bool GrSWMaskHelper::init(const GrIRect& pathDevBounds, const GrPoint* translate) {
fMatrix = fContext->getMatrix();
if (NULL != translate) {
fMatrix.postTranslate(translate->fX, translate->fY);
}
fMatrix.postTranslate(-pathDevBounds.fLeft * SK_Scalar1,
-pathDevBounds.fTop * SK_Scalar1);
GrIRect bounds = GrIRect::MakeWH(pathDevBounds.width(),
pathDevBounds.height());
fBM.setConfig(SkBitmap::kA8_Config, bounds.fRight, bounds.fBottom);
if (!fBM.allocPixels()) {
return false;
}
sk_bzero(fBM.getPixels(), fBM.getSafeSize());
sk_bzero(&fDraw, sizeof(fDraw));
fRasterClip.setRect(bounds);
fDraw.fRC = &fRasterClip;
fDraw.fClip = &fRasterClip.bwRgn();
fDraw.fMatrix = &fMatrix;
fDraw.fBitmap = &fBM;
return true;
}
bool GrSWMaskHelper::init(const SkIRect& resultBounds,
const SkMatrix* matrix) {
if (NULL != matrix) {
fMatrix = *matrix;
} else {
fMatrix.setIdentity();
}
// Now translate so the bound's UL corner is at the origin
fMatrix.postTranslate(-resultBounds.fLeft * SK_Scalar1,
-resultBounds.fTop * SK_Scalar1);
SkIRect bounds = SkIRect::MakeWH(resultBounds.width(),
resultBounds.height());
if (!fBM.allocPixels(SkImageInfo::MakeA8(bounds.fRight, bounds.fBottom))) {
return false;
}
sk_bzero(fBM.getPixels(), fBM.getSafeSize());
sk_bzero(&fDraw, sizeof(fDraw));
fRasterClip.setRect(bounds);
fDraw.fRC = &fRasterClip;
fDraw.fClip = &fRasterClip.bwRgn();
fDraw.fMatrix = &fMatrix;
fDraw.fBitmap = &fBM;
return true;
}
void init(int dirNo) {
fResult.init(dirNo);
fFoundCount = 0;
fSmallestError = 0;
sk_bzero(fFilesFound, sizeof(fFilesFound));
sk_bzero(fDirsFound, sizeof(fDirsFound));
sk_bzero(fError, sizeof(fError));
}
virtual void generateFontMetrics(SkPaint::FontMetrics* mx,
SkPaint::FontMetrics* my) {
if (mx) {
sk_bzero(mx, sizeof(*mx));
}
if (my) {
sk_bzero(my, sizeof(*my));
}
}
void init(int dirNo, skiatest::Reporter* reporter) {
fReporter = reporter;
fResult.init(dirNo);
fFoundCount = 0;
TestState::fSmallCount = 0;
fSmallestError = 0;
sk_bzero(fFilesFound, sizeof(fFilesFound));
sk_bzero(fDirsFound, sizeof(fDirsFound));
sk_bzero(fError, sizeof(fError));
}
SkTestFont::SkTestFont(const SkTestFontData& fontData)
: INHERITED()
, fCharCodes(fontData.fCharCodes)
, fCharCodesCount(fontData.fCharCodes ? fontData.fCharCodesCount : 0)
, fWidths(fontData.fWidths)
, fMetrics(fontData.fMetrics)
, fName(fontData.fName)
, fPaths(nullptr)
{
init(fontData.fPoints, fontData.fVerbs);
#ifdef SK_DEBUG
sk_bzero(fDebugBits, sizeof(fDebugBits));
sk_bzero(fDebugOverage, sizeof(fDebugOverage));
#endif
}
static void testLineIntersect(skiatest::Reporter* reporter, const SkDQuad& quad,
const SkDLine& line, const double x, const double y) {
char pathStr[1024];
sk_bzero(pathStr, sizeof(pathStr));
char* str = pathStr;
str += sprintf(str, " path.moveTo(%1.9g, %1.9g);\n", quad[0].fX, quad[0].fY);
str += sprintf(str, " path.quadTo(%1.9g, %1.9g, %1.9g, %1.9g);\n", quad[1].fX,
quad[1].fY, quad[2].fX, quad[2].fY);
str += sprintf(str, " path.moveTo(%1.9g, %1.9g);\n", line[0].fX, line[0].fY);
str += sprintf(str, " path.lineTo(%1.9g, %1.9g);\n", line[1].fX, line[1].fY);
SkIntersections intersections;
bool flipped = false;
int result = doIntersect(intersections, quad, line, flipped);
bool found = false;
for (int index = 0; index < result; ++index) {
double quadT = intersections[0][index];
SkDPoint quadXY = quad.ptAtT(quadT);
double lineT = intersections[1][index];
SkDPoint lineXY = line.ptAtT(lineT);
if (quadXY.approximatelyEqual(lineXY)) {
found = true;
}
}
REPORTER_ASSERT(reporter, found);
}
sk_sp<GrTextBlob> GrTextBlob::Make(int glyphCount, int runCount) {
// We allocate size for the GrTextBlob itself, plus size for the vertices array,
// and size for the glyphIds array.
