cocos-engine-external/sources/acl/compression/impl/sample_streams.h

1232 lines
50 KiB
C++

#pragma once
////////////////////////////////////////////////////////////////////////////////
// The MIT License (MIT)
//
// Copyright (c) 2017 Nicholas Frechette & Animation Compression Library contributors
//
// Permission is hereby granted, free of charge, to any person obtaining a copy
// of this software and associated documentation files (the "Software"), to deal
// in the Software without restriction, including without limitation the rights
// to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
// copies of the Software, and to permit persons to whom the Software is
// furnished to do so, subject to the following conditions:
//
// The above copyright notice and this permission notice shall be included in all
// copies or substantial portions of the Software.
//
// THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
// IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
// FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
// AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
// LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
// OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
// SOFTWARE.
////////////////////////////////////////////////////////////////////////////////
#include "acl/core/iallocator.h"
#include "acl/core/impl/compiler_utils.h"
#include "acl/core/error.h"
#include "acl/core/track_formats.h"
#include "acl/core/utils.h"
#include "acl/core/variable_bit_rates.h"
#include "acl/math/quat_packing.h"
#include "acl/math/vector4_packing.h"
#include "acl/compression/impl/track_stream.h"
#include "acl/compression/impl/normalize_streams.h"
#include "acl/compression/impl/convert_rotation_streams.h"
#include <rtm/quatf.h>
#include <rtm/qvvf.h>
#include <rtm/vector4f.h>
#include <cstdint>
ACL_IMPL_FILE_PRAGMA_PUSH
namespace acl
{
namespace acl_impl
{
inline rtm::vector4f RTM_SIMD_CALL load_rotation_sample(const uint8_t* ptr, rotation_format8 format, uint8_t bit_rate)
{
switch (format)
{
case rotation_format8::quatf_full:
return unpack_vector4_128(ptr);
case rotation_format8::quatf_drop_w_full:
return unpack_vector3_96_unsafe(ptr);
case rotation_format8::quatf_drop_w_variable:
ACL_ASSERT(bit_rate != k_invalid_bit_rate, "Invalid bit rate!");
if (is_constant_bit_rate(bit_rate))
{
return unpack_vector3_u48_unsafe(ptr);
}
else if (is_raw_bit_rate(bit_rate))
return unpack_vector3_96_unsafe(ptr);
else
{
const uint32_t num_bits_at_bit_rate = get_num_bits_at_bit_rate(bit_rate);
return unpack_vector3_uXX_unsafe(num_bits_at_bit_rate, ptr, 0);
}
default:
ACL_ASSERT(false, "Invalid or unsupported rotation format: %s", get_rotation_format_name(format));
return rtm::vector_zero();
}
}
inline rtm::vector4f RTM_SIMD_CALL load_vector_sample(const uint8_t* ptr, vector_format8 format, uint8_t bit_rate)
{
switch (format)
{
case vector_format8::vector3f_full:
return unpack_vector3_96_unsafe(ptr);
case vector_format8::vector3f_variable:
ACL_ASSERT(bit_rate != k_invalid_bit_rate, "Invalid bit rate!");
if (is_constant_bit_rate(bit_rate))
return unpack_vector3_u48_unsafe(ptr);
else if (is_raw_bit_rate(bit_rate))
return unpack_vector3_96_unsafe(ptr);
else
{
const uint32_t num_bits_at_bit_rate = get_num_bits_at_bit_rate(bit_rate);
return unpack_vector3_uXX_unsafe(num_bits_at_bit_rate, ptr, 0);
}
default:
ACL_ASSERT(false, "Invalid or unsupported vector format: %s", get_vector_format_name(format));
return rtm::vector_zero();
}
}
inline rtm::quatf RTM_SIMD_CALL rotation_to_quat_32(rtm::vector4f_arg0 rotation, rotation_format8 format)
