private static void SplitOctree(Vector3[,,] voxels, List <VoxelData> voxelData, int parentIndex)
{
VoxelData parent = voxelData[parentIndex];
if (parent.size <= 1)
{
parent.isLeaf = true;
return;
}
float size = parent.size / 2f;
float x1 = parent.x;
float y1 = parent.y;
float z1 = parent.z;
float x2 = parent.x + size;
float y2 = parent.y + size;
float z2 = parent.z + size;
parent.c0 = AddVoxelData(voxels, voxelData, x1, y1, z1, size);
parent.c1 = AddVoxelData(voxels, voxelData, x1 + size, y1, z1, size);
parent.c2 = AddVoxelData(voxels, voxelData, x1 + size, y1 + size, z1, size);
parent.c3 = AddVoxelData(voxels, voxelData, x1, y1 + size, z1, size);
parent.c4 = AddVoxelData(voxels, voxelData, x1, y1, z1 + size, size);
parent.c5 = AddVoxelData(voxels, voxelData, x1 + size, y1, z1 + size, size);
parent.c6 = AddVoxelData(voxels, voxelData, x1 + size, y1 + size, z1 + size, size);
parent.c7 = AddVoxelData(voxels, voxelData, x1, y1 + size, z1 + size, size);
voxelData[parentIndex] = parent;
}
public void GenerateTilesByGrid()
{
tilePositions = gridTiles.g.gridCellsPositions;
dynamicTiles = new DynamicTile[gridTiles.g.xDimension, gridTiles.g.yDimension, gridTiles.g.zDimension];
Debug.Log(gridTiles.g.xDimension);
Debug.Log(gridTiles.g.yDimension);
Debug.Log(gridTiles.g.zDimension);
Debug.Log("Cell Size: " + gridTiles.g.CellSize);
for (int x = 0; x < gridTiles.g.xDimension; x++)
{
for (int y = 0; y < gridTiles.g.yDimension; y++)
{
for (int z = 0; z < gridTiles.g.zDimension; z++)
{
Quaternion q = new Quaternion(1, 0, 0, 1);
GameObject h = Instantiate(tile.gameObject, tilePositions[x, y, z], q);
h.transform.position = new Vector3(h.transform.position.x, TileFallHeight, h.transform.position.z);
h.transform.localScale = new Vector3(TileScale, TileScale, TileScale);
dynamicTiles[x, y, z] = h.GetComponent <DynamicTile>();
Debug.Log("Writing grid:", dynamicTiles[x, y, z]);
}
}
}
}
static void Main(string[] args)
{
try
{
// Analyze arguments
if (args.Length != 1)
{
throw new Exception("Usage: BRDFSlices \"Path to MERL BRDF\"");
}
FileInfo SourceBRDF = new FileInfo(args[0]);
if (!SourceBRDF.Exists)
{
throw new Exception("Source BRDF file \"" + SourceBRDF.FullName + "\" does not exist!");
}
// Load the BRDF
Vector3[,,] BRDF = DisplayForm.LoadBRDF(SourceBRDF);
DisplayForm F = new DisplayForm(BRDF);
Application.Run(F);
}
catch (Exception _e)
{
MessageBox.Show("An error occurred!\r\n\r\n" + _e.Message + "\r\n\r\n" + _e.StackTrace, "BRDF Fitting", MessageBoxButtons.OK, MessageBoxIcon.Warning);
}
}
// Use this for initialization
void Start()
{
hp = 100;
ap = 100;
cmdButtons = GameObject.FindGameObjectWithTag("CommandUI");
camAngles = new Vector3[3, 2, 2];//x,y,z positions
//Land angles
camAngles[0, 0, 0] = new Vector3(-28f, 3f, -18f);
camAngles[1, 0, 0] = new Vector3(-16f, 3f, -18f);
camAngles[2, 0, 0] = new Vector3(-3f, 3f, -18f);
camAngles[0, 1, 0] = new Vector3(-28f, 9f, -18f);
camAngles[1, 1, 0] = new Vector3(-16f, 9f, -18f);
camAngles[2, 1, 0] = new Vector3(-3f, 9f, -18f);
//Sea angles
camAngles[0, 0, 1] = new Vector3(-28f, 3f, -2f);
camAngles[1, 0, 1] = new Vector3(-16f, 3f, -2f);
camAngles[2, 0, 1] = new Vector3(-3f, 3f, -2f);
camAngles[0, 1, 1] = new Vector3(-28f, 9f, -2f);
camAngles[1, 1, 1] = new Vector3(-16f, 9f, -2f);
camAngles[2, 1, 1] = new Vector3(-3f, 9f, -2f);
}
// public void doubleArraySize()
// {
// size = 300;
// Vector3[,,] newWindArray = new Vector3[size * 2, size * 2, size * 2];
// int halfSize = size / 2;
// for (int i = 0; i < size; i++)
// {
// for (int j = 0; j < size; j++)
// {
// for (int k = 0; k < size; k += 8)
// {
// newWindArray[i + halfSize, j + halfSize, k + 0] = windArray[i, j, k + 0];
// newWindArray[i + halfSize, j + halfSize, k + 1] = windArray[i, j, k + 0];
// newWindArray[i + halfSize, j + halfSize, k + 2] = windArray[i, j, k + 0];
// newWindArray[i + halfSize, j + halfSize, k + 3] = windArray[i, j, k + 0];
// newWindArray[i + halfSize, j + halfSize, k + 4] = windArray[i, j, k + 0];
// newWindArray[i + halfSize, j + halfSize, k + 5] = windArray[i, j, k + 0];
// newWindArray[i + halfSize, j + halfSize, k + 6] = windArray[i, j, k + 0];
// newWindArray[i + halfSize, j + halfSize, k + 7] = windArray[i, j, k + 0];
// }
// }
// }
// for (int i = 0; i < halfSize; i++)
// {
// for (int j = 0; j < halfSize; j++)
// {
// for (int k = 0; k < halfSize; k += 8)
// {
// newWindArray[i, j, k + 0] = Vector3.zero;
// newWindArray[i, j, k + 1] = Vector3.zero;
// newWindArray[i, j, k + 2] = Vector3.zero;
// newWindArray[i, j, k + 3] = Vector3.zero;
// newWindArray[i, j, k + 4] = Vector3.zero;
