private void RouteMarkedEdges(LayoutGraph graph, IDataMap markedEdgesMap)
{
if (MarkedEdgeRouter == null)
{
return;
}
IDataProvider backupDp = null;
if (EdgeSelectionKey != null)
{
backupDp = graph.GetDataProvider(EdgeSelectionKey);
graph.AddDataProvider(EdgeSelectionKey, markedEdgesMap);
}
if (MarkedEdgeRouter is StraightLineEdgeRouter)
{
var router = (StraightLineEdgeRouter)MarkedEdgeRouter;
router.Scope = Scope.RouteAffectedEdges;
router.AffectedEdgesDpKey = EdgeSelectionKey;
}
MarkedEdgeRouter.ApplyLayout(graph);
if (EdgeSelectionKey != null)
{
graph.RemoveDataProvider(EdgeSelectionKey);
if (backupDp != null)
{
graph.AddDataProvider(EdgeSelectionKey, backupDp);
}
}
}
public override void ApplyLayout(LayoutGraph graph)
{
var dataProvider = graph.GetDataProvider(SelectedLabelsAtItemKey);
graph.AddDataProvider(ProviderKey, new MyDataProviderAdapter(dataProvider, graph));
ApplyLayoutCore(graph);
graph.RemoveDataProvider(ProviderKey);
}
/// <summary>
/// Removes all edges that are incident to group nodes and passes it to the core layout algorithm.
/// </summary>
/// <remarks>
/// This stage removes some edges from the graph such that no edges incident to group nodes
/// exist. Then, it applies the core layout algorithm to the reduced graph.
/// After it produces the result, it re-inserts the previously removed edges and routes them.
/// </remarks>
public override void ApplyLayout(LayoutGraph graph) {
var groupingSupport = new yWorks.Layout.Grouping.GroupingSupport(graph);
if (!GroupingSupport.IsGrouped(graph)) {
ApplyLayoutCore(graph);
} else {
var hiddenEdgesMap = Maps.CreateHashedEdgeMap();
var edgeHider = new LayoutGraphHider(graph);
var existHiddenEdges = false;
foreach (var edge in graph.Edges) {
if (groupingSupport.IsGroupNode(edge.Source) || groupingSupport.IsGroupNode(edge.Target)) {
hiddenEdgesMap.Set(edge, true);
edgeHider.Hide(edge);
existHiddenEdges = true;
} else {
hiddenEdgesMap.Set(edge, false);
}
}
ApplyLayoutCore(graph);
if (existHiddenEdges) {
edgeHider.UnhideAll();
// routes the marked edges
RouteMarkedEdges(graph, hiddenEdgesMap);
if (ConsiderEdgeLabels) {
// all labels of hidden edges should be marked
var affectedLabelsDpKey = "affectedLabelsDpKey";
var nonTreeLabelsMap = Maps.CreateHashedDataMap();
foreach (var edge in graph.Edges) {
var ell = graph.GetLabelLayout(edge);
foreach (var labelLayout in ell) {
nonTreeLabelsMap.Set(labelLayout, hiddenEdgesMap.Get(edge));
}
}
// add selection marker
graph.AddDataProvider(affectedLabelsDpKey, nonTreeLabelsMap);
// place marked labels
var labeling = new GenericLabeling {
PlaceNodeLabels = false,
PlaceEdgeLabels = true,
AffectedLabelsDpKey = affectedLabelsDpKey,
};
labeling.ApplyLayout(graph);
// dispose selection key
graph.RemoveDataProvider(affectedLabelsDpKey);
}
}
}
}
/// <inheritdoc/>
public override void ApplyLayout(LayoutGraph graph)
{
// first layout the non-tree edges
nonTreeEdgeRouter.Scope = Scope.RouteAffectedEdges;
nonTreeEdgeRouter.ApplyLayout(graph);
// the tree reduction stage only prepares a data provider to mark the non-tree edges but we need
// a provider to mark the labels of all non-tree edges:
// for t
var nonTreeEdgeDp = graph.GetDataProvider(LayoutKeys.AffectedEdgesDpKey);
graph.AddDataProvider("nonTreeLabels", new NonTeeEdgesDataProvider(graph, nonTreeEdgeDp));
nonTreeEdgeLabelLayout.AffectedLabelsDpKey = "nonTreeLabels";
nonTreeEdgeLabelLayout.ApplyLayout(graph);
graph.RemoveDataProvider("nonTreeLabels");
}
protected override void OptimizeAfterSequencing(IComparer <object> inEdgeOrder, IComparer <object> outEdgeOrder, LayoutGraph graph, ILayers layers,
ILayoutDataProvider ldp, IItemFactory itemFactory)
{
