public Substance(Pressure pressure, Enthalpy enthalpy)
{
Pressure = pressure;
//Checking what region the Substanse belong to:
//1. check if it is region 1
try
{
Temperature = new Temperature(Region1BackwardEquation_Tph.CalculateTemperature(pressure.Value, enthalpy.Value));
CalculateProperties(Temperature, Pressure);
}
catch (CantDetermineRegionException)
{ }
if (SpecificEnthalpy != null && Math.Round(SpecificEnthalpy.Value) == Math.Round(enthalpy.Value))
{
//it is region 1
return;
}
//2. check if it is region 2
if (pressure.Value <= 4)
{
Temperature = new Temperature(Region2aBackwardEquation_Tph.CalculateTemperature(pressure.Value, enthalpy.Value));
CalculateProperties(Temperature, Pressure);
if (Math.Round(SpecificEnthalpy.Value, 1) == Math.Round(enthalpy.Value, 1))
{
//it is region 2a
return;
}
}
else if (Region2B2bcEquation.is2cSubregion(pressure.Value, enthalpy.Value) == false)
{
Temperature = new Temperature(Region2bBackwardEquation_Tph.CalculateTemperature(pressure.Value, enthalpy.Value));
CalculateProperties(Temperature, Pressure);
if (Math.Round(SpecificEnthalpy.Value, 1) == Math.Round(enthalpy.Value, 1))
{
//it is region 2b
return;
}
}
else if (Region2B2bcEquation.is2cSubregion(pressure.Value, enthalpy.Value))
{
Temperature = new Temperature(Region2cBackwardEquation_Tph.CalculateTemperature(pressure.Value, enthalpy.Value));
CalculateProperties(Temperature, Pressure);
if (Math.Round(SpecificEnthalpy.Value, 1) == Math.Round(enthalpy.Value, 1))
{
//it is region 2c
return;
}
}
else
{
throw new CantDetermineRegionException("It seems no region fits to these values pressure and enthalpy");
}
}
private void Region5Calculations(Temperature temperature, Pressure pressure)
{
Temperature = temperature;
Pressure = pressure;
SpecificVolume = Region5.CalculateSpecificVolume(temperature.Value, pressure.Value);
SpecificEnthalpy = new Enthalpy(Region5.CalculateSpecificEnthalpy(temperature.Value, pressure.Value));
SpecificInternalEnergy = Region5.CalculateSpecificInternalEnergy(temperature.Value, pressure.Value);
SpecificEntropy = new Entropy(Region5.CalculateSpecificEntropy(temperature.Value, pressure.Value));
SpecificIsobaricHeatCapacity = Region5.SpecificIsobaricHeatCapacity(temperature.Value, pressure.Value);
SpeedOfSound = Region5.SpeedOfSound(temperature.Value, pressure.Value);
SpecificIsochoricHeatCapacity = Region5.SpecificIsochoricHeatCapacity(temperature.Value, pressure.Value);
}
public override int GetHashCode()
{
var hashCode = 570931003;
hashCode = hashCode * -1521134295 + Region.GetHashCode();
hashCode = hashCode * -1521134295 + VaporMassFraction.GetHashCode();
hashCode = hashCode * -1521134295 + LiquidMassFraction.GetHashCode();
hashCode = hashCode * -1521134295 + SolidMassFraction.GetHashCode();
hashCode = hashCode * -1521134295 + Temperature.GetHashCode();
hashCode = hashCode * -1521134295 + Pressure.GetHashCode();
hashCode = hashCode * -1521134295 + SpecificVolume.GetHashCode();
hashCode = hashCode * -1521134295 + InternalEnergy.GetHashCode();
hashCode = hashCode * -1521134295 + Enthalpy.GetHashCode();
hashCode = hashCode * -1521134295 + Entropy.GetHashCode();
hashCode = hashCode * -1521134295 + IsochoricHeatCapacity.GetHashCode();