// newWindArray[i, j, k + 5] = Vector3.zero;
// newWindArray[i, j, k + 6] = Vector3.zero;
// newWindArray[i, j, k + 7] = Vector3.zero;
// }
// }
// }
// size = size * 2;
// for (int i = halfSize; i < size; i++)
// {
// for (int j = halfSize; j < size; j++)
// {
// for (int k = halfSize; k < size; k += 8)
// {
// newWindArray[i, j, k + 0] = Vector3.zero;
// newWindArray[i, j, k + 1] = Vector3.zero;
// newWindArray[i, j, k + 2] = Vector3.zero;
// newWindArray[i, j, k + 3] = Vector3.zero;
// newWindArray[i, j, k + 4] = Vector3.zero;
// newWindArray[i, j, k + 5] = Vector3.zero;
// newWindArray[i, j, k + 6] = Vector3.zero;
// newWindArray[i, j, k + 7] = Vector3.zero;
// }
// }
// }
// }
public void addObject(WindData data)
{
windObjectsData.Add(data.index, data);
Vector3[ , , ] windArray = null;
switch (data.geometryData.geometryType)
{
case GeometryData.GeometryType.CUBE:
windArray = getCubeWindArray((CubeGeometryData)data.geometryData, data.intensity, data.interference);
break;
case GeometryData.GeometryType.SPHERE:
windArray = getSphereWindArray((SphereGeometryData)data.geometryData, data.intensity, data.interference);
break;
case GeometryData.GeometryType.CYLINDER:
windArray = getCylinderWindArray((CylinderGeometryData)data.geometryData, data.intensity, data.interference);
break;
default:
break;
}
windArrayData.Add(data.index, windArray);
addUpdateArray(data.index);
}
public Vector3[,,] BuildGrid()
{
_worldSize = new GridWorldSize();
_elementPositions = new Vector3[_gridRows, _gridColumns, _gridDepth];
Vector3 startPosition = GetPosition();
_worldSize.SetWorldSize(startPosition);
for (int depth = 0; depth < _gridDepth; depth++)
{
float z = startPosition.z - depth * (_elementSize.z + _elementPadding.z);
_worldSize.SetDepth(z);
for (int row = 0; row < _gridRows; row++)
{
float y = startPosition.y - row * (_elementSize.y + _elementPadding.y);
_worldSize.SetHeight(y);
for (int column = 0; column < _gridColumns; column++)
{
float x = startPosition.x - column * (_elementSize.x + _elementPadding.x);
_worldSize.SetWidth(x);
_elementPositions[row, column, depth] = new Vector3(x, y, z);
}
}
}
OnGridCreated.Invoke(_worldSize);
return(_elementPositions);
}
// 初始化调用
void Start()
{
gamedata = GameObject.Find("Data_Source").GetComponent <GameData> ();
operationError = PlayerPrefs.GetFloat("operationError", 0.3f);
// targetNumber = PlayerPrefs.GetInt (PlayerPrefs.GetString ("Target") + "Num", 1);
targetPoint = gamedata.targetTangram;
tangram6 = GameObject.Find("Tangram_cf_06(Clone)");
// 初始化所有七巧板的所有特征点为屏幕左下角区域，0没用
for (int i = 0; i < 8; i++)
{
for (int j = 0; j < 5; j++)
{
vt [i, j] = gamedata.tangramPosition [0];
}
}
// 初始化每个七巧板的检测距离（旋转中心到其他七巧板的顶点）
distance [0] = 0;
// Mathf.Sqrt (0.7 * 0.7 + 1.3 * 1.3) + 操作误差;
distance [1] = 2.1f + operationError;
distance [2] = 1.4f + operationError;
distance [3] = 1.4f + operationError;
distance [4] = 3.0f + operationError;
distance [5] = 3.0f + operationError;
distance [6] = 2.1f + operationError;
distance [7] = 1.4f + operationError;
}
public void CalculateNormals()
{
//float startTime = Time.realtimeSinceStartup;
//This calculates the normal of each voxel. If you have a 3d array of data
//the normal is the derivitive of the x, y and z axis.
//Normally is needed to flip the normal (*-1) but it is not needed in this case.
int w = m_voxels.GetLength(0);
int h = m_voxels.GetLength(1);
int l = m_voxels.GetLength(2);
if(m_normals == null) m_normals = new Vector3[w,h,l];
for(int x = 2; x < w-2; x++)
{
for(int y = 2; y < h-2; y++)
{
for(int z = 2; z < l-2; z++)
{
float dx = m_voxels[x+1,y,z] - m_voxels[x-1,y,z];
float dy = m_voxels[x,y+1,z] - m_voxels[x,y-1,z];
float dz = m_voxels[x,y,z+1] - m_voxels[x,y,z-1];
m_normals[x,y,z] = Vector3.Normalize(new Vector3(dx,dy,dz));
}
}
}
//Debug.Log("Calculate normals time = " + (Time.realtimeSinceStartup-startTime).ToString() );
}
private void addUpdateArray(int index)
{
GeometryData geometryData = windObjectsData[index].geometryData;
Vector3 position = geometryData.position;
Vector3[,,] objectArray = windArrayData[index];
switch (geometryData.geometryType)
{
case GeometryData.GeometryType.CUBE: {
CubeGeometryData cubeGeometryData = (CubeGeometryData)geometryData;
int sizeX = (int)(cubeGeometryData.size.x / 0.1f);
int sizeY = (int)(cubeGeometryData.size.y / 0.1f);
int sizeZ = (int)(cubeGeometryData.size.z / 0.1f);
int beginX = (int)((position.x + 2f) / 0.1f) - sizeX / 2;
int beginY = (int)((position.y + 2f) / 0.1f) - sizeY / 2;
int beginZ = (int)((position.z + 2f) / 0.1f) - sizeZ / 2;
for (int i = 0; i < sizeX; i++)
{
for (int j = 0; j < sizeZ; j++)
