = 100 } },
{"2mA", new TestParaSet{delayMs = 50, avgTimes = 128, samDelay = 100 } },
{"60mA", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 100 } },
{"1A", new TestParaSet{delayMs = 30, avgTimes = 255, samDelay = 500 } },
};
#endregion
#region 其他参数
List<string> testRangesPmu = new List<string> { "5uA", "20uA", "200uA", "2mA", "60mA" };
List<string> testRangesDps = new List<string> { "5uA", "20uA", "200uA", "2mA", "60mA", "1A" };
string[] FreqStr_Test = { "1M", "2M", "2.5M", "5M", "10M" };
double[] FreqForce_Test = { 1000000, 2000000, 2500000, 5000000, 10000000 };
Dictionary<string, string> FreqInfo = new Dictionary<string, string>()
{
{"0.625M", "NOR_Pattern_1" },
{"1M", "NOR_Pattern_1" },
{"2M", "NOR_Pattern_2"},
{"2.5M", "NOR_Pattern_2"},
{"5M", "NOR_Pattern_3"},
{"10M","NOR_Pattern_4"},
{"20M","NOR_Pattern_5"}
};
List<int> testChannelDps_1K = new List<int>()
{
1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,
17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,
};
List<int> testChannelDps_2K = new List<int>()
{
1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,
17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,
33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,
49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64
};
string[] allDpsPinNames_1K = {
"DPS1","DPS2","DPS3","DPS4","DPS5","DPS6","DPS7","DPS8","DPS9","DPS10",
"DPS11","DPS12","DPS13","DPS14","DPS15","DPS16","DPS17","DPS18","DPS19","DPS20",
"DPS21","DPS22","DPS23","DPS24","DPS25","DPS26","DPS27","DPS28","DPS29","DPS30",
"DPS31","DPS32"
};
string[] allDpsPinNames_2K = {
"DPS1","DPS2","DPS3","DPS4","DPS5","DPS6","DPS7","DPS8","DPS9","DPS10",
"DPS11","DPS12","DPS13","DPS14","DPS15","DPS16","DPS17","DPS18","DPS19","DPS20",
"DPS21","DPS22","DPS23","DPS24","DPS25","DPS26","DPS27","DPS28","DPS29","DPS30",
"DPS31","DPS32","DPS33","DPS34","DPS35","DPS36","DPS37","DPS38","DPS39","DPS40",
"DPS41","DPS42","DPS43","DPS44","DPS45","DPS46","DPS47","DPS48","DPS49","DPS50",
"DPS51","DPS52","DPS53","DPS54","DPS55","DPS56","DPS57","DPS58","DPS59","DPS60",
"DPS61","DPS62","DPS63","DPS64"
};
Dictionary<TestVersion, string> Select_IP = new Dictionary<TestVersion, string>()
{
{ TestVersion.Board_1K_FT, "192.168.100.110" },
{ TestVersion.Board_1K_CP, "192.168.100.110" },
{ TestVersion.Board_2K_FT, "192.168.100.10" },
{ TestVersion.Board_2K_CP, "192.168.100.10" },
{ TestVersion.Board_Ppmu_CP, "192.168.100.10" },
{ TestVersion.Board_Ppmu_FT, "192.168.100.10" },
{ TestVersion.KM_2, "192.168.100.10"}
};
Dictionary<TestVersion, int> Select_Temp = new Dictionary<TestVersion, int>()
{
{ TestVersion.Board_1K_FT, 4 },
{ TestVersion.Board_1K_CP, 4 },
{ TestVersion.Board_Ppmu_CP, 4 },
{ TestVersion.Board_Ppmu_FT, 4 },
{ TestVersion.Board_2K_CP, 8 },
{ TestVersion.Board_2K_FT, 8 },
{ TestVersion.KM_2, 8}
};
public static Dictionary<int, TestVersion> Select_Version = new Dictionary<int, TestVersion>()
{
{1, TestVersion.Board_1K_FT},
{2, TestVersion.Board_1K_CP},
{3, TestVersion.Board_2K_FT},
{4, TestVersion.Board_2K_CP},
{5, TestVersion.Board_Ppmu_FT},
{6, TestVersion.Board_Ppmu_CP},
{7, TestVersion.KM_2 }
};
Dictionary<string, PpmuMode> ModesPmu = new Dictionary<string, PpmuMode>()
{
{"FVMV",PpmuMode.FVMV},{"FVMI",PpmuMode.FVMI},{"FIMV",PpmuMode.FIMV}, {"FZMV",PpmuMode.FZMV}
};
Dictionary<string, DpsMode> ModesDps = new Dictionary<string, DpsMode>()
{
{"FVMV",DpsMode.FVMV},{"FVMI",DpsMode.FVMI},{"FIMV",DpsMode.FIMV}
};
Dictionary<string, PpmuIRange> RangesPmu = new Dictionary<string, PpmuIRange>()
{
{"5uA", PpmuIRange._5uA},
{"20uA", PpmuIRange._20uA},
{"200uA", PpmuIRange._200uA},
{"2mA", PpmuIRange._2mA},
{"60mA", PpmuIRange._60mA},
};
Dictionary<string, DpsIRange> RangesDps = new Dictionary<string, DpsIRange>()
{
{"5uA", DpsIRange._5uA},
{"20uA", DpsIRange._20uA},
{"200uA", DpsIRange._200uA},
{"2mA", DpsIRange._2mA},
{"60mA", DpsIRange._60mA},
{"1A", DpsIRange._1A}
};
Dictionary<string, double> DmmCurrRanges = new Dictionary<string, double>()
{
{"5uA",0.000005},{"20uA",0.00002},{"200uA",0.0002},{"2mA",0.002},{"60mA",0.06},{"1A",1 }
};
Dictionary<string, string> Rname = new Dictionary<string, string>()
{
{"R1","5uA"},{"R2","20uA"},{"R3","200uA"},{"R4","2mA"},{"R5","60mA"},{"R6","1A"}
};
Dictionary<string, double> FiRanges = new Dictionary<string, double>()
{
{"5uA",0.000005},{"20uA",0.000015},{"200uA",0.0001},{"2mA",0.001},{"60mA",0.03}
};
double[] rLimit = { 50, 120, 110, 1, 1, 1 };
double[] CurrScale = { -0.8, -0.5, 0, 0.5, 0.8 };
Dictionary<string, string> strRloadFvmi = new Dictionary<string, string>()
{
{"5uA", "1M"},
{"20uA", "402K"},
{"200uA", "49.9K"},
{"2mA", "4.99K"},
{"60mA", "150"},
{"1A", "10"},
};
Dictionary<string, ExtCaliLoad> Rcut_MIFI = new Dictionary<string, ExtCaliLoad>()
{
{"5uA", ExtCaliLoad.RC_RL13},
{"20uA", ExtCaliLoad.RC_RL12},
{"200uA", ExtCaliLoad.RC_RL10},
{"2mA", ExtCaliLoad.RC_RL8},
{"60mA", ExtCaliLoad.RC_RL5},
{"1A", ExtCaliLoad.RC_RL3},
};
double VoltageInitialDefault = -7.5;
double VoltageStepDefault = 3.75;
double VoltageInitialDps1A = 1.5;
double VoltageStepDps1A = 0.75;
double VoltageInitialSet = -5;
double VoltageStepSet = 2.5;
double[] VoltageStep20uA = { 2.5, 2.5, 3.75, 3.75, 3.75 };
int SampliCount = 5;
List<TestInfoSet> TestInfo = new List<TestInfoSet>();
int port = 200;
string ksightConnStr = "GPIB1::22::INSTR";
#endregion
TestVersion SelectTestVersion = Select_Version[Readjson(CONFIG_JSON_PATH).Version];
#region 函数定义
public static Json Readjson(string json_path)
{
Json get = new Json();
using (StreamReader sr = new StreamReader(json_path))
{
string json = sr.ReadToEnd();
get = JsonConvert.DeserializeObject<Json>(json);
}
return get;
}
public void metadata_handler(StreamWriter swdata,int SlotNum, List<int> slotList, string arm_dna, IFlowRunnerContext context, bool init_Flag, string Type = "NULL", int Channel = -1, string Mode = "NULL", string Rload = "NaN", string Range = "N/A", string filepath = "N/A", string filetime = "N/A")
{
//Are We Writing the header of MetaData?
if (init_Flag == true)
{
//Each Slot has its own Thread
//But We DON'T want to run in parallel in this case(Cali&Write file)
//So We Should Check Which Slot We Are Running...
if (SlotNum == slotList[0])
{
swdata.WriteLine("Tester_Name,Board_Id,Slot_Ip,Stil_Version");
for (int w = 0; w < 12; w++)//修改为12SLOT
{
if (w == (slotList[0] - 1))
{
swdata.WriteLine($"Slot{SlotNum},{arm_dna},{context.Communicator.ServerIP},V1.0.0");
}
else
{
swdata.WriteLine($"Slot{(w + 1)}");
}
}
for (int i = 0; i < 1; i++)
{
swdata.WriteLine();
}
swdata.Write("Slot_Dna,Channel_Type,Channel_No,Mode,R_Load,I_Range,V_Range,Meas_Range,File_Path,File_Time\n");
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(EXT_CAL_PATH + slotList[Cried - 1] + ".flag")) //Wait until previous thread flags completion
{
File.Delete(EXT_CAL_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
File.Move(METADATA_PATH, EXT_CAL_PATH + "metadata_temp" + ".csv");
StreamReader sr = new StreamReader(EXT_CAL_PATH + "metadata_temp" + ".csv", Encoding.UTF8);
int line = 0;
while (!sr.EndOfStream)
{
string tmp = sr.ReadLine();
if (line == slotList[Cried])
{
swdata.WriteLine("Slot" + SlotNum + "," + arm_dna + "," + context.Communicator.ServerIP + "," + "V1.0.0");
}
else
{
swdata.WriteLine(tmp);
}
line++;
}
sr.Close();
File.Delete(EXT_CAL_PATH + "metadata_temp" + ".csv");
}
}
//Now We Are Writing the body of the file
else
{
swdata.Write($"{arm_dna},");
swdata.Write($"{Type},");
if (Type == "PMU")
{
swdata.Write($"{Channel},");
}
else
{
swdata.Write($"PS{Channel},");
}
swdata.Write($"{Mode},");
swdata.Write($"{Rload},");
swdata.Write($"{Range},");
swdata.Write("20V,");
swdata.Write("13V,");
swdata.Write($"{filepath},");
swdata.Write($"{filetime}\n");
swdata.Flush();
}
}
private int GetPMUTempSensorIndex(int channel)
{
if ((channel >= 65 && channel <= 80) || (channel >= 97 && channel <= 112) || (channel >= 193 && channel <= 208) || (channel >= 241 && channel <= 256))
{
return 0;
}
else if ((channel >= 1 && channel <= 16) || (channel >= 49 && channel <= 64) || (channel >= 129 && channel <= 144) || (channel >= 161 && channel <= 176))
{
return 1;
}
else if ((channel >= 17 && channel <= 32) || (channel >= 33 && channel <= 48) || (channel >= 145 && channel <= 160) || (channel >= 177 && channel <= 192))
{
return 2;
}
else if ((channel >= 81 && channel <= 96) || (channel >= 113 && channel <= 128) || (channel >= 209 && channel <= 224) || (channel >= 225 && channel <= 240))
{
return 3;
}
else return -1;
}
public int GetFileSize(string path)
{
System.IO.FileInfo fileInfo = null;
try
{
fileInfo = new System.IO.FileInfo(path);
}
catch
{
return 0;
}
if (fileInfo != null && fileInfo.Exists)
{
return (int)System.Math.Ceiling(fileInfo.Length / 1024.0);
}
else
{
return 0;
}
}
public void ClearPrePostFile(string DirPath)
{
System.IO.DirectoryInfo di= new DirectoryInfo(DirPath);
foreach (FileInfo file in di.GetFiles())
{
if(file.Name.EndsWith(".csv") && file.Name.IndexOf("FlowLog") == -1)
{
file.Delete();
}
}
}
public void EmptyDir(string DirPath )
{
System.IO.DirectoryInfo di = new DirectoryInfo( DirPath );
foreach (FileInfo file in di.EnumerateFiles())
{
file.Delete();
};
}
private string[] GetAllPmuPins()
{
string[] ans = new string[256];
for (int i = 0; i < ans.Length; i++)
{
ans[i] = "A" + (i < 9 ? "0" : "") + (i + 1);
}
return ans;
}
private double GetATEChannelMeasure(List<SiteInfo> InfoList, string[] PinName)
{
double result = 0;
foreach (SiteInfo si in InfoList)
{
bool flag = false;
foreach (ChannelInfo ci in si.Channels)
{
if (ci.Name == PinName[0])
{
flag = true;
result = ci.Result;
break;
}
}
if (flag) break;
}
return result;
}
private double GetRloadValue(KeysightDMM3458A rdmm, double range, double limit)
{
double value = 0;
while (true)
{
double sum = 0;
for (int i = 0; i < 100; i++)
{
double r1 = rdmm.GetDmmMeasureData(KeysightDMM3458A.KeysightMeasMode.RES, 1, range);
sum = sum + r1;
}
sum = sum / 100;
double r2 = rdmm.GetDmmMeasureData(KeysightDMM3458A.KeysightMeasMode.RES, 1, range);
