Update the sinexcel recor api with new reading writing attribute

This commit is contained in:
atef 2025-11-12 16:07:47 +01:00
parent f40f0be056
commit ed5609689b
1 changed files with 183 additions and 84 deletions

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@ -1,5 +1,3 @@
using System.Diagnostics.CodeAnalysis;
using System.Globalization;
using InnovEnergy.Lib.Devices.Sinexcel_12K_TL.DataType;
using InnovEnergy.Lib.Units;
using InnovEnergy.Lib.Units.Power;
@ -9,6 +7,7 @@ namespace InnovEnergy.Lib.Devices.Sinexcel_12K_TL;
public partial class SinexcelRecord
{
private Int16 _factorFromKwtoW = 1000;
// ───────────────────────────────────────────────
// Public API — Decoded Float Values
// ───────────────────────────────────────────────
@ -30,17 +29,17 @@ public partial class SinexcelRecord
public Current GridCPhaseCurrent => UIntToFloat(_grid_C_Phase_Current);
public Current GridNWireCurrent => UIntToFloat(_grid_N_Wire_Current);
public ApparentPower GridAPhaseApparentPower => UIntToFloat(_gridAPhaseApparentPower);
public ApparentPower GridBPhaseApparentPower => UIntToFloat(_gridBPhaseApparentPower);
public ApparentPower GridCPhaseApparentPower => UIntToFloat(_gridCPhaseApparentPower);
public ApparentPower GridAPhaseApparentPower => UIntToFloat(_gridAPhaseApparentPower) * _factorFromKwtoW;
public ApparentPower GridBPhaseApparentPower => UIntToFloat(_gridBPhaseApparentPower) * _factorFromKwtoW;
public ApparentPower GridCPhaseApparentPower => UIntToFloat(_gridCPhaseApparentPower) * _factorFromKwtoW;
public ActivePower GridAPhaseActivePower => UIntToFloat(_gridAPhaseActivePower);
public ActivePower GridBPhaseActivePower => UIntToFloat(_gridBPhaseActivePower);
public ActivePower GridCPhaseActivePower => UIntToFloat(_gridCPhaseActivePower);
public ActivePower GridAPhaseActivePower => UIntToFloat(_gridAPhaseActivePower) * _factorFromKwtoW;
public ActivePower GridBPhaseActivePower => UIntToFloat(_gridBPhaseActivePower) * _factorFromKwtoW;
public ActivePower GridCPhaseActivePower => UIntToFloat(_gridCPhaseActivePower) * _factorFromKwtoW;
public ReactivePower GridAPhaseReactivePower => UIntToFloat(_gridAPhaseReactivePower);
public ReactivePower GridBPhaseReactivePower => UIntToFloat(_gridBPhaseReactivePower);
public ReactivePower GridCPhaseReactivePower => UIntToFloat(_gridCPhaseReactivePower);
public ReactivePower GridAPhaseReactivePower => UIntToFloat(_gridAPhaseReactivePower) * _factorFromKwtoW;
public ReactivePower GridBPhaseReactivePower => UIntToFloat(_gridBPhaseReactivePower) * _factorFromKwtoW;
public ReactivePower GridCPhaseReactivePower => UIntToFloat(_gridCPhaseReactivePower) * _factorFromKwtoW;
// ───────────────────────────────────────────────
// Load Measurements
@ -60,17 +59,19 @@ public partial class SinexcelRecord
public Current LoadCPhaseCurrent => UIntToFloat(_loadCPhaseCurrent);
public Current LoadNWireCurrent => UIntToFloat(_loadNWireCurrent);
public ApparentPower LoadAPhaseApparentPower => UIntToFloat(_loadAPhaseApparentPower);
public ApparentPower LoadBPhaseApparentPower => UIntToFloat(_loadBPhaseApparentPower);
public ApparentPower LoadCPhaseApparentPower => UIntToFloat(_loadCPhaseApparentPower);
public ApparentPower LoadAPhaseApparentPower => UIntToFloat(_loadAPhaseApparentPower) * _factorFromKwtoW;
public ApparentPower LoadBPhaseApparentPower => UIntToFloat(_loadBPhaseApparentPower) * _factorFromKwtoW;
