public override void DataReader(ModbusMaster master)
{
try
{
int Index = 0;
ushort[] value = master.ReadHoldingRegisters(ID, 4096, 46);
ushort[] value1 = master.ReadHoldingRegisters(ID, 4142, 20);
_ = MathClass.work16to10(value[Index], value[Index + 1]); Index += 2;
Rv = MathClass.work16to10(value[Index], value[Index + 1]); Index += 2;
Sv = MathClass.work16to10(value[Index], value[Index + 1]); Index += 2;
Tv = MathClass.work16to10(value[Index], value[Index + 1]); Index += 2;
RSv = MathClass.work16to10(value[Index], value[Index + 1]); Index += 2;
STv = MathClass.work16to10(value[Index], value[Index + 1]); Index += 2;
TRv = MathClass.work16to10(value[Index], value[Index + 1]); Index += 2;
_ = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2;
RA = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2;
SA = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2;
TA = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2;
PF = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2;
PF_A = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2; //PFE L1
PF_B = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2; //PFE L2
PF_C = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2; //PFE L3
_ = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2; //三相相位角
RV_Angle = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2; //三相相位角 L1
SV_Angle = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2; //三相相位角 L2
TV_Angle = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2; //三相相位角 L3
kVA = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2;
kVA_A = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2; //三相視在功率 L1
kVA_B = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; Index += 2; //三相視在功率 L2
kVA_C = MathClass.work16to10(value[Index], value[Index + 1]) * 0.001F; //三相視在功率 L3
Index = 0;
kW = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F; Index += 2;
kW_A = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F; Index += 2; //有效功率 L1
kW_B = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F; Index += 2; //有效功率 L2
kW_C = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F; Index += 2; //有效功率 L3
kVAR = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F; Index += 2;
kVAR_A = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F; Index += 2; //無效功率 L1
kVAR_B = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F; Index += 2; //無效功率 L2
kVAR_C = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F; Index += 2; //無效功率 L3
kWh = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F; Index += 2;
kVARh = MathClass.work16to10(value1[Index], value1[Index + 1]) * 0.001F;
}
catch (Exception ex)
{
ConnectFlag = false;
Log.Error(ex, $"ABBM2M解析異常、通訊編號: {GatewayIndex}、設備編號: {DeviceIndex}");
}
}
void Test(ModbusModel model, ModbusMaster master)
{
master.WriteCoil(1, 2, true);
Assert.AreEqual(true, master.ReadCoil(1, 2));
master.WriteCoil(1, 3, false);
Assert.AreEqual(false, master.ReadCoil(1, 3));
master.WriteCoils(1, 4, bo(false, true));
Assert.AreEqual(bo(true, false, false, true), master.ReadCoils(1, 2, 4));
model.setDIs(11, 12, bo(true, true, false, false));
Assert.AreEqual(true, master.ReadInput(11, 12));
Assert.AreEqual(true, master.ReadInput(11, 13));
Assert.AreEqual(false, master.ReadInput(11, 14));
Assert.AreEqual(false, master.ReadInput(11, 15));
Assert.AreEqual(bo(true, true, false, false), master.ReadInputs(11, 12, 4));
master.WriteRegister(1, 2, 0xabcd);
Assert.AreEqual(0xabcd, master.ReadHoldingRegister(1, 2));
master.WriteRegister(1, 3, 0xcdab);
Assert.AreEqual(0xcdab, master.ReadHoldingRegister(1, 3));
master.WriteRegisters(1, 4, us(0xcda1, 0xcda2));
Assert.AreEqual(us(0xabcd, 0xcdab, 0xcda1, 0xcda2), master.ReadHoldingRegisters(1, 2, 4));
model.setWIs(11, 12, us(0xabcd, 0xcdab, 0xcda1, 0xcda2));
Assert.AreEqual(0xabcd, master.ReadInputRegister(11, 12));
Assert.AreEqual(0xcdab, master.ReadInputRegister(11, 13));
Assert.AreEqual(0xcda1, master.ReadInputRegister(11, 14));
Assert.AreEqual(0xcda2, master.ReadInputRegister(11, 15));
Assert.AreEqual(us(0xabcd, 0xcdab, 0xcda1, 0xcda2), master.ReadInputRegisters(11, 12, 4));
}
public static void SharedSlaveTest(ModbusModel model, ModbusMaster master)
{
master.WriteCoil(1, 2, true);
Assert.AreEqual(true, master.ReadCoil(1, 2));
master.WriteCoil(1, 3, false);
Assert.AreEqual(false, master.ReadCoil(1, 3));
master.WriteCoils(1, 4, H.bo(false, true));
Assert.AreEqual(H.bo(true, false, false, true), master.ReadCoils(1, 2, 4));
//race condition avoided by access order
model.setDIs(11, 12, H.bo(true, true, false, false));
Assert.AreEqual(true, master.ReadInput(11, 12));
Assert.AreEqual(true, master.ReadInput(11, 13));
Assert.AreEqual(false, master.ReadInput(11, 14));
Assert.AreEqual(false, master.ReadInput(11, 15));
Assert.AreEqual(H.bo(true, true, false, false), master.ReadInputs(11, 12, 4));
