public void OptimseMeshes()
{
#if UNITY_EDITOR
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = _points[i];
for (int m = 0; m < curve.dynamicTrackMesh.meshCount; m++)
{
MeshUtility.Optimize(curve.dynamicTrackMesh[m].mesh);
}
for (int m = 0; m < curve.dynamicOffroadMesh.meshCount; m++)
{
MeshUtility.Optimize(curve.dynamicOffroadMesh[m].mesh);
}
for (int m = 0; m < curve.dynamicBumperMesh.meshCount; m++)
{
MeshUtility.Optimize(curve.dynamicBumperMesh[m].mesh);
}
for (int m = 0; m < curve.dynamicBoundaryMesh.meshCount; m++)
{
MeshUtility.Optimize(curve.dynamicBoundaryMesh[m].mesh);
}
for (int m = 0; m < curve.dynamicBottomMesh.meshCount; m++)
{
MeshUtility.Optimize(curve.dynamicBottomMesh[m].mesh);
}
}
_optimised = true;
#endif
}
// /// <summary>
// /// Mark the pit lane as dirty so it will be recalculated/rebuilt
// /// </summary>
// public void SetPitDirty()
// {
// for (int i = 0; i < pitlane.numberOfPoints; i++)
// {
// pitlane[i].isDirty = true;
// }
// }
//
// /// <summary>
// /// Set pit lane point data to rerender
// /// </summary>
// public void ReRenderPit()
// {
// for (int i = 0; i < pitlane.numberOfPoints; i++)
// {
// pitlane[i].shouldReRender = true;
// }
// }
public void GenerateSecondaryUVSet()
{
#if UNITY_EDITOR
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = _points[i];
List <Mesh> unwrapList = new List <Mesh>();
unwrapList.AddRange(curve.dynamicTrackMesh.meshes);
unwrapList.AddRange(curve.dynamicOffroadMesh.meshes);
unwrapList.AddRange(curve.dynamicBumperMesh.meshes);
unwrapList.AddRange(curve.dynamicBoundaryMesh.meshes);
unwrapList.AddRange(curve.dynamicBottomMesh.meshes);
int count = unwrapList.Count;
for (int m = 0; m < count; m++)
{
if (unwrapList[m].vertexCount == 0)
{
continue;
}
Unwrapping.GenerateSecondaryUVSet(unwrapList[m]);
}
}
_lightmapGenerated = true;
#endif
}
public void GenerateSecondaryUVSet()
{
#if UNITY_EDITOR
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = _points[i];
for (int m = 0; m < curve.dynamicTrackMesh.meshCount; m++)
{
Unwrapping.GenerateSecondaryUVSet(curve.dynamicTrackMesh[m].mesh);
}
for (int m = 0; m < curve.dynamicOffroadMesh.meshCount; m++)
{
Unwrapping.GenerateSecondaryUVSet(curve.dynamicOffroadMesh[m].mesh);
}
for (int m = 0; m < curve.dynamicBumperMesh.meshCount; m++)
{
Unwrapping.GenerateSecondaryUVSet(curve.dynamicBumperMesh[m].mesh);
}
for (int m = 0; m < curve.dynamicBoundaryMesh.meshCount; m++)
{
Unwrapping.GenerateSecondaryUVSet(curve.dynamicBoundaryMesh[m].mesh);
}
for (int m = 0; m < curve.dynamicBottomMesh.meshCount; m++)
{
Unwrapping.GenerateSecondaryUVSet(curve.dynamicBottomMesh[m].mesh);
}
}
_lightmapGenerated = true;
#endif
}
public static void ConformTrack(TrackBuildRTrack track, Terrain terrain)
{
TerrainData terrainData = terrain.terrainData;
int terrainWidth = terrainData.heightmapWidth;
int terrainHeight = terrainData.heightmapHeight;
float terrainHeightmapY = terrain.terrainData.heightmapScale.y;
float terrainY = terrain.transform.position.y / terrainHeightmapY;
float conformAccuracy = track.conformAccuracy;
float[,] originalData = terrainData.GetHeights(0, 0, terrainWidth, terrainHeight);
Bounds trackBounds = new Bounds();
int numberOfCurves = track.numberOfCurves;
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = track[i];
if (curve.holder == null)
{
continue;
}
Renderer[] rends = curve.holder.GetComponentsInChildren <Renderer>();
foreach (Renderer rend in rends)
{
trackBounds.Encapsulate(rend.bounds);
}
}
Vector3 trackOffset = track.transform.position - terrain.transform.position;
Vector3 trackScale = new Vector3(trackBounds.size.x / terrainData.size.x, 1.0f / terrain.terrainData.size.y, trackBounds.size.z / terrainData.size.z);
int realNumberOfPoints = track.realNumberOfPoints;
for (int i = 0; i < realNumberOfPoints; i++)
{
TrackBuildRPoint point = track[i];
Vector3 trackPointPosition = point.position;
int pointX = Mathf.RoundToInt(((trackPointPosition.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int pointY = Mathf.RoundToInt(((trackPointPosition.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
pointX = Mathf.Clamp(pointX, 0, terrainWidth - 1);
pointY = Mathf.Clamp(pointY, 0, terrainHeight - 1);
trackPointPosition.y = originalData[pointY, pointX] * terrain.terrainData.size.y - terrainY + conformAccuracy;
point.position = trackPointPosition;
Vector3 controlPoint = point.forwardControlPoint;
pointX = Mathf.RoundToInt(((controlPoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
pointY = Mathf.RoundToInt(((controlPoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
pointX = Mathf.Clamp(pointX, 0, terrainWidth - 1);
pointY = Mathf.Clamp(pointY, 0, terrainHeight - 1);
controlPoint.y = originalData[pointY, pointX] * terrain.terrainData.size.y - terrainY + conformAccuracy;
point.forwardControlPoint = controlPoint;
point.isDirty = true;
}
track.RecalculateCurves();
}
public void Init()
{
track = gameObject.AddComponent <TrackBuildRTrack>();
track.InitTextures();
track.baseTransform = transform;
TrackBuildRPoint p0 = gameObject.AddComponent <TrackBuildRPoint>(); // ScriptableObject.CreateInstance<TrackBuildRPoint>();
TrackBuildRPoint p1 = gameObject.AddComponent <TrackBuildRPoint>(); //ScriptableObject.CreateInstance<TrackBuildRPoint>();
TrackBuildRPoint p2 = gameObject.AddComponent <TrackBuildRPoint>(); //ScriptableObject.CreateInstance<TrackBuildRPoint>();
TrackBuildRPoint p3 = gameObject.AddComponent <TrackBuildRPoint>(); //ScriptableObject.CreateInstance<TrackBuildRPoint>();
p0.baseTransform = transform;
p1.baseTransform = transform;
p2.baseTransform = transform;
p3.baseTransform = transform;
p0.position = new Vector3(-20, 0, -20);
p1.position = new Vector3(20, 0, -20);
p2.position = new Vector3(20, 0, 20);
p3.position = new Vector3(-20, 0, 20);
p0.forwardControlPoint = new Vector3(0, 0, -20);
p1.forwardControlPoint = new Vector3(40, 0, -20);
p2.forwardControlPoint = new Vector3(0, 0, 20);
p3.forwardControlPoint = new Vector3(-40, 0, 20);
p0.leftForwardControlPoint = new Vector3(-15, 0, -20);
p1.leftForwardControlPoint = new Vector3(25, 0, -20);
p2.leftForwardControlPoint = new Vector3(5, 0, 20);
p3.leftForwardControlPoint = new Vector3(-35, 0, 20);
p0.rightForwardControlPoint = new Vector3(15, 0, -20);
p1.rightForwardControlPoint = new Vector3(55, 0, -20);
p2.rightForwardControlPoint = new Vector3(-5, 0, 20);
p3.rightForwardControlPoint = new Vector3(-45, 0, 20);
track.AddPoint(p0);
track.AddPoint(p1);
track.AddPoint(p2);
track.AddPoint(p3);
generator = gameObject.AddComponent <TrackBuildRGenerator>();
ForceFullRecalculation();
track.diagramMesh = new Mesh();
track.diagramMesh.vertices = new [] { new Vector3(-1, 0, -1), new Vector3(1, 0, -1), new Vector3(-1, 0, 1), new Vector3(1, 0, 1) };
track.diagramMesh.uv = new [] { new Vector2(0, 0), new Vector2(1, 0), new Vector2(0, 1), new Vector2(1, 1) };
track.diagramMesh.triangles = new [] { 1, 0, 2, 1, 2, 3 };
track.diagramGO = new GameObject("Diagram");
track.diagramGO.transform.parent = transform;
track.diagramGO.transform.localPosition = Vector3.zero;
track.diagramGO.AddComponent <MeshFilter>().mesh = track.diagramMesh;
track.diagramMaterial = new Material(Shader.Find("Unlit/Texture"));
track.diagramGO.AddComponent <MeshRenderer>().material = track.diagramMaterial;
track.diagramGO.AddComponent <MeshCollider>().sharedMesh = track.diagramMesh;
}
//Sample nextNormIndex position on the entire curve based on time (0-1)
public Vector3 GetRightBoundaryPosition(float t)
{
float curveT = 1.0f / numberOfCurves;
int point = Mathf.FloorToInt(t / curveT);
float ct = Mathf.Clamp01((t - point * curveT) * numberOfCurves);
TrackBuildRPoint pointA = GetPoint(point);
TrackBuildRPoint pointB = GetPoint(point + 1);
return(SplineMaths.CalculateBezierPoint(ct, pointA.rightTrackBoundary, pointA.rightForwardControlPoint, pointB.rightBackwardControlPoint, pointB.rightTrackBoundary));
}
public float GetTrackCrownAngle(float t)
{
float curveT = 1.0f / numberOfCurves;
int point = Mathf.FloorToInt(t / curveT);
float ct = Mathf.Clamp01((t - point * curveT) * numberOfCurves);
float hermite = SplineMaths.CalculateHermite(ct);
TrackBuildRPoint pointA = GetPoint(point);
TrackBuildRPoint pointB = GetPoint(point + 1);
return(Mathf.LerpAngle(pointA.crownAngle, pointB.crownAngle, hermite));
}
public Vector3 GetTrackCross(float t)
{
float curveT = 1.0f / numberOfCurves;
int point = Mathf.FloorToInt(t / curveT);
float ct = Mathf.Clamp01((t - point * curveT) * numberOfCurves);
float hermite = SplineMaths.CalculateHermite(ct);
TrackBuildRPoint pointA = GetPoint(point);
TrackBuildRPoint pointB = GetPoint(point + 1);
return(Vector3.Slerp(pointA.trackCross, pointB.trackCross, hermite));
}
/// <summary>
/// unfinished!
/// </summary>
/// <param name="track"></param>
/// <param name="selectedPoint"></param>
public static void AddTwist(TrackBuildRTrack track, int selectedPoint)
{
TrackBuildRPoint atPoint = track[selectedPoint];
TrackBuildRPoint lastPoint = track.GetPoint(selectedPoint - 1);
float twistDistance = Mathf.Min((lastPoint.arcLength + atPoint.arcLength) * 0.333f, track.maxJumpLength);
Vector3 twistDirection = atPoint.trackDirection;
Vector3 twistMiddle = atPoint.worldPosition;
Vector3 twistUp = atPoint.trackUp;
Vector3 twistAxis = Vector3.Cross(twistDirection, twistUp);
float twistRadius = track.twistRadius;
Vector3 twistStartPosition = -twistDirection * (twistDistance * 0.33f);
Vector3 twistEndPosition = twistDirection * (twistDistance * 0.33f);
Vector3 twistCentreHeight = twistUp * twistRadius;
Quaternion twistAngle = Quaternion.LookRotation(twistDirection, twistUp);
Vector3 twistCenter = atPoint.worldPosition + Vector3.up * twistRadius;
float controlPointLength = twistRadius / (Mathf.PI);
int numberOfPoints = track.twistPoints;
float arcPercent = 1.0f / numberOfPoints;
TrackBuildRPoint[] loopPoints = new TrackBuildRPoint[numberOfPoints + 1];
for (int i = 0; i < numberOfPoints; i++)
{
float pointArcPercent = arcPercent * i;
float radA = Mathf.PI * 2 * (pointArcPercent + 0.5f);
Vector3 pointLoopPosition = twistAngle * ((new Vector3(Mathf.Sin(radA), Mathf.Cos(radA), 0)) * twistRadius);
float smoothI = pointArcPercent * pointArcPercent * (3.0f - 2.0f * pointArcPercent);
Vector3 lateral = Vector3.Lerp(twistStartPosition, twistEndPosition, pointArcPercent + (pointArcPercent - smoothI));
Vector3 pointPosition = (pointLoopPosition) + lateral;
Vector3 pointDirection = Vector3.Cross(-pointLoopPosition, twistAxis).normalized;
TrackBuildRPoint newTrackPoint = track.InsertPoint(selectedPoint + 1 + i);
newTrackPoint.worldPosition = twistCenter + pointPosition;
newTrackPoint.trackUpQ = Quaternion.LookRotation(-pointLoopPosition, pointDirection);
newTrackPoint.forwardControlPoint = newTrackPoint.worldPosition + (pointDirection * controlPointLength);
loopPoints[i] = newTrackPoint;
}
atPoint.worldPosition += twistStartPosition;
atPoint.trackUpQ = Quaternion.LookRotation(Vector3.up, atPoint.trackDirection);
atPoint.forwardControlPoint = atPoint.worldPosition + (twistDirection * controlPointLength) - twistAxis;
loopPoints[6] = atPoint;
// _trackBuildR.pointMode = TrackBuildR.pointModes.transform;
for (int i = 0; i < numberOfPoints + 1; i++)
{
loopPoints[i].extrudeTrack = true;
loopPoints[i].extrudeTrackBottom = true;
loopPoints[i].extrudeLength = 0.5f;
loopPoints[i].RecalculateStoredValues();
}
}
// /// <summary>
// /// Mark the pit lane as dirty so it will be recalculated/rebuilt
// /// </summary>
// public void SetPitDirty()
// {
// for (int i = 0; i < pitlane.numberOfPoints; i++)
// {
// pitlane[i].isDirty = true;
// }
// }
//
// /// <summary>
// /// Set pit lane point data to rerender
// /// </summary>
// public void ReRenderPit()
// {
// for (int i = 0; i < pitlane.numberOfPoints; i++)
// {
// pitlane[i].shouldReRender = true;
// }
// }
public void SolveTangents()
{
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = _points[i];
curve.dynamicTrackMesh.SolveTangents();
curve.dynamicOffroadMesh.SolveTangents();
curve.dynamicBumperMesh.SolveTangents();
curve.dynamicBoundaryMesh.SolveTangents();
curve.dynamicBottomMesh.SolveTangents();
}
_tangentsGenerated = true;
}
public Vector3 GetTrackDirection(float t)
{
float curveT = 1.0f / numberOfCurves;
int point = Mathf.FloorToInt(t / curveT);
float ct = Mathf.Clamp01((t - point * curveT) * numberOfCurves);
float hermite = SplineMaths.CalculateHermite(ct);
TrackBuildRPoint pointA = GetPoint(point);
TrackBuildRPoint pointB = GetPoint(point + 1);
Quaternion trackDirectionA = Quaternion.LookRotation(pointA.trackDirection);
Quaternion trackDirectionB = Quaternion.LookRotation(pointB.trackDirection);
Quaternion trackDirectionQ = Quaternion.Slerp(trackDirectionA, trackDirectionB, hermite);
return(trackDirectionQ * Vector3.forward);
}
public TrackBuildRPoint AddPoint(Vector3 position)
{
#if UNITY_EDITOR
TrackBuildRPoint point = Undo.AddComponent <TrackBuildRPoint>(gameObject); //ScriptableObject.CreateInstance<TrackBuildRPoint>();
#else
TrackBuildRPoint point = gameObject.AddComponent <TrackBuildRPoint>(); //ScriptableObject.CreateInstance<TrackBuildRPoint>();
#endif
point.baseTransform = baseTransform;
point.position = position;
point.isDirty = true;
_points.Add(point);
RecalculateCurves();
return(point);
}
public static void AddLoop(TrackBuildRTrack track, int selectedPointIndex)
{
TrackBuildRPoint atPoint = track[selectedPointIndex];
int atPointIndex = selectedPointIndex;
float loopRadius = track.loopRadius;
float trackWidth = atPoint.width;
Vector3 trackDirection = atPoint.trackDirection.normalized;
Vector3 trackUp = atPoint.trackUpQ * Vector3.forward;
Vector3 trackCross = atPoint.trackCross;
Vector3 entryPosition = atPoint.worldPosition + (trackCross * trackWidth * 0.6f);
Vector3 loopAxis = Vector3.Cross(trackDirection, trackUp);
Vector3 loopCenter = atPoint.worldPosition + Vector3.up * loopRadius;
Quaternion loopAngle = Quaternion.FromToRotation(Vector3.right, trackDirection);
float controlPointLength = loopRadius / (Mathf.PI);
Vector3 controlPointLateral = -loopAxis;
int numberOfPoints = 6;
float arcPercent = 1.0f / numberOfPoints;
TrackBuildRPoint[] loopPoints = new TrackBuildRPoint[7];
for (int i = 0; i < numberOfPoints; i++)
{
float pointArcPercent = arcPercent * i;
TrackBuildRPoint newTrackPoint = track.InsertPoint(atPointIndex + 1);
float rad = Mathf.PI * 2 * (pointArcPercent + 0.5f);
Vector3 pointLoopPosition = loopAngle * ((new Vector3(Mathf.Sin(rad), Mathf.Cos(rad), 0)) * loopRadius);
Vector3 lateral = Vector3.Lerp((trackCross * trackWidth * -0.6f), (trackCross * trackWidth * 0.6f), pointArcPercent);
Vector3 pointPosition = (pointLoopPosition) + lateral;
Vector3 pointDirection = Vector3.Cross(-pointLoopPosition, loopAxis).normalized;
newTrackPoint.worldPosition = loopCenter + pointPosition;
newTrackPoint.trackUpQ = Quaternion.LookRotation(-pointLoopPosition, pointDirection);
newTrackPoint.forwardControlPoint = newTrackPoint.worldPosition + (pointDirection * controlPointLength) - controlPointLateral;
loopPoints[i] = newTrackPoint;
}
atPoint.worldPosition = entryPosition;
atPoint.trackUpQ = Quaternion.LookRotation(Vector3.up, atPoint.trackDirection);
