public void Generate()
{
// Create the module network
ModuleBase moduleBase;
switch (noise)
{
case NoiseType.Billow:
moduleBase = new Billow();
break;
case NoiseType.RidgedMultifractal:
moduleBase = new RidgedMultifractal();
break;
case NoiseType.Voronoi:
moduleBase = new Voronoi();
break;
// case NoiseType.Mix:
//Perlin perlin = new Perlin();
//RidgedMultifractal rigged = new RidgedMultifractal();
//moduleBase = new Add(perlin, rigged);
//break;
default:
moduleBase = new Perlin();
break;
}
// Initialize the noise map
this.m_noiseMap = new Noise2D(resolution, resolution, moduleBase);
this.m_noiseMap.GeneratePlanar(
offset + -1 * 1 / zoom,
offset + offset + 1 * 1 / zoom,
offset + -1 * 1 / zoom,
offset + 1 * 1 / zoom);
// Generate the textures
this.m_textures[0] = this.m_noiseMap.GetTexture(GradientPresets.Grayscale);
this.m_textures[0].Apply();
this.m_textures[1] = this.m_noiseMap.GetTexture(GradientPresets.Terrain);
this.m_textures[1].Apply();
this.m_textures[2] = this.m_noiseMap.GetNormalMap(3.0f);
this.m_textures[2].Apply();
//display on plane
GetComponent <Renderer>().material.mainTexture = m_textures[0];
//write images to disk
File.WriteAllBytes(Application.dataPath + "/../Gray.png", m_textures[0].EncodeToPNG());
File.WriteAllBytes(Application.dataPath + "/../Terrain.png", m_textures[1].EncodeToPNG());
File.WriteAllBytes(Application.dataPath + "/../Normal.png", m_textures[2].EncodeToPNG());
Debug.Log("Wrote Textures out to " + Application.dataPath + "/../");
}
public static Mesh MeshFromVoronoi(Voronoi voronoi)
{
var options = new TriangleNet.Meshing.ConstraintOptions
{
ConformingDelaunay = true
};
var vertices = new List <Vector3>();
var verticesIndex = 0;
var triangles = new List <int>();
var colors = new List <Color>();
var regions = voronoi.Regions();
for (var i = 0; i < regions.Count; i++)
{
var region = regions[i];
var polygon = new TriangleNetGeo.Polygon();
foreach (var corner in region)
{
polygon.Add(new TriangleNetGeo.Vertex(corner.x, corner.y));
}
var cellMesh = (TriangleNet.Mesh)polygon.Triangulate(options);
vertices.AddRange(
cellMesh.Vertices.Select(v => new Vector3((float)v.x, 0, (float)v.y))
);
triangles.AddRange(
cellMesh.Triangles.SelectMany(
t => t.vertices.Select(v => v.id + verticesIndex)
.Reverse() // Reverse triangles so they're facing the right way
)
);
// Update index so the next batch of triangles point to the correct vertices
verticesIndex = vertices.Count;
// Assign same color to all vertices in region
var regionColor = new Color(Random.Range(0, 1f), Random.Range(0, 1f), Random.Range(0, 1f));
colors.AddRange(cellMesh.Vertices.Select(v => regionColor));
}
// Just make world-space UVs for now
var uvs = vertices.Select(v => new Vector2(v.x, v.y));
var mesh = new Mesh {
vertices = vertices.ToArray(),
colors = colors.ToArray(),
uv = uvs.ToArray(),
triangles = triangles.ToArray()
};
mesh.RecalculateNormals();
return(mesh);
}
internal List<Point> FindAllCenters(Voronoi voronoi, VoronoiSettings settings)
{
var realCells = voronoi.Cells
// filter the "real" cells
.Where(c => c.Site.RealPoint).ToList();
var centerOfRealCells = realCells
// find center for points
.Select(c =>
{
var centerPointOfPoints = GetCenterPointOfPoints(c.Vertices, settings.Width * 2, settings.Height);
// account for cells having their center shifted to the other side
if (centerPointOfPoints.X > ((double)settings.Width / 2d) * 3d)
{
centerPointOfPoints = new Point(centerPointOfPoints.X - settings.Width, centerPointOfPoints.Y);
}
else if (centerPointOfPoints.X < ((double)settings.Width / 2))
{
centerPointOfPoints = new Point(centerPointOfPoints.X + settings.Width, centerPointOfPoints.Y);
}
// fix points to be real again
var point = new Point(centerPointOfPoints.X - settings.Width / 2, centerPointOfPoints.Y, c.Site.Name);
if (_mapHelper.IsOutOfMap(point, settings.Width * 2, settings.Height))
{
return c.Site;
}
return point;
}).ToList();
return centerOfRealCells;
}
public void BuildIslandAndInitRenderers()
{
_tree = RandomTreeBuilder.GetRandomTree(treeNodeCount, treeMaxGrowthLength, treeBounds);
var voronoiBounds = new Rectf(
0,
0,
size,
size
);
var points = new List <Vector2>(GetRandomPoints(voronoiPointCount, voronoiBounds));
// Throw the tree points in for fun
points.AddRange(_tree.Nodes.Select(n => n.position));
var pointsF = points.Select(v => new Vector2f(v.x, v.y)).ToList();
_voronoi = new Voronoi(pointsF, voronoiBounds, voronoiRelaxation);
_map = MapHelper.MapFromVoronoi(_voronoi);
MapHelper.CalculateCellTypes(_map, _tree, treeMaxGrowthLength, seaFloorElevation);
_map.SetCornerElevations();
if (treeRenderer != null)
{
treeRenderer.SpawnNodesAndLines(_tree, size, targetTerrain);
}
UpdateMapTexture();
}
static bool GenVoronoi(MapGenArgs args)
{
Voronoi voronoi2D = new Voronoi();
voronoi2D.Seed = args.UseSeed ? args.Seed : new Random().Next();
return(Gen2D(args, voronoi2D));
}
public void Result(string mapSeed, Vector2Int mapSize, List <Region> outputMapRegions = null, List <List <Vector2> > outputRegions = null, List <LineSegment> outputSpanningTrees = null)
{
Rect bounds = new Rect(0, 0, mapSize.x, mapSize.y);
List <Vector2> points = CreateRandomPoints(mapSeed, mapSize);
//Generates new graph
Voronoi voronoi = new Voronoi(points, bounds, VoronoiRelaxationCount);
//Results
if (outputMapRegions != null)
{
outputMapRegions.Clear();
List <Vector2> siteCoords = voronoi.SiteCoords();
Dictionary <Vector2, Site> siteDictionary = voronoi.SitesIndexedByLocation;
for (int i = 0; i < siteCoords.Count; i++)
{
Region mapRegion = new Region
{
RegionSite = siteDictionary[siteCoords[i]]
};
outputMapRegions.Add(mapRegion);
}
}
if (outputRegions != null)
{
outputRegions.Clear();
outputRegions.AddRange(voronoi.Regions());
}
if (outputSpanningTrees != null)
{
outputSpanningTrees.Clear();
outputSpanningTrees.AddRange(voronoi.SpanningTree(KruskalType.MINIMUM));
}
}
private void GenerateSections(int numberOfSections)
{
List <Vector2f> seeds = this.CreateRandomPoints(numberOfSections);
this.SectionDiagram = new Voronoi(seeds, this.bounds, 10);
foreach (Site site in this.SectionDiagram.Sites)
{
// Set default elevation to sea floor.
Section sectionData = new Section(this.seafloor);
this.sectionMetadata.Add(site, sectionData);
// Create Voronoi game object corresponding to section.
GameObject go = Instantiate(CellPrefab,
this.VoronoiTransformPoint(site.Coord),
Quaternion.identity).gameObject;
go.transform.SetParent(gameObject.transform);
Cell cellObject = go.GetComponent(typeof(Cell)) as Cell;
cellObject.SetSite(site);
sectionData.CellObject = cellObject;
// Create new meshes for each cell object.
