public static Rhino.Commands.Result AddBackgroundBitmap(Rhino.RhinoDoc doc)
{
Rhino.RhinoApp.WriteLine ("hey");
// Allow the user to select a bitmap file
Rhino.UI.OpenFileDialog fd = new Rhino.UI.OpenFileDialog();
fd.Filter = "Image Files (*.bmp;*.png;*.jpg)|*.bmp;*.png;*.jpg";
if (!fd.ShowDialog())
return Rhino.Commands.Result.Cancel;
// Verify the file that was selected
System.Drawing.Image image;
try
{
image = System.Drawing.Image.FromFile(fd.FileName);
}
catch (Exception)
{
return Rhino.Commands.Result.Failure;
}
// Allow the user to pick the bitmap origin
Rhino.Input.Custom.GetPoint gp = new Rhino.Input.Custom.GetPoint();
gp.SetCommandPrompt("Bitmap Origin");
gp.ConstrainToConstructionPlane(true);
gp.Get();
if (gp.CommandResult() != Rhino.Commands.Result.Success)
return gp.CommandResult();
// Get the view that the point was picked in.
// This will be the view that the bitmap appears in.
Rhino.Display.RhinoView view = gp.View();
if (view == null)
{
view = doc.Views.ActiveView;
if (view == null)
return Rhino.Commands.Result.Failure;
}
// Allow the user to specify the bitmap with in model units
Rhino.Input.Custom.GetNumber gn = new Rhino.Input.Custom.GetNumber();
gn.SetCommandPrompt("Bitmap width");
gn.SetLowerLimit(1.0, false);
gn.Get();
if (gn.CommandResult() != Rhino.Commands.Result.Success)
return gn.CommandResult();
// Cook up some scale factors
double w = gn.Number();
double image_width = image.Width;
double image_height = image.Height;
double h = w * (image_height / image_width);
Rhino.Geometry.Plane plane = view.ActiveViewport.ConstructionPlane();
plane.Origin = gp.Point();
view.ActiveViewport.SetTraceImage(fd.FileName, plane, w, h, false, false);
view.Redraw();
return Rhino.Commands.Result.Success;
}
public static Rhino.Commands.Result AddBackgroundBitmap(Rhino.RhinoDoc doc)
{
// Allow the user to select a bitmap file
var fd = new Rhino.UI.OpenFileDialog {
Filter = "Image Files (*.bmp;*.png;*.jpg)|*.bmp;*.png;*.jpg"
};
if (!fd.ShowOpenDialog())
{
return(Rhino.Commands.Result.Cancel);
}
// Verify the file that was selected
System.Drawing.Image image;
try
{
image = System.Drawing.Image.FromFile(fd.FileName);
}
catch (Exception)
{
return(Rhino.Commands.Result.Failure);
}
// Allow the user to pick the bitmap origin
var gp = new Rhino.Input.Custom.GetPoint();
gp.SetCommandPrompt("Bitmap Origin");
gp.ConstrainToConstructionPlane(true);
gp.Get();
if (gp.CommandResult() != Rhino.Commands.Result.Success)
{
return(gp.CommandResult());
}
// Get the view that the point was picked in.
// This will be the view that the bitmap appears in.
var view = gp.View();
if (view == null)
{
view = doc.Views.ActiveView;
if (view == null)
{
return(Rhino.Commands.Result.Failure);
}
}
// Allow the user to specify the bitmap width in model units
var gn = new Rhino.Input.Custom.GetNumber();
gn.SetCommandPrompt("Bitmap width");
gn.SetLowerLimit(1.0, false);
gn.Get();
if (gn.CommandResult() != Rhino.Commands.Result.Success)
{
return(gn.CommandResult());
}
// Cook up some scale factors
var w = gn.Number();
var image_width = image.Width;
var image_height = image.Height;
var h = w * (image_height / image_width);
var plane = view.ActiveViewport.ConstructionPlane();
plane.Origin = gp.Point();
view.ActiveViewport.SetTraceImage(fd.FileName, plane, w, h, false, false);
view.Redraw();
return(Rhino.Commands.Result.Success);
}
protected override Result RunCommand(RhinoDoc doc, RunMode mode)
{
// TODO: start here modifying the behaviour of your command.
