public void AddPoint(Vector3Df point)
{
points.Add(point);
// add front line
Vertex3D v1front = new Vertex3D(point, new Vector3Df(0), new Color(0));
Vertex3D v2front = new Vertex3D((point - Center).Normalize() * height, new Vector3Df(0), FrontColor);
vertFront.Add(v1front);
vertFront.Add(v2front);
// add back line
Vertex3D v1back = v1front;
Vertex3D v2back = new Vertex3D(v2front);
v2back.Color = BackColor;
vertBack.Add(v1back);
vertBack.Add(v2back);
// add connection line if possible (front and back)
if (vertFront.Count >= 4)
{
vertFront.Add(vertFront.Get(vertFront.Count - 3));
vertFront.Add(v2front);
vertBack.Add(vertBack.Get(vertBack.Count - 3));
vertBack.Add(v2back);
}
// update indices "used" count
indBoth.SetCount(vertFront.Count);
}
public PrimitiveMesh(Device device, Mesh baseMesh)
{
BaseMesh = baseMesh;
var vert3d = new Vertex3D[baseMesh.Vertices.Length];
for (var i = 0; i < vert3d.Length; ++i)
vert3d[i] = new Vertex3D(baseMesh.Vertices[i]);
IndexBuffer = Buffer.Create<ushort>(device, BindFlags.IndexBuffer, baseMesh.Indices);
VertexBuffer = Buffer.Create<Vertex3D>(device, BindFlags.VertexBuffer, vert3d);
VertexBufferBinding = new VertexBufferBinding(VertexBuffer, VertexBuffer.Description.SizeInBytes / baseMesh.Vertices.Length, 0);
}
// Runs once before first turn
internal static void ReadStatic()
{
// Read the list of vertex locations.
int n = int.Parse(IO.ReadLine());
// List of points in the map.
vertexList = new Vertex3D[n];
// vertexColors = new int[n];
for (int i = 0; i < n; i++)
{
string[] tokens = IO.ReadLine().Split();
vertexList[i] = new Vertex3D(i,int.Parse(tokens[0]), int.Parse(tokens[1]), int.Parse(tokens[2]));
// vertexList[i].adjacentColorMap = 0;
}
//Console.Error.Write("VertexColors: ");
//foreach (int x in vertexColors) Console.Error.Write(" " + x.ToString());
//Console.Error.WriteLine();
// Read the list of region outlines.
n = int.Parse(IO.ReadLine());
// List of regions in the map
regionList = new Region[n];
for (int regionNumber = 0; regionNumber < n; regionNumber++)
{
string[] tokens = IO.ReadLine().Split();
int vertexCount = int.Parse(tokens[0]);
regionList[regionNumber] = new Region(regionNumber);
regionList[regionNumber].vertexList = new int[vertexCount];
for (int rVertextNumber = 0; rVertextNumber < vertexCount; rVertextNumber++)
{
int vertexNumber = int.Parse(tokens[rVertextNumber + 1]);
regionList[regionNumber].vertexList[rVertextNumber] = vertexNumber;
vertexList[vertexNumber].adjacentRegions.Add(regionNumber);
}
}
// List of current region colors, pusher and marker locations.
// These are updated on every turn snapshot from the game.
//regionColors = new int[regionList.Length];
pList = new Pusher[2 * PCOUNT];
for (int i = 0; i < pList.Length; i++)
pList[i] = new Pusher(i);
mList = new Marker[MCOUNT];
for (int i = 0; i < mList.Length; i++)
mList[i] = new Marker(i);
}
public LensflareSceneNode(SceneNode parent, SceneManager mgr, int id)
: base(parent, mgr, id)
{
draw_flare = true;
ign_geom = false;
smgr = mgr;
indices = new ushort[6];
indices[0] = 0;
indices[1] = 2;
indices[2] = 1;
indices[3] = 0;
indices[4] = 3;
indices[5] = 2;
vertices = new Vertex3D[4];
for (int i = 0; i < 4; i++)
{
vertices[i] = new Vertex3D();
}
vertices[0].TCoords = Vector2D.From(0.0f, 1.0f);
vertices[0].Color = Color.White;
vertices[1].TCoords = Vector2D.From(0.0f, 0.0f);
vertices[1].Color = Color.White;
vertices[2].TCoords = Vector2D.From(1.0f, 0.0f);
vertices[2].Color = Color.White;
vertices[3].TCoords = Vector2D.From(1.0f, 1.0f);
vertices[3].Color = Color.White;
material = new Material();
material.Lighting = false;
material.MaterialType = MaterialType.TransparentAddColor;
material.ZBuffer = 0;
material.ZWriteEnable = false;
bbox = new Box3D();
bbox.MinEdge = Vector3D.From(-2, -2, -2);
bbox.MaxEdge = Vector3D.From(2, 2, 2);
}
public MoveMarkerToVertexGoal(Pusher inMe, int turn)
: base(inMe,turn)
{
me = inMe;
//IO.ErrorWrite("MoveMarkerToVertexGoal P#" + me.num.ToString());
// Find a marker to move
myMarker = Map.mList[GoalUtility.FindNearest(me.pos, Map.RED)];
myMarker.beingUsedBy = this;
//IO.ErrorWrite(myMarker.Short());
// Find a place to push it.
targetVertextSeq = GoalUtility.PickAVertex(myMarker.pos);
targetVertex = Map.vertexList[targetVertextSeq];
//IO.ErrorWrite(targetVertex.Short2D());
targetVertex.target = true; // we should fix this make me the user.
dest = new Vector2D(targetVertex.x, targetVertex.y);
//IO.ErrorWriteLine("");
}
public CSampleSceneNode(SceneNode parent, SceneManager smgr, int id)
: base(parent, smgr, id)
{
this.OnRegisterSceneNode += new RegisterSceneNodeEventHandler(CSampleSceneNode_OnRegisterSceneNode);
this.OnRender += new RenderEventHandler(CSampleSceneNode_OnRender);
this.OnGetBoundingBox += new GetBoundingBoxEventHandler(CSampleSceneNode_OnGetBoundingBox);
this.OnGetMaterialCount += new GetMaterialCountEventHandler(CSampleSceneNode_OnGetMaterialCount);
this.OnGetMaterial += new GetMaterialEventHandler(CSampleSceneNode_OnGetMaterial);
material.Wireframe = false;
material.Lighting = false;
vertices = new Vertex3D[4];
vertices[0] = new Vertex3D(0, 0, 10, 1, 1, 0, new Color(0, 255, 255), 0, 1);
vertices[1] = new Vertex3D(10, 0, -10, 1, 0, 0, new Color(255, 0, 255), 1, 1);
vertices[2] = new Vertex3D(0, 20, 0, 0, 1, 1, new Color(255, 255, 0), 1, 0);
vertices[3] = new Vertex3D(-10, 0, -10, 0, 0, 1, new Color(0, 255, 0), 0, 0);
bbox.Set(vertices[0].Position);
for (int i = 1; i < vertices.Length; i++)
bbox.AddInternalPoint(vertices[i].Position);
}
public HitPoint(Vertex3D p, ItemType itemType) : base(itemType)
{
P = p;
}
private void Run()
{
// Read the static parts of the map.
// Read the list of vertex locations.
int n = int.Parse( Console.ReadLine() );
// List of points in the map.
Vertex3D[] vertexList = new Vertex3D [ n ];
for ( int i = 0; i < n; i++ ) {
string[] tokens = Console.ReadLine().Split();
vertexList[ i ] = new Vertex3D( int.Parse( tokens[ 0 ] ),
int.Parse( tokens[ 1 ] ),
int.Parse( tokens[ 2 ] ) );
}
// Read the list of region outlines.
n = int.Parse( Console.ReadLine() );
// List of regions in the map
int[][] regionList = new int [ n ] [];
for ( int i = 0; i < n; i++ ) {
string[] tokens = Console.ReadLine().Split();
int m = int.Parse( tokens[ 0 ] );
regionList[ i ] = new int [ m ];
for ( int j = 0; j < m; j++ )
regionList[ i ][ j ] = int.Parse( tokens[ j + 1 ] );
}
// List of current region colors, pusher and marker locations.
// These are updated on every turn snapshot from the game.
int[] regionColors = new int [ regionList.Length ];
Pusher[] pList = new Pusher [ 2 * PCOUNT ];
for ( int i = 0; i < pList.Length; i++ )
pList[ i ] = new Pusher();
Marker[] mList = new Marker [ MCOUNT ];
for ( int i = 0; i < mList.Length; i++ )
mList[ i ] = new Marker();
int turnNum = int.Parse( Console.ReadLine() );
while ( turnNum >= 0 ) {
string[] tokens = Console.ReadLine().Split();
score[ RED ] = int.Parse( tokens[ 0 ] );
score[ BLUE ] = int.Parse( tokens[ 1 ] );
// Read all the region colors.
tokens = Console.ReadLine().Split();
n = int.Parse( tokens[ 0 ] );
for ( int i = 0; i < regionList.Length; i++ )
regionColors[ i ] = int.Parse( tokens[ i + 1 ] );
// Read all the pusher locations.
n = int.Parse( Console.ReadLine() );
for ( int i = 0; i < pList.Length; i++ ) {
tokens = Console.ReadLine().Split();
pList[ i ].pos.x = double.Parse( tokens[ 0 ] );
pList[ i ].pos.y = double.Parse( tokens[ 1 ] );
pList[ i ].vel.x = double.Parse( tokens[ 2 ] );
pList[ i ].vel.y = double.Parse( tokens[ 3 ] );
}
// Read all the marker locations.
n = int.Parse( Console.ReadLine() );
for ( int i = 0; i < n; i++ ) {
tokens = Console.ReadLine().Split();
mList[ i ].pos.x = double.Parse( tokens[ 0 ] );
mList[ i ].pos.y = double.Parse( tokens[ 1 ] );
mList[ i ].vel.x = double.Parse( tokens[ 2 ] );
mList[ i ].vel.y = double.Parse( tokens[ 3 ] );
mList[ i ].color = int.Parse( tokens[ 4 ] );
}
// Compute a bit vector for the region colors incident on each
// vertex.
int[] vertexColors = new int [ vertexList.Length ];
for ( int i = 0; i < regionList.Length; i++ )
for ( int j = 0; j < regionList[ i ].Length; j++ )
vertexColors[ regionList[ i ][ j ] ] |= ( 1 << regionColors[ i ] );
// Candidate vertices for putting a marker on, vertices that have
// some red but are not all red.
List< int > candidates = new List< int >();
for ( int i = 0; i < vertexList.Length; i++ )
if ( ( vertexColors[ i ] & 0x1 ) == 1 &&
vertexColors[ i ] != 1 )
candidates.Add( i );
// Choose a next action for each pusher, each pusher is responsible
// for the marker with the same index.
for ( int pdex = 0; pdex < PCOUNT; pdex++ ) {
Pusher p = pList[ pdex ];
// See how long this pusher has been doing its job.
if ( p.busy ) {
// Go to idle if we work to long on the same job.
p.jobTime++;
if ( p.jobTime >= 60 )
p.busy = false;
}
// If we lose our marker, then just sit idle.
if ( mList[ pdex ].color != RED ) {
p.busy = false;
}
// Otherwise, try to find a new place to push our marker.
if ( mList[ pdex ].color == RED &&
!p.busy ) {
if ( candidates.Count > 0 ) {
int choice = rnd.Next( candidates.Count );
p.targetVertex = candidates[ choice ];
candidates.RemoveAt( choice );
p.busy = true;
}
}
// Choose a move direction in support of our current goal.
if ( p.busy ) {
// Get behind our marker and push it toward its destination.
Vertex3D v = vertexList[ p.targetVertex ];
Vector2D dest = new Vector2D( v.x, v.y );
if ( MoveAround( p, mList[ pdex ], dest ) ) {
Vector2D mToD = ( dest - mList[ pdex ].pos ).Norm();
MoveTo( p, mList[ pdex ].pos - mToD );
}
} else
Console.Write( "0.0 0.0" );
// Print a space or a newline depending on whether we're at
// the last pusher.
