public LaunchMatchmakingResultEvent(LaunchMatchmakingResultEvent other)
: this()
{
fightDefId_ = other.fightDefId_;
result_ = other.result_;
_unknownFields = UnknownFieldSet.Clone(other._unknownFields);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
Types.Assembly assembly = new Types.Assembly();
DA.GetData <Types.Assembly>("Material", ref assembly);
GH_Point point = new GH_Point();
GH_Integer piles = new GH_Integer(1);
GH_Number radius = new GH_Number(0);
GH_Number plateThickness = new GH_Number(0);
GH_Number plateLength = new GH_Number(0);
GH_Number plateWidth = new GH_Number(0);
GH_Number pileLength = new GH_Number(0);
DA.GetData <GH_Point>("Point", ref point);
DA.GetData <GH_Number>("Pile Radius", ref radius);
DA.GetData <GH_Integer>("Piles", ref piles);
DA.GetData <GH_Number>("Plate Thickness", ref plateThickness);
DA.GetData <GH_Number>("Plate Length", ref plateLength);
DA.GetData <GH_Number>("Plate Width", ref plateWidth);
DA.GetData <GH_Number>("Pile Length", ref pileLength);
drawExtrusion(point.Value, plateLength.Value, plateWidth.Value, plateThickness.Value);
Rhino.Geometry.Circle circle = new Rhino.Geometry.Circle(point.Value, (plateWidth.Value / 2) * 0.8);
double numberOfPiles = piles.Value;
for (int i = 1; i <= piles.Value; i++)
{
double iteration = i;
double factor = 2.0 * Math.PI * (iteration / numberOfPiles);
Rhino.Geometry.Point3d center = (piles.Value == 1)? point.Value : circle.ToNurbsCurve().PointAt(factor);
drawColumn(center, pileLength.Value, radius.Value);
}
double calculationVolume = (piles.Value * pileLength.Value * radius.Value) + (plateThickness.Value * plateLength.Value * plateWidth.Value);
Types.Result result = new Types.Result()
{
GlobalWarmingPotential = new Types.UnitDouble <Types.LCA.CO2e>(assembly.GlobalWarmingPotential.Value * calculationVolume),
Acidification = new Types.UnitDouble <Types.LCA.kgSO2>(assembly.Acidification.Value * calculationVolume),
DepletionOfNonrenewbles = new Types.UnitDouble <Types.LCA.MJ>(assembly.DepletionOfNonrenewbles.Value * calculationVolume),
DepletionOfOzoneLayer = new Types.UnitDouble <Types.LCA.kgCFC11>(assembly.DepletionOfOzoneLayer.Value * calculationVolume),
Eutrophication = new Types.UnitDouble <Types.LCA.kgPhostphate>(assembly.Eutrophication.Value * calculationVolume),
FormationTroposphericOzone = new Types.UnitDouble <Types.LCA.kgNOx>(assembly.FormationTroposphericOzone.Value * calculationVolume)
};
DA.SetData("LCA Result", result);
}
public void MergeFrom(LaunchMatchmakingResultEvent other)
{
if (other != null)
{
if (other.FightDefId != 0)
{
FightDefId = other.FightDefId;
}
if (other.Result != 0)
{
Result = other.Result;
}
_unknownFields = UnknownFieldSet.MergeFrom(_unknownFields, other._unknownFields);
}
}
protected override void SolveInstance(IGH_DataAccess DA)
{
Types.Assembly assembly = new Types.Assembly();
DA.GetData <Types.Assembly>("Material", ref assembly);
GH_Brep brep = new GH_Brep();
GH_Number volume = new GH_Number(0);
if (!DA.GetData <GH_Number>("Volume", ref volume))
{
volume = new GH_Number(0);
}
if (!DA.GetData <GH_Brep>("Brep", ref brep))
{
brep = new GH_Brep();
}
double calculationVolume = volume.Value;
if (brep.Value != null)
{
calculationVolume += brep.Value.GetVolume();
}
Types.Result result = new Types.Result()
{
GlobalWarmingPotential = new Types.UnitDouble <Types.LCA.CO2e>(assembly.GlobalWarmingPotential.Value * calculationVolume),
Acidification = new Types.UnitDouble <Types.LCA.kgSO2>(assembly.Acidification.Value * calculationVolume),
DepletionOfNonrenewbles = new Types.UnitDouble <Types.LCA.MJ>(assembly.DepletionOfNonrenewbles.Value * calculationVolume),