hashCode = hashCode * -1521134295 + IsobaricHeatCapacity.GetHashCode();
hashCode = hashCode * -1521134295 + SpeedOfSound.GetHashCode();
hashCode = hashCode * -1521134295 + Density.GetHashCode();
return(hashCode);
}
static void Main(string[] args)
{
Log.Logger = new LoggerConfiguration()
.WriteTo.Debug()
.CreateLogger();
Log.Information("Hello, world!");
MoistAir Air = new MoistAir();
Air.UpdateAir(Pressure.FromBars(1),
DryBulbTemperature: Temperature.FromDegreesCelsius(20),
RelativeHumidity: 0.7
);
Air.UpdateAir(Pressure.FromBars(1), HumidityRatio: 0.010397090640274141, RelativeHumidity: 0.7);
//Air.UpdateAir(Pressure.FromSI(101325), HumidityRatio: 0.011, RelativeHumidity: 0.8);
Fluid R407C = new Fluid(FluidList.R407C);
R407C.UpdatePX(Pressure.FromMegapascals(4.022736), 0);
Fluid Ammonia = new Fluid(FluidList.Ammonia);
var test11 = Ammonia.GetEnvelopePhase();
Ammonia.UpdatePX(Pressure.FromBars(25), 0.5);
Ammonia.UpdateDH(Ammonia.Density, Ammonia.Enthalpy);
Ammonia.UpdatePT(Pressure.FromSI(2293443.57087332), Temperature.FromSI(405.55873230045091));
Ammonia.UpdatePT(Pressure.FromSI(2493443), Temperature.FromSI(410));
Fluid r134a = new Fluid(FluidList.R134a);
r134a.UpdatePT(Pressure.FromBars(10), Temperature.FromDegreesCelsius(75));
var phase = r134a.Phase;
Length length = new Length(5.485, LengthUnit.Inch);
Length height = new Length(12.4, LengthUnit.Centimeter);
Area area = length * height; // 0.01728 m²
Console.WriteLine(area.ToUnit(AreaUnit.SquareFoot)); // 0.186 ft²
Console.WriteLine(area.ToUnit(AreaUnit.SquareCentimeter)); // 172.8 cm²
Console.WriteLine(area.GetHashCode());
Fluid R717 = new Fluid(FluidList.Ammonia);
R717.UpdatePT(Pressure.FromBars(10), Temperature.FromDegreesCelsius(100));
Fluid R717Clone = R717.Clone();
Console.WriteLine(R717.Density); // 5.751 kg/m³
Console.WriteLine(R717.DynamicViscosity); // 1.286e-05 Pa·s
//Fluid test12 = new Fluid(FluidList.Custom_SHC226E);
//test12.updateAir("H","T",298.15,"P",101325,"R",0.5);
Air.UpdateAir(Pressure.FromBars(1),
DryBulbTemperature: Temperature.FromKelvins(298.15),
RelativeHumidity: 0.5
);
Debug.Print($"WetBulbTemperature: {Air.WetBulbTemperature}");
Debug.Print($"DewPointTemperature: {Air.DewPointTemperature}");
Debug.Print($"DryBulbTemperature: {Air.Temperature}");
Debug.Print($"RelativeHumidity: {Air.RelativeHumidity * 100} % ");
Debug.Print($"HumidityRatio: {Air.HumidityRatio} kg/kg");
Enthalpy H = Air.Enthalpy;
int totalcount = 10000;
var watch = System.Diagnostics.Stopwatch.StartNew();
for (int i = 0; i < totalcount; i++)
{
Air.UpdatePT(Pressure.FromBars(10), Temperature.FromDegreesCelsius(10));
Air.UpdatePT(Pressure.FromBars(2), Temperature.FromDegreesCelsius(300));
}
watch.Stop();
Log.Information($"Time: {watch.ElapsedTicks / totalcount}");
string jsonString1 = JsonConvert.SerializeObject(Air);
Fluid testJSON = JsonConvert.DeserializeObject <Fluid>(jsonString1);
string jsonString2 = JsonConvert.SerializeObject(testJSON);
Debug.Print($"{jsonString1 == jsonString2}");
testJSON.UpdatePT(Pressure.FromBars(10), Temperature.FromDegreesCelsius(10));
var howManyBytes = jsonString1.Length * sizeof(Char);
Debug.Print($"Size is: {howManyBytes}");
//................................................