atPoint.forwardControlPoint = atPoint.worldPosition + (trackDirection * controlPointLength) + controlPointLateral;
loopPoints[6] = atPoint;
// _trackBuildR.pointMode = TrackBuildR.pointModes.transform;
for (int i = 0; i < numberOfPoints + 1; i++)
{
loopPoints[i].extrudeTrack = true;
loopPoints[i].extrudeTrackBottom = true;
loopPoints[i].extrudeLength = 0.5f;
loopPoints[i].RecalculateStoredValues();
}
}
//Sample nextNormIndex position on the entire curve based on time (0-1)
public Vector3 GetTrackPosition(float t)
{
if (realNumberOfPoints < 2)
{
Debug.LogError("Not enough points to define a curve");
return(Vector3.zero);
}
float curveT = 1.0f / numberOfCurves;
int point = Mathf.FloorToInt(t / curveT);
float ct = Mathf.Clamp01((t - point * curveT) * numberOfCurves);
TrackBuildRPoint pointA = GetPoint(point);
TrackBuildRPoint pointB = GetPoint(point + 1);
return(SplineMaths.CalculateBezierPoint(ct, pointA.position, pointA.forwardControlPoint, pointB.backwardControlPoint, pointB.position));
}
public static void AddLoop(TrackBuildRTrack track, int selectedPointIndex)
{
TrackBuildRPoint atPoint = track[selectedPointIndex];
int atPointIndex = selectedPointIndex;
float loopRadius = track.loopRadius;
float trackWidth = atPoint.width;
Vector3 trackDirection = atPoint.trackDirection.normalized;
Vector3 trackUp = atPoint.trackUpQ * Vector3.forward;
Vector3 trackCross = atPoint.trackCross;
Vector3 entryPosition = atPoint.worldPosition + (trackCross * trackWidth * 0.6f);
Vector3 loopAxis = Vector3.Cross(trackDirection, trackUp);
Vector3 loopCenter = atPoint.worldPosition + Vector3.up * loopRadius;
Quaternion loopAngle = Quaternion.FromToRotation(Vector3.right, trackDirection);
float controlPointLength = loopRadius / (Mathf.PI);
Vector3 controlPointLateral = -loopAxis;
int numberOfPoints = 6;
float arcPercent = 1.0f / numberOfPoints;
TrackBuildRPoint[] loopPoints = new TrackBuildRPoint[7];
for (int i = 0; i < numberOfPoints; i++)
{
float pointArcPercent = arcPercent * i;
TrackBuildRPoint newTrackPoint = track.InsertPoint(atPointIndex + 1);
float rad = Mathf.PI * 2 * (pointArcPercent + 0.5f);
Vector3 pointLoopPosition = loopAngle * ((new Vector3(Mathf.Sin(rad), Mathf.Cos(rad), 0)) * loopRadius);
Vector3 lateral = Vector3.Lerp((trackCross * trackWidth * -0.6f), (trackCross * trackWidth * 0.6f), pointArcPercent);
Vector3 pointPosition = (pointLoopPosition) + lateral;
Vector3 pointDirection = Vector3.Cross(-pointLoopPosition, loopAxis).normalized;
newTrackPoint.worldPosition = loopCenter + pointPosition;
newTrackPoint.trackUpQ = Quaternion.LookRotation(-pointLoopPosition, pointDirection);
newTrackPoint.forwardControlPoint = newTrackPoint.worldPosition + (pointDirection * controlPointLength) - controlPointLateral;
loopPoints[i] = newTrackPoint;
}
atPoint.worldPosition = entryPosition;
atPoint.trackUpQ = Quaternion.LookRotation(Vector3.up, atPoint.trackDirection);
atPoint.forwardControlPoint = atPoint.worldPosition + (trackDirection * controlPointLength) + controlPointLateral;
loopPoints[6] = atPoint;
// _trackBuildR.pointMode = TrackBuildR.pointModes.transform;
for (int i = 0; i < numberOfPoints + 1; i++)
{
loopPoints[i].extrudeTrack = true;
loopPoints[i].extrudeTrackBottom = true;
loopPoints[i].extrudeLength = 0.5f;
loopPoints[i].RecalculateStoredValues();
}
}
public static void AddJumpTwist(TrackBuildRTrack track, int selectedPoint)
{
TrackBuildRPoint atPoint = track[selectedPoint];
TrackBuildRPoint lastPoint = track.GetPoint(selectedPoint - 1);
TrackBuildRPoint nextPoint = track.GetPoint(selectedPoint + 1);
float trackPartDistance = lastPoint.arcLength + atPoint.arcLength;
float jumpDistance = Mathf.Min(trackPartDistance * 0.333f, track.maxJumpLength);
float trackWidth = atPoint.width * 0.5f;
Vector3 startCross = atPoint.trackCross;
Vector3 jumpDirection = atPoint.trackDirection;
Vector3 jumpMiddle = atPoint.worldPosition;
Quaternion atPointUpQ = atPoint.trackUpQ;
Quaternion trackUpJump = Quaternion.AngleAxis(track.twistAngle, -jumpDirection);
Quaternion trackCrossExit = trackUpJump * (atPointUpQ);
Quaternion trackCrossEntry = Quaternion.Inverse(trackUpJump) * (atPointUpQ);
Vector3 jumpLateral = startCross * track.twistAngle / 33.3f;
Vector3 jumpHeight = atPointUpQ * (Vector3.forward * track.jumpHeight);
Vector3 jumpStartPosition = jumpMiddle - jumpDirection * (jumpDistance * 0.33f) + jumpHeight - jumpLateral;
Vector3 jumpEndPosition = jumpMiddle + jumpDirection * (jumpDistance * 0.33f) + jumpHeight + jumpLateral;
lastPoint.extrudeTrack = true;
lastPoint.extrudeLength = track.jumpHeight;
lastPoint.extrudeCurveEnd = true;
lastPoint.extrudeTrackBottom = true;
atPoint.Reset();
atPoint.worldPosition = jumpStartPosition;
atPoint.forwardControlPoint = jumpDirection * (jumpDistance * 0.5f) + jumpStartPosition + jumpHeight;
atPoint.trackUpQ = trackCrossExit;
atPoint.render = false;
TrackBuildRPoint jumpEnd = track.InsertPoint(selectedPoint + 1);
jumpEnd.worldPosition = jumpEndPosition;
jumpEnd.forwardControlPoint = jumpDirection * (jumpDistance * 0.5f) + jumpEndPosition - jumpHeight;
jumpEnd.trackUpQ = trackCrossEntry;
jumpEnd.extrudeTrack = true;
jumpEnd.extrudeLength = track.jumpHeight;
jumpEnd.extrudeCurveEnd = true;
jumpEnd.extrudeTrackBottom = true;
atPoint.RecalculateStoredValues();
jumpEnd.RecalculateStoredValues();
}
public TrackBuildRPoint InsertPoint(int index)
{
#if UNITY_EDITOR
Undo.IncrementCurrentGroup();
TrackBuildRPoint point = Undo.AddComponent <TrackBuildRPoint>(gameObject); //ScriptableObject.CreateInstance<TrackBuildRPoint>();
#else
TrackBuildRPoint point = gameObject.AddComponent <TrackBuildRPoint>(); //ScriptableObject.CreateInstance<TrackBuildRPoint>();
#endif
point.baseTransform = baseTransform;
#if UNITY_EDITOR
Undo.RecordObject(this, "Remove Point");
#endif
_points.Insert(index, point);
#if UNITY_EDITOR
Undo.CollapseUndoOperations(Undo.GetCurrentGroup());
#endif
RecalculateCurves();
return(point);
}
public void RemovePoint(TrackBuildRPoint point)
{
if (_points.Count < 3)
{
Debug.Log("We can't see any point in allowing you to delete any more points so we're not going to do it.");
return;
}
#if UNITY_EDITOR
Undo.IncrementCurrentGroup();
_points.Remove(point);
Undo.DestroyObjectImmediate(point.holder);
Undo.DestroyObjectImmediate(point);
Undo.CollapseUndoOperations(Undo.GetCurrentGroup());
#else
_points.Remove(point);
#endif
RecalculateCurves();
}
public void RemoveTexture(TrackBuildRTexture texture)
{
int textureIndex = _textures.IndexOf(texture);
#if UNITY_EDITOR
Undo.IncrementCurrentGroup();
Undo.RecordObject(this, "Remove Texture");
_textures.Remove(texture);
Undo.DestroyObjectImmediate(texture);
Undo.CollapseUndoOperations(Undo.GetCurrentGroup());
#else
_textures.Remove(texture);
#endif
//ensure that curves are not referenceing textures that no longer exist
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = _points[i];
if (curve.trackTextureStyleIndex > textureIndex)
{
curve.trackTextureStyleIndex--;
}
if (curve.offroadTextureStyleIndex > textureIndex)
{
curve.offroadTextureStyleIndex--;
}
if (curve.bumperTextureStyleIndex > textureIndex)
{
curve.bumperTextureStyleIndex--;
}
if (curve.boundaryTextureStyleIndex > textureIndex)
{
curve.boundaryTextureStyleIndex--;
}
if (curve.bottomTextureStyleIndex > textureIndex)
{
curve.bottomTextureStyleIndex--;
}
}
}
public static void AddJump(TrackBuildRTrack track, int selectedPoint)
{
TrackBuildRPoint atPoint = track[selectedPoint];
TrackBuildRPoint lastPoint = track.GetPoint(selectedPoint - 1);
TrackBuildRPoint nextPoint = track.GetPoint(selectedPoint + 1);
float trackPartDistance = lastPoint.arcLength + atPoint.arcLength;
float jumpDistance = Mathf.Min(trackPartDistance * 0.333f, track.maxJumpLength);
Vector3 jumpDirection = atPoint.trackDirection;
Vector3 jumpMiddle = atPoint.worldPosition;
Vector3 startCross = atPoint.trackCross;
float trackWidth = atPoint.width * 0.5f;
Quaternion trackUp = atPoint.trackUpQ;
Vector3 jumpHeight = trackUp * (Vector3.forward * track.jumpHeight);
Vector3 jumpStartPosition = jumpMiddle - jumpDirection * (jumpDistance * 0.33f);
Vector3 jumpEndPosition = jumpMiddle + jumpDirection * (jumpDistance * 0.33f);
lastPoint.extrudeTrack = true;
lastPoint.extrudeLength = track.jumpHeight;
lastPoint.extrudeCurveEnd = true;
atPoint.Reset();
atPoint.worldPosition = jumpStartPosition + jumpHeight;
atPoint.forwardControlPoint = jumpDirection * (jumpDistance * 0.5f) + jumpStartPosition + jumpHeight * 2;
atPoint.trackUpQ = trackUp;
atPoint.render = false;
TrackBuildRPoint jumpEnd = track.InsertPoint(selectedPoint + 1);
jumpEnd.worldPosition = jumpEndPosition + jumpHeight;
jumpEnd.forwardControlPoint = jumpDirection * (jumpDistance * 0.5f) + jumpEndPosition;
jumpEnd.trackUpQ = trackUp;
jumpEnd.extrudeTrack = true;
jumpEnd.extrudeLength = track.jumpHeight;
jumpEnd.extrudeCurveEnd = true;
atPoint.RecalculateStoredValues();
jumpEnd.RecalculateStoredValues();
}
private static void ExportModel(TrackBuildR track)
{
GameObject baseObject = new GameObject(track.exportFilename);
baseObject.transform.position = CURRENT_TRANSFORM.position;
baseObject.transform.rotation = CURRENT_TRANSFORM.rotation;
EditorUtility.DisplayCancelableProgressBar(PROGRESSBAR_TEXT, "", 0.0f);
track.ForceFullRecalculation();
EditorUtility.DisplayCancelableProgressBar(PROGRESSBAR_TEXT, "", 0.1f);
try
{
TrackBuildRTrack trackData = track.track;
//check overwrites...
string newDirectory = ROOT_FOLDER + track.exportFilename;
if (!CreateFolder(newDirectory))
{
EditorUtility.ClearProgressBar();
return;
}
EditorUtility.DisplayCancelableProgressBar(PROGRESSBAR_TEXT, "", 0.15f);
int numberOfCurves = trackData.numberOfCurves;
int numberOfDynMeshes = 9;
float exportProgress = 0.75f / (numberOfCurves * numberOfDynMeshes);
ExportMaterial[] exportMaterials = new ExportMaterial[1];
ExportMaterial exportTexture = new ExportMaterial();
TrackBuildRTexture[] textures = trackData.GetTexturesArray();
int textureCount = textures.Length;
Material[] materials = new Material[textureCount];
for (int t = 0; t < textureCount; t++)
{
TrackBuildRTexture texture = textures[t];
if (!texture.isSubstance && !texture.isUSer)
{
string materialPath = string.Format("{0}{1}/{2}.mat", ROOT_FOLDER, track.exportFilename, texture.customName);
if (File.Exists(materialPath))
{
Material mat = (Material)AssetDatabase.LoadAssetAtPath(materialPath, typeof(Material));
EditorUtility.CopySerialized(texture.material, mat);
AssetDatabase.SaveAssets();
materials[t] = mat;
continue;
}
Material tempMat = Object.Instantiate(texture.material);
AssetDatabase.CreateAsset(tempMat, materialPath);
materials[t] = (Material)AssetDatabase.LoadAssetAtPath(materialPath, typeof(Material));
}
else
{
materials[t] = texture.isUSer ? texture.userMaterial : texture.proceduralMaterial;
}
}
string[] dynNames = { "track", "bumper", "boundary", "bottom", "offroad", "trackCollider" };
string[] colliderNames = { "track collider", "wall collider", "offroad collider", "bumper collider" };
for (int c = 0; c < numberOfCurves; c++)
{
TrackBuildRPoint curve = trackData[c];
DynamicMesh[] dynMeshes = new DynamicMesh[numberOfDynMeshes];
dynMeshes[0] = curve.dynamicTrackMesh;
dynMeshes[1] = curve.dynamicBumperMesh;
dynMeshes[2] = curve.dynamicBoundaryMesh;
dynMeshes[3] = curve.dynamicBottomMesh;
dynMeshes[4] = curve.dynamicOffroadMesh;
dynMeshes[5] = curve.dynamicColliderMesh1; //track surface
dynMeshes[6] = curve.dynamicColliderMesh2; //walls and roof
dynMeshes[7] = curve.dynamicColliderMesh3; //track bottom and offroad
dynMeshes[8] = curve.dynamicColliderMesh4; //bumpers
int[] textureIndeices = { curve.trackTextureStyleIndex, curve.bumperTextureStyleIndex, curve.boundaryTextureStyleIndex, curve.bottomTextureStyleIndex, curve.offroadTextureStyleIndex, 0 };
PhysicMaterial[] physicMaterials = { trackData.Texture(curve.trackTextureStyleIndex).physicMaterial, trackData.Texture(curve.boundaryTextureStyleIndex).physicMaterial, trackData.Texture(curve.offroadTextureStyleIndex).physicMaterial, trackData.Texture(curve.bumperTextureStyleIndex).physicMaterial };
for (int d = 0; d < numberOfDynMeshes; d++)
{
int textureIndex = Mathf.Clamp(d, 0, 5);
if (EditorUtility.DisplayCancelableProgressBar(PROGRESSBAR_TEXT, "Exporting Track Curve " + c + " " + dynNames[textureIndex], 0.15f + exportProgress * (c * numberOfDynMeshes + d)))
{
EditorUtility.ClearProgressBar();
return;
}
DynamicMesh exportDynMesh = dynMeshes[d];
// if(track.includeTangents || exportDynMesh.isEmpty)
// exportDynMesh.Build();//rebuild with tangents
TrackBuildRTexture texture = trackData.Texture(textureIndeices[textureIndex]);
exportTexture.name = texture.customName;
exportTexture.material = texture.material;
exportTexture.generated = false;
exportTexture.filepath = texture.filePath;
exportMaterials[0] = exportTexture;
Material mat = materials[textureIndeices[textureIndex]];
int meshCount = exportDynMesh.meshCount;
Mesh[] meshes = exportDynMesh.meshes;
for (int i = 0; i < meshCount; i++)
{
Mesh exportMesh = meshes[i];
MeshUtility.Optimize(exportMesh);
string filenameSuffix = trackModelName(dynNames[textureIndex], c, (meshCount > 1) ? i : -1); // "trackCurve" + c + ((meshCount > 1) ? "_" + i.ToString() : "");
if (d > 4) //colliders
{
filenameSuffix = string.Format("{0}_{1}", filenameSuffix, (d % 5));
}
string filename = track.exportFilename + filenameSuffix;
Export(filename, ROOT_FOLDER + track.exportFilename + "/", track, exportMesh, exportMaterials);
if (track.createPrefabOnExport)
{
AssetDatabase.Refresh();//ensure the database is up to date...
string modelFilePath = ROOT_FOLDER + track.exportFilename + "/" + filename + FILE_EXTENTION;
if (d < numberOfDynMeshes - 4)
{
GameObject newModel = (GameObject)PrefabUtility.InstantiatePrefab(AssetDatabase.LoadMainAssetAtPath(modelFilePath));
newModel.name = filename;
newModel.transform.parent = baseObject.transform;
newModel.transform.localPosition = Vector3.zero;
newModel.transform.localRotation = Quaternion.identity;
MeshRenderer[] renders = newModel.GetComponentsInChildren <MeshRenderer>();
foreach (MeshRenderer rend in renders)
{
rend.material = mat;
}
}
else
{
int colliderIndex = d - (numberOfDynMeshes - 4);
GameObject colliderObject = new GameObject(colliderNames[colliderIndex]);
MeshCollider collider = colliderObject.AddComponent <MeshCollider>();
collider.sharedMesh = (Mesh)AssetDatabase.LoadAssetAtPath(modelFilePath, typeof(Mesh));
collider.material = physicMaterials[colliderIndex];
colliderObject.transform.parent = baseObject.transform;
colliderObject.transform.localPosition = Vector3.zero;
colliderObject.transform.localRotation = Quaternion.identity;
}
}
}
}
}
if (track.createPrefabOnExport)
{
string prefabPath = ROOT_FOLDER + track.exportFilename + "/" + track.exportFilename + ".prefab";
Object prefab = AssetDatabase.LoadAssetAtPath(prefabPath, typeof(GameObject));
if (prefab == null)
{
prefab = PrefabUtility.CreateEmptyPrefab(prefabPath);
}
PrefabUtility.ReplacePrefab(baseObject, prefab, ReplacePrefabOptions.ConnectToPrefab);
}
EditorUtility.DisplayCancelableProgressBar(PROGRESSBAR_TEXT, "", 0.70f);
AssetDatabase.Refresh();//ensure the database is up to date...