DepletionOfOzoneLayer = new Types.UnitDouble <Types.LCA.kgCFC11>(assembly.DepletionOfOzoneLayer.Value * calculationVolume),
Eutrophication = new Types.UnitDouble <Types.LCA.kgPhostphate>(assembly.Eutrophication.Value * calculationVolume),
FormationTroposphericOzone = new Types.UnitDouble <Types.LCA.kgNOx>(assembly.FormationTroposphericOzone.Value * calculationVolume)
};
DA.SetData("LCA Result", result);
}
public void MergeFrom(CodedInputStream input)
{
uint num;
while ((num = input.ReadTag()) != 0)
{
switch (num)
{
default:
_unknownFields = UnknownFieldSet.MergeFieldFrom(_unknownFields, input);
break;
case 8u:
FightDefId = input.ReadInt32();
break;
case 16u:
result_ = (Types.Result)input.ReadEnum();
break;
}
}
}
protected override void SolveInstance(IGH_DataAccess DA)
{
Types.Assembly assembly = new Types.Assembly();
DA.GetData <Types.Assembly>("Material", ref assembly);
GH_Number area = new GH_Number(0);
GH_Surface surface = new GH_Surface();
if (!DA.GetData <GH_Number>("Area", ref area))
{
area = new GH_Number(0);
}
if (!DA.GetData <GH_Surface>("Surface", ref surface))
{
surface = new GH_Surface();
}
double calculationArea = area.Value;
if (surface.Value != null)
{
calculationArea += surface.Value.GetArea();
}
Types.Result result = new Types.Result()
{
GlobalWarmingPotential = new Types.UnitDouble <Types.LCA.CO2e>(assembly.GlobalWarmingPotential.Value * calculationArea),
Acidification = new Types.UnitDouble <Types.LCA.kgSO2>(assembly.Acidification.Value * calculationArea),
DepletionOfNonrenewbles = new Types.UnitDouble <Types.LCA.MJ>(assembly.DepletionOfNonrenewbles.Value * calculationArea),
DepletionOfOzoneLayer = new Types.UnitDouble <Types.LCA.kgCFC11>(assembly.DepletionOfOzoneLayer.Value * calculationArea),
Eutrophication = new Types.UnitDouble <Types.LCA.kgPhostphate>(assembly.Eutrophication.Value * calculationArea),
FormationTroposphericOzone = new Types.UnitDouble <Types.LCA.kgNOx>(assembly.FormationTroposphericOzone.Value * calculationArea)
};
DA.SetData("LCA Result", result);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
Types.Assembly assembly = new Types.Assembly();
DA.GetData<Types.Assembly>("Material", ref assembly);
GH_Brep brep = new GH_Brep();
GH_Number volume = new GH_Number(0);
if (!DA.GetData<GH_Number>("Volume", ref volume)) volume = new GH_Number(0);
if (!DA.GetData<GH_Brep>("Brep", ref brep)) brep = new GH_Brep();
double calculationVolume = volume.Value;
if (brep.Value != null) calculationVolume += brep.Value.GetVolume();
Types.Result result = new Types.Result()
{
GlobalWarmingPotential = new Types.UnitDouble<Types.LCA.CO2e>(assembly.GlobalWarmingPotential.Value * calculationVolume),
Acidification = new Types.UnitDouble<Types.LCA.kgSO2>(assembly.Acidification.Value * calculationVolume),
DepletionOfNonrenewbles = new Types.UnitDouble<Types.LCA.MJ>(assembly.DepletionOfNonrenewbles.Value * calculationVolume),
DepletionOfOzoneLayer = new Types.UnitDouble<Types.LCA.kgCFC11>(assembly.DepletionOfOzoneLayer.Value * calculationVolume),
Eutrophication = new Types.UnitDouble<Types.LCA.kgPhostphate>(assembly.Eutrophication.Value * calculationVolume),
FormationTroposphericOzone = new Types.UnitDouble<Types.LCA.kgNOx>(assembly.FormationTroposphericOzone.Value * calculationVolume)
};
DA.SetData("LCA Result", result);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
Types.Assembly assembly = new Types.Assembly();
DA.GetData<Types.Assembly>("Material", ref assembly);
GH_Number area = new GH_Number(0);
GH_Surface surface = new GH_Surface();
if (!DA.GetData<GH_Number>("Area", ref area)) area = new GH_Number(0);
