public void RealSimpleFill(BetterList <Vector3> verts, BetterList <Vector2> uvs, BetterList <Color32> cols)
{
Vector4 v = drawingDimensions;
Vector4 u = drawingUVs;
Color32 c = drawingColor;
int size = 0;
size = verts.size;
verts.Allocate(verts.size += 4);
var vertsBuffer = verts.buffer;
vertsBuffer[size] = new Vector3(v.x, v.y);
vertsBuffer[size + 1] = new Vector3(v.x, v.w);
vertsBuffer[size + 2] = new Vector3(v.z, v.w);
vertsBuffer[size + 3] = new Vector3(v.z, v.y);
size = uvs.size;
uvs.Allocate(uvs.size += 4);
var uvsBuffer = uvs.buffer;
uvsBuffer[size] = new Vector2(u.x, u.y);
uvsBuffer[size + 1] = new Vector2(u.x, u.w);
uvsBuffer[size + 2] = new Vector2(u.z, u.w);;
uvsBuffer[size + 3] = new Vector2(u.z, u.y);
size = cols.size;
cols.Allocate(cols.size += 4);
var colsBuffer = cols.buffer;
colsBuffer[size] = c;
colsBuffer[size + 1] = c;
colsBuffer[size + 2] = c;
colsBuffer[size + 3] = c;
}
public LightLoopLightsData lightLoopLightsData; // = new LightLoopLightsData();
public void Initilize(PipelineSettings pipelineSettings)
{
bool needRebuild = false;
if (NumMaxLights != pipelineSettings.MaxItemsOnScreen)
{
needRebuild = true;
}
if (NativeLightsBoundList == null ||
NativeLightsDataList == null)
{
needRebuild = true;
}
if (needRebuild)
{
Dispose();
NumMaxLights = pipelineSettings.MaxItemsOnScreen;
NativeLightsBoundList = new NativeArray <SFiniteLightBound>(NumMaxLights, Allocator.Persistent);
LightsSphereList = new NativeArray <Sphere>(NumMaxLights, Allocator.Persistent);
NativeLightsDataList = new NativeArray <LightData>(NumMaxLights, Allocator.Persistent);
lights.Clear();
culsterDataGenerator = new CulsterDataGenerator();
tileAndClusterData = new TileAndClusterData();
lightLoopLightsData = new LightLoopLightsData();
culsterDataGenerator.Initilize(pipelineSettings);
tileAndClusterData.Initilize(pipelineSettings.NumClusters, pipelineSettings.MaxItemsPerCluster);
lightLoopLightsData.Initialize(pipelineSettings.MaxItemsOnScreen);
LightsDataForShadow.Allocate(NumMaxLights);
}
}
/// <summary>
/// Helper function that adds the specified values to the buffers.
/// </summary>
static void Fill(BetterList <Vector3> verts, BetterList <Vector2> uvs, BetterList <Color32> cols, float v0x, float v1x, float v0y, float v1y, float u0x, float u1x, float u0y, float u1y, Color col)
{
int size = verts.size;
verts.Allocate(verts.size += 4);
var vertsBuffer = verts.buffer;
vertsBuffer[size] = new Vector3(v0x, v0y);
vertsBuffer[size + 1] = new Vector3(v0x, v1y);
vertsBuffer[size + 2] = new Vector3(v1x, v1y);
vertsBuffer[size + 3] = new Vector3(v1x, v0y);
var uvsBuffer = uvs.buffer;
size = uvs.size;
uvs.Allocate(uvs.size += 4);
uvsBuffer[size] = new Vector2(u0x, u0y);
uvsBuffer[size + 1] = new Vector2(u0x, u1y);
uvsBuffer[size + 2] = new Vector2(u1x, u1y);
uvsBuffer[size + 3] = new Vector2(u1x, u0y);
