public Cave(ref Random rnd, ref IMapHandler mh, Vector3i StartingPoint)
{
mMap = mh;
rand = rnd;
AddPoint(StartingPoint);
// We need at least 4 points.
int numPoints2Make = rand.Next(3, 10);
for(int i=0;i<numPoints2Make;i++)
{
i++;
AddPoint(new Vector3i(StartingPoint.X+rand.Next(-16, 16), StartingPoint.Y+rand.Next(-16, 16), StartingPoint.Z+rand.Next(-16, 16)));
}
Profiler profSphere = new Profiler("MakeSphere");
Profiler profSpline = new Profiler("GetInterpolatedSplinePoint");
int rad = rand.Next(1, 3);
for(int p = 0;p<20;p++)
{
double t = (double)p/(double)(Points.Count*32);
// Between 2/10 radius.
profSpline.Start();
Vector3i derp = this.GetInterpolatedSplinePoint(t);
profSpline.Stop();
mMap.SetBlockAt(derp.X, derp.Y, derp.Z, 0);
profSphere.Start();
MakeSphere(derp, rad);
profSphere.Stop();
//Console.WriteLine("MakeSphere r={0} @ t={1}", rad, t);
//t += 0.05;
}
mMap.SaveAll();
Console.WriteLine(profSpline.ToString());
Console.WriteLine(profSphere.ToString());
}
public dlgReplace(IMapHandler mh)
{
_Map=mh;
InitializeComponent();
LockChunkPos(true);
LockRect(true);
}
/// <summary>
/// From the VoxelSim project
/// http://github.com/N3X15/VoxelSim
/// </summary>
/// <param name="X"></param>
/// <param name="Z"></param>
/// <param name="chunksize"></param>
/// <returns></returns>
public override double[,] Generate(IMapHandler mh, long X, long Z, out double minHeight, out double maxHeight)
{
Vector3i chunksize = mh.ChunkScale;
int x_o = (int)(X * chunksize.X);
int z_o = (int)(Z * chunksize.Z);
int YH = (int)chunksize.Y - 2;
double[,] hm = new double[chunksize.X, chunksize.Z];
minHeight = (double)chunksize.Y;
maxHeight = 0;
for (int x = 0; x < chunksize.X; x++)
{
for (int z = 0; z < chunksize.Z; z++)
{
double height = 1 - Utils.FixLibnoiseOutput(ContinentNoise.GetValue((double)(x + x_o) / 10d, (double)(z + z_o) / 10d, 0));
height *= 0.5;
height += 0.25;
height = Utils.Clamp(height, 0.1, 1);
if (height < minHeight)
{
minHeight = height;
}
if (height > maxHeight)
{
maxHeight = height;
}
hm[x, z] = height;
}
}
return(hm);
}
/*
note, foliage will disintegrate if there is no foliage below, or
if there is no "log" block within range 2 (square) at the same level or
one level below
*/
public override void MakeFoliage(ref IMapHandler map)
{
Console.WriteLine("Adding tree at {0}", Pos);
int topy = (int)Pos.Y + Height - 1;
int start = topy - 2;
int end = topy + 2;
for(int y = start;y<end;y++)
{
int rad=0;
if(y > start + 1)
rad = 1;
else
rad = 2;
for(int xoff = -rad;xoff<rad+1;xoff++)
{
for(int zoff = -rad;zoff<rad+1;zoff++)
{
if (Math.Abs(xoff) == Math.Abs(zoff) && Math.Abs(xoff) == rad)
continue;
int x = (int)Pos.X + xoff;
int z = (int)Pos.Z + zoff;
map.SetBlockAt(x,y,z,18);
}
}
}
}
public override void MakeFoliage(ref IMapHandler map)
{
List <Vector3i> foliage_coords = foliage_cords;
foreach (Vector3i coord in foliage_coords)
{
foliagecluster(ref map, coord);
}
foreach (Vector3i cord in foliage_coords)
{
map.SetBlockAt(cord.X, cord.Y, cord.Z, 17);
if (LIGHTTREE == 1)
{
map.SetBlockAt(cord.X, cord.Y + 1, cord.Z, 50);
map.SetBlockAt(cord.X, cord.Y + 2, cord.Z, 17);
}
else if (LIGHTTREE == 2 || LIGHTTREE == 4)
{
map.SetBlockAt(cord.X + 1, cord.Y, cord.Z, 50);
map.SetBlockAt(cord.X - 1, cord.Y, cord.Z, 50);
if (LIGHTTREE == 4)
{
map.SetBlockAt(cord.X, cord.Y, cord.Z + 1, 50);
map.SetBlockAt(cord.X, cord.Y, cord.Z - 1, 50);
}
}
}
}
public static void FixPlayerPlacement(ref IMapHandler mh)
{
// Thank you #mcp.
//<_303> [PlayerPos is] on the head
//<_303> corner pointing toward 0,0,0
Vector3d pos = mh.PlayerPos;
//<_303> height of player = [1.8]
int headblock = mh.GetBlockAt((int)pos.X, (int)pos.Y, (int)pos.Z);
switch (headblock)
{
case 0:
case 8:
case 9:
case 10:
case 11:
return;
}
for (int y = (int)mh.ChunkScale.Y - 3; y > 1; y--)
{
int supportblock = mh.GetBlockAt((int)pos.X, y - 3, (int)pos.Z);
if (supportblock != 0)
{
mh.PlayerPos.Y = y;
return;
}
}
}
/// <summary>
/// Create a round section of type matidx in blocklist.
/// </summary>
/// <param name="map"></param>
/// <param name="vCenter">the coordinates of the center block</param>
/// <param name="radius">the radius of the section.</param>
/// <param name="diraxis">The list index for the axis to make the section perpendicular to. 0 indicates the x axis, 1 the y, 2 the z. The section will extend along the other two axies.</param>
/// <param name="mat">What to make the section out of</param>
public void crossection(ref IMapHandler map, Vector3i vCenter, double radius, int diraxis, byte mat)
{
long[] centArray = vCenter.ToArray();
int rad = (int)(radius + .618d);
int secidx1 = (diraxis - 1) % 3;
int secidx2 = (1 + diraxis) % 3;
int[] coord = new int [] { 0, 0, 0 };
for (int off1 = -rad; off1 < rad + 1; off1++)
{
for (int off2 = -rad; off2 < rad + 1; off2++)
{
double thisdist = Math.Sqrt(Math.Pow((double)Math.Abs(off1) + .5d, 2d) + Math.Pow((double)Math.Abs(off2) + .5d, 2));
if (thisdist > radius)
{
continue;
}
int pri = (int)centArray[diraxis];
int sec1 = (int)centArray[secidx1] + off1;
int sec2 = (int)centArray[secidx2] + off2;
coord[diraxis] = pri;
coord[secidx1] = sec1;
coord[secidx2] = sec2;
map.SetBlockAt(coord[0], coord[1], coord[2], mat);
}
}
}
/// <summary>
/// Generate a chunk
/// </summary>
/// <param name="CX">Chunk X</param>
/// <param name="CZ">Chunk Z</param>
/// <param name="b">Blocks</param>
/// <param name="mh">Map handler</param>
/// <param name="r">Random</param>
/// <returns></returns>
public static bool MakeDungeon(int CX, int CZ, ref byte[, ,] b, ref IMapHandler mh, Random r)
{
int CH = (int)mh.ChunkScale.X;
int CV = (int)mh.ChunkScale.Y;
int x = r.Next(0 + DungeonSizeX - 1, CH - DungeonSizeX + 1);
int y = r.Next(0 + DungeonSizeY - 1, CV - DungeonSizeY + 1);
int z = r.Next(0 + DungeonSizeZ - 1, CH - DungeonSizeZ + 1);
Vector3i position = mh.Local2Global(CX, CZ, new Vector3i(x, y, z));
//Console.WriteLine("Creating dungeon in {0}...", position);
if (!CheckForDungeonSpace(b, x, y, z))
{
return(false);
}
Vector3i size = new Vector3i((DungeonSizeX * 2) + 1, (DungeonSizeY * 2) + 1, (DungeonSizeZ * 2) + 1);
