private void UpdateControl(D2dAdaptableControl source, D2dAdaptableControl target, Point cpt)
{
target.Context = source.Context;
if (target.Context == null)
{
return;
}
// transform current mouse point to graph space.
var srcXform = source.As <ITransformAdapter>();
Matrix3x2F mtrx = Matrix3x2F.Invert(srcXform.Transform);
var gpt = Matrix3x2F.TransformPoint(mtrx, cpt);
var targetXform = target.As <ITransformAdapter>();
var csz = target.ClientSize;
PointF translation = new PointF(csz.Width / 2 - gpt.X * targetXform.Scale.X, csz.Height / 2 - gpt.Y * targetXform.Scale.Y);
targetXform.Translation = translation;
var edgeEditor = source.As <D2dGraphEdgeEditAdapter <Module, Connection, ICircuitPin> >();
m_activeEdgeEditor = (edgeEditor != null && edgeEditor.IsDraggingEdge) ? edgeEditor : null;
target.Invalidate();
}
protected override void OnMouseDown(object sender, MouseEventArgs e)
{
if (e.Button != MouseButtons.Left || !IsContextValid())
{
return;
}
var sourceControl = m_birdEyeView.m_sourceControl;
var srcXformAdapter = sourceControl.Cast <ITransformAdapter>();
var srcInvXform = Matrix3x2F.Invert(srcXformAdapter.Transform);
var grect = Matrix3x2F.Transform(srcInvXform, sourceControl.ClientRectangle);
var inxXform = Matrix3x2F.Invert(m_transformAdapter.Transform);
var gpt = Matrix3x2F.TransformPoint(inxXform, e.Location);
if (!grect.Contains(gpt))
{
var srcScale = srcXformAdapter.Scale;
float gcx = grect.X + grect.Width / 2;
float gcy = grect.Y + grect.Height / 2;
grect.X += gpt.X - gcx;
grect.Y += gpt.Y - gcy;
float tx = -grect.X * srcScale.X;
float ty = -grect.Y * srcScale.Y;
srcXformAdapter.Translation = new PointF(tx, ty);
}
m_hitGpt.X = gpt.X - grect.X;
m_hitGpt.Y = gpt.Y - grect.Y;
base.OnMouseDown(sender, e);
AdaptedControl.Capture = true;
}
/// <summary>
/// Performs hit testing for rectangle bounds, in client coordinates</summary>
/// <param name="pickRect">Pick rectangle, in client coordinates</param>
/// <returns>Items that overlap with the rectangle, in client coordinates</returns>
public virtual IEnumerable <object> Pick(Rectangle pickRect)
{
Matrix3x2F invXform = Matrix3x2F.Invert(m_d2dGraphics.Transform);
RectangleF rect = D2dUtil.Transform(invXform, pickRect);
return(m_renderer.Pick(m_graph, rect, m_d2dGraphics));
}
private void control_MouseWheel(object sender, MouseEventArgs e)
{
if (!AdaptedControl.ClientRectangle.Contains(e.Location))
{
return;
}
if (e.Button != MouseButtons.None ||
!IsContextValid())
{
return;
}
// apply transformation to source control.
var sourceControl = m_birdEyeView.m_sourceControl;
var srcXformAdapter = sourceControl.Cast <ITransformAdapter>();
var srcInvXform = Matrix3x2F.Invert(srcXformAdapter.Transform);
var grect = Matrix3x2F.Transform(srcInvXform, sourceControl.ClientRectangle);
var inxXform = Matrix3x2F.Invert(m_transformAdapter.Transform);
var gpt = Matrix3x2F.TransformPoint(inxXform, e.Location);
if (!grect.Contains(gpt))
{
return;
}
// zoom at the center of the grect.
gpt.X = grect.X + grect.Width / 2;
gpt.Y = grect.Y + grect.Height / 2;
// transform gpt to client space of sourcecontrol.