{
switch (format)
{
case rotation_format8::quatf_full:
return rtm::vector_to_quat(rotation);
case rotation_format8::quatf_drop_w_full:
case rotation_format8::quatf_drop_w_variable:
return rtm::quat_from_positive_w(rotation);
default:
ACL_ASSERT(false, "Invalid or unsupported rotation format: %s", get_rotation_format_name(format));
return rtm::quat_identity();
}
}
// Gets a rotation sample from the format/bit rate stored
inline rtm::quatf RTM_SIMD_CALL get_rotation_sample(const BoneStreams& bone_steams, uint32_t sample_index)
{
const SegmentContext* segment = bone_steams.segment;
const clip_context* clip = segment->clip;
const rotation_format8 format = bone_steams.rotations.get_rotation_format();
const uint8_t bit_rate = bone_steams.rotations.get_bit_rate();
if (format == rotation_format8::quatf_drop_w_variable && is_constant_bit_rate(bit_rate))
sample_index = 0;
const uint8_t* quantized_ptr = bone_steams.rotations.get_raw_sample_ptr(sample_index);
rtm::vector4f packed_rotation = acl_impl::load_rotation_sample(quantized_ptr, format, bit_rate);
if (!bone_steams.is_rotation_constant && clip->are_rotations_normalized && !is_raw_bit_rate(bit_rate))
{
if (segment->are_rotations_normalized && !is_constant_bit_rate(bit_rate))
{
const BoneRanges& segment_bone_range = segment->ranges[bone_steams.bone_index];
const rtm::vector4f segment_range_min = segment_bone_range.rotation.get_min();
const rtm::vector4f segment_range_extent = segment_bone_range.rotation.get_extent();
packed_rotation = rtm::vector_mul_add(packed_rotation, segment_range_extent, segment_range_min);
}
const BoneRanges& clip_bone_range = clip->ranges[bone_steams.bone_index];
const rtm::vector4f clip_range_min = clip_bone_range.rotation.get_min();
const rtm::vector4f clip_range_extent = clip_bone_range.rotation.get_extent();
packed_rotation = rtm::vector_mul_add(packed_rotation, clip_range_extent, clip_range_min);
}
return acl_impl::rotation_to_quat_32(packed_rotation, format);
}
// Gets a rotation sample at the specified bit rate
inline rtm::quatf RTM_SIMD_CALL get_rotation_sample(const BoneStreams& bone_steams, const BoneStreams& raw_bone_steams, uint32_t sample_index, uint8_t bit_rate)
{
const SegmentContext* segment = bone_steams.segment;
const clip_context* clip = segment->clip;
const rotation_format8 format = bone_steams.rotations.get_rotation_format();
rtm::vector4f rotation;
if (is_constant_bit_rate(bit_rate))
{
const uint8_t* quantized_ptr = raw_bone_steams.rotations.get_raw_sample_ptr(segment->clip_sample_offset);
rotation = acl_impl::load_rotation_sample(quantized_ptr, rotation_format8::quatf_full, k_invalid_bit_rate);
rotation = convert_rotation(rotation, rotation_format8::quatf_full, format);
}
else if (is_raw_bit_rate(bit_rate))
{
const uint8_t* quantized_ptr = raw_bone_steams.rotations.get_raw_sample_ptr(segment->clip_sample_offset + sample_index);
rotation = acl_impl::load_rotation_sample(quantized_ptr, rotation_format8::quatf_full, k_invalid_bit_rate);
rotation = convert_rotation(rotation, rotation_format8::quatf_full, format);
}
else
{
const uint8_t* quantized_ptr = bone_steams.rotations.get_raw_sample_ptr(sample_index);
rotation = acl_impl::load_rotation_sample(quantized_ptr, format, 0);
}
// Pack and unpack at our desired bit rate
const uint32_t num_bits_at_bit_rate = get_num_bits_at_bit_rate(bit_rate);
rtm::vector4f packed_rotation;
if (is_constant_bit_rate(bit_rate))
{
const BoneRanges& clip_bone_range = segment->clip->ranges[bone_steams.bone_index];
