private static SEntry BuildSEntry(tSentry sEntry)
{
var result = new SEntry(sEntry.name);
if (sEntry.ifPart != null)
{
result.IfPart = new IfPart
{
Condition = sEntry.ifPart.condition.Text.First()
};
}
if (sEntry.Items != null)
{
foreach (var onPart in sEntry.Items)
{
if (onPart is tPlanItemOnPart)
{
var planItemOnPart = onPart as tPlanItemOnPart;
var name = Enum.GetName(typeof(PlanItemTransition), planItemOnPart.standardEvent);
var standardEvt = (CMMNTransitions)Enum.Parse(typeof(CMMNTransitions), name, true);
result.PlanItemOnParts.Add(new PlanItemOnPart
{
SourceRef = planItemOnPart.sourceRef,
StandardEvent = standardEvt
});
}
else if (onPart is tCaseFileItemOnPart)
{
var caseFileItemOnPart = onPart as tCaseFileItemOnPart;
var name = Enum.GetName(typeof(CaseFileItemTransition), caseFileItemOnPart.standardEvent);
var standardEvt = (CMMNTransitions)Enum.Parse(typeof(CMMNTransitions), name, true);
result.FileItemOnParts.Add(new CaseFileItemOnPart
{
SourceRef = caseFileItemOnPart.sourceRef,
StandardEvent = standardEvt
});
}
}
}
return(result);
}
/**
* Scan pruning tree for intersection with a bounding box.
*
* This method is a iterative implementation of the following algorithm:
*
* procedure scan(level, box, result)
* for each $cell in $level
* $inter = intersects($cell, $box)
*
* if $inter = INTERSECTS and $cell is not contained and $level != 0
* $inter = scan($level -1, box, $result)
*
* switch on $inter
* case INTERSECTS
* return INTERSECTS
*
* case CONTAINED
* if $result == DISJOINT
* return INTERSECTS
* $result = CONTAINED
*
* case DISJOINT
* if $result == CONTAINED
* return INTERSECTS
* $result = DISJOINT
* return $result
*/
public ContainmentType QueryHeight(ref BoundingBox query)
{
// Fallback in case the user loads a bad heightmap.
if (PruningTree == null)
{
return(ContainmentType.Intersects);
}
if (m_queryStack == null || m_queryStack.Length < PruningTree.Length)
{
m_queryStack = new SEntry[PruningTree.Length];
}
if (query.Min.Z > Root.Max)
{
return(ContainmentType.Disjoint);
}
if (query.Max.Z < Root.Min)
{
return(ContainmentType.Contains);
}
if (query.Max.X < 0 || query.Max.Y < 0 || query.Min.X > 1 || query.Min.Y > 1)
{
return(ContainmentType.Disjoint);
}
// Handle minimum size heightmaps
if (PruningTree.Length == 0)
{
return(ContainmentType.Intersects);
}
if (query.Max.X == 1.0)
{
query.Max.X = .99999999f;
}
if (query.Max.Y == 1.0)
{
query.Max.Y = .99999999f;
}
// state variables;
ContainmentType result = ContainmentType.Intersects;
float maxSize = Math.Max(query.Width, query.Height);
// If the box is really small we can be even more precise by checking the heightmap directly.