size_t verticesCount = glyphCount * kVerticesPerGlyph * kMaxVASize;
size_t blob = 0;
size_t vertex = sk_align<alignof(char)> (blob + sizeof(GrTextBlob) * 1);
size_t glyphs = sk_align<alignof(GrGlyph*)> (vertex + sizeof(char) * verticesCount);
size_t runs = sk_align<alignof(GrTextBlob::Run)>(glyphs + sizeof(GrGlyph*) * glyphCount);
size_t size = (runs + sizeof(GrTextBlob::Run) * runCount);
void* allocation = ::operator new (size);
if (CACHE_SANITY_CHECK) {
sk_bzero(allocation, size);
}
sk_sp<GrTextBlob> cacheBlob(new (allocation) GrTextBlob);
cacheBlob->fSize = size;
// setup offsets for vertices / glyphs
cacheBlob->fVertices = SkTAddOffset<char>(cacheBlob.get(), vertex);
cacheBlob->fGlyphs = SkTAddOffset<GrGlyph*>(cacheBlob.get(), glyphs);
cacheBlob->fRuns = SkTAddOffset<GrTextBlob::Run>(cacheBlob.get(), runs);
// Initialize runs
for (int i = 0; i < runCount; i++) {
new (&cacheBlob->fRuns[i]) GrTextBlob::Run;
}
cacheBlob->fRunCount = runCount;
return cacheBlob;
}
void SkTypefacePlayback::setCount(int count) {
this->reset(nullptr);
fCount = count;
fArray = new SkRefCnt* [count];
sk_bzero(fArray, count * sizeof(SkRefCnt*));
}
/*
* Return a valid set of output dimensions for this decoder, given an input scale
*/
SkISize SkJpegCodec::onGetScaledDimensions(float desiredScale) const {
// libjpeg supports scaling by 1/1, 1/2, 1/4, and 1/8, so we will support these as well
long scale;
if (desiredScale > 0.75f) {
scale = 1;
} else if (desiredScale > 0.375f) {
scale = 2;
} else if (desiredScale > 0.1875f) {
scale = 4;
} else {
scale = 8;
}
// Set up a fake decompress struct in order to use libjpeg to calculate output dimensions
jpeg_decompress_struct dinfo;
sk_bzero(&dinfo, sizeof(dinfo));
dinfo.image_width = this->getInfo().width();
dinfo.image_height = this->getInfo().height();
dinfo.global_state = DSTATE_READY;
dinfo.num_components = 0;
dinfo.scale_num = 1;
dinfo.scale_denom = scale;
jpeg_calc_output_dimensions(&dinfo);
// Return the calculated output dimensions for the given scale
return SkISize::Make(dinfo.output_width, dinfo.output_height);
}
static void test_font(skiatest::Reporter* reporter) {
uint32_t flags = 0;
SkAutoTUnref<SkFont> font(SkFont::Create(nullptr, 24, SkFont::kA8_MaskType, flags));
REPORTER_ASSERT(reporter, font->getTypeface());
REPORTER_ASSERT(reporter, 24 == font->getSize());
REPORTER_ASSERT(reporter, 1 == font->getScaleX());
REPORTER_ASSERT(reporter, 0 == font->getSkewX());
REPORTER_ASSERT(reporter, SkFont::kA8_MaskType == font->getMaskType());
uint16_t glyphs[5];
sk_bzero(glyphs, sizeof(glyphs));
int count = font->textToGlyphs("Hello", 5, kUTF8_SkTextEncoding, glyphs, SK_ARRAY_COUNT(glyphs));
REPORTER_ASSERT(reporter, 5 == count);
for (int i = 0; i < count; ++i) {
REPORTER_ASSERT(reporter, 0 != glyphs[i]);
}
REPORTER_ASSERT(reporter, glyphs[0] != glyphs[1]); // 'h' != 'e'
REPORTER_ASSERT(reporter, glyphs[2] == glyphs[3]); // 'l' == 'l'
SkAutoTUnref<SkFont> newFont(font->cloneWithSize(36));
REPORTER_ASSERT(reporter, newFont.get());
REPORTER_ASSERT(reporter, font->getTypeface() == newFont->getTypeface());
REPORTER_ASSERT(reporter, 36 == newFont->getSize()); // double check we haven't changed
REPORTER_ASSERT(reporter, 24 == font->getSize()); // double check we haven't changed
SkPaint paint;
paint.setTextSize(18);
font.reset(SkFont::Testing_CreateFromPaint(paint));
REPORTER_ASSERT(reporter, font.get());
REPORTER_ASSERT(reporter, font->getSize() == paint.getTextSize());
REPORTER_ASSERT(reporter, SkFont::kBW_MaskType == font->getMaskType());
}
static void testSimplifyQuadralateralsMain(PathOpsThreadState* data)
{
SkASSERT(data);
PathOpsThreadState& state = *data;
char pathStr[1024];
sk_bzero(pathStr, sizeof(pathStr));
int ax = state.fA & 0x03;
int ay = state.fA >> 2;
int bx = state.fB & 0x03;
int by = state.fB >> 2;
int cx = state.fC & 0x03;
int cy = state.fC >> 2;
int dx = state.fD & 0x03;
int dy = state.fD >> 2;
for (int e = 0 ; e < 16; ++e) {
int ex = e & 0x03;
int ey = e >> 2;
for (int f = e ; f < 16; ++f) {
int fx = f & 0x03;
