public CFMB_Para()
{
rIO.Add(EFMB_rIO.AC同步信号, 0);
rIO.Add(EFMB_rIO.治具到位信号1, 0);
rIO.Add(EFMB_rIO.治具到位信号2, 0);
rIO.Add(EFMB_rIO.治具到位信号3, 0);
rIO.Add(EFMB_rIO.治具到位信号4, 0);
rIO.Add(EFMB_rIO.自动切换信号, 0);
rIO.Add(EFMB_rIO.手动顶升信号, 0);
rIO.Add(EFMB_rIO.手动下降信号, 0);
rIO.Add(EFMB_rIO.S1状态, 0);
rIO.Add(EFMB_rIO.AC电压信号, 0);
rIO.Add(EFMB_rIO.继电器粘连警告, 0);
rIO.Add(EFMB_rIO.检测AC电压, 0);
rIO.Add(EFMB_rIO.运行信号灯, 0);
rIO.Add(EFMB_rIO.错误信号灯, 0);
rIO.Add(EFMB_rIO.气缸控制1, 0);
rIO.Add(EFMB_rIO.气缸控制2, 0);
wIO.Add(EFMB_wIO.错误信号灯, new CFMB_IO());
wIO.Add(EFMB_wIO.继电器信号, new CFMB_IO());
wIO.Add(EFMB_wIO.气缸控制1, new CFMB_IO());
wIO.Add(EFMB_wIO.气缸控制2, new CFMB_IO());
for (int i = 0; i < CFMBPara.Child_Max; i++)
{
Volt.Add(0);
}
}
public CMon_Para()
{
for (int i = 0; i < 32; i++)
{
Volt.Add(0);
}
}
/// <summary>
/// 更新耐张塔的覆冰率
/// </summary>
/// <param name="towerType"></param>
/// <param name="backWkCdts"></param>
/// <param name="backIceArea"></param>
/// <param name="frontWkCdts"></param>
/// <param name="frontIceArea"></param>
public void UpateIceCovrage(string towerType, List <ElecCalsWorkCondition> backWkCdts, string backIceArea, List <ElecCalsWorkCondition> frontWkCdts, string frontIceArea)
{
var backIceWkCdt = backWkCdts.Where(item => item.Name == "最大覆冰").FirstOrDefault();
double backIceThick = backIceWkCdt == null ? 0 : backIceWkCdt.IceThickness;
var frontIceWkCdt = frontWkCdts.Where(item => item.Name == "最大覆冰").FirstOrDefault();
double frontIceThick = frontIceWkCdt == null ? 0 : frontIceWkCdt.IceThickness;
Catagory = ElecCalsToolBox.GetCatogory(Volt.ToString());
//BreakIceCoverPer = ElecCalsToolBox.UBlanceR(towerType, backIceThick, frontIceThick, Catagory);
BreakIceCoverPer = ElecCalsToolBox.UBlanceR(towerType, Math.Max(backIceThick, frontIceThick), Catagory);
//1：考虑断线覆冰率 2：不考虑断线覆冰率
BreakIceCoverPara = (Math.Max(backIceThick, frontIceThick) >= 20) ? 1 : 2;
if (backIceThick != frontIceThick)
{
UnbaIceCoverPerI = 1;
UnbaIceCoverPerII = 0;
}
else
{
if (backIceArea == "重冰区" || frontIceArea == "重冰区" || backIceArea == "中冰区" || frontIceArea == "中冰区")
{
UnbaIceCoverPerI = ElecCalsToolBox.IBlanceR1(towerType, Catagory);
UnbaIceCoverPerII = ElecCalsToolBox.IBlanceR2(towerType, Catagory);
}
else
{
UnbaIceCoverPerI = 1;
UnbaIceCoverPerII = 1;
}
}
}
public BatteryInfoMessage(byte[] payload)
{
payload.RequireBytes(8);
BatteryCurrent = new Ampere(1000 - ((((payload[3] & 0x7F) << 8) + payload[2]) << 1) / 20.0m);
BatteryVoltage = new Volt((payload[0] + (payload[1] << 8)) / 100.0m);
BatteryPower = new Watt(BatteryCurrent * BatteryVoltage);
NegativeTerminal = (payload[6] + ((payload[7] & 0x07) << 8)) * 0.1m - 10m;
}
public FastChargeLimitsMessage(byte[] payload)
{
payload.RequireBytes(RequireBytes);
FastChargePowerLimit = new KiloWatt(Math.Round(BitArrayConverter.ToUInt16(payload, 0, 13) * 0.06226m, 4));
