// fusion de la forme de base (liner, margelle) et rectangle exterieur
// pour la triangulation
// voir http://www.geometrictools.com/Documentation/TriangulationByEarClipping.pdf
protected void MergedInnerAndOuter()
{
Bounds polyBounds = _polygon.bounds;
Vector3 extents = polyBounds.extents;
Vector3 center = polyBounds.center;
// Pythagore
float translation = _outlineOffset * 1.41421356f; // sqrt (2)
Vector2 upRightDir = new Vector2 (1, 1).normalized * translation;
Vector2 upRight = new Vector2 (center.x + extents.x, center.z + extents.z) + upRightDir;
Vector2 downRightDir = new Vector2 (1, -1).normalized * translation;
Vector2 downRight = new Vector2 (center.x + extents.x, center.z - extents.z) + downRightDir;
Vector2 downLeftDir = new Vector2 (-1, -1).normalized * translation;
Vector2 downLeft = new Vector2 (center.x - extents.x, center.z - extents.z) + downLeftDir;
Vector2 upLeftDir = new Vector2 (-1, 1).normalized * translation;
Vector2 upLeft = new Vector2 (center.x - extents.x, center.z + extents.z) + upLeftDir;
PolygonRawData outerRawPoly = new PolygonRawData ();
outerRawPoly.Add (upRight);
outerRawPoly.Add (downRight);
outerRawPoly.Add (downLeft);
outerRawPoly.Add (upLeft);
Polygon outerPolygon = new Polygon (outerRawPoly);
_mergedPolygon = PolygonOperation.MergeInnerAndOuter (_polygon, outerPolygon);
}
// fusionne deux polygones. Inner doit etre totalement inclus dans outer
// permet la triangulation d'un polygonr avec un trou --> plage
// voir http://www.geometrictools.com/Documentation/TriangulationByEarClipping.pdf
public static MergedPolygon MergeInnerAndOuter(Polygon inner, Polygon outer)
{
MergedPolygon mergedPolygon = new MergedPolygon ();
PolygonRawData mergedPolyRaw = new PolygonRawData ();
MutuallyVisibleVertices mvv = FindMutuallyVisibleVertices (inner, outer);
LoopedList<Point2> innerPoints = inner.GetPoints ();
LoopedList<Point2> outerPoints = outer.GetPoints ();
int innerIndex = 0;
for (; innerIndex <= mvv.innerIndex; ++innerIndex)
{
mergedPolyRaw.Add (innerPoints[innerIndex]);
}
mergedPolygon.originalIndex0 = mergedPolyRaw.Count - 1;
mergedPolygon.originalIndex1 = mergedPolyRaw.Count;
for (int counter = 0, outerIndex = mvv.outerIndex;
counter < outerPoints.Count;
++counter, --outerIndex)
{
mergedPolyRaw.Add (outerPoints[outerIndex]);
}
mergedPolyRaw.Add (outerPoints[mvv.outerIndex] + mvv.duplicatedMVVOffset);
mergedPolygon.duplicatedIndex1 = mergedPolyRaw.Count - 1;
mergedPolyRaw.Add (innerPoints[mvv.innerIndex] + mvv.duplicatedMVVOffset);
mergedPolygon.duplicatedIndex0 = mergedPolyRaw.Count - 1;
for (; innerIndex < innerPoints.Count; ++innerIndex)
{
mergedPolyRaw.Add (innerPoints[innerIndex]);
}
mergedPolygon.polygonRawData = mergedPolyRaw;
// Debug.Log (mergedPolygon.originalIndex0 + " " + mergedPolygon.originalIndex1 + " " + mergedPolygon.duplicatedIndex0 + " " + mergedPolygon.duplicatedIndex1);
return mergedPolygon;
}
// genere un ensemble de points correspondant au polygone avec ses avec arc de cercle
public PolygonRawData GenerateWithCurveInverse()
{
PolygonRawData curvedPolygon = new PolygonRawData ();
float minX = 0.0f;
float maxX = 0.0f;
float median=0.0f;
foreach (Point2 point in _points)
{
if(point.GetX()>maxX)
maxX=point.GetX();
if(point.GetX()<minX)
minX=point.GetX();
}
median = (maxX+minX)/2.0f;
foreach (Point2 point in _points)
//for (int i=_points.Count-1; i>=0; i--)
{
// Point2 point = _points[i];
float decalage = median - point.GetX();
float newX = median + decalage;
point.Set(
newX,
point.GetY()
);
/*point.Set(
point.GetX(),
point.GetY()
);*/
if (point.GetJunction () == JunctionType.Broken)
{
curvedPolygon.Add (point);