Vector3i sizeAir = new Vector3i(size.X - 1, size.Y - 1, size.Z - 1);
FillRect(ref b, 48, position, size); // Do walls (RANDOMIZE)
FillRect(ref b, 0, position, sizeAir); // Add air
MobSpawner ms = new MobSpawner();
ms.Delay = 20;
ms.EntityId = Entity.GetRandomMonsterID(r);
ms.Pos = mh.Local2Global(CX, CZ, new Vector3i(x, y - DungeonSizeZ + 1, z));
ms.UUID = Guid.NewGuid();
mh.SetTileEntity(ms);
b[x, y - DungeonSizeZ + 1, z] = 52;
return(true);
}
/*
* note, foliage will disintegrate if there is no foliage below, or
* if there is no "log" block within range 2 (square) at the same level or
* one level below
*/
public override void MakeFoliage(ref IMapHandler map)
{
Console.WriteLine("Adding tree at {0}", Pos);
int topy = (int)Pos.Y + Height - 1;
int start = topy - 2;
int end = topy + 2;
for (int y = start; y < end; y++)
{
int rad = 0;
if (y > start + 1)
{
rad = 1;
}
else
{
rad = 2;
}
for (int xoff = -rad; xoff < rad + 1; xoff++)
{
for (int zoff = -rad; zoff < rad + 1; zoff++)
{
if (Math.Abs(xoff) == Math.Abs(zoff) && Math.Abs(xoff) == rad)
{
continue;
}
int x = (int)Pos.X + xoff;
int z = (int)Pos.Z + zoff;
map.SetBlockAt(x, y, z, 18);
}
}
}
}
public Chunk(IMapHandler mh)
{
Map = mh;
Overview = new byte[mh.ChunkScale.X, mh.ChunkScale.Z];
HeightMap = new int[mh.ChunkScale.X, mh.ChunkScale.Z];
WaterDepth = new int[mh.ChunkScale.X, mh.ChunkScale.Z];
}
public dlgTerrainGen(IMapHandler _mh)
{
mh = _mh;
InitializeComponent();
cmbMapGenSel.DrawMode = System.Windows.Forms.DrawMode.OwnerDrawFixed;
cmbMapGenSel.DrawItem += new DrawItemEventHandler(cmbMapGenSel_DrawItem);
LockCheckboxes(true);
}
/// <summary>
/// Generate branches.
/// </summary>
/// <param name="map"></param>
public void makebranches(ref IMapHandler map)
{
long topy = Pos[1] + (int)((int)trunkheight + 0.5d);
double endrad = trunkradius * (1 - trunkheight / Height);
if (endrad < 1.0)
{
endrad = 1.0;
}
foreach (Vector3i coord in foliage_cords)
{
double dist = Math.Sqrt(
Math.Pow(coord.X - Pos.X, 2d) +
Math.Pow(coord.Z - Pos.Z, 2d));
double ydist = coord.Y - Pos.Y;
double value = (branchdensity * 220 * Height) / Math.Pow((ydist + dist), 3d);
if (value < rand.NextDouble())
{
continue;
}
long posy = coord.Y;
double slope = branchslope + (0.5 - rand.NextDouble()) * .16;
long branchy;
double basesize;
if (coord.Y - dist * slope > topy)
{
double threshhold = 1d / (double)(Height);
if (rand.NextDouble() < threshhold)
{
continue;
}
branchy = topy;
basesize = endrad;
}
else
{
branchy = (long)(posy - dist * slope);
basesize = (endrad + (trunkradius - endrad) * (topy - branchy) / trunkheight);
}
double startsize = (basesize * (1 + rand.NextDouble()) * .618 *
Math.Pow(dist / Height, 0.618));
double rndr = Math.Sqrt(rand.NextDouble()) * basesize * 0.618;
double rndang = rand.NextDouble() * 2 * Math.PI;
int rndx = (int)(rndr * Math.Sin(rndang) + 0.5);
int rndz = (int)(rndr * Math.Cos(rndang) + 0.5);
Vector3i startcoord = new Vector3i(Pos[0] + rndx,
(int)branchy,
Pos[2] + rndz);
if (startsize < 1.0)
{
startsize = 1.0;
}
double endsize = 1.0;
taperedlimb(ref map, startcoord, coord, (int)startsize, (int)endsize);
}
}
public override void DoBlockLighting(IMapHandler _mh, long X, long Y)
{
int csx = (int)_mh.ChunkScale.X;
int csy = (int)_mh.ChunkScale.Y;
for (int i = 0; i < 15; i++)
{
for (int _x = 0; _x < csx; _x++)
{
for (int _y = 0; _y < csy; _y++)
{
int x = (int)(X * _mh.ChunkScale.X) + _x;
int y = (int)(Y * _mh.ChunkScale.Y) + _y;
for (int z = 0; z < _mh.GetHeightAt(x, y); z++)
{
byte currentBlockLight,currentSkyLight;
_mh.GetLightAt(x, y, z, out currentSkyLight, out currentBlockLight);
byte currentBlock = _mh.GetBlockAt(x, y, z);
Block currentBlockInfo = OpenMinecraft.Blocks.Get(currentBlock);
// SUNLIGHT
currentSkyLight = (byte)(currentSkyLight - currentBlockInfo.Stop - 1);
if (currentBlockInfo.Emit > 0)
currentBlockLight = currentBlockInfo.Emit;
// Get brightest neighbor
if (x < csx - 1 && currentBlockLight < _mh.GetBlockLightAt(x + 1, y, z))
currentBlockLight = _mh.GetBlockLightAt(x + 1, y, z);
if (y < csy - 1 && currentBlockLight < _mh.GetBlockLightAt(x, y + 1, z))
currentBlockLight = _mh.GetBlockLightAt(x, y + 1, z);
if (z < _mh.ChunkScale.Z - 1 && currentBlockLight < _mh.GetBlockLightAt(x, y, z + 1))
currentBlockLight = _mh.GetBlockLightAt(x, y, z + 1);
if (x > 0 && currentBlockLight < _mh.GetBlockLightAt(x - 1, y, z))
currentBlockLight = _mh.GetBlockLightAt(x - 1, y, z);
if (y > 0 && currentBlockLight < _mh.GetBlockLightAt(x, y - 1, z))
currentBlockLight = _mh.GetBlockLightAt(x, y - 1, z);
if (z > 0 && currentBlockLight < _mh.GetBlockLightAt(x, y, z - 1))
currentBlockLight = _mh.GetBlockLightAt(x, y, z - 1);
// Drop 1 level of light + lightstop for current block
currentBlockLight = (byte)(currentBlockLight - 1 - currentBlockInfo.Stop);
if (currentBlockLight < 0) currentBlockLight = 0;
if (currentBlockLight > 15) currentBlockLight = 15;
if (currentSkyLight < 0) currentSkyLight = 0;
if (currentSkyLight > 15) currentSkyLight = 15;
_mh.SetBlockLightAt(x, y, z, currentBlockLight);
_mh.SetSkyLightAt(x, y, z, currentSkyLight);
}
}
}
}
}
/// <summary>
/// generate a round cluster of foliage at the location center.
///
/// The shape of the cluster is defined by the list foliage_shape.
/// This list must be set in a subclass of ProceduralTree.
/// </summary>
/// <param name="map"></param>
/// <param name="center"></param>
public void foliagecluster(ref IMapHandler map, Vector3i center)
{
List <int> level_radius = this.foliage_shape;
foreach (int i in level_radius)
{
crossection(ref map, center, (double)i, 1, 18);
center.Y++;
}
}
public override void DoSkyLighting(IMapHandler _mh, long X, long Y)
{
Chunk c = _mh.GetChunk(X, Y);
if (c == null)
{
return;
}
this.DoSkylighting(c);
}
public virtual void ResetLightingData(ref IMapHandler mh)
{
mh.ForEachChunk(delegate(IMapHandler _mh, long X, long Y)
{
Chunk c = _mh.GetChunk(X, Y);
c.UpdateOverview();
c.SkyLight = new byte[c.Size.X, c.Size.Y, c.Size.Z];
c.BlockLight = new byte[c.Size.X, c.Size.Y, c.Size.Z];
_mh.SetChunk(X, Y, c);
});
}
/// <summary>
/// Initialize and set up events for this MapChunk.