public ApparentPower LoadCPhaseApparentPower => UIntToFloat(_loadCPhaseApparentPower) * _factorFromKwtoW;
public ActivePower LoadAPhaseActivePower => UIntToFloat(_loadAPhaseActivePower);
public ActivePower LoadBPhaseActivePower => UIntToFloat(_loadBPhaseActivePower);
public ActivePower LoadCPhaseActivePower => UIntToFloat(_loadCPhaseActivePower);
public ActivePower LoadAPhaseActivePower => UIntToFloat(_loadAPhaseActivePower) * _factorFromKwtoW;
public ActivePower LoadBPhaseActivePower => UIntToFloat(_loadBPhaseActivePower) * _factorFromKwtoW;
public ActivePower LoadCPhaseActivePower => UIntToFloat(_loadCPhaseActivePower) * _factorFromKwtoW;
public ActivePower ConsumptionPower => TotalLoadPower;
public ReactivePower LoadAPhaseReactivePower => UIntToFloat(_loadAPhaseReactivePower);
public ReactivePower LoadBPhaseReactivePower => UIntToFloat(_loadBPhaseReactivePower);
public ReactivePower LoadCPhaseReactivePower => UIntToFloat(_loadCPhaseReactivePower);
public ReactivePower LoadAPhaseReactivePower => UIntToFloat(_loadAPhaseReactivePower) * _factorFromKwtoW;
public ReactivePower LoadBPhaseReactivePower => UIntToFloat(_loadBPhaseReactivePower) * _factorFromKwtoW;
public ReactivePower LoadCPhaseReactivePower => UIntToFloat(_loadCPhaseReactivePower) * _factorFromKwtoW;
// ───────────────────────────────────────────────
// Inverter Measurements
@ -83,10 +84,12 @@ public partial class SinexcelRecord
public Voltage InverterBcWireVoltage => UIntToFloat(_inverterBCWireVoltage);
public Voltage InverterCaWireVoltage => UIntToFloat(_inverterCAWireVoltage);
public ActivePower InverterAPhaseActivePower => UIntToFloat(_inverterAPhaseActivePower);
public ActivePower InverterBPhaseActivePower => UIntToFloat(_inverterBPhaseActivePower);
public ActivePower InverterCPhaseActivePower => UIntToFloat(_inverterCPhaseActivePower);
public ActivePower InverterAPhaseActivePower => UIntToFloat(_inverterAPhaseActivePower) * _factorFromKwtoW;
public ActivePower InverterBPhaseActivePower => UIntToFloat(_inverterBPhaseActivePower) * _factorFromKwtoW;
public ActivePower InverterCPhaseActivePower => UIntToFloat(_inverterCPhaseActivePower) * _factorFromKwtoW;
public ActivePower InverterActivePower => InverterAPhaseActivePower + InverterBPhaseActivePower + InverterCPhaseActivePower;
// ───────────────────────────────────────────────
// DC/AC Temperature Sensors (°C)
// ───────────────────────────────────────────────
@ -99,22 +102,24 @@ public partial class SinexcelRecord
// ───────────────────────────────────────────────
// Date / Time Information
// ───────────────────────────────────────────────
public Single Year => UIntToFloat(_year);
public Single Month => UIntToFloat(_month);
public Single Day => UIntToFloat(_day);
public Single Hour => UIntToFloat(_hour);
public Single Minute => UIntToFloat(_minute);
public Single Second => UIntToFloat(_second);
public UInt16 Year => (UInt16) ConvertBitPatternToFloat(_year);
public UInt16 Month => (UInt16) ConvertBitPatternToFloat(_month);
public UInt16 Day => (UInt16) ConvertBitPatternToFloat(_day);
public UInt16 Hour => (UInt16) ConvertBitPatternToFloat(_hour);
public UInt16 Minute => (UInt16) ConvertBitPatternToFloat(_minute);
public UInt16 Second => (UInt16) ConvertBitPatternToFloat(_second);
public DateTime SystemDateTime => new(Year, Month, Day, Hour, Minute, Second);
// ───────────────────────────────────────────────
// Diesel Generator Measurements
// ───────────────────────────────────────────────
