/* * Copyright 2013 Google Inc. * * Use of this source code is governed by a BSD-style license that can be * found in the LICENSE file. */ #include "SkPathOps.h" #include "SkPath.h" #include "SkPoint.h" #include "Test.h" static const SkPoint nonFinitePts[] = { { SK_ScalarInfinity, 0 }, { 0, SK_ScalarInfinity }, { SK_ScalarInfinity, SK_ScalarInfinity }, { SK_ScalarNegativeInfinity, 0}, { 0, SK_ScalarNegativeInfinity }, { SK_ScalarNegativeInfinity, SK_ScalarNegativeInfinity }, { SK_ScalarNegativeInfinity, SK_ScalarInfinity }, { SK_ScalarInfinity, SK_ScalarNegativeInfinity }, { SK_ScalarNaN, 0 }, { 0, SK_ScalarNaN }, { SK_ScalarNaN, SK_ScalarNaN }, }; const size_t nonFinitePtsCount = sizeof(nonFinitePts) / sizeof(nonFinitePts[0]); static const SkPoint finitePts[] = { { 0, 0 }, { SK_ScalarMax, 0 }, { 0, SK_ScalarMax }, { SK_ScalarMax, SK_ScalarMax }, { SK_ScalarMin, 0 }, { 0, SK_ScalarMin }, { SK_ScalarMin, SK_ScalarMin }, }; const size_t finitePtsCount = sizeof(finitePts) / sizeof(finitePts[0]); static void PathOpsSimplifyFailTest(skiatest::Reporter* reporter) { for (int index = 0; index < (int) (13 * nonFinitePtsCount * finitePtsCount); ++index) { SkPath path; int i = (int) (index % nonFinitePtsCount); int f = (int) (index % finitePtsCount); int g = (int) ((f + 1) % finitePtsCount); switch (index % 13) { case 0: path.lineTo(nonFinitePts[i]); break; case 1: path.quadTo(nonFinitePts[i], nonFinitePts[i]); break; case 2: path.quadTo(nonFinitePts[i], finitePts[f]); break; case 3: path.quadTo(finitePts[f], nonFinitePts[i]); break; case 4: path.cubicTo(nonFinitePts[i], finitePts[f], finitePts[f]); break; case 5: path.cubicTo(finitePts[f], nonFinitePts[i], finitePts[f]); break; case 6: path.cubicTo(finitePts[f], finitePts[f], nonFinitePts[i]); break; case 7: path.cubicTo(nonFinitePts[i], nonFinitePts[i], finitePts[f]); break; case 8: path.cubicTo(nonFinitePts[i], finitePts[f], nonFinitePts[i]); break; case 9: path.cubicTo(finitePts[f], nonFinitePts[i], nonFinitePts[i]); break; case 10: path.cubicTo(nonFinitePts[i], nonFinitePts[i], nonFinitePts[i]); break; case 11: path.cubicTo(nonFinitePts[i], finitePts[f], finitePts[g]); break; case 12: path.moveTo(nonFinitePts[i]); break; } SkPath result; result.setFillType(SkPath::kWinding_FillType); bool success = Simplify(path, &result); REPORTER_ASSERT(reporter, !success); REPORTER_ASSERT(reporter, result.isEmpty()); REPORTER_ASSERT(reporter, result.getFillType() == SkPath::kWinding_FillType); reporter->bumpTestCount(); } if (sizeof(reporter) == 4) { return; } for (int index = 0; index < (int) (11 * finitePtsCount); ++index) { SkPath path; int f = (int) (index % finitePtsCount); int g = (int) ((f + 1) % finitePtsCount); switch (index % 11) { case 0: path.lineTo(finitePts[f]); break; case 1: path.quadTo(finitePts[f], finitePts[f]); break; case 2: path.quadTo(finitePts[f], finitePts[g]); break; case 3: path.quadTo(finitePts[g], finitePts[f]); break; case 4: path.cubicTo(finitePts[f], finitePts[f], finitePts[f]); break; case 5: path.cubicTo(finitePts[f], finitePts[f], finitePts[g]); break; case 6: path.cubicTo(finitePts[f], finitePts[g], finitePts[f]); break; case 7: path.cubicTo(finitePts[f], finitePts[g], finitePts[g]); break; case 8: path.cubicTo(finitePts[g], finitePts[f], finitePts[f]); break; case 9: path.cubicTo(finitePts[g], finitePts[f], finitePts[g]); break; case 10: path.moveTo(finitePts[f]); break; } SkPath result; result.setFillType(SkPath::kWinding_FillType); bool success = Simplify(path, &result); REPORTER_ASSERT(reporter, success); REPORTER_ASSERT(reporter, result.getFillType() != SkPath::kWinding_FillType); reporter->bumpTestCount(); } } #include "TestClassDef.h" DEFINE_TESTCLASS_SHORT(PathOpsSimplifyFailTest)