// GENERATE
// This is the main function for generating a Shape, Mesh, or any other output that a node may be tasked with generating.
// You can do pre processing of Inputs here, but that might best be done in an override of pollControlValuesFromParmeters().
//
// Often, you will be creating a list of AXMesh objects. AXMesh has a Mesh, a Matrix4x4 and a Material
// to be used when drawing the ouput to the scene before creating GameObjects. Your list of AXMeshes generated
// is pased to the model via parametricObject.finishMultiAXMeshAndOutput().
//
// When generate() is called by AX, it will be either with makeGameObjects set to true or false.
// makeGameObjects=False is passed when the user is dragging a parameter and the model is regenerateing multiple times per second.
// makeGameObjects=True is passed when the user has stopped editing (for example, OnMouseup from a Handle) and it is time to
// build a GameObject hierarchy.
public override GameObject generate(bool makeGameObjects, AXParametricObject initiator_po, bool isReplica)
{
planSrc_p = P_Plan.DependsOn; // getUpstreamSourceParameter(P_Plan);
planSrc_po = (planSrc_p != null) ? planSrc_p.parametricObject : null;
if (planSrc_p == null)
{
return(null);
}
//Debug.Log("planSrc_po = " + planSrc_po.Name+"."+planSrc_p.Name + " ... " + planSrc_p.DependsOn.PType + " ..... " + planSrc_p.getPaths());
P_Plan.polyTree = null;
AXShape.thickenAndOffset(ref P_Plan, planSrc_p);
if (P_Plan.reverse)
{
P_Plan.doReverse();
}
planPaths = P_Plan.getPaths();
if (planPaths == null || planPaths.Count == 0)
{
return(null);
}
// ** CREATE PLAN_SPLINES **
if (planPaths != null && planPaths.Count > 0)
{
planSplines = new Spline[planPaths.Count];
if (planSplines != null)
{
for (int i = 0; i < planSplines.Length; i++)
{
planSplines[i] = new Spline(planPaths[i], (P_Plan.shapeState == ShapeState.Closed) ? true : false);
}
}
}
// FOR EACH PATH
for (int path_i = 0; path_i < planPaths.Count; path_i++)
{
Spline planSpline = planSplines[path_i];
planSpline.breakAngleCorners = 35;
planSpline.shapeState = P_Plan.shapeState;
//Matrix4x4 mm = planSpline.matrixAtLength(4.5f);
}
if (parametricObject == null || !parametricObject.hasInputMeshReady("Input Mesh"))
{
return(null);
}
// At this point the amount variable has been set to the FloatValue of its amount parameter.
preGenerate();
//Vector3 center = Vector3.zero;
// AXMeshes are the key product of a Generator3D
List <AXMesh> ax_meshes = new List <AXMesh>();
AXParameter inputSrc_p = P_Input.DependsOn;
AXParametricObject inputSrc_po = inputSrc_p.parametricObject;
Spline planSpl = planSplines[0];
if (inputSrc_p != null && inputSrc_p.meshes != null) // Is there an input node connected to this node?
{
//Debug.Log("P_Input.DependsOn.meshes.Count="+P_Input.DependsOn.meshes.Count + ", "+ P_Input.DependsOn.meshes[0].GetType());
AXMesh amesh = null;
// EACH MESH
for (int i = 0; i < P_Input.DependsOn.meshes.Count; i++)
{
// if (amount == 0)
// {
// amesh = P_Input.DependsOn.meshes [i];
// }
// else{
// Instance does not inhereit and build on the transform of its source object.
amesh = P_Input.DependsOn.meshes [i].Clone();
Mesh m = amesh.mesh;
Vector3[] verts = m.vertices;
// ---------- EACH VERTEX ----------------------
for (int j = 0; j < verts.Length; j++)
{
Vector3 vert = new Vector3(verts[j].x, verts[j].y, verts[j].z);
vert = P_Input.DependsOn.meshes[i].drawMeshMatrix.MultiplyPoint3x4(vert);
//float scale = modifierCurve.Evaluate( vert.y) * (1-(twist*vert.y));
float scale = modifierCurve.Evaluate(vert.x);
