public void GetArrays(out Vector3[] vertices, out Vector3[] normals, out Color32[] colors, out int[] indices)
{
vertices = NoAllocHelpers.ExtractArrayFromListT(Vertices);
normals = NoAllocHelpers.ExtractArrayFromListT(Normals);
colors = NoAllocHelpers.ExtractArrayFromListT(Colors);
indices = NoAllocHelpers.ExtractArrayFromListT(Indices);
}
public unsafe void LateUpdate()
{
var vertices = this.instance.vertices.cpuReference;
fixed(Vector3 *pVertices = vertices)
{
UnsafeUtility.MemCpy(this.splineVertices.GetUnsafePtr(), (void *)pVertices, UnsafeUtility.SizeOf <Vector3>() * vertices.Length);
}
handle = new PositionUpdateJob()
{
normals = this.normals,
segments = this.segments,
hairVertices = this.splineVertices,
vertices = this.triVertices,
facing = this.facing.position,
hairWidth = this.hairWidth,
worldToLocal = this.transform.worldToLocalMatrix
}.Schedule(this.segments.Length, 16);
JobHandle.ScheduleBatchedJobs();
handle.Complete();
NoAllocHelpers.SetMesh(this.mesh, this.triVertices, null, this.normals);
this.mesh.UploadMeshData(false);
}
public void ResizeListCorrectCount()
{
var list = new List <int>(5);
NoAllocHelpers.ResizeList(list, 3);
Assert.AreEqual(3, list.Count);
}
/// <summary>Erases tiles and GameObjects from given bounds within the selected layers.</summary>
/// <param name="gridLayout">Grid to erase data from.</param>
/// <param name="brushTarget">Target of the erase operation. By default the currently selected GameObject.</param>
/// <param name="position">The bounds to erase data from.</param>
public override void BoxErase(GridLayout gridLayout, GameObject brushTarget, BoundsInt position)
{
if (brushTarget == null)
{
return;
}
Tilemap map = brushTarget.GetComponent <Tilemap>();
if (map == null)
{
return;
}
int count = 0;
var identity = Matrix4x4.identity;
var listSize = Math.Abs(position.size.x * position.size.y * position.size.z);
if (m_TileChangeDataList == null || m_TileChangeDataList.Capacity != listSize)
{
m_TileChangeDataList = new List <TileChangeData>(listSize);
}
m_TileChangeDataList.Clear();
foreach (Vector3Int location in position.allPositionsWithin)
{
m_TileChangeDataList.Add(new TileChangeData {
position = location, tile = null, transform = identity, color = Color.white
});
}
var tileChangeData = NoAllocHelpers.ExtractArrayFromListT(m_TileChangeDataList);
map.SetTiles(tileChangeData, false);
}
void TransformShadows(LayerSubMesh mesh)
{
if (mesh.uvs.Count == 0)
{
return;
}
var rot = Rot4.FromAngleFlat(target);
var uvs = mesh.uvs;
var vertsc = mesh.verts.Count;
var origVerts = NoAllocHelpers.ExtractArrayFromListT(mesh.verts);
Util.ResizeIfNeeded(ref tempVerts, vertsc);
for (int i = 0; i <= vertsc - 5; i += 5)
{
var offset = uvs[i / 10];
if (offset == Vector3.zero)
{
Array.Copy(origVerts, i, tempVerts, i, 5);
continue;
}
var r = offset.RotatedBy(rot) - offset;
tempVerts[i] = origVerts[i] + r;
tempVerts[i + 1] = origVerts[i + 1] + r;
tempVerts[i + 2] = origVerts[i + 2] + r;