int fy = f >> 2;
for (int g = f ; g < 16; ++g) {
int gx = g & 0x03;
int gy = g >> 2;
for (int h = g ; h < 16; ++h) {
int hx = h & 0x03;
int hy = h >> 2;
SkPath path, out;
path.setFillType(SkPath::kWinding_FillType);
path.moveTo(SkIntToScalar(ax), SkIntToScalar(ay));
path.lineTo(SkIntToScalar(bx), SkIntToScalar(by));
path.lineTo(SkIntToScalar(cx), SkIntToScalar(cy));
path.lineTo(SkIntToScalar(dx), SkIntToScalar(dy));
path.close();
path.moveTo(SkIntToScalar(ex), SkIntToScalar(ey));
path.lineTo(SkIntToScalar(fx), SkIntToScalar(fy));
path.lineTo(SkIntToScalar(gx), SkIntToScalar(gy));
path.lineTo(SkIntToScalar(hx), SkIntToScalar(hy));
path.close();
// gdb: set print elements 400
char* str = pathStr;
str += sprintf(str, " path.moveTo(%d, %d);\n", ax, ay);
str += sprintf(str, " path.lineTo(%d, %d);\n", bx, by);
str += sprintf(str, " path.lineTo(%d, %d);\n", cx, cy);
str += sprintf(str, " path.lineTo(%d, %d);\n", dx, dy);
str += sprintf(str, " path.close();\n");
str += sprintf(str, " path.moveTo(%d, %d);\n", ex, ey);
str += sprintf(str, " path.lineTo(%d, %d);\n", fx, fy);
str += sprintf(str, " path.lineTo(%d, %d);\n", gx, gy);
str += sprintf(str, " path.lineTo(%d, %d);\n", hx, hy);
str += sprintf(str, " path.close();\n");
outputProgress(state.fPathStr, pathStr, SkPath::kWinding_FillType);
testSimplify(path, false, out, state, pathStr);
path.setFillType(SkPath::kEvenOdd_FillType);
outputProgress(state.fPathStr, pathStr, SkPath::kEvenOdd_FillType);
testSimplify(path, true, out, state, pathStr);
}
}
}
}
}
virtual int onCharsToGlyphs(const void* chars, Encoding encoding,
uint16_t glyphs[], int glyphCount) const override {
if (glyphs && glyphCount > 0) {
sk_bzero(glyphs, glyphCount * sizeof(glyphs[0]));
}
return 0;
}
static void copyToMask(const SkRegion& rgn, SkMask* mask) {
mask->fFormat = SkMask::kA8_Format;
if (rgn.isEmpty()) {
mask->fBounds.setEmpty();
mask->fRowBytes = 0;
mask->fImage = nullptr;
return;
}
mask->fBounds = rgn.getBounds();
mask->fRowBytes = mask->fBounds.width();
mask->fImage = SkMask::AllocImage(mask->computeImageSize());
sk_bzero(mask->fImage, mask->computeImageSize());
SkImageInfo info = SkImageInfo::Make(mask->fBounds.width(),
mask->fBounds.height(),
kAlpha_8_SkColorType,
kPremul_SkAlphaType);
SkBitmap bitmap;
bitmap.installPixels(info, mask->fImage, mask->fRowBytes);
// canvas expects its coordinate system to always be 0,0 in the top/left
// so we translate the rgn to match that before drawing into the mask.
//
SkRegion tmpRgn(rgn);
tmpRgn.translate(-rgn.getBounds().fLeft, -rgn.getBounds().fTop);
SkCanvas canvas(bitmap);
canvas.clipRegion(tmpRgn);
canvas.drawColor(SK_ColorBLACK);
}
// We use this static factory function instead of the regular constructor so
// that we can create the pixel data before calling the constructor. This is
// required so that we can call the base class' constructor with the pixel
// data.
static bool Create(int width, int height, bool is_opaque, SkRasterHandleAllocator::Rec* rec) {
BITMAPINFOHEADER hdr = { 0 };
hdr.biSize = sizeof(BITMAPINFOHEADER);
hdr.biWidth = width;
hdr.biHeight = -height; // Minus means top-down bitmap.
hdr.biPlanes = 1;
hdr.biBitCount = 32;
hdr.biCompression = BI_RGB; // No compression.
hdr.biSizeImage = 0;
hdr.biXPelsPerMeter = 1;
hdr.biYPelsPerMeter = 1;
void* pixels;
HBITMAP hbitmap = CreateDIBSection(nullptr, (const BITMAPINFO*)&hdr, 0, &pixels, 0, 0);
if (!hbitmap) {
return false;
}
size_t row_bytes = width * sizeof(SkPMColor);
sk_bzero(pixels, row_bytes * height);
HDC hdc = CreateCompatibleDC(nullptr);
if (!hdc) {
DeleteObject(hbitmap);
return false;
}
SetGraphicsMode(hdc, GM_ADVANCED);
SelectObject(hdc, hbitmap);
rec->fReleaseProc = DeleteHDCCallback;
rec->fReleaseCtx = hdc;
rec->fPixels = pixels;
rec->fRowBytes = row_bytes;
rec->fHandle = hdc;
return true;
}
GrAtlasTextBlob* GrAtlasTextBlob::Create(GrMemoryPool* pool, int glyphCount, int runCount) {
// We allocate size for the GrAtlasTextBlob itself, plus size for the vertices array,
// and size for the glyphIds array.