}
catch (System.Exception e)
{
Debug.LogError("Track BuildR Export Error: " + e);
EditorUtility.ClearProgressBar();
AssetDatabase.Refresh();//ensure the database is up to date...
}
Object.DestroyImmediate(baseObject);
EditorUtility.ClearProgressBar();
EditorUtility.UnloadUnusedAssetsImmediate();
AssetDatabase.Refresh();
}
public float GetTrackPercentage(TrackBuildRPoint point)
{
int index = _points.IndexOf(point);
return(index / (float)numberOfPoints);
}
public void AddPoint(TrackBuildRPoint point)
{
point.baseTransform = baseTransform;
_points.Add(point);
RecalculateCurves();
}
public void InsertPoint(TrackBuildRPoint point, int index)
{
point.baseTransform = baseTransform;
_points.Insert(index, point);
RecalculateCurves();
}
public void AddPoint(TrackBuildRPoint point)
{
point.baseTransform = baseTransform;
_points.Add(point);
RecalculateCurves();
}
public void InsertPoint(TrackBuildRPoint point, int index)
{
point.baseTransform = baseTransform;
_points.Insert(index, point);
RecalculateCurves();
}
public void FromKML(string coordinates)
{
Clear();
string[] coorArray = coordinates.Split(new [] { " " }, StringSplitOptions.RemoveEmptyEntries);
List <Vector3> kmlpoints = new List <Vector3>();
Vector3 xyCenter = new Vector3();
Vector3 lastCoord = Vector3.zero;
int numberOfCoords = coorArray.Length;
for (int i = 0; i < numberOfCoords; i++)
{
string coord = coorArray[i];
if (coord == "")
{
continue;
}
string[] coordEntry = coord.Split(new[] { "," }, StringSplitOptions.RemoveEmptyEntries);
if (coordEntry.Length < 3)
{
continue;
}
float KMLPointX = float.Parse(coordEntry[0]);
float KMLPointY = float.Parse(coordEntry[2]);
float KMLPointZ = float.Parse(coordEntry[1]);
Vector3 newKMLPoint = new Vector3(KMLPointX, KMLPointY, KMLPointZ);
if (Vector3.Distance(newKMLPoint, lastCoord) < 1.0f && lastCoord != Vector3.zero)
{
continue;//skip duplicate point
}
kmlpoints.Add(newKMLPoint);
xyCenter.x += newKMLPoint.x;
xyCenter.z += newKMLPoint.z;
lastCoord = newKMLPoint;
}
int numberOfPoints = kmlpoints.Count;
xyCenter.x *= 1.0f / numberOfPoints;
xyCenter.z *= 1.0f / numberOfPoints;
if (Vector3.Distance(kmlpoints[numberOfPoints - 1], kmlpoints[0]) < 1.0f)
{
kmlpoints.RemoveAt(numberOfPoints - 1);
}
numberOfPoints = kmlpoints.Count;
List <Vector3> eulerpoints = new List <Vector3>();
float dataTrackLength = 0;
Vector3 lastPoint = Vector3.zero;
for (int i = 0; i < numberOfPoints; i++)
{
Vector3 KMLPoint = kmlpoints[i];
Vector3 newEulerPoint = GPSMaths.Simple(xyCenter, KMLPoint);
newEulerPoint.y = KMLPoint.y;
eulerpoints.Add(newEulerPoint);
if (i > 0)
{
dataTrackLength += Vector3.Distance(lastPoint, newEulerPoint);
}
lastPoint = newEulerPoint;
}
if (dataTrackLength > 20000)
{
if (!EditorUtility.DisplayDialog("Really Long Track!", "The Data is creating a track length around " + (dataTrackLength / 1000).ToString("F1") + "km long", "Continue", "Cancel"))
{
return;
}
}
if (dataTrackLength < 1)
{
if (EditorUtility.DisplayDialog("No Track!", "The Data not producing a viable track", "Ok"))
{
return;
}
}
for (int i = 0; i < numberOfPoints; i++)
{
TrackBuildRPoint point = gameObject.AddComponent <TrackBuildRPoint>();
point.baseTransform = baseTransform;
point.position = eulerpoints[i];
point.isDirty = true;
_points.Add(point);
}
for (int i = 0; i < numberOfPoints; i++)
{
TrackBuildRPoint point = _points[i];
Vector3 thisPosition = point.worldPosition;
Vector3 lastPosition = GetPoint(i - 1).worldPosition;
Vector3 nextPosition = GetPoint(i + 1).worldPosition;
Vector3 backwardTrack = thisPosition - lastPosition;
Vector3 forwardTrack = nextPosition - thisPosition;
Vector3 controlDirection = (backwardTrack + forwardTrack).normalized;
float forwardMag = forwardTrack.magnitude;
float backwardMag = backwardTrack.magnitude;
if (forwardMag == 0)
{
forwardMag = backwardMag;
}
if (backwardMag == 0)
{
backwardMag = forwardMag;
}
float controlMagnitude = Mathf.Min(forwardMag, backwardMag) * 0.1666f;
point.forwardControlPoint = (controlDirection * controlMagnitude) + thisPosition;
}
InitTextures();
RecalculateCurves();
}
/// <summary>
/// unfinished!
/// </summary>
/// <param name="track"></param>
/// <param name="selectedPoint"></param>
public static void AddTwist(TrackBuildRTrack track, int selectedPoint)
{
TrackBuildRPoint atPoint = track[selectedPoint];
TrackBuildRPoint lastPoint = track.GetPoint(selectedPoint - 1);
float twistDistance = Mathf.Min((lastPoint.arcLength + atPoint.arcLength) * 0.333f, track.maxJumpLength);
Vector3 twistDirection = atPoint.trackDirection;
// Vector3 twistMiddle = atPoint.worldPosition;
Vector3 twistUp = atPoint.trackUp;
Vector3 twistAxis = Vector3.Cross(twistDirection, twistUp);
float twistRadius = track.twistRadius;
Vector3 twistStartPosition = -twistDirection * (twistDistance * 0.33f);
Vector3 twistEndPosition = twistDirection * (twistDistance * 0.33f);
// Vector3 twistCentreHeight = twistUp * twistRadius;
Quaternion twistAngle = Quaternion.LookRotation(twistDirection, twistUp);
Vector3 twistCenter = atPoint.worldPosition + Vector3.up * twistRadius;
float controlPointLength = twistRadius / (Mathf.PI);
int numberOfPoints = track.twistPoints;
float arcPercent = 1.0f / numberOfPoints;
TrackBuildRPoint[] loopPoints = new TrackBuildRPoint[numberOfPoints+1];
for (int i = 0; i < numberOfPoints; i++)
{
float pointArcPercent = arcPercent * i;
float radA = Mathf.PI * 2 * (pointArcPercent + 0.5f);
Vector3 pointLoopPosition = twistAngle * ((new Vector3(Mathf.Sin(radA), Mathf.Cos(radA), 0)) * twistRadius);
float smoothI = pointArcPercent * pointArcPercent * (3.0f - 2.0f * pointArcPercent);
Vector3 lateral = Vector3.Lerp(twistStartPosition, twistEndPosition, pointArcPercent + (pointArcPercent - smoothI));
Vector3 pointPosition = (pointLoopPosition) + lateral;
Vector3 pointDirection = Vector3.Cross(-pointLoopPosition, twistAxis).normalized;
TrackBuildRPoint newTrackPoint = track.InsertPoint(selectedPoint + 1 + i);
newTrackPoint.worldPosition = twistCenter + pointPosition;
newTrackPoint.trackUpQ = Quaternion.LookRotation(-pointLoopPosition, pointDirection);
newTrackPoint.forwardControlPoint = newTrackPoint.worldPosition + (pointDirection * controlPointLength);
loopPoints[i] = newTrackPoint;
}
atPoint.worldPosition += twistStartPosition;
atPoint.trackUpQ = Quaternion.LookRotation(Vector3.up, atPoint.trackDirection);
atPoint.forwardControlPoint = atPoint.worldPosition + (twistDirection * controlPointLength) - twistAxis;
loopPoints[6] = atPoint;
// _trackBuildR.pointMode = TrackBuildR.pointModes.transform;
for (int i = 0; i < numberOfPoints + 1; i++)
{
loopPoints[i].extrudeTrack = true;
loopPoints[i].extrudeTrackBottom = true;
loopPoints[i].extrudeLength = 0.5f;
loopPoints[i].RecalculateStoredValues();
}
}
/// <summary>
/// Warning - not working correctly - yet...
/// </summary>
/// <param name="track"></param>
/// <param name="terrain"></param>
/// <param name="curve"></param>
public static void MergeTerrain(TrackBuildRTrack track, Terrain terrain, TrackBuildRPoint curve)
{
// ResetTerrain(track, terrain);
TerrainData terrainData = terrain.terrainData;
int terrainWidth = terrainData.heightmapWidth;
int terrainHeight = terrainData.heightmapHeight;
float terrainHeightmapY = terrain.terrainData.heightmapScale.y;
float terrainY = terrain.transform.position.y / terrainHeightmapY;
Vector3 meshScale = terrainData.heightmapScale;
float terrainAccuracy = track.terrainAccuracy;
float terrainMergeMargin = track.terrainMergeMargin;
float[,] originalData = terrainData.GetHeights(0, 0, terrainWidth, terrainHeight);
float[,] mergeData = new float[terrainWidth,terrainHeight];
float[,] modifiedData = new float[terrainWidth,terrainHeight];
int[,] modifiedPointLock = new int[terrainWidth,terrainHeight];
Bounds trackBounds = new Bounds();
if(curve.holder != null)
{
Renderer[] rends = curve.holder.GetComponentsInChildren<Renderer>();
foreach(Renderer rend in rends)
trackBounds.Encapsulate(rend.bounds);
}
Vector3 trackOffset = track.transform.position - terrain.transform.position;
Vector3 trackScale = new Vector3(trackBounds.size.x / terrainData.size.x, 1.0f / terrain.terrainData.size.y, trackBounds.size.z / terrainData.size.z);
float mergeWidth = track.terrainMergeWidth;
AnimationCurve mergeCurve = track.mergeCurve;
float minScaleUnit = Mathf.Min(meshScale.x, meshScale.z);
int storedPointSize = curve.storedPointSize;
for(int p = 0; p < storedPointSize - 1; p++)
{
Vector3 pointA = curve.sampledPoints[p];
Vector3 pointB = curve.sampledPoints[p + 1];
Vector3 crossA = curve.sampledTrackCrosses[p];
Vector3 crossB = curve.sampledTrackCrosses[p + 1];
float widthA = curve.sampledWidths[p] * terrainMergeMargin;
float widthB = curve.sampledWidths[p + 1] * terrainMergeMargin;
// float heightA = (pointA.y - terrainAccuracy) * trackScale.y - terrainY;
// float heightB = (pointB.y - terrainAccuracy) * trackScale.y - terrainY;
Vector3 lpointA = (pointA - crossA * (widthA + mergeWidth));
Vector3 rpointA = (pointA + crossA * (widthA + mergeWidth));
Vector3 lpointB = (pointB - crossB * (widthB + mergeWidth));
Vector3 rpointB = (pointB + crossB * (widthB + mergeWidth));
float crownA = curve.sampledCrowns[p] - terrainAccuracy;
float crownB = curve.sampledCrowns[p + 1] - terrainAccuracy;
float pointDistanceLeft = Vector3.Distance(lpointA, lpointB) * 1.8f;
float pointDistanceRight = Vector3.Distance(rpointA, rpointB) * 1.8f;
float pointDistance = Mathf.Max(pointDistanceLeft, pointDistanceRight);
float pointFillResolution = minScaleUnit / pointDistance * 0.125f;
float heightLA = (lpointA.y + track.transform.position.y - terrainAccuracy) * trackScale.y - terrainY;
float heightRA = (rpointA.y + track.transform.position.y - terrainAccuracy) * trackScale.y - terrainY;
float heightLB = (lpointB.y + track.transform.position.y
- terrainAccuracy) * trackScale.y - terrainY;
float heightRB = (rpointB.y + track.transform.position.y - terrainAccuracy) * trackScale.y - terrainY;
for(float pf = 0; pf < 1; pf += pointFillResolution)//point a to point b
{
//Track Filler
Vector3 fillPoint = Vector3.Lerp(pointA, pointB, pf);
Vector3 fillCross = Vector3.Lerp(crossA, crossB, pf);
float fillWidth = Mathf.Lerp(widthA, widthB, pf);// *1.2f;
float fillCrown = Mathf.Lerp(crownA, crownB, pf);// *1.2f;
float fillTrackHeightL = Mathf.Lerp(heightLA, heightLB, pf);
float fillTrackHeightR = Mathf.Lerp(heightRA, heightRB, pf);
Vector3 leftTrackPoint = fillPoint - fillCross * fillWidth;
Vector3 rightTrackPoint = fillPoint + fillCross * fillWidth;
int leftX = Mathf.RoundToInt(((leftTrackPoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int leftY = Mathf.RoundToInt(((leftTrackPoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
int rightX = Mathf.RoundToInt(((rightTrackPoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int rightY = Mathf.RoundToInt(((rightTrackPoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
int diffX = leftX - rightX;
int diffY = leftY - rightY;
int trackCrossFillAmount = Mathf.Max(Mathf.Abs(diffX), 1) * Mathf.Max(Mathf.Abs(diffY), 1);
for(int f = 0; f < trackCrossFillAmount; f++)//left to right
{
float move = f / (float)trackCrossFillAmount;
int fillX = Mathf.RoundToInt(Mathf.Lerp(leftX, rightX, move));
int fillY = Mathf.RoundToInt(Mathf.Lerp(leftY, rightY, move));
if(fillX < 0 || fillY < 0 || fillX > terrainWidth || fillY > terrainHeight)
continue;
float crownHeight = Mathf.Sin(move * Mathf.PI) * fillCrown / terrainHeightmapY;
float fillTrackHeight = Mathf.Lerp(fillTrackHeightL, fillTrackHeightR, move) + crownHeight;
int currentPointLock = modifiedPointLock[fillY, fillX];
if(currentPointLock == 0 || mergeData[fillY, fillX] > fillTrackHeight)
mergeData[fillY, fillX] = fillTrackHeight;
modifiedPointLock[fillY, fillX] = 1;//point lock
}
//Merge
Vector3 leftMergePoint = leftTrackPoint - fillCross * mergeWidth;
int leftMergeLeftX = Mathf.RoundToInt(((leftMergePoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int leftMergeLeftY = Mathf.RoundToInt(((leftMergePoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
int leftMergeRightX = Mathf.RoundToInt(((leftTrackPoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int leftMergeRightY = Mathf.RoundToInt(((leftTrackPoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
//
int leftMergeDiffX = leftMergeLeftX - leftMergeRightX;
int leftMergeDiffY = leftMergeLeftY - leftMergeRightY;
int leftMergeFillAmount = Mathf.Max(Mathf.Abs(leftMergeDiffX), 1) * Mathf.Max(Mathf.Abs(leftMergeDiffY), 1);// Mathf.Max(Mathf.Abs(leftMergeDiffX), Mathf.Abs(leftMergeDiffY));
for(int f = 0; f < leftMergeFillAmount; f++)
{
float move = f / (float)leftMergeFillAmount;
int fillX = Mathf.RoundToInt(Mathf.Lerp(leftMergeLeftX, leftMergeRightX, move));
int fillY = Mathf.RoundToInt(Mathf.Lerp(leftMergeLeftY, leftMergeRightY, move));
if(fillX < 0 || fillY < 0 || fillX > terrainWidth || fillY > terrainHeight)
continue;
float curveStrength = mergeCurve.Evaluate(move);
float fillTrackHeight = fillTrackHeightL;
float mergeHeight = Mathf.Lerp(originalData[fillY, fillX], fillTrackHeight, curveStrength);
int pointLock = modifiedPointLock[fillY, fillX];
float currentMergeHeight = mergeData[fillY, fillX];
float currentDifference = Mathf.Abs(currentMergeHeight - fillTrackHeight);
float newDifference = Mathf.Abs(mergeHeight - fillTrackHeight);
if(newDifference < currentDifference && pointLock == 0)
{
mergeData[fillY, fillX] = mergeHeight;
}
}
Vector3 rightMergePoint = rightTrackPoint + fillCross * mergeWidth;
int rightMergeLeftX = Mathf.RoundToInt(((rightMergePoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int rightMergeLeftY = Mathf.RoundToInt(((rightMergePoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
int rightMergeRightX = Mathf.RoundToInt(((rightTrackPoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int rightMergeRightY = Mathf.RoundToInt(((rightTrackPoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
//
int rightMergeDiffX = rightMergeLeftX - rightMergeRightX;
int rightMergeDiffY = rightMergeLeftY - rightMergeRightY;
int rightMergeFillAmount = Mathf.Max(Mathf.Abs(rightMergeDiffX), 1) * Mathf.Max(Mathf.Abs(rightMergeDiffY), 1);// Mathf.Max(Mathf.Abs(leftMergeDiffX), Mathf.Abs(leftMergeDiffY));
for(int f = 0; f < rightMergeFillAmount; f++)
{
float move = f / (float)rightMergeFillAmount;
int fillX = Mathf.RoundToInt(Mathf.Lerp(rightMergeLeftX, rightMergeRightX, move));
int fillY = Mathf.RoundToInt(Mathf.Lerp(rightMergeLeftY, rightMergeRightY, move));
if(fillX < 0 || fillY < 0 || fillX > terrainWidth || fillY > terrainHeight)
continue;
float curveStrength = mergeCurve.Evaluate(move);
float fillTrackHeight = fillTrackHeightR;
float mergeHeight = Mathf.Lerp(originalData[fillY, fillX], fillTrackHeight, curveStrength);
int pointLock = modifiedPointLock[fillY, fillX];
float currentMergeHeight = mergeData[fillY, fillX];
