private static H3.Cell[] GenTruss(Sphere[] simplex, Mesh mesh, Vector3D cen, bool ball)
{
// We don't want to include the first mirror (which reflects across cells).
Sphere[] mirrors = simplex.Skip(1).ToArray();
Sphere[] allMirrors = simplex.ToArray();
// Simplices will be the "cells" in Recurse.CalcCells.
H3.Cell.Facet[] simplexFacets = simplex.Select(m => new H3.Cell.Facet(m)).ToArray();
H3.Cell startingCell = new H3.Cell(simplexFacets);
startingCell.Center = cen;
//FCOrient( startingCell );
//return null;
startingCell = startingCell.Clone(); // So our mirrors don't get munged after we reflect around later.
H3.Cell[] simplices = Recurse.CalcCells(mirrors, new H3.Cell[] { startingCell }, new Recurse.Settings()
{
Ball = ball
});
//H3.Cell[] simplices = new H3.Cell[] { startingCell };
// Subsets
//return simplices.Where( s => s.Depths[0] == 1 ).ToArray();
//return simplices.ToArray();
List <H3.Cell> final = new List <H3.Cell>();
final.AddRange(simplices);
// Add in other truss cells.
Recurse.Settings settings = new Recurse.Settings();
foreach (int[] reflections in TrussReflections())
{
foreach (H3.Cell c in simplices)
{
H3.Cell clone = c.Clone();
foreach (int r in reflections)
{
clone.Reflect(allMirrors[r]);
}
if (Recurse.CellOk(clone, settings))
{
final.Add(clone);
}
}
}
return(final.ToArray());
}
private static H3.Cell[] GenCell(Sphere[] simplex, Mesh mesh, Vector3D cen, Vector3D[] auxPoints, bool ball)
{
//Sphere[] mirrors = simplex.Skip(1).ToArray();
Sphere[] mirrors = simplex.ToArray();
H3.Cell.Facet[] simplexFacets = simplex.Select(m => new H3.Cell.Facet(m)).ToArray();
H3.Cell startingCell = new H3.Cell(simplexFacets);
startingCell.Center = cen;
startingCell.Mesh = mesh;
startingCell.AuxPoints = auxPoints;
startingCell = startingCell.Clone(); // So our mirrors don't get munged after we reflect around later.
H3.Cell[] simplices = Recurse.CalcCells(mirrors, new H3.Cell[] { startingCell }, new Recurse.Settings()
{
Ball = ball, Threshold = m_thresh
});
//return simplices.Where( s => s.Depths[0] <= layer /*&& s.Depths[0] == 3 && s.Depths[1] == 3*/ ).ToArray();
return(simplices.ToArray());
}
public static H3.Cell.Edge[] OneHoneycombOrthoscheme(HoneycombDef def, int[] active, int baseHue, Settings settings = null)
{
// Setup parameters.
int numEdges = 250000;
if (settings != null)
{
active = settings.PovRay.Active;
def = new HoneycombDef(settings.P, settings.Q, settings.R);
numEdges = settings.PovRay.NumEdges;
}
CalcThickness(active);
if (settings != null)
{
H3.m_settings.AngularThickness = settings.PovRay.EdgeWidth; // ZZZ - should really stop using that settings class.
}
string baseName = BaseName(def);
string mirrorsString = ActiveMirrorsString(active);
string suffix = "-" + mirrorsString;
string fileName = baseName + suffix;
if (ViewPath != null)
{
fileName += string.Format("_{0:D4}", ViewPath.Step);
}
if (File.Exists(fileName + ".pov"))
{
File.Delete(fileName + ".pov");
//Console.WriteLine( string.Format( "Skipping {0}", fileName ) );
//return;
}
Program.Log(string.Format("Building {0}", fileName));
// The wiki mirrors are labeled in the reverse of ours.
Func <int, int> mapMirror = i => 3 - i;
active = active.Select(i => mapMirror(i)).OrderBy(i => i).ToArray();
Simplex simplex = new Simplex();
simplex.Facets = SimplexCalcs.Mirrors(def.P, def.Q, def.R);
simplex.Verts = SimplexCalcs.VertsBall(def.P, def.Q, def.R);
Vector3D startingPoint = IterateToStartingPoint(def, active, simplex);
if (startingPoint.DNE)
{
return(null);
}
List <H3.Cell.Edge> startingEdges = new List <H3.Cell.Edge>();
foreach (int a in active)
{
Vector3D reflected = simplex.ReflectInFacet(startingPoint, a);
startingEdges.Add(new H3.Cell.Edge(startingPoint, reflected));
//startingEdges.Add( new H3.Cell.Edge( simplex.Verts[0], simplex.Verts[3] ) ); // Used for Borromean Rings complement image.
