public static void Start(Args args)
{
var job = m_instancePool.Allocate();
job.m_args = args;
Parallel.Start(job, job.m_onComplete);
}
public static void Start(Args args)
{
var job = m_instancePool.Allocate();
job.m_args = args;
args.Tracker.Add(args.DefId, job);
MyPrecalcComponent.EnqueueBack(job, true);
}
public static void Start(MyVoxelPhysicsBody targetPhysics, ref HashSet <Vector3I> cellBatchForSwap)
{
var job = m_instancePool.Allocate();
job.m_targetPhysics = targetPhysics;
MyUtils.Swap(ref job.CellBatch, ref cellBatchForSwap);
Debug.Assert(targetPhysics.RunningBatchTask == null);
targetPhysics.RunningBatchTask = job;
MyPrecalcComponent.EnqueueBack(job, true);
}
public static void Start(MyVoxelPhysicsBody targetPhysics, ref HashSet <Vector3I> cellBatchForSwap, int lod)
{
MyPrecalcJobPhysicsBatch job = m_instancePool.Allocate();
job.Lod = lod;
job.m_targetPhysics = targetPhysics;
MyUtils.Swap <HashSet <Vector3I> >(ref job.CellBatch, ref cellBatchForSwap);
targetPhysics.RunningBatchTask[lod] = job;
MyPrecalcComponent.EnqueueBack(job);
}
public static void Start(Args args)
{
var job = m_instancePool.Allocate();
job.m_args = args;
args.Tracker.Cancel(args.GeometryCell);
args.Tracker.Add(args.GeometryCell, job);
MyPrecalcComponent.EnqueueBack(job);
}
public static void Start(Args args)
{
Debug.Assert(args.Storage != null);
var job = m_instancePool.Allocate();
job.m_isCancelled = false;
job.m_args = args;
args.RenderWorkTracker.Add(args.WorkId, job);
MyPrecalcComponent.EnqueueBack(job, false /*job.m_args.IsHighPriority*/);
}
public void SpawnFlora(Vector3D pos)
{
if (m_planetEnvironmentSectors == null)
{
m_planetEnvironmentSectors = new Dictionary <Vector3I, MyPlanetEnvironmentSector>(500);
}
Vector3D gravity = GetWorldGravityNormalized(ref pos);
Vector3D perpedincular = MyUtils.GetRandomPerpendicularVector(ref gravity);
Vector3D third = Vector3D.Cross(gravity, perpedincular);
perpedincular += third;
Vector3I min = new Vector3I(-ENVIROMENT_EXTEND);
Vector3I max = new Vector3I(ENVIROMENT_EXTEND);
Vector3 offset = new Vector3(-MyPlanetEnvironmentSector.SECTOR_SIZE_METERS);
for (var it = new Vector3I.RangeIterator(ref min, ref max); it.IsValid(); it.MoveNext())
{
Vector3D currentPos = pos + it.Current * offset * perpedincular;
currentPos = PlaceToOrbit(currentPos, ref gravity);
if (false == ChekPosition(currentPos))
{
Vector3I newSector = Vector3I.Floor(currentPos / MyPlanetEnvironmentSector.SECTOR_SIZE_METERS);
if (m_planetSectorsPool == null)
{
m_planetSectorsPool = new MyDynamicObjectPool <MyPlanetEnvironmentSector>(400);
}
MyPlanetEnvironmentSector sector = m_planetSectorsPool.Allocate();
sector.Init(ref newSector, this);
m_planetEnvironmentSectors[newSector] = sector;
sector.PlaceItems();
}
}
Vector3I sectorCoords = Vector3I.Floor(PlaceToOrbit(pos, ref gravity) / MyPlanetEnvironmentSector.SECTOR_SIZE_METERS);
Vector3I keepMin = sectorCoords + new Vector3I(-ENVIROMENT_EXTEND_KEEP);
Vector3I keepMax = sectorCoords + new Vector3I(ENVIROMENT_EXTEND_KEEP);
foreach (var enviromentSector in m_planetEnvironmentSectors)
{
if (enviromentSector.Key.IsInsideInclusive(keepMin, keepMax))
{
m_sectorsToKeep.Add(enviromentSector.Key);
}
}
}
public static void Start(Args args)
{
Debug.Assert(args.Storage != null);
var job = m_instancePool.Allocate();
job.m_isCancelled = false;
job.m_args = args;
if (!args.RenderWorkTracker.Exists(args.WorkId))
{
args.RenderWorkTracker.Add(args.WorkId, job);
}
MyPrecalcComponent.EnqueueBack(job);
}
// Adds a triangle and connects it to the other triangles in the mesh by the given edges.
