private static void WriteLinks(XmlGraphData <TUIRawData, TEditorData> conversation, XElement root)
{
HashSet <UnorderedTuple2 <Tuple <Id <TConnector>, IConversationNodeData> > > links = new HashSet <UnorderedTuple2 <Tuple <Id <TConnector>, IConversationNodeData> > >();
foreach (var n in conversation.Nodes)
{
foreach (var c in n.GraphData.Connectors)
{
foreach (var cc in c.Connections)
{
var pair1 = Tuple.Create(c.Id, n.GraphData);
var pair2 = Tuple.Create(cc.Id, cc.Parent);
links.Add(UnorderedTuple.Make(pair1, pair2));
}
}
}
foreach (var link in links)
{
var node1 = new XAttribute("node1", link.Item1.Item2.NodeId.Serialized());
var connector1 = new XAttribute("connector1", link.Item1.Item1.Serialized());
var node2 = new XAttribute("node2", link.Item2.Item2.NodeId.Serialized());
var connector2 = new XAttribute("connector2", link.Item2.Item1.Serialized());
root.Add(new XElement("Link", node1, connector1, node2, connector2));
}
}
private IEnumerable <Usage> ConnectionDefinitionUsages(IConversationNodeData data)
{
Id <TConnectorDefinition> connector1 = Id <TConnectorDefinition> .FromGuid(data.Parameters.Where(p => p.Id == DomainIDs.ConnectionDefinitionConnector1).OfType <IEnumParameter>().Single().Value);
Id <TConnectorDefinition> connector2 = Id <TConnectorDefinition> .FromGuid(data.Parameters.Where(p => p.Id == DomainIDs.ConnectionDefinitionConnector2).OfType <IEnumParameter>().Single().Value);
var reference = UnorderedTuple.Make(connector1, connector2);
foreach (var conversationFile in m_project.Conversations)
{
HashSet <UnorderedTuple2 <Output> > connections = new HashSet <UnorderedTuple2 <Output> >();
foreach (var node in conversationFile.Nodes)
{
foreach (var connector in node.Data.Connectors)
{
if (connector.Definition.Id == connector1 || connector.Definition.Id == connector2)
{
foreach (var connection in connector.Connections)
{
var c = UnorderedTuple.Make(connector.Definition.Id, connection.Definition.Id);
if (c == reference)
{
connections.Add(UnorderedTuple.Make(connector, connection));
}
yield return(new Usage(node, conversationFile, "Node connection using connector definition"));
}
}
}
}
}
}
public static void TestUnorderedTuple()
{
var a = UnorderedTuple.Make(0, 1);
var A = UnorderedTuple.Make(1, 0);
var b = UnorderedTuple.Make(0, 2);
Assert.That(a.Equals(A));
Assert.That(A.Equals(a));
Assert.That(!a.Equals(b));
}
private void StoreConnections(TNode node, bool register)
{
if (!register)
{
if (m_connectionDeregisterActions.ContainsKey(node))
{
foreach (var deregister in m_connectionDeregisterActions[node])
{
deregister();
}
}
return;
}
foreach (var connector in node.Data.Connectors)
{
var connectorTemp = connector;
Action <Output, bool> connected = (connection, mustExist) =>
{
ConnectionUpdate(connection, connectorTemp, mustExist);
};
connectorTemp.Connected += c => connected(c, true);
connectorTemp.Disconnected += connection =>
{
DisconnectionUpdate(connection, connectorTemp, UIInfo(connection).Area.Value);
};
foreach (var connection in connectorTemp.Connections)
{
connected(connection, false);
}
Action deregister = UIInfo(connectorTemp).Area.Changed.Register(change =>
{
foreach (var connection in connectorTemp.Connections)
{
var other = UIInfo(connection);
//The nature of the bezier splines means they will never reach outside the bounding rectangle which includes their endpoints
RectangleF fromBounds = RectangleF.Union(change.From, other.Area.Value);
var pair = UnorderedTuple.Make(connectorTemp, connection);
SpatiallyOrderedConnections.Remove(Tuple.Create(pair, fromBounds));
RectangleF toBounds = RectangleF.Union(change.To, other.Area.Value);
SpatiallyOrderedConnections.Add(Tuple.Create(pair, toBounds), toBounds);
}
});
if (!m_connectionDeregisterActions.ContainsKey(node))
{
m_connectionDeregisterActions[node] = new List <Action>();
}
m_connectionDeregisterActions[node].Add(deregister);
}
}
private void DisconnectionUpdate(Output connection, Output connectorTemp, RectangleF connectorPosition)
{
var ui1 = UIInfo(connectorTemp);
//The nature of the bezier splines means they will never reach outside the bounding rectangle which includes their endpoints
