private bool InsideAllChildren(CollisionModelNode node, idBounds bounds)
{
if (node.PlaneType != -1)
{
float v = (node.PlaneType == 0) ? bounds.Min.X : (node.PlaneType == 1) ? bounds.Min.Y : bounds.Min.Z;
float v2 = (node.PlaneType == 0) ? bounds.Max.X : (node.PlaneType == 1) ? bounds.Max.Y : bounds.Max.Z;
if (v >= node.PlaneDistance)
{
return(false);
}
else if (v2 <= node.PlaneDistance)
{
return(false);
}
else if (InsideAllChildren(node.Children[0], bounds) == false)
{
return(false);
}
else if (InsideAllChildren(node.Children[1], bounds) == false)
{
return(false);
}
}
return(true);
}
private void GetNodeBounds_R(ref idBounds bounds, CollisionModelNode node)
{
while (true)
{
foreach (CollisionModelPolygon poly in node.Polygons)
{
bounds.AddPoint(poly.Bounds.Min);
bounds.AddPoint(poly.Bounds.Max);
}
foreach (CollisionModelBrush brush in node.Brushes)
{
bounds.AddPoint(brush.Bounds.Min);
bounds.AddPoint(brush.Bounds.Max);
}
if (node.PlaneType == -1)
{
break;
}
GetNodeBounds_R(ref bounds, node.Children[1]);
node = node.Children[0];
}
}
private ContentFlags GetNodeContents(CollisionModelNode node)
{
ContentFlags contents = 0;
while (true)
{
foreach (CollisionModelPolygon p in node.Polygons)
{
contents |= p.Contents;
}
foreach (CollisionModelBrush b in node.Brushes)
{
contents |= b.Contents;
}
if (node.PlaneType == -1)
{
break;
}
contents |= GetNodeContents(node.Children[1]);
node = node.Children[0];
}
return(contents);
}
private void FilterPolygonIntoTree(CollisionModel model, CollisionModelNode node, CollisionModelPolygon p)
{
while (node.PlaneType != -1)
{
if (InsideAllChildren(node, p.Bounds) == true)
{
break;
}
float v = (node.PlaneType == 0) ? p.Bounds.Min.X : (node.PlaneType == 1) ? p.Bounds.Min.Y : p.Bounds.Min.Z;
float v2 = (node.PlaneType == 0) ? p.Bounds.Max.X : (node.PlaneType == 1) ? p.Bounds.Max.Y : p.Bounds.Max.Z;
if (v >= node.PlaneDistance)
{
node = node.Children[0];
}
else if (v2 <= node.PlaneDistance)
{
node = node.Children[1];
}
else
{
FilterPolygonIntoTree(model, node.Children[1], p);
node = node.Children[0];
}
}
node.Polygons.Add(p);
}
private void FilterBrushIntoTree(CollisionModel model, CollisionModelNode node, CollisionModelBrush b)
{
while (node.PlaneType != -1)
{
if (InsideAllChildren(node, b.Bounds) == true)
{
break;
}
float v = (node.PlaneType == 0) ? b.Bounds.Min.X : (node.PlaneType == 1) ? b.Bounds.Min.Y : b.Bounds.Min.Z;
float v2 = (node.PlaneType == 0) ? b.Bounds.Max.X : (node.PlaneType == 1) ? b.Bounds.Max.Y : b.Bounds.Max.Z;
if (v >= node.PlaneDistance)
{
node = node.Children[0];
}
else if (v2 <= node.PlaneDistance)
{
node = node.Children[1];
}
else
{
FilterBrushIntoTree(model, node.Children[1], b);
node = node.Children[0];
}
}
node.Brushes.Add(b);
}
private idBounds GetNodeBounds(CollisionModelNode node)
{
idBounds bounds = idBounds.Zero;
bounds.Clear();
GetNodeBounds_R(ref bounds, node);
if (bounds.IsCleared == true)
{
bounds = idBounds.Zero;
}
return(bounds);
}
private void SetupTraceModelStructure()
{
// setup model
CollisionModel model = new CollisionModel();
_models[idE.MaxSubModels] = model;
// create node to hold the collision data
CollisionModelNode node = new CollisionModelNode();
node.PlaneType = -1;
model.Node = node;
// allocate vertex and edge arrays