if (maxSize < m_pixelSizeFour)
{
// compute an inflated box so we account for smoothing :)
Box2I bb = new Box2I(ref query, (uint)Resolution);
bb.Min -= 1;
bb.Max += 1;
bb.Intersect(ref m_bounds);
int min = (int)(query.Min.Z * ushort.MaxValue);
int max = (int)(query.Max.Z * ushort.MaxValue);
ushort height;
GetValue(bb.Min.X, bb.Min.Y, out height);
if (height > max)
{
result = ContainmentType.Contains;
}
else if (height < min)
{
result = ContainmentType.Disjoint;
}
else
{
return(ContainmentType.Intersects);
}
int mmin = ushort.MaxValue, mmax = 0;
for (int y = bb.Min.Y; y <= bb.Max.Y; ++y)
{
for (int x = bb.Min.X; x <= bb.Max.X; ++x)
{
GetValue(x, y, out height);
if (height > mmax)
{
mmax = height;
}
if (height < mmin)
{
mmin = height;
}
}
}
int diff = mmax - mmin;
diff += diff >> 1;
mmax += diff;
mmin -= diff;
if (min > mmax)
{
return(ContainmentType.Disjoint);
}
if (max < mmin)
{
return(ContainmentType.Contains);
}
return(ContainmentType.Intersects);
}
double log = Math.Log(maxSize * (Resolution / HeightmapNode.HEIGHTMAP_LEAF_SIZE)) / Math.Log(HeightmapNode.HEIGHTMAP_BRANCH_FACTOR);
uint level = (uint)MathHelper.Clamp(log, 0, PruningTree.Length - 1);
// stack index
int ss = 0;
var st = m_queryStack;
Box2I rootBounds = new Box2I(Vector2I.Zero, new Vector2I((int)PruningTree[level].Res - 1));
st[0].Bounds = new Box2I(ref query, PruningTree[level].Res);
st[0].Bounds.Intersect(ref rootBounds);
st[0].Next = st[0].Bounds.Min;
st[0].Level = level;
st[0].Result = result;
st[0].Continue = false;
scan:
while (true)
{
SEntry state;
if (ss == -1)
{
break;
}
else
{
state = st[ss];
}
for (int y = state.Next.Y; y <= state.Bounds.Max.Y; ++y)
{
for (int x = state.Bounds.Min.X; x <= state.Bounds.Max.X; ++x)
{
if (!state.Continue)
{
state.Intersection = PruningTree[state.Level].Intersect(x, y, ref query);
if (state.Intersection == ContainmentType.Intersects && PruningTree[state.Level].IsCellNotContained(x, y, ref query) &&
state.Level != 0)
{
state.Next = new Vector2I(x, y);
state.Continue = true;
st[ss] = state;
ss++;
st[ss] = new SEntry(ref query, PruningTree[state.Level - 1].Res, new Vector2I(x, y), state.Result, state.Level - 1);
goto scan;
}
}
else
{
state.Continue = false;
x = state.Next.X;
}
switch (state.Intersection)
{
case ContainmentType.Intersects:
state.Result = ContainmentType.Intersects;
goto ret;
break;
case ContainmentType.Disjoint:
if (state.Result == ContainmentType.Contains)
{
state.Result = ContainmentType.Intersects;
goto ret;
}
state.Result = ContainmentType.Disjoint;
break;
case ContainmentType.Contains:
if (state.Result == ContainmentType.Disjoint)
{
state.Result = ContainmentType.Intersects;
goto ret;
}
state.Result = ContainmentType.Contains;
break;
}
}
}
ret :;
result = state.Result;
ss--;
if (ss >= 0)
{
st[ss].Intersection = result;
}
}
return(result);
}
public unsafe ContainmentType QueryHeight(ref BoundingBox query)
{
ContainmentType intersects;
int num3;
SEntry[] queryStack;
SEntry entry;
int y;
int x;
if (this.PruningTree == null)
{
return(ContainmentType.Intersects);
}
if ((m_queryStack == null) || (m_queryStack.Length < this.PruningTree.Length))
{
m_queryStack = new SEntry[this.PruningTree.Length];
}
if (query.Min.Z > this.Root.Max)
{
return(ContainmentType.Disjoint);
}
if (query.Max.Z < this.Root.Min)
{
return(ContainmentType.Contains);
}
if (query.Max.X < 0f)
{
goto TR_0003;
}
else if (query.Max.Y < 0f)
{
goto TR_0003;
}
else if ((query.Min.X <= 1f) && (query.Min.Y <= 1f))
{
if (this.PruningTree.Length == 0)
{
return(ContainmentType.Intersects);
}
if (query.Max.X == 1.0)
{
query.Max.X = 1f;
}
