public void DrawTreeMap(IRenderer Renderer)
{
if (DoRevalue ||
(ShowLayout != ShowNodes.All && XRay.CoverChange) ||
(ShowLayout == ShowNodes.Instances && XRay.InstanceChange))
{
RecalcCover(InternalRoot);
RecalcCover(ExternalRoot);
XRay.CoverChange = false;
XRay.InstanceChange = false;
DoRevalue = false;
RevalueCount++;
DoResize = true;
}
if (DoResize)
{
var drawArea = new RectangleF(ScreenOffset.X, ScreenOffset.Y, ScreenSize.Width, ScreenSize.Height);
float offset = 0;
float centerWidth = drawArea.Width;
PositionMap.Clear();
CenterMap.Clear();
if (ShowingOutside)
{
offset = drawArea.Width * 1.0f / 4.0f;
centerWidth -= offset;
InternalRoot.SetArea(new RectangleF(ScreenOffset.X, ScreenOffset.Y, offset - PanelBorderWidth, drawArea.Height));
PositionMap[InternalRoot.ID] = InternalRoot;
SizeNode(Renderer, InternalRoot, CurrentRoot, false);
}
if (ShowingExternal)
{
float extWidth = drawArea.Width * 1.0f / 4.0f;
centerWidth -= extWidth;
ExternalRoot.SetArea(new RectangleF(ScreenOffset.X + offset + centerWidth + PanelBorderWidth, ScreenOffset.Y, extWidth - PanelBorderWidth, drawArea.Height));
PositionMap[ExternalRoot.ID] = ExternalRoot;
SizeNode(Renderer, ExternalRoot, null, false);
}
CurrentRoot.SetArea(new RectangleF(ScreenOffset.X + offset, ScreenOffset.Y, centerWidth, drawArea.Height));
PositionMap[CurrentRoot.ID] = CurrentRoot;
SizeNode(Renderer, CurrentRoot, null, true);
DoResize = false;
ResizeCount++;
}
}
public void DrawTheadline()
{
if (DoRevalue)
{
RecalcCover(InternalRoot);
RecalcCover(ExternalRoot);
DoRevalue = false;
RevalueCount++;
DoResize = true;
}
// set what nodes are allowed in the threadline based on the current root
if (CurrentThreadlineZoom != CurrentRoot)
{
CenterMap.Clear();
CenterMap.Add(CurrentRoot.ID);
Utilities.RecurseTree <NodeModel>(
tree: CurrentRoot.Nodes,
evaluate: n => CenterMap.Add(n.ID),
recurse: n => n.Nodes);
CurrentThreadlineZoom = CurrentRoot;
}
long currentTick = XRay.Watch.ElapsedTicks;
if (!Paused)
{
CalcThreadline(currentTick);
}
LayoutThreadlines(currentTick);
}
public void DrawCallGraph()
{
if (DoRevalue ||
XRay.CallChange ||
(ShowLayout != ShowNodes.All && XRay.CoverChange) ||
(ShowLayout == ShowNodes.Instances && XRay.InstanceChange))
{
RecalcCover(InternalRoot);
RecalcCover(ExternalRoot);
PositionMap.Clear();
CenterMap.Clear();
var root = CurrentRoot;
//causes method graph with ShowExternal on to show nothing
//if (root == InternalRoot && ShowExternal)
// root = TopRoot;
TopGraph = new GraphSet(this, root);
// combine position and center maps for graph tree
Utilities.RecurseTree(
TopGraph,
s =>
{
foreach (var kvp in s.PositionMap)
{
PositionMap[kvp.Key] = kvp.Value;
}
foreach (var id in s.CenterMap)
{
CenterMap.Add(id);
}
},
s => s.Subsets.Values
);
XRay.CallChange = false;
XRay.CoverChange = false;
XRay.InstanceChange = false;
DoRevalue = false;
RevalueCount++;
DoResize = true;
}
// graph created in relative coords so it doesnt need to be re-computed each resize, only on recalc
if (DoResize)
{
Utilities.RecurseTree(
TopGraph,
s =>
{
foreach (var graph in s.Graphs)
{
if (s.GraphContainer == null)
{
ScaleGraph(graph, new RectangleF(ScreenOffset, ScreenSize));
}
else if (s.GraphContainer.XNode.External)
{
// this is assuming the external node is a triangle
var area = s.GraphContainer.AreaF;
var inside = new RectangleF(area.X + area.Width / 4f, area.Y + area.Height / 2f, area.Width / 2f, area.Height / 2f);
ScaleGraph(graph, inside);
}
else
{
ScaleGraph(graph, s.GraphContainer.AreaF);
}
}
},
s => s.Subsets.Values
);
DoResize = false;
ResizeCount++;
}
}