master.WriteRegister(1, 2, 0xabcd);
Assert.AreEqual(0xabcd, master.ReadHoldingRegister(1, 2));
master.WriteRegister(1, 3, 0xcdab);
Assert.AreEqual(0xcdab, master.ReadHoldingRegister(1, 3));
master.WriteRegisters(1, 4, H.us(0xcda1, 0xcda2));
Assert.AreEqual(H.us(0xabcd, 0xcdab, 0xcda1, 0xcda2), master.ReadHoldingRegisters(1, 2, 4));
//race condition avoided by access order
model.setWIs(11, 12, H.us(0xabcd, 0xcdab, 0xcda1, 0xcda2));
Assert.AreEqual(0xabcd, master.ReadInputRegister(11, 12));
Assert.AreEqual(0xcdab, master.ReadInputRegister(11, 13));
Assert.AreEqual(0xcda1, master.ReadInputRegister(11, 14));
Assert.AreEqual(0xcda2, master.ReadInputRegister(11, 15));
Assert.AreEqual(H.us(0xabcd, 0xcdab, 0xcda1, 0xcda2), master.ReadInputRegisters(11, 12, 4));
}
public override void DataReader(ModbusMaster master)
{
try
{
int Index = 0;
ushort[] kwhvalue = master.ReadHoldingRegisters(ID, 0, 2); //kwh
ushort[] kwvalue = master.ReadHoldingRegisters(ID, 8, 2); //kw
kWh = MathClass.work16to10(kwhvalue[Index + 1], kwhvalue[Index]) * 0.01;
kW = MathClass.work16to10(kwvalue[Index + 1], kwvalue[Index]) * 0.001;
ConnectFlag = true;
}
catch (Exception ex)
{
ConnectFlag = false;
Log.Error(ex, $"PM200解析異常、通訊編號: {GatewayIndex}、設備編號: {DeviceIndex}");
}
}
private float GetAnalog2(ModbusMaster master, int point)
{
var words = master.ReadHoldingRegisters(1, (ushort)(2 * point), 2);
var bytes = new byte[4];
bytes[0] = (byte)((words[0] >> 8) & 0xff);
bytes[1] = (byte)((words[0] >> 0) & 0xff);
bytes[2] = (byte)((words[1] >> 8) & 0xff);
bytes[3] = (byte)((words[1] >> 0) & 0xff);
return(ByteArrayToFloat(bytes));
}
public ushort[] ReadHoldingRegisters(ushort start, ushort len)
{
ushort[] result = null;
if (RTUConnected || TCPConnected)
{
lock (_Locker)
{
result = _Master.ReadHoldingRegisters(1, start, len);
}
}
return(result);
}
private void MainWork()
{
var res = Master.ReadHoldingRegisters(1, 4008, 3);
for (int i = 0; i < res.Length; i++)
{
res[i]++;
}
var id = (ushort)Thread.CurrentThread.ManagedThreadId;
Master.WriteMultipleRegisters(1, 4008, new ushort[] { id, id, id, id });
}
public int readRegister(ref ModbusRegisters regs)
{
if (master == null)
{
commsts = COMMSTS_UNKONOWN;
return(RET_INITFAILURE);
}
lock (locker)
{
if (tcpClient == null)
{
commsts = COMMSTS_PORTNOTOPEN;
return(RET_INITFAILURE);
}
try
{
regs.values = master.ReadHoldingRegisters(regs.slaveid, regs.startAddress, regs.numRegisters);
for (int i = 0; i < regs.numRegisters; i++)
{
regs.stReg[i].value = regs.values[i];
}
}
catch (TimeoutException ex)
{
//LogClass.GetInstance().WriteLogFile("ReadHoldingRegisters Timeout:" + port.ReadTimeout.ToString());
//MessageBox.Show("Serial Port Read Timeout:" + port.ReadTimeout.ToString(), "Error", MessageBoxButtons.OK, MessageBoxIcon.Error);
if (rtycnt++ < MAX_RETYR_COUNT)
{
return(RET_TIMEOUT);
}
else
{
commsts = COMMSTS_FAILURE;
return(RET_COMMERROR);
}
}
catch (Exception ex)
{
LogClass.GetInstance().WriteExceptionLog(ex);
//MessageBox.Show(ex.ToString(), "Error", MessageBoxButtons.OK, MessageBoxIcon.Error);
commsts = COMMSTS_FAILURE;
return(RET_FAILURE);
}
}
rtycnt = 0;
commsts = COMMSTS_NORMAL;
return(RET_OK);
}
/// <summary>
/// Read contiguous block of 32 bit holding registers.
/// </summary>
/// <param name="master">The Modbus master.</param>
/// <param name="slaveAddress">Address of device to read values from.</param>
/// <param name="startAddress">Address to begin reading.</param>
/// <param name="numberOfPoints">Number of holding registers to read.</param>
/// <returns>Holding registers status</returns>
public static uint[] ReadHoldingRegisters32(this ModbusMaster master, byte slaveAddress, ushort startAddress, ushort numberOfPoints)
{
if (master == null)
{
throw new ArgumentNullException("master");
}
ValidateNumberOfPoints(numberOfPoints, 62);
// read 16 bit chunks and perform conversion
var rawRegisters = master.ReadHoldingRegisters(slaveAddress, startAddress, (ushort)(numberOfPoints * 2));
return(Convert(rawRegisters).ToArray());
}
private static ushort[] TryRead(ModbusMaster modbus, ModbusRegisterType registerType, int address, int register)
{
switch (registerType)
{
case ModbusRegisterType.AnalogInput:
return(modbus.ReadInputRegisters((byte)address, (ushort)register, 1));
case ModbusRegisterType.Holding:
return(modbus.ReadHoldingRegisters((byte)address, (ushort)register, 1));
case ModbusRegisterType.Coil:
return(modbus.ReadCoils((byte)address, (ushort)register, 1).Select(c => c ? (ushort)1 : (ushort)0).ToArray());
case ModbusRegisterType.DiscreteInput:
return(modbus.ReadInputs((byte)address, (ushort)register, 1).Select(c => c ? (ushort)1 : (ushort)0).ToArray());
}
return(null);
}
public override void DataReader(ModbusMaster master)
{
try
{
ushort[] Value = master.ReadHoldingRegisters(ID, 0, 2);