{
for (int k = 0; k < sizeY; k++)
{
windArray[i + beginX, j + beginY, k + beginZ] = objectArray[i, j, k];
}
}
}
break;
}
}
}
void Start()
{
voxels = new float [division, division, division];
gradient = new Vector3[division, division, division];
MarchingCubes.SetWindingOrder(2, 1, 0);
}
// void OnValidate()
// {
// for (int i = 0; i < transform.childCount; i++)
// {
// Destroy(transform.GetChild(i).gameObject);
// }
// Start();
// }
// Use this for initialization
void Start()
{
var blockScale = Vector3.one * BLOCK_SCALE;
rubikCube = new GameObject[ONE_SIDE * 2 + 1, ONE_SIDE * 2 + 1, ONE_SIDE * 2 + 1];
initPos = new Vector3[ONE_SIDE * 2 + 1, ONE_SIDE * 2 + 1, ONE_SIDE * 2 + 1];
for (int i = -ONE_SIDE; i <= ONE_SIDE; i++)
{
for (int j = -ONE_SIDE; j <= ONE_SIDE; j++)
{
for (int k = -ONE_SIDE; k <= ONE_SIDE; k++)
{
var cube = rubikCube[i + ONE_SIDE, j + ONE_SIDE, k + ONE_SIDE] = GameObject.CreatePrimitive(PrimitiveType.Cube);
cube.transform.position = initPos[i + ONE_SIDE, j + ONE_SIDE, k + ONE_SIDE] = new Vector3(i, j, k) * ONE_SIDE_DISTANCE;
cube.transform.localScale = blockScale;
cube.GetComponent <MeshRenderer> ().material = cubeShader;
cube.transform.parent = transform;
cube.name += i + " " + j + " " + k;
}
}
}
_rot.Count = 0;
StartCoroutine(Roop(blockScale));
}
static public Mesh CreateMesh(float[,,] voxels, Vector3[,,] gradient)
{
List <Vector3> verts = new List <Vector3>();
List <Vector3> norms = new List <Vector3>();
List <int> index = new List <int>();
float[] cube = new float[8];
Vector3[] cube2 = new Vector3[8];
for (int x = 0; x < voxels.GetLength(0) - 1; x++)
{
for (int y = 0; y < voxels.GetLength(1) - 1; y++)
{
for (int z = 0; z < voxels.GetLength(2) - 1; z++)
{
//Get the values in the 8 neighbours which make up a cube
FillCube(x, y, z, voxels, gradient, cube, cube2);
//Perform algorithm
Mode_Func(new Vector3(x, y, z), cube, cube2, verts, norms, index);
}
}
}
Mesh mesh = new Mesh();
mesh.vertices = verts.ToArray();
mesh.normals = norms.ToArray();
mesh.triangles = index.ToArray();
return(mesh);
}
private void GenerateSpawnTile(GameObject[,,] levelLayout, Vector3[,,] layoutPositions)
{
GameObject[] randomSpawnTiles = pathValidator.GetRandomSortedArray(spawnTiles);
foreach (GameObject spawnTile in randomSpawnTiles)
{
GridLevelBlock spawn = spawnTile.GetComponentInChildren <GridLevelBlock>();
if (!spawn.backTopLeft && !spawn.backTop && !spawn.backTopRight &&
!spawn.backMidLeft && !spawn.backMid && !spawn.backMidRight &&
!spawn.backBottomLeft && !spawn.backBottom && !spawn.backBottomRight)
{
continue;
}
else
{
levelLayout[0, 0, 0] = spawnTile;
layoutPositions[0, 0, 0] = new Vector3(blockSize * 0, blockSize * 0, blockSize * 0);
break;
}
}
if (levelLayout[0, 0, 0] == null)
{
Debug.LogError("Spawn point must have an exit on 'Back' face with rotation '0'");
}
}
void Awake()
{
_flowfieldDirection = new Vector3[_gridSize.x, _gridSize.y, _gridSize.z];
_fastNoise = new FastNoise();
_particles = new List <FlowFieldParticle>();
_particleMeshRender = new List <MeshRenderer>();
for (int i = 0; i < _amountOfParticles; i++)
{
int attempt = 0;
while (attempt < 100)
{
Vector3 randomPos = new Vector3(Random.Range(transform.position.x, transform.position.x + _gridSize.x * _cellSize),
Random.Range(transform.position.y, transform.position.y + _gridSize.y * _cellSize),
Random.Range(transform.position.z, transform.position.z + _gridSize.z * _cellSize));
bool isValid = _particleSpawnValidation(randomPos);
if (isValid)
{
GameObject particleInstance = Instantiate(_particlePrefab, transform);
particleInstance.transform.position = randomPos;
particleInstance.transform.localScale = new Vector3(_particleScale, _particleScale, _particleScale);
_particles.Add(particleInstance.GetComponent <FlowFieldParticle>());
_particleMeshRender.Add(particleInstance.GetComponent <MeshRenderer>());
break;
}
if (!isValid)
{
attempt++;
}
}
// Debug.Log(_particles.Count);
}
}
void Start()
{
voxels = new float [division, division, division];
gradient = new Vector3[division, division, division];
MarchingCubes.SetWindingOrder (2, 1, 0);
}
private float PerlinInterpolate(Vector3[,,] c, float u, float v, float w)
{
float uu = u * u * (3.0f - (2.0f * u));
float vv = v * v * (3.0f - (2.0f * v));
float ww = w * w * (3.0f - (2.0f * w));
float accum = 0.0f;
for (int i = 0; i < 2; i++)
{
float dubi = Convert.ToSingle(i);
for (int j = 0; j < 2; j++)
{
float dubj = Convert.ToSingle(j);
for (int k = 0; k < 2; k++)
{
float dubk = Convert.ToSingle(k);
Vector3 weightVec = new Vector3(u - dubi, v - dubj, w - dubk);
accum += ((dubi * uu) + ((1.0f - dubi) * (1.0f - uu))) *