//vert = new Vector3(vert.x*scale, vert.y, vert.z*scale);
Matrix4x4 warperM = planSpl.matrixAtLength(vert.x);
if (turn != 0 || twist != 0 || scale != 0)
{
warperM *= Matrix4x4.TRS(Vector3.zero, Quaternion.Euler(vert.x * twist + turn + scale, 0, 0), Vector3.one);
}
vert = warperM.MultiplyPoint3x4(new Vector3(0, vert.y, vert.z));;
// float len = Mathf.Sqrt(vert.x*vert.x + vert.z*vert.z);
//
// float new_x = vert.x;//+ pval;
// float new_y = vert.y - factor*len*len*vert.y/5;// + pval;
// float new_z = vert.z;//+ pval;
//
// //Debug.Log(pval + " :::: " + verts[j].x + " :: " + verts[j].z + " + " + Mathf.PerlinNoise (verts[j].x, verts[j].z));
// verts [j] = new Vector3 (new_x, new_y, new_z);
verts [j] = P_Input.DependsOn.meshes[i].drawMeshMatrix.inverse.MultiplyPoint3x4(vert);
}
// ---------- EACH VERTEX ----------------------
m.vertices = verts;
//}
amesh.mesh.RecalculateNormals();
ax_meshes.Add(amesh);
}
parametricObject.bounds = inputSrc_po.bounds;
parametricObject.finishMultiAXMeshAndOutput(ax_meshes, isReplica);
if (makeGameObjects)
{
return(parametricObject.makeGameObjectsFromAXMeshes(ax_meshes));
}
}
return(null);
}
// GENERATE PLAN_REPEATER
public override GameObject generate(bool makeGameObjects, AXParametricObject initiator_po, bool renderToOutputParameter)
{
if (parametricObject == null || !parametricObject.isActive)
{
return(null);
}
//Debug.Log("yo ******* makeGameObjects="+makeGameObjects);
// RESULTING MESHES
ax_meshes = new List <AXMesh>();
paths_SubsplineIndices = new List <SubsplineIndices[]>();
preGenerate();
planSrc_p = P_Plan.DependsOn; // getUpstreamSourceParameter(P_Plan);
planSrc_po = (planSrc_p != null) ? planSrc_p.parametricObject : null;
//Debug.Log("planSrc_po = " + planSrc_po.Name+"."+planSrc_p.Name + " ... " + planSrc_p.DependsOn.PType + " ..... " + planSrc_p.getPaths());
P_Plan.polyTree = null;
AXShape.thickenAndOffset(ref P_Plan, planSrc_p);
if (P_Plan.reverse)
{
P_Plan.doReverse();
}
planPaths = P_Plan.getPaths();
if (planPaths == null || planPaths.Count == 0)
{
return(null);
}
// ** CREATE PLAN_SPLINES **
if (planPaths != null && planPaths.Count > 0)
{
planSplines = new Spline[planPaths.Count];
if (planSplines != null)
{
for (int i = 0; i < planSplines.Length; i++)
{
planSplines[i] = new Spline(planPaths[i], (P_Plan.shapeState == ShapeState.Closed) ? true : false);
}
}
}
//Debug.Log("controlVertices="+ planSplines[0].controlVertices.Count);
// CORNER_MESH
GameObject cornerPlugGO = null;
if (cornerSrc_p != null)
{
cornerSrc_po = cornerSrc_p.parametricObject;
if (makeGameObjects && !parametricObject.combineMeshes)
{
cornerPlugGO = cornerSrc_po.generator.generate(true, initiator_po, renderToOutputParameter);
}
}
// NODE_MESH
GameObject nodePlugGO = null;
if (nodeSrc_p != null)
{
nodeSrc_po = nodeSrc_p.parametricObject;
//Debug.Log("yo makeGameObjects="+makeGameObjects+", parametricObject.combineMeshes="+parametricObject.combineMeshes);
if (makeGameObjects && !parametricObject.combineMeshes)
{
nodePlugGO = nodeSrc_po.generator.generate(true, initiator_po, renderToOutputParameter);
}
}
// CELL_MESH
GameObject cellPlugGO = null;
if (cellSrc_p != null)
{
cellSrc_po = cellSrc_p.parametricObject;
if (makeGameObjects && !parametricObject.combineMeshes)
{
cellPlugGO = cellSrc_po.generator.generate(true, initiator_po, renderToOutputParameter);
}
}
// Plan
// This is the main spline used for the iteration
//AXParameter plan_p = ip.DependsOn;
// The section spline is used to provide the connective tissue around corners
// SECTION
// The plan may have multiple paths. Each may generate a separate GO.
