| Index: src/pathops/SkPathWriter.cpp
 | 
| diff --git a/src/pathops/SkPathWriter.cpp b/src/pathops/SkPathWriter.cpp
 | 
| index bd8c72134c1cef41e492927a37b9d4550d49afd4..2c3391bb44c521a615f36fd42de766be335bc28f 100644
 | 
| --- a/src/pathops/SkPathWriter.cpp
 | 
| +++ b/src/pathops/SkPathWriter.cpp
 | 
| @@ -4,181 +4,356 @@
 | 
|   * Use of this source code is governed by a BSD-style license that can be
 | 
|   * found in the LICENSE file.
 | 
|   */
 | 
| +#include "SkOpSpan.h"
 | 
|  #include "SkPathOpsPoint.h"
 | 
|  #include "SkPathWriter.h"
 | 
| +#include "SkTSort.h"
 | 
|  
 | 
|  // wrap path to keep track of whether the contour is initialized and non-empty
 | 
|  SkPathWriter::SkPathWriter(SkPath& path)
 | 
|      : fPathPtr(&path)
 | 
| -    , fCloses(0)
 | 
| -    , fMoves(0)
 | 
|  {
 | 
|      init();
 | 
|  }
 | 
|  
 | 
|  void SkPathWriter::close() {
 | 
| -    if (!fHasMove) {
 | 
| +    if (fCurrent.isEmpty()) {
 | 
|          return;
 | 
|      }
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| -    bool callClose = isClosed();
 | 
| -    lineTo();
 | 
| -    if (fEmpty) {
 | 
| -        return;
 | 
| -    }
 | 
| -    if (callClose) {
 | 
| +    SkASSERT(this->isClosed());
 | 
|  #if DEBUG_PATH_CONSTRUCTION
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| -        SkDebugf("path.close();\n");
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| +    SkDebugf("path.close();\n");
 | 
|  #endif
 | 
| -        fPathPtr->close();
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| -        fCloses++;
 | 
| -    }
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| +    fCurrent.close();
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| +    fPathPtr->addPath(fCurrent);
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| +    fCurrent.reset();
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|      init();
 | 
|  }
 | 
|  
 | 
| -void SkPathWriter::conicTo(const SkPoint& pt1, const SkPoint& pt2, SkScalar weight) {
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| -    lineTo();
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| -    if (fEmpty && AlmostEqualUlps(fDefer[0], pt1) && AlmostEqualUlps(pt1, pt2)) {
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| -        deferredLine(pt2);
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| -        return;
 | 
| -    }
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| -    moveTo();
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| -    fDefer[1] = pt2;
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| -    nudge();
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| -    fDefer[0] = fDefer[1];
 | 
| +void SkPathWriter::conicTo(const SkPoint& pt1, const SkOpPtT* pt2, SkScalar weight) {
 | 
| +    this->update(pt2);
 | 
|  #if DEBUG_PATH_CONSTRUCTION
 | 
|      SkDebugf("path.conicTo(%1.9g,%1.9g, %1.9g,%1.9g, %1.9g);\n",
 | 
| -            pt1.fX, pt1.fY, fDefer[1].fX, fDefer[1].fY, weight);
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| +            pt1.fX, pt1.fY, pt2->fPt.fX, pt2->fPt.fY, weight);
 | 
|  #endif
 | 
| -    fPathPtr->conicTo(pt1.fX, pt1.fY, fDefer[1].fX, fDefer[1].fY, weight);
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| -    fEmpty = false;
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| +    fCurrent.conicTo(pt1, pt2->fPt, weight);
 | 
|  }
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|  
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| -void SkPathWriter::cubicTo(const SkPoint& pt1, const SkPoint& pt2, const SkPoint& pt3) {