var srcCpt = Matrix3x2F.TransformPoint(srcXformAdapter.Transform, gpt);
PointF translation = srcXformAdapter.Translation;
PointF scale = srcXformAdapter.Scale;
PointF scaleCenterStart = new PointF(
(srcCpt.X - translation.X) / scale.X,
(srcCpt.Y - translation.Y) / scale.Y);
float delta = 1.0f + e.Delta / 1200.0f;
scale = new PointF(
scale.X * delta,
scale.Y * delta);
// constrain scale before calculating translation to maintain scroll center position
scale = srcXformAdapter.ConstrainScale(scale);
translation = new PointF(
srcCpt.X - scaleCenterStart.X * scale.X,
srcCpt.Y - scaleCenterStart.Y * scale.Y);
srcXformAdapter.SetTransform(
scale.X,
scale.Y,
translation.X,
translation.Y);
}
/// <summary>
/// Transforms point by inverse transform</summary>
/// <param name="matrix">Matrix representing transform</param>
/// <param name="p">Point</param>
/// <returns>Inverse transformed point</returns>
public static Point InverseTransform(Matrix3x2F matrix, Point p)
{
Matrix3x2F inverse = matrix;
inverse.Invert();
s_tempPtsF[0] = p;
s_tempPtsF[0] = Matrix3x2F.TransformPoint(inverse, s_tempPtsF[0]);
return(new Point((int)s_tempPtsF[0].X, (int)s_tempPtsF[0].Y));
}
/// <summary>
/// Performs hit testing for rectangle bounds, in client coordinates</summary>
/// <param name="pickRect">Pick rectangle, in client coordinates</param>
/// <returns>Items that overlap with the rectangle, in client coordinates</returns>
public override IEnumerable <object> Pick(Rectangle pickRect)
{
#if CS_4
Matrix3x2F invXform = Matrix3x2F.Invert(m_d2dGraphics.Transform);
RectangleF rect = D2dUtil.Transform(invXform, pickRect);
IEnumerable <object> pickedGraphNodes = base.Pick(pickRect);
#else
// workaround a C#3 compiler bug( CS1911 warning)
Matrix3x2F invXform = Matrix3x2F.Invert(m_d2dGraphics.Transform);
RectangleF rect = D2dUtil.Transform(invXform, pickRect);
List <object> pickedGraphNodes = new List <object>();
foreach (TNode node in m_graph.Nodes)
{
RectangleF nodeBounds = m_renderer.GetBounds(node, m_d2dGraphics); // in graph space
if (nodeBounds.IntersectsWith(rect))
{
pickedGraphNodes.Add(node);
}
}
#endif
foreach (var pickedGraphNode in pickedGraphNodes)
{
yield return(pickedGraphNode);
}
var pickedFloatingPins = new List <object>();
var circuiElement = m_graph.Cast <ICircuitElementType>();
foreach (var pin in circuiElement.Inputs)
{
var grpPIn = pin.Cast <ICircuitGroupPin <TNode> >();
RectangleF nodeBounds = m_renderer.GetBounds(grpPIn, true, m_d2dGraphics);
if (nodeBounds.IntersectsWith(rect))
{
pickedFloatingPins.Add(pin);
}
}
foreach (var pin in circuiElement.Outputs)
{
var grpPIn = pin.Cast <ICircuitGroupPin <TNode> >();
RectangleF nodeBounds = m_renderer.GetBounds(grpPIn, false, m_d2dGraphics);
if (nodeBounds.IntersectsWith(rect))
{
pickedFloatingPins.Add(pin);
}
}
foreach (var floatingPin in pickedFloatingPins)
{
yield return(floatingPin);
}
}
/// <summary>
/// Performs hit test for a point, in client coordinates</summary>
/// <param name="nodes">Nodes to test if hit</param>
/// <param name="edges">Edges to test if hit</param>
/// <param name="pickPoint">Pick point, in client coordinates</param>
/// <returns>Hit record for a point, in client coordinates</returns>
public GraphHitRecord <TNode, TEdge, TEdgeRoute> Pick(IEnumerable <TNode> nodes, IEnumerable <TEdge> edges, Point pickPoint)
{
Matrix3x2F invXform = Matrix3x2F.Invert(m_d2dGraphics.Transform);
PointF pt = Matrix3x2F.TransformPoint(invXform, pickPoint);
TEdge priorityEdge = null;