}
if (false)
{
Vector3D[] kv = simplex.Verts.Select(v => HyperbolicModels.PoincareToKlein(v)).ToArray();
kv[3] = SimplexCalcs.VertexPointKlein(def.P, def.Q, def.R);
Vector3D t = (kv[3] - kv[0]) * 0.5;
Sphere gSphere = H3Models.Ball.OrthogonalSphereInterior(HyperbolicModels.KleinToPoincare(t));
gSphere = H3Models.BallToKlein(gSphere);
Vector3D t2 = Euclidean3D.IntersectionPlaneLine(gSphere.Normal, gSphere.Offset, kv[3] - kv[2], kv[2]);
//t2 = kv[2] + ( kv[3] - kv[2]) * 0.5;
t = HyperbolicModels.KleinToPoincare(t);
t2 = HyperbolicModels.KleinToPoincare(t2);
startingEdges.Add(new H3.Cell.Edge(t, t2));
startingEdges.Add(new H3.Cell.Edge(t, simplex.ReflectInFacet(t, 3)));
}
// If we are doing a view path, transform our geometry.
if (ViewPath != null)
{
//Vector3D p = new Vector3D( 0, 0, .5 );
Vector3D p = new Vector3D(0.08, 0.12, 0.07);
simplex.Facets = simplex.Facets.Select(f => H3Models.Transform_PointToOrigin(f, p)).ToArray();
simplex.Verts = simplex.Verts.Select(v => H3Models.Transform_PointToOrigin(v, p)).ToArray();
startingEdges = startingEdges.Select(e => new H3.Cell.Edge(
H3Models.Transform_PointToOrigin(e.Start, p),
H3Models.Transform_PointToOrigin(e.End, p))).ToList();
}
SetupBaseHue(fileName, mirrorsString, baseHue);
Recurse.m_background = baseHue == -1 ? new Vector3D() : new Vector3D(baseHue, 1, .1);
H3.Cell.Edge[] edges = Recurse.CalcEdgesSmart2(simplex.Facets, startingEdges.ToArray(), numEdges);
//H3.Cell.Edge[] edges = Recurse.CalcEdges( simplex.Facets, startingEdges.ToArray(),
// new Recurse.Settings() { ThreshType = Recurse.EdgeThreshType.Radial, Threshold = H3Models.Ball.FindLocationForDesiredRadius( settings.PovRay.EdgeWidth, 0.8/100 ) } );
//edges = edges.Where( e => e.Depths[0] % 2 == 1 ).ToArray(); // Used for Borromean Rings complement image.
// Shapeways truncated 436.
