private void CreateBolt(LineRenderer line)
{
//lineObject.material.SetTextureScale("_MainTex", new Vector2(distance * zigZagPerMeter, 1.0f));
//lineObject.numPositions = vertexCount;
float totalDistance = _pathComp.TotalDistance;
int numPositions = Mathf.CeilToInt(totalDistance * zigZagPerMeter);
Vector3[] points = new Vector3[numPositions];
line.positionCount = numPositions;
line.material.SetTextureScale("_MainTex", new Vector2(totalDistance * zigZagPerMeter, 1.0f));
// set the ends
points[0] = _pathComp.GetPathPoint(0.0f).point;
points[numPositions - 1] = _pathComp.GetPathPoint(totalDistance).point;
Vector2 previousOffset = Vector2.zero;
for (int i = 1; i < numPositions - 1; i++)
{
Path_Point pathPoint = _pathComp.GetPathPoint(Math_Functions.Value_from_another_Scope(i, 0, numPositions - 1, 0, totalDistance));
Vector2 offset = new Vector2(Random.Range(-1.0f, 1.0f), Random.Range(-1.0f, 1.0f));
offset *= zigZagIntensity;
previousOffset = offset;
points[i] = pathPoint.point + (pathPoint.right * offset.x) + (pathPoint.up * offset.y);
}
line.SetPositions(points);
}
void LateUpdate()
{
if (_particle_array == null)
{
Start();
}
if (isRectangleSizeUpdating)
{
Calculate_The_Four_Corners();
}
_numParticles = _particle_system.GetParticles(_particle_array);
if (_numParticles > 0)
{
for (int i = 0; i < _numParticles; i++)
{
ParticleSystem.Particle obj = _particle_array[i];
// This made it based on the particle lifetime
// float normalizedLifetime = (1.0f - obj.remainingLifetime / obj.startLifetime);
//
// if(hasRandomStartingPoints){
// normalizedLifetime += Get_Value_From_Random_Seed_0t1(obj.randomSeed, 100.0f);
// normalizedLifetime = normalizedLifetime % 1.0f;
// }
//
// Path_Point axis = _path.GetPathPoint(_path.TotalDistance * normalizedLifetime, isSmooth);
// This made it based on the paritcle speed
float dist = (obj.startLifetime - obj.remainingLifetime) * obj.velocity.magnitude;
if (hasRandomStartingPoints)
{
dist += Get_Value_From_Random_Seed_0t1(obj.randomSeed, 100.0f) * _path.TotalDistance;
}
dist = dist % _path.TotalDistance;
Path_Point axis = _path.GetPathPoint(dist, isSmooth);
Vector2 offset = Vector2.zero;
if (pathWidth > 0)
{
offset = Math_Functions.AngleToVector2D(obj.randomSeed % 360.0f);
offset *= Get_Value_From_Random_Seed_0t1(obj.randomSeed, 150.0f) * pathWidth;
}
_particle_array[i].position = axis.point +
(isFlat ? Vector3.zero : axis.right * offset.x) +
(axis.up * offset.y);
_particle_array[i].velocity = axis.forward * _particle_array[i].velocity.magnitude;
}
_particle_system.SetParticles(_particle_array, _numParticles);
}
}
private void AddTriangle(int[] indices, int submesh)
{
// vertices
Vector3[] verts = new Vector3[3] {
segmentSourceMesh.vertices[indices[0]],
segmentSourceMesh.vertices[indices[1]],
segmentSourceMesh.vertices[indices[2]]
};
// normals
Vector3[] norms = new Vector3[3] {
segmentSourceMesh.normals[indices[0]],
segmentSourceMesh.normals[indices[1]],
segmentSourceMesh.normals[indices[2]]
};
// uvs
Vector2[] uvs = new Vector2[3] {
segmentSourceMesh.uv[indices[0]],
segmentSourceMesh.uv[indices[1]],
segmentSourceMesh.uv[indices[2]]