//model.Vertices = new CollisionModelVertex[idE.MaxTraceModelVertices];
//model->edges = (cm_edge_t *) Mem_ClearedAlloc( model->maxEdges * sizeof(cm_edge_t) );
// create a material for the trace model polygons
_traceModelMaterial = idE.DeclManager.FindMaterial("_tracemodel", false);
if (_traceModelMaterial == null)
{
idConsole.FatalError("_tracemodel material not found");
}
// allocate polygons
/*for ( i = 0; i < MAX_TRACEMODEL_POLYS; i++ ) {
* trmPolygons[i] = AllocPolygonReference( model, MAX_TRACEMODEL_POLYS );
* trmPolygons[i]->p = AllocPolygon( model, MAX_TRACEMODEL_POLYEDGES );
* trmPolygons[i]->p->bounds.Clear();
* trmPolygons[i]->p->plane.Zero();
* trmPolygons[i]->p->checkcount = 0;
* trmPolygons[i]->p->contents = -1; // all contents
* trmPolygons[i]->p->material = trmMaterial;
* trmPolygons[i]->p->numEdges = 0;
* }
* // allocate brush for position test
* trmBrushes[0] = AllocBrushReference( model, 1 );
* trmBrushes[0]->b = AllocBrush( model, MAX_TRACEMODEL_POLYS );
* trmBrushes[0]->b->primitiveNum = 0;
* trmBrushes[0]->b->bounds.Clear();
* trmBrushes[0]->b->checkcount = 0;
* trmBrushes[0]->b->contents = -1; // all contents
* trmBrushes[0]->b->numPlanes = 0;*/
}
private CollisionModelNode ParseNodes(idLexer lexer, CollisionModel model, CollisionModelNode parent)
{
model.NodeCount++;
lexer.ExpectTokenString("(");
CollisionModelNode node = new CollisionModelNode();
node.Parent = parent;
node.PlaneType = lexer.ParseInt();
node.PlaneDistance = lexer.ParseFloat();
lexer.ExpectTokenString(")");
if (node.PlaneType != -1)
{
node.Children[0] = ParseNodes(lexer, model, node);
node.Children[1] = ParseNodes(lexer, model, node);
}
return(node);
}
private void SetupTraceModelStructure()
{
// setup model
CollisionModel model = new CollisionModel();
_models[idE.MaxSubModels] = model;
// create node to hold the collision data
CollisionModelNode node = new CollisionModelNode();
node.PlaneType = -1;
model.Node = node;
// allocate vertex and edge arrays
//model.Vertices = new CollisionModelVertex[idE.MaxTraceModelVertices];
//model->edges = (cm_edge_t *) Mem_ClearedAlloc( model->maxEdges * sizeof(cm_edge_t) );
// create a material for the trace model polygons
_traceModelMaterial = idE.DeclManager.FindMaterial("_tracemodel", false);
if(_traceModelMaterial == null)
{
idConsole.FatalError("_tracemodel material not found");
}
// allocate polygons
/*for ( i = 0; i < MAX_TRACEMODEL_POLYS; i++ ) {
trmPolygons[i] = AllocPolygonReference( model, MAX_TRACEMODEL_POLYS );
trmPolygons[i]->p = AllocPolygon( model, MAX_TRACEMODEL_POLYEDGES );
trmPolygons[i]->p->bounds.Clear();
trmPolygons[i]->p->plane.Zero();
trmPolygons[i]->p->checkcount = 0;
trmPolygons[i]->p->contents = -1; // all contents
trmPolygons[i]->p->material = trmMaterial;
trmPolygons[i]->p->numEdges = 0;
}
// allocate brush for position test
trmBrushes[0] = AllocBrushReference( model, 1 );
trmBrushes[0]->b = AllocBrush( model, MAX_TRACEMODEL_POLYS );
trmBrushes[0]->b->primitiveNum = 0;
trmBrushes[0]->b->bounds.Clear();
trmBrushes[0]->b->checkcount = 0;
trmBrushes[0]->b->contents = -1; // all contents
trmBrushes[0]->b->numPlanes = 0;*/
}
private bool InsideAllChildren(CollisionModelNode node, idBounds bounds)
{
if(node.PlaneType != -1)
{