if (m_selectionContext != null)
{
priorityEdge = m_selectionContext.GetLastSelected <TEdge>();
}
return(m_renderer.Pick(nodes, edges, priorityEdge, pt, m_d2dGraphics));
}
/// <summary>
/// Performs hit test for a point, in client coordinates</summary>
/// <param name="pickPoint">Pick point, in client coordinates</param>
/// <returns>Hit record for a point, in client coordinates</returns>
DiagramHitRecord IPickingAdapter2.Pick(Point pickPoint)
{
Matrix3x2F invXform = Matrix3x2F.Invert(m_d2dGraphics.Transform);
PointF pt = Matrix3x2F.TransformPoint(invXform, pickPoint);
TEdge priorityEdge = null;
if (m_selectionContext != null)
{
priorityEdge = m_selectionContext.GetLastSelected <TEdge>();
}
return(m_renderer.Pick(m_graph, priorityEdge, pt, m_d2dGraphics));
}
private void PaintD2d(object sender, EventArgs e)
{
if (!IsContextValid())
{
return;
}
var control = (D2dAdaptableControl)AdaptedControl;
var sourceControl = m_birdEyeView.m_sourceControl;
var srcXformAdapter = sourceControl.Cast <ITransformAdapter>();
D2dGraphics g = control.D2dGraphics;
Matrix3x2F invXform = g.Transform;
float scaleX = invXform.M11;
invXform.Invert();
Point cpt = control.PointToClient(Control.MousePosition);
var gpt = Matrix3x2F.TransformPoint(invXform, cpt);
// transform client rect of source control to graph space.
var srcInvXform = Matrix3x2F.Invert(srcXformAdapter.Transform);
var grect = Matrix3x2F.Transform(srcInvXform, sourceControl.ClientRectangle);
float strokeWidth = m_dragging || (grect.Contains(gpt) && control.Focused)
? 3.0f / scaleX : 1.5f / scaleX;
g.DrawRectangle(grect, Color.Yellow, strokeWidth);
Point srcCpt = sourceControl.PointToClient(Control.MousePosition);
var srcGpt = Matrix3x2F.TransformPoint(srcInvXform, srcCpt);
if (sourceControl.Focused && grect.Contains(srcGpt) &&
!control.ClientRectangle.Contains(cpt))
{
float cursorSize = 7.0f / scaleX;
RectangleF cursorRect = new RectangleF(srcGpt.X - cursorSize / 2, srcGpt.Y - cursorSize / 2,
cursorSize, cursorSize);
g.FillEllipse(cursorRect, Color.Yellow);
}
}
/// <summary>
/// Frames the items in the current view</summary>
/// <param name="items">Items to frame</param>
public void Frame(IEnumerable <object> items)
{
if (ToggleFramingEnabled)
{
if (m_isUnframing)
{
m_isUnframing = false;
m_transformAdapter.SetTransform(m_unframeMtrx.M11, m_unframeMtrx.M22, m_unframeMtrx.DX, m_unframeMtrx.DY);
return;
}
m_isUnframing = true;
m_unframeMtrx = m_transformAdapter.Transform;
}
var bounds = GetBounds(items);
// transform bounds from client space to graph space.
Matrix3x2F invXform = Matrix3x2F.Invert(m_transformAdapter.Transform);
var gBounds = Matrix3x2F.Transform(invXform, bounds);
var crect = AdaptedControl.ClientRectangle;
crect.Inflate(-MarginSize.Width, -MarginSize.Height);
if (crect.Width < 1 || crect.Height < 1)
{
return;
}
float sx = MathUtil.Clamp(crect.Width / gBounds.Width, m_transformAdapter.MinScale.X, m_transformAdapter.MaxScale.X);
float sy = MathUtil.Clamp(crect.Height / gBounds.Height, m_transformAdapter.MinScale.Y, m_transformAdapter.MaxScale.Y);
float scale = Math.Min(sx, sy);
crect.X += (int)(crect.Width - gBounds.Width * scale) / 2;
crect.Y += (int)(crect.Height - gBounds.Height * scale) / 2;
float tx = crect.X - gBounds.X * scale;
float ty = crect.Y - gBounds.Y * scale;
m_transformAdapter.SetTransform(scale, scale, tx, ty);
}
/// <summary>
/// Renders entire graph</summary>
protected override void OnRender()
{
D2dGraphics.AntialiasMode = D2dAntialiasMode.PerPrimitive;
