ProceduralTree RandomTree(Vector3 pos, int iterations)
{
//binary tree
//LSystem lSystem = new LSystem("0", new Dictionary<string, string> { {"0", "1B[[0R-]0R+]" } });
//Lopsided binary tree
//LSystem lSystem = new LSystem("0", new Dictionary<string, string> { { "0", "1B[[10R-]0R+]" } });
//simple vine
LSystem lSystem = new LSystem("1R10", new Dictionary <string, string> {
{ "1", "1BR[0-]1" }
});
//triple vine
//LSystem lSystem = new LSystem("10", new Dictionary<string, string> { { "1", "1BR[0R-][0+][0L-]1" } });
//Trinary tree
//LSystem lSystem = new LSystem("0", new Dictionary<string, string> { {"0", "1[[0R-][1B0+][0R+]]" } });
//Trinary tree lopsided
//LSystem lSystem = new LSystem("0", new Dictionary<string, string> { {"0", "1B[110R-][10R][0R+]" } });
//LSystem lSystem = new LSystem("0", new Dictionary<string, string> { {"0", "1RB[110-][10][0+]" } });
//alternating binary tree
//LSystem lSystem = new LSystem("0", new Dictionary<string, string> { { "+", "-" }, { "-", "+" }, { "0", "1B[[0R+]0L+]" } });
//alternating trinary tree <3
//LSystem lSystem = new LSystem("0", new Dictionary<string, string> { { "R", "L" }, { "L", "R" }, { "0", "1[[0L+][10-][0R+]]" } });
float startRotation = prng.Next(0, 360);
float branchRotateAngle = SampleBellCurveInRange(0f, 180f);
float branchBendAngle = SampleBellCurveInRange(0f, 90f);
float branchLengthDefault = SampleBellCurveInRange(1f, 4f);
float branchDefaultWidth = SampleBellCurveInRange(0.5f, 2f);
float taperWidth = SampleBellCurveInRange(0.1f, 0.5f);
float taperHeight = SampleBellCurveInRange(0f, 0.5f);
Vector3 bias = RandomNormalizedVector();
float biasStrength = SampleBellCurveInRange(0f, 0.2f);
GameObject treeBase = new GameObject("TreeBase");
treeBase.transform.Rotate(treeBase.transform.up, startRotation);
treeBase.transform.position = pos;
treeBase.transform.parent = transform;
ProceduralTree tree = treeBase.AddComponent <ProceduralTree>();
tree.ConstructProceduralTree(lSystem, iterations, branchRotateAngle, branchBendAngle, branchLengthDefault, branchDefaultWidth, taperWidth, taperHeight, bias, biasStrength, branchBody, leafBody);
return(tree);
}
public FoliageGenerator(ProceduralTree tree, Mesh mesh, float scale) : base(mesh)
{
if (tree.FoliageStyle == FoliageStyle.None)
{
return;
}
var colors = tree.FoliageColors;
int numColors = colors.Length;
if (numColors > 0)
{
int colorIndex = URandom.Range(0, numColors);
color = colors[colorIndex];
}
else
{
color = Palette.GREEN;
}
width = tree.FoliageWidth + Random.Range(-1, 1) * tree.FoliageWidthVariance;
width = Mathf.Max(MIN_SIZE, width * scale);
height = tree.FoliageHeight + Random.Range(-1, 1) * tree.FoliageHeightVariance;
height = Mathf.Max(MIN_SIZE, height * scale);
}
/// <summary>
/// Creates a GameObject from an ARTree
/// </summary>
/// <param name="tree"></param>
/// <returns></returns>
private GameObject CreateTreeGameobject(ARTree tree)
{
GameObject g = Instantiate(rootTree) as GameObject;
ProceduralTree script = g.GetComponent <ProceduralTree>();
script.Seed = tree.seed;
script.MaxNumVertices = tree.maxNumVertices;
script.NumberOfSides = tree.numberOfSides;
script.BaseRadius = tree.baseRadius;
script.RadiusStep = tree.radiusStep;
script.MinimumRadius = tree.minimumRadius;
script.BranchRoundness = tree.branchRoundness;
script.SegmentLength = tree.segmentLength;
script.Twisting = tree.twisting;
script.BranchProbability = tree.branchProbability;
script.growthPercent = 1.0f;// tree.growthPercent;
// Set correct leaf-material
tree.ConvertToTexture();
Material m = new Material(Shader.Find("Custom/LeafShader"));