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| -    lineTo();
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| -    if (fEmpty && AlmostEqualUlps(fDefer[0], pt1) && AlmostEqualUlps(pt1, pt2)
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| -            && AlmostEqualUlps(pt2, pt3)) {
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| -        deferredLine(pt3);
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| -        return;
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| -    }
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| -    moveTo();
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| -    fDefer[1] = pt3;
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| -    nudge();
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| -    fDefer[0] = fDefer[1];
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| +void SkPathWriter::cubicTo(const SkPoint& pt1, const SkPoint& pt2, const SkOpPtT* pt3) {
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| +    this->update(pt3);
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|  #if DEBUG_PATH_CONSTRUCTION
 | 
|      SkDebugf("path.cubicTo(%1.9g,%1.9g, %1.9g,%1.9g, %1.9g,%1.9g);\n",
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| -            pt1.fX, pt1.fY, pt2.fX, pt2.fY, fDefer[1].fX, fDefer[1].fY);
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| +            pt1.fX, pt1.fY, pt2.fX, pt2.fY, pt3->fPt.fX, pt3->fPt.fY);
 | 
|  #endif
 | 
| -    fPathPtr->cubicTo(pt1.fX, pt1.fY, pt2.fX, pt2.fY, fDefer[1].fX, fDefer[1].fY);
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| -    fEmpty = false;
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| +    fCurrent.cubicTo(pt1, pt2, pt3->fPt);
 | 
|  }
 | 
|  
 | 
| -void SkPathWriter::deferredLine(const SkPoint& pt) {
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| -    if (pt == fDefer[1]) {
 | 
| +void SkPathWriter::deferredLine(const SkOpPtT* pt) {
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| +    SkASSERT(fFirstPtT);
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| +    SkASSERT(fDefer[0]);
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| +    if (fDefer[0] == pt) {
 | 
| +        // FIXME: why we're adding a degenerate line? Caller should have preflighted this.
 | 
| +        return;
 | 
| +    }
 | 
| +    if (pt->contains(fDefer[0])) {
 | 
| +        // FIXME: why we're adding a degenerate line?
 | 
|          return;
 | 
|      }
 | 
| -    if (changedSlopes(pt)) {
 | 
| -        lineTo();
 | 
| +    SkASSERT(!this->matchedLast(pt));
 | 
| +    if (fDefer[1] && this->changedSlopes(pt)) {
 | 
| +        this->lineTo();
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|          fDefer[0] = fDefer[1];
 | 
|      }
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|      fDefer[1] = pt;
 | 
|  }
 | 
|  
 | 
| -void SkPathWriter::deferredMove(const SkPoint& pt) {
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| -    fMoved = true;
 | 
| -    fHasMove = true;
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| -    fEmpty = true;
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| -    fDefer[0] = fDefer[1] = pt;
 | 
| -}
 | 
| -
 | 
| -void SkPathWriter::deferredMoveLine(const SkPoint& pt) {
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| -    if (!fHasMove) {
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| -        deferredMove(pt);
 | 
| +void SkPathWriter::deferredMove(const SkOpPtT* pt) {
 | 
| +    if (!fDefer[1]) {
 | 