if (Math.Abs(sum - r2) < limit)
{
value = r2;
break;
}
}
return value;
}
private void SortAsFileCreationTime(ref FileInfo[] arrFi)
{
Array.Sort(arrFi, delegate (FileInfo x, FileInfo y)
{
return x.CreationTime.CompareTo(y.CreationTime);
}
);
}
public List<Dictionary<string, string>> ReadRload(string ResFilePath)
{
Dictionary<string, string> RlPmuFv = new Dictionary<string, string>();
Dictionary<string, string> RlPmuFi = new Dictionary<string, string>();
Dictionary<string, string> RlDpsFv = new Dictionary<string, string>();
Dictionary<string, string> RlDpsFi = new Dictionary<string, string>();
List<Dictionary<string, string>> RloadTuple = new List<Dictionary<string, string>>();
int cnt1 = 0;
StreamReader ResReader = new StreamReader(ResFilePath, Encoding.UTF8);
while (!ResReader.EndOfStream)
{
string rtemp = ResReader.ReadLine();
string rname = rtemp.Split(',')[0];
string rvalue = rtemp.Split(',')[1];
rname = rname.Split('_')[1];
if (cnt1 < 5)
{
RlPmuFv.Add(Rname[rname], rvalue);
RlPmuFi.Add(Rname[rname], rvalue);
}
else if (cnt1 < 11)
{
RlDpsFv.Add(Rname[rname], rvalue);
if (cnt1 < 10)
{
RlDpsFi.Add(Rname[rname], rvalue);
}
}
cnt1 = cnt1 + 1;
}
RloadTuple.Add(RlPmuFv);
RloadTuple.Add(RlPmuFi);
RloadTuple.Add(RlDpsFv);
RloadTuple.Add(RlDpsFi);
ResReader.Close();
return RloadTuple;
}
public double[,] ReadRext(string RextFilePath)
{
double[,] ExtBoard_Res = new double[256, 12];
int cnt2 = 0;
StreamReader ExtResReader = new StreamReader(RextFilePath, Encoding.UTF8);
while (!ExtResReader.EndOfStream)
{
string rstr = ExtResReader.ReadLine();
ExtBoard_Res[cnt2, 0] = Convert.ToDouble(rstr.Split(',')[0]);
ExtBoard_Res[cnt2, 1] = Convert.ToDouble(rstr.Split(',')[1]);
ExtBoard_Res[cnt2, 2] = Convert.ToDouble(rstr.Split(',')[2]);
ExtBoard_Res[cnt2, 3] = Convert.ToDouble(rstr.Split(',')[3]);
ExtBoard_Res[cnt2, 4] = Convert.ToDouble(rstr.Split(',')[4]);
ExtBoard_Res[cnt2, 5] = Convert.ToDouble(rstr.Split(',')[5]);
ExtBoard_Res[cnt2, 6] = Convert.ToDouble(rstr.Split(',')[6]);
ExtBoard_Res[cnt2, 7] = Convert.ToDouble(rstr.Split(',')[7]);
ExtBoard_Res[cnt2, 8] = Convert.ToDouble(rstr.Split(',')[8]);
ExtBoard_Res[cnt2, 9] = Convert.ToDouble(rstr.Split(',')[9]);
ExtBoard_Res[cnt2, 10] = Convert.ToDouble(rstr.Split(',')[10]);
ExtBoard_Res[cnt2, 11] = Convert.ToDouble(rstr.Split(',')[11]);
cnt2 = cnt2 + 1;
}
ExtResReader.Close();
return ExtBoard_Res;
}
public double[] ReadRint(string RintFilePath)
{
double[] IntBoard_Res = new double[256];
int cnt3 = 0;
StreamReader IntResReader = new StreamReader(RintFilePath, Encoding.UTF8);
while (!IntResReader.EndOfStream)
{
string[] A = IntResReader.ReadLine().Split(' ', ':');
IntBoard_Res[cnt3] = Convert.ToDouble(A[4]);
cnt3 = cnt3 + 1;
}
IntResReader.Close();
return IntBoard_Res;
}
public List<string> RangeTrans(List<int> range)
{
Dictionary<int, string> RangeMap = new Dictionary<int, string>
{
{1,"5uA"},
{2,"20uA" },
{3,"200uA" },
{4,"2mA" },
{5,"60mA" },
{6,"1A" }
};
List<string> list = new List<string>();
for (int i = 0; i < range.Count; i++)
{
list.Add(RangeMap[range[i]]);
}
return list;
}
public Dictionary<int, double[]> ReadBackDmm(double[] data, List<int> listCh)
{
Dictionary<int, double[]> DmmDic= new Dictionary<int, double[]>();
int dmmFlag = 0;
while(dmmFlag < data.Length)
{
int number = dmmFlag / 5;
int group = listCh[number];
double[] DmmMeasure = new double[5];
for(int readNum = dmmFlag; readNum < (number + 1) * 5; readNum++)
{
DmmMeasure[dmmFlag % 5] = data[readNum];
dmmFlag += 1;
}
DmmDic.Add(group, DmmMeasure);
}
return DmmDic;
}
//Write Data To File
/*
* Variable Definition
* string filename: filename
* int slot: Slot Number
* string dna: DNA Number
* string type: DPS/PMU
* int channel: Channel Number(PMU:1-256, DPS:1-32/64)
* string mode: FVMV/FVMI/FIMV/FZMV(PMU Only)
* string rload: External Resistance Load
* double[,] extR: Internal Resistance On the External Calibration Board
* string range: Board Measurment Range(5uA; 20uA; 200uA; 2mA; 60mA; 1A(DPS Only))
* double[] ForceValue: ForceValue
* double[] AteMeasure: ATE Measure Value
* double[] DmmMeasure: DMM Measure Value
*/
public void WriteSingleFile(string filename,int slot, string dna, string type,int channel, string mode, string rload, double[,] extR, string range, double[] ForceValue, double[] AteMeasure, double[] DmmMeasure)
{
StreamWriter sw = new StreamWriter(filename, true, Encoding.UTF8);
sw.AutoFlush = true;
sw.Write("Tester_Name,Foo\n");
sw.Write($"Slot_No,{slot}\n");
sw.Write($"Board_Dna,{dna}\n");
sw.Write("Channel_Type,{type}\n");
sw.Write($"Channel_No,{channel}\n");
sw.Write($"Mode,{mode}\n");
sw.Write($"R_Load,{rload}\n");
sw.Write($"R_Int,{0}\n");
if(type == "PMU")
{
sw.Write($"R_Ext,{extR[channel - 1, slot - 1]}\n");
}
else
{
sw.Write($"R_Ext,{0}\n");
}
sw.Write($"I_Range,{range}\n");
sw.Write("V_Range,20V\n");
sw.Write("Meas_Range,13V\n");
sw.Write("\n");
sw.Write("Force Value,ATE Measure,DMM Measure,Temperature\n");
for (int writeLine = 0; writeLine < 5; writeLine++)
{
if (mode == "FVMV" || mode == "FZMV")
{
sw.Write($"{ForceValue[writeLine]:F8},");
sw.Write($"{AteMeasure[writeLine]:F8},");
sw.Write($"{DmmMeasure[writeLine]:F8},");
}
else if(mode == "FVMI")
{
if(range == "60mA")
{
sw.Write($"{ForceValue[writeLine]:F10},");
sw.Write($"{AteMeasure[writeLine]:F15},");
sw.Write($"{DmmMeasure[writeLine]:F15},");
}
else
{
sw.Write($"{ForceValue[writeLine]:F10},");
sw.Write($"{AteMeasure[writeLine]:F15},");
sw.Write($"{(DmmMeasure[writeLine] / Convert.ToDouble(rload)):F15},");
}
}
else if(mode == "FIMV")
{
if(range == "60mA")
{
sw.Write($"{ForceValue[writeLine]:F10},");
sw.Write($"{AteMeasure[writeLine]:F15},");
sw.Write($"{(DmmMeasure[writeLine] / Convert.ToDouble(rload)):F15},");
}
else
{
sw.Write($"{ForceValue[writeLine]:F10},");
sw.Write($"{AteMeasure[writeLine]:F15},");
sw.Write($"{(DmmMeasure[writeLine] / Convert.ToDouble(rload)):F15},");
}
}
sw.Write($"{0:F8}\n");
}
sw.Flush();
sw.Close();
}
#endregion
#region TestCase
private void FrequencyProcess(int slot, StreamWriter sw, string filepath, int failcount)
{
DirectoryInfo di = new DirectoryInfo(filepath);
FileInfo[] arrFi = di.GetFiles("*.csv");
SortAsFileCreationTime(ref arrFi);
List<string> fileset = new List<string>();
for (int x = 0; x < arrFi.Length; x++)
{
if (arrFi[x].Name.Contains("Slot" + slot) == true)
{
fileset.Add(arrFi[x].Name);
}
}
//get acc_min and acc_max
double acc_min = 0;
double acc_max = 0;
for (int i = 0; i < fileset.Count; i++)
{
int count = 0;
int line = 0;
List<double> data = new List<double>();
List<double> data_empty = new List<double>();
StreamReader sr = new StreamReader(filepath + fileset[i], Encoding.UTF8);
while (!sr.EndOfStream)
{
string rtemp = sr.ReadLine();
if (line > 0)
{
double rvalue = Convert.ToDouble(rtemp.Split(',')[2]);
if (rvalue != -1)
{
data.Add(rvalue);
count = count + 1;
}
else
{
data_empty.Add(rvalue);
}
}
line = line + 1;
}
sr.Close();
string item = fileset[i];
string Drived = item.Split('_')[2];
Drived = Drived.Substring(0, Drived.Length - 5);
if (data_empty.Count == 256)
{
sw.WriteLine($"{item.Substring(0, item.Length - 4)},{item[4]},{Drived},IO,{0},FALSE,");
}
else
{
double max = data.Max();
double min = data.Min();
double value = Convert.ToDouble(Drived) * 1000000;
acc_min = min / value;
acc_max = max / value;
string acc_flag = "FALSE";
double diff = Math.Abs(Math.Max(acc_min, acc_max) - 1);
if ((diff < 0.005) && (count > failcount))
{
acc_flag = "TRUE";
}
sw.WriteLine($"{item.Substring(0, item.Length - 4)},{item[4]},{Drived},IO,{acc_max},{acc_flag},");
}
data.Clear();
data_empty.Clear();
sw.Flush();
}
}
void ExternalCalibrationFreqCollect(IFlowRunnerContext context, TestVersion testVersion)
{
//config DMM53220A
Keysight53220A FreqCounter53220A = new Keysight53220A();
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
string addressFreq = "USB0::0x0957::0x1807::MY63100296::INSTR";
//config ExtCalibration Board
string ExtConnStr = Select_IP[testVersion];
int ExtPort = 200;
string DateCode = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
//config Board
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
byte[] armDnaPortCmd = new byte[2] { 14, 57 }; // command to read arm dna
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd); //send command
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString(); //convert hex dna to decimal
int SlotNum = context.Communicator.SlotNo;
//set channel number
int[] ChannelPmu = new int[256];
for (int n = 0; n < 256; n++)
{
ChannelPmu[n] = n + 1;
}
int PmuChannelCount = 256;
string[] FreqStr = FreqStr_Test;
double[] FreqForce = FreqForce_Test;
double[] Period = new double[50];
for (int i = 0; i < FreqStr.Length; i++)
{
string actimeing = $"{(1000000000 / FreqForce[i]):F2}";
Period[i] = Convert.ToDouble(actimeing);
}
//creat dir
try
{
if (SlotNum == slotList[0])
{
if (Directory.Exists(EXT_CAL_FREQ_PATH))
{
if (!Directory.Exists(EXT_CAL_FREQ_HISTORY_PATH))
{
Directory.CreateDirectory(EXT_CAL_FREQ_HISTORY_PATH);
}
Directory.Move(EXT_CAL_FREQ_PATH, EXT_CAL_FREQ_HISTORY_PATH + DateCode);
}
Directory.CreateDirectory(EXT_CAL_FREQ_PATH);
}
}
catch (Exception ex)
{
LogRawText(ex.StackTrace);
throw ex;
}
StreamWriter swResult;
if (SlotNum == slotList[0])
{
swResult = new StreamWriter(EXT_CAL_FREQ_PATH + "f_Result.csv", true, Encoding.UTF8);
swResult.WriteLine("Test_Item,Slot_No,Drived_Frequency(MHz),Channel_Type,Accuracy_Measure,Validation_Result");
FreqCounter53220A.InitDMM53220A(addressFreq, Keysight53220A.KeysightMeasMode.FREQ);
FreqCounter53220A.InitMeasure();
Thread.Sleep(100);
FreqCounter53220A.GetDmm53220AMeasureData();
swResult.Close();
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(EXT_CAL_FREQ_PATH + slotList[Cried - 1] + ".flag")) //Wait until previous thread flags completion
{
File.Delete(EXT_CAL_FREQ_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
FreqCounter53220A.InitDMM53220A(addressFreq, Keysight53220A.KeysightMeasMode.FREQ);
}
Thread.Sleep(100);
for (int fCount = 0; fCount < FreqStr.Length; fCount++) // 625K - 32M
{