edge2LaneCrossing = Maps.CreateHashedEdgeMap();
node2LaneAlignment = Maps.CreateHashedNodeMap();
var criticalEdges = Maps.CreateHashedEdgeMap();
// determine whether an edge crosses a swim lane border and if so in which direction
foreach (var edge in graph.Edges)
{
var originalEdge = GetOriginalEdge(edge, ldp);
// now we have a 'real' edge with valid valid source and target nodes
var originalSourceId = GetLaneId(originalEdge.Source, ldp);
var originalTargetId = GetLaneId(originalEdge.Target, ldp);
LaneCrossing crossing = LaneCrossing.None;
if (originalSourceId != originalTargetId)
{
// check if we need to flip the sides because edge and original edge have different directions
var flipSides = edge.Source != originalEdge.Source;
var sourceId = flipSides ? originalTargetId : originalSourceId;
var targetId = flipSides ? originalSourceId : originalTargetId;
crossing = sourceId > targetId ? LaneCrossing.ToWest : LaneCrossing.ToEast;
}
edge2LaneCrossing.Set(edge, crossing);
}
// determine basic node alignment
foreach (var n in graph.Nodes)
{
LaneAlignment alignment = CalculateLaneAlignment(n);
node2LaneAlignment.Set(n, alignment);
}
foreach (var n in graph.Nodes)
{
// sort the edges with the provided comparer
n.SortInEdges(inEdgeOrder);
n.SortOutEdges(outEdgeOrder);
// calculate 'critical' in and out-edges whose nodes should be aligned in flow
var bestInEdge = n.InDegree > 0 ? GetBestFlowEdge(n.InEdges, ldp, graph) : null;
var bestOutEdge = n.OutDegree > 0 ? GetBestFlowEdge(n.OutEdges, ldp, graph) : null;
if (bestInEdge != null)
{
criticalEdges.SetDouble(bestInEdge, criticalEdges.GetDouble(bestInEdge) + 0.5);
}
if (bestOutEdge != null)
{
criticalEdges.SetDouble(bestOutEdge, criticalEdges.GetDouble(bestOutEdge) + 0.5);
}
if (n.Degree <= 4)
{
// should usually be the case and we can distribute each edge to its own side
// remember which node side is already taken by an in- or out-edge
bool westTakenByInEdge = false;
bool eastTakenByInEdge = false;
bool westTakenByOutEdge = false;
bool eastTakenByOutEdge = false;
if (n.InDegree > 0 && n.OutDegree < 3)
{
// if there are at least three out-edges, we distribute those first, otherwise we start with the in-edges
var firstInEdge = n.FirstInEdge;
var lastInEdge = n.LastInEdge;
if (GetLaneCrossing(firstInEdge) == LaneCrossing.ToEast &&
(n.InDegree > 1 || IsSameLayerEdge(firstInEdge, ldp)))
{
// the first in-edge comes from west and is either a same layer edge or there are other in-edges
ConstrainWest(firstInEdge, false, itemFactory);
westTakenByInEdge = true;
}
if (!westTakenByInEdge || n.OutDegree < 2)
{
// don't use west and east side for in-edges if there are at least 2 out-edges
if (GetLaneCrossing(lastInEdge) == LaneCrossing.ToWest &&
(n.InDegree > 1 || IsSameLayerEdge(lastInEdge, ldp)))
{
// the last in-edge comes from east and is either
// a same-layer edge or there are other in-edges
ConstrainEast(lastInEdge, false, itemFactory);
eastTakenByInEdge = true;
}
}
}
if (n.OutDegree > 0)
{
var firstOutEdge = n.FirstOutEdge;
var lastOutEdge = n.LastOutEdge;
if (!westTakenByInEdge)
{
// the west side is still free
if (BpmnLayout.IsBoundaryInterrupting(firstOutEdge, graph) ||
(GetLaneCrossing(firstOutEdge) == LaneCrossing.ToWest) &&
(n.OutDegree > 1 || IsSameLayerEdge(firstOutEdge, ldp)))
{
// the first out-edge is either boundary interrupting or goes to west and
// is either a same layer edge or there are other out-edges
ConstrainWest(firstOutEdge, true, itemFactory);
westTakenByOutEdge = true;
}
else if (eastTakenByInEdge && n.OutDegree >= 2 && !IsSameLayerEdge(firstOutEdge.NextOutEdge, ldp))
{
// the east side is already taken but we have more then one out edge.