// ---
RhinoApp.WriteLine("MeshMachine WIP test", EnglishName);
Brep SB;
using (GetObject getBrep = new GetObject())
{
getBrep.SetCommandPrompt("Please select the brep to remesh");
getBrep.Get();
SB = getBrep.Object(0).Brep();
}
//GetNumber TargetLength = new GetNumber();
//double L = TargetLength.Number();
Rhino.Input.Custom.GetNumber gn = new Rhino.Input.Custom.GetNumber();
gn.SetCommandPrompt("Specify a Target Edge Length");
gn.SetLowerLimit(0.5, false);
gn.Get();
if (gn.CommandResult() != Rhino.Commands.Result.Success)
{
return(gn.CommandResult());
}
double L = gn.Number();
//Point3d pt0;
//using (GetPoint getPointAction = new GetPoint())
//{
// getPointAction.SetCommandPrompt("Please select the start point");
// if (getPointAction.Get() != GetResult.Point)
// {
// RhinoApp.WriteLine("No start point was selected.");
// return getPointAction.CommandResult();
// }
// pt0 = getPointAction.Point();
//}
//Point3d pt1;
//using (GetPoint getPointAction = new GetPoint())
//{
// getPointAction.SetCommandPrompt("Please select the end point");
// getPointAction.SetBasePoint(pt0, true);
// getPointAction.DynamicDraw +=
// (sender, e) => e.Display.DrawLine(pt0, e.CurrentPoint, System.Drawing.Color.DarkRed);
// if (getPointAction.Get() != GetResult.Point)
// {
// RhinoApp.WriteLine("No end point was selected.");
// return getPointAction.CommandResult();
// }
// pt1 = getPointAction.Point();
//}
//doc.Objects.AddLine(pt0, pt1);
PlanktonMesh P = new PlanktonMesh();
List <int> AnchorV = new List <int>();
List <int> FeatureV = new List <int>();
List <int> FeatureE = new List <int>();
double FixT = 0.00001;
double LengthTol = 0.15; //a tolerance for when to split/collapse edges
double SmoothStrength = 0.8; //smoothing strength
double PullStrength = 0.8; //pull to target mesh strength
double CurvDep = 0;
int Flip = 1;
MeshingParameters MeshParams = new MeshingParameters();
MeshParams.MaximumEdgeLength = 3 * L;
MeshParams.MinimumEdgeLength = L;
MeshParams.JaggedSeams = false;
MeshParams.SimplePlanes = false;
Mesh[] BrepMeshes = Mesh.CreateFromBrep(SB, MeshParams);
Mesh M = new Mesh();
foreach (var mesh in BrepMeshes)
{
M.Append(mesh);
}
M.Faces.ConvertQuadsToTriangles();
P = M.ToPlanktonMesh();
var FC = new List <Curve>();
foreach (BrepEdge E in SB.Edges)
{
if (!E.IsSmoothManifoldEdge(0.01))
{
FC.Add(E.ToNurbsCurve());
}
}
var Corners = SB.Vertices;
List <Point3d> FV = new List <Point3d>();
foreach (Point Pt in Corners)
{
FV.Add(Pt.Location);
}
//Mark any vertices or edges lying on features
for (int i = 0; i < P.Vertices.Count; i++)
{
Point3d Pt = P.Vertices[i].ToPoint3d();
AnchorV.Add(-1);
for (int j = 0; j < FV.Count; j++)
{
if (Pt.DistanceTo(FV[j]) < FixT)
{
AnchorV[AnchorV.Count - 1] = j;
}
}
FeatureV.Add(-1);
for (int j = 0; j < FC.Count; j++)
{
double param = new double();
FC[j].ClosestPoint(Pt, out param);
if (Pt.DistanceTo(FC[j].PointAt(param)) < FixT)
{
FeatureV[FeatureV.Count - 1] = j;
}
}
}
int EdgeCount = P.Halfedges.Count / 2;
for (int i = 0; i < EdgeCount; i++)
{
FeatureE.Add(-1);
int vStart = P.Halfedges[2 * i].StartVertex;
int vEnd = P.Halfedges[2 * i + 1].StartVertex;
Point3d PStart = P.Vertices[vStart].ToPoint3d();
Point3d PEnd = P.Vertices[vEnd].ToPoint3d();
for (int j = 0; j < FC.Count; j++)
{