Fluid test = new Fluid(FluidList.Water);
test.UpdatePT(Pressure.FromBars(3), Temperature.FromDegreesCelsius(20));
test.MassFlow = MassFlow.FromKilogramsPerSecond(1);
//for (int i = 0; i < 100000; i++)
//{
// test.AddPower(Power.FromWatts(1));
//}
Debug.Print("");
////Arrange
//foreach (FluidList suit in (FluidList[])Enum.GetValues(typeof(FluidList)))
//{
// //Arrange
// Fluid TestFluid = new Fluid(suit);
// using (var loggerFactory = LoggerFactory.Create(builder =>
// { builder.AddConsole(); }))
// {
// ILogger logger = loggerFactory.CreateLogger<Program>();
// //logger.LogInformation("Logging has stared");
// TestFluid.Log = logger;
// }
// Debug.Print(TestFluid.Media.InternalName);
// TestFluid.Log.LogInformation(TestFluid.Media.InternalName);
// TestFluid.GetEnvelopePhase();
//}
////This is want we are aiming for
//Entropy Aim = Entropy.FromJoulesPerKelvin(1699.7);
//Temperature Max = my_fluid.LimitTemperatureMax;
//Temperature Min = my_fluid.LimitTemperatureMin;
//Temperature Mid = Temperature.Zero;
//for (int i = 0; i < 20; i++)
//{
// Mid = Temperature.FromKelvins((Max.Kelvins + Min.Kelvins) / 2);
// my_fluid.UpdatePT(Pressure.FromBars(10), Mid);
// if (my_fluid.Entropy > Aim)
// Max = Mid;
// else
// Min = Mid;
//}
//my_fluid.UpdatePX(Pressure.FromBars(9), 0.0);
// Fluid test = new Fluid(FluidList.Water);
test.UpdatePT(Pressure.FromBars(-10), Temperature.FromDegreesCelsius(300));
test.UpdatePT(Pressure.FromBars(100000), Temperature.FromDegreesCelsius(300));
test.UpdatePT(Pressure.FromBars(10), Temperature.FromDegreesCelsius(30000));
test.UpdatePH(Pressure.FromBars(2), SpecificEnergy.FromKilojoulesPerKilogram(10740.5));
test.MassFlow = MassFlow.FromKilogramsPerSecond(-0.0054);
test.AddPower(Power.FromWatts(-86982.42));
//Fluid r134a = new Fluid(FluidList.R134a);
r134a.UpdatePT(Pressure.FromBars(2), Temperature.FromDegreesCelsius(13));
string densité = r134a.Density.MilligramsPerCubicMeter.ToString();
Density Result = r134a.Density;
//Arrange
//Fluid R717 = new Fluid(FluidList.Ammonia);
Density setDensity = Density.FromKilogramsPerCubicMeter(15.36622602626586);
SpecificEnergy setEnthalpy = SpecificEnergy.FromJoulesPerKilogram(1043420.2106074861);
Mass setMass = Mass.FromKilograms(43);
setMass = setMass.ToUnit(MassUnit.Decagram);
//Act
R717.UpdateDH(setDensity, setEnthalpy);
R717.Mass = setMass;
//Save as JSON
string json = R717.SaveAsJSON();
//Start new fluid and load as json
Fluid R717JSON = R717.LoadFromJSON(json);
Temperature test1 = R717JSON.Tsat;
//Find the Density of water at 13°C
Fluid Water = new Fluid(FluidList.Water);
Water.UpdatePT(Pressure.FromBars(1.013), Temperature.FromDegreesCelsius(13));
Console.WriteLine("Density of water at 13°C: " + Water.Density);
Water.UpdateHS(SpecificEnergy.FromJoulesPerKilogram(54697.59), SpecificEntropy.FromJoulesPerKilogramKelvin(195.27));
Debug.Print("Density of water is: " + Water.Density);
//Giving water a Massflow
Water.MassFlow = MassFlow.FromKilogramsPerHour(100);
//What is the volumeFlow for this water?