// Because connecting by vertices would produce non-manifold meshes, we connect triangles by their edges.
// When a triangle is added that connects to another triangle only by a vertex, the two touching vertices will be regarded
// as two separate vertices and they will only be merged when another triangle is added that shares two edges with the two
// original triangles.
//
// When the method returns, edgeAB, edgeBC and edgeCA will contain the indices for the new edges.
// The positions of vertices A, B and C will be unmodified and might not correspond to the real positions of the resulting
// triangle's vertices (because the positions of the original edge vertices will sometimes be used due to edge merging).
//
// Note: The triangle's vertices and edges must be ordered clockwise:
// B
// / \
// / \
// AB BC
// / \
// / \
// A -- CA --- C
protected MyNavigationTriangle AddTriangle(ref Vector3 A, ref Vector3 B, ref Vector3 C, ref int edgeAB, ref int edgeBC, ref int edgeCA)
{
MyNavigationTriangle newTri = m_triPool.Allocate();
// There are several cases that need to be handled and they can be distinguished by the number of
// existing edges and their shared vertices.
int newEdgeCount = 0;
newEdgeCount += edgeAB == -1 ? 1 : 0;
newEdgeCount += edgeBC == -1 ? 1 : 0;
newEdgeCount += edgeCA == -1 ? 1 : 0;
int newTriIndex = -1;
if (newEdgeCount == 3)
{
newTriIndex = m_mesh.MakeNewTriangle(newTri, ref A, ref B, ref C, out edgeAB, out edgeBC, out edgeCA);
}
else if (newEdgeCount == 2)
{
if (edgeAB != -1)
{
newTriIndex = m_mesh.ExtrudeTriangleFromEdge(ref C, edgeAB, newTri, out edgeBC, out edgeCA);
}
else if (edgeBC != -1)
{
newTriIndex = m_mesh.ExtrudeTriangleFromEdge(ref A, edgeBC, newTri, out edgeCA, out edgeAB);
}
else
{
newTriIndex = m_mesh.ExtrudeTriangleFromEdge(ref B, edgeCA, newTri, out edgeAB, out edgeBC);
}
}
else if (newEdgeCount == 1)
{
if (edgeAB == -1)
{
newTriIndex = GetTriangleOneNewEdge(ref edgeAB, ref edgeBC, ref edgeCA, newTri);
}
else if (edgeBC == -1)
{
newTriIndex = GetTriangleOneNewEdge(ref edgeBC, ref edgeCA, ref edgeAB, newTri);
}
else
{
newTriIndex = GetTriangleOneNewEdge(ref edgeCA, ref edgeAB, ref edgeBC, newTri);
}
}
else
{
var entryAB = m_mesh.GetEdge(edgeAB);
var entryBC = m_mesh.GetEdge(edgeBC);
var entryCA = m_mesh.GetEdge(edgeCA);
int sharedA = entryCA.TryGetSharedVertex(ref entryAB);
int sharedB = entryAB.TryGetSharedVertex(ref entryBC);
int sharedC = entryBC.TryGetSharedVertex(ref entryCA);
int sharedVertCount = 0;
sharedVertCount += sharedA == -1 ? 0 : 1;
sharedVertCount += sharedB == -1 ? 0 : 1;
sharedVertCount += sharedC == -1 ? 0 : 1;
if (sharedVertCount == 3)
{
newTriIndex = m_mesh.MakeFace(newTri, edgeAB);
}
else if (sharedVertCount == 2)
{
if (sharedA == -1)
{
newTriIndex = GetTriangleTwoSharedVertices(edgeAB, edgeBC, ref edgeCA, sharedB, sharedC, newTri);
}
else if (sharedB == -1)
