public ArcPoint(ArcPoint original, double angleOffset)
{
this.Parent = original.Parent;
this.Point = original.Point;
this.RightEnd = original.RightEnd;
this.EdgeFacing = original.EdgeFacing;
this.Angle = original.Angle + angleOffset;
}
public ArcPoint WorldToArc(Vector3 world)
{
float t = NormalizeAngle(GetAngle(new Vector3(world.x, 0.0f, world.z) - new Vector3(center.x, 0.0f, center.z)));
float d = (new Vector3(world.x, 0.0f, world.z) - new Vector3(center.x, 0.0f, center.z)).magnitude;
GameObject obj2 = new GameObject();
ArcPoint newArc = obj2.AddComponent <ArcPoint>();
newArc.Arcarcpoint(t, d);
return(newArc);
}
public Vector3 ArcToWorld(ArcPoint arcPoint)
{
float tr = arcPoint.t * Mathf.Deg2Rad;
float d = arcPoint.d;
if (flipped)
{
tr = (-arcPoint.t + 180) * Mathf.Deg2Rad;
}
return(new Vector3(d * Mathf.Cos(tr), 0, d * Mathf.Sin(tr)) + center);
}
public Vector3 ArcToLocal(ArcPoint arcPoint)
{
float tr = arcPoint.t * Mathf.Deg2Rad;
float d = arcPoint.d;
if (flipped)
{
tr = (-arcPoint.t + 180) * Mathf.Deg2Rad;
}
return(new Vector3(d * Mathf.Cos(tr), 0, d * Mathf.Sin(tr)) + center - transform.position);
}
/* this method is adapted from http://www.jakecaspick.com/post/endlessroad/?fbclid=IwAR3z_UHz15fQohIkY6tSgBI6VLrnCgbXhqNJS6u6vl8Rl6A8P3y2pC-mDmQ
*/
public bool ContainsPoint(Vector3 point, float margin)
{
ArcPoint p = WorldToArc(point);
float rp = NormalizeAngle(p.t - startAngle);
if (rp >= 0 && rp <= angle && p.d <= radius + width / 2 + margin && p.d >= radius - width / 2 - margin)
{
return(true);
}
return(false);
}
public ArcInterval(Arc parent)
{
var points = parent.Points.ToArray();
this.Left = points[1];
this.Right = points[0];
if (this.Right.Angle > this.Left.Angle)
{
this.Right = new ArcPoint(this.Right, -4);
}
}
public Vector3[] ArcArray()
{
List <Vector3> output = new List <Vector3>(); //Vector3[resolution + 1];
angleRadians = Mathf.Deg2Rad * (flipped ? -angle : angle);
float maxDist = (velocity * velocity * Mathf.Sin(2 * angleRadians)) / g;
flag = false;
for (int i = 0; i < resolution + 20; i++)
{
float t = (float)i / (float)resolution;
float t2 = ((float)i + 1) / (float)resolution;
TransitionTest(frog.position + ArcPoint(t, maxDist), frog.position + ArcPoint(t2, maxDist));
ArcPoint point = TestGroundHit(frog.position + ArcPoint(t, maxDist), frog.position + ArcPoint(t2, maxDist));
if (i < resolution + 10)
{
if (!point.hitGround)
{
output.Add(point.point);
}
else
{
output.Add(point.point);
output.Add(point.hitPoint);
hitPoint = point.hitPoint;
break;
}
}
else
{
output.Add(point.point);
hitPoint = point.point;
}
}
Vector3 avg = Vector3.zero;
foreach (Vector3 point in output)
{
avg += point;
}
if (!flag)
{
transition = false;
}
avgPosition = avg / output.Count;
lr.positionCount = output.Count;
frog.GetComponent <FrogScript>().expectedLandingPoint = hitPoint;
return(output.ToArray());
}
/* this method is adapted from http://www.jakecaspick.com/post/endlessroad/?fbclid=IwAR3z_UHz15fQohIkY6tSgBI6VLrnCgbXhqNJS6u6vl8Rl6A8P3y2pC-mDmQ
*/
public void Initialize()
{
if (!flipped)
{
startAngle = NormalizeAngle(startAngle);
