private void ConstructFaceNormal(MeshGeometry3D themesh, int faceindex)
{
Point3D centroid = Tools3D.ComputeTriangleCentroid(themesh, faceindex);
Vector3D facenormal = Tools3D.ComputeTriangleNormal(themesh, faceindex);
ConstructAnnotationArrow(centroid, facenormal, CONTAINERfacenormals);
}
private void ConstructVertexNormalsMatchingFaceNormal(MeshGeometry3D themesh, int faceindex)
{
Vector3D facenormal = Tools3D.ComputeTriangleNormal(themesh, faceindex);
ConstructAnnotationArrow(themesh.Positions[themesh.TriangleIndices[faceindex * 3]], facenormal, CONTAINERfacenormals);
ConstructAnnotationArrow(themesh.Positions[themesh.TriangleIndices[faceindex * 3 + 1]], facenormal, CONTAINERfacenormals);
ConstructAnnotationArrow(themesh.Positions[themesh.TriangleIndices[faceindex * 3 + 2]], facenormal, CONTAINERfacenormals);
}
private void ConstructVertexNormalsForTwoFaceSituation(MeshGeometry3D themesh)
{
Vector3D facenormal0 = Tools3D.ComputeTriangleNormal(themesh, 0);
Vector3D facenormal1 = Tools3D.ComputeTriangleNormal(themesh, 1);
// The edge vertices (non-shared) use the face normal as-is
ConstructAnnotationArrow(themesh.Positions[1], facenormal0, CONTAINERfacenormals);
ConstructAnnotationArrow(themesh.Positions[3], facenormal1, CONTAINERfacenormals);
// The shared vertices 0 and 2 use the average of the two normals.
Vector3D normalavgd = (facenormal0 + facenormal1);
normalavgd.Normalize();
ConstructAnnotationArrow(themesh.Positions[0], normalavgd, CONTAINERfacenormals);
ConstructAnnotationArrow(themesh.Positions[2], normalavgd, CONTAINERfacenormals);
}
// Use this for initialization
void Start()
{
index = mainCounter;
mainCounter++;
// VectorLine.SetEndCap("Arrow", EndCap.Front, axisEndCapTexture, axisEndCapTexture);
List <Vector3> ptsXY = new List <Vector3>();
List <Vector3> ptsXZ = new List <Vector3>();
List <Vector3> ptsYZ = new List <Vector3>();
//GRID XY
if (displayGridXY)
{
for (int i = 1; i <= gridNSteps; i++)
{
ptsXY.Add(new Vector3(0, i * gridDelta, 0));
ptsXY.Add(new Vector3((gridNSteps + 1) * gridDelta, i * gridDelta, 0));
ptsXY.Add(new Vector3(i * gridDelta, 0, 0));
ptsXY.Add(new Vector3(i * gridDelta, (gridNSteps + 1) * gridDelta, 0));
}
gridXY = new VectorLine("gridXY", ptsXY, gridThickness);
gridXY.color = new Color(1, 1, 1, gridXYAlpha);
}
if (displayGridXZ)
{
//GRID XZ
for (int i = 1; i <= gridNSteps; i++)
{
ptsXZ.Add(new Vector3(i * gridDelta, 0, 0));
ptsXZ.Add(new Vector3(i * gridDelta, 0, (gridNSteps + 1) * gridDelta));
ptsXZ.Add(new Vector3(0, 0, i * gridDelta));
ptsXZ.Add(new Vector3((gridNSteps + 1) * gridDelta, 0, i * gridDelta));
}
gridXZ = new VectorLine("gridXZ", ptsXZ, gridThickness);
gridXZ.color = new Color(1, 1, 1, gridXZAlpha);
}
if (displayGridYZ)
{
//GRID YZ
for (int i = 1; i <= gridNSteps; i++)
{
ptsYZ.Add(new Vector3(0, i * gridDelta, 0));
ptsYZ.Add(new Vector3(0, i * gridDelta, (gridNSteps + 1) * gridDelta));
ptsYZ.Add(new Vector3(0, 0, i * gridDelta));
ptsYZ.Add(new Vector3(0, (gridNSteps + 1) * gridDelta, i * gridDelta));
