private List <LandscapeEntity> PopulateChunksWithTree(Vector3I chunkPosition, Biome biome, byte[] chunkBytes, ChunkColumnInfo[] columndInfo, FastRandom rnd)
{
if (biome.BiomeTrees.Trees.Count <= 0)
{
return(null);
}
//Get Rnd chunk Location.
int x = rnd.Next(0, 16);
int z = rnd.Next(0, 16);
int y = columndInfo[x * AbstractChunk.ChunkSize.Z + z].MaxGroundHeight + 1;
//Validate position = Must be Air block (not water) !
if (chunkBytes[((z * AbstractChunk.ChunkSize.X) + x) * AbstractChunk.ChunkSize.Y + y] != WorldConfiguration.CubeId.Air)
{
return(null);
}
x += (chunkPosition.X * AbstractChunk.ChunkSize.X);
z += (chunkPosition.Z * AbstractChunk.ChunkSize.Z);
Vector3I worldPosition = new Vector3I(x, y, z);
//Generate Tree mesh !
//Get tree type following distribution chances inside the biome
TreeBluePrint treeType = biome.BiomeTrees.GetTreeTemplate(rnd, _worldParameters.Configuration.TreeBluePrintsDico);
int generationSeed = rnd.Next();
return(LandscapeEntityParser.GlobalMesh2ChunkMesh(_treeGenerator.Generate(generationSeed, worldPosition, treeType), worldPosition, treeType.Id, generationSeed));
}
public static VoxelModel GenerateTreeModel(int seed, TreeBluePrint blueprint, TreeLSystem treeSystem = null)
{
if (treeSystem == null)
{
treeSystem = new TreeLSystem();
}
var blocks = treeSystem.Generate(seed, new Vector3I(), blueprint);
var max = new Vector3I(int.MinValue);
var min = new Vector3I(int.MaxValue);
foreach (var blockWithPosition in blocks)
{
max = Vector3I.Max(max, blockWithPosition.WorldPosition);
min = Vector3I.Min(min, blockWithPosition.WorldPosition);
}
var size = max - min + Vector3I.One;
var model = new VoxelModel();
model.Name = "Tree Example";
model.ColorMapping = new ColorMapping();
model.ColorMapping.BlockColors = new Color4[64];
model.ColorMapping.BlockColors[0] = Color.Brown.ToColor4();
model.ColorMapping.BlockColors[1] = Color.Green.ToColor4();
var frame = new VoxelFrame(size);
foreach (var blockWithPosition in blocks)
{
frame.BlockData.SetBlock(blockWithPosition.WorldPosition - min, blockWithPosition.BlockId == blueprint.TrunkBlock ? (byte)1 : (byte)2);
}
model.Frames.Add(frame);
var part = new VoxelModelPart();
part.Name = "Main";
model.Parts.Add(part);
var state = new VoxelModelState(model);
state.Name = "Default";
state.PartsStates[0].Translation = new Vector3(min.X, 0, min.Z);
model.States.Add(state);
return(model);
}
public override void FTSUpdate(GameTime timeSpent)
{
if (_inputManager.ActionsManager.isTriggered(Actions.EngineReserved1))
{
rotationQ.ValuePrev = rotationQ.Value;
_withRotation = !_withRotation;
}
if (_inputManager.ActionsManager.isTriggered(Actions.EngineReserved2))
{
if (_newTemplate != null)
{
RefreshBuffers(_newTemplate);
}
}
if (Pipe.MessagesQueue.Count > 0)
{
TreeBluePrint newBluePrint;
if (Pipe.MessagesQueue.TryDequeue(out newBluePrint))
{
_newTemplate = newBluePrint;
RefreshBuffers(_newTemplate);
}
}
if (_withRotation)
{
rotation += 0.01f;
}
rotationQ.BackUpValue();
rotationQ.Value = Quaternion.RotationAxis(Vector3.UnitY, rotation);
if (rotation >= MathHelper.TwoPi)
{
rotation = 0;
}
if (rotation <= -MathHelper.TwoPi)
{
rotation = 0;
}
}
public void Start()
{
PipeStream = new NamedPipeClientStream(".", "UtopiaEditor", PipeDirection.InOut, PipeOptions.Asynchronous);
PipeStream.Connect(1000);
if (PipeStream.IsConnected)
{
using (StreamReader sr = new StreamReader(PipeStream))
{
while (StopThread != true)
{
string data = sr.ReadLine();
if (data != null)
{
data = data.Replace("|", Environment.NewLine);
TreeBluePrint BleuPrintdata = (TreeBluePrint)XmlSerialize.XmlDeserializeFromString(data, typeof(TreeBluePrint));
MessagesQueue.Enqueue(BleuPrintdata);
}
Thread.Sleep(1);
}
}
}
PipeStream.Dispose();
}
private void RefreshBuffers(TreeBluePrint treeTemplate)
{
FastRandom rnd = new FastRandom();
FastRandom rndColor = new FastRandom();
//Generate the list of Tree points.
List <BlockWithPosition> result = _treeSystem.Generate(rnd.Next(), new S33M3Resources.Structs.Vector3I(), treeTemplate);
_letreeVertexCollection = new List <VertexHLSLLTree>();
_letreeIndexCollection = new List <ushort>();
MaxtreeSize.X = int.MinValue;
MaxtreeSize.Y = int.MinValue;
MaxtreeSize.Z = int.MinValue;
MintreeSize.X = int.MaxValue;
MintreeSize.Y = int.MaxValue;
MintreeSize.Z = int.MaxValue;
//For each block
foreach (BlockWithPosition block in result)
{
float blockShade = rnd.NextFloat(0.8f, 1.0f);
int vertexOffset = _letreeVertexCollection.Count;
//Create the 24 vertex + 36 Index data per cube !
for (int i = 0; i < vertexCube.Length; i++)
{
ByteColor c;
if (block.BlockId == treeTemplate.TrunkBlock)
{
c = Color.Brown;
}
else
{
c = Color.Green;
}
//int blue = c.B + rndColor.Next(-10, 10); if (blue < 0 || blue > 255) blue = c.B; c.B += (byte)blue;
//int red = c.R + rndColor.Next(-10, 10); if (red < 0 || red > 255) red = c.R; c.R += (byte)red;
//int green = c.G + rndColor.Next(-10, 10); if (green < 0 || green > 255) blue = c.G; c.G += (byte)green;
if (block.WorldPosition.X > MaxtreeSize.X)
{
MaxtreeSize.X = block.WorldPosition.X;
}
if (block.WorldPosition.Y > MaxtreeSize.Y)
{
MaxtreeSize.Y = block.WorldPosition.Y;
}
if (block.WorldPosition.Z > MaxtreeSize.Z)
{
MaxtreeSize.Z = block.WorldPosition.Z;
}
if (block.WorldPosition.X < MintreeSize.X)
{
MintreeSize.X = block.WorldPosition.X;
}
if (block.WorldPosition.Y < MintreeSize.Y)
{
MintreeSize.Y = block.WorldPosition.Y;
}
if (block.WorldPosition.Z < MintreeSize.Z)
{
MintreeSize.Z = block.WorldPosition.Z;
}
_letreeVertexCollection.Add(new VertexHLSLLTree(vertexCube[i] + block.WorldPosition, blockShade, c));
}
foreach (var index in indicesCube)
{
_letreeIndexCollection.Add((ushort)(index + vertexOffset));
}
}
_bufferDirty = true;
}