/// </summary>
/// <param name="mc">Parent mapcontrol</param>
/// <param name="pos">Position of chunk</param>
/// <param name="sz">Chunk size</param>
public MapChunkControl(MapControl mc,Vector3i pos,Vector3i sz)
{
parent=mc;
Map = parent.Map;
AssignedChunk = pos;
ChunkSize = sz;
MyChunk = Map.GetChunk(AssignedChunk);
//Console.WriteLine("{0}: Chunk ({1},{2}), origin ({3},{4}), size {5}", this, pos.X, pos.Y, pos.X * sz.X, pos.Y * sz.Y, sz);
InitializeComponent();
Paint += new PaintEventHandler(MapChunkControl_Paint);
}
public virtual void ResetLightingData(ref IMapHandler mh)
{
mh.ForEachChunk(delegate(IMapHandler _mh, long X, long Y)
{
Chunk c = _mh.GetChunk(X, Y);
c.UpdateOverview();
c.SkyLight = new byte[c.Size.X, c.Size.Y, c.Size.Z];
c.BlockLight = new byte[c.Size.X, c.Size.Y, c.Size.Z];
_mh.SetChunk(X, Y, c);
});
}
// CHUNKS(PK(cnkX, cnkZ), cnkTemperatureMap, cnkHumidityMap, cnkOriginalVoxels)
// TREES(PK(treeX,treeZ), treeHeight, treeType)
// DUNGEONS(PK(dgnPos), dgnSpawns)
public MapMetadata(IMapHandler _map, string folder)
{
map=_map;
Filename=Path.Combine(folder, "mineedit.cache");
FirstCache = !File.Exists(Filename);
string dsn = string.Format(@"Data Source={0};Version=3", Filename);
database = new SQLiteConnection(dsn);
database.Open();
//database.ChangeDatabase("MineEdit");
BuildDatabaseIfNeeded();
}
public override void MakeTrunk(ref IMapHandler map)
{
int x = (int)Pos.X;
int y = (int)Pos.Y;
int z = (int)Pos.Z;
for (int i = 0; i < Height; i++)
{
map.SetBlockAt(x, y, z, 17);
y += 1;
}
}
public override void MakeTrunk(ref IMapHandler map)
{
int x = (int)Pos.X;
int y = (int)Pos.Y;
int z = (int)Pos.Z;
for (int i = 0; i<Height;i++)
{
map.SetBlockAt(x, y, z, 17);
y += 1;
}
}
private bool GetFileHandler(string FileName, out IMapHandler mh)
{
mh = null;
foreach (IMapHandler _mh in FileHandlers)
{
if (_mh.IsMyFiletype(FileName))
{
mh = _mh;
return true;
}
}
return false;
}
// CHUNKS(PK(cnkX, cnkZ), cnkTemperatureMap, cnkHumidityMap, cnkOriginalVoxels)
// TREES(PK(treeX,treeZ), treeHeight, treeType)
// DUNGEONS(PK(dgnPos), dgnSpawns)
public MapMetadata(IMapHandler _map, string folder)
{
map = _map;
Filename = Path.Combine(folder, "mineedit.cache");
FirstCache = !File.Exists(Filename);
string dsn = string.Format(@"Data Source={0};Version=3", Filename);
database = new SQLiteConnection(dsn);
database.Open();
//database.ChangeDatabase("MineEdit");
BuildDatabaseIfNeeded();
}
public dlgChunk(IMapHandler m,Vector3i pos)
{
InitializeComponent();
if (m == null)
{
MessageBox.Show("m==null");
Environment.Exit(-1);
}
Map = m;
//mcc.Map = m;
//mcc.Render();
//mcc.Refresh();
ChunkPos = pos;
}
public virtual void AddDungeons(ref byte[, ,] b, ref IMapHandler mh, Random rand, long X, long Z)
{
if (!this.GenerateDungeons)
{
return;
}
if (rand.Next(0, 100) == 0)
{
int DungeonTries = 128;
while (!Utils.MakeDungeon((int)X, (int)Z, ref b, ref mh, rand))
{
//Console.WriteLine("Making dungeon...");
if (DungeonTries-- == 0)
{
break;
}
}
}
}
/// <summary>
/// Smooths below-water surfaces and, optionally, adds beaches.
/// </summary>
/// <param name="waterlevel">
/// A <see cref="System.Single"/>
/// </param>
/// <param name="beaches">
/// A <see cref="System.Boolean"/>
/// </param>
/// <returns>
/// A <see cref="Channel"/>
/// </returns>
public void Silt(double waterlevel, bool beaches, int X, int Z)
{
// 1. Copy Image
// 2. Apply gauss blur to lower layer
// 3. Bring back unblurred terrain from above the water level.
int x_o = X * (int)ChunkScale.X;
int z_o = Z * (int)ChunkScale.Z;
double wl = (beaches) ? waterlevel + 6d : waterlevel;
wl = wl / 256f;
// Gaussian blur for silt and beaches.
double[][] gaussian_matrix = new double[3][] {
new double[3] {
1, 2, 1
},
new double[3] {
2, 4, 2
},
new double[3] {
1, 2, 1
}
};
IMapHandler Blurred = this;
Blurred.Convolution(gaussian_matrix, 32f, waterlevel / 2d, X, Z);
for (int x = 0; x < ChunkScale.X; x++)
{
for (int z = 0; z < ChunkScale.Z; z++)
{
// If > WL: use unblurred image.
// If <=WL: Use blurred image.
if (GetPrelimHeightAt(x + x_o, z + z_o) <= wl)
{
SetPrelimHeightAt(x + x_o, z + z_o, Blurred.GetPrelimHeightAt(x + x_o, z + z_o));
}
}
}
}
public Cave(ref Random rnd, ref IMapHandler mh, Vector3i StartingPoint)
{
mMap = mh;
rand = rnd;
AddPoint(StartingPoint);
// We need at least 4 points.
int numPoints2Make = rand.Next(3, 10);
for (int i = 0; i < numPoints2Make; i++)
{
i++;
AddPoint(new Vector3i(StartingPoint.X + rand.Next(-16, 16), StartingPoint.Y + rand.Next(-16, 16), StartingPoint.Z + rand.Next(-16, 16)));
}
Profiler profSphere = new Profiler("MakeSphere");
Profiler profSpline = new Profiler("GetInterpolatedSplinePoint");
int rad = rand.Next(1, 3);
for (int p = 0; p < 20; p++)
{
double t = (double)p / (double)(Points.Count * 32);
// Between 2/10 radius.
profSpline.Start();
Vector3i derp = this.GetInterpolatedSplinePoint(t);
profSpline.Stop();
mMap.SetBlockAt(derp.X, derp.Y, derp.Z, 0);
profSphere.Start();
MakeSphere(derp, rad);
profSphere.Stop();
//Console.WriteLine("MakeSphere r={0} @ t={1}", rad, t);
//t += 0.05;
}
mMap.SaveAll();
Console.WriteLine(profSpline.ToString());
Console.WriteLine(profSphere.ToString());
}
/// <summary>
/// Generate branches.