size = cols.size;
cols.Allocate(cols.size += 4);
var colsBuffer = cols.buffer;
colsBuffer[size] = col;
colsBuffer[size + 1] = col;
colsBuffer[size + 2] = col;
colsBuffer[size + 3] = col;
}
private void WriteNormalBuffers(BetterList <Vector3> v, BetterList <Vector2> u, BetterList <Color32> c)
{
if (sRtpVerts != null)
{
int vertexCount = verts.size;
sRtpVerts.Clear();
sRtpVerts.Allocate(vertexCount);
var sRtpVertsbuffer = sRtpVerts.buffer;
float tempX, tempY, tempZ;
BetterList <Vector3> localverts = verts;
for (int i = 0; i < vertexCount; ++i)
{
tempX = localverts[i].x;
tempY = localverts[i].y;
tempZ = localverts[i].z;
++sRtpVerts.size;
// 不调用MultiplyVector，而是直接做矩阵运算，能减少函数调用开销，以及去掉不必要的z坐标计算
sRtpVertsbuffer[i].x = mRtMatrix.m00 * tempX + mRtMatrix.m01 * tempY + mRtMatrix.m02 * tempZ + mRtMatrix.m03;
sRtpVertsbuffer[i].y = mRtMatrix.m10 * tempX + mRtMatrix.m11 * tempY + mRtMatrix.m12 * tempZ + mRtMatrix.m13;
sRtpVertsbuffer[i].z = mRtMatrix.m20 * tempX + mRtMatrix.m21 * tempY + mRtMatrix.m22 * tempZ + mRtMatrix.m23;
}
var sRtpVertssize = sRtpVerts.size;
v.Allocate(v.size + sRtpVertssize);
u.Allocate(u.size + sRtpVertssize);
c.Allocate(c.size + sRtpVertssize);
var vBuffer = sRtpVerts.buffer;
var uvsBuffer = uvs.buffer;
var colsBuffer = cols.buffer;
for (int i = 0; i < sRtpVertssize; ++i)
{
v.buffer[v.size++] = vBuffer[i];
u.buffer[u.size++] = uvsBuffer[i];
c.buffer[c.size++] = colsBuffer[i];
}
if (onCustomWrite != null)
{
onCustomWrite(v, u, c);
}
sRtpVerts.Clear();
}
}
/// <summary>
/// Step 2: Transform the vertices by the provided matrix.
/// </summary>
public void ApplyTransform(ref Matrix4x4 widgetToPanel)
{
#if (OPTIMISE_GC_SY_20190426)
int vertexCount = (m_vertexnum > 0)?m_vertexnum:verts.size;
#else
int vertexCount = verts.size;
#endif
if (vertexCount > 0)
{
#if (OPTIMISE_GC_SY_20190426)
mRtMatrix = widgetToPanel;
#else
mRtpVerts.size = 0;
mRtpVerts.Allocate(vertexCount);
var mRtpVertsbuffer = mRtpVerts.buffer;
float tempX, tempY, tempZ;
for (int i = 0; i < vertexCount; ++i)
{
tempX = verts[i].x;
tempY = verts[i].y;
tempZ = verts[i].z;
++mRtpVerts.size;
// 不调用MultiplyVector，而是直接做矩阵运算，能减少函数调用开销，以及去掉不必要的z坐标计算
mRtpVertsbuffer[i].x = widgetToPanel.m00 * tempX + widgetToPanel.m01 * tempY + widgetToPanel.m02 * tempZ + widgetToPanel.m03;
mRtpVertsbuffer[i].y = widgetToPanel.m10 * tempX + widgetToPanel.m11 * tempY + widgetToPanel.m12 * tempZ + widgetToPanel.m13;
mRtpVertsbuffer[i].z = widgetToPanel.m20 * tempX + widgetToPanel.m21 * tempY + widgetToPanel.m22 * tempZ + widgetToPanel.m23;
// mRtpVerts.Add(widgetToPanel.MultiplyPoint3x4(verts[i]));
}
#endif
}
else
{
//mRtpVerts.Clear();
#if (OPTIMISE_GC_SY_20190426)
mRtMatrix = Matrix4x4.identity;
#else
mRtpVerts.size = 0;
#endif
}
}
/// <summary>
/// Step 3: Fill the specified buffer using the transformed values.