((dubj * vv) + ((1.0f - dubj) * (1.0f - vv))) *
((dubk * ww) + ((1.0f - dubk) * (1.0f - ww))) *
Vector3.Dot(c[i, j, k], weightVec);
}
}
}
return(accum);
}
public static void GenerateSquares(Transform transform, bool useColumns, LevelPrefabs prefabs, GameObject squarePrefab,
Vector3[,,] coordinates, MazeSquare[,,] squares)
{
for (int z = 0; z < squares.GetLength(2); z++)
{
GameObject layer = NewSection("Layer", z, transform);
for (int i = 0; i < squares.GetLength(0); i++)
{
GameObject row = NewSection("Row", i, layer.transform);
for (int j = 0; j < squares.GetLength(1); j++)
{
if (squares[i, j, z] == null)
{
continue;
}
MazeSurveyLogic.Survey(i, j, z, squares);
#region Setup Square in Hierarchy
squares[i, j, z].layout = BuildLayout(useColumns, prefabs, squarePrefab, squares[i, j, z].adjacents);
GameObject sq = squares[i, j, z].layout;
sq.transform.parent = transform;
sq.transform.localPosition = coordinates[i, j, z];
sq.transform.parent = row.transform;
sq.name = "Sq" + (j + 1);
#endregion
}
}
}
}
public static void LookupBRDFTrilinear(Vector3[,,] _BRDF, double _ThetaHalf, double _ThetaDiff, double _PhiDiff, ref Vector3 _Result)
{
// (note that PhiHalf is ignored, since isotropic BRDFs are assumed)
Vector3 r;
int PhiDiffIndex0 = PhiDiff_index(_PhiDiff, out r.z);
int ThetaDiffIndex0 = ThetaDiff_index(_ThetaDiff, out r.y);
int ThetaHalfIndex0 = ThetaHalf_index(_ThetaHalf, out r.x);
int PhiDiffIndex1 = Math.Min(BRDF_SAMPLING_RES_PHI_D / 2 - 1, PhiDiffIndex0 + 1);
int ThetaDiffIndex1 = Math.Min(BRDF_SAMPLING_RES_THETA_D - 1, ThetaDiffIndex0 + 1);
int ThetaHalfIndex1 = Math.Min(BRDF_SAMPLING_RES_THETA_H - 1, ThetaHalfIndex0 + 1);
TempTrilerp[0, 0, 0] = _BRDF[ThetaHalfIndex0, ThetaDiffIndex0, PhiDiffIndex0];
TempTrilerp[0, 0, 1] = _BRDF[ThetaHalfIndex0, ThetaDiffIndex0, PhiDiffIndex1];
TempTrilerp[0, 1, 1] = _BRDF[ThetaHalfIndex0, ThetaDiffIndex1, PhiDiffIndex1];
TempTrilerp[0, 1, 0] = _BRDF[ThetaHalfIndex0, ThetaDiffIndex1, PhiDiffIndex0];
TempTrilerp[1, 0, 0] = _BRDF[ThetaHalfIndex1, ThetaDiffIndex0, PhiDiffIndex0];
TempTrilerp[1, 0, 1] = _BRDF[ThetaHalfIndex1, ThetaDiffIndex0, PhiDiffIndex1];
TempTrilerp[1, 1, 1] = _BRDF[ThetaHalfIndex1, ThetaDiffIndex1, PhiDiffIndex1];
TempTrilerp[1, 1, 0] = _BRDF[ThetaHalfIndex1, ThetaDiffIndex1, PhiDiffIndex0];
TempBilerp[0, 0] = (1.0 - r.z) * TempTrilerp[0, 0, 0] + r.z * TempTrilerp[0, 0, 1];
TempBilerp[0, 1] = (1.0 - r.z) * TempTrilerp[0, 1, 0] + r.z * TempTrilerp[0, 1, 1];
TempBilerp[1, 1] = (1.0 - r.z) * TempTrilerp[1, 1, 0] + r.z * TempTrilerp[1, 1, 1];
TempBilerp[1, 0] = (1.0 - r.z) * TempTrilerp[1, 0, 0] + r.z * TempTrilerp[1, 0, 1];
TempLerp[0] = (1.0 - r.y) * TempBilerp[0, 0] + r.y * TempBilerp[0, 1];
TempLerp[1] = (1.0 - r.y) * TempBilerp[1, 0] + r.y * TempBilerp[1, 1];
_Result = (1.0 - r.x) * TempLerp[0] + r.x * TempLerp[1];
}
// Start is called before the first frame update
void Start()
{
_flowFieldDirections = new Vector3[_gridSize.x, _gridSize.y, _gridSize.z];
_fastNoise = new FastNoise();
_particles = new List <flowFieldParticle>();
for (int i = 0; i < amountParticles; i++)
{
Vector3 randomPos = new Vector3(UnityEngine.Random.Range(this.transform.position.x, this.transform.position.x + _gridSize.x * _cellSize),
UnityEngine.Random.Range(this.transform.position.y, this.transform.position.y + _gridSize.y * _cellSize),
UnityEngine.Random.Range(this.transform.position.z, this.transform.position.z + _gridSize.z * _cellSize));
bool isValid = _particleSpawnValidation(randomPos);
if (isValid)
{
GameObject particleInstance = Instantiate(particlePrefab);
particleInstance.transform.position = randomPos;
particleInstance.transform.parent = this.transform;
particleInstance.transform.localScale = new Vector3(_particleScale, _particleScale, _particleScale);
_particles.Add(particleInstance.GetComponent <flowFieldParticle>());
}
}
}
void vectorLinearSolve(Vector3[,,] x, Vector3[,,] x0, float a, float c, bool bounce)
{
int n, i, j, k;
for (n = 0; n < linearSolverTimes; n++)
{
for (i = 1; i <= gridSizeX; i++)
{
for (j = 1; j <= gridSizeY; j++)
{
for (k = 1; k <= gridSizeZ; k++)
{
x[i, j, k] = (x0[i, j, k] + a * (
x[i - 1, j, k] +
x[i + 1, j, k] +
x[i, j - 1, k] +
x[i, j + 1, k] +
x[i, j, k - 1] +
x[i, j, k + 1]
)) / c;
}
}
}
vectorSetBoundary(x, bounce);
}
}
public void CalculateNormals()
{
//float startTime = Time.realtimeSinceStartup;
//This calculates the normal of each voxel. If you have a 3d array of data
//the normal is the derivitive of the x, y and z axis.
//Normally is needed to flip the normal (*-1) but it is not needed in this case.
