/// <summary>
/// get cut cells describing the boundary of this particle
/// </summary>
/// <param name="LsTrk"></param>
/// <returns></returns>
public CellMask cutCells_P(LevelSetTracker LsTrk)
{
// tolerance is very important
var radiusTolerance = radius_P + LsTrk.GridDat.Cells.h_minGlobal;// +2.0*Math.Sqrt(2*LsTrk.GridDat.Cells.h_minGlobal.Pow2());
CellMask cellCollection;
CellMask cells = null;
double alpha = -(currentAng_P[0]);
switch (m_shape)
{
case ParticleShape.spherical:
cells = CellMask.GetCellMask(LsTrk.GridDat, X => (-(X[0] - currentPos_P[0][0]).Pow2() + -(X[1] - currentPos_P[0][1]).Pow2() + radiusTolerance.Pow2()) > 0);
break;
case ParticleShape.elliptic:
double a = 3.0;
double b = 1.0;
cells = CellMask.GetCellMask(LsTrk.GridDat, X => - ((((X[0] - currentPos_P[0][0]) * Math.Cos(alpha) - (X[1] - currentPos_P[0][1]) * Math.Sin(alpha)).Pow2()) / length_P.Pow2()) + -(((X[0] - currentPos_P[0][0]) * Math.Sin(alpha) + (X[1] - currentPos_P[0][1]) * Math.Cos(alpha)).Pow2() / thickness_P.Pow2()) + radiusTolerance.Pow2() > 0);
break;
case ParticleShape.hippopede:
a = 4.0 * radiusTolerance.Pow2();
b = 1.0 * radiusTolerance.Pow2();
cells = CellMask.GetCellMask(LsTrk.GridDat, X => - ((((X[0] - currentPos_P[0][0]) * Math.Cos(alpha) - (X[1] - currentPos_P[0][1]) * Math.Sin(alpha)).Pow(2) + ((X[0] - currentPos_P[0][0]) * Math.Sin(alpha) + (X[1] - currentPos_P[0][1]) * Math.Cos(alpha)).Pow(2)).Pow2() - a * ((X[0] - currentPos_P[0][0]) * Math.Cos(alpha) - (X[1] - currentPos_P[0][1]) * Math.Sin(alpha)).Pow2() - b * ((X[0] - currentPos_P[0][0]) * Math.Sin(alpha) + (X[1] - currentPos_P[0][1]) * Math.Cos(alpha)).Pow2()) > 0);
break;
case ParticleShape.bean:
a = 4.0 * radiusTolerance.Pow2();
b = 1.0 * radiusTolerance.Pow2();
cells = CellMask.GetCellMask(LsTrk.GridDat, X => - ((((X[0] - currentPos_P[0][0]) * Math.Cos(alpha) - (X[1] - currentPos_P[0][1]) * Math.Sin(alpha)).Pow(2) + ((X[0] - currentPos_P[0][0]) * Math.Sin(alpha) + (X[1] - currentPos_P[0][1]) * Math.Cos(alpha)).Pow(2)).Pow2() - a * ((X[0] - currentPos_P[0][0]) * Math.Cos(alpha) - (X[1] - currentPos_P[0][1]) * Math.Sin(alpha)).Pow(3) - b * ((X[0] - currentPos_P[0][0]) * Math.Sin(alpha) + (X[1] - currentPos_P[0][1]) * Math.Cos(alpha)).Pow2()) > 0);
break;
case ParticleShape.squircle:
cells = CellMask.GetCellMask(LsTrk.GridDat, X => - ((((X[0] - currentPos_P[0][0]) * Math.Cos(alpha) - (X[1] - currentPos_P[0][1]) * Math.Sin(alpha)).Pow(4) + ((X[0] - currentPos_P[0][0]) * Math.Sin(alpha) + (X[1] - currentPos_P[0][1]) * Math.Cos(alpha)).Pow(4)) - radiusTolerance.Pow(4)) > 0);
break;
default:
throw new NotImplementedException("Shape is not implemented yet");
}
CellMask allCutCells = LsTrk.Regions.GetCutCellMask();