if (false)
{
if (true)
{
Mobius m = Mobius.Scale(1.0 / H3Models.UHS.ToE(Honeycomb.InRadius(def.P, def.Q, def.R)));
double a = -Math.PI / 2 + Math.Asin(1 / Math.Sqrt(3));
edges = edges.Select(e =>
{
Vector3D v1 = e.Start;
Vector3D v2 = e.End;
v1.RotateAboutAxis(new Vector3D(1, 0, 0), a);
v2.RotateAboutAxis(new Vector3D(1, 0, 0), a);
v1 = H3Models.Ball.ApplyMobius(m, v1);
v2 = H3Models.Ball.ApplyMobius(m, v2);
return(new H3.Cell.Edge(v1, v2));
}).ToArray();
double thresh = -.01;
Vector3D looking = new Vector3D(0, 0, -1);
edges = edges.Where(e => e.Start.Dot(looking) > thresh && e.End.Dot(looking) > thresh).ToArray();
Dictionary <H3.Cell.Edge, int> edgeDict = edges.ToDictionary(e => e, e => 1);
H3.RemoveDanglingEdgesRecursive(edgeDict);
edges = edgeDict.Keys.ToArray();
}
else
{
Mobius m = Mobius.Scale(2);
edges = edges.Select(e =>
{
Vector3D v1 = e.Start;
Vector3D v2 = e.End;
v1 = H3Models.Ball.ApplyMobius(m, v1);
v2 = H3Models.Ball.ApplyMobius(m, v2);
return(new H3.Cell.Edge(v1, v2));
}).ToArray();
Dictionary <H3.Cell.Edge, int> edgeDict = edges.ToDictionary(e => e, e => 1);
H3.RemoveDanglingEdgesRecursive(edgeDict);
edges = edgeDict.Keys.ToArray();
}
}
//H3.m_settings.Output = H3.Output.STL;
//H3.m_settings.Scale = 50;
H3.SaveToFile(fileName, edges, finite: true, append: true);
bool doCells = false;
H3.Cell[] cellsToHighlight = null;
if (doCells)
{
int[] polyMirrors = new int[] { 1, 2, 3 };
active = active.Select(i => mapMirror(i)).OrderBy(i => i).ToArray();
H3.Cell startingCell = PolyhedronToHighlight(Geometry.Hyperbolic, polyMirrors, simplex, startingPoint);
cellsToHighlight = Recurse.CalcCells(simplex.Facets, new H3.Cell[] { startingCell });
H3.AppendFacets(fileName, cellsToHighlight);
}
return(edges);
}
public static void OneHoneycombGoursat(int[] active, string baseName, int baseHue, Settings settings = null)
{
// Setup parameters.
int numEdges = 250000;
if (settings != null)
{
active = settings.PovRay.Active;
numEdges = settings.PovRay.NumEdges;
baseName = string.Join("-", settings.Angles);
}
CalcThickness(active);
if (settings != null)
{
H3.m_settings.AngularThickness = settings.PovRay.EdgeWidth; // ZZZ - should really stop using that settings class.
}
// Create the simplex.
Simplex simplex = new Simplex();
if (settings != null)
{
simplex.InitializeGoursat(settings.Angles);
}
else
{
simplex.InitializeGoursat();
}
// Map of labels for mirrors consistent with input scheme to Goursat function.
// Map is from wikipedia labeling scheme to the indices our function generates.
//
// wiki == our index
// 0100 == 0
// 0001 == 1
// 1000 == 2
// 0010 == 3
Func <int, int> mapMirror = i =>
{
switch (i)
{
case 0: return(2);
case 1: return(0);
case 2: return(3);
case 3: return(1);
}
throw new System.ArgumentException();
};
// We need to set this up before converting the mirrors.
string mirrorsString = ActiveMirrorsString(active);
string suffix = "_" + mirrorsString;
// Convert our active mirrors into the Goursat tet indices.
int[] polyMirrors = new int[] { 1, 2, 3 };
active = active.Select(i => mapMirror(i)).OrderBy(i => i).ToArray();
polyMirrors = polyMirrors.Select(i => mapMirror(i)).OrderBy(i => i).ToArray();
Vector3D startingPoint = IterateToStartingPoint(null, active, simplex);
List <H3.Cell.Edge> startingEdges = new List <H3.Cell.Edge>();
foreach (int a in active)
{
Vector3D reflected = simplex.ReflectInFacet(startingPoint, a);
startingEdges.Add(new H3.Cell.Edge(startingPoint, reflected));
}
bool doEdges = true;
bool doCells = false;
// Generate the honeycomb.
H3.Cell.Edge[] edges = null;
if (doEdges)
{
edges = Recurse.CalcEdgesSmart(simplex.Facets, startingEdges.ToArray(), numEdges);
}
// Highlighted cells.
H3.Cell[] cellsToHighlight = null;
if (doCells)
{
H3.Cell startingCell = PolyhedronToHighlight(Geometry.Hyperbolic, polyMirrors, simplex, startingPoint);
cellsToHighlight = Recurse.CalcCells(simplex.Facets, new H3.Cell[] { startingCell });
//cellsToHighlight = new H3.Cell[] { startingCell };
}
// plugin Wendy's nonuniform calcs here...
//Nonuniform.Wendy( simplex, edges );
// Trim out half the edges (the ones we won't see in our Pov-Ray view).