const rtm::vector4f normalized_rotation = normalize_sample(rotation, clip_bone_range.rotation);
packed_rotation = decay_vector3_u48(normalized_rotation);
}
else if (is_raw_bit_rate(bit_rate))
packed_rotation = rotation;
else
packed_rotation = decay_vector3_uXX(rotation, num_bits_at_bit_rate);
if (!is_raw_bit_rate(bit_rate))
{
if (segment->are_rotations_normalized && !is_constant_bit_rate(bit_rate))
{
const BoneRanges& segment_bone_range = segment->ranges[bone_steams.bone_index];
const rtm::vector4f segment_range_min = segment_bone_range.rotation.get_min();
const rtm::vector4f segment_range_extent = segment_bone_range.rotation.get_extent();
packed_rotation = rtm::vector_mul_add(packed_rotation, segment_range_extent, segment_range_min);
}
const BoneRanges& clip_bone_range = clip->ranges[bone_steams.bone_index];
const rtm::vector4f clip_range_min = clip_bone_range.rotation.get_min();
const rtm::vector4f clip_range_extent = clip_bone_range.rotation.get_extent();
packed_rotation = rtm::vector_mul_add(packed_rotation, clip_range_extent, clip_range_min);
}
return acl_impl::rotation_to_quat_32(packed_rotation, format);
}
// Gets a rotation sample with the desired format
inline rtm::quatf RTM_SIMD_CALL get_rotation_sample(const BoneStreams& bone_steams, uint32_t sample_index, rotation_format8 desired_format)
{
const SegmentContext* segment = bone_steams.segment;
const clip_context* clip = segment->clip;
const uint8_t* quantized_ptr = bone_steams.rotations.get_raw_sample_ptr(sample_index);
const rotation_format8 format = bone_steams.rotations.get_rotation_format();
const rtm::vector4f rotation = acl_impl::load_rotation_sample(quantized_ptr, format, 0);
// Pack and unpack in our desired format
rtm::vector4f packed_rotation;
switch (desired_format)
{
case rotation_format8::quatf_full:
case rotation_format8::quatf_drop_w_full:
packed_rotation = rotation;
break;
default:
ACL_ASSERT(false, "Invalid or unsupported rotation format: %s", get_rotation_format_name(desired_format));
packed_rotation = rtm::vector_zero();
break;
}
const bool are_rotations_normalized = clip->are_rotations_normalized && !bone_steams.is_rotation_constant;
if (are_rotations_normalized)
{
if (segment->are_rotations_normalized)
{
const BoneRanges& segment_bone_range = segment->ranges[bone_steams.bone_index];
const rtm::vector4f segment_range_min = segment_bone_range.rotation.get_min();
const rtm::vector4f segment_range_extent = segment_bone_range.rotation.get_extent();
packed_rotation = rtm::vector_mul_add(packed_rotation, segment_range_extent, segment_range_min);
}
const BoneRanges& clip_bone_range = clip->ranges[bone_steams.bone_index];
const rtm::vector4f clip_range_min = clip_bone_range.rotation.get_min();
const rtm::vector4f clip_range_extent = clip_bone_range.rotation.get_extent();
packed_rotation = rtm::vector_mul_add(packed_rotation, clip_range_extent, clip_range_min);
}
return acl_impl::rotation_to_quat_32(packed_rotation, format);
}
// Gets a translation sample from the format/bit rate stored
inline rtm::vector4f RTM_SIMD_CALL get_translation_sample(const BoneStreams& bone_steams, uint32_t sample_index)
{
const SegmentContext* segment = bone_steams.segment;
const clip_context* clip = segment->clip;
const bool are_translations_normalized = clip->are_translations_normalized;
const vector_format8 format = bone_steams.translations.get_vector_format();
const uint8_t bit_rate = bone_steams.translations.get_bit_rate();
if (format == vector_format8::vector3f_variable && is_constant_bit_rate(bit_rate))
sample_index = 0;