public Voltage DieselGenAPhaseVoltage => ConvertBitPatternToFloat(_dieselGenAPhaseVoltage);
public Voltage DieselGenBPhaseVoltage => ConvertBitPatternToFloat(_dieselGenBPhaseVoltage);
public Voltage DieselGenCPhaseVoltage => ConvertBitPatternToFloat(_dieselGenCPhaseVoltage);
public Voltage DieselGenABWireVoltage => ConvertBitPatternToFloat(_dieselGenABWireVoltage);
public Voltage DieselGenBCWireVoltage => ConvertBitPatternToFloat(_dieselGenBCWireVoltage);
public Voltage DieselGenCAWireVoltage => ConvertBitPatternToFloat(_dieselGenCAWireVoltage);
public Voltage DieselGenAbWireVoltage => ConvertBitPatternToFloat(_dieselGenABWireVoltage);
public Voltage DieselGenBcWireVoltage => ConvertBitPatternToFloat(_dieselGenBCWireVoltage);
public Voltage DieselGenCaWireVoltage => ConvertBitPatternToFloat(_dieselGenCAWireVoltage);
public Frequency DieselGenVoltageFrequency => ConvertBitPatternToFloat(_dieselGenVoltageFrequency);
@ -123,38 +128,39 @@ public partial class SinexcelRecord
public Current DieselGenCPhaseCurrent => ConvertBitPatternToFloat(_dieselGenCPhaseCurrent);
public Current DieselGenNWireCurrent => ConvertBitPatternToFloat(_dieselGenNWireCurrent);
public ApparentPower DieselGenAPhaseApparentPower => ConvertBitPatternToFloat(_dieselGenAPhaseApparentPower);
public ApparentPower DieselGenBPhaseApparentPower => ConvertBitPatternToFloat(_dieselGenBPhaseApparentPower);
public ApparentPower DieselGenCPhaseApparentPower => ConvertBitPatternToFloat(_dieselGenCPhaseApparentPower);
public ApparentPower DieselGenAPhaseApparentPower => ConvertBitPatternToFloat(_dieselGenAPhaseApparentPower) * _factorFromKwtoW;
public ApparentPower DieselGenBPhaseApparentPower => ConvertBitPatternToFloat(_dieselGenBPhaseApparentPower) * _factorFromKwtoW;
public ApparentPower DieselGenCPhaseApparentPower => ConvertBitPatternToFloat(_dieselGenCPhaseApparentPower) * _factorFromKwtoW;
public ActivePower DieselGenAPhaseActivePower => ConvertBitPatternToFloat(_dieselGenAPhaseActivePower);
public ActivePower DieselGenBPhaseActivePower => ConvertBitPatternToFloat(_dieselGenBPhaseActivePower);
public ActivePower DieselGenCPhaseActivePower => ConvertBitPatternToFloat(_dieselGenCPhaseActivePower);
public ActivePower DieselGenAPhaseActivePower => ConvertBitPatternToFloat(_dieselGenAPhaseActivePower) * _factorFromKwtoW;
public ActivePower DieselGenBPhaseActivePower => ConvertBitPatternToFloat(_dieselGenBPhaseActivePower) * _factorFromKwtoW;
public ActivePower DieselGenCPhaseActivePower => ConvertBitPatternToFloat(_dieselGenCPhaseActivePower) * _factorFromKwtoW;
public ReactivePower DieselGenAPhaseReactivePower => ConvertBitPatternToFloat(_dieselGenAPhaseReactivePower);
public ReactivePower DieselGenBPhaseReactivePower => ConvertBitPatternToFloat(_dieselGenBPhaseReactivePower);
public ReactivePower DieselGenCPhaseReactivePower => ConvertBitPatternToFloat(_dieselGenCPhaseReactivePower);
public ReactivePower DieselGenAPhaseReactivePower => ConvertBitPatternToFloat(_dieselGenAPhaseReactivePower) * _factorFromKwtoW;
public ReactivePower DieselGenBPhaseReactivePower => ConvertBitPatternToFloat(_dieselGenBPhaseReactivePower) * _factorFromKwtoW;
public ReactivePower DieselGenCPhaseReactivePower => ConvertBitPatternToFloat(_dieselGenCPhaseReactivePower) * _factorFromKwtoW;
// ───────────────────────────────────────────────
// Photovoltaic and Battery Measurements
// ───────────────────────────────────────────────