string FreqFileNmae = EXT_CAL_FREQ_PATH + "Slot" + SlotNum + "_" + "Freq" + "_" + FreqStr[fCount] + ".csv";
StreamWriter sw = new StreamWriter(FreqFileNmae, true, Encoding.UTF8);
sw.Write("Channel_No,Freq_Force,Freq_Measure\n");
Thread.Sleep(10);
string strPattern = FreqInfo[FreqStr[fCount]];
PATTERN.DCLevel.Set("level_5V");
ACTimingSetting aCTimingInfo = new ACTimingSetting
{
Period = Period[fCount],
PinName = GetAllPmuPins(),
FmtMode = FmtMode.RL,
EdgeInfo = new EdgeInfo()
{
DriverOn = 0,
DriverData = 0.3,
DriverReturn = 0.8,
Open = 0,
Close = 0,
CompareMode = CompareMode.Edge,
}
};
aCTimingInfo.Name = "TEST";
PATTERN.ACTiming.Execute(aCTimingInfo); ;
int read_count = 3;
for (int loopk = 0; loopk < PmuChannelCount; loopk++)
{
int ch = ChannelPmu[loopk];
extCaliHandle.SetPpmuExternalCalibration(ExtConnStr, ExtPort, SlotNum, ExternalCalibrationMode.Channel, ch, ExtCaliVI.V, ExtCaliLoad.no_load, 1); //@@rita,20240307
Thread.Sleep(500);
string[] PmuPinName = { ("A" + (loopk < 9 ? "0" : "") + (loopk + 1)) };
RELAY.SwitchToDigitalCard(PmuPinName);
Thread.Sleep(1);
PATTERN.Burst(strPattern, PmuPinName, 10, false, true);
Thread.Sleep(15);
double[] readValues = new double[read_count];//read 3 times
for (int j = 0; j < read_count; j++)
{
FreqCounter53220A.InitMeasure();
Thread.Sleep(50);
readValues[j] = FreqCounter53220A.GetDmm53220AMeasureData();
}
double freqValue = -1;
for (int j = 0; j < read_count; j++)
{
if (Math.Abs(FreqForce[fCount] - readValues[j]) < 10000)
{
freqValue = readValues[j];
break;
}
}
sw.Write($"{ChannelPmu[loopk]},");
sw.Write($"{FreqForce[fCount]:F3},");
sw.Write($"{freqValue:F5}\n");
sw.Flush();
}
sw.Close();
}
FreqCounter53220A.CloseDMM53220A();
swResult = new StreamWriter(EXT_CAL_FREQ_PATH + "f_Result.csv", true, Encoding.UTF8);
FrequencyProcess(SlotNum, swResult, EXT_CAL_FREQ_PATH, 25);
swResult.Close();
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(EXT_CAL_FREQ_PATH + SlotNum + ".flag");
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
if (SlotNum == slotList[slotList.Count - 1])
{
swResult.Close();
}
}
void Rint_Reset(IFlowRunnerContext context)
{
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
byte[] armDnaPortCmd = new byte[2] { 14, 57 }; // command to read arm dna
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd); //send command
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString(); //convert hex dna to decimal
int SlotNum = context.Communicator.SlotNo;
if (SlotNum == slotList[0])
{
if(Directory.Exists(RINT_PATH))
{
EmptyDir(RINT_COMPFILE_PATH);
EmptyDir(RINT_FILE_PATH);
EmptyDir(RINT_PRECHECK_PATH);
EmptyDir(RINT_POSTCHECK_PATH);
EmptyDir(RINT_FAILLOG_PATH);
}
if(Directory.Exists(DOWN_INITVALUE_PATH))
{
EmptyDir(DOWN_INITVALUE_PATH);
}
DelayHelper.Sleep(1);
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(EXT_CAL_INIT_PATH + slotList[Cried - 1] + ".flag"))
{
File.Delete(EXT_CAL_INIT_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
}
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
int FileKb = 0;
string initValueFile = EXT_CAL_INITVALUE_PATH + context.Communicator.ServerIP + "_" + context.Communicator.ServerPort + "_InitValue.csv";
string BoardInfoFile = EXT_CAL_BOARDINFO_PATH + context.Communicator.ServerIP + "_boardinfo.txt";
ReadTftp DownFile = new ReadTftp();
DownFile.DownloadFile(context.Communicator.ServerIP, DOWN_INITVALUE_PATH + context.Communicator.ServerIP + "_" + context.Communicator.ServerPort + "_InitValue.csv", ReadType.InitValue);
FileKb = GetFileSize(DOWN_INITVALUE_PATH + context.Communicator.ServerIP + "_" + context.Communicator.ServerPort + "_InitValue.csv");
if (FileKb > 10)
{
Thread.Sleep(1);
}
else
{
if(File.Exists(EXT_CAL_INITVALUE_PATH + context.Communicator.ServerIP + "_" + context.Communicator.ServerPort + "_InitValue.csv"))
{
var isInitValueOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, initValueFile, FileType.InitValue);
LogRawText($"InitValue Status: {isInitValueOK}");
}
}
if (File.Exists(BoardInfoFile))
{
var isBoardInfoOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, BoardInfoFile, FileType.boardinfo);
LogRawText($"BoardInfo Status: {isBoardInfoOK}");
}
var isDnaUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, EXT_CAL_INIT_PATH + "Dna_init.csv", FileType.dna);
LogRawText($"Dna Status: {isDnaUploadOK}");
Thread.Sleep(10);
var isMVUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, EXT_CAL_INIT_PATH + "MV_init.csv", FileType.mv);
LogRawText($"MV Status: {isMVUploadOK}");
Thread.Sleep(10);
var isMIUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, EXT_CAL_INIT_PATH + "MI_init.csv", FileType.mi);
LogRawText($"MI Status: {isMIUploadOK}");
Thread.Sleep(10);
var isPmurUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, EXT_CAL_INIT_PATH + "Pmur_init.csv", FileType.pmu_r);
LogRawText($"Pmu_r Status: {isPmurUploadOK}");
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(EXT_CAL_INIT_PATH + SlotNum + ".flag"); //Create file flagging end of current thread
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
}
void Rint_FVMV_2mA_Pre(IFlowRunnerContext context, TestVersion testVersion)
{
List<int> ChannelDps = new List<int>();
List<int> ChannelPmu = new List<int>();
for (int m = 0; m < 256; m++)
{
ChannelPmu.Add(m + 1);
}
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
//-----config dmm3458A and ExtCalibrationBoard-----
KeysightDMM3458A dmm = new KeysightDMM3458A();
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
string extConnStr = Select_IP[testVersion];
int extPort = port;
//-----config Board-----
byte[] armDnaPortCmd = new byte[2] { 14, 57 };
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd);
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString();
int SlotNum = context.Communicator.SlotNo;
double[,] ExtBoard_Res = ReadRext(EXT_CAL_INIT_PATH + "ExtBoardRes.csv");
try
{
string DateCode = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
if (SlotNum == slotList[0])
{
if (Directory.Exists(EXT_CAL_MV_PATH))
{
if (!Directory.Exists(EXT_CAL_HISTORY_PATH))
{
Directory.CreateDirectory(EXT_CAL_HISTORY_PATH);
}
Directory.Move(EXT_CAL_MV_PATH, EXT_CAL_HISTORY_PATH + DateCode);
}
if (Directory.Exists(EXT_CAL_PATH))
{
Directory.Move(EXT_CAL_PATH, EXT_CAL_MV_PATH);
}
Directory.CreateDirectory(EXT_CAL_PATH);
}
}
catch (Exception ex)
{
LogRawText(ex.StackTrace);
throw ex;
}
//-----Start Slot Number-----
StreamWriter swdata;
if (SlotNum == slotList[0])
{
dmm.InitDMM(ksightConnStr);
swdata = new StreamWriter(METADATA_PATH, true, Encoding.UTF8);
swdata.AutoFlush = true;
swdata.WriteLine("Tester_Name,Board_Id,Slot_Ip,Stil_Version");
for (int w = 0; w < 12; w++)
{
if (w == (slotList[0] - 1))
{
swdata.WriteLine($"Slot{SlotNum},{arm_dna},{context.Communicator.ServerIP},V1.0.0");
}
else
{
swdata.WriteLine($"Slot{(w + 1)}");
}
}
for (int i = 0; i < 1; i++)
{
swdata.WriteLine();
}
swdata.Write("Slot_Dna,Channel_Type,Channel_No,Mode,R_Load,I_Range,V_Range,Meas_Range,File_Path,File_Time\n");
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(EXT_CAL_PATH + slotList[Cried - 1] + ".flag")) //Wait until previous thread flags completion
{
File.Delete(EXT_CAL_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
File.Move(METADATA_PATH, EXT_CAL_PATH + "metadata_temp" + ".csv");
StreamReader sr = new StreamReader(EXT_CAL_PATH + "metadata_temp" + ".csv", Encoding.UTF8);
swdata = new StreamWriter(METADATA_PATH, true, Encoding.UTF8);
swdata.AutoFlush = true;
int line = 0;
while (!sr.EndOfStream)
{
string tmp = sr.ReadLine();
if (line == slotList[Cried])
{
swdata.WriteLine("Slot" + SlotNum + "," + arm_dna + "," + context.Communicator.ServerIP + "," + "V1.0.0");
}
else
{
swdata.WriteLine(tmp);
}
line++;
}
sr.Close();
File.Delete(EXT_CAL_PATH + "metadata_temp" + ".csv");
dmm.InitDMM(ksightConnStr);
}
string filetime = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
for (int loopk = 0; loopk < 256; loopk++)
{
string[] PmuPinName = { ("A" + (ChannelPmu[loopk] < 10 ? "0" : "") + ChannelPmu[loopk]) };
RELAY.SwitchMode(RelayMode.Open);
RELAY.SwitchToPPMU(PmuPinName);
double ForceVoltage = VoltageInitialDefault;
double VoltageStep = VoltageStepDefault;
string filepath = "Slot" + SlotNum + "_PMU_" + "ch" + ChannelPmu[loopk] + "_" + "FVMV" + "_" + "Hi-Z" + "_" + "2mA" + ".csv";
string filename = EXT_CAL_PATH + filepath;
StreamWriter sw = new StreamWriter(filename, true, Encoding.UTF8);
int ch = ChannelPmu[loopk];
sw.AutoFlush = true;
sw.Write("Tester_Name,Foo\n");
sw.Write($"Slot_No,{SlotNum}\n");
sw.Write($"Board_Dna,{arm_dna}\n");
sw.Write("Channel_Type,PMU\n");
sw.Write($"Channel_No,{ChannelPmu[loopk]}\n");
sw.Write($"Mode,FVMV\n");
sw.Write($"R_Load,Hi-Z\n");
sw.Write($"R_Int,{0}\n");
sw.Write($"R_Ext,{ExtBoard_Res[ChannelPmu[loopk] - 1, SlotNum - 1]}\n");
sw.Write($"I_Range,2mA\n");
sw.Write("V_Range,20V\n");
sw.Write("Meas_Range,13V\n");
sw.Write("\n");
sw.Write("Force Value,ATE Measure,DMM Measure,Temperature\n");
extCaliHandle.SetPpmuExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.Channel, ch, ExtCaliVI.V, ExtCaliLoad.no_load, 0);//change channel
if (loopk == 0)
{
DelayHelper.Sleep(20);
}
for (int p = 0; p < SampliCount; p++)
{
PPMU.Force(PmuPinName, ForceVoltage, PpmuMode.FVMV, PpmuIRange._2mA, VRange.Normal);
sw.Write($"{ForceVoltage:F8},");
Thread.Sleep(20);
List<SiteInfo> siList = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMV"), 128, 100);
double chResult = GetATEChannelMeasure(siList, PmuPinName);
sw.Write($"{chResult:F8},");
double dmmRead = dmm.GetDmmMeasureData(KeysightDMM3458A.KeysightMeasMode.VOLT, 1, 7.5);//dmm 3458A read
sw.Write($"{dmmRead:F8},");
double[] readTemp = PPMU.ReadTemperature();
sw.Write($"{readTemp[GetPMUTempSensorIndex(ChannelPmu[loopk])]:F8}\n");
ForceVoltage += VoltageStep;
}
PPMU.Force(PmuPinName, 0, PpmuMode.FVMV, PpmuIRange._2mA, VRange.Normal);
sw.Flush();
sw.Close();
swdata.Write($"{arm_dna},");
swdata.Write("PMU,");
swdata.Write($"{ChannelPmu[loopk]},");
swdata.Write($"FVMV,");
swdata.Write($"Hi-Z,");
swdata.Write($"2mA,");