cellObject.GetComponent <MeshFilter>().sharedMesh = new Mesh();
cellObject.GetComponent <MeshCollider>().sharedMesh = new Mesh();
Renderer renderer = cellObject.GetComponent <Renderer>();
renderer.enabled = false;
}
}
public IEnumerator RedoSame20TimesNoGCAllocsTest()
{
Voronoi.FlushPools();
Voronoi.InitPools(500, 500, 40, 200);
var points = VoronoiTest.CreateRandomPoints(50);
yield return(null);
Voronoi voronoi = VoronoiTest.TestVoronoi(points);
yield return(null);
for (int i = 0; i < 20; i++)
{
Profiler.BeginSample("NoGC Voronoi.Redo same points");
voronoi.Redo(points, VoronoiTest.TestBounds());
Profiler.EndSample();
yield return(null);
}
Debug.Log(voronoi.DebugCapacities());
yield return(null);
}
private void GenerateVoronoi()
{
voronoiGraph = new Voronoi(minDistance);
List <Vector2> sites = new List <Vector2>();
for (int i = 0; i < 50; i++)
{
bool tooClose = false;
Vector2 newSite = new Vector2(Rand.Range(0.0f, size, false), Rand.Range(0.0f, size, false));
foreach (Vector2 site in sites)
{
if (Vector2.Distance(newSite, site) <= minDistance)
{
tooClose = true;
break;
}
}
if (!tooClose && !(newSite.X == 0 || newSite.X == size || newSite.Y == 0 || newSite.Y == size))
{
sites.Add(newSite);
}
else
{
i--;
}
}
graphEdges = voronoiGraph.MakeVoronoiGraph(sites, size, size);
graphCells = CaveGenerator.GraphEdgesToCells(graphEdges, new Rectangle(0, 0, size, size), (float)size, out graphCellsGrid);
sites.Clear();
}
private Voronoi ComputeVoronoi(out double delaunayElapsedMs, out double voronoiElapsedMs)
{
// Compute Delaunay & Voronoi
Voronoi voronoi = null;
if (_delaunayMethod == 0)
{
var points = _points.Select(e => e.Loc).Distinct().ToArray();
voronoi = new VoronoiIncremental(points, _showDiagnostics);
}
else
{
var points = _points.Select(e => e.Loc).ToArray();
voronoi = new VoronoiSweepCircle(points, _showDiagnostics);
}
// Calculate Delaunay triangulation
var calcTimeStart = _watch.Elapsed.TotalMilliseconds;
voronoi.CalculateDelaunay();
delaunayElapsedMs = _watch.Elapsed.TotalMilliseconds - calcTimeStart;
// Calculate Voronoi
calcTimeStart = _watch.Elapsed.TotalMilliseconds;
if (_showVoronoi)
{
voronoi.CalculateVoronoi(ViewportWidth(), ViewportHeight());
}
voronoiElapsedMs = _watch.Elapsed.TotalMilliseconds - calcTimeStart;
return(voronoi);
}
public static Voronoi Relax(Voronoi voronoi, Vector2 bounds1, Vector2 bounds2, int amount = 100)
{
Voronoi newVoronoi;
HashSet<Vector2> sites = new HashSet<Vector2>();
Vector2 centroidRemember;
foreach (KeyValuePair<Vector2, Polygon> poly in voronoi.Polygons)
{
centroidRemember = PolygonCentroid(poly.Value);
if (centroidRemember.x != -Mathf.Infinity && centroidRemember.y != -Mathf.Infinity && centroidRemember.x != Mathf.Infinity && centroidRemember.y != Mathf.Infinity && centroidRemember.x > bounds1.x && centroidRemember.y > bounds1.y && centroidRemember.x < bounds2.x && centroidRemember.y < bounds2.y)
{
sites.Add(centroidRemember);
}
else
{
sites.Add(poly.Value.MidPoint.Point);
}
}
amount--;
newVoronoi = Delaunay.DeriveVoronoi(sites.ToList(), Delaunay.Triangulate(sites.ToList()));
if (amount <= 0)
{
return newVoronoi;
}
else
{
return Relax(newVoronoi, bounds1, bounds2, amount);
}
}
private void menuViewVoronoi_Click(object sender, EventArgs e)
{
if (mesh == null)
{
return;
}
if (menuViewVoronoi.Checked)
{
renderManager.ShowVoronoi = false;
menuViewVoronoi.Checked = false;
return;
}
IVoronoi voronoi;
if (mesh.IsPolygon)
{
voronoi = new BoundedVoronoi(mesh);
}
else
{
voronoi = new Voronoi(mesh);
}
renderData.SetVoronoi(voronoi);
renderManager.SetData(renderData);
menuViewVoronoi.Checked = true;
}
public VoronoiSpawnGenerator(Vector3[] playerSpawns, float minSpacing, float maxDrift, float maxX, float maxZ)
{
this.minSpacing = minSpacing;
this.playerSpawns = playerSpawns;
this.maxDrift = maxDrift;
this.maxX = maxX;
this.maxZ = maxZ;
// build site list, translating x,z to x,y
var sites = new Vector2[playerSpawns.Length];
for (var i = 0; i < playerSpawns.Length; i++)
{
sites[i] = new Vector2(playerSpawns[i].x, playerSpawns[i].z);
}
var size = new Vector3(maxX, maxZ, 0);
var bounds = new Bounds(size / 2f, size);
this.voronoi = new Voronoi(bounds, sites);
voronoi.Compute();
for (var i = 0; i < voronoi.edgeList.Count; i++)
{
var edge = voronoi.edgeList[i];
Debug.DrawLine(
new Vector3(edge.vertices[0].x, 100, edge.vertices[0].y),
new Vector3(edge.vertices[1].x, 100, edge.vertices[1].y),
Color.red, 300);
}
}
public static void testPreset(out ModuleBase finalTerrain, out ModuleBase finalTexture)
{
float f;
finalTexture = buildTexture(new Dictionary <Sub, double>(), out f, 1, new System.Random(1));
float scale = 100000f;
finalTerrain = new Voronoi(1 / scale, 0, 2623246, true);
/*finalTerrain = new Billow(1/scale,
* 2,
* .5,
* 1,
* 123414,//Random.Range(int.MinValue, int.MaxValue),
* QualityMode.High);*/
/* Curve c = new Curve(finalTerrain);
* c.Add(-1, 0);
* c.Add(0, 0);
* c.Add(.5, 0);
* c.Add(1, -1);*/
//finalTerrain = new Min(new Const(-.9), new Invert(finalTerrain));
finalTerrain = new ScaleBias(scale * .5, 0, finalTerrain);
//finalTerrain = new Invert(finalTerrain);
}
public static void SortSites(List <Site> sites)
{
sites.Sort(delegate(Site s0, Site s1)
{
int returnValue = Voronoi.CompareByYThenX(s0, s1);
int tempIndex;
if (returnValue == -1)
{
if (s0.siteIndex > s1.SiteIndex)
{
tempIndex = s0.SiteIndex;
s0.SiteIndex = s1.SiteIndex;
s1.SiteIndex = tempIndex;
}
}
else if (returnValue == 1)
{
if (s1.SiteIndex > s0.SiteIndex)
{
tempIndex = s1.SiteIndex;
s1.SiteIndex = s0.SiteIndex;
s0.SiteIndex = tempIndex;
}
}
return(returnValue);
});
}
public int CompareTo(Site s1)
{
int returnValue = Voronoi.CompareByYThenX(this, s1);
int tempIndex;
if (returnValue == -1)
{
if (this.siteIndex > s1.SiteIndex)
{
tempIndex = this.SiteIndex;
this.SiteIndex = s1.SiteIndex;
s1.SiteIndex = tempIndex;
}
}
else if (returnValue == 1)
{
if (s1.SiteIndex > this.SiteIndex)
{
tempIndex = s1.SiteIndex;
s1.SiteIndex = this.SiteIndex;
this.SiteIndex = tempIndex;
}
}
return(returnValue);
}
static bool GenVoronoi(Player p, Level lvl, string seed)
{
Voronoi voronoi2D = new Voronoi();
voronoi2D.Seed = MapGen.MakeInt(seed);
return(Gen2D(lvl, voronoi2D));
}
void Triangulate()
{
List <Vector2> points = new List <Vector2>();
List <uint> colors = new List <uint>();
Vector2 min = Vector2.positiveInfinity;
Vector2 max = Vector2.zero;
foreach (GeneratorCell c in cells)
{
if (c.isMainRoom)
{
colors.Add(0);
points.Add(new Vector2(c.posX + (c.width / 2), c.posY + (c.height / 2)));
min.x = Mathf.Min(c.posX, min.x);
min.y = Mathf.Min(c.posY, min.y);
max.x = Mathf.Max(c.posX, max.x);
max.y = Mathf.Max(c.posY, max.y);
}
}
Voronoi v = new Voronoi(points, colors, new Rect(min.x, min.y, max.x, max.y));
delaunayLines = v.DelaunayTriangulation();
spanningTree = v.SpanningTree(KruskalType.MINIMUM);
}
void Start()
{
// Scale the quad
Vector3 temp = transform.localScale;
temp.x = 25.0f;
temp.y = 25.0f;
transform.localScale = temp;
// Modify the position of the model
Vector3 pos = transform.localPosition;
pos.z = 3;
transform.localPosition = pos;
// Create your sites (lets call that the center of your polygons)
List <Vector2f> points = CreateRandomPoint();
// Create the bounds of the voronoi diagram
// Use Rectf instead of Rect; it's a struct just like Rect and does pretty much the same,
// but like that it allows you to run the delaunay library outside of unity (which mean also in another tread)
Rectf bounds = new Rectf(0, 0, 512, 512);
// There is a two ways you can create the voronoi diagram: with or without the lloyd relaxation
// Here I used it with 2 iterations of the lloyd relaxation
voronoi = new Voronoi(points, bounds);
// Now retreive the edges from it, and the new sites position if you used lloyd relaxtion