FastChargeCurrentLimit = new Ampere(Math.Round(BitArrayConverter.ToUInt16(payload, 16, 13) * 0.073242m, 2));
FastChargeMaxVoltage = new Volt(Math.Round(BitArrayConverter.ToUInt16(payload, 32, 13) * 0.073242m, 2));
FastChargeMinVoltage = new Volt(Math.Round(BitArrayConverter.ToUInt16(payload, 48, 13) * 0.073242m, 2));
}
public BatteryPowerMessage(byte[] payload)
{
payload.RequireBytes(RequireBytes);
BatteryVoltage = new Volt(BitArrayConverter.ToUInt16(payload, 0, 16) / 100.0m);
BatteryCurrentSmooth = new Ampere(BitArrayConverter.ToInt16(payload, 16, 15) * -0.01m);
BatteryCurrentRaw = new Ampere(BitArrayConverter.ToInt16(payload, 32, 16) * -0.05m + 500m);
ChargeTimeRemaining = TimeSpan.FromMinutes(BitArrayConverter.ToUInt16(payload, 48, 12));
}
public DcDcInfoMessage(byte[] payload)
{
payload.RequireBytes(6);
DcDcCurrent = new Ampere(payload[4]);
DcDcVoltage = new Volt(payload[5] / 10.0m);
DcDcCoolantInlet = (payload[2] - 2 * (payload[2] & 0x80)) / 2m + 40m;
DcDcInputPower = new Watt((ushort)(payload[3] << 4));
DcDcOutputPower = new Watt(payload[4] * payload[5] / 10.0m);
}
public RearMechPowerMessage(byte[] payload)
{
payload.RequireBytes(RequireBytes);
RearInverterVoltage = new Volt(payload[0] / 10m);
RearMechPower = new KiloWatt((payload[2] + ((payload[3] & 0x7) << 8) - 512 * (payload[3] & 0x4)) / 2m);
RearDissipation = new KiloWatt(payload[1] * 125m / 1000m - 0.5m);
RearInputPower = new KiloWatt(RearMechPower + RearDissipation);
RearStatorCurrent = new Ampere(payload[4] + ((payload[5] & 0x7) << 8));
RearDriveMaxPower = new KiloWatt((payload[6] & 0x3f << 5) + ((payload[5] & 0xf0) >> 3) + 1m);
RearRegenMaxPower = new KiloWatt((payload[7] << 2) - 200m);
}
private static void testClassAdapter()
{
ISocketAdapter sockAdapter = new SocketClassAdapterImp();
Volt v3 = getVolt(sockAdapter, 3);
Volt v12 = getVolt(sockAdapter, 12);
Volt v120 = getVolt(sockAdapter, 120);
Console.WriteLine("v3 volts using class adapter = " + v3.Volts.ToString());
Console.WriteLine("v12 volts using class adapter = " + v12.Volts.ToString());
Console.WriteLine("v120 volts using class adapter = " + v120.Volts.ToString());
}
public CStatTestFixture(int slotMax)
{
for (int i = 0; i < slotMax; i++)
{
SerialNo.Add("");
ResultName.Add("");
ResultId.Add(0);
Result.Add(0);
Value.Add("");
Volt.Add(0);
Cur.Add(0);
DD.Add("");
}
}
public void ElectricUnits()
{
// Hearing aid (typically 1 mW at 1.4 V): 0.7 mA
Volt haVoltage = (Volt)1.4;
Ampere haAmps = (Watt)0.001 / haVoltage;
Assert.AreEqual((Ampere)0.00071428571428571439, haAmps, "Hearing aid amperage calculation failed");
Ohm haOhms = haVoltage / haAmps;
Assert.AreEqual((Ohm)1959.9999999999995, haOhms, "Hearing aid resistance calculation failed");
// A typical motor vehicle has a 12 V battery.