swdata.Write("20V,");
swdata.Write("13V,");
swdata.Write($"{filepath},");
swdata.Write($"{filetime}\n");
swdata.Flush();
}
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(EXT_CAL_PATH + SlotNum + ".flag"); //Create file flagging end of current thread
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
swdata.Flush();
swdata.Close();
}
void Rint_DataUpload(IFlowRunnerContext context)
{
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
byte[] armDnaPortCmd = new byte[2] { 14, 57 }; // command to read arm dna
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd); //send command
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString(); //convert hex dna to decimal
int SlotNum = context.Communicator.SlotNo;
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
if (SlotNum == slotList[0])
{
DelayHelper.Sleep(1);
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(RINT_COMPFILE_PATH + slotList[Cried - 1] + ".flag"))
{
File.Delete(RINT_COMPFILE_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
}
Thread.Sleep(10);
var isDnaUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, RINT_COMPFILE_PATH + "DNA_" + context.Communicator.ServerIP + ".csv", FileType.dna);
LogRawText($"Dna Status: {isDnaUploadOK}");
Thread.Sleep(10);
var isMVUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, RINT_COMPFILE_PATH + context.Communicator.ServerIP + "_MV.csv", FileType.mv);
LogRawText($"MV Status: {isMVUploadOK}");
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(RINT_COMPFILE_PATH + SlotNum + ".flag"); //Create file flagging end of current thread
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
}
void Pmur_Upload(IFlowRunnerContext context)
{
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
byte[] armDnaPortCmd = new byte[2] { 14, 57 }; // command to read arm dna
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd); //send command
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString(); //convert hex dna to decimal
int SlotNum = context.Communicator.SlotNo;
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
if (SlotNum == slotList[0])
{
DelayHelper.Sleep(1);
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(RINT_FILE_PATH + slotList[Cried - 1] + ".flag"))
{
File.Delete(RINT_FILE_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
}
Thread.Sleep(10);
var isPmurUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, RINT_FILE_PATH + context.Communicator.ServerIP + "_Pmur.txt", FileType.pmu_r);
LogRawText($"Pmur Status: {isPmurUploadOK}");
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(RINT_FILE_PATH + SlotNum + ".flag");
swSignal.Flush();
swSignal.Close();
}
}
void Rint_FVMV_2mA_Post(IFlowRunnerContext context, TestVersion testVersion)
{
List<int> ChannelDps = new List<int>();
List<int> ChannelPmu = new List<int>();
//-----Select PreTest or ReTest-----
for (int m = 0; m < 256; m++)
{
ChannelPmu.Add(m + 1);
}
//-----get all connect slot number-----
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
//-----config dmm3458A and ExtCalibrationBoard-----
KeysightDMM3458A dmm = new KeysightDMM3458A();
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
string extConnStr = Select_IP[testVersion];
int extPort = port;
//-----config Board-----
byte[] armDnaPortCmd = new byte[2] { 14, 57 };
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd);
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString();
int SlotNum = context.Communicator.SlotNo;
//-----Read R File-----
double[,] ExtBoard_Res = ReadRext(EXT_CAL_INIT_PATH + "ExtBoardRes.csv");
//-----Move File To History-----
try
{
string DateCode = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
if (SlotNum == slotList[0])
{
if (Directory.Exists(EXT_CAL_MV_PATH))
{
if (!Directory.Exists(EXT_CAL_HISTORY_PATH))
{
Directory.CreateDirectory(EXT_CAL_HISTORY_PATH);
}
Directory.Move(EXT_CAL_MV_PATH, EXT_CAL_HISTORY_PATH + DateCode);
}
if (Directory.Exists(EXT_CAL_PATH))
{
Directory.Move(EXT_CAL_PATH, EXT_CAL_MV_PATH);
}
Directory.CreateDirectory(EXT_CAL_PATH);
}
}
catch (Exception ex)
{
LogRawText(ex.StackTrace);
throw ex;
}
//-----Start Slot Number-----
StreamWriter swdata;
if (SlotNum == slotList[0])
{
dmm.InitDMM(ksightConnStr);
swdata = new StreamWriter(METADATA_PATH, true, Encoding.UTF8);
swdata.AutoFlush = true;
swdata.WriteLine("Tester_Name,Board_Id,Slot_Ip,Stil_Version");
for (int w = 0; w < 12; w++)
{
if (w == (slotList[0] - 1))
{
swdata.WriteLine($"Slot{SlotNum},{arm_dna},{context.Communicator.ServerIP},V1.0.0");
}
else
{
swdata.WriteLine($"Slot{(w + 1)}");
}
}
for (int i = 0; i < 1; i++)
{
swdata.WriteLine();
}
swdata.Write("Slot_Dna,Channel_Type,Channel_No,Mode,R_Load,I_Range,V_Range,Meas_Range,File_Path,File_Time\n");
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(EXT_CAL_PATH + slotList[Cried - 1] + ".flag")) //Wait until previous thread flags completion
{
File.Delete(EXT_CAL_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
File.Move(METADATA_PATH, EXT_CAL_PATH + "metadata_temp" + ".csv");
StreamReader sr = new StreamReader(EXT_CAL_PATH + "metadata_temp" + ".csv", Encoding.UTF8);
swdata = new StreamWriter(METADATA_PATH, true, Encoding.UTF8);
swdata.AutoFlush = true;
int line = 0;
while (!sr.EndOfStream)
{
string tmp = sr.ReadLine();
if (line == slotList[Cried])
{
swdata.WriteLine("Slot" + SlotNum + "," + arm_dna + "," + context.Communicator.ServerIP + "," + "V1.0.0");
}
else
{
swdata.WriteLine(tmp);
}
line++;
}
sr.Close();
File.Delete(EXT_CAL_PATH + "metadata_temp" + ".csv");
dmm.InitDMM(ksightConnStr);
}
extCaliHandle.SetPpmuExternalCalibration(extConnStr, extPort, 1, ExternalCalibrationMode.Channel, 1, ExtCaliVI.V, ExtCaliLoad.RC_RL7, 0);
double rload = GetRloadValue(dmm, 2000, 5);
string filetime = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
Dictionary<int, int> M013_PMU = new Dictionary<int, int>()
{
{166,114 },
{167,113 },
{168,112 },
{169,111 },
{230,242 },
{231,241 },
{232,240 },
{233,239 }
};
for (int loopk = 0; loopk < 256; loopk++)
{
double ForceVoltage = -2;
double VoltageStep = 1;
string[] PmuPinName = { ("A" + (ChannelPmu[loopk] < 10 ? "0" : "") + ChannelPmu[loopk]) };
int ch = ChannelPmu[loopk];
RELAY.SwitchMode(RelayMode.Open);
RELAY.SwitchToPPMU(PmuPinName);
string filepath = "Slot" + SlotNum + "_PMU_" + "ch" + ChannelPmu[loopk] + "_" + "FVMV" + "_" + "Hi-Z" + "_" + "2mA" + ".csv";
string filename = EXT_CAL_PATH + filepath;
StreamWriter sw = new StreamWriter(filename, true, Encoding.UTF8);
sw.AutoFlush = true;
sw.Write("Tester_Name,Foo\n");
sw.Write($"Slot_No,{SlotNum}\n");
sw.Write($"Board_Dna,{arm_dna}\n");
sw.Write("Channel_Type,PMU\n");
sw.Write($"Channel_No,{ChannelPmu[loopk]}\n");
sw.Write($"Mode,FVMV\n");
sw.Write($"R_Load,{rload}\n");
sw.Write($"R_Int,{0}\n");
sw.Write($"R_Ext,{ExtBoard_Res[ChannelPmu[loopk] - 1, SlotNum - 1]}\n");
sw.Write($"I_Range,2mA\n");
sw.Write("V_Range,20V\n");
sw.Write("Meas_Range,13V\n");
sw.Write("\n");
sw.Write("Force Value,ATE Measure,DMM Measure,Temperature\n");
extCaliHandle.SetPpmuExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.Channel, ch, ExtCaliVI.V, ExtCaliLoad.RC_RL7, 0);//change channel
if (loopk == 0)
{
DelayHelper.Sleep(20);
}
for (int p = 0; p < SampliCount; p++)
{
PPMU.Force(PmuPinName, ForceVoltage, PpmuMode.FVMV, PpmuIRange._2mA, VRange.Normal);
sw.Write($"{ForceVoltage:F8},");
Thread.Sleep(20);
List<SiteInfo> siList = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMV"), 128, 100);
double chResult = GetATEChannelMeasure(siList, PmuPinName);
sw.Write($"{chResult:F8},");
double dmmRead = dmm.GetDmmMeasureData(KeysightDMM3458A.KeysightMeasMode.VOLT, 1, 7.5);
sw.Write($"{dmmRead:F8},");
double[] readTemp = PPMU.ReadTemperature();
sw.Write($"{readTemp[GetPMUTempSensorIndex(ChannelPmu[loopk])]:F8}\n");
ForceVoltage += VoltageStep;
}
PPMU.Force(PmuPinName, 0, PpmuMode.FVMV, PpmuIRange._2mA, VRange.Normal);
sw.Flush();
sw.Close();
swdata.Write($"{arm_dna},");
swdata.Write("PMU,");
swdata.Write($"{ChannelPmu[loopk]},");
swdata.Write($"FVMV,");
swdata.Write($"{rload},");
swdata.Write($"2mA,");
swdata.Write("20V,");
swdata.Write("13V,");
swdata.Write($"{filepath},");
swdata.Write($"{filetime}\n");
swdata.Flush();
}
swdata.Flush();
swdata.Close();
Thread.Sleep(1000);
StreamReader metareader = new StreamReader(METADATA_PATH, Encoding.UTF8);
List<string> dnaip = new List<string>();
List<string> path = new List<string>();
List<string> datassingle = new List<string>();
int cnnt = 0;
while (!metareader.EndOfStream)
{
string str = metareader.ReadLine();
if (cnnt > 6)
{
if (str.Split(',')[0] == arm_dna)
{
path.Add(str);
}
}
cnnt = cnnt + 1;
}
metareader.Close();
string pmurapth = EXT_CAL_PATH + context.Communicator.ServerIP + "_" + "Pmur" + ".txt";
StreamWriter Pmur = new StreamWriter(pmurapth, true);
Pmur.AutoFlush = true;
for (int p = 0; p < path.Count; p++)
{
string dna = path[p].Split(',')[0];
string file = path[p].Split(',')[8];
StreamReader singlefile = new StreamReader(EXT_CAL_PATH + file, Encoding.UTF8);
while (!singlefile.EndOfStream)
{
datassingle.Add(singlefile.ReadLine());
}
double RL = Convert.ToDouble(datassingle[6].Split(',')[1]);//150
double rext = Convert.ToDouble(datassingle[8].Split(',')[1]);
int ChannelNum = Convert.ToInt32(datassingle[4].Split(',')[1]);
double res = 0;
for (int linefile = 14; linefile < 19; linefile++)
{
if (linefile == 16)
{
continue;
}
double ateV = Convert.ToDouble(datassingle[linefile].Split(',')[1]);
double voltage = Convert.ToDouble(datassingle[linefile].Split(',')[2]);
double iii = voltage / RL;
double diff = ateV - voltage;
double rrr = diff / iii;
res = res + (rrr - rext);
}
res = res / 4;
string ChannelFormat;
if (ChannelNum < 10)
{
ChannelFormat = "00" + Convert.ToString(ChannelNum);
}
else if ((ChannelNum >= 10) && (ChannelNum < 100))
{
ChannelFormat = "0" + Convert.ToString(ChannelNum);
}
else
{
ChannelFormat = Convert.ToString(ChannelNum);
}
Pmur.WriteLine($"ch {ChannelFormat} : {res:F3}");
datassingle.Clear();
singlefile.Close();
}
Pmur.Close();