RectangleF bounds = RectangleF.Union(ui1.Area.Value, connectorPosition);
var pair = UnorderedTuple.Make(connectorTemp, connection);
bool exists = SpatiallyOrderedConnections.FindTouchingRegion(bounds).Contains(Tuple.Create(pair, bounds));
if (exists)
{
SpatiallyOrderedConnections.Remove(Tuple.Create(pair, bounds));
}
}
public bool CanConnect(Id <TConnectorDefinition> a, Id <TConnectorDefinition> b)
{
var test = UnorderedTuple.Make(a, b);
var alwaysAllowed = UnorderedTuple.Make(SpecialConnectors.Input.Id, SpecialConnectors.Output.Id);
if (test.Equals(alwaysAllowed))
{
return(true);
}
if (m_allowed.Contains(test))
{
return(true);
}
return(false);
}
public override IEnumerable <ConversationError <T> > Check(IEnumerable <T> nodes, IErrorCheckerUtilities <T> utils)
{
HashSet <UnorderedTuple2 <T> > results = new HashSet <UnorderedTuple2 <T> >();
foreach (var node in nodes)
{
foreach (var c in node.Data.Connectors)
{
foreach (var connection in c.Connections)
{
if (!c.Rules.CanConnect(c.Definition.Id, connection.Definition.Id))
{
results.Add(UnorderedTuple.Make(node, utils.ReverseLookup(connection.Parent)));
}
}
}
}
return(results.Select(r => new InvalidConnectionError(r)));
}
private static HashSet <UnorderedTuple2 <Tuple <Id <TConnector>, Id <NodeTemp> > > > ReadLinks(IEnumerable <Id <NodeTemp> > filteredNodes, XElement root)
{
HashSet <UnorderedTuple2 <Tuple <Id <TConnector>, Id <NodeTemp> > > > result = new HashSet <UnorderedTuple2 <Tuple <Id <TConnector>, Id <NodeTemp> > > >();
foreach (var link in root.Elements("Link"))
{
Id <NodeTemp> node1 = Id <NodeTemp> .Parse(link.Attribute("node1").Value);
Id <TConnector> connector1 = Id <TConnector> .Parse(link.Attribute("connector1").Value);
Id <NodeTemp> node2 = Id <NodeTemp> .Parse(link.Attribute("node2").Value);
Id <TConnector> connector2 = Id <TConnector> .Parse(link.Attribute("connector2").Value);
if (filteredNodes.Any(n => n.Equals(node1) || n.Equals(node2)))
{
result.Add(UnorderedTuple.Make(Tuple.Create(connector1, node1), Tuple.Create(connector2, node2)));
}
}
return(result);
}
private void ConnectionUpdate(Output connection, Output connectorTemp, bool mustExist)
{
var ui1 = UIInfo(connectorTemp, false);
var ui2 = UIInfo(connection, !mustExist);
if (ui2 != null)
{
//The nature of the bezier splines means they will never reach outside the bounding rectangle which includes their endpoints
RectangleF bounds = RectangleF.Union(ui1.Area.Value, ui2.Area.Value);
var pair = UnorderedTuple.Make(connectorTemp, connection);
bool exists = SpatiallyOrderedConnections.FindTouchingRegion(bounds).Contains(Tuple.Create(pair, bounds));
if (!exists)
{
SpatiallyOrderedConnections.Add(Tuple.Create(pair, bounds), bounds);
}
else
{
}
}
}
private void paintDrawWindow(object sender, PaintEventArgs e)
{
Graphics g = e.Graphics;
Matrix transform = GetTransform();
var tl = transform.Inverse().TransformPoint(new PointF(0, 0));
var br = transform.Inverse().TransformPoint(new PointF(Width, Height));
RectangleF bounds = RectangleF.FromLTRB(tl.X, tl.Y, br.X, br.Y);
using (g.Clip = new Region(new RectangleF(0, 0, DocumentSize.Width * GraphScale, DocumentSize.Height * GraphScale)))
{
var originalState = g.Save();
DrawGrid(e);
g.Transform = transform;
if (CurrentFile != null)
{
//var orderedUnselectedNodes = CurrentFile.Nodes.Reverse().Where(n => !m_mouseController.Selected.Nodes.Contains(n.Data.NodeId));
//var orderedSelectedNodes = CurrentFile.Nodes.Reverse().Where(n => m_mouseController.Selected.Nodes.Contains(n.Data.NodeId));
var tree = new ZOrderedQuadTree <TNode>(SpatiallyOrderedNodes, CurrentFile.RelativePosition);
var nodes = tree.FindTouchingRegion(bounds).Reverse();
var orderedUnselectedNodes = nodes.Where(n => !m_mouseController.Selected.Nodes.Contains(n.Data.NodeId));
var orderedSelectedNodes = nodes.Where(n => m_mouseController.Selected.Nodes.Contains(n.Data.NodeId));
//Make sure the nodes are the right size so the connectors end up in the right place
foreach (var node in CurrentFile.Nodes)
{
node.Renderer.UpdateArea();
}