sites = voronoi.SitesIndexedByLocation;
edges = voronoi.Edges;
DisplayVoronoiDiagram();
}
protected override void DoGenerate()
{
m_points = new List <Vector2>();
m_regions = new List <VoronoiRegion>();
for (int i = 0; i < NumPoints; ++i)
{
float x = Random.value;
float y = Random.value;
m_points.Add(new Vector2(x, y));
}
Voronoi voronoi = new Voronoi(m_points, new Rectf(0.0f, 0.0f, 1.0f, 1.0f), 30);
m_points = voronoi.SiteCoords();
foreach (var region in voronoi.Regions())
{
VoronoiRegion newRegion = new VoronoiRegion();
newRegion.regionPoints = region;
newRegion.isWater = Random.Range(0, 2) == 0;
m_regions.Add(newRegion);
}
}
void Start()
{
// Create your sites center off vornoi cells
//these points are used as spawn positions for the trash
List <Vector2f> points = CreateRandomPoint();
// Create the bounds of the voronoi diagram
Rectf bounds = new Rectf(0, 0, AreaDimensions, AreaDimensions);
// There is a two ways you can create the voronoi diagram: with or without the lloyd relaxation
// Vornoi with lloyd relaxation
Voronoi voronoi = new Voronoi(points, bounds);
if (UseLloydRelaxation)
{
voronoi.LloydRelaxation(LloydFactor);
}
// Now retreive the edges from it, and the new sites position if you used lloyd relaxtion
sites = voronoi.SitesIndexedByLocation;
//edge calculation is not needed
//edges = voronoi.Edges;
Display();
}
public static IModule Voronoi(float frequency)
{
var module = new Voronoi();
((Voronoi)module).Frequency = frequency;
return(module);
}
public void Face_VoronoiFortune()
{
List <VertexKDTree> listPointsFortune = new List <VertexKDTree>();
string fileNameLong = pathUnitTests + "\\KinectFace_1_15000.obj";
pointCloudSource = IOUtils.ReadObjFile_ToPointCloud(fileNameLong);
for (int i = 0; i < pointCloudSource.Count; i++)
{
VertexKDTree v = new VertexKDTree(new Vector3(pointCloudSource[i].Vector.X, pointCloudSource[i].Vector.Y, pointCloudSource[i].Vector.Z), i);
listPointsFortune.Add(v);
}
List <EdgeFortune> listEdges;
Voronoi voronoi = new Voronoi(0.1f);
listEdges = voronoi.GenerateVoronoi(listPointsFortune);
List <LineD> myLines = new List <LineD>();
for (int i = 0; i < listEdges.Count; i++)
{
EdgeFortune edge = listEdges[i];
myLines.Add(new LineD(pointCloudSource[edge.PointIndex1].Vector, pointCloudSource[edge.PointIndex2].Vector));
}
//-------------------
ShowPointCloud(pointCloudSource);
}
void Start()
{
// Create your sites (lets call that the center of your polygons)
List <Vector2f> points = CreateRandomPoint();
// Create the bounds of the voronoi diagram
// Use Rectf instead of Rect; it's a struct just like Rect and does pretty much the same,
// but like that it allows you to run the delaunay library outside of unity (which mean also in another tread)
Rectf bounds = new Rectf(0, 0, 512, 512);
// There is a two ways you can create the voronoi diagram: with or without the lloyd relaxation
// Here I used it with 2 iterations of the lloyd relaxation
Voronoi voronoi = new Voronoi(points, bounds, 5);
// But you could also create it without lloyd relaxtion and call that function later if you want
//Voronoi voronoi = new Voronoi(points,bounds);
//voronoi.LloydRelaxation(5);
// Now retreive the edges from it, and the new sites position if you used lloyd relaxtion
sites = voronoi.SitesIndexedByLocation;
edges = voronoi.Edges;
//DisplayVoronoiDiagram();
foreach (KeyValuePair <Vector2f, Site> kv in sites)
{
kv.Value.Region(bounds);
}
DisplayVoronoiDiagram();
meshifyV();
}
private void DrawSubdivision(Subdivision division)
{
// generate new random subdivision if desired
if (division == null)
{
PointD offset = new PointD(OutputBox.Width * 0.2, OutputBox.Height * 0.2);
SizeD scale = new SizeD(OutputBox.Width * 0.6, OutputBox.Height * 0.6);
int count = MersenneTwister.Default.Next(4, 12);
PointD[] points = new PointD[count];
for (int i = 0; i < points.Length; i++)
{
points[i] = new PointD(
offset.X + MersenneTwister.Default.NextDouble() * scale.Width,
offset.Y + MersenneTwister.Default.NextDouble() * scale.Height);
}
// outer bounds for Voronoi pseudo-vertices
double margin = 3 * FontSize;
RectD bounds = new RectD(margin, margin,
OutputBox.Width - 2 * margin, OutputBox.Height - 2 * margin);
var result = Voronoi.FindAll(points, bounds);
division = result.ToVoronoiSubdivision().Source;
}
_division = division;
_division.Validate();
_nearestEdge = -1;
_edges = DrawSubdivision(OutputBox, FontSize, division);
OutputBox.Children.Add(VertexCircle);
}
private void Demo()
{
GenerateSimplexPlane();
m_points = new List <Vector2>();
m_colors = new List <uint>();
for (int i = 0; i < m_pointCount; i++)
{
m_colors.Add(RandomUintColor());
m_points.Add(new Vector2(
UnityEngine.Random.Range(0, m_mapWidth),
UnityEngine.Random.Range(0, m_mapHeight))
);
}
//Delaunay.Voronoi v = new Delaunay.Voronoi (m_points, m_colors, new Rect (0, 0, m_mapWidth, m_mapHeight));
m_voronoi = new Delaunay.Voronoi(m_points, m_colors, new Rect(0, 0, m_mapWidth, m_mapHeight));
//m_edges = v.VoronoiDiagram();
m_edges = m_voronoi.VoronoiDiagram();
m_spanningTree = m_voronoi.SpanningTree(KruskalType.MINIMUM);
m_delaunayTriangulation = m_voronoi.DelaunayTriangulation();
tmpVBoundary = m_voronoi.VoronoiBoundaryForSite(m_points[0]);
//DrawVoronoiPolygon(m_points[0]);
AssignSimplexColors();
}
private static Voronoi _calculateVoronoi(Grid grid, List <double[]> points, List <double[]> boundary)
{
var n = points.Count;
var allPoints = new List <double[]>(points);
if (boundary != null)
{
allPoints.AddRange(boundary);
}
var delauny = fromPoints(allPoints);
var voronoi = new Voronoi()
{
s_triangles_r = delauny.triangles,
s_halfedges_s = delauny.halfedges,
};
var voronoiCell = new VoronoiCells(voronoi, allPoints, n);
grid.cells = voronoiCell.cells;
grid.cells.i = D3.range(n);
grid.vertices = voronoiCell.vertices;
return(voronoi);
}
public static float[,] Generate(int width, int height, int seed, int flatness, int voronoi_iterations, int voronoi_start)
{
// Create the module network
ModuleBase moduleBase;
moduleBase = new RidgedMultifractal();
Noise2D sound = new Noise2D(width, height, moduleBase);
sound.GeneratePlanar(
-1,
1,
-1,
1, true);
for (int i = 0; i <= voronoi_iterations; i++)
{
seed++;
ModuleBase tempBase = new Voronoi(voronoi_start + i, displacement, seed, false);
Noise2D temp = new Noise2D(width, height, tempBase);
temp.GeneratePlanar(
-1,
1,
-1,
1, true);
LayerNoise(sound, tempBase);
ModuleBase pBase = new Perlin()
{
OctaveCount = perlinOctaves
};
LayerNoise(sound, pBase);
}
Flatten(sound, flatness);
return(sound.GetData());
}
public IEnumerator RedoRandom20TimesWith3000PointsTest()
{
Voronoi.FlushPools();
Voronoi.InitPools(12500, 9000, 40, 11000);
var points = VoronoiTest.CreateRandomPoints(3000);
Voronoi voronoi = VoronoiTest.TestVoronoi(points);
yield return(null);
for (int i = 0; i < 20; i++)
{
points = VoronoiTest.CreateRandomPoints(3000);
Profiler.BeginSample("NoGC Voronoi.Redo 20x3000 random points");
voronoi.Redo(points, VoronoiTest.TestBounds());
Profiler.EndSample();
yield return(null);
}
Debug.Log(voronoi.DebugCapacities());
yield return(null);
}
private static void SewBorder(Voronoi graph)
{
var farSide = (int)(graph.PlotBounds.width + graph.PlotBounds.x);
var borderSites = graph.SitesIndexedByLocation.Values.Where(s => s.IsBorderedOnSeamSite);
foreach (var s in borderSites)
{
var p = new Point(farSide, (int)s.y);
var distances = new Dictionary <Site, int>();
var sites = graph.SitesIndexedByLocation.Where(st => st.Key.x > farSide - 150);
foreach (var site in sites)
{
distances.Add(site.Value,
Mathf.RoundToInt(Boundary.DistanceBetween(new Point(p.x, s.Coord.y),
new Point(site.Key.x, site.Key.y))));
}
// Get the closest distance pair.