/// </summary>
/// <param name="map"></param>
public void makebranches(ref IMapHandler map)
{
long topy = Pos[1]+(int)((int)trunkheight + 0.5d);
double endrad = trunkradius * (1 - trunkheight/Height);
if(endrad < 1.0)
endrad = 1.0;
foreach(Vector3i coord in foliage_cords)
{
double dist = Math.Sqrt(
Math.Pow(coord.X - Pos.X,2d) +
Math.Pow(coord.Z - Pos.Z,2d));
double ydist = coord.Y-Pos.Y;
double value = (branchdensity * 220 * Height)/Math.Pow((ydist + dist), 3d);
if(value < rand.NextDouble())
continue;
long posy = coord.Y;
double slope = branchslope + (0.5 - rand.NextDouble())*.16;
long branchy;
double basesize;
if(coord.Y - dist*slope > topy)
{
double threshhold = 1d / (double)(Height);
if(rand.NextDouble() < threshhold)
continue;
branchy = topy;
basesize = endrad;
}
else
{
branchy = (long)(posy-dist*slope);
basesize = (endrad + (trunkradius-endrad) * (topy - branchy) / trunkheight);
}
double startsize = (basesize * (1 + rand.NextDouble()) * .618 *
Math.Pow(dist/Height,0.618));
double rndr = Math.Sqrt(rand.NextDouble())*basesize*0.618;
double rndang = rand.NextDouble()*2*Math.PI;
int rndx = (int)(rndr*Math.Sin(rndang) + 0.5);
int rndz = (int)(rndr*Math.Cos(rndang) + 0.5);
Vector3i startcoord = new Vector3i(Pos[0]+rndx,
(int)branchy,
Pos[2]+rndz);
if(startsize < 1.0)
startsize = 1.0;
double endsize = 1.0;
taperedlimb(ref map, startcoord, coord, (int)startsize, (int)endsize);
}
}
public override void MakeTrunk(ref IMapHandler map)
{
int starty = (int)Pos[1];
int midy = (int)(Pos[1] + (trunkheight * .382));
int topy = (int)(Pos[1] + (trunkheight + 0.5));
// In this method, x and z are the position of the trunk.
long x = Pos[0];
long z = Pos[2];
double midrad = trunkradius * .8;
double endrad = trunkradius * (1 - trunkheight / Height);
if (endrad < 1.0)
{
endrad = 1.0;
}
if (midrad < endrad)
{
midrad = endrad;
}
List <Vector3i> rootbases = new List <Vector3i>();
// Make the root buttresses, if indicated
double startrad;
if (ROOTBUTTRESSES || SHAPE == "mangrove")
{
// The start radius of the trunk should be a little smaller if we
// are using root buttresses.
startrad = trunkradius * .8;
// rootbases is used later in makeroots(...) as
// starting locations for the roots.
rootbases.Add(new Vector3i(x, z, (long)startrad));
double buttress_radius = trunkradius * 0.382;
// posradius is how far the root buttresses should be offset
// from the trunk.
double posradius = trunkradius;
// In mangroves, the root buttresses are much more extended.
if (SHAPE == "mangrove")
{
posradius = posradius * 2.618;
}
int num_of_buttresses = (int)(Math.Sqrt(trunkradius) + 3.5);
for (int i = 0; i < num_of_buttresses; i++)
{
double rndang = rand.NextDouble() * 2 * Math.PI;
double thisposradius = posradius * (0.9 + rand.NextDouble() * .2);
// thisx and thisz are the x and z position for the base of
// the root buttress.
long thisx = x + (long)(thisposradius * Math.Sin(rndang));
long thisz = z + (long)(thisposradius * Math.Cos(rndang));
// thisbuttressradius is the radius of the buttress.
// Currently, root buttresses do not taper.
double thisbuttressradius = buttress_radius * (0.618 + rand.NextDouble());
if (thisbuttressradius < 1.0)
{
thisbuttressradius = 1.0;
}
// Make the root buttress.
taperedlimb(ref map, new Vector3i(thisx, starty, thisz), new Vector3i(x, midy, z),
(int)thisbuttressradius, (int)thisbuttressradius);
// Add this root buttress as a possible location at
// which roots can spawn.
rootbases.Add(new Vector3i(thisx, thisz, (long)thisbuttressradius));
}
}
else
{
// If root buttresses are turned off, set the trunk radius
// to normal size.
rootbases.Clear();
startrad = trunkradius;
rootbases.Add(new Vector3i(x, z, (long)trunkradius));
}
// Make the lower and upper sections of the trunk.
taperedlimb(ref map, new Vector3i(x, starty, z), new Vector3i(x, midy, z), (int)startrad, (int)midrad);
taperedlimb(ref map, new Vector3i(x, midy, z), new Vector3i(x, topy, z), (int)midrad, (int)endrad);
// Make the branches
makebranches(ref map);
// Make the roots, if indicated.
if (ROOTS == "yes" || ROOTS == "tostone" || ROOTS == "hanging")
{
makeroots(ref map, rootbases);
}
}
//Generate the trunk and enter it in blocklist.
public virtual void MakeTrunk(ref IMapHandler map)
{
}
public virtual void SkylightGlobal(ref IMapHandler mh)
{
mh.ForEachChunk(DoSkyLighting);
}
public virtual void AddTrees(ref IMapHandler mh, BiomeType[,] biomes, ref Random rand, int X, int Z, int H)
{
int xo = (int)(X * mh.ChunkScale.X);
int zo = (int)(Z * mh.ChunkScale.Z);
List <Vector2i> PlantedTrees = new List <Vector2i>();
int DistanceReqd = 3;
for (int t = 0; t < (int)((HumidityNoise.Noise((double)(xo) / BIOME_SCALE, (double)(zo) / BIOME_SCALE, 0) + HumidityOffset) * 5.0); t++)
{
Vector2i me = new Vector2i(rand.Next(0, 15), rand.Next(0, 15));
if (!Biome.NeedsTrees(biomes[me.X, me.Y]))
{
continue;
}
bool tooclose = false;
foreach (Vector2i tree in PlantedTrees)
{
if (Vector2i.Distance(tree, me) < DistanceReqd)
{
tooclose = true;
break;
}
}
if (tooclose)
{
continue;
}
bool founddert = false;
for (int y = (int)H - 10; y > 0; y--)
{
switch (mh.GetBlockAt(me.X + xo, y, me.Y + zo))
{
case 0: // Air
case 78: // Snow cover
continue;
// case 1: // ROCK
case 2: // GRASS
case 3: // DIRT
//Utils.GrowTree(ref blocks, rand, (int)me.X, (int)y + 1, (int)me.Y);
mh.SetBlockAt(me.X + xo, y + 1, me.Y + zo, 6); // Sapling
mh.SetDataAt(me.X + xo, y + 1, me.Y + zo, 15); // Growth stage 15.
/*
* Tree tree = new NormalTree(me.X + xo, y + 1, me.Y + zo, rand.Next(5, 8));
* tree.MakeTrunk(ref mh);
* tree.MakeFoliage(ref mh);
*/
mh.SaveAll();
founddert = true;
break;
case 11: // SAND
//Utils.GrowCactus(ref b, rand, me.X, y + 1, me.Y);
break;
default:
founddert = true;
break;
}
if (founddert)
{
break;
}
}
PlantedTrees.Add(me);
}
}
//Generate the trunk and enter it in blocklist.
public virtual void MakeTrunk(ref IMapHandler map)
{
}
/// <summary>
/// Create a tapered cylinder in blocklist.
/// start and end are the beginning and ending coordinates of form [x,y,z].
/// startsize and endsize are the beginning and ending radius.
/// The material of the cylinder is 17, which indicates wood in Minecraft.
/// </summary>
/// <param name="map"></param>
/// <param name="start"></param>
/// <param name="end"></param>
/// <param name="startsize"></param>
/// <param name="endsize"></param>
public void taperedlimb(ref IMapHandler map, Vector3i vStart, Vector3i vEnd, int startsize, int endsize)
{
// delta is the coordinate vector for the difference between
// start and end.