ConnectFlag = true;
if (Value[0] > 32767)
{
Temperature = (Value[0] - 65536) / 10F;
}
else
{
Temperature = Value[0] / 10F;
}
Humidity = Value[1] / 10F;
}
catch (Exception ex)
{
ConnectFlag = false;
Log.Error(ex, $"黑色溫濕度感測器解析異常、通訊編號: {GatewayIndex}、設備編號: {DeviceIndex}");
}
}
private Dictionary <int, string> SendRequests(ModbusMaster master, MasterSettings masterSettings)
{
if (master == null)
{
return(null);
}
var results = new Dictionary <int, string>();
foreach (var slave in masterSettings.SlaveSettings)
{
string hexResults = "";
PackagesCounter.RequestedPackagesCount += 1;
try
{
if (masterSettings.IsLoggerEnabled)
{
Logger.WriteDebug($"Sent request to a slave: DeviceId = {slave.DeviceId}; SlaveAddress={slave.StartAddress}; NumberOfRegisters={slave.NumberOfRegisters}.");
}
switch (slave.ActionType)
{
case ActionTypes.Read:
var registers = master.ReadHoldingRegisters(slave.DeviceId, slave.StartAddress,
slave.NumberOfRegisters);
if (registers == null || registers.Length == 0)
{
throw new EmptyResultException(
$"Slave with address {slave.DeviceId} returned an empty result when reading {slave.NumberOfRegisters} registers starting with register number {slave.StartAddress}.");
}
PackagesCounter.RecievedPackagesCount += 1;
isConnectionLost = false;
var inputs = registers.ConvertToBitArray();
hexResults = inputs.ConvertToHex();
var startAddress = slave.StartAddress;
foreach (var type in slave.Types)
{
switch (type.Item2)
{
case ModbusDataType.SInt16:
// Берём из массива битов первые 16, чтобы сконвертировать их в знаковое 16-битное целое число.
var sInt16Part = inputs.Take(8 * type.Item1).ToArray();
// Обрезаем у массива эти первые 16 бит (16 бит = 2 байта).
inputs = inputs.Skip(8 * type.Item1).ToArray();
// Преобразуем массив битов в строку, состоящую из единиц и нулей.
var sInt16BinaryString = string.Join("", sInt16Part.Select(x => x ? 1 : 0));
// Конвертируем полученное двоичное число в знаковое 16-битное целое число.
var sInt16 = Convert.ToInt16(sInt16BinaryString, 2);
// Добавляем полученное число в список значений.
results.Add(startAddress, sInt16.ToString());
// Перемещаем указатель на следующий регистр (16 бит = 2 байта = 1 регистр)
startAddress += (ushort)(type.Item1 / 2);
break;
case ModbusDataType.UInt16:
// Берём из массива битов первые 16, чтобы сконвертировать их в беззнаковое 16-битное целое число.
var uInt16Part = inputs.Take(8 * type.Item1).ToArray();
// Обрезаем у массива эти первые 16 бит (16 бит = 2 байта).
inputs = inputs.Skip(8 * type.Item1).ToArray();
// Преобразуем массив битов в строку, состоящую из единиц и нулей.
var binaryString = uInt16Part.Select(x => x ? 1 : 0);
// Конвертируем полученное двоичное число в беззнаковое 16-битное целое число.
var uShort = Convert.ToUInt16(string.Join("", binaryString), 2);
// Добавляем полученное число в список значений.
results.Add(startAddress, uShort.ToString());
// Перемещаем указатель на следующий регистр (16 бит = 2 байта = 1 регистр)
startAddress += (ushort)(type.Item1 / 2);
break;
case ModbusDataType.SInt32:
// Берём из массива битов первые 32, чтобы сконвертировать их в знаковое 32-битное целое число.
var sInt32Part = inputs.Take(8 * type.Item1).ToArray();
// Обрезаем у массива эти первые 32 бит (32 бит = 4 байта).
inputs = inputs.Skip(8 * type.Item1).ToArray();
// Преобразуем массив битов в строку, состоящую из единиц и нулей.
var sInt32BinaryString = sInt32Part.Select(x => x ? 1 : 0);
// Конвертируем полученное двоичное число в знаковое 32-битное целое число.
var sInt32 = Convert.ToInt32(string.Join("", sInt32BinaryString), 2);
// Добавляем полученное число в список значений.
results.Add(startAddress, sInt32.ToString());
// Перемещаем указатель на следующий регистр (32 бита = 4 байта = 2 регистра)
startAddress += (ushort)(type.Item1 / 2);
break;
case ModbusDataType.UInt32:
// Берём из массива битов первые 32, чтобы сконвертировать их в беззнаковое 32-битное целое число.
var uInt32Part = inputs.Take(8 * type.Item1).ToArray();
// Обрезаем у массива эти первые 32 бит (32 бит = 4 байта).
inputs = inputs.Skip(8 * type.Item1).ToArray();
// Преобразуем массив битов в строку, состоящую из единиц и нулей.
var binaryUInt32String = uInt32Part.Select(x => x ? 1 : 0);
// Конвертируем полученное двоичное число в беззнаковое 32-битное целое число.
var uInt32 = Convert.ToUInt32(string.Join("", binaryUInt32String), 2);
// Добавляем полученное число в список значений.
results.Add(startAddress, uInt32.ToString());
// Перемещаем указатель на следующий регистр (32 бита = 4 байта = 2 регистра)
startAddress += (ushort)(type.Item1 / 2);
break;
case ModbusDataType.Hex:
// Берём из массива битов первые 32, чтобы сконвертировать их в беззнаковое 32-битное целое число.
var hexPart = inputs.Take(8 * type.Item1).ToArray();
// Обрезаем у массива эти первые 32 бит (32 бит = 4 байта).