size_t verticesCount = glyphCount * kVerticesPerGlyph * kMaxVASize;
size_t size = sizeof(GrAtlasTextBlob) +
verticesCount +
glyphCount * sizeof(GrGlyph**) +
sizeof(GrAtlasTextBlob::Run) * runCount;
void* allocation = pool->allocate(size);
if (CACHE_SANITY_CHECK) {
sk_bzero(allocation, size);
}
GrAtlasTextBlob* cacheBlob = new (allocation) GrAtlasTextBlob;
cacheBlob->fSize = size;
// setup offsets for vertices / glyphs
cacheBlob->fVertices = sizeof(GrAtlasTextBlob) + reinterpret_cast<unsigned char*>(cacheBlob);
cacheBlob->fGlyphs = reinterpret_cast<GrGlyph**>(cacheBlob->fVertices + verticesCount);
cacheBlob->fRuns = reinterpret_cast<GrAtlasTextBlob::Run*>(cacheBlob->fGlyphs + glyphCount);
// Initialize runs
for (int i = 0; i < runCount; i++) {
new (&cacheBlob->fRuns[i]) GrAtlasTextBlob::Run;
}
cacheBlob->fRunCount = runCount;
cacheBlob->fPool = pool;
return cacheBlob;
}
void SkMatrix44::setScale(SkMScalar sx, SkMScalar sy, SkMScalar sz) {
sk_bzero(fMat, sizeof(fMat));
fMat[0][0] = sx;
fMat[1][1] = sy;
fMat[2][2] = sz;
fMat[3][3] = 1;
}
SkGPipeCanvas::SkGPipeCanvas(SkGPipeController* controller,
SkWriter32* writer, uint32_t flags,
uint32_t width, uint32_t height)
: SkCanvas(width, height)
, fFactorySet(is_cross_process(flags) ? SkNEW(SkNamedFactorySet) : NULL)
, fWriter(*writer)
, fFlags(flags)
, fFlattenableHeap(FLATTENABLES_TO_KEEP, fFactorySet, is_cross_process(flags))
, fFlatDictionary(&fFlattenableHeap)
{
fController = controller;
fDone = false;
fBlockSize = 0; // need first block from controller
fBytesNotified = 0;
sk_bzero(fCurrFlatIndex, sizeof(fCurrFlatIndex));
// Tell the reader the appropriate flags to use.
if (this->needOpBytes()) {
this->writeOp(kReportFlags_DrawOp, fFlags, 0);
}
if (shouldFlattenBitmaps(flags)) {
fBitmapShuttle.reset(SkNEW_ARGS(BitmapShuttle, (this)));
fBitmapHeap = SkNEW_ARGS(SkBitmapHeap, (fBitmapShuttle.get(), BITMAPS_TO_KEEP));
} else {
fBitmapHeap = SkNEW_ARGS(SkBitmapHeap,
(BITMAPS_TO_KEEP, controller->numberOfReaders()));
if (this->needOpBytes(sizeof(void*))) {
this->writeOp(kShareBitmapHeap_DrawOp);
fWriter.writePtr(static_cast<void*>(fBitmapHeap));
}
}
fFlattenableHeap.setBitmapStorage(fBitmapHeap);
this->doNotify();
}
/*
* Return a valid set of output dimensions for this decoder, given an input scale
*/
SkISize SkJpegCodec::onGetScaledDimensions(float desiredScale) const {
// libjpeg-turbo supports scaling by 1/8, 1/4, 3/8, 1/2, 5/8, 3/4, 7/8, and 1/1, so we will
// support these as well
unsigned int num;
unsigned int denom = 8;
if (desiredScale >= 0.9375) {
num = 8;
} else if (desiredScale >= 0.8125) {
num = 7;
} else if (desiredScale >= 0.6875f) {
num = 6;
} else if (desiredScale >= 0.5625f) {
num = 5;
} else if (desiredScale >= 0.4375f) {
num = 4;
} else if (desiredScale >= 0.3125f) {
num = 3;
} else if (desiredScale >= 0.1875f) {
num = 2;
} else {
num = 1;
}
// Set up a fake decompress struct in order to use libjpeg to calculate output dimensions
jpeg_decompress_struct dinfo;
sk_bzero(&dinfo, sizeof(dinfo));
dinfo.image_width = this->getInfo().width();
dinfo.image_height = this->getInfo().height();
dinfo.global_state = fReadyState;
calc_output_dimensions(&dinfo, num, denom);
// Return the calculated output dimensions for the given scale
return SkISize::Make(dinfo.output_width, dinfo.output_height);
}
DEF_TEST(WriteBuffer_storage, reporter) {
enum {
kSize = 32
};
int32_t storage[kSize/4];
char src[kSize];
sk_bzero(src, kSize);
SkBinaryWriteBuffer writer(storage, kSize);
REPORTER_ASSERT(reporter, writer.usingInitialStorage());
REPORTER_ASSERT(reporter, writer.bytesWritten() == 0);
writer.write(src, kSize - 4);
REPORTER_ASSERT(reporter, writer.usingInitialStorage());
REPORTER_ASSERT(reporter, writer.bytesWritten() == kSize - 4);
writer.writeInt(0);
REPORTER_ASSERT(reporter, writer.usingInitialStorage());
REPORTER_ASSERT(reporter, writer.bytesWritten() == kSize);