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(EXT_CAL_PATH + SlotNum + ".flag"); //Create file flagging end of current thread
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
}
void ExternalCalibrationReset(IFlowRunnerContext context)
{
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
byte[] armDnaPortCmd = new byte[2] { 14, 57 }; // command to read arm dna
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd); //send command
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString(); //convert hex dna to decimal
int SlotNum = context.Communicator.SlotNo;
//download file to local
if(SlotNum == slotList[0])
{
DelayHelper.Sleep(1);
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(EXT_CAL_INIT_PATH + slotList[Cried - 1] + ".flag"))
{
File.Delete(EXT_CAL_INIT_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
}
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
var isDnaUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, EXT_CAL_INIT_PATH + "Dna_init.csv", FileType.dna);
LogRawText($"Dna Status: {isDnaUploadOK}");
Thread.Sleep(10);
var isMVUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, EXT_CAL_INIT_PATH + "MV_init.csv", FileType.mv);
LogRawText($"MV Status: {isMVUploadOK}");
Thread.Sleep(10);
var isMIUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, EXT_CAL_INIT_PATH + "MI_init.csv", FileType.mi);
LogRawText($"MI Status: {isMIUploadOK}");
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(EXT_CAL_INIT_PATH + SlotNum + ".flag");
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
}
void DmmGetResValue(IFlowRunnerContext context, TestVersion testVersion)
{
//config DMM3458A
KeysightDMM3458A dmm = new KeysightDMM3458A();
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
string extConnStr = Select_IP[testVersion];
int extPort = 200;
string res_path = EXT_CAL_INIT_PATH + "res.csv";
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
byte[] armDnaPortCmd = new byte[2] { 14, 57 }; // command to read arm dna
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd); //send command
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString();
int SlotNum = context.Communicator.SlotNo;
ExtCaliLoad[] RLoad_Pmu_FV = { ExtCaliLoad.RC_RL13, ExtCaliLoad.RC_RL12, ExtCaliLoad.RC_RL10, ExtCaliLoad.RC_RL8, ExtCaliLoad.RC_RL5 };
ExtCaliLoad[] RLoad_Dps_FV = { ExtCaliLoad.RC_RL13, ExtCaliLoad.RC_RL12, ExtCaliLoad.RC_RL10, ExtCaliLoad.RC_RL8, ExtCaliLoad.RC_RL5, ExtCaliLoad.RC_RL3 };
int PmuResChannel = 1;
int DpsResChannel = 1;
double[] RRange_Pmu_FV = { 10000000, 1000000, 100000, 100000, 1000 };
double[] RRange_Dps_FV = { 1000000, 1000000, 100000, 10000, 1000, 10 };
//Creat Directory
if (SlotNum == slotList[0])
{
if (File.Exists(res_path))
{
File.Delete(res_path);
}
DelayHelper.Sleep(1);
dmm.InitDMM(ksightConnStr);
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(EXT_CAL_INIT_PATH + slotList[Cried - 1] + ".flag"))
{
File.Delete(EXT_CAL_INIT_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
}
Thread.Sleep(50);
if (SlotNum == slotList[0])
{
double ResValue = 0;
StreamWriter ResWriter = new StreamWriter(res_path, true, Encoding.UTF8);
ResWriter.AutoFlush = true;
string[] dpsPinName = { "DPS1" };
string[] pmuPinName = { "A01" };
DPS.Force(dpsPinName, 0, DpsMode.FZMV, DpsIRange._2mA, VRange.Normal);
PPMU.Force(pmuPinName, 0, PpmuMode.FZMV, PpmuIRange._2mA, VRange.Normal);
for (int i = 0; i < RLoad_Pmu_FV.Length; i++)
{
extCaliHandle.SetPpmuExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.Channel, PmuResChannel, ExtCaliVI.V, RLoad_Pmu_FV[i], 0);
if (i == 0)
{
Thread.Sleep(50000);
}
else
{
Thread.Sleep(10000);
}
ResValue = GetRloadValue(dmm, RRange_Pmu_FV[i], rLimit[i]);
ResWriter.Write($"Pmu_R{i + 1},{ResValue:F5}\n");
ResWriter.Flush();
}
for (int j = 0; j < RLoad_Dps_FV.Length; j++)
{
extCaliHandle.SetDpsExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.DPS_FS, DpsResChannel, ExtCaliVI.V, RLoad_Dps_FV[j], 0);
if (j == 0)
{
Thread.Sleep(50000);
}
else
{
Thread.Sleep(10000);
}
ResValue = GetRloadValue(dmm, RRange_Dps_FV[j], rLimit[j]);
ResWriter.Write($"Dps_R{j + 1},{ResValue:F5}\n");
ResWriter.Flush();
}
ResWriter.Flush();
ResWriter.Close();
dmm.GetDmmMeasureData(KeysightDMM3458A.KeysightMeasMode.VOLT, 1, 7.5);
}
else
{
Thread.Sleep(1);
}
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(EXT_CAL_INIT_PATH + SlotNum + ".flag");
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
}
void ExternalCalibrationCollect(IFlowRunnerContext context, TestVersion testVersion, bool isFirstTest, bool isPreCheck)
{
bool isDefault = Readjson(CONFIG_JSON_PATH).Default;
List<int> Range_pmu_fvmv = Readjson(CONFIG_JSON_PATH).PMU_FVMV;
List<int> Range_pmu_fvmi = Readjson(CONFIG_JSON_PATH).PMU_FVMI;
List<int> Range_pmu_fimv = Readjson(CONFIG_JSON_PATH).PMU_FIMV;
List<int> Range_pmu_fzmv = Readjson(CONFIG_JSON_PATH).PMU_FZMV;
List<int> Range_dps_fvmv = Readjson(CONFIG_JSON_PATH).DPS_FVMV;
List<int> Range_dps_fvmi = Readjson(CONFIG_JSON_PATH).DPS_FVMI;
List<int> Range_dps_fimv = Readjson(CONFIG_JSON_PATH).DPS_FIMV;
Dictionary<TestVersion, List<int>> Select_Dps = new Dictionary<TestVersion, List<int>>()
{
{ TestVersion.Board_1K_FT, testChannelDps_1K },
{ TestVersion.Board_1K_CP, testChannelDps_1K },
{ TestVersion.Board_2K_FT, testChannelDps_2K },
{ TestVersion.Board_2K_CP, testChannelDps_2K },
{ TestVersion.Board_Ppmu_CP, testChannelDps_1K },
{ TestVersion.Board_Ppmu_FT, testChannelDps_1K },
{ TestVersion.KM_2, testChannelDps_2K }
};
Dictionary<TestVersion, string[]> Select_DpsPin = new Dictionary<TestVersion, string[]>()
{
{ TestVersion.Board_1K_FT, allDpsPinNames_1K },
{ TestVersion.Board_1K_CP, allDpsPinNames_1K },
{ TestVersion.Board_2K_FT, allDpsPinNames_2K },
{ TestVersion.Board_2K_CP, allDpsPinNames_2K },
{ TestVersion.Board_Ppmu_CP, allDpsPinNames_1K },
{ TestVersion.Board_Ppmu_FT, allDpsPinNames_1K },
{ TestVersion.KM_2, allDpsPinNames_2K}
};
List<int> ChannelDps = new List<int>();
List<int> ChannelPmu = new List<int>();
Dictionary<int, List<TestInfoSet>> slotTestInfo = new Dictionary<int, List<TestInfoSet>>();
Dictionary<string, TestParaSet> testParaSet_pmu_fvmv= new Dictionary<string,TestParaSet>();
Dictionary<string, TestParaSet> testParaSet_pmu_fvmi = new Dictionary<string, TestParaSet>();
Dictionary<string, TestParaSet> testParaSet_pmu_fimv = new Dictionary<string, TestParaSet>();
Dictionary<string, TestParaSet> testParaSet_pmu_fzmv = new Dictionary<string, TestParaSet>();
Dictionary<string, TestParaSet> testParaSet_dps_fvmv = new Dictionary<string, TestParaSet>();
Dictionary<string, TestParaSet> testParaSet_dps_fvmi = new Dictionary<string, TestParaSet>();
Dictionary<string, TestParaSet> testParaSet_dps_fimv = new Dictionary<string, TestParaSet>();
//配置延时，采样次数，采样间隔
switch (testVersion)
{
case TestVersion.Board_1K_FT:
{
testParaSet_pmu_fvmi = avgDelays_1kft_fvmi_pmu;
testParaSet_dps_fvmi = avgDelays_1kft_fvmi_dps;
testParaSet_pmu_fimv = avgDelays_1kft_fimv_pmu;
testParaSet_dps_fimv = avgDelays_1kft_fimv_dps;
}
break;
case TestVersion.Board_1K_CP:
{
testParaSet_pmu_fvmi = avgDelays_1kcp_fvmi_pmu;
testParaSet_dps_fvmi = avgDelays_1kcp_fvmi_dps;
testParaSet_pmu_fimv = avgDelays_1kcp_fimv_pmu;
testParaSet_dps_fimv = avgDelays_1kcp_fimv_dps;
}
break;
case TestVersion.Board_2K_FT:
{
testParaSet_pmu_fvmi = avgDelays_2kft_fvmi_pmu;
testParaSet_dps_fvmi = avgDelays_2kft_fvmi_dps;
testParaSet_pmu_fimv = avgDelays_2kft_fimv_pmu;
testParaSet_dps_fimv = avgDelays_2kft_fimv_dps;
}
break;
case TestVersion.Board_Ppmu_CP:
{
testParaSet_pmu_fvmi = avgDelays_ppmucp_fvmi_pmu;
testParaSet_dps_fvmi = avgDelays_ppmucp_fvmi_dps;
testParaSet_pmu_fimv = avgDelays_ppmucp_fimv_pmu;
testParaSet_dps_fimv = avgDelays_ppmucp_fimv_dps;
}
break;
case TestVersion.Board_Ppmu_FT:
{
testParaSet_pmu_fvmi = avgDelays_ppmuft_fvmi_pmu;
testParaSet_dps_fvmi = avgDelays_ppmuft_fvmi_dps;
testParaSet_pmu_fimv = avgDelays_ppmuft_fimv_pmu;
testParaSet_dps_fimv = avgDelays_ppmuft_fimv_dps;
}
break;
case TestVersion.KM_2:
{
testParaSet_pmu_fvmi = avgDelays_2km_fvmi_pmu;
testParaSet_dps_fvmi = avgDelays_2km_fvmi_dps;
testParaSet_pmu_fimv = avgDelays_2km_fimv_pmu;
testParaSet_dps_fimv = avgDelays_2km_fimv_dps;
}
break;
default:break;
}
testParaSet_pmu_fvmv = avgDelays_fvmv_pmu;
testParaSet_pmu_fzmv = avgDelays_fzmv_pmu;
testParaSet_dps_fvmv = avgDelays_fvmv_dps;
//-----get all connect slot number-----
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
//-----config dmm3458A and ExtCalibrationBoard-----
//KeysightDMM3458A dmm = new KeysightDMM3458A();
NiVisaComms dmm = new NiVisaComms();
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
string extConnStr = Select_IP[testVersion];
int extPort = port;
int temp = Select_Temp[testVersion];
//-----config Board-----
byte[] armDnaPortCmd = new byte[2] { 14, 57 };
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd);
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString();
int SlotNum = context.Communicator.SlotNo;
//-----Select PreTest or ReTest-----
#region 选择第一次测试还是复测
if (isFirstTest == true)
{
ChannelDps = Select_Dps[testVersion];
for(int m = 0; m < 256; m++)
{
ChannelPmu.Add(m + 1);
}
/*模式选择*/
TestInfo.Clear();
if (isDefault == true)//默认测试所有挡位和模式
{
TestInfo.Add(new TestInfoSet { chType = "PMU", Mode = "FVMV", Range = testRangesPmu, Channel = ChannelPmu });
TestInfo.Add(new TestInfoSet { chType = "PMU", Mode = "FVMI", Range = testRangesPmu, Channel = ChannelPmu });
TestInfo.Add(new TestInfoSet { chType = "PMU", Mode = "FIMV", Range = testRangesPmu, Channel = ChannelPmu });
TestInfo.Add(new TestInfoSet { chType = "PMU", Mode = "FZMV", Range = testRangesPmu, Channel = ChannelPmu });
TestInfo.Add(new TestInfoSet { chType = "DPS", Mode = "FVMV", Range = testRangesDps, Channel = ChannelDps });
TestInfo.Add(new TestInfoSet { chType = "DPS", Mode = "FVMI", Range = testRangesDps, Channel = ChannelDps });
TestInfo.Add(new TestInfoSet { chType = "DPS", Mode = "FIMV", Range = testRangesDps, Channel = ChannelDps });
for (int slot = 0; slot < 12; slot++)
{