sectionSrc_p = P_Section.DependsOn; //getUpstreamSourceParameter(P_Section);
sectionSrc_po = (sectionSrc_p != null) ? sectionSrc_p.parametricObject : null;
if (sectionSrc_po != null)
{
P_Section.polyTree = null;
AXShape.thickenAndOffset(ref P_Section, sectionSrc_p);
if (P_Section.reverse)
{
P_Section.doReverse();
}
}
float bay_U = parametricObject.floatValue("bay_U");
float bay_V = parametricObject.floatValue("bay_V");
if (bay_U == 0)
{
bay_U = .1f;
}
if (bay_V == 0)
{
bay_V = 10f;
}
float margin_U = parametricObject.floatValue("margin_U");
Vector2 prevV = new Vector2();
//Vector3 scaler1 = Vector3.one;
//float margin = 2.5f;
Vector2 firstPM = new Vector2();
Vector2 prevVM = new Vector2();
AXSpline secSpline = null;
AXSplineExtrudeGenerator tmpEXSP = null;
if (sectionSrc_p != null && sectionSrc_p.spline != null && sectionSrc_p.spline.vertCount > 0)
{
secSpline = sectionSrc_p.spline;
}
tmpEXSP = new AXSplineExtrudeGenerator();
Material tmp_mat = parametricObject.axMat.mat;
if (parametricObject.axTex != null)
{
tmpEXSP.uScale = parametricObject.axTex.scale.x;
tmpEXSP.vScale = parametricObject.axTex.scale.y;
tmpEXSP.uShift = -parametricObject.axTex.shift.x;
tmpEXSP.vShift = parametricObject.axTex.shift.y;
}
float runningU = 0;
//ip.spline.getAnglesArray();
//Spline sectionSpline = null;
// = new Spline(sectionPath, sectionIsClosed, sec_p.breakGeom, sec_p.breakNorm);
GameObject go = null;
GameObject planGO = null;
if (makeGameObjects && !parametricObject.combineMeshes)
{
go = ArchimatixUtils.createAXGameObject(parametricObject.Name, parametricObject);
}
// BOUNDING
List <AXMesh> boundingMeshes = new List <AXMesh>();
// FOR EACH PATH
for (int path_i = 0; path_i < planPaths.Count; path_i++)
{
if (makeGameObjects && !parametricObject.combineMeshes)
{
planGO = ArchimatixUtils.createAXGameObject(parametricObject.Name + "_" + path_i, parametricObject);
}
// **** PREPARE EACH SPLINE *** //
Spline planSpline = planSplines[path_i];
planSpline.breakAngleCorners = cornerBreakAngle;
planSpline.shapeState = P_Plan.shapeState;
// Create subsplines between each break point
planSpline.getSmoothSubsplineIndicies(0, maxSegmentLength);
// ....... DEBUG
//Pather.printPaths(planPaths);
planSpline.groupNearBreakAngleVertices(inset * 2);
if (planSpline.groupedCornerNodes == null || planSpline.groupedCornerNodes.Count == 0)
{
inset = 0;
}
// **** PREPARE EACH SPLINE *** //
Matrix4x4 localPlacement_mx = Matrix4x4.identity;
// INSET PLANSWEEPS
GameObject plansweepGO = null;
if (sectionSrc_p != null && inset > 0 && planSpline.insetSplines != null)
{
// convert planSpline.insetSplines to Paths
Paths insetPaths = AXGeometryTools.Utilities.Splines2Paths(planSpline.insetSplines);
AXParameter tmpPlanP = new AXParameter();
tmpPlanP.parametricObject = parametricObject;
tmpPlanP.paths = insetPaths;
tmpPlanP.Type = AXParameter.DataType.Shape;
tmpPlanP.shapeState = ShapeState.Open;
tmpPlanP.breakGeom = 0;
if (planSpline.insetSplines.Count == 1)
{
tmpPlanP.shapeState = planSpline.insetSplines[0].shapeState;
}
topCap = false;
botCap = false;
plansweepGO = generateFirstPass(initiator_po, makeGameObjects, tmpPlanP, P_Section, Matrix4x4.identity, renderToOutputParameter, false);
if (makeGameObjects && !parametricObject.combineMeshes && plansweepGO != null)
{
plansweepGO.transform.parent = go.transform;
}
}
AXMesh tmpMesh = null;
if (planSpline.insetSpanSplines != null && planSpline.insetSpanSplines.Count > 0)
{
//Debug.Log(".....????>> spanSpline.subsplines.Count="+ planSpline.insetSpanSplines.Count + " --- " + planSpline.subsplines.Count );
for (int si = 0; si < planSpline.insetSpanSplines.Count; si++)
{
planSpline.insetSpanSplines[si].setRepeaterTransforms(si, inset, bay);
}
// SPAN NODES - MESHES ALONG SUBSPLINES
if (nodeSrc_p != null && nodeSrc_p.meshes != null)
{
//int endCount = (P_Plan != null && P_Plan.shapeState == ShapeState.Open) ? planSpline.subsplines.Count-1 : planSpline.subsplines.Count;
int endCount = (P_Plan != null && P_Plan.shapeState == ShapeState.Open) ? planSpline.insetSpanSplines.Count - 1 : planSpline.insetSpanSplines.Count;
for (int i = 0; i < endCount; i++)
{
//SubsplineIndices rsi = planSpline.subsplines[i];
Spline spanSpline = planSpline.insetSpanSplines[i];
//Debug.Log(i + "||||||||||> " + spanSpline.toString());
List <Matrix4x4> nodeMatrices = spanSpline.repeaterNodeTransforms;
// on each of these nodes, place a nodePlug instance.