double paramS = new double();
double paramE = new double();
Curve thisFC = FC[j];
thisFC.ClosestPoint(PStart, out paramS);
thisFC.ClosestPoint(PEnd, out paramE);
if ((PStart.DistanceTo(thisFC.PointAt(paramS)) < FixT) &&
(PEnd.DistanceTo(thisFC.PointAt(paramE)) < FixT))
{
FeatureE[FeatureE.Count - 1] = j;
}
}
}
for (int iter = 0; iter < 30; iter++)
{
EdgeCount = P.Halfedges.Count / 2;
double[] EdgeLength = P.Halfedges.GetLengths();
List <bool> Visited = new List <bool>();
Vector3d[] Normals = new Vector3d[P.Vertices.Count];
for (int i = 0; i < P.Vertices.Count; i++)
{
Visited.Add(false);
Normals[i] = Util.Normal(P, i);
}
double t = LengthTol; //a tolerance for when to split/collapse edges
double smooth = SmoothStrength; //smoothing strength
double pull = PullStrength; //pull to target mesh strength
// Split the edges that are too long
for (int i = 0; i < EdgeCount; i++)
{
if (P.Halfedges[2 * i].IsUnused == false)
{
int vStart = P.Halfedges[2 * i].StartVertex;
int vEnd = P.Halfedges[2 * i + 1].StartVertex;
if ((Visited[vStart] == false) &&
(Visited[vEnd] == false))
{
double L2 = L;
Point3d Mid = Util.MidPt(P, i);
//if (CurvDep > 0)
//{
// double NormDiff = Vector3d.VectorAngle(Normals[vStart], Normals[vEnd]);
// L2 = Math.Min((1.0 / (3.0 * NormDiff) * L), 5 * L);
// if (CurvDep != 1)
// {
// L2 = L2 * (CurvDep) + L * (1.0 - CurvDep);
// }
//}
//if (BoundScale != 1.0)
//{
// double MinDist = 99954;
// for (int j = 0; j < FC.Count; j++)
// {
// double param = new double();
// FC[j].ClosestPoint(Mid, out param);
// double ThisDist = Mid.DistanceTo(FC[j].PointAt(param));
// if (ThisDist < MinDist)
// { MinDist = ThisDist; }
// }
// if (MinDist < BoundDist)
// {
// L2 = L2 * BoundScale + (MinDist / BoundDist) * (L2 * (1 - BoundScale));
// }
//}
//if (SizP.Count > 0)
//{
// L2 = WeightedCombo(Mid, SizP, SizV, WExp, L2, BGW);
// // L2 = (WL * (1.0 - BGW)) + (BGW * L2);
//}
if (EdgeLength[2 * i] > (1 + t) * (4f / 3f) * L2)
{
int SplitHEdge = P.Halfedges.TriangleSplitEdge(2 * i);
if (SplitHEdge != -1)
{
int SplitCenter = P.Halfedges[SplitHEdge].StartVertex;
P.Vertices.SetVertex(SplitCenter, Util.MidPt(P, i));
//update the feature information
FeatureE.Add(FeatureE[i]);
FeatureV.Add(FeatureE[i]);
AnchorV.Add(-1);
//2 additional new edges have also been created (or 1 if split was on a boundary)
//mark these as non-features
int CEdgeCount = P.Halfedges.Count / 2;
while (FeatureE.Count < CEdgeCount)
{
FeatureE.Add(-1);
}
Visited.Add(true);
int[] Neighbours = P.Vertices.GetVertexNeighbours(SplitCenter);
foreach (int n in Neighbours)
{
Visited[n] = true;
}
}
}
}
}
}
//Collapse the edges that are too short
for (int i = 0; i < EdgeCount; i++)
{
if (P.Halfedges[2 * i].IsUnused == false)
{
int vStart = P.Halfedges[2 * i].StartVertex;
int vEnd = P.Halfedges[2 * i + 1].StartVertex;
if ((Visited[vStart] == false) &&
(Visited[vEnd] == false))
{
if (!(AnchorV[vStart] != -1 && AnchorV[vEnd] != -1)) // if both ends are anchored, don't collapse
{
int Collapse_option = 0; //0 for none, 1 for collapse to midpt, 2 for towards start, 3 for towards end
//if neither are anchorV
if (AnchorV[vStart] == -1 && AnchorV[vEnd] == -1)
{
// if both on same feature (or neither on a feature)
if (FeatureV[vStart] == FeatureV[vEnd])
{
Collapse_option = 1;
}