var d = distances.OrderBy(kvp => kvp.Value).First();
s.FalseNeighbours.Add(d.Key);
d.Key.FalseNeighbours.Add(s);
}
}
public void Generate(Voronoi voronoi, Generation world, Zone zone)
{
List <LineSegment> fences = voronoi.VoronoiBoundaryForSite(new Vector2(transform.position.x, transform.position.z));
for (int i = 0; i < fences.Count; i++)
{
if (world.builtFences.Contains(fences[i]))
{
fences.RemoveAt(i);
}
}
for (int i = 0; i < fences.Count; i++)
{
Vector2 left = (Vector2)fences[i].p0;
Vector2 right = (Vector2)fences[i].p1;
Vector3 startPos = new Vector3(left.x, 100f, left.y);
Vector3 endPos = new Vector3(right.x, 100f, right.y);
float distance = Vector3.Distance(startPos, endPos);
int ammountOfFences = Mathf.RoundToInt(distance / fenceLength);
for (int fenceIndex = 0; fenceIndex < ammountOfFences; fenceIndex++)
{
Vector3 spawnPosition = Vector3.Lerp(startPos, endPos, 1f / ammountOfFences * fenceIndex);
Quaternion spawnRotation = Quaternion.LookRotation(endPos - spawnPosition);
GameObject fenceInstance = Instantiate(zone.fence, spawnPosition, spawnRotation);
}
}
foreach (var fence in fences)
{
world.builtFences.Add(fence);
}
}
private Texture2D texture; // texture created for testing
#endregion Fields
#region Methods
void Generate(bool addToSeed)
{
Voronoi mySphere = new Voronoi();
mySphere.Seed = seedToModify;
// ------------------------------------------------------------------------------------------
// - Compiled Terrain -
Debug.LogError ("Not fetching seed data for planets!");
ModuleBase myModule;
myModule = mySphere;
// ------------------------------------------------------------------------------------------
// - Generate -
// this part generates the heightmap to a texture,
// and sets the renderer material texture of a sphere to the generated texture
Noise2D heightMap;
heightMap = new Noise2D( mapSizeX, mapSizeY, myModule );
heightMap.GenerateSpherical( south, north, west, east );
texture = heightMap.GetTexture(GradientPresets.RGBA);
sphereRenderer.material.mainTexture = texture;
sphereRenderer.material.SetTexture("_Normals",texture);
}
private static void GenerateTectonicShifts(Voronoi graph, int iterations)
{
for (int i = 0; i < iterations; i++)
{
foreach (var plate in graph.Plates)
{
foreach (var site in plate.Sites)
{
foreach (var s in site.GetNeighbouringTectonicPlateSites())
{
var p = plate.NeighbourPlates.FirstOrDefault(np => np.Key.Equals(s.TectonicPlate));
s.MapWeight += p.Value;
if (s.MapWeight > 255)
{
s.MapWeight = 255;
}
if (s.MapWeight < 0)
{
s.MapWeight = 0;
}
}
}
}
}
// To gamify it a little
foreach (var site in graph.SitesIndexedByLocation.Where(s => s.Value.IsNorthPoleSite || s.Value.IsSouthPoleSite))
{
site.Value.MapWeight = 255;
}
}
public void Generate()
{
// Create the module network
ModuleBase moduleBase;
switch(noise) {
case NoiseType.Billow:
moduleBase = new Billow();
break;
case NoiseType.RiggedMultifractal:
moduleBase = new RiggedMultifractal();
break;
case NoiseType.Voronoi:
moduleBase = new Voronoi();
break;
case NoiseType.Mix:
Perlin perlin = new Perlin();
RiggedMultifractal rigged = new RiggedMultifractal();
moduleBase = new Add(perlin, rigged);
break;
default:
moduleBase = new Perlin();
break;
}
// Initialize the noise map
this.m_noiseMap = new Noise2D(resolution, resolution, moduleBase);
this.m_noiseMap.GeneratePlanar(
offset + -1 * 1/zoom,
offset + offset + 1 * 1/zoom,
offset + -1 * 1/zoom,
offset + 1 * 1/zoom);
Debug.Log (moduleBase.GetValue (0, 0, UnityEngine.Random.value));
// Generate the textures
this.m_textures[0] = this.m_noiseMap.GetTexture(LibNoise.Unity.Gradient.Grayscale);
this.m_textures[0].Apply();
this.m_textures[1] = this.m_noiseMap.GetTexture(LibNoise.Unity.Gradient.Terrain);
this.m_textures[1].Apply();
this.m_textures[2] = this.m_noiseMap.GetNormalMap(3.0f);
this.m_textures[2].Apply();
//display on plane
GetComponent<Renderer>().material.mainTexture = m_textures[0];
//write images to disk
File.WriteAllBytes(Application.dataPath + "/../Gray.png", m_textures[0].EncodeToPNG() );
File.WriteAllBytes(Application.dataPath + "/../Terrain.png", m_textures[1].EncodeToPNG() );
File.WriteAllBytes(Application.dataPath + "/../Normal.png", m_textures[2].EncodeToPNG() );
Debug.Log("Wrote Textures out to "+Application.dataPath + "/../");
}
public void Relax(int nIterations)
{
if (m_voronoi == null) {
Gen ();
}
m_voronoi = m_voronoi.Relax(nIterations);
m_edges = m_voronoi.ComputeVoronoiDiagram ();
Debug.Log ("Relax done!");
}
protected override ModuleBase CreateAndReadyModule()
{
Voronoi voronoi = new Voronoi();
voronoi.Seed = seed;
voronoi.Frequency = frequency;
voronoi.Displacement = displacement;
voronoi.UseDistance = enableDistance;
return voronoi;
}
public Noise(float s, float p, float o, Calculate c, Generator g) {
scale = s; power = p; offset = o; calc = c;
if (g == Generator.Vonoroi)
vonoroi = Generators.Vonoroi(0.1, offset);
else if (g == Generator.Perlin)
perlin = Generators.Perlin(0.1, offset);
else if (g == Generator.Billow)
billow = Generators.Billow(0.1, offset);
generator = g;
}
internal void FixFaultyEdges(Voronoi voronoi, VoronoiSettings settings)
{
var semiEdges =
voronoi.Edges.Where(
e => (_mapHelper.IsOutOfMap(e.Start, settings.Width * 2, settings.Height)
&& !_mapHelper.IsOutOfMap(e.End, settings.Width * 2, settings.Height))
|| (!_mapHelper.IsOutOfMap(e.Start, settings.Width * 2, settings.Height)
&& _mapHelper.IsOutOfMap(e.End, settings.Width * 2, settings.Height)));
foreach (var semiEdge in semiEdges)
{
FixFaultyEdge(semiEdge, settings.Width * 2, settings.Height);
}
}
// Use this for initialization
void Start()
{
IModule primaryGranite = new Billow();
((Billow)primaryGranite).Seed = 0;
((Billow)primaryGranite).Frequency = 8.0;
((Billow)primaryGranite).Persistence = 0.625;
((Billow)primaryGranite).Lacunarity = 2.18359375;
((Billow)primaryGranite).OctaveCount = 6;
((Billow)primaryGranite).NoiseQuality = NoiseQuality.Standard;
IModule baseGrains = new Voronoi();
((Voronoi)baseGrains).Seed = 1;
((Voronoi)baseGrains).Frequency = 16.0;
((Voronoi)baseGrains).EnableDistance = true;
IModule scaledGrains = new ScaleBias(baseGrains);
((ScaleBias)scaledGrains).Scale = -0.5;
((ScaleBias)scaledGrains).Bias = 0.0;
IModule combinedGranite = new Add(primaryGranite, scaledGrains);
IModule finalGranite = new Turbulence(combinedGranite);
((Turbulence)finalGranite).Seed = 2;
((Turbulence)finalGranite).Frequency = 4.0;
((Turbulence)finalGranite).Power = 1.0 / 8.0;
((Turbulence)finalGranite).Roughness = 6;
NoiseMapBuilderPlane plane = new NoiseMapBuilderPlane(256, 256);
plane.SetBounds(-1.0, 1.0, -1.0, 1.0);
plane.Build(finalGranite);
RendererImage render = new RendererImage();
render.SourceNoiseMap = plane.Map;
render.ClearGradient ();
render.AddGradientPoint (-1.0000, new Color32( 0, 0, 0, 255));
render.AddGradientPoint (-0.9375, new Color32( 0, 0, 0, 255));
render.AddGradientPoint (-0.8750, new Color32(216, 216, 242, 255));
render.AddGradientPoint ( 0.0000, new Color32(191, 191, 191, 255));
render.AddGradientPoint ( 0.5000, new Color32(210, 116, 125, 255));
render.AddGradientPoint ( 0.7500, new Color32(210, 113, 98, 255));
render.AddGradientPoint ( 1.0000, new Color32(255, 176, 192, 255));
render.IsLightEnabled = true;
render.LightAzimuth = 135.0;
render.LightElev = 60.0;
render.LightContrast = 2.0;
render.LightColor = new Color32(255, 255, 255, 0);
render.Render();
tex = render.GetTexture();
}
void Start()
{
List<Vector2> points = GetRandomPoints();
Rect size = new Rect(0, 0, 100, 100);
Voronoi voronoi = new Voronoi(points, null, size);
foreach (Vector2 point in points)
{
List<Vector2> region = voronoi.Region(point);
for (int i = 0; i < region.Count; i++)
{
Vector2 next = i < region.Count - 1 ? region[i + 1] : region[0];
Debug.DrawLine(region[i], next, Color.white, 1000);
}
}
}
float CellArea(Voronoi.Cell cell)
{
float area = 0.0f;
Point p1, p2;
for (int iHalfEdge = cell.halfEdges.Count - 1; iHalfEdge >= 0; iHalfEdge--)
{
HalfEdge halfEdge = cell.halfEdges[iHalfEdge];
p1 = halfEdge.GetStartPoint();
p2 = halfEdge.GetEndPoint();
area += p1.x * p2.y;
area -= p1.y * p2.x;
}
area /= 2;
return area;
}
// === Map methods ===
public Map(int w_in, int h_in, int regions_in, int dist, int relaxSteps)
{