tempVerts[i + 3] = origVerts[i + 3] + r;
tempVerts[i + 4] = origVerts[i + 4] + r;
}
mesh.mesh.SetVertices(tempVerts, vertsc);
}
public static unsafe void *GetUnsafePtr <T>(this List <T> list, out ulong gcHandle)
where T : struct
{
return(UnsafeUtility.PinGCArrayAndGetDataAddress(
NoAllocHelpers.ExtractArrayFromListT(list),
out gcHandle
));
}
public void SetIndexCount(int count)
{
if (count > Indices.Capacity)
{
Indices.Capacity = count;
}
NoAllocHelpers.ResizeList(Indices, count);
}
public static Mesh.MeshDataArray AcquireReadOnlyMeshData(List <Mesh> meshes)
{
if (meshes == null)
{
throw new ArgumentNullException(nameof(meshes), "Mesh list is null");
}
return(new Mesh.MeshDataArray(NoAllocHelpers.ExtractArrayFromListT(meshes), meshes.Count, false));
}
public static void CopyTo <T>(List <T> dst, List <T> src) where T : unmanaged
{
dst.Capacity = src.Count;
NoAllocHelpers.ResizeList(dst, src.Count);
using (dst.ViewAsNativeArray(out var dstArray))
using (src.ViewAsNativeArray(out var srcArray))
dstArray.CopyFrom(srcArray);
}
public static void ResizeList <T>(List <T> list, int count)
{
if (list.Capacity < count)
{
list.Capacity = count;
}
NoAllocHelpers.ResizeList(list, count);
}
public static unsafe List <int> V128Filter(List <int> src, int target)
{
var dst = new List <int>(src.Count);
using var srcDispose = src.ViewAsNativeArray(out var srcArray);
using var dstDispose = dst.ViewAsNativeArray(out var dstArray);
V128Filter((int *)srcArray.GetUnsafeReadOnlyPtr(), srcArray.Length, target, (int *)dstArray.GetUnsafePtr(), out var dstCount);
NoAllocHelpers.ResizeList(dst, dstCount);
return(dst);
}
public static unsafe List <int> V128Filter(List <int> list, int greaterThan, int lessThan)
{
var dst = new List <int>(list.Count);
using var srcDispose = list.ViewAsNativeArray(out var srcArray);
using var dstDispose = dst.ViewAsNativeArray(out var dstArray);
V128Filter((int *)srcArray.GetUnsafeReadOnlyPtr(), srcArray.Length, greaterThan, lessThan, (int *)dstArray.GetUnsafePtr(), out var dstCount);
NoAllocHelpers.ResizeList(dst, dstCount);
return(dst);
}
public static unsafe List <u32> V128ForLoop(List <u8> src)
{
var dst = new List <u32>(src.Count / 3);
using (dst.ViewAsNativeArray(out var dstArray))
using (src.ViewAsNativeArray(out var srcArray))
V128ForLoop((u8 *)srcArray.GetUnsafePtr(), (u32 *)dstArray.GetUnsafePtr(), dst.Capacity);
NoAllocHelpers.ResizeList(dst, src.Count / 3);
return(dst);
}
public SoAMesh(int vertexCount, int indexCount)
{
Vertices = new List <Vector3>(vertexCount);
Normals = new List <Vector3>(vertexCount);
Colors = new List <Color32>(vertexCount);
Indices = new List <int>(indexCount);
NoAllocHelpers.ResizeList(Vertices, vertexCount);
NoAllocHelpers.ResizeList(Normals, vertexCount);
NoAllocHelpers.ResizeList(Colors, vertexCount);
NoAllocHelpers.ResizeList(Indices, indexCount);
}
// Note: No checking that there is actually this many vertices in here.
// However, it will increase capacity if needed.