}
else if (point.GetJunction () == JunctionType.Curved)
{
ArchedPoint2 ar = point as ArchedPoint2;
foreach (Vector2 v in ar.GetCurve ())
{
curvedPolygon.Add (v);
}
}
}
return curvedPolygon;
}
// retourne l'arc de cercle sous forme d'une liste de point
// voir ArcDrawer pour l'algo
public PolygonRawData GetCurve()
{
PolygonRawData rawCurve = new PolygonRawData ();
Vector2 firstPoint2Add = _prevTangentPoint;
Vector2 lastPoint2Add = _nextTangentPoint;
Vector2 startVector = (_prevTangentPoint - _center).normalized;
Vector2 endVector = (_nextTangentPoint - _center).normalized;
Vector2 angleMeasureReference = Vector2.right;
if (_angleType == AngleType.Outside)
{
startVector = (_nextTangentPoint - _center).normalized;
endVector = (_prevTangentPoint - _center).normalized;
firstPoint2Add = _nextTangentPoint;
lastPoint2Add = _prevTangentPoint;
}
float startAngle;
if (Utils.Approximately (Vector3.Cross (startVector, angleMeasureReference).z, 0))
{
startAngle = Vector2.Dot (startVector, angleMeasureReference) < 0 ? 180 : 0;
}
else
{
Quaternion startRotation = Quaternion.FromToRotation (angleMeasureReference, startVector);
startAngle = startRotation.eulerAngles.z;
}
float endAngle;
if (Utils.Approximately (Vector3.Cross (endVector, angleMeasureReference).z, 0))
{
endAngle = Vector2.Dot (endVector, angleMeasureReference) < 0 ? 180 : 0;
}
else
{
Quaternion endRotation = Quaternion.FromToRotation (angleMeasureReference, endVector);
endAngle = endRotation.eulerAngles.z;
}
// round angle
startAngle = Mathf.Round(startAngle * 100) / 100;
endAngle = Mathf.Round(endAngle * 100) / 100;
//Debug.Log (startAngle + " " + endAngle);
if (startAngle > endAngle)
{
endAngle += 360;
}
startAngle += ANGLE_STEP;
float currentAngle = startAngle;
rawCurve.Add (firstPoint2Add);
while (currentAngle < endAngle)
{
float radAngle = currentAngle * Mathf.Deg2Rad;
Vector2 arcPoint = new Vector2 (Mathf.Cos (radAngle), Mathf.Sin (radAngle)) * _measuredRadius + _center;
if (_angleType == AngleType.Outside)
{
rawCurve.Insert (0, arcPoint);
}
else
{
rawCurve.Add (arcPoint);
}
currentAngle += ANGLE_STEP;
}
if (_angleType == AngleType.Outside)
{
rawCurve.Insert (0, lastPoint2Add);
}
else
{
rawCurve.Add (lastPoint2Add);
}
// if (_prevTangentPointMerged)
// {
// rawCurve.RemoveAt (0);
// }
//
// if (_nextTangentPointMerged)
// {
// rawCurve.RemoveAt (rawCurve.Count - 1);
// }
return rawCurve;
}
public void Generate(Polygon _polygon)
{
_rimParts.Clear ();
_rimLofters.Clear ();
_corners.Clear ();
foreach (Transform child in _rim.transform)
{
GameObject.Destroy (child.gameObject);
}
_rars.Subdivide (_polygon);
Polygon subdividedPolygon = new Polygon (_rars.GetSubdividedPolygon ());
subdividedPolygon.SetClosed (_polygon.IsClosed ());
//******************* OBTENTION DU PROFILE A EXTERNALISER ********************//
PolygonRawData shapeRaw = new PolygonRawData ();
/*shapeRaw.Add (new Vector2 (0, 0));
shapeRaw.Add (new Vector2 (0, 0.01f));
shapeRaw.Add (new Vector2 (-0.015f, 0.026f));
shapeRaw.Add (new Vector2 (-0.015f, 0.042f));
shapeRaw.Add (new Vector2 (-0.006f, 0.06f));
shapeRaw.Add (new Vector2 (0.01f, 0.069f));
shapeRaw.Add (new Vector2 (0.03f, 0.071f));
shapeRaw.Add (new Vector2 (0.049f, 0.066f));
shapeRaw.Add (new Vector2 (0.071f, 0.06f));
shapeRaw.Add (new Vector2 (0.1f, 0.052f));
shapeRaw.Add (new Vector2 (0.169f, 0.044f));
shapeRaw.Add (new Vector2 (0.249f, 0.041f));
shapeRaw.Add (new Vector2 (0.29f, 0.04f));
shapeRaw.Add (new Vector2 (0.298f, 0.038f));
shapeRaw.Add (new Vector2 (0.305f, 0.033f));
shapeRaw.Add (new Vector2 (0.309f, 0.024f));
shapeRaw.Add (new Vector2 (0.31f, 0.014f));
shapeRaw.Add (new Vector2 (0.31f, 0));*/