if (!DA.GetData<GH_Surface>("Surface", ref surface)) surface = new GH_Surface();
double calculationArea = area.Value;
if (surface.Value != null) calculationArea += surface.Value.GetArea();
Types.Result result = new Types.Result()
{
GlobalWarmingPotential = new Types.UnitDouble<Types.LCA.CO2e>(assembly.GlobalWarmingPotential.Value * calculationArea),
Acidification = new Types.UnitDouble<Types.LCA.kgSO2>(assembly.Acidification.Value * calculationArea),
DepletionOfNonrenewbles = new Types.UnitDouble<Types.LCA.MJ>(assembly.DepletionOfNonrenewbles.Value * calculationArea),
DepletionOfOzoneLayer = new Types.UnitDouble<Types.LCA.kgCFC11>(assembly.DepletionOfOzoneLayer.Value * calculationArea),
Eutrophication = new Types.UnitDouble<Types.LCA.kgPhostphate>(assembly.Eutrophication.Value * calculationArea),
FormationTroposphericOzone = new Types.UnitDouble<Types.LCA.kgNOx>(assembly.FormationTroposphericOzone.Value * calculationArea)
};
DA.SetData("LCA Result", result);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
Types.Assembly assembly = new Types.Assembly();
DA.GetData<Types.Assembly>("Material", ref assembly);
GH_Curve curve = new GH_Curve();
GH_Number radius = new GH_Number(0);
GH_Number height = new GH_Number(0);
GH_Number width = new GH_Number(0);
Types.Profile profile = null;
if (!DA.GetData<GH_Number>("Radius", ref radius)) radius.Value = 0;
if (!DA.GetData<GH_Number>("Height", ref height)) height.Value = 0;
if (!DA.GetData<GH_Number>("Width", ref width)) width.Value = 0;
if (!DA.GetData<Types.Profile>("Profile", ref profile)) profile = null;
DA.GetData<GH_Curve>("Curve", ref curve);
double calculationVolume = 0;
if (profile != null)
{
calculationVolume = curve.Value.GetLength() * profile.Area;
drawColumn(curve.Value.PointAtStart, curve.Value.PointAtEnd, profile.Area);
}
else
{
if (radius.Value > 0)
{
drawColumn(curve.Value.PointAtStart, curve.Value.PointAtEnd, radius.Value);
calculationVolume = curve.Value.GetLength() * radius.Value * radius.Value * Math.PI;
}
else
{
drawColumn(curve.Value.PointAtStart, curve.Value.PointAtEnd, height.Value, width.Value);
calculationVolume = curve.Value.GetLength() * height.Value * width.Value;
}
}
Types.Result result = new Types.Result()
{
GlobalWarmingPotential = new Types.UnitDouble<Types.LCA.CO2e>(assembly.GlobalWarmingPotential.Value * calculationVolume),
Acidification = new Types.UnitDouble<Types.LCA.kgSO2>(assembly.Acidification.Value * calculationVolume),
DepletionOfNonrenewbles = new Types.UnitDouble<Types.LCA.MJ>(assembly.DepletionOfNonrenewbles.Value * calculationVolume),
DepletionOfOzoneLayer = new Types.UnitDouble<Types.LCA.kgCFC11>(assembly.DepletionOfOzoneLayer.Value * calculationVolume),
Eutrophication = new Types.UnitDouble<Types.LCA.kgPhostphate>(assembly.Eutrophication.Value * calculationVolume),
FormationTroposphericOzone = new Types.UnitDouble<Types.LCA.kgNOx>(assembly.FormationTroposphericOzone.Value * calculationVolume)
};
DA.SetData("LCA Result", result);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
Types.Assembly assembly = new Types.Assembly();
DA.GetData<Types.Assembly>("Material", ref assembly);
GH_Point point = new GH_Point();
GH_Integer piles = new GH_Integer(1);
GH_Number radius = new GH_Number(0);
GH_Number plateThickness = new GH_Number(0);
GH_Number plateLength = new GH_Number(0);
GH_Number plateWidth = new GH_Number(0);
GH_Number pileLength = new GH_Number(0);
DA.GetData<GH_Point>("Point", ref point);
DA.GetData<GH_Number>("Pile Radius", ref radius);
DA.GetData<GH_Integer>("Piles", ref piles);
DA.GetData<GH_Number>("Plate Thickness", ref plateThickness);