const uint8_t* quantized_ptr = bone_steams.translations.get_raw_sample_ptr(sample_index);
rtm::vector4f packed_translation = acl_impl::load_vector_sample(quantized_ptr, format, bit_rate);
if (!bone_steams.is_translation_constant && are_translations_normalized && !is_raw_bit_rate(bit_rate))
{
if (segment->are_translations_normalized && !is_constant_bit_rate(bit_rate))
{
const BoneRanges& segment_bone_range = segment->ranges[bone_steams.bone_index];
const rtm::vector4f segment_range_min = segment_bone_range.translation.get_min();
const rtm::vector4f segment_range_extent = segment_bone_range.translation.get_extent();
packed_translation = rtm::vector_mul_add(packed_translation, segment_range_extent, segment_range_min);
}
const BoneRanges& clip_bone_range = clip->ranges[bone_steams.bone_index];
const rtm::vector4f clip_range_min = clip_bone_range.translation.get_min();
const rtm::vector4f clip_range_extent = clip_bone_range.translation.get_extent();
packed_translation = rtm::vector_mul_add(packed_translation, clip_range_extent, clip_range_min);
}
return packed_translation;
}
// Gets a translation sample at the specified bit rate
inline rtm::vector4f RTM_SIMD_CALL get_translation_sample(const BoneStreams& bone_steams, const BoneStreams& raw_bone_steams, uint32_t sample_index, uint8_t bit_rate)
{
const SegmentContext* segment = bone_steams.segment;
const clip_context* clip = segment->clip;
const vector_format8 format = bone_steams.translations.get_vector_format();
const uint8_t* quantized_ptr;
if (is_constant_bit_rate(bit_rate))
quantized_ptr = raw_bone_steams.translations.get_raw_sample_ptr(segment->clip_sample_offset);
else if (is_raw_bit_rate(bit_rate))
quantized_ptr = raw_bone_steams.translations.get_raw_sample_ptr(segment->clip_sample_offset + sample_index);
else
quantized_ptr = bone_steams.translations.get_raw_sample_ptr(sample_index);
const rtm::vector4f translation = acl_impl::load_vector_sample(quantized_ptr, format, 0);
ACL_ASSERT(clip->are_translations_normalized, "Translations must be normalized to support variable bit rates.");
// Pack and unpack at our desired bit rate
rtm::vector4f packed_translation;
if (is_constant_bit_rate(bit_rate))
{
ACL_ASSERT(segment->are_translations_normalized, "Translations must be normalized to support variable bit rates.");
const BoneRanges& clip_bone_range = segment->clip->ranges[bone_steams.bone_index];
const rtm::vector4f normalized_translation = normalize_sample(translation, clip_bone_range.translation);
packed_translation = decay_vector3_u48(normalized_translation);
}
else if (is_raw_bit_rate(bit_rate))
packed_translation = translation;
else
{
const uint32_t num_bits_at_bit_rate = get_num_bits_at_bit_rate(bit_rate);
packed_translation = decay_vector3_uXX(translation, num_bits_at_bit_rate);
}
if (!is_raw_bit_rate(bit_rate))
{
if (segment->are_translations_normalized && !is_constant_bit_rate(bit_rate))
{
const BoneRanges& segment_bone_range = segment->ranges[bone_steams.bone_index];
const rtm::vector4f segment_range_min = segment_bone_range.translation.get_min();
const rtm::vector4f segment_range_extent = segment_bone_range.translation.get_extent();
packed_translation = rtm::vector_mul_add(packed_translation, segment_range_extent, segment_range_min);
}
const BoneRanges& clip_bone_range = clip->ranges[bone_steams.bone_index];
const rtm::vector4f clip_range_min = clip_bone_range.translation.get_min();
const rtm::vector4f clip_range_extent = clip_bone_range.translation.get_extent();
packed_translation = rtm::vector_mul_add(packed_translation, clip_range_extent, clip_range_min);
}
return packed_translation;