int w = m_voxels.GetLength(0);
int h = m_voxels.GetLength(1);
int l = m_voxels.GetLength(2);
if (m_normals == null)
{
m_normals = new Vector3[w, h, l];
}
for (int x = 2; x < w - 2; x++)
{
for (int y = 2; y < h - 2; y++)
{
for (int z = 2; z < l - 2; z++)
{
float dx = m_voxels[x + 1, y, z] - m_voxels[x - 1, y, z];
float dy = m_voxels[x, y + 1, z] - m_voxels[x, y - 1, z];
float dz = m_voxels[x, y, z + 1] - m_voxels[x, y, z - 1];
m_normals[x, y, z] = Vector3.Normalize(new Vector3(dx, dy, dz));
}
}
}
//Debug.Log("Calculate normals time = " + (Time.realtimeSinceStartup-startTime).ToString() );
}
public void BuildGrid(Vector3 res, bool buildObsMap)
{
// lock (workweLock)
{
scaledRes = new Vector3();
scaledRes.x = bounds.x / res.x;
scaledRes.z = bounds.z / res.z;
scaledRes.y = bounds.y / res.y;
triDPos = new Vector3[(int)res.x, (int)res.y, (int)res.z];
obstacleMap = new bool[(int)res.x, (int)res.y, (int)res.z];
for (int i = 0; i < res.y; i++)
{
for (int j = 0; j < res.z; j++)
{
for (int k = 0; k < res.x; k++)
{
triDPos[k, i, j] = start + new Vector3(scaledRes.x * k, scaledRes.y * i, scaledRes.z * j);
}
}
}
//if (buildObsMap)
//{
// BuildObstacleMap();
//}
}
// StartCoroutine(CheckGrid());
}
private void Start()
{
flowFieldDirection = new Vector3[gridSize.x, gridSize.y, gridSize.z];
fastNoise = new FastNoise();
particles = new List <FlowFieldParticle>();
for (int i = 0; i < particleAmount; i++)
{
int attempt = 0;
while (attempt < 100)
{
Vector3 randomPosition = new Vector3(
Random.Range(transform.position.x, transform.position.x + gridSize.x * cellSize),
Random.Range(transform.position.y, transform.position.y + gridSize.y * cellSize),
Random.Range(transform.position.z, transform.position.z + gridSize.z * cellSize));
bool isValid = particleSpawnValidation(randomPosition);
if (isValid)
{
GameObject particleInstance = (GameObject)Instantiate(particlePrefab);
particleInstance.transform.position = randomPosition;
particleInstance.transform.parent = transform;
particleInstance.transform.localScale = new Vector3(particleScale, particleScale, particleScale);
particles.Add(particleInstance.GetComponent <FlowFieldParticle>());
break;
}
if (!isValid)
{
attempt++;
}
}
}
}
void ComputeVectorField()
{
velocityField = new Vector3[size, size, size];
colorField = new Color[size, size, size];
for (int x = 0; x < size; ++x)
{
for (int y = 0; y < size; ++y)
{
for (int z = 0; z < size; ++z)
{
// compute node position within a unit cube
Vector3 normalizedPosition = new Vector3(x, y, z) / (float)(size - 1);
Vector3 velocity = Vector3.zero;
Color color = Color.black;
float mSum = .0f;
for (int i = samplers.Length - 1; i > -1; --i)
{
Vector3 v;
Color c;
samplers[i].Sample(normalizedPosition, out v, out c);
velocity += v;
float m = v.magnitude; // color weight
mSum += m;
color += c * m;
}
velocityField[x, y, z] = velocity;
color /= Mathf.Max(.0000001f, mSum); // prevent div by 0
color.a = Mathf.Clamp01(color.a);
colorField[x, y, z] = color;
}
}
}
}
void Start()
{
directions = new Vector3[gridSize.x, gridSize.y, gridSize.z];
fastNoise = new FastNoise();
particles = new List <FieldParticle>(amountOfParticles);
for (var i = 0; i < amountOfParticles; i++)
{
var attempt = 0;
while (attempt < 100)
{
var randomPos = new Vector3(
Random.Range(transform.position.x, transform.position.x + gridSize.x * cellSize),
Random.Range(transform.position.y, transform.position.y + gridSize.y * cellSize),
Random.Range(transform.position.z, transform.position.z + gridSize.z * cellSize)
);
if (ValidatePosition(randomPos))
{
var particle = Instantiate(particlePrefab);
particle.transform.position = randomPos;
particle.transform.parent = transform;
particle.transform.localScale = new Vector3(particleScale, particleScale, particleScale);
var ffParticle = particle.GetComponent <FieldParticle>();
particles.Add(ffParticle);
ffParticle.OnSpawn();
break;
}
else
{
attempt++;
}
}
}
onParticlesGenerated?.Invoke();
}
void GenerateCoordinates(Inputs inputs)
{
x_Space = (float)(width) / (float)inputs.Width;
y_Space = (float)(height) / (float)inputs.Height;
z_Space = (float)(depth) / (float)inputs.Depth;
line = GetComponent <LineRenderer>();
line.positionCount = 8;
arrayMap = new Vector3[inputs.Width, inputs.Height, inputs.Depth];
for (int depth = 0; depth < inputs.Depth; depth++)
{
for (int row = 0; row < inputs.Width; row++)
{
for (int col = 0; col < inputs.Height; col++)
{
Vector3 dot = new Vector3(x_Start + (x_Space * row), y_Start + (-y_Space * col), z_Start + (z_Space * depth));
arrayMap[row, col, depth] = dot;
GameObject instantiatedObj = Instantiate(prefab, dot, Quaternion.identity);
instantiatedList.Add(instantiatedObj);
}
}
}
}
public Vector3[,,] CreateGridOnHelix(Helix h, int w = 9)
{
width = w;
Vector3[] points = h.points;
triSize = h.sideLength;
int length = h.sideCount; // along the line of the helix
int height = h.rotations; // vertically up the helix
int center = width / 2; // the z coord that falls on the line
coords = new Vector3[length, height, width];
for (int y = 0; y < height; y++)
{
for (int x = 0; x < length; x++)
{
for (int z = 0; z < width; z++)
{
coords[x, y, z] = new Vector3(x, y, z);
}
}
}
positions = new Vector3[length, height, width];
for (int y = 0; y < height; y++)
{
for (int x = 0; x < length; x++)
{
// get the angle from this point on the line to the center of the helix
Vector3 targetDir = h.center - Vector3.Normalize(new Vector3(points[x].x, 0, points[x].z));
float angle = Vector3.Angle(targetDir, Vector3.back);
// compensate for the fact that Vector3.Angle only returns acute angles
if (x > length / 2)
{
angle = Mathf.Abs(angle - 180);
angle += 180;
}
angle *= Mathf.Deg2Rad;
for (int z = 0; z < width; z++)
{
// get the distance from the point, perpendicular to the line of the helix
float dis = (float)triSize * (z - center);
if (x % 2 == 0)
{
dis += (float)triSize * 0.5f;
}
// calculate the position
float xPos = points[x].x + dis * Mathf.Sin(angle);
float yPos = points[(y * length) + x].y;
float zPos = points[x].z + dis * Mathf.Cos(angle);
positions[x, y, z] = new Vector3(xPos, yPos, zPos);
}
}
}
return(positions);
}
float Interp(Vector3[,,] c, float u, float v, float w)
{
float uu = u * u * (3.0f - 2.0f * u);
float vv = v * v * (3.0f - 2.0f * v);
float ww = w * w * (3.0f - 2.0f * w);
float accum = 0;
for (int i = 0; i < 2; ++i)
{
for (int j = 0; j < 2; ++j)
{
for (int k = 0; k < 2; ++k)
{
Vector3 weightV = new Vector3(u - (float)i, v - (float)j, w - (float)k);
accum += ((float)i * uu + (1 - (float)i) * (1 - uu)) *
((float)j * vv + (1 - (float)j) * (1 - vv)) *
((float)k * ww + (1 - (float)k) * (1 - ww)) *
Vector3.Dot(c[i, j, k], weightV);
}
}
}
return(accum);
}
public void CalculateNormals()
{
//float startTime = Time.realtimeSinceStartup;
//This calculates the normal of each voxel. If you have a 3d array of data
//the normal is the derivitive of the x, y and z axis.
//Normally you need to flip the normal (*-1) but it is not needed in this case.