if ( pdex + 1 < PCOUNT )
Console.Write( " " );
else
Console.WriteLine();
}
turnNum = int.Parse( Console.ReadLine() );
}
}
private void meshGeneratorThread_generateMesh(int layerIndex)
{
GridLayer l = layers[layerIndex];
if (l.Mesh != null)
l.Mesh.Drop();
l.Mesh = Mesh.Create();
if (gridCubeCount > 0)
{
Vertex3D[] cubeVerts = null;
ushort[] cubeInds = null;
int cubeIndex = maxCubesPerBuffer; // this way we force buffers to be recreated at next new cube
int totalCubesAdded = 0;
float baseX = -(CubeSize * GridDim) / 2;
float baseZ = -(CubeSize * GridDim) / 2;
for (int i = 0; i < GridDim; i++)
{
for (int j = 0; j < GridDim; j++)
{
if (grid[i, j] == 0)
continue;
// check if current buffer is out of room, if so make a mesh buffer and attach it to the gridMesh and init next cubeVerts&Inds
if (cubeIndex == maxCubesPerBuffer)
{
if (cubeVerts != null && cubeInds != null)
{
MeshBuffer b = MeshBuffer.Create(VertexType.Standard, IndexType._16Bit);
b.Append(cubeVerts, cubeInds);
l.Mesh.AddMeshBuffer(b);
b.Drop();
totalCubesAdded += cubeIndex;
}
int cubeCount = gridCubeCount - totalCubesAdded;
if (cubeCount > maxCubesPerBuffer)
cubeCount = maxCubesPerBuffer;
cubeIndex = 0;
cubeVerts = new Vertex3D[cubeCount * 8]; // 8 verts per cube
cubeInds = new ushort[cubeCount * 3 * 2 * 6]; // 3 indices per triangle; 2 triangles per face; 6 faces per cube
}
// build the cube and add it
// note: we build 8 vertices cube because we don't need to texture it; if you want to change that (to use texture instead of vertex colors) - you need to build 12 vertices cube and initialize UV coords
float x = baseX + i * CubeSize;
float y = 0;
float z = baseZ + j * CubeSize;
int iv = cubeIndex * 8;
cubeVerts[iv + 0] = new Vertex3D(x, y, z);
cubeVerts[iv + 1] = new Vertex3D(x + CubeSize, y, z);
cubeVerts[iv + 2] = new Vertex3D(x + CubeSize, y + CubeSize, z);
cubeVerts[iv + 3] = new Vertex3D(x, y + CubeSize, z);
cubeVerts[iv + 4] = new Vertex3D(x, y, z + CubeSize);
cubeVerts[iv + 5] = new Vertex3D(x + CubeSize, y, z + CubeSize);
cubeVerts[iv + 6] = new Vertex3D(x + CubeSize, y + CubeSize, z + CubeSize);
cubeVerts[iv + 7] = new Vertex3D(x, y + CubeSize, z + CubeSize);
int ii = cubeIndex * 3 * 2 * 6;
// top
cubeInds[ii + 0] = (ushort)(iv + 3);
cubeInds[ii + 1] = (ushort)(iv + 7);
cubeInds[ii + 2] = (ushort)(iv + 6);
cubeInds[ii + 3] = (ushort)(iv + 3);
cubeInds[ii + 4] = (ushort)(iv + 6);
cubeInds[ii + 5] = (ushort)(iv + 2);
// front
cubeInds[ii + 6] = (ushort)(iv + 0);
cubeInds[ii + 7] = (ushort)(iv + 3);
cubeInds[ii + 8] = (ushort)(iv + 2);
cubeInds[ii + 9] = (ushort)(iv + 0);
cubeInds[ii + 10] = (ushort)(iv + 2);
cubeInds[ii + 11] = (ushort)(iv + 1);
// right
cubeInds[ii + 12] = (ushort)(iv + 1);
cubeInds[ii + 13] = (ushort)(iv + 2);
cubeInds[ii + 14] = (ushort)(iv + 6);
cubeInds[ii + 15] = (ushort)(iv + 1);
cubeInds[ii + 16] = (ushort)(iv + 6);
cubeInds[ii + 17] = (ushort)(iv + 5);
// left
cubeInds[ii + 18] = (ushort)(iv + 0);
cubeInds[ii + 19] = (ushort)(iv + 4);
cubeInds[ii + 20] = (ushort)(iv + 7);
cubeInds[ii + 21] = (ushort)(iv + 0);
cubeInds[ii + 22] = (ushort)(iv + 7);
cubeInds[ii + 23] = (ushort)(iv + 3);
// back
cubeInds[ii + 24] = (ushort)(iv + 4);
cubeInds[ii + 25] = (ushort)(iv + 5);
cubeInds[ii + 26] = (ushort)(iv + 6);
cubeInds[ii + 27] = (ushort)(iv + 4);
cubeInds[ii + 28] = (ushort)(iv + 6);
cubeInds[ii + 29] = (ushort)(iv + 7);
// bottom
cubeInds[ii + 30] = (ushort)(iv + 0);
cubeInds[ii + 31] = (ushort)(iv + 1);
cubeInds[ii + 32] = (ushort)(iv + 5);
cubeInds[ii + 33] = (ushort)(iv + 0);
cubeInds[ii + 34] = (ushort)(iv + 5);
cubeInds[ii + 35] = (ushort)(iv + 4);
cubeIndex++;
}
}
if (cubeIndex > 0)
{
MeshBuffer b = MeshBuffer.Create(VertexType.Standard, IndexType._16Bit);
b.Append(cubeVerts, cubeInds);
l.Mesh.AddMeshBuffer(b);
b.Drop();
}
device.SceneManager.MeshManipulator.SetVertexColors(l.Mesh, cubeColor);
}
l.Transform.Rotation = new Vector3Df(gridGeneration * 0.93f, gridGeneration * 0.81f, gridGeneration * 0.69f);
l.Generation = gridGeneration;
l.CubeCount = gridCubeCount;
l.MeshIsReady = true;
}
private void RenderTriangles()
{
for (int iTriangle = 0; iTriangle < triangleIndicesList.Count; iTriangle++)
{
TriangleIndices triangleIndices = triangleIndicesList[iTriangle];
Vertex3D vertex1 = vertexList[triangleIndices.Index1];
Vertex3D vertex2 = vertexList[triangleIndices.Index2];
Vertex3D vertex3 = vertexList[triangleIndices.Index3];
Vector3D normal1 = vertex1.NormalVector;
Vector3D normal2 = vertex2.NormalVector;
Vector3D normal3 = vertex3.NormalVector;
Vector3D triangeNormal = triangleNormalVectorList[iTriangle];
GL.Begin(PrimitiveType.Triangles);
if (textureID > 0)
{
GL.BindTexture(TextureTarget.Texture2D, textureID);
}
if (shadingModel == ShadingModel.Flat)
{
GL.Normal3(triangeNormal.X, triangeNormal.Z, -triangeNormal.Y);
}
if (shadingModel == ShadingModel.Smooth)
{
GL.Normal3(normal1.X, normal1.Z, -normal1.Y);
}
if (!useLight)
{
GL.Color4(vertex1.Color.R, vertex1.Color.G, vertex1.Color.B, vertex1.Color.A);
}
if (textureID > 0)
{
GL.TexCoord2(vertex1.TextureCoordinates.X, vertex1.TextureCoordinates.Y);
}
GL.Vertex3(vertex1.Position.X, vertex1.Position.Z, -vertex1.Position.Y);
if (shadingModel == ShadingModel.Smooth)
{
GL.Normal3(normal2.X, normal2.Z, -normal2.Y);
}
if (!useLight)
{
GL.Color4(vertex2.Color.R, vertex2.Color.G, vertex2.Color.B, vertex2.Color.A);
}
if (textureID > 0)
{
if (vertex2.TextureCoordinates.X < vertex1.TextureCoordinates.X)
{
GL.TexCoord2(vertex2.TextureCoordinates.X + 1, vertex2.TextureCoordinates.Y);
}
else
{
GL.TexCoord2(vertex2.TextureCoordinates.X, vertex2.TextureCoordinates.Y);
}
}
GL.Vertex3(vertex2.Position.X, vertex2.Position.Z, -vertex2.Position.Y);
if (shadingModel == ShadingModel.Smooth)
{
GL.Normal3(normal3.X, normal3.Z, -normal3.Y);
}
if (!useLight)
{
GL.Color4(vertex3.Color.R, vertex3.Color.G, vertex3.Color.B, vertex3.Color.A);
}
if (textureID > 0)
{
if (vertex3.TextureCoordinates.X < vertex1.TextureCoordinates.X)
{
GL.TexCoord2(vertex3.TextureCoordinates.X + 1, vertex3.TextureCoordinates.Y);
}
else
{
GL.TexCoord2(vertex3.TextureCoordinates.X, vertex3.TextureCoordinates.Y);
}
}
GL.Vertex3(vertex3.Position.X, vertex3.Position.Z, -vertex3.Position.Y);
GL.End();
}
}
private HitObject[] GenerateHitTargetHits(Table.Table table, IItem item)
{
var addedEdges = new EdgeSet();
var hitMesh = _meshGenerator.GetRenderObjects(table, Origin.Original, false).RenderObjects[0].Mesh;
var hitObjects = GenerateCollidables(hitMesh, addedEdges, _data.IsLegacy, table, item).ToList();
var tempMatrix = new Matrix3D().RotateZMatrix(MathF.DegToRad(_data.RotZ));
var fullMatrix = new Matrix3D().Multiply(tempMatrix);
if (!_data.IsLegacy)
{
var rgv3D = new Vertex3D[DropTargetHitPlaneVertices.Length];
var hitShapeOffset = 0.18f;
if (_data.TargetType == TargetType.DropTargetBeveled)
{
hitShapeOffset = 0.25f;
}
if (_data.TargetType == TargetType.DropTargetFlatSimple)
{
hitShapeOffset = 0.13f;
}
// now create a special hit shape with hit event enabled to prevent a hit event when hit from behind
for (var i = 0; i < DropTargetHitPlaneVertices.Length; i++)
{
var dropTargetHitPlaneVertex = DropTargetHitPlaneVertices[i];
var vert = new Vertex3D(
dropTargetHitPlaneVertex.X,
dropTargetHitPlaneVertex.Y + hitShapeOffset,
dropTargetHitPlaneVertex.Z
);
vert.X *= _data.Size.X;
vert.Y *= _data.Size.Y;
vert.Z *= _data.Size.Z;
vert.MultiplyMatrix(fullMatrix);
rgv3D[i] = new Vertex3D(
vert.X + _data.Position.X,
vert.Y + _data.Position.Y,
vert.Z * table.GetScaleZ() + _data.Position.Z + table.TableHeight
);
}
for (var i = 0; i < DropTargetHitPlaneIndices.Length; i += 3)
{
var i0 = DropTargetHitPlaneIndices[i];
var i1 = DropTargetHitPlaneIndices[i + 1];
var i2 = DropTargetHitPlaneIndices[i + 2];
// NB: HitTriangle wants CCW vertices, but for rendering we have them in CW order
var rgv3D2 = new[] { rgv3D[i0], rgv3D[i2], rgv3D[i1] };
hitObjects.Add(SetupHitObject(new HitTriangle(rgv3D2, ItemType.HitTarget, item), true, table));
hitObjects.AddRange(addedEdges.AddHitEdge(i0, i1, rgv3D2[0], rgv3D2[2], ItemType.HitTarget, item).Select(obj => SetupHitObject(obj, true, table)));
hitObjects.AddRange(addedEdges.AddHitEdge(i1, i2, rgv3D2[2], rgv3D2[1], ItemType.HitTarget, item).Select(obj => SetupHitObject(obj, true, table)));
hitObjects.AddRange(addedEdges.AddHitEdge(i2, i0, rgv3D2[1], rgv3D2[0], ItemType.HitTarget, item).Select(obj => SetupHitObject(obj, true, table)));
}
// add collision vertices
for (var i = 0; i < DropTargetHitPlaneVertices.Length; ++i)
{
hitObjects.Add(SetupHitObject(new HitPoint(rgv3D[i], ItemType.HitTarget, item), true, table));
}
}
return(hitObjects.ToArray());
}
public static float EuclidianDistance(Vertex3D v1, Vertex3D v2)
{
return((float)Math.Sqrt(Math.Pow(v1.x - v2.x, 2.0) + Math.Pow(v1.y - v2.y, 2.0) + Math.Pow(v1.z - v2.z, 2.0)));
}
/*private void DoParticleSystem(uint time)
{
}*/
private void ReallocateBuffers()
{
if (Particles.Length * 4 > Vertices.Length || Particles.Length * 6 > Indices.Length)
{
int oldSize = Vertices.Length;
ArrayList newvert = new ArrayList();
int i;
newvert.AddRange(Vertices);
for (i = oldSize; i < (Particles.Length * 4); i++)
{
Vertex3D temp = new Vertex3D();
temp.Normal = new Vector3D(0, 1, 0);
newvert.Add(temp);
}
Vertices = (Vertex3D[])newvert.ToArray(typeof(Vertex3D));
newvert.Clear();
int oldIdxSize = Indices.Length;
int oldvertices = oldSize;
newvert.AddRange(Indices);
for (i = oldIdxSize; i < (Particles.Length * 12); i += 12)
{
newvert.Add((ushort)(0 + oldvertices));
newvert.Add((ushort)(2 + oldvertices));
newvert.Add((ushort)(1 + oldvertices));
newvert.Add((ushort)(0 + oldvertices));
newvert.Add((ushort)(3 + oldvertices));
newvert.Add((ushort)(2 + oldvertices));
newvert.Add((ushort)(1 + oldvertices));
newvert.Add((ushort)(2 + oldvertices));
newvert.Add((ushort)(0 + oldvertices));
newvert.Add((ushort)(2 + oldvertices));
newvert.Add((ushort)(3 + oldvertices));
newvert.Add((ushort)(0 + oldvertices));
oldvertices += 4;
}
Indices = (ushort[])newvert.ToArray(typeof(ushort));
newvert.Clear();
}
}
private Vertex3D[] GenerateSphere(Vector3 position, float width, float height, float depth, float radians, uint numHorizontalDivisions, uint numVerticalDivisions)
{
/*
* Coordinate System Here is RHS, Y Vertical.
* V = Vertical Angle [inclination] .. (around horizontal X axis, 0 is pointing straight up)
* H = Horizontal Angle [azimuth] .. (around vertical Y axis, positive is clockwise from positive x direction towards positive z)
*
* z = R.Sin(V).Sin(H)
* x = R.Sin(V).Cos(H)
* y = R.Cos(V)
*/
var verts = new Vertex3D[numHorizontalDivisions * numVerticalDivisions];
var divFracH = 1.0f / (1.0f * (numHorizontalDivisions - 1));
var divFracV = 1.0f / (1.0f * (numVerticalDivisions - 1));
var hw = 0.5f * width;
var hh = 0.5f * height;
var hd = 0.5f * depth;
float fracX, fracY;
for (var ny = 0; ny < numVerticalDivisions; ny++)
{
fracY = ny * divFracV;
for (var nx = 0; nx < numHorizontalDivisions; nx++)
{
fracX = nx * divFracH;
var horizontalAngle = (-0.5f + (-fracX * 2.0f)) * (float)Math.PI; //Rotate 90 degress CCW (negative direction) to pointing along negative z. then wrap around in CCW direction from there
var verticalAngle = fracY * (float)Math.PI;
var H = horizontalAngle;
var V = verticalAngle;
var sinH = (float)Math.Sin(H);
var cosH = (float)Math.Cos(H);
var sinV = (float)Math.Sin(V);
var cosV = (float)Math.Cos(V);
var x = sinV * cosH;
var y = cosV;
var z = sinV * sinH;
var index = (numHorizontalDivisions * ny) + nx;
var positionScaled = new Vector3(x * hw, y * hh, z * hd);
var positionRotated = Vector3.Transform(positionScaled, Matrix4x4.CreateRotationY(-radians));
verts[index] = new Vertex3D
{
Position = positionRotated + position,
TexCoord = new Vector2(fracX, fracY),
};
}
}
/*Calculate Normals
*
* Given the user has the option to distort the sphere by arbitary width, height and depth
* The per vertex normals are not guaranteed to be just normalised vectors of it's position
* (as is the case for a uniform sphere of constant radius around the origin)
* We therefore need to employ the standard vertex normal calculation technique:
*
* Sum all Face Normals of the faces surrounding each vertex and normalise
*
* Note: although in this mesh each face will be the same size, this technique does
* account for the different weighting that differently sized faces should have on a vertex
* normal. This is because a face normal is calculated using the cross product of two sides
* of a triangle. The length of the resulting vector is proportional the area of the face
* and it's direction is naturally in the direction of the face normal
*
* Finally, care must be taken to ensure the face-out normals are calculated rather than face-in.