writer.reset(storage, kSize-4);
REPORTER_ASSERT(reporter, writer.usingInitialStorage());
REPORTER_ASSERT(reporter, writer.bytesWritten() == 0);
writer.write(src, kSize - 4);
REPORTER_ASSERT(reporter, writer.usingInitialStorage());
REPORTER_ASSERT(reporter, writer.bytesWritten() == kSize - 4);
writer.writeInt(0);
REPORTER_ASSERT(reporter, !writer.usingInitialStorage()); // this is the change
REPORTER_ASSERT(reporter, writer.bytesWritten() == kSize);
}
bool testSimplify(SkPath& path, bool useXor, SkPath& out, PathOpsThreadState& state,
const char* pathStr) {
SkPath::FillType fillType = useXor ? SkPath::kEvenOdd_FillType : SkPath::kWinding_FillType;
path.setFillType(fillType);
state.fReporter->bumpTestCount();
if (!Simplify(path, &out)) {
SkDebugf("%s did not expect failure\n", __FUNCTION__);
REPORTER_ASSERT(state.fReporter, 0);
return false;
}
if (!state.fReporter->verbose()) {
return true;
}
int result = comparePaths(state.fReporter, nullptr, path, out, *state.fBitmap);
if (result) {
SkAutoMutexAcquire autoM(simplifyDebugOut);
char temp[8192];
sk_bzero(temp, sizeof(temp));
SkMemoryWStream stream(temp, sizeof(temp));
const char* pathPrefix = nullptr;
const char* nameSuffix = nullptr;
if (fillType == SkPath::kEvenOdd_FillType) {
pathPrefix = " path.setFillType(SkPath::kEvenOdd_FillType);\n";
nameSuffix = "x";
}
const char testFunction[] = "testSimplify(reporter, path);";
outputToStream(pathStr, pathPrefix, nameSuffix, testFunction, false, stream);
SkDebugf("%s", temp);
REPORTER_ASSERT(state.fReporter, 0);
}
state.fReporter->bumpTestCount();
return result == 0;
}
bool GrSWMaskHelper::init(const SkIRect& resultBounds,
const SkMatrix* matrix) {
if (NULL != matrix) {
fMatrix = *matrix;
} else {
fMatrix.setIdentity();
}
// Now translate so the bound's UL corner is at the origin
fMatrix.postTranslate(-resultBounds.fLeft * SK_Scalar1,
-resultBounds.fTop * SK_Scalar1);
SkIRect bounds = SkIRect::MakeWH(resultBounds.width(),
resultBounds.height());
#if GR_COMPRESS_ALPHA_MASK
fCompressMask = choose_compressed_fmt(fContext->getGpu()->caps(), &fCompressedFormat);
#else
fCompressMask = false;
#endif
// Make sure that the width is a multiple of 16 so that we can use
// specialized SIMD instructions that compress 4 blocks at a time.
int cmpWidth, cmpHeight;
if (fCompressMask) {
int dimX, dimY;
SkTextureCompressor::GetBlockDimensions(fCompressedFormat, &dimX, &dimY);
cmpWidth = dimX * ((bounds.fRight + (dimX - 1)) / dimX);
cmpHeight = dimY * ((bounds.fBottom + (dimY - 1)) / dimY);
} else {
cmpWidth = bounds.fRight;
cmpHeight = bounds.fBottom;
}
if (!fBM.allocPixels(SkImageInfo::MakeA8(cmpWidth, cmpHeight))) {
return false;
}
sk_bzero(fBM.getPixels(), fBM.getSafeSize());
sk_bzero(&fDraw, sizeof(fDraw));
fRasterClip.setRect(bounds);
fDraw.fRC = &fRasterClip;
fDraw.fClip = &fRasterClip.bwRgn();
fDraw.fMatrix = &fMatrix;
fDraw.fBitmap = &fBM;
return true;
}
void SkScalerContext_DW::generateFontMetrics(SkPaint::FontMetrics* metrics) {
if (NULL == metrics) {
return;
}
sk_bzero(metrics, sizeof(*metrics));
DWRITE_FONT_METRICS dwfm;
if (DWRITE_MEASURING_MODE_GDI_CLASSIC == fMeasuringMode ||
DWRITE_MEASURING_MODE_GDI_NATURAL == fMeasuringMode)
{
fTypeface->fDWriteFontFace->GetGdiCompatibleMetrics(
fTextSizeRender,
1.0f, // pixelsPerDip
&fXform,
&dwfm);
} else {
fTypeface->fDWriteFontFace->GetMetrics(&dwfm);
}
SkScalar upem = SkIntToScalar(dwfm.designUnitsPerEm);
metrics->fAscent = -fTextSizeRender * SkIntToScalar(dwfm.ascent) / upem;
metrics->fDescent = fTextSizeRender * SkIntToScalar(dwfm.descent) / upem;
metrics->fLeading = fTextSizeRender * SkIntToScalar(dwfm.lineGap) / upem;
metrics->fXHeight = fTextSizeRender * SkIntToScalar(dwfm.xHeight) / upem;
metrics->fUnderlineThickness = fTextSizeRender * SkIntToScalar(dwfm.underlineThickness) / upem;
metrics->fUnderlinePosition = -(fTextSizeRender * SkIntToScalar(dwfm.underlinePosition) / upem);