};
// tangent
Vector4[] tangents = new Vector4[3] {
segmentSourceMesh.tangents[indices[0]],
segmentSourceMesh.tangents[indices[1]],
segmentSourceMesh.tangents[indices[2]]
};
// apply offset
float lerpValue = 0.0f;
Vector3 pointA, pointB;
Vector3 normA, normB;
Vector4 tangentA, tangentB;
//Matrix4x4 4*4 矩阵；Transform.localToWorldMatrix 局部转世界矩阵
Matrix4x4 localToWorld_A = _helpTransform1.localToWorldMatrix;
Matrix4x4 localToWorld_B = _helpTransform2.localToWorldMatrix;
Matrix4x4 worldToLocal = transform.worldToLocalMatrix;
for (int i = 0; i < 3; i++)
{
lerpValue = Math_Functions.Value_from_another_Scope(verts[i].z, _segment_MinZ, _segment_MaxZ, 0.0f, 1.0f);
verts[i].z = 0.0f;
pointA = localToWorld_A.MultiplyPoint(verts[i]); // to world
pointB = localToWorld_B.MultiplyPoint(verts[i]);
verts[i] = worldToLocal.MultiplyPoint(Vector3.Lerp(pointA, pointB, lerpValue)); // to local
normA = localToWorld_A.MultiplyVector(norms[i]);
normB = localToWorld_B.MultiplyVector(norms[i]);
norms[i] = worldToLocal.MultiplyVector(Vector3.Lerp(normA, normB, lerpValue));
tangentA = localToWorld_A.MultiplyVector(tangents[i]);
tangentB = localToWorld_B.MultiplyVector(tangents[i]);
tangents[i] = worldToLocal.MultiplyVector(Vector3.Lerp(tangentA, tangentB, lerpValue));
}
_maker.AddTriangle(verts, norms, uvs, tangents, submesh);
}
public Vector3 GetRoutePosition(float dist)
{
dist = Mathf.Clamp(dist, 0.0f, TotalDistance);
if (dist <= 0)
{
return(points_positions[0]);
}
else if (dist >= TotalDistance)
{
return(points_positions[points_num - 1]);
}
int point = 0;
while (points_distances[point] < dist)
{
point++;
}
// get nearest two points, ensuring points wrap-around start & end of circuit
p1n = point - 1;
p2n = point;
// found point numbers, now find interpolation value between the two middle points
i = Mathf.InverseLerp(points_distances[p1n], points_distances[p2n], dist);
if (smoothRoute)
{
p0n = Mathf.Clamp(point - 2, 0, points_num - 1);
p3n = Mathf.Clamp(point + 1, 0, points_num - 1);
P0 = points_positions[p0n];
P1 = points_positions[p1n];
P2 = points_positions[p2n];
P3 = points_positions[p3n];
return(Math_Functions.CatmullRom(P0, P1, P2, P3, i));
}
else
{
return(Vector3.Lerp(points_positions[p1n], points_positions[p2n], i));
}
}
public void AddTriangle(int[] indices, int submesh)
{
// vertices
Vector3[] verts = new Vector3[3] {
segment_sourceMesh.vertices[indices[0]],
segment_sourceMesh.vertices[indices[1]],
segment_sourceMesh.vertices[indices[2]]
};
// normals
Vector3[] norms = new Vector3[3] {
segment_sourceMesh.normals[indices[0]],
segment_sourceMesh.normals[indices[1]],
segment_sourceMesh.normals[indices[2]]
};
// uvs
Vector2[] uvs = new Vector2[3] {
segment_sourceMesh.uv[indices[0]],
segment_sourceMesh.uv[indices[1]],
segment_sourceMesh.uv[indices[2]]
};
// apply offset
float lerpValue = 0.0f;
Vector3 pointA, pointB;
Vector3 normA, normB;
for (int i = 0; i < 3; i++)
{
lerpValue = Math_Functions.Value_from_another_Scope(verts[i].z, _segment_MinZ, _segment_MaxZ, 0.0f, 1.0f);
verts[i].z = 0.0f;
pointA = _helpTransform1.TransformPoint(verts[i]); // to world