// if start is on a feature and end isn't
if ((FeatureV[vStart] != -1) && (FeatureV[vEnd] == -1))
{
Collapse_option = 2;
}
// if end is on a feature and start isn't
if ((FeatureV[vStart] == -1) && (FeatureV[vEnd] != -1))
{
Collapse_option = 3;
}
}
else // so one end must be an anchor
{
// if start is an anchor
if (AnchorV[vStart] != -1)
{
// if both are on same feature, or if the end is not a feature
if ((FeatureE[i] != -1) || (FeatureV[vEnd] == -1))
{
Collapse_option = 2;
}
}
// if end is an anchor
if (AnchorV[vEnd] != -1)
{
// if both are on same feature, or if the start is not a feature
if ((FeatureE[i] != -1) || (FeatureV[vStart] == -1))
{
Collapse_option = 3;
}
}
}
double L2 = L;
Point3d Mid = Util.MidPt(P, i);
if (CurvDep > 0)
{
double NormDiff = Vector3d.VectorAngle(Normals[vStart], Normals[vEnd]);
L2 = Math.Min((1.0 / (3.0 * NormDiff) * L), 5 * L);
if (CurvDep != 1)
{
L2 = L2 * (CurvDep) + L * (1.0 - CurvDep);
}
}
//if (BoundScale != 1.0)
//{
// double MinDist = 99954;
// for (int j = 0; j < FC.Count; j++)
// {
// double param = new double();
// FC[j].ClosestPoint(Mid, out param);
// double ThisDist = Mid.DistanceTo(FC[j].PointAt(param));
// if (ThisDist < MinDist)
// { MinDist = ThisDist; }
// }
// if (MinDist < BoundDist)
// {
// L2 = L2 * BoundScale + (MinDist / BoundDist) * (L2 * (1 - BoundScale));
// }
//}
//if (SizP.Count > 0)
//{
// L2 = WeightedCombo(Mid, SizP, SizV, WExp, L2, BGW);
// //double WL = WeightedCombo(Mid, SizP, SizV, WExp);
// //L2 = (WL * (1.0 - BGW)) + (BGW * L2);
//}
if ((Collapse_option != 0) && (EdgeLength[2 * i] < (1 - t) * 4f / 5f * L2))
{
int Collapsed = -1;
int CollapseRtn = -1;
if (Collapse_option == 1)
{
Collapsed = P.Halfedges[2 * i].StartVertex;
P.Vertices.SetVertex(Collapsed, Util.MidPt(P, i));
CollapseRtn = P.Halfedges.CollapseEdge(2 * i);
}
if (Collapse_option == 2)
{
Collapsed = P.Halfedges[2 * i].StartVertex;
CollapseRtn = P.Halfedges.CollapseEdge(2 * i);
}
if (Collapse_option == 3)
{
Collapsed = P.Halfedges[2 * i + 1].StartVertex;
CollapseRtn = P.Halfedges.CollapseEdge(2 * i + 1);
}
if (CollapseRtn != -1)
{
int[] Neighbours = P.Vertices.GetVertexNeighbours(Collapsed);
foreach (int n in Neighbours)
{
Visited[n] = true;
}
}
}
}
}
}
}
EdgeCount = P.Halfedges.Count / 2;
if ((Flip == 0) && (PullStrength > 0))
{
//Flip edges to reduce valence error
for (int i = 0; i < EdgeCount; i++)
{
if (!P.Halfedges[2 * i].IsUnused &&
(P.Halfedges[2 * i].AdjacentFace != -1) &&
(P.Halfedges[2 * i + 1].AdjacentFace != -1) &&
(FeatureE[i] == -1) // don't flip feature edges
)
{
int Vert1 = P.Halfedges[2 * i].StartVertex;
int Vert2 = P.Halfedges[2 * i + 1].StartVertex;
int Vert3 = P.Halfedges[P.Halfedges[P.Halfedges[2 * i].NextHalfedge].NextHalfedge].StartVertex;
int Vert4 = P.Halfedges[P.Halfedges[P.Halfedges[2 * i + 1].NextHalfedge].NextHalfedge].StartVertex;
int Valence1 = P.Vertices.GetValence(Vert1);
int Valence2 = P.Vertices.GetValence(Vert2);
int Valence3 = P.Vertices.GetValence(Vert3);
int Valence4 = P.Vertices.GetValence(Vert4);
if (P.Vertices.NakedEdgeCount(Vert1) > 0)
{
Valence1 += 2;
}
if (P.Vertices.NakedEdgeCount(Vert2) > 0)
{
Valence2 += 2;
}
if (P.Vertices.NakedEdgeCount(Vert3) > 0)
{
Valence3 += 2;
}
if (P.Vertices.NakedEdgeCount(Vert4) > 0)
{
Valence4 += 2;
}
int CurrentError =