float v = (node.PlaneType == 0) ? bounds.Min.X : (node.PlaneType == 1) ? bounds.Min.Y : bounds.Min.Z;
float v2 = (node.PlaneType == 0) ? bounds.Max.X : (node.PlaneType == 1) ? bounds.Max.Y : bounds.Max.Z;
if(v >= node.PlaneDistance)
{
return false;
}
else if(v2 <= node.PlaneDistance)
{
return false;
}
else if(InsideAllChildren(node.Children[0], bounds) == false)
{
return false;
}
else if(InsideAllChildren(node.Children[1], bounds) == false)
{
return false;
}
}
return true;
}
private CollisionModelNode ParseNodes(idLexer lexer, CollisionModel model, CollisionModelNode parent)
{
model.NodeCount++;
lexer.ExpectTokenString("(");
CollisionModelNode node = new CollisionModelNode();
node.Parent = parent;
node.PlaneType = lexer.ParseInt();
node.PlaneDistance = lexer.ParseFloat();
lexer.ExpectTokenString(")");
if(node.PlaneType != -1)
{
node.Children[0] = ParseNodes(lexer, model, node);
node.Children[1] = ParseNodes(lexer, model, node);
}
return node;
}
private ContentFlags GetNodeContents(CollisionModelNode node)
{
ContentFlags contents = 0;
while(true)
{
foreach(CollisionModelPolygon p in node.Polygons)
{
contents |= p.Contents;
}
foreach(CollisionModelBrush b in node.Brushes)
{
contents |= b.Contents;
}
if(node.PlaneType == -1)
{
break;
}
contents |= GetNodeContents(node.Children[1]);
node = node.Children[0];
}
return contents;
}
private void GetNodeBounds_R(ref idBounds bounds, CollisionModelNode node)
{
while(true)
{
foreach(CollisionModelPolygon poly in node.Polygons)
{
bounds.AddPoint(poly.Bounds.Min);
bounds.AddPoint(poly.Bounds.Max);
}
foreach(CollisionModelBrush brush in node.Brushes)
{
bounds.AddPoint(brush.Bounds.Min);
bounds.AddPoint(brush.Bounds.Max);
}
if(node.PlaneType == -1)
{
break;
}
GetNodeBounds_R(ref bounds, node.Children[1]);
node = node.Children[0];
}
}
private idBounds GetNodeBounds(CollisionModelNode node)
{
idBounds bounds = idBounds.Zero;
bounds.Clear();
GetNodeBounds_R(ref bounds, node);
if(bounds.IsCleared == true)
{
bounds = idBounds.Zero;
}
return bounds;
}
private void FilterPolygonIntoTree(CollisionModel model, CollisionModelNode node, CollisionModelPolygon p)
{
while(node.PlaneType != -1)
{
if(InsideAllChildren(node, p.Bounds) == true)
{
break;
}
float v = (node.PlaneType == 0) ? p.Bounds.Min.X : (node.PlaneType == 1) ? p.Bounds.Min.Y : p.Bounds.Min.Z;
float v2 = (node.PlaneType == 0) ? p.Bounds.Max.X : (node.PlaneType == 1) ? p.Bounds.Max.Y : p.Bounds.Max.Z;
if(v >= node.PlaneDistance)
{
node = node.Children[0];
}
else if(v2 <= node.PlaneDistance)
{
node = node.Children[1];
}
else
{
FilterPolygonIntoTree(model, node.Children[1], p);
node = node.Children[0];
}
}
node.Polygons.Add(p);
}
private void FilterBrushIntoTree(CollisionModel model, CollisionModelNode node, CollisionModelBrush b)
{
while(node.PlaneType != -1)
{
if(InsideAllChildren(node, b.Bounds) == true)
{
break;
}
float v = (node.PlaneType == 0) ? b.Bounds.Min.X : (node.PlaneType == 1) ? b.Bounds.Min.Y : b.Bounds.Min.Z;
float v2 = (node.PlaneType == 0) ? b.Bounds.Max.X : (node.PlaneType == 1) ? b.Bounds.Max.Y : b.Bounds.Max.Z;
if(v >= node.PlaneDistance)
{
node = node.Children[0];
}
else if(v2 <= node.PlaneDistance)
{
node = node.Children[1];
}
else
{
FilterBrushIntoTree(model, node.Children[1], b);
node = node.Children[0];
}
}
node.Brushes.Add(b);
}