Matrix3x2F invMtrx = D2dGraphics.Transform;
invMtrx.Invert();
RectangleF boundsGr = Matrix3x2F.Transform(invMtrx, this.AdaptedControl.ClientRectangle);
// Draw normal nodes on top of edges
foreach (StateBase node in Graph.Nodes)
{
RectangleF nodeBounds = Renderer.GetBounds(node, D2dGraphics);
if (!boundsGr.IntersectsWith(nodeBounds))
{
continue;
}
DiagramDrawingStyle style = GetStyle(node);
Renderer.Draw(node, style, D2dGraphics);
}
// Draw edges last for now. Todo: draw in layers, with edges and then nodes for each layer
foreach (Transition edge in Graph.Edges)
{
if (edge == HiddenEdge)
{
continue;
}
RectangleF edgeBounds = Renderer.GetBounds(edge, D2dGraphics);
if (!boundsGr.IntersectsWith(edgeBounds))
{
continue;
}
DiagramDrawingStyle style = GetStyle(edge);
Renderer.Draw(edge, style, D2dGraphics);
}
}
protected override void OnDragging(MouseEventArgs e)
{
base.OnDragging(e);
if (e.Button != MouseButtons.Left || !IsContextValid())
{
return;
}
AdaptedControl.Capture = true;
m_dragging = true;
var sourceControl = m_birdEyeView.m_sourceControl;
var srcXformAdapter = sourceControl.Cast <ITransformAdapter>();
var inxXform = Matrix3x2F.Invert(m_transformAdapter.Transform);
var gpt = Matrix3x2F.TransformPoint(inxXform, e.Location);
gpt.X -= m_hitGpt.X;
gpt.Y -= m_hitGpt.Y;
var srcScale = srcXformAdapter.Scale;
srcXformAdapter.Translation = new PointF(-gpt.X * srcScale.X, -gpt.Y * srcScale.Y);
}
private void UpdateGraphBounds()
{
if (m_targetControl == null || m_sourceControl == null ||
m_targetControl.Context != m_sourceControl.Context)
{
return;
}
m_currentGraphBounds = RectangleF.Empty;
var vc = m_sourceControl.Context.Cast <ViewingContext>();
var bounds = vc.GetBounds();
if (m_sourceControl.ContextIs <Sce.Atf.Controls.Adaptable.Graphs.Group>())
{
bounds.Inflate(m_editor.Theme.PinSize + CircuitGroupPinInfo.FloatingPinBoxWidth, 0);
}
var srcXform = m_sourceControl.As <ITransformAdapter>();
Matrix3x2F invXform = Matrix3x2F.Invert(srcXform.Transform);
var gBounds = Matrix3x2F.Transform(invXform, bounds);
m_currentGraphBounds = gBounds;
Fit(m_targetControl, gBounds);
}
/// <summary>
/// Get currently dragging edge or null
/// if currently no edige is being dragged.</summary>
/// <returns></returns>
public DragEdge GetDraggingEdge()
{
if (!m_isConnecting)
{
return(null);
}
var d2dControl = this.AdaptedControl as D2dAdaptableControl;
D2dGraphics gfx = d2dControl.D2dGraphics;
var invXform = Matrix3x2F.Invert(gfx.Transform);
var edge = new DragEdge();
edge.FromNode = m_draggingContext.ActualFromNode();
edge.FromRoute = m_draggingContext.ActualFromRoute(edge.FromNode);
edge.ToNode = m_draggingContext.ActualToNode();
edge.ToRoute = m_draggingContext.ActualToRoute(edge.ToNode);
edge.Label = m_draggingContext.ExistingEdge != null ? m_draggingContext.ExistingEdge.Label : null;
edge.StartPoint = edge.FromRoute == null?Matrix3x2F.TransformPoint(invXform, m_edgeDragPoint) : m_draggingContext.FromRoutePos;
edge.EndPoint = edge.ToRoute == null?Matrix3x2F.TransformPoint(invXform, m_edgeDragPoint) : m_draggingContext.ToRoutePos;
return(edge);
}
/// <summary>
/// Renders entire graph</summary>
protected virtual void OnRender()
{
try
{
m_renderer.GetStyle = GetStyle;
m_d2dGraphics.AntialiasMode = D2dAntialiasMode.PerPrimitive;
Matrix3x2F invMtrx = m_d2dGraphics.Transform;
invMtrx.Invert();
RectangleF boundsGr = Matrix3x2F.Transform(invMtrx, this.AdaptedControl.ClientRectangle);
// Either draw (most) edges first or prepare multimaps for draw-as-we-go edges.