| +        fFirstPtT = fDefer[0] = pt;
 | 
| +        return;
 | 
| +    }
 | 
| +    SkASSERT(fDefer[0]);
 | 
| +    if (!this->matchedLast(pt)) {
 | 
| +        this->finishContour();
 | 
| +        fFirstPtT = fDefer[0] = pt;
 | 
|      }
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| -    deferredLine(pt);
 | 
|  }
 | 
|  
 | 
| -bool SkPathWriter::hasMove() const {
 | 
| -    return fHasMove;
 | 
| +void SkPathWriter::finishContour() {
 | 
| +    if (!this->matchedLast(fDefer[0])) {
 | 
| +        this->lineTo();
 | 
| +    }
 | 
| +    if (fCurrent.isEmpty()) {
 | 
| +        return;
 | 
| +    }
 | 
| +    if (this->isClosed()) {
 | 
| +        this->close();
 | 
| +    } else {
 | 
| +        SkASSERT(fDefer[1]);
 | 
| +        fEndPtTs.push(fFirstPtT);
 | 
| +        fEndPtTs.push(fDefer[1]);
 | 
| +        fPartials.push_back(fCurrent);
 | 
| +        this->init();
 | 
| +    }
 | 
|  }
 | 
|  
 | 
|  void SkPathWriter::init() {
 | 
| -    fEmpty = true;
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| -    fHasMove = false;
 | 
| -    fMoved = false;
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| +    fCurrent.reset();
 | 
| +    fFirstPtT = fDefer[0] = fDefer[1] = nullptr;
 | 
|  }
 | 
|  
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|  bool SkPathWriter::isClosed() const {
 | 
| -    return !fEmpty && SkDPoint::ApproximatelyEqual(fFirstPt, fDefer[1]);
 | 
| +    return this->matchedLast(fFirstPtT);
 | 
|  }
 | 
|  
 | 
|  void SkPathWriter::lineTo() {
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| -    if (fDefer[0] == fDefer[1]) {
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| -        return;
 | 
| +    if (fCurrent.isEmpty()) {
 | 
| +        this->moveTo();
 | 
|      }
 | 
| -    moveTo();
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| -    nudge();
 | 
| -    fEmpty = false;
 | 
|  #if DEBUG_PATH_CONSTRUCTION
 | 
| -    SkDebugf("path.lineTo(%1.9g,%1.9g);\n", fDefer[1].fX, fDefer[1].fY);
 | 
| +    SkDebugf("path.lineTo(%1.9g,%1.9g);\n", fDefer[1]->fPt.fX, fDefer[1]->fPt.fY);
 | 
|  #endif
 | 
| -    fPathPtr->lineTo(fDefer[1].fX, fDefer[1].fY);
 | 
| -    fDefer[0] = fDefer[1];
 | 
| +    fCurrent.lineTo(fDefer[1]->fPt);
 | 
|  }
 | 
|  
 | 
| -const SkPath* SkPathWriter::nativePath() const {
 | 
| -    return fPathPtr;
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| +bool SkPathWriter::matchedLast(const SkOpPtT* test) const {
 | 
| +    if (test == fDefer[1]) {
 | 
| +        return true;
 | 
| +    }
 | 
| +    if (!test) {
 | 
| +        return false;
 | 
| +    }
 | 
| +    if (!fDefer[1]) {
 | 
| +        return false;
 | 
| +    }
 | 
| +    return test->contains(fDefer[1]);
 | 
|  }
 | 
|  
 | 
| -void SkPathWriter::nudge() {
 | 
| -    if (fEmpty || !AlmostEqualUlps(fDefer[1].fX, fFirstPt.fX)
 | 
| -            || !AlmostEqualUlps(fDefer[1].fY, fFirstPt.fY)) {
 | 
| -        return;
 | 
| -    }
 | 
| -    fDefer[1] = fFirstPt;
 | 
| +void SkPathWriter::moveTo() {
 | 
| +#if DEBUG_PATH_CONSTRUCTION
 | 
| +    SkDebugf("path.moveTo(%1.9g,%1.9g);\n", fFirstPtT->fPt.fX, fFirstPtT->fPt.fY);
 | 
| +#endif
 | 
| +    fCurrent.moveTo(fFirstPtT->fPt);
 | 
|  }
 | 
|  
 | 
| -void SkPathWriter::quadTo(const SkPoint& pt1, const SkPoint& pt2) {
 | 
| -    lineTo();
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| -    if (fEmpty && AlmostEqualUlps(fDefer[0], pt1) && AlmostEqualUlps(pt1, pt2)) {
 | 
| -        deferredLine(pt2);
 | 
| -        return;
 | 
| -    }
 | 
| -    moveTo();
 | 
| -    fDefer[1] = pt2;
 | 
| -    nudge();
