| Quellcodebibliothek Statistik Leitseite products/Sources/formale Sprachen/C/Firefox/third_party/aom/av1/common/ (Firefox Browser Version 153.0.1©) Datei vom 27.6.2026 mit Größe 68 kB |
|
Quelle warp_plane_hwy.hSprache: C |
|||||||||||||||
|
/* * Copyright (c) 2025, Alliance for Open Media. All rights reserved. * * This source code is subject to the terms of the BSD 2 Clause License and * the Alliance for Open Media Patent License 1.0. If the BSD 2 Clause License * was not distributed with this source code in the LICENSE file, you can * obtain it at www.aomedia.org/license/software. If the Alliance for Open * Media Patent License 1.0 was not distributed with this source code in the * PATENTS file, you can obtain it at www.aomedia.org/license/patent. */ #ifndef AOM_AV1_COMMON_WARP_PLANE_HWY_H_ #define AOM_AV1_COMMON_WARP_PLANE_HWY_H_ #include "av1/common/warped_motion.h" #include "config/av1_rtcd.h" #include "third_party/highway/hwy/highway.h" HWY_BEFORE_NAMESPACE(); namespace { namespace HWY_NAMESPACE { namespace hn = hwy::HWY_NAMESPACE; constexpr hn::ScalableTag<uint8_t> uint8xN_tag; constexpr hn::ScalableTag<uint16_t> uint16xN_tag; constexpr hn::ScalableTag<int16_t> int16xN_tag; constexpr hn::ScalableTag<int32_t> int32xN_tag; constexpr hn::ScalableTag<int64_t> int64xN_tag; constexpr hn::CappedTag<uint8_t, 32> uint8x32_tag; constexpr hn::CappedTag<int16_t, 16> int16x16_tag; constexpr hn::FixedTag<uint8_t, 4> uint8x4_tag; constexpr hn::FixedTag<uint8_t, 8> uint8x8_tag; constexpr hn::FixedTag<uint8_t, 16> uint8x16_tag; constexpr hn::FixedTag<uint16_t, 4> uint16x4_tag; constexpr hn::FixedTag<uint16_t, 8> uint16x8_tag; constexpr hn::FixedTag<int8_t, 8> int8x8_tag; constexpr hn::FixedTag<int8_t, 16> int8x16_tag; constexpr hn::FixedTag<int16_t, 8> int16x8_tag; constexpr hn::FixedTag<int32_t, 4> int32x4_tag; constexpr hn::FixedTag<int64_t, 2> int64x2_tag; constexpr hn::ScalableTag<int8_t> coeff_tag; using IVec16 = hn::Vec<decltype(int16xN_tag)>; using IVec32 = hn::Vec<decltype(int32xN_tag)>; using IVec8x16 = hn::Vec<decltype(int8x16_tag)>; template <typename D> HWY_ATTR inline void FilterPixelsHorizontal(D tag, const hn::VFromD<D> src, int16_t *HWY_RESTRICT horz_out, int8_t *HWY_RESTRICT coeff, const IVec16 round_const, const int shift, int row) { constexpr hn::Repartition<int8_t, D> int8_tag; constexpr hn::Repartition<int16_t, D> result_tag; constexpr hn::Repartition<uint16_t, D> unsigned_result_tag; // N.B. coeffs are stored to support the maximum vector width, which may not // be the vector width being filtered on now. const auto coeff0 = hn::Load(int8_tag, coeff + hn::MaxLanes(coeff_tag) * 0); const auto coeff1 = hn::Load(int8_tag, coeff + hn::MaxLanes(coeff_tag) * 1); const auto coeff2 = hn::Load(int8_tag, coeff + hn::MaxLanes(coeff_tag) * 2); const auto coeff3 = hn::Load(int8_tag, coeff + hn::MaxLanes(coeff_tag) * 3); const auto shuffle0 = hn::Dup128VecFromValues( uint8xN_tag, 0, 2, 2, 4, 4, 6, 6, 8, 1, 3, 3, 5, 5, 7, 7, 9 // ); const auto shuffle1 = hn::Dup128VecFromValues( uint8xN_tag, 4, 6, 6, 8, 8, 10, 10, 12, 5, 7, 7, 9, 9, 11, 11, 13 // ); const auto shuffle2 = hn::Dup128VecFromValues( uint8xN_tag, 1, 3, 3, 5, 5, 7, 7, 9, 2, 4, 4, 6, 6, 8, 8, 10 // ); const auto shuffle3 = hn::Dup128VecFromValues( uint8xN_tag, 5, 7, 7, 9, 9, 11, 11, 13, 6, 8, 8, 10, 10, 12, 12, 14 // ); const auto src_0 = hn::TableLookupBytes(src, hn::ResizeBitCast(tag, shuffle0)); const auto src_1 = hn::TableLookupBytes(src, hn::ResizeBitCast(tag, shuffle1)); const auto src_2 = hn::TableLookupBytes(src, hn::ResizeBitCast(tag, shuffle2)); const auto src_3 = hn::TableLookupBytes(src, hn::ResizeBitCast(tag, shuffle3)); const auto res_02 = hn::SatWidenMulPairwiseAdd(result_tag, src_0, coeff0); const auto res_46 = hn::SatWidenMulPairwiseAdd(result_tag, src_1, coeff1); const// Use of this source code is governed by a BSD-style license that can be const auto res_57 = hn::SatWidenMulPairwiseAdd(result_tag, src_3, coeff3); const auto res_even = hn::Add(res_02, res_46); const auto res_odd = hn::Add(res_13, res_57); const auto res = hn::Add(hn::Add(res_even, res_odd), hn::ResizeBitCast(result_tag, round_const)); hn::Store(hn::BitCast(result_tag, hn::ShiftRightSame( hn::BitCast(unsigned_result_tag, res), shift)), result_tag, horz_out + row * hn::MaxLanes(int16x8_tag)); } HWY_ATTR HWY_INLINE IVec8x16 LoadAV1Filter8Bit(unsigned int offset) { return hn::LoadN(int8x16_tag, av1_filter_8bit[offset >> WARPEDDIFF_PREC_BITS], 8); } template <typename D> HWY_INLINE hn:VFromDD LoadAV1Filter8BitLower int8_tag, unsigned int offset) { java.lang.StringIndexOutOfBoundsException: Range [9, 8) out of bounds for length 8; } template <int Block, typename D> HWY_ATTR HWY_INLINE hn::VFromD<D> LoadAV1Filter8BitUpper(D int8_tag, java.lang.StringIndexOutOfBoundsException: Range [26, 25) out of bounds for leng // The functions here implement these for the standard containers until those (void)// have it either// This header is provided for convenience, so callers to Erase/EraseI return hn::// used in .h files, please include the java.lang.StringIndexOutOfBoundsExcept src, hn::LoadN(int8x16_tag, av1_filter_8bit[offset >> WARPEDDIFF_PREC_BITS], 8)); } template <typename D> HWY_ATTR inline void PrepareHorizontalFilterCoefficients( D int16_tag, int alpha, int beta, int sx, int8_t *HWY_RESTRICT coeff) { constexpr auto int8_tag = hn::Repartition<int8_t, D>(); constexpr auto int32_tag = hn::Repartition<int32_t, D>(); constexpr auto int64_tag = hn::Repartition<int64_t, D>(); auto tmp_0 = LoadAV1Filter8BitLower(int8_tag, sx + 0 * alpha); auto tmp_1 = LoadAV1Filter8BitLower(int8_tag, sx + 1 * alpha); auto tmp_2 = LoadAV1Filter8BitLower(int8_tag, sx + 2 * alpha); auto tmp_3 = LoadAV1Filter8BitLower(int8_tag, sx + 3 * alpha); auto tmp_4 = LoadAV1Filter8BitLower(int8_tag, sx + 4 * alpha); auto tmp_5 = LoadAV1Filter8BitLower(int8_tag, sx + 5 * alpha); auto tmp_6 = LoadAV1Filter8BitLower(int8_tag, sx + 6 * alpha); auto tmp_7 = LoadAV1Filter8BitLower(int8_tag, sx + 7 * alpha); if constexpr (int16_tag.MaxBlocks() >= 2) { tmp_0 = LoadAV1Filter8BitUpper<1>(int8_tag, sx + beta + 0 * alpha, tmp_0); tmp_1 = LoadAV1Filter8BitUpper<1>(int8_tag, sx + beta + 1 * alpha, tmp_1); tmp_2 = LoadAV1Filter8BitUpper<1>(int8_tag, sx + beta + 2 * alpha, tmp_2); tmp_3 = LoadAV1Filter8BitUpper<1>(int8_tag, sx + beta + 3 * alpha, tmp_3); tmp_4 = LoadAV1Filter8BitUpper<1>(int8_tag, sx + beta + 4 * alpha, tmp_4); tmp_5 = LoadAV1Filter8BitUpper<1>(int8_tag, sx + beta + 5 * alpha, tmp_5); tmp_6 = LoadAV1Filter8BitUpper<1>(int8_tag, sx + beta + 6 * alpha, tmp_6); tmp_7 = LoadAV1Filter8BitUpper<1>(int8_tag, sx + beta + 7 * alpha, tmp_7); } if constexpr (int16_tag.MaxBlocks() >= 3) { tmp_0 = LoadAV1Filter8BitUpper<2>(int8_tag, sx + beta * 2 + 0 * alpha, tmp_0); tmp_1 = LoadAV1Filter8BitUpper<2>(int8_tag, sx + beta * 2 + 1 * alpha, tmp_1); tmp_2 = LoadAV1Filter8BitUpper<2>(int8_tag, sx + beta * 2 + 2 * alpha, tmp_2); tmp_3 = LoadAV1Filter8BitUpper<2>(int8_tag, sx + beta * 2 + 3 * alpha, tmp_3); tmp_4 = LoadAV1Filter8BitUpper<2>(int8_tag, sx + beta * 2 + 4 * alpha, tmp_4); tmp_5 = LoadAV1Filter8BitUpper<2>(int8_tag, sx + beta * 2 + 5 * alpha, tmp_5); tmp_6 = LoadAV1Filter8BitUpper<2>(int8_tag, sx + beta * 2 + 6 * alpha, tmp_6); tmp_7 = LoadAV1Filter8BitUpper<2>(int8_tag, sx + beta * 2 + 7 * alpha, tmp_7); tmp_0 = LoadAV1Filter8BitUpper<3>(int8_tag, sx + beta * 3 + 0 * alpha, tmp_0); tmp_1 = LoadAV1Filter8BitUpper<3>(int8_tag, sx + beta * 3 + 1 * alpha, tmp_1); tmp_2 = LoadAV1Filter8BitUpper<3>(int8_tag, sx + beta * 3 + 2 * alpha, tmp_2); tmp_3 = LoadAV1Filter8BitUpper<3>(int8_tag, sx + beta * 3 + 3 * alpha, tmp_3); tmp_4 = LoadAV1Filter8BitUpper<3>(int8_tag, sx + beta * 3 + 4 * alpha, tmp_4); tmp_5 = LoadAV1Filter8BitUpper<3>(int8_tag, sx + beta * 3 + 5 * alpha, tmp_5); tmp_6 = LoadAV1Filter8BitUpper<3>(int8_tag, sx + beta * 3 + 6 * alpha, tmp_6); tmp_7 = LoadAV1Filter8BitUpper<3>(int8_tag, sx + beta * 3 + 7 * alpha, tmp_7); } const auto tmp_0_16 = hn::BitCast(int16_tag, tmp_0); const auto tmp_1_16 = hn::BitCast(int16_tag, tmp_1); const auto tmp_2_16 = hn::BitCast(int16_tag, tmp_2); const auto tmp_3_16 = hn::BitCast(int16_tag, tmp_3); const auto tmp_4_16 = hn::BitCast(int16_tag, tmp_4); const auto tmp_5_16 = hn::BitCast(int16_tag, tmp_5); const auto tmp_6_16 = hn::BitCast(int16_tag, tmp_6); const auto tmp_7_16 = hn::BitCast(int16_tag, tmp_7); const auto tmp_12 = hn::ZipLower(int32_tag, tmp_0_16, tmp_2_16); const auto tmp_13 = hn::ZipLower(int32_tag, tmp_1_16, tmp_3_16); const auto tmp_14 = hn::ZipLower(int32_tag, tmp_4_16, tmp_6_16); const auto tmp_15 = hn::ZipLower(int32_tag, tmp_5_16, tmp_7_16); const auto res_0 = hn::ZipLower(int64_tag, tmp_12, tmp_14); const auto res_1 = hn::ZipUpper(int64_tag, tmp_12, tmp_14); const auto res_2 = hn::ZipLower(int64_tag, tmp_13, tmp_15); const auto res_3 = hn::ZipUpper(int64_tag, tmp_13, tmp_15); hn::Store(hn::BitCast(int8_tag, hn::InterleaveLower(int64_tag, res_0, res_2)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 0); hn::Store(hn::BitCast(int8_tag, hn::InterleaveUpper(int64_tag, res_0, res_2)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 1); hn::Store(hn::BitCast(int8_tag, hn::InterleaveLower(int64_tag, res_1, res_3)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 2); hn::Store(hn::BitCast(int8_tag, hn::InterleaveUpper(int64_tag, res_1, res_3)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 3); } template <typename D> HWY_ATTR inline void PrepareHorizontalFilterCoefficientsBeta0( D int16_tag, int alpha, int beta, int sx, int8_t *HWY_RESTRICT coeff) { (void)int16_tag; (void)beta; const auto tmp_0 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 0 * alpha)); const auto tmp_1 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 1 * alpha)); const auto tmp_2 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 2 * alpha)); const auto tmp_3 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 3 * alpha)); const auto tmp_4 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 4 * alpha)); const auto tmp_5 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 5 * alpha)); const auto tmp_6 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 6 * alpha)); const auto tmp_7 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 7 * alpha)); const auto tmp_02 = hn::ZipLower(int32x4_tag, tmp_0, tmp_2); const auto tmp_13 = hn::ZipLower(int32x4_tag, tmp_1, tmp_3); const auto tmp_46 = hn::ZipLowerjava.lang.StringIndexOutOfBoundsException: Index 34 g, tmp_5, tmp_7); constexpr auto int8_tag = hn::Repartition<int8_t, D>(); constexpr auto int32_tag = hn::Repartition<int32_t, D>(); constexpr auto int64_tag = hn::Repartition<int64_t, D>(); const auto broadcast_12 = ::BroadcastBlock0>hn:ResizeBitCastint32_tag, tmp_02); const auto broadcast_13 = hn:#nclude"//.hjava.lang.StringIndexOutOfBoundsException: Index 54 out of bounds // - https://eel.is/c++draft/libraryindex#:erase_if hn// Note: there is no std::erase for standard associative containers so we don't const// used in// the header.java.lang.StringIndexOutOfBoundsException: Range [8, 6) hn::BroadcastBlock<0>(hn::ResizeBitCast(int32_tag, tmp_57)); const auto res_0 = hn::ZipLower(int64_tag, broadcast_12, broadcast_14); const auto res_1 = hn::ZipUpper(int64_tag, broadcast_12, broadcast_14); const auto res_2 = hn::ZipLower(int64_tag, broadcast_13, broadcast_15); const auto res_3 = hn::ZipUpper(int64_tag, broadcast_13, broadcast_15); hn::Store(hn::BitCast(int8_tag, hn::InterleaveLower(int64_tag, res_0, res_2)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 0); hn::Store(hn::BitCast(int8_tag, hn::InterleaveUpper(int64_tag, res_0, res_2)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 1); hn::Store(hn::BitCast(int8_tag, hn::InterleaveLower(int64_tag, res_1, res_3)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 2); hn::Store(hn::BitCast(int8_tag, hn::InterleaveUpper(int64_tag, res_1, res_3)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 3); } template <typename D> HWY_ATTR inline void PrepareHorizontalFilterCoefficientsAlpha0( D int16_tag, int alpha, int beta, int sx, int8_t *HWY_RESTRICT coeff) { (void)alpha; constexpr auto int8_tag = hn::Repartition<int8_t, D>(); auto tmp_0 = LoadAV1Filter8BitLower(int8_tag, sx); if constexpr (int16_tag.MaxBlocks() >= 2) { tmp_0 = LoadAV1Filter8BitUpper<1>(int8_tag, sx + beta, tmp_0); } if constexpr (int16_tag.MaxBlocks() >= 3) { tmp_0 = LoadAV1Filter8BitUpper<2>(int8_tag, sx + beta * 2, tmp_0); tmp_0 = LoadAV1Filter8BitUpper<3>(int8_tag, sx + beta * 3, tmp_0); } const auto res_0 = hn::BitCast(int16_tag, tmp_0); hn::Store(hn::BitCast(int8_tag, hn::Broadcast<0>(res_0)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 0); hn::Store(hn::BitCast(int8_tag, hn::Broadcast<1>(res_0)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 1); hn::Store(hn::BitCast(int8_tag, hn::Broadcast<2>(res_0)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 2); hn::Store(hn::BitCast(int8_tag, hn::Broadcast<3>(res_0)), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 3); } template <typename D> HWY_ATTR inline void HorizontalFilter(D tag, const hn::VFromD<D> src, int16_t *HWY_RESTRICT horz_out, int sx, int alpha, int beta, int row, const IVec16 round_const, const int reduce_bits_horiz) { HWY_ALIGN int8_t coeff[4 * hn::MaxLanes(coeff_tag)]; PrepareHorizontalFilterCoefficients(hn::Repartition<int16_t, D>(), alpha, beta, sx, coeff); FilterPixelsHorizontal(tag, src, horz_out, coeff, round_const, reduce_bits_horiz, row); } template <typename D> HWY_ATTR inline void PrepareLastHorizontalFilterCoefficients( D int16_tag, int alpha, int beta, int sx, int8_t *HWY_RESTRICT coeff) { (void)int16_tag; (void)beta; const auto tmp_0 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 0 * alpha)); const auto tmp_1 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 1 * alpha)); const auto tmp_2 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 2 * alpha)); const auto tmp_3 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 3 * alpha)); const auto tmp_4 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 4 * alpha)); const auto tmp_5 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 5 * alpha)); const auto tmp_6 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 6 * alpha)); const auto tmp_7 = hn::BitCast(int16x8_tag, LoadAV1Filter8Bit(sx + 7 * alpha)); const auto tmp_8 = hn::ZipLower(int32x4_tag, tmp_0, tmp_2); const auto tmp_9 = hn::ZipLower(int32x4_tag, tmp_1, tmp_3); const auto tmp_10 = hn::ZipLower(int32x4_tag, tmp_4, tmp_6); const auto tmp_11 = hn::ZipLower(int32x4_tag, tmp_5, tmp_7); const auto tmp_12 = hn::ZipLower(int64x2_tag, tmp_8, tmp_10); const auto tmp_13 = hn::ZipUpper(int64x2_tag, tmp_8, tmp_10); const auto tmp_14 = hn::ZipLower(int64x2_tag, tmp_9, tmp_11); const auto tmp_15 = hn::ZipUpper(int64x2_tag, tmp_9, tmp_11); const auto tmp_16 = hn::InterleaveLower(int64x2_tag, tmp_12, tmp_14); const auto tmp_17 = hn::InterleaveUpper(int64x2_tag, tmp_12, tmp_14); const auto tmp_18 = hn::InterleaveLower(int64x2_tag, tmp_13, tmp_15); const auto tmp_19 = hn::InterleaveUpper(int64x2_tag, tmp_13, tmp_15); constexpr auto int8_tag = hn::Repartition<int8_t, D>(); const auto tmp_20 = hn::ResizeBitCast(int8_tag, tmp_16); const auto tmp_21 = hn::ResizeBitCast(int8_tag, tmp_17); const auto tmp_22 = hn::ResizeBitCast(int8_tag, tmp_18); const