slotTestInfo.Add(slot + 1, TestInfo);
}
}
else if(isDefault == false)//测试json文件中选择的挡位和模式
{
if (Range_pmu_fvmv[0] != 0)
{
TestInfo.Add(new TestInfoSet { chType = "PMU", Mode = "FVMV", Range = RangeTrans(Range_pmu_fvmv), Channel = ChannelPmu });
}
if (Range_pmu_fvmi[0] != 0)
{
TestInfo.Add(new TestInfoSet { chType = "PMU", Mode = "FVMI", Range = RangeTrans(Range_pmu_fvmi), Channel = ChannelPmu });
}
if (Range_pmu_fimv[0] != 0)
{
TestInfo.Add(new TestInfoSet { chType = "PMU", Mode = "FIMV", Range = RangeTrans(Range_pmu_fimv), Channel = ChannelPmu });
}
if (Range_pmu_fzmv[0] != 0)
{
TestInfo.Add(new TestInfoSet { chType = "PMU", Mode = "FZMV", Range = RangeTrans(Range_pmu_fzmv), Channel = ChannelPmu });
}
if (Range_dps_fvmv[0] != 0)
{
TestInfo.Add(new TestInfoSet { chType = "DPS", Mode = "FVMV", Range = RangeTrans(Range_dps_fvmv), Channel = ChannelDps });
}
if (Range_dps_fvmi[0] != 0)
{
TestInfo.Add(new TestInfoSet { chType = "DPS", Mode = "FVMI", Range = RangeTrans(Range_dps_fvmi), Channel = ChannelDps });
}
if (Range_dps_fimv[0] != 0)
{
TestInfo.Add(new TestInfoSet { chType = "DPS", Mode = "FIMV", Range = RangeTrans(Range_dps_fimv), Channel = ChannelDps });
}
for (int slot = 0; slot < 12; slot++)
{
slotTestInfo.Add(slot + 1, TestInfo);
}
}
}
//-----read fail log to start second test-----
if(isFirstTest == false)
{
for (int slot = 0; slot < 12; slot++)
{
slotTestInfo.Add(slot + 1, new List<TestInfoSet>());
}
TestInfo.Clear();
ChannelDps.Clear();
ChannelPmu.Clear();
if (File.Exists(RETEST_LOG_PATH))
{
StreamReader FailInfo = new StreamReader(RETEST_LOG_PATH, Encoding.UTF8);
int failLine = 0;
while (!FailInfo.EndOfStream)
{
string tmp = FailInfo.ReadLine();
if (failLine > 0)
{
int failSlot = Convert.ToInt16(tmp.Split(',')[0]);
string failType = tmp.Split(',')[1];
string failMode = tmp.Split(',')[2];
List<string> failRange = new List<string>();
failRange.Add(tmp.Split(',')[3]);
List<int> failChannel = new List<int>();
string failSet = tmp.Split(',')[4];
string[] failChSet = failSet.Split('_');
for (int failCount = 0; failCount < failChSet.Length; failCount++)
{
failChannel.Add(Convert.ToInt32(failChSet[failCount]));
}
slotTestInfo[failSlot].Add(new TestInfoSet { chType = failType, Mode = failMode, Range = failRange, Channel = failChannel });
}
failLine++;
}
FailInfo.Close();
}
}
#endregion
//-----Read R File-----
Dictionary<string, string> RlPmuFv = ReadRload(EXT_CAL_INIT_PATH + "res.csv")[0];
Dictionary<string, string> RlPmuFi = ReadRload(EXT_CAL_INIT_PATH + "res.csv")[1];
Dictionary<string, string> RlDpsFv = ReadRload(EXT_CAL_INIT_PATH + "res.csv")[2];
Dictionary<string, string> RlDpsFi = ReadRload(EXT_CAL_INIT_PATH + "res.csv")[3];
double[,] ExtBoard_Res = ReadRext(EXT_CAL_INIT_PATH + "ExtBoardRes.csv");
//-----Move File To History-----
try
{
string DateCode = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
if (SlotNum == slotList[0])
{
if(isPreCheck == true)
{
EmptyDir(CAL_COMPFILE_PATH);
ClearPrePostFile(CAL_PRECHECK_PATH);
ClearPrePostFile(CAL_POSTCHECK_PATH);
}
else if(isPreCheck == false)
{
Thread.Sleep(1);
}
if (Directory.Exists(EXT_CAL_MV_PATH))
{
if (!Directory.Exists(EXT_CAL_HISTORY_PATH))
{
Directory.CreateDirectory(EXT_CAL_HISTORY_PATH);
}
Directory.Move(EXT_CAL_MV_PATH, EXT_CAL_HISTORY_PATH + DateCode);
}
if (Directory.Exists(EXT_CAL_PATH))
{
Directory.Move(EXT_CAL_PATH, EXT_CAL_MV_PATH);
}
Directory.CreateDirectory(EXT_CAL_PATH);
}
}
catch (Exception ex)
{
LogRawText(ex.StackTrace);
throw ex;
}
//-----Start Slot Number-----
//Write Meta DATA
StreamWriter swdata;
swdata = new StreamWriter(METADATA_PATH, true, Encoding.UTF8);
swdata.AutoFlush = true;
metadata_handler(
swdata: swdata,
SlotNum: SlotNum,
slotList: slotList,
arm_dna: arm_dna,
context: context,
init_Flag: true
);
//-----Start Data Collection-----
dmm.Init(ksightConnStr);
List<TestInfoSet> Info = slotTestInfo[SlotNum];
//{0:PMU_FVMV; 1:PMU_FVMI; 2:PMU_FIMV; 3:PMU_FZMV; 4:DPS_FVMV; 5:DPS_FVMI; 6:DPS_FIMV}
for (int loopi = 0; loopi < Info.Count/*Info.Count*/; loopi ++)//-----Loop Mode and Type-----
{
string Type = Info[loopi].chType;
string Mode = Info[loopi].Mode;
List<string> ListRanges = Info[loopi].Range;
List<int> ListChannels = Info[loopi].Channel;
//{0:5uA; 1:20uA; 2:200uA; 3:2mA; 4:60mA; 5:1A}
for (int loopj = 0; loopj < ListRanges.Count/*ListRanges.Count*/; loopj++)//-----Loop Range-----
{
dmm.ClearReadingMemory();//Reset Dmm
dmm.ResetInstrument();
string Range = ListRanges[loopj];
if (Range == "1A" && Mode == "FIMV")
{
continue;
}
Dictionary<int, double[]> AteMeasureDir = new Dictionary<int, double[]>();
Dictionary<int, double[]> ForceValueDir = new Dictionary<int, double[]>();
Dictionary<int, double[]> DmmMeasureDir = new Dictionary<int, double[]>();
List<int> testCh = new List<int>();
ExtCaliLoad Rcut = (Mode == "FVMV") ? ExtCaliLoad.no_load : Rcut_MIFI[Range];
string Rload = (Mode == "FVMV" || Mode == "FZMV") ? "Hi-Z" : strRloadFvmi[Range];
string rl = "";
if (Mode == "FVMV" || Mode == "FZMV")
{
rl = "Hi-Z";
}
else
{
if (Type == "PMU")
{
rl = (Mode == "FVMI") ? RlPmuFv[Range] : RlPmuFi[Range];
}
else if(Type == "DPS")
{
rl = (Mode == "FVMI") ? RlDpsFv[Range] : RlDpsFi[Range];
}
}
switch(Mode)
{
case "FVMV":
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 7.5, 0.04);
}
break;
case "FVMI":
{
if(Type == "PMU")
{
if(Range == "60mA")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.CURR, DmmCurrRanges[Range], 0.04);
}
else
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 7.5, 0.04);
}
}
else
{
if (Range == "60mA" || Range == "1A")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.CURR, DmmCurrRanges[Range], 1);
}
else
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 7.5, 0.04);
}
}
}
break;
case "FZMV":
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 7.5, 0.04);
}
break;
case "FIMV":
{
if (Type == "PMU")
{
if (Range == "60mA")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 0.04);
}
else if (Range == "5uA")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 1);
}
else if (Range == "20uA")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 1);
}
else if (Range == "200uA")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 1);
}
else
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 0.04);
}
}
else
{
if (Range == "60mA")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 0.04);
}
else if (Range == "5uA")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 1);
}
else if (Range == "20uA")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 2);
}
else if (Range == "200uA")
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 1);
}
else
{
dmm.Setup(NiVisaComms.Dmm3458AMeasureMode.VOLT, 5, 0.04);
}
}
}
break;
default:break;
}
string[] PmuPinName_FZ = new string[1];
string[] PmuPinName_FV = new string[1];
string[] PmuPinName_FZFV = new string[2];
for (int loopk = 0; loopk < ListChannels.Count/*ListChannels.Count*/; loopk++)//-----Loop Channel-----
{
if (Type == "PMU")
{
int ch = ListChannels[loopk];
string[] PmuPinName = { ("A" + (ListChannels[loopk] < 10 ? "0" : "") + ListChannels[loopk]) };
PmuPinName_FZ[0] = ("A" + (ListChannels[loopk] < 10 ? "0" : "") + ListChannels[loopk]);
if ((ListChannels[loopk] % 8 >= 1) && (ListChannels[loopk] % 8 <= 4))
{
PmuPinName_FV[0] = ("A" + ((ListChannels[loopk] + 4) < 10 ? "0" : "") + (ListChannels[loopk] + 4));
}
else if ((ListChannels[loopk] % 8 > 4) || (ListChannels[loopk] % 8 == 0))//kChannel == 4, 12
{
PmuPinName_FV[0] = ("A" + ((ListChannels[loopk] - 4) < 10 ? "0" : "") + (ListChannels[loopk] - 4));
}
//PmuPinName_FV[0] = FZMV_PMU[PmuPinName_FZ[0]];
PmuPinName_FZFV[0] = PmuPinName_FZ[0];
PmuPinName_FZFV[1] = PmuPinName_FV[0];
RELAY.SwitchMode(RelayMode.Open);
if (ModesPmu[Mode] == PpmuMode.FZMV)
{
RELAY.SwitchToPPMU(PmuPinName_FZFV);
}
else
{
RELAY.SwitchToPPMU(PmuPinName);
}
double ForceVoltage = VoltageInitialDefault;
double VoltageStep = VoltageStepDefault;
if (ModesPmu[Mode] == PpmuMode.FVMI)
{
if (RangesPmu[Range] == PpmuIRange._60mA || RangesPmu[Range] == PpmuIRange._5uA)
{
ForceVoltage = VoltageInitialSet;
VoltageStep = VoltageStepSet;
}
if (RangesPmu[Range] == PpmuIRange._20uA)
{
ForceVoltage = VoltageInitialSet;
}
}
double[] AteMeasure = new double[5];
double[] ForceValue = new double[5];
switch (Info[loopi].Mode)
{
case "FVMV":
{
extCaliHandle.SetPpmuExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.Channel, ch, ExtCaliVI.V, Rcut, 0);//change channel
Thread.Sleep(5);
for (int p = 0; p < SampliCount; p++)
{
PPMU.Force(PmuPinName, ForceVoltage, ModesPmu[Mode], RangesPmu[Range], VRange.Normal);
Thread.Sleep(1);
PPMU.Force(PmuPinName, ForceVoltage, ModesPmu[Mode], RangesPmu[Range], VRange.Normal);
Thread.Sleep(testParaSet_pmu_fvmv[Range].delayMs);
dmm.TriggerSingleMeasure();
List<SiteInfo> siList = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMV"), testParaSet_pmu_fvmv[Range].avgTimes, testParaSet_pmu_fvmv[Range].samDelay);
double chResult = GetATEChannelMeasure(siList, PmuPinName);
AteMeasure[p] = chResult;
ForceValue[p] = ForceVoltage;
ForceVoltage += VoltageStep;
}
PPMU.Force(PmuPinName, 0, PpmuMode.FVMV, RangesPmu[Range], VRange.Normal);
Thread.Sleep(5);
}
break;
case "FVMI":
{
if (RangesPmu[Range] == PpmuIRange._60mA)
{
extCaliHandle.SetPpmuExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.Channel, ch, ExtCaliVI.I, Rcut, 0);
Thread.Sleep(15);
for (int p = 0; p < SampliCount; p++)
{
PPMU.Force(PmuPinName, ForceVoltage, ModesPmu[Mode], RangesPmu[Range], VRange.Normal);
Thread.Sleep(testParaSet_pmu_fvmi[Range].delayMs);
dmm.TriggerSingleMeasure();
List<SiteInfo> siList = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMI"), testParaSet_pmu_fvmi[Range].avgTimes, testParaSet_pmu_fvmi[Range].samDelay);
double chResult = GetATEChannelMeasure(siList, PmuPinName);
AteMeasure[p] = chResult;
ForceValue[p] = ForceVoltage / (Convert.ToDouble(RlPmuFv[Range]) + ExtBoard_Res[ch - 1, SlotNum - 1]);
ForceVoltage += VoltageStep;
}
}
else
{
extCaliHandle.SetPpmuExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.Channel, ch, ExtCaliVI.V, Rcut, 0);