Console.WriteLine("VolumeFlow of the water: " + Water.VolumeFlow);
//What is the boiling point of the water?
Water.UpdatePX(Pressure.FromBars(1.013), 0); //X=0 it is 100% liquid and 0% gas but at it boiling point
Console.WriteLine("Boiling point of this water is: " + Water.Temperature);
//..and if you want to display it in another unit
Console.WriteLine("Boiling point of this water is: " + Water.Temperature.ToUnit(TemperatureUnit.DegreeCelsius));
//Display Dynamic Viscosity of the water
Console.WriteLine("Dynamic Viscosity of this water is: " + Water.DynamicViscosity);
//Create a CO2 fluid
Fluid ref1 = new Fluid(FluidList.CO2);
//Update it with 25bar and X=1
ref1.UpdatePX(Pressure.FromBars(25), 1);
Console.WriteLine(ref1.Cp);
Console.WriteLine(ref1.Temperature);
Console.WriteLine("Prandtl is : " + ref1.Prandtl);
Console.WriteLine("Cp is : " + ref1.Cp);
Console.WriteLine("Cv is : " + ref1.Cv);
Console.WriteLine("Surface Tension is : " + ref1.SurfaceTension);
Console.WriteLine("Density is : " + ref1.Density);
//A Fluid that is a mix of Ammonia and water
Fluid ref2 = new Fluid(FluidList.MixAmmoniaAQ);
//Set the fraction between ammonia(80%) and water(20%)
ref2.SetFraction(0.3);
//Update it with 10bars and 10°C
ref2.UpdatePT(Pressure.FromBars(10), Temperature.FromDegreesCelsius(10));
//Copy fluid type
Fluid ref3 = new Fluid();
ref3.CopyType(ref1);
ref3.UpdatePX(Pressure.FromBars(25), 1);
Console.WriteLine(ref3.Cp);
Console.WriteLine(ref3.Temperature);
Console.WriteLine("Prandtl is : " + ref3.Prandtl);
Console.WriteLine("Cp is : " + ref3.Cp);
Console.WriteLine("Cv is : " + ref3.Cv);
Console.WriteLine("Surface Tension is : " + ref3.SurfaceTension);
//Saving and loading to JSON
Fluid ref4 = new Fluid();
string JSON = ref3.SaveAsJSON();
ref4 = ref4.LoadFromJSON(JSON);
Console.WriteLine(ref4.Cp);
Console.WriteLine(ref4.Temperature);
Console.WriteLine("Prandtl is : " + ref4.Prandtl);
Console.WriteLine("Cp is : " + ref4.Cp);
Console.WriteLine("Cv is : " + ref4.Cv);
Console.WriteLine("Surface Tension is : " + ref4.SurfaceTension);
ref4.UpdatePX(Pressure.FromBars(45), 1);
Console.WriteLine(ref4.Cp);
Console.WriteLine(ref4.Temperature);
Console.WriteLine("Prandtl is : " + ref4.Prandtl);
Console.WriteLine("Cp is : " + ref4.Cp);
Console.WriteLine("Cv is : " + ref4.Cv);
Console.WriteLine("Surface Tension is : " + ref4.SurfaceTension);
ref4.UpdatePX(Pressure.FromBars(25), 1);
Console.WriteLine(ref4.Cp);
Console.WriteLine(ref4.Temperature);
Console.WriteLine("Prandtl is : " + ref4.Prandtl);
Console.WriteLine("Cp is : " + ref4.Cp);
Console.WriteLine("Cv is : " + ref4.Cv);
Console.WriteLine("Surface Tension is : " + ref4.SurfaceTension);
Console.WriteLine(ref2.Density);
Fluid ref5 = new Fluid();
ref5.Copy(ref4);
Console.ReadKey();
}