//If you dont call this function the normals that Unity generates for a mesh are used.
int w = GridData.GetLength(0);
int h = GridData.GetLength(1);
int l = GridData.GetLength(2);
GridNormals = GridNormals ?? new Vector3[w, h, l];
for (int x = 2; x < w - 2; x++)
{
for (int y = 2; y < h - 2; y++)
{
for (int z = 2; z < l - 2; z++)
{
float dx = GridData[x + 1, y, z] - GridData[x - 1, y, z];
float dy = GridData[x, y + 1, z] - GridData[x, y - 1, z];
float dz = GridData[x, y, z + 1] - GridData[x, y, z - 1];
GridNormals[x, y, z] = Vector3.Normalize(new Vector3(dx, dy, dz));
}
}
}
}
public void ResetGrid()
{
_currentX = 0;
_currentY = 0;
_currentZ = 0;
_grid = Get3DScatterGrid();
}
private void CreateCells()
{
int n = config.size;
float cellsDistance = Config.cellsDistance;
GameObject cell;
positions = new Vector3[n, n, n];
cells = new Cell[n, n, n];
for (int i = 0; i < n; i++)
{
for (int j = 0; j < n; j++)
{
for (int k = 0; k < n; k++)
{
cell = Instantiate(_emptyCellPrefab);
cell.GetComponent <Cell>().cellData.i = i;
cell.GetComponent <Cell>().cellData.j = j;
cell.GetComponent <Cell>().cellData.k = k;
positions[i, j, k] = new Vector3(i * cellsDistance, j * cellsDistance, k * cellsDistance);
cell.transform.position = positions[i, j, k];
cell.transform.SetParent(cellsParent);
cells[i, j, k] = cell.GetComponent <Cell>();
}
}
}
EventManager.NewCellsCreated();
}
// Grid cube to center and verts in buffer for GPU
private void instantiateGridCubes()
{
GridVerts = new Vector3[XCubes + 1, YCubes + 1, ZCubes + 1];
Cubes = new GridCube[XCubes * YCubes * ZCubes];
for (int x = 0; x < XCubes; x++)
{
for (int y = 0; y < YCubes; y++)
{
for (int z = 0; z < ZCubes; z++)
{
Vector3 centerPoint = cubeMap[x, y, z];
Cubes[x + XCubes * (y + YCubes * z)].CenterPos = centerPoint;
Cubes[x + XCubes * (y + YCubes * z)].V0 = centerPoint + vertMap[0];
Cubes[x + XCubes * (y + YCubes * z)].V1 = centerPoint + vertMap[1];
Cubes[x + XCubes * (y + YCubes * z)].V2 = centerPoint + vertMap[2];
Cubes[x + XCubes * (y + YCubes * z)].V3 = centerPoint + vertMap[3];
Cubes[x + XCubes * (y + YCubes * z)].V4 = centerPoint + vertMap[4];
Cubes[x + XCubes * (y + YCubes * z)].V5 = centerPoint + vertMap[5];
Cubes[x + XCubes * (y + YCubes * z)].V6 = centerPoint + vertMap[6];
Cubes[x + XCubes * (y + YCubes * z)].V7 = centerPoint + vertMap[7];
GridVerts[x, y, z] = centerPoint + vertMap[0];
GridVerts[x + 1, y, z] = centerPoint + vertMap[1];
GridVerts[x + 1, y + 1, z] = centerPoint + vertMap[2];
GridVerts[x, y + 1, z] = centerPoint + vertMap[3];
GridVerts[x, y, z + 1] = centerPoint + vertMap[4];
GridVerts[x + 1, y, z + 1] = centerPoint + vertMap[5];
GridVerts[x + 1, y + 1, z + 1] = centerPoint + vertMap[6];
GridVerts[x, y + 1, z + 1] = centerPoint + vertMap[7];
}
}
}
}
void DebugVertexMatrix()
{
vertexMatrix = theGrid.BuildVertexMatrix(3.0f, 3.0f, 3.0f);
theGrid.DrawVertices(vertexMatrix);
if(printLogs){
Gizmos.color = Color.red;
Gizmos.DrawSphere((theGrid.ReadVertexMatrix(index[0], index[1], index[2], vertexMatrix)), 0.3f);
}
}
public static void setChunkSize ( int _sizeXZ, int _sizeY ) {
chunkSizeXZ = _sizeXZ;
chunkSizeY = _sizeY;
allVertices = new Vector3[ chunkSizeXZ + 1, chunkSizeY + 1, chunkSizeXZ + 1 ];
for ( int x = 0; x <= chunkSizeXZ; x++ ) {
for ( int y = 0; y <= chunkSizeY; y++ ) {
for ( int z = 0; z <= chunkSizeXZ; z++ ) {
allVertices[ x, y, z ] = new Vector3 ( x, y, z );
}
}
}
}
public LoopableNoise3D(int seed, float period, Point3 periodLoop)
{
this.seed = seed;
this.period = period;
this.periodLoop = periodLoop;
Random rdm = new Random(seed);
gradientVectors = new Vector3[periodLoop.X, periodLoop.Y, periodLoop.Z];
for(int i=0;i<gradientVectors.GetLength(0);i++)
for(int j=0;j<gradientVectors.GetLength(1);j++)
for (int k = 0; k < gradientVectors.GetLength(2); k++)
{
gradientVectors[i, j, k] = randVect(rdm);
}
}
public LugusRandomGeneratorGrid( float width, float height, float depth, int rows, int cols, int stack, float spread , int seed)
{
_dr = new DataRange(0,cols*rows*stack);
SetSeed(seed);
_xDir = width / cols;
_yDir = height / rows;
_zDir = depth / stack;
_width = width;
_height = height;
_depth = depth;
_rows = rows;
_cols = cols;
_stack = stack;
_spread = spread;
_grid = CreateScatterGrid();
}
public GenChunkMesh ( Chunk _myChunk ) {
myChunk = _myChunk;
newVertices.Clear ();
newTriangles.Clear ();
allVertices = new Vector3[ myChunk.getChunkSizeXZ() + 1, myChunk.getChunkSizeY () + 1, myChunk.getChunkSizeXZ () + 1 ];
for ( int x = 0; x <= myChunk.getChunkSizeXZ (); x++ ) {
for ( int y = 0; y <= myChunk.getChunkSizeY (); y++ ) {
for ( int z = 0; z <= myChunk.getChunkSizeXZ (); z++ ) {
allVertices[ x, y, z ] = new Vector3 ( x, y, z );
}
}
}
}
public DisplayForm( Vector3[,,] _BRDF )
{
InitializeComponent();
// SaveAllSlices();
BuildScaleTable();
// LoadScaleTable();
m_BRDF = _BRDF;
m_Slice = new Bitmap( 90, 90, PixelFormat.Format32bppArgb );
m_Pen = new Pen( Color.Black, 1.0f );
m_Pen.DashStyle = System.Drawing.Drawing2D.DashStyle.Dash;
integerTrackbarControlPhiD_ValueChanged( integerTrackbarControlPhiD, 0 );
}
/**
* Initialise the normal map. This must be done after the height map has
* been initialised.