{
newTriIndex = GetTriangleTwoSharedVertices(edgeBC, edgeCA, ref edgeAB, sharedC, sharedA, newTri);
}
else
{
newTriIndex = GetTriangleTwoSharedVertices(edgeCA, edgeAB, ref edgeBC, sharedA, sharedB, newTri);
}
}
else if (sharedVertCount == 1)
{
if (sharedA != -1)
{
newTriIndex = GetTriangleOneSharedVertex(edgeCA, edgeAB, ref edgeBC, sharedA, newTri);
}
else if (sharedB != -1)
{
newTriIndex = GetTriangleOneSharedVertex(edgeAB, edgeBC, ref edgeCA, sharedB, newTri);
}
else
{
newTriIndex = GetTriangleOneSharedVertex(edgeBC, edgeCA, ref edgeAB, sharedC, newTri);
}
}
else
{
int next, prev;
newTriIndex = m_mesh.ExtrudeTriangleFromEdge(ref C, edgeAB, newTri, out next, out prev);
m_mesh.MergeEdges(prev, edgeCA);
m_mesh.MergeEdges(next, edgeBC);
}
}
newTri.Init(this, newTriIndex);
return(newTri);
}
internal static MySingleInstance Allocate()
{
return(m_objectPool.Allocate());
}
internal BoundingFrustumD AllocateFrustum()
{
return(m_frustumPool.Allocate());
}
private bool AddCell(Vector3I cellPos)
{
MyCellCoord coord = new MyCellCoord(NAVMESH_LOD, cellPos);
var geometry = m_voxelMap.Storage.Geometry;
MyVoxelGeometry.CellData data = geometry.GetCell(ref coord);
if (data == null)
{
m_processedCells.Add(ref cellPos);
m_higherLevelHelper.AddExplored(ref cellPos);
return(false);
}
ulong packedCoord = coord.PackId64();
List <DebugDrawEdge> debugEdgesList = new List <DebugDrawEdge>();
m_debugCellEdges[packedCoord] = debugEdgesList;
MyVoxelPathfinding.CellId cellId = new MyVoxelPathfinding.CellId()
{
VoxelMap = m_voxelMap, Pos = cellPos
};
MyTrace.Send(TraceWindow.Ai, "Adding cell " + cellPos);
m_connectionHelper.ClearCell();
m_vertexMapping.Init(data.VoxelVerticesCount);
// Prepare list of possibly intersecting cube grids for voxel-grid navmesh intersection testing
Vector3D bbMin = m_voxelMap.PositionLeftBottomCorner + (m_cellSize * (new Vector3D(-0.125) + cellPos));
Vector3D bbMax = m_voxelMap.PositionLeftBottomCorner + (m_cellSize * (Vector3D.One + cellPos));
BoundingBoxD cellBB = new BoundingBoxD(bbMin, bbMax);
m_tmpGridList.Clear();
m_navmeshCoordinator.PrepareVoxelTriangleTests(cellBB, m_tmpGridList);
Vector3D voxelMapCenter = m_voxelMap.PositionComp.GetPosition();
Vector3 centerDisplacement = voxelMapCenter - m_voxelMap.PositionLeftBottomCorner;
// This is needed for correct edge classification - to tell, whether the edges are inner or outer edges of the cell
ProfilerShort.Begin("Triangle preprocessing");
for (int i = 0; i < data.VoxelTrianglesCount; i++)
{
short a = data.VoxelTriangles[i].VertexIndex0;
short b = data.VoxelTriangles[i].VertexIndex1;
short c = data.VoxelTriangles[i].VertexIndex2;
Vector3 aPos, bPos, cPos;
Vector3 vert;
data.GetUnpackedPosition(a, out vert);
aPos = vert - centerDisplacement;
data.GetUnpackedPosition(b, out vert);
bPos = vert - centerDisplacement;
data.GetUnpackedPosition(c, out vert);