// if the second out edge is a same layer edge, constraining the firstOutEdge could lead to
// no in-flow edge
ConstrainWest(firstOutEdge, true, itemFactory);
westTakenByOutEdge = true;
}
}
if (!eastTakenByInEdge)
{
// the east side is still free
if (GetLaneCrossing(lastOutEdge) == LaneCrossing.ToEast &&
(n.OutDegree > 1 || IsSameLayerEdge(lastOutEdge, ldp)))
{
// the last out-edge goes to east and
// is either a same layer edge or there are other out-edges
ConstrainEast(lastOutEdge, true, itemFactory);
eastTakenByOutEdge = true;
}
else if (westTakenByInEdge && n.OutDegree >= 2 && !IsSameLayerEdge(lastOutEdge.PrevOutEdge, ldp))
{
// the west side is already taken but we have more then one out edge.
// if the second last out edge is a same layer edge, constraining the lastOutEdge could lead to
// no in-flow edge
ConstrainEast(lastOutEdge, true, itemFactory);
eastTakenByOutEdge = true;
}
}
}
// distribute remaining in-edges
if (n.InDegree == 2 &&
!(eastTakenByInEdge || westTakenByInEdge))
{
// two in-edges but none distributed, yet
if (bestInEdge == n.FirstInEdge && !eastTakenByOutEdge)
{
// first in-edge is in-flow edge and east side is still free
ConstrainEast(n.LastInEdge, false, itemFactory);
eastTakenByInEdge = true;
}
else if (bestInEdge == n.LastInEdge && !westTakenByOutEdge)
{
// last in-edge is in-flow edge and west side is still free
ConstrainWest(n.FirstInEdge, false, itemFactory);
westTakenByInEdge = true;
}
}
else if (n.InDegree == 3 &&
!(eastTakenByInEdge && westTakenByInEdge) &&
!(IsSameLayerEdge(n.FirstInEdge.NextInEdge, ldp)))
{
// three in-edges but not both sides taken, yet and the middle edge is no same layer edge
if (!eastTakenByOutEdge)
{
// if not already taken, constraint the last in-edge to east
ConstrainEast(n.LastInEdge, false, itemFactory);
eastTakenByInEdge = true;
}
if (!westTakenByOutEdge)
{
// if not already taken, constraint the first in-edge to west
ConstrainWest(n.FirstInEdge, false, itemFactory);
westTakenByInEdge = true;
}
}
// distribute remaining out-edges
if (n.OutDegree == 2 && !(eastTakenByOutEdge || westTakenByOutEdge))
{
// two out-edges but none distributed, yet
if (bestOutEdge == n.FirstOutEdge && !eastTakenByInEdge)
{
// first out-edge is in-flow edge and east side is still free
ConstrainEast(n.LastOutEdge, true, itemFactory);
eastTakenByOutEdge = true;
}
else if (bestOutEdge == n.LastOutEdge && !westTakenByInEdge)
{
// last out-edge is in-flow edge and west side is still free
ConstrainWest(n.FirstOutEdge, true, itemFactory);
westTakenByOutEdge = true;
}
}
else if (n.OutDegree == 3 &&
!(eastTakenByOutEdge && westTakenByOutEdge) &&
!(IsSameLayerEdge(n.FirstOutEdge.NextOutEdge, ldp)))
{
// three out-edges but not both sides taken, yet and the middle edge is no same layer edge
if (!eastTakenByInEdge)
{
// if not already taken, constraint the last out-edge to east
ConstrainEast(n.LastOutEdge, true, itemFactory);
eastTakenByOutEdge = true;
}
if (!westTakenByInEdge)
{
// if not already taken, constraint the first out-edge to west
ConstrainWest(n.FirstOutEdge, true, itemFactory);
westTakenByOutEdge = true;
}
}
}
}
// register the data provider for critical edge paths. It is deregistered again by BpmnLayout itself
graph.AddDataProvider(HierarchicLayout.CriticalEdgePriorityDpKey, criticalEdges);
sameLayerData = null;
edge2LaneCrossing = null;
node2LaneAlignment = null;
}
/// <summary>
/// Executes the layout algorithm.