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| -    fDefer[0] = fDefer[1];
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| +void SkPathWriter::quadTo(const SkPoint& pt1, const SkOpPtT* pt2) {
 | 
| +    this->update(pt2);
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|  #if DEBUG_PATH_CONSTRUCTION
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|      SkDebugf("path.quadTo(%1.9g,%1.9g, %1.9g,%1.9g);\n",
 | 
| -            pt1.fX, pt1.fY, fDefer[1].fX, fDefer[1].fY);
 | 
| +            pt1.fX, pt1.fY, pt2->fPt.fX, pt2->fPt.fY);
 | 
|  #endif
 | 
| -    fPathPtr->quadTo(pt1.fX, pt1.fY, fDefer[1].fX, fDefer[1].fY);
 | 
| -    fEmpty = false;
 | 
| +    fCurrent.quadTo(pt1, pt2->fPt);
 | 
|  }
 | 
|  
 | 
| -bool SkPathWriter::someAssemblyRequired() const {
 | 
| -    return fCloses < fMoves;
 | 
| +void SkPathWriter::update(const SkOpPtT* pt) {
 | 
| +    if (!fDefer[1]) {
 | 
| +        this->moveTo();
 | 
| +    } else if (!this->matchedLast(fDefer[0])) {
 | 
| +        this->lineTo();
 | 
| +    }
 | 
| +    fDefer[0] = fDefer[1] = pt;  // set both to know that there is not a pending deferred line
 | 
| +}
 | 
| +
 | 
| +bool SkPathWriter::someAssemblyRequired() {
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| +    this->finishContour();
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| +    return fEndPtTs.count() > 0;
 | 
|  }
 | 
|  
 | 
| -bool SkPathWriter::changedSlopes(const SkPoint& pt) const {
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| -    if (fDefer[0] == fDefer[1]) {
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| +bool SkPathWriter::changedSlopes(const SkOpPtT* ptT) const {
 | 
| +    if (matchedLast(fDefer[0])) {
 | 
|          return false;
 | 
|      }
 | 
| -    SkScalar deferDx = fDefer[1].fX - fDefer[0].fX;
 | 
| -    SkScalar deferDy = fDefer[1].fY - fDefer[0].fY;
 | 
| -    SkScalar lineDx = pt.fX - fDefer[1].fX;
 | 
| -    SkScalar lineDy = pt.fY - fDefer[1].fY;
 | 
| -    return deferDx * lineDy != deferDy * lineDx;
 | 
| +    SkVector deferDxdy = fDefer[1]->fPt - fDefer[0]->fPt;
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| +    SkVector lineDxdy = ptT->fPt - fDefer[1]->fPt;
 | 
| +    return deferDxdy.fX * lineDxdy.fY != deferDxdy.fY * lineDxdy.fX;
 | 
|  }
 | 
|  
 | 
| -void SkPathWriter::moveTo() {
 | 
| -    if (!fMoved) {
 | 
| +class DistanceLessThan {
 | 
| +public:
 | 
| +    DistanceLessThan(double* distances) : fDistances(distances) { }
 | 
| +    double* fDistances;
 | 
| +    bool operator()(const int one, const int two) {
 | 
| +        return fDistances[one] < fDistances[two];
 | 
| +    }
 | 
| +};
 | 
| +
 | 
| +    /*
 | 
| +        check start and end of each contour
 | 
| +        if not the same, record them
 | 
| +        match them up
 | 
| +        connect closest
 | 
| +        reassemble contour pieces into new path
 | 
| +    */
 | 
| +void SkPathWriter::assemble() {
 | 
| +#if DEBUG_SHOW_TEST_NAME
 | 
| +    SkDebugf("</div>\n");
 | 
| +#endif
 | 
| +    if (!this->someAssemblyRequired()) {
 | 
|          return;
 | 
|      }
 | 
| -    fFirstPt = fDefer[0];
 | 
|  #if DEBUG_PATH_CONSTRUCTION
 | 
| -    SkDebugf("path.moveTo(%1.9g,%1.9g);\n", fDefer[0].fX, fDefer[0].fY);
 | 
| +    SkDebugf("%s\n", __FUNCTION__);
 | 
| +#endif
 | 
| +    SkOpPtT const* const* runs = fEndPtTs.begin();  // starts, ends of partial contours
 | 
| +    int endCount = fEndPtTs.count(); // all starts and ends
 | 
| +    SkASSERT(endCount > 0);
 | 
| +    SkASSERT(endCount == fPartials.count() * 2);