cPos = vert - centerDisplacement;
bool invalidTriangle = false;
if ((bPos - aPos).LengthSquared() <= MyVoxelConnectionHelper.OUTER_EDGE_EPSILON_SQ)
{
m_vertexMapping.Union(a, b);
invalidTriangle = true;
}
if ((cPos - aPos).LengthSquared() <= MyVoxelConnectionHelper.OUTER_EDGE_EPSILON_SQ)
{
m_vertexMapping.Union(a, c);
invalidTriangle = true;
}
if ((cPos - bPos).LengthSquared() <= MyVoxelConnectionHelper.OUTER_EDGE_EPSILON_SQ)
{
m_vertexMapping.Union(b, c);
invalidTriangle = true;
}
if (invalidTriangle)
{
continue;
}
m_connectionHelper.PreprocessInnerEdge(a, b);
m_connectionHelper.PreprocessInnerEdge(b, c);
m_connectionHelper.PreprocessInnerEdge(c, a);
}
ProfilerShort.End();
ProfilerShort.Begin("Free face sorting");
// Ensure that the faces have increasing index numbers
Mesh.SortFreeFaces();
ProfilerShort.End();
m_higherLevelHelper.OpenNewCell(coord);
ProfilerShort.Begin("Adding triangles");
for (int i = 0; i < data.VoxelTrianglesCount; i++)
{
short a = data.VoxelTriangles[i].VertexIndex0;
short b = data.VoxelTriangles[i].VertexIndex1;
short c = data.VoxelTriangles[i].VertexIndex2;
short setA = (short)m_vertexMapping.Find(a);
short setB = (short)m_vertexMapping.Find(b);
short setC = (short)m_vertexMapping.Find(c);
if (setA == setB || setB == setC || setA == setC)
{
continue;
}
Vector3 aPos, bPos, cPos;
Vector3 vert;
data.GetUnpackedPosition(setA, out vert);
aPos = vert - centerDisplacement;
data.GetUnpackedPosition(setB, out vert);
bPos = vert - centerDisplacement;
data.GetUnpackedPosition(setC, out vert);
cPos = vert - centerDisplacement;
if (MyFakes.NAVMESH_PRESUMES_DOWNWARD_GRAVITY)
{
Vector3 normal = (cPos - aPos).Cross(bPos - aPos);
normal.Normalize();
if (normal.Dot(ref Vector3.Up) <= Math.Cos(MathHelper.ToRadians(54.0f)))
{
continue;
}
}
Vector3D aTformed = aPos + voxelMapCenter;
Vector3D bTformed = bPos + voxelMapCenter;
Vector3D cTformed = cPos + voxelMapCenter;
bool intersecting = false;
m_tmpLinkCandidates.Clear();
m_navmeshCoordinator.TestVoxelNavmeshTriangle(ref aTformed, ref bTformed, ref cTformed, m_tmpGridList, m_tmpLinkCandidates, out intersecting);
if (intersecting)
{
m_tmpLinkCandidates.Clear();
continue;
}
if (!m_connectionHelper.IsInnerEdge(a, b))
{
debugEdgesList.Add(new DebugDrawEdge(aTformed, bTformed));
}
if (!m_connectionHelper.IsInnerEdge(b, c))
{
debugEdgesList.Add(new DebugDrawEdge(bTformed, cTformed));
}
if (!m_connectionHelper.IsInnerEdge(c, a))
{
debugEdgesList.Add(new DebugDrawEdge(cTformed, aTformed));
}
int edgeAB = m_connectionHelper.TryGetAndRemoveEdgeIndex(b, a, ref bPos, ref aPos);
int edgeBC = m_connectionHelper.TryGetAndRemoveEdgeIndex(c, b, ref cPos, ref bPos);
int edgeCA = m_connectionHelper.TryGetAndRemoveEdgeIndex(a, c, ref aPos, ref cPos);
int formerAB = edgeAB;
int formerBC = edgeBC;
int formerCA = edgeCA;
ProfilerShort.Begin("AddTriangle");