Volt batteryVoltage = (Volt)12.0;
// The various accessories that are powered by the battery might include:
// Instrument panel light (typically 2 W): 166 mA.
Ampere panelAmps = (Watt)2.0 / batteryVoltage;
Assert.AreEqual((Ampere)0.16666666666666666, panelAmps, "Car instrument panel amperage calculation failed");
Ohm panelOhms = batteryVoltage / panelAmps;
Assert.AreEqual((Ohm)72.0, panelOhms, "Car instrument panel resistance calculation failed");
// Headlights (typically 60 W): 5 A each.
Ampere lightsAmps = (Watt)60.0 / batteryVoltage;
Assert.AreEqual((Ampere)5.0, lightsAmps, "Car headlights amperage calculation failed");
Ohm lightsOhms = batteryVoltage / lightsAmps;
Assert.AreEqual((Ohm)2.4, lightsOhms, "Car headlights resistance calculation failed");
// Starter Motor (typically 1–2 kW): 80-160 A
Ampere starterAmps = (Watt)1500.0 / batteryVoltage;
Assert.AreEqual((Ampere)125.0, starterAmps, "Car starter motor amperage calculation failed");
Ohm starterOhms = batteryVoltage / starterAmps;
Assert.AreEqual((Ohm)0.096, starterOhms, "Car starter motor resistance calculation failed");
}
private void OnTriggerEnter(Collider other)
{
if (other.tag == "Melee")
{
Weapon wepon = other.GetComponent <Weapon>();
curHealth -= wepon.damage;
Vector3 reactVec = transform.position - other.transform.position;
StartCoroutine(onDamage(reactVec));
}
else if (other.tag == "Volt")
{
Volt volt = other.GetComponent <Volt>();
curHealth -= volt.damage;
Vector3 reactVec = other.transform.position - transform.position;
reactVec.y = 0;
Destroy(other.gameObject);
StartCoroutine(onDamage(reactVec));
}
}
/// <summary>
/// 更新悬垂塔的的覆冰率
/// </summary>
/// <param name="wkDdts"></param>
/// <param name="iceArea"></param>
public void UpateIceCovrage(List <ElecCalsWorkCondition> wkDdts, string iceArea)
{
//在悬垂塔的BreakIceCoverPerII，UnbaIceCoverPerII指的应该是地线开断的情况
var backIceWkCdt = wkDdts.Where(item => item.Name == "最大覆冰").FirstOrDefault();
double iceThick = backIceWkCdt == null ? 0 : backIceWkCdt.IceThickness;
Catagory = ElecCalsToolBox.GetCatogory(Volt.ToString());
BreakIceCoverPer = ElecCalsToolBox.UBlanceR("悬垂塔", iceThick, Catagory);
BreakIceCoverPerII = ElecCalsToolBox.UBlanceR("耐张塔", iceThick, Catagory);
//1：考虑断线覆冰率 2：不考虑断线覆冰率
BreakIceCoverPara = iceThick >= 20 ? 1 : 2;
if (iceArea == "轻冰区")
{
UnbaIceCoverPerI = 1;
UnbaIceCoverPerII = 1;
}
else
{
UnbaIceCoverPerI = ElecCalsToolBox.IBlanceR2("悬垂塔", Catagory);
UnbaIceCoverPerII = ElecCalsToolBox.IBlanceR2("耐张塔", Catagory);
}
}
private Volt ConvertVolt(Volt v, int i)
{
return(new Volt(v.GetVolts() / i));
}
public Volt Get3Volt()
{
Volt v = GetVolt();
return(ConvertVolt(v, 40));
}
private Volt ConvertVolt(Volt volt, int v)
{
return(new Volt(volt.GetVolts() / v));
}
public Volt Get3Volt()
{
Volt volt = socket.GetVolt();
return(ConvertVolt(volt, 40));
}
public Volt get3Volt()
{
Volt v = getVolt();
return(convertVolt(v, 40));
}
public Volt get12Volt()
{
Volt v = getVolt();
return(convertVolt(v, 10));
}
/// <summary>
/// Get12s the volt.