Math.Abs(Valence1 - 6) +
Math.Abs(Valence2 - 6) +
Math.Abs(Valence3 - 6) +
Math.Abs(Valence4 - 6);
int FlippedError =
Math.Abs(Valence1 - 7) +
Math.Abs(Valence2 - 7) +
Math.Abs(Valence3 - 5) +
Math.Abs(Valence4 - 5);
if (CurrentError > FlippedError)
{
P.Halfedges.FlipEdge(2 * i);
}
}
}
}
else
{
//Flip edges based on angle
for (int i = 0; i < EdgeCount; i++)
{
if (!P.Halfedges[2 * i].IsUnused &&
(P.Halfedges[2 * i].AdjacentFace != -1) &&
(P.Halfedges[2 * i + 1].AdjacentFace != -1) &&
(FeatureE[i] == -1) // don't flip feature edges
)
{
int Vert1 = P.Halfedges[2 * i].StartVertex;
int Vert2 = P.Halfedges[2 * i + 1].StartVertex;
int Vert3 = P.Halfedges[P.Halfedges[P.Halfedges[2 * i].NextHalfedge].NextHalfedge].StartVertex;
int Vert4 = P.Halfedges[P.Halfedges[P.Halfedges[2 * i + 1].NextHalfedge].NextHalfedge].StartVertex;
Point3d P1 = P.Vertices[Vert1].ToPoint3d();
Point3d P2 = P.Vertices[Vert2].ToPoint3d();
Point3d P3 = P.Vertices[Vert3].ToPoint3d();
Point3d P4 = P.Vertices[Vert4].ToPoint3d();
double A1 = Vector3d.VectorAngle(new Vector3d(P3 - P1), new Vector3d(P4 - P1))
+ Vector3d.VectorAngle(new Vector3d(P4 - P2), new Vector3d(P3 - P2));
double A2 = Vector3d.VectorAngle(new Vector3d(P1 - P4), new Vector3d(P2 - P4))
+ Vector3d.VectorAngle(new Vector3d(P2 - P3), new Vector3d(P1 - P3));
if (A2 > A1)
{
P.Halfedges.FlipEdge(2 * i);
}
}
}
}
//if (Minim)
//{
// Vector3d[] SmoothC = LaplacianSmooth(P, 1, smooth);
// for (int i = 0; i < P.Vertices.Count; i++)
// {
// if (AnchorV[i] == -1) // don't smooth feature vertices
// {
// P.Vertices.MoveVertex(i, 0.5 * SmoothC[i]);
// }
// }
//}
Vector3d[] Smooth = Util.LaplacianSmooth(P, 0, smooth);
for (int i = 0; i < P.Vertices.Count; i++)
{
if (AnchorV[i] == -1) // don't smooth feature vertices
{
// make it tangential only
Vector3d VNormal = Util.Normal(P, i);
double ProjLength = Smooth[i] * VNormal;
Smooth[i] = Smooth[i] - (VNormal * ProjLength);
P.Vertices.MoveVertex(i, Smooth[i]);
if (P.Vertices.NakedEdgeCount(i) != 0)//special smoothing for feature edges
{
int[] Neighbours = P.Vertices.GetVertexNeighbours(i);
int ncount = 0;
Point3d Avg = new Point3d();
for (int j = 0; j < Neighbours.Length; j++)
{
if (P.Vertices.NakedEdgeCount(Neighbours[j]) != 0)
{
ncount++;
Avg = Avg + P.Vertices[Neighbours[j]].ToPoint3d();
}
}
Avg = Avg * (1.0 / ncount);
Vector3d move = Avg - P.Vertices[i].ToPoint3d();
move = move * smooth;
P.Vertices.MoveVertex(i, move);
}
if (FeatureV[i] != -1)//special smoothing for feature edges
{
int[] Neighbours = P.Vertices.GetVertexNeighbours(i);
int ncount = 0;
Point3d Avg = new Point3d();
for (int j = 0; j < Neighbours.Length; j++)
{
if ((FeatureV[Neighbours[j]] == FeatureV[i]) || (AnchorV[Neighbours[j]] != -1))
{
ncount++;
Avg = Avg + P.Vertices[Neighbours[j]].ToPoint3d();
}
}
Avg = Avg * (1.0 / ncount);
Vector3d move = Avg - P.Vertices[i].ToPoint3d();
move = move * smooth;
P.Vertices.MoveVertex(i, move);
}
//projecting points onto the target along their normals
if (pull > 0)
{
Point3d Point = P.Vertices[i].ToPoint3d();
Vector3d normal = Util.Normal(P, i);
Ray3d Ray1 = new Ray3d(Point, normal);
Ray3d Ray2 = new Ray3d(Point, -normal);
double RayPt1 = Rhino.Geometry.Intersect.Intersection.MeshRay(M, Ray1);
double RayPt2 = Rhino.Geometry.Intersect.Intersection.MeshRay(M, Ray2);
