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1 /* | 1 /* |
2 * Copyright 2016 Google Inc. | 2 * Copyright 2016 Google Inc. |
3 * | 3 * |
4 * Use of this source code is governed by a BSD-style license that can be | 4 * Use of this source code is governed by a BSD-style license that can be |
5 * found in the LICENSE file. | 5 * found in the LICENSE file. |
6 */ | 6 */ |
7 | 7 |
8 #include "SkPM4fPriv.h" | 8 #include "SkPM4fPriv.h" |
9 #include "SkUtils.h" | 9 #include "SkUtils.h" |
10 #include "SkXfermode.h" | 10 #include "SkXfermode.h" |
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38 template <DstType D> uint32_t store_dst(const Sk4f& x4) { | 38 template <DstType D> uint32_t store_dst(const Sk4f& x4) { |
39 return (D == kSRGB_Dst) ? Sk4f_toS32(x4) : Sk4f_toL32(x4); | 39 return (D == kSRGB_Dst) ? Sk4f_toS32(x4) : Sk4f_toL32(x4); |
40 } | 40 } |
41 | 41 |
42 static Sk4f linear_unit_to_srgb_255f(const Sk4f& l4) { | 42 static Sk4f linear_unit_to_srgb_255f(const Sk4f& l4) { |
43 return linear_to_srgb(l4) * Sk4f(255) + Sk4f(0.5f); | 43 return linear_to_srgb(l4) * Sk4f(255) + Sk4f(0.5f); |
44 } | 44 } |
45 | 45 |
46 ////////////////////////////////////////////////////////////////////////////////
/////////////////// | 46 ////////////////////////////////////////////////////////////////////////////////
/////////////////// |
47 | 47 |
48 static Sk4f scale_255_round(const SkPM4f& pm4) { | 48 template <DstType D> void general_1(const SkXfermode::PM4fState& state, uint32_t
dst[], |
49 return Sk4f::Load(pm4.fVec) * Sk4f(255) + Sk4f(0.5f); | 49 const SkPM4f& src, int count, const SkAlpha
aa[]) { |
50 } | 50 SkXfermodeProc4f proc = state.fXfer->getProc4f(); |
51 | 51 SkPM4f d; |
52 static void pm4f_to_linear_32(SkPMColor dst[], const SkPM4f src[], int count) { | 52 if (aa) { |
53 while (count >= 4) { | 53 for (int i = 0; i < count; ++i) { |
54 src[0].assertIsUnit(); | 54 Sk4f d4 = load_dst<D>(dst[i]); |
55 src[1].assertIsUnit(); | 55 d4.store(d.fVec); |
56 src[2].assertIsUnit(); | 56 Sk4f r4 = Sk4f::Load(proc(src, d).fVec); |
57 src[3].assertIsUnit(); | 57 dst[i] = store_dst<D>(lerp(r4, d4, aa[i])); |
58 Sk4f_ToBytes((uint8_t*)dst, | 58 } |
59 scale_255_round(src[0]), scale_255_round(src[1]), | 59 } else { |
60 scale_255_round(src[2]), scale_255_round(src[3])); | 60 for (int i = 0; i < count; ++i) { |
61 src += 4; | 61 load_dst<D>(dst[i]).store(d.fVec); |
62 dst += 4; | 62 Sk4f r4 = Sk4f::Load(proc(src, d).fVec); |
63 count -= 4; | 63 dst[i] = store_dst<D>(r4); |
64 } | 64 } |
65 for (int i = 0; i < count; ++i) { | |
66 src[i].assertIsUnit(); | |
67 SkNx_cast<uint8_t>(scale_255_round(src[i])).store((uint8_t*)&dst[i]); | |
68 } | 65 } |
69 } | 66 } |
70 | 67 |
71 ////////////////////////////////////////////////////////////////////////////////
/////////////////// | 68 template <DstType D> void general_n(const SkXfermode::PM4fState& state, uint32_t
dst[], |
72 // These are our fallback impl for the SkPM4f procs... | 69 const SkPM4f src[], int count, const SkAlpha
aa[]) { |
73 // | 70 SkXfermodeProc4f proc = state.fXfer->getProc4f(); |
74 // They just convert the src color(s) into a linear SkPMColor value(s), and then | 71 SkPM4f d; |
75 // call the existing virtual xfer32. This clear throws away data (converting flo