*/
private void initNormalMap()
{
/* each square region is made up of two triangles. */
normals = new Vector3[width, height, 2];
for (int x = 0; x < width; x++)
for (int y = 0; y < height; y++)
{
Vector3 p0 = getPositionAt(x, y);
Vector3 p1 = getPositionAt(x + 1, y);
Vector3 p2 = getPositionAt(x, y + 1);
Vector3 p3 = getPositionAt(x + 1, y + 1);
Vector3 v0 = p2 - p0;
Vector3 v1 = p3 - p2;
Vector3 v2 = p3 - p1;
Vector3 v3 = p1 - p0;
normals[x, y, 0] = Vector3.Cross(v1, v0);
normals[x, y, 1] = Vector3.Cross(v3, v2);
}
}
public void ResetGrid()
{
_currentX=0;
_currentY=0;
_currentZ=0;
_grid = CreateScatterGrid();
}
public static Vector3[] CalculateNormalsRemove(byte[,,] m_voxels ,int size,Vector3 [] verts)
{
Vector3[] normals = new Vector3[size];
//float startTime = Time.realtimeSinceStartup;
int w = m_voxels.GetLength(0);
int h= m_voxels.GetLength(1);
int l = m_voxels.GetLength(2);
//This calculates the normal of each voxel. If you have a 3d array of data
//the normal is the derivitive of the x, y and z axis.
//Normally you need to flip the normal (*-1) but it is not needed in this case.
//If you dont call this function the normals that Unity generates for a mesh are used.
m_normals2 = new Vector3[w,h,l];
for(int x = 2; x < w-2; x++)
{
for(int y = 2; y < h-2; y++)
{
for(int z = 2; z < l-2; z++)
{
float dx = m_voxels[x+1,y,z] - m_voxels[x-1,y,z];
float dy = m_voxels[x,y+1,z] - m_voxels[x,y-1,z];
float dz = m_voxels[x,y,z+1] - m_voxels[x,y,z-1];
m_normals2[x,y,z] = Vector3.Normalize(new Vector3(dx,dy,dz));
}
}
}
for(int i = 0;i < size ;i++){
normals[i] = MeshFactory.TriLinearInterp(verts[i]);
}
//Debug.Log("Calculate normals time = " + (Time.realtimeSinceStartup-startTime).ToString() );
return normals;
}
public SimpleFlowField(int x, int y, int z, Vector3 center)
{
_center = center;
_field = new Vector3[x, y, z];
}
public void GenerateTexture()
{
GenerateNoiseGenerator();
gradient = new Vector3[Res,Res,Res];
for (int z = 0; z < Res; ++z) {
for (int y = 0; y < Res; ++y) {
for (int x = 0; x < Res; ++x) {
gradient[x, y, z] = GetValue(x, y, z);
}
}
EditorUtility.DisplayProgressBar("Generating noise", "Generating noise...",
(z * Res * Res) / (float) (Res * Res * Res));
}
EditorUtility.ClearProgressBar();
target.GenerateTexture(gradient, NeedsNewTexture());
if (!EditorUtility.IsPersistent(target.forceTexture)) {
AssetDatabase.CreateAsset(target.forceTexture, AssetDatabase.GenerateUniqueAssetPath("Assets/TC Noise Force.asset"));
Selection.activeObject = target.forceTexture;
}
}
void setupParameters()
{
isoValue = new float[resX + 2, resY + 2, resZ + 2];
n = new Vector3[resX + 2, resY + 2, resZ + 2];
for(int x = 0; x < resX+2; x++){
for(int y = 0; y < resY+2; y++){
for(int z = 0; z < resZ+2; z++){
isoValue[x,y,z] = 0.0f;
n[x,y,z] = new Vector3(0, 0, 0);
}
}
}
u = new float[resX, resY, resZ];
v = new float[resX, resY, resZ];
dudt = new float[resX, resY, resZ];
dvdt = new float[resX, resY, resZ];
for(int x = 0; x < resX; x++){
for(int y = 0; y < resY; y++){
for(int z = 0; z < resZ; z++){
u[x,y,z] = Random.value;
v[x,y,z] = Random.value;
dudt[x,y,z] = Random.value;
dvdt[x,y,z] = Random.value;
}
}
}
tempVert = new Vector3[12];
tempNorm = new Vector3[12];
vertices = new List<Vector3>();
normals = new List<Vector3> ();
triangles = new List<int>();
}
public WaterMesh( String meshName, float planeSize, int cmplx )
{ // najak R-F
// Assign Fields to the Initializer values
this.meshName = meshName;
this.size = planeSize;
this.cmplx = cmplx; // Number of Rows/Columns in the Water Grid representation
cmplxAdj = (float)System.Math.Pow( ( cmplx / 64f ), 1.4f ) * 2;
numFaces = 2 * (int)System.Math.Pow( cmplx, 2 ); // Each square is split into 2 triangles.
numVertices = (int)System.Math.Pow( ( cmplx + 1 ), 2 ); // Vertex grid is (Complexity+1) squared
// Allocate and initialize space for calculated Normals
vNorms = new Vector3[ cmplx + 1, cmplx + 1 ]; // vertex Normals for each grid point
fNorms = new Vector3[ cmplx, cmplx, 2 ]; // face Normals for each triangle
// Create mesh and submesh to represent the Water
mesh = (Mesh)MeshManager.Instance.CreateManual( meshName, ResourceGroupManager.DefaultResourceGroupName, null );
subMesh = mesh.CreateSubMesh();
subMesh.useSharedVertices = false;
// Construct metadata to describe the buffers associated with the water submesh
subMesh.vertexData = new VertexData();
subMesh.vertexData.vertexStart = 0;
subMesh.vertexData.vertexCount = numVertices;
// Define local variables to point to the VertexData Properties
VertexDeclaration vdecl = subMesh.vertexData.vertexDeclaration; // najak: seems like metadata
VertexBufferBinding vbind = subMesh.vertexData.vertexBufferBinding; // najak: pointer to actual buffer
//najak: Set metadata to describe the three vertex buffers that will be accessed.
vdecl.AddElement( 0, 0, VertexElementType.Float3, VertexElementSemantic.Position );
vdecl.AddElement( 1, 0, VertexElementType.Float3, VertexElementSemantic.Normal );
vdecl.AddElement( 2, 0, VertexElementType.Float2, VertexElementSemantic.TexCoords );
// Prepare buffer for positions - todo: first attempt, slow
// Create the Position Vertex Buffer and Bind it index 0 - Write Only
posVBuf = HwBufMgr.CreateVertexBuffer( vdecl.Clone(0), numVertices, BufferUsage.DynamicWriteOnly );
vbind.SetBinding( 0, posVBuf );
// Prepare buffer for normals - write only
// Create the Normals Buffer and Bind it to index 1 - Write only
normVBuf = HwBufMgr.CreateVertexBuffer( vdecl.Clone(1), numVertices, BufferUsage.DynamicWriteOnly );
vbind.SetBinding( 1, normVBuf );
// Prepare Texture Coordinates buffer (static, written only once)
// Creates a 2D buffer of 2D coordinates: (Complexity X Complexity), pairs.
