private static void SortAllLists(SpriteList spriteList, SortType sortType, PositionedObjectList <Text> textList, List <IDrawableBatch> batches, bool relativeToCamera, Camera camera)
{
StoreOldPositionsForDistanceAlongForwardVectorSort(spriteList, sortType, textList, batches, camera);
#region Sort the SpriteList and get the number of visible Sprites in numberOfVisibleSprites
if (spriteList != null && spriteList.Count != 0)
{
lock (spriteList)
{
switch (sortType)
{
case SortType.Z:
case SortType.DistanceAlongForwardVector:
// Sorting ascending means everything will be drawn back to front. This
// is slower but necessary for translucent objects.
// Sorting descending means everything will be drawn back to front. This
// is faster but will cause problems for translucency.
spriteList.SortZInsertionAscending();
break;
case SortType.DistanceFromCamera:
spriteList.SortCameraDistanceInsersionDescending(camera);
break;
case SortType.ZSecondaryParentY:
spriteList.SortZInsertionAscending();
spriteList.SortParentYInsertionDescendingOnZBreaks();
break;
case SortType.CustomComparer:
if (mSpriteComparer != null)
{
spriteList.Sort(mSpriteComparer);
}
else
{
spriteList.SortZInsertionAscending();
}
break;
case SortType.None:
// This will improve render times slightly...maybe?
spriteList.SortTextureInsertion();
break;
default:
break;
}
}
}
#endregion
#region Sort the TextList
if (textList != null && textList.Count != 0)
{
switch (sortType)
{
case SortType.Z:
case SortType.DistanceAlongForwardVector:
textList.SortZInsertionAscending();
break;
case SortType.DistanceFromCamera:
textList.SortCameraDistanceInsersionDescending(camera);
break;
case SortType.CustomComparer:
if (mTextComparer != null)
{
textList.Sort(mTextComparer);
}
else
{
textList.SortZInsertionAscending();
}
break;
default:
break;
}
}
#endregion
#region Sort the Batches
if (batches != null && batches.Count != 0)
{
switch (sortType)
{
case SortType.Z:
// Z serves as the radius if using SortType.DistanceFromCamera.
// If Z represents actual Z or radius, the larger the value the further
// away from the camera the object will be.
SortBatchesZInsertionAscending(batches);
break;
case SortType.DistanceAlongForwardVector:
batches.Sort(new FlatRedBall.Graphics.BatchForwardVectorSorter(camera));
break;
case SortType.ZSecondaryParentY:
SortBatchesZInsertionAscending(batches);
// Even though the sort type is by parent, IDB doesn't have a Parent object, so we'll just rely on Y.
// May need to revisit this if it causes problems
SortBatchesYInsertionDescendingOnZBreaks(batches);
break;
case SortType.CustomComparer:
if (mDrawableBatchComparer != null)
{
batches.Sort(mDrawableBatchComparer);
}
else
{
SortBatchesZInsertionAscending(batches);
}
break;
}
}
#endregion
}
private static void SortAllLists(SpriteList spriteList, SortType sortType, PositionedObjectList<Text> textList, List<IDrawableBatch> batches, bool relativeToCamera, Camera camera)
{
StoreOldPositionsForDistanceAlongForwardVectorSort(spriteList, sortType, textList, batches, camera);
#region Sort the SpriteList and get the number of visible Sprites in numberOfVisibleSprites
if (spriteList != null && spriteList.Count != 0)
{
lock (spriteList)
{
switch (sortType)
{
case SortType.Z:
case SortType.DistanceAlongForwardVector:
// Sorting ascending means everything will be drawn back to front. This
// is slower but necessary for translucent objects.
// Sorting descending means everything will be drawn back to front. This
// is faster but will cause problems for translucency.
spriteList.SortZInsertionAscending();
break;
case SortType.DistanceFromCamera:
spriteList.SortCameraDistanceInsersionDescending(camera);
break;
case SortType.ZSecondaryParentY:
spriteList.SortZInsertionAscending();
spriteList.SortParentYInsertionDescendingOnZBreaks();
break;
case SortType.CustomComparer:
if (mSpriteComparer != null)
{
spriteList.Sort(mSpriteComparer);
}
else
{
spriteList.SortZInsertionAscending();
}
break;
case SortType.None:
// This will improve render times slightly...maybe?
spriteList.SortTextureInsertion();
break;
default:
break;
}
}
}
#endregion
#region Sort the TextList
if (textList != null && textList.Count != 0)
{
switch (sortType)
{
case SortType.Z:
case SortType.DistanceAlongForwardVector:
textList.SortZInsertionAscending();
break;
case SortType.DistanceFromCamera:
textList.SortCameraDistanceInsersionDescending(camera);
break;
case SortType.CustomComparer:
if (mTextComparer != null)
{
textList.Sort(mTextComparer);
}
else
{
textList.SortZInsertionAscending();
}
break;
default:
break;
}
}
#endregion
#region Sort the Batches
if (batches != null && batches.Count != 0)
{
switch (sortType)
{
case SortType.Z:
// Z serves as the radius if using SortType.DistanceFromCamera.
// If Z represents actual Z or radius, the larger the value the further
// away from the camera the object will be.
SortBatchesZInsertionAscending(batches);
break;
case SortType.DistanceAlongForwardVector:
batches.Sort(new FlatRedBall.Graphics.BatchForwardVectorSorter(camera));
break;
case SortType.CustomComparer:
if (mDrawableBatchComparer != null)
{
batches.Sort(mDrawableBatchComparer);
}
else
{
SortBatchesZInsertionAscending(batches);
}
break;
}
}
#endregion
}