}
gridYZ = new VectorLine("gridYZ", ptsYZ, gridThickness);
gridYZ.color = new Color(1, 1, 1, gridYZAlpha);
}
axisX = new VectorLine("axisX", new List <Vector3>()
{
new Vector3(0, 0, 0),
new Vector3(axisLength, 0, 0)
}, axisThickness);
axisX.color = axisXColor;
// axisX.endCap = "Arrow";
axisY = new VectorLine("axisY", new List <Vector3>()
{
new Vector3(0, 0, 0),
new Vector3(0, axisLength, 0)
}, axisThickness);
axisY.color = axisYColor;
axisZ = new VectorLine("axisZ", new List <Vector3>()
{
new Vector3(0, 0, 0),
new Vector3(0, 0, axisLength)
}, axisThickness);
axisZ.color = axisZColor;
if (displayNegativeAxis)
{
axisNegX = new VectorLine("axisNegX",
Tools3D.CreateDashedLine(Vector3.zero, new Vector3(-axisLength, 0, 0), .5f, .5f),
axisThickness);
axisNegX.color = new Color(axisXColor.r, axisXColor.g, axisXColor.b, axisXColor.a * .5f);
axisNegY = new VectorLine("axisNegY",
Tools3D.CreateDashedLine(Vector3.zero, new Vector3(0, -axisLength, 0), .5f, .5f),
axisThickness);
axisNegY.color = new Color(axisYColor.r, axisYColor.g, axisYColor.b, axisYColor.a * .5f);
axisNegZ = new VectorLine("axisNegZ",
Tools3D.CreateDashedLine(Vector3.zero, new Vector3(0, 0, -axisLength), .5f, .5f),
axisThickness);
axisNegZ.color = new Color(axisZColor.r, axisZColor.g, axisZColor.b, axisZColor.a * .5f);
}
if (displayXYZ)
{
letterX = new VectorLine("letterX", new List <Vector3>()
{
new Vector3(0, 0, 0),
new Vector3(axisLength, 0, 0)
}, 1f);
letterX.MakeText("X", new Vector3(axisLength + .5f, .5f, 0), 1);
letterX.color = Color.red;
letterY = new VectorLine("letterY", new List <Vector3>()
{
new Vector3(0, 0, 0),
new Vector3(axisLength, 0, 0)
}, 1f);
letterY.MakeText("Y", new Vector3(-.25f, axisLength + 1.5f, 0), 1);
letterY.color = Color.green;
letterZ = new VectorLine("letterZ", new List <Vector3>()
{
new Vector3(0, 0, 0),
new Vector3(axisLength, 0, 0)
}, 1f);
letterZ.MakeText("Z", new Vector3(0, .5f, axisLength + .5f), 1);
letterZ.color = Color.blue;
}
if (displaySphericalEnds)
{
sphericalEnds = new List <Transform>();
//on s'occupe de l'axe Ox
sphericalEnds.Add(CreateSphere(Color.red, Vector3.right * axisLength, .5f).transform);
if (traceXEndPos)
{
GameObject tracerGO = Instantiate(tracersPrefabs[0]) as GameObject;
tracerGO.transform.parent = sphericalEnds[sphericalEnds.Count - 1];
tracerGO.transform.localPosition = Vector3.zero;
}
//on s'occupe de l'axe Oy
sphericalEnds.Add(CreateSphere(Color.green, Vector3.up * axisLength, .5f).transform);
if (traceYEndPos)
{
GameObject tracerGO = Instantiate(tracersPrefabs[1]) as GameObject;
tracerGO.transform.parent = sphericalEnds[sphericalEnds.Count - 1];
tracerGO.transform.localPosition = Vector3.zero;
}
//on s'occupe de l'axe Oz
sphericalEnds.Add(CreateSphere(Color.blue, Vector3.forward * axisLength, .5f).transform);
if (traceZEndPos)
{
GameObject tracerGO = Instantiate(tracersPrefabs[2]) as GameObject;
tracerGO.transform.parent = sphericalEnds[sphericalEnds.Count - 1];
tracerGO.transform.localPosition = Vector3.zero;
}
}
}