 | 
| +#if DEBUG_ASSEMBLE
 | 
| +    for (int index = 0; index < endCount; index += 2) {
 | 
| +        const SkOpPtT* eStart = runs[index];
 | 
| +        const SkOpPtT* eEnd = runs[index + 1];
 | 
| +        SkASSERT(eStart != eEnd);
 | 
| +        SkASSERT(!eStart->contains(eEnd));
 | 
| +        SkDebugf("%s contour start=(%1.9g,%1.9g) end=(%1.9g,%1.9g)\n", __FUNCTION__,
 | 
| +                eStart->fPt.fX, eStart->fPt.fY, eEnd->fPt.fX, eEnd->fPt.fY);
 | 
| +    }
 | 
| +#endif
 | 
| +    SkTDArray<int> sLink, eLink;
 | 
| +    int linkCount = endCount / 2; // number of partial contours
 | 
| +    sLink.append(linkCount);
 | 
| +    eLink.append(linkCount);
 | 
| +    int rIndex, iIndex;
 | 
| +    for (rIndex = 0; rIndex < linkCount; ++rIndex) {
 | 
| +        sLink[rIndex] = eLink[rIndex] = SK_MaxS32;
 | 
| +    }
 | 
| +    const int entries = endCount * (endCount - 1) / 2;  // folded triangle
 | 
| +    SkSTArray<8, double, true> distances(entries);
 | 
| +    SkSTArray<8, int, true> sortedDist(entries);
 | 
| +    SkSTArray<8, int, true> distLookup(entries);
 | 
| +    int rRow = 0;
 | 
| +    int dIndex = 0;
 | 
| +    for (rIndex = 0; rIndex < endCount - 1; ++rIndex) {
 | 
| +        const SkOpPtT* oPtT = runs[rIndex];
 | 
| +        for (iIndex = rIndex + 1; iIndex < endCount; ++iIndex) {
 | 
| +            const SkOpPtT* iPtT = runs[iIndex];
 | 
| +            double dx = iPtT->fPt.fX - oPtT->fPt.fX;
 | 
| +            double dy = iPtT->fPt.fY - oPtT->fPt.fY;
 | 
| +            double dist = dx * dx + dy * dy;
 | 
| +            distLookup.push_back(rRow + iIndex);
 | 
| +            distances.push_back(dist);  // oStart distance from iStart
 | 
| +            sortedDist.push_back(dIndex++); 
 | 
| +        }
 | 
| +        rRow += endCount;
 | 
| +    }
 | 
| +    SkASSERT(dIndex == entries);
 | 
| +    SkTQSort<int>(sortedDist.begin(), sortedDist.end() - 1, DistanceLessThan(distances.begin()));
 | 
| +    int remaining = linkCount;  // number of start/end pairs
 | 
| +    for (rIndex = 0; rIndex < entries; ++rIndex) {
 | 
| +        int pair = sortedDist[rIndex];
 | 
| +        pair = distLookup[pair];
 | 
| +        int row = pair / endCount;
 | 
| +        int col = pair - row * endCount;
 | 
| +        int ndxOne = row >> 1;
 | 
| +        bool endOne = row & 1;
 | 
| +        int* linkOne = endOne ? eLink.begin() : sLink.begin();
 | 
| +        if (linkOne[ndxOne] != SK_MaxS32) {
 | 
| +            continue;
 | 
| +        }
 | 
| +        int ndxTwo = col >> 1;
 | 
| +        bool endTwo = col & 1;
 | 
| +        int* linkTwo = endTwo ? eLink.begin() : sLink.begin();
 | 
| +        if (linkTwo[ndxTwo] != SK_MaxS32) {
 | 
| +            continue;
 | 
| +        }
 | 
| +        SkASSERT(&linkOne[ndxOne] != &linkTwo[ndxTwo]);
 | 
| +        bool flip = endOne == endTwo;
 | 
| +        linkOne[ndxOne] = flip ? ~ndxTwo : ndxTwo;
 | 
| +        linkTwo[ndxTwo] = flip ? ~ndxOne : ndxOne;
 | 
| +        if (!--remaining) {
 | 
| +            break;
 | 
| +        }
 | 
| +    }
 | 
| +    SkASSERT(!remaining);
 | 
| +#if DEBUG_ASSEMBLE
 | 
| +    for (rIndex = 0; rIndex < linkCount; ++rIndex) {
 | 
| +        int s = sLink[rIndex];
 | 
| +        int e = eLink[rIndex];
 | 
| +        SkDebugf("%s %c%d <- s%d - e%d -> %c%d\n", __FUNCTION__, s < 0 ? 's' : 'e',
 | 
| +                s < 0 ? ~s : s, rIndex, rIndex, e < 0 ? 'e' : 's', e < 0 ? ~e : e);
 | 
| +    }
 | 
| +#endif
 | 
| +    rIndex = 0;
 | 
| +    do {
 | 
| +        bool forward = true;
 | 
| +        bool first = true;