DA.GetData<GH_Number>("Plate Length", ref plateLength);
DA.GetData<GH_Number>("Plate Width", ref plateWidth);
DA.GetData<GH_Number>("Pile Length", ref pileLength);
drawExtrusion(point.Value, plateLength.Value, plateWidth.Value, plateThickness.Value);
Rhino.Geometry.Circle circle = new Rhino.Geometry.Circle(point.Value, (plateWidth.Value / 2) * 0.8);
double numberOfPiles = piles.Value;
for (int i = 1; i <= piles.Value; i++)
{
double iteration = i;
double factor = 2.0 * Math.PI * (iteration / numberOfPiles);
Rhino.Geometry.Point3d center = (piles.Value == 1)? point.Value : circle.ToNurbsCurve().PointAt(factor);
drawColumn(center, pileLength.Value, radius.Value);
}
double calculationVolume = (piles.Value * pileLength.Value * radius.Value) + (plateThickness.Value * plateLength.Value * plateWidth.Value);
Types.Result result = new Types.Result()
{
GlobalWarmingPotential = new Types.UnitDouble<Types.LCA.CO2e>(assembly.GlobalWarmingPotential.Value * calculationVolume),
Acidification = new Types.UnitDouble<Types.LCA.kgSO2>(assembly.Acidification.Value * calculationVolume),
DepletionOfNonrenewbles = new Types.UnitDouble<Types.LCA.MJ>(assembly.DepletionOfNonrenewbles.Value * calculationVolume),
DepletionOfOzoneLayer = new Types.UnitDouble<Types.LCA.kgCFC11>(assembly.DepletionOfOzoneLayer.Value * calculationVolume),
Eutrophication = new Types.UnitDouble<Types.LCA.kgPhostphate>(assembly.Eutrophication.Value * calculationVolume),
FormationTroposphericOzone = new Types.UnitDouble<Types.LCA.kgNOx>(assembly.FormationTroposphericOzone.Value * calculationVolume)
};
DA.SetData("LCA Result", result);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
Types.Assembly assembly = new Types.Assembly();
DA.GetData <Types.Assembly>("Material", ref assembly);
GH_Curve curve = new GH_Curve();
GH_Number radius = new GH_Number(0);
GH_Number height = new GH_Number(0);
GH_Number width = new GH_Number(0);
Types.Profile profile = null;
if (!DA.GetData <GH_Number>("Radius", ref radius))
{
radius.Value = 0;
}
if (!DA.GetData <GH_Number>("Height", ref height))
{
height.Value = 0;
}
if (!DA.GetData <GH_Number>("Width", ref width))
{
width.Value = 0;
}
if (!DA.GetData <Types.Profile>("Profile", ref profile))
{
profile = null;
}
DA.GetData <GH_Curve>("Curve", ref curve);
double calculationVolume = 0;
if (profile != null)
{
calculationVolume = curve.Value.GetLength() * profile.Area;
drawColumn(curve.Value.PointAtStart, curve.Value.PointAtEnd, profile.Area);
}
else
{
if (radius.Value > 0)
{
drawColumn(curve.Value.PointAtStart, curve.Value.PointAtEnd, radius.Value);
calculationVolume = curve.Value.GetLength() * radius.Value * radius.Value * Math.PI;
}
else
{
drawColumn(curve.Value.PointAtStart, curve.Value.PointAtEnd, height.Value, width.Value);
calculationVolume = curve.Value.GetLength() * height.Value * width.Value;
}
}
Types.Result result = new Types.Result()
{
GlobalWarmingPotential = new Types.UnitDouble <Types.LCA.CO2e>(assembly.GlobalWarmingPotential.Value * calculationVolume),
Acidification = new Types.UnitDouble <Types.LCA.kgSO2>(assembly.Acidification.Value * calculationVolume),
DepletionOfNonrenewbles = new Types.UnitDouble <Types.LCA.MJ>(assembly.DepletionOfNonrenewbles.Value * calculationVolume),
DepletionOfOzoneLayer = new Types.UnitDouble <Types.LCA.kgCFC11>(assembly.DepletionOfOzoneLayer.Value * calculationVolume),
Eutrophication = new Types.UnitDouble <Types.LCA.kgPhostphate>(assembly.Eutrophication.Value * calculationVolume),
FormationTroposphericOzone = new Types.UnitDouble <Types.LCA.kgNOx>(assembly.FormationTroposphericOzone.Value * calculationVolume)
};
DA.SetData("LCA Result", result);
}