float currentDifference = Mathf.Abs(currentMergeHeight - fillTrackHeight);
float newDifference = Mathf.Abs(mergeHeight - fillTrackHeight);
if(newDifference < currentDifference && pointLock == 0)
{
mergeData[fillY, fillX] = mergeHeight;
}
}
}
}
for(int x = 0; x < terrainWidth; x++)
{
for(int y = 0; y < terrainHeight; y++)
{
bool isNotEdge = x > 0 && x < terrainWidth - 1 && y > 0 && y < terrainHeight - 1;
if(mergeData[x, y] == 0)
{
int mergeNeighbours = 0;
if(isNotEdge)
{
mergeNeighbours += (mergeData[x + 1, y] != 0) ? 1 : 0;
mergeNeighbours += (mergeData[x - 1, y] != 0) ? 1 : 0;
mergeNeighbours += (mergeData[x, y + 1] != 0) ? 1 : 0;
mergeNeighbours += (mergeData[x, y - 1] != 0) ? 1 : 0;
}
if(mergeNeighbours > 1)//if a hole is surounded by rasied terrain in two or more neighbouring places
{
float mergeHeight = 0;
mergeHeight += (mergeData[x + 1, y] != 0) ? mergeData[x + 1, y] : 0;
mergeHeight += (mergeData[x - 1, y] != 0) ? mergeData[x - 1, y] : 0;
mergeHeight += (mergeData[x, y + 1] != 0) ? mergeData[x, y + 1] : 0;
mergeHeight += (mergeData[x, y - 1] != 0) ? mergeData[x, y - 1] : 0;
modifiedData[x, y] = mergeHeight / mergeNeighbours;//clean up holes
}
else
{
modifiedData[x, y] = originalData[x, y];//use original
}
}
else
{
modifiedData[x, y] = mergeData[x, y];
}
terrainData.SetHeights(0, 0, modifiedData);
terrain.terrainData = terrainData;
}
}
}
public void RemovePoint(TrackBuildRPoint point)
{
if(_points.Count < 3)
{
Debug.Log("We can't see any point in allowing you to delete any more points so we're not going to do it.");
return;
}
#if UNITY_EDITOR
Undo.IncrementCurrentGroup();
_points.Remove(point);
Undo.DestroyObjectImmediate(point.holder);
Undo.DestroyObjectImmediate(point);
Undo.CollapseUndoOperations(Undo.GetCurrentGroup());
#else
_points.Remove(point);
#endif
RecalculateCurves();
}
public float GetTrackPercentage(TrackBuildRPoint point)
{
int index = _points.IndexOf(point);
return index / (float)numberOfPoints;
}
public void RecalculateCurves()
{
if (_points.Count < 2)//there is no track with only one point :o)
{
return;
}
if (isDirty)
{
_tangentsGenerated = false;
_lightmapGenerated = false;
_optimised = false;
}
//calculate approx bezier arc length per curve
for (int i = 0; i < realNumberOfPoints; i++)
{
TrackBuildRPoint pointA = GetPoint(i);
TrackBuildRPoint pointB = GetPoint(i + 1);
float thisArcLength = 0;
thisArcLength += Vector3.Distance(pointA.position, pointA.forwardControlPoint);
thisArcLength += Vector3.Distance(pointA.forwardControlPoint, pointB.backwardControlPoint);
thisArcLength += Vector3.Distance(pointB.backwardControlPoint, pointB.position);
_points[i].arcLength = thisArcLength;
if (thisArcLength == 0)
{
DestroyImmediate(pointA);
i--;
}
}
for (int i = 0; i < realNumberOfPoints; i++)
{
TrackBuildRPoint pointA = GetPoint(i);
TrackBuildRPoint pointB = GetPoint(i + 1);
TrackBuildRPoint pointC = GetPoint(i - 1);
pointA.nextPoint = pointB;
pointA.lastPoint = pointC;
pointA.pointName = "point " + i;
}
foreach (TrackBuildRPoint curve in _points)
{
if (!curve.curveIsDirty)//only recalculate modified points
{
continue;
}
if (curve.arcLength > 0)
{
TrackBuildRPoint pointA = curve;
TrackBuildRPoint pointB = curve.nextPoint;
//Build accurate arc length data into curve
curve.center = Vector3.zero;
int arcLengthResolution = Mathf.Max(Mathf.RoundToInt(curve.arcLength * 10), 1);
float alTime = 1.0f / arcLengthResolution;
float calculatedTotalArcLength = 0;
curve.storedArcLengthsFull = new float[arcLengthResolution];
curve.storedArcLengthsFull[0] = 0.0f;
Vector3 pA = curve.position;
for (int i = 0; i < arcLengthResolution - 1; i++)
{
curve.center += pA;
float altB = alTime * (i + 1) + alTime;
Vector3 pB = SplineMaths.CalculateBezierPoint(altB, curve.position, curve.forwardControlPoint, pointB.backwardControlPoint, pointB.position);
float arcLength = Vector3.Distance(pA, pB);
calculatedTotalArcLength += arcLength;
curve.storedArcLengthsFull[i + 1] = calculatedTotalArcLength;
pA = pB;//switch over values so we only calculate the bezier once
}
curve.arcLength = calculatedTotalArcLength;
curve.center /= arcLengthResolution;
int storedPointSize = Mathf.RoundToInt(calculatedTotalArcLength / meshResolution);
curve.storedPointSize = storedPointSize;
curve.normalisedT = new float[storedPointSize];
curve.targetSize = new float[storedPointSize];
curve.midPointPerc = new float[storedPointSize];
curve.prevNormIndex = new int[storedPointSize];
curve.nextNormIndex = new int[storedPointSize];
curve.clipArrayLeft = new bool[storedPointSize];
curve.clipArrayRight = new bool[storedPointSize];
//calculate normalised spline data
int normalisedIndex = 0;
curve.normalisedT[0] = 0;
for (int p = 1; p < storedPointSize; p++)
{
float t = p / (float)(storedPointSize - 1);
float targetLength = t * calculatedTotalArcLength;
curve.targetSize[p] = targetLength;
int it = 1000;
while (targetLength > curve.storedArcLengthsFull[normalisedIndex])
{
normalisedIndex++;
it--;
if (it < 0)
{
curve.normalisedT[p] = 0;
break;
}
}
normalisedIndex = Mathf.Min(normalisedIndex, arcLengthResolution);//ensure we've not exceeded the length
int prevNormIndex = Mathf.Max((normalisedIndex - 1), 0);
int nextNormIndex = normalisedIndex;
float lengthBefore = curve.storedArcLengthsFull[prevNormIndex];
float lengthAfter = curve.storedArcLengthsFull[nextNormIndex];
float midPointPercentage = (targetLength - lengthBefore) / (lengthAfter - lengthBefore);
curve.midPointPerc[p] = midPointPercentage;
curve.prevNormIndex[p] = prevNormIndex;
curve.nextNormIndex[p] = nextNormIndex;
float normalisedT = (normalisedIndex + midPointPercentage) / arcLengthResolution;//lerp between the values to get the exact normal T
curve.normalisedT[p] = normalisedT;
}
curve.sampledPoints = new Vector3[storedPointSize];
curve.sampledLeftBoundaryPoints = new Vector3[storedPointSize];
curve.sampledRightBoundaryPoints = new Vector3[storedPointSize];
curve.sampledWidths = new float[storedPointSize];
curve.sampledCrowns = new float[storedPointSize];
curve.sampledTrackDirections = new Vector3[storedPointSize];
curve.sampledTrackUps = new Vector3[storedPointSize];
curve.sampledTrackCrosses = new Vector3[storedPointSize];
curve.sampledAngles = new float[storedPointSize];
for (int p = 0; p < storedPointSize; p++)
{
float tN = curve.normalisedT[p];
float tH = SplineMaths.CalculateHermite(tN);
curve.sampledPoints[p] = SplineMaths.CalculateBezierPoint(tN, pointA.position, pointA.forwardControlPoint, pointB.backwardControlPoint, pointB.position);
curve.sampledLeftBoundaryPoints[p] = SplineMaths.CalculateBezierPoint(tN, pointA.leftTrackBoundary, pointA.leftForwardControlPoint, pointB.leftBackwardControlPoint, pointB.leftTrackBoundary);
curve.sampledRightBoundaryPoints[p] = SplineMaths.CalculateBezierPoint(tN, pointA.rightTrackBoundary, pointA.rightForwardControlPoint, pointB.rightBackwardControlPoint, pointB.rightTrackBoundary);
curve.sampledWidths[p] = Mathf.LerpAngle(pointA.width, pointB.width, tH);
curve.sampledCrowns[p] = Mathf.LerpAngle(pointA.crownAngle, pointB.crownAngle, tH);
curve.sampledTrackUps[p] = Quaternion.Slerp(pointA.trackUpQ, pointB.trackUpQ, tH) * Vector3.forward;
curve.clipArrayLeft[p] = true;
curve.clipArrayRight[p] = true;
}
}
}
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = _points[i];
if (!curve.curveIsDirty)//only recalculate modified points
{
continue;
}
if (curve.arcLength > 0)
{
int lastCurveIndex = (i > 0) ? i - 1 : (_looped) ? numberOfCurves - 1 : 0;
int nextCurveIndex = (i < numberOfCurves - 1) ? i + 1 : (_looped) ? 0 : numberOfCurves - 1;
TrackBuildRPoint lastcurve = _points[lastCurveIndex];
TrackBuildRPoint nextcurve = _points[nextCurveIndex];
int storedPointSize = curve.storedPointSize;
for (int p = 0; p < storedPointSize; p++)
{
int pA = p - 1;
int pB = p;
int pC = p + 1;
if (pA < 0)
{
pA = 0;
}
if (pC >= storedPointSize)
{
pC = storedPointSize - 1;
}
Vector3 sampledPointA = curve.sampledPoints[pA];
Vector3 sampledPointB = curve.sampledPoints[pB];
Vector3 sampledPointC = curve.sampledPoints[pC];
if (p == 0 && lastcurve != null && lastcurve.sampledPoints.Length > 1)
{
sampledPointA = lastcurve.sampledPoints[lastcurve.storedPointSize - 2];//retrieve the penultimate point from the last curve
}
if (p == storedPointSize - 1 && nextcurve != null && nextcurve.sampledPoints.Length > 1)
{
sampledPointC = nextcurve.sampledPoints[1];//retrieve the second point from the next curve
}
Vector3 sampledTrackDirectionA = (sampledPointB - sampledPointA);
Vector3 sampledTrackDirectionB = (sampledPointC - sampledPointB);
Vector3 sampledTrackDirection = (sampledTrackDirectionA + sampledTrackDirectionB).normalized;
curve.sampledTrackDirections[pB] = sampledTrackDirection;
curve.sampledTrackCrosses[pB] = Vector3.Cross(curve.sampledTrackUps[pB], sampledTrackDirection);
curve.sampledAngles[pB] = Vector3.Angle(sampledTrackDirectionA, sampledTrackDirectionB) * -Mathf.Sign(Vector3.Dot((sampledTrackDirectionB - sampledTrackDirectionA), curve.sampledTrackCrosses[pB]));
curve.clipArrayLeft[pB] = true;
curve.clipArrayRight[pB] = true;
}
}
}
bool dirtyTextures = false;
foreach (TrackBuildRTexture texture in _textures)
{
if (texture.isDirty)
{
dirtyTextures = true;//if nextNormIndex point was dirty, ensure it's rerendered
}
texture.isDirty = false;
}
foreach (TrackBuildRPoint point in _points)
{
if (point.curveIsDirty || dirtyTextures)
{
point.shouldReRender = true;//if nextNormIndex point was dirty, ensure it's rerendered
}
}
//clean points
foreach (TrackBuildRPoint point in _points)
{
point.isDirty = false;//reset all points - data is no longer considered dirty
}
//recalculate track length
_trackLength = 0;
foreach (TrackBuildRPoint curve in _points)
{
_trackLength += curve.arcLength;
}
}
void OnSceneGUI()
{
if (_track.drawMode)
{
DrawTrack();
return;
}
if (SceneView.focusedWindow != null)
{
SceneView.focusedWindow.wantsMouseMove = false;
}
Vector3 position = _trackBuildR.transform.position;
Camera sceneCamera = Camera.current;
_handleSize = HandleUtility.GetHandleSize(_trackBuildR.transform.position) * 0.1f;
int realNumberOfPoints = _track.realNumberOfPoints;
Ray mouseRay = Camera.current.ScreenPointToRay(new Vector3(Event.current.mousePosition.x, Screen.height - Event.current.mousePosition.y - 30, 0));
Quaternion mouseLookDirection = Quaternion.LookRotation(-mouseRay.direction);
int numberOfCurves = _track.numberOfCurves;
switch (_trackBuildR.mode)
{
case TrackBuildR.modes.track:
Handles.color = TrackBuildRColours.GREEN;
switch (_trackBuildR.pointMode)
{
case TrackBuildR.pointModes.add:
if (SceneView.focusedWindow != null)
{
SceneView.focusedWindow.wantsMouseMove = true;
}
if (Event.current.type == EventType.MouseMove)
{
Repaint();
}
Handles.color = TrackBuildRColours.GREY;
for (int i = 0; i < _track.realNumberOfPoints; i++)
{
Vector3 pointPos = _track[i].worldPosition;
float handleSize = HandleUtility.GetHandleSize(pointPos);
Handles.DotCap(0, pointPos, Quaternion.identity, handleSize * 0.05f);
}
Handles.color = TrackBuildRColours.GREEN;
float mousePercentage = NearestmMousePercentage(); // _track.GetNearestPoint(mousePlanePoint);
Vector3 mouseTrackPoint = _track.GetTrackPosition(mousePercentage) + position;
Handles.Label(mouseTrackPoint, "Add New Track Point");
float newPointHandleSize = HandleUtility.GetHandleSize(mouseTrackPoint) * HANDLE_SCALE;
if (Handles.Button(mouseTrackPoint, mouseLookDirection, newPointHandleSize, newPointHandleSize, Handles.DotCap))
{
int newPointIndex = _track.GetLastPointIndex(mousePercentage);
TrackBuildRPoint newPoint = _track.InsertPoint(newPointIndex + 1);
newPoint.worldPosition = mouseTrackPoint;
newPoint.width = _track.GetTrackWidth(mousePercentage);
newPoint.crownAngle = _track.GetTrackCrownAngle(mousePercentage);
selectedPoint = newPointIndex + 1;
GUI.changed = true;
_trackBuildR.pointMode = TrackBuildR.pointModes.transform;
}
break;
case TrackBuildR.pointModes.remove:
if (SceneView.focusedWindow != null)
{
SceneView.focusedWindow.wantsMouseMove = true;
}
Handles.color = TrackBuildRColours.RED;
for (int i = 0; i < realNumberOfPoints; i++)
{
TrackBuildRPoint point = _track[i];
float pointHandleSize = HandleUtility.GetHandleSize(point.worldPosition) * HANDLE_SCALE;
Handles.Label(point.worldPosition, "Remove Track Point");
if (Handles.Button(point.worldPosition, mouseLookDirection, pointHandleSize, pointHandleSize, Handles.DotCap))
{
_track.RemovePoint(point);
GUI.changed = true;
_trackBuildR.pointMode = TrackBuildR.pointModes.transform;
}
}
break;
default:
SceneGUIPointBased();
break;
}
//draw track outline
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = _track[i];
if (curve == null)
{
continue;
}
int curvePoints = curve.storedPointSize;
float dotPA = Vector3.Dot(sceneCamera.transform.forward, curve.worldPosition - sceneCamera.transform.position);
float dotPB = Vector3.Dot(sceneCamera.transform.forward, curve.nextPoint.worldPosition - sceneCamera.transform.position);
if (dotPA < 0 && dotPB < 0)
{
continue;
}
float curveDistance = Vector3.Distance(sceneCamera.transform.position, curve.center);
int pointJump = Mathf.Max((int)(curveDistance / 20.0f), 1);
Color trackOutline = curve.render ? TrackBuildRColours.GREEN : TrackBuildRColours.RED;
Color trackOutlineA = trackOutline;
trackOutlineA.a = 0.5f;
for (int p = pointJump; p < curvePoints; p += pointJump)
{
int indexA = p - pointJump;
int indexB = p;
if (p + pointJump > curvePoints - 1)
{
indexB = curvePoints - 1;
}
Handles.color = trackOutlineA;
Handles.DrawLine(curve.sampledPoints[indexA] + position, curve.sampledPoints[indexB] + position);
Handles.color = trackOutline;
Vector3 trackCrossWidth = curve.sampledTrackCrosses[indexA] * (curve.sampledWidths[indexA] * 0.5f);
Handles.DrawLine(curve.sampledPoints[indexA] + trackCrossWidth + position, curve.sampledPoints[indexB] + trackCrossWidth + position);
Handles.DrawLine(curve.sampledPoints[indexA] - trackCrossWidth + position, curve.sampledPoints[indexB] - trackCrossWidth + position);
}
}
break;
case TrackBuildR.modes.boundary:
//draw boundary outline
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = _track[i];
int curvePoints = curve.storedPointSize;
float dotPA = Vector3.Dot(sceneCamera.transform.forward, curve.worldPosition - sceneCamera.transform.position);
float dotPB = Vector3.Dot(sceneCamera.transform.forward, curve.nextPoint.worldPosition - sceneCamera.transform.position);
if (dotPA < 0 && dotPB < 0)
{
continue;
}
float curveDistance = Vector3.Distance(sceneCamera.transform.position, curve.center);
int pointJump = Mathf.Max((int)(curveDistance / 20.0f), 1);
for (int p = pointJump; p < curvePoints; p += pointJump)
{
int indexA = p - pointJump;
int indexB = p;
if (p + pointJump > curvePoints - 1)
{
indexB = curvePoints - 1;
}
if (_track.disconnectBoundary)
{
Handles.color = TrackBuildRColours.BLUE;