var tri = AddTriangle(ref aPos, ref bPos, ref cPos, ref edgeAB, ref edgeBC, ref edgeCA);
ProfilerShort.End();
CheckMeshConsistency();
m_higherLevelHelper.AddTriangle(tri.Index);
if (formerAB == -1)
{
m_connectionHelper.AddEdgeIndex(a, b, ref aPos, ref bPos, edgeAB);
}
if (formerBC == -1)
{
m_connectionHelper.AddEdgeIndex(b, c, ref bPos, ref cPos, edgeBC);
}
if (formerCA == -1)
{
m_connectionHelper.AddEdgeIndex(c, a, ref cPos, ref aPos, edgeCA);
}
// TODO: Instead of this, just add the tri into a list of tris that want to connect with the link candidates
//m_navmeshCoordinator.TryAddVoxelNavmeshLinks(tri, cellId, m_tmpLinkCandidates);
foreach (var candidate in m_tmpLinkCandidates)
{
List <MyNavigationPrimitive> primitives = null;
if (!m_tmpCubeLinkCandidates.TryGetValue(candidate, out primitives))
{
primitives = m_primitiveListPool.Allocate();
m_tmpCubeLinkCandidates.Add(candidate, primitives);
}
primitives.Add(tri);
}
m_tmpLinkCandidates.Clear();
}
ProfilerShort.End();
m_tmpGridList.Clear();
m_connectionHelper.ClearCell();
m_vertexMapping.Clear();
Debug.Assert(!m_processedCells.Contains(ref cellPos));
m_processedCells.Add(ref cellPos);
m_higherLevelHelper.AddExplored(ref cellPos);
// Find connected components in the current cell's subgraph of the navigation mesh
m_higherLevelHelper.ProcessCellComponents();
m_higherLevelHelper.CloseCell();
// Create navmesh links using the navmesh coordinator, taking into consideration the high level components
m_navmeshCoordinator.TryAddVoxelNavmeshLinks2(cellId, m_tmpCubeLinkCandidates);
m_navmeshCoordinator.UpdateVoxelNavmeshCellHighLevelLinks(cellId);
foreach (var candidate in m_tmpCubeLinkCandidates)
{
candidate.Value.Clear();
m_primitiveListPool.Deallocate(candidate.Value);
}
m_tmpCubeLinkCandidates.Clear();
return(true);
}
internal void RecordCommandLists(MyCullQuery processedCullQuery, Queue <CommandList> outCommandLists)
{
ProfilerShort.Begin("PrepareWork");
ProfilerShort.Begin("Init");
Debug.Assert(m_workList.Count == 0, "Work list not cleared after use!");
foreach (List <MyRenderCullResultFlat> cullResults in m_passElements)
{
cullResults.Clear();
m_sortListPool.Deallocate(cullResults);
}
m_passElements.Clear();
m_passElements2.Clear();
for (int renderPassIndex = 0; renderPassIndex < processedCullQuery.Size; ++renderPassIndex)
{
if (!MyRender11.DeferredContextsEnabled)
{
processedCullQuery.RenderingPasses[renderPassIndex].SetImmediate(true);
}
m_passElements.Add(m_sortListPool.Allocate());
m_passElements2.Add(null);
}
ProfilerShort.BeginNextBlock("Flatten");
for (int i = 0; i < processedCullQuery.Size; ++i)
{
m_affectedQueueIds.SetSize(0);
var frustumQuery = processedCullQuery.FrustumCullQueries[i];
for (int renderPassIndex = 0; renderPassIndex < processedCullQuery.Size; renderPassIndex++)
{
if ((processedCullQuery.RenderingPasses[renderPassIndex].ProcessingMask & frustumQuery.Bitmask) > 0)
{
m_affectedQueueIds.Add(renderPassIndex);