public Voltage PvVoltage1 => ConvertBitPatternToFloat(_pvVoltage1);
public Current PvCurrent1 => ConvertBitPatternToFloat(_pvCurrent1);
public ActivePower PvPower1 => ConvertBitPatternToFloat(_pvPower1);
public ActivePower PvPower1 => ConvertBitPatternToFloat(_pvPower1) *_factorFromKwtoW;
public Voltage PvVoltage2 => ConvertBitPatternToFloat(_pvVoltage2);
public Current PvCurrent2 => ConvertBitPatternToFloat(_pvCurrent2);
public ActivePower PvPower2 => ConvertBitPatternToFloat(_pvPower2);
public ActivePower PvPower2 => ConvertBitPatternToFloat(_pvPower2) * _factorFromKwtoW;
public Voltage BatteryVoltage1 => ConvertBitPatternToFloat(_batteryVoltage1);
public Current BatteryCurrent1 => ConvertBitPatternToFloat(_batteryCurrent1);
public ActivePower BatteryPower1 => ConvertBitPatternToFloat(_batteryPower1);
public Percent BatterySoc1 => ConvertBitPatternToFloat(_batterySoc1);
public float BatteryFullLoadDuration1 => ConvertBitPatternToFloat(_batteryFullLoadDuration1);
public Voltage Battery1Voltage => ConvertBitPatternToFloat(_batteryVoltage1);
public Current Battery1Current => ConvertBitPatternToFloat(_batteryCurrent1);
public ActivePower Battery1Power => ConvertBitPatternToFloat(_batteryPower1) * _factorFromKwtoW;
public Percent Battery1Soc => ConvertBitPatternToFloat(_batterySoc1);
public float BatteryFullLoadDuration1 => ConvertBitPatternToFloat(_batteryFullLoadDuration1); // this is in hour
public Voltage BatteryVoltage2 => ConvertBitPatternToFloat(_batteryVoltage2);
public Current BatteryCurrent2 => ConvertBitPatternToFloat(_batteryCurrent2);
public ActivePower BatteryPower2 => ConvertBitPatternToFloat(_batteryPower2);
public Percent BatterySoc2 => ConvertBitPatternToFloat(_batterySoc2);
public Voltage Battery2Voltage => ConvertBitPatternToFloat(_batteryVoltage2);
public Current Battery2Current => ConvertBitPatternToFloat(_batteryCurrent2);
public ActivePower Battery2Power => ConvertBitPatternToFloat(_batteryPower2) * _factorFromKwtoW;
public Percent Battery2Soc => ConvertBitPatternToFloat(_batterySoc2);
public float BatteryFullLoadDuration2 => ConvertBitPatternToFloat(_batteryFullLoadDuration2);
public Temperature DcdcTemperature1 => ConvertBitPatternToFloat(_dcdcTemperature1);
@ -166,8 +172,8 @@ public partial class SinexcelRecord
// ───────────────────────────────────────────────
// Energy and Power Summary
// ───────────────────────────────────────────────
public Energy ElectricityPurchased => ConvertBitPatternToFloat(_electricityPurchased);
public Energy ElectricityFed => ConvertBitPatternToFloat(_electricityFed);
public Energy TotalEnergyToUser => ConvertBitPatternToFloat(_electricityPurchased);
public Energy TotalEnergyToGrid => ConvertBitPatternToFloat(_electricityFed);
public Energy SelfGeneratedElectricity => ConvertBitPatternToFloat(_selfGeneratedElectricity);
public Energy BatteryCharge => ConvertBitPatternToFloat(_batteryCharge);
public Energy BatteryDischarge => ConvertBitPatternToFloat(_batteryDischarge);
@ -175,21 +181,21 @@ public partial class SinexcelRecord
public Energy DailySelfGeneratedElectricity => ConvertBitPatternToFloat(_dailySelfGeneratedElectricity);
public Energy DailyElectricityPurchased => ConvertBitPatternToFloat(_dailyElectricityPurchased);
public Energy DailyElectricityFed => ConvertBitPatternToFloat(_dailyElectricityFed);
public Energy DailyBatteryCharge => ConvertBitPatternToFloat(_dailyBatteryCharge);