*
* There are a select number of normals we already know. namely that those in the top and bottom
* Vertical row are +/- UnitY
*/
for (var ny = 0; ny < numVerticalDivisions; ny++)
{
for (var nx = 0; nx < numHorizontalDivisions; nx++)
{
var index = (numHorizontalDivisions * ny) + nx;
if (ny == 0)
{
//Top row points straight up
verts[index].Normal = Vector3.UnitY;
continue;
}
if (ny == numVerticalDivisions - 1)
{
//Bottom row points straight down
verts[index].Normal = -Vector3.UnitY;
continue;
}
//Vector3.Cross -> Positive Unit X crossed with Positive Unit Y == Unit Positive Z
//To get an outward facing normal, I will use those vectors along azimuth/inclination
//directions (psuedo vertical and horizontal lines in the reference frame of the vertex)
//and i will each one with the next in the counter clockwise direction if facing straight on
/*
* x and Letter = Vertex
*
* x x /C\ x x
* / | \
* x D---A---B x
\ | /
\ x x \E/ x x
\
\
\ Vertex Normal of A == Normalise(ABxAC + ACxAD + ADxAE + AExAB)
*/
var indexMinusOne = index - 1;
if (nx == 0)
{
indexMinusOne = (numHorizontalDivisions * (ny + 1)) - 2; //-2 not -1 NOTE
}
var indexPlusOne = index + 1;
if (nx == numHorizontalDivisions - 1)
{
indexPlusOne -= numHorizontalDivisions;
indexPlusOne++; //Adding an extra 1 NOTE
}
//Why NOTE.. because the edge azimuth / horizontal points actually overlap at 0 and max azimuth. wrap points are not shared
//There is a seem at the back with overlapping points
var A = verts[index].Position;
var B = verts[indexPlusOne].Position;
var C = verts[index - numHorizontalDivisions].Position;
var D = verts[indexMinusOne].Position;
var E = verts[index + numHorizontalDivisions].Position;
var sum = Vector3.Cross(B - A, C - A) + Vector3.Cross(C - A, D - A) + Vector3.Cross(D - A, E - A) + Vector3.Cross(E - A, B - A);
verts[index].Normal = Vector3.Normalize(sum);
}
}
return(_vertexGridToTriangleListTool.Convert(numHorizontalDivisions, numVerticalDivisions, verts));
}
private void GetRelativeVelocity(Vertex3D normal, Ball.Ball ball, Vertex3D vRel, Vertex3D rB, Vertex3D rF)
{
rB.Set(normal.Clone().MultiplyScalar(-ball.Data.Radius));
var hitPos = ball.State.Pos.Clone().Add(rB);
var cF = new Vertex3D(
_mover.HitCircleBase.Center.X,
_mover.HitCircleBase.Center.Y,
ball.State.Pos.Z // make sure collision happens in same z plane where ball is
);
rF.Set(hitPos.Clone().Sub(cF)); // displacement relative to flipper center
var vB = ball.Hit.SurfaceVelocity(rB);
var vF = _mover.SurfaceVelocity(rF);
vRel.Set(vB.Clone().Sub(vF));
}
public Ball(BallData data, Vertex3D initialVelocity, Table.Table table)
{
Data = data;
}
public override void Collide(CollisionEvent coll, PlayerPhysics physics)
{
var ball = coll.Ball;
var normal = coll.HitNormal;
var vRel = new Vertex3D();
var rB = new Vertex3D();
var rF = new Vertex3D();
GetRelativeVelocity(normal, ball, vRel, rB, rF);
var bnv = normal.Dot(vRel); // relative normal velocity
if (bnv >= -PhysicsConstants.LowNormVel)
{
// nearly receding ... make sure of conditions
if (bnv > PhysicsConstants.LowNormVel)
{
// otherwise if clearly approaching .. process the collision
// is this velocity clearly receding (i.E must > a minimum)
return;
}
//#ifdef PhysicsConstants.EMBEDDED
if (coll.HitDistance < -PhysicsConstants.Embedded)
{
bnv = -PhysicsConstants.EmbedShot; // has ball become embedded???, give it a kick
}
else
{
return;
}
//#endif
}
//#ifdef PhysicsConstants.DISP_GAIN
// correct displacements, mostly from low velocity blindness, an alternative to true acceleration processing
var hitDist = -PhysicsConstants.DispGain * coll.HitDistance; // distance found in hit detection
if (hitDist > 1.0e-4)
{
if (hitDist > PhysicsConstants.DispLimit)
{
hitDist = PhysicsConstants.DispLimit; // crossing ramps, delta noise
}
// push along norm, back to free area; use the norm, but is not correct
ball.State.Pos.Add(coll.HitNormal.Clone().MultiplyScalar(hitDist));
}
//#endif
// angular response to impulse in normal direction
var angResp = Vertex3D.CrossProduct(rF, normal);
/*
* Check if flipper is in contact with its stopper and the collision impulse
* would push it beyond the stopper. In that case, don"t allow any transfer
* of kinetic energy from ball to flipper. This avoids overly dead bounces
* in that case.
*/
var angImp = -angResp.Z; // minus because impulse will apply in -normal direction
var flipperResponseScaling = 1.0f;
if (_mover.IsInContact && _mover.ContactTorque * angImp >= 0f)
{
// if impulse pushes against stopper, allow no loss of kinetic energy to flipper
// (still allow flipper recoil, but a diminished amount)
angResp.SetZero();
flipperResponseScaling = 0.5f;
}
/*
* Rubber has a coefficient of restitution which decreases with the impact velocity.
* We use a heuristic model which decreases the COR according to a falloff parameter:
* 0 = no falloff, 1 = half the COR at 1 m/s (18.53 speed units)
*/
var epsilon = Functions.ElasticityWithFalloff(Elasticity, ElasticityFalloff, bnv);
var pv1 = angResp.Clone().DivideScalar(_mover.Inertia);
var impulse = -(1.0f + epsilon) * bnv / (ball.Hit.InvMass + normal.Dot(Vertex3D.CrossProduct(pv1, rF)));
var flipperImp = normal.Clone().MultiplyScalar(-(impulse * flipperResponseScaling));
var rotI = Vertex3D.CrossProduct(rF, flipperImp);
if (_mover.IsInContact)
{
if (rotI.Z * _mover.ContactTorque < 0)
{
// pushing against the solenoid?
// Get a bound on the time the flipper needs to return to static conditions.
// If it"s too short, we treat the flipper as static during the whole collision.
var recoilTime = -rotI.Z / _mover.ContactTorque; // time flipper needs to eliminate this impulse, in 10ms
// Check ball normal velocity after collision. If the ball rebounded
// off the flipper, we need to make sure it does so with full
// reflection, i.E., treat the flipper as static, otherwise
// we get overly dead bounces.
var bnvAfter = bnv + impulse * ball.Hit.InvMass;
if (recoilTime <= 0.5 || bnvAfter > 0)
{
// treat flipper as static for this impact
impulse = -(1.0f + epsilon) * bnv * ball.Data.Mass;
flipperImp.SetZero();
rotI.SetZero();
}
}
}
ball.Hit.Vel.Add(normal.Clone().MultiplyScalar(impulse * ball.Hit.InvMass)); // new velocity for ball after impact
_mover.ApplyImpulse(rotI);
// apply friction
var tangent = vRel.Clone().Sub(normal.Clone().MultiplyScalar(vRel.Dot(normal))); // calc the tangential velocity
var tangentSpSq = tangent.LengthSq();
if (tangentSpSq > 1e-6)
{
tangent.DivideScalar(MathF.Sqrt(tangentSpSq)); // normalize to get tangent direction
var vt = vRel.Dot(tangent); // get speed in tangential direction
// compute friction impulse
var crossB = Vertex3D.CrossProduct(rB, tangent);
var pv12 = crossB.Clone().DivideScalar(ball.Hit.Inertia);
var kt = ball.Hit.InvMass + tangent.Dot(Vertex3D.CrossProduct(pv12, rB));
var crossF = Vertex3D.CrossProduct(rF, tangent);
var pv13 = crossF.Clone().DivideScalar(_mover.Inertia);
kt += tangent.Dot(Vertex3D.CrossProduct(pv13, rF)); // flipper only has angular response
// friction impulse can't be greater than coefficient of friction times collision impulse (Coulomb friction cone)
var maxFriction = Friction * impulse;
var jt = Functions.Clamp(-vt / kt, -maxFriction, maxFriction);
ball.Hit.ApplySurfaceImpulse(
crossB.Clone().MultiplyScalar(jt),
tangent.Clone().MultiplyScalar(jt)
);
_mover.ApplyImpulse(crossF.Clone().MultiplyScalar(-jt));
}
if (bnv < -0.25 && physics.TimeMsec - _lastHitTime > 250)
{
// limit rate to 250 milliseconds per event
var flipperHit =
coll.HitMomentBit ? -1.0 : -bnv; // move event processing to end of collision handler...
if (flipperHit < 0)
{
_events.FireGroupEvent(EventId.HitEventsHit); // simple hit event
}
else
{
// collision velocity (normal to face)
_events.FireVoidEventParam(EventId.FlipperEventsCollide, flipperHit);
}
}
_lastHitTime = physics.TimeMsec; // keep resetting until idle for 250 milliseconds
}
public override void Contact(CollisionEvent coll, float dTime, PlayerPhysics physics)
{
var ball = coll.Ball;
var normal = coll.HitNormal;
//#ifdef PhysicsConstants.EMBEDDED
if (coll.HitDistance < -PhysicsConstants.Embedded)
{
// magic to avoid balls being pushed by each other through resting flippers!
ball.Hit.Vel.Add(normal.Clone().MultiplyScalar(0.1f));
}
//#endif
var vRel = new Vertex3D();
var rB = new Vertex3D();
var rF = new Vertex3D();
GetRelativeVelocity(normal, ball, vRel, rB, rF);
// this should be zero, but only up to +/- C_CONTACTVEL
var normVel = vRel.Dot(normal);
// If some collision has changed the ball's velocity, we may not have to do anything.
if (normVel <= PhysicsConstants.ContactVel)
{
// compute accelerations of point on ball and flipper
var aB = ball.Hit.SurfaceAcceleration(rB, physics);
var aF = _mover.SurfaceAcceleration(rF);
var aRel = aB.Clone().Sub(aF);
// time derivative of the normal vector
var normalDeriv = Vertex3D.CrossZ(_mover.AngleSpeed, normal);
// relative acceleration in the normal direction
var normAcc = aRel.Dot(normal) + 2.0f * normalDeriv.Dot(vRel);
if (normAcc >= 0)
{
return; // objects accelerating away from each other, nothing to do
}
// hypothetical accelerations arising from a unit contact force in normal direction
var aBc = normal.Clone().MultiplyScalar(ball.Hit.InvMass);
var pv2 = normal.Clone().MultiplyScalar(-1);
var cross = Vertex3D.CrossProduct(rF, pv2);
var pv1 = cross.Clone().DivideScalar(_mover.Inertia);
var aFc = Vertex3D.CrossProduct(pv1, rF);
var contactForceAcc = normal.Dot(aBc.Clone().Sub(aFc));
// find j >= 0 such that normAcc + j * contactForceAcc >= 0 (bodies should not accelerate towards each other)
var j = -normAcc / contactForceAcc;
// kill any existing normal velocity
ball.Hit.Vel.Add(normal.Clone().MultiplyScalar(j * dTime * ball.Hit.InvMass - coll.HitOrgNormalVelocity));
_mover.ApplyImpulse(cross.Clone().MultiplyScalar(j * dTime));
// apply friction
// first check for slippage
var slip = vRel.Clone().Sub(normal.Clone().MultiplyScalar(normVel)); // calc the tangential slip velocity
var maxFriction = j * Friction;
var slipSpeed = slip.Length();
Vertex3D slipDir;
Vertex3D crossF;
float numer;
float denomF;
Vertex3D pv13;
if (slipSpeed < PhysicsConstants.Precision)
{
// slip speed zero - static friction case
var slipAcc = aRel.Clone().Sub(normal.Clone().MultiplyScalar(aRel.Dot(normal))); // calc the tangential slip acceleration
// neither slip velocity nor slip acceleration? nothing to do here
if (slipAcc.LengthSq() < 1e-6)
{
return;
}
slipDir = slipAcc.Normalize();
numer = -slipDir.Dot(aRel);
crossF = Vertex3D.CrossProduct(rF, slipDir);
pv13 = crossF.Clone().DivideScalar(-_mover.Inertia);
denomF = slipDir.Dot(Vertex3D.CrossProduct(pv13, rF));
}
else
{
// nonzero slip speed - dynamic friction case
slipDir = slip.Clone().DivideScalar(slipSpeed);
numer = -slipDir.Dot(vRel);
crossF = Vertex3D.CrossProduct(rF, slipDir);
pv13 = crossF.Clone().DivideScalar(_mover.Inertia);
denomF = slipDir.Dot(Vertex3D.CrossProduct(pv13, rF));
}
var crossB = Vertex3D.CrossProduct(rB, slipDir);
var pv12 = crossB.Clone().DivideScalar(ball.Hit.Inertia);
var denomB = ball.Hit.InvMass + slipDir.Dot(Vertex3D.CrossProduct(pv12, rB));
var friction = Functions.Clamp(numer / (denomB + denomF), -maxFriction, maxFriction);
ball.Hit.ApplySurfaceImpulse(
crossB.Clone().MultiplyScalar(dTime * friction),
slipDir.Clone().MultiplyScalar(dTime * friction)
);
_mover.ApplyImpulse(crossF.Clone().MultiplyScalar(-dTime * friction));
}
}
public void Draw(uint time)
{
removeDead(time);
Material mat = new Material();
mat.Type = MaterialType.TransparentVertexAlpha;
mat.Lighting = false;
sceneManager.VideoDriver.SetMaterial(mat);
sceneManager.VideoDriver.SetTransform(TransformationState.World, Matrix.Identity);
Random random = new Random();
Color[] colors = new Color[11]; // 11 colors (line count + 1, since each line has 2 points)
for (int i = 0; i < colors.Length; i++)
{
colors[i] = new Color(255, 255, 255, 255 - (10 - i) * 25);
}
vertexBuffer.SetCount(0);
foreach (var shot in shots)
{
Vector3Df pos = shot.node.Position;
AABBox box = new AABBox(pos - new Vector3Df(shotRadius), pos + new Vector3Df(shotRadius));
List <Triangle3Df> tris = worldTriangles.GetTriangles(box, 1000);
if (tris.Count == 0)
{
continue;
}
Dictionary <float, Vector3Df> uniquePoints = new Dictionary <float, Vector3Df>();
foreach (var t in tris)
{
Vector3Df p = t.GetClosestPointOnTriangle(pos);
float k = p.X + p.Y * 1000 + p.Z * 1000000;
uniquePoints[k] = p;
}
foreach (var point in uniquePoints.Values)
{
BillboardSceneNode n = sceneManager.AddBillboardSceneNode(null, new Dimension2Df(7.5f));
n.SetMaterialFlag(MaterialFlag.Lighting, false);
n.SetMaterialType(MaterialType.TransparentAddColor);
n.SetMaterialTexture(0, sceneManager.VideoDriver.GetTexture("../../media/particlewhite.bmp"));
n.Position = point;
var animator = sceneManager.CreateDeleteAnimator(0.1f);
n.AddAnimator(animator);
animator.Drop();
Vertex3D v1 = new Vertex3D(point);
Vertex3D v2 = new Vertex3D();
for (int i = 0; i < 10; i++)
{
v1.Color = colors[i];
v2.Color = colors[i + 1];
v2.Position = pos.GetInterpolated(point, i * 0.111);
if (i != 0 && i != 9) // do not displace first and last points
{
v2.Position += new Vector3Df((random.Next() % 10) - 5, (random.Next() % 10) - 5, (random.Next() % 10) - 5);
}
vertexBuffer.Add(v1);
vertexBuffer.Add(v2);
v1.Position = v2.Position;
}
}
}
indexBuffer.SetCount(vertexBuffer.Count);
sceneManager.VideoDriver.DrawVertexPrimitiveList(vertexBuffer, indexBuffer, PrimitiveType.Lines);
}
public P3DSimplexNoiseTerrain(SceneNode parent, SceneManager mgr, int id, int vertsPerRow, int vertsPerCol, int cellSpacing, float heightScale)
: base(parent, mgr, id)
{
_mgr = mgr;
_driver = _mgr.VideoDriver;
Material = new Material();
Material.Lighting = false;
_numVertsPerRow = vertsPerRow;
_numVertsPerCol = vertsPerCol;
_cellSpacing = cellSpacing;
_heightScale = heightScale;
_numCellsPerRow = _numVertsPerRow - 1;
_numCellsPerCol = _numVertsPerCol - 1;
_width = _numCellsPerRow * _cellSpacing;
_depth = _numCellsPerCol * _cellSpacing;
NumVertices = _numVertsPerRow * _numVertsPerCol;
_numIndices = (_numCellsPerRow * _numCellsPerCol) * 6;
_numTriangles = (_numCellsPerRow * _numCellsPerCol) * 2;
_indices = new ushort[_numIndices];
int startX = -_width / 2;
int startZ = _depth / 2;
int endX = _width / 2;
int endZ = -_depth / 2;
Box3D = new Box3D(new Vector3D(startX, -_heightScale, startZ), new Vector3D(endX, _heightScale, endZ));
const float uCoordIncrementSize = 1.0f;
const float vCoordIncrementSize = 1.0f;
_heights = new float[NumVertices];
int i = 0;
for (int z = startZ; z >= endZ; z -= _cellSpacing)
{
int j = 0;
for (int x = startX; x <= endX; x += _cellSpacing)
{
int index = i * _numVertsPerRow + j;
// large noise.
