void GrSWMaskHelper::DrawToTargetWithPathMask(GrTexture* texture,
GrDrawTarget* target,
const GrIRect& rect) {
GrDrawState* drawState = target->drawState();
GrDrawState::AutoDeviceCoordDraw adcd(drawState);
if (!adcd.succeeded()) {
return;
}
enum {
// the SW path renderer shares this stage with glyph
// rendering (kGlyphMaskStage in GrBatchedTextContext)
kPathMaskStage = GrPaint::kTotalStages,
};
GrAssert(!drawState->isStageEnabled(kPathMaskStage));
drawState->stage(kPathMaskStage)->reset();
drawState->createTextureEffect(kPathMaskStage, texture);
SkScalar w = SkIntToScalar(rect.width());
SkScalar h = SkIntToScalar(rect.height());
GrRect maskRect = GrRect::MakeWH(w / texture->width(),
h / texture->height());
const GrRect* srcRects[GrDrawState::kNumStages] = { NULL };
srcRects[kPathMaskStage] = &maskRect;
GrRect dstRect = GrRect::MakeLTRB(
SK_Scalar1 * rect.fLeft,
SK_Scalar1 * rect.fTop,
SK_Scalar1 * rect.fRight,
SK_Scalar1 * rect.fBottom);
target->drawRect(dstRect, NULL, srcRects, NULL);
drawState->disableStage(kPathMaskStage);
}
////////////////////////////////////////////////////////////////////////////////
// return true on success; false on failure
bool GrSoftwarePathRenderer::onDrawPath(const SkPath& path,
GrPathFill fill,
const GrVec* translate,
GrDrawTarget* target,
GrDrawState::StageMask stageMask,
bool antiAlias) {
if (NULL == fContext) {
return false;
}
GrAutoScratchTexture ast;
GrIRect pathBounds, clipBounds;
if (!get_path_and_clip_bounds(target, path, translate,
&pathBounds, &clipBounds)) {
return true; // path is empty so there is nothing to do
}
if (sw_draw_path_to_mask_texture(path, pathBounds,
fill, fContext,
translate, &ast, antiAlias)) {
GrTexture* texture = ast.texture();
GrAssert(NULL != texture);
GrDrawTarget::AutoDeviceCoordDraw adcd(target, stageMask);
enum {
// the SW path renderer shares this stage with glyph
// rendering (kGlyphMaskStage in GrBatchedTextContext)
kPathMaskStage = GrPaint::kTotalStages,
};
GrAssert(NULL == target->drawState()->getTexture(kPathMaskStage));
target->drawState()->setTexture(kPathMaskStage, texture);
target->drawState()->sampler(kPathMaskStage)->reset();
GrScalar w = GrIntToScalar(pathBounds.width());
GrScalar h = GrIntToScalar(pathBounds.height());
GrRect maskRect = GrRect::MakeWH(w / texture->width(),
h / texture->height());
const GrRect* srcRects[GrDrawState::kNumStages] = {NULL};
srcRects[kPathMaskStage] = &maskRect;
stageMask |= 1 << kPathMaskStage;
GrRect dstRect = GrRect::MakeLTRB(
SK_Scalar1* pathBounds.fLeft,
SK_Scalar1* pathBounds.fTop,
SK_Scalar1* pathBounds.fRight,
SK_Scalar1* pathBounds.fBottom);
target->drawRect(dstRect, NULL, stageMask, srcRects, NULL);
target->drawState()->setTexture(kPathMaskStage, NULL);
if (GrIsFillInverted(fill)) {
draw_around_inv_path(target, stageMask,
clipBounds, pathBounds);
}
return true;
}
return false;
}
void GrSWMaskHelper::DrawToTargetWithPathMask(GrTexture* texture,
GrDrawTarget* target,
const GrIRect& rect) {
GrDrawState* drawState = target->drawState();
GrDrawState::AutoDeviceCoordDraw adcd(drawState);
if (!adcd.succeeded()) {
return;
}
enum {
// the SW path renderer shares this stage with glyph
// rendering (kGlyphMaskStage in GrTextContext)
// && edge rendering (kEdgeEffectStage in GrContext)
kPathMaskStage = GrPaint::kTotalStages,
};
GrRect dstRect = GrRect::MakeLTRB(
SK_Scalar1 * rect.fLeft,
SK_Scalar1 * rect.fTop,
SK_Scalar1 * rect.fRight,
SK_Scalar1 * rect.fBottom);
// We want to use device coords to compute the texture coordinates. We set our matrix to be
// equal to the view matrix followed by a translation so that the top-left of the device bounds
// maps to 0,0, and then a scaling matrix to normalized coords. We apply this matrix to the
// vertex positions rather than local coords.