shapeRaw.Add (new Vector2 (-0.02f, 0.0f));
shapeRaw.Add (new Vector2 (0.28f, 0.0f));
shapeRaw.Add (new Vector2 (0.28f, 0.001f));
shapeRaw.Add (new Vector2 (-0.02f, 0.001f));
Polygon profile = new Polygon (shapeRaw);
profile.SetClosed (false);
//************************************************************************//
Polygon currentPortion = null;
bool inPortion = false;
bool inCurve = false;
int pointCounter = 0;
int indexOffset = 0;
// pour chaque point du polygon subdivisé
// si c'est un angle prédéfini on charge le mesh margelle associé
// sinon on crée un section avec l'outil loft jusqu'au prochain angle prédéfini
foreach (Point2 currentPoint in subdividedPolygon.GetPoints ())
{
float angle = currentPoint.GetAngle ();
AngleType angleType = currentPoint.GetAngleType ();
if (inPortion || inCurve)
{
Point2 pointToAdd = new Point2 (currentPoint);
currentPortion.AddPoint (pointToAdd);
}
Edge2 nextEdge = currentPoint.GetNextEdge ();
Edge2 prevEdge = currentPoint.GetPrevEdge ();
Point2 nextPoint = null;
Point2 prevPoint = null;
if (nextEdge != null)
{
nextPoint = nextEdge.GetNextPoint2 ();
prevPoint = prevEdge.GetPrevPoint2 ();
float nextAngle = nextPoint.GetAngle ();
AngleType nextAngleType = nextPoint.GetAngleType ();
// stop case for onr portion
if (Utils.Approximately (nextAngle, 90) && inPortion && nextAngleType == AngleType.Outside)
{
inPortion = false;
currentPortion.SetClosed (false);
GameObject portionGO = new GameObject ("portion");
portionGO.transform.parent = _rim.transform;
portionGO.transform.localPosition = Vector3.zero;
portionGO.transform.localRotation = Quaternion.identity;
portionGO.transform.localScale = Vector3.one;
portionGO.AddComponent<MeshRenderer> ();
MeshFilter meshFilter = portionGO.AddComponent<MeshFilter> ();
PolygonLofter polyLofter = new PolygonLofter (currentPortion, profile, meshFilter.mesh);
polyLofter.SetCurveIndices (_rars.GetCurveIndices ());
polyLofter.SetIndexedAngleType (_rars.GetIndexedAngleType ());
polyLofter.SetIndexOffset (indexOffset + 1, subdividedPolygon.GetPoints ().Count);
polyLofter.Generate ();
portionGO.GetComponent<Renderer>().material = _portionMaterial;
_rimParts.Add (currentPortion);
_rimLofters.Add (polyLofter);
}
// angle prédéfini (90°) --> piece a charger
if (Utils.Approximately (angle, 90) && angleType == AngleType.Outside)
{
_corners.Add (currentPoint);
Vector3 angleRimPosition = new Vector3 (currentPoint.GetX (),
0,
currentPoint.GetY ());
Vector2 nextEdgeDirection = currentPoint.GetNextEdge ().ToVector2 ();
Vector3 toDirection = new Vector3 (nextEdgeDirection.x, 0, nextEdgeDirection.y);
Quaternion angleRimOrientation = Quaternion.LookRotation (toDirection);
GameObject rimCorner = Object.Instantiate (Resources.Load ("PoolDesigner/rimCorner")) as GameObject;
rimCorner.transform.parent = _rim.transform;
rimCorner.transform.localPosition = angleRimPosition;
rimCorner.transform.localRotation = angleRimOrientation;
rimCorner.transform.localScale = Vector3.one;
//rimCorner.transform.GetChild (0).GetChild (1).renderer.material = _portionMaterial;
rimCorner.transform.GetChild (0).GetChild (0).GetComponent<Renderer>().material = _portionMaterial;
if (!inPortion)
{
inPortion = true;
indexOffset = pointCounter;
currentPortion = new Polygon ();
}
}
/* if (Utils.Approximately (nextAngle, 90) && (currentPoint.GetX()==nextPoint.GetX()) && (currentPoint.GetY()==nextPoint.GetY())
&& (currentPoint.GetX()==prevPoint.GetX()) && (currentPoint.GetY()==prevPoint.GetY()))
{
_corners.Add (currentPoint);
Vector3 angleRimPosition = new Vector3 (currentPoint.GetX (),
0,
currentPoint.GetY ());