/// </summary>
public void WriteToBuffers(BetterList <Vector3> v, BetterList <Vector2> u, BetterList <Color32> c)
{
#if (OPTIMISE_GC_SY_20190426)
if (true)
{
if (m_pUIWidget != null)
{
if (m_vertexnum > 0)
{
tmpV3.Clear();
tmpV2.Clear();
tmpC3.Clear();
bool bNormalVertexBuffer = false;
if (m_pUIWidget.GetType() == typeof(UILabel))
{
UILabel ulb = m_pUIWidget as UILabel;
ulb.WriteDrawCallBuffer(tmpV3, tmpV2, tmpC3);
}
else
{
UIBasicSprite ubs = m_pUIWidget as UIBasicSprite;
if (ubs.type == UIBasicSprite.Type.Simple)
{
ubs.RealSimpleFill(tmpV3, tmpV2, tmpC3);
}
else if (ubs.type == UIBasicSprite.Type.Sliced)
{
ubs.RealSlicedFill(tmpV3, tmpV2, tmpC3);
}
else if (ubs.type == UIBasicSprite.Type.Filled)
{
ubs.RealFilledFill(tmpV3, tmpV2, tmpC3);
}
else
{
bNormalVertexBuffer = true;
WriteNormalBuffers(v, u, c);
}
}
if (bNormalVertexBuffer == false)
{
int vertexCount = tmpV3.size;
tmpTransedV3.Clear();
tmpTransedV3.Allocate(vertexCount);
var tmpTransedV3buffer = tmpTransedV3.buffer;
float tempX, tempY, tempZ;
for (int i = 0; i < vertexCount; ++i)
{
tempX = tmpV3[i].x;
tempY = tmpV3[i].y;
tempZ = tmpV3[i].z;
++tmpTransedV3.size;
// 不调用MultiplyVector，而是直接做矩阵运算，能减少函数调用开销，以及去掉不必要的z坐标计算
tmpTransedV3buffer[i].x = mRtMatrix.m00 * tempX + mRtMatrix.m01 * tempY + mRtMatrix.m02 * tempZ + mRtMatrix.m03;
tmpTransedV3buffer[i].y = mRtMatrix.m10 * tempX + mRtMatrix.m11 * tempY + mRtMatrix.m12 * tempZ + mRtMatrix.m13;
tmpTransedV3buffer[i].z = mRtMatrix.m20 * tempX + mRtMatrix.m21 * tempY + mRtMatrix.m22 * tempZ + mRtMatrix.m23;
}
v.Allocate(v.size + tmpTransedV3.size);
u.Allocate(u.size + tmpTransedV3.size);
c.Allocate(c.size + tmpTransedV3.size);
var vBuffer = tmpTransedV3.buffer;
var uvsBuffer = tmpV2.buffer;
var colsBuffer = tmpC3.buffer;
for (int i = 0; i < tmpTransedV3.size; ++i)
{
v.buffer[v.size++] = vBuffer[i];
u.buffer[u.size++] = uvsBuffer[i];
c.buffer[c.size++] = colsBuffer[i];
}
tmpV3.Clear();
tmpV2.Clear();
tmpC3.Clear();
tmpTransedV3.Clear();
if (onCustomWrite != null)
{
onCustomWrite(v, u, c);
}
}
}
else
{
WriteNormalBuffers(v, u, c);
}
}
else
{
WriteNormalBuffers(v, u, c);
}
}
#else
if (mRtpVerts != null && mRtpVerts.size > 0)
{
var mRtpVertssize = mRtpVerts.size;
v.Allocate(v.size + mRtpVertssize);
u.Allocate(u.size + mRtpVertssize);
c.Allocate(c.size + mRtpVertssize);
var vBuffer = mRtpVerts.buffer;
var uvsBuffer = uvs.buffer;
var colsBuffer = cols.buffer;
for (int i = 0; i < mRtpVertssize; ++i)
{
v.buffer[v.size++] = vBuffer[i];
u.buffer[u.size++] = uvsBuffer[i];
c.buffer[c.size++] = colsBuffer[i];
}
if (onCustomWrite != null)
{
onCustomWrite(v, u, c);
}
}
#endif
}
public void RealSlicedFill(BetterList <Vector3> verts, BetterList <Vector2> uvs, BetterList <Color32> cols)