Point3d ProjectedPt;
if ((RayPt1 < RayPt2) && (RayPt1 > 0) && (RayPt1 < 1.0))
{
ProjectedPt = Point * (1 - pull) + pull * Ray1.PointAt(RayPt1);
}
else if ((RayPt2 < RayPt1) && (RayPt2 > 0) && (RayPt2 < 1.0))
{
ProjectedPt = Point * (1 - pull) + pull * Ray2.PointAt(RayPt2);
}
else
{
ProjectedPt = Point * (1 - pull) + pull * M.ClosestPoint(Point);
}
P.Vertices.SetVertex(i, ProjectedPt);
}
if (FeatureV[i] != -1) //pull feature vertices onto feature curves
{
Point3d Point = P.Vertices[i].ToPoint3d();
Curve CF = FC[FeatureV[i]];
double param1 = 0.0;
Point3d onFeature = new Point3d();
CF.ClosestPoint(Point, out param1);
onFeature = CF.PointAt(param1);
P.Vertices.SetVertex(i, onFeature);
}
}
else
{
P.Vertices.SetVertex(i, FV[AnchorV[i]]); //pull anchor vertices onto their points
}
}
AnchorV = Util.CompactByVertex(P, AnchorV); //compact the fixed points along with the vertices
FeatureV = Util.CompactByVertex(P, FeatureV);
FeatureE = Util.CompactByEdge(P, FeatureE);
P.Compact(); //this cleans the mesh data structure of unused elements
}
Mesh MR = P.ToRhinoMesh();
MR.Unweld(0.4, true);
doc.Objects.AddMesh(MR);
doc.Views.Redraw();
RhinoApp.WriteLine("The {0} command added one mesh to the document.", EnglishName);
// ---
return(Result.Success);
}
protected override Result RunCommand(RhinoDoc doc, RunMode mode)
{
Rhino.ApplicationSettings.HistorySettings.RecordingEnabled = true;
double tolerance = doc.ModelAbsoluteTolerance;
GetObject gc = new GetObject();
gc.SetCommandPrompt("Select curve(s) for multipipe");
gc.GeometryFilter = Rhino.DocObjects.ObjectType.Curve;
gc.GroupSelect = true;
gc.GetMultiple(1, 0);
if (gc.CommandResult() != Rhino.Commands.Result.Success)
{
return(gc.CommandResult());
}
List <Curve> curves = new List <Curve>();
for (int i = 0; i < gc.ObjectCount; i++)
{
Rhino.DocObjects.ObjRef objref = gc.Object(i);
Rhino.Geometry.Curve curve = objref.Curve();
curves.Add(curve);
ids.Add(objref.ObjectId);
}
Rhino.Input.Custom.GetNumber gn = new Rhino.Input.Custom.GetNumber();
gn.SetCommandPrompt("Start and end radius");
int opList = gn.AddOptionList("Cap", caps, capIndex);
gn.SetDefaultNumber(radius1);
while (true)
{
Rhino.Input.GetResult get_rc = gn.Get();
if (gn.CommandResult() != Rhino.Commands.Result.Success)
{
return(gn.CommandResult());
}
if (get_rc == Rhino.Input.GetResult.Number)
{
radius1 = gn.Number();
if (radius1 < 0 || radius1 < 0.0)
{
Dialogs.ShowMessage("Value must be >= 0.0", "Warning!");
continue;
}
}
else if (get_rc == Rhino.Input.GetResult.Option)
{
if (gn.OptionIndex() == opList)
{
capIndex = gn.Option().CurrentListOptionIndex;
}
continue;
}
break;
}
while (true)
{
RhinoGet.GetNumber("Middle radius", false, ref radius2);
if (radius2 <= 0 || radius2 <= 0.0)
{
Dialogs.ShowMessage("Value must be > 0.0", "Warning!");
continue;
}
break;
}
Brep[] pipe;
double[] radiParam = { 0.0, 0.5, 1.0 };
double[] radi = { radius1, radius2, radius1 };
PipeCapMode[] pCapM = { PipeCapMode.None, PipeCapMode.Flat, PipeCapMode.Round };
// Create a history record
Rhino.DocObjects.HistoryRecord history = new Rhino.DocObjects.HistoryRecord(this, HISTORY_VERSION);
WriteHistory(history, ids, radius1, radius2, capIndex);
foreach (Curve x in curves)
{
pipe = Brep.CreatePipe(x, radiParam, radi, true, pCapM[capIndex], true, doc.ModelAbsoluteTolerance, doc.ModelAngleToleranceRadians);