if (query.Max.Y == 1.0)
{
query.Max.Y = 1f;
}
intersects = ContainmentType.Intersects;
float num = Math.Max(query.Width, query.Height);
if (num < this.m_pixelSizeFour)
{
ushort num6;
Box2I boxi2 = new Box2I(ref query, (uint)this.Resolution);
Vector2I *vectoriPtr1 = (Vector2I *)ref boxi2.Min;
vectoriPtr1[0] -= 1;
Vector2I *vectoriPtr2 = (Vector2I *)ref boxi2.Max;
vectoriPtr2[0] += 1;
boxi2.Intersect(ref this.m_bounds);
int num4 = (int)(query.Min.Z * 65535f);
int num5 = (int)(query.Max.Z * 65535f);
this.GetValue(boxi2.Min.X, boxi2.Min.Y, out num6);
if (num6 > num5)
{
intersects = ContainmentType.Contains;
}
else
{
if (num6 >= num4)
{
return(ContainmentType.Intersects);
}
intersects = ContainmentType.Disjoint;
}
int num7 = 0xffff;
int num8 = 0;
int y = boxi2.Min.Y;
while (y <= boxi2.Max.Y)
{
int x = boxi2.Min.X;
while (true)
{
if (x > boxi2.Max.X)
{
y++;
break;
}
this.GetValue(x, y, out num6);
if (num6 > num8)
{
num8 = num6;
}
if (num6 < num7)
{
num7 = num6;
}
x++;
}
}
int num9 = num8 - num7;
num9 += num9 >> 1;
num7 -= num9;
return((num4 <= (num8 + num9)) ? ((num5 >= num7) ? ContainmentType.Intersects : ContainmentType.Contains) : ContainmentType.Disjoint);
}
uint index = (uint)MathHelper.Clamp(Math.Log((double)(num * (this.Resolution / HeightmapNode.HEIGHTMAP_LEAF_SIZE))) / Math.Log((double)HeightmapNode.HEIGHTMAP_BRANCH_FACTOR), 0.0, (double)(this.PruningTree.Length - 1));
num3 = 0;
queryStack = m_queryStack;
Box2I other = new Box2I(Vector2I.Zero, new Vector2I(((int)this.PruningTree[index].Res) - 1));
queryStack[0].Bounds = new Box2I(ref query, this.PruningTree[index].Res);
queryStack[0].Bounds.Intersect(ref other);
queryStack[0].Next = queryStack[0].Bounds.Min;
queryStack[0].Level = index;
queryStack[0].Result = intersects;
queryStack[0].Continue = false;
}
else
{
goto TR_0003;
}
goto TR_0035;
TR_0003:
return(ContainmentType.Disjoint);
TR_001A:
intersects = entry.Result;
num3--;
if (num3 >= 0)
{
queryStack[num3].Intersection = intersects;
}
goto TR_0035;
TR_001E:
x++;
goto TR_002E;
TR_0026:
switch (entry.Intersection)
{
case ContainmentType.Disjoint:
if (entry.Result != ContainmentType.Contains)
{
entry.Result = ContainmentType.Disjoint;
goto TR_001E;
}
else
{
entry.Result = ContainmentType.Intersects;
}
break;
case ContainmentType.Contains:
if (entry.Result != ContainmentType.Disjoint)
{
entry.Result = ContainmentType.Contains;
goto TR_001E;
}
else
{
entry.Result = ContainmentType.Intersects;
}
break;
case ContainmentType.Intersects:
entry.Result = ContainmentType.Intersects;
break;
default:
goto TR_001E;
}
goto TR_001A;
TR_002E:
while (true)
{
if (x <= entry.Bounds.Max.X)
{
if (entry.Continue)
{
entry.Continue = false;
x = entry.Next.X;
goto TR_0026;
}
else
{
SEntry *entryPtr1 = (SEntry *)ref entry;
entryPtr1->Intersection = this.PruningTree[entry.Level].Intersect(x, y, ref query);
if (entry.Intersection != ContainmentType.Intersects)
{
goto TR_0026;
}
else
{
if (this.PruningTree[entry.Level].IsCellNotContained(x, y, ref query) && (entry.Level != 0))
{
entry.Next = new Vector2I(x, y);
entry.Continue = true;
queryStack[num3] = entry;
num3++;
queryStack[num3] = new SEntry(ref query, this.PruningTree[((int)entry.Level) - 1].Res, new Vector2I(x, y), entry.Result, entry.Level - 1);
break;
}
goto TR_0026;
}
}
}
else
{
y++;
goto TR_0031;
}
break;
}
goto TR_0035;
TR_0031:
while (true)
{
if (y <= entry.Bounds.Max.Y)
{
x = entry.Bounds.Min.X;
}
else
{
goto TR_001A;
}
break;
}
goto TR_002E;
TR_0035:
while (true)
{
if (num3 == -1)
{
return(intersects);
}
entry = queryStack[num3];
y = entry.Next.Y;
break;
}
goto TR_0031;
}