bool spanNodesAtBreakCorners = true;
int starter = (inset > 0 || spanNodesAtBreakCorners) ? 0 : 1;
//Debug.Log("starter="+starter);
int ender = (inset > 0 || spanSpline.shapeState == ShapeState.Open || planSpline.subsplines.Count == 1) ? nodeMatrices.Count : nodeMatrices.Count - 1;
//Debug.Log("starter="+starter +", ender="+ender + ", nodeMatrices.Count=" + nodeMatrices.Count);
//Debug.Log("(inset > 0 && spanNodesAtBreakCorners)="+(inset > 0 && spanNodesAtBreakCorners)+", nodeMatrices.Length="+nodeMatrices.Length+", starter="+starter+", ender="+ender);
string this_address = "";
if (nodeMatrices != null)
{
for (int ii = starter; ii < ender; ii++)
{
this_address = "node_" + path_i + "_" + i + "_" + ii;
//Debug.Log("this_address="+this_address);
// LOCAL_PLACEMENT
localPlacement_mx = localMatrixFromAddress(RepeaterItem.Node, path_i, i, ii);
// AX_MESHES
for (int mi = 0; mi < nodeSrc_p.meshes.Count; mi++)
{
AXMesh dep_amesh = nodeSrc_p.meshes [mi];
tmpMesh = dep_amesh.Clone(localPlacement_mx * dep_amesh.transMatrix);
tmpMesh.subItemAddress = this_address;
ax_meshes.Add(tmpMesh);
}
// BOUNDING
boundingMeshes.Add(new AXMesh(nodeSrc_po.boundsMesh, localPlacement_mx * nodeSrc_po.generator.localMatrix));
//Debug.Log("boundingMeshes: " + boundingMeshes.Count);
// GAME_OBJECTS
if (nodePlugGO != null && makeGameObjects && !parametricObject.combineMeshes)
{
Matrix4x4 mx = localPlacement_mx * nodeSrc_po.generator.localMatrixWithAxisRotationAndAlignment;
GameObject copyGO = (GameObject)GameObject.Instantiate(nodePlugGO, AXUtilities.GetPosition(mx), AXUtilities.QuaternionFromMatrix(mx));
Vector3 newJitterScale = jitterScale + Vector3.one;
copyGO.transform.localScale = new Vector3(copyGO.transform.localScale.x * newJitterScale.x, copyGO.transform.localScale.y * newJitterScale.y, copyGO.transform.localScale.z * newJitterScale.z);
copyGO.transform.localScale += jitterScale;
AXGameObject axgo = copyGO.GetComponent <AXGameObject>();
if (axgo != null)
{
axgo.consumerAddress = this_address;
//Debug.Log("ADD ADDRESS: " + this_address);
}
copyGO.name = copyGO.name + "_" + this_address;
//Debug.Log("copyGO.name = "+copyGO.name);
copyGO.transform.parent = planGO.transform;
}
}
}
}
} // \NODE MESHES
// CELL NODES - MESHES ALONG SUBSPLINES
if (cellSrc_p != null && cellSrc_p.meshes != null)
{
//int endCount = (P_Plan != null && P_Plan.shapeState == ShapeState.Open) ? planSpline.subsplines.Count-1 : planSpline.subsplines.Count;
int endCount = (P_Plan != null && P_Plan.shapeState == ShapeState.Open) ? planSpline.insetSpanSplines.Count - 1 : planSpline.insetSpanSplines.Count;
for (int i = 0; i < endCount; i++)
{
//SubsplineIndices rsi = planSpline.subsplines[i];
Spline spanSpline = planSpline.insetSpanSplines[i];
spanSpline.setRepeaterTransforms(i, inset, bay);
List <Matrix4x4> cellMatrices = spanSpline.repeaterCellTransforms;
// on each of these cell, place a nodePlug instance.
//bool spanNodesAtBreakCorners = true;
int starter = 0; //spanNodesAtBreakCorners ? 0 : 1;
//int ender = (inset > 0 || spanNodesAtBreakCorners) ? cellMatrices.Count : cellMatrices.Count-1;
int ender = cellMatrices.Count;
//Debug.Log("(inset > 0 && spanNodesAtBreakCorners)="+(inset > 0 && spanNodesAtBreakCorners)+", nodeMatrices.Length="+nodeMatrices.Length+", starter="+starter+", ender="+ender);
string this_address = "";
if (cellMatrices != null)
{
for (int ii = starter; ii < ender; ii++)
{
// ADDRESS
this_address = "cell_" + path_i + "_" + i + "_" + ii;
// LOCAL_PLACEMENT
localPlacement_mx = localMatrixFromAddress(RepeaterItem.Cell, path_i, i, ii);
// AX_MESHES
for (int mi = 0; mi < cellSrc_p.meshes.Count; mi++)
{
AXMesh dep_amesh = cellSrc_p.meshes [mi];
tmpMesh = dep_amesh.Clone(localPlacement_mx * dep_amesh.transMatrix);
tmpMesh.subItemAddress = this_address;
ax_meshes.Add(tmpMesh);
}
// BOUNDING
boundingMeshes.Add(new AXMesh(cellSrc_po.boundsMesh, localPlacement_mx * cellSrc_po.generator.localMatrix));
// GAME_OBJECTS
if (cellPlugGO != null && makeGameObjects && !parametricObject.combineMeshes)
{
