public void Execute(int index)
{
int x = JobA.Row(index, tDim);
int y = JobA.Col(index, tDim);
// Assign tile data to tilemap
Color32 tileColor = new Color32(0, 0, 0, 0);
// Get sample tile data
byte tile = tilemapData[JobA.Idx(x, y, tDim)];
// Convert from [flip,rotate,6bit-record] => [6bit-record,flip,rotate]
int record;
if (tile == byte.MaxValue)
{ // Zeros are converted to FF so assign tiles doesn't overwrite location tiles, convert back.
record = 0;
}
else
{
record = tile * 4;
if ((tile & rotBit) != 0)
{
record += 1;
}
if ((tile & flipBit) != 0)
{
record += 2;
}
}
// Assign to tileMap
tileColor.r = tileColor.a = (byte)record;
tileMap[y * tDim + x] = tileColor;
}
/// <summary>
/// Complete terrain data update using jobs system. (second of a two stage process)
/// </summary>
/// <param name="terrainTexturing">Instance of ITerrainTexturing implementation class to use.</param>
public void CompleteMapPixelDataUpdate(ITerrainTexturing terrainTexturing = null)
{
// Convert heightmap data back to standard managed 2d array.
MapData.heightmapSamples = new float[heightmapDim, heightmapDim];
for (int i = 0; i < MapData.heightmapData.Length; i++)
{
MapData.heightmapSamples[JobA.Row(i, heightmapDim), JobA.Col(i, heightmapDim)] = MapData.heightmapData[i];
}
// Convert tilemap data back to standard managed 2d array.
// (Still needed for nature layout so it can be called again without requiring terrain data generation)
MapData.tilemapSamples = new byte[tilemapDim, tilemapDim];
for (int i = 0; i < MapData.tilemapData.Length; i++)
{
byte tile = MapData.tilemapData[i];
if (tile == byte.MaxValue)
{
tile = 0;
}
MapData.tilemapSamples[JobA.Row(i, tilemapDim), JobA.Col(i, tilemapDim)] = tile;
}
// Create tileMap array or resize if needed and copy native array.
if (TileMap == null || TileMap.Length != MapData.tileMap.Length)
{
TileMap = new Color32[MapData.tileMap.Length];
}
MapData.tileMap.CopyTo(TileMap);
// Copy max and avg heights. (TODO: Are these needed? Seem to not be used anywhere)
MapData.averageHeight = MapData.avgMaxHeight[TerrainHelper.avgHeightIdx];
MapData.maxHeight = MapData.avgMaxHeight[TerrainHelper.maxHeightIdx];
DisposeNativeMemory();
}
public void Execute(int index)
{
int x = JobA.Row(index, tdDim);
int y = JobA.Col(index, tdDim);
// Height sample for ocean and beach tiles
int hx = (int)Mathf.Clamp(hDim * ((float)x / (float)tdDim), 0, hDim - 1);
int hy = (int)Mathf.Clamp(hDim * ((float)y / (float)tdDim), 0, hDim - 1);
float height = heightmapData[JobA.Idx(hy, hx, hDim)] * maxTerrainHeight; // x & y swapped in heightmap for TerrainData.SetHeights()
// Ocean texture
if (height <= oceanElevation)
{
tileData[index] = water;
return;
}
// Beach texture
// Adds a little +/- randomness to threshold so beach line isn't too regular
if (height <= beachElevation + (JobRand.Next(-15000000, 15000000) / 10000000f))
{
tileData[index] = dirt;
return;
}
// Get latitude and longitude of this tile
int latitude = (int)(mapPixelX * MapsFile.WorldMapTileDim + x);
int longitude = (int)(MapsFile.MaxWorldTileCoordZ - mapPixelY * MapsFile.WorldMapTileDim + y);
// Set texture tile using weighted noise
float weight = 0;
weight += NoiseWeight(latitude, longitude);
// TODO: Add other weights to influence texture tile generation
tileData[index] = GetWeightedRecord(weight);
}
public void Execute(int index)
{
int x = JobA.Row(index, tDim);
int y = JobA.Col(index, tDim);
// Do nothing if in location rect as texture already set, to 0xFF if zero
if (tilemapData[index] != 0)
{
return;
}
// Assign tile texture
if (march)
{