endAngle = NormalizeAngle(startAngle + angle);
}
else
{
startAngle = NormalizeAngle(-startAngle);
endAngle = NormalizeAngle(-startAngle - angle);
}
center = GetCenter();
totalDistance = angle / 180 * Mathf.PI * radius;
GameObject obj = new GameObject();
ArcPoint newArc = obj.AddComponent <ArcPoint>();
newArc.Arcarcpoint(angle + startAngle, radius);
endPos = ArcToWorld(newArc);
}
public Arc(ParticleSystem.Particle[] particles, int start, int count)
{
this.start = start;
this.end = start + count;
this.particles = particles;
points = new ArcPoint[pointsPerArc];
for (int i = 0; i < pointsPerArc; i++) {
points[i] = new ArcPoint();
}
initPoints();
}
/* this method is adapted from http://www.jakecaspick.com/post/endlessroad/?fbclid=IwAR3z_UHz15fQohIkY6tSgBI6VLrnCgbXhqNJS6u6vl8Rl6A8P3y2pC-mDmQ
*/
public void GenerateMesh()
{
GetComponent <MeshFilter>().mesh = mesh = new Mesh();
vertices = new Vector3[(arcDivisions + 1) * (widthDivisions + 1)];
uv = new Vector2[vertices.Length];
float arcStep = angle / arcDivisions;
float widthStep = width / widthDivisions;
GameObject obj1 = new GameObject();
ArcPoint nextVertex = obj1.AddComponent <ArcPoint>();
nextVertex.Arcarcpoint(0, 0);
Vector2 nextUV = Vector2.zero;
if (!flipped)
{
for (int t = 0; t <= arcDivisions; t++)
{
for (int w = 0; w <= widthDivisions; w++)
{
nextVertex.Set(t * arcStep + startAngle, (w * widthStep - width / 2) + radius);
vertices[t * (widthDivisions + 1) + w] = ArcToLocal(nextVertex);
nextUV.Set((float)w / widthDivisions / textureScale, (float)t / arcDivisions * totalDistance / textureScale + uvOffset);
uv[t * (widthDivisions + 1) + w] = nextUV;
}
}
}
else
{
for (int t = 0; t <= arcDivisions; t++)
{
for (int w = 0; w <= widthDivisions; w++)
{
nextVertex.Set(t * arcStep + startAngle, (w * -widthStep + width / 2) + radius);
vertices[t * (widthDivisions + 1) + w] = ArcToLocal(nextVertex);
nextUV.Set((float)w / widthDivisions / textureScale, (float)t / arcDivisions * totalDistance / textureScale + uvOffset);
uv[t * (widthDivisions + 1) + w] = nextUV;
}
}
}
mesh.vertices = vertices;
mesh.uv = uv;
triangles = new int[arcDivisions * widthDivisions * 6];
for (int ti = 0, vi = 0, t = 0; t < arcDivisions; t++, vi++)
{
for (int w = 0; w < widthDivisions; w++, ti += 6, vi++)
{
triangles[ti] = vi;
triangles[ti + 3] = triangles[ti + 2] = vi + 1;
triangles[ti + 4] = triangles[ti + 1] = vi + widthDivisions + 1;
triangles[ti + 5] = vi + widthDivisions + 2;
mesh.triangles = triangles;
}
}
mesh.RecalculateNormals();
//Mesh collider needs to be added after creating mesh or else
// collider will be in the shape of the initial plane
gameObject.AddComponent <MeshCollider>();
gameObject.GetComponent <MeshCollider>().sharedMesh = mesh;
}
public void GenerateMesh()
{
GetComponent <MeshFilter>().mesh = mesh = new Mesh();
vertices = new Vector3[(arcDivisions + 1) * (widthDivisions + 1)];
uv = new Vector2[vertices.Length];
float arcStep = angle / arcDivisions;
float widthStep = width / widthDivisions;
ArcPoint nextVertex = new ArcPoint(0, 0);
Vector2 nextUV = Vector2.zero;
if (!flipped)
{