if (EdgeRenderPolicy == DrawEdgePolicy.AllFirst)
{
foreach (var edge in m_graph.Edges)
{
if (edge == m_hiddenEdge)
{
continue;
}
RectangleF bounds = m_renderer.GetBounds(edge, m_d2dGraphics);
if (!boundsGr.IntersectsWith(bounds))
{
continue;
}
var group = edge.FromNode.As <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >();
if (group == null || !group.Expanded)
{
group = edge.ToNode.As <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >();
}
if (group != null && group.Expanded)
{
m_edgesOnGroups.Add(edge);
}
else
{
DiagramDrawingStyle style = GetStyle(edge);
m_renderer.Draw(edge, style, m_d2dGraphics);
}
}
}
else
{
// build node to edge maps
foreach (TEdge edge in m_graph.Edges)
{
m_nodeEdges.Add(edge.FromNode, edge);
m_nodeEdges.Add(edge.ToNode, edge);
m_edgeNodeEncounter.Add(edge, 0);
}
}
// Draw normal nodes first
TNode containerOfSelectedNode = null;
foreach (var node in m_graph.Nodes)
{
RectangleF nodeBounds = m_renderer.GetBounds(node, m_d2dGraphics);
if (boundsGr.IntersectsWith(nodeBounds))
{
DiagramDrawingStyle drawStyle = GetStyle(node);
// Draw all dragged nodes (even expanded groups) last.
if (drawStyle == DiagramDrawingStyle.DragSource)
{
m_draggingNodes.Add(node);
}
else
{
// Draw selected nodes after normal nodes. If the node
// is hot, check if it's selected.
if (drawStyle == DiagramDrawingStyle.Selected ||
drawStyle == DiagramDrawingStyle.LastSelected ||
(drawStyle == DiagramDrawingStyle.Hot && m_selectionContext != null &&
m_selectionContext.SelectionContains(node)))
{
m_selectedNodes.Add(node);
}
else
{
// Expanded groups are drawn after normal nodes.
bool expandedGroup = false;
var group = node.As <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >();
if (group != null)
{
group.Info.PickingPriority = 0;
if (group.Expanded)
{
if (node == ActiveContainer())
{
containerOfSelectedNode = node;
}
else
{
m_expandedGroups.Add(node);
}
expandedGroup = true;
}
}
// Draw normal nodes and collapsed groups.
if (!expandedGroup)
{
m_renderer.Draw(node, drawStyle, m_d2dGraphics);
if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
DrawAssociatedEdges(node, boundsGr);
}
}
}
}
}
else if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
DrawAssociatedEdges(node, boundsGr);
}
}
// Draw expanded groups on top of normal sibling nodes, so that normal nodes that overlap
// these groups don't appear as if they are in the groups.
int pickPriority = 0;
foreach (var node in m_expandedGroups)
{
var group = node.Cast <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >();
group.Info.PickingPriority = pickPriority++;
m_renderer.Draw(node, GetStyle(node), m_d2dGraphics);
if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
DrawAssociatedEdges(node, boundsGr);
}
}
// Draw the expanded group that contains a selected or dragged child node, so that
// if multiple expanded groups overlap, that the user can see the owning group.
if (containerOfSelectedNode != null)
{
var group = containerOfSelectedNode.Cast <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >();
group.Info.PickingPriority = pickPriority++;
m_renderer.Draw(containerOfSelectedNode, GetStyle(containerOfSelectedNode), m_d2dGraphics);
if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
DrawAssociatedEdges(containerOfSelectedNode, boundsGr);
}
}
// Draw selected nodes.
foreach (var node in m_selectedNodes)
{
var group = node.As <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >();
if (group != null)
{
group.Info.PickingPriority = pickPriority++;
}
m_renderer.Draw(node, GetStyle(node), m_d2dGraphics);
if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
DrawAssociatedEdges(node, boundsGr);
}
}
// Draw dragging nodes last to ensure they are visible (necessary for container-crossing move operation)
foreach (var node in m_draggingNodes)
{
m_renderer.Draw(node, DiagramDrawingStyle.DragSource, m_d2dGraphics);
if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
DrawAssociatedEdges(node, boundsGr);
}
}
// Draw "all first" edges that connect to expanded groups.