Matrix4x4 mx = localPlacement_mx * cellSrc_po.generator.localMatrixWithAxisRotationAndAlignment;
GameObject copyGO = (GameObject)GameObject.Instantiate(cellPlugGO, AXUtilities.GetPosition(mx), AXUtilities.QuaternionFromMatrix(mx));
Vector3 newJitterScale = jitterScale + Vector3.one;
copyGO.transform.localScale = new Vector3(copyGO.transform.localScale.x * newJitterScale.x, copyGO.transform.localScale.y * newJitterScale.y, copyGO.transform.localScale.z * newJitterScale.z);
copyGO.transform.localScale += jitterScale;
AXGameObject axgo = copyGO.GetComponent <AXGameObject>();
if (axgo != null)
{
axgo.consumerAddress = this_address;
//Debug.Log("ADD ADDRESS: " + this_address);
}
copyGO.name = copyGO.name + "_"; // + this_address;
//Debug.Log("copyGO.name = "+copyGO.name);
copyGO.transform.parent = planGO.transform;
}
}
}
}
} // \CELL MESHES
} // \each spanSpline
// BREAK CORNER MESHES
if (cornerSrc_p != null && cornerSrc_p.meshes != null)
{
for (int bi = 0; bi < planSpline.breakIndices.Count; bi++)
{
// ADDRESS
string this_address = "corner_" + path_i + "_" + planSpline.breakIndices[bi];
// LOCAL_PLACEMENT
localPlacement_mx = localMatrixFromAddress(RepeaterItem.Corner, path_i, planSpline.breakIndices[bi]);
// AX_MESHES
for (int mi = 0; mi < cornerSrc_p.meshes.Count; mi++)
{
AXMesh dep_amesh = cornerSrc_p.meshes [mi];
tmpMesh = dep_amesh.Clone(localPlacement_mx * dep_amesh.transMatrix);
tmpMesh.subItemAddress = this_address;
ax_meshes.Add(tmpMesh);
}
// BOUNDING
boundingMeshes.Add(new AXMesh(cornerSrc_po.boundsMesh, localPlacement_mx * cornerSrc_po.generator.localMatrix));
// GAME_OBJECTS
if (cornerPlugGO != null && makeGameObjects && !parametricObject.combineMeshes)
{
Matrix4x4 mx = localPlacement_mx * cornerSrc_po.generator.localMatrixWithAxisRotationAndAlignment;
GameObject copyGO = (GameObject)GameObject.Instantiate(cornerPlugGO, AXUtilities.GetPosition(mx), AXUtilities.QuaternionFromMatrix(mx));
Vector3 newJitterScale = jitterScale + Vector3.one;
copyGO.transform.localScale = new Vector3(copyGO.transform.localScale.x * newJitterScale.x, copyGO.transform.localScale.y * newJitterScale.y, copyGO.transform.localScale.z * newJitterScale.z);
copyGO.transform.localScale += jitterScale;
AXGameObject axgo = copyGO.GetComponent <AXGameObject>();
if (axgo != null)
{
axgo.consumerAddress = this_address;
}
copyGO.name = copyGO.name + "_" + this_address;
copyGO.transform.parent = planGO.transform;
}
}
}
/*
* int cells = Mathf.CeilToInt( md/bay_U );
* int nby = Mathf.CeilToInt( height/bay_V );
*
* //Debug.Log ("d="+d+", md="+md);
*
* float actual_bayx = md/cells;
* float actual_bayy = height/nby;
*
* // CREATE VERSIONS OF INPUT BAY_CENTER MESH(ES) USING BOUNDING BOX
* // ******************************************************************************
* // someting similar shoud be added to griditerator, stepiterator, and where else?
*
* // instead of prev, would be better to create a dictionary of bounds and AXMeshes?
* if (bay_span_p != null && (prevActuralBayx != actual_bayx || prevActuralBayx != actual_bayy))
* {
* // regnerate the input meshes using actual_bayx
* bay_span_p.Parent.setParameterValueByName("uScale", parametricObject.floatValue("uScale"));
* bay_span_p.Parent.setParameterValueByName("vScale", parametricObject.floatValue("vScale"));
* bay_span_p.Parent.setParameterValueByName("uShift", parametricObject.floatValue("uShift"));
* bay_span_p.Parent.setParameterValueByName("vShift", parametricObject.floatValue("vShift"));
*
* //bay_span_p.Parent.generateOutputNow (makeGameObjects, parametricObject, true);//, new Vector3(actual_bayx, actual_bayy, margin_th));
*
* }
* // ******************************************************************************
*
*
* // CREATE VERSIONS OF INPUT BAY_CENTER MESH(ES) USING BOUNDING BOX
* // ******************************************************************************
* // someting similar shoud be added to griditerator, stepiterator, and where else?
*
* // instead of prev, would be better to create a dictionary of bounds and AXMeshes?