/*Vector3D lookFrom = new Vector3D( 1, 1, 1 ) * 0.7;
* Vector3D lookAt = new Vector3D(); // pov-ray lookat
* double thresh = -.01;
* if( doEdges )
* edges = edges.Where( e => e.Start.Dot( lookAt ) > thresh || e.End.Dot( lookAt ) > thresh ).ToArray();
* //if( doCells )
* // cellsToHighlight = cellsToHighlight.Where( c => c.Center.Dot( lookAt ) > thresh ).ToArray(); // I don't think this works right
*/
string fileName = baseName + suffix;
if (File.Exists(fileName + ".pov"))
{
File.Delete(fileName + ".pov");
//Console.WriteLine( string.Format( "Skipping {0}", fileName ) );
//return;
}
SetupBaseHueGoursat(fileName, mirrorsString, baseHue);
if (doEdges)
{
H3.SaveToFile(fileName, edges, finite: true, append: true);
}
if (doCells)
{
HashSet <H3.Cell.Edge> cellEdges = new HashSet <H3.Cell.Edge>(new H3.Cell.EdgeEqualityComparer());
foreach (H3.Cell cell in cellsToHighlight)
{
cell.AppendAllEdges(cellEdges);
}
edges = cellEdges.ToArray();
H3.SaveToFile(fileName, edges, finite: true, append: true);
H3.AppendFacets(fileName, cellsToHighlight);
}
}
/// <summary>
/// This generates a honeycomb by reflecting in 4 mirrors of the fundamental simplex.
/// This "new" method is now old.
/// </summary>
public static void OneHoneycombNew(HoneycombDef imageData)
{
int p = imageData.P;
int q = imageData.Q;
int r = imageData.R;
double thickness = 0.05;
double thicknessSpherical = Spherical2D.s2eNorm(thickness);
double thicknessHyperbolic = R3.Math.DonHatch.h2eNorm(thickness);
double threshold = 1;
H3.Cell.Edge[] edges = null;
H3.Cell[] cellsToHighlight = null;
Sphere[] simplex = null;
Vector3D vertex = new Vector3D();
Geometry g = Util.GetGeometry(p, q, r);
if (g == Geometry.Spherical)
{
thickness = thicknessSpherical /*.07 for 333*/ /* 0.05for 433*/ /*.025 for 533,335*/;
threshold = 10000;
simplex = SimplexCalcs.MirrorsSpherical(p, q, r);
vertex = SimplexCalcs.VertexSpherical(p, q, r);
// Ugly special casing for 333, since it has a vertex project to infinity.
if (p == 3 && q == 3 && r == 3)
{
SpecialCase333();
}
}
else if (g == Geometry.Euclidean)
{
thickness = thickness / 2;
threshold = 1 /*20*/;
//SimplexCalcs.CalcEScale();
simplex = SimplexCalcs.MirrorsEuclidean();
Vector3D[] verts = SimplexCalcs.VertsEuclidean();
vertex = verts[2];
}
else
{
thickness = thicknessHyperbolic;
threshold = 0.01;
simplex = SimplexCalcs.Mirrors(p, q, r);
Vector3D[] verts = SimplexCalcs.VertsBall(p, q, r);
vertex = verts[2];
//Vector3D[] simplexVerts = SimplexCalcs.VertsBall( p, q, r );
//H3.Cell.Edge edge = new H3.Cell.Edge( simplexVerts[2], simplexVerts[3] );
//H3.Cell.Edge edge = SimplexCalcs.HoneycombEdgeBall( p, q, r );
//H3.Cell.Edge[] startingEdges = new H3.Cell.Edge[] { edge };
//H3.Cell.Edge[] edges = Recurse.CalcEdgesSmart2( simplex, startingEdges );
// Vertex Centered.