SkMatrix maskMatrix;
maskMatrix.setIDiv(texture->width(), texture->height());
maskMatrix.preTranslate(SkIntToScalar(-rect.fLeft), SkIntToScalar(-rect.fTop));
maskMatrix.preConcat(drawState->getViewMatrix());
GrAssert(!drawState->isStageEnabled(kPathMaskStage));
drawState->setEffect(kPathMaskStage,
GrSimpleTextureEffect::Create(texture,
maskMatrix,
false,
GrEffect::kPosition_CoordsType))->unref();
target->drawSimpleRect(dstRect);
drawState->disableStage(kPathMaskStage);
}
bool GrAAConvexPathRenderer::onDrawPath(const SkPath& origPath,
GrPathFill fill,
GrDrawTarget* target,
bool antiAlias) {
const SkPath* path = &origPath;
if (path->isEmpty()) {
return true;
}
GrDrawState* drawState = target->drawState();
GrDrawState::AutoDeviceCoordDraw adcd(drawState);
if (!adcd.succeeded()) {
return false;
}
const GrMatrix* vm = &adcd.getOriginalMatrix();
GrVertexLayout layout = 0;
layout |= GrDrawTarget::kEdge_VertexLayoutBit;
// We use the fact that SkPath::transform path does subdivision based on
// perspective. Otherwise, we apply the view matrix when copying to the
// segment representation.
SkPath tmpPath;
if (vm->hasPerspective()) {
origPath.transform(*vm, &tmpPath);
path = &tmpPath;
vm = &GrMatrix::I();
}
QuadVertex *verts;
uint16_t* idxs;
int vCount;
int iCount;
enum {
kPreallocSegmentCnt = 512 / sizeof(Segment),
};
SkSTArray<kPreallocSegmentCnt, Segment, true> segments;
SkPoint fanPt;
if (!get_segments(*path, *vm, &segments, &fanPt, &vCount, &iCount)) {
return false;
}
GrDrawTarget::AutoReleaseGeometry arg(target, layout, vCount, iCount);
if (!arg.succeeded()) {
return false;
}
verts = reinterpret_cast<QuadVertex*>(arg.vertices());
idxs = reinterpret_cast<uint16_t*>(arg.indices());
create_vertices(segments, fanPt, verts, idxs);
GrDrawState::VertexEdgeType oldEdgeType = drawState->getVertexEdgeType();
drawState->setVertexEdgeType(GrDrawState::kQuad_EdgeType);
target->drawIndexed(kTriangles_GrPrimitiveType,
0, // start vertex
0, // start index
vCount,
iCount);
drawState->setVertexEdgeType(oldEdgeType);
return true;
}
void GrInOrderDrawBuffer::drawRect(const GrRect& rect,
const GrMatrix* matrix,
StageMask stageMask,
const GrRect* srcRects[],
const GrMatrix* srcMatrices[]) {
GrAssert(!(NULL == fQuadIndexBuffer && fCurrQuad));
GrAssert(!(fDraws.empty() && fCurrQuad));
GrAssert(!(0 != fMaxQuads && NULL == fQuadIndexBuffer));
GrDrawState* drawState = this->drawState();
// if we have a quad IB then either append to the previous run of
// rects or start a new run
if (fMaxQuads) {
bool appendToPreviousDraw = false;
GrVertexLayout layout = GetRectVertexLayout(stageMask, srcRects);
AutoReleaseGeometry geo(this, layout, 4, 0);
if (!geo.succeeded()) {
GrPrintf("Failed to get space for vertices!\n");
return;
}
GrMatrix combinedMatrix = drawState->getViewMatrix();
// We go to device space so that matrix changes allow us to concat
// rect draws. When the caller has provided explicit source rects
// then we don't want to modify the sampler matrices. Otherwise we do
// we have to account for the view matrix change in the sampler
// matrices.
