protected void ProcessTypeCollection()
{
foreach (SemanticTypeInstance typeInstance in Program.SemanticTypeSystem.Instances.Values)
{
ISemanticType instance = typeInstance.Instance;
string name = typeInstance.Name;
if (!ignoreNames.Contains(name))
{
// A distinct type name, used for coloration logic.
distinctTypes.AddIfUnique(name);
// Also, for each type, we have a specific location to group all instances of that type.
if (!typeGroups.ContainsKey(name))
{
typeGroups[name] = new TypeGroup();
AdjustGroupLocations();
ResetAllTargets();
}
VisualSemanticType vst = new VisualSemanticType(instance, name);
vtypes.Add(vst); // Only the collections go in this space.
// Add all the collection elements.
if (name == "PopulationByStateByYear")
{
// This is a collection.
List <ISemanticType> stList = (List <ISemanticType>)((dynamic)vst.SemanticType).Collection.Items;
int items = stList.Count;
stList.ForEachWithIndex((st, idx2) =>
{
// Create the collection types. This is for every item in the collection, so many will be repeated (like year and state)
string subname = Program.SemanticTypeSystem.GetSemanticTypeName(st);
distinctTypes.AddIfUnique(subname);
VisualSemanticType vst2 = new VisualSemanticType(st, subname);
CollectionSubtype cs = new CollectionSubtype(instance, st);
typeVisualizationMap[cs] = vst2;
// vtypes.Add(vst2);
});
}
}
}
}
protected bool Step()
{
bool more = true;
// TODO: These 4 lines are duplicate code. Refactor into a SizeChanged event handler.
int hw = Visualizer.ClientRectangle.Width / 2;
int hh = Visualizer.ClientRectangle.Height / 2;
int n = (hw < hh ? hw : hh);
int m = (n / 5); // the radius of the group's circle.
vtypes.ForEachWithIndex((vtype, idx) =>
{
more = false; // points to plot
if (vtype.StepNumber == 0)
{
// Initialize the starting location if it's a new entry.
//if (targetState == false)
//{
// // RANDOM POINT IN SPACE
// vtype.TargetLocation = new Point(rnd.Next(-hw, hw), rnd.Next(-hh, hh));
//}
//else
{
if (vtype.Name == "PopulationByStateByYear")
{
// This is a collection.
List <ISemanticType> stList = (List <ISemanticType>)((dynamic)vtype.SemanticType).Collection.Items;
int items = stList.Count;
if (targetState == false)
{
// The collection goes somewhere random.
vtype.TargetLocation = new Point(rnd.Next(-hw, hw), rnd.Next(-hh, hh));
}
stList.ForEachWithIndex((st, idx2) =>
{
if (targetState == false)
{
// Set an initial random point for the item in the collection.
CollectionSubtype cs = new CollectionSubtype(vtype.SemanticType, st);
typeVisualizationMap[cs].TargetLocation = new Point(rnd.Next(-hw, hw), rnd.Next(-hh, hh));
}
else
{
// Draw each type on the edge of a small circle surrounding the collection type.
Point p = vtype.TargetLocation;
Point pOnCircle = GetPointOnCircle(10, idx2, items);
p.Offset(pOnCircle);
// p.Offset(hw, hh); // translate to LL corner at (0, 0)
// p.Offset(-20, -20); // UL of the circle offset.
CollectionSubtype cs = new CollectionSubtype(vtype.SemanticType, st);
typeVisualizationMap[cs].TargetLocation = p;
}
});
}
}
// RANDOM POINT WITHIN A LOCAL GROUP:
/*
* Point groupPoint = typeGroups[vtype.Name].Location;
* // We can figure out a random target within a circle centered here.
* double randomAngle = rnd.NextDouble() * 3.14159265 * 2;
* Point p = new Point((int)(rnd.Next(-m, m) * Math.Cos(randomAngle)), (int)(rnd.Next(-m, m) * Math.Sin(randomAngle)));
* // Center on the group point.
* p.Offset(groupPoint);
* vtype.TargetLocation = p;
*/
// RANDOM POINT ON A CIRCLE.
/*
* int l = n - n / 6;
* l = (int)(l * (((idx % 3) + 1) / 3.0)); // split each radial into 3 locations along the radial.
* double angle = 3.14159265 * 2 * idx / vtypes.Count;
* Point p = new Point((int)(l * Math.Cos(angle)), (int)(l * Math.Sin(angle)));
* p.Offset(-20, -20);
* vtype.TargetLocation = p;
*/
}
if (vtype.StepNumber < RenderTime)
{
more = true;
++vtype.StepNumber;
// A quasi acceleration curve:
double stepper = Math.Sin(((3.14159265 / 2.0) * ((double)vtype.StepNumber) / (double)RenderTime));
// This is the collection.
vtype.Location = new Point((int)(vtype.StartLocation.X + (vtype.TargetLocation.X - vtype.StartLocation.X) * stepper), ((int)(vtype.StartLocation.Y + (vtype.TargetLocation.Y - vtype.StartLocation.Y) * stepper)));
// These are the collection items.
List <ISemanticType> stList = (List <ISemanticType>)((dynamic)vtype.SemanticType).Collection.Items;
int items = stList.Count;
stList.ForEach((st) =>
{
CollectionSubtype cs = new CollectionSubtype(vtype.SemanticType, st);
VisualSemanticType vst = typeVisualizationMap[cs];
vst.Location = new Point((int)(vst.StartLocation.X + (vst.TargetLocation.X - vst.StartLocation.X) * stepper), ((int)(vst.StartLocation.Y + (vst.TargetLocation.Y - vst.StartLocation.Y) * stepper)));
});
}
});
return(more);
}
protected void ProcessTypeCollection()
{
foreach (SemanticTypeInstance typeInstance in Program.SemanticTypeSystem.Instances.Values)
{
ISemanticType instance = typeInstance.Instance;
string name = typeInstance.Name;
if (!ignoreNames.Contains(name))
{
// A distinct type name, used for coloration logic.
distinctTypes.AddIfUnique(name);
// Also, for each type, we have a specific location to group all instances of that type.
if (!typeGroups.ContainsKey(name))
{
typeGroups[name] = new TypeGroup();
AdjustGroupLocations();
ResetAllTargets();
}
VisualSemanticType vst = new VisualSemanticType(instance, name);
vtypes.Add(vst); // Only the collections go in this space.
// Add all the collection elements.
if (name == "PopulationByStateByYear")
{
// This is a collection.
List<ISemanticType> stList = (List<ISemanticType>)((dynamic)vst.SemanticType).Collection.Items;
int items = stList.Count;
stList.ForEachWithIndex((st, idx2) =>
{
// Create the collection types. This is for every item in the collection, so many will be repeated (like year and state)
string subname = Program.SemanticTypeSystem.GetSemanticTypeName(st);
distinctTypes.AddIfUnique(subname);
VisualSemanticType vst2 = new VisualSemanticType(st, subname);
CollectionSubtype cs = new CollectionSubtype(instance, st);
typeVisualizationMap[cs] = vst2;
// vtypes.Add(vst2);
});
}
}
}
}