// Get sample points
int tdIdx = JobA.Idx(x, y, tdDim);
int b0 = tileData[tdIdx]; // tileData[x, y]
int b1 = tileData[tdIdx + 1]; // tileData[x + 1, y]
int b2 = tileData[tdIdx + tdDim]; // tileData[x, y + 1]
int b3 = tileData[tdIdx + tdDim + 1]; // tileData[x + 1, y + 1]
int shape = (b0 & 1) | (b1 & 1) << 1 | (b2 & 1) << 2 | (b3 & 1) << 3;
int ring = (b0 + b1 + b2 + b3) >> 2;
int tileID = shape | ring << 4;
tilemapData[index] = lookupTable[tileID];
}
else
{
tilemapData[index] = tileData[JobA.Idx(x, y, tdDim)];
}
}
public void Execute(int index)
{
// Use cols=x and rows=y for height data
int x = JobA.Col(index, hDim);
int y = JobA.Row(index, hDim);
float rx = (float)x / div;
float ry = (float)y / div;
int ix = Mathf.FloorToInt(rx);
int iy = Mathf.FloorToInt(ry);
float sfracx = (float)x / (float)(hDim - 1);
float sfracy = (float)y / (float)(hDim - 1);
float fracx = (float)(x - ix * div) / div;
float fracy = (float)(y - iy * div) / div;
float scaledHeight = 0;
// Bicubic sample small height map for base terrain elevation
x1 = TerrainHelper.CubicInterpolator(shm[JobA.Idx(0, 3, sd)], shm[JobA.Idx(1, 3, sd)], shm[JobA.Idx(2, 3, sd)], shm[JobA.Idx(3, 3, sd)], sfracx);
x2 = TerrainHelper.CubicInterpolator(shm[JobA.Idx(0, 2, sd)], shm[JobA.Idx(1, 2, sd)], shm[JobA.Idx(2, 2, sd)], shm[JobA.Idx(3, 2, sd)], sfracx);
x3 = TerrainHelper.CubicInterpolator(shm[JobA.Idx(0, 1, sd)], shm[JobA.Idx(1, 1, sd)], shm[JobA.Idx(2, 1, sd)], shm[JobA.Idx(3, 1, sd)], sfracx);
x4 = TerrainHelper.CubicInterpolator(shm[JobA.Idx(0, 0, sd)], shm[JobA.Idx(1, 0, sd)], shm[JobA.Idx(2, 0, sd)], shm[JobA.Idx(3, 0, sd)], sfracx);
baseHeight = TerrainHelper.CubicInterpolator(x1, x2, x3, x4, sfracy);
scaledHeight += baseHeight * baseHeightScale;
// Bicubic sample large height map for noise mask over terrain features
x1 = TerrainHelper.CubicInterpolator(lhm[JobA.Idx(ix, iy + 0, ld)], lhm[JobA.Idx(ix + 1, iy + 0, ld)], lhm[JobA.Idx(ix + 2, iy + 0, ld)], lhm[JobA.Idx(ix + 3, iy + 0, ld)], fracx);
x2 = TerrainHelper.CubicInterpolator(lhm[JobA.Idx(ix, iy + 1, ld)], lhm[JobA.Idx(ix + 1, iy + 1, ld)], lhm[JobA.Idx(ix + 2, iy + 1, ld)], lhm[JobA.Idx(ix + 3, iy + 1, ld)], fracx);
x3 = TerrainHelper.CubicInterpolator(lhm[JobA.Idx(ix, iy + 2, ld)], lhm[JobA.Idx(ix + 1, iy + 2, ld)], lhm[JobA.Idx(ix + 2, iy + 2, ld)], lhm[JobA.Idx(ix + 3, iy + 2, ld)], fracx);
x4 = TerrainHelper.CubicInterpolator(lhm[JobA.Idx(ix, iy + 3, ld)], lhm[JobA.Idx(ix + 1, iy + 3, ld)], lhm[JobA.Idx(ix + 2, iy + 3, ld)], lhm[JobA.Idx(ix + 3, iy + 3, ld)], fracx);
noiseHeight = TerrainHelper.CubicInterpolator(x1, x2, x3, x4, fracy);
scaledHeight += noiseHeight * noiseMapScale;
// Additional noise mask for small terrain features at ground level
int noisex = mapPixelX * (hDim - 1) + x;
int noisey = (MapsFile.MaxMapPixelY - mapPixelY) * (hDim - 1) + y;
float lowFreq = TerrainHelper.GetNoise(noisex, noisey, 0.3f, 0.5f, 0.5f, 1);
float highFreq = TerrainHelper.GetNoise(noisex, noisey, 0.9f, 0.5f, 0.5f, 1);
scaledHeight += (lowFreq * highFreq) * extraNoiseScale;
// Clamp lower values to ocean elevation
if (scaledHeight < scaledOceanElevation)
{
scaledHeight = scaledOceanElevation;
}
// Set sample
float height = Mathf.Clamp01(scaledHeight / maxTerrainHeight);
heightmapData[index] = height;
}
// Makes terrain sampler implementations backwards compatible with jobs system terrain data generation.
public virtual JobHandle ScheduleGenerateSamplesJob(ref MapPixelData mapPixel)
{
GenerateSamples(ref mapPixel);
// Convert generated samples to the flattened native array used by jobs.