}
// Gets a translation sample with the desired format
inline rtm::vector4f RTM_SIMD_CALL get_translation_sample(const BoneStreams& bone_steams, uint32_t sample_index, vector_format8 desired_format)
{
const SegmentContext* segment = bone_steams.segment;
const clip_context* clip = segment->clip;
const bool are_translations_normalized = clip->are_translations_normalized && !bone_steams.is_translation_constant;
const uint8_t* quantized_ptr = bone_steams.translations.get_raw_sample_ptr(sample_index);
const vector_format8 format = bone_steams.translations.get_vector_format();
const rtm::vector4f translation = acl_impl::load_vector_sample(quantized_ptr, format, 0);
// Pack and unpack in our desired format
rtm::vector4f packed_translation;
switch (desired_format)
{
case vector_format8::vector3f_full:
packed_translation = translation;
break;
default:
ACL_ASSERT(false, "Invalid or unsupported vector format: %s", get_vector_format_name(desired_format));
packed_translation = rtm::vector_zero();
break;
}
if (are_translations_normalized)
{
if (segment->are_translations_normalized)
{
const BoneRanges& segment_bone_range = segment->ranges[bone_steams.bone_index];
rtm::vector4f segment_range_min = segment_bone_range.translation.get_min();
rtm::vector4f segment_range_extent = segment_bone_range.translation.get_extent();
packed_translation = rtm::vector_mul_add(packed_translation, segment_range_extent, segment_range_min);
}
const BoneRanges& clip_bone_range = clip->ranges[bone_steams.bone_index];
rtm::vector4f clip_range_min = clip_bone_range.translation.get_min();
rtm::vector4f clip_range_extent = clip_bone_range.translation.get_extent();
packed_translation = rtm::vector_mul_add(packed_translation, clip_range_extent, clip_range_min);
}
return packed_translation;
}
// Gets a scale sample from the format/bit rate stored
inline rtm::vector4f RTM_SIMD_CALL get_scale_sample(const BoneStreams& bone_steams, uint32_t sample_index)
{
const SegmentContext* segment = bone_steams.segment;
const clip_context* clip = segment->clip;
const vector_format8 format = bone_steams.scales.get_vector_format();
const uint8_t bit_rate = bone_steams.scales.get_bit_rate();
if (format == vector_format8::vector3f_variable && is_constant_bit_rate(bit_rate))
sample_index = 0;
const uint8_t* quantized_ptr = bone_steams.scales.get_raw_sample_ptr(sample_index);
rtm::vector4f packed_scale = acl_impl::load_vector_sample(quantized_ptr, format, bit_rate);
if (!bone_steams.is_scale_constant && clip->are_scales_normalized && !is_raw_bit_rate(bit_rate))
{
if (segment->are_scales_normalized && !is_constant_bit_rate(bit_rate))
{
const BoneRanges& segment_bone_range = segment->ranges[bone_steams.bone_index];
const rtm::vector4f segment_range_min = segment_bone_range.scale.get_min();
const rtm::vector4f segment_range_extent = segment_bone_range.scale.get_extent();
packed_scale = rtm::vector_mul_add(packed_scale, segment_range_extent, segment_range_min);
}
const BoneRanges& clip_bone_range = clip->ranges[bone_steams.bone_index];
const rtm::vector4f clip_range_min = clip_bone_range.scale.get_min();
const rtm::vector4f clip_range_extent = clip_bone_range.scale.get_extent();
packed_scale = rtm::vector_mul_add(packed_scale, clip_range_extent, clip_range_min);
}
return packed_scale;
}
// Gets a scale sample at the specified bit rate
inline rtm::vector4f RTM_SIMD_CALL get_scale_sample(const BoneStreams& bone_steams, const BoneStreams& raw_bone_steams, uint32_t sample_index, uint8_t bit_rate)
{
const SegmentContext* segment = bone_steams.segment;