StageMask devCoordMask = (NULL == srcRects) ? stageMask : 0;
GrDrawTarget::AutoDeviceCoordDraw adcd(this, devCoordMask);
if (NULL != matrix) {
combinedMatrix.preConcat(*matrix);
}
SetRectVertices(rect, &combinedMatrix, srcRects, srcMatrices, layout, geo.vertices());
// we don't want to miss an opportunity to batch rects together
// simply because the clip has changed if the clip doesn't affect
// the rect.
bool disabledClip = false;
if (drawState->isClipState() && fClip.isRect()) {
GrRect clipRect = fClip.getRect(0);
// If the clip rect touches the edge of the viewport, extended it
// out (close) to infinity to avoid bogus intersections.
// We might consider a more exact clip to viewport if this
// conservative test fails.
const GrRenderTarget* target = drawState->getRenderTarget();
if (0 >= clipRect.fLeft) {
clipRect.fLeft = GR_ScalarMin;
}
if (target->width() <= clipRect.fRight) {
clipRect.fRight = GR_ScalarMax;
}
if (0 >= clipRect.top()) {
clipRect.fTop = GR_ScalarMin;
}
if (target->height() <= clipRect.fBottom) {
clipRect.fBottom = GR_ScalarMax;
}
int stride = VertexSize(layout);
bool insideClip = true;
for (int v = 0; v < 4; ++v) {
const GrPoint& p = *GetVertexPoint(geo.vertices(), v, stride);
if (!clipRect.contains(p)) {
insideClip = false;
break;
}
}
if (insideClip) {
drawState->disableState(GrDrawState::kClip_StateBit);
disabledClip = true;
}
}
if (!needsNewClip() && !needsNewState() && fCurrQuad > 0 &&
fCurrQuad < fMaxQuads && layout == fLastRectVertexLayout) {
int vsize = VertexSize(layout);
Draw& lastDraw = fDraws.back();
GrAssert(lastDraw.fIndexBuffer == fQuadIndexBuffer);
GrAssert(kTriangles_PrimitiveType == lastDraw.fPrimitiveType);
GrAssert(0 == lastDraw.fVertexCount % 4);
GrAssert(0 == lastDraw.fIndexCount % 6);
GrAssert(0 == lastDraw.fStartIndex);
GeometryPoolState& poolState = fGeoPoolStateStack.back();
bool clearSinceLastDraw =
fClears.count() &&
fClears.back().fBeforeDrawIdx == fDraws.count();
appendToPreviousDraw =
!clearSinceLastDraw &&
lastDraw.fVertexBuffer == poolState.fPoolVertexBuffer &&
(fCurrQuad * 4 + lastDraw.fStartVertex) == poolState.fPoolStartVertex;
if (appendToPreviousDraw) {
lastDraw.fVertexCount += 4;
lastDraw.fIndexCount += 6;
fCurrQuad += 1;
// we reserved above, so we should be the first
// use of this vertex reserveation.
GrAssert(0 == poolState.fUsedPoolVertexBytes);
poolState.fUsedPoolVertexBytes = 4 * vsize;
}
}
if (!appendToPreviousDraw) {
this->setIndexSourceToBuffer(fQuadIndexBuffer);
this->drawIndexed(kTriangles_PrimitiveType, 0, 0, 4, 6);
fCurrQuad = 1;
fLastRectVertexLayout = layout;
}
if (disabledClip) {
drawState->enableState(GrDrawState::kClip_StateBit);
}
fInstancedDrawTracker.reset();
} else {
INHERITED::drawRect(rect, matrix, stageMask, srcRects, srcMatrices);
}
}
void GrInOrderDrawBuffer::drawRect(const GrRect& rect,
const SkMatrix* matrix,
const GrRect* srcRects[],
const SkMatrix* srcMatrices[]) {
GrVertexLayout layout = 0;
GrDrawState::AutoColorRestore acr;
GrColor color = this->drawState()->getColor();
// Using per-vertex colors allows batching across colors. (A lot of rects in a row differing
// only in color is a common occurrence in tables). However, having per-vertex colors disables
// blending optimizations because we don't know if the color will be solid or not. These
// optimizations help determine whether coverage and color can be blended correctly when
// dual-source blending isn't available. This comes into play when there is coverage. If colors
// were a stage it could take a hint that every vertex's color will be opaque.
if (this->getCaps().dualSourceBlendingSupport() ||
this->getDrawState().hasSolidCoverage(this->getGeomSrc().fVertexLayout)) {
layout |= GrDrawState::kColor_VertexLayoutBit;;
// We set the draw state's color to white here. This is done so that any batching performed
// in our subclass's onDraw() won't get a false from GrDrawState::op== due to a color
// mismatch. TODO: Once vertex layout is owned by GrDrawState it should skip comparing the
// constant color in its op== when the kColor layout bit is set and then we can remove this.