public Energy DailyBatteryDischarge => ConvertBitPatternToFloat(_dailyBatteryDischarge);
public Energy BatteryDailyChargeEnergy => ConvertBitPatternToFloat(_dailyBatteryCharge);
public Energy BatteryDailyDischargeEnergy => ConvertBitPatternToFloat(_dailyBatteryDischarge);
public Energy DailyLoadPowerConsumption => ConvertBitPatternToFloat(_dailyLoadPowerConsumption);
public ActivePower TotalPhotovoltaicPower => ConvertBitPatternToFloat(_totalPhotovoltaicPower);
public ActivePower TotalBatteryPower => ConvertBitPatternToFloat(_totalBatteryPower);
public ActivePower TotalLoadPower => ConvertBitPatternToFloat(_totalLoadPower);
public ActivePower TotalGridPower => ConvertBitPatternToFloat(_totalGridPower);
public ActivePower ImportantLoadTotalPower => ConvertBitPatternToFloat(_importantLoadTotalPower);
public ActivePower GeneralLoadTotalPower => ConvertBitPatternToFloat(_generalLoadTotalPower);
public ActivePower TotalPhotovoltaicPower => ConvertBitPatternToFloat(_totalPhotovoltaicPower) * _factorFromKwtoW;
public ActivePower TotalBatteryPower => ConvertBitPatternToFloat(_totalBatteryPower) * _factorFromKwtoW;
public ActivePower TotalLoadPower => ConvertBitPatternToFloat(_totalLoadPower) * _factorFromKwtoW ;
public ActivePower TotalGridPower => ConvertBitPatternToFloat(_totalGridPower) * _factorFromKwtoW ;
public ActivePower ImportantLoadTotalPower => ConvertBitPatternToFloat(_importantLoadTotalPower)* _factorFromKwtoW;
public ActivePower GeneralLoadTotalPower => ConvertBitPatternToFloat(_generalLoadTotalPower)* _factorFromKwtoW;
public Voltage Pv3Voltage => ConvertBitPatternToFloat(_pv3Voltage);
public Current Pv3Current => ConvertBitPatternToFloat(_pv3Current);
public ActivePower Pv3Power => ConvertBitPatternToFloat(_pv3Power);
public ActivePower Pv3Power => ConvertBitPatternToFloat(_pv3Power) * _factorFromKwtoW;
public Voltage Pv4Voltage => ConvertBitPatternToFloat(_pv4Voltage);
public Current Pv4Current => ConvertBitPatternToFloat(_pv4Current);
public ActivePower Pv4Power => ConvertBitPatternToFloat(_pv4Power);
public ActivePower Pv4Power => ConvertBitPatternToFloat(_pv4Power) * _factorFromKwtoW;
public ActivePower GeneratorTotalPower => ConvertBitPatternToFloat(_generatorTotalPower);
// ───────────────────────────────────────────────
@ -318,13 +324,13 @@ public partial class SinexcelRecord
set => _batteryCapacity1 = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
}
public float MaxChargingCurrentBattery1
public float Battery1MaxChargingCurrent
{
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_maxChargingCurrentBattery1));
set => _maxChargingCurrentBattery1 = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
}
public float MaxDischargingCurrentBattery1
public float Battery1MaxDischargingCurrent
{
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_maxDischargingCurrentBattery1));
set => _maxDischargingCurrentBattery1 = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
@ -336,7 +342,7 @@ public partial class SinexcelRecord
set => _ratedBatteryVoltage1 = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
}
public float MinSocBattery1
public float Battery1MinSoc
{
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_minSocBattery1));
set => _minSocBattery1 = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
@ -356,8 +362,8 @@ public partial class SinexcelRecord
public float ActiveChargeDischargePower
{
get => ConvertBitPatternToFloat(_activeChargeDischargePower);