float height = PerlinSimplexNoise.noise(x * 0.0001f, z * 0.0001f) * _heightScale;
// detail noise.
height += PerlinSimplexNoise.noise(x * 0.001f, z * 0.001f) * _heightScale / 10;
Vertex3D v = new Vertex3D(
new Vector3D(x, height, z),
new Vector3D(0, 1, 0),
Color.Black,
new Vector2D(j * uCoordIncrementSize, i * vCoordIncrementSize)
);
_buffer.SetVertex((uint)index, v);
j++;
}
i++;
}
uint baseIndex = 0;
for (uint k = 0; k < _numCellsPerRow; k++)
{
for (uint j = 0; j < _numCellsPerCol; j++)
{
_buffer.SetIndex(baseIndex + 0, (ushort)(k * _numVertsPerRow + j));
_buffer.SetIndex(baseIndex + 1, (ushort)(k * _numVertsPerRow + j + 1));
_buffer.SetIndex(baseIndex + 2, (ushort)((k + 1) * _numVertsPerRow + j));
_buffer.SetIndex(baseIndex + 3, (ushort)((k + 1) * _numVertsPerRow + j));
_buffer.SetIndex(baseIndex + 4, (ushort)(k * _numVertsPerRow + j + 1));
_buffer.SetIndex(baseIndex + 5, (ushort)((k + 1) * _numVertsPerRow + j + 1));
baseIndex += 6;
}
}
}
public HitPoint(Vertex3D p, ItemType itemType, IItem item) : base(itemType, item)
{
P = p;
}
public void Draw(uint time)
{
removeDead(time);
Material mat = new Material();
mat.Type = MaterialType.TransparentVertexAlpha;
mat.Lighting = false;
sceneManager.VideoDriver.SetMaterial(mat);
sceneManager.VideoDriver.SetTransform(TransformationState.World, Matrix.Identity);
Random random = new Random();
Color[] colors = new Color[11]; // 11 colors (line count + 1, since each line has 2 points)
for (int i = 0; i < colors.Length; i++)
colors[i] = new Color(255, 255, 255, 255 - (10 - i) * 25);
vertexBuffer.SetCount(0);
foreach (var shot in shots)
{
Vector3Df pos = shot.node.Position;
AABBox box = new AABBox(pos - new Vector3Df(shotRadius), pos + new Vector3Df(shotRadius));
List<Triangle3Df> tris = worldTriangles.GetTriangles(box, 1000);
if (tris.Count == 0)
continue;
Dictionary<float, Vector3Df> uniquePoints = new Dictionary<float, Vector3Df>();
foreach (var t in tris)
{
Vector3Df p = t.GetClosestPointOnTriangle(pos);
float k = p.X + p.Y * 1000 + p.Z * 1000000;
uniquePoints[k] = p;
}
foreach (var point in uniquePoints.Values)
{
BillboardSceneNode n = sceneManager.AddBillboardSceneNode(null, new Dimension2Df(7.5f));
n.SetMaterialFlag(MaterialFlag.Lighting, false);
n.SetMaterialType(MaterialType.TransparentAddColor);
n.SetMaterialTexture(0, sceneManager.VideoDriver.GetTexture("../../media/particlewhite.bmp"));
n.Position = point;
n.AddAnimator(sceneManager.CreateDeleteAnimator(0.1f));
n.AnimatorList[0].Drop();
Vertex3D v1 = new Vertex3D(point);
Vertex3D v2 = new Vertex3D();
for (int i = 0; i < 10; i++)
{
v1.Color = colors[i];
v2.Color = colors[i + 1];
v2.Position = pos.GetInterpolated(point, i * 0.111);
if (i != 0 && i != 9) // do not displace first and last points
v2.Position += new Vector3Df((random.Next() % 10) - 5, (random.Next() % 10) - 5, (random.Next() % 10) - 5);
vertexBuffer.Add(v1);
vertexBuffer.Add(v2);
v1.Position = v2.Position;
}
}
}
indexBuffer.SetCount(vertexBuffer.Count);
sceneManager.VideoDriver.DrawVertexPrimitiveList(vertexBuffer, indexBuffer, PrimitiveType.Lines);
}
internal void GenerateColliders(float playfieldHeight, ICollection <ICollider> colliders)
{
var localToPlayfield = MeshGenerator.GetTransformationMatrix();
// QUICK FIX and TODO for Cupiii
/* hitmesh should not be generated by the Mesh generator. Drop Targets need special Hitshapes, that shoujld be very simple and cannot be activated from behind.
* var hitMesh = MeshGenerator.GetMesh();
* for (var i = 0; i < hitMesh.Vertices.Length; i++) {
* hitMesh.Vertices[i].MultiplyMatrix(localToPlayfield);
* }
*
* var addedEdges = EdgeSet.Get();
*
* GenerateCollidables(hitMesh, addedEdges, Data.IsLegacy, colliders);
*/
var addedEdges = EdgeSet.Get();
var tempMatrix = new Matrix3D().RotateZMatrix(MathF.DegToRad(Data.RotZ));
var fullMatrix = new Matrix3D().Multiply(tempMatrix);
//if (!Data.IsLegacy) // Always generate special hitshapes (QUICKFIX)
{
var rgv3D = new Vertex3D[DropTargetHitPlaneVertices.Length];
var hitShapeOffset = 0.18f;
if (Data.TargetType == TargetType.DropTargetBeveled)
{
hitShapeOffset = 0.25f;
}
if (Data.TargetType == TargetType.DropTargetFlatSimple)
{
hitShapeOffset = 0.13f;
}
// now create a special hit shape with hit event enabled to prevent a hit event when hit from behind
for (var i = 0; i < DropTargetHitPlaneVertices.Length; i++)
{
var dropTargetHitPlaneVertex = DropTargetHitPlaneVertices[i];
var vert = new Vertex3D(
dropTargetHitPlaneVertex.x,
dropTargetHitPlaneVertex.y + hitShapeOffset,
dropTargetHitPlaneVertex.z
);
vert.X *= Data.ScaleX;
vert.Y *= Data.ScaleY;
vert.Z *= Data.ScaleZ;
vert = vert.MultiplyMatrix(fullMatrix);
rgv3D[i] = new Vertex3D(
vert.X + Data.PositionX,
vert.Y + Data.PositionY,
vert.Z + Data.PositionZ + playfieldHeight
);
}
for (var i = 0; i < DropTargetHitPlaneIndices.Length; i += 3)
{
var i0 = DropTargetHitPlaneIndices[i];
var i1 = DropTargetHitPlaneIndices[i + 1];
var i2 = DropTargetHitPlaneIndices[i + 2];
// NB: HitTriangle wants CCW vertices, but for rendering we have them in CW order
var rgv0 = rgv3D[i0].ToUnityFloat3();
var rgv1 = rgv3D[i1].ToUnityFloat3();
var rgv2 = rgv3D[i2].ToUnityFloat3();
colliders.Add(new TriangleCollider(rgv0, rgv2, rgv1, GetColliderInfo(true)));
if (addedEdges.ShouldAddHitEdge(i0, i1))
{
colliders.Add(new Line3DCollider(rgv0, rgv2, GetColliderInfo(true)));
}
if (addedEdges.ShouldAddHitEdge(i1, i2))
{
colliders.Add(new Line3DCollider(rgv2, rgv1, GetColliderInfo(true)));
}
if (addedEdges.ShouldAddHitEdge(i2, i0))
{
colliders.Add(new Line3DCollider(rgv1, rgv0, GetColliderInfo(true)));
}
}
// add collision vertices
for (var i = 0; i < DropTargetHitPlaneVertices.Length; ++i)
{
colliders.Add(new PointCollider(rgv3D[i].ToUnityFloat3(), GetColliderInfo(true)));
}
}
}
protected float HitTestBasicRadius(Ball ball, float dTime, CollisionEvent coll, bool direction, bool lateral, bool rigid)
{
if (!IsEnabled || ball.State.IsFrozen)
{
return(-1.0f);
}
var c = new Vertex3D(Center.X, Center.Y, 0.0f);
var dist = ball.State.Pos.Clone().Sub(c); // relative ball position
var dv = ball.Hit.Vel.Clone();
var capsule3D = !lateral && ball.State.Pos.Z > HitBBox.ZHigh;
var isKicker = ObjType == ItemType.Kicker;
var isKickerOrTrigger = ObjType == ItemType.Trigger || ObjType == ItemType.Kicker;
float targetRadius;
if (capsule3D)
{
targetRadius = Radius * (float)(13.0 / 5.0);
c.Z = HitBBox.ZHigh - Radius * (float)(12.0 / 5.0);
dist.Z = ball.State.Pos.Z - c.Z; // ball rolling point - capsule center height
}
else
{
targetRadius = Radius;
if (lateral)
{
targetRadius += ball.Data.Radius;
}
dist.Z = 0.0f;
dv.Z = 0.0f;
}
var bcddsq = dist.LengthSq(); // ball center to circle center distance ... squared
var bcdd = MathF.Sqrt(bcddsq); // distance center to center
if (bcdd <= 1.0e-6)
{
// no hit on exact center
return(-1.0f);
}
var b = dist.Dot(dv);
var bnv = b / bcdd; // ball normal velocity
if (direction && bnv > PhysicsConstants.LowNormVel)
{
// clearly receding from radius
return(-1.0f);
}
var bnd = bcdd - targetRadius; // ball normal distance to
var a = dv.LengthSq();
var hitTime = 0f;
var isUnhit = false;
var isContact = false;
// Kicker is special.. handle ball stalled on kicker, commonly hit while receding, knocking back into kicker pocket
if (isKicker && bnd <= 0 && bnd >= -Radius &&
a < PhysicsConstants.ContactVel * PhysicsConstants.ContactVel && ball.Hit.IsRealBall())
{
if (ball.Hit.VpVolObjs.Contains(Obj))
{
ball.Hit.VpVolObjs.Remove(Obj); // cause capture
}
}
// contact positive possible in future ... objects Negative in contact now
if (rigid && bnd < PhysicsConstants.PhysTouch)
{
if (bnd < -ball.Data.Radius)
{
return(-1.0f);
}
if (MathF.Abs(bnv) <= PhysicsConstants.ContactVel)
{
isContact = true;
}
else
{
// estimate based on distance and speed along distance
// the ball can be that fast that in the next hit cycle the ball will be inside the hit shape of a bumper or other element.