public void SetVertexCount(int count)
{
if (count > Vertices.Capacity)
{
Vertices.Capacity = count;
Normals.Capacity = count;
Colors.Capacity = count;
}
NoAllocHelpers.ResizeList(Vertices, count);
NoAllocHelpers.ResizeList(Normals, count);
NoAllocHelpers.ResizeList(Colors, count);
}
void TransformVerts(LayerSubMesh mesh)
{
var offset = Rot4.FromAngleFlat(target);
var offseti = offset.AsInt;
var uvs = mesh.uvs;
var vertsc = mesh.verts.Count;
var origVerts = NoAllocHelpers.ExtractArrayFromListT(mesh.verts);
// Rotate around a center
if (PrintPlanePatch.plantMats.Contains(mesh.material) ||
GraphicPrintPatch.graphicSingle.Contains(mesh.material))
{
if (uvs.Count * 4 != vertsc)
{
Log.ErrorOnce($"Carousel: Bad material {mesh.material}", mesh.material.GetHashCode());
return;
}
Util.ResizeIfNeeded(ref tempVerts, vertsc);
for (int i = 0; i < vertsc; i += 4)
{
// The mesh data lists are only used during mesh building and are otherwise unused
// In between mesh rebuilding, Carousel uses the uv list to store object centers for rotation
var c = uvs[i / 4];
tempVerts[i] = c + (origVerts[i] - c).RotatedBy(offset);
tempVerts[i + 1] = c + (origVerts[i + 1] - c).RotatedBy(offset);
tempVerts[i + 2] = c + (origVerts[i + 2] - c).RotatedBy(offset);
tempVerts[i + 3] = c + (origVerts[i + 3] - c).RotatedBy(offset);
}
mesh.mesh.SetVertices(tempVerts, vertsc);
}
// Exchange vertices
if (GraphicPrintPatch.matData.ContainsKey(mesh.material) ||
LinkedPrintPatch.linkedMaterials.Contains(mesh.material))
{
Util.ResizeIfNeeded(ref tempVerts, vertsc);
for (int i = 0; i < vertsc; i += 4)
{
tempVerts[i].SetXZY(ref origVerts[i + (offseti & 3)], origVerts[i].y);
tempVerts[i + 1].SetXZY(ref origVerts[i + (offseti + 1 & 3)], origVerts[i + 1].y);
tempVerts[i + 2].SetXZY(ref origVerts[i + (offseti + 2 & 3)], origVerts[i + 2].y);
tempVerts[i + 3].SetXZY(ref origVerts[i + (offseti + 3 & 3)], origVerts[i + 3].y);
}
mesh.mesh.SetVertices(tempVerts, vertsc);
}
}
void TransformAtlas(LayerSubMesh mesh, TextureAtlasGroup group)
{
var offset = Rot4.FromAngleFlat(target);
var offseti = offset.AsInt;
var vertsc = mesh.verts.Count / 5 * 4;
var uvsc = mesh.uvs.Count;
var vertsArr = NoAllocHelpers.ExtractArrayFromListT(mesh.verts);
var uvsArr = NoAllocHelpers.ExtractArrayFromListT(mesh.uvs);
Util.ResizeIfNeeded(ref tempVerts, vertsc);
Util.ResizeIfNeeded(ref tempUVs, uvsc);
for (int i = 0; i < vertsc; i += 4)
{
var data = vertsArr[vertsc + i / 4];
if (data.x == PrintPlanePatch.SPECIAL_X)
{
ExchangeVerts(tempVerts, vertsArr, i, offseti);
var rotData = ((int)data.z & 0b1100) >> 2;
var flipData = (int)data.z & 0b0011;
var relRot = GenMath.PositiveMod(rotData - Rot4.FromAngleFlat(target).AsInt, 4);
var flipped = relRot == 1 && ((flipData & 1) == 1) || relRot == 3 && ((flipData & 2) == 2) ? 1 : 0;
var rotatedMat = GraphicPrintPatch_SetData.intToGraphic[(int)data.y].mats[(rotData + Rot4.FromAngleFlat(-target).AsInt) % 4];
Graphic.TryGetTextureAtlasReplacementInfo(rotatedMat, group, false, false, out _, out var uvs, out _);
FixUVs(
tempUVs,
uvs,
i,
flipped
);
}
else if (data.x != PrintPlanePatch.EMPTY_X)
{
RotateVerts(tempVerts, vertsArr, i, data, offset);
Array.Copy(uvsArr, i, tempUVs, i, 4);
}
else
{
Array.Copy(vertsArr, i, tempVerts, i, 4);
Array.Copy(uvsArr, i, tempUVs, i, 4);
}
}
mesh.mesh.SetVertices(tempVerts, vertsc);