inputs = inputs.Skip(8 * type.Item1).ToArray();
// Преобразуем массив битов в строку, состоящую из единиц и нулей.
var binaryHexString = hexPart.Select(x => x ? 1 : 0);
// Конвертируем полученное десятичное число в знаковое 32-битное целое число, после этого конвертируем число в 16-ричную систему счисления.
var hex = Convert.ToUInt32(string.Join("", binaryHexString), 2).ToString("X");
// Добавляем полученное число в список значений.
results.Add(startAddress, $"0x{hex}");
// Перемещаем указатель на следующий регистр (32 бита = 4 байта = 2 регистра)
startAddress += (ushort)(type.Item1 / 2);
break;
case ModbusDataType.UtcTimestamp:
// В данном случае мы должны считать целое число (тоже беззнаковое 32-битное) и преобразовать к дате.
// Берём из массива битов первые 32, чтобы сконвертировать их в знаковое 32-битное целое число.
var utcTimestampPart = inputs.Take(8 * type.Item1).ToArray();
inputs = inputs.Skip(8 * type.Item1).ToArray();
// Преобразуем массив битов в строку, состоящую из единиц и нулей.
var binaryUtcTimestampString = utcTimestampPart.Select(x => x ? 1 : 0);
// Конвертируем полученное двоичное число в беззнаковое 32-битное целое число.
var utcTimestamp = Convert.ToUInt32(string.Join("", binaryUtcTimestampString), 2);
// Добавляем полученное число в список значений.
results.Add(startAddress, new DateTime(1970, 1, 1).AddSeconds(utcTimestamp)
.ToLocalTime()
.ToString("yyyy.MM.dd HH:mm:ss"));
// Перемещаем указатель на следующий регистр (32 бита = 4 байта = 2 регистра)
startAddress += (ushort)(type.Item1 / 2);
break;
case ModbusDataType.String:
bool[] stringPart;
if (inputs.Length > 8 * type.Item1)
{
stringPart = inputs.Take(8 * type.Item1).ToArray();
inputs = inputs.Skip(8 * type.Item1).ToArray();
results.Add(startAddress, stringPart.ConvertToString());
startAddress += (ushort)(type.Item1 / 2);
}
else
{
stringPart = inputs;
inputs = new bool[0];
results.Add(startAddress, stringPart.ConvertToString());
startAddress += (ushort)(stringPart.Length / 16);
}
break;
default:
throw new ArgumentOutOfRangeException();
}
}
if (masterSettings.IsLoggerEnabled)
{
Logger.WriteDebug($"Recieved data from slave: DeviceId = {slave.DeviceId}; SlaveAddress={slave.StartAddress}; NumberOfRegisters={slave.NumberOfRegisters}; {hexResults}");
}
break;
case ActionTypes.Write:
var data = new ushort[] { Convert.ToUInt16(slave.Formula) };
master.WriteMultipleRegisters(slave.DeviceId, slave.StartAddress, data);
if (masterSettings.IsLoggerEnabled)
{
Logger.WriteDebug($"Sent data to slave: DeviceId = {slave.DeviceId}; SlaveAddress={slave.StartAddress}; {data}");
}
break;
}
}
catch (SlaveException slaveException)
{
switch (slaveException.SlaveExceptionCode)
{
case 130:
if (!isConnectionLost)
{
Logger.Write(slaveException.Message);
}
isConnectionLost = true;
break;
default:
if (loggerEnabled)
{
Logger.Write(slaveException.Message);
}
else
{
throw slaveException;
}
break;
}
}
catch (Exception exception)
{
if (loggerEnabled)
{
Logger.Write(exception.Message);
}
else
{
throw exception;
}
}
}
return(results);
}
public virtual void ReadHoldingRegisters()
{
ushort[] registers = Master.ReadHoldingRegisters(SlaveAddress, 104, 2);
Assert.AreEqual(new ushort[] { 0, 0 }, registers);
}
public override void DataReader(ModbusMaster master)
{
try
{
ushort[] Voltage_Current_Unit = master.ReadHoldingRegisters(ID, 40, 1);
ushort[] Master_Unit = master.ReadHoldingRegisters(ID, 66, 2);
int Voltage_Unit = MathClass.work2to10(MathClass.work10to2(Voltage_Current_Unit[0]).Substring(8, 8)); //電壓單位換算
int Current_Unit = MathClass.work2to10(MathClass.work10to2(Voltage_Current_Unit[0]).Substring(0, 8)); //電流單位換算
int Unit = MathClass.work2to10(MathClass.work10to2(Master_Unit[0]).Substring(8, 8)); //kVA、kVAR、kW、kWh
ushort[] kwhValue = master.ReadHoldingRegisters(ID, 0, 2); //kWh
ushort[] Value = master.ReadHoldingRegisters(ID, 22, 9); //電壓電流
ushort[] Value1 = master.ReadHoldingRegisters(ID, 42, 12); //kVA、kVAR、kW
ushort[] HzValue = new ushort[] { Master_Unit[1] }; //頻率
ushort[] PFValue = master.ReadHoldingRegisters(ID, 84, 1); //功率因數
#region 電壓單位換算
int Index = 0;
switch (Voltage_Unit) //電壓單位換算
{
case 1: //(0.1mV)
{
Rv = Value[Index] * 0.0001; Index++;
Sv = Value[Index] * 0.0001; Index++;
Tv = Value[Index] * 0.0001; Index += 4;
RSv = Value[Index] * 0.0001; Index++;
STv = Value[Index] * 0.0001; Index++;
TRv = Value[Index] * 0.0001;
}
break;
case 2:
{
Rv = Value[Index] * 0.001; Index++;
Sv = Value[Index] * 0.001; Index++;
Tv = Value[Index] * 0.001; Index += 4;
RSv = Value[Index] * 0.001; Index++;
STv = Value[Index] * 0.001; Index++;
TRv = Value[Index] * 0.001;
}
break;
case 4:
{
Rv = Value[Index] * 0.01; Index++;
Sv = Value[Index] * 0.01; Index++;
Tv = Value[Index] * 0.01; Index += 4;
RSv = Value[Index] * 0.01; Index++;
STv = Value[Index] * 0.01; Index++;
TRv = Value[Index] * 0.01;