// if that happens bnd is negative and greater than the negative bnv value that results in a negative hittime
// below the "if (infNan(hittime) || hittime <0.F...)" will then be true and the hit function will return -1.0f = no hit
hitTime = MathF.Max(0.0f, (float)(-bnd / bnv));
}
}
else if (isKickerOrTrigger && ball.Hit.IsRealBall() && bnd < 0 == ball.Hit.VpVolObjs.IndexOf(Obj) < 0)
{
// triggers & kickers
// here if ... ball inside and no hit set .... or ... ball outside and hit set
if (MathF.Abs(bnd - Radius) < 0.05)
{
// if ball appears in center of trigger, then assumed it was gen"ed there
ball.Hit.VpVolObjs.Add(Obj); // special case for trigger overlaying a kicker
}
else
{
// this will add the ball to the trigger space without a Hit
isUnhit = bnd > 0; // ball on outside is UnHit, otherwise it"s a Hit
}
}
else
{
if (!rigid && bnd * bnv > 0 || a < 1.0e-8)
{
// (outside and receding) or (inside and approaching)
// no hit ... ball not moving relative to object
return(-1.0f);
}
var sol = Functions.SolveQuadraticEq(a, 2.0f * b, bcddsq - targetRadius * targetRadius);
if (sol == null)
{
return(-1.0f);
}
var(time1, time2) = sol;
isUnhit = time1 * time2 < 0;
hitTime = isUnhit ? MathF.Max(time1, time2) : MathF.Min(time1, time2); // ball is inside the circle
}
if (float.IsNaN(hitTime) || float.IsInfinity(hitTime) || hitTime < 0 || hitTime > dTime)
{
// contact out of physics frame
return(-1.0f);
}
var hitZ = ball.State.Pos.Z + ball.Hit.Vel.Z * hitTime; // rolling point
if (hitZ + ball.Data.Radius * 0.5 < HitBBox.ZLow ||
!capsule3D && hitZ - ball.Data.Radius * 0.5 > HitBBox.ZHigh ||
capsule3D && hitZ < HitBBox.ZHigh)
{
return(-1.0f);
}
var hitX = ball.State.Pos.X + ball.Hit.Vel.X * hitTime;
var hitY = ball.State.Pos.Y + ball.Hit.Vel.Y * hitTime;
var sqrLen = (hitX - c.X) * (hitX - c.X) + (hitY - c.Y) * (hitY - c.Y);
coll.HitNormal.SetZero();
// over center?
if (sqrLen > 1.0e-8)
{
// no
var invLen = 1.0f / MathF.Sqrt(sqrLen);
coll.HitNormal.X = (hitX - c.X) * invLen;
coll.HitNormal.Y = (hitY - c.Y) * invLen;
}
else
{
// yes, over center
coll.HitNormal.X = 0.0f; // make up a value, any direction is ok
coll.HitNormal.Y = 1.0f;
coll.HitNormal.Z = 0.0f;
}
if (!rigid)
{
// non rigid body collision? return direction
coll.HitFlag = isUnhit; // UnHit signal is receding from target
}
coll.IsContact = isContact;
if (isContact)
{
coll.HitOrgNormalVelocity = bnv;
}
coll.HitDistance = bnd; // actual contact distance ...
//coll.M_hitRigid = rigid; // collision type
return(hitTime);
}
public ATMOSkySceneNode(Texture tex, SceneNode parent, SceneManager mgr, int faces, int id)
: base(parent, mgr, id)
{
smgr = mgr;
AutomaticCulling = CullingType.Off;
material = new Material();
material.Lighting = false;
material.ZBuffer = 0;
material.Texture1 = tex;
face = faces;
vertices = new Vertex3D[face + 1];
indices = new ushort[face * 3];
double angle = 0.0f;
double angle2 = 360.0f / face;
vert = 0; //vertice nr
int nr = -3; //indices nr
vertices[0] = new Vertex3D(Vector3D.From(0.0f, 100.0f, 0.0f),
Vector3D.From(0.0568988f, 0.688538f, -0.722965f),
Color.White,
Vector2D.From(0.0f, 0.1f)
);
for (ushort n = 1; n < face + 1; n++)
{
vert++;
nr += 3;
double x = Math.Cos(angle * 0.017453292519943295769236907684886f) * 100;
double z = Math.Sin(angle * 0.017453292519943295769236907684886f) * 100;
vertices[vert] = new Vertex3D(Vector3D.From((float)x, -5.0f, (float)z),
Vector3D.From(0.0568988f, 0.688538f, -0.722965f),
Color.White,
Vector2D.From(0.0f, 0.9f)
);
angle = angle + angle2;
indices[nr] = 0;
indices[nr + 1] = (ushort)vert;
indices[nr + 2] = (ushort)(vert + 1);
}
indices[nr + 2] = 1;
}
public HitObject[] GenerateHitObjects(Table.Table table, IItem item)
{
var hitObjects = new List <HitObject>();
var rv = _meshGenerator.GetRampVertex(table, PhysicsConstants.HitShapeDetailLevel, true);
var rgvLocal = rv.RgvLocal;
var rgHeight1 = rv.PointHeights;
var vertexCount = rv.VertexCount;
var(wallHeightRight, wallHeightLeft) = GetWallHeights();
Vertex2D pv1, pv2, pv3 = new Vertex2D(), pv4 = new Vertex2D();
// Add line segments for right ramp wall.
if (wallHeightRight > 0.0f)
{
for (var i = 0; i < vertexCount - 1; i++)
{
pv2 = rgvLocal[i];
pv3 = rgvLocal[i + 1];
hitObjects.AddRange(GenerateWallLineSeg(pv2, pv3, i > 0,
rgHeight1[i], rgHeight1[i + 1], wallHeightRight, item));
hitObjects.AddRange(GenerateWallLineSeg(pv3, pv2, i < vertexCount - 2,
rgHeight1[i], rgHeight1[i + 1], wallHeightRight, item));
// add joints at start and end of right wall
if (i == 0)
{
hitObjects.Add(GenerateJoint2D(pv2, rgHeight1[0], rgHeight1[0] + wallHeightRight, item));
}
if (i == vertexCount - 2)
{
hitObjects.Add(GenerateJoint2D(pv3, rgHeight1[vertexCount - 1],
rgHeight1[vertexCount - 1] + wallHeightRight, item));
}
}
}
// Add line segments for left ramp wall.
if (wallHeightLeft > 0.0f)
{
for (var i = 0; i < vertexCount - 1; i++)
{
pv2 = rgvLocal[vertexCount + i];
pv3 = rgvLocal[vertexCount + i + 1];
hitObjects.AddRange(GenerateWallLineSeg(pv2, pv3, i > 0,
rgHeight1[vertexCount - i - 2], rgHeight1[vertexCount - i - 1], wallHeightLeft, item));
hitObjects.AddRange(GenerateWallLineSeg(pv3, pv2, i < vertexCount - 2,
rgHeight1[vertexCount - i - 2], rgHeight1[vertexCount - i - 1], wallHeightLeft, item));
// add joints at start and end of left wall
if (i == 0)
{
hitObjects.Add(GenerateJoint2D(pv2, rgHeight1[vertexCount - 1],
rgHeight1[vertexCount - 1] + wallHeightLeft, item));
}
if (i == vertexCount - 2)
{
hitObjects.Add(GenerateJoint2D(pv3, rgHeight1[0], rgHeight1[0] + wallHeightLeft, item));
}
}
}
// Add hit triangles for the ramp floor.
HitTriangle ph3dpoly, ph3dpolyOld = null;
Vertex3D[] rgv3D;
for (var i = 0; i < vertexCount - 1; i++)
{
/*
* Layout of one ramp quad seen from above, ramp direction is bottom to top:
*
* 3 - - 4
* | \ |
* | \ |
* 2 - - 1
*/
pv1 = rgvLocal[i]; // i-th right
pv2 = rgvLocal[vertexCount * 2 - i - 1]; // i-th left
pv3 = rgvLocal[vertexCount * 2 - i - 2]; // (i+1)-th left
pv4 = rgvLocal[i + 1]; // (i+1)-th right
// left ramp floor triangle, CCW order
rgv3D = new [] {
new Vertex3D(pv2.X, pv2.Y, rgHeight1[i]),
new Vertex3D(pv1.X, pv1.Y, rgHeight1[i]),
new Vertex3D(pv3.X, pv3.Y, rgHeight1[i + 1])
};
// add joint for starting edge of ramp
if (i == 0)
{
hitObjects.Add(GenerateJoint(rgv3D[0], rgv3D[1], item));
}
// add joint for left edge
hitObjects.Add(GenerateJoint(rgv3D[0], rgv3D[2], item));
//!! this is not efficient at all, use native triangle-soup directly somehow
ph3dpoly = new HitTriangle(rgv3D, ItemType.Ramp, item);
if (!ph3dpoly.IsDegenerate) // degenerate triangles happen if width is 0 at some point
{
hitObjects.Add(ph3dpoly);
hitObjects.AddRange(CheckJoint(ph3dpolyOld, ph3dpoly, item));
ph3dpolyOld = ph3dpoly;
}
// right ramp floor triangle, CCW order
rgv3D = new [] {
new Vertex3D(pv3.X, pv3.Y, rgHeight1[i + 1]),
new Vertex3D(pv1.X, pv1.Y, rgHeight1[i]),
new Vertex3D(pv4.X, pv4.Y, rgHeight1[i + 1])
};
// add joint for right edge
hitObjects.Add(GenerateJoint(rgv3D[1], rgv3D[2], item));
ph3dpoly = new HitTriangle(rgv3D, ItemType.Ramp, item);
if (!ph3dpoly.IsDegenerate)
{
hitObjects.Add(ph3dpoly);
}
hitObjects.AddRange(CheckJoint(ph3dpolyOld, ph3dpoly, item));
ph3dpolyOld = ph3dpoly;
}
if (vertexCount >= 2)
{
// add joint for final edge of ramp
var v1 = new Vertex3D(pv4.X, pv4.Y, rgHeight1[vertexCount - 1]);
var v2 = new Vertex3D(pv3.X, pv3.Y, rgHeight1[vertexCount - 1]);
hitObjects.Add(GenerateJoint(v1, v2, item));
}
// add outside bottom,
// joints at the intersections are not needed since the inner surface has them
// this surface is identical... except for the direction of the normal face.
// hence the joints protect both surface edges from having a fall through
for (var i = 0; i < vertexCount - 1; i++)
{
// see sketch above
pv1 = rgvLocal[i];
pv2 = rgvLocal[vertexCount * 2 - i - 1];
pv3 = rgvLocal[vertexCount * 2 - i - 2];
pv4 = rgvLocal[i + 1];
// left ramp triangle, order CW
rgv3D = new[] {
new Vertex3D(pv1.X, pv1.Y, rgHeight1[i]),
new Vertex3D(pv2.X, pv2.Y, rgHeight1[i]),
new Vertex3D(pv3.X, pv3.Y, rgHeight1[i + 1])
};
ph3dpoly = new HitTriangle(rgv3D, ItemType.Ramp, item);
if (!ph3dpoly.IsDegenerate)
{
hitObjects.Add(ph3dpoly);
}
// right ramp triangle, order CW
rgv3D = new[] {
new Vertex3D(pv3.X, pv3.Y, rgHeight1[i + 1]),
new Vertex3D(pv4.X, pv4.Y, rgHeight1[i + 1]),
new Vertex3D(pv1.X, pv1.Y, rgHeight1[i])
};
ph3dpoly = new HitTriangle(rgv3D, ItemType.Ramp, item);
if (!ph3dpoly.IsDegenerate)
{
hitObjects.Add(ph3dpoly);
}
}
return(hitObjects
.Select(obj => SetupHitObject(obj, table))
.ToArray());
}
public new IRenderVertex Set(Vertex3D v)
{
base.Set(v);
return(this);
}
private void meshGeneratorThread_generateMesh(int layerIndex)
{
GridLayer l = layers[layerIndex];
if (l.Mesh != null)
{
l.Mesh.Drop();
}
l.Mesh = Mesh.Create();
if (gridCubeCount > 0)
{
Vertex3D[] cubeVerts = null;
ushort[] cubeInds = null;
int cubeIndex = maxCubesPerBuffer; // this way we force buffers to be recreated at next new cube
int totalCubesAdded = 0;
float baseX = -(CubeSize * GridDim) / 2;
float baseZ = -(CubeSize * GridDim) / 2;
for (int i = 0; i < GridDim; i++)
{
for (int j = 0; j < GridDim; j++)
{
if (grid[i, j] == 0)
{
continue;
}
// check if current buffer is out of room, if so make a mesh buffer and attach it to the gridMesh and init next cubeVerts&Inds
if (cubeIndex == maxCubesPerBuffer)
{
if (cubeVerts != null && cubeInds != null)
{
MeshBuffer b = MeshBuffer.Create(VertexType.Standard, IndexType._16Bit);
b.Append(cubeVerts, cubeInds);
l.Mesh.AddMeshBuffer(b);
b.Drop();
totalCubesAdded += cubeIndex;
}
int cubeCount = gridCubeCount - totalCubesAdded;
if (cubeCount > maxCubesPerBuffer)
{
cubeCount = maxCubesPerBuffer;
}
cubeIndex = 0;
cubeVerts = new Vertex3D[cubeCount * 8]; // 8 verts per cube
cubeInds = new ushort[cubeCount * 3 * 2 * 6]; // 3 indices per triangle; 2 triangles per face; 6 faces per cube
}
// build the cube and add it
// note: we build 8 vertices cube because we don't need to texture it; if you want to change that (to use texture instead of vertex colors) - you need to build 12 vertices cube and initialize UV coords
float x = baseX + i * CubeSize;
float y = 0;
float z = baseZ + j * CubeSize;
int iv = cubeIndex * 8;
cubeVerts[iv + 0] = new Vertex3D(x, y, z);
cubeVerts[iv + 1] = new Vertex3D(x + CubeSize, y, z);
cubeVerts[iv + 2] = new Vertex3D(x + CubeSize, y + CubeSize, z);
cubeVerts[iv + 3] = new Vertex3D(x, y + CubeSize, z);
cubeVerts[iv + 4] = new Vertex3D(x, y, z + CubeSize);
cubeVerts[iv + 5] = new Vertex3D(x + CubeSize, y, z + CubeSize);
cubeVerts[iv + 6] = new Vertex3D(x + CubeSize, y + CubeSize, z + CubeSize);
cubeVerts[iv + 7] = new Vertex3D(x, y + CubeSize, z + CubeSize);
int ii = cubeIndex * 3 * 2 * 6;
// top
cubeInds[ii + 0] = (ushort)(iv + 3);
cubeInds[ii + 1] = (ushort)(iv + 7);
cubeInds[ii + 2] = (ushort)(iv + 6);
cubeInds[ii + 3] = (ushort)(iv + 3);
cubeInds[ii + 4] = (ushort)(iv + 6);