cellCollection = cells.Intersect(allCutCells);
return(cellCollection);
}
protected override double RunSolverOneStep(int TimestepNo, double phystime, double dt)
{
origin.ProjectField((x, y) => (Math.Sin(x) + Math.Cos(x) + x - (Math.Cos(y) + 1))); // 2D
//origin.ProjectField((x, y, z) => (Math.Sin(x) + Math.Cos(x) + x - (y + 1) + Math.Sin(z))); // 3D
//origin.ProjectField((x, y, z) => Math.Sqrt(x.Pow2() + y.Pow2() + z.Pow2()) - 1);
//origin.ProjectField((x, y) => x * x + y * y * y - x * y);
//origin.ProjectField((x,y) => x + y);
//origin.ProjectField((x, y) => Math.Sin(2 * Math.PI * (x / 3.0)));
CellMask msk2D = CellMask.GetCellMask((BoSSS.Foundation.Grid.Classic.GridData)(this.GridData), X => (X[0] > 0.0 && X[0] < 4.0 && X[1] > 0.0 && X[1] < 1.0));
//|| (X[0] > 1.0 && X[0] < 3.0 && X[1] > 1.0 && X[1] < 2.0)
//|| (X[0] > 2.0 && X[0] < 4.0 && X[1] > 2.0 && X[1] < 3.0)
//|| (X[0] > 3.0 && X[0] < 4.0 && X[1] > 3.0 && X[1] < 4.0));
//CellMask msk3D = CellMask.GetCellMask(this.GridData, X => (X[0] > 0.0 && X[0] < 3.0 && X[1] > 0.0 && X[1] < 3.0 && X[2] > 0.0 && X[2] < 1.5)
//|| (X[0] > 0.0 && X[0] < 1.5 && X[1] > 0.0 && X[1] < 3.0 && X[2] > 0.0 && X[2] < 3.0)
//|| (X[0] > 0.0 && X[0] < 3.0 && X[1] > 0.0 && X[1] < 1.5 && X[2] > 0.0 && X[2] < 3.0));
CellMask test = null;
cdgField.ProjectDGField(1.0, origin, test);
cdgField.AccToDGField(1.0, result);
//specField.ProjectDGField(1.0, origin, test);
//specField.AccToDGField(1.0, specFieldDG);
//MultidimensionalArray n4 = MultidimensionalArray.Create(3, 2);
//n4[0, 0] = 0.3;
//n4[0, 1] = -1;
//n4[1, 0] = 0.6;
//n4[1, 1] = -1;
//n4[2, 0] = 0.9;
//n4[2, 1] = -1;
//MultidimensionalArray n11 = MultidimensionalArray.Create(3, 2);
//n11[0, 0] = -0.4;
//n11[0, 1] = 1;
//n11[1, 0] = 0.2;
//n11[1, 1] = 1;
//n11[2, 0] = 0.8;
//n11[2, 1] = 1;
//NodeSet ns4 = new NodeSet(Grid.GetRefElement(0), n4);
//NodeSet ns11 = new NodeSet(Grid.GetRefElement(0), n11);
//MultidimensionalArray res4 = MultidimensionalArray.Create(1, 3);
//MultidimensionalArray res11 = MultidimensionalArray.Create(1, 3);
//result.Evaluate(4,1,ns4, res4);
//result.Evaluate(11, 1, ns11, res11);
PlotCurrentState(0.0, 0, 4);
//var err = origin.CloneAs();
//err.Acc(-1.0, result);
double L2err = 0.0; //err.L2Norm();
double L2jump = JumpNorm(result, test);
Console.WriteLine("");
//double L2jump_specFEM = JumpNorm(specFieldDG, test);
//Console.WriteLine("L2 error = " + L2err);
Console.WriteLine("L2 Norm of [[u]] = " + L2jump);
//Console.WriteLine("L2 Norm of [[u]] = " + L2jump_specFEM);
if (L2err < 1.0e-10 && L2jump < 1.0e-12)
{
Console.WriteLine("Test PASSED");
passed = true;
}
else
{
Console.WriteLine("Test FAILED");
passed = false;
}
base.TerminationKey = true;
return(0.0);
}