/// </summary>
/// <remarks>
/// <para>
/// Enlarges the node layout to fully encompass the rotated layout (the rotated layout's bounding box).
/// If the <see cref="EdgeRoutingMode"/> is set to <see cref="RoutingMode.FixedPort"/>
/// port constraints are created to keep the ports at their current location.
/// Existing port constraints are adjusted to the rotation.
/// </para>
/// <para>
/// Then, the <see cref="LayoutStageBase.CoreLayout"/> is executed.
/// </para>
/// <para>
/// After the core layout the original node sizes are restored.
/// If the <see cref="EdgeRoutingMode"/> is set to <see cref="RoutingMode.ShortestStraightPathToBorder"/>
/// the last edge segment is extended from the bounding box to the rotated layout.
/// </para>
/// </remarks>
public override void ApplyLayout(LayoutGraph graph)
{
if (CoreLayout == null)
{
return;
}
var boundsProvider = graph.GetDataProvider(RotatedNodeLayoutDpKey);
if (boundsProvider == null)
{
// no provider: this stage adds nothing to the core layout
CoreLayout.ApplyLayout(graph);
return;
}
bool addedSourcePortConstraints = false;
bool addedTargetPortContstraints = false;
IDataMap sourcePortConstraints = (IDataMap)graph.GetDataProvider(PortConstraintKeys.SourcePortConstraintDpKey);
IDataMap targetPortConstraints = (IDataMap)graph.GetDataProvider(PortConstraintKeys.TargetPortConstraintDpKey);
if (EdgeRoutingMode == RoutingMode.FixedPort)
{
// Fixed port: create port constraints to keep the ports at position
// in this case: create data providers if there are none yet
if (sourcePortConstraints == null)
{
sourcePortConstraints = graph.CreateEdgeMap();
graph.AddDataProvider(PortConstraintKeys.SourcePortConstraintDpKey, sourcePortConstraints);
addedSourcePortConstraints = true;
}
if (targetPortConstraints == null)
{
targetPortConstraints = graph.CreateEdgeMap();
graph.AddDataProvider(PortConstraintKeys.TargetPortConstraintDpKey, targetPortConstraints);
addedTargetPortContstraints = true;
}
}
try {
var originalDimensions = new Dictionary <Node, OldDimensions>();
foreach (var node in graph.Nodes)
{
var nodeShape = (RotatedNodeShape)boundsProvider.Get(node);
var orientedLayout = nodeShape != null ? nodeShape.OrientedLayout : null;
var outline = nodeShape != null ? nodeShape.Outline : null;
if (orientedLayout != null)
{
// if the current node is rotated: apply fixes
// remember old layout and size
var oldLayout = graph.GetLayout(node);
var newLayout = orientedLayout.GetBounds().ToYRectangle();
var offset = new PointD(newLayout.X - oldLayout.X, newLayout.Y - oldLayout.Y);
var originalSize = new SizeD(oldLayout.Width, oldLayout.Height);
var oldDimensions = new OldDimensions {
offset = offset,
size = originalSize,
outline = outline
};
if (EdgeRoutingMode == RoutingMode.FixedPort)
{
// EdgeRoutingMode: FixedPort: keep the ports at their current location
// The oriented layout's corners to find the best PortSide
var tl = new PointD(orientedLayout.AnchorX + orientedLayout.UpX * orientedLayout.Height, orientedLayout.AnchorY + orientedLayout.UpY * orientedLayout.Height);