width = w_in;
height = h_in;
regions = regions_in;
distanceTwixtSites = dist;
colors = new Color[width*height];
ClearColors(Color.black);
double[] xVal = new double[regions], yVal = new double[regions]; // used by voronoi below
// === Generating ===
// Generate random points
for (int j=0;j<regions;j++)
{
xVal[j] = Random.Range(0,width-1);
yVal[j] = Random.Range(0,height-1);
}
// Generate voronoi cells graph
Voronoi voroObject = new Voronoi ( distanceTwixtSites );
List<GraphEdge> regionBorders = voroObject.generateVoronoi ( xVal, yVal, 0, width-1, 0, height-1 );
for (int i=0; i<relaxSteps; i++)
{
// Relax voronoi cell centers
sites = RelaxVoronoi(regionBorders);
foreach (Site s in sites.Values)
{
xVal[s.id] = s.coordLocation.x;
yVal[s.id] = s.coordLocation.y;
}
// Regenerate cells
regionBorders = voroObject.generateVoronoi ( xVal, yVal, 0, width-1, 0, height-1 );
}
// Final smoothing
regionBorders = voroObject.generateVoronoi ( xVal, yVal, 0, width-1, 0, height-1 );
sites = RelaxVoronoi(regionBorders);
GenerateEdgeMap();
// GenerateAdjacencyMap();
}
Point CellCentroid(Voronoi.Cell cell)
{
float x = 0f;
float y = 0f;
Point p1, p2;
float v;
for (int iHalfEdge = cell.halfEdges.Count - 1; iHalfEdge >= 0; iHalfEdge--)
{
HalfEdge halfEdge = cell.halfEdges[iHalfEdge];
p1 = halfEdge.GetStartPoint();
p2 = halfEdge.GetEndPoint();
v = p1.x * p2.y - p2.x * p1.y;
x += (p1.x + p2.x) * v;
y += (p1.y + p2.y) * v;
}
v = CellArea(cell) * 6;
return new Point(x / v, y / v);
}
public void Gen()
{
// generate set of random points
m_points = new List<Vector2> ();
for (int i = 0; i < m_pointCount; i++) {
m_points.Add (new Vector2 (
UnityEngine.Random.Range (0, m_mapWidth),
UnityEngine.Random.Range (0, m_mapHeight))
);
}
// generate voronoi region
if (m_voronoi != null) {
m_voronoi.Dispose();
}
m_voronoi = new Delaunay.Voronoi (m_points, new Rect (0, 0, m_mapWidth, m_mapHeight));
m_edges = m_voronoi.ComputeVoronoiDiagram ();
//m_spanningTree = v.SpanningTree (KruskalType.MINIMUM);
//m_delaunayTriangulation = v.DelaunayTriangulation ();
Debug.Log ("Gen done!");
}
public static Island VoronoiToIsland(Voronoi v, Vector2 bottomLeft, Vector2 topRight)
{
List<IslandPolygon> islandPoly = new List<IslandPolygon>();
bool isWater = true;
foreach (VoronoiEdge edge in v.Edges.OrderBy(x => x.Midpoint.Point.x).ThenBy(x => x.Midpoint.Point.y))
{
foreach (Polygon poly in v.Polygons.Values)
{
isWater = true;
if (poly.MidPoint.Point == edge.Midpoint.Point)
{
if (Mathf.Abs(poly.PerlinNoise - Mathf.Abs(poly.MidPoint.Point.x) - Mathf.Abs(poly.MidPoint.Point.y)) < 25F)
{
isWater = false;
islandPoly.Add(new IslandPolygon(poly, isWater));
break;
}
else
{
islandPoly.Add(new IslandPolygon(poly, isWater));
break;
}
}
}
}
return new Island(islandPoly, bottomLeft, topRight);
}
public void GenerateRegions()
{
List<Vector2> points = new List<Vector2> ();
dimensions = new Vector2(Map.terrainSize.tileSize, Map.terrainSize.tileSize);
// 1. generate points
GeneratePoints (points);
if (voronoi != null) {
voronoi.Dispose();
}
// 2. generate voronoi regions
voronoi = new Delaunay.Voronoi (points, new Rect (0, 0, dimensions.x, dimensions.y));
// 3. relax, to make regions a bit more uniform
//m_voronoi = m_voronoi.Relax (1);
// 4a. get sites defining the island boundary
hullSites = voronoi.GetHullSites ();
// 4b. get dalaunay boundary
//m_delaunayHullSegments = m_voronoi.GetHullLineSegments ();
// 4c. get edges for drawing
voronoiEdges = voronoi.ComputeVoronoiDiagram ();
// 5. Initialize additional structure information
InitSiteData ();
// force a re-draw
debugDraw = null;
}
public VoronoiPolygon(Voronoi parentDiagram_, VoronoiPoint original_, Color color_)
{
parentDiagram = parentDiagram_;
originalPoint = original_;
color = color_;
}
/// <summary>
/// Upon every node visited during the traversal, increase boundary distance by 1!
/// </summary>
void _PreprocessSites(Voronoi.SiteTraversalNode<MapCell> current, Voronoi.SiteTraversalNode<MapCell> previous)
{
current.data = CreateCell(current.site);
// the next node's distance to the boundary is the min of all previous distances + 1
var visitedNeighbors = current.neighbors
.Where (neighbor => neighbor.data != null);
int distance;
if (!visitedNeighbors.Any ()) {
// current node is a root
distance = 1;
}
else {
// current node is not a root
distance = visitedNeighbors
.Select (neighbor => neighbor.data.distanceFromBoundary + 1)
.Min ();
}
current.data.distanceFromBoundary = distance;
current.data.neighborSites = current.neighbors.Select (neighborNode => neighborNode.site).ToArray();
if (current.site.id < 2) {
// Debug.Log(current.site.id + ": " + string.Join (", ", current.site.GetNeighborSites().Select (neighborSite => neighborSite.id.ToString()).ToArray()));
}
}
private static List<LoadedModule> GetModules(XmlNodeList moduleList)
{
List<LoadedModule> loadedModules = new List<LoadedModule>();
foreach (XmlNode node in moduleList)
{
string id = node.Attributes["guid"].Value;
Point position = new Point(double.Parse(node.Attributes["position"].Value.Split(',')[0]), double.Parse(node.Attributes["position"].Value.Split(',')[1]));
ModuleBase module = null;
List<string> links = new List<string>();
switch (node.Attributes["type"].Value)
{
case "Billow":
Billow billow = new Billow();
billow.Frequency = double.Parse(node.SelectSingleNode("Frequency").InnerText);
billow.Lacunarity = double.Parse(node.SelectSingleNode("Lacunarity").InnerText);
billow.OctaveCount = int.Parse(node.SelectSingleNode("OctaveCount").InnerText);
billow.Persistence = double.Parse(node.SelectSingleNode("Persistence").InnerText);
billow.Quality = (QualityMode)Enum.Parse(typeof(QualityMode), node.SelectSingleNode("Quality").InnerText);
billow.Seed = int.Parse(node.SelectSingleNode("Seed").InnerText);
module = billow;
break;
case "Checker":
module = new Checker();
break;
case "Const":
Const con = new Const();
con.Value = double.Parse(node.SelectSingleNode("Value").InnerText);
module = con;
break;
case "Cylinders":
Cylinders cylinder = new Cylinders();
cylinder.Frequency = double.Parse(node.SelectSingleNode("Frequency").InnerText);
module = cylinder;
break;
case "Perlin":
Perlin perlin = new Perlin();
perlin.Frequency = double.Parse(node.SelectSingleNode("Frequency").InnerText);
perlin.Lacunarity = double.Parse(node.SelectSingleNode("Lacunarity").InnerText);
perlin.OctaveCount = int.Parse(node.SelectSingleNode("OctaveCount").InnerText);
perlin.Persistence = double.Parse(node.SelectSingleNode("Persistence").InnerText);
perlin.Quality = (QualityMode)Enum.Parse(typeof(QualityMode), node.SelectSingleNode("Quality").InnerText);
perlin.Seed = int.Parse(node.SelectSingleNode("Seed").InnerText);
module = perlin;
break;
case "RidgedMultifractal":
RidgedMultifractal ridgedMF = new RidgedMultifractal();
ridgedMF.Frequency = double.Parse(node.SelectSingleNode("Frequency").InnerText);
ridgedMF.Lacunarity = double.Parse(node.SelectSingleNode("Lacunarity").InnerText);
ridgedMF.OctaveCount = int.Parse(node.SelectSingleNode("OctaveCount").InnerText);
ridgedMF.Quality = (QualityMode)Enum.Parse(typeof(QualityMode), node.SelectSingleNode("Quality").InnerText);
ridgedMF.Seed = int.Parse(node.SelectSingleNode("Seed").InnerText);
module = ridgedMF;
break;
case "Spheres":
Spheres spheres = new Spheres();
spheres.Frequency = double.Parse(node.SelectSingleNode("Frequency").InnerText);
module = spheres;
break;
case "Voronoi":
Voronoi voronoi = new Voronoi();
voronoi.Frequency = double.Parse(node.SelectSingleNode("Frequency").InnerText);
voronoi.Displacement = double.Parse(node.SelectSingleNode("Displacement").InnerText);
voronoi.UseDistance = bool.Parse(node.SelectSingleNode("UseDistance").InnerText);
voronoi.Seed = int.Parse(node.SelectSingleNode("Seed").InnerText);
module = voronoi;
break;
case "Abs":
module = new Abs();
XmlNode absInputs = node.SelectSingleNode("ModuleInputs");
links.Add(absInputs.SelectSingleNode("Input").InnerText);
break;
case "Add":
module = new Add();
XmlNode addInputs = node.SelectSingleNode("ModuleInputs");
links.Add(addInputs.SelectSingleNode("Left").InnerText);
links.Add(addInputs.SelectSingleNode("Right").InnerText);
break;
case "Blend":
module = new Blend();
XmlNode blendInputs = node.SelectSingleNode("ModuleInputs");