set => _activeChargeDischargePower = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
get => ConvertBitPatternToFloat(_activeChargeDischargePower) * _factorFromKwtoW;
set => _activeChargeDischargePower = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0); // we should check this may need to convert from W to KW
}
// ───────────────────────────────────────────────
@ -405,13 +411,13 @@ public partial class SinexcelRecord
set => _battery2Capacity = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
}
public float MaxChargingCurrentBattery2
public float Battery2MaxChargingCurrent
{
get => BitConverter.Int32BitsToSingle(unchecked((int)_maxChargingCurrentBattery2));
set => _maxChargingCurrentBattery2 = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
}
public float MaxDischargingCurrentBattery2
public float Battery2MaxDischargingCurrent
{
get => BitConverter.Int32BitsToSingle(unchecked((int)_maxDischargingCurrentBattery2));
set => _maxDischargingCurrentBattery2 = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
@ -498,16 +504,10 @@ public partial class SinexcelRecord
set => _meterReverseManualDetection = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
}
public Voltage BatteryVoltage
public SinexcelBatteryRating BatteryVoltageRating
{
get => (Voltage)ConvertBitPatternToFloat(_batteryVoltage);
set => _batteryVoltage = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
}
public SinexcelBatteryRating BatteryRating
{
get => (SinexcelBatteryRating)ConvertBitPatternToFloat(_batteryRating);
set => _batteryRating = (UInt32)value;
get => (SinexcelBatteryRating)ConvertBitPatternToFloat(_batteryVoltageRating);
set => _batteryVoltageRating = (UInt32)value;
}
public float Battery1Activation
@ -571,23 +571,122 @@ public partial class SinexcelRecord
// ───────────────────────────────────────────────
public ActivePower ElectricMeterAPhaseActivePower
{
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_electricMeterAPhaseActivePower));
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_electricMeterAPhaseActivePower)) * _factorFromKwtoW;
}
public ActivePower ElectricMeterBPhaseActivePower
{
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_electricMeterBPhaseActivePower));
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_electricMeterBPhaseActivePower)) * _factorFromKwtoW;
}
public ActivePower ElectricMeterCPhaseActivePower
{
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_electricMeterCPhaseActivePower));
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_electricMeterCPhaseActivePower)) * _factorFromKwtoW;
}
public ActivePower GridPower
{
get => ElectricMeterAPhaseActivePower + ElectricMeterBPhaseActivePower + ElectricMeterCPhaseActivePower;
}
/*
// Energy (kW·h)
public Energy Battery1TotalChargingEnergy => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab1TotalChargingEnergy)); // 0xB0FC
public Energy Battery1TotalDischargedEnergy => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab1TotalDischargedEnergy)); // 0xB0FE
// Pack totals and status
public Voltage Battery1PackTotalVoltage => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab1PackTotalVoltage)); // 0xB100 (0.01 V resolution per spec)
public Current Battery1PackTotalCurrent => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab1PackTotalCurrent)); // 0xB102 (0.01 A resolution per spec)
public Temperature Battery1Temperature => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab1Temperature)); // 0xB104 (0.01 °C resolution per spec)