}
}
var cullProxies = frustumQuery.List;
var queryType = frustumQuery.Type;
foreach (MyCullProxy cullProxy in cullProxies)
{
var renderableProxies = cullProxy.RenderableProxies;
if (renderableProxies == null)
{
continue;
}
for (int proxyIndex = 0; proxyIndex < renderableProxies.Length; ++proxyIndex)
{
var flag = renderableProxies[proxyIndex].DrawSubmesh.Flags;
if (queryType == MyFrustumEnum.MainFrustum)
{
if ((flag & MyDrawSubmesh.MySubmeshFlags.Gbuffer) != MyDrawSubmesh.MySubmeshFlags.Gbuffer)
{
continue;
}
}
else if (queryType == MyFrustumEnum.ShadowCascade || queryType == MyFrustumEnum.ShadowProjection)
{
if ((flag & MyDrawSubmesh.MySubmeshFlags.Depth) != MyDrawSubmesh.MySubmeshFlags.Depth)
{
continue;
}
}
MyRenderableProxy renderableProxy = renderableProxies[proxyIndex];
ulong sortKey = cullProxy.SortingKeys[proxyIndex];
for (int queueIndex = 0; queueIndex < m_affectedQueueIds.Count; ++queueIndex)
{
var queueId = m_affectedQueueIds[queueIndex];
var item = new MyRenderCullResultFlat
{
SortKey = sortKey,
RenderProxy = renderableProxy,
};
m_passElements[queueId].Add(item);
}
}
}
// proxy 2
var list2 = frustumQuery.List2;
// flatten and sort
m_flattenedKeys.SetSize(0);
m_indirectionList.SetSize(0);
m_location.SetSize(0);
int indirectionCounter = 0;
for (int list2Index = 0; list2Index < list2.Count; ++list2Index)
{
for (int sortKeyIndex = 0; sortKeyIndex < list2[list2Index].SortingKeys.Length; sortKeyIndex++)
{
m_flattenedKeys.Add(list2[list2Index].SortingKeys[sortKeyIndex]);
m_indirectionList.Add(indirectionCounter++);
m_location.Add(MyTuple.Create(list2Index, sortKeyIndex));
}
}
MyRenderableProxy_2[] flattenedProxies = null;
if (indirectionCounter > 0)
{
flattenedProxies = new MyRenderableProxy_2[indirectionCounter];
}
m_sortingKeysComparer.Values = m_flattenedKeys;
m_indirectionList.Sort(0, m_indirectionList.Count, m_sortingKeysComparer);
if (flattenedProxies != null)
{
for (int e = 0; e < indirectionCounter; e++)
{
var l = m_location[m_indirectionList[e]];
flattenedProxies[e] = list2[l.Item1].Proxies[l.Item2];
}
}
for (int l = 0; l < m_affectedQueueIds.Count; l++)
{
m_passElements2[m_affectedQueueIds[l]] = flattenedProxies;
}
}
ProfilerShort.BeginNextBlock("Sort");
foreach (var flatCullResults in m_passElements)
{
foreach (MyRenderCullResultFlat element in flatCullResults)
{
List <MyRenderCullResultFlat> sortList;
if (m_tmpSortListDictionary.TryGetValue(element.SortKey, out sortList))
{
sortList.Add(element);
}
else
{
sortList = m_sortListPool.Allocate();
sortList.Add(element);
m_tmpSortListDictionary.Add(element.SortKey, sortList);
}
}
flatCullResults.Clear();
foreach (var sortList in m_tmpSortListDictionary.Values)
{
flatCullResults.AddList(sortList);
sortList.SetSize(0);
m_sortListPool.Deallocate(sortList);
}
m_tmpSortListDictionary.Clear();
}
int jobsNum = GetRenderingThreadsNum();