links.Add(blendInputs.SelectSingleNode("Left").InnerText);
links.Add(blendInputs.SelectSingleNode("Right").InnerText);
links.Add(blendInputs.SelectSingleNode("Operator").InnerText);
break;
case "Cache":
module = new Cache();
XmlNode cacheInputs = node.SelectSingleNode("ModuleInputs");
links.Add(cacheInputs.SelectSingleNode("Input").InnerText);
break;
case "Clamp":
Clamp clamp = new Clamp();
clamp.Maximum = double.Parse(node.SelectSingleNode("Maximum").InnerText);
clamp.Minimum = double.Parse(node.SelectSingleNode("Minimum").InnerText);
module = clamp;
XmlNode clampInputs = node.SelectSingleNode("ModuleInputs");
links.Add(clampInputs.SelectSingleNode("Input").InnerText);
break;
case "Curve":
Curve curve = new Curve();
module = curve;
foreach (XmlNode cpNode in node.SelectSingleNode("ControlPoints").ChildNodes)
{
double x = double.Parse(cpNode.InnerText.Split(',')[0]);
double y = double.Parse(cpNode.InnerText.Split(',')[1]);
curve.Add(x, y);
}
XmlNode curveInputs = node.SelectSingleNode("ModuleInputs");
links.Add(curveInputs.SelectSingleNode("Input").InnerText);
break;
case "Displace":
module = new Displace();
XmlNode displaceInputs = node.SelectSingleNode("ModuleInputs");
links.Add(displaceInputs.SelectSingleNode("Primary").InnerText);
links.Add(displaceInputs.SelectSingleNode("X").InnerText);
links.Add(displaceInputs.SelectSingleNode("Y").InnerText);
links.Add(displaceInputs.SelectSingleNode("Z").InnerText);
break;
case "Exponent":
Exponent exponent = new Exponent();
exponent.Value = double.Parse(node.SelectSingleNode("Value").InnerText);
module = exponent;
XmlNode exponentInputs = node.SelectSingleNode("ModuleInputs");
links.Add(exponentInputs.SelectSingleNode("Input").InnerText);
break;
case "Invert":
module = new Invert();
XmlNode invertInputs = node.SelectSingleNode("ModuleInputs");
links.Add(invertInputs.SelectSingleNode("Input").InnerText);
break;
case "Max":
module = new Max();
XmlNode maxInputs = node.SelectSingleNode("ModuleInputs");
links.Add(maxInputs.SelectSingleNode("Left").InnerText);
links.Add(maxInputs.SelectSingleNode("Right").InnerText);
break;
case "Min":
module = new Min();
XmlNode minInputs = node.SelectSingleNode("ModuleInputs");
links.Add(minInputs.SelectSingleNode("Left").InnerText);
links.Add(minInputs.SelectSingleNode("Right").InnerText);
break;
case "Multiply":
module = new Multiply();
XmlNode multiplyInputs = node.SelectSingleNode("ModuleInputs");
links.Add(multiplyInputs.SelectSingleNode("Left").InnerText);
links.Add(multiplyInputs.SelectSingleNode("Right").InnerText);
break;
case "Power":
module = new Power();
XmlNode powerInputs = node.SelectSingleNode("ModuleInputs");
links.Add(powerInputs.SelectSingleNode("Left").InnerText);
links.Add(powerInputs.SelectSingleNode("Right").InnerText);
break;
case "Rotate":
Rotate rotate = new Rotate();
rotate.X = double.Parse(node.SelectSingleNode("X").InnerText);
rotate.Y = double.Parse(node.SelectSingleNode("Y").InnerText);
rotate.Z = double.Parse(node.SelectSingleNode("Z").InnerText);
module = rotate;
XmlNode rotateInputs = node.SelectSingleNode("ModuleInputs");
links.Add(rotateInputs.SelectSingleNode("Input").InnerText);
break;
case "Scale":
Scale scale = new Scale();
scale.X = double.Parse(node.SelectSingleNode("X").InnerText);
scale.Y = double.Parse(node.SelectSingleNode("Y").InnerText);
scale.Z = double.Parse(node.SelectSingleNode("Z").InnerText);
module = scale;
XmlNode scaleInputs = node.SelectSingleNode("ModuleInputs");
links.Add(scaleInputs.SelectSingleNode("Input").InnerText);
break;
case "ScaleBias":
ScaleBias scaleBias = new ScaleBias();
scaleBias.Scale = double.Parse(node.SelectSingleNode("Scale").InnerText);
scaleBias.Bias = double.Parse(node.SelectSingleNode("Bias").InnerText);
module = scaleBias;
XmlNode scaleBiasInputs = node.SelectSingleNode("ModuleInputs");
links.Add(scaleBiasInputs.SelectSingleNode("Input").InnerText);
break;
case "Select":
Select select = new Select();
select.Minimum = double.Parse(node.SelectSingleNode("Minimum").InnerText);
select.Maximum = double.Parse(node.SelectSingleNode("Maximum").InnerText);
select.FallOff = double.Parse(node.SelectSingleNode("FallOff").InnerText);
module = select;
XmlNode selectInputs = node.SelectSingleNode("ModuleInputs");
links.Add(selectInputs.SelectSingleNode("Primary").InnerText);
links.Add(selectInputs.SelectSingleNode("Secondary").InnerText);
links.Add(selectInputs.SelectSingleNode("Controller").InnerText);
break;
case "Subtract":
module = new Subtract();
XmlNode subtractInputs = node.SelectSingleNode("ModuleInputs");
links.Add(subtractInputs.SelectSingleNode("Left").InnerText);
links.Add(subtractInputs.SelectSingleNode("Right").InnerText);
break;
case "Terrace":
Terrace terrace = new Terrace();
module = terrace;
foreach (XmlNode cpNode in node.SelectSingleNode("ControlPoints").ChildNodes)
{
terrace.Add(double.Parse(cpNode.InnerText));
}
XmlNode terraceInputs = node.SelectSingleNode("ModuleInputs");
links.Add(terraceInputs.SelectSingleNode("Input").InnerText);
break;
case "Translate":
Translate translate = new Translate();
translate.X = double.Parse(node.SelectSingleNode("X").InnerText);
translate.Y = double.Parse(node.SelectSingleNode("Y").InnerText);
translate.Z = double.Parse(node.SelectSingleNode("Z").InnerText);
module = translate;
XmlNode translateInputs = node.SelectSingleNode("ModuleInputs");
links.Add(translateInputs.SelectSingleNode("Input").InnerText);
break;
case "Turbulence":
Turbulence turbulence = new Turbulence();
turbulence.Frequency = double.Parse(node.SelectSingleNode("Frequency").InnerText);
turbulence.Power = double.Parse(node.SelectSingleNode("Power").InnerText);
turbulence.Roughness = int.Parse(node.SelectSingleNode("Roughness").InnerText);
turbulence.Seed = int.Parse(node.SelectSingleNode("Seed").InnerText);
module = turbulence;
XmlNode turbulenceInputs = node.SelectSingleNode("ModuleInputs");
links.Add(turbulenceInputs.SelectSingleNode("Input").InnerText);
break;
case "Final":
module = new Final();
XmlNode finalInputs = node.SelectSingleNode("ModuleInputs");
links.Add(finalInputs.SelectSingleNode("Input").InnerText);
break;
default:
break;
}
LoadedModule lm = new LoadedModule(id, module, position, links);
loadedModules.Add(lm);
}
return loadedModules;
}
void Start()
{
// Create your sites (lets call that the center of your polygons)
List<Vector2f> points = CreateRandomPoint();
// Create the bounds of the voronoi diagram
// Use Rectf instead of Rect; it's a struct just like Rect and does pretty much the same,
// but like that it allows you to run the delaunay library outside of unity (which mean also in another tread)
Rectf bounds = new Rectf(0,0,512,512);
// There is a two ways you can create the voronoi diagram: with or without the lloyd relaxation
// Here I used it with 2 iterations of the lloyd relaxation
Voronoi voronoi = new Voronoi(points,bounds,5);
// But you could also create it without lloyd relaxtion and call that function later if you want
//Voronoi voronoi = new Voronoi(points,bounds);
//voronoi.LloydRelaxation(5);
// Now retreive the edges from it, and the new sites position if you used lloyd relaxtion
sites = voronoi.SitesIndexedByLocation;
edges = voronoi.Edges;
MakeVoronoiCells();
}
// Use this for initialization
void Start()
{
// set seed
Random.seed = seed;
// pick number of polygons
polygonNumber = Random.Range (minPolygons, maxPolygons);
// get terrain
terrain = (Terrain)gameObject.GetComponent ("Terrain");
// get heightmap
heightmap = new float[terrain.terrainData.heightmapWidth, terrain.terrainData.heightmapHeight];
tw = terrain.terrainData.heightmapWidth;
th = terrain.terrainData.heightmapHeight;
// initialize heightmap array and set values to 0
for(int i=0;i<heightmap.GetLength(0);i++){
for(int j=0;j<heightmap.GetLength(1);j++){
heightmap[i,j] = 1f; // for easy identification
}
}
// Create your sites (lets call that the center of your polygons)
List<Vector2f> points = CreateRandomPoint();
islands = new List<List<Vector2f>> ();
// Create the bounds of the voronoi diagram
// Use Rectf instead of Rect; it's a struct just like Rect and does pretty much the same,
// but like that it allows you to run the delaunay library outside of unity (which mean also in another tread)