cubeInds[ii + 5] = (ushort)(iv + 2);
// front
cubeInds[ii + 6] = (ushort)(iv + 0);
cubeInds[ii + 7] = (ushort)(iv + 3);
cubeInds[ii + 8] = (ushort)(iv + 2);
cubeInds[ii + 9] = (ushort)(iv + 0);
cubeInds[ii + 10] = (ushort)(iv + 2);
cubeInds[ii + 11] = (ushort)(iv + 1);
// right
cubeInds[ii + 12] = (ushort)(iv + 1);
cubeInds[ii + 13] = (ushort)(iv + 2);
cubeInds[ii + 14] = (ushort)(iv + 6);
cubeInds[ii + 15] = (ushort)(iv + 1);
cubeInds[ii + 16] = (ushort)(iv + 6);
cubeInds[ii + 17] = (ushort)(iv + 5);
// left
cubeInds[ii + 18] = (ushort)(iv + 0);
cubeInds[ii + 19] = (ushort)(iv + 4);
cubeInds[ii + 20] = (ushort)(iv + 7);
cubeInds[ii + 21] = (ushort)(iv + 0);
cubeInds[ii + 22] = (ushort)(iv + 7);
cubeInds[ii + 23] = (ushort)(iv + 3);
// back
cubeInds[ii + 24] = (ushort)(iv + 4);
cubeInds[ii + 25] = (ushort)(iv + 5);
cubeInds[ii + 26] = (ushort)(iv + 6);
cubeInds[ii + 27] = (ushort)(iv + 4);
cubeInds[ii + 28] = (ushort)(iv + 6);
cubeInds[ii + 29] = (ushort)(iv + 7);
// bottom
cubeInds[ii + 30] = (ushort)(iv + 0);
cubeInds[ii + 31] = (ushort)(iv + 1);
cubeInds[ii + 32] = (ushort)(iv + 5);
cubeInds[ii + 33] = (ushort)(iv + 0);
cubeInds[ii + 34] = (ushort)(iv + 5);
cubeInds[ii + 35] = (ushort)(iv + 4);
cubeIndex++;
}
}
if (cubeIndex > 0)
{
MeshBuffer b = MeshBuffer.Create(VertexType.Standard, IndexType._16Bit);
b.Append(cubeVerts, cubeInds);
l.Mesh.AddMeshBuffer(b);
b.Drop();
}
device.SceneManager.MeshManipulator.SetVertexColors(l.Mesh, cubeColor);
}
l.Transform.Rotation = new Vector3Df(gridGeneration * 0.93f, gridGeneration * 0.81f, gridGeneration * 0.69f);
l.Generation = gridGeneration;
l.CubeCount = gridCubeCount;
l.MeshIsReady = true;
}
private Vertex3DNoTex2[] CreateWire(int numRings, int numSegments, IReadOnlyList <Vertex2D> midPoints, IReadOnlyList <float> initialHeights)
{
var vertices = new Vertex3DNoTex2[numRings * numSegments];
var prev = new Vertex3D();
var index = 0;
for (var i = 0; i < numRings; i++)
{
var i2 = i == numRings - 1 ? i : i + 1;
var height = initialHeights[i];
var tangent = new Vertex3D(
midPoints[i2].X - midPoints[i].X,
midPoints[i2].Y - midPoints[i].Y,
initialHeights[i2] - initialHeights[i]
);
if (i == numRings - 1)
{
// for the last spline point use the previous tangent again, otherwise we won't see the complete wire (it stops one control point too early)
tangent.X = midPoints[i].X - midPoints[i - 1].X;
tangent.Y = midPoints[i].Y - midPoints[i - 1].Y;
}
Vertex3D biNormal;
Vertex3D normal;
if (i == 0)
{
var up = new Vertex3D(
midPoints[i2].X + midPoints[i].X,
midPoints[i2].Y + midPoints[i].Y,
initialHeights[i2] - height
);
normal = Vertex3D.CrossProduct(tangent, up); //normal
biNormal = Vertex3D.CrossProduct(tangent, normal);
}
else
{
normal = Vertex3D.CrossProduct(prev, tangent);
biNormal = Vertex3D.CrossProduct(tangent, normal);
}
biNormal.Normalize();
normal.Normalize();
prev = biNormal;
var invNumRings = 1.0f / numRings;
var invNumSegments = 1.0f / numSegments;
var u = i * invNumRings;
for (var j = 0; j < numSegments; j++, index++)
{
var v = (j + u) * invNumSegments;
var tmp = Vertex3D.GetRotatedAxis(j * (360.0f * invNumSegments), tangent, normal) * (_data.WireDiameter * 0.5f);
vertices[index] = new Vertex3DNoTex2 {
X = midPoints[i].X + tmp.X,
Y = midPoints[i].Y + tmp.Y,
Z = height + tmp.Z,
Tu = u,
Tv = v
};
// normals
var n = new Vertex3D(
vertices[index].X - midPoints[i].X,
vertices[index].Y - midPoints[i].Y,
vertices[index].Z - height
);
var len = 1.0f / MathF.Sqrt(n.X * n.X + n.Y * n.Y + n.Z * n.Z);
vertices[index].Nx = n.X * len;
vertices[index].Ny = n.Y * len;
vertices[index].Nz = n.Z * len;
}
}
return(vertices);
}
/* istanbul ignore never next executed below the "magic" check (https://www.vpforums.org/index.php?showtopic=42690) */
public void CreateNextLevel(int level, int levelEmpty)
{
var orgItems = Items & 0x3FFFFFFF;
// !! magic
if (orgItems <= 4 || level >= 128 / 2)
{
return;
}
var vDiag = new Vertex3D(
RectBounds.Right - RectBounds.Left,
RectBounds.Bottom - RectBounds.Top,
RectBounds.ZHigh - RectBounds.ZLow
);
int axis;
if (vDiag.X > vDiag.Y && vDiag.X > vDiag.Z)
{
if (vDiag.X < 0.0001)
{
return;
}
axis = 0;
}
else if (vDiag.Y > vDiag.Z)
{
if (vDiag.Y < 0.0001)
{
return;
}
axis = 1;
}
else
{
if (vDiag.Z < 0.0001)
{
return;
}
axis = 2;
}
//!! weight this with ratio of elements going to middle vs left&right! (avoids volume split that goes directly through object)
// create children, calc bboxes
_children = _hitOct.AllocTwoNodes();
if (_children.Length == 0)
{
// ran out of nodes - abort
return;
}
_children[0].RectBounds = RectBounds;
_children[1].RectBounds = RectBounds;
var vCenter = new Vertex3D(
(RectBounds.Left + RectBounds.Right) * 0.5f,
(RectBounds.Top + RectBounds.Bottom) * 0.5f,
(RectBounds.ZLow + RectBounds.ZHigh) * 0.5f
);
if (axis == 0)
{
_children[0].RectBounds.Right = vCenter.X;
_children[1].RectBounds.Left = vCenter.X;
}
else if (axis == 1)
{
_children[0].RectBounds.Bottom = vCenter.Y;
_children[1].RectBounds.Top = vCenter.Y;
}
else
{
_children[0].RectBounds.ZHigh = vCenter.Z;
_children[1].RectBounds.ZLow = vCenter.Z;
}
_children[0]._hitOct = _hitOct; //!! meh
_children[0].Items = 0;
_children[0]._children = null;
_children[1]._hitOct = _hitOct; //!! meh
_children[1].Items = 0;
_children[1]._children = null;
// determine amount of items that cross splitplane, or are passed on to the children
if (axis == 0)
{
for (var i = Start; i < Start + orgItems; ++i)
{
var pho = _hitOct.GetItemAt(i);
if (pho.HitBBox.Right < vCenter.X)
{
_children[0].Items++;
}
else if (pho.HitBBox.Left > vCenter.X)
{
_children[1].Items++;
}
}
}
else if (axis == 1)
{
for (var i = Start; i < Start + orgItems; ++i)
{
var pho = _hitOct.GetItemAt(i);
if (pho.HitBBox.Bottom < vCenter.Y)
{
_children[0].Items++;
}
else if (pho.HitBBox.Top > vCenter.Y)
{
_children[1].Items++;
}
}
}
else
{
// axis == 2
for (var i = Start; i < Start + orgItems; ++i)
{
var pho = _hitOct.GetItemAt(i);
if (pho.HitBBox.ZHigh < vCenter.Z)
{
_children[0].Items++;
}
else if (pho.HitBBox.ZLow > vCenter.Z)
{
_children[1].Items++;
}
}
}
// check if at least two nodes feature objects, otherwise don"t bother subdividing further
var countEmpty = 0;
if (_children[0].Items == 0)
{
countEmpty = 1;
}
if (_children[1].Items == 0)
{
++countEmpty;
}
if (orgItems - _children[0].Items - _children[1].Items == 0)
{
++countEmpty;
}
if (countEmpty >= 2)
{
++levelEmpty;
}
else
{
levelEmpty = 0;
}
if (levelEmpty > 8)
{
// If 8 levels were all just subdividing the same objects without luck, exit & Free the nodes again (but at least empty space was cut off)
_hitOct.NumNodes -= 2;
_children = null;
return;
}
_children[0].Start = Start + orgItems - _children[0].Items - _children[1].Items;
_children[1].Start = _children[0].Start + _children[0].Items;
var items = 0;
_children[0].Items = 0;
_children[1].Items = 0;
switch (axis)
{
// sort items that cross splitplane in-place, the others are sorted into a temporary
case 0: {
for (var i = Start; i < Start + orgItems; ++i)
{
var pho = _hitOct.GetItemAt(i);
if (pho.HitBBox.Right < vCenter.X)
{
_hitOct.Indices[_children[0].Start + _children[0].Items++] = _hitOct.OrgIdx[i];
}
else if (pho.HitBBox.Left > vCenter.X)
{
_hitOct.Indices[_children[1].Start + _children[1].Items++] = _hitOct.OrgIdx[i];
}
else
{
_hitOct.OrgIdx[Start + items++] = _hitOct.OrgIdx[i];
}
}
break;
}
case 1: {
for (var i = Start; i < Start + orgItems; ++i)
{
var pho = _hitOct.GetItemAt(i);
if (pho.HitBBox.Bottom < vCenter.Y)
{
_hitOct.Indices[_children[0].Start + _children[0].Items++] = _hitOct.OrgIdx[i];
}
else if (pho.HitBBox.Top > vCenter.Y)
{
_hitOct.Indices[_children[1].Start + _children[1].Items++] = _hitOct.OrgIdx[i];
}
else
{
_hitOct.OrgIdx[Start + items++] = _hitOct.OrgIdx[i];
}
}
break;
}
default: { // axis == 2
for (var i = Start; i < Start + orgItems; ++i)
{
var pho = _hitOct.GetItemAt(i);
if (pho.HitBBox.ZHigh < vCenter.Z)
{
_hitOct.Indices[_children[0].Start + _children[0].Items++] = _hitOct.OrgIdx[i];
}
else if (pho.HitBBox.ZLow > vCenter.Z)
{
_hitOct.Indices[_children[1].Start + _children[1].Items++] = _hitOct.OrgIdx[i];
}
else
{
_hitOct.OrgIdx[Start + items++] = _hitOct.OrgIdx[i];
}
}
break;
}
}
// The following assertions hold after this step:
//assert( this.Start + items == this.Children[0].This.Start );
//assert( this.Children[0].This.Start + this.Children[0].This.Items == this.Children[1].This.Start );
//assert( this.Children[1].This.Start + this.Children[1].This.Items == this.Start + org_items );
//assert( this.Start + org_items <= this.HitOct->tmp.Size() );
Items = items | (axis << 30);
// copy temporary back //!! could omit this by doing everything inplace
for (var i = 0; i < _children[0].Items; i++)
{
_hitOct.OrgIdx[_children[0].Start + i] = _hitOct.Indices[_children[0].Start + i];
}
for (var i = 0; i < _children[1].Items; i++)
{
_hitOct.OrgIdx[_children[1].Start + i] = _hitOct.Indices[_children[1].Start + i];
}
//memcpy(&this.HitOct->m_org_idx[this.Children[0].Start], &this.HitOct->tmp[this.Children[0].Start], this.Children[0].Items*sizeof(unsigned int));
//memcpy(&this.HitOct->m_org_idx[this.Children[1].Start], &this.HitOct->tmp[this.Children[1].Start], this.Children[1].This.Items*sizeof(unsigned int));
_children[0].CreateNextLevel(level + 1, levelEmpty);
_children[1].CreateNextLevel(level + 1, levelEmpty);
}
public HitTargetData(string name, float x, float y) : base(StoragePrefix.GameItem)
{
Name = name;
Position = new Vertex3D(x, y, 0f);
}
private Vertex3D[] GenerateMesh(ref Vector3 position, ref float width, ref float height, ref float depth, ref float cwRadsAroundY, ref RectangularCuboidMeshTexCoords tex)
{
var rotationMatrix = Matrix4x4.CreateRotationY(-cwRadsAroundY);
var normals = new Vector3[]
{
new Vector3(0.0f, 0.0f, -1.0f),
new Vector3(1.0f, 0.0f, 0.0f),
new Vector3(0.0f, 0.0f, 1.0f),
new Vector3(-1.0f, 0.0f, 0.0f),
new Vector3(0.0f, 1.0f, 0.0f),
new Vector3(0.0f, -1.0f, 0.0f),
};
for (var n = 0; n < 6; n++)
{
//Extra normalise not really needed, but might clean up some fp rounding errors
normals[n] = Vector3.Normalize(Vector3.Transform(normals[n], rotationMatrix));
}
/*
* Coordinate System is RHS, with y upwards and z positive into camera
*
* The faces are set out on the cube such that
* 1 to 4: side faces, with side one facing along z (into camera) for an unrotated cube mesh (up is positive y)
* 1 = back face, normal along negative z
* 2 = right face, normal along positive x
* 3 = front face, normal along positive z
* 4 = left face, normal along negative x
* side 5 is top face. with the top of that 2d area being furthest along negative z in the above example
* side 6 is bottom face. orientated so that upon rotating the above mentioned around the x axis the
* top and bottom face would appear the same way up when facing the camera
* i.e. when unrotated the top of the 2d area will be closest to camera upside down (highest z value).