Vector2 nextEdgeDirection = nextPoint.GetNextEdge ().ToVector2();
Vector3 toDirection = new Vector3 (nextEdgeDirection.x, 0, nextEdgeDirection.y);
Quaternion angleRimOrientation = Quaternion.LookRotation (toDirection);
GameObject rimCorner = Object.Instantiate (Resources.Load ("PoolDesigner/rimCorner")) as GameObject;
rimCorner.transform.parent = _rim.transform;
rimCorner.transform.localPosition = angleRimPosition;
rimCorner.transform.localRotation = angleRimOrientation;
rimCorner.transform.localScale = Vector3.one;
//rimCorner.transform.GetChild (0).GetChild (1).renderer.material = _portionMaterial;
rimCorner.transform.GetChild (0).GetChild (0).renderer.material = _portionMaterial;
if (!inPortion)
{
inPortion = true;
indexOffset = pointCounter;
currentPortion = new Polygon ();
}
}*/
}
++pointCounter;
}
if (inPortion) // si on etait entrain d'ajouter des points a une portion
{
if (_polygon.IsClosed ()) // on ajoute les points restants
{
inPortion = false;
Point2 currentPoint = subdividedPolygon.GetPoints ()[0];
float angle = currentPoint.GetAngle ();
AngleType angleType = currentPoint.GetAngleType ();
while (!Utils.Approximately (angle, 90) || angleType == AngleType.Inside)
{
Point2 pointToAdd = new Point2 (currentPoint);
currentPortion.AddPoint (pointToAdd);
currentPoint = currentPoint.GetNextEdge ().GetNextPoint2 ();
angle = currentPoint.GetAngle ();
angleType = currentPoint.GetAngleType ();
}
}
GameObject portionGO = new GameObject ("portion");
portionGO.transform.parent = _rim.transform;
portionGO.transform.localPosition = Vector3.zero;
portionGO.transform.localRotation = Quaternion.identity;
portionGO.transform.localScale = Vector3.one;
portionGO.AddComponent<MeshRenderer> ();
MeshFilter meshFilter = portionGO.AddComponent<MeshFilter> ();
PolygonLofter polyLofter = new PolygonLofter (currentPortion, profile, meshFilter.mesh);
polyLofter.SetIndexOffset (indexOffset + 1, subdividedPolygon.GetPoints ().Count);
polyLofter.SetCurveIndices (_rars.GetCurveIndices ());
polyLofter.SetIndexedAngleType (_rars.GetIndexedAngleType ());
polyLofter.Generate ();
portionGO.GetComponent<Renderer>().material = _portionMaterial;
_rimParts.Add (currentPortion);
_rimLofters.Add (polyLofter);
}
// Cas ou il n'y a pas de d'angle predefini
// une seule portion qui correspond au polygone subdivise
if (_corners.Count == 0)
{
GameObject portionGO = new GameObject ("portion");
portionGO.transform.parent = _rim.transform;
portionGO.transform.localPosition = Vector3.zero;
portionGO.transform.localRotation = Quaternion.identity;
portionGO.transform.localScale = Vector3.one;
portionGO.AddComponent<MeshRenderer> ();
MeshFilter meshFilter = portionGO.AddComponent<MeshFilter> ();
PolygonLofter polyLofter = new PolygonLofter (subdividedPolygon, profile, meshFilter.mesh);
polyLofter.SetIndexOffset (0, subdividedPolygon.GetPoints ().Count);
polyLofter.SetCurveIndices (_rars.GetCurveIndices ());
polyLofter.SetIndexedAngleType (_rars.GetIndexedAngleType ());
polyLofter.Generate ();
portionGO.GetComponent<Renderer>().material = _portionMaterial;
_rimParts.Add (_polygon);
_rimLofters.Add (polyLofter);
}
_rimCount = 0;
foreach (PolygonLofter lofter in _rimLofters)
{
_rimCount += lofter.GetRimCount ();
}
_rimCount += _corners.Count;
}
public void Generate(Polygon _polygon)
{
//_polygon = new Polygon(_polygon.GenerateWithCurveInverse());
// On genere les meshs des composants de la piscine
if (_polygon.GetPoints ().Count < 3)
return;
if (!_polygon.IsClosed ())
{
_polygon.Close ();
}
_polygon = _polygon.GetMirrorX();
_polygon.UpdateBounds ();
Vector2 translation = _polygon.GetPolygonCenter () * -1;