bool vertexCentered = false;
if (vertexCentered)
{
Vector3D v = SimplexCalcs.VertexPointBall(p, q, r);
v = H3Models.BallToUHS(v);
double scale = 1.0 / v.Abs();
edges = edges.Select(e =>
{
Vector3D start = H3Models.UHSToBall(H3Models.BallToUHS(e.Start) * scale);
Vector3D end = H3Models.UHSToBall(H3Models.BallToUHS(e.End) * scale);
return(new H3.Cell.Edge(start, end));
}).ToArray();
}
// Code to show endpoints of 535
/*using( StreamWriter sw = File.CreateText( "535_points.pov" ) )
* {
* HashSet<Vector3D> verts = new HashSet<Vector3D>();
* foreach( H3.Cell.Edge e in edges )
* {
* verts.Add( Sterographic.SphereToPlane( e.Start ) );
* verts.Add( Sterographic.SphereToPlane( e.End ) );
* }
*
* foreach( Vector3D vert in verts )
* if( !Infinity.IsInfinite( vert ) )
* sw.WriteLine( PovRay.Sphere( new Sphere() { Center = vert, Radius = 0.01 } ) );
* }*/
}
// Recurse
bool dual = false;
{
H3.Cell.Edge[] startingEdges = null;
if (dual)
{
startingEdges = new H3.Cell.Edge[] { SimplexCalcs.DualEdgeBall(simplex) }
}
;
else
{
//startingEdges = new H3.Cell.Edge[] { SimplexCalcs.HoneycombEdgeBall( simplex, vertex ) };
Vector3D[] verts = SimplexCalcs.VertsEuclidean();
Vector3D v1 = verts[0] + 2 * verts[2]; // adjacent cube center
Vector3D corner = verts[3];
startingEdges = new H3.Cell.Edge[] { new H3.Cell.Edge(v1, corner) };
}
edges = Recurse.CalcEdges(simplex, startingEdges, new Recurse.Settings()
{
G = g, Threshold = threshold
});
edges = edges.Where(e =>
{
int sum = e.Depths.Count(d => d == 0);
return(true);
}).ToArray();
//CullHalfOfEdges( ref edges );
// No need to cull edges in spherical case.
// This was just to generate some images for 350-cell paper.
//edges = Cull120Cell( edges );
Simplex tet = new Simplex();
tet.Facets = simplex;
if (dual)
{
H3.Cell.Edge[] oneDualCell = edges.Where(e => e.Depths[2] == 0).ToArray();
simplex = simplex.Skip(1).ToArray();
edges = Recurse.CalcEdges(simplex, oneDualCell, new Recurse.Settings()
{
G = g, Threshold = threshold
});
int[] polyMirrors = new int[] { 0, 1, 3 };
H3.Cell startingCell = HoneycombGen.PolyhedronToHighlight(g, polyMirrors, tet, new Vector3D());
cellsToHighlight = Recurse.CalcCells(simplex, new H3.Cell[] { startingCell });
//cellsToHighlight = new H3.Cell[] { startingCell };
//cellsToHighlight = cellsToHighlight.Skip( 7 ).ToArray();
}
else
{
int[] polyMirrors = new int[] { 1, 2, 3 };
H3.Cell startingCell = HoneycombGen.PolyhedronToHighlight(g, polyMirrors, tet, vertex);
//cellsToHighlight = Recurse.CalcCells( simplex, new H3.Cell[] { startingCell } );
cellsToHighlight = new H3.Cell[] { startingCell };
}
// Include just one cell?
bool includeOne = false;
if (includeOne)
{
edges = edges.Where(e => e.Depths[0] == 0).ToArray();
//cellsToHighlight = cellsToHighlight.Where( c => c.Depths[0] == 0 ).ToArray();
}
}
// Rotate
bool rotate = false;
if (rotate)
{
CompoundOfFive24Cells(ref edges);
}
// Write the file
bool pov = true;
if (pov)
{
string filename = string.Format("{0}{1}{2}.pov", p, q, r);
PovRay.WriteEdges(new PovRay.Parameters()
{
AngularThickness = thickness
}, g, edges,
filename, append: false);
//File.Delete( filename );
//PovRay.AppendFacets( cellsToHighlight, filename );
HashSet <Vector3D> verts = new HashSet <Vector3D>();
foreach (H3.Cell.Edge e in edges)
{
verts.Add(e.Start);
verts.Add(e.End);
}
/*foreach( Vector3D v in verts )
* {
* Vector3D t = v;
* t.Normalize();
* t *= 0.9;
* System.Diagnostics.Trace.WriteLine( string.Format( "light_source {{ <{0},{1},{2}> White*.2 }}", t.X, t.Y, t.Z ) );
* }*/
/*
* // Include the standard pov stuff, so we can batch this.
* string fileName = imageData.FormatFilename( string.Empty );
* using( StreamWriter sw = File.CreateText( fileName + ".pov" ) )
* {
* sw.WriteLine( "#include \"C:\\Users\\hrn\\Documents\\roice\\povray\\paper\\H3.pov\"" );
* }
*
* bool dummy = true; // Doesn't matter for Pov-Ray, just Shapeways meshes.