* a little tricky to describe - but should be roughly "as expected"
*/
var mesh = new Vertex3D[]
{
//Face 1
new Vertex3D
{
Position = new Vector3(1.0f, -1.0f, -1.0f),
TexCoord = tex.One.BottomLeft,
Normal = normals[0]
},
new Vertex3D
{
Position = new Vector3(1.0f, 1.0f, -1.0f),
TexCoord = tex.One.TopLeft,
Normal = normals[0]
},
new Vertex3D
{
Position = new Vector3(-1.0f, 1.0f, -1.0f),
TexCoord = tex.One.TopRight,
Normal = normals[0]
},
new Vertex3D
{
Position = new Vector3(1.0f, -1.0f, -1.0f),
TexCoord = tex.One.BottomLeft,
Normal = normals[0]
},
new Vertex3D
{
Position = new Vector3(-1.0f, 1.0f, -1.0f),
TexCoord = tex.One.TopRight,
Normal = normals[0]
},
new Vertex3D
{
Position = new Vector3(-1.0f, -1.0f, -1.0f),
TexCoord = tex.One.BottomRight,
Normal = normals[0]
},
//Face 2
new Vertex3D
{
Position = new Vector3(1.0f, -1.0f, 1.0f),
TexCoord = tex.Two.BottomLeft,
Normal = normals[1]
},
new Vertex3D
{
Position = new Vector3(1.0f, 1.0f, 1.0f),
TexCoord = tex.Two.TopLeft,
Normal = normals[1]
},
new Vertex3D
{
Position = new Vector3(1.0f, 1.0f, -1.0f),
TexCoord = tex.Two.TopRight,
Normal = normals[1]
},
new Vertex3D
{
Position = new Vector3(1.0f, -1.0f, 1.0f),
TexCoord = tex.Two.BottomLeft,
Normal = normals[1]
},
new Vertex3D
{
Position = new Vector3(1.0f, 1.0f, -1.0f),
TexCoord = tex.Two.TopRight,
Normal = normals[1]
},
new Vertex3D
{
Position = new Vector3(1.0f, -1.0f, -1.0f),
TexCoord = tex.Two.BottomRight,
Normal = normals[1]
},
//Face 3
new Vertex3D
{
Position = new Vector3(-1.0f, -1.0f, 1.0f),
TexCoord = tex.Three.BottomLeft,
Normal = normals[2]
},
new Vertex3D
{
Position = new Vector3(-1.0f, 1.0f, 1.0f),
TexCoord = tex.Three.TopLeft,
Normal = normals[2]
},
new Vertex3D
{
Position = new Vector3(1.0f, 1.0f, 1.0f),
TexCoord = tex.Three.TopRight,
Normal = normals[2]
},
new Vertex3D
{
Position = new Vector3(-1.0f, -1.0f, 1.0f),
TexCoord = tex.Three.BottomLeft,
Normal = normals[2]
},
new Vertex3D
{
Position = new Vector3(1.0f, 1.0f, 1.0f),
TexCoord = tex.Three.TopRight,
Normal = normals[2]
},
new Vertex3D
{
Position = new Vector3(1.0f, -1.0f, 1.0f),
TexCoord = tex.Three.BottomRight,
Normal = normals[2]
},
//Face 4
new Vertex3D
{
Position = new Vector3(-1.0f, -1.0f, -1.0f),
TexCoord = tex.Four.BottomLeft,
Normal = normals[3]
},
new Vertex3D
{
Position = new Vector3(-1.0f, 1.0f, -1.0f),
TexCoord = tex.Four.TopLeft,
Normal = normals[3]
},
new Vertex3D
{
Position = new Vector3(-1.0f, 1.0f, 1.0f),
TexCoord = tex.Four.TopRight,
Normal = normals[3]
},
new Vertex3D
{
Position = new Vector3(-1.0f, -1.0f, -1.0f),
TexCoord = tex.Four.BottomLeft,
Normal = normals[3]
},
new Vertex3D
{
Position = new Vector3(-1.0f, 1.0f, 1.0f),
TexCoord = tex.Four.TopRight,
Normal = normals[3]
},
new Vertex3D
{
Position = new Vector3(-1.0f, -1.0f, 1.0f),
TexCoord = tex.Four.BottomRight,
Normal = normals[3]
},
//Face 5
new Vertex3D
{
Position = new Vector3(-1.0f, 1.0f, 1.0f),
TexCoord = tex.Five.BottomLeft,
Normal = normals[4]
},
new Vertex3D
{
Position = new Vector3(-1.0f, 1.0f, -1.0f),
TexCoord = tex.Five.TopLeft,
Normal = normals[4]
},
new Vertex3D
{
Position = new Vector3(1.0f, 1.0f, -1.0f),
TexCoord = tex.Five.TopRight,
Normal = normals[4]
},
new Vertex3D
{
Position = new Vector3(-1.0f, 1.0f, 1.0f),
TexCoord = tex.Five.BottomLeft,
Normal = normals[4]
},
new Vertex3D
{
Position = new Vector3(1.0f, 1.0f, -1.0f),
TexCoord = tex.Five.TopRight,
Normal = normals[4]
},
new Vertex3D
{
Position = new Vector3(1.0f, 1.0f, 1.0f),
TexCoord = tex.Five.BottomRight,
Normal = normals[4]
},
//Face 6
new Vertex3D
{
Position = new Vector3(1.0f, -1.0f, -1.0f),
TexCoord = tex.Six.BottomLeft,
Normal = normals[5]
},
new Vertex3D
{
Position = new Vector3(1.0f, -1.0f, 1.0f),
TexCoord = tex.Six.TopLeft,
Normal = normals[5]
},
new Vertex3D
{
Position = new Vector3(-1.0f, -1.0f, 1.0f),
TexCoord = tex.Six.TopRight,
Normal = normals[5]
},
new Vertex3D
{
Position = new Vector3(1.0f, -1.0f, -1.0f),
TexCoord = tex.Six.BottomLeft,
Normal = normals[5]
},
new Vertex3D
{
Position = new Vector3(-1.0f, -1.0f, 1.0f),
TexCoord = tex.Six.TopRight,
Normal = normals[5]
},
new Vertex3D
{
Position = new Vector3(-1.0f, -1.0f, -1.0f),
TexCoord = tex.Six.BottomRight,
Normal = normals[5]
},
};
var numVerts = mesh.Length;
var hw = 0.5f * width;
var hh = 0.5f * height;
var hd = 0.5f * depth;
for (var n = 0; n < numVerts; n++)
{
var pos = mesh[n].Position;
mesh[n].Position = Vector3.Transform(new Vector3(hw * pos.X, hh * pos.Y, hd * pos.Z), rotationMatrix) + position;
}
return(mesh);
}
public static Vector3 ToUnityVector3(this Vertex3D vertex)
{
return(new Vector3(vertex.X, vertex.Y, vertex.Z));
}
public void SetGrid(int xNo, int yNo, float xMin, float xMax, float yMin, float yMax)
{
SetDataNo(xNo * yNo);
m_nGridXNo = xNo;
m_nGridYNo = yNo;
m_xMin = xMin;
m_xMax = xMax;
m_yMin = yMin;
m_yMax = yMax;
float dx = (m_xMax - m_xMin) / ((float)xNo - 1);
float dy = (m_yMax - m_yMin) / ((float)yNo - 1);
for (int i = 0; i < xNo; i++)
{
for (int j = 0; j < yNo; j++)
{
float xV = m_xMin + dx * ((float)(i));
float yV = m_yMin + dy * ((float)(j));
m_vertices[j * xNo + i] = new Vertex3D();
SetPoint(i, j, xV, yV, 0);
}
}
}
/// <summary>
/// Reads mesh buffer infos.
/// </summary>
void ReadMeshBufferInfos()
{
// IMPLEMENTED FROM jlouis' witcherconverter
// http://jlouisb.users.sourceforge.net/
// https://bitbucket.org/jlouis/witcherconverter
SBufferInfos bufferInfos = new SBufferInfos();
// *************** READ CHUNK INFOS ***************
foreach (var chunk in _file.chunks)
{
if (chunk.Type == "CMesh")
{
List <SVertexBufferInfos> vertexBufferInfos = new List <SVertexBufferInfos>();
var cookedDatas = chunk.GetVariableByName("cookedData") as CVector;
foreach (var cookedData in cookedDatas.variables)
{
switch (cookedData.Name)
{
case "renderChunks":
{
var bytes = ((CByteArray)cookedData).Bytes;
var nbBuffers = bytes[0];
int curr = 1;
for (uint i = 0; i < nbBuffers; i++)
{
SVertexBufferInfos buffInfo = new SVertexBufferInfos();
curr += 1; // Unknown
buffInfo.verticesCoordsOffset = bytes.SubArray(ref curr, 4).GetUint();
buffInfo.uvOffset = bytes.SubArray(ref curr, 4).GetUint();
buffInfo.normalsOffset = bytes.SubArray(ref curr, 4).GetUint();
curr += 9; // Unknown
buffInfo.indicesOffset = bytes.SubArray(ref curr, 4).GetUint();
curr += 1; // 0x1D
buffInfo.nbVertices = bytes.SubArray(ref curr, 2).GetUshort();
buffInfo.nbIndices = bytes.SubArray(ref curr, 4).GetUint();
curr += 3; // Unknown
buffInfo.lod = bytes.SubArray(ref curr, 1).GetByte(); // lod ?
vertexBufferInfos.Add(buffInfo);
}
break;
}
case "indexBufferOffset":
{
bufferInfos.indexBufferOffset = uint.Parse(cookedData.ToString());
break;
}
case "indexBufferSize":
{
bufferInfos.indexBufferSize = uint.Parse(cookedData.ToString());
break;
}
case "vertexBufferOffset":
{
bufferInfos.vertexBufferOffset = uint.Parse(cookedData.ToString());
break;
}
case "vertexBufferSize":
{
bufferInfos.vertexBufferSize = uint.Parse(cookedData.ToString());
break;
}
case "quantizationOffset":
{
bufferInfos.quantizationOffset.X = float.Parse((cookedData as CVector).variables[0].ToString());
bufferInfos.quantizationOffset.Y = float.Parse((cookedData as CVector).variables[1].ToString());
bufferInfos.quantizationOffset.Z = float.Parse((cookedData as CVector).variables[2].ToString());
break;
}
case "quantizationScale":
{
bufferInfos.quantizationScale.X = float.Parse((cookedData as CVector).variables[0].ToString());
bufferInfos.quantizationScale.Y = float.Parse((cookedData as CVector).variables[1].ToString());
bufferInfos.quantizationScale.Z = float.Parse((cookedData as CVector).variables[2].ToString());
break;
}
case "bonePositions":
{
foreach (CVector item in cookedData as CArray)
{
if (item.variables.Count == 4)
{
Vector3Df pos = new Vector3Df();
pos.X = (item.variables[0] as CFloat).val;
pos.Y = (item.variables[1] as CFloat).val;
pos.Z = (item.variables[2] as CFloat).val;
bonePositions.Add(pos);
}
}
break;
}
}
}
bufferInfos.verticesBuffer = vertexBufferInfos;
var meshChunks = chunk.GetVariableByName("chunks") as CArray;
foreach (var meshChunk in meshChunks.array)
{
SMeshInfos meshInfo = new SMeshInfos();
foreach (var mesh in (meshChunk as CVector).variables)
{
switch (mesh.Name)
{
case "numVertices":
{
meshInfo.numVertices = uint.Parse(mesh.ToString());
break;
}
case "numIndices":
{
meshInfo.numIndices = uint.Parse(mesh.ToString());
break;
}
case "numBonesPerVertex":
{
meshInfo.numBonesPerVertex = uint.Parse(mesh.ToString());
break;
}
case "firstVertex":
{
meshInfo.firstVertex = uint.Parse(mesh.ToString());
break;
}
case "firstIndex":
{
meshInfo.firstIndex = uint.Parse(mesh.ToString());
break;
}
case "vertexType":
{
if ((mesh as CName).Value == "MVT_StaticMesh")
{
meshInfo.vertexType = SMeshInfos.EMeshVertexType.EMVT_STATIC;
}
else if ((mesh as CName).Value == "MVT_SkinnedMesh")
{
meshInfo.vertexType = SMeshInfos.EMeshVertexType.EMVT_SKINNED;
}
break;
}
case "materialID":
{
meshInfo.materialID = uint.Parse(mesh.ToString());
break;
}
}
}
meshInfos.Add(meshInfo);
}
}
else if (chunk.Type == "CMaterialInstance")
{
materialInstances.Add(chunk.data as CMaterialInstance);
}
}
// *************** READ MESH BUFFER INFOS ***************
foreach (var meshInfo in meshInfos)
{
SVertexBufferInfos vBufferInf = new SVertexBufferInfos();
uint nbVertices = 0;
uint firstVertexOffset = 0;
uint nbIndices = 0;
uint firstIndiceOffset = 0;
for (int i = 0; i < bufferInfos.verticesBuffer.Count; i++)
{
nbVertices += bufferInfos.verticesBuffer[i].nbVertices;
if (nbVertices > meshInfo.firstVertex)
{
vBufferInf = bufferInfos.verticesBuffer[i];
// the index of the first vertex in the buffer
firstVertexOffset = meshInfo.firstVertex - (nbVertices - vBufferInf.nbVertices);
break;
}
}
for (int i = 0; i < bufferInfos.verticesBuffer.Count; i++)
{
nbIndices += bufferInfos.verticesBuffer[i].nbIndices;
if (nbIndices > meshInfo.firstIndex)
{
vBufferInf = bufferInfos.verticesBuffer[i];
firstIndiceOffset = meshInfo.firstIndex - (nbIndices - vBufferInf.nbIndices);
break;
}
}
using (StreamReader sr = new StreamReader(_file.FileName + ".1.buffer"))
{
uint vertexSize = 8;
if (meshInfo.vertexType == SMeshInfos.EMeshVertexType.EMVT_SKINNED)
{
vertexSize += meshInfo.numBonesPerVertex * 2;
}
sr.BaseStream.Seek(vBufferInf.verticesCoordsOffset + firstVertexOffset * vertexSize, SeekOrigin.Begin);
List <Vertex3D> vertex3DCoords = new List <Vertex3D>();
Color defaultColor = new Color(255, 255, 255, 255);
for (int i = 0; i < meshInfo.numVertices; i++)
{
ushort x, y, z, w;
byte[] buff = new byte[2];
sr.BaseStream.Read(buff, 0, 2);
x = buff.GetUshort();
sr.BaseStream.Read(buff, 0, 2);
y = buff.GetUshort();
sr.BaseStream.Read(buff, 0, 2);
z = buff.GetUshort();
sr.BaseStream.Read(buff, 0, 2);
w = buff.GetUshort();
// skip skinning data
if (meshInfo.vertexType == SMeshInfos.EMeshVertexType.EMVT_SKINNED)
{
sr.BaseStream.Seek(meshInfo.numBonesPerVertex * 2, SeekOrigin.Current);
}
Vertex3D vertex3DCoord = new Vertex3D();
vertex3DCoord.Position = new Vector3Df(x, y, z) / 65535f * bufferInfos.quantizationScale + bufferInfos.quantizationOffset;
vertex3DCoord.Color = defaultColor;
vertex3DCoords.Add(vertex3DCoord);
}
sr.BaseStream.Seek(vBufferInf.uvOffset + firstVertexOffset * 4, SeekOrigin.Begin);
for (int i = 0; i < meshInfo.numVertices; i++)
{
ushort u, v;