for (int t = 0; t <= arcDivisions; t++)
{
for (int w = 0; w <= widthDivisions; w++)
{
nextVertex.Set(t * arcStep + startAngle, (w * widthStep - width / 2) + radius);
vertices[t * (widthDivisions + 1) + w] = ArcToLocal(nextVertex);
nextUV.Set((float)w / widthDivisions / textureScale, (float)t / arcDivisions * totalDistance / textureScale + uvOffset);
uv[t * (widthDivisions + 1) + w] = nextUV;
}
}
}
else
{
for (int t = 0; t <= arcDivisions; t++)
{
for (int w = 0; w <= widthDivisions; w++)
{
nextVertex.Set(t * arcStep + startAngle, (w * -widthStep + width / 2) + radius);
vertices[t * (widthDivisions + 1) + w] = ArcToLocal(nextVertex);
nextUV.Set((float)w / widthDivisions / textureScale, (float)t / arcDivisions * totalDistance / textureScale + uvOffset);
uv[t * (widthDivisions + 1) + w] = nextUV;
}
}
}
mesh.vertices = vertices;
mesh.uv = uv;
triangles = new int[arcDivisions * widthDivisions * 6];
for (int ti = 0, vi = 0, t = 0; t < arcDivisions; t++, vi++)
{
for (int w = 0; w < widthDivisions; w++, ti += 6, vi++)
{
triangles[ti] = vi;
triangles[ti + 3] = triangles[ti + 2] = vi + 1;
triangles[ti + 4] = triangles[ti + 1] = vi + widthDivisions + 1;
triangles[ti + 5] = vi + widthDivisions + 2;
mesh.triangles = triangles;
}
}
mesh.RecalculateNormals();
}
public ArcInterval(ArcPoint left, ArcPoint right)
{
this.Left = left;
this.Right = right;
}
private void multipleArcVertices(ArcPoint point, Vector2D facing, List <float> outputData)
{
var circle = point.Parent.Parent;
var left = point.EdgeFacing * circle.Radius;
var right = point.EdgeFacing * point.EdgeFacing.Dot(point.Point);
var top = point.Parent.Parent.Radius * (point.RightEnd ?
point.EdgeFacing.PerpendicularRight :
point.EdgeFacing.PerpendicularLeft);
var endShape = new LinkedList <Vector2D>(new[] {
right + top,
right,
left,
left + top,
});
var facingNormal = point.RightEnd ? facing.PerpendicularRight : facing.PerpendicularLeft;
for (var current = endShape.First; current != null; /* no step */)
{
var next = current.Next ?? endShape.First;
var added = false;
if ((current.Value.Dot(facingNormal) < DotLimit) != (next.Value.Dot(facingNormal) < DotLimit))
{
var line = next.Value - current.Value;
var height = current.Value.Dot(facingNormal);
var speed = -height / line.Dot(facingNormal);
endShape.AddAfter(current, current.Value + line * speed);
added = true;
}
if (current.Value.Dot(facingNormal) < DotLimit)
{
var realNext = current.Next;
endShape.Remove(current);
current = realNext;
}
else
{
current = current.Next;
}
if (added)
{
current = current.Next;
}
}
var triangles = new List <Vector2D[]>();
for (var current = endShape.First.Next.Next; current != null; current = current.Next)
{
triangles.Add(makeTriangle(endShape.First.Value, current.Previous.Value, current.Value));
}
var facingSide = facing.Cross(point.EdgeFacing);
if (point.RightEnd && facingSide < 0 || !point.RightEnd && facingSide > 0)
{
triangles.Add(makeTriangle(new Vector2D(0, 0), facing * circle.Radius * 1.5f, point.EdgeFacing * circle.Radius * 1.5f));
}
outputData.AddRange(triangles.SelectMany(x => x).SelectMany(x => orbitVertex(x)));
}