* H3.SaveToFile( fileName, edges, dummy, append: true );
*/
}
else
{
if (g == Geometry.Spherical)
{
edges = edges.Where(e => e.Start.Valid() && e.End.Valid() && !Infinity.IsInfinite(e.Start) && !Infinity.IsInfinite(e.End)).ToArray();
S3.EdgesToStl(edges);
}
else
{
throw new System.NotImplementedException();
}
}
}
/// <summary>
/// This is like the GenCell method, but super hacked up for the Catacombs image with Henry.
/// </summary>
internal static void GenCellCatacombs(Sphere[] simplex, bool ball)
{
// We don't want to include the first mirror (which reflects across cells).
Sphere[] mirrors = simplex.Skip(1).ToArray();
Sphere[] allMirrors = simplex.ToArray();
// Simplices will be the "cells" in Recurse.CalcCells.
H3.Cell.Facet[] simplexFacets = simplex.Select(m => new H3.Cell.Facet(m)).ToArray();
// Offset cell boundary ever so slightly, to avoid artifacts of adjacent cells.
Sphere toReflectLater = simplexFacets[0].Sphere.Clone();
//simplexFacets[0].Sphere = CoxeterImages.GeodesicOffset( simplexFacets[0].Sphere, ball ? -1e-6 : 1e-7, ball );
H3.Cell startingCell = new H3.Cell(simplexFacets);
startingCell = startingCell.Clone(); // So our mirrors don't get munged after we reflect around later.
Vector3D cen = new Vector3D(0.05, 0.01, -0.05); // 373, 438
//Vector3D cen = new Vector3D( 0.05, 0.01, 100 ); // 637
//cen.RotateXY( Math.PI / 2 ); // only if we also rotate simplex mirrors. XXX - make a setting.
startingCell.Center = cen;
H3.Cell[] simplices = Recurse.CalcCells(mirrors, new H3.Cell[] { startingCell }, new Recurse.Settings()
{
Ball = ball
});
List <H3.Cell> simplicesFinal = new List <H3.Cell>();
List <int[]> reflectionSets = new List <int[]>();
// 1 reflects in x-axis
// 3, 1 rotates right
// 1, 3 rotates left
reflectionSets.Add(new int[] { 0, 3, 1, 3, 1, 0, 1, 3 });
reflectionSets.Add(new int[] { 0, 3, 1, 2, 3, 1, 0, 3, 1, 2, 0, 3 });
// 2
reflectionSets.Add(new int[] { 0, 3, 1, 3, 1, 3, 1, 0, 3, 1, 3, 1, 3, 1, 2, 3, 1, 3, 2, 3, 1 });
//reflectionSets.Add( new int[] { 0, 3, 1, 3, 1, 3, 1, 0, 3, 1, 3, 1, 0, 3, 1, 3, 1, 3, 1, 2, 3, 1, 3, 2, 3, 1 } );
// 3
//reflectionSets.Add( new int[] { 0, 3, 1, 3, 1, 3, 1, 0, 3, 1, 3, 1, 0, 3, 1, 2 } );
reflectionSets.Add(new int[] { 0, 3, 1, 3, 1, 3, 0, 3, 1, 3, 1, 0, 2 });
//reflectionSets.Add( new int[] { 0, 3, 1, 3, 1, 3, 1, 0, 3, 1, 2 } );
// 5
//reflectionSets.Add( new int[] { 0, 3, 1, 3, 1, 3, 1, 0, 1, 2, 3, 1 } );
//reflectionSets.Add( new int[] { 0, 3, 1, 3, 1, 0, 2, 3, 1 } );
//reflectionSets.Add( new int[] { 0, 3, 1, 3, 1, 0, 3, 1, 3, 1, 3, 1, 2, 3, 1, 3, 1, 0, 1, 3 } ); // baby
//reflectionSets.Add( new int[] { 0, 3, 1, 3, 1, 0, 3, 1, 3, 1, 3, 1, 2 } ); // maybe
//reflectionSets.Add( new int[] { 0, 3, 1, 2, 3, 1, 0, 2, 1, 3 } );
//reflectionSets.Add( new int[] { 0, 3, 1, 2, 3, 1, 0, 3, 1, 2 } ); // not great orientation
// reflectionSets.Add( new int[] { 0, 3, 1, 3, 1, 2 } ); // big
bool ceiling = true;
if (ceiling)
{
simplicesFinal = simplices.ToList();
}
else
{
foreach (int[] set in reflectionSets)
{
List <H3.Cell> copy = simplices.Select(s => s.Clone()).ToList();
foreach (int r in set)
{
foreach (H3.Cell cell in copy)
{
cell.Reflect(allMirrors[r]);
}
}
simplicesFinal.AddRange(copy);
}
}
/*
* // A second cell.