Thread.Sleep(5);
if(loopk == 0)
{
Thread.Sleep(5);
}
for (int p = 0; p < SampliCount; p++)
{
PPMU.Force(PmuPinName, ForceVoltage, ModesPmu[Mode], RangesPmu[Range], VRange.Normal);
Thread.Sleep(testParaSet_pmu_fvmi[Range].delayMs);
dmm.TriggerSingleMeasure();
List<SiteInfo> siList = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMI"), testParaSet_pmu_fvmi[Range].avgTimes, testParaSet_pmu_fvmi[Range].samDelay);
double chResult = GetATEChannelMeasure(siList, PmuPinName);
AteMeasure[p] = chResult;
ForceValue[p] = ForceVoltage / (Convert.ToDouble(RlPmuFv[Range]) + ExtBoard_Res[ch - 1, SlotNum - 1]);
if (RangesPmu[Range] == PpmuIRange._20uA)
{
ForceVoltage += VoltageStep20uA[p];
}
else
{
ForceVoltage += VoltageStep;
}
}
}
PPMU.Force(PmuPinName, 0, PpmuMode.FVMV, RangesPmu[Range], VRange.Normal);
Thread.Sleep(10);
}
break;
case "FIMV":
{
extCaliHandle.SetPpmuExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.Channel, ch, ExtCaliVI.V, Rcut, 0);
Thread.Sleep(5);
for (int p = 0; p < SampliCount; p++)
{
double ForceCurrent = FiRanges[Range] * CurrScale[p];//Force Current
PPMU.Force(PmuPinName, ForceCurrent, ModesPmu[Mode], RangesPmu[Range], VRange.Normal);
Thread.Sleep(testParaSet_pmu_fimv[Range].delayMs);
dmm.TriggerSingleMeasure();
if (Range == "5uA" || Range == "20uA")
{
if (loopk == 0 && p == 0)
{
Thread.Sleep(50);
}
Thread.Sleep(20);
}
if (Range == "200uA")
{
Thread.Sleep(50);
}
List<SiteInfo> siList = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FIMV"), testParaSet_pmu_fimv[Range].avgTimes, testParaSet_pmu_fimv[Range].samDelay);
double chResult = GetATEChannelMeasure(siList, PmuPinName);
AteMeasure[p] = chResult / (Convert.ToDouble(RlPmuFi[Range]) + ExtBoard_Res[ch - 1, SlotNum - 1]);
ForceValue[p] = ForceCurrent;
}
PPMU.Force(PmuPinName, 0, PpmuMode.FVMV, RangesPmu[Range], VRange.Normal);
Thread.Sleep(10);
}
break;
case "FZMV":
{
extCaliHandle.SetPpmuExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.Channel, ch, ExtCaliVI.V, ExtCaliLoad.no_load, 0);
Thread.Sleep(5);
for (int p = 0; p < SampliCount; p++)
{
PPMU.Force(PmuPinName_FV, ForceVoltage, PpmuMode.FVMV, RangesPmu[Range], VRange.Normal);
Thread.Sleep(1);
PPMU.Force(PmuPinName_FV, ForceVoltage, PpmuMode.FVMV, RangesPmu[Range], VRange.Normal);
PPMU.Force(PmuPinName_FZ, ForceVoltage, PpmuMode.FZMV, RangesPmu[Range], VRange.Normal);
Thread.Sleep(testParaSet_pmu_fzmv[Range].delayMs);
dmm.TriggerSingleMeasure();
List<SiteInfo> siList = PPMU.Measure(PmuPinName_FZ, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMV"), testParaSet_pmu_fzmv[Range].avgTimes, testParaSet_pmu_fzmv[Range].samDelay);
double chResult = GetATEChannelMeasure(siList, PmuPinName_FZ);
AteMeasure[p] = chResult;
ForceValue[p] = ForceVoltage;
ForceVoltage += VoltageStep;
}
PPMU.Force(PmuPinName_FV, 0, PpmuMode.FVMV, RangesPmu[Range], VRange.Normal);
PPMU.Force(PmuPinName_FZ, 0, PpmuMode.FVMV, RangesPmu[Range], VRange.Normal);
Thread.Sleep(5);
PPMU.Force(PmuPinName_FV, 0, PpmuMode.FZMV, RangesPmu[Range], VRange.Normal);
PPMU.Force(PmuPinName_FZ, 0, PpmuMode.FZMV, RangesPmu[Range], VRange.Normal);
Thread.Sleep(5);
}
break;
default:break;
}
AteMeasureDir.Add(ListChannels[loopk], AteMeasure);
ForceValueDir.Add(ListChannels[loopk], ForceValue);
testCh.Add(ListChannels[loopk]);
}
else if(Type == "DPS")
{
string[] DpsPinName = { ("DPS" + ListChannels[loopk]) };
string[] allDpsPinNames = Select_DpsPin[testVersion];
double ForceVoltage = (RangesDps[Range] == DpsIRange._1A) ? VoltageInitialDps1A : VoltageInitialDefault;//1A for range
double VoltageStep = (RangesDps[Range] == DpsIRange._1A) ? VoltageStepDps1A : VoltageStepDefault;
if (ModesDps[Mode] == DpsMode.FVMI)
{
if (RangesDps[Range] != DpsIRange._1A)
{
ForceVoltage = VoltageInitialSet;
VoltageStep = VoltageStepSet;
}
}
int ch = ListChannels[loopk];
DpsRangeRelay.SetDpsRangeRelayBySignals(allDpsPinNames, DpsRelayState.OPEN, context);
switch (RangesDps[Range])
{
case DpsIRange._60mA:
{
DpsRangeRelay.SetDpsRangeRelayBySignals(DpsPinName, DpsRelayState._60MA, context);
}
break;
case DpsIRange._1A:
{
DpsRangeRelay.SetDpsRangeRelayBySignals(DpsPinName, DpsRelayState.EXT, context);
}
break;
default:
{
DpsRangeRelay.SetDpsRangeRelayBySignals(DpsPinName, DpsRelayState.INT, context);
}
break;
}
double[] AteMeasure = new double[5];
double[] ForceValue = new double[5];
switch (Info[loopi].Mode)
{
case "FVMV":
{
extCaliHandle.SetDpsExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.DPS_FS, ch, ExtCaliVI.V, Rcut, 0);//change channel
Thread.Sleep(10);
for (int p = 0; p < SampliCount; p++)
{
DPS.Force(DpsPinName, ForceVoltage, ModesDps[Mode], RangesDps[Range], VRange.Normal);
Thread.Sleep(testParaSet_dps_fvmv[Range].delayMs);
if ((ListChannels[loopk] == 2 || ListChannels[loopk] == 3) && testVersion == TestVersion.Board_2K_FT)
{
Thread.Sleep(50);
}
dmm.TriggerSingleMeasure();
List<SiteInfo> siList = DPS.Measure(DpsPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMV"), testParaSet_dps_fvmv[Range].avgTimes, testParaSet_dps_fvmv[Range].samDelay);
double chResult = GetATEChannelMeasure(siList, DpsPinName);
ForceValue[p] = ForceVoltage;
AteMeasure[p] = chResult;
ForceVoltage += VoltageStep;
}
DPS.Force(DpsPinName, 0, DpsMode.FVMV, RangesDps[Range], VRange.Normal);
Thread.Sleep(5);
}
break;
case "FVMI":
{
if ((RangesDps[Range] == DpsIRange._60mA) || (RangesDps[Range] == DpsIRange._1A))
{
extCaliHandle.SetDpsExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.DPS_FS, ch, ExtCaliVI.I, Rcut, 0);
Thread.Sleep(20);
for (int p = 0; p < SampliCount; p++)
{
DPS.Force(DpsPinName, ForceVoltage, ModesDps[Mode], RangesDps[Range], VRange.Normal);
double CurrValue = ForceVoltage / Convert.ToDouble(RlDpsFv[Range]);
Thread.Sleep(testParaSet_dps_fvmi[Range].delayMs);
if (loopk == 0 || p == 0)
{
Thread.Sleep(100);
}
dmm.TriggerSingleMeasure();
Thread.Sleep(50);
List<SiteInfo> siList = DPS.Measure(DpsPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMI"), testParaSet_dps_fvmi[Range].avgTimes, testParaSet_dps_fvmi[Range].samDelay);
double chResult = GetATEChannelMeasure(siList, DpsPinName);
ForceValue[p] = CurrValue;
AteMeasure[p] = chResult;
ForceVoltage += VoltageStep;
}
}
else
{
extCaliHandle.SetDpsExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.DPS_FS, ch, ExtCaliVI.V, Rcut, 0);
Thread.Sleep(20);
for (int p = 0; p < SampliCount; p++)
{
DPS.Force(DpsPinName, ForceVoltage, ModesDps[Mode], RangesDps[Range], VRange.Normal);
double CurrValue = ForceVoltage / Convert.ToDouble(RlDpsFv[Range]);
Thread.Sleep(testParaSet_dps_fvmi[Range].delayMs);
dmm.TriggerSingleMeasure();
if (p == 0)
{
if (Range == "5uA")
{
Thread.Sleep(10);
}
else if (Range == "20uA")
{
Thread.Sleep(50);
}
else if (Range == "200uA")
{
Thread.Sleep(100);
}
else
{
Thread.Sleep(10);
}
}
List<SiteInfo> siList = DPS.Measure(DpsPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMI"), testParaSet_dps_fvmi[Range].avgTimes, testParaSet_dps_fvmi[Range].samDelay);
double chResult = GetATEChannelMeasure(siList, DpsPinName);
ForceValue[p] = CurrValue;
AteMeasure[p] = chResult;
ForceVoltage += VoltageStep;
}
}
DPS.Force(DpsPinName, 0, DpsMode.FVMV, RangesDps[Range], VRange.Normal);
Thread.Sleep(10);
}
break;
case "FIMV":
{
extCaliHandle.SetDpsExternalCalibration(extConnStr, extPort, SlotNum, ExternalCalibrationMode.DPS_FS, ch, ExtCaliVI.V, Rcut, 0);
Thread.Sleep(10);
for (int p = 0; p < SampliCount; p++)
{
double ForceCurrent = FiRanges[Range] * CurrScale[p];//Force Current
DPS.Force(DpsPinName, ForceCurrent, ModesDps[Mode], RangesDps[Range], VRange.Normal);
Thread.Sleep(testParaSet_dps_fimv[Range].delayMs);
if (Range == "5uA" || Range == "20uA")
{
if (ListChannels[loopk] == 33 || ListChannels[loopk] == 1)
{
if (Range == "20uA")
{
Thread.Sleep(30);
}
if (Range == "5uA")
{
Thread.Sleep(50);
}
}
}
dmm.TriggerSingleMeasure();
if (Range == "5uA" || Range == "20uA" || Range == "200uA")
{
if(p == 0)
{
Thread.Sleep(50);
}
if (Range == "5uA")
{
Thread.Sleep(25);
}
else if (Range == "20uA")
{
Thread.Sleep(50);
}
else if (Range == "200uA")
{
Thread.Sleep(50);
}
}
List<SiteInfo> siList = DPS.Measure(DpsPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FIMV"), testParaSet_dps_fimv[Range].avgTimes, testParaSet_dps_fimv[Range].samDelay);
double chResult = GetATEChannelMeasure(siList, DpsPinName);
ForceValue[p] = ForceCurrent;
AteMeasure[p] = chResult / Convert.ToDouble(RlDpsFi[Range]);
}
DPS.Force(DpsPinName, 0, DpsMode.FZMV, RangesDps[Range], VRange.Normal);
Thread.Sleep(10);
}
break;
default:break;
}
AteMeasureDir.Add(ListChannels[loopk], AteMeasure);
ForceValueDir.Add(ListChannels[loopk], ForceValue);
testCh.Add(ListChannels[loopk]);
}
}
//Read Back Value From DMM
int DataCount = testCh.Count * SampliCount;
double[] dmmRead = dmm.MultiRead(DataCount);
dmm.ClearReadingMemory();
DmmMeasureDir = ReadBackDmm(dmmRead, testCh);
//Write Data to File
if (Type == "PMU")
{
for (int writeNum = 0; writeNum < testCh.Count; writeNum++)
{
int ch = testCh[writeNum];
string filepath = "Slot" + SlotNum + "_PMU_" + "ch" + ch + "_" + Mode + "_" + Rload + "_" + Range + ".csv";
string filename = EXT_CAL_PATH + filepath;
string filetime = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
WriteSingleFile(
filename: filename,
slot: SlotNum,
dna: arm_dna,
type: Type,
channel: ch,
mode: Mode,
rload: rl,
extR: ExtBoard_Res,
range: Range,
ForceValue: ForceValueDir[ch],
AteMeasure: AteMeasureDir[ch],
DmmMeasure: DmmMeasureDir[ch]
);
metadata_handler(
swdata: swdata,
SlotNum: SlotNum,
slotList: slotList,
arm_dna: arm_dna,
context: context,
init_Flag: false,
Type:Type,
Channel:ch,
Mode:Mode,
Rload:rl,
Range:Range,
filepath:filepath,
filetime:filetime
);
}
}
else
{
for (int writeNum = 0; writeNum < testCh.Count; writeNum++)
{
int ch = testCh[writeNum];
string filepath = "Slot" + SlotNum + "_DPS_" + "ch" + ch + "_" + Mode + "_" + Rload + "_" + Range + ".csv";
string filename = EXT_CAL_PATH + filepath;
string filetime = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