public Percent Battery1SocSecondvalue => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab1Soc)); // 0xB106 %
public Percent Battery1Soh => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab1Soh)); // 0xB108 %
// Energy (kW·h)
public float Battery2TotalChargingEnergy => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab2TotalChargingEnergy)); // 0xB1FC
public float Battery2TotalDischargedEnergy => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab2TotalDischargedEnergy)); // 0xB1FE
// Pack Voltage / Current / Temperature
public Voltage Battery2PackTotalVoltage => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab2PackTotalVoltage)); // 0xB200 (0.01 V resolution)
public Current Battery2PackTotalCurrent => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab2PackTotalCurrent)); // 0xB202 (0.01 A resolution)
public Temperature Battery2Socsecondvalue => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab2Soc)); // 0xB206 %
public Percent Battery2Soh => BitConverter.Int32BitsToSingle(unchecked((Int32)_batteryCab2Soh)); // 0xB208 %
// Repetitive-week mask (bit-mapped 06 = SunSat)
public SinexcelWeekDays RepetitiveWeeks
{
get => (SinexcelWeekDays)(_repetitiveWeeks & 0x7F); // only 7 bits used
set => _repetitiveWeeks = (UInt32)value;
}
// Effective start / end as UNIX timestamps
public DateTime EffectiveStartDate
{
get => DateTimeOffset.FromUnixTimeSeconds(_effectiveStartDate).DateTime;
set => _effectiveStartDate = (UInt32)new DateTimeOffset(value).ToUnixTimeSeconds();
}
public DateTime EffectiveEndDate
{
get => DateTimeOffset.FromUnixTimeSeconds(_effectiveEndDate).DateTime;
set => _effectiveEndDate = (UInt32)new DateTimeOffset(value).ToUnixTimeSeconds();
}
// Charging power during time period 1 (kW)
public float ChargingPowerPeriod1
{
get => BitConverter.Int32BitsToSingle(unchecked((Int32)_chargingPowerPeriod1));
set => _chargingPowerPeriod1 = BitConverter.ToUInt32(BitConverter.GetBytes(value), 0);
}
// ───────────────────────────────────────────────
// Charging period 1
// ───────────────────────────────────────────────
public TimeSpan ChargeStartTimePeriod1
{
get => ConvertToTimeSpan(_chargeStartTimePeriod1);
set => _chargeStartTimePeriod1 = ConvertFromTimeSpan(value);
}
public TimeSpan ChargeEndTimePeriod1
{
get => ConvertToTimeSpan(_chargeEndTimePeriod1);
set => _chargeEndTimePeriod1 = ConvertFromTimeSpan(value);
}
// ───────────────────────────────────────────────
// Discharging period 1
// ───────────────────────────────────────────────
public TimeSpan DischargeStartTimePeriod1
{
get => ConvertToTimeSpan(_dischargeStartTimePeriod1);
set => _dischargeStartTimePeriod1 = ConvertFromTimeSpan(value);
}
public TimeSpan DischargeEndTimePeriod1
{
get => ConvertToTimeSpan(_dischargeEndTimePeriod1);
set => _dischargeEndTimePeriod1 = ConvertFromTimeSpan(value);
}*/
// ───────────────────────────────────────────────
// Conversion methodes
// ───────────────────────────────────────────────
private static TimeSpan ConvertToTimeSpan(UInt32 value)
{
int hhmm = (int)value;
int hours = hhmm / 100;
int minutes = hhmm % 100;
return new TimeSpan(hours, minutes, 0);
}
private static UInt32 ConvertFromTimeSpan(TimeSpan time)
{
int hhmm = time.Hours * 100 + time.Minutes;
return (UInt32)hhmm;
}
private static Single IntToFloat(Int32 intValue)
{
byte[] intBytes = BitConverter.GetBytes(intValue);