{
Vector4 br = border * pixelSize;
Color32 c = drawingColor;
Vector4 v = drawingDimensions;
mTempPos[0].x = v.x;
mTempPos[0].y = v.y;
mTempPos[3].x = v.z;
mTempPos[3].y = v.w;
if (mFlip == Flip.Horizontally || mFlip == Flip.Both)
{
mTempPos[1].x = mTempPos[0].x + br.z;
mTempPos[2].x = mTempPos[3].x - br.x;
mTempUVs[3].x = mOuterUV.xMin;
mTempUVs[2].x = mInnerUV.xMin;
mTempUVs[1].x = mInnerUV.xMax;
mTempUVs[0].x = mOuterUV.xMax;
}
else
{
mTempPos[1].x = mTempPos[0].x + br.x;
mTempPos[2].x = mTempPos[3].x - br.z;
mTempUVs[0].x = mOuterUV.xMin;
mTempUVs[1].x = mInnerUV.xMin;
mTempUVs[2].x = mInnerUV.xMax;
mTempUVs[3].x = mOuterUV.xMax;
}
if (mFlip == Flip.Vertically || mFlip == Flip.Both)
{
mTempPos[1].y = mTempPos[0].y + br.w;
mTempPos[2].y = mTempPos[3].y - br.y;
mTempUVs[3].y = mOuterUV.yMin;
mTempUVs[2].y = mInnerUV.yMin;
mTempUVs[1].y = mInnerUV.yMax;
mTempUVs[0].y = mOuterUV.yMax;
}
else
{
mTempPos[1].y = mTempPos[0].y + br.y;
mTempPos[2].y = mTempPos[3].y - br.w;
mTempUVs[0].y = mOuterUV.yMin;
mTempUVs[1].y = mInnerUV.yMin;
mTempUVs[2].y = mInnerUV.yMax;
mTempUVs[3].y = mOuterUV.yMax;
}
/*
* for (int x = 0; x < 3; ++x)
* {
* int x2 = x + 1;
*
* for (int y = 0; y < 3; ++y)
* {
* if (centerType == AdvancedType.Invisible && x == 1 && y == 1) continue;
* size += 4;
*
*/
// 直接算出size，减少(9-1)x3次调用Allocate
var size = 0;
size += centerType == AdvancedType.Invisible ? 32 : 36;
verts.Allocate(verts.size + size);
uvs.Allocate(uvs.size + size);
cols.Allocate(cols.size + size);
for (int x = 0; x < 3; ++x)
{
int x2 = x + 1;
for (int y = 0; y < 3; ++y)
{
if (centerType == AdvancedType.Invisible && x == 1 && y == 1)
{
continue;
}
int y2 = y + 1;
size = verts.size;
verts.size += 4;
var vertsBuffer = verts.buffer;
vertsBuffer[size].x = mTempPos[x].x;
vertsBuffer[size].y = mTempPos[y].y;
vertsBuffer[size].z = 1.0f;
vertsBuffer[size + 1].x = mTempPos[x].x;
vertsBuffer[size + 1].y = mTempPos[y2].y;
vertsBuffer[size + 1].z = 1.0f;
vertsBuffer[size + 2].x = mTempPos[x2].x;
vertsBuffer[size + 2].y = mTempPos[y2].y;
vertsBuffer[size + 2].z = 1.0f;
vertsBuffer[size + 3].x = mTempPos[x2].x;
vertsBuffer[size + 3].y = mTempPos[y].y;
vertsBuffer[size + 3].z = 1.0f;
size = uvs.size;
uvs.size += 4;
var uvsBuffer = uvs.buffer;
uvsBuffer[size].x = mTempUVs[x].x;
uvsBuffer[size].y = mTempUVs[y].y;
uvsBuffer[size + 1].x = mTempUVs[x].x;
uvsBuffer[size + 1].y = mTempUVs[y2].y;
uvsBuffer[size + 2].x = mTempUVs[x2].x;
uvsBuffer[size + 2].y = mTempUVs[y2].y;
uvsBuffer[size + 3].x = mTempUVs[x2].x;
uvsBuffer[size + 3].y = mTempUVs[y].y;
size = cols.size;
cols.size += 4;
var colsBuffer = cols.buffer;
colsBuffer[size] = c;
colsBuffer[size + 1] = c;
colsBuffer[size + 2] = c;
colsBuffer[size + 3] = c;
}
}
}