metrics->fFlags |= SkPaint::FontMetrics::kUnderlineThinknessIsValid_Flag;
metrics->fFlags |= SkPaint::FontMetrics::kUnderlinePositionIsValid_Flag;
if (fTypeface->fDWriteFontFace1.get()) {
DWRITE_FONT_METRICS1 dwfm1;
fTypeface->fDWriteFontFace1->GetMetrics(&dwfm1);
metrics->fTop = -fTextSizeRender * SkIntToScalar(dwfm1.glyphBoxTop) / upem;
metrics->fBottom = -fTextSizeRender * SkIntToScalar(dwfm1.glyphBoxBottom) / upem;
metrics->fXMin = fTextSizeRender * SkIntToScalar(dwfm1.glyphBoxLeft) / upem;
metrics->fXMax = fTextSizeRender * SkIntToScalar(dwfm1.glyphBoxRight) / upem;
metrics->fMaxCharWidth = metrics->fXMax - metrics->fXMin;
} else {
AutoTDWriteTable<SkOTTableHead> head(fTypeface->fDWriteFontFace.get());
if (head.fExists &&
head.fSize >= sizeof(SkOTTableHead) &&
head->version == SkOTTableHead::version1)
{
metrics->fTop = -fTextSizeRender * (int16_t)SkEndian_SwapBE16(head->yMax) / upem;
metrics->fBottom = -fTextSizeRender * (int16_t)SkEndian_SwapBE16(head->yMin) / upem;
metrics->fXMin = fTextSizeRender * (int16_t)SkEndian_SwapBE16(head->xMin) / upem;
metrics->fXMax = fTextSizeRender * (int16_t)SkEndian_SwapBE16(head->xMax) / upem;
metrics->fMaxCharWidth = metrics->fXMax - metrics->fXMin;
} else {
metrics->fTop = metrics->fAscent;
metrics->fBottom = metrics->fDescent;
}
}
}
static void testSimplifyDegeneratesMain(PathOpsThreadState* data) {
SkASSERT(data);
PathOpsThreadState& state = *data;
char pathStr[1024];
bool progress = state.fReporter->verbose(); // FIXME: break out into its own parameter?
if (progress) {
sk_bzero(pathStr, sizeof(pathStr));
}
int ax = state.fA & 0x03;
int ay = state.fA >> 2;
int bx = state.fB & 0x03;
int by = state.fB >> 2;
int cx = state.fC & 0x03;
int cy = state.fC >> 2;
for (int d = 0; d < 16; ++d) {
int dx = d & 0x03;
int dy = d >> 2;
for (int e = d ; e < 16; ++e) {
int ex = e & 0x03;
int ey = e >> 2;
for (int f = d ; f < 16; ++f) {
int fx = f & 0x03;
int fy = f >> 2;
if (state.fD && (ex - dx) * (fy - dy)
!= (ey - dy) * (fx - dx)) {
continue;
}
SkPath path, out;
path.setFillType(SkPath::kWinding_FillType);
path.moveTo(SkIntToScalar(ax), SkIntToScalar(ay));
path.lineTo(SkIntToScalar(bx), SkIntToScalar(by));
path.lineTo(SkIntToScalar(cx), SkIntToScalar(cy));
path.close();
path.moveTo(SkIntToScalar(dx), SkIntToScalar(dy));
path.lineTo(SkIntToScalar(ex), SkIntToScalar(ey));
path.lineTo(SkIntToScalar(fx), SkIntToScalar(fy));
path.close();
if (progress) {
char* str = pathStr;
str += sprintf(str, " path.moveTo(%d, %d);\n", ax, ay);
str += sprintf(str, " path.lineTo(%d, %d);\n", bx, by);
str += sprintf(str, " path.lineTo(%d, %d);\n", cx, cy);
str += sprintf(str, " path.close();\n");
str += sprintf(str, " path.moveTo(%d, %d);\n", dx, dy);
str += sprintf(str, " path.lineTo(%d, %d);\n", ex, ey);
str += sprintf(str, " path.lineTo(%d, %d);\n", fx, fy);
str += sprintf(str, " path.close();\n");
outputProgress(state.fPathStr, pathStr, SkPath::kWinding_FillType);
}
testSimplify(path, false, out, state, pathStr);
path.setFillType(SkPath::kEvenOdd_FillType);
if (progress) {
outputProgress(state.fPathStr, pathStr, SkPath::kEvenOdd_FillType);
}
testSimplify(path, true, out, state, pathStr);
}
}
}
}
SkTextureCache::SkTextureCache(size_t countMax, size_t sizeMax)
: fHead(NULL), fTail(NULL),
fTexCountMax(countMax), fTexSizeMax(sizeMax),
fTexCount(0), fTexSize(0) {
sk_bzero(fHash, sizeof(fHash));
this->validate();
}
int SkTypeface::onCharsToGlyphs(const void* chars, Encoding encoding,
uint16_t glyphs[], int glyphCount) const {
SkDebugf("onCharsToGlyphs unimplemented\n");
if (glyphs && glyphCount > 0) {
sk_bzero(glyphs, glyphCount * sizeof(glyphs[0]));
}
return 0;
}
static void testPathOpsRectsMain(PathOpsThreadState* data)
{
SkASSERT(data);
PathOpsThreadState& state = *data;
char pathStr[1024]; // gdb: set print elements 400
bool progress = state.fReporter->verbose(); // FIXME: break out into its own parameter?