}
break;
case 8:
{
Rv = Value[Index] * 0.1; Index++;
Sv = Value[Index] * 0.1; Index++;
Tv = Value[Index] * 0.1; Index += 4;
RSv = Value[Index] * 0.1; Index++;
STv = Value[Index] * 0.1; Index++;
TRv = Value[Index] * 0.1;
}
break;
case 16:
{
Rv = Value[Index] * 1; Index++;
Sv = Value[Index] * 1; Index++;
Tv = Value[Index] * 1; Index += 4;
RSv = Value[Index] * 1; Index++;
STv = Value[Index] * 1; Index++;
TRv = Value[Index] * 1;
}
break;
case 32:
{
Rv = Value[Index] * 10; Index++;
Sv = Value[Index] * 10; Index++;
Tv = Value[Index] * 10; Index += 4;
RSv = Value[Index] * 10; Index++;
STv = Value[Index] * 10; Index++;
TRv = Value[Index] * 10;
}
break;
}
#endregion
#region 電流單位換算
Index = 3;
switch (Current_Unit)//電流單位換算
{
case 1:
{
RA = Value[Index] * 0.0001; Index++;
SA = Value[Index] * 0.0001; Index++;
TA = Value[Index] * 0.0001;
}
break;
case 2:
{
RA = Value[Index] * 0.001; Index++;
SA = Value[Index] * 0.001; Index++;
TA = Value[Index] * 0.001;
}
break;
case 4:
{
RA = Value[Index] * 0.01; Index++;
SA = Value[Index] * 0.01; Index++;
TA = Value[Index] * 0.01;
}
break;
case 8:
{
RA = Value[Index] * 0.1; Index++;
SA = Value[Index] * 0.1; Index++;
TA = Value[Index] * 0.1;
}
break;
case 16:
{
RA = Value[Index] * 1; Index++;
SA = Value[Index] * 1; Index++;
TA = Value[Index] * 1;
}
break;
case 32:
{
RA = Value[Index] * 10; Index++;
SA = Value[Index] * 10; Index++;
TA = Value[Index] * 10;
}
break;
}
#endregion
#region kVA、kVAR、kW、kWh單位換算
Index = 0;
switch (Unit)
{
case 1:
{
kVA_A = Value1[Index] * 0.0001; Index++;
kVA_B = Value1[Index] * 0.0001; Index++;
kVA_C = Value1[Index] * 0.0001; Index++;
kVA = Value1[Index] * 0.0001; Index++;
kVAR_A = Value1[Index] * 0.0001; Index++;
kVAR_B = Value1[Index] * 0.0001; Index++;
kVAR_C = Value1[Index] * 0.0001; Index++;
kVAR = Value1[Index] * 0.0001; Index++;
kW_A = Value1[Index] * 0.0001; Index++;
kW_B = Value1[Index] * 0.0001; Index++;
kW_C = Value1[Index] * 0.0001; Index++;
kW = Value1[Index] * 0.0001;
kWh = MathClass.work16to10(kwhValue[0], kwhValue[1]) * 0.0001;
}
break;
case 2:
{
kVA_A = Value1[Index] * 0.001; Index++;
kVA_B = Value1[Index] * 0.001; Index++;
kVA_C = Value1[Index] * 0.001; Index++;
kVA = Value1[Index] * 0.001; Index++;
kVAR_A = Value1[Index] * 0.001; Index++;
kVAR_B = Value1[Index] * 0.001; Index++;
kVAR_C = Value1[Index] * 0.001; Index++;
kVAR = Value1[Index] * 0.001; Index++;
kW_A = Value1[Index] * 0.001; Index++;
kW_B = Value1[Index] * 0.001; Index++;
kW_C = Value1[Index] * 0.001; Index++;
kW = Value1[Index] * 0.001;
kWh = MathClass.work16to10(kwhValue[0], kwhValue[1]) * 0.001;
}
break;
case 4:
{
kVA_A = Value1[Index] * 0.01; Index++;
kVA_B = Value1[Index] * 0.01; Index++;
kVA_C = Value1[Index] * 0.01; Index++;
kVA = Value1[Index] * 0.01; Index++;
kVAR_A = Value1[Index] * 0.01; Index++;
kVAR_B = Value1[Index] * 0.01; Index++;
kVAR_C = Value1[Index] * 0.01; Index++;
kVAR = Value1[Index] * 0.01; Index++;
kW_A = Value1[Index] * 0.01; Index++;
kW_B = Value1[Index] * 0.01; Index++;
kW_C = Value1[Index] * 0.01; Index++;
kW = Value1[Index] * 0.01;
kWh = MathClass.work16to10(kwhValue[0], kwhValue[1]) * 0.01;
}
break;
case 8:
{
kVA_A = Value1[Index] * 0.1; Index++;
kVA_B = Value1[Index] * 0.1; Index++;
kVA_C = Value1[Index] * 0.1; Index++;
kVA = Value1[Index] * 0.1; Index++;
kVAR_A = Value1[Index] * 0.1; Index++;
kVAR_B = Value1[Index] * 0.1; Index++;
kVAR_C = Value1[Index] * 0.1; Index++;
kVAR = Value1[Index] * 0.1; Index++;
kW_A = Value1[Index] * 0.1; Index++;
kW_B = Value1[Index] * 0.1; Index++;
kW_C = Value1[Index] * 0.1; Index++;
kW = Value1[Index] * 0.1;
kWh = MathClass.work16to10(kwhValue[0], kwhValue[1]) * 0.1;
}
break;
case 16:
{
kVA_A = Value1[Index] * 1; Index++;
kVA_B = Value1[Index] * 1; Index++;
kVA_C = Value1[Index] * 1; Index++;
kVA = Value1[Index] * 1; Index++;
kVAR_A = Value1[Index] * 1; Index++;
kVAR_B = Value1[Index] * 1; Index++;
kVAR_C = Value1[Index] * 1; Index++;
kVAR = Value1[Index] * 1; Index++;
kW_A = Value1[Index] * 1; Index++;
kW_B = Value1[Index] * 1; Index++;
kW_C = Value1[Index] * 1; Index++;
kW = Value1[Index] * 1;
kWh = MathClass.work16to10(kwhValue[0], kwhValue[1]) * 1;
}
break;
case 32:
{
kVA_A = Value1[Index] * 10; Index++;
kVA_B = Value1[Index] * 10; Index++;
kVA_C = Value1[Index] * 10; Index++;
kVA = Value1[Index] * 10; Index++;
kVAR_A = Value1[Index] * 10; Index++;
kVAR_B = Value1[Index] * 10; Index++;
kVAR_C = Value1[Index] * 10; Index++;
kVAR = Value1[Index] * 10; Index++;
kW_A = Value1[Index] * 10; Index++;
kW_B = Value1[Index] * 10; Index++;
kW_C = Value1[Index] * 10; Index++;
kW = Value1[Index] * 10;
kWh = MathClass.work16to10(kwhValue[0], kwhValue[1]) * 10;
}
break;
case 64:
{
kVA_A = Value1[Index] * 100; Index++;
kVA_B = Value1[Index] * 100; Index++;
kVA_C = Value1[Index] * 100; Index++;
kVA = Value1[Index] * 100; Index++;