Vector3i vDelta = vEnd - vStart;
long[] delta = vDelta.ToArray();
long[] start = vStart.ToArray();
long[] end = vEnd.ToArray();
// primidx is the index (0,1,or 2 for x,y,z) for the coordinate
// which has the largest overall delta.
long maxdist = 0;
int primidx=0;
for(int i = 0;i<3;i++)
{
if(Math.Abs(delta[i])>maxdist)
{
maxdist=delta[i];
primidx=i;
}
}
if(maxdist == 0)
return;
// secidx1 and secidx2 are the remaining indicies out of [0,1,2].
int secidx1 = (primidx - 1)%3;
int secidx2 = (1 + primidx)%3;
// primsign is the digit 1 or -1 depending on whether the limb is headed
// along the positive or negative primidx axis.
long primsign = delta[primidx]/Math.Abs(delta[primidx]);
// secdelta1 and ...2 are the amount the associated values change
// for every step along the prime axis.
long secdelta1 = delta[secidx1];
double secfac1 = (double)(secdelta1)/delta[primidx];
long secdelta2 = delta[secidx2];
double secfac2 = (double)(secdelta2)/delta[primidx];
// Initialize coord. These values could be anything, since
// they are overwritten.
long[] coord = new long[]{0,0,0};
// Loop through each crossection along the primary axis,
// from start to end.
long endoffset = delta[primidx] + primsign;
for(long primoffset=0;primoffset<endoffset;primoffset+=primsign)//primoffset in range(0, endoffset, primsign):
{
long primloc = start[primidx] + primoffset;
int secloc1 = (int)(start[secidx1] + primoffset*secfac1);
int secloc2 = (int)(start[secidx2] + primoffset*secfac2);
coord[primidx] = primloc;
coord[secidx1] = secloc1;
coord[secidx2] = secloc2;
long primdist = Math.Abs(delta[primidx]);
int radius = (int)(endsize + (startsize-endsize) * Math.Abs(delta[primidx] - primoffset) / primdist);
crossection(ref map,new Vector3i(coord[0],coord[1],coord[2]),radius,primidx,17);
}
}
public virtual void SkylightGlobal(ref IMapHandler mh)
{
mh.ForEachChunk(DoSkyLighting);
}
public virtual void BlocklightGlobal(ref IMapHandler mh)
{
mh.ForEachChunk(DoBlockLighting);
}
/// <summary>
/// generate a round cluster of foliage at the location center.
///
/// The shape of the cluster is defined by the list foliage_shape.
/// This list must be set in a subclass of ProceduralTree.
/// </summary>
/// <param name="map"></param>
/// <param name="center"></param>
public void foliagecluster(ref IMapHandler map, Vector3i center)
{
List<int> level_radius = this.foliage_shape;
foreach(int i in level_radius)
{
crossection(ref map, center,(double)i,1,18);
center.Y++;
}
}
/// <param name="X"></param> /// <param name="Y"></param> /// <param name="chunksize"></param> /// <returns></returns> public abstract byte[, ,] Generate(ref IMapHandler mh, long X, long Y);
/// <summary>
/// From the VoxelSim project
/// http://github.com/N3X15/VoxelSim
/// </summary>
/// <param name="X"></param>
/// <param name="Z"></param>
/// <param name="chunksize"></param>
/// <returns></returns>
public override double[,] Generate(IMapHandler mh, long X, long Z, out double minHeight, out double maxHeight)
{
Vector3i chunksize = mh.ChunkScale;
int x_o = (int)(X * chunksize.X);
int z_o = (int)(Z * chunksize.Z);
int YH = (int)chunksize.Y-2;
double[,] hm = new double[chunksize.X, chunksize.Z];
minHeight = (double)chunksize.Y;
maxHeight = 0;
for (int x = 0; x < chunksize.X; x++)
{
for (int z = 0; z < chunksize.Z; z++)
{
double height = 1-Utils.FixLibnoiseOutput(ContinentNoise.GetValue((double)(x + x_o) / 10d, (double)(z + z_o) / 10d, 0));
height *= 0.5;
height += 0.25;
height = Utils.Clamp(height, 0.1, 1);
if (height < minHeight) minHeight = height;
if (height > maxHeight) maxHeight = height;
hm[x, z] = height;
}
}
return hm;
}
public override void DoBlockLighting(IMapHandler _mh, long X, long Y)
{
int csx = (int)_mh.ChunkScale.X;
int csy = (int)_mh.ChunkScale.Y;
for (int i = 0; i < 15; i++)
{
for (int _x = 0; _x < csx; _x++)
{
for (int _y = 0; _y < csy; _y++)
{
int x = (int)(X * _mh.ChunkScale.X) + _x;
int y = (int)(Y * _mh.ChunkScale.Y) + _y;
for (int z = 0; z < _mh.GetHeightAt(x, y); z++)
{
byte currentBlockLight, currentSkyLight;
_mh.GetLightAt(x, y, z, out currentSkyLight, out currentBlockLight);
byte currentBlock = _mh.GetBlockAt(x, y, z);
Block currentBlockInfo = OpenMinecraft.Blocks.Get(currentBlock);
// SUNLIGHT
currentSkyLight = (byte)(currentSkyLight - currentBlockInfo.Stop - 1);
if (currentBlockInfo.Emit > 0)
{
currentBlockLight = currentBlockInfo.Emit;
}
// Get brightest neighbor
if (x < csx - 1 && currentBlockLight < _mh.GetBlockLightAt(x + 1, y, z))
{
currentBlockLight = _mh.GetBlockLightAt(x + 1, y, z);
}
if (y < csy - 1 && currentBlockLight < _mh.GetBlockLightAt(x, y + 1, z))
{
currentBlockLight = _mh.GetBlockLightAt(x, y + 1, z);
}
if (z < _mh.ChunkScale.Z - 1 && currentBlockLight < _mh.GetBlockLightAt(x, y, z + 1))
{
currentBlockLight = _mh.GetBlockLightAt(x, y, z + 1);
}
if (x > 0 && currentBlockLight < _mh.GetBlockLightAt(x - 1, y, z))
{
currentBlockLight = _mh.GetBlockLightAt(x - 1, y, z);
}
if (y > 0 && currentBlockLight < _mh.GetBlockLightAt(x, y - 1, z))
{
currentBlockLight = _mh.GetBlockLightAt(x, y - 1, z);
}
if (z > 0 && currentBlockLight < _mh.GetBlockLightAt(x, y, z - 1))
{
currentBlockLight = _mh.GetBlockLightAt(x, y, z - 1);
}
// Drop 1 level of light + lightstop for current block
currentBlockLight = (byte)(currentBlockLight - 1 - currentBlockInfo.Stop);
if (currentBlockLight < 0)
{
currentBlockLight = 0;
}
if (currentBlockLight > 15)
{
currentBlockLight = 15;
}
if (currentSkyLight < 0)
{
currentSkyLight = 0;
}
if (currentSkyLight > 15)
{
currentSkyLight = 15;
}
_mh.SetBlockLightAt(x, y, z, currentBlockLight);
_mh.SetSkyLightAt(x, y, z, currentSkyLight);
}
}
}
}
}
public void makeroots(ref IMapHandler map, List <Vector3i> rootbases)
{
foreach (Vector3i coord in foliage_cords)
{
// First, set the threshhold for randomly selecting this
// coordinate for root creation.
double dist = Math.Sqrt(Math.Pow(coord[0] - Pos[0], 2) +
Math.Pow(coord[2] - Pos[2], 2));
double ydist = coord[1] - Pos[1];
double value = (branchdensity * 220 * Height) / Math.Pow((ydist + dist), 3d);
// Randomly skip roots, based on the above threshold
if (value < rand.NextDouble())
{
continue;
}
// initialize the internal variables from a selection of
// starting locations.
int ci = rand.Next(0, rootbases.Count - 1);
Vector3i rootbase = rootbases[ci];
long rootx = rootbase[0];
long rootz = rootbase[1];
double rootbaseradius = rootbase[2];
// Offset the root origin location by a random amount
// (radialy) from the starting location.
double rndr = (Math.Sqrt(rand.NextDouble()) * rootbaseradius * .618);
double rndang = rand.NextDouble() * 2 * Math.PI;
int rndx = (int)(rndr * Math.Sin(rndang) + 0.5);
int rndz = (int)(rndr * Math.Cos(rndang) + 0.5);
int rndy = (int)(rand.NextDouble() * rootbaseradius * 0.5);
Vector3i startcoord = new Vector3i(rootx + rndx, Pos[1] + rndy, rootz + rndz);
// offset is the distance from the root base to the root tip.