ats to bytes) | 72 if (aa) { |
76 // in the src, and ignores the sRGB flag, but should draw about the same as if t
he caller | 73 for (int i = 0; i < count; ++i) { |
77 // had passed in SkPMColor values directly. | 74 Sk4f d4 = load_dst<D>(dst[i]); |
78 // | 75 d4.store(d.fVec); |
79 | 76 Sk4f r4 = Sk4f::Load(proc(src[i], d).fVec); |
80 void xfer_pm4_proc_1(const SkXfermode::PM4fState& state, uint32_t dst[], const S
kPM4f& src, | 77 dst[i] = store_dst<D>(lerp(r4, d4, aa[i])); |
81 int count, const SkAlpha aa[]) { | |
82 uint32_t pm; | |
83 pm4f_to_linear_32(&pm, &src, 1); | |
84 | |
85 const int N = 128; | |
86 SkPMColor tmp[N]; | |
87 sk_memset32(tmp, pm, SkMin32(count, N)); | |
88 while (count > 0) { | |
89 const int n = SkMin32(count, N); | |
90 state.fXfer->xfer32(dst, tmp, n, aa); | |
91 | |
92 dst += n; | |
93 if (aa) { | |
94 aa += n; | |
95 } | 78 } |
96 count -= n; | 79 } else { |
| 80 for (int i = 0; i < count; ++i) { |
| 81 load_dst<D>(dst[i]).store(d.fVec); |
| 82 Sk4f r4 = Sk4f::Load(proc(src[i], d).fVec); |
| 83 dst[i] = store_dst<D>(r4); |
| 84 } |
97 } | 85 } |
98 } | 86 } |
99 | 87 |
100 void xfer_pm4_proc_n(const SkXfermode::PM4fState& state, uint32_t dst[], const S
kPM4f src[], | 88 const XferProcPair gProcs_General[] = { |
101 int count, const SkAlpha aa[]) { | 89 { general_1<kLinear_Dst>, general_n<kLinear_Dst> }, // linear alpha |
102 const int N = 128; | 90 { general_1<kLinear_Dst>, general_n<kLinear_Dst> }, // linear opaque |
103 SkPMColor tmp[N]; | 91 { general_1<kSRGB_Dst>, general_n<kSRGB_Dst> }, // srgb alpha |
104 while (count > 0) { | 92 { general_1<kSRGB_Dst>, general_n<kSRGB_Dst> }, // srgb opaque |
105 const int n = SkMin32(count, N); | 93 }; |
106 pm4f_to_linear_32(tmp, src, n); | |
107 state.fXfer->xfer32(dst, tmp, n, aa); | |
108 | |
109 src += n; | |
110 dst += n; | |
111 if (aa) { | |
112 aa += n; | |
113 } | |
114 count -= n; | |
115 } | |
116 } | |
117 | 94 |
118 ////////////////////////////////////////////////////////////////////////////////
/////////////////// | 95 ////////////////////////////////////////////////////////////////////////////////
/////////////////// |
119 | 96 |
120 static void clear_linear_n(const SkXfermode::PM4fState& state, uint32_t dst[], c
onst SkPM4f[], | 97 static void clear_linear_n(const SkXfermode::PM4fState& state, uint32_t dst[], c
onst SkPM4f[], |
121 int count, const SkAlpha aa[]) { | 98 int count, const SkAlpha aa[]) { |
122 if (aa) { | 99 if (aa) { |
123 for (int i = 0; i < count; ++i) { | 100 for (int i = 0; i < count; ++i) { |
124 unsigned a = aa[i]; | 101 unsigned a = aa[i]; |
125 if (a) { | 102 if (a) { |
126 SkPMColor dstC = dst[i]; | 103 SkPMColor dstC = dst[i]; |
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395 flags &= 3; | 372 flags &= 3; |
396 | 373 |
397 switch (mode) { | 374 switch (mode) { |
398 case SkXfermode::kClear_Mode: return gProcs_Clear[flags]; | 375 case SkXfermode::kClear_Mode: return gProcs_Clear[flags]; |
399 case SkXfermode::kSrc_Mode: return gProcs_Src[flags]; | 376 case SkXfermode::kSrc_Mode: return gProcs_Src[flags]; |
400 case SkXfermode::kDst_Mode: return gProcs_Dst[flags]; | 377 case SkXfermode::kDst_Mode: return gProcs_Dst[flags]; |
401 case SkXfermode::kSrcOver_Mode: return gProcs_SrcOver[flags]; | 378 case SkXfermode::kSrcOver_Mode: return gProcs_SrcOver[flags]; |