Handles.DrawLine(curve.sampledLeftBoundaryPoints[indexA] + position, curve.sampledLeftBoundaryPoints[indexB] + position);
Handles.color = TrackBuildRColours.RED;
Handles.DrawLine(curve.sampledRightBoundaryPoints[indexA] + position, curve.sampledRightBoundaryPoints[indexB] + position);
}
else
{
Vector3 trackCrossWidth = curve.sampledTrackCrosses[indexA] * (curve.sampledWidths[indexA] * 0.5f);
Handles.color = TrackBuildRColours.BLUE;
Handles.DrawLine(curve.sampledPoints[indexA] + trackCrossWidth + position, curve.sampledPoints[indexB] + trackCrossWidth + position);
Handles.color = TrackBuildRColours.RED;
Handles.DrawLine(curve.sampledPoints[indexA] - trackCrossWidth + position, curve.sampledPoints[indexB] - trackCrossWidth + position);
}
}
}
SceneGUIPointBased();
break;
case TrackBuildR.modes.textures:
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint thisCurve = _track[i];
float pointHandleSize = HandleUtility.GetHandleSize(thisCurve.center) * HANDLE_SCALE;
Handles.color = (i == selectedCurveIndex) ? TrackBuildRColours.RED : TrackBuildRColours.BLUE;
if (Handles.Button(thisCurve.center, Quaternion.identity, pointHandleSize, pointHandleSize, Handles.DotCap))
{
selectedCurveIndex = i;
GUIUtility.hotControl = 0;
GUIUtility.keyboardControl = 0;
GUI.changed = true;
}
}
Handles.color = TrackBuildRColours.RED;
TrackBuildRPoint selectedCurve = _track[selectedCurveIndex];
int numberOfSelectedCurvePoints = selectedCurve.storedPointSize;
for (int i = 0; i < numberOfSelectedCurvePoints - 1; i++)
{
Vector3 leftPointA = selectedCurve.sampledLeftBoundaryPoints[i];
Vector3 leftPointB = selectedCurve.sampledLeftBoundaryPoints[i + 1];
Vector3 rightPointA = selectedCurve.sampledRightBoundaryPoints[i];
Vector3 rightPointB = selectedCurve.sampledRightBoundaryPoints[i + 1];
Handles.DrawLine(leftPointA, leftPointB);
Handles.DrawLine(rightPointA, rightPointB);
if (i == 0)
{
Handles.DrawLine(leftPointA, rightPointA);
}
if (i == numberOfSelectedCurvePoints - 2)
{
Handles.DrawLine(leftPointB, rightPointB);
}
}
break;
case TrackBuildR.modes.terrain:
//nothing
break;
case TrackBuildR.modes.stunt:
SceneGUIPointBased();
TrackBuildRPoint atPoint = _track[selectedPoint];
TrackBuildRPoint lastPoint = _track.GetPoint(selectedPoint - 1);
TrackBuildRPoint nextPoint = _track.GetPoint(selectedPoint + 1);
float trackWidth;
Vector3 startCross;
Vector3 p0, p1, p2, p3, p4, p5, p6, p7;
switch (_trackBuildR.stuntMode)
{
case TrackBuildR.stuntModes.loop:
atPoint = _track[selectedPoint];
trackWidth = atPoint.width;
float loopRadius = _track.loopRadius;
Vector3 loopPosition = atPoint.worldPosition;
Vector3 trackDirection = atPoint.trackDirection.normalized;
Vector3 trackup = atPoint.trackUpQ * Vector3.forward;
Vector3 trackCross = atPoint.trackCross;
Vector3 loopCentreHeight = loopRadius * trackup;
Quaternion loopAngle = Quaternion.FromToRotation(Vector3.right, trackDirection);
for (float i = 0; i < 0.99f; i += 0.01f)
{
float radA = Mathf.PI * 2 * (i + 0.5f);
float radB = Mathf.PI * 2 * (i + 0.51f);
Vector3 pointLoopPositionA = loopAngle * ((new Vector3(Mathf.Sin(radA), Mathf.Cos(radA), 0)) * loopRadius);
Vector3 pointLoopPositionB = loopAngle * ((new Vector3(Mathf.Sin(radB), Mathf.Cos(radB), 0)) * loopRadius);
Vector3 lateral = Vector3.Lerp((trackCross * trackWidth * -0.6f), (trackCross * trackWidth * 0.6f), i);
Vector3 pointPositionA = (pointLoopPositionA) + lateral + loopPosition + loopCentreHeight;
Vector3 pointPositionB = (pointLoopPositionB) + lateral + loopPosition + loopCentreHeight;
Handles.DrawLine(pointPositionA, pointPositionB);
}
break;
case TrackBuildR.stuntModes.jump:
atPoint = _track[selectedPoint];
lastPoint = _track.GetPoint(selectedPoint - 1);
nextPoint = _track.GetPoint(selectedPoint + 1);
float trackPartDistance = lastPoint.arcLength + atPoint.arcLength;
float jumpDistance = Mathf.Min(trackPartDistance * 0.333f, _track.maxJumpLength);
Vector3 jumpDirection = atPoint.trackDirection;
Vector3 jumpMiddle = atPoint.worldPosition;
startCross = atPoint.trackCross;
trackWidth = atPoint.width * 0.5f;
Quaternion trackUp = atPoint.trackUpQ;
Vector3 jumpHeight = trackUp * (Vector3.forward * _track.jumpHeight);
Vector3 jumpStartPosition = jumpMiddle - jumpDirection * (jumpDistance * 0.33f);
Vector3 jumpEndPosition = jumpMiddle + jumpDirection * (jumpDistance * 0.33f);
p0 = lastPoint.worldPosition + trackWidth * startCross;
p1 = lastPoint.worldPosition - trackWidth * startCross;
p2 = jumpStartPosition + trackWidth * startCross + jumpHeight;
p3 = jumpStartPosition - trackWidth * startCross + jumpHeight;
p4 = jumpEndPosition + trackWidth * startCross + jumpHeight;
p5 = jumpEndPosition - trackWidth * startCross + jumpHeight;
p6 = nextPoint.worldPosition + trackWidth * startCross;
p7 = nextPoint.worldPosition - trackWidth * startCross;
Handles.DrawLine(p0, p2);
Handles.DrawLine(p1, p3);
Handles.DrawLine(p0, p1);
Handles.DrawLine(p2, p3);
Handles.DrawLine(p2, p2 - jumpHeight);
Handles.DrawLine(p3, p3 - jumpHeight);
Handles.DrawLine(p0, p2 - jumpHeight);
Handles.DrawLine(p1, p3 - jumpHeight);
Handles.DrawLine(p4, p6);
Handles.DrawLine(p5, p7);
Handles.DrawLine(p4, p5);
Handles.DrawLine(p6, p7);
Handles.DrawLine(p4, p4 - jumpHeight);
Handles.DrawLine(p5, p5 - jumpHeight);
Handles.DrawLine(p6, p4 - jumpHeight);
Handles.DrawLine(p7, p5 - jumpHeight);
break;
// case TrackBuildR.stuntModes.twist:
//
// atPoint = _track[selectedPoint];
// lastPoint = _track.GetPoint(selectedPoint - 1);
//
// float twistDistance = Mathf.Min((lastPoint.arcLength + atPoint.arcLength) * 0.333f, _track.maxJumpLength);
//
// Vector3 twistDirection = atPoint.trackDirection;
// Vector3 twistMiddle = atPoint.worldPosition;
// Vector3 twistUp = atPoint.trackUp;
// float twistRadius = _track.twistRadius;
// Vector3 twistStartPosition = twistMiddle - twistDirection * (twistDistance * 0.33f);
// Vector3 twistEndPosition = twistMiddle + twistDirection * (twistDistance * 0.33f);
// Vector3 twistCentreHeight = twistUp * twistRadius;
// Quaternion twistAngle = Quaternion.LookRotation(twistDirection, twistUp);
// for(float i = 0; i < 0.99f; i += 0.01f )
// {
// float radA = Mathf.PI * 2 * (i+0.5f);
// float radB = Mathf.PI * 2 * (i+0.51f);
// Vector3 pointLoopPositionA = twistAngle * ((new Vector3(Mathf.Sin(radA), Mathf.Cos(radA), 0)) * twistRadius);
// Vector3 pointLoopPositionB = twistAngle * ((new Vector3(Mathf.Sin(radB), Mathf.Cos(radB), 0)) * twistRadius);
// float smoothI = i * i * (3.0f - 2.0f * i);
// Vector3 lateral = Vector3.Lerp(twistStartPosition, twistEndPosition, i + (i-smoothI));
// Vector3 pointPositionA = (pointLoopPositionA) + lateral + twistCentreHeight;
// Vector3 pointPositionB = (pointLoopPositionB) + lateral + twistCentreHeight;
// Handles.DrawLine(pointPositionA, pointPositionB);
// }
//
// break;
case TrackBuildR.stuntModes.jumptwist:
atPoint = _track[selectedPoint];
lastPoint = _track.GetPoint(selectedPoint - 1);
nextPoint = _track.GetPoint(selectedPoint + 1);
float trackTPartDistance = lastPoint.arcLength + atPoint.arcLength;
float jumpTDistance = Mathf.Min(trackTPartDistance * 0.333f, _track.maxJumpLength);
trackWidth = atPoint.width * 0.5f;
startCross = atPoint.trackCross;
Vector3 jumpTDirection = atPoint.trackDirection;
Vector3 jumpTMiddle = atPoint.worldPosition;
Quaternion atPointUpQ = atPoint.trackUpQ;
Quaternion trackUpJump = Quaternion.AngleAxis(_track.twistAngle, -jumpTDirection);
Vector3 trackCrossExit = trackUpJump * startCross;
Vector3 trackCrossEntry = Quaternion.Inverse(trackUpJump) * startCross;
Vector3 jumpLateral = startCross * _track.twistAngle / 33.3f;
Vector3 jumpTHeight = atPointUpQ * (Vector3.forward * _track.jumpHeight);
Vector3 jumpTStartPosition = jumpTMiddle - jumpTDirection * (jumpTDistance * 0.33f) + jumpTHeight - jumpLateral;
Vector3 jumpTEndPosition = jumpTMiddle + jumpTDirection * (jumpTDistance * 0.33f) + jumpTHeight + jumpLateral;
p0 = lastPoint.worldPosition + trackWidth * startCross;
p1 = lastPoint.worldPosition - trackWidth * startCross;
p2 = jumpTStartPosition + trackWidth * trackCrossExit;
p3 = jumpTStartPosition - trackWidth * trackCrossExit;
p4 = jumpTEndPosition + trackWidth * trackCrossEntry;
p5 = jumpTEndPosition - trackWidth * trackCrossEntry;
p6 = nextPoint.worldPosition + trackWidth * startCross;
p7 = nextPoint.worldPosition - trackWidth * startCross;
Handles.DrawLine(p0, p2);
Handles.DrawLine(p1, p3);
Handles.DrawLine(p0, p1);
Handles.DrawLine(p2, p3);
// Handles.DrawLine(p2, p2 - jumpTHeight);
// Handles.DrawLine(p3, p3 - jumpTHeight);
// Handles.DrawLine(p0, p2 - jumpTHeight);
// Handles.DrawLine(p1, p3 - jumpTHeight);
Handles.DrawLine(p4, p6);
Handles.DrawLine(p5, p7);
Handles.DrawLine(p4, p5);
Handles.DrawLine(p6, p7);
// Handles.DrawLine(p4, p4 - jumpTHeight);
// Handles.DrawLine(p5, p5 - jumpTHeight);
// Handles.DrawLine(p6, p4 - jumpTHeight);
// Handles.DrawLine(p7, p5 - jumpTHeight);
break;
}
break;
case TrackBuildR.modes.diagram:
if (SceneView.focusedWindow != null)
{
SceneView.focusedWindow.wantsMouseMove = true;
}
if (!_track.showDiagram)
{
break;
}
Plane diagramPlane = new Plane(Vector3.up, position);
float diagramDistance;
float crossSize = _handleSize * 10;
switch (_trackBuildR.track.assignedPoints)
{
case 0: //display the diagram scale points
Vector3 diagramPointA = _track.scalePointA;
Vector3 diagramPointB = _track.scalePointB;
if (diagramPointA != Vector3.zero || diagramPointB != Vector3.zero)
{
Handles.color = TrackBuildRColours.BLUE;
Handles.DrawLine(diagramPointA, diagramPointA + Vector3.left * crossSize);
Handles.DrawLine(diagramPointA, diagramPointA + Vector3.right * crossSize);
Handles.DrawLine(diagramPointA, diagramPointA + Vector3.forward * crossSize);
Handles.DrawLine(diagramPointA, diagramPointA + Vector3.back * crossSize);
Handles.color = TrackBuildRColours.GREEN;
Handles.DrawLine(diagramPointB, diagramPointB + Vector3.left * crossSize);
Handles.DrawLine(diagramPointB, diagramPointB + Vector3.right * crossSize);
Handles.DrawLine(diagramPointB, diagramPointB + Vector3.forward * crossSize);
Handles.DrawLine(diagramPointB, diagramPointB + Vector3.back * crossSize);
Handles.color = TrackBuildRColours.RED;
Handles.DrawLine(diagramPointA, diagramPointB);
}
break;
case 1: //place the first of two scale points to define the diagram scale size
Ray diagramRay = Camera.current.ScreenPointToRay(new Vector3(Event.current.mousePosition.x, Screen.height - Event.current.mousePosition.y - 30, 0));
if (diagramPlane.Raycast(diagramRay, out diagramDistance))
{
Vector3 diagramPlanePoint = diagramRay.GetPoint(diagramDistance);
Handles.color = TrackBuildRColours.BLUE;
Handles.DrawLine(diagramPlanePoint, diagramPlanePoint + Vector3.left * crossSize);
Handles.DrawLine(diagramPlanePoint, diagramPlanePoint + Vector3.right * crossSize);
Handles.DrawLine(diagramPlanePoint, diagramPlanePoint + Vector3.forward * crossSize);
Handles.DrawLine(diagramPlanePoint, diagramPlanePoint + Vector3.back * crossSize);
Handles.color = new Color(0, 0, 0, 0);
if (Handles.Button(diagramPlanePoint, Quaternion.identity, crossSize, crossSize, Handles.DotCap))
{
_track.scalePointA = diagramPlanePoint;
_track.assignedPoints = 2;
}
}
break;
case 2: //place the second of two scale points to define the diagram scale
Vector3 diagramPoint1 = _track.scalePointA;
Handles.color = TrackBuildRColours.BLUE;
Handles.DrawLine(diagramPoint1, diagramPoint1 + Vector3.left * crossSize);
Handles.DrawLine(diagramPoint1, diagramPoint1 + Vector3.right * crossSize);
Handles.DrawLine(diagramPoint1, diagramPoint1 + Vector3.forward * crossSize);
Handles.DrawLine(diagramPoint1, diagramPoint1 + Vector3.back * crossSize);
Ray diagramRayB = Camera.current.ScreenPointToRay(new Vector3(Event.current.mousePosition.x, Screen.height - Event.current.mousePosition.y - 30, 0));
if (diagramPlane.Raycast(diagramRayB, out diagramDistance))
{
Vector3 diagramPlanePoint = diagramRayB.GetPoint(diagramDistance);
Handles.color = TrackBuildRColours.RED;
Handles.DrawLine(diagramPlanePoint, diagramPoint1);
Handles.color = TrackBuildRColours.GREEN;
Handles.DrawLine(diagramPlanePoint, diagramPlanePoint + Vector3.left * crossSize);
Handles.DrawLine(diagramPlanePoint, diagramPlanePoint + Vector3.right * crossSize);
Handles.DrawLine(diagramPlanePoint, diagramPlanePoint + Vector3.forward * crossSize);
Handles.DrawLine(diagramPlanePoint, diagramPlanePoint + Vector3.back * crossSize);
Handles.color = new Color(0, 0, 0, 0);
if (Handles.Button(diagramPlanePoint, Quaternion.identity, crossSize, crossSize, Handles.DotCap))
{
_track.scalePointB = diagramPlanePoint;
_track.assignedPoints = 0;
//wUpdateDiagram();
}
}
break;
}
break;
}
if (Event.current.type == EventType.ValidateCommand)
{
switch (Event.current.commandName)
{
case "UndoRedoPerformed":
// Debug.Log("UndoRedoPerformed");
_trackBuildR.ForceFullRecalculation();
GUI.changed = true;
return;
}
}
if (GUI.changed)
{
UpdateGui();
}
}
public void UpdateRender()
{
if (track.numberOfCurves == 0)
{
return;
}
track.RecalculateCurves();
float trackMeshRes = track.meshResolution;
float bumperDistanceA = 0;
float bumperDistanceB = 0;
int numberOfCurves = track.numberOfCurves;
bool renderTrack = track.render;
float UVOffset = 0;
int polyCount = 0;
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = track[i];
DynamicMeshGenericMultiMaterialMesh dynamicTrackMesh = curve.dynamicTrackMesh;
DynamicMeshGenericMultiMaterialMesh dynamicBoundaryMesh = curve.dynamicBoundaryMesh;
DynamicMeshGenericMultiMaterialMesh dynamicOffroadMesh = curve.dynamicOffroadMesh;
DynamicMeshGenericMultiMaterialMesh dynamicBumperMesh = curve.dynamicBumperMesh;
DynamicMeshGenericMultiMaterialMesh dynamicColliderMesh = curve.dynamicColliderMesh;
DynamicMeshGenericMultiMaterialMesh dynamicBottomMesh = curve.dynamicBottomMesh;
if (!curve.render || !renderTrack)
{
dynamicTrackMesh.Clear();
dynamicBoundaryMesh.Clear();
dynamicColliderMesh.Clear();
dynamicOffroadMesh.Clear();
dynamicBumperMesh.Clear();
dynamicBottomMesh.Clear();
}
if (curve.shouldReRender && curve.render && renderTrack)
{
dynamicTrackMesh.Clear();
dynamicTrackMesh.subMeshCount = 1;
dynamicBoundaryMesh.Clear();
dynamicBoundaryMesh.subMeshCount = 1;
dynamicColliderMesh.Clear();
dynamicColliderMesh.subMeshCount = 1;
dynamicOffroadMesh.Clear();
dynamicOffroadMesh.subMeshCount = 1;
dynamicBumperMesh.Clear();
dynamicBumperMesh.subMeshCount = 1;
dynamicBottomMesh.Clear();
dynamicBottomMesh.subMeshCount = 1;
dynamicTrackMesh.name = "curve " + i + " track mesh";
dynamicBoundaryMesh.name = "curve " + i + " boundary mesh";
dynamicColliderMesh.name = "curve " + i + " trackCollider mesh";
dynamicOffroadMesh.name = "curve " + i + " offroad mesh";
dynamicBumperMesh.name = "curve " + i + " bumper mesh";
dynamicBottomMesh.name = "curve " + i + " bottom mesh";
bool trackTextureFlip = (track.numberOfTextures > 0) ? track.Texture(curve.trackTextureStyleIndex).flipped : false;