kVAR_A = Value1[Index] * 100; Index++;
kVAR_B = Value1[Index] * 100; Index++;
kVAR_C = Value1[Index] * 100; Index++;
kVAR = Value1[Index] * 100; Index++;
kW_A = Value1[Index] * 100; Index++;
kW_B = Value1[Index] * 100; Index++;
kW_C = Value1[Index] * 100; Index++;
kW = Value1[Index] * 100;
kWh = MathClass.work16to10(kwhValue[0], kwhValue[1]) * 100;
}
break;
}
#endregion
HZ = HzValue[0] * 0.1;
PF = PFValue[0] * 0.001;
ConnectFlag = true;
}
catch (Exception ex)
{
ConnectFlag = false;
Log.Error(ex, $"TWC-CPM4解析異常、通訊編號: {GatewayIndex}、設備編號: {DeviceIndex}");
}
}
private void Sequencer_Worker()
{
while (seqThreadStop == false)
{
if (master != null)
{
byte slaveId = (byte)(StartAddr + CurrentSlave);
ushort startAddress = (ushort)Register;
ushort numInputs = (ushort)Quantity;
//datagridview was resized
if (dataGrid.Rows.Count - 1 < CurrentSlave)
{
CurrentSlave = 0;
}
int requests = (int)dataGrid.Rows[CurrentSlave].Cells[1].Value;
int errors = (int)dataGrid.Rows[CurrentSlave].Cells[2].Value;
requests++;
try
{
// write three registers
ushort[] inputs = null;
bool[] bools = null;
switch (Function)
{
case 0:
bools = master.ReadCoils(slaveId, startAddress, numInputs);
break;
case 1:
bools = master.ReadInputs(slaveId, startAddress, numInputs);
break;
case 2:
inputs = master.ReadHoldingRegisters(slaveId, startAddress, numInputs);
break;
case 3:
inputs = master.ReadInputRegisters(slaveId, startAddress, numInputs);
break;
}
if (bools != null)
{
for (int i = 0; i < numInputs; i++)
{
dataGrid.Rows[CurrentSlave].Cells[i + 3].Value = bools[i] ? "1" : "0";
}
}
else if (inputs != null)
{
for (int i = 0; i < numInputs; i++)
{
dataGrid.Rows[CurrentSlave].Cells[i + 3].Value = (short)(inputs[i]);
}
}
}
catch (Exception ex)
{
errors++;
}
dataGrid.Rows[CurrentSlave].Cells[1].Value = requests;
dataGrid.Rows[CurrentSlave].Cells[2].Value = errors;
CurrentSlave++;
if ((CurrentSlave + StartAddr) > StopAddr)
{
CurrentSlave = 0;
}
Thread.Sleep(ScanRate);
}
while (seqThreadPause)
{
Thread.Sleep(100);
}
}
}
private void button1_Click(object sender, EventArgs e)
{
//çalışan kod
TcpClient TCP_Client = new TcpClient();
TCP_Client.SendTimeout = 2000;
TCP_Client.ReceiveTimeout = 2000;
IAsyncResult result = TCP_Client.BeginConnect("192.168.4.187", 502, null, null);
result.AsyncWaitHandle.WaitOne(2000, true);
ModbusMaster MBus = ModbusIpMaster.CreateIp(TCP_Client);
ushort[] datas = MBus.ReadHoldingRegisters(1, 10, 4);
for (int i = 0; i < 4; i++)
{
_items.Add(datas[i].ToString());
}
listBox1.DataSource = _items;
byte[] b1 = BitConverter.GetBytes(datas[0]);
byte[] b2 = BitConverter.GetBytes(datas[3]);
byte[] b3 = new byte[4];
b3[0] = b1[0];
b3[1] = b1[1];
b3[2] = b2[0];
b3[3] = b2[1];
long volt = BitConverter.ToInt64(b3, 0);
label3.Text = volt.ToString();
TCP_Client.Close();
UdpClient udpci = new UdpClient();
udpci.Connect("192.168.4.187", 502);
SerialPort sp = new SerialPort("COM1", 115200);
ModbusMaster MBus = ModbusSerialMaster.CreateRtu(udpci);
ushort[] datass = MBus.ReadHoldingRegisters(1, 0, 10);
SerialPort sp = new SerialPort("COM1", 115000);
sp.Open();
ModbusSerialMaster MBus = ModbusSerialMaster.CreateRtu(sp);
ushort[] readData = MBus.ReadHoldingRegisters(1, 0X1A, 3);
MBus.Transport.ReadTimeout = 300;
byte[] b1 = BitConverter.GetBytes(readData[1]);
byte[] b2 = BitConverter.GetBytes(readData[0]);
byte[] b3 = new byte[4];
b3[0] = b1[0];
b3[1] = b1[1];
b3[2] = b2[0];
b3[3] = b2[1];
float watt = BitConverter.ToSingle(b3, 0);
}
public override void ReadData(List <Device> devices, ModbusMaster master)
{
int DeviceIndex = 0;
int Index = 0;
#region 第一部分
try
{
ushort[] Part1Value1 = master.ReadInputRegisters(devices[DeviceIndex].ID, 0, 80);
ushort[] Part1Value2 = master.ReadHoldingRegisters(devices[DeviceIndex].ID, 120, 30);
AI64Module.ttime = DateTime.Now.ToString("yyyyMMddHHmmss");
AI64Module.CaseNo = CaseNo;
AI64Module.Ai1 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai2 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai3 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai4 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai5 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai6 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai7 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai8 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai9 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai10 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai11 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai12 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai13 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai14 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai15 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai16 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai17 