doc.Objects.AddBrep(pipe[0], null, history, false);
doc.Views.Redraw();
}
doc.Views.Redraw();
return(Result.Success);
}
protected override Result RunCommand(RhinoDoc doc, RunMode mode)
{
var getNumber = new GetNumber();
getNumber.SetLowerLimit(2.0, false);
getNumber.SetUpperLimit(100000.0, false);
getNumber.SetDefaultInteger(RcCore.It.EngineSettings.Samples);
getNumber.SetCommandPrompt("Set render samples");
var useCustomSettings = new OptionToggle(RcCore.It.EngineSettings.UseCustomQualitySettings, "No", "Yes");
var minBounce = new OptionInteger(RcCore.It.EngineSettings.MinBounce, 0, 500);
var maxBounce = new OptionInteger(RcCore.It.EngineSettings.MaxBounce, 0, 500);
var maxDiffuseBounce = new OptionInteger(RcCore.It.EngineSettings.MaxDiffuseBounce, 0, 200);
var maxGlossyBounce = new OptionInteger(RcCore.It.EngineSettings.MaxGlossyBounce, 0, 200);
var maxTransmissionBounce = new OptionInteger(RcCore.It.EngineSettings.MaxTransmissionBounce, 0, 200);
var maxVolumeBounce = new OptionInteger(RcCore.It.EngineSettings.MaxVolumeBounce, 0, 200);
var noCaustics = new OptionToggle(RcCore.It.EngineSettings.NoCaustics, "Caustics", "NoCaustics");
var aaSamples = new OptionInteger(RcCore.It.EngineSettings.AaSamples, 1, 100);
var diffSamples = new OptionInteger(RcCore.It.EngineSettings.DiffuseSamples, 1, 100);
var glossySamples = new OptionInteger(RcCore.It.EngineSettings.GlossySamples, 1, 100);
var seed = new OptionInteger(RcCore.It.EngineSettings.Seed, 0, int.MaxValue);
var sensorWidth = new OptionDouble(RcCore.It.EngineSettings.SensorWidth, 10.0, 100.0);
var sensorHeight = new OptionDouble(RcCore.It.EngineSettings.SensorHeight, 10.0, 100.0);
var transparentMinBounce = new OptionInteger(RcCore.It.EngineSettings.TransparentMinBounce, 0, 200);
var transparentMaxBounce = new OptionInteger(RcCore.It.EngineSettings.TransparentMaxBounce, 0, 200);
var transparentShadows = new OptionToggle(RcCore.It.EngineSettings.TransparentShadows, "NoTransparentShadows", "TransparentShadows");
var branched = new OptionToggle(RcCore.It.EngineSettings.IntegratorMethod==IntegratorMethod.BranchedPath, "Path", "BranchedPath");
var samplingPattern = new OptionToggle(RcCore.It.EngineSettings.SamplingPattern == SamplingPattern.CMJ, "Sobol", "CMJ");
var filterGlossy = new OptionDouble(RcCore.It.EngineSettings.FilterGlossy, 0.0, 100.0);
var sampleClampDirect = new OptionDouble(RcCore.It.EngineSettings.SampleClampDirect, 0.0, 100.0);
var sampleClampIndirect = new OptionDouble(RcCore.It.EngineSettings.SampleClampIndirect, 0.0, 100.0);
var sampleAllLights = new OptionToggle(RcCore.It.EngineSettings.SampleAllLights, "no", "yes");
var sampleAllLightsIndirect = new OptionToggle(RcCore.It.EngineSettings.SampleAllLightsIndirect, "no", "yes");
getNumber.AddOptionToggle("use_custom_quality_settings", ref useCustomSettings);
getNumber.AddOptionInteger("min_bounces", ref minBounce);
getNumber.AddOptionInteger("max_bounces", ref maxBounce);
getNumber.AddOptionToggle("no_caustics", ref noCaustics);
getNumber.AddOptionInteger("max_diffuse_bounce", ref maxDiffuseBounce);
getNumber.AddOptionInteger("max_glossy_bounce", ref maxGlossyBounce);
getNumber.AddOptionInteger("max_transmission_bounce", ref maxTransmissionBounce);