* if (node_p != null && (prevActuralBayx != actual_bayx || prevActuralBayx != actual_bayy))
* {
* // regnerate the input meshes using actual_bayx
* node_p.Parent.setParameterValueByName("uScale", parametricObject.floatValue("uScale"));
* node_p.Parent.setParameterValueByName("vScale", parametricObject.floatValue("vScale"));
* node_p.Parent.setParameterValueByName("uShift", parametricObject.floatValue("uShift"));
* node_p.Parent.setParameterValueByName("vShift", parametricObject.floatValue("vShift"));
*
* //node_p.Parent.generateOutputNow (makeGameObjects, parametricObject, true);//, new Vector3(actual_bayx, actual_bayy, margin_th));
*
* }
* // ******************************************************************************
*/
//margin_U = .5f;
if (margin_U > 0 && planSpline.isClosed)
{
AXSpline connSpline2 = new AXSpline();
connSpline2.Push(prevVM);
connSpline2.Push(prevV);
connSpline2.Push(firstPM);
connSpline2.isClosed = false;
tmpEXSP.uShift = parametricObject.floatValue("uShift") + (runningU) / tmpEXSP.uScale;
Mesh mesh = tmpEXSP.generate(connSpline2, secSpline);
ax_meshes.Add(new AXMesh(mesh, Matrix4x4.identity, tmp_mat));
}
if (makeGameObjects && !parametricObject.combineMeshes)
{
planGO.transform.parent = go.transform;
}
} // end paths
//GameObject.DestroyImmediate(bay_spanPlugGO);
GameObject.DestroyImmediate(cornerPlugGO);
GameObject.DestroyImmediate(nodePlugGO);
GameObject.DestroyImmediate(cellPlugGO);
// FINISH AX_MESHES
//Debug.Log("finish " + ax_meshes.Count);
parametricObject.finishMultiAXMeshAndOutput(ax_meshes, renderToOutputParameter);
// FINISH BOUNDS
CombineInstance[] boundsCombinator = new CombineInstance[boundingMeshes.Count];
for (int bb = 0; bb < boundsCombinator.Length; bb++)
{
boundsCombinator[bb].mesh = boundingMeshes[bb].mesh;
boundsCombinator[bb].transform = boundingMeshes[bb].transMatrix;
}
setBoundsWithCombinator(boundsCombinator);
// FINISH GAME_OBJECTS
if (makeGameObjects)
{
if (parametricObject.combineMeshes)
{
go = parametricObject.makeGameObjectsFromAXMeshes(ax_meshes, true);
}
Matrix4x4 tmx = parametricObject.getLocalMatrix();
go.transform.rotation = AXUtilities.QuaternionFromMatrix(tmx);
go.transform.position = AXUtilities.GetPosition(tmx);
go.transform.localScale = parametricObject.getLocalScaleAxisRotated(); //AXUtilities.GetScale(tmx);
if (P_Plan.reverse)
{
P_Plan.doReverse();
}
if (P_Section != null && P_Section.reverse)
{
P_Section.doReverse();
}
return(go);
}
else
{
// Submit AXMeshes for realtime rendering
//parametricObject.finishMultiAXMeshAndOutput(ax_meshes, renderToOutputParameter);
//setBoundaryFromMeshes(ax_meshes);
}
if (P_Plan.reverse)
{
P_Plan.doReverse();
}
if (P_Section != null && P_Section.reverse)
{
P_Section.doReverse();
}
return(null);
}
/*
* public override void initializeBays(string pName)
* {
* if (parametricObject.isInitialized)
* return;
*
* parametricObject.isInitialized = true;
*
* RadialRepeaterTool gener = repeaterToolU as RadialRepeaterTool;
*
* switch(pName)
* {
* case "Node Shape":
* if (repeaterToolU != null)
* gener.radius = 3.5f * nodeSrc_p.parametricObject.bounds.size.x ;
* break;
* case "Cell Shape":
* if (repeaterToolU != null)
* gener.radius = 2.5f * cellSrc_p.parametricObject.bounds.size.x ;
* break;
* }
* }
*/
// SHAPE_REPEATER_2D :: GENERATE
public override GameObject generate(bool makeGameObjects, AXParametricObject initiator_po, bool isReplica)
{
if (parametricObject == null || !parametricObject.isActive)
{
return(null);
}
if ((P_Corner == null || cornerSrc_p == null) && (P_Node == null || inputSrc_p == null) && (P_Cell == null || cellSrc_p == null))
{
if (P_Output != null)
{
P_Output.paths = null;
P_Output.polyTree = null;
}
return(null);
}
// PRE_GENERATE
preGenerate();
planSrc_p = P_Plan.DependsOn; // getUpstreamSourceParameter(P_Plan);
planSrc_po = (planSrc_p != null) ? planSrc_p.parametricObject : null;
P_Plan.polyTree = null;
AXShape.thickenAndOffset(ref P_Plan, planSrc_p);
if (P_Plan.reverse)
{
P_Plan.doReverse();
}
planPaths = P_Plan.getPaths();
if (planPaths == null || planPaths.Count == 0)
{
return(null);
}
// ** CREATE PLAN_SPLINES **
if (planPaths != null && planPaths.Count > 0)
{
planSplines = new Spline[planPaths.Count];
if (planSplines != null)
{
for (int i = 0; i < planSplines.Length; i++)
{
planSplines[i] = new Spline(planPaths[i], (P_Plan.shapeState == ShapeState.Closed) ? true : false);
}
}
}
AXParameter P_cornerOutput = new AXParameter();