mesh.mesh.SetUVs(tempUVs, uvsc);
}
/// <summary>Box fills tiles and GameObjects into given bounds within the selected layers.</summary>
/// <param name="gridLayout">Grid to box fill data to.</param>
/// <param name="brushTarget">Target of the box fill operation. By default the currently selected GameObject.</param>
/// <param name="position">The bounds to box fill data into.</param>
public override void BoxFill(GridLayout gridLayout, GameObject brushTarget, BoundsInt position)
{
if (brushTarget == null)
{
return;
}
Tilemap map = brushTarget.GetComponent <Tilemap>();
if (map == null)
{
return;
}
int count = 0;
var listSize = position.size.x * position.size.y * position.size.z;
if (m_TileChangeDataList == null || m_TileChangeDataList.Capacity != listSize)
{
m_TileChangeDataList = new List <TileChangeData>(listSize);
}
m_TileChangeDataList.Clear();
foreach (Vector3Int location in position.allPositionsWithin)
{
Vector3Int local = location - position.min;
BrushCell cell = m_Cells[GetCellIndexWrapAround(local.x, local.y, local.z)];
if (cell.tile == null)
{
continue;
}
var tcd = new TileChangeData {
position = location, tile = cell.tile, transform = cell.matrix, color = cell.color
};
m_TileChangeDataList.Add(tcd);
count++;
}
// Duplicate empty slots in the list, as ExtractArrayFromListT returns full list
if (0 < count && count < listSize)
{
var tcd = m_TileChangeDataList[count - 1];
for (int i = count; i < listSize; ++i)
{
m_TileChangeDataList.Add(tcd);
}
}
var tileChangeData = NoAllocHelpers.ExtractArrayFromListT(m_TileChangeDataList);
map.SetTiles(tileChangeData, false);
}
/// <summary>
/// View <paramref name="list"/> as a <see cref="NativeArray{T}"/> without having to copy it or doing all the boilerplate for getting the pointer out of a list.
/// Useful for allowing a job to work on a list.
///
/// <para>
/// Put this thing in a disposable scope unless you can guarantee that the list will never change size or reallocate (in that case consider using a <see cref="NativeArray{T}"/> instead),
/// as Unity will <b>not</b> tell you if you're out of bounds, accessing invalid data, or accessing stale data because you have a stale/invalid view of the list.
/// The following changes to the list will turn a view invalid/stale:
/// <list type="number">
/// <item>The contents of the array will be stale (not reflect any changes to the values in the list) in case of a reallocation (changes to, or adding more items than, <see cref="List{T}.Capacity"/> or using <see cref="List{T}.TrimExcess"/>)</item>
/// <item>The length of the array will be wrong if you add/remove elements from the list</item>
/// </list>
/// </para>
///
/// <para>
/// The <paramref name="nativeArray"/> itself does not need to be disposed, but you need to dispose the <see cref="NativeArrayViewHandle"/> you get back, Unity's Memory Leak Detection will tell you if you forget.
/// Do not use the array after calling <see cref="NativeArrayViewHandle.Dispose"/> on the <see cref="NativeArrayViewHandle"/> returned from this function,
/// as you can risk the garbage collector removing the data from down under you, Unity's Collections Safety Checks will tell you if you do this.
/// There is <b>no</b> race detection for accessing multiple different views of the same list in different jobs concurrently, or modifying the list while a job is working on a view.