acr.set(this->drawState(), 0xFFFFFFFF);
}
uint32_t explicitCoordMask = 0;
if (NULL != srcRects) {
for (int s = 0; s < GrDrawState::kNumStages; ++s) {
int numTC = 0;
if (NULL != srcRects[s]) {
layout |= GrDrawState::StageTexCoordVertexLayoutBit(s, numTC);
++numTC;
explicitCoordMask |= (1 << s);
}
}
}
AutoReleaseGeometry geo(this, layout, 4, 0);
if (!geo.succeeded()) {
GrPrintf("Failed to get space for vertices!\n");
return;
}
// Go to device coords to allow batching across matrix changes
SkMatrix combinedMatrix;
if (NULL != matrix) {
combinedMatrix = *matrix;
} else {
combinedMatrix.reset();
}
combinedMatrix.postConcat(this->drawState()->getViewMatrix());
// When the caller has provided an explicit source rects for a stage then we don't want to
// modify that stage's matrix. Otherwise if the effect is generating its source rect from
// the vertex positions then we have to account for the view matrix change.
GrDrawState::AutoDeviceCoordDraw adcd(this->drawState(), explicitCoordMask);
if (!adcd.succeeded()) {
return;
}
int stageOffsets[GrDrawState::kNumStages], colorOffset;
int vsize = GrDrawState::VertexSizeAndOffsetsByStage(layout, stageOffsets,
&colorOffset, NULL, NULL);
geo.positions()->setRectFan(rect.fLeft, rect.fTop, rect.fRight, rect.fBottom, vsize);
combinedMatrix.mapPointsWithStride(geo.positions(), vsize, 4);
SkRect devBounds;
// since we already computed the dev verts, set the bounds hint. This will help us avoid
// unnecessary clipping in our onDraw().
get_vertex_bounds(geo.vertices(), vsize, 4, &devBounds);
for (int i = 0; i < GrDrawState::kNumStages; ++i) {
if (explicitCoordMask & (1 << i)) {
GrAssert(0 != stageOffsets[i]);
GrPoint* coords = GrTCast<GrPoint*>(GrTCast<intptr_t>(geo.vertices()) +
stageOffsets[i]);
coords->setRectFan(srcRects[i]->fLeft, srcRects[i]->fTop,
srcRects[i]->fRight, srcRects[i]->fBottom,
vsize);
if (NULL != srcMatrices && NULL != srcMatrices[i]) {
srcMatrices[i]->mapPointsWithStride(coords, vsize, 4);
}
} else {
GrAssert(0 == stageOffsets[i]);
}
}
if (colorOffset >= 0) {
GrColor* vertColor = GrTCast<GrColor*>(GrTCast<intptr_t>(geo.vertices()) + colorOffset);
for (int i = 0; i < 4; ++i) {
*vertColor = color;
vertColor = (GrColor*) ((intptr_t) vertColor + vsize);
}
}
this->setIndexSourceToBuffer(fGpu->getQuadIndexBuffer());
this->drawIndexedInstances(kTriangles_GrPrimitiveType, 1, 4, 6, &devBounds);
}
void GrInOrderDrawBuffer::onDrawRect(const GrRect& rect,
const SkMatrix* matrix,
const GrRect* localRect,
const SkMatrix* localMatrix) {
GrDrawState::AutoColorRestore acr;
GrDrawState* drawState = this->drawState();
GrColor color = drawState->getColor();
int colorOffset, localOffset;
set_vertex_attributes(drawState,
this->caps()->dualSourceBlendingSupport() || drawState->hasSolidCoverage(),
NULL != localRect,
&colorOffset, &localOffset);
if (colorOffset >= 0) {
// We set the draw state's color to white here. This is done so that any batching performed
// in our subclass's onDraw() won't get a false from GrDrawState::op== due to a color
// mismatch. TODO: Once vertex layout is owned by GrDrawState it should skip comparing the
// constant color in its op== when the kColor layout bit is set and then we can remove
// this.
acr.set(drawState, 0xFFFFFFFF);
}
AutoReleaseGeometry geo(this, 4, 0);
if (!geo.succeeded()) {
GrPrintf("Failed to get space for vertices!\n");
return;
}
// Go to device coords to allow batching across matrix changes
SkMatrix combinedMatrix;
if (NULL != matrix) {
combinedMatrix = *matrix;
} else {
combinedMatrix.reset();
}
combinedMatrix.postConcat(drawState->getViewMatrix());
// When the caller has provided an explicit source rect for a stage then we don't want to
// modify that stage's matrix. Otherwise if the effect is generating its source rect from
// the vertex positions then we have to account for the view matrix change.