P_cornerOutput.parametricObject = parametricObject;
AXParameter P_nodeOutput = new AXParameter();
P_nodeOutput.parametricObject = parametricObject;
AXParameter P_cellOutput = new AXParameter();
P_cellOutput.parametricObject = parametricObject;
// PROCESS SHAPE INPUTS
if (cornerSrc_p != null)
{
P_Corner.polyTree = null;
AXShape.thickenAndOffset(ref P_Corner, cornerSrc_p);
}
if (inputSrc_p != null)
{
P_Node.polyTree = null;
AXShape.thickenAndOffset(ref P_Node, inputSrc_p);
}
if (cellSrc_p != null)
{
P_Cell.polyTree = null;
AXShape.thickenAndOffset(ref P_Cell, cellSrc_p);
}
bool doPolyTreeNodes = false;
//bool doPolyTreeCells = false;
// NODE
//Matrix4x4 tm = Matrix4x4.identity;
// NODE SHAPES
Paths nodeSourcePaths = null;
//Clipper nodeClipper = null;
if (P_Node != null)
{
if (P_Node.polyTree != null)
{
nodeSourcePaths = AXGeometryTools.Utilities.cleanPaths(Clipper.PolyTreeToPaths(P_Node.polyTree));
doPolyTreeNodes = true;
//nodeClipper = new Clipper();
}
else
{
nodeSourcePaths = P_Node.getClonePaths();
P_nodeOutput.paths = new Paths();
}
}
// CELL SHAPES
Paths cellSourcePaths = null;
//Clipper cellClipper = null;
if (P_Cell != null)
{
if (P_Cell.polyTree != null)
{
cellSourcePaths = AXGeometryTools.Utilities.cleanPaths(Clipper.PolyTreeToPaths(P_Cell.polyTree));
doPolyTreeNodes = true;
//cellClipper = new Clipper();
}
else
{
cellSourcePaths = P_Cell.getClonePaths();
P_cornerOutput.paths = new Paths();
}
}
// BREAK CORNER SHAPES
Paths cornerSourcePaths = null;
Clipper cornerClipper = null;
if (P_Corner != null)
{
if (P_Corner.polyTree != null)
{
cornerSourcePaths = AXGeometryTools.Utilities.cleanPaths(Clipper.PolyTreeToPaths(P_Corner.polyTree));
doPolyTreeNodes = true;
cornerClipper = new Clipper();
}
else
{
cornerSourcePaths = P_Corner.getClonePaths();
P_cornerOutput.paths = new Paths();
}
}
// FOR EACH PATH
for (int path_i = 0; path_i < planPaths.Count; path_i++)
{
// **** PREPARE EACH SPLINE *** //
Spline planSpline = planSplines[path_i];
planSpline.breakAngleCorners = cornerBreakAngle;
planSpline.shapeState = P_Plan.shapeState;
// Create subsplines between each break point
planSpline.getSmoothSubsplineIndicies(0, maxSegmentLength);
// Debug.Log("planSpline.subsplines.Count="+ planSpline.subsplines.Count );
// foreach(SubsplineIndices si in planSpline.subsplines)
// si.print();
planSpline.groupNearBreakAngleVertices(inset * 2);
// **** PREPARE EACH SPLINE *** //
Matrix4x4 localPlacement_mx = Matrix4x4.identity;
if (planSpline.insetSpanSplines != null && planSpline.insetSpanSplines.Count > 0)
{
for (int si = 0; si < planSpline.insetSpanSplines.Count; si++)
{
planSpline.insetSpanSplines[si].setRepeaterTransforms(si, inset, bay);
}
// SPAN NODES - SHAPES ALONG SUBSPLINES
if (nodeSrc_p != null && nodeSrc_p.meshes != null)
{
int endCount = (P_Plan != null && P_Plan.shapeState == ShapeState.Open) ? planSpline.insetSpanSplines.Count - 1 : planSpline.insetSpanSplines.Count;
for (int i = 0; i < endCount; i++)
{
//SubsplineIndices rsi = planSpline.subsplines[i];
Spline spanSpline = planSpline.insetSpanSplines[i];
List <Matrix4x4> nodeMatrices = spanSpline.repeaterNodeTransforms;
// on each of these nodes, place a nodePlug instance.
bool spanNodesAtBreakCorners = true;
int starter = spanNodesAtBreakCorners ? 0 : 1;
int ender = (inset > 0 || spanNodesAtBreakCorners) ? nodeMatrices.Count : nodeMatrices.Count - 1;
//string this_address = "";
if (nodeMatrices != null)
{
for (int ii = starter; ii < ender; ii++)
{
//this_address = "node_"+path_i+"_"+i+"_"+ii;
//Debug.Log("this_address="+this_address);
// LOCAL_PLACEMENT
localPlacement_mx = localMatrixFromAddress(RepeaterItem.Node, path_i, i, ii);
if (doPolyTreeNodes)
{
cornerClipper.AddPaths(AX.Generators.Generator2D.transformPaths(nodeSourcePaths, localPlacement_mx), PolyType.ptSubject, true);
}
else
{
Paths tmp = AX.Generators.Generator2D.transformPaths(nodeSourcePaths, localPlacement_mx);
P_cornerOutput.paths.AddRange(tmp);
}
}
}
}
}
// CELL NODES - SHAPES ALONG SUBSPLINES
if (cellSrc_p != null && cellSrc_p.meshes != null)
{
int endCount = (P_Plan != null && P_Plan.shapeState == ShapeState.Open) ? planSpline.insetSpanSplines.Count - 1 : planSpline.insetSpanSplines.Count;
for (int i = 0; i < endCount; i++)
{
//SubsplineIndices rsi = planSpline.subsplines[i];
Spline spanSpline = planSpline.insetSpanSplines[i];
List <Matrix4x4> cellMatrices = spanSpline.repeaterCellTransforms;
// on each of these nodes, place a nodePlug instance.