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai18 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai19 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai20 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai21 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai22 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai23 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai24 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai25 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai26 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai27 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai28 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai29 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai30 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai31 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai32 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index])); Index += 2;
AI64Module.Ai33 = Convert.ToDecimal(MathClass.work16to754(Part1Value1[Index + 1], Part1Value1[Index]));
Index = 0;
AI64Module.Ai34 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai35 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai36 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai37 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai38 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai39 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai40 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai41 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai42 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai43 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai44 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai45 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai46 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai47 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index])); Index += 2;
AI64Module.Ai48 = Convert.ToDecimal(MathClass.work16to754(Part1Value2[Index + 1], Part1Value2[Index]));
DeviceIndex++;
}
catch (ThreadAbortException) { }
catch (Exception ex)
{
ConnectionFlag = false;
Log.Error(ex, $"AI數值第一部分讀取錯誤 ID: {devices[DeviceIndex].ID}");
}
#endregion
#region 第二部分
try
{
Index = 0;
ushort[] Part2Value1 = master.ReadInputRegisters(devices[DeviceIndex].ID, 0, 34);
AI64Module.Ai49 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
AI64Module.Ai50 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
AI64Module.Ai51 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
AI64Module.Ai52 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
AI64Module.Ai53 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
AI64Module.Ai54 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
_ = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
AI64Module.Ai55 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
AI64Module.Ai56 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
AI64Module.Ai57 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index])); Index += 2;
AI64Module.Ai58 = Convert.ToDecimal(MathClass.work16to754(Part2Value1[Index + 1], Part2Value1[Index]));
ConnectionFlag = true;
}
catch (ThreadAbortException) { }
catch (Exception ex)
{
ConnectionFlag = false;
Log.Error(ex, $"AI數值第二部分讀取錯誤 ID: {devices[DeviceIndex].ID}");
}
#endregion
}
public override void DataReader(ModbusMaster master)
{
try
{
int Index = 0;
ushort[] data = master.ReadHoldingRegisters(ID, 100, 44);
ushort[] data1 = master.ReadHoldingRegisters(ID, 324, 13);
ushort[] data2 = master.ReadHoldingRegisters(ID, 368, 6);
RSv = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
STv = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
TRv = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
RA = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
SA = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
TA = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
kVA = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
kW = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
kVAR = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
PF = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
kWh = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
kVARh = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
kVAh = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
RV_Angle = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
SV_Angle = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
TV_Angle = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
RA_Angle = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
SA_Angle = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
TA_Angle = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
Rv = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
Sv = MathClass.work16to754(data[Index + 1], data[Index]); Index += 2;