var tr = new PointD(orientedLayout.AnchorX + orientedLayout.UpX * orientedLayout.Height - orientedLayout.UpY * orientedLayout.Width,
orientedLayout.AnchorY + orientedLayout.UpY * orientedLayout.Height + orientedLayout.UpX * orientedLayout.Width);
var bl = new PointD(orientedLayout.AnchorX, orientedLayout.AnchorY);
var br = new PointD(orientedLayout.AnchorX - orientedLayout.UpY * orientedLayout.Width, orientedLayout.AnchorY + orientedLayout.UpX * orientedLayout.Width);
// for each out edge
foreach (var edge in node.OutEdges)
{
// create a strong port constraint for the side which is closest to the port location (without rotation)
var constraint = sourcePortConstraints.Get(edge);
if (constraint == null)
{
var point = graph.GetSourcePointAbs(edge).ToPointD();
var side = FindBestSide(point, bl, br, tl, tr);
sourcePortConstraints.Set(edge, PortConstraint.Create(side, true));
}
}
foreach (var edge in node.InEdges)
{
// create a strong port constraint for the side which is closest to the port location (without rotation)
var constraint = targetPortConstraints.Get(edge);
if (constraint == null)
{
var point = graph.GetTargetPointAbs(edge).ToPointD();
var side = FindBestSide(point, bl, br, tl, tr);
targetPortConstraints.Set(edge, PortConstraint.Create(side, true));
}
}
}
// For source and target port constraints: fix the PortSide according to the rotation
var angle = Math.Atan2(orientedLayout.UpY, orientedLayout.UpX);
if (sourcePortConstraints != null)
{
foreach (var edge in node.OutEdges)
{
FixPortConstraintSide(sourcePortConstraints, edge, angle);
}
}
if (targetPortConstraints != null)
{
foreach (var edge in node.InEdges)
{
FixPortConstraintSide(targetPortConstraints, edge, angle);
}
}
// enlarge the node layout
var position = new YPoint(newLayout.X, newLayout.Y);
oldDimensions.location = position;
originalDimensions.Add(node, oldDimensions);
graph.SetLocation(node, position);
graph.SetSize(node, newLayout);
}
}
// ===============================================================
CoreLayout.ApplyLayout(graph);
// ===============================================================
var groups = graph.GetDataProvider(GroupingKeys.GroupDpKey);
foreach (var node in graph.Nodes)
{
if (groups != null && groups.GetBool(node))
{
// groups don't need to be adjusted to their former size and location because their bounds are entirely
// calculated by the layout algorithm and they are not rotated
continue;
}
// for each node which has been corrected: undo the correction
var oldDimensions = originalDimensions[node];
var offset = oldDimensions.offset;
var originalSize = oldDimensions.size;
var newLayout = graph.GetLayout(node);
// create a general path representing the new roated layout
var path = oldDimensions.outline;
var transform = new Matrix2D();
transform.Translate(new PointD(newLayout.X - oldDimensions.location.X, newLayout.Y - oldDimensions.location.Y));
path.Transform(transform);
// restore the original size