bool spanNodesAtBreakCorners = true;
int starter = spanNodesAtBreakCorners ? 0 : 1;
int ender = (inset > 0 || spanNodesAtBreakCorners) ? cellMatrices.Count : cellMatrices.Count - 1;
//string this_address = "";
if (cellMatrices != null)
{
for (int ii = starter; ii < ender; ii++)
{
//this_address = "cell_"+path_i+"_"+i+"_"+ii;
//Debug.Log("this_address="+this_address);
// LOCAL_PLACEMENT
localPlacement_mx = localMatrixFromAddress(RepeaterItem.Cell, path_i, i, ii);
if (doPolyTreeNodes)
{
cornerClipper.AddPaths(AX.Generators.Generator2D.transformPaths(cellSourcePaths, localPlacement_mx), PolyType.ptSubject, true);
}
else
{
Paths tmp = AX.Generators.Generator2D.transformPaths(nodeSourcePaths, localPlacement_mx);
P_cornerOutput.paths.AddRange(tmp);
}
}
}
}
}
}
if (cornerSourcePaths != null && cornerSourcePaths.Count > 0)
{
// CORNERS
for (int bi = 0; bi < planSpline.breakIndices.Count; bi++)
{
//tm = Matrix4x4.TRS(new Vector3(2*i-2, 2*j-2, 0), Quaternion.identity, Vector3.one);
localPlacement_mx = localMatrixFromAddress(RepeaterItem.Corner, path_i, planSpline.breakIndices[bi]);
if (doPolyTreeNodes)
{
cornerClipper.AddPaths(AX.Generators.Generator2D.transformPaths(cornerSourcePaths, localPlacement_mx), PolyType.ptSubject, true);
}
else
{
Paths tmp = AX.Generators.Generator2D.transformPaths(cornerSourcePaths, localPlacement_mx);
P_cornerOutput.paths.AddRange(tmp);
}
}
}
if (doPolyTreeNodes)
{
P_cornerOutput.polyTree = new AXClipperLib.PolyTree();
cornerClipper.Execute(ClipType.ctDifference, P_cornerOutput.polyTree, PolyFillType.pftNonZero, PolyFillType.pftNonZero);
}
}
P_Output.polyTree = null;
if (cornerSrc_p != null || cellSrc_p == null || nodeSrc_p == null)
{
// JUST NODES
AXShape.thickenAndOffset(ref P_Output, P_cornerOutput);
}
/*
* else if (nodeSrc_p != null && (cellSrc_p == null || (P_cellOutput.paths == null && P_cellOutput.polyTree == null)))
* {
* // JUST NODES
* AXShape.thickenAndOffset(ref P_Output, P_nodeOutput);
* }
*
* else if (nodeSrc_p == null && cellSrc_p != null)
* {
* // JUST CELLS
* AXShape.thickenAndOffset(ref P_Output, P_cellOutput);
* }
* else
* {
* // BOTH TO COMBINE
* clipper = new Clipper();
*
* if (P_nodeOutput.polyTree == null)
* clipper.AddPaths(P_nodeOutput.paths, PolyType.ptSubject, true);
* else
* clipper.AddPaths(AXGeometryTools.Utilities.cleanPaths(Clipper.PolyTreeToPaths(P_nodeOutput.polyTree)), PolyType.ptSubject, true);
*
* if (P_cellOutput.polyTree == null)
* clipper.AddPaths(P_cellOutput.paths, PolyType.ptSubject, true);
* else
* clipper.AddPaths(AXGeometryTools.Utilities.cleanPaths(Clipper.PolyTreeToPaths(P_cellOutput.polyTree)), PolyType.ptSubject, true);
*
*
* P_Output.polyTree = new AXClipperLib.PolyTree();
* clipper.Execute(ClipType.ctUnion, P_Output.polyTree, PolyFillType.pftNonZero, PolyFillType.pftNonZero);
*
* AXShape.thickenAndOffset(ref P_Output, P_Output);
* }
*/
if (P_Output.polyTree != null)
{
transformPolyTree(P_Output.polyTree, localMatrix);
}
else if (P_nodeOutput.paths != null)
{
P_Output.paths = transformPaths(P_nodeOutput.paths, localMatrix);
P_Output.transformedControlPaths = P_nodeOutput.paths;
}
//base.generate(false, initiator_po, isReplica);
calculateBounds();
return(null);
} // \generate