double[,] ZeroExtR = {
{ 0.0 , 0.0 , 0.0}
};
WriteSingleFile(
filename:filename,
slot: SlotNum,
dna :arm_dna,
type: Info[loopi].chType,
channel:ch,
mode:Mode,
rload:rl,
extR: ZeroExtR,
range:Range,
ForceValue:ForceValueDir[ch],
AteMeasure:AteMeasureDir[ch],
DmmMeasure:DmmMeasureDir[ch]
);
metadata_handler(
swdata: swdata,
SlotNum: SlotNum,
slotList: slotList,
arm_dna: arm_dna,
context: context,
init_Flag: false,
Type: Type,
Channel: ch,
Mode: Mode,
Rload: rl,
Range: Range,
filepath: filepath,
filetime: filetime
);
}
}
}
}
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(EXT_CAL_PATH + SlotNum + ".flag"); //Create file flagging end of current thread
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
dmm.ResetInstrument();
swdata.Flush();
swdata.Close();
}
void ExternalCalibrationWriteCalFiles(IFlowRunnerContext context)
{
//read dna and ip
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
byte[] armDnaPortCmd = new byte[2] { 14, 57 }; // command to read arm dna
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd); //send command
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString(); //convert hex dna to decimal
int SlotNum = context.Communicator.SlotNo;
ExternalCalibrationHandle extCaliHandle = new ExternalCalibrationHandle();
if(SlotNum == slotList[0])
{
DelayHelper.Sleep(1);
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(CAL_COMPFILE_PATH + slotList[Cried - 1] + ".flag")) //Wait until previous thread flags completion
{
File.Delete(CAL_COMPFILE_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
}
//Write files
Thread.Sleep(10);
var isDnaUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, CAL_COMPFILE_PATH + "DNA_" + context.Communicator.ServerIP + ".csv", FileType.dna);
LogRawText($"Dna Status: {isDnaUploadOK}");
Thread.Sleep(10);
var isMVUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, CAL_COMPFILE_PATH + context.Communicator.ServerIP + "_MV.csv", FileType.mv);
LogRawText($"MV Status: {isMVUploadOK}");
Thread.Sleep(10);
var isMIUploadOK = extCaliHandle.UploadFile(context.Communicator.ServerIP, CAL_COMPFILE_PATH + context.Communicator.ServerIP + "_MI.csv", FileType.mi);
LogRawText($"MI Status: {isMIUploadOK}");
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(CAL_COMPFILE_PATH + SlotNum + ".flag"); //Create file flagging end of current thread
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
}
#endregion
[TestrongTestCase]
public void Reset(IFlowRunnerContext context)
{
ExternalCalibrationReset(context);
}
[TestrongTestCase]
public void DmmGetRes(IFlowRunnerContext context)
{
DmmGetResValue(context, SelectTestVersion);
}
[TestrongTestCase]
public void Ext_Calibration_Pre(IFlowRunnerContext context)
{
ExternalCalibrationCollect(context, SelectTestVersion, true, true);
}
[TestrongTestCase]
public void Write_CalFiles(IFlowRunnerContext context)
{
ExternalCalibrationWriteCalFiles(context);
}
[TestrongTestCase]
public void Ext_Calibration_Post(IFlowRunnerContext context)
{
ExternalCalibrationCollect(context, SelectTestVersion, true, false);
}
[TestrongTestCase]
public void RintReset(IFlowRunnerContext context)
{
Rint_Reset(context);
}
[TestrongTestCase]
public void Rint_Pre(IFlowRunnerContext context)
{
Rint_FVMV_2mA_Pre(context, SelectTestVersion);
}
[TestrongTestCase]
public void RintDataUpload(IFlowRunnerContext context)
{
Rint_DataUpload(context);
}
[TestrongTestCase]
public void Rint_Post(IFlowRunnerContext context)
{
Rint_FVMV_2mA_Post(context, SelectTestVersion);
}
[TestrongTestCase]
public void PmurUpload(IFlowRunnerContext context)
{
Pmur_Upload(context);
}
[TestrongTestCase]
public void ReTest(IFlowRunnerContext context)
{
ExternalCalibrationCollect(context, SelectTestVersion, false, false);
}
[TestrongTestCase]
public void Freq_Test(IFlowRunnerContext context)
{
ExternalCalibrationFreqCollect(context, SelectTestVersion);
}
[TestrongTestCase]
public void Rint_FVMI_Gnd(IFlowRunnerContext context)
{
List<int> ChannelPmu = new List<int>();
for (int m = 0; m < 256; m++)
{
ChannelPmu.Add(m + 1);
}
var slotInfos = context.FlowCatalog.GetAll<SlotInfo>();
List<int> slotList = new List<int>();
for (int slotLen = 0; slotLen < slotInfos.Count; slotLen++)
{
if (slotInfos[slotLen].FirmwareVersion == "")
{
continue;
}
slotList.Add(slotInfos[slotLen].No);
}
//-----config Board-----
byte[] armDnaPortCmd = new byte[2] { 14, 57 };
byte[] armDnaRaw = context.Communicator.Send(armDnaPortCmd);
armDnaRaw = armDnaRaw.Reverse().ToArray();
string arm_dna = BitConverter.ToUInt64(armDnaRaw, 0).ToString();
int SlotNum = context.Communicator.SlotNo;
double[,] ExtBoard_Res = ReadRext(EXT_CAL_INIT_PATH + "ExtBoardRes.csv");
try
{
string DateCode = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
if (SlotNum == slotList[0])
{
if (Directory.Exists(EXT_CAL_MV_PATH))
{
if (!Directory.Exists(EXT_CAL_HISTORY_PATH))
{
Directory.CreateDirectory(EXT_CAL_HISTORY_PATH);
}
Directory.Move(EXT_CAL_MV_PATH, EXT_CAL_HISTORY_PATH + DateCode);
}
if (Directory.Exists(EXT_CAL_PATH))
{
Directory.Move(EXT_CAL_PATH, EXT_CAL_MV_PATH);
}
Directory.CreateDirectory(EXT_CAL_PATH);
}
}
catch (Exception ex)
{
LogRawText(ex.StackTrace);
throw ex;
}
//-----Start Slot Number-----
StreamWriter swdata;
if (SlotNum == slotList[0])
{
swdata = new StreamWriter(METADATA_PATH, true, Encoding.UTF8);
swdata.AutoFlush = true;
swdata.WriteLine("Tester_Name,Board_Id,Slot_Ip,Stil_Version");
for (int w = 0; w < 12; w++)
{
if (w == (slotList[0] - 1))
{
swdata.WriteLine($"Slot{SlotNum},{arm_dna},{context.Communicator.ServerIP},V1.0.0");
}
else
{
swdata.WriteLine($"Slot{(w + 1)}");
}
}
for (int i = 0; i < 1; i++)
{
swdata.WriteLine();
}
swdata.Write("Slot_Dna,Channel_Type,Channel_No,Mode,R_Load,I_Range,V_Range,Meas_Range,File_Path,File_Time\n");
}
else
{
int Cried = slotList.FindIndex(x => x.Equals(SlotNum));
while (true)
{
Thread.Sleep(1000);
if (File.Exists(EXT_CAL_PATH + slotList[Cried - 1] + ".flag")) //Wait until previous thread flags completion
{
File.Delete(EXT_CAL_PATH + slotList[Cried - 1] + ".flag");
break;
}
}
File.Move(METADATA_PATH, EXT_CAL_PATH + "metadata_temp" + ".csv");
StreamReader sr = new StreamReader(EXT_CAL_PATH + "metadata_temp" + ".csv", Encoding.UTF8);
swdata = new StreamWriter(METADATA_PATH, true, Encoding.UTF8);
swdata.AutoFlush = true;
int line = 0;
while (!sr.EndOfStream)
{
string tmp = sr.ReadLine();
if (line == slotList[Cried])
{
swdata.WriteLine("Slot" + SlotNum + "," + arm_dna + "," + context.Communicator.ServerIP + "," + "V1.0.0");
}
else
{
swdata.WriteLine(tmp);
}
line++;
}
sr.Close();
File.Delete(EXT_CAL_PATH + "metadata_temp" + ".csv");
}
string filetime = DateTime.Now.ToString("yyyy-MM-dd HH-mm-ss");
for (int loopk = 0; loopk < 256; loopk++)
{
string[] PmuPinName = { ("A" + (ChannelPmu[loopk] < 10 ? "0" : "") + ChannelPmu[loopk]) };
RELAY.SwitchMode(RelayMode.Open);
RELAY.SwitchToPPMU(PmuPinName);
double ForceCurrent = -0.001;//1mA
double CurrentStep = 0.0005;
double ForceV = -0.008;
double Vstep = 0.0004;
string filepath = "Slot" + SlotNum + "_PMU_" + "ch" + ChannelPmu[loopk] + "_" + "FVMI" + "_" + "Hi-Z" + "_" + "2mA" + ".csv";
string filename = EXT_CAL_PATH + filepath;
StreamWriter sw = new StreamWriter(filename, true, Encoding.UTF8);
sw.AutoFlush = true;
sw.Write("Tester_Name,Foo\n");
sw.Write($"Slot_No,{SlotNum}\n");
sw.Write($"Board_Dna,{arm_dna}\n");
sw.Write("Channel_Type,PMU\n");
sw.Write($"Channel_No,{ChannelPmu[loopk]}\n");
sw.Write($"Mode,FVMI\n");
sw.Write($"R_Load,Hi-Z\n");
sw.Write($"R_Int,{0}\n");
sw.Write($"R_Ext,{0}\n");
sw.Write($"I_Range,2mA\n");
sw.Write("V_Range,20V\n");
sw.Write("Meas_Range,13V\n");
sw.Write("\n");
if (loopk == 0)
{
DelayHelper.Sleep(20);
}
//Force 0V Measure Voltage
PPMU.Force(PmuPinName, 0, PpmuMode.FVMV, PpmuIRange._2mA, VRange.Normal);
List<SiteInfo> zero_V_List = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMV"), 128, 100);
double zeroVResult = GetATEChannelMeasure(zero_V_List, PmuPinName);
sw.Write($"Force_0V_MV={zeroVResult * 1000:F8}mV\n");
//Force 0V Measure Current
PPMU.Force(PmuPinName, 0, PpmuMode.FVMI, PpmuIRange._2mA, VRange.Normal);
List<SiteInfo> zero_I_List = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMI"), 128, 100);
double zeroIResult = GetATEChannelMeasure(zero_I_List, PmuPinName);
sw.Write($"Force_0V_MI={zeroIResult * 1000:F8}mA\n");
sw.Write("Force Voltage(mV),Measure Voltage(mV),Measure Current(mA),Diff_Voltage(mV),Resistance(FV/MI),Resistance(Caled)\n");
for (int p = 0; p < 50; p++)
{
PPMU.Force(PmuPinName, ForceV, PpmuMode.FVMI, PpmuIRange._2mA, VRange.Normal);
sw.Write($"{ForceV * 1000:F8},");
Thread.Sleep(20);
List<SiteInfo> siList = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMI"), 128, 100);
double chResult = GetATEChannelMeasure(siList, PmuPinName);
PPMU.Force(PmuPinName, ForceV, PpmuMode.FVMV, PpmuIRange._2mA, VRange.Normal);
List<SiteInfo> svList = PPMU.Measure(PmuPinName, true, context.BinHandler.GetBinningByTestSuite("ExtCalibration_FVMV"), 128, 100);
double chVResult = GetATEChannelMeasure(svList, PmuPinName);
sw.Write($"{chVResult * 1000:F8},");
sw.Write($"{chResult * 1000:F8},");
sw.Write($"{(chVResult - ForceV) * 1000:F8},");
sw.Write($"{ForceV / chResult:F8},");
sw.Write($"{(ForceV - zeroVResult) / (chResult - zeroIResult):F8}\n");
//ForceCurrent += CurrentStep;
ForceV += Vstep;
}
PPMU.Force(PmuPinName, 0, PpmuMode.FVMI, PpmuIRange._2mA, VRange.Normal);
sw.Flush();
sw.Close();
swdata.Write($"{arm_dna},");
swdata.Write("PMU,");
swdata.Write($"{ChannelPmu[loopk]},");
swdata.Write($"FVMI,");
swdata.Write($"Hi-Z,");
swdata.Write($"2mA,");
swdata.Write("20V,");
swdata.Write("13V,");
swdata.Write($"{filepath},");
swdata.Write($"{filetime}\n");
swdata.Flush();
}
swdata.Flush();
swdata.Close();
Thread.Sleep(100);
if (SlotNum < slotList[slotList.Count - 1])
{
StreamWriter swSignal = new StreamWriter(EXT_CAL_PATH + SlotNum + ".flag"); //Create file flagging end of current thread
swSignal.WriteLine();
swSignal.Flush();
swSignal.Close();
}
}
}
}
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