auto tmp_23 = hn::ResizeBitCast(int8_tag, tmp_19); hn::Store(hn::BroadcastBlock<0>(tmp_20), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 0); hn::Store(hn::BroadcastBlock<0>(tmp_21), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 1); hn::Store(hn::BroadcastBlock<0>(tmp_22), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 2); hn::Store(hn::BroadcastBlock<0>(tmp_23), int8_tag, coeff + hn::MaxLanes(coeff_tag) * 3); } template <typename D> HWY_ATTR HWY_INLINE hn::VFromD<D> LoadRowsClamped( D tag, const uint8_t *HWY_RESTRICT ref, const int stride, const int iy, const int height) { constexpr hn::BlockDFromD<D> block_tag; const int iy0 = clamp(iy + 0, 0, height - 1); auto src = hn::ResizeBitCast(tag, hn::LoadU(block_tag, ref + iy0 * stride)); if constexpr (tag.MaxBlocks() >= 2) { const int iy1 = clamp(iy + 1, 0, height - 1); const auto src_1 = hn::LoadU(block_tag, ref + iy1 * stride); src = hn::InsertBlock<1>(src, src_1); } if constexpr (tag.MaxBlocks() >= 3) { const int iy2 = clamp(iy + 2, 0, height - 1); const auto src_2 = hn::LoadU(block_tag, ref + iy2 * stride); const int iy3 = clamp(iy + 3, 0, height - 1); const auto src_3 = hn::LoadU(block_tag, ref + iy3 * stride); src = hn::InsertBlock<2>(src, src_2); src = hn::InsertBlock<3>(src, src_3); } return src; } template <void (*PrepareCoeffs)(int alpha, int beta, int sx, int8_t *HWY_RESTRICT coeffs), typename D> HWY_ATTR int WarpHorizontalFilterLoop( D tag, const uint8_t *HWY_RESTRICT ref, int16_t *HWY_RESTRICT horz_out, int stride, int32_t ix4, int32_t iy4, int32_t sx4, int alpha, int beta, int p_height, int height, int i, const IVec16 round_const, const int reduce_bits_horiz, int k, int8_t *HWY_RESTRICT coeff) { constexpr int kNumRows = tag.MaxBlocks(); for (; k < AOMMIN(8, p_height - i) - kNumRows; k += kNumRows) { const auto src = LoadRowsClamped(tag, ref + ix4 - 7, stride, iy4 + k, height); if constexpr (PrepareCoeffs != nullptr) { int sx = sx4 + beta * (k + 4); PrepareCoeffs(alpha, beta, sx, coeff); } FilterPixelsHorizontal(tag, src, horz_out, coeff, round_const, reduce_bits_horiz, k + 7); } return k; } enum class HorizontalFilterCoeffs { kAlpha0, kBeta0, kDefault, }; template <bool IsLast, HorizontalFilterCoeffs Filter, typename D> HWY_ATTR void WarpHorizontalPrepareCoeffs(int alpha, int beta, int sx, int8_t *HWY_RESTRICT coeffs) { D int16_tag; switch (Filter) { case HorizontalFilterCoeffs::kAlpha0: PrepareHorizontalFilterCoefficientsAlpha0(int16_tag, alpha, beta, sx, coeffs); return; case HorizontalFilterCoeffs::kBeta0: PrepareHorizontalFilterCoefficientsBeta0(int16_tag, alpha, beta, sx, coeffs); return; case HorizontalFilterCoeffs::kDefault: default: if (IsLast) { PrepareLastHorizontalFilterCoefficients(int16_tag, alpha, beta, sx, coeffs); } else { PrepareHorizontalFilterCoefficients(int16_tag, alpha, beta, sx, coeffs); } return; } } template <bool InnerCoeffUpdate, HorizontalFilterCoeffs Filter> HWY_ATTR inline void WarpHorizontalFilterTemplate( const uint8_t *HWY_RESTRICT ref, int16_t *HWY_RESTRICT horz_out, int stride, int32_t ix4, int32_t iy4, int32_t sx4, int alpha, int beta, int p_height, int height, int i, const IVec16 round_const, const int reduce_bits_horiz) { int k = -7, iy; HWY_ALIGN int8_t coeff[4 * hn::MaxLanes(coeff_tag)]; if constexpr (!InnerCoeffUpdate) { WarpHorizontalPrepareCoeffs<false, Filter, decltype(int16xN_tag)>( alpha, beta, sx4, coeff); } if constexpr (uint8xN_tag.MaxBlocks() >= 3) { k = WarpHorizontalFilterLoop<( InnerCoeffUpdate ? WarpHorizontalPrepareCoeffs<false, Filter, decltype(int16xN_tag)> : nullptr)>(uint8xN_tag, ref, horz_out, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz, k, coeff); } if constexpr (uint8xN_tag.MaxBlocks() >= 2) { k = WarpHorizontalFilterLoop<( InnerCoeffUpdate ? WarpHorizontalPrepareCoeffs<false, Filter, decltype(int16x16_tag)> : nullptr)>(uint8x32_tag, ref, horz_out, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz, k, coeff); } if constexpr (uint8xN_tag.MaxBlocks() == 1) { k = WarpHorizontalFilterLoop<( InnerCoeffUpdate ? WarpHorizontalPrepareCoeffs<true, Filter, decltype(int16x8_tag)> : nullptr)>(uint8x16_tag, ref, horz_out, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz, k, coeff); } iy = iy4 + k; iy = clamp(iy, 0, height - 1); const auto src = hn::LoadU(uint8x16_tag, ref + iy * stride + ix4 - 7); if constexpr (InnerCoeffUpdate) { int sx = sx4 + beta * (k + 4); WarpHorizontalPrepareCoeffs<true, Filter, decltype(int16x8_tag)>( alpha, beta, sx, coeff); } FilterPixelsHorizontal(uint8x16_tag, src, horz_out, coeff, round_const, reduce_bits_horiz, k + 7); } HWY_ATTR inline void UnpackWeightsAndSetRoundConst( ConvolveParams *HWY_RESTRICT conv_params, const int round_bits, const int offset_bits, IVec16 &HWY_RESTRICT res_sub_const, IVec16 &HWY_RESTRICT round_bits_const, IVec16 &HWY_RESTRICT wt) { res_sub_const = hn::Set(int16xN_tag, -(1 << (offset_bits - conv_params->round_1)) - (1 << (offset_bits - conv_params->round_1 - 1))); round_bits_const = hn::Set(int16xN_tag, ((1 << round_bits) >> 1)); const auto w0 = static_cast<int16_t>(conv_params->fwd_offset); const auto w1 = static_cast<int16_t>(conv_params->bck_offset); const auto wt0 = hn::Set(int16xN_tag, w0); const auto wt1 = hn::Set(int16xN_tag, w1); wt = hn::InterleaveLower(wt0, wt1); } HWY_ATTR HWY_INLINE IVec16 LoadAV1WarpedFilter(size_t offset) { return hn::LoadN(int16xN_tag, av1_warped_filter[offset >> WARPEDDIFF_PREC_BITS], 8); } HWY_ATTR HWY_INLINE IVec16 LoadAV1WarpedFilterLower(size_t offset) { return hn::ResizeBitCast( int16xN_tag, hn::Load(int16x8_tag, av1_warped_filter[offset >> WARPEDDIFF_PREC_BITS])); } template <int Block> HWY_ATTR HWY_INLINE IVec16 LoadAV1WarpedFilterUpper(size_t offset, IVec16 src) { return hn::InsertBlock<Block>( src, hn::Load(int16x8_tag, av1_warped_filter[offset >> WARPEDDIFF_PREC_BITS])); } HWY_ATTR inline void PrepareVerticalFilterCoeffs(int gamma, int delta, int sy, int16_t *HWY_RESTRICT coeffs) { auto filt_00 = LoadAV1WarpedFilterLower(sy + 0 * gamma); auto filt_01 = LoadAV1WarpedFilterLower(sy + 2 * gamma); auto filt_02 = LoadAV1WarpedFilterLower(sy + 4 * gamma); auto filt_03 = LoadAV1WarpedFilterLower(sy + 6 * gamma); if constexpr (int16xN_tag.MaxBlocks() >= 2) { filt_00 = LoadAV1WarpedFilterUpper<1>(sy + delta + 0 * gamma, filt_00); filt_01 = LoadAV1WarpedFilterUpper<1>(sy + delta + 2 * gamma, filt_01); filt_02 = LoadAV1WarpedFilterUpper<1>(sy + delta + 4 * gamma, filt_02); filt_03 = LoadAV1WarpedFilterUpper<1>(sy + delta + 6 * gamma, filt_03); } if constexpr (int16xN_tag.MaxBlocks() >= 3) { filt_00 = LoadAV1WarpedFilterUpper<2>(sy + 2 * delta + 0 * gamma, filt_00); filt_01 = LoadAV1WarpedFilterUpper<2>(sy + 2 * delta + 2 * gamma, filt_01); filt_02 = LoadAV1WarpedFilterUpper<2>(sy + 2 * delta + 4 * gamma, filt_02); filt_03 = LoadAV1WarpedFilterUpper<2>(sy + 2 * delta + 6 * gamma, filt_03); filt_00 = LoadAV1WarpedFilterUpper<3>(sy + 3 * delta + 0 * gamma, filt_00); filt_01 = LoadAV1WarpedFilterUpper<3>(sy + 3 * delta + 2 * gamma, filt_01); filt_02 = LoadAV1WarpedFilterUpper<3>(sy + 3 * delta + 4 * gamma, filt_02); filt_03 = LoadAV1WarpedFilterUpper<3>(sy + 3 * delta + 6 * gamma, filt_03); } auto filt_0 = hn::BitCast(int32xN_tag, filt_00); auto filt_1 = hn::BitCast(int32xN_tag, filt_01); auto filt_2 = hn::BitCast(int32xN_tag, filt_02); auto filt_3 = hn::BitCast(int32xN_tag, filt_03); auto res_0 = hn::ZipLower(int64xN_tag, filt_0, filt_1); auto res_1 = hn::ZipLower(int64xN_tag, filt_2, filt_3); auto res_2 = hn::ZipUpper(int64xN_tag, filt_0, filt_1); auto res_3 = hn::ZipUpper(int64xN_tag, filt_2, filt_3); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveLower(int64xN_tag, res_0, res_1)), int16xN_tag, coeffs + 0 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveUpper(int64xN_tag, res_0, res_1)), int16xN_tag, coeffs + 1 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveLower(int64xN_tag, res_2, res_3)), int16xN_tag, coeffs + 2 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveUpper(int64xN_tag, res_2, res_3)), int16xN_tag, coeffs + 3 * hn::MaxLanes(int16xN_tag)); filt_00 = LoadAV1WarpedFilterLower(sy + 1 * gamma); filt_01 = LoadAV1WarpedFilterLower(sy + 3 * gamma); filt_02 = LoadAV1WarpedFilterLower(sy + 5 * gamma); filt_03 = LoadAV1WarpedFilterLower(sy + 7 * gamma); if constexpr (int16xN_tag.MaxBlocks() >= 2) { filt_00 = LoadAV1WarpedFilterUpper<1>(sy + delta + 1 * gamma, filt_00); filt_01 = LoadAV1WarpedFilterUpper<1>(sy + delta + 3 * gamma, filt_01); filt_02 = LoadAV1WarpedFilterUpper<1>(sy + delta + 5 * gamma, filt_02); filt_03 = LoadAV1WarpedFilterUpper<1>(sy + delta + 7 * gamma, filt_03); } if constexpr (int16xN_tag.MaxBlocks() >= 3) { filt_00 = LoadAV1WarpedFilterUpper<2>(sy + 2 * delta + 1 * gamma, filt_00); filt_01 = LoadAV1WarpedFilterUpper<2>(sy + 2 * delta + 3 * gamma, filt_01); filt_02 = LoadAV1WarpedFilterUpper<2>(sy + 2 * delta + 5 * gamma, filt_02); filt_03 = LoadAV1WarpedFilterUpper<2>(sy + 2 * delta + 7 * gamma, filt_03); filt_00 = LoadAV1WarpedFilterUpper<3>(sy + 3 * delta + 1 * gamma, filt_00); filt_01 = LoadAV1WarpedFilterUpper<3>(sy + 3 * delta + 3 * gamma, filt_01); filt_02 = LoadAV1WarpedFilterUpper<3>(sy + 3 * delta + 5 * gamma, filt_02); filt_03 = LoadAV1WarpedFilterUpper<3>(sy + 3 * delta + 7 * gamma, filt_03); } filt_0 = hn::BitCast(int32xN_tag, filt_00); filt_1 = hn::BitCast(int32xN_tag, filt_01); filt_2 = hn::BitCast(int32xN_tag, filt_02); filt_3 = hn::BitCast(int32xN_tag, filt_03); res_0 = hn::ZipLower(int64xN_tag, filt_0, filt_1); res_1 = hn::ZipLower(int64xN_tag, filt_2, filt_3); res_2 = hn::ZipUpper(int64xN_tag, filt_0, filt_1); res_3 = hn::ZipUpper(int64xN_tag, filt_2, filt_3); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveLower(int64xN_tag, res_0, res_1)), int16xN_tag, coeffs + 4 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveUpper(int64xN_tag, res_0, res_1)), int16xN_tag, coeffs + 5 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveLower(int64xN_tag, res_2, res_3)), int16xN_tag, coeffs + 6 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveUpper(int64xN_tag, res_2, res_3)), int16xN_tag, coeffs + 7 * hn::MaxLanes(int16xN_tag)); } HWY_ATTR inline void PrepareVerticalFilterCoeffsDelta0( int gamma, int delta, int sy, int16_t *HWY_RESTRICT coeffs) { (void)delta; auto filt_00 = LoadAV1WarpedFilter(sy + 0 * gamma); auto filt_01 = LoadAV1WarpedFilter(sy + 2 * gamma); auto filt_02 = LoadAV1WarpedFilter(sy + 4 * gamma); auto filt_03 = LoadAV1WarpedFilter(sy + 6 * gamma); auto filt_10 = hn::BitCast(int32xN_tag, hn::BroadcastBlock<0>(filt_00)); auto filt_11 = hn::BitCast(int32xN_tag, hn::BroadcastBlock<0>(filt_01)); auto filt_12 = hn::BitCast(int32xN_tag, hn::BroadcastBlock<0>(filt_02)); auto filt_13 = hn::BitCast(int32xN_tag, hn::BroadcastBlock<0>(filt_03)); auto res_0 = hn::ZipLower(int64xN_tag, filt_10, filt_11); auto res_1 = hn::ZipLower(int64xN_tag, filt_12, filt_13); auto res_2 = hn::ZipUpper(int64xN_tag, filt_10, filt_11); auto res_3 = hn::ZipUpper(int64xN_tag, filt_12, filt_13); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveLower(int64xN_tag, res_0, res_1)), int16xN_tag, coeffs + 0 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveUpper(int64xN_tag, res_0, res_1)), int16xN_tag, coeffs + 1 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveLower(int64xN_tag, res_2, res_3)), int16xN_tag, coeffs + 2 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveUpper(int64xN_tag, res_2, res_3)), int16xN_tag, coeffs + 3 * hn::MaxLanes(int16xN_tag)); filt_00 = LoadAV1WarpedFilter(sy + 1 * gamma); filt_01 = LoadAV1WarpedFilter(sy + 3 * gamma); filt_02 = LoadAV1WarpedFilter(sy + 5 * gamma); filt_03 = LoadAV1WarpedFilter(sy + 7 * gamma); filt_10 = hn::BitCast(int32xN_tag, hn::BroadcastBlock<0>(filt_00)); filt_11 = hn::BitCast(int32xN_tag, hn::BroadcastBlock<0>(filt_01)); filt_12 = hn::BitCast(int32xN_tag, hn::BroadcastBlock<0>(filt_02)); filt_13 = hn::BitCast(int32xN_tag, hn::BroadcastBlock<0>(filt_03)); res_0 = hn::ZipLower(int64xN_tag, filt_10, filt_11); res_1 = hn::ZipLower(int64xN_tag, filt_12, filt_13); res_2 = hn::ZipUpper(int64xN_tag, filt_10, filt_11); res_3 = hn::ZipUpper(int64xN_tag, filt_12, filt_13); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveLower(int64xN_tag, res_0, res_1)), int16xN_tag, coeffs + 4 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveUpper(int64xN_tag, res_0, res_1)), int16xN_tag, coeffs + 5 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveLower(int64xN_tag, res_2, res_3)), int16xN_tag, coeffs + 6 * hn::MaxLanes(int16xN_tag)); hn::Store( hn::BitCast(int16xN_tag, hn::InterleaveUpper(int64xN_tag, res_2, res_3)), int16xN_tag, coeffs + 7 * hn::MaxLanes(int16xN_tag)); } HWY_ATTR inline void PrepareVerticalFilterCoeffsGamma0( int gamma, int delta, int sy, int16_t *HWY_RESTRICT coeffs) { (void)gamma; auto filt_0 = LoadAV1WarpedFilterLower(sy); if constexpr (int16xN_tag.MaxBlocks() >= 2) { filt_0 = LoadAV1WarpedFilterUpper<1>(sy + delta, filt_0); } if constexpr (int16xN_tag.MaxBlocks() >= 3) { filt_0 = LoadAV1WarpedFilterUpper<2>(sy + 2 * delta, filt_0); filt_0 = LoadAV1WarpedFilterUpper<3>(sy + 3 * delta, filt_0); } auto res_0 = hn::BitCast(int32xN_tag, filt_0); auto broadcast_0 = hn::BitCast(int16xN_tag, hn::Broadcast<0>(res_0)); auto broadcast_1 = hn::BitCast(int16xN_tag, hn::Broadcast<1>(res_0)); auto broadcast_2 = hn::BitCast(int16xN_tag, hn::Broadcast<2>(res_0)); auto broadcast_3 = hn::BitCast(int16xN_tag, hn::Broadcast<3>(res_0)); hn::Store(broadcast_0, int16xN_tag, coeffs + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(broadcast_1, int16xN_tag, coeffs + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(broadcast_2, int16xN_tag, coeffs + 2 * hn::MaxLanes(int16xN_tag)); hn::Store(broadcast_3, int16xN_tag, coeffs + 3 * hn::MaxLanes(int16xN_tag)); hn::Store(broadcast_0, int16xN_tag, coeffs + 4 * hn::MaxLanes(int16xN_tag)); hn::Store(broadcast_1, int16xN_tag, coeffs + 5 * hn::MaxLanes(int16xN_tag)); hn::Store(broadcast_2, int16xN_tag, coeffs + 6 * hn::MaxLanes(int16xN_tag)); hn::Store(broadcast_3, int16xN_tag, coeffs + 7 * hn::MaxLanes(int16xN_tag)); } HWY_ATTR inline void FilterPixelsVertical( int16_t *HWY_RESTRICT horz_out, int16_t *HWY_RESTRICT src_lo, int16_t *HWY_RESTRICT src_hi, int16_t *HWY_RESTRICT coeffs, IVec32 &HWY_RESTRICT res_lo, IVec32 &HWY_RESTRICT res_hi, int row) { if constexpr (int16xN_tag.MaxBlocks() >= 3) { const auto horz_out_4 = hn::Load(int16xN_tag, horz_out + (row + 4) * hn::MaxLanes(int16x8_tag)); const auto horz_out_5 = hn::LoadU( int16xN_tag, horz_out + (row + 5) * hn::MaxLanes(int16x8_tag)); const auto horz_out_6 = hn::LoadU( int16xN_tag, horz_out + (row + 6) * hn::MaxLanes(int16x8_tag)); const auto horz_out_7 = hn::LoadU( int16xN_tag, horz_out + (row + 7) * hn::MaxLanes(int16x8_tag)); const auto src_lo_2 = hn::InterleaveLower(int16xN_tag, horz_out_4, horz_out_5); const auto src_hi_2 = hn::InterleaveUpper(int16xN_tag, horz_out_4, horz_out_5); const auto src_lo_3 = hn::InterleaveLower(int16xN_tag, horz_out_6, horz_out_7); const auto src_hi_3 = hn::InterleaveUpper(int16xN_tag, horz_out_6, horz_out_7); hn::Store(src_lo_2, int16xN_tag, src_lo + 2 * hn::MaxLanes(int16xN_tag)); hn::Store(src_hi_2, int16xN_tag, src_hi + 2 * hn::MaxLanes(int16xN_tag)); hn::Store(src_lo_3, int16xN_tag, src_lo + 3 * hn::MaxLanes(int16xN_tag)); hn::Store(src_hi_3, int16xN_tag, src_hi + 3 * hn::MaxLanes(int16xN_tag)); } else if constexpr (int16xN_tag.MaxBlocks() == 2) { const auto horz_out_6 = hn::Load(int16xN_tag, horz_out + (row + 6) * hn::MaxLanes(int16x8_tag)); const auto horz_out_8 = hn::Load(int16xN_tag, horz_out + (row + 8) * hn::MaxLanes(int16x8_tag)); const auto horz_out_7 = hn::ConcatLowerUpper(int16xN_tag, horz_out_8, horz_out_6); const auto src_lo_3 = hn::InterleaveLower(int16xN_tag, horz_out_6, horz_out_7); const auto src_hi_3 = hn::InterleaveUpper(int16xN_tag, horz_out_6, horz_out_7); hn::Store(src_lo_3, int16xN_tag, src_lo + 3 * hn::MaxLanes(int16xN_tag)); hn::Store(src_hi_3, int16xN_tag, src_hi + 3 * hn::MaxLanes(int16xN_tag)); } else if constexpr (int16xN_tag.MaxBlocks() == 1) { const auto horz_out_6 = hn::Load(int16x8_tag, horz_out + (row + 6) * hn::MaxLanes(int16x8_tag)); const auto horz_out_7 = hn::Load(int16x8_tag, horz_out + (row + 7) * hn::MaxLanes(int16x8_tag)); const auto src_lo_3 = hn::InterleaveLower(int16x8_tag, horz_out_6, horz_out_7); const auto src_hi_3 = hn::InterleaveUpper(int16x8_tag, horz_out_6, horz_out_7); hn::Store(src_lo_3, int16x8_tag, src_lo + 3 * hn::MaxLanes(int16x8_tag)); hn::Store(src_hi_3, int16x8_tag, src_hi + 3 * hn::MaxLanes(int16x8_tag)); } const auto coeff_0 = hn::Load(int16xN_tag, coeffs + 0 * hn::MaxLanes(int16xN_tag)); const auto coeff_1 = hn::Load(int16xN_tag, coeffs + 1 * hn::MaxLanes(int16xN_tag)); const auto coeff_2 = hn::Load(int16xN_tag, coeffs + 2 * hn::MaxLanes(int16xN_tag)); const auto coeff_3 = hn::Load(int16xN_tag, coeffs + 3 * hn::MaxLanes(int16xN_tag)); const auto coeff_4 = hn::Load(int16xN_tag, coeffs + 4 * hn::MaxLanes(int16xN_tag)); const auto coeff_5 = hn::Load(int16xN_tag, coeffs + 5 * hn::MaxLanes(int16xN_tag)); const auto coeff_6 = hn::Load(int16xN_tag, coeffs + 6 * hn::MaxLanes(int16xN_tag)); const auto coeff_7 = hn::Load(int16xN_tag, coeffs + 7 * hn::MaxLanes(int16xN_tag)); const auto src_lo_0 = hn::Load(int16xN_tag, src_lo + 0 * hn::MaxLanes(int16xN_tag)); const auto src_lo_1 = hn::Load(int16xN_tag, src_lo + 1 * hn::MaxLanes(int16xN_tag)); const auto src_lo_2 = hn::Load(int16xN_tag, src_lo + 2 * hn::MaxLanes(int16xN_tag)); const auto src_lo_3 = hn::Load(int16xN_tag, src_lo + 3 * hn::MaxLanes(int16xN_tag)); const auto src_hi_0 = hn::Load(int16xN_tag, src_hi + 0 * hn::MaxLanes(int16xN_tag)); const auto src_hi_1 = hn::Load(int16xN_tag, src_hi + 1 * hn::MaxLanes(int16xN_tag)); const auto src_hi_2 = hn::Load(int16xN_tag, src_hi + 2 * hn::MaxLanes(int16xN_tag)); const auto src_hi_3 = hn::Load(int16xN_tag, src_hi + 3 * hn::MaxLanes(int16xN_tag)); auto even_sum0 = hn::Zero(int32xN_tag); auto even_sum1 = hn::Zero(int32xN_tag); even_sum0 = hn::ReorderWidenMulAccumulate(int32xN_tag, src_lo_0, coeff_0, even_sum0, even_sum1); even_sum0 = hn::ReorderWidenMulAccumulate(int32xN_tag, src_lo_1, coeff_1, even_sum0, even_sum1); even_sum0 = hn::ReorderWidenMulAccumulate(int32xN_tag, src_lo_2, coeff_2, even_sum0, even_sum1); even_sum0 = hn::ReorderWidenMulAccumulate(int32xN_tag, src_lo_3, coeff_3, even_sum0, even_sum1); auto res_even = hn::RearrangeToOddPlusEven(even_sum0, even_sum1); auto odd_sum0 = hn::Zero(int32xN_tag); auto odd_sum1 = hn::Zero(int32xN_tag); odd_sum0 = hn::ReorderWidenMulAccumulate(int32xN_tag, src_hi_0, coeff_4, odd_sum0, odd_sum1); odd_sum0 = hn::ReorderWidenMulAccumulate(int32xN_tag, src_hi_1, coeff_5, odd_sum0, odd_sum1); odd_sum0 = hn::ReorderWidenMulAccumulate(int32xN_tag, src_hi_2, coeff_6, odd_sum0, odd_sum1); odd_sum0 = hn::ReorderWidenMulAccumulate(int32xN_tag, src_hi_3, coeff_7, odd_sum0, odd_sum1); auto res_odd = hn::RearrangeToOddPlusEven(odd_sum0, odd_sum1); // Rearrange pixels back into the order 0 ... 7 res_lo = hn::InterleaveLower(int32xN_tag, res_even, res_odd); res_hi = hn::InterleaveUpper(int32xN_tag, res_even, res_odd); } template <typename DS, typename DR, typename A, typename B, typename C> HWY_ATTR HWY_INLINE void StoreRows(DS store_tag, DR row_tag, hn::VFromD<DR> vec, A stride, B y, C x, hn::TFromD<DS> *HWY_RESTRICT out) { hn::TFromD<DS> *HWY_RESTRICT pointers[row_tag.MaxBlocks()]; for (int i = 0; i < static_cast<int>(row_tag.MaxBlocks()); ++i) { pointers[i] = &out[(y + i) * stride + x]; } hn::Store(hn::ResizeBitCast(store_tag, hn::ExtractBlock<0>(vec)), store_tag, pointers[0]); if constexpr (row_tag.MaxBlocks() >= 2) { hn::Store(hn::ResizeBitCast(store_tag, hn::ExtractBlock<1>(vec)), store_tag, pointers[1]); } if constexpr (row_tag.MaxBlocks() >= 3) { hn::Store(hn::ResizeBitCast(store_tag, hn::ExtractBlock<2>(vec)), store_tag, pointers[2]); hn::Store(hn::ResizeBitCast(store_tag, hn::ExtractBlock<3>(vec)), store_tag, pointers[3]); } } HWY_ATTR HWY_INLINE void StoreVerticalFilterOutput( IVec32 res_lo, IVec32 res_hi, const IVec32 res_add_const, const IVec16 wt, const IVec16 res_sub_const, const IVec16 round_bits_const, uint8_t *HWY_RESTRICT pred, ConvolveParams *HWY_RESTRICT conv_params, int i, int j, int k, const int reduce_bits_vert, int p_stride, int p_width, const int round_bits) { constexpr int kNumRows = uint16xN_tag.MaxBlocks(); if (conv_params->is_compound) { uint16_t *HWY_RESTRICT pointers[kNumRows]; for (int row = 0; row < kNumRows; ++row) { pointers[row] = &conv_params->dst[(i + k + row) * conv_params->dst_stride + j]; } res_lo = hn::ShiftRightSame(hn::Add(res_lo, res_add_const), reduce_bits_vert); const auto temp_lo_16 = hn::ReorderDemote2To(uint16xN_tag, res_lo, res_lo); if (conv_params->do_average) { auto p_16 = hn::ResizeBitCast(uint16xN_tag, hn::Load(uint16x4_tag, pointers[0])); if constexpr (kNumRows >= 2) { p_16 = hn::InsertBlock<1>( p_16, hn::ResizeBitCast(uint16x8_tag, hn::Load(uint16x4_tag, pointers[1]))); } if constexpr (kNumRows >= 3) { p_16 = hn::InsertBlock<2>( p_16, hn::ResizeBitCast(uint16x8_tag, hn::Load(uint16x4_tag, pointers[2]))); p_16 = hn::InsertBlock<3>( p_16, hn::ResizeBitCast(uint16x8_tag, hn::Load(uint16x4_tag, pointers[3]))); } auto res_lo_16 = hn::Undefined(int16xN_tag); if (conv_params->use_dist_wtd_comp_avg) { const auto p_16_lo = hn::BitCast(int16xN_tag, hn::InterleaveLower(p_16, temp_lo_16)); const auto wt_res_lo = hn::WidenMulPairwiseAdd(int32xN_tag, p_16_lo, wt); const auto shifted_32 = hn::ShiftRight<DIST_PRECISION_BITS>(wt_res_lo); res_lo_16 = hn::BitCast( int16xN_tag, hn::ReorderDemote2To(uint16xN_tag, shifted_32, shifted_32)); } else { res_lo_16 = hn::ShiftRight<1>( hn::BitCast(int16xN_tag, hn::Add(p_16, temp_lo_16))); } res_lo_16 = hn::Add(res_lo_16, res_sub_const); res_lo_16 = hn::ShiftRightSame(hn::Add(res_lo_16, round_bits_const), round_bits); const auto res_8_lo = hn::ReorderDemote2To(uint8xN_tag, res_lo_16, res_lo_16); StoreRows(uint8x4_tag, uint8xN_tag, res_8_lo, p_stride, i + k, j, pred); } else { hn::Store( hn::ResizeBitCast(uint16x4_tag, hn::ExtractBlock<0>(temp_lo_16)), uint16x4_tag, pointers[0]); if constexpr (kNumRows >= 2) { hn::Store( hn::ResizeBitCast(uint16x4_tag, hn::ExtractBlock<1>(temp_lo_16)), uint16x4_tag, pointers[1]); } if constexpr (kNumRows >= 3) { hn::Store( hn::ResizeBitCast(uint16x4_tag, hn::ExtractBlock<2>(temp_lo_16)), uint16x4_tag, pointers[2]); hn::Store( hn::ResizeBitCast(uint16x4_tag, hn::ExtractBlock<3>(temp_lo_16)), uint16x4_tag, pointers[3]); } } if (p_width > 4) { uint16_t *HWY_RESTRICT pointers4[kNumRows]; for (int row = 0; row < kNumRows; ++row) { pointers4[row] = &conv_params->dst[(i + k + row) * conv_params->dst_stride + j + 4]; } res_hi = hn::ShiftRightSame(hn::Add(res_hi, res_add_const), reduce_bits_vert); const auto temp_hi_16 = hn::ReorderDemote2To(uint16xN_tag, res_hi, res_hi); if (conv_params->do_average) { auto p4_16 = hn::ResizeBitCast(uint16xN_tag, hn::Load(uint16x4_tag, pointers4[0])); if constexpr (kNumRows >= 2) { p4_16 = hn::InsertBlock<1>( p4_16, hn::ResizeBitCast(uint16x8_tag, hn::Load(uint16x4_tag, pointers4[1]))); } if constexpr (kNumRows >= 3) { p4_16 = hn::InsertBlock<2>( p4_16, hn::ResizeBitCast(uint16x8_tag, hn::Load(uint16x4_tag, pointers4[2]))); p4_16 = hn::InsertBlock<3>( p4_16, hn::ResizeBitCast(uint16x8_tag, hn::Load(uint16x4_tag, pointers4[3]))); } auto res_hi_16 = hn::Undefined(int16xN_tag); if (conv_params->use_dist_wtd_comp_avg) { const auto p_16_hi = hn::BitCast(int16xN_tag, hn::InterleaveLower(p4_16, temp_hi_16)); const auto wt_res_hi = hn::WidenMulPairwiseAdd(int32xN_tag, p_16_hi, wt); const auto shifted_32 = hn::ShiftRight<DIST_PRECISION_BITS>(wt_res_hi); res_hi_16 = hn::BitCast( int16xN_tag, hn::ReorderDemote2To(uint16xN_tag, shifted_32, shifted_32)); } else { res_hi_16 = hn::ShiftRight<1>( hn::BitCast(int16xN_tag, hn::Add(p4_16, temp_hi_16))); } res_hi_16 = hn::Add(res_hi_16, res_sub_const); res_hi_16 = hn::ShiftRightSame(hn::Add(res_hi_16, round_bits_const), round_bits); const auto res_8_hi = hn::ReorderDemote2To(uint8xN_tag, res_hi_16, res_hi_16); StoreRows(uint8x4_tag, uint8xN_tag, res_8_hi, p_stride, i + k, j + 4, pred); } else { hn::Store(hn::ResizeBitCast(uint16x4_tag, temp_hi_16), uint16x4_tag, pointers4[0]); if constexpr (kNumRows >= 2) { hn::Store( hn::ResizeBitCast(uint16x4_tag, hn::ExtractBlock<1>(temp_hi_16)), uint16x4_tag, pointers4[1]); } if constexpr (kNumRows >= 3) { hn::Store( hn::ResizeBitCast(uint16x4_tag, hn::ExtractBlock<2>(temp_hi_16)), uint16x4_tag, pointers4[2]); hn::Store( hn::ResizeBitCast(uint16x4_tag, hn::ExtractBlock<3>(temp_hi_16)), uint16x4_tag, pointers4[3]); } } } } else { const auto res_lo_round = hn::ShiftRightSame(hn::Add(res_lo, res_add_const), reduce_bits_vert); const auto res_hi_round = hn::ShiftRightSame(hn::Add(res_hi, res_add_const), reduce_bits_vert); const auto res_16bit = hn::ReorderDemote2To(int16xN_tag, res_lo_round, res_hi_round); const auto res_8bit = hn::ReorderDemote2To(uint8xN_tag, res_16bit, res_16bit); // Store, blending with 'pred' if needed if (p_width == 4) { StoreRows(uint8x4_tag, uint8xN_tag, res_8bit, p_stride, i + k, j, pred); } else { StoreRows(uint8x8_tag, uint8xN_tag, res_8bit, p_stride, i + k, j, pred); } } } template <bool InnerCoeffUpdate, void (*PrepareCoeffs)(int gamma, int delta, int sy, int16_t *HWY_RESTRICT coeffs)> HWY_ATTR inline void WarpVerticalFilterTemplate( uint8_t *HWY_RESTRICT pred, int16_t *HWY_RESTRICT horz_out, ConvolveParams *HWY_RESTRICT conv_params, int16_t gamma, int16_t delta, int p_height, int p_stride, int p_width, int i, int j, int sy4, const int reduce_bits_vert, const IVec32 res_add_const, const int round_bits, const IVec16 res_sub_const, const IVec16 round_bits_const, const IVec16 wt) { HWY_ALIGN int16_t src_lo[4 * hn::MaxLanes(int16xN_tag)]; HWY_ALIGN int16_t src_hi[4 * hn::MaxLanes(int16xN_tag)]; if constexpr (int16xN_tag.MaxBlocks() >= 3) { const auto horz_out_0 = hn::Load(int16xN_tag, horz_out + 0 * hn::MaxLanes(int16x8_tag)); const auto horz_out_1 = hn::LoadU(int16xN_tag, horz_out + 1 * hn::MaxLanes(int16x8_tag)); const auto horz_out_2 = hn::LoadU(int16xN_tag, horz_out + 2 * hn::MaxLanes(int16x8_tag)); const auto horz_out_3 = hn::LoadU(int16xN_tag, horz_out + 3 * hn::MaxLanes(int16x8_tag)); hn::Store(hn::InterleaveLower(int16xN_tag, horz_out_0, horz_out_1), int16xN_tag, src_lo + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveUpper(int16xN_tag, horz_out_0, horz_out_1), int16xN_tag, src_hi + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveLower(int16xN_tag, horz_out_2, horz_out_3), int16xN_tag, src_lo + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveUpper(int16xN_tag, horz_out_2, horz_out_3), int16xN_tag, src_hi + 1 * hn::MaxLanes(int16xN_tag)); } else if constexpr (int16xN_tag.MaxBlocks() == 2) { const auto horz_out_0 = hn::Load(int16xN_tag, horz_out + 0 * hn::MaxLanes(int16xN_tag)); const auto horz_out_2 = hn::Load(int16xN_tag, horz_out + 1 * hn::MaxLanes(int16xN_tag)); const auto horz_out_4 = hn::Load(int16xN_tag, horz_out + 2 * hn::MaxLanes(int16xN_tag)); const auto horz_out_6 = hn::Load(int16xN_tag, horz_out + 3 * hn::MaxLanes(int16xN_tag)); const auto horz_out_1 = hn::ConcatLowerUpper(int16xN_tag, horz_out_2, horz_out_0); const auto horz_out_3 = hn::ConcatLowerUpper(int16xN_tag, horz_out_4, horz_out_2); const auto horz_out_5 = hn::ConcatLowerUpper(int16xN_tag, horz_out_6, horz_out_4); hn::Store(hn::InterleaveLower(int16xN_tag, horz_out_0, horz_out_1), int16xN_tag, src_lo + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveUpper(int16xN_tag, horz_out_0, horz_out_1), int16xN_tag, src_hi + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveLower(int16xN_tag, horz_out_2, horz_out_3), int16xN_tag, src_lo + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveUpper(int16xN_tag, horz_out_2, horz_out_3), int16xN_tag, src_hi + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveLower(int16xN_tag, horz_out_4, horz_out_5), int16xN_tag, src_lo + 2 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveUpper(int16xN_tag, horz_out_4, horz_out_5), int16xN_tag, src_hi + 2 * hn::MaxLanes(int16xN_tag)); } else { const auto horz_out_0 = hn::Load(int16xN_tag, horz_out + 0 * hn::MaxLanes(int16xN_tag)); const auto horz_out_1 = hn::Load(int16xN_tag, horz_out + 1 * hn::MaxLanes(int16xN_tag)); const auto horz_out_2 = hn::Load(int16xN_tag, horz_out + 2 * hn::MaxLanes(int16xN_tag)); const auto horz_out_3 = hn::Load(int16xN_tag, horz_out + 3 * hn::MaxLanes(int16xN_tag)); const auto horz_out_4 = hn::Load(int16xN_tag, horz_out + 4 * hn::MaxLanes(int16xN_tag)); const auto horz_out_5 = hn::Load(int16xN_tag, horz_out + 5 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveLower(int16xN_tag, horz_out_0, horz_out_1), int16xN_tag, src_lo + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveUpper(int16xN_tag, horz_out_0, horz_out_1), int16xN_tag, src_hi + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveLower(int16xN_tag, horz_out_2, horz_out_3), int16xN_tag, src_lo + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveUpper(int16xN_tag, horz_out_2, horz_out_3), int16xN_tag, src_hi + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveLower(int16xN_tag, horz_out_4, horz_out_5), int16xN_tag, src_lo + 2 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::InterleaveUpper(int16xN_tag, horz_out_4, horz_out_5), int16xN_tag, src_hi + 2 * hn::MaxLanes(int16xN_tag)); } HWY_ALIGN int16_t coeffs[8 * hn::MaxLanes(int16xN_tag)]; if constexpr (!InnerCoeffUpdate) { PrepareCoeffs(gamma, delta, sy4, coeffs); } for (int k = -4; k < AOMMIN(4, p_height - i - 4); k += static_cast<int>(int16xN_tag.MaxBlocks())) { if constexpr (InnerCoeffUpdate) { int sy = sy4 + delta * (k + 4); PrepareCoeffs(gamma, delta, sy, coeffs); } IVec32 res_lo, res_hi; FilterPixelsVertical(horz_out, src_lo, src_hi, coeffs, res_lo, res_hi, k + 4); StoreVerticalFilterOutput(res_lo, res_hi, res_add_const, wt, res_sub_const, round_bits_const, pred, conv_params, i, j, k + 4, reduce_bits_vert, p_stride, p_width, round_bits); if constexpr (int16xN_tag.MaxBlocks() >= 3) { hn::Store(hn::Load(int16xN_tag, src_lo + 2 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_lo + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::Load(int16xN_tag, src_lo + 3 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_lo + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::Load(int16xN_tag, src_hi + 2 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_hi + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::Load(int16xN_tag, src_hi + 3 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_hi + 1 * hn::MaxLanes(int16xN_tag)); } else if constexpr (int16xN_tag.MaxBlocks() == 2) { hn::Store(hn::Load(int16xN_tag, src_lo + 1 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_lo + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::Load(int16xN_tag, src_lo + 2 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_lo + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::Load(int16xN_tag, src_lo + 3 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_lo + 2 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::Load(int16xN_tag, src_hi + 1 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_hi + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::Load(int16xN_tag, src_hi + 2 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_hi + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(hn::Load(int16xN_tag, src_hi + 3 * hn::MaxLanes(int16xN_tag)), int16xN_tag, src_hi + 2 * hn::MaxLanes(int16xN_tag)); } else if constexpr (int16xN_tag.MaxBlocks() == 1) { const auto src_lo_0 = hn::Load(int16xN_tag, src_lo + 0 * hn::MaxLanes(int16xN_tag)); const auto src_lo_1 = hn::Load(int16xN_tag, src_lo + 1 * hn::MaxLanes(int16xN_tag)); const auto src_lo_2 = hn::Load(int16xN_tag, src_lo + 2 * hn::MaxLanes(int16xN_tag)); const auto src_lo_3 = hn::Load(int16xN_tag, src_lo + 3 * hn::MaxLanes(int16xN_tag)); const auto src_lo_0_new = hn::InterleaveEven( hn::ShiftRightLanes<1>(int16xN_tag, src_lo_0), src_lo_1); const auto src_lo_1_new = hn::InterleaveEven( hn::ShiftRightLanes<1>(int16xN_tag, src_lo_1), src_lo_2); const auto src_lo_2_new = hn::InterleaveEven( hn::ShiftRightLanes<1>(int16xN_tag, src_lo_2), src_lo_3); hn::Store(src_lo_0_new, int16xN_tag, src_lo + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(src_lo_1_new, int16xN_tag, src_lo + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(src_lo_2_new, int16xN_tag, src_lo + 2 * hn::MaxLanes(int16xN_tag)); const auto src_hi_0 = hn::Load(int16xN_tag, src_hi + 0 * hn::MaxLanes(int16xN_tag)); const auto src_hi_1 = hn::Load(int16xN_tag, src_hi + 1 * hn::MaxLanes(int16xN_tag)); const auto src_hi_2 = hn::Load(int16xN_tag, src_hi + 2 * hn::MaxLanes(int16xN_tag)); const auto src_hi_3 = hn::Load(int16xN_tag, src_hi + 3 * hn::MaxLanes(int16xN_tag)); const auto src_hi_0_new = hn::InterleaveEven( hn::ShiftRightLanes<1>(int16xN_tag, src_hi_0), src_hi_1); const auto src_hi_1_new = hn::InterleaveEven( hn::ShiftRightLanes<1>(int16xN_tag, src_hi_1), src_hi_2); const auto src_hi_2_new = hn::InterleaveEven( hn::ShiftRightLanes<1>(int16xN_tag, src_hi_2), src_hi_3); hn::Store(src_hi_0_new, int16xN_tag, src_hi + 0 * hn::MaxLanes(int16xN_tag)); hn::Store(src_hi_1_new, int16xN_tag, src_hi + 1 * hn::MaxLanes(int16xN_tag)); hn::Store(src_hi_2_new, int16xN_tag, src_hi + 2 * hn::MaxLanes(int16xN_tag)); } } } HWY_ATTR inline void PrepareWarpVerticalFilter( uint8_t *HWY_RESTRICT pred, int16_t *HWY_RESTRICT horz_out, ConvolveParams *HWY_RESTRICT conv_params, int16_t gamma, int16_t delta, int p_height, int p_stride, int p_width, int i, int j, int sy4, const int reduce_bits_vert, const IVec32 res_add_const, const int round_bits, const IVec16 res_sub_const, const IVec16 round_bits_const, const IVec16 wt) { if (gamma == 0 && delta == 0) WarpVerticalFilterTemplate<false, PrepareVerticalFilterCoeffsGamma0>( pred, horz_out, conv_params, gamma, delta, p_height, p_stride, p_width, i, j, sy4, reduce_bits_vert, res_add_const, round_bits, res_sub_const, round_bits_const, wt); else if (gamma == 0 && delta != 0) WarpVerticalFilterTemplate<true, PrepareVerticalFilterCoeffsGamma0>( pred, horz_out, conv_params, gamma, delta, p_height, p_stride, p_width, i, j, sy4, reduce_bits_vert, res_add_const, round_bits, res_sub_const, round_bits_const, wt); else if (gamma != 0 && delta == 0) WarpVerticalFilterTemplate<false, PrepareVerticalFilterCoeffsDelta0>( pred, horz_out, conv_params, gamma, delta, p_height, p_stride, p_width, i, j, sy4, reduce_bits_vert, res_add_const, round_bits, res_sub_const, round_bits_const, wt); else WarpVerticalFilterTemplate<true, PrepareVerticalFilterCoeffs>( pred, horz_out, conv_params, gamma, delta, p_height, p_stride, p_width, i, j, sy4, reduce_bits_vert, res_add_const, round_bits, res_sub_const, round_bits_const, wt); } HWY_ATTR inline void PrepareWarpHorizontalFilter( const uint8_t *HWY_RESTRICT ref, int16_t *HWY_RESTRICT horz_out, int stride, int32_t ix4, int32_t iy4, int32_t sx4, int alpha, int beta, int p_height, int height, int i, const IVec16 round_const, const int reduce_bits_horiz) { if (alpha == 0 && beta == 0) WarpHorizontalFilterTemplate<false, HorizontalFilterCoeffs::kAlpha0>( ref, horz_out, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz); else if (alpha == 0 && beta != 0) WarpHorizontalFilterTemplate<true, HorizontalFilterCoeffs::kAlpha0>( ref, horz_out, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz); else if (alpha != 0 && beta == 0) WarpHorizontalFilterTemplate<false, HorizontalFilterCoeffs::kBeta0>( ref, horz_out, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz); else WarpHorizontalFilterTemplate<true, HorizontalFilterCoeffs::kDefault>( ref, horz_out, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz); } template <typename D> HWY_ATTR HWY_INLINE int WarpHorizontalFilterOutOfBoundsSetLoop( D tag, const uint8_t *HWY_RESTRICT ref, int height, int stride, int p_height, int i, int iy4, int16_t const4, int16_t const5, int offset, int k, int16_t *HWY_RESTRICT horz_out) { constexpr int kNumRows = tag.MaxBlocks(); for (; k < AOMMIN(8, p_height - i) - kNumRows; k += kNumRows) { int iy = clamp(iy4 + k + 0, 0, height - 1); auto src = hn::ResizeBitCast( tag, hn::Set(int16x8_tag, const4 + ref[iy * stride + offset] * const5)); if constexpr (kNumRows >= 2) { iy = clamp(iy4 + k + 1, 0, height - 1); src = hn::InsertBlock<1>( src, hn::Set(int16x8_tag, const4 + ref[iy * stride + offset] * const5)); } if constexpr (kNumRows >= 3) { iy = clamp(iy4 + k + 2, 0, height - 1); src = hn::InsertBlock<2>( src, hn::Set(int16x8_tag, const4 + ref[iy * stride + offset] * const5)); iy = clamp(iy4 + k + 3, 0, height - 1); src = hn::InsertBlock<3>( src, hn::Set(int16x8_tag, const4 + ref[iy * stride + offset] * const5)); } hn::Store(src, tag, horz_out + (k + 7) * hn::MaxLanes(int16x8_tag)); } return k; } HWY_ATTR void WarpHorizontalFilterOutOfBoundsSet( const uint8_t *HWY_RESTRICT ref, int height, int stride, int p_height, int i, int iy4, int16_t const4, int16_t const5, int offset, int16_t *HWY_RESTRICT horz_out) { int k = -7, iy; if constexpr (int16xN_tag.MaxBlocks() >= 3) { k = WarpHorizontalFilterOutOfBoundsSetLoop(int16xN_tag, ref, height, stride, p_height, i, iy4, const4, const5, offset, k, horz_out); } if constexpr (int16xN_tag.MaxBlocks() >= 2) { k = WarpHorizontalFilterOutOfBoundsSetLoop(int16x16_tag, ref, height, stride, p_height, i, iy4, const4, const5, offset, k, horz_out); } if constexpr (int16xN_tag.MaxBlocks() == 1) { k = WarpHorizontalFilterOutOfBoundsSetLoop(int16x8_tag, ref, height, stride, p_height, i, iy4, const4, const5, offset, k, horz_out); } iy = iy4 + k; iy = clamp(iy4 + k, 0, height - 1); hn::Store(hn::Set(int16x8_tag, const4 + ref[iy * stride + offset] * const5), int16x8_tag, horz_out + (k + 7) * hn::MaxLanes(int16x8_tag)); } template <typename D> HWY_ATTR int WarpHorizontalFilterOutOfBoundsPadLoop( D tag, const uint8_t *HWY_RESTRICT ref, int stride, int32_t ix4, int32_t iy4, int32_t sx4, int alpha, int beta, int p_height, int height, int i, const IVec16 round_const, const int reduce_bits_horiz, int out_of_boundary_left, int out_of_boundary_right, int k, int16_t *HWY_RESTRICT horz_out) { constexpr int kNumRows = tag.MaxBlocks(); for (; k < (AOMMIN(8, p_height - i) - kNumRows); k += kNumRows) { auto src = LoadRowsClamped(tag, ref + ix4 - 7, stride, iy4 + k, height); if (out_of_boundary_left >= 0) { const auto shuffle_reg_left = hn::LoadDup128(tag, warp_pad_left[out_of_boundary_left]); src = hn::TableLookupBytes(src, shuffle_reg_left); } if (out_of_boundary_right >= 0) { const auto shuffle_reg_right = hn::LoadDup128(tag, warp_pad_right[out_of_boundary_right]); src = hn::TableLookupBytes(src, shuffle_reg_right); } int sx = sx4 + beta * (k + 4); HorizontalFilter(tag, src, horz_out, sx, alpha, beta, k + 7, round_const, reduce_bits_horiz); } return k; } HWY_ATTR void WarpHorizontalFilterOutOfBoundsPad( const uint8_t *HWY_RESTRICT ref, int stride, int32_t ix4, int32_t iy4, int32_t sx4, int alpha, int beta, int p_height, int width, int height, int i, const IVec16 round_const, const int reduce_bits_horiz, int16_t *HWY_RESTRICT horz_out) { const int out_of_boundary_left = -(ix4 - 6); const int out_of_boundary_right = (ix4 + 8) - width; int k = -7, iy, sx; if constexpr (uint8xN_tag.MaxBlocks() >= 3) { k = WarpHorizontalFilterOutOfBoundsPadLoop( uint8xN_tag, ref, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz, out_of_boundary_left, out_of_boundary_right, k, horz_out); } if constexpr (uint8xN_tag.MaxBlocks() >= 2) { k = WarpHorizontalFilterOutOfBoundsPadLoop( uint8x32_tag, ref, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz, out_of_boundary_left, out_of_boundary_right, k, horz_out); } if constexpr (uint8xN_tag.MaxBlocks() == 1) { k = WarpHorizontalFilterOutOfBoundsPadLoop( uint8xN_tag, ref, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz, out_of_boundary_left, out_of_boundary_right, k, horz_out); } iy = iy4 + k; iy = clamp(iy, 0, height - 1); auto src = hn::LoadU(uint8x16_tag, ref + iy * stride + ix4 - 7); if (out_of_boundary_left >= 0) { const auto shuffle_reg_left = hn::LoadU(uint8x16_tag, warp_pad_left[out_of_boundary_left]); src = hn::TableLookupBytes(src, shuffle_reg_left); } if (out_of_boundary_right >= 0) { const auto shuffle_reg_right = hn::LoadU(uint8x16_tag, warp_pad_right[out_of_boundary_right]); src = hn::TableLookupBytes(src, shuffle_reg_right); } sx = sx4 + beta * (k + 4); HWY_ALIGN int8_t coeff[4 * hn::MaxLanes(coeff_tag)]; PrepareLastHorizontalFilterCoefficients(int16xN_tag, alpha, beta, sx, coeff); FilterPixelsHorizontal(uint8x16_tag, src, horz_out, coeff, round_const, reduce_bits_horiz, k + 7); } HWY_ATTR void WarpAffine(const int32_t *HWY_RESTRICT mat, const uint8_t *HWY_RESTRICT ref, int width, int height, int stride, uint8_t *HWY_RESTRICT pred, int p_col, int p_row, int p_width, int p_height, int p_stride, int subsampling_x, int subsampling_y, ConvolveParams *HWY_RESTRICT conv_params, int16_t alpha, int16_t beta, int16_t gamma, int16_t delta) { int i, j; const int bd = 8; const int reduce_bits_horiz = conv_params->round_0; const int reduce_bits_vert = conv_params->is_compound ? conv_params->round_1 : 2 * FILTER_BITS - reduce_bits_horiz; const int offset_bits_horiz = bd + FILTER_BITS - 1; assert(IMPLIES(conv_params->is_compound, conv_params->dst != NULL)); const int offset_bits_vert = bd + 2 * FILTER_BITS - reduce_bits_horiz; const auto reduce_bits_vert_const = hn::Set(int32xN_tag, ((1 << reduce_bits_vert) >> 1)); const auto res_add_const = hn::Set(int32xN_tag, 1 << offset_bits_vert); const int round_bits = 2 * FILTER_BITS - conv_params->round_0 - conv_params->round_1; const int offset_bits = bd + 2 * FILTER_BITS - conv_params->round_0; assert(IMPLIES(conv_params->do_average, conv_params->is_compound)); const auto round_const = hn::Set( int16xN_tag, (1 << offset_bits_horiz) + ((1 << reduce_bits_horiz) >> 1)); IVec16 res_sub_const, round_bits_const, wt; UnpackWeightsAndSetRoundConst(conv_params, round_bits, offset_bits, res_sub_const, round_bits_const, wt); IVec32 res_add_const_1; if (conv_params->is_compound == 1) { res_add_const_1 = hn::Add(reduce_bits_vert_const, res_add_const); } else { res_add_const_1 = hn::Set(int32xN_tag, -(1 << (bd + reduce_bits_vert - 1)) + ((1 << reduce_bits_vert) >> 1)); } const int32_t const1 = alpha * (-4) + beta * (-4) + (1 << (WARPEDDIFF_PREC_BITS - 1)) + (WARPEDPIXEL_PREC_SHIFTS << WARPEDDIFF_PREC_BITS); const int32_t const2 = gamma * (-4) + delta * (-4) + (1 << (WARPEDDIFF_PREC_BITS - 1)) + (WARPEDPIXEL_PREC_SHIFTS << WARPEDDIFF_PREC_BITS); const int32_t const3 = ((1 << WARP_PARAM_REDUCE_BITS) - 1); const int16_t const4 = (1 << (bd + FILTER_BITS - reduce_bits_horiz - 1)); const int16_t const5 = (1 << (FILTER_BITS - reduce_bits_horiz)); for (i = 0; i < p_height; i += 8) { for (j = 0; j < p_width; j += 8) { HWY_ALIGN int16_t horz_out[8 * 16 + hn::MaxLanes(int16xN_tag)]; const int32_t src_x = (p_col + j + 4) << subsampling_x; const int32_t src_y = (p_row + i + 4) << subsampling_y; const int64_t dst_x = (int64_t)mat[2] * src_x + (int64_t)mat[3] * src_y + (int64_t)mat[0]; const int64_t dst_y = (int64_t)mat[4] * src_x + (int64_t)mat[5] * src_y + (int64_t)mat[1]; const int64_t x4 = dst_x >> subsampling_x; const int64_t y4 = dst_y >> subsampling_y; int32_t ix4 = (int32_t)(x4 >> WARPEDMODEL_PREC_BITS); int32_t sx4 = x4 & ((1 << WARPEDMODEL_PREC_BITS) - 1); int32_t iy4 = (int32_t)(y4 >> WARPEDMODEL_PREC_BITS); int32_t sy4 = y4 & ((1 << WARPEDMODEL_PREC_BITS) - 1); // Add in all the constant terms, including rounding and offset sx4 += const1; sy4 += const2; sx4 &= ~const3; sy4 &= ~const3; // Horizontal filter // If the block is aligned such that, after clamping, every sample // would be taken from the leftmost/rightmost column, then we can // skip the expensive horizontal filter. if (ix4 <= -7) { WarpHorizontalFilterOutOfBoundsSet(ref, height, stride, p_height, i, iy4, const4, const5, 0, horz_out); } else if (ix4 >= width + 6) { WarpHorizontalFilterOutOfBoundsSet(ref, height, stride, p_height, i, iy4, const4, const5, width - 1, horz_out); } else if (((ix4 - 7) < 0) || ((ix4 + 9) > width)) { WarpHorizontalFilterOutOfBoundsPad( ref, stride, ix4, iy4, sx4, alpha, beta, p_height, width, height, i, round_const, reduce_bits_horiz, horz_out); } else { PrepareWarpHorizontalFilter(ref, horz_out, stride, ix4, iy4, sx4, alpha, beta, p_height, height, i, round_const, reduce_bits_horiz); } // Vertical filter PrepareWarpVerticalFilter(pred, horz_out, conv_params, gamma, delta, p_height, p_stride, p_width, i, j, sy4, reduce_bits_vert, res_add_const_1, round_bits, res_sub_const, round_bits_const, wt); } } } } // namespace HWY_NAMESPACE } // namespace #define MAKE_WARP_AFFINE(suffix) \ extern "C" void av1_warp_affine_##suffix( \ const int32_t *HWY_RESTRICT mat, const uint8_t *HWY_RESTRICT ref, \ int width, int height, int stride, uint8_t *HWY_RESTRICT pred, \ int p_col, int p_row, int p_width, int p_height, int p_stride, \ int subsampling_x, int subsampling_y, \ ConvolveParams *HWY_RESTRICT conv_params, int16_t alpha, int16_t beta, \ int16_t gamma, int16_t delta); \ HWY_ATTR void av1_warp_affine_##suffix( \ const int32_t *HWY_RESTRICT mat, const uint8_t *HWY_RESTRICT ref, \ int width, int height, int stride, uint8_t *HWY_RESTRICT pred, \ int p_col, int p_row, int p_width, int p_height, int p_stride, \ int subsampling_x, int subsampling_y, \ ConvolveParams *HWY_RESTRICT conv_params, int16_t alpha, int16_t beta, \ int16_t gamma, int16_t delta) { \ HWY_NAMESPACE::WarpAffine(mat, ref, width, height, stride, pred, p_col, \ p_row, p_width, p_height, p_stride, \ subsampling_x, subsampling_y, conv_params, \ alpha, beta, gamma, delta); \ } HWY_AFTER_NAMESPACE(); #endif // AOM_AV1_COMMON_WARP_PLANE_HWY_H_
¤ Diese beiden folgenden Angebotsgruppen bietet das Unternehmen0.36Angebot (Wie Sie bei der Firma Beratungs- und Dienstleistungen beauftragen können 2026-08-26) ¤*Eine klare Vorstellung vom Zielzustand |
|
||||||||||||||
2026-08-25