/// </para>
///
/// Usage:
/// <code>
/// List<int> list;
/// using (list.ViewAsNativeArray(out var nativeArray))
/// {
/// // work on nativeArray
/// }
/// </code>
/// </summary>
public unsafe static NativeArrayViewHandle ViewAsNativeArray <T>(this List <T> list, out NativeArray <T> nativeArray) where T : struct
{
var lArray = NoAllocHelpers.ExtractArrayFromListT(list);
var ptr = UnsafeUtility.PinGCArrayAndGetDataAddress(lArray, out var handle);
nativeArray = NativeArrayUnsafeUtility.ConvertExistingDataToNativeArray <T>(ptr, list.Count, Allocator.None);
#if ENABLE_UNITY_COLLECTIONS_CHECKS
DisposeSentinel.Create(out var safety, out var sentinel, 0, Allocator.None);
NativeArrayUnsafeUtility.SetAtomicSafetyHandle(ref nativeArray, safety);
return(new NativeArrayViewHandle(handle, safety, sentinel));
#else
return(new NativeArrayViewHandle(handle));
#endif
}
private static NativeArray <int> ArrayFromList(List <int> list, Allocator allocator)
{
if (list == null || list.Count == 0)
{
return(new NativeArray <int>());
}
var array = new NativeArray <int>(list.Count, allocator, NativeArrayOptions.UninitializedMemory);
// Use explicit copy length because the internal list might be longer than Count, which causes an error
NativeArray <int> .Copy(NoAllocHelpers.ExtractArrayFromListT(list), array, list.Count);
return(array);
}
public unsafe static int PointerDefaultIndexOf(List <int> list, int target)
{
var len = list.Count;
fixed(int *p = NoAllocHelpers.ExtractArrayFromListT(list))
for (int i = 0; i < len; i++)
{
if (p[i] == target)
{
return(i);
}
}
return(-1);
}
public void ExtractArrayFromListTReturnsInternalList()
{
var list = new List <int>(5);
for (var i = 0; i < 5; i++)
{
list.Add(0);
}
var array = NoAllocHelpers.ExtractArrayFromListT(list);
array[3] = 4;
Assert.AreEqual(4, list[3]);
}
public static unsafe void EmitSessionMetaData <T>(Guid id, int tag, List <T> data) where T : struct
{
if (data == null)
{
throw new ArgumentNullException("data");
}
var elementType = typeof(T);
if (!UnsafeUtility.IsBlittable(typeof(T)))
{
throw new ArgumentException(string.Format("{0} type must be blittable", elementType));
}
Internal_EmitGlobalMetaData_Array(&id, 16, tag, NoAllocHelpers.ExtractArrayFromList(data), data.Count, UnsafeUtility.SizeOf(elementType), false);
}
public static void EmitFrameMetaData <T>(Guid id, int tag, List <T> data) where T : struct
{
if (data == null)
{
throw new ArgumentNullException("data");
}
var elementType = typeof(T);
if (!UnsafeUtility.IsBlittable(typeof(T)))
{
throw new ArgumentException(string.Format("{0} type used in Profiler.ReportFrameStats must be blittable", elementType));
}
Internal_EmitFrameMetaData_Array(id.ToByteArray(), tag, NoAllocHelpers.ExtractArrayFromList(data), data.Count, UnsafeUtility.SizeOf(elementType));
}
void TransformVerts(LayerSubMesh mesh)
{
var offset = Rot4.FromAngleFlat(target);
var offseti = offset.AsInt;
// Rotate around a center
if (PrintPlanePatch.plantMats.Contains(mesh.material) ||
GraphicPrintPatch_TransformMats.graphicSingle.Contains(mesh.material))
{
var vertsc = mesh.verts.Count / 5 * 4;
var vertsArr = NoAllocHelpers.ExtractArrayFromListT(mesh.verts);
Util.ResizeIfNeeded(ref tempVerts, vertsc);
for (int i = 0; i < vertsc; i += 4)
{
// The mesh data lists are only used during mesh building and are otherwise unused.