if (progress) {
sk_bzero(pathStr, sizeof(pathStr));
}
for (int a = 0 ; a < 6; ++a) {
for (int b = a + 1 ; b < 7; ++b) {
for (int c = 0 ; c < 6; ++c) {
for (int d = c + 1 ; d < 7; ++d) {
for (int e = SkPath::kWinding_FillType ; e <= SkPath::kEvenOdd_FillType; ++e) {
for (int f = SkPath::kWinding_FillType ; f <= SkPath::kEvenOdd_FillType; ++f) {
if (progress) {
char* str = pathStr;
str += sprintf(str, " path.setFillType(SkPath::k%s_FillType);\n",
e == SkPath::kWinding_FillType ? "Winding" : e == SkPath::kEvenOdd_FillType
? "EvenOdd" : "?UNDEFINED");
str += sprintf(str, " path.addRect(%d, %d, %d, %d,"
" SkPath::kCW_Direction);\n", state.fA, state.fA, state.fB, state.fB);
str += sprintf(str, " path.addRect(%d, %d, %d, %d,"
" SkPath::kCW_Direction);\n", state.fC, state.fC, state.fD, state.fD);
str += sprintf(str, " pathB.setFillType(SkPath::k%s_FillType);\n",
f == SkPath::kWinding_FillType ? "Winding" : f == SkPath::kEvenOdd_FillType
? "EvenOdd" : "?UNDEFINED");
str += sprintf(str, " pathB.addRect(%d, %d, %d, %d,"
" SkPath::kCW_Direction);\n", a, a, b, b);
str += sprintf(str, " pathB.addRect(%d, %d, %d, %d,"
" SkPath::kCW_Direction);\n", c, c, d, d);
}
SkPath pathA, pathB;
pathA.setFillType((SkPath::FillType) e);
pathA.addRect(SkIntToScalar(state.fA), SkIntToScalar(state.fA), SkIntToScalar(state.fB),
SkIntToScalar(state.fB), SkPath::kCW_Direction);
pathA.addRect(SkIntToScalar(state.fC), SkIntToScalar(state.fC), SkIntToScalar(state.fD),
SkIntToScalar(state.fD), SkPath::kCW_Direction);
pathA.close();
pathB.setFillType((SkPath::FillType) f);
pathB.addRect(SkIntToScalar(a), SkIntToScalar(a), SkIntToScalar(b),
SkIntToScalar(b), SkPath::kCW_Direction);
pathB.addRect(SkIntToScalar(c), SkIntToScalar(c), SkIntToScalar(d),
SkIntToScalar(d), SkPath::kCW_Direction);
pathB.close();
for (int op = 0 ; op <= kXOR_PathOp; ++op) {
if (progress) {
outputProgress(state.fPathStr, pathStr, (SkPathOp) op);
}
testThreadedPathOp(state.fReporter, pathA, pathB, (SkPathOp) op, "rects");
}
}
}
}
}
}
}
}
static void testOpLoopsMain(PathOpsThreadState* data) {
#if DEBUG_SHOW_TEST_NAME
strncpy(DEBUG_FILENAME_STRING, "", DEBUG_FILENAME_STRING_LENGTH);
#endif
SkASSERT(data);
PathOpsThreadState& state = *data;
char pathStr[1024]; // gdb: set print elements 400
bool progress = state.fReporter->verbose(); // FIXME: break out into its own parameter?