Rectf bounds = new Rectf(0,0,512,512);
// There is a two ways you can create the voronoi diagram: with or without the lloyd relaxation
// Here I used it with 2 iterations of the lloyd relaxation
Voronoi voronoi = new Voronoi(points,bounds,5);
// Now retreive the edges from it, and the new sites position if you used lloyd relaxtion
sites = voronoi.SitesIndexedByLocation;
edges = voronoi.Edges;
// apply polygons
DisplayVoronoiDiagram();
// discover islands
//int k = 0;
foreach (KeyValuePair<Vector2f,Site> kv in sites) {
// create list
List<Vector2f> newIsland = new List<Vector2f>();
// choose modifier
float mod = (float)Random.Range(0,islandRange);
float targh = ((float)minIslandHeight+mod)/terrain.terrainData.size.y;
// floodfill
FloodFill(kv.Key,1f,targh,newIsland);
// add
islands.Add(newIsland);
// inc
//k++;
}
// generate maze
for (int i=0; i<connectionIts; i++) {
RandomConnections ();
}
// add noise
heightmap = PerlinNoise (heightmap);
// reattatch array to terrain
terrain.terrainData.SetHeights(0,0,heightmap);
// move player
PlacePlayer ();
}
void NoiseSelector()
{
// Requires LibNoise in your project
// https://github.com/ricardojmendez/LibNoise.Unity
switch (noiseType)
{
case NoiseMode.Billow:
var billow = new Billow();
billow.Seed = seed;
billow.Quality = quality;
billow.OctaveCount = _octaveCount;
billow.Frequency = _frecuency * 0.1;
billow.Lacunarity = _lacunarity;
billow.Persistence = _persistence;
generate = billow;
break;
case NoiseMode.Perlin:
var perlin = new Perlin();
perlin.Seed = seed;
perlin.Quality = quality;
perlin.OctaveCount = _octaveCount;
perlin.Frequency = _frecuency * 0.1;
perlin.Lacunarity = _lacunarity;
perlin.Persistence = _persistence;
generate = perlin;
break;
case NoiseMode.RidgedMultifractal:
var multiFractal = new RidgedMultifractal();
multiFractal.Seed = seed;
multiFractal.Quality = quality;
multiFractal.OctaveCount = _octaveCount;
multiFractal.Frequency = _frecuency * 0.1;
multiFractal.Lacunarity = _lacunarity;
generate = multiFractal;
break;
case NoiseMode.Voronoi:
var voroni = new Voronoi();
voroni.Seed = seed;
voroni.Frequency = _frecuency;
voroni.Displacement = _displacement;
generate = voroni;
break;
default:
break;
}
}
IEnumerator Create()
{
#region Create Random Size & Pos Rooms
int counter = 0;
int roomAmount = 25;
int widthSum = 0;
int heightSum = 0;
while (counter < roomAmount) {
Room room = CreateRandRoom ();
room.name = counter.ToString ();
rooms.Add (room);
counter++;
// sum width/height
widthSum += room.Width;
heightSum += room.Height;
yield return new WaitForSeconds (0.05f);
}
#endregion
#region Remove Small Rooms
float widthMean = widthSum / roomAmount;
float heightMean = heightSum / roomAmount;
yield return new WaitForSeconds (4);
for (int i = 0; i < rooms.Count; i++) {
//rooms[i].RemovePhysics();
rooms [i].ResetRect ();
if (rooms [i].Width < widthMean || rooms [i].Height < heightMean) {
Destroy (rooms [i].gameObject);
rooms.Remove (rooms [i]);
i--;
}
}
yield return new WaitForSeconds (0.5f);
#endregion
#region Create room connection using DelaunayTriangles
_points = new List<Vector2> ();
for (int i = 0; i < rooms.Count; i++)
_points.Add (rooms [i].Position);
Rect rect = GetMinRect (rooms);
Voronoi v = new Voronoi (_points, null, rect);
_edges = v.VoronoiDiagram ();
_spanningTree = v.SpanningTree (KruskalType.MINIMUM);
_delaunayTriangulation = v.DelaunayTriangulation ();
#endregion
#region Extra Loop Connection
int maxExtraPathAmt = (int)(_delaunayTriangulation.Count * 0.1f);
int rand = Random.Range (1, maxExtraPathAmt);
Debug.Log (rand);
while (rand > 0) {
int randIndex = Random.Range (0, _delaunayTriangulation.Count);
if (_spanningTree.Contains (_delaunayTriangulation [randIndex]))
continue;
else {
_spanningTree.Add (_delaunayTriangulation [randIndex]);
rand--;
}
}
yield return new WaitForSeconds (0.5f);
#endregion
#region Create HallWays
for (int i = 0; i < _spanningTree.Count; i++) {
yield return new WaitForSeconds (0.2f);
Room room0 = GetRoomFromPos (_spanningTree [i].p0);
Room room1 = GetRoomFromPos (_spanningTree [i].p1);
Debug.Log ("Creating Hallway Between " + room0.name + " " + room1.name);
float xDistance = Mathf.Abs (room0.Position.x - room1.Position.x);
float yDistance = Mathf.Abs (room0.Position.y - room1.Position.y);
float xMidPointDistance = xDistance / 2;
float yMidPointDistance = yDistance / 2;
#region Close in X-Axis
// mid x point is inside of both rects
if (room0.Position.x + xMidPointDistance < room0.rectMaxX// removed equal sign ==> 避免房间刚好快要重叠，防止做路径时麻烦，因为路径瓦片可能会刚好在网格线上
&& room1.Position.x + xMidPointDistance < room1.rectMaxX) {
Vector2 startPoint = Vector2.zero;
Vector2 endPoint = Vector2.zero;
// room0 above room1
if (room0.Position.y >= room1.Position.y) {
// room0 left to room1
if (room0.Position.x <= room1.Position.x) {
startPoint.Set (room0.Position.x + xMidPointDistance, room0.rectMinY);
endPoint.Set (room1.Position.x - xMidPointDistance, room1.rectMaxY);
}
// room1 left to room0
else if (room0.Position.x > room1.Position.x) {
startPoint.Set (room0.Position.x - xMidPointDistance, room0.rectMinY);
endPoint.Set (room1.Position.x + xMidPointDistance, room1.rectMaxY);
}
}
// room1 above room0
else if (room0.Position.y < room1.Position.y) {
// room0 left to room1
if (room0.Position.x <= room1.Position.x) {
startPoint.Set (room0.Position.x + xMidPointDistance, room0.rectMaxY);
endPoint.Set (room1.Position.x - xMidPointDistance, room1.rectMinY);
}
// room1 left to room0
else if (room0.Position.x > room1.Position.x) {
startPoint.Set (room0.Position.x - xMidPointDistance, room0.rectMaxY);
endPoint.Set (room1.Position.x + xMidPointDistance, room1.rectMinY);
}
}
#endregion
// create vertical line
HallWay hallway = new HallWay (startPoint, endPoint, room0, room1);
_hallways.Add (hallway);
room0.AddHallWay (hallway);
Debug.Log ("##CloseXAxis created hallway from " + startPoint + " to " + endPoint + " between " + room0.name + " " + room1.name);
}
#region Close In Y-Axis
// mid y point is inside of both rects
else if (room0.Position.y + yMidPointDistance < room0.rectMaxY
&& room1.Position.y + yMidPointDistance < room1.rectMaxY) {
Vector2 startPoint = Vector2.zero;
Vector2 endPoint = Vector2.zero;
// room0 above room1
if (room0.Position.y >= room1.Position.y) {
// room0 left to room1
if (room0.Position.x <= room1.Position.x) {
startPoint.Set (room0.rectMaxX, room0.Position.y - yMidPointDistance);
endPoint.Set (room1.rectMinX, room1.Position.y + yMidPointDistance);
}
// room1 left to room0
else if (room0.Position.x > room1.Position.x) {
startPoint.Set (room0.rectMinX, room0.Position.y - yMidPointDistance);
endPoint.Set (room1.rectMaxX, room1.Position.y + yMidPointDistance);
}
}
// room1 above room0
else if (room0.Position.y < room1.Position.y) {
// room0 left to room1
if (room0.Position.x <= room1.Position.x) {
startPoint.Set (room0.rectMaxX, room0.Position.y + yMidPointDistance);
endPoint.Set (room1.rectMinX, room1.Position.y - yMidPointDistance);
}
// room1 left to room0
else if (room0.Position.x > room1.Position.x) {
startPoint.Set (room0.rectMinX, room0.Position.y + yMidPointDistance);
endPoint.Set (room1.rectMaxX, room1.Position.y - yMidPointDistance);
}
}
// create vertical line
HallWay hallway = new HallWay (startPoint, endPoint, room0, room1);
_hallways.Add (hallway);
room0.AddHallWay (hallway);
Debug.Log ("##CloseYAxis created hallway from " + startPoint + " to " + endPoint + " between " + room0.name + " " + room1.name);
}
#endregion
#region Far In Both Axis
// create L shape hall way
else {
Vector2 startPoint = Vector2.zero;
Vector2 turnPoint = Vector2.zero;
Vector2 endPoint = Vector2.zero;
// room0 above room1
if (room0.Position.y >= room1.Position.y) {
// room0 left to room1
if (room0.Position.x <= room1.Position.x) {
startPoint.Set (room0.rectMaxX, room0.Position.y);
turnPoint.Set (room0.Position.x + xDistance, room0.Position.y);
endPoint.Set (room1.Position.x, room1.rectMaxY);
#region Check If Line Collider With Other Room
if (LineHasCollision (startPoint, turnPoint, room0.Collider)
||
LineHasCollision (turnPoint, endPoint, room1.Collider)) {
// go other way
startPoint.Set (room0.Position.x, room0.rectMinY);