bool boundaryTextureFlip = (track.numberOfTextures > 0) ? track.Texture(curve.boundaryTextureStyleIndex).flipped : false;
bool bumperTextureFlip = (track.numberOfTextures > 0) ? track.Texture(curve.bumperTextureStyleIndex).flipped : false;
bool bottomTextureFlip = (track.numberOfTextures > 0) ? track.Texture(curve.bottomTextureStyleIndex).flipped : false;
int storedPointSize = curve.storedPointSize;
float curveLength = curve.arcLength;
//Store these points so we can use previous values when Bezier clips itself
Vector3 leftPointA = curve.sampledLeftBoundaryPoints[0];
Vector3 rightPointA = curve.sampledRightBoundaryPoints[0];
Vector3 leftPointB = curve.sampledLeftBoundaryPoints[0];
Vector3 rightPointB = curve.sampledRightBoundaryPoints[0];
for (int p = 0; p < storedPointSize - 1; p++)
{
float tA = curve.normalisedT[p];
float tB = curve.normalisedT[p + 1];
int sampleIndexA = p;
int sampleIndexB = sampleIndexA + 1;
Vector3 pointA = curve.sampledPoints[sampleIndexA];
Vector3 pointB = curve.sampledPoints[sampleIndexB];
float trackWidthA = curve.sampledWidths[sampleIndexA] * 0.5f;
float trackWidthB = curve.sampledWidths[sampleIndexB] * 0.5f;
float trackCrownA = curve.sampledCrowns[sampleIndexA];
float trackCrownB = curve.sampledCrowns[sampleIndexB];
Vector3 trackUpA = curve.sampledTrackUps[sampleIndexA];
Vector3 trackUpB = curve.sampledTrackUps[sampleIndexB];
Vector3 trackCrossA = curve.sampledTrackCrosses[sampleIndexA];
Vector3 trackCrossB = curve.sampledTrackCrosses[sampleIndexB];
float trackAngle = curve.sampledAngles[sampleIndexA];
if (trackUpA == Vector3.zero || trackUpB == Vector3.zero)
{
return;
}
//TrackBuildRTexture texture = track.Texture(curve.trackTextureStyleIndex) ;// track.trackTexture;
int pointANumber = Mathf.Max(Mathf.CeilToInt(trackWidthA / trackMeshRes / 2) * 2, 2); //number of verts along line A
int pointBNumber = Mathf.Max(Mathf.CeilToInt(trackWidthB / trackMeshRes / 2) * 2, 2); //number of verts along line B
int numberOfNewVerts = pointANumber + pointBNumber;
Vector3[] uncrownedVerts = new Vector3[numberOfNewVerts];
if (curve.clipArrayLeft[sampleIndexA])
{
leftPointA = (pointA + (trackCrossA * -trackWidthA));
}
if (curve.clipArrayRight[sampleIndexA])
{
rightPointA = (pointA + (trackCrossA * trackWidthA));
}
float curveLengthA = (curveLength * tA) / trackWidthA + UVOffset;
float curveLengthB = (curveLength * tB) / trackWidthB + UVOffset;
float lerpASize = 1.0f / (pointANumber - 1);
//track vertex/uv data for point nextNormIndex
Vector3[] newAPoints = new Vector3[pointANumber];
Vector3[] newTrackPoints = new Vector3[pointANumber + pointBNumber];
Vector2[] newTrackUVs = new Vector2[pointANumber + pointBNumber];
for (int pa = 0; pa < pointANumber; pa++)
{
float lerpValue = lerpASize * pa;
Vector3 crownVector = Quaternion.LookRotation(trackUpA) * new Vector3(0, 0, Mathf.Sin(lerpValue * Mathf.PI) * trackCrownA);
Vector3 uncrownedVert = Vector3.Lerp(leftPointA, rightPointA, lerpValue);
uncrownedVerts[pa] = uncrownedVert;
Vector3 newVert = uncrownedVert + crownVector;
newAPoints[pa] = newVert;
newTrackPoints[pa] = newVert;
Vector2 newUV = (!trackTextureFlip) ? new Vector2(lerpValue, curveLengthA) : new Vector2(curveLengthA, lerpValue);
newTrackUVs[pa] = newUV;
}
//track vertex/uv data for point prevNormIndex
if (curve.clipArrayLeft[sampleIndexB])
{
leftPointB = (pointB + (trackCrossB * -trackWidthB));
}
if (curve.clipArrayRight[sampleIndexB])
{
rightPointB = (pointB + (trackCrossB * trackWidthB));
}
float lerpBSize = 1.0f / (pointBNumber - 1);
Vector3[] newBPoints = new Vector3[pointBNumber];
for (int pb = 0; pb < pointBNumber; pb++)
{
float lerpValue = lerpBSize * pb;
Vector3 crownVector = Quaternion.LookRotation(trackUpB) * new Vector3(0, 0, Mathf.Sin(lerpValue * Mathf.PI) * trackCrownB);
Vector3 uncrownedVert = Vector3.Lerp(leftPointB, rightPointB, lerpValue);
uncrownedVerts[pb + pointANumber] = uncrownedVert;
Vector3 newVert = uncrownedVert + crownVector;
newBPoints[pb] = newVert;
newTrackPoints[pb + pointANumber] = newVert;
Vector2 newUV = (!trackTextureFlip) ? new Vector2(lerpValue, curveLengthB) : new Vector2(curveLengthB, lerpValue);
newTrackUVs[pb + pointANumber] = newUV;
}
int baseTriPointA = 0;
int baseTriPointB = pointANumber;
int triPointA = baseTriPointA;
int triPointB = baseTriPointB;
int newTriPointCountA = 1;
int newTriPointCountB = 1;
int[] newTrackTris = new int[(numberOfNewVerts - 2) * 3];
for (int v = 0; v < numberOfNewVerts - 2; v++)
{
int newTriPointA = baseTriPointA + newTriPointCountA;
int newTriPointB = baseTriPointB + newTriPointCountB;
float newTriPointADist, newTriPointBDist;
if (newTriPointA >= baseTriPointA + pointANumber)
{
newTriPointADist = float.PositiveInfinity;
}
else
{
newTriPointADist = Vector3.SqrMagnitude(uncrownedVerts[newTriPointA] - uncrownedVerts[baseTriPointA]);
}
if (newTriPointB >= baseTriPointB + pointBNumber)
{
newTriPointBDist = float.PositiveInfinity;
}
else
{
newTriPointBDist = Vector3.SqrMagnitude(uncrownedVerts[newTriPointB] - uncrownedVerts[baseTriPointB]);
}
if (newTriPointADist < newTriPointBDist)
{
newTrackTris[v * 3] = triPointA;
newTrackTris[v * 3 + 1] = triPointB;
newTrackTris[v * 3 + 2] = newTriPointA;
triPointA = newTriPointA;
newTriPointCountA++;
}
else
{
newTrackTris[v * 3] = triPointA;
newTrackTris[v * 3 + 1] = triPointB;
newTrackTris[v * 3 + 2] = newTriPointB;
triPointB = newTriPointB;
newTriPointCountB++;
}
}
dynamicTrackMesh.AddData(newTrackPoints, newTrackUVs, newTrackTris, 0);
dynamicColliderMesh.AddData(newTrackPoints, newTrackUVs, newTrackTris, 0);
//Boundary
float trackBoundaryWallHeight = curve.boundaryHeight;// track.boundaryHeight;
Vector3 leftBoundaryPointA, leftBoundaryPointB, rightBoundaryPointA, rightBoundaryPointB;
if (track.disconnectBoundary)
{
leftBoundaryPointA = curve.sampledLeftBoundaryPoints[sampleIndexA];
leftBoundaryPointB = curve.sampledLeftBoundaryPoints[sampleIndexB];
rightBoundaryPointA = curve.sampledRightBoundaryPoints[sampleIndexA];
rightBoundaryPointB = curve.sampledRightBoundaryPoints[sampleIndexB];
}
else
{
leftBoundaryPointA = leftPointA;
leftBoundaryPointB = leftPointB;
rightBoundaryPointA = rightPointA;
rightBoundaryPointB = rightPointB;
}
Vector3[] newWallVerts;
Vector2[] newWallUVs;
int[] newWallTris;
//Boundary Render Mesh
if (curve.renderBounds)
{
//LEFT
newWallVerts = new[] { leftBoundaryPointA, leftBoundaryPointB, leftBoundaryPointA + trackUpA * trackBoundaryWallHeight, leftBoundaryPointB + trackUpB * trackBoundaryWallHeight };
if (!boundaryTextureFlip)
{
newWallUVs = new[] { new Vector2(curveLengthA, 0), new Vector2(curveLengthB, 0), new Vector2(curveLengthA, 1), new Vector2(curveLengthB, 1), }
}
;
else
{
newWallUVs = new[] { new Vector2(1, curveLengthA), new Vector2(1, curveLengthB), new Vector2(0, curveLengthA), new Vector2(0, curveLengthB), }
};
newWallTris = new[] { 1, 0, 2, 1, 2, 3 };
// newWallTris = (boundaryTextureFlip) ? (new[] { 1, 0, 2, 1, 2, 3 }) : (new[] { 0,2,1,2,3,1 });
// newWallTris = (!track.renderBoundaryWallReverse) ? new[] { 1, 0, 2, 1, 2, 3 } : new[] { 1, 0, 2, 1, 2, 3, 0, 1, 2, 2, 1, 3 };
dynamicBoundaryMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
if (track.renderBoundaryWallReverse)
{
newWallTris = new[] { 0, 1, 2, 2, 1, 3 };
// newWallTris = (boundaryTextureFlip) ? (new[] { 0, 1, 2, 2, 1, 3 }) : (new[] { 0, 2, 1, 2, 3, 1 });
dynamicBoundaryMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
//RIGHT
newWallVerts = (new[] { rightBoundaryPointA, rightBoundaryPointB, rightBoundaryPointA + trackUpA * trackBoundaryWallHeight, rightBoundaryPointB + trackUpB * trackBoundaryWallHeight });
//newWallUVs = new[] { new Vector2(curveLengthA, 0), new Vector2(curveLengthB, 0), new Vector2(curveLengthA, 1), new Vector2(curveLengthB, 1), };
if (!boundaryTextureFlip)
{
newWallUVs = new[] { new Vector2(curveLengthA, 0), new Vector2(curveLengthB, 0), new Vector2(curveLengthA, 1), new Vector2(curveLengthB, 1), }
}
;
else
{
newWallUVs = new[] { new Vector2(1, curveLengthA), new Vector2(1, curveLengthB), new Vector2(0, curveLengthA), new Vector2(0, curveLengthB), }
};
newWallTris = new[] { 0, 1, 2, 2, 1, 3 };
//newWallTris = (!track.renderBoundaryWallReverse) ? new[] { 0, 1, 2, 2, 1, 3 } : new[] { 1, 0, 2, 1, 2, 3, 0, 1, 2, 2, 1, 3 };
dynamicBoundaryMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
if (track.renderBoundaryWallReverse)
{
newWallTris = new[] { 1, 0, 2, 1, 2, 3 };
dynamicBoundaryMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
}
if (curve.trackCollider)
{
//COLLIDER walls for on track border
float trackColliderWallHeight = track.trackColliderWallHeight;
if (curve.colliderSides)
{
newWallVerts = (new[] { leftBoundaryPointA, leftBoundaryPointB, leftBoundaryPointA + trackUpA * trackColliderWallHeight, leftBoundaryPointB + trackUpB * trackColliderWallHeight });
newWallUVs = (new[] { Vector2.zero, Vector2.zero, Vector2.zero, Vector2.zero });
newWallTris = (new[] { 1, 0, 2, 1, 2, 3 });
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
newWallVerts = (new[] { rightBoundaryPointA, rightBoundaryPointB, rightBoundaryPointA + trackUpA * trackColliderWallHeight, rightBoundaryPointB + trackUpB * trackColliderWallHeight });
newWallUVs = (new[] { Vector2.zero, Vector2.zero, Vector2.zero, Vector2.zero });
newWallTris = (new[] { 0, 1, 2, 2, 1, 3 });
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
//offroad bits
if (track.disconnectBoundary)
{
Vector2 offroadTextureSize = Vector2.one;
if (track.numberOfTextures > 0)
{
offroadTextureSize = track.Texture(curve.offroadTextureStyleIndex).textureUnitSize;// track.offroadTexture.textureUnitSize;
}
newWallVerts = (new[] { leftPointA, leftPointB, leftBoundaryPointA, leftBoundaryPointB });
newWallUVs = (new[] { new Vector2(leftPointA.x / offroadTextureSize.x, leftPointA.z / offroadTextureSize.y), new Vector2(leftPointB.x / offroadTextureSize.x, leftPointB.z / offroadTextureSize.y), new Vector2(leftBoundaryPointA.x / offroadTextureSize.x, leftBoundaryPointA.z / offroadTextureSize.y), new Vector2(leftBoundaryPointB.x / offroadTextureSize.x, leftBoundaryPointB.z / offroadTextureSize.y) });
newWallTris = (new[] { 1, 0, 2, 1, 2, 3 });
dynamicOffroadMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
newWallVerts = (new[] { rightPointA, rightPointB, rightBoundaryPointA, rightBoundaryPointB });
newWallUVs = (new[] { new Vector2(rightPointA.x / offroadTextureSize.x, rightPointA.z / offroadTextureSize.y), new Vector2(rightPointB.x / offroadTextureSize.x, rightPointB.z / offroadTextureSize.y), new Vector2(rightBoundaryPointA.x / offroadTextureSize.x, rightBoundaryPointA.z / offroadTextureSize.y), new Vector2(rightBoundaryPointB.x / offroadTextureSize.x, rightBoundaryPointB.z / offroadTextureSize.y) });
newWallTris = (new[] { 0, 1, 2, 2, 1, 3 });
dynamicOffroadMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
newWallVerts = (new[] { leftPointA, leftPointB, leftBoundaryPointA, leftBoundaryPointB });
newWallUVs = (new[] { Vector2.zero, Vector2.zero, Vector2.zero, Vector2.zero });
newWallTris = (new[] { 1, 0, 2, 1, 2, 3 });
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
newWallVerts = (new[] { rightPointA, rightPointB, rightBoundaryPointA, rightBoundaryPointB });
newWallUVs = (new[] { Vector2.zero, Vector2.zero, Vector2.zero, Vector2.zero });
newWallTris = (new[] { 0, 1, 2, 2, 1, 3 });
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
if (track.includeColliderRoof)
{
newWallVerts = (new[] { leftBoundaryPointA + trackUpA * trackColliderWallHeight, leftBoundaryPointB + trackUpB * trackColliderWallHeight, rightBoundaryPointA + trackUpA * trackColliderWallHeight, rightBoundaryPointB + trackUpB * trackColliderWallHeight });
newWallUVs = (new[] { Vector2.zero, Vector2.zero, Vector2.zero, Vector2.zero });
newWallTris = (new[] { 1, 0, 2, 1, 2, 3 });
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
}
if ((track.trackBumpers && curve.generateBumpers) || curve.generateBumpers)
{
float bumperWidth = track.bumperWidth;
float bumperHeight = track.bumperHeight;
Vector3 bumperRaisedA = trackUpA * bumperHeight;
Vector3 bumperRaisedB = trackUpB * bumperHeight;
float trackAngleThreashold = track.bumperAngleThresold;
//left bumpers
if (trackAngle >= trackAngleThreashold)
{
Vector3 offroadEdgeDirectionA = (leftBoundaryPointA - leftPointA).normalized;
Vector3 trackEdgeDirectionA = (newAPoints[1] - newAPoints[0]).normalized;
Vector3 bumperDirectionA = (Vector3.Project(offroadEdgeDirectionA, trackUpA) - trackEdgeDirectionA).normalized;
Vector3 offroadEdgeDirectionB = (leftBoundaryPointB - leftPointB).normalized;
Vector3 trackEdgeDirectionB = (newBPoints[1] - newBPoints[0]).normalized;
Vector3 bumperDirectionB = (Vector3.Project(offroadEdgeDirectionB, trackUpB) - trackEdgeDirectionB).normalized;
float trackEdgeA = Vector3.Distance(pointA, leftPointA);
float offroadEdgeA = Vector3.Distance(pointA, leftBoundaryPointA);
bool offroadBumper = (trackEdgeA < (offroadEdgeA - bumperWidth));
Vector3 bumperLeft0 = (offroadBumper ? leftPointA + bumperDirectionA * bumperWidth : leftBoundaryPointA) + bumperRaisedA;
Vector3 bumperLeft1 = (offroadBumper ? leftPointA : bumperLeft0 - (bumperDirectionA * bumperWidth) - bumperRaisedB);//bumperLeft0 + (trackEdgeDirectionA * bumperWidth)) - bumperRaisedB;
Vector3 bumperLeft2 = (offroadBumper ? leftPointB + bumperDirectionB * bumperWidth : leftBoundaryPointB) + bumperRaisedB;
Vector3 bumperLeft3 = (offroadBumper ? leftPointB : bumperLeft2 - (bumperDirectionB * bumperWidth) - bumperRaisedB);
float bumperSegmentDistanceA = Vector3.Distance(bumperLeft0, bumperLeft2);
float uvStartA, uvEndA;
if (track.numberOfTextures > 0)
{
uvStartA = bumperDistanceA / track.Texture(curve.bumperTextureStyleIndex).textureUnitSize.y; // track.bumperTexture.textureUnitSize.y;
uvEndA = (bumperDistanceA + bumperSegmentDistanceA) / track.Texture(curve.bumperTextureStyleIndex).textureUnitSize.y; // track.bumperTexture.textureUnitSize.y;
}
else
{
uvStartA = bumperDistanceA; // track.bumperTexture.textureUnitSize.y;
uvEndA = (bumperDistanceA + bumperSegmentDistanceA); // track.bumperTexture.textureUnitSize.y;
}
newWallVerts = (new[] { bumperLeft0, bumperLeft1, bumperLeft2, bumperLeft3 });
if (!bumperTextureFlip)
{
newWallUVs = (new[] { new Vector2(uvStartA, 1), new Vector2(uvStartA, 0), new Vector2(uvEndA, 1), new Vector2(uvEndA, 0) });
}
else
{
newWallUVs = (new[] { new Vector2(1, uvStartA), new Vector2(0, uvStartA), new Vector2(1, uvEndA), new Vector2(0, uvEndA) });
}
newWallTris = (new[] { 1, 0, 2, 1, 2, 3 });
dynamicBumperMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
bumperDistanceA += bumperSegmentDistanceA;
newWallVerts = (new[] { bumperLeft0, bumperLeft1, bumperLeft2, bumperLeft3 });
newWallUVs = (new[] { Vector2.zero, Vector2.zero, Vector2.zero, Vector2.zero });
newWallTris = (new[] { 1, 0, 2, 1, 2, 3 });