HashSet <UnorderedTuple2 <PointF> > unselectedNodeConnections = new HashSet <UnorderedTuple2 <PointF> >();
HashSet <UnorderedTuple2 <PointF> > selectedNodeConnections = new HashSet <UnorderedTuple2 <PointF> >();
HashSet <UnorderedTuple2 <PointF> > selectedConnections = new HashSet <UnorderedTuple2 <PointF> >();
foreach (var node in orderedUnselectedNodes)
{
foreach (var t in node.Data.Connectors)
{
foreach (var connection in t.Connections)
{
PointF p1 = UIInfo(t).Area.Value.Center();
PointF p2 = UIInfo(connection).Area.Value.Center();
var pair = UnorderedTuple.Make(p1, p2);
bool selected = m_mouseController.IsSelected(connection) || m_mouseController.IsSelected(t);
if (selected)
{
unselectedNodeConnections.Remove(pair);
if (!m_mouseController.DraggingLinks) //If we're dragging this connection around then let the mouse controller render it
{
selectedConnections.Add(pair);
}
}
else
{
unselectedNodeConnections.Add(pair);
}
}
}
}
foreach (var node in orderedSelectedNodes)
{
foreach (var t in node.Data.Connectors)
{
foreach (var connection in t.Connections)
{
PointF p1 = UIInfo(t).Area.Value.Center();
PointF p2 = UIInfo(connection).Area.Value.Center();
var pair = UnorderedTuple.Make(p1, p2);
bool selected = m_mouseController.IsSelected(connection) || m_mouseController.IsSelected(t);
unselectedNodeConnections.Remove(pair);
if (selected)
{
selectedNodeConnections.Remove(pair);
if (!m_mouseController.DraggingLinks) //If we're dragging this connection around then let the mouse controller render it
{
selectedConnections.Add(pair);
}
}
else
{
selectedNodeConnections.Add(pair);
}
}
}
}
//Draw all the groups
foreach (NodeGroup group in CurrentFile.Groups.Reverse())
{
group.Renderer.Draw(g, m_mouseController.Selected.Groups.Contains(group), m_colorScheme);
}
//Draw all the connections for unselected nodes
using (ConnectionDrawer connections = new ConnectionDrawer(this.Colors))
{
foreach (var connection in unselectedNodeConnections)
{
connections.Add(connection.Item1, connection.Item2, false);
}
connections.Draw(g);
}
//Draw all the unselected nodes
foreach (TNode node in orderedUnselectedNodes)
{
node.Renderer.Draw(g, m_mouseController.Selected.Nodes.Contains(node.Data.NodeId), m_colorScheme);
foreach (var t in node.Data.Connectors)
{
bool selected = m_mouseController.IsSelected(t);
UIInfo(t).Draw(g, selected ? Colors.Foreground : Colors.Connectors);
}
}
//Draw all the connections for selected nodes
using (ConnectionDrawer connections = new ConnectionDrawer(this.Colors))
{
foreach (var connection in selectedNodeConnections)
{
connections.Add(connection.Item1, connection.Item2, false);
}
connections.Draw(g);
}
//Draw all the selected nodes
foreach (TNode node in orderedSelectedNodes)
{
node.Renderer.Draw(g, m_mouseController.Selected.Nodes.Contains(node.Data.NodeId), m_colorScheme);
foreach (var t in node.Data.Connectors)
{
bool selected = m_mouseController.IsSelected(t);
UIInfo(t).Draw(g, selected ? Colors.Foreground : Colors.Connectors);
}
}
//Draw all the selected connections
using (ConnectionDrawer connections = new ConnectionDrawer(this.Colors))
{
foreach (var connection in selectedConnections)
{
connections.Add(connection.Item1, connection.Item2, true);
}
connections.Draw(g);
}
//Draw any dynamic connections, etc
if (m_mouseController != null)
{
using (var connections = new ConnectionDrawer(this.Colors))
{
m_mouseController.Draw(g, connections);
connections.Draw(g);
}
}
}
g.DrawRectangle(Colors.ControlBorder, RectangleF.FromLTRB(0, 0, DocumentSize.Width - 1, DocumentSize.Height - 1));
g.Restore(originalState);
g.DrawRectangle(Colors.ControlBorder, Rectangle.FromLTRB(0, 0, drawWindow.Width - 1, drawWindow.Height - 1));
}
}
public void Allow(Id <TConnectorDefinition> a, Id <TConnectorDefinition> b)
{
m_rules.Add(UnorderedTuple.Make(a, b));
}
public bool CanConnect(Id <TConnectorDefinition> a, Id <TConnectorDefinition> b)
{
return(m_rules.Contains(UnorderedTuple.Make(a, b)));
}
public bool CanConnect(Id <TConnectorDefinition> a, Id <TConnectorDefinition> b)
{
return(acceptablePairings.Contains(UnorderedTuple.Make(a, b)));
}