pointB = _helpTransform2.TransformPoint(verts[i]);
verts[i] = transform.InverseTransformPoint(Vector3.Lerp(pointA, pointB, lerpValue)); // to local
normA = _helpTransform1.TransformDirection(norms[i]);
normB = _helpTransform2.TransformDirection(norms[i]);
norms[i] = transform.InverseTransformDirection(Vector3.Lerp(normA, normB, lerpValue));
}
_maker.AddTriangle(verts, norms, uvs, submesh);
}
void LateUpdate()
{
if (_particle_array == null)
{
Start();
_path_comp.Update_Path();
}
else if (isPathUpdating)
{
_path_comp.Update_Path();
}
_numParticles = _particle_system.GetParticles(_particle_array);
if (_numParticles > 0)
{
for (int i = 0; i < _numParticles; i++)
{
ParticleSystem.Particle obj = _particle_array[i];
Path_Point axis = _path_comp.GetPathPoint(_path_comp.TotalDistance * (1.0f - obj.remainingLifetime / obj.startLifetime));
Vector2 offset = Math_Functions.AngleToVector2D(obj.randomSeed % 360.0f);
offset *= (((float)obj.randomSeed % 100.0f) / 100.0f) * pathWidth;
_particle_array[i].position = axis.point +
(axis.right * offset.x) +
(axis.up * offset.y);
_particle_array[i].velocity = axis.forward * _particle_array[i].velocity.magnitude;
}
_particle_system.SetParticles(_particle_array, _numParticles);
}
}
public Path_Point GetPathPoint(float dist, bool isSmooth)
{
if (_isCircuit)
{
dist = (dist + TotalDistance) % TotalDistance;
}
else
{
dist = Mathf.Clamp(dist, 0.0f, TotalDistance);
}
// find segment index
int index = 1;
while (_distances[index] < dist)
{
index++;
}
// the segment in the middle
_interpolation = Mathf.InverseLerp(
_distances[index - 1],
_distances[index],
dist);
index = index % _numPoints;
if (_isCircuit)
{
_four_indices[0] = ((index - 2) + _numPoints) % _numPoints;
_four_indices[1] = ((index - 1) + _numPoints) % _numPoints;
_four_indices[2] = index % _numPoints;
_four_indices[3] = (index + 1) % _numPoints;
}
else
{
_four_indices[0] = Mathf.Clamp(index - 2, 0, _numPoints - 1);
_four_indices[1] = ((index - 1) + _numPoints) % _numPoints;
_four_indices[2] = index % _numPoints;
_four_indices[3] = Mathf.Clamp(index + 1, 0, _numPoints - 1);
}
if (isSmooth)
{
// assign the four points with the segment in the middle
_four_points[0] = _points[_four_indices[0]];
_four_points[1] = _points[_four_indices[1]];
_four_points[2] = _points[_four_indices[2]];
_four_points[3] = _points[_four_indices[3]];
// you need two points to get a forward direction
_pathPoint.point = Math_Functions.CatmullRom(
_four_points[0],
_four_points[1],
_four_points[2],
_four_points[3],
_interpolation);
_pathPoint.forward = Math_Functions.CatmullRom(
_four_points[0],
_four_points[1],
_four_points[2],
_four_points[3],
_interpolation + 0.01f) - _pathPoint.point;
_pathPoint.forward.Normalize();
}
else // strait shooting
{
_pathPoint.point = Vector3.Lerp(
_points[_four_indices[1]],
_points[_four_indices[2]],
_interpolation);
_pathPoint.forward = _points[_four_indices[2]] - _points[_four_indices[1]];
_pathPoint.forward.Normalize();
}
// 90 degree turn to right
_pathPoint.right = Vector3.Cross(
Vector3.Lerp(
_upDirections[_four_indices[1]],
_upDirections[_four_indices[2]],
_interpolation), // lerp