graph.SetLocation(node, new YPoint(newLayout.X - offset.X, newLayout.Y - offset.Y));
graph.SetSize(node, originalSize.ToYDimension());
if (EdgeRoutingMode == RoutingMode.NoRouting)
{
// NoRouting still needs fix for self-loops
foreach (var edge in node.Edges)
{
if (edge.SelfLoop)
{
FixPorts(graph, edge, path, false);
FixPorts(graph, edge, path, true);
}
}
continue;
}
if (EdgeRoutingMode != RoutingMode.ShortestStraightPathToBorder)
{
continue;
}
// enlarge the adjacent segment to the oriented rectangle (represented by the path)
// handling in and out edges separately will automatically cause selfloops to be handled correctly
foreach (var edge in node.InEdges)
{
FixPorts(graph, edge, path, false);
}
foreach (var edge in node.OutEdges)
{
FixPorts(graph, edge, path, true);
}
}
} finally {
// if data provider for the port constraints have been added
// remove and dispose them
if (addedSourcePortConstraints)
{
graph.RemoveDataProvider(PortConstraintKeys.SourcePortConstraintDpKey);
graph.DisposeEdgeMap((IEdgeMap)sourcePortConstraints);
}
if (addedTargetPortContstraints)
{
graph.RemoveDataProvider(PortConstraintKeys.TargetPortConstraintDpKey);
graph.DisposeEdgeMap((IEdgeMap)targetPortConstraints);
}
}
}
///<inheritdoc/>
protected override void ConfigureLayout()
{
LayoutGraph graph = CurrentLayoutGraph;
HierarchicLayout hl = new HierarchicLayout();
LayoutAlgorithm = hl;
// mark incremental elements if required
IDataMap incrementalElements;
OptionGroup generalGroup = (OptionGroup)Handler.GetGroupByName(GENERAL);
OptionGroup currentGroup = (OptionGroup)generalGroup.GetGroupByName(INTERACTION);
OptionGroup groupingGroup = (OptionGroup)Handler.GetGroupByName(GROUPING);
bool fromSketch = (bool)currentGroup[USE_DRAWING_AS_SKETCH].Value;
bool incrementalLayout = (bool)currentGroup[SELECTED_ELEMENTS_INCREMENTALLY].Value;
bool selectedElements = !IsEdgeSelectionEmpty() || !IsNodeSelectionEmpty();
if (incrementalLayout && selectedElements)
{
// create storage for both nodes and edges
incrementalElements = Maps.CreateHashedDataMap();
// configure the mode
hl.LayoutMode = LayoutMode.Incremental;
IIncrementalHintsFactory ihf = hl.CreateIncrementalHintsFactory();
foreach (Node node in graph.Nodes)
{
if (IsSelected(node))
{
incrementalElements.Set(node, ihf.CreateLayerIncrementallyHint(node));
}
}
foreach (Edge edge in graph.Edges)
{
if (IsSelected(edge))
{
incrementalElements.Set(edge, ihf.CreateSequenceIncrementallyHint(edge));
}
}
graph.AddDataProvider(HierarchicLayout.IncrementalHintsDpKey, incrementalElements);
}
else if (fromSketch)
{
hl.LayoutMode = LayoutMode.Incremental;
}
else
{
hl.LayoutMode = LayoutMode.FromScratch;
}
// cast to implementation simplex
var np = (SimplexNodePlacer)hl.NodePlacer;
np.BarycenterMode = (bool)generalGroup[SYMMETRIC_PLACEMENT].Value;
np.StraightenEdges = (bool)Handler.GetValue(EDGE_SETTINGS, EDGE_STRAIGHTENING_OPTIMIZATION_ENABLED);
hl.ComponentLayoutEnabled = (bool)generalGroup[LAYOUT_COMPONENTS_SEPARATELY].Value;
currentGroup = (OptionGroup)generalGroup.GetGroupByName(MINIMUM_DISTANCES);