* //toReflectLater = simplices[45].Facets[0].Sphere.Clone();
* //toReflectLater = simplices.First( s => s.Depth == 2 ).Facets[0].Sphere.Clone();
* foreach( H3.Cell cell in simplices )
* cell.Reflect( toReflectLater );
*
* // A third cell.
* toReflectLater = simplices[40].Facets[0].Sphere.Clone();
* //toReflectLater = simplices.First( s => s.Depth == 4 ).Facets[0].Sphere.Clone();
* foreach( H3.Cell cell in simplices )
* cell.Reflect( toReflectLater );
*
* foreach( H3.Cell cell in simplices )
* cell.Depths = new int[4];
* List<H3.Cell> simplicesFinal = Recurse.CalcCells2( mirrors, simplices ).ToList();
* simplicesFinal = simplicesFinal.Where( s => s.Depths[0] % 3 == 1 && s.Depths[1] % 2 == 0 && s.Depths[2] % 2 == 1 ).ToList();
*/
/*
* List<H3.Cell> simplicesFinal = new List<H3.Cell>();
* //for( int d = 0; d < 1; d+=2 )
* int d = 0;
* {
* //Sphere toReflect = simplices.First( s => s.Depth == d ).Facets[0].Sphere.Clone();
* //Sphere toReflect = simplices.Where( s => s.Depth == d ).Skip(1).Take(1).First().Facets[0].Sphere.Clone();
* List<H3.Cell> reflectionCells = simplices.Where( s => s.Depths[1] == d && s.Depths[0] % 2 == 0 ).Skip(0).Take(1).ToList();
* foreach( Sphere toReflect in reflectionCells.Select( c => c.Facets[0].Sphere.Clone() ) )
* {
* List<H3.Cell> thisCell = new List<H3.Cell>();
* foreach( H3.Cell cell in simplices )
* {
* H3.Cell clone = cell.Clone();
* clone.Reflect( toReflect );
* thisCell.Add( clone );
* }
*
* //Sphere toReflect2 = thisCell.First( s => s.Depth1 == d + 3 && s.Depth0 % 2 == 0 ).Facets[0].Sphere.Clone();
* //List<H3.Cell> reflectionCellsTemp = simplices.Where( s => Math.Abs( s.Depths[1] - d ) == 2 && s.Depths[0] % 2 == 0 ).ToList();
* List<H3.Cell> reflectionCellsTemp = simplices.Where( s => s.Depths[1] == 2 && s.Depths[1] == s.Depths[0] + s.Depths[2] ).ToList();
* List<H3.Cell> reflectionCells2 = reflectionCellsTemp;//.Where( ( x, i ) => i % 3 == 0 ).ToList(); // .Skip( 5 ).Take( 5 ).ToList();
* foreach( Sphere toReflect2 in reflectionCells2.Select( c => c.Facets[0].Sphere.Clone() ) )
* //Sphere toReflect2 = toReflectLater;
* {
* foreach( H3.Cell cell in thisCell )
* {
* H3.Cell clone = cell.Clone();
* clone.Reflect( toReflect2 );
* simplicesFinal.Add( clone );
* }
* }
* }
* }*/
int count = 0;
foreach (H3.Cell cell in simplicesFinal)
{
count++;
//if( count % 2 == 0 )
// continue;
/*if( count < 1 )
* continue;
* if( count > 30 )
* return;
*/
//int[] include = new int[] { 0, 1, 2, 3 };
int[] include = new int[] { 0 };
PovRay.AppendSimplex(cell.Facets.Select(f => f.Sphere).ToArray(), cell.Center, include, "cell.pov");
}
}