_pathPoint.forward).normalized; // cross
// 90 degree turn to up
_pathPoint.up = Vector3.Cross(_pathPoint.forward, _pathPoint.right).normalized;
// now all directions are 90 degrees from each other
return(_pathPoint);
}
void LateUpdate()
{
#if UNITY_EDITOR
if (!Application.isPlaying)
{
_editorTimeDelta = EditorApplication.timeSinceStartup - _editorTimetracker;
_editorTimetracker = EditorApplication.timeSinceStartup;
}
#endif
if (transform.childCount <= 1)
{
return;
}
// emision
if (_emissionRateTracker <= 0.0f)
{
_emissionRateTracker += 1.0f / emissionRate;
RenewOneDeadParticle();
}
_emissionRateTracker -= (Application.isPlaying ? Time.deltaTime : (float)_editorTimeDelta);
// age them
foreach (PathParticleTracker tracker in _particle_trackerArray)
{
if (tracker.particle.remainingLifetime > 0.0f)
{
tracker.particle.remainingLifetime = Mathf.Max(tracker.particle.remainingLifetime - (Application.isPlaying ? Time.deltaTime : (float)_editorTimeDelta), 0.0f);
}
}
float normLifetime = 0.0f;
Path_Point Rpoint;
// move them
foreach (PathParticleTracker tracker in _particle_trackerArray)
{
if (tracker.particle.remainingLifetime > 0.0f)
{
normLifetime = tracker.particle.remainingLifetime / tracker.particle.startLifetime;
normLifetime = 1.0f - normLifetime;
Rpoint = _path_comp.GetPathPoint(normLifetime * _path_comp.TotalDistance);
// rotate around Rpoint.direction
Rpoint.point += (pathWidth * tracker.distance) * Math_Functions.Rotate_Vector(Rpoint.up, Rpoint.forward, tracker.rotation);
tracker.particle.position = Rpoint.point;
tracker.particle.velocity = Rpoint.forward;
}
}
_particle_count = 0;
// set the given array
foreach (PathParticleTracker tracker in _particle_trackerArray)
{
if (tracker.particle.remainingLifetime > 0.0f) // it's alive
{
_particle_array[_particle_count] = tracker.particle;
_particle_count++;
}
}
_particle_system.SetParticles(_particle_array, _particle_count);
}
//Gizmos是用于在场景视图可视化调试或辅助设置。==================game视图中不可用，需要对点做模型，并且提供平移
private void DrawGizmos(bool selected)
{
Update_Path();
if (transform.childCount <= 1)
{
return;
}
Path_Point prev = GetPathPoint(0.0f);
//gizmoLineSize=1.0f; [Range(0.01f, 1.0f)],用来变形的常量
float dist = -gizmoLineSize;
//print (dist);
//print (gizmoLineSize);
//int i = 0;
do
{
//i += 1;
//gizmoLineSize / 10 : 控制曲线上点与点的距离
dist = Mathf.Clamp(dist + gizmoLineSize / 10, 0, _path.TotalDistance);
//=======！！！此处不断依据CatmullRom算法，找到一个个点
Path_Point next = GetPathPoint(dist);
//print("前点："+prev.point.x+","+prev.point.y+","+prev.point.z);
//print("前点方向："+prev.forward);
//print("后点："+next.point.x +","+next.point.y+","+next.point.z);
float distance = Vector3.Distance(prev.point, next.point);
distance = distance / 2;
//print("点间距/2："+distance);
Vector3 V = next.point - prev.point;
V = V.normalized;
//print("两点之间的向量："+V);//后点-前点
float angle = Vector3.Angle(prev.forward, V);
//print("两向量之间的夹角："+angle);
//print(Mathf.Sin(angle));
//print(Mathf.Sin(90));
//r=(length/2)/sina
float radius = distance / Mathf.Sin(Math_Functions.DegreesToRadians(angle));