getNumber.AddOptionInteger("max_volume_bounce", ref maxVolumeBounce);
getNumber.AddOptionInteger("transparent_min_bounce", ref transparentMinBounce);
getNumber.AddOptionInteger("transparent_max_bounce", ref transparentMaxBounce);
getNumber.AddOptionToggle("transparent_shadows", ref transparentShadows);
getNumber.AddOptionInteger("aa_samples", ref aaSamples);
getNumber.AddOptionInteger("diffuse_samples", ref diffSamples);
getNumber.AddOptionInteger("glossy_samples", ref glossySamples);
getNumber.AddOptionDouble("sensor_width", ref sensorWidth);
getNumber.AddOptionDouble("sensor_height", ref sensorHeight);
getNumber.AddOptionToggle("integrator_method", ref branched);
getNumber.AddOptionInteger("seed", ref seed, "Seed to use for sampling distribution");
getNumber.AddOptionToggle("sampling_pattern", ref samplingPattern);
getNumber.AddOptionDouble("filter_glossy", ref filterGlossy);
getNumber.AddOptionDouble("sample_clamp_direct", ref sampleClampDirect);
getNumber.AddOptionDouble("sample_clamp_indirect", ref sampleClampIndirect);
getNumber.AddOptionToggle("sample_all_lights", ref sampleAllLights);
getNumber.AddOptionToggle("sample_all_lights_indirect", ref sampleAllLightsIndirect);
while (true)
{
var getRc = getNumber.Get();
if (getNumber.CommandResult() != Result.Success) return getNumber.CommandResult();
switch (getRc)
{
case GetResult.Number:
RhinoApp.WriteLine($"We got: {getNumber.Number()}, {minBounce.CurrentValue}, {maxBounce.CurrentValue}");
RcCore.It.EngineSettings.Samples = (int)getNumber.Number();
RcCore.It.EngineSettings.UseCustomQualitySettings = useCustomSettings.CurrentValue;
RcCore.It.EngineSettings.Seed = seed.CurrentValue;
RcCore.It.EngineSettings.MaxBounce = maxBounce.CurrentValue;
RcCore.It.EngineSettings.MinBounce = minBounce.CurrentValue;
RcCore.It.EngineSettings.NoCaustics = noCaustics.CurrentValue;
RcCore.It.EngineSettings.MaxDiffuseBounce = maxDiffuseBounce.CurrentValue;
RcCore.It.EngineSettings.MaxGlossyBounce = maxGlossyBounce.CurrentValue;
RcCore.It.EngineSettings.MaxTransmissionBounce = maxTransmissionBounce.CurrentValue;
RcCore.It.EngineSettings.MaxVolumeBounce = maxVolumeBounce.CurrentValue;
RcCore.It.EngineSettings.TransparentMinBounce = transparentMinBounce.CurrentValue;
RcCore.It.EngineSettings.TransparentMaxBounce = transparentMaxBounce.CurrentValue;
RcCore.It.EngineSettings.TransparentShadows = transparentShadows.CurrentValue;
RcCore.It.EngineSettings.AaSamples = aaSamples.CurrentValue;
RcCore.It.EngineSettings.DiffuseSamples = diffSamples.CurrentValue;
RcCore.It.EngineSettings.GlossySamples = glossySamples.CurrentValue;
RcCore.It.EngineSettings.SensorWidth = (float)sensorWidth.CurrentValue;
RcCore.It.EngineSettings.SensorHeight = (float)sensorHeight.CurrentValue;
RcCore.It.EngineSettings.IntegratorMethod = branched.CurrentValue ? IntegratorMethod.BranchedPath : IntegratorMethod.Path;
RcCore.It.EngineSettings.SamplingPattern = SamplingPattern.Sobol;
RcCore.It.EngineSettings.FilterGlossy = 0.0f;
RcCore.It.EngineSettings.SampleClampDirect = 0.0f;
RcCore.It.EngineSettings.SampleClampIndirect = 0.0f;
RcCore.It.EngineSettings.SampleAllLights = true;
RcCore.It.EngineSettings.SampleAllLightsIndirect = true;
break;
case GetResult.Option:
continue;
}
break;
}
return Result.Success;
}