Vector3i offset = startcoord - coord;
// If this is a mangrove tree, make the roots longer.
if (SHAPE == "mangrove")
{
offset = (offset * 1.618) - 1.5;
}
Vector3i endcoord = startcoord + offset;
double rootstartsize = (rootbaseradius * 0.618 * Math.Abs(offset[1]) / (Height * 0.618));
if (rootstartsize < 1.0)
{
rootstartsize = 1.0;
}
double endsize = 1.0;
// If ROOTS is set to "tostone" or "hanging" we need to check
// along the distance for collision with existing materials.
if (ROOTS == "tostone" || ROOTS == "hanging")
{
double offlength = Math.Sqrt(
Math.Pow(offset[0], 2) +
Math.Pow(offset[1], 2) +
Math.Pow(offset[2], 2));
if (offlength < 1)
{
continue;
}
double rootmid = endsize;
// vec is a unit vector along the direction of the root.
Vector3i vec = offset / offlength;
byte searchindex;
if (ROOTS == "tostone")
{
searchindex = 1;
}
else // Hanging
{
searchindex = 0;
}
// startdist is how many steps to travel before starting to
// search for the material. It is used to ensure that large
// roots will go some distance before changing directions
// or stopping.
double startdist = (int)(rand.NextDouble() * 6 * Math.Sqrt(rootstartsize) + 2.8);
// searchstart is the coordinate where the search should begin
Vector3i searchstart = (startcoord + startdist) * vec;
// dist stores how far the search went (including searchstart)
// before encountering the expected marterial.
dist = startdist + map.DistanceToMaterial(searchstart, vec, searchindex);
// If the distance to the materila is less than the length
// of the root, change the end point of the root to where
// the search found the material.
if (dist < offlength)
{
// rootmid is the size of the crossection at endcoord.
rootmid += (rootstartsize - endsize) * (1 - dist / offlength);
}
// endcoord is the midpoint for hanging roots,
// and the endpoint for roots stopped by stone.
endcoord = startcoord + (vec * dist);
if (ROOTS == "hanging")
{
// remaining_dist is how far the root had left
// to go when it was stopped.
double remaining_dist = offlength - dist;
// Initialize bottomcord to the stopping point of
// the root, and then hang straight down
// a distance of remaining_dist.
Vector3i bottomcord = endcoord;
bottomcord.Y += -(long)remaining_dist;
// Make the hanging part of the hanging root.
taperedlimb(ref map, endcoord, bottomcord, (int)rootmid, (int)endsize);
}
// make the beginning part of hanging or "tostone" roots
taperedlimb(ref map, startcoord, endcoord, (int)rootstartsize, (int)rootmid);
// If you aren't searching for stone or air, just make the root.
}
else
{
taperedlimb(ref map, startcoord, endcoord, (int)rootstartsize, (int)endsize);
}
}
}
public abstract double[,] Generate(IMapHandler map, long X, long Z, out double min, out double max);
public void Generate(IMapHandler mh, long X, long Y)
{
if (_Generator == null) return;
string lockfile = Path.ChangeExtension(GetChunkFilename((int)X,(int)Y), "genlock");
if (!_Generator.NoPreservation)
{
if (File.Exists(lockfile))
return;
}
else
{
if (File.Exists(lockfile))
File.Delete(lockfile);
}
Chunk _c = mh.NewChunk(X, Y);
byte[,,] b = _Generator.Generate(ref mh, X, Y);
if (b == null) return;
/*
try
{
//Console.WriteLine("{0} blocks of stone post-generation.", GetBlockNumbers(b)[1]);
}
catch (Exception) { }
*/
_Generator.AddTrees(ref b, (int)X, (int)Y, (int)ChunkScale.Z);
_c.Blocks = b;
_c.UpdateOverview();
//_c.SkyLight=Utils.RecalcLighting(_c,true);
//_c.BlockLight=Utils.RecalcLighting(_c,false);
_c.Save();
File.WriteAllText(lockfile, "");
}
/// <summary>
/// Generate the foliage and enter it in blocklist.
///
/// Note, foliage will disintegrate if there is no foliage below, or
/// if there is no "log" block within range 2 (square) at the same level or
/// one level below
/// </summary>
/// <param name="map"></param>
public virtual void MakeFoliage(ref IMapHandler map)
{
}
public abstract void DoSkyLighting(IMapHandler _mh, long X, long Y);
void mh_StatusUpdate(IMapHandler _mh, short status, string message)
{
//Console.WriteLine("[STATUSUPDATE] " + message);
if (status != 0)
{
tsbStatus.Text = message.Replace("\r\n"," ");
tsbProgress.Style = ProgressBarStyle.Marquee;
if (mStatusWindow == null)
{
mStatusWindow = new dlgStatus(_mh, message);
mStatusWindow.Show();
}
}
else
{
ResetStatus();
tsbStatus.Text = "";
tsbProgress.Style = ProgressBarStyle.Continuous;
}
}
public override void MakeFoliage(ref IMapHandler map)
{
List<Vector3i> foliage_coords = foliage_cords;
foreach(Vector3i coord in foliage_coords)
{
foliagecluster(ref map,coord);
}
foreach(Vector3i cord in foliage_coords)
{
map.SetBlockAt(cord.X,cord.Y,cord.Z,17);
if(LIGHTTREE == 1)
{
map.SetBlockAt(cord.X,cord.Y+1,cord.Z,50);
map.SetBlockAt(cord.X,cord.Y+2,cord.Z,17);
}
else if (LIGHTTREE == 2 || LIGHTTREE == 4)
{
map.SetBlockAt(cord.X+1,cord.Y,cord.Z,50);
map.SetBlockAt(cord.X-1,cord.Y,cord.Z,50);
if(LIGHTTREE == 4)
{
map.SetBlockAt(cord.X,cord.Y,cord.Z+1,50);
map.SetBlockAt(cord.X,cord.Y,cord.Z-1,50);
}
}
}
}
public abstract void DoSkyLighting(IMapHandler _mh, long X, long Y);
/// <summary>
/// Create a round section of type matidx in blocklist.
/// </summary>
/// <param name="map"></param>
/// <param name="vCenter">the coordinates of the center block</param>
/// <param name="radius">the radius of the section.</param>
/// <param name="diraxis">The list index for the axis to make the section perpendicular to. 0 indicates the x axis, 1 the y, 2 the z. The section will extend along the other two axies.</param>
/// <param name="mat">What to make the section out of</param>
public void crossection(ref IMapHandler map, Vector3i vCenter, double radius, int diraxis, byte mat)
{
long[] centArray=vCenter.ToArray();
int rad = (int)(radius + .618d);
int secidx1 = (diraxis - 1)%3;
int secidx2 = (1 + diraxis)%3;
int[] coord = new int []{0,0,0};
for(int off1 =-rad; off1<rad+1;off1++)
{
for(int off2 =-rad; off2<rad+1;off2++)
{
double thisdist = Math.Sqrt(Math.Pow((double)Math.Abs(off1)+.5d,2d) + Math.Pow((double)Math.Abs(off2) + .5d,2));
if(thisdist > radius)
continue;
int pri = (int)centArray[diraxis];
int sec1 = (int)centArray[secidx1] + off1;
int sec2 = (int)centArray[secidx2] + off2;
coord[diraxis] = pri;
coord[secidx1] = sec1;
coord[secidx2] = sec2;
map.SetBlockAt(coord[0],coord[1],coord[2],mat);
}
}
}
public override void MakeTrunk(ref IMapHandler map)
{
int starty = (int)Pos[1];
int midy = (int)(Pos[1]+(trunkheight*.382));
int topy = (int)(Pos[1]+(trunkheight + 0.5));
// In this method, x and z are the position of the trunk.
long x = Pos[0];
long z = Pos[2];
double midrad = trunkradius * .8;
double endrad = trunkradius * (1 - trunkheight/Height);
if(endrad < 1.0)
endrad = 1.0;
if(midrad < endrad)
midrad = endrad;
List<Vector3i> rootbases = new List<Vector3i>();
// Make the root buttresses, if indicated
double startrad;
if(ROOTBUTTRESSES || SHAPE == "mangrove")
{
// The start radius of the trunk should be a little smaller if we
// are using root buttresses.
startrad = trunkradius * .8;
// rootbases is used later in makeroots(...) as
// starting locations for the roots.
rootbases.Add(new Vector3i(x,z,(long)startrad));
double buttress_radius = trunkradius * 0.382;
// posradius is how far the root buttresses should be offset
// from the trunk.
double posradius = trunkradius;
// In mangroves, the root buttresses are much more extended.
if(SHAPE == "mangrove")
posradius = posradius *2.618;
int num_of_buttresses = (int)(Math.Sqrt(trunkradius) + 3.5);
for(int i = 0;i<num_of_buttresses;i++)
{
double rndang = rand.NextDouble()*2*Math.PI;
double thisposradius = posradius * (0.9 + rand.NextDouble()*.2);
// thisx and thisz are the x and z position for the base of
// the root buttress.
long thisx = x + (long)(thisposradius * Math.Sin(rndang));
long thisz = z + (long)(thisposradius * Math.Cos(rndang));
// thisbuttressradius is the radius of the buttress.