// In between mesh rebuilding, Carousel reuses the lists to recalculate the meshes
// but also appends additional information to the end of the vertex list
var center = vertsArr[vertsc + i / 4];
RotateVerts(tempVerts, vertsArr, i, center, offset);
}
mesh.mesh.SetVertices(tempVerts, vertsc);
}
// Exchange vertices
// This doesn't change the set of their values but changes their order
if (GraphicPrintPatch_TransformMats.exchangeMats.ContainsKey(mesh.material) ||
LinkedPrintPatch.linkedMaterials.Contains(mesh.material))
{
var vertsc = mesh.verts.Count;
var vertsArr = NoAllocHelpers.ExtractArrayFromListT(mesh.verts);
Util.ResizeIfNeeded(ref tempVerts, vertsc);
for (int i = 0; i < vertsc; i += 4)
{
ExchangeVerts(tempVerts, vertsArr, i, offseti);
}
mesh.mesh.SetVertices(tempVerts, vertsc);
}
}
public unsafe static int PointerDefaultIndexOfThrows(List <int> list, int target)
{
var len = list.Count;
fixed(int *p = NoAllocHelpers.ExtractArrayFromListT(list))
for (int i = 0; i < len; i++)
{
if (i < 0 || i >= len)
{
throw new ArgumentOutOfRangeException();
}
if (p[i] == target)
{
return(i);
}
}
return(-1);
}
public static unsafe void CopyIntegers(NativeList <int> src, List <int> dst)
{
if (dst.Capacity < src.Length)
{
dst.Capacity = src.Length;
}
var array = NoAllocHelpers.ExtractArrayFromListT(dst);
fixed(int *arrayPtr = array)
{
var dstSlice = NativeSliceUnsafeUtility.ConvertExistingDataToNativeSlice <int>(arrayPtr, sizeof(int), src.Length);
#if ENABLE_UNITY_COLLECTIONS_CHECKS
NativeSliceUnsafeUtility.SetAtomicSafetyHandle(ref dstSlice, AtomicSafetyHandle.GetTempUnsafePtrSliceHandle());
#endif
dstSlice.CopyFrom((NativeArray <int>)src);
}
NoAllocHelpers.ResizeList(dst, src.Length);
}
// https://forum.unity.com/threads/nativearray-and-mesh.522951/
// avoid having to call NativeList.ToArray() when assigning a Mesh attribute which results in garbage
// There seems some GCAllocs still happen, but CPU spikes seem to be improved alot
// NOTE: that the buffer resizes up to the size of native, and does not shrink to avoid allocations -> Potential Memory Hog
// TODO: This HACK will go away with the official support of NativeArrays / NativeLists? in https://forum.unity.com/threads/feedback-wanted-mesh-scripting-api-improvements.684670/
static unsafe void assignNativeListToBuffer <TNative, T> (NativeList <TNative> native, ref List <T> buffer) where TNative : struct where T : struct
{
//Debug.Assert(buffer.Count == 0);
Debug.Assert(UnsafeUtility.SizeOf <TNative>() == UnsafeUtility.SizeOf <T>());
if (native.Length > 0)
{
if (buffer.Capacity < native.Length)
{
buffer.Capacity = native.Length;
}
var arr = NoAllocHelpers.ExtractArrayFromListT(buffer);
var size = UnsafeUtility.SizeOf <T>();
var ptr = (byte *)UnsafeUtility.AddressOf(ref arr[0]);
UnsafeUtility.MemCpy(ptr, native.GetUnsafePtr(), native.Length * (long)size);
}
NoAllocHelpers.ResizeList(buffer, native.Length);
}
static unsafe void NativeAddRange <T>(this List <T> list, NativeSlice <T> nativeSlice) where T : struct
{
var index = list.Count;
var newLength = index + nativeSlice.Length;
// Resize our list if we require
if (list.Capacity < newLength)
{
list.Capacity = newLength;
}
var items = NoAllocHelpers.ExtractArrayFromListT(list);
var size = UnsafeUtility.SizeOf <T>();
// Get the pointer to the end of the list
var bufferStart = (IntPtr)UnsafeUtility.AddressOf(ref items[0]);
var buffer = (byte *)(bufferStart + (size * index));
UnsafeUtility.MemCpy(buffer, nativeSlice.GetUnsafePtr(), nativeSlice.Length * (long)size);
NoAllocHelpers.ResizeList(list, newLength);
}
private static unsafe void NativeInject <T>(this List <T> list, int startIndex, void *src, int srcIndex,
int length)
where T : struct
{
var newLength = startIndex + length;
if (list.Capacity < newLength)
{
list.Capacity = newLength;
}
var size = UnsafeUtility.SizeOf <T>();
var dst = list.GetUnsafePtr(out var gcHandle);
UnsafeUtility.MemCpy(
(void *)((IntPtr)dst + startIndex * size),
(void *)((IntPtr)src + srcIndex * size),
length * size
);
UnsafeUtility.ReleaseGCObject(gcHandle);
NoAllocHelpers.ResizeList(list, newLength);
}