int hDim = HeightmapDimension;
for (int y = 0; y < hDim; y++)
{
for (int x = 0; x < hDim; x++)
{
mapPixel.heightmapData[JobA.Idx(y, x, hDim)] = mapPixel.heightmapSamples[y, x];
}
}
return(new JobHandle());
}
public void Execute()
{
// Convert from rect in tilemap space to interior corners in 0-1 range
float xMin = locationRect.xMin / MapsFile.WorldMapTileDim;
float xMax = locationRect.xMax / MapsFile.WorldMapTileDim;
float yMin = locationRect.yMin / MapsFile.WorldMapTileDim;
float yMax = locationRect.yMax / MapsFile.WorldMapTileDim;
// Scale values for converting blend space into 0-1 range
float leftScale = 1 / xMin;
float rightScale = 1 / (1 - xMax);
float topScale = 1 / yMin;
float bottomScale = 1 / (1 - yMax);
// Flatten location area and blend with surrounding heights
float strength = 0;
float targetHeight = avgMaxHeight[avgHeightIdx];
for (int y = 0; y < hDim; y++)
{
float v = (float)y / (float)(hDim - 1);
bool insideY = (v >= yMin && v <= yMax);
for (int x = 0; x < hDim; x++)
{
float u = (float)x / (float)(hDim - 1);
bool insideX = (u >= xMin && u <= xMax);
if (insideX || insideY)
{
if (insideY && u <= xMin)
{
strength = u * leftScale;
}
else if (insideY && u >= xMax)
{
strength = (1 - u) * rightScale;
}
else if (insideX && v <= yMin)
{
strength = v * topScale;
}
else if (insideX && v >= yMax)
{
strength = (1 - v) * bottomScale;
}
}
else
{
float xs = 0, ys = 0;
if (u <= xMin)
{
xs = u * leftScale;
}
else if (u >= xMax)
{
xs = (1 - u) * rightScale;
}
if (v <= yMin)
{
ys = v * topScale;
}
else if (v >= yMax)
{
ys = (1 - v) * bottomScale;
}
strength = TerrainHelper.BilinearInterpolator(0, 0, 0, 1, xs, ys);
}
int idx = JobA.Idx(y, x, hDim);
float height = heightmapData[idx];
if (insideX && insideY)
{
height = targetHeight;
}
else
{
height = Mathf.Lerp(height, targetHeight, strength);
}
heightmapData[idx] = height;
}
}
}
// Set location tilemap data
public static void SetLocationTiles(ref MapPixelData mapPixel)
{
// Get location
DaggerfallUnity dfUnity = DaggerfallUnity.Instance;
DFLocation location = dfUnity.ContentReader.MapFileReader.GetLocation(mapPixel.mapRegionIndex, mapPixel.mapLocationIndex);
// Position tiles inside terrain area
DFPosition tilePos = TerrainHelper.GetLocationTerrainTileOrigin(location);
// Full 8x8 locations have "terrain blend space" around walls to smooth down random terrain towards flat area.
// This is indicated by texture index > 55 (ground texture range is 0-55), larger values indicate blend space.
// We need to know rect of actual city area so we can use blend space outside walls.
int xmin = int.MaxValue, ymin = int.MaxValue;
int xmax = 0, ymax = 0;
// Iterate blocks of this location
for (int blockY = 0; blockY < location.Exterior.ExteriorData.Height; blockY++)
{
for (int blockX = 0; blockX < location.Exterior.ExteriorData.Width; blockX++)
{
// Get block data
DFBlock block;
string blockName = dfUnity.ContentReader.MapFileReader.GetRmbBlockName(ref location, blockX, blockY);
if (!dfUnity.ContentReader.GetBlock(blockName, out block))
{
continue;
}
// Copy ground tile info
for (int tileY = 0; tileY < RMBLayout.RMBTilesPerBlock; tileY++)
{
for (int tileX = 0; tileX < RMBLayout.RMBTilesPerBlock; tileX++)
{
DFBlock.RmbGroundTiles tile = block.RmbBlock.FldHeader.GroundData.GroundTiles[tileX, (RMBLayout.RMBTilesPerBlock - 1) - tileY];
int xpos = tilePos.X + blockX * RMBLayout.RMBTilesPerBlock + tileX;
int ypos = tilePos.Y + blockY * RMBLayout.RMBTilesPerBlock + tileY;
if (tile.TextureRecord < 56)
{
// Track interior bounds of location tiled area
if (xpos < xmin)
{
xmin = xpos;
}
if (xpos > xmax)
{
xmax = xpos;
}
if (ypos < ymin)
{
ymin = ypos;
}
if (ypos > ymax)
{
ymax = ypos;
}
// Store texture data from block
mapPixel.tilemapData[JobA.Idx(xpos, ypos, MapsFile.WorldMapTileDim)] = tile.TileBitfield == 0 ? byte.MaxValue : tile.TileBitfield;
}
}
}
}
}
// Update location rect with extra clearance
int extraClearance = location.MapTableData.LocationType == DFRegion.LocationTypes.TownCity ? 3 : 2;
Rect locationRect = new Rect();
locationRect.xMin = xmin - extraClearance;
locationRect.xMax = xmax + extraClearance;
locationRect.yMin = ymin - extraClearance;
locationRect.yMax = ymax + extraClearance;
mapPixel.locationRect = locationRect;
}