// Currently, root buttresses do not taper.
double thisbuttressradius = buttress_radius * (0.618 + rand.NextDouble());
if(thisbuttressradius < 1.0)
thisbuttressradius = 1.0;
// Make the root buttress.
taperedlimb(ref map, new Vector3i(thisx,starty,thisz),new Vector3i(x,midy,z),
(int)thisbuttressradius,(int)thisbuttressradius);
// Add this root buttress as a possible location at
// which roots can spawn.
rootbases.Add(new Vector3i(thisx,thisz,(long)thisbuttressradius));
}
}else{
// If root buttresses are turned off, set the trunk radius
// to normal size.
rootbases.Clear();
startrad=trunkradius;
rootbases.Add(new Vector3i(x,z,(long)trunkradius));
}
// Make the lower and upper sections of the trunk.
taperedlimb(ref map, new Vector3i(x,starty,z), new Vector3i(x,midy,z),(int)startrad,(int)midrad);
taperedlimb(ref map,new Vector3i(x,midy,z),new Vector3i(x,topy,z),(int)midrad,(int)endrad);
// Make the branches
makebranches(ref map);
// Make the roots, if indicated.
if (ROOTS == "yes" || ROOTS == "tostone" || ROOTS == "hanging")
makeroots(ref map, rootbases);
}
/// <summary>
/// Generate the foliage and enter it in blocklist.
///
/// Note, foliage will disintegrate if there is no foliage below, or
/// if there is no "log" block within range 2 (square) at the same level or
/// one level below
/// </summary>
/// <param name="map"></param>
public virtual void MakeFoliage(ref IMapHandler map)
{
}
public virtual void BlocklightGlobal(ref IMapHandler mh)
{
mh.ForEachChunk(DoBlockLighting);
}
/// <summary>
/// Create a tapered cylinder in blocklist.
/// start and end are the beginning and ending coordinates of form [x,y,z].
/// startsize and endsize are the beginning and ending radius.
/// The material of the cylinder is 17, which indicates wood in Minecraft.
/// </summary>
/// <param name="map"></param>
/// <param name="start"></param>
/// <param name="end"></param>
/// <param name="startsize"></param>
/// <param name="endsize"></param>
public void taperedlimb(ref IMapHandler map, Vector3i vStart, Vector3i vEnd, int startsize, int endsize)
{
// delta is the coordinate vector for the difference between
// start and end.
Vector3i vDelta = vEnd - vStart;
long[] delta = vDelta.ToArray();
long[] start = vStart.ToArray();
long[] end = vEnd.ToArray();
// primidx is the index (0,1,or 2 for x,y,z) for the coordinate
// which has the largest overall delta.
long maxdist = 0;
int primidx = 0;
for (int i = 0; i < 3; i++)
{
if (Math.Abs(delta[i]) > maxdist)
{
maxdist = delta[i];
primidx = i;
}
}
if (maxdist == 0)
{
return;
}
// secidx1 and secidx2 are the remaining indicies out of [0,1,2].
int secidx1 = (primidx - 1) % 3;
int secidx2 = (1 + primidx) % 3;
// primsign is the digit 1 or -1 depending on whether the limb is headed
// along the positive or negative primidx axis.
long primsign = delta[primidx] / Math.Abs(delta[primidx]);
// secdelta1 and ...2 are the amount the associated values change
// for every step along the prime axis.
long secdelta1 = delta[secidx1];
double secfac1 = (double)(secdelta1) / delta[primidx];
long secdelta2 = delta[secidx2];
double secfac2 = (double)(secdelta2) / delta[primidx];
// Initialize coord. These values could be anything, since
// they are overwritten.
long[] coord = new long[] { 0, 0, 0 };
// Loop through each crossection along the primary axis,
// from start to end.
long endoffset = delta[primidx] + primsign;
for (long primoffset = 0; primoffset < endoffset; primoffset += primsign)//primoffset in range(0, endoffset, primsign):
{
long primloc = start[primidx] + primoffset;
int secloc1 = (int)(start[secidx1] + primoffset * secfac1);
int secloc2 = (int)(start[secidx2] + primoffset * secfac2);
coord[primidx] = primloc;
coord[secidx1] = secloc1;
coord[secidx2] = secloc2;
long primdist = Math.Abs(delta[primidx]);
int radius = (int)(endsize + (startsize - endsize) * Math.Abs(delta[primidx] - primoffset) / primdist);
crossection(ref map, new Vector3i(coord[0], coord[1], coord[2]), radius, primidx, 17);
}
}
public void makeroots(ref IMapHandler map, List<Vector3i> rootbases)
{
foreach(Vector3i coord in foliage_cords)
{
// First, set the threshhold for randomly selecting this
// coordinate for root creation.
double dist = Math.Sqrt( Math.Pow(coord[0]-Pos[0],2) +
Math.Pow(coord[2]-Pos[2],2));
double ydist = coord[1]-Pos[1];
double value = (branchdensity * 220 * Height)/Math.Pow((ydist + dist), 3d);
// Randomly skip roots, based on the above threshold
if(value < rand.NextDouble())
continue;
// initialize the internal variables from a selection of
// starting locations.
int ci = rand.Next(0, rootbases.Count-1);
Vector3i rootbase = rootbases[ci];
long rootx = rootbase[0];
long rootz = rootbase[1];
double rootbaseradius = rootbase[2];
// Offset the root origin location by a random amount
// (radialy) from the starting location.
double rndr = (Math.Sqrt(rand.NextDouble())*rootbaseradius*.618);
double rndang = rand.NextDouble()*2*Math.PI;
int rndx = (int)(rndr*Math.Sin(rndang) + 0.5);
int rndz = (int)(rndr*Math.Cos(rndang) + 0.5);
int rndy = (int)(rand.NextDouble()*rootbaseradius*0.5);
Vector3i startcoord = new Vector3i(rootx+rndx,Pos[1]+rndy,rootz+rndz);
// offset is the distance from the root base to the root tip.
Vector3i offset = startcoord-coord;
// If this is a mangrove tree, make the roots longer.
if(SHAPE == "mangrove")
{
offset = (offset * 1.618) - 1.5;
}
Vector3i endcoord = startcoord+offset;
double rootstartsize = (rootbaseradius*0.618* Math.Abs(offset[1])/(Height*0.618));
if(rootstartsize < 1.0)
rootstartsize = 1.0;
double endsize = 1.0;
// If ROOTS is set to "tostone" or "hanging" we need to check
// along the distance for collision with existing materials.
if(ROOTS == "tostone" || ROOTS == "hanging")
{
double offlength = Math.Sqrt(
Math.Pow(offset[0],2) +
Math.Pow(offset[1],2) +
Math.Pow(offset[2],2));
if(offlength < 1)
continue;
double rootmid = endsize;
// vec is a unit vector along the direction of the root.