// always amortize this path
ProfilerShort.BeginNextBlock("WorkAmortization");
//passElements.RemoveAll(x => x.Count == 0);
int workSum = 0;
foreach (var list in m_passElements)
{
workSum += list.Count;
}
int batchWork = (workSum + jobsNum - 1) / jobsNum;
Debug.Assert(m_subworks.Count == 0);
int work = 0;
for (int passElementIndex = 0; passElementIndex < m_passElements.Count; ++passElementIndex)
{
var flatCullResults = m_passElements[passElementIndex];
if (flatCullResults.Count == 0)
{
MyObjectPoolManager.Deallocate(processedCullQuery.RenderingPasses[passElementIndex]);
processedCullQuery.RenderingPasses[passElementIndex] = null;
if (m_passElements2[passElementIndex] == null || m_passElements2[passElementIndex].Length == 0)
{
continue;
}
}
if (processedCullQuery.RenderingPasses[passElementIndex] == null)
{
continue;
}
int passBegin = 0;
if (m_passElements2[passElementIndex] != null && m_passElements2[passElementIndex].Length > 0)
{
m_subworks.Add(new MyRenderingWorkItem
{
Pass = processedCullQuery.RenderingPasses[passElementIndex].Fork(),
List2 = m_passElements2[passElementIndex]
});
}
while (passBegin < flatCullResults.Count)
{
int toTake = Math.Min(flatCullResults.Count - passBegin, batchWork - work);
var workItem = new MyRenderingWorkItem
{
Renderables = flatCullResults,
Begin = passBegin,
End = passBegin + toTake
};
if (toTake < flatCullResults.Count && workItem.End != workItem.Renderables.Count)
{
workItem.Pass = processedCullQuery.RenderingPasses[passElementIndex].Fork();
}
else
{
workItem.Pass = processedCullQuery.RenderingPasses[passElementIndex];
processedCullQuery.RenderingPasses[passElementIndex] = null; // Consume the pass so it doesn't get cleaned up later with the cull query, but instead with the work item
}
m_subworks.Add(workItem);
passBegin += toTake;
work += toTake;
Debug.Assert(work <= batchWork);
if (work != batchWork)
{
continue;
}
if (MyRender11.DeferredContextsEnabled)
{
var renderWork = MyObjectPoolManager.Allocate <MyRenderingWorkRecordCommands>();
renderWork.Init(MyRenderContextPool.AcquireRC(), m_subworks);
m_workList.Add(renderWork);
}
else
{
var renderWork = MyObjectPoolManager.Allocate <MyRenderingWorkRecordCommands>();
renderWork.Init(m_subworks);
m_workList.Add(renderWork);
}
work = 0;
m_subworks.Clear();
}
}
if (m_subworks.Count > 0)
{
if (MyRender11.DeferredContextsEnabled)
{
var renderWork = MyObjectPoolManager.Allocate <MyRenderingWorkRecordCommands>();
renderWork.Init(MyRenderContextPool.AcquireRC(), m_subworks);
m_workList.Add(renderWork);
}
else
{
var renderWork = MyObjectPoolManager.Allocate <MyRenderingWorkRecordCommands>();
renderWork.Init(m_subworks);
m_workList.Add(renderWork);
}
m_subworks.Clear();
}
ProfilerShort.End();
ProfilerShort.End();
DoRecordingWork(outCommandLists);
foreach (var renderWork in m_workList)
{
MyObjectPoolManager.Deallocate(renderWork);
}
m_workList.Clear();
}