//print("第" + i + "个点" + "前点：" + prev.point.x + "," + prev.point.y + "," + prev.point.z + "后点：" + next.point.x + "," + next.point.y + "," + next.point.z + "两向量之间的夹角：" + angle + "前点处的转弯半径：" + radius);
if (radius < 2.7 && radius != 0)
{
Gizmos.color = selected ? Color.red : new Color(1, 0, 0, 0.5f);
Gizmos.DrawLine(transform.TransformPoint(prev.point), transform.TransformPoint(next.point));
Gizmos.color = selected ? Color.green : new Color(0, 1, 0, 0.5f);
//Gizmos.DrawLine(transform.TransformPoint(next.point), transform.TransformPoint(next.point) + transform.TransformDirection(next.up * gizmoLineSize));
Gizmos.color = selected ? new Color(0, 1, 1, 1) : new Color(0, 1, 1, 0.5f);
//Gizmos.DrawLine(transform.TransformPoint(next.point), transform.TransformPoint(next.point) + transform.TransformDirection(next.right * gizmoLineSize));
}
else
{
Gizmos.color = selected ? new Color(0, 1, 1, 1) : new Color(0, 1, 1, 0.5f);
Gizmos.DrawLine(transform.TransformPoint(prev.point), transform.TransformPoint(next.point));
Gizmos.color = selected ? Color.green : new Color(0, 1, 0, 0.5f);
//Gizmos.DrawLine(transform.TransformPoint(next.point), transform.TransformPoint(next.point) + transform.TransformDirection(next.up * gizmoLineSize));
Gizmos.color = selected ? Color.red : new Color(1, 0, 0, 0.5f);
// Gizmos.DrawLine(transform.TransformPoint(next.point), transform.TransformPoint(next.point) + transform.TransformDirection(next.right * gizmoLineSize));
}
prev = next;
} while (dist < _path.TotalDistance);
}
/*
*@dist: distance 点距离起始点的距离(两点之间直线段距离累加)
* return：返回一个Path_Point 依据传入的distance
*/
public Path_Point GetPathPoint(float dist, bool isSmooth)
{
if (_isCircuit)
{
dist = (dist + TotalDistance) % TotalDistance;
}
else
{
dist = Mathf.Clamp(dist, 0.0f, TotalDistance);//限制value的值在min和max之间， 如果value小于min，返回min。 如果value大于max，返回max，否则返回value
}
// find segment index
int index = 1;
while (_distances[index] < dist)
{
index++;
}
// the segment in the middle
// static float InverseLerp(float from, float to, float value); eg: (5,10,8)==3/5
_interpolation = Mathf.InverseLerp(
_distances[index - 1],
_distances[index],
dist);//计算两个值之间的Lerp参数。也就是value在from和to之间的比例值。
//防止是圆的情况
index = index % _numPoints;
// 获取插值两边各两个点的index，总共4个点；
if (_isCircuit)
{
_four_indices[0] = ((index - 2) + _numPoints) % _numPoints;
_four_indices[1] = ((index - 1) + _numPoints) % _numPoints;
_four_indices[2] = index % _numPoints;
_four_indices[3] = (index + 1) % _numPoints;
}
else
{
_four_indices[0] = Mathf.Clamp(index - 2, 0, _numPoints - 1);
_four_indices[1] = ((index - 1) + _numPoints) % _numPoints;
_four_indices[2] = index % _numPoints;
_four_indices[3] = Mathf.Clamp(index + 1, 0, _numPoints - 1);
}
if (isSmooth)
{
// assign the four points with the segment in the middle在中间分配四个点与段
_four_points[0] = _points[_four_indices[0]];
_four_points[1] = _points[_four_indices[1]];
_four_points[2] = _points[_four_indices[2]];
_four_points[3] = _points[_four_indices[3]];
// you need two points to get a forward direction你需要两点来获得前进的方向
_pathPoint.point = Math_Functions.CatmullRom(
_four_points[0],
_four_points[1],
_four_points[2],
_four_points[3],
_interpolation);
// 获取方向增加点 interpolation值：0.001f
_pathPoint.forward = Math_Functions.CatmullRom(