byte[] buff = new byte[2];
sr.BaseStream.Read(buff, 0, 2);
u = buff.GetUshort();
sr.BaseStream.Read(buff, 0, 2);
v = buff.GetUshort();
float uf = u.ToFloat();
float vf = v.ToFloat();
Vertex3D vertex3DCoord = vertex3DCoords[i];
vertex3DCoord.TCoords = new Vector2Df(uf, vf);
vertex3DCoords[i] = vertex3DCoord;
}
// Indices -------------------------------------------------------------------
sr.BaseStream.Seek(bufferInfos.indexBufferOffset + vBufferInf.indicesOffset + firstIndiceOffset * 2, SeekOrigin.Begin);
List <ushort> indices = new List <ushort>();
for (int i = 0; i < meshInfo.numIndices; i++)
{
indices.Add(0);
}
for (int i = 0; i < meshInfo.numIndices; i++)
{
ushort index;
byte[] buff = new byte[2];
sr.BaseStream.Read(buff, 0, 2);
index = buff.GetUshort();
// Indice need to be inversed for the normals
if (i % 3 == 0)
{
indices[i] = index;
}
else if (i % 3 == 1)
{
indices[i + 1] = index;
}
else if (i % 3 == 2)
{
indices[i - 1] = index;
}
}
MeshBuffer meshBuff = MeshBuffer.Create(VertexType.Standard, IndexType._16Bit);
staticMesh.AddMeshBuffer(meshBuff);
meshBuff.Append(vertex3DCoords, indices);
meshBuff.RecalculateBoundingBox();
meshBuff.Drop();
}
}
// *************** READ RIG DATA ***************
if (RigFile != null)
{
foreach (var chunk in RigFile.chunks)
{
if (chunk.Type == "CSkeleton")
{
var bones = chunk.GetVariableByName("bones") as CArray;
meshSkeleton.nbBones = (uint)bones.array.Count;
foreach (CVector bone in bones)
{
var boneName = bone.variables.GetVariableByName("nameAsCName") as CName;
meshSkeleton.names.Add(boneName.Value);
}
var parentIndices = chunk.GetVariableByName("parentIndices") as CArray;
foreach (CVariable parentIndex in parentIndices)
{
meshSkeleton.parentIdx.Add(short.Parse(parentIndex.ToString()));
}
var unknownBytes = chunk.unknownBytes.Bytes;
int currPos = 0;
for (uint i = 0; i < meshSkeleton.nbBones; i++)
{
Vector3Df position = new Vector3Df();
position.X = unknownBytes.SubArray(ref currPos, 4).GetFloat();
position.Y = unknownBytes.SubArray(ref currPos, 4).GetFloat();
position.Z = unknownBytes.SubArray(ref currPos, 4).GetFloat();
unknownBytes.SubArray(ref currPos, 4).GetFloat(); // the w component
Quaternion orientation = new Quaternion();
orientation.X = unknownBytes.SubArray(ref currPos, 4).GetFloat();
orientation.Y = unknownBytes.SubArray(ref currPos, 4).GetFloat();
orientation.Z = unknownBytes.SubArray(ref currPos, 4).GetFloat();
orientation.W = unknownBytes.SubArray(ref currPos, 4).GetFloat();
Vector3Df scale;
scale.X = unknownBytes.SubArray(ref currPos, 4).GetFloat();
scale.Y = unknownBytes.SubArray(ref currPos, 4).GetFloat();
scale.Z = unknownBytes.SubArray(ref currPos, 4).GetFloat();
unknownBytes.SubArray(ref currPos, 4).GetFloat(); // the w component
Matrix posMat = new Matrix();
posMat.Translation = position;
Matrix rotMat = new Matrix();
Vector3Df euler = orientation.ToEuler();
// chechNaNErrors(euler);
rotMat.SetRotationRadians(euler);
Matrix scaleMat = new Matrix();
scaleMat.Scale = scale;
Matrix localTransform = posMat * rotMat * scaleMat;
orientation = orientation.MakeInverse();
meshSkeleton.matrix.Add(localTransform);
meshSkeleton.positions.Add(position);
meshSkeleton.rotations.Add(orientation);
meshSkeleton.scales.Add(scale);
}
}
}
}
}
public IRenderVertex Set(Vertex3D v)
{
base.Set(v.X, v.Y);
return(this);
}
public void Set(Vertex3D v)
{
X = v.X;
Y = v.Y;
Z = v.Z;
}
private Mesh GetMesh(Table.Table table, int acc = -1, bool createHitShape = false)
{
_data.StaticRendering = true;
var mesh = new Mesh(_data.Name);
int accuracy;
if (table.GetDetailLevel() < 5)
{
accuracy = 6;
}
else if (table.GetDetailLevel() >= 5 && table.GetDetailLevel() < 8)
{
accuracy = 8;
}
else
{
accuracy = (int)(table.GetDetailLevel() * 1.3f); // see also below
}
// as solid rubbers are rendered into the static buffer, always use maximum precision
if (_data.StaticRendering)
{
accuracy = (int)(10.0f * 1.2f); // see also above
}
if (acc != -1)
{
// hit shapes and UI display have the same, static, precision
accuracy = acc;
}
var splineAccuracy = acc != -1 ? 4.0f * MathF.Pow(10.0f, (10.0f - PhysicsConstants.HitShapeDetailLevel) * (float)(1.0 / 1.5)) : -1.0f;
var sv = new SplineVertex(_data.DragPoints, _data.Thickness, table.GetDetailLevel(), (int)splineAccuracy);
var numRings = sv.VertexCount - 1;
var numSegments = accuracy;
var numVertices = numRings * numSegments;
var numIndices = 6 * numVertices; //m_numVertices*2+2;
var height = _data.HitHeight + table.TableHeight;
mesh.Vertices = new Vertex3DNoTex2[numVertices];
mesh.Indices = new int[numIndices];
var prevB = new Vertex3D();
var invNr = 1.0f / numRings;
var invNs = 1.0f / numSegments;
var index = 0;
for (var i = 0; i < numRings; i++)
{
var i2 = i == numRings - 1 ? 0 : i + 1;
var tangent = new Vertex3D(sv.MiddlePoints[i2].X - sv.MiddlePoints[i].X,
sv.MiddlePoints[i2].Y - sv.MiddlePoints[i].Y, 0.0f);
Vertex3D biNormal;
Vertex3D normal;
if (i == 0)
{
var up = new Vertex3D(sv.MiddlePoints[i2].X + sv.MiddlePoints[i].X, sv.MiddlePoints[i2].Y + sv.MiddlePoints[i].Y, height * 2.0f);
normal = new Vertex3D(tangent.Y * up.Z, -tangent.X * up.Z, tangent.X * up.Y - tangent.Y * up.X); // = CrossProduct(tangent, up)
biNormal = new Vertex3D(tangent.Y * normal.Z, -tangent.X * normal.Z, tangent.X * normal.Y - tangent.Y * normal.X); // = CrossProduct(tangent, normal)
}
else
{
normal = prevB.Clone().Cross(tangent);
biNormal = tangent.Clone().Cross(normal);
}
biNormal.Normalize();
normal.Normalize();
prevB = biNormal;
var u = i * invNr;
for (var j = 0; j < numSegments; j++)
{
var v = (j + u) * invNs;
var tmp = Vertex3D.GetRotatedAxis(j * (360.0f * invNs), tangent, normal)
.MultiplyScalar(_data.Thickness * 0.5f);
mesh.Vertices[index] = new Vertex3DNoTex2 {
X = sv.MiddlePoints[i].X + tmp.X,
Y = sv.MiddlePoints[i].Y + tmp.Y
};
if (createHitShape && (j == 0 || j == 3))
{
//!! hack, adapt if changing detail level for hitshape
// for a hit shape create a more rectangle mesh and not a smooth one
tmp.Z *= 0.6f;
}
mesh.Vertices[index].Z = height + tmp.Z;
//texel
mesh.Vertices[index].Tu = u;
mesh.Vertices[index].Tv = v;
index++;
}
}
// calculate faces
for (var i = 0; i < numRings; i++)
{
for (var j = 0; j < numSegments; j++)
{
var quad = new int[4];
quad[0] = i * numSegments + j;
if (j != numSegments - 1)
{
quad[1] = i * numSegments + j + 1;
}
else
{
quad[1] = i * numSegments;
}
if (i != numRings - 1)
{
quad[2] = (i + 1) * numSegments + j;
if (j != numSegments - 1)
{
quad[3] = (i + 1) * numSegments + j + 1;
}
else
{
quad[3] = (i + 1) * numSegments;
}
}
else
{
quad[2] = j;
if (j != numSegments - 1)
{
quad[3] = j + 1;
}
else
{
quad[3] = 0;
}
}
mesh.Indices[(i * numSegments + j) * 6] = quad[0];
mesh.Indices[(i * numSegments + j) * 6 + 1] = quad[1];
mesh.Indices[(i * numSegments + j) * 6 + 2] = quad[2];
mesh.Indices[(i * numSegments + j) * 6 + 3] = quad[3];
mesh.Indices[(i * numSegments + j) * 6 + 4] = quad[2];
mesh.Indices[(i * numSegments + j) * 6 + 5] = quad[1];
}
}
Mesh.ComputeNormals(mesh.Vertices, numVertices, mesh.Indices, numIndices);
var maxX = Constants.FloatMin;
var minX = Constants.FloatMax;
var maxY = Constants.FloatMin;
var minY = Constants.FloatMax;
var maxZ = Constants.FloatMin;
var minZ = Constants.FloatMax;
for (var i = 0; i < numVertices; i++)
{
if (maxX < mesh.Vertices[i].X)
{
maxX = mesh.Vertices[i].X;
}
if (minX > mesh.Vertices[i].X)
{
minX = mesh.Vertices[i].X;
}
if (maxY < mesh.Vertices[i].Y)
{
maxY = mesh.Vertices[i].Y;
}
if (minY > mesh.Vertices[i].Y)
{
minY = mesh.Vertices[i].Y;
}
if (maxZ < mesh.Vertices[i].Z)
{
maxZ = mesh.Vertices[i].Z;
}
if (minZ > mesh.Vertices[i].Z)
{
minZ = mesh.Vertices[i].Z;
}
}
MiddlePoint.X = (maxX + minX) * 0.5f;
MiddlePoint.Y = (maxY + minY) * 0.5f;
MiddlePoint.Z = (maxZ + minZ) * 0.5f;
return(mesh);
}
public void ShouldCorrectlyCrossVectors()
{
Vertex3D.CrossVectors(new Vertex3D(1.5f, 2.5f, 4f), new Vertex3D(3.5f, 100f, 95f))
.Should().BeEquivalentTo(new Vertex3D(-162.5f, -128.5f, 141.25f));
}
public TestBallCreator(float x, float y, float z, float vx, float vy, float vz)
{
_pos = new Vertex3D(x, y, z);
_vel = new Vertex3D(vx, vy, vz);
}
public void Set(Vertex3D v)
{
base.Set(v.X, v.Y);
}
public static float3 ToUnityFloat3(this Vertex3D vertex)
{
return(new float3(vertex.X, vertex.Y, vertex.Z));
}
public new void Set(Vertex3D v)
{
base.Set(v);
}
/// <param name="N">Number of cubes in single dimension (e.g. total cubes for 20 is 20^3=8000)</param>
void generateVerticesAndIndices(int N, out Vertex3D[] vertices, out uint[] indices)
{
int cubeSide = 32;
// ask Irrlicht to generate cube mesh for us (we use it like a template)
Mesh cubeMesh = device.SceneManager.GeometryCreator.CreateCubeMesh(new Vector3Df(cubeSide));
ushort[] cubeIndices = cubeMesh.GetMeshBuffer(0).Indices as ushort[];
Vertex3D[] cubeVertices = cubeMesh.GetMeshBuffer(0).Vertices as Vertex3D[];
cubeMesh.Drop();
// generate cubes
device.Logger.Log("Generating " + N * N * N + " cubes...");
vertices = new Vertex3D[N * N * N * cubeVertices.Length];
indices = new uint[N * N * N * cubeIndices.Length];
int verticesIndex = 0;
int indicesIndex = 0;
int colorBase = (255 - cubeVertices.Length) / N;
float cubePosOffset = 2.0f * cubeSide;
for (int i = 0; i < N; i++)
{
for (int j = 0; j < N; j++)
{
for (int k = 0; k < N; k++)
{
// add indices
uint firstfreeIndex = (uint)verticesIndex;
for (int l = 0; l < cubeIndices.Length; l++)
indices[indicesIndex++] = firstfreeIndex + cubeIndices[l];
// add vertices
for (int l = 0; l < cubeVertices.Length; l++)
{
Vertex3D v = new Vertex3D(cubeVertices[l]);
v.Color = new Color(i * colorBase + l, j * colorBase + l, k * colorBase + l);
v.Position += new Vector3Df(i, j, k) * cubePosOffset;
vertices[verticesIndex++] = v;
}
}
}
device.Logger.Log(
(((i + 1) * 100) / N) + "%: " +
(i + 1) * N * N + " cubes has been generated. ~" +
Program.MemUsageText);
if ((i & 0xf) == 0xf)
GC.Collect();
}
}
/// <summary>
/// Generates a MeshBuffer which represents all the vertices and indices for values of y
/// between y0 and y1, and add it to the mesh.
/// </summary>
void addStrip(HeightMap map, ColorFunc cf, int y0, int y1)
{
Vertex3D[] vertices = new Vertex3D[(y1 - y0 + 1) * width];
ushort[] indices = new ushort[(y1 - y0) * (width - 1) * 6]; // "6" is a number of indices in 2 triangles (which forms a quad)
// calculate vertices
int i = 0;
for (int y = y0; y <= y1; ++y)
{
for (int x = 0; x < width; ++x)
{
float z = map.GetHeight(x, y);
float xf = (float)x / (float)width;
float yf = (float)y / (float)height;
vertices[i++] = new Vertex3D(
new Vector3Df(x, scale * z, y), // position
map.GetNormal(x, y, scale), // normal
calculate(cf, xf, yf, z), // color
new Vector2Df(xf, yf) // tcoords
);
}
}
// calculate indices
i = 0;
for (int y = y0; y < y1; ++y)
{
for (int x = 0; x < width - 1; ++x)
{
int n = (y - y0) * width + x;
indices[i++] = (ushort)n;
indices[i++] = (ushort)(n + width);
indices[i++] = (ushort)(n + width + 1);
indices[i++] = (ushort)(n + width + 1);
indices[i++] = (ushort)(n + 1);
indices[i++] = (ushort)n;
}
}
// append calculated verices and indices to mesh buffer
MeshBuffer buf = MeshBuffer.Create(VertexType.Standard, IndexType._16Bit); // create new buffer
Mesh.AddMeshBuffer(buf);
buf.Append(vertices, indices);
buf.RecalculateBoundingBox();
buf.Drop();
}