// Use this for initialization
void Start()
{
solarRadiation = GetComponent <SolarRadiation>();
city = new BuildingModel[buildingsX, buildingsY];
for (int i = 0; i < buildingsX; i++)
{
for (int j = 0; j < buildingsY; j++)
{
city[i, j] = new BuildingModel();
city[i, j].parentModel = this;
}
}
}
public void HourlyRadiation_WhenTimeOutOfBounds_ThrowsException(double time, double sunAngle)
{
// Arrange
var mock = SetupMockSolar(time, sunAngle);
var radiation = new SolarRadiation(mock.Object)
{
Daily = 16.5,
RPAR = 0.5
};
// Act
// Assert
Assert.Throws <Exception>(() => radiation.UpdateRadiationValues(time));
}
public void DirectRadiation_GivenValidInput_MatchesExpectedValue(double time, double expected, double sunAngle)
{
// Arrange
var mock = SetupMockSolar(time, sunAngle);
var radiation = new SolarRadiation(mock.Object)
{
Daily = 16.5,
RPAR = 0.5
};
// Act
radiation.UpdateRadiationValues(time);
var actual = radiation.Direct;
// Assert
Assert.AreEqual(expected, actual);
mock.Verify();
}
/// <summary>
///
/// </summary>
/// <param name="CP"></param>
/// <param name="PP"></param>
/// <param name="DOY"></param>
/// <param name="latitude"></param>
/// <param name="maxT"></param>
/// <param name="minT"></param>
/// <param name="radn"></param>
/// <param name="rpar"></param>
/// <returns></returns>
public static DCAPSTModel SetUpModel(
ICanopyParameters CP,
IPathwayParameters PP,
int DOY,
double latitude,
double maxT,
double minT,
double radn,
double rpar)
{
// Model the solar geometry
var SG = new SolarGeometry
{
Latitude = latitude.ToRadians(),
DayOfYear = DOY
};
// Model the solar radiation
var SR = new SolarRadiation(SG)
{
Daily = radn,
RPAR = rpar
};
// Model the environmental temperature
var TM = new Temperature(SG)
{
MaxTemperature = maxT,
MinTemperature = minT,
AtmosphericPressure = 1.01325
};
// Model the pathways
var SunlitAc1 = new AssimilationPathway(CP, PP);
var SunlitAc2 = new AssimilationPathway(CP, PP);
var SunlitAj = new AssimilationPathway(CP, PP);
var ShadedAc1 = new AssimilationPathway(CP, PP);
var ShadedAc2 = new AssimilationPathway(CP, PP);
var ShadedAj = new AssimilationPathway(CP, PP);
// Model the canopy
IAssimilation A;
if (CP.Type == CanopyType.C3)
{
A = new AssimilationC3(CP, PP);
}
else if (CP.Type == CanopyType.C4)
{
A = new AssimilationC4(CP, PP);
}
else
{
A = new AssimilationCCM(CP, PP);
}
var sunlit = new AssimilationArea(SunlitAc1, SunlitAc2, SunlitAj, A);
var shaded = new AssimilationArea(ShadedAc1, ShadedAc2, ShadedAj, A);
var CA = new CanopyAttributes(CP, PP, sunlit, shaded);
// Model the transpiration
var WI = new WaterInteraction(TM);
var TR = new TemperatureResponse(CP, PP);
var TS = new Transpiration(CP, PP, WI, TR);
// Model the photosynthesis
var DM = new DCAPSTModel(SG, SR, TM, PP, CA, TS)
{
B = 0.409
};
return(DM);
}
public void Add(SolarRadiation ladiation)
{
pvSimulationContext.SolarRadiations.Add(ladiation);
}
public AirCondition(string name, double windSpeedGround, double windDirection, TimeDomain timeDomain, SolarRadiation solarRadiation, double envTem)
{
this.Name = name;
this.WindDirection = windDirection;
this.WindSpeedGround = windSpeedGround;
this.TimeDomain = timeDomain;
this.SolarRadiation = solarRadiation;
this.EnvTem = envTem;
}
public void ExtraterrestrialRadiationHasMaximumOnJanuaryFirst()
{
var result = SolarRadiation.GetExtraterrestrialRadiation(new DateTime(2020, 1, 1));
Assert.AreEqual(1415, result, 1);
}
public void ExtraterrestrialRadiationHasMinimumOnJulyFirst()
{
var result = SolarRadiation.GetExtraterrestrialRadiation(new DateTime(2020, 7, 1));
Assert.AreEqual(1321, result, 1);
}