_four_points[0],
_four_points[1],
_four_points[2],
_four_points[3],
_interpolation + interpolationPara) - _pathPoint.point;
_pathPoint.forward.Normalize();
}
else // strait shooting
{
_pathPoint.point = Vector3.Lerp(
_points[_four_indices[1]],
_points[_four_indices[2]],
_interpolation);
_pathPoint.forward = _points[_four_indices[2]] - _points[_four_indices[1]];
_pathPoint.forward.Normalize();
}
// 90 degree turn to right90度右转
// Vector3.Lerp p=form+(to-form)*t
//_interpolation = Mathf.InverseLerp
// 计算点在up方向上的Vector3
Vector3 tempUpDirection = Vector3.Lerp(_upDirections[_four_indices[1]], _upDirections[_four_indices[2]], _interpolation);
_pathPoint.right = Vector3.Cross(tempUpDirection, _pathPoint.forward).normalized; // cross
// 90 degree turn to up90度上转
_pathPoint.up = Vector3.Cross(_pathPoint.forward, _pathPoint.right).normalized;
//tempUpDirection.normalized 与 _pathPoint.up不相同
// now all directions are 90 degrees from each other
return(_pathPoint);
}
void LateUpdate()
{
#if UNITY_EDITOR
if (!Application.isPlaying)
{
editorTimeDelta = EditorApplication.timeSinceStartup - editorTimetracker;
editorTimetracker = EditorApplication.timeSinceStartup;
}
#endif
if (transform.childCount <= 1)
{
return;
}
// emision
if (emissionRateTracker <= 0.0f)
{
emissionRateTracker += 1.0f / emissionRate;
RenewOneDeadParticle();
}
emissionRateTracker -= (Application.isPlaying ? Time.deltaTime : (float)editorTimeDelta);
// age them
foreach (PathParticleTracker tracker in particle_trackerArray)
{
if (tracker.particle.lifetime > 0.0f)
{
tracker.particle.lifetime = Mathf.Max(tracker.particle.lifetime - (Application.isPlaying ? Time.deltaTime : (float)editorTimeDelta), 0.0f);
}
}
float normLifetime = 0.0f;
RoutePoint Rpoint;
// move them
foreach (PathParticleTracker tracker in particle_trackerArray)
{
if (tracker.particle.lifetime > 0.0f)
{
normLifetime = tracker.particle.lifetime / tracker.particle.startLifetime;
normLifetime = 1.0f - normLifetime;
Rpoint = path.GetRoutePoint(normLifetime * path.TotalDistance);
// 90 degree turn
perpendicularDir.x = Rpoint.direction.y;
perpendicularDir.y = -Rpoint.direction.x;
perpendicularDir.z = Rpoint.direction.z;
// rotate around Rpoint.direction
perpendicularDir = Math_Functions.Rotate_Direction(perpendicularDir, Rpoint.direction, tracker.rotation);
// targetPos
Rpoint.position += (pathWidth * tracker.distance) * perpendicularDir;
tracker.particle.position = Rpoint.position;
tracker.particle.velocity = Rpoint.direction;
}
}
particle_count = 0;
// set the given array
foreach (PathParticleTracker tracker in particle_trackerArray)
{
if (tracker.particle.lifetime > 0.0f) // it's alive
{
particle_array[particle_count] = tracker.particle;
particle_count++;
}
}
particle_system.SetParticles(particle_array, particle_count);
}
private void IsNotCircuit(float dist)
{
dist = Mathf.Clamp(dist, 0.0f, TotalDistance);
// find segment index
int index = 1;
while (_distances[index] < dist)
{
index++;
}
// the segment in the middle
_four_indices[1] = index - 1;
_four_indices[2] = index;
_interpolation = Mathf.InverseLerp(
_distances[_four_indices[1]],