// Each pair indicates the normalized coordinates of the texture to map to.
// (0,1.00), (0.02, 1.00), (0.04, 1.00), ... (1.00,1.00)
// (0,0.98), (0.02, 0.98), (0.04, 1.00), ... (1.00,0.98)
// ...
// (0,0.00), (0.02, 0.00), (0.04, 0.00), ... (1.00,0.00)
// This construct is simple and is used to calculate the Texture map.
// Todo: Write directly to the buffer, when Axiom supports this in safe manner
float[ , , ] tcBufDat = new float[ cmplx + 1, cmplx + 1, 2 ];
for ( int i = 0; i <= cmplx; i++ )
{
// 2D column iterator for texture map
for ( int j = 0; j <= cmplx; j++ )
{
// 2D row iterator for texture map
// Define the normalized(0..1) X/Y-coordinates for this element of the 2D grid
tcBufDat[ i, j, 0 ] = (float)i / cmplx;
tcBufDat[ i, j, 1 ] = 1.0f - ( (float)j / ( cmplx ) );
}
}
// Now Create the actual hardware buffer to contain the Texture Coordinate 2d map.
// and Bind it to buffer index 2
tcVBuf = HwBufMgr.CreateVertexBuffer( vdecl.Clone(2), numVertices, BufferUsage.StaticWriteOnly );
tcVBuf.WriteData( 0, tcVBuf.Size, tcBufDat, true );
vbind.SetBinding( 2, tcVBuf );
// Create a Graphics Buffer on non-shared vertex indices (3 points for each triangle).
// Since the water grid consist of [Complexity x Complexity] squares, each square is
// split into 2 right triangles 45-90-45. That is how the water mesh is constructed.
// Therefore the number of faces = 2 * Complexity * Complexity
ushort[ , , ] idxBuf = new ushort[ cmplx, cmplx, 6 ];
for ( int i = 0; i < cmplx; i++ )
{ // iterate the rows
for ( int j = 0; j < cmplx; j++ )
{ // iterate the columns
// Define 4 corners of each grid
ushort p0 = (ushort)( i * ( cmplx + 1 ) + j ); // top left point on square
ushort p1 = (ushort)( i * ( cmplx + 1 ) + j + 1 ); // top right
ushort p2 = (ushort)( ( i + 1 ) * ( cmplx + 1 ) + j ); // bottom left
ushort p3 = (ushort)( ( i + 1 ) * ( cmplx + 1 ) + j + 1 ); // bottom right
// Split Square Grid element into 2 adjacent triangles.
idxBuf[ i, j, 0 ] = p2;
idxBuf[ i, j, 1 ] = p1;
idxBuf[ i, j, 2 ] = p0; // top-left triangle
idxBuf[ i, j, 3 ] = p2;
idxBuf[ i, j, 4 ] = p3;
idxBuf[ i, j, 5 ] = p1; // bottom-right triangle
}
}
// Copy Index Buffer to the Hardware Index Buffer
HardwareIndexBuffer hdwrIdxBuf = HwBufMgr.CreateIndexBuffer( IndexType.Size16, 3 * numFaces, BufferUsage.StaticWriteOnly, true );
hdwrIdxBuf.WriteData( 0, numFaces * 3 * 2, idxBuf, true );
// Set index buffer for this submesh
subMesh.indexData.indexBuffer = hdwrIdxBuf;
subMesh.indexData.indexStart = 0;
subMesh.indexData.indexCount = 3 * numFaces;
//Prepare Vertex Position Buffers (Note: make 3, since each frame is function of previous two)
vBufs = new Vector3[ 3 ][ , ];
for ( int b = 0; b < 3; b++ )
{
vBufs[ b ] = new Vector3[ cmplx + 1, cmplx + 1 ];
for ( int y = 0; y <= cmplx; y++ )
{
for ( int x = 0; x <= cmplx; x++ )
{
vBufs[ b ][ y, x ].x = (float)( x ) / (float)( cmplx ) * (float)size;
vBufs[ b ][ y, x ].y = 0;
vBufs[ b ][ y, x ].z = (float)( y ) / (float)( cmplx ) * (float)size;
}
}
}
curBufNum = 0;
vBuf = vBufs[ curBufNum ];
posVBuf.WriteData( 0, posVBuf.Size, vBufs[ 0 ], true );
AxisAlignedBox meshBounds = new AxisAlignedBox( new Vector3( 0, 0, 0 ), new Vector3( size, 0, size ) );
mesh.BoundingBox = meshBounds; // mesh->_setBounds(meshBounds); // najak: can't find _setBounds()
mesh.Load();
mesh.Touch();
} // end WaterMesh Constructor
public SceneFilesConfig(Vector3 ARange)
{
files = new Vector3[ARange.x, ARange.y, ARange.z] ;
startPos = new Vector3(0, 0, 0);
}
private void initialise(HeightMap heightMap)
{
width = heightMap.getMapWidth();
height = heightMap.getMapHeight();
normals = new Vector3[width, height, 2];
for (int x = 0; x < width; x++)
for (int y = 0; y < height; y++)
{
Vector3 p0 = heightMap.getPositionAt(x, y);
Vector3 p1 = heightMap.getPositionAt(x + 1, y);
Vector3 p2 = heightMap.getPositionAt(x, y + 1);
Vector3 p3 = heightMap.getPositionAt(x + 1, y + 1);
Vector3 v0 = p2 - p0;
Vector3 v1 = p3 - p2;
Vector3 v2 = p3 - p1;
Vector3 v3 = p1 - p0;
normals[x, y, 0] = Vector3.Cross(v1, v0);
normals[x, y, 1] = Vector3.Cross(v3, v2);
}
}