turnPoint.Set (room0.Position.x, room0.Position.y - yDistance);
endPoint.Set (room1.rectMinX, room1.Position.y);
Debug.Log ("go other way");
}
// still has collision, delete this segment from spanning tree
if (LineHasCollision (startPoint, turnPoint, room0.Collider)
||
LineHasCollision (turnPoint, endPoint, room1.Collider)) {
Debug.Log ("still collision, remove path");
_spanningTree.RemoveAt (i);
i--;
continue;
}
#endregion
}
// room1 left to room0
else if (room0.Position.x > room1.Position.x) {
startPoint.Set (room0.rectMinX, room0.Position.y);
turnPoint.Set (room0.Position.x - xDistance, room0.Position.y);
endPoint.Set (room1.Position.x, room1.rectMaxY);
#region Check If Line Collider With Other Room
if (LineHasCollision (startPoint, turnPoint, room0.Collider)
||
LineHasCollision (turnPoint, endPoint, room1.Collider)) {
// go other way
startPoint.Set (room0.Position.x, room0.rectMinY);
turnPoint.Set (room0.Position.x, room0.Position.y - yDistance);
endPoint.Set (room1.rectMaxX, room1.Position.y);
Debug.Log ("go other way");
}
// still has collision, delete this segment from spanning tree
if (LineHasCollision (startPoint, turnPoint, room0.Collider)
||
LineHasCollision (turnPoint, endPoint, room1.Collider)) {
Debug.Log ("still collison, delete path");
_spanningTree.RemoveAt (i);
i--;
continue;
}
#endregion
}
}
// room1 above room0
else if (room0.Position.y < room1.Position.y) {
// room0 left to room1
if (room0.Position.x <= room1.Position.x) {
startPoint.Set (room0.Position.x, room0.rectMaxY);
turnPoint.Set (room0.Position.x, room0.Position.y + yDistance);
endPoint.Set (room1.rectMinX, room1.Position.y);
#region Check If Line Collider With Other Room
if (LineHasCollision (startPoint, turnPoint, room0.Collider)
||
LineHasCollision (turnPoint, endPoint, room1.Collider)) {
// go other way
startPoint.Set (room0.rectMaxX, room0.Position.y);
turnPoint.Set (room0.Position.x + xDistance, room0.Position.y);
endPoint.Set (room1.Position.x, room1.rectMinY);
Debug.Log ("go other way");
}
// still has collision, delete this segment from spanning tree
if (LineHasCollision (startPoint, turnPoint, room0.Collider)
||
LineHasCollision (turnPoint, endPoint, room1.Collider)) {
Debug.Log ("still collision, delete path");
_spanningTree.RemoveAt (i);
i--;
continue;
}
#endregion
}
// room1 left to room0
else if (room0.Position.x > room1.Position.x) {
startPoint.Set (room1.rectMaxX, room1.Position.y);
turnPoint.Set (room1.Position.x + xDistance, room1.Position.y);
endPoint.Set (room0.Position.x, room0.rectMaxY);
#region Check If Line Collider With Other Room
if (LineHasCollision (startPoint, turnPoint, room1.Collider)
||
LineHasCollision (turnPoint, endPoint, room0.Collider)) {
// go other way
startPoint.Set (room1.Position.x, room1.rectMinY);
turnPoint.Set (room1.Position.x, room1.Position.y - yDistance);
endPoint.Set (room0.rectMinX, room0.Position.y);
Debug.Log ("go other way");
}
// still has collision, delete this segment from spanning tree
if (LineHasCollision (startPoint, turnPoint, room1.Collider)
||
LineHasCollision (turnPoint, endPoint, room0.Collider)) {
Debug.Log ("still collision, delete path");
_spanningTree.RemoveAt (i);
i--;
continue;
}
#endregion
}
}
// create vertical line
LHallWay hallway = new LHallWay (startPoint, turnPoint, endPoint, room0, room1);
_hallways.Add (hallway);
room0.AddHallWay (hallway);
Debug.Log ("##Lshape created hallway from " + startPoint + " to " + turnPoint + " to " + endPoint + " between " + room0.name + " " + room1.name);
}
#endregion
}
#endregion
#region Remove Physics
for (int i = 0; i < rooms.Count; i++)
rooms [i].RemovePhysics ();
#endregion
#region Create Tiles
for (int i = 0; i < rooms.Count; i++) {
rooms [i].Fill ();
yield return new WaitForSeconds (0.2f);
}
//for (int i = 0; i < _hallways.Count; i++) {
// _hallways [i].Fill ();
// yield return new WaitForSeconds (0.2f);
//}
#endregion
}
public List<Vector2> generateRelaxed(int size,int seed)
{
int i;Vector2 p;Vector2 q;Voronoi voronoi;List<Vector2> region;
for(i=0;i<2;i++){
voronoi =new Voronoi(points,null,new Rect(0,0,size,size));
foreach( Vector2 v in points){
region=voronoi.region(v);
v=Vector2.zero;
foreach(Vector2 v2 in region){
v.x+=v2.x;
v.y+=v2.y;
}
v.x/=region.Count;
v.y/=region.Count;
region.Clear();
}
voronoi.dispose();
}
return points;
}
private static GameObject generateVoronoiPiece(GameObject source, List<Vector2> region, Vector2 origVelocity, Vector3 origScale, Quaternion origRotation, Material mat)
{
//Create Game Object and set transform settings properly
GameObject piece = new GameObject(source.name + " piece");
piece.transform.position = source.transform.position;
piece.transform.rotation = source.transform.rotation;
piece.transform.localScale = source.transform.localScale;
//Create and Add Mesh Components
MeshFilter meshFilter = (MeshFilter)piece.AddComponent(typeof(MeshFilter));
piece.AddComponent(typeof(MeshRenderer));
Mesh uMesh = piece.GetComponent<MeshFilter>().sharedMesh;
if (uMesh == null)
{
meshFilter.mesh = new Mesh();
uMesh = meshFilter.sharedMesh;
}
Voronoi voronoi = new Voronoi(region, null, getRect(region));
Vector3[] vertices = calcVerts(voronoi);
int[] triangles = calcTriangles(voronoi);
uMesh.vertices = vertices;
uMesh.triangles = triangles;
if (source.GetComponent<SpriteRenderer>() != null)
{
uMesh.uv = calcUV(vertices, source.GetComponent<SpriteRenderer>(), source.transform);
}
else
{
uMesh.uv = calcUV(vertices, source.GetComponent<MeshRenderer>(), source.transform);
}
//set transform properties before fixing the pivot for easier rotation
piece.transform.localScale = origScale;
piece.transform.localRotation = origRotation;
Vector3 diff = calcPivotCenterDiff(piece);
centerMeshPivot(piece, diff);
uMesh.RecalculateBounds();
uMesh.RecalculateNormals();
//setFragmentMaterial(piece, source);
piece.GetComponent<MeshRenderer>().sharedMaterial = mat;
//assign mesh
meshFilter.mesh = uMesh;
//Create and Add Polygon Collider
PolygonCollider2D collider = piece.AddComponent<PolygonCollider2D>();
collider.SetPath(0, calcPolyColliderPoints(region,diff));
//Create and Add Rigidbody
Rigidbody2D rigidbody = piece.AddComponent<Rigidbody2D>();
rigidbody.velocity = origVelocity;
return piece;
}
void GenerateNoise()
{
mountainTerrain.OctaveCount = Octaves;
mountainTerrain.Frequency = 2f;
baseFlatTerrain.OctaveCount = Octaves;
terrainType.OctaveCount = Octaves;
Voronoi vnoise = new Voronoi();
vnoise.Frequency = 5f;
Perlin pnoise = new Perlin();
pnoise.Frequency = 2f;
Scale scaledvnoise = new Scale(Scalarv, Scalarv, Scalarv, vnoise);
Scale scaledpnoise = new Scale(Scalarv, Scalarv, Scalarv, pnoise);
baseFlatTerrain.Frequency = 2.0f;
ScaleBias flatTerrain = new ScaleBias(0.125, -0.75, baseFlatTerrain);
terrainType.Frequency = 0.5f;
terrainType.Persistence = 0.25;
Select noiseSelect = new Select(scaledpnoise, scaledvnoise, terrainType);
Select terrainSelector = new Select(flatTerrain, mountainTerrain, terrainType);
terrainSelector.SetBounds(0.0, 1000.0);
terrainSelector.FallOff = 0.125;
Turbulence finalTerrain = new Turbulence(0.25, terrainSelector);
finalTerrain.Frequency = 4.0f;
noise = new Scale(Scalarv, Scalarv, Scalarv, finalTerrain);
//noise = new Add(new Scale(Scalarv, Scalarv, Scalarv, finalTerrain), noiseSelect);
//noise = new Add(noise, scaledvnoise);
}
private static int[] calcTriangles(Voronoi region)
{
//calculate unity triangles
int[] triangles = new int[region.Triangles().Count*3];
List<Site> sites = region.Sites()._sites;
int idx = 0;
foreach (Triangle t in region.Triangles())
{
triangles[idx++] = sites.IndexOf(t.sites[0]);
triangles[idx++] = sites.IndexOf(t.sites[1]);
triangles[idx++] = sites.IndexOf(t.sites[2]);
}
return triangles;
}
private static Vector3[] calcVerts(Voronoi region)
{
List<Site> sites = region.Sites()._sites;
Vector3[] vertices = new Vector3[sites.Count];
int idx = 0;
foreach (Site s in sites)
{
vertices[idx++] = new Vector3(s.x,s.y,0);
}
return vertices;
}
public void DrawLine(Voronoi.Line line, Color c,int thick = 1)
{
DrawLine(line.Start,line.End,c,thick);
}
public void buildGraph_()
{
Voronoi voronoi=new Voronoi(points,null,new Rect(0,0,SIZE,SIZE));
buildGraph(points,voronoi);
improveCorners();
voronoi.dispose();
voronoi=null;
points=null;
}