_distances[_four_indices[2]],
dist);
if (_isSmooth)
{
_four_indices[0] = Mathf.Clamp(index - 2, 0, _points.Length - 1);
_four_indices[3] = Mathf.Clamp(index + 1, 0, _points.Length - 1);
// assign the four points with the segment in the middle
_four_points[0] = _points[_four_indices[0]];
_four_points[1] = _points[_four_indices[1]];
_four_points[2] = _points[_four_indices[2]];
_four_points[3] = _points[_four_indices[3]];
// you need two points to get a forward direction
pathPoint.point = Math_Functions.CatmullRom(
_four_points[0],
_four_points[1],
_four_points[2],
_four_points[3],
_interpolation);
pathPoint.forward = Math_Functions.CatmullRom(
_four_points[0],
_four_points[1],
_four_points[2],
_four_points[3],
_interpolation + 0.01f) - pathPoint.point;
pathPoint.forward.Normalize();
}
else // strait shooting
{
pathPoint.point = Vector3.Lerp(
_points[_four_indices[1]],
_points[_four_indices[2]],
_interpolation);
pathPoint.forward = _points[_four_indices[2]] - _points[_four_indices[1]];
pathPoint.forward.Normalize();
}
// 90 degree turn to right
pathPoint.right = Vector3.Cross(
Vector3.Lerp(
transform.InverseTransformDirection(_children_transforms[_four_indices[1]].up),
transform.InverseTransformDirection(_children_transforms[_four_indices[2]].up),
_interpolation), // lerp
pathPoint.forward).normalized; // cross
// 90 degree turn to up
pathPoint.up = Vector3.Cross(pathPoint.forward, pathPoint.right).normalized;
// now all points are 90 degrees from each other
}
public void AddTriangle(int[] indices, int submesh)
{
// vertices
Vector3[] verts = new Vector3[3] {
segment_sourceMesh.vertices[indices[0]],
segment_sourceMesh.vertices[indices[1]],
segment_sourceMesh.vertices[indices[2]]
};
// normals
Vector3[] norms = new Vector3[3] {
segment_sourceMesh.normals[indices[0]],
segment_sourceMesh.normals[indices[1]],
segment_sourceMesh.normals[indices[2]]
};
// apply offset
float lerpValue = 0.0f;
Vector3 pointA, pointB;
Vector3 normA, normB;
for (int i = 0; i < 3; i++)
{
lerpValue = Math_Functions.Value_from_another_Scope(verts[i].z, _segment_MinZ, _segment_MaxZ, 0.0f, 1.0f);
verts[i].z = 0.0f;
pointA = _helpTransform1.TransformPoint(verts[i]); // to world
pointB = _helpTransform2.TransformPoint(verts[i]);
verts[i] = transform.InverseTransformPoint(Vector3.Lerp(pointA, pointB, lerpValue)); // to local
normA = _helpTransform1.TransformDirection(norms[i]);
normB = _helpTransform2.TransformDirection(norms[i]);
norms[i] = transform.InverseTransformDirection(Vector3.Lerp(normA, normB, lerpValue));
// is this new?
int index = -1;
if (shouldOptimizeMesh)
{
for (int iterator = 0; iterator < _vertices.Count; iterator++)
{
if (_vertices[iterator] == verts[i] &&
_normals[iterator] == norms[i] &&
_uvs[iterator] == segment_sourceMesh.uv[indices[i]])
{
index = iterator;
break;
}
}
}
// it is
if (index == -1)
{
_subIndices[submesh].Add(_vertices.Count);
_triangles.Add(_vertices.Count);
_vertices.Add(verts[i]);
_normals.Add(norms[i]);
_uvs.Add(segment_sourceMesh.uv[indices[i]]);
}
else // it is not
{
numDoubles++;
_subIndices[submesh].Add(index);
_triangles.Add(index);
}
}
}