GrDrawState::AutoDeviceCoordDraw adcd(drawState);
if (!adcd.succeeded()) {
return;
}
size_t vsize = drawState->getVertexSize();
geo.positions()->setRectFan(rect.fLeft, rect.fTop, rect.fRight, rect.fBottom, vsize);
combinedMatrix.mapPointsWithStride(geo.positions(), vsize, 4);
SkRect devBounds;
// since we already computed the dev verts, set the bounds hint. This will help us avoid
// unnecessary clipping in our onDraw().
get_vertex_bounds(geo.vertices(), vsize, 4, &devBounds);
if (localOffset >= 0) {
GrPoint* coords = GrTCast<GrPoint*>(GrTCast<intptr_t>(geo.vertices()) + localOffset);
coords->setRectFan(localRect->fLeft, localRect->fTop,
localRect->fRight, localRect->fBottom,
vsize);
if (NULL != localMatrix) {
localMatrix->mapPointsWithStride(coords, vsize, 4);
}
}
if (colorOffset >= 0) {
GrColor* vertColor = GrTCast<GrColor*>(GrTCast<intptr_t>(geo.vertices()) + colorOffset);
for (int i = 0; i < 4; ++i) {
*vertColor = color;
vertColor = (GrColor*) ((intptr_t) vertColor + vsize);
}
}
this->setIndexSourceToBuffer(this->getContext()->getQuadIndexBuffer());
this->drawIndexedInstances(kTriangles_GrPrimitiveType, 1, 4, 6, &devBounds);
// to ensure that stashing the drawState ptr is valid
GrAssert(this->drawState() == drawState);
}
void GrInOrderDrawBuffer::drawRect(const GrRect& rect,
const SkMatrix* matrix,
const GrRect* srcRects[],
const SkMatrix* srcMatrices[]) {
GrAssert(!(NULL == fQuadIndexBuffer && fCurrQuad));
GrAssert(!(fDraws.empty() && fCurrQuad));
GrAssert(!(0 != fMaxQuads && NULL == fQuadIndexBuffer));
GrDrawState* drawState = this->drawState();
// if we have a quad IB then either append to the previous run of
// rects or start a new run
if (fMaxQuads) {
bool appendToPreviousDraw = false;
GrVertexLayout layout = GetRectVertexLayout(srcRects);
// Batching across colors means we move the draw color into the
// rect's vertex colors to allow greater batching (a lot of rects
// in a row differing only in color is a common occurence in tables).
bool batchAcrossColors = true;
if (!this->getCaps().dualSourceBlendingSupport()) {
for (int s = 0; s < GrDrawState::kNumStages; ++s) {
if (this->getDrawState().isStageEnabled(s)) {
// We disable batching across colors when there is a texture
// present because (by pushing the the color to the vertices)
// Ganesh loses track of the rect's opacity. This, in turn, can
// cause some of the blending optimizations to be disabled. This
// becomes a huge problem on some of the smaller devices where
// shader derivatives and dual source blending aren't supported.
// In those cases paths are often drawn to a texture and then
// drawn as a texture (using this method). Because dual source
// blending is disabled (and the blend optimizations are short
// circuited) some of the more esoteric blend modes can no longer
// be supported.
// TODO: add tracking of batchAcrossColors's opacity
batchAcrossColors = false;
break;
}
}
}
if (batchAcrossColors) {
layout |= GrDrawState::kColor_VertexLayoutBit;
}
AutoReleaseGeometry geo(this, layout, 4, 0);
if (!geo.succeeded()) {
GrPrintf("Failed to get space for vertices!\n");
return;
}
SkMatrix combinedMatrix = drawState->getViewMatrix();
// We go to device space so that matrix changes allow us to concat
// rect draws. When the caller has provided explicit source rects
// then we don't want to modify the stages' matrices. Otherwise
// we have to account for the view matrix change in the stage
// matrices.