 | 
| +        int sIndex = sLink[rIndex];
 | 
| +        SkASSERT(sIndex != SK_MaxS32);
 | 
| +        sLink[rIndex] = SK_MaxS32;
 | 
| +        int eIndex;
 | 
| +        if (sIndex < 0) {
 | 
| +            eIndex = sLink[~sIndex];
 | 
| +            sLink[~sIndex] = SK_MaxS32;
 | 
| +        } else {
 | 
| +            eIndex = eLink[sIndex];
 | 
| +            eLink[sIndex] = SK_MaxS32;
 | 
| +        }
 | 
| +        SkASSERT(eIndex != SK_MaxS32);
 | 
| +#if DEBUG_ASSEMBLE
 | 
| +        SkDebugf("%s sIndex=%c%d eIndex=%c%d\n", __FUNCTION__, sIndex < 0 ? 's' : 'e',
 | 
| +                    sIndex < 0 ? ~sIndex : sIndex, eIndex < 0 ? 's' : 'e',
 | 
| +                    eIndex < 0 ? ~eIndex : eIndex);
 | 
| +#endif
 | 
| +        do {
 | 
| +            const SkPath& contour = fPartials[rIndex];
 | 
| +            if (forward) {
 | 
| +                fPathPtr->addPath(contour,
 | 
| +                        first ? SkPath::kAppend_AddPathMode : SkPath::kExtend_AddPathMode);
 | 
| +            } else {
 | 
| +                SkASSERT(!first);
 | 
| +                fPathPtr->reverseAddPath(contour);
 | 
| +            }
 | 
| +            if (first) {
 | 
| +                first = false;
 | 
| +            }
 | 
| +#if DEBUG_ASSEMBLE
 | 
| +            SkDebugf("%s rIndex=%d eIndex=%s%d close=%d\n", __FUNCTION__, rIndex,
 | 
| +                eIndex < 0 ? "~" : "", eIndex < 0 ? ~eIndex : eIndex,
 | 
| +                sIndex == ((rIndex != eIndex) ^ forward ? eIndex : ~eIndex));
 | 
| +#endif
 | 
| +            if (sIndex == ((rIndex != eIndex) ^ forward ? eIndex : ~eIndex)) {
 | 
| +                fPathPtr->close();
 | 
| +                break;
 | 
| +            }
 | 
| +            if (forward) {
 | 
| +                eIndex = eLink[rIndex];
 | 
| +                SkASSERT(eIndex != SK_MaxS32);
 | 
| +                eLink[rIndex] = SK_MaxS32;
 | 
| +                if (eIndex >= 0) {
 | 
| +                    SkASSERT(sLink[eIndex] == rIndex);
 | 
| +                    sLink[eIndex] = SK_MaxS32;
 | 
| +                } else {
 | 
| +                    SkASSERT(eLink[~eIndex] == ~rIndex);
 | 
| +                    eLink[~eIndex] = SK_MaxS32;
 | 
| +                }
 | 
| +            } else {
 | 
| +                eIndex = sLink[rIndex];
 | 
| +                SkASSERT(eIndex != SK_MaxS32);
 | 
| +                sLink[rIndex] = SK_MaxS32;
 | 
| +                if (eIndex >= 0) {
 | 
| +                    SkASSERT(eLink[eIndex] == rIndex);
 | 
| +                    eLink[eIndex] = SK_MaxS32;
 | 
| +                } else {
 | 
| +                    SkASSERT(sLink[~eIndex] == ~rIndex);
 | 
| +                    sLink[~eIndex] = SK_MaxS32;
 | 
| +                }
 | 
| +            }
 | 
| +            rIndex = eIndex;
 | 
| +            if (rIndex < 0) {
 | 
| +                forward ^= 1;
 | 
| +                rIndex = ~rIndex;
 | 
| +            }
 | 
| +        } while (true);
 | 
| +        for (rIndex = 0; rIndex < linkCount; ++rIndex) {
 | 
| +            if (sLink[rIndex] != SK_MaxS32) {
 | 
| +                break;
 | 
| +            }
 | 
| +        }
 | 
| +    } while (rIndex < linkCount);
 | 
| +#if DEBUG_ASSEMBLE
 | 
| +    for (rIndex = 0; rIndex < linkCount; ++rIndex) {
 | 
| +       SkASSERT(sLink[rIndex] == SK_MaxS32);
 | 
| +       SkASSERT(eLink[rIndex] == SK_MaxS32);
 | 
| +    }
 | 
|  #endif
 | 
| -    fPathPtr->moveTo(fDefer[0].fX, fDefer[0].fY);
 | 
| -    fMoved = false;
 | 
| -    fMoves++;
 | 
| +    return;
 | 
|  }
 | 
| 
 |