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
//Right bumpers
if (trackAngle < -trackAngleThreashold)
{
Vector3 trackEdgeDirectionA = (newAPoints[pointANumber - 2] - newAPoints[pointANumber - 1]).normalized;
Vector3 trackEdgeDirectionB = (newBPoints[pointBNumber - 2] - newBPoints[pointBNumber - 1]).normalized;
Vector3 bumperRight0 = ((Vector3.Distance(pointA, rightPointA) < (Vector3.Distance(pointA, rightBoundaryPointA) - bumperWidth)) ? rightPointA : rightBoundaryPointA) + bumperRaisedA;
Vector3 bumperRight1 = bumperRight0 + (trackEdgeDirectionA * bumperWidth);
Vector3 bumperRight2 = ((Vector3.Distance(pointB, rightPointB) < (Vector3.Distance(pointB, rightBoundaryPointB) - bumperWidth)) ? rightPointB : rightBoundaryPointB) + bumperRaisedB;
Vector3 bumperRight3 = bumperRight2 + (trackEdgeDirectionB * bumperWidth);
float bumperSegmentDistanceB = Vector3.Distance(bumperRight0, bumperRight2);
//float bumperSegmentDistanceA = Vector3.Distance(bumperLeft0, bumperLeft2);
float uvStartB, uvEndB;
if (track.numberOfTextures > 0)
{
uvStartB = bumperDistanceB / track.Texture(curve.bumperTextureStyleIndex).textureUnitSize.y; // track.bumperTexture.textureUnitSize.y;
uvEndB = (bumperDistanceB + bumperSegmentDistanceB) / track.Texture(curve.bumperTextureStyleIndex).textureUnitSize.y; // track.bumperTexture.textureUnitSize.y;
}
else
{
uvStartB = bumperDistanceB;
uvEndB = (bumperDistanceB + bumperSegmentDistanceB);
}
newWallVerts = (new[] { bumperRight0, bumperRight1, bumperRight2, bumperRight3 });
if (!bumperTextureFlip)
{
newWallUVs = (new[] { new Vector2(uvStartB, 1), new Vector2(uvStartB, 0), new Vector2(uvEndB, 1), new Vector2(uvEndB, 0) });
}
else
{
newWallUVs = (new[] { new Vector2(1, uvStartB), new Vector2(0, uvStartB), new Vector2(1, uvEndB), new Vector2(0, uvEndB) });
}
// newWallTris = (new[] { 1, 0, 2, 1, 2, 3 });
newWallTris = (new[] { 0, 1, 2, 1, 3, 2 });
dynamicBumperMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
bumperDistanceB += bumperSegmentDistanceB;
}
}
//Track Bottom Mesh
if (curve.extrudeTrack || curve.extrudeTrackBottom)
{
float extrusionLength = curve.extrudeLength;
Vector3 extrusionA = -trackUpA * extrusionLength;
Vector3 extrusionB = -trackUpB * extrusionLength;
Vector3 pl0 = leftBoundaryPointA;
Vector3 pl1 = leftBoundaryPointB;
Vector3 pl2 = leftBoundaryPointA + extrusionA;
Vector3 pl3 = leftBoundaryPointB + extrusionB;
Vector3 pr0 = rightBoundaryPointA;
Vector3 pr1 = rightBoundaryPointB;
Vector3 pr2 = rightBoundaryPointA + extrusionA;
Vector3 pr3 = rightBoundaryPointB + extrusionB;
float bevelLerp = 0.5f - curve.extrudeBevel * 0.3333f;
Vector3 bevelOutA = trackCrossA.normalized * (trackWidthA * 0.5f);
Vector3 bevelOutB = trackCrossB.normalized * (trackWidthB * 0.5f);
Vector3 pl2b = Vector3.Lerp(pl2 - bevelOutA, pr2 + bevelOutA, bevelLerp);
Vector3 pl3b = Vector3.Lerp(pl3 - bevelOutB, pr3 + bevelOutB, bevelLerp);
Vector3 pr2b = Vector3.Lerp(pr2 + bevelOutA, pl2 - bevelOutA, bevelLerp);
Vector3 pr3b = Vector3.Lerp(pr3 + bevelOutB, pl3 - bevelOutB, bevelLerp);
if (curve.extrudeTrack)
{
//LEFT
newWallVerts = new[] { pl0, pl1, pl2b, pl3b };
if (!bottomTextureFlip)
{
newWallUVs = new[] { new Vector2(curveLengthA, 0), new Vector2(curveLengthB, 0), new Vector2(curveLengthA, 1), new Vector2(curveLengthB, 1), }
}
;
else
{
newWallUVs = new[] { new Vector2(1, curveLengthA), new Vector2(1, curveLengthB), new Vector2(0, curveLengthA), new Vector2(0, curveLengthB), }
};
newWallTris = new[] { 1, 0, 2, 1, 2, 3 };
dynamicBottomMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
if (curve.trackCollider)
{
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
//RIGHT
newWallVerts = (new[] { pr0, pr1, pr2b, pr3b });
if (!bottomTextureFlip)
{
newWallUVs = new[] { new Vector2(curveLengthA, 0), new Vector2(curveLengthB, 0), new Vector2(curveLengthA, 1), new Vector2(curveLengthB, 1), }
}
;
else
{
newWallUVs = new[] { new Vector2(1, curveLengthA), new Vector2(1, curveLengthB), new Vector2(0, curveLengthA), new Vector2(0, curveLengthB), }
};
newWallTris = new[] { 0, 1, 2, 2, 1, 3 };
dynamicBottomMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
if (curve.trackCollider)
{
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
if (curve.extrudeCurveEnd)
{
//Ends
if (p == 0)
{
newWallVerts = (new[] { pl0, pl2b, pr0, pr2b });
if (!bottomTextureFlip)
{
newWallUVs = new[] { new Vector2(curveLengthA, 0), new Vector2(curveLengthB, 0), new Vector2(curveLengthA, 1), new Vector2(curveLengthB, 1), }
}
;
else
{
newWallUVs = new[] { new Vector2(1, curveLengthA), new Vector2(1, curveLengthB), new Vector2(0, curveLengthA), new Vector2(0, curveLengthB), }
};
newWallTris = new[] { 1, 0, 2, 1, 2, 3 };
dynamicBottomMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
if (curve.trackCollider)
{
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
}
if (p == storedPointSize - 2)
{
newWallVerts = (new[] { pl1, pl3b, pr1, pr3b });
if (!bottomTextureFlip)
{
newWallUVs = new[] { new Vector2(curveLengthA, 0), new Vector2(curveLengthB, 0), new Vector2(curveLengthA, 1), new Vector2(curveLengthB, 1), }
}
;
else
{
newWallUVs = new[] { new Vector2(1, curveLengthA), new Vector2(1, curveLengthB), new Vector2(0, curveLengthA), new Vector2(0, curveLengthB), }
};
newWallTris = new[] { 0, 1, 2, 2, 1, 3 };
dynamicBottomMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
if (curve.trackCollider)
{
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
}
}
}
if (curve.extrudeTrackBottom)
{
if (!curve.extrudeTrack)
{
newWallVerts = new[] { pl0, pl1, pr0, pr1 }
}
;
else
{
newWallVerts = new[] { pl2b, pl3b, pr2b, pr3b }
};
if (!bottomTextureFlip)
{
newWallUVs = new[] { new Vector2(curveLengthA, 0), new Vector2(curveLengthB, 0), new Vector2(curveLengthA, 1), new Vector2(curveLengthB, 1), }
}
;
else
{
newWallUVs = new[] { new Vector2(1, curveLengthA), new Vector2(1, curveLengthB), new Vector2(0, curveLengthA), new Vector2(0, curveLengthB), }
};
newWallTris = new[] { 1, 0, 2, 1, 2, 3 };
dynamicBottomMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
if (curve.trackCollider)
{
dynamicColliderMesh.AddData(newWallVerts, newWallUVs, newWallTris, 0);
}
}
}
if (p == storedPointSize - 2)
{
UVOffset = curveLengthB;
}
}
if (curve.holder != null)
{
DestroyImmediate(curve.holder);
}
GameObject newCurveMeshHolder = new GameObject("curve " + (i + 1));
newCurveMeshHolder.transform.parent = transform;
newCurveMeshHolder.transform.localPosition = Vector3.zero;
curve.holder = newCurveMeshHolder;
int numberOfMeshes;
if (!dynamicTrackMesh.isEmpty)
{
dynamicTrackMesh.name = "Curve " + i + " Track Mesh";
dynamicTrackMesh.Build();
numberOfMeshes = dynamicTrackMesh.meshCount;
for (int m = 0; m < numberOfMeshes; m++)
{
GameObject newMeshHolder = new GameObject("model " + (m + 1));
newMeshHolder.transform.parent = curve.holder.transform;
newMeshHolder.transform.localPosition = Vector3.zero;
newMeshHolder.AddComponent <MeshFilter>().sharedMesh = dynamicTrackMesh[m].mesh;
if (track.numberOfTextures > 0)
{
newMeshHolder.AddComponent <MeshRenderer>().material = track.Texture(curve.trackTextureStyleIndex).GetMaterial();// track.trackTexture.material;
}
#if UNITY_EDITOR
EditorUtility.SetSelectedWireframeHidden(newMeshHolder.renderer, !track.showWireframe);
#endif
}
}
if (!dynamicBoundaryMesh.isEmpty)
{
dynamicBoundaryMesh.Build();
numberOfMeshes = dynamicBoundaryMesh.meshCount;
for (int m = 0; m < numberOfMeshes; m++)
{
GameObject newMeshHolder = new GameObject("boundary " + (m + 1));
newMeshHolder.transform.parent = curve.holder.transform;
newMeshHolder.transform.localPosition = Vector3.zero;
newMeshHolder.AddComponent <MeshFilter>().sharedMesh = dynamicBoundaryMesh[m].mesh;
if (track.numberOfTextures > 0)
{
newMeshHolder.AddComponent <MeshRenderer>().material = track.Texture(curve.boundaryTextureStyleIndex).GetMaterial();// track.trackTexture.material;
}
#if UNITY_EDITOR
EditorUtility.SetSelectedWireframeHidden(newMeshHolder.renderer, !track.showWireframe);
#endif
}
}
if (track.disconnectBoundary && !dynamicOffroadMesh.isEmpty)
{
dynamicOffroadMesh.Build();
numberOfMeshes = dynamicOffroadMesh.meshCount;
for (int m = 0; m < numberOfMeshes; m++)
{
GameObject newMeshHolder = new GameObject("offroad " + (m + 1));
newMeshHolder.transform.parent = curve.holder.transform;
newMeshHolder.transform.localPosition = Vector3.zero;
newMeshHolder.AddComponent <MeshFilter>().sharedMesh = dynamicOffroadMesh[m].mesh;
if (track.numberOfTextures > 0)
{
newMeshHolder.AddComponent <MeshRenderer>().material = track.Texture(curve.offroadTextureStyleIndex).GetMaterial();// track.offroadTexture.material;
}
#if UNITY_EDITOR
EditorUtility.SetSelectedWireframeHidden(newMeshHolder.renderer, !track.showWireframe);
#endif
}
}
if (track.includeCollider && curve.trackCollider && !dynamicColliderMesh.isEmpty)
{
dynamicColliderMesh.Build();
int numberOfColliderMeshes = dynamicColliderMesh.meshCount;
for (int m = 0; m < numberOfColliderMeshes; m++)
{
GameObject newMeshHolder = new GameObject("trackCollider " + (m + 1));
newMeshHolder.transform.parent = curve.holder.transform;
newMeshHolder.transform.localPosition = Vector3.zero;
newMeshHolder.AddComponent <MeshCollider>().sharedMesh = dynamicColliderMesh[m].mesh;
}
}
if (track.trackBumpers && !dynamicBumperMesh.isEmpty)
{
dynamicBumperMesh.Build();
numberOfMeshes = dynamicBumperMesh.meshCount;
for (int m = 0; m < numberOfMeshes; m++)
{
GameObject newMeshHolder = new GameObject("bumper " + (m + 1));
newMeshHolder.transform.parent = curve.holder.transform;
newMeshHolder.transform.localPosition = Vector3.zero;
newMeshHolder.AddComponent <MeshFilter>().sharedMesh = dynamicBumperMesh[m].mesh;
if (track.numberOfTextures > 0)
{
newMeshHolder.AddComponent <MeshRenderer>().material = track.Texture(curve.bumperTextureStyleIndex).GetMaterial();// track.bumperTexture.material;
}
#if UNITY_EDITOR
EditorUtility.SetSelectedWireframeHidden(newMeshHolder.renderer, !track.showWireframe);
#endif
}
}
if (!dynamicBottomMesh.isEmpty)
{
dynamicBottomMesh.Build();
numberOfMeshes = dynamicBottomMesh.meshCount;
for (int m = 0; m < numberOfMeshes; m++)
{
GameObject newMeshHolder = new GameObject("bottom " + (m + 1));
newMeshHolder.transform.parent = curve.holder.transform;
newMeshHolder.transform.localPosition = Vector3.zero;
newMeshHolder.AddComponent <MeshFilter>().sharedMesh = dynamicBottomMesh[m].mesh;
if (track.numberOfTextures > 0)
{
newMeshHolder.AddComponent <MeshRenderer>().material = track.Texture(curve.bottomTextureStyleIndex).GetMaterial();// track.trackTexture.material;
}
#if UNITY_EDITOR
EditorUtility.SetSelectedWireframeHidden(newMeshHolder.renderer, !track.showWireframe);
#endif
}
}
}
else
{
if (curve.holder != null && (!curve.render || !renderTrack))
{
DestroyImmediate(curve.holder);
}
}
polyCount += dynamicBottomMesh.triangleCount / 3;
polyCount += dynamicBoundaryMesh.triangleCount / 3;
polyCount += dynamicBumperMesh.triangleCount / 3;
polyCount += dynamicOffroadMesh.triangleCount / 3;
polyCount += dynamicTrackMesh.triangleCount / 3;
}
track.TrackRendered();
track.lastPolycount = polyCount;
#if UNITY_EDITOR
EditorUtility.UnloadUnusedAssets();
#endif
}
private void SceneGUIPointBased()
{
Vector3 position = _trackBuildR.transform.position;
Camera sceneCamera = Camera.current;
_handleSize = HandleUtility.GetHandleSize(_trackBuildR.transform.position) * 0.1f;
int realNumberOfPoints = _track.realNumberOfPoints;
Ray mouseRay = Camera.current.ScreenPointToRay(new Vector3(Event.current.mousePosition.x, Screen.height - Event.current.mousePosition.y - 30, 0));
for (int i = 0; i < realNumberOfPoints; i++)
{
TrackBuildRPoint point = _track[i];
if (Vector3.Dot(sceneCamera.transform.forward, point.worldPosition - sceneCamera.transform.position) < 0)
{
continue;
}
Handles.Label(point.worldPosition, "point " + (i + 1));
float pointHandleSize = HandleUtility.GetHandleSize(point.worldPosition) * HANDLE_SCALE;
Handles.color = (i == selectedPoint) ? TrackBuildRColours.RED : TrackBuildRColours.GREEN;
if (Handles.Button(point.worldPosition, Quaternion.identity, pointHandleSize, pointHandleSize, Handles.DotCap))
{
selectedPoint = i;
GUIUtility.hotControl = 0;
GUIUtility.keyboardControl = 0;
GUI.changed = true;
point.isDirty = true;
}
if (i == selectedPoint)
{
switch (_trackBuildR.mode)
{
case TrackBuildR.modes.track:
switch (_trackBuildR.pointMode)
{
case TrackBuildR.pointModes.transform:
Vector3 currentPosition = point.worldPosition;
currentPosition = Handles.DoPositionHandle(currentPosition, Quaternion.identity);
if (currentPosition != point.worldPosition)
{
Undo.RecordObject(point, "Point Changed");
point.isDirty = true;
point.worldPosition = currentPosition;
}
//greyed out control points for user ease
Handles.color = TrackBuildRColours.DARK_GREY;
Handles.DrawLine(point.worldPosition, point.forwardControlPoint + position);
Handles.DrawLine(point.worldPosition, point.backwardControlPoint + position);
if (Handles.Button(point.backwardControlPoint + position, Quaternion.identity, pointHandleSize, pointHandleSize, Handles.DotCap))
{
_trackBuildR.pointMode = TrackBuildR.pointModes.controlpoint;
}
if (Handles.Button(point.forwardControlPoint + position, Quaternion.identity, pointHandleSize, pointHandleSize, Handles.DotCap))
{
_trackBuildR.pointMode = TrackBuildR.pointModes.controlpoint;
}
break;
case TrackBuildR.pointModes.controlpoint:
//render reverse first so forward renders on top
Handles.DrawLine(point.worldPosition, point.backwardControlPoint + position);
point.backwardControlPoint = Handles.DoPositionHandle(point.backwardControlPoint + position, Quaternion.identity) - position;
if (Vector3.Dot(mouseRay.direction, point.worldPosition - mouseRay.origin) > 0)
{
Handles.Label(point.backwardControlPoint, "point " + (i + 1) + " reverse control point");
}
if (Vector3.Dot(mouseRay.direction, point.worldPosition - mouseRay.origin) > 0)
{
Handles.Label(point.forwardControlPoint, "point " + (i + 1) + " control point");
}
Handles.color = TrackBuildRColours.RED;
Handles.DrawLine(point.worldPosition, point.forwardControlPoint + position);
point.forwardControlPoint = Handles.DoPositionHandle(point.forwardControlPoint + position, Quaternion.identity) - position;
break;
case TrackBuildR.pointModes.trackup:
Undo.RecordObject(point, "Point Changed");
point.trackUpQ = Handles.RotationHandle(point.trackUpQ, point.worldPosition);
Handles.color = TrackBuildRColours.BLUE;
Handles.ArrowCap(0, point.worldPosition, point.trackUpQ, pointHandleSize * 10);
Handles.Label(point.worldPosition + point.trackUpQ * Vector3.forward * pointHandleSize * 15, "Up Vector");
Handles.color = TrackBuildRColours.GREEN;
Handles.ArrowCap(0, point.worldPosition, Quaternion.LookRotation(point.trackDirection), pointHandleSize * 10);
Handles.Label(point.worldPosition + point.trackDirection * pointHandleSize * 15, "Direction Vector");