uint32_t explicitCoordMask = 0;
if (srcRects) {
for (int s = 0; s < GrDrawState::kNumStages; ++s) {
if (srcRects[s]) {
explicitCoordMask |= (1 << s);
}
}
}
GrDrawState::AutoDeviceCoordDraw adcd(this->drawState(), explicitCoordMask);
if (!adcd.succeeded()) {
return;
}
if (NULL != matrix) {
combinedMatrix.preConcat(*matrix);
}
SetRectVertices(rect, &combinedMatrix, srcRects, srcMatrices,
this->getDrawState().getColor(), layout, geo.vertices());
// Now that the paint's color is stored in the vertices set it to
// white so that the following code can batch all the rects regardless
// of paint color
GrDrawState::AutoColorRestore acr(this->drawState(),
batchAcrossColors ? SK_ColorWHITE
: this->getDrawState().getColor());
// we don't want to miss an opportunity to batch rects together
// simply because the clip has changed if the clip doesn't affect
// the rect.
bool disabledClip = false;
if (drawState->isClipState()) {
GrRect devClipRect;
bool isIntersectionOfRects = false;
const GrClipData* clip = this->getClip();
clip->fClipStack->getConservativeBounds(-clip->fOrigin.fX,
-clip->fOrigin.fY,
drawState->getRenderTarget()->width(),
drawState->getRenderTarget()->height(),
&devClipRect,
&isIntersectionOfRects);
if (isIntersectionOfRects) {
// If the clip rect touches the edge of the viewport, extended it
// out (close) to infinity to avoid bogus intersections.
// We might consider a more exact clip to viewport if this
// conservative test fails.
const GrRenderTarget* target = drawState->getRenderTarget();
if (0 >= devClipRect.fLeft) {
devClipRect.fLeft = SK_ScalarMin;
}
if (target->width() <= devClipRect.fRight) {
devClipRect.fRight = SK_ScalarMax;
}
if (0 >= devClipRect.top()) {
devClipRect.fTop = SK_ScalarMin;
}
if (target->height() <= devClipRect.fBottom) {
devClipRect.fBottom = SK_ScalarMax;
}
int stride = GrDrawState::VertexSize(layout);
bool insideClip = true;
for (int v = 0; v < 4; ++v) {
const GrPoint& p = *GrDrawState::GetVertexPoint(geo.vertices(), v, stride);
if (!devClipRect.contains(p)) {
insideClip = false;
break;
}
}
if (insideClip) {
drawState->disableState(GrDrawState::kClip_StateBit);
disabledClip = true;
}
}
}
if (!this->needsNewClip() &&
!this->needsNewState() &&
fCurrQuad > 0 &&
fCurrQuad < fMaxQuads &&
layout == fLastRectVertexLayout) {
int vsize = GrDrawState::VertexSize(layout);
Draw& lastDraw = fDraws.back();
GrAssert(lastDraw.fIndexBuffer == fQuadIndexBuffer);
GrAssert(kTriangles_GrPrimitiveType == lastDraw.fPrimitiveType);
GrAssert(0 == lastDraw.fVertexCount % 4);
GrAssert(0 == lastDraw.fIndexCount % 6);
GrAssert(0 == lastDraw.fStartIndex);
GeometryPoolState& poolState = fGeoPoolStateStack.back();
appendToPreviousDraw =
kDraw_Cmd == fCmds.back() &&
lastDraw.fVertexBuffer == poolState.fPoolVertexBuffer &&
(fCurrQuad * 4 + lastDraw.fStartVertex) == poolState.fPoolStartVertex;
if (appendToPreviousDraw) {
lastDraw.fVertexCount += 4;
lastDraw.fIndexCount += 6;
fCurrQuad += 1;
// we reserved above, so we should be the first
// use of this vertex reservation.
GrAssert(0 == poolState.fUsedPoolVertexBytes);
poolState.fUsedPoolVertexBytes = 4 * vsize;
}
}
if (!appendToPreviousDraw) {
this->setIndexSourceToBuffer(fQuadIndexBuffer);
this->drawIndexed(kTriangles_GrPrimitiveType, 0, 0, 4, 6);
fCurrQuad = 1;
fLastRectVertexLayout = layout;
}
if (disabledClip) {
drawState->enableState(GrDrawState::kClip_StateBit);
}
fInstancedDrawTracker.reset();
} else {
INHERITED::drawRect(rect, matrix, srcRects, srcMatrices);
}
}