if (progress) {
sk_bzero(pathStr, sizeof(pathStr));
}
for (int a = 0 ; a < 6; ++a) {
for (int b = a + 1 ; b < 7; ++b) {
for (int c = 0 ; c < 6; ++c) {
for (int d = c + 1 ; d < 7; ++d) {
// define 4 points that form two lines that often cross; one line is (a, b) (c, d)
SkVector v = {SkIntToScalar(a - c), SkIntToScalar(b - d)};
SkPoint midA = { SkIntToScalar(a * state.fA + c * (6 - state.fA)) / 6,
SkIntToScalar(b * state.fA + d * (6 - state.fA)) / 6
};
SkPoint midB = { SkIntToScalar(a * state.fB + c * (6 - state.fB)) / 6,
SkIntToScalar(b * state.fB + d * (6 - state.fB)) / 6
};
SkPoint endC = { midA.fX + v.fY * state.fC / 3,
midA.fY + v.fX * state.fC / 3
};
SkPoint endD = { midB.fX - v.fY * state.fD / 3,
midB.fY + v.fX * state.fD / 3
};
SkPath pathA, pathB;
if (progress) {
char* str = pathStr;
str += sprintf(str, " path.moveTo(%d,%d);\n", a, b);
str += sprintf(str, " path.cubicTo(%d,%d, %1.9gf,%1.9gf, %1.9gf,%1.9gf);\n",
c, d, endC.fX, endC.fY, endD.fX, endD.fY);
str += sprintf(str, " path.close();\n");
str += sprintf(str, " pathB.moveTo(%d,%d);\n", c, d);
str += sprintf(str, " pathB.cubicTo(%1.9gf,%1.9gf, %1.9gf,%1.9gf, %d,%d);\n",
endC.fX, endC.fY, endD.fX, endD.fY, a, b);
str += sprintf(str, " pathB.close();\n");
}
pathA.moveTo(SkIntToScalar(a), SkIntToScalar(b));
pathA.cubicTo(SkIntToScalar(c), SkIntToScalar(d), endC.fX, endC.fY, endD.fX, endD.fY);
pathA.close();
pathB.moveTo(SkIntToScalar(c), SkIntToScalar(d));
pathB.cubicTo(endC.fX, endC.fY, endD.fX, endD.fY, SkIntToScalar(a), SkIntToScalar(b));
pathB.close();
// SkDebugf("%s\n", pathStr);
if (progress) {
outputProgress(state.fPathStr, pathStr, kIntersect_PathOp);
}
testThreadedPathOp(state.fReporter, pathA, pathB, kIntersect_PathOp, "loops");
}
}
}
}
}
void SkMatrix44::set3x3(SkMScalar m00, SkMScalar m01, SkMScalar m02,
SkMScalar m10, SkMScalar m11, SkMScalar m12,
SkMScalar m20, SkMScalar m21, SkMScalar m22) {
sk_bzero(fMat, sizeof(fMat));
fMat[0][0] = m00; fMat[0][1] = m01; fMat[0][2] = m02; fMat[0][3] = 0;
fMat[1][0] = m10; fMat[1][1] = m11; fMat[1][2] = m12; fMat[1][3] = 0;
fMat[2][0] = m20; fMat[2][1] = m21; fMat[2][2] = m22; fMat[2][3] = 0;
fMat[3][0] = 0; fMat[3][1] = 0; fMat[3][2] = 0; fMat[3][3] = 1;
}
void onDraw(SkCanvas* canvas) override {
drawJpeg(canvas, this->getISize());
canvas->scale(2, 2);
static const char* kLabel1 = "Original Img";
static const char* kLabel2 = "Modified Img";
static const char* kLabel3 = "Cur Surface";
static const char* kLabel4 = "Full Crop";
static const char* kLabel5 = "Over-crop";
static const char* kLabel6 = "Upper-left";
static const char* kLabel7 = "No Crop";
static const char* kLabel8 = "Pre-Alloc Img";
static const char* kLabel9 = "New Alloc Img";
static const char* kLabel10 = "GPU";
SkPaint textPaint;
textPaint.setAntiAlias(true);
sk_tool_utils::set_portable_typeface(&textPaint);
textPaint.setTextSize(8);
canvas->drawText(kLabel1, strlen(kLabel1), 10, 60, textPaint);
canvas->drawText(kLabel2, strlen(kLabel2), 10, 140, textPaint);
canvas->drawText(kLabel3, strlen(kLabel3), 10, 220, textPaint);
canvas->drawText(kLabel4, strlen(kLabel4), 10, 300, textPaint);
canvas->drawText(kLabel5, strlen(kLabel5), 10, 380, textPaint);
canvas->drawText(kLabel6, strlen(kLabel6), 10, 460, textPaint);
canvas->drawText(kLabel7, strlen(kLabel7), 10, 540, textPaint);
canvas->drawText(kLabel8, strlen(kLabel8), 80, 10, textPaint);
canvas->drawText(kLabel9, strlen(kLabel9), 160, 10, textPaint);
canvas->drawText(kLabel10, strlen(kLabel10), 265, 10, textPaint);
canvas->translate(80, 20);
// since we draw into this directly, we need to start fresh
sk_bzero(fBuffer, fBufferSize);
SkImageInfo info = SkImageInfo::MakeN32Premul(W, H);
SkAutoTUnref<SkSurface> surf0(SkSurface::NewRasterDirect(info, fBuffer, RB));
SkAutoTUnref<SkSurface> surf1(SkSurface::NewRaster(info));
SkAutoTUnref<SkSurface> surf2; // gpu
#if SK_SUPPORT_GPU
surf2.reset(SkSurface::NewRenderTarget(canvas->getGrContext(),
SkSurface::kNo_Budgeted, info));
#endif
test_surface(canvas, surf0, true);
canvas->translate(80, 0);
test_surface(canvas, surf1, true);
if (surf2) {
canvas->translate(80, 0);
test_surface(canvas, surf2, true);
}
}