hl.MinimumLayerDistance = (double)currentGroup[MINIMUM_LAYER_DISTANCE].Value;
hl.NodeToEdgeDistance = (double)currentGroup[NODE_TO_EDGE_DISTANCE].Value;
hl.NodeToNodeDistance = (double)currentGroup[NODE_TO_NODE_DISTANCE].Value;
hl.EdgeToEdgeDistance = (double)currentGroup[EDGE_TO_EDGE_DISTANCE].Value;
NodeLayoutDescriptor nld = hl.NodeLayoutDescriptor;
EdgeLayoutDescriptor eld = hl.EdgeLayoutDescriptor;
currentGroup = (OptionGroup)Handler.GetGroupByName(EDGE_SETTINGS);
hl.AutomaticEdgeGrouping = (bool)currentGroup[AUTOMATIC_EDGE_GROUPING_ENABLED].Value;
string edgeRoutingChoice = (string)currentGroup[EDGE_ROUTING].Value;
eld.RoutingStyle = edgeRoutingEnum[edgeRoutingChoice];
eld.MinimumFirstSegmentLength = (double)currentGroup[MINIMUM_FIRST_SEGMENT_LENGTH].Value;
eld.MinimumLastSegmentLength = (double)currentGroup[MINIMUM_LAST_SEGMENT_LENGTH].Value;
eld.MinimumDistance = (double)currentGroup[MINIMUM_EDGE_DISTANCE].Value;
eld.MinimumLength = (double)currentGroup[MINIMUM_EDGE_LENGTH].Value;
eld.MinimumSlope = (double)currentGroup[MINIMUM_SLOPE].Value;
eld.SourcePortOptimization = (bool)currentGroup[PC_OPTIMIZATION_ENABLED].Value;
eld.TargetPortOptimization = (bool)currentGroup[PC_OPTIMIZATION_ENABLED].Value;
var isIncrementalModeEnabled = (fromSketch || (incrementalLayout && selectedElements));
var recursiveRoutingMode = Handler.GetValue(EDGE_SETTINGS, RECURSIVE_EDGE_ROUTING);
if (!isIncrementalModeEnabled && recursiveRoutingMode == RECURSIVE_EDGE_ROUTING_DIRECTED)
{
eld.RecursiveEdgeStyle = RecursiveEdgeStyle.Directed;
}
else if (!isIncrementalModeEnabled && recursiveRoutingMode == RECURSIVE_EDGE_ROUTING_UNDIRECTED)
{
eld.RecursiveEdgeStyle = RecursiveEdgeStyle.Undirected;
}
else
{
eld.RecursiveEdgeStyle = RecursiveEdgeStyle.Off;
}
nld.MinimumDistance = Math.Min(hl.NodeToNodeDistance, hl.NodeToEdgeDistance);
nld.MinimumLayerHeight = 0;
OptionGroup rankGroup = (OptionGroup)Handler.GetGroupByName(RANKS);
string layerAlignmentChoice = (string)rankGroup[LAYER_ALIGNMENT].Value;
nld.LayerAlignment = alignmentEnum[layerAlignmentChoice];
ol = (OrientationLayout)hl.OrientationLayout;
string orientationChoice = (string)generalGroup[ORIENTATION].Value;
ol.Orientation = orientEnum[orientationChoice];
OptionGroup labelingGroup = (OptionGroup)Handler.GetGroupByName(LABELING);
currentGroup = (OptionGroup)labelingGroup.GetGroupByName(LABELING_EDGE_PROPERTIES);
string el = (string)currentGroup[EDGE_LABELING].Value;
if (!el.Equals(EDGE_LABELING_NONE))
{
if (el.Equals(EDGE_LABELING_GENERIC))
{
var la = new GenericLabeling();
la.MaximumDuration = 0;
la.PlaceNodeLabels = false;
la.PlaceEdgeLabels = true;
la.AutoFlipping = true;
la.ProfitModel = new SimpleProfitModel();
hl.PrependStage(la);
}
else if (el.Equals(EDGE_LABELING_HIERARCHIC))
{
bool copactEdgeLabelPlacement = (bool)currentGroup[COMPACT_EDGE_LABEL_PLACEMENT].Value;
if (hl.NodePlacer is SimplexNodePlacer)
{
np.LabelCompaction = copactEdgeLabelPlacement;
}
hl.IntegratedEdgeLabeling = true;
}
}
else
{