foreach (var edge in m_edgesOnGroups)
{
DiagramDrawingStyle style = GetStyle(edge);
m_renderer.Draw(edge, style, m_d2dGraphics);
}
}
finally
{
m_nodeEdges.Clear();
m_edgeNodeEncounter.Clear();
m_draggingNodes.Clear();
m_selectedNodes.Clear();
m_expandedGroups.Clear();
m_edgesOnGroups.Clear();
}
}
/// <summary>
/// Renders entire graph</summary>
protected virtual void OnRender()
{
m_d2dGraphics.AntialiasMode = D2dAntialiasMode.PerPrimitive;
Matrix3x2F invMtrx = m_d2dGraphics.Transform;
invMtrx.Invert();
RectangleF boundsGr = Matrix3x2F.Transform(invMtrx, this.AdaptedControl.ClientRectangle);
if (EdgeRenderPolicy == DrawEdgePolicy.AllFirst)
{
foreach (var edge in m_graph.Edges)
{
DrawEdge(edge, boundsGr);
}
}
else
{
// build node to edge maps
m_fromNodeEdges.Clear();
m_toNodeEdges.Clear();
m_edgeNodeEncounter.Clear();
foreach (TEdge edge in m_graph.Edges)
{
m_fromNodeEdges.Add(edge.FromNode, edge);
m_toNodeEdges.Add(edge.ToNode, edge);
m_edgeNodeEncounter.Add(edge, 0);
}
}
// Draw normal nodes first
TNode selectedGroup = null;
var draggingNodes = new List <TNode>();
var expandedGroupNodes = new List <TNode>();
foreach (var node in m_graph.Nodes)
{
RectangleF nodeBounds = m_renderer.GetBounds(node, m_d2dGraphics);
if (boundsGr.IntersectsWith(nodeBounds))
{
bool expandedGroup = false;
if (node.Is <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >())
{
var group = node.Cast <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >();
group.Info.PickingPriority = 0;
if (group.Expanded)
{
if (node == ActiveContainer())
{
selectedGroup = node;
}
else
{
expandedGroupNodes.Add(node);
}
expandedGroup = true;
}
}
if (!expandedGroup)
{
if (m_renderer.GetCustomStyle(node) == DiagramDrawingStyle.DragSource)
{
draggingNodes.Add(node);
}
else
{
m_renderer.Draw(node, GetStyle(node), m_d2dGraphics);
if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
TryDrawAssociatedEdges(node, boundsGr);
}
}
}
}
else if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
TryDrawAssociatedEdges(node, boundsGr);
}
}
int pickPriority = 0;
foreach (var node in expandedGroupNodes)
{
var group = node.Cast <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >();
group.Info.PickingPriority = pickPriority++;
m_renderer.Draw(node, GetStyle(node), m_d2dGraphics);
if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
TryDrawAssociatedEdges(node, boundsGr);
}
}
if (selectedGroup != null)
{
var group = selectedGroup.Cast <ICircuitGroupType <TNode, TEdge, TEdgeRoute> >();
group.Info.PickingPriority = pickPriority++;
m_renderer.Draw(selectedGroup, GetStyle(selectedGroup), m_d2dGraphics);
if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
TryDrawAssociatedEdges(selectedGroup, boundsGr);
}
}
// Draw dragging nodes last to ensure they are visible (necessary for container-crossing move operation)
foreach (var node in draggingNodes)
{
m_renderer.Draw(node, DiagramDrawingStyle.DragSource, m_d2dGraphics);
if (EdgeRenderPolicy == DrawEdgePolicy.Associated)
{
TryDrawAssociatedEdges(node, boundsGr);
}
}
}
/// <summary>
/// Transforms point by inverse transform</summary>
/// <param name="matrix">Matrix representing transform</param>
/// <param name="p">Point</param>
/// <returns>Inverse transformed point</returns>
public static Point InverseTransform(Matrix3x2F matrix, Point p)
{
Matrix3x2F inverse = Matrix3x2F.Invert(matrix);
return(Point.Truncate(Matrix3x2F.TransformPoint(inverse, p)));
}