Handles.color = TrackBuildRColours.RED;
Quaternion quatForward = Quaternion.LookRotation(point.trackUpQ * Vector3.up);
Handles.ArrowCap(0, point.worldPosition, quatForward, pointHandleSize * 10);
Handles.Label(point.worldPosition + Quaternion.LookRotation(point.trackUpQ * Vector3.up) * Vector3.forward * pointHandleSize * 15, "Up Forward Vector");
Handles.color = TrackBuildRColours.PURPLE;
Quaternion quatCross = Quaternion.LookRotation(point.trackCross);
Handles.ArrowCap(0, point.worldPosition, quatCross, pointHandleSize * 10);
Handles.Label(point.worldPosition + point.trackCross * pointHandleSize * 15, "Cross Vector");
break;
case TrackBuildR.pointModes.trackpoint:
//Track Width
Handles.color = TrackBuildRColours.RED;
float pointWidth = point.width / 2;
Vector3 sliderPos = Handles.Slider(point.worldPosition + point.trackCross * pointWidth, point.trackCross);
float pointwidth = Vector3.Distance(sliderPos, point.worldPosition) * 2;
if (pointwidth != point.width)
{
Undo.RecordObject(point, "Point Changed");
point.isDirty = true;
point.width = pointwidth;
}
//Crown
Handles.color = TrackBuildRColours.GREEN;
Vector3 crownPosition = point.worldPosition + point.trackUp * point.crownAngle;
Vector3 newCrownPosition = Handles.Slider(crownPosition, point.trackUp);
Vector3 crownDifference = newCrownPosition - point.worldPosition;
if (crownDifference.sqrMagnitude != 0) //Crown Modified
{
Undo.RecordObject(point, "Point Changed");
point.isDirty = true;
point.crownAngle = Vector3.Project(crownDifference, point.trackUp).magnitude *Mathf.Sign(Vector3.Dot(crownDifference, point.trackUp));
}
break;
}
break;
case TrackBuildR.modes.boundary:
if (_track.disconnectBoundary)
{
if (Vector3.Dot(mouseRay.direction, point.worldPosition - mouseRay.origin) > 0)
{
Handles.color = TrackBuildRColours.RED;
Handles.Label(point.leftTrackBoundaryWorld, "point " + (i + 1) + " left track boundary");
Handles.Label(point.rightTrackBoundaryWorld, "point " + (i + 1) + " right track boundary");
Handles.DrawLine(point.worldPosition, point.leftTrackBoundaryWorld);
Handles.DrawLine(point.worldPosition, point.rightTrackBoundaryWorld);
}
switch (_trackBuildR.boundaryMode)
{
case TrackBuildR.boundaryModes.transform:
Undo.RecordObject(point, "Point Changed");
point.leftTrackBoundaryWorld = Handles.DoPositionHandle(point.leftTrackBoundaryWorld, Quaternion.identity);
point.rightTrackBoundaryWorld = Handles.DoPositionHandle(point.rightTrackBoundaryWorld, Quaternion.identity);
break;
case TrackBuildR.boundaryModes.controlpoint:
Undo.RecordObject(point, "Point Changed");
Handles.color = TrackBuildRColours.RED;
Handles.DrawLine(point.leftTrackBoundaryWorld, point.leftForwardControlPoint + position);
point.leftForwardControlPoint = Handles.DoPositionHandle(point.leftForwardControlPoint + position, Quaternion.identity) - position;
Handles.DrawLine(point.leftTrackBoundaryWorld, point.leftBackwardControlPoint + position);
point.leftBackwardControlPoint = Handles.DoPositionHandle(point.leftBackwardControlPoint + position, Quaternion.identity) - position;
Handles.DrawLine(point.rightTrackBoundaryWorld, point.rightForwardControlPoint + position);
point.rightForwardControlPoint = Handles.DoPositionHandle(point.rightForwardControlPoint + position, Quaternion.identity) - position;
Handles.DrawLine(point.rightTrackBoundaryWorld, point.rightBackwardControlPoint + position);
point.rightBackwardControlPoint = Handles.DoPositionHandle(point.rightBackwardControlPoint + position, Quaternion.identity) - position;
break;
}
}
break;
case TrackBuildR.modes.stunt:
break;
}
}
}
}
public static void MergeTerrain(TrackBuildRTrack track, Terrain terrain)
{
TerrainData terrainData = terrain.terrainData;
int terrainWidth = terrainData.heightmapWidth;
int terrainHeight = terrainData.heightmapHeight;
float terrainHeightmapY = terrain.terrainData.heightmapScale.y;
float terrainY = terrain.transform.position.y / terrainHeightmapY;
Vector3 meshScale = terrainData.heightmapScale;
float terrainAccuracy = track.terrainAccuracy;
float terrainMergeMargin = track.terrainMergeMargin;
float[,] originalData = terrainData.GetHeights(0, 0, terrainWidth, terrainHeight);
float[,] mergeData = new float[terrainWidth, terrainHeight];
float[,] modifiedData = new float[terrainWidth, terrainHeight];
int[,] modifiedPointLock = new int[terrainWidth, terrainHeight];
Bounds trackBounds = new Bounds();
int numberOfCurves = track.numberOfCurves;
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = track[i];
if (curve.holder == null)
{
continue;
}
Renderer[] rends = curve.holder.GetComponentsInChildren <Renderer>();
foreach (Renderer rend in rends)
{
trackBounds.Encapsulate(rend.bounds);
}
}
Vector3 trackOffset = track.transform.position - terrain.transform.position;
Vector3 trackScale = new Vector3(trackBounds.size.x / terrainData.size.x, 1.0f / terrain.terrainData.size.y, trackBounds.size.z / terrainData.size.z);
float mergeWidth = track.terrainMergeWidth;
AnimationCurve mergeCurve = track.mergeCurve;
float minScaleUnit = Mathf.Min(meshScale.x, meshScale.z);
for (int i = 0; i < numberOfCurves; i++)
{
TrackBuildRPoint curve = track[i];
int storedPointSize = curve.storedPointSize;
for (int p = 0; p < storedPointSize - 1; p++)
{
Vector3 pointA = curve.sampledPoints[p];
Vector3 pointB = curve.sampledPoints[p + 1];
Vector3 crossA = curve.sampledTrackCrosses[p];
Vector3 crossB = curve.sampledTrackCrosses[p + 1];
float widthA = curve.sampledWidths[p] * terrainMergeMargin;
float widthB = curve.sampledWidths[p + 1] * terrainMergeMargin;
// float heightA = (pointA.y - terrainAccuracy) * trackScale.y - terrainY;
// float heightB = (pointB.y - terrainAccuracy) * trackScale.y - terrainY;
Vector3 lpointA = (pointA - crossA * (widthA + mergeWidth));
Vector3 rpointA = (pointA + crossA * (widthA + mergeWidth));
Vector3 lpointB = (pointB - crossB * (widthB + mergeWidth));
Vector3 rpointB = (pointB + crossB * (widthB + mergeWidth));
float crownA = curve.sampledCrowns[p] - terrainAccuracy;
float crownB = curve.sampledCrowns[p + 1] - terrainAccuracy;
float pointDistanceLeft = Vector3.Distance(lpointA, lpointB) * 1.8f;
float pointDistanceRight = Vector3.Distance(rpointA, rpointB) * 1.8f;
float pointDistance = Mathf.Max(pointDistanceLeft, pointDistanceRight);
float pointFillResolution = minScaleUnit / pointDistance * 0.125f;
float heightLA = (lpointA.y - terrainAccuracy) * trackScale.y - terrainY;
float heightRA = (rpointA.y - terrainAccuracy) * trackScale.y - terrainY;
float heightLB = (lpointB.y - terrainAccuracy) * trackScale.y - terrainY;
float heightRB = (rpointB.y - terrainAccuracy) * trackScale.y - terrainY;
for (float pf = 0; pf < 1; pf += pointFillResolution)//point a to point b
{
//Track Filler
Vector3 fillPoint = Vector3.Lerp(pointA, pointB, pf);
Vector3 fillCross = Vector3.Lerp(crossA, crossB, pf);
float fillWidth = Mathf.Lerp(widthA, widthB, pf); // *1.2f;
float fillCrown = Mathf.Lerp(crownA, crownB, pf); // *1.2f;
float fillTrackHeightL = Mathf.Lerp(heightLA, heightLB, pf);
float fillTrackHeightR = Mathf.Lerp(heightRA, heightRB, pf);
Vector3 leftTrackPoint = fillPoint - fillCross * fillWidth;
Vector3 rightTrackPoint = fillPoint + fillCross * fillWidth;
int leftX = Mathf.RoundToInt(((leftTrackPoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int leftY = Mathf.RoundToInt(((leftTrackPoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
int rightX = Mathf.RoundToInt(((rightTrackPoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int rightY = Mathf.RoundToInt(((rightTrackPoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
int diffX = leftX - rightX;
int diffY = leftY - rightY;
int trackCrossFillAmount = Mathf.Max(Mathf.Abs(diffX), 1) * Mathf.Max(Mathf.Abs(diffY), 1);
for (int f = 0; f < trackCrossFillAmount; f++)//left to right
{
float move = f / (float)trackCrossFillAmount;
int fillX = Mathf.RoundToInt(Mathf.Lerp(leftX, rightX, move));
int fillY = Mathf.RoundToInt(Mathf.Lerp(leftY, rightY, move));
if (fillX < 0 || fillY < 0 || fillX >= terrainWidth || fillY >= terrainHeight)
{
continue;
}
float crownHeight = Mathf.Sin(move * Mathf.PI) * fillCrown / terrainHeightmapY;
float fillTrackHeight = Mathf.Lerp(fillTrackHeightL, fillTrackHeightR, move) + crownHeight;
int currentPointLock = modifiedPointLock[fillY, fillX];
if (currentPointLock == 0 || mergeData[fillY, fillX] > fillTrackHeight)
{
mergeData[fillY, fillX] = fillTrackHeight;
}
modifiedPointLock[fillY, fillX] = 1;//point lock
}
//Merge
Vector3 leftMergePoint = leftTrackPoint - fillCross * mergeWidth;
int leftMergeLeftX = Mathf.RoundToInt(((leftMergePoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int leftMergeLeftY = Mathf.RoundToInt(((leftMergePoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
int leftMergeRightX = Mathf.RoundToInt(((leftTrackPoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int leftMergeRightY = Mathf.RoundToInt(((leftTrackPoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
//
int leftMergeDiffX = leftMergeLeftX - leftMergeRightX;
int leftMergeDiffY = leftMergeLeftY - leftMergeRightY;
int leftMergeFillAmount = Mathf.Max(Mathf.Abs(leftMergeDiffX), 1) * Mathf.Max(Mathf.Abs(leftMergeDiffY), 1);// Mathf.Max(Mathf.Abs(leftMergeDiffX), Mathf.Abs(leftMergeDiffY));
for (int f = 0; f < leftMergeFillAmount; f++)
{
float move = f / (float)leftMergeFillAmount;
int fillX = Mathf.RoundToInt(Mathf.Lerp(leftMergeLeftX, leftMergeRightX, move));
int fillY = Mathf.RoundToInt(Mathf.Lerp(leftMergeLeftY, leftMergeRightY, move));
if (fillX < 0 || fillY < 0 || fillX >= terrainWidth || fillY >= terrainHeight)
{
continue;
}
float curveStrength = mergeCurve.Evaluate(move);
float fillTrackHeight = fillTrackHeightL;
float mergeHeight = Mathf.Lerp(originalData[fillY, fillX], fillTrackHeight, curveStrength);
int pointLock = modifiedPointLock[fillY, fillX];
float currentMergeHeight = mergeData[fillY, fillX];
float currentDifference = Mathf.Abs(currentMergeHeight - fillTrackHeight);
float newDifference = Mathf.Abs(mergeHeight - fillTrackHeight);
if (newDifference < currentDifference && pointLock == 0)
{
mergeData[fillY, fillX] = mergeHeight;
}
}
Vector3 rightMergePoint = rightTrackPoint + fillCross * mergeWidth;
int rightMergeLeftX = Mathf.RoundToInt(((rightMergePoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int rightMergeLeftY = Mathf.RoundToInt(((rightMergePoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
int rightMergeRightX = Mathf.RoundToInt(((rightTrackPoint.x + trackOffset.x) / trackBounds.size.x * trackScale.x) * terrainData.heightmapWidth);
int rightMergeRightY = Mathf.RoundToInt(((rightTrackPoint.z + trackOffset.z) / trackBounds.size.z * trackScale.z) * terrainData.heightmapHeight);
//
int rightMergeDiffX = rightMergeLeftX - rightMergeRightX;
int rightMergeDiffY = rightMergeLeftY - rightMergeRightY;
int rightMergeFillAmount = Mathf.Max(Mathf.Abs(rightMergeDiffX), 1) * Mathf.Max(Mathf.Abs(rightMergeDiffY), 1);// Mathf.Max(Mathf.Abs(leftMergeDiffX), Mathf.Abs(leftMergeDiffY));
for (int f = 0; f < rightMergeFillAmount; f++)
{
float move = f / (float)rightMergeFillAmount;
int fillX = Mathf.RoundToInt(Mathf.Lerp(rightMergeLeftX, rightMergeRightX, move));
int fillY = Mathf.RoundToInt(Mathf.Lerp(rightMergeLeftY, rightMergeRightY, move));
if (fillX < 0 || fillY < 0 || fillX >= terrainWidth || fillY >= terrainHeight)
{
continue;
}
float curveStrength = mergeCurve.Evaluate(move);
float fillTrackHeight = fillTrackHeightR;
float mergeHeight = Mathf.Lerp(originalData[fillY, fillX], fillTrackHeight, curveStrength);
int pointLock = modifiedPointLock[fillY, fillX];
float currentMergeHeight = mergeData[fillY, fillX];
float currentDifference = Mathf.Abs(currentMergeHeight - fillTrackHeight);
float newDifference = Mathf.Abs(mergeHeight - fillTrackHeight);
if (newDifference < currentDifference && pointLock == 0)
{
mergeData[fillY, fillX] = mergeHeight;
}
}
}
}
}
for (int x = 0; x < terrainWidth; x++)
{
for (int y = 0; y < terrainHeight; y++)
{
bool isNotEdge = x > 0 && x < terrainWidth - 1 && y > 0 && y < terrainHeight - 1;
if (mergeData[x, y] == 0)
{
int mergeNeighbours = 0;
if (isNotEdge)
{
mergeNeighbours += (mergeData[x + 1, y] != 0) ? 1 : 0;
mergeNeighbours += (mergeData[x - 1, y] != 0) ? 1 : 0;
mergeNeighbours += (mergeData[x, y + 1] != 0) ? 1 : 0;
mergeNeighbours += (mergeData[x, y - 1] != 0) ? 1 : 0;
}
if (mergeNeighbours > 1)//if a hole is surounded by rasied terrain in two or more neighbouring places
{
float mergeHeight = 0;
mergeHeight += (mergeData[x + 1, y] != 0) ? mergeData[x + 1, y] : 0;
mergeHeight += (mergeData[x - 1, y] != 0) ? mergeData[x - 1, y] : 0;
mergeHeight += (mergeData[x, y + 1] != 0) ? mergeData[x, y + 1] : 0;
mergeHeight += (mergeData[x, y - 1] != 0) ? mergeData[x, y - 1] : 0;
modifiedData[x, y] = mergeHeight / mergeNeighbours;//clean up holes
}
else
{
modifiedData[x, y] = originalData[x, y];//use original
}
}
else
{
modifiedData[x, y] = mergeData[x, y];
}
}
}
terrainData.SetHeights(0, 0, modifiedData);
terrain.terrainData = terrainData;
}
public virtual void FromXML(XmlNode node)
{
XmlNodeList textureNodes = node.SelectNodes("textures/texture");
foreach (XmlNode textureNode in textureNodes)
{
TrackBuildRTexture newTexture = gameObject.AddComponent <TrackBuildRTexture>();
newTexture.FromXML(textureNode);
_textures.Add(newTexture);
}
XmlNodeList trackPointNodes = node.SelectNodes("trackpoints/trackpoint");
foreach (XmlNode trackPointNode in trackPointNodes)
{
TrackBuildRPoint point = gameObject.AddComponent <TrackBuildRPoint>();
point.FromXML(trackPointNode);
point.baseTransform = baseTransform;
point.isDirty = true;
_points.Add(point);
}
if (node["meshResolution"] != null)
{
_meshResolution = float.Parse(node["meshResolution"].FirstChild.Value);
}
if (node["includeCollider"] != null)
{
includeCollider = bool.Parse(node["includeCollider"].FirstChild.Value);
}
if (node["includeColliderRoof"] != null)
{
includeColliderRoof = bool.Parse(node["includeColliderRoof"].FirstChild.Value);
}
if (node["trackColliderWallHeight"] != null)
{
trackColliderWallHeight = float.Parse(node["trackColliderWallHeight"].FirstChild.Value);
}
if (node["trackBumpers"] != null)
{
trackBumpers = bool.Parse(node["trackBumpers"].FirstChild.Value);
}
if (node["bumperHeight"] != null)
{
bumperHeight = float.Parse(node["bumperHeight"].FirstChild.Value);
}
if (node["bumperWidth"] != null)
{
bumperWidth = float.Parse(node["bumperWidth"].FirstChild.Value);
}
if (node["bumperAngleThresold"] != null)
{
bumperAngleThresold = float.Parse(node["bumperAngleThresold"].FirstChild.Value);
}
if (node["disconnectBoundary"] != null)
{
_disconnectBoundary = bool.Parse(node["disconnectBoundary"].FirstChild.Value);
}
if (node["renderBoundaryWallReverse"] != null)
{
_renderBoundaryWallReverse = bool.Parse(node["renderBoundaryWallReverse"].FirstChild.Value);
}
RecalculateCurves();
}