hl.IntegratedEdgeLabeling = false;
}
currentGroup = (OptionGroup)labelingGroup.GetGroupByName(NODE_PROPERTIES);
if ((bool)currentGroup[CONSIDER_NODE_LABELS].Value)
{
hl.ConsiderNodeLabels = true;
hl.NodeLayoutDescriptor.NodeLabelMode = NodeLabelMode.ConsiderForDrawing;
}
else
{
hl.ConsiderNodeLabels = false;
}
string rp = (string)rankGroup[RANKING_POLICY].Value;
hl.FromScratchLayeringStrategy = rankingPolicies[rp];
if (rp.Equals(BFS_LAYERS))
{
CurrentLayoutGraph.AddDataProvider(BFSLayerer.CoreNodesDpKey, new SelectedNodesDP(this));
}
hl.ComponentArrangementPolicy = componentAlignmentEnum[(string)rankGroup[COMPONENT_ARRANGEMENT_POLICY].Value];
//configure AsIsLayerer
Object layerer = (hl.LayoutMode == LayoutMode.FromScratch)
? hl.FromScratchLayerer
: hl.FixedElementsLayerer;
// if (layerer is OldLayererWrapper) {
// layerer = ((OldLayererWrapper)layerer).OldLayerer;
// }
if (layerer is AsIsLayerer)
{
AsIsLayerer ail = (AsIsLayerer)layerer;
currentGroup = (OptionGroup)rankGroup.GetGroupByName(FROM_SKETCH_PROPERTIES);
ail.NodeHalo = (double)currentGroup[HALO].Value;
ail.NodeScalingFactor = (double)currentGroup[SCALE].Value;
ail.MinimumNodeSize = (double)currentGroup[MINIMUM_SIZE].Value;
ail.MaximumNodeSize = (double)currentGroup[MAXIMUM_SIZE].Value;
}
//configure grouping
np.GroupCompactionStrategy = groupHorizCompactionEnum[(string)groupingGroup[GROUP_HORIZONTAL_COMPACTION].Value];
if (!fromSketch && groupStrategyEnum[(string)groupingGroup[GROUP_LAYERING_STRATEGY].Value])
{
GroupAlignmentPolicy alignmentPolicy = groupAlignmentEnum[(string)groupingGroup[GROUP_ALIGNMENT].Value];
hl.GroupAlignmentPolicy = alignmentPolicy;
hl.CompactGroups = (bool)groupingGroup[GROUP_ENABLE_COMPACTION].Value;
hl.RecursiveGroupLayering = true;
}
else
{
hl.RecursiveGroupLayering = false;
}
OptionGroup swimGroup = (OptionGroup)Handler.GetGroupByName(SWIMLANES);
if ((bool)swimGroup[TREAT_ROOT_GROUPS_AS_SWIMLANES].Value)
{
TopLevelGroupToSwimlaneStage stage = new TopLevelGroupToSwimlaneStage();
stage.OrderSwimlanesFromSketch = (bool)swimGroup[USE_ORDER_FROM_SKETCH].Value;
stage.Spacing = (double)swimGroup[SWIMLANE_SPACING].Value;
hl.AppendStage(stage);
}
hl.BackLoopRouting = (bool)Handler.GetValue(EDGE_SETTINGS, BACKLOOP_ROUTING);
hl.MaximumDuration = ((int)Handler.GetValue(GENERAL, MAXIMUM_DURATION)) * 1000;
bool gridEnabled = (bool)Handler.GetValue(GRID, GRID_ENABLED);
if (gridEnabled)
{
hl.GridSpacing = (double)Handler.GetValue(GRID, GRID_SPACING);
String portAssignment = (string)Handler.GetValue(GRID, GRID_PORT_ASSIGNMENT);
PortAssignmentMode gridPortAssignment;
switch (portAssignment)
{
case GRID_PORT_ASSIGNMENT_ON_GRID:
gridPortAssignment = PortAssignmentMode.OnGrid;
break;
case GRID_PORT_ASSIGNMENT_ON_SUBGRID:
gridPortAssignment = PortAssignmentMode.OnSubgrid;
break;
default:
gridPortAssignment = PortAssignmentMode.Default;
break;
}
graph.AddDataProvider(HierarchicLayoutCore.NodeLayoutDescriptorDpKey,
new NodeLayoutDescriptorAdapter(hl.NodeLayoutDescriptor, graph, gridPortAssignment));
}
}