/// </summary>
/// <returns>
/// returning voltage
/// </returns>
public Volt Get12Volt()
{
Volt v = this.GetVolt();
return(this.ConvertVolt(v, 10));
}
/// <summary>
/// Get3s the volt.
/// </summary>
/// <returns>
/// returning voltage
/// </returns>
public Volt Get3Volt()
{
Volt v = this.GetVolt();
return(this.ConvertVolt(v, 40));
}
public Volt Get12Volt()
{
Volt volt = GetVolt();
return(ConvertVolt(volt, 10));
}
public Volt convertVolt(Volt v, int i)
{
return(new Volt(v.getVolts() / i));
}
private IWeapon CreateFromRecognizedString(string recognizedName, IWeapon currentWeapon, float sensitivityScale)
{
var weaponName = recognizedName.FindMostSimilar(WeaponNamesToTypes.Keys);
WeaponNamesToTypes.TryGetValue(weaponName, out var weaponType);
var inGameName = weaponType.GetWeaponName();
IWeapon result;
if (currentWeapon?.IsTheSameWeapon(inGameName) ?? weaponType == WeaponAL.Unknown)
{
return(currentWeapon);
}
var numOfMods = WeaponTypesToNumOfMods[weaponType];
switch (weaponType)
{
case WeaponAL.Wingman:
case WeaponAL.MASTIFF:
case WeaponAL.KRABER:
case WeaponAL.Longbow:
case WeaponAL.Peacekeeper:
case WeaponAL.TripleTake:
case WeaponAL.ChargedRifle:
result = new NonAdjustableWeapon(inGameName, 0, recognizedName, numOfMods);
break;
case WeaponAL.Havoc:
result = new Havoc(inGameName, 2, recognizedName, numOfMods);
break;
case WeaponAL.Devotion:
result = new Devotion(inGameName, recognizedName, numOfMods);
break;
case WeaponAL.LStar:
result = new LStar(inGameName, 2, recognizedName, numOfMods);
break;
case WeaponAL.Flatline:
result = new Flatline(inGameName, 2, recognizedName, numOfMods);
break;
case WeaponAL.Hemlok:
result = new Hemlok(inGameName, 2, recognizedName, numOfMods);
break;
case WeaponAL.Prowler:
result = new Prowler(inGameName, 2, recognizedName, numOfMods);
break;
case WeaponAL.RE45:
result = new RE45(inGameName, 2, recognizedName, numOfMods);
break;
case WeaponAL.R301:
result = new R301(inGameName, 2, recognizedName, numOfMods);
break;
case WeaponAL.R99:
result = new R99(inGameName, 1.5, recognizedName, numOfMods);
break;
case WeaponAL.Volt:
result = new Volt(inGameName, 1.5, recognizedName, numOfMods);
break;
case WeaponAL.Alternator:
result = new Alternator(inGameName, 2, recognizedName, numOfMods);
break;
case WeaponAL.G7Scout:
result = new G7Scout(inGameName, 2, recognizedName, numOfMods);
break;
case WeaponAL.Spitfire:
result = new Spitfire(inGameName, recognizedName, numOfMods);
break;
case WeaponAL.Unknown:
case WeaponAL.EVA8Auto:
case WeaponAL.Mozambique:
case WeaponAL.P2020:
result = new RegularAdjustmentWeapon(inGameName, 2, recognizedName, numOfMods);
break;
default:
throw new ArgumentOutOfRangeException();
}
result.SetSensitivityScale(sensitivityScale);
this.OnWeaponCreated(result);
return(result);
}