Tv = MathClass.work16to754(data[Index + 1], data[Index]);
Index = 0;
if (data1[Index] > 32767)
{
HZ = (data1[Index] - 65536) * 0.002f; Index++;
}
else
{
HZ = (data1[Index] * 0.002f); Index++;
}
if (data1[Index] > 32767)
{
kW_A = (data1[Index] - 65536) * 0.2f; Index++;
}
else
{
kW_A = (data1[Index] * 0.2f); Index++;
}
if (data1[Index] > 32767)
{
kVAR_A = (data1[Index] - 65536) * 0.2f; Index++;
}
else
{
kVAR_A = (data1[Index] * 0.2f); Index++;
}
if (data1[Index] > 32767)
{
kVA_A = (data1[Index] - 65536) * 0.2f; Index++;
}
else
{
kVA_A = (data1[Index] * 0.2f); Index++;
}
if (data1[Index] > 32767)
{
PF_A = (data1[Index] - 65536) * 0.0001f; Index++;
}
else
{
PF_A = (data1[Index] * 0.0001f); Index++;
}
if (data1[Index] > 32767)
{
kW_B = (data1[Index] - 65536) * 0.2f; Index++;
}
else
{
kW_B = (data1[Index] * 0.2f); Index++;
}
if (data1[Index] > 32767)
{
kVAR_B = (data1[Index] - 65536) * 0.2f; Index++;
}
else
{
kVAR_B = (data1[Index] * 0.2f); Index++;
}
if (data1[Index] > 32767)
{
kVA_B = (data1[Index] - 65536) * 0.2f; Index++;
}
else
{
kVA_B = (data1[Index] * 0.2f); Index++;
}
if (data1[Index] > 32767)
{
PF_B = (data1[Index] - 65536) * 0.0001f; Index++;
}
else
{
PF_B = (data1[Index] * 0.0001f); Index++;
}
if (data1[Index] > 32767)
{
kW_C = (data1[Index] - 65536) * 0.2f; Index++;
}
else
{
kW_C = (data1[Index] * 0.2f); Index++;
}
if (data1[Index] > 32767)
{
kVAR_C = (data1[Index] - 65536) * 0.2f; Index++;
}
else
{
kVAR_C = (data1[Index] * 0.2f); Index++;
}
if (data1[Index] > 32767)
{
kVA_C = (data1[Index] - 65536) * 0.2f; Index++;
}
else
{
kVA_C = (data1[Index] * 0.2f); Index++;
}
if (data1[Index] > 32767)
{
PF_C = (data1[Index] - 65536) * 0.0001f; Index++;
}
else
{
PF_C = (data1[Index] * 0.0001f); Index++;
}
Index = 0;
kWh_A = MathClass.work16to10(data2[Index], data2[Index + 1]) * 0.001; Index += 2;
kWh_B = MathClass.work16to10(data2[Index], data2[Index + 1]) * 0.001; Index += 2;
kWh_C = MathClass.work16to10(data2[Index], data2[Index + 1]) * 0.001;
ConnectFlag = true;
}
catch (Exception ex)
{
ConnectFlag = false;
Log.Error(ex, $"HC6600解析異常、通訊編號: {GatewayIndex}、設備編號: {DeviceIndex}");
}
}
public bool Read()
{
if (_master == null)
{
throw new NullReferenceException("_master");
}
var minReg = Registers.Min();
var maxReg = Registers.Max();
var count = Convert.ToUInt16(maxReg - minReg + 1);
try
{
//等300ms，有些设备需要休息时间，主要是新普惠的破设备太坑爹
Thread.Sleep(300);
//锁一下Transport，避免和其它的调用者发生冲突
lock (Transport)
switch (Function)
{
case MBFunction.ReadInputs:
var inputsResult = _master.ReadInputs(minReg, count);
if (inputsResult == null)
{
return(false);
}
Values.Clear();
if (inputsResult.Any())
{
Values = inputsResult.Select(b => b ? (UInt16)1 : (UInt16)0).ToList();
}
break;
case MBFunction.ReadHoldingRegisters:
var holdingRegistersResult = _master.ReadHoldingRegisters(minReg, count);
if (holdingRegistersResult == null)
{
return(false);
}
Values.Clear();
if (holdingRegistersResult.Any())
{
Values = holdingRegistersResult.ToList();
}
break;
case MBFunction.ReadInputRegisters:
var inputRegistersResult = _master.ReadInputRegisters(minReg, count);
if (inputRegistersResult == null)
{
return(false);
}
Values.Clear();
if (inputRegistersResult.Any())
{
Values = inputRegistersResult.ToList();
}
break;
default:
return(false);
}
return(true);
}
catch (ObjectDisposedException odx)
{
throw odx;
}
catch (Exception ex)
{
XTrace.WriteException(ex);
return(false);
}
}
protected virtual void SettingsRead()
{
ioDelay();
ushort[] st = master.ReadHoldingRegisters(DeviceID, aSettingsStart, aSettingsLength);
// zoom, flags
_flagsWriteable = st[aSettingsFlagsOffset];
ref_null = st[6];
// settings
foreach (var p in settings)
{
//if (p != null) p.RawValue = st[aSettingsParametersOffset + GetId( p )];
if (p != null)
{
p.RawValue = st[aSettingsParametersOffset + p.ID];
}
}
// settings initialization
if (init)
{
SettingsInit(st);
}
// inputs
ioDelay();
st = master.ReadHoldingRegisters(DeviceID, aInputsStart, aInputsLength);
FlagsReadOnly = st[aInputsFlagsOffset];
short[] st1 = new short[st.Length];
for (int i = 0; i < st.Length; i++)
{
st1[i] = (short)st[i];
}
if (st1[2] < 0)
{
sign = -1;
st[2] = (ushort)(st1[2] * sign);
}
else
{
sign = 1;
}
foreach (var p in inputs)
{
//if (p != null) p.RawValue = p.WantedValue = st[ p.ID ];
if (p != null)
{
p.RawValue = p.WantedValue = st[p.ID];
}
}
// id
var sb = new StringBuilder();
for (int i = aInputsIDOffset; i < aInputsIDOffset + 6; ++i)
{
sb.AppendFormat(i != aInputsIDOffset ? ":{0:X4}" : "{0:X4}", st[i]);
}
var sbid = sb.ToString();
if (ID != sbid)
{
// CHANGED!
ID = sb.ToString();
}
var sb2 = new StringBuilder();
for (int i = aInputsMD5Offset; i < aInputsMD5Offset + 6; ++i)
{
sb2.AppendFormat(i != aInputsMD5Offset ? ":{0:X4}" : "{0:X4}", st[i]);
}
var sbmd5 = sb2.ToString();
if (MD5 != sbmd5)
{
// CHANGED!
MD5 = sb2.ToString();
}
}