m.mainTexture = tree.leafTexture;
script.leafMaterial = m;
// Change texture on leafs
GameObject leaf = g.transform.GetChild(0).gameObject;
leaf.GetComponent <ChangeLeafTexture>().ChangeTexture();
g.AddComponent <TimeStampHolder>().TimeStamp = tree.timeStamp;
// Set the propper tree texture
Renderer treeR = g.GetComponent <Renderer>();
string textureName = tree.materialName; // tree.materialName is textureName;
if (textureName == "bark3") // Oak
{
Debug.Log("BARK3");
treeR.material.mainTexture = barkTextures[0];
}
else if (textureName == "bark1") // Rainbow
{
Debug.Log("BARK1");
treeR.material.mainTexture = barkTextures[1];
}
else // Birch
{
Debug.Log("BIRCH!!!");
g.AddComponent <ProceduralBark>();
ProceduralBark b = g.GetComponent <ProceduralBark>();
b.freq = 0.08f;
b.lacunarity = 3.38f;
b.gain = -0.78f;
b.GenerateTexture();
}
return(g);
}
public TreeGenerator(ProceduralTree tree, Mesh mesh, TreeGenerator parent = null) : base(mesh, parent)
{
this.tree = tree;
twisting = tree.Twisting;
barkColor = tree.BarkColor;
foliageType = tree.FoliageStyle;
}
public TrunkGenerator(ProceduralTree tree, Mesh mesh) : base(tree, mesh)
{
numSides = tree.NumSides;
height = tree.Height;
expectedNumSegments = tree.NumSegments;
baseRadius = tree.Thickness;
stumpChance = tree.StumpChance;
woodColor = tree.WoodColor;
}
// Use this for initialization
void Start()
{
foreach (Transform child in transform)
{
if (child.tag == "Tree")
{
tree = child.GetComponent <ProceduralTree>();
treeMaterial = child.GetComponent <Renderer>();
}
}
treesToAdd = new List <ARTree>();
treesToRemove = new List <ARTree>();
DatabaseHandler.NewTreeAdded += AddTreeToAdd;
DatabaseHandler.NewTreeToRemove += AddTreeToRemove;
}
// спавним дерево по x и y
void RollNSpawn(int x, int y)
{
float h = terrain.SampleHeight(new Vector3(x, 0, y)); // вытаскивая высоту из карты высот ландшафта
// копируя префаб
ProceduralTree placement = (Instantiate(tree, terrain.transform) as GameObject).GetComponent <ProceduralTree>();
placement.transform.position = new Vector3(x, h, y);
// и рандомля пачку параметров
placement.transform.localScale = new Vector3(Roll(scale), Roll(scale), Roll(scale));
placement.SegmentLength = Roll(segmentLength);
placement.Twisting = Roll(twisting);
placement.BaseRadius = Roll(baseRadius);
placement.MinimumRadius = Roll(minimumRadius);
placement.BranchRoundness = Roll(roudness);
placement.Renderer.material = materials[Random.Range(0, 4)];
// после чего обновляя меш у дерева
placement.ForceUpdate();
}
public BranchGenerator(ProceduralTree tree, Mesh mesh, TrunkGenerator parent,
Vector3 position, Vector3 direction, float radius, float segmentLength, int numSegments) : base(tree, mesh, parent)
{
this.position = position;
initialRadius = radius;
initialRotation = Quaternion.FromToRotation(Vector3.up, direction);
float t = Mathf.InverseLerp(
ProceduralTree.MIN_THICKNESS, ProceduralTree.MAX_THICKNESS, initialRadius
);
numSides = (int)Mathf.Floor(
Mathf.Lerp(ProceduralTree.MIN_ROUNDNESS, ProceduralTree.MAX_ROUNDNESS, t)
);
this.segmentLength = segmentLength;
this.numSegments = numSegments;
this.foliageScale = initialRadius / tree.Thickness;
}
public RoundLeavesGenerator(ProceduralTree tree, Mesh mesh, float scale) : base(tree, mesh, scale)
{
}
public ConiferousLeavesGenerator(ProceduralTree tree, Mesh mesh, float scale, Vector3[] positions, Quaternion[] rotations, float[] radiuses) : base(tree, mesh, scale)
{
this.positions = positions;
this.rotations = rotations;
this.radiuses = radiuses;
}
private void OnEnable()
{
tree = target as ProceduralTree;
}