Vector2 mirror = new Vector2(1,-1);
// exprime le polygone en coordonnées monde, avec son repere centré sur son centre
PolygonRawData polyRaw = new PolygonRawData ();
foreach (Vector2 pt in _polygon.GenerateWithCurve ())
//foreach (Vector2 pt in _polygon.GenerateWithCurveInverse ())
//PolygonRawData polydata = _polygon.GenerateWithCurveInverse ();
//polydata.Reverse();
//foreach (Vector2 pt in polydata)
{
Vector2 transformedPt = (pt + translation) * _polygonScaleFactor;
/*Vector2 newpt = new Vector2();
newpt.x=pt.x;
newpt.y=pt.y;
newpt.y = 2*_polygon.bounds.center.z - newpt.y;
Vector2 transformedPt = (newpt + translation) * _polygonScaleFactor;*/
polyRaw.Add (transformedPt);
}
_transformedPolygon = new Polygon (polyRaw);
// generate liner
Mesh linerMesh = _liner.GetComponent<MeshFilter> ().mesh;
PolygonExtruder linerExtrusion = new PolygonExtruder (_transformedPolygon, linerMesh, -1.5f, false, true, true);
linerExtrusion.Generate ();
LinerScatteringMapper lsm = new LinerScatteringMapper (linerMesh);
lsm.Generate ();
PolygonExtruderMapper pem = new PolygonExtruderMapper (linerExtrusion);
pem.Generate ();
// generate sidewalk
Mesh sidewalkMesh = _sidewalk.GetComponent<MeshFilter> ().mesh;
SideWalkExtruder se = new SideWalkExtruder (_transformedPolygon, sidewalkMesh, -0.02f, 2);
se.Generate ();
PlannarMapper pm = new PlannarMapper (sidewalkMesh, Vector3.up);
pm.Generate ();
// generate rim
_rimGenerator.Generate (_polygon);
// generate occlusion
PolygonRawData occluShape = new PolygonRawData ();
occluShape.Add (new Vector2 (0.28f, 0));
occluShape.Add (new Vector2 (0.33f, 0));
Polygon occluProfile = new Polygon (occluShape);
occluProfile.SetClosed (false);
Mesh occluMesh = _occlusion.GetComponent<MeshFilter> ().mesh;
PolygonLofter occluLofter = new PolygonLofter (_transformedPolygon, occluProfile, occluMesh);
_occlusion.GetComponent<Renderer>().enabled = false;
occluLofter.Generate ();
// generate water
Mesh waterMesh = _water.GetComponent<MeshFilter> ().mesh;
PolygonExtruder waterPlan = new PolygonExtruder (_transformedPolygon, waterMesh, 0, true, false, false);
waterPlan.Generate ();
PlannarMapper waterMapper = new PlannarMapper (waterMesh, Vector3.down, UVChannel.uv0, 5);
waterMapper.Generate ();
// generate frieze
Mesh friezeMesh = _frieze.GetComponent<MeshFilter> ().mesh;
PolygonExtruder friezeExtrusion = new PolygonExtruder (_transformedPolygon, friezeMesh, -0.10f, false, false, true);
friezeExtrusion.Generate ();
PolygonExtruderMapper friezeMapper = new PolygonExtruderMapper (friezeExtrusion);
friezeMapper.Generate ();
LinerScatteringMapper lsmFrieze = new LinerScatteringMapper (friezeMesh);
lsmFrieze.Generate ();
// generate mask
Mesh maskMesh = _mask.GetComponent<MeshFilter> ().mesh;
PolygonExtruder maskExtrusion = new PolygonExtruder (_transformedPolygon, maskMesh, -0.10f, false, false, true);
maskExtrusion.Generate ();
PolygonExtruderMapper maskMapper = new PolygonExtruderMapper (maskExtrusion);
maskMapper.Generate ();
// generate collision mesh
Mesh collisionMesh = new Mesh ();
collisionMesh.name = "collision";
Polygon collisionPoly = PolygonOperation.GetOutlinedPolygon (_transformedPolygon, 0.33f);
PolygonExtruder collisionExtruder = new PolygonExtruder(collisionPoly, collisionMesh, 0.07f, true, false, false);
collisionExtruder.Generate ();
_meshCollider.sharedMesh = collisionMesh;
_meshCollider.convex = true;
collisionMesh.RecalculateBounds ();
// on ajoute le mesh de collision au renderer parent de la margelle
// pour le calcul de la boundingBox lié a la fonction de redimensionnement
// de la plage.
_rim.gameObject.GetComponent<MeshFilter> ().mesh = collisionMesh;
}