402 default: | 379 default: |
403 break; | 380 break; |
404 } | 381 } |
405 return { xfer_pm4_proc_1, xfer_pm4_proc_n }; | 382 return gProcs_General[flags]; |
406 } | 383 } |
407 | 384 |
408 SkXfermode::PM4fProc1 SkXfermode::GetPM4fProc1(Mode mode, uint32_t flags) { | 385 SkXfermode::PM4fProc1 SkXfermode::GetPM4fProc1(Mode mode, uint32_t flags) { |
409 return find_procs(mode, flags).fP1; | 386 return find_procs(mode, flags).fP1; |
410 } | 387 } |
411 | 388 |
412 SkXfermode::PM4fProcN SkXfermode::GetPM4fProcN(Mode mode, uint32_t flags) { | 389 SkXfermode::PM4fProcN SkXfermode::GetPM4fProcN(Mode mode, uint32_t flags) { |
413 return find_procs(mode, flags).fPN; | 390 return find_procs(mode, flags).fPN; |
414 } | 391 } |
415 | 392 |
416 SkXfermode::PM4fProc1 SkXfermode::getPM4fProc1(uint32_t flags) const { | 393 SkXfermode::PM4fProc1 SkXfermode::getPM4fProc1(uint32_t flags) const { |
| 394 SkASSERT(0 == (flags & ~3)); |
| 395 flags &= 3; |
| 396 |
417 Mode mode; | 397 Mode mode; |
418 return this->asMode(&mode) ? GetPM4fProc1(mode, flags) : xfer_pm4_proc_1; | 398 return this->asMode(&mode) ? GetPM4fProc1(mode, flags) : gProcs_General[flag
s].fP1; |
419 } | 399 } |
420 | 400 |
421 SkXfermode::PM4fProcN SkXfermode::getPM4fProcN(uint32_t flags) const { | 401 SkXfermode::PM4fProcN SkXfermode::getPM4fProcN(uint32_t flags) const { |
| 402 SkASSERT(0 == (flags & ~3)); |
| 403 flags &= 3; |
| 404 |
422 Mode mode; | 405 Mode mode; |
423 return this->asMode(&mode) ? GetPM4fProcN(mode, flags) : xfer_pm4_proc_n; | 406 return this->asMode(&mode) ? GetPM4fProcN(mode, flags) : gProcs_General[flag
s].fPN; |
424 } | 407 } |
425 | 408 |
426 ////////////////////////////////////////////////////////////////////////////////
/////////////////// | 409 ////////////////////////////////////////////////////////////////////////////////
/////////////////// |
427 #include "SkColorPriv.h" | 410 #include "SkColorPriv.h" |
428 | 411 |
429 static Sk4f lcd16_to_unit_4f(uint16_t rgb) { | 412 static Sk4f lcd16_to_unit_4f(uint16_t rgb) { |
430 #ifdef SK_PMCOLOR_IS_RGBA | 413 #ifdef SK_PMCOLOR_IS_RGBA |
431 Sk4i rgbi = Sk4i(SkGetPackedR16(rgb), SkGetPackedG16(rgb), SkGetPackedB16(rg
b), 0); | 414 Sk4i rgbi = Sk4i(SkGetPackedR16(rgb), SkGetPackedG16(rgb), SkGetPackedB16(rg
b), 0); |
432 #else | 415 #else |
433 Sk4i rgbi = Sk4i(SkGetPackedB16(rgb), SkGetPackedG16(rgb), SkGetPackedR16(rg
b), 0); | 416 Sk4i rgbi = Sk4i(SkGetPackedB16(rgb), SkGetPackedG16(rgb), SkGetPackedR16(rg
b), 0); |
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514 | 497 |
515 const LCD32Proc procs[] = { | 498 const LCD32Proc procs[] = { |
516 srcover_n_lcd<kSRGB_Dst>, src_n_lcd<kSRGB_Dst>, | 499 srcover_n_lcd<kSRGB_Dst>, src_n_lcd<kSRGB_Dst>, |
517 srcover_1_lcd<kSRGB_Dst>, src_1_lcd<kSRGB_Dst>, | 500 srcover_1_lcd<kSRGB_Dst>, src_1_lcd<kSRGB_Dst>, |
518 | 501 |
519 srcover_n_lcd<kLinear_Dst>, src_n_lcd<kLinear_Dst>, | 502 srcover_n_lcd<kLinear_Dst>, src_n_lcd<kLinear_Dst>, |
520 srcover_1_lcd<kLinear_Dst>, src_1_lcd<kLinear_Dst>, | 503 srcover_1_lcd<kLinear_Dst>, src_1_lcd<kLinear_Dst>, |
521 }; | 504 }; |
522 return procs[flags]; | 505 return procs[flags]; |
523 } | 506 } |
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