Vector3i vec = offset/offlength;
byte searchindex;
if(ROOTS == "tostone")
searchindex = 1;
else // Hanging
searchindex = 0;
// startdist is how many steps to travel before starting to
// search for the material. It is used to ensure that large
// roots will go some distance before changing directions
// or stopping.
double startdist = (int)(rand.NextDouble()*6*Math.Sqrt(rootstartsize) + 2.8);
// searchstart is the coordinate where the search should begin
Vector3i searchstart = (startcoord + startdist) * vec;
// dist stores how far the search went (including searchstart)
// before encountering the expected marterial.
dist = startdist + map.DistanceToMaterial(searchstart,vec,searchindex);
// If the distance to the materila is less than the length
// of the root, change the end point of the root to where
// the search found the material.
if(dist < offlength)
// rootmid is the size of the crossection at endcoord.
rootmid += (rootstartsize - endsize)*(1-dist/offlength);
// endcoord is the midpoint for hanging roots,
// and the endpoint for roots stopped by stone.
endcoord = startcoord+(vec*dist);
if(ROOTS == "hanging")
{
// remaining_dist is how far the root had left
// to go when it was stopped.
double remaining_dist = offlength - dist;
// Initialize bottomcord to the stopping point of
// the root, and then hang straight down
// a distance of remaining_dist.
Vector3i bottomcord = endcoord;
bottomcord.Y += -(long)remaining_dist;
// Make the hanging part of the hanging root.
taperedlimb(ref map, endcoord, bottomcord, (int)rootmid, (int)endsize);
}
// make the beginning part of hanging or "tostone" roots
taperedlimb(ref map, startcoord, endcoord, (int)rootstartsize, (int)rootmid);
// If you aren't searching for stone or air, just make the root.
}
else
{
taperedlimb(ref map, startcoord, endcoord, (int)rootstartsize, (int)endsize);
}
}
}
/// <summary>
/// Gen a dungeon
/// </summary>
/// <param name="CX">Chunk X pos</param>
/// <param name="CY">Chunk Y pos</param>
/// <param name="CH">Chunk Horizontal Scale</param>
/// <param name="b"></param>
/// <param name="mh"></param>
/// <param name="r"></param>
/// <param name="x"></param>
/// <param name="y"></param>
/// <param name="z"></param>
/// <returns></returns>
public static bool MakeDungeon(int CX, int CY, ref byte[, ,] b, ref IMapHandler mh, Random r)
{
int CH = (int)mh.ChunkScale.X;
int CV = (int)mh.ChunkScale.Z;
int x = r.Next(0+DungeonSizeX-1, CH-DungeonSizeX+1);
int y = r.Next(0+DungeonSizeY-1, CH-DungeonSizeY+1);
int z = r.Next(0+DungeonSizeZ-1, CV-DungeonSizeZ+1);
Vector3i position = new Vector3i(x,y,z);
//Console.WriteLine("Creating dungeon in {0}...", position);
if (!CheckForDungeonSpace(b, x, y, z)) return false;
Vector3i size = new Vector3i((DungeonSizeX*2)+1,(DungeonSizeY*2)+1,(DungeonSizeZ*2)+1);
FillRect(ref b, 0, position, size);
MakeDungeonWalls(ref b, r, position, size);
mh.SetTileEntity(new MobSpawner(x+(int)(CX*CH), y+(int)(CY*CH), z-DungeonSizeZ+1, Entity.GetRandomMonsterID(r), 20));
b[x, y, z - DungeonSizeZ + 1]=52;
return true;
}
/// <summary>
/// From the VoxelSim project
/// http://github.com/N3X15/VoxelSim
/// </summary>
/// <param name="X"></param>
/// <param name="Y"></param>
/// <param name="chunksize"></param>
/// <returns></returns>
public override byte[, ,] Generate(ref IMapHandler mh, long X, long Y)
{
Vector3i chunksize = mh.ChunkScale;
int ZH = (int)chunksize.Z;
byte[, ,] b = new byte[chunksize.X, chunksize.Y, chunksize.Z];
bool[, ,] cavemap = new bool[chunksize.X, chunksize.Y, chunksize.Z];
byte Sand=12;
byte Grass=2;
byte Soil=3;
byte Water=9;
if (HellMode)
{
Sand = 49; // Obsidian
Grass = Soil;
Water = 11; // Lava
}
for (int z = 0; z < ZH; z++)
{
for (int x = 0; x < chunksize.X; x++)
{
for (int y = 0; y < chunksize.Y; y++)
{
//Console.WriteLine("HeightOffset {0}",heightoffset);
cavemap[x, y, z] = false;
if (z == 0)
b[x, y, z] = 7; // Adminite layer
else
{
double _do = ((CaveNoise.GetValue(x + (X * chunksize.X), y + (Y * chunksize.Y), z * 2.0) + 1) / 2.0);
bool d3 = _do > CaveThreshold;
// XOR?
if(z<=WaterHeight+7)//if (!(!d1 || !d2))
{
//Console.Write("#");
b[x, y, z] = (d3) ? b[x,y,z] : (byte)1;
cavemap[x, y, z] = d3;
//if (x == 0|| y == 0)
// b[x, y, z] = 41;
}
else if (z == 1)
b[x, y, z] = 11;
}
}
}
}
//Console.WriteLine("Done generating chunk. [{0},{1}]",min,max);
// Add soil, sand
for (int x = 0; x < chunksize.X; x++)
{
//Console.WriteLine();
for (int y = 0; y < chunksize.Y; y++)
{
bool HavePloppedGrass = false;
bool HaveTouchedSoil = false;
byte BlockForThisColumn = 0;
for (int z = (int)chunksize.Z - 1; z > 0; z--)
{
if (b[x, y, z] == 1)
{
HaveTouchedSoil=true;
if (z + DERT_DEPTH >= ZH)
continue;
byte ddt = b[x, y, z + DERT_DEPTH];
switch (ddt)
{
case 0: // Air
case 8: // Water
case 9: // Water
if (BlockForThisColumn == 0)
{
if (z - DERT_DEPTH <= WaterHeight)
{
b[x, y, z] = Sand; // Sand
BlockForThisColumn = Sand;
}
else
{
b[x, y, z] = (HavePloppedGrass) ? Soil : Grass; // Dirt or grass
if (!HavePloppedGrass)
{
BlockForThisColumn = Soil;
HavePloppedGrass = true;
}
}
}
else
{
b[x, y, z] = BlockForThisColumn;
}
break;
default:
z = 0;
break;
}
}
// Place water
else if (b[x, y, z] == 0 && z <= WaterHeight && !HaveTouchedSoil)
{
b[x, y, z] = (cavemap[x,y,z]) ? Soil:Water;
}
}
}
}
for (int x = 0; x < chunksize.X; x++)
{
for (int y = 0; y < chunksize.Y; y++)
{
int z = 1;
// TODO Yell at Notch for not making Lava occlude. :|
if (b[x, y, z] == 0)
b[x, y, z] = 11; // Lava for air.
else if (b[x, y, z] == 9)
b[x, y, z] = 49; // Obsidian for underwater shit.
}
}
if (rand.Next(0, 10) == 0)
{
int DungeonTries = 128;
while (!Utils.MakeDungeon((int)X, (int)Y, ref b, ref mh, rand))
{
//Console.WriteLine("Making dungeon...");
if (DungeonTries-- == 0)
break;
}
}
/*
int StillWater = 0;
int RunningWater = 0;
for (int z = 0; z < ZH; z++)
{
for (int x = 0; x < chunksize.X; x++)
{
for (int y = 0; y < chunksize.Y; y++)
{
switch (b[x, y, z])
{
case 8:
RunningWater++;
break;
case 9:
StillWater++;
break;
default:
break;
}
}
}
}
Console.WriteLine("{0} still water, {1} running water", StillWater, RunningWater);*/
AddTrees(ref b, (int)X, (int)Y, (int)chunksize.Z);
return b;
}
public override void DoSkyLighting(IMapHandler _mh, long X, long Y)
{
Chunk c = _mh.GetChunk(X, Y);
if (c == null) return;
this.DoSkylighting(c);
}