const clip_context* clip = segment->clip;
const vector_format8 format = bone_steams.scales.get_vector_format();
const uint8_t* quantized_ptr;
if (is_constant_bit_rate(bit_rate))
quantized_ptr = raw_bone_steams.scales.get_raw_sample_ptr(segment->clip_sample_offset);
else if (is_raw_bit_rate(bit_rate))
quantized_ptr = raw_bone_steams.scales.get_raw_sample_ptr(segment->clip_sample_offset + sample_index);
else
quantized_ptr = bone_steams.scales.get_raw_sample_ptr(sample_index);
const rtm::vector4f scale = acl_impl::load_vector_sample(quantized_ptr, format, 0);
ACL_ASSERT(clip->are_scales_normalized, "Scales must be normalized to support variable bit rates.");
// Pack and unpack at our desired bit rate
rtm::vector4f packed_scale;
if (is_constant_bit_rate(bit_rate))
{
ACL_ASSERT(segment->are_scales_normalized, "Translations must be normalized to support variable bit rates.");
const BoneRanges& clip_bone_range = segment->clip->ranges[bone_steams.bone_index];
const rtm::vector4f normalized_scale = normalize_sample(scale, clip_bone_range.scale);
packed_scale = decay_vector3_u48(normalized_scale);
}
else if (is_raw_bit_rate(bit_rate))
packed_scale = scale;
else
{
const uint32_t num_bits_at_bit_rate = get_num_bits_at_bit_rate(bit_rate);
packed_scale = decay_vector3_uXX(scale, num_bits_at_bit_rate);
}
if (!is_raw_bit_rate(bit_rate))
{
if (segment->are_scales_normalized && !is_constant_bit_rate(bit_rate))
{
const BoneRanges& segment_bone_range = segment->ranges[bone_steams.bone_index];
const rtm::vector4f segment_range_min = segment_bone_range.scale.get_min();
const rtm::vector4f segment_range_extent = segment_bone_range.scale.get_extent();
packed_scale = rtm::vector_mul_add(packed_scale, segment_range_extent, segment_range_min);
}
const BoneRanges& clip_bone_range = clip->ranges[bone_steams.bone_index];
const rtm::vector4f clip_range_min = clip_bone_range.scale.get_min();
const rtm::vector4f clip_range_extent = clip_bone_range.scale.get_extent();
packed_scale = rtm::vector_mul_add(packed_scale, clip_range_extent, clip_range_min);
}
return packed_scale;
}
// Gets a scale sample with the desired format
inline rtm::vector4f RTM_SIMD_CALL get_scale_sample(const BoneStreams& bone_steams, uint32_t sample_index, vector_format8 desired_format)
{
const SegmentContext* segment = bone_steams.segment;
const clip_context* clip = segment->clip;
const bool are_scales_normalized = clip->are_scales_normalized && !bone_steams.is_scale_constant;
const uint8_t* quantized_ptr = bone_steams.scales.get_raw_sample_ptr(sample_index);
const vector_format8 format = bone_steams.scales.get_vector_format();
const rtm::vector4f scale = acl_impl::load_vector_sample(quantized_ptr, format, 0);
// Pack and unpack in our desired format
rtm::vector4f packed_scale;
switch (desired_format)
{
case vector_format8::vector3f_full:
packed_scale = scale;
break;
default:
ACL_ASSERT(false, "Invalid or unsupported vector format: %s", get_vector_format_name(desired_format));
packed_scale = scale;
break;
}
if (are_scales_normalized)
{
if (segment->are_scales_normalized)
{
const BoneRanges& segment_bone_range = segment->ranges[bone_steams.bone_index];
rtm::vector4f segment_range_min = segment_bone_range.scale.get_min();
rtm::vector4f segment_range_extent = segment_bone_range.scale.get_extent();
packed_scale = rtm::vector_mul_add(packed_scale, segment_range_extent, segment_range_min);
}
const BoneRanges& clip_bone_range = clip->ranges[bone_steams.bone_index];
rtm::vector4f clip_range_min = clip_bone_range.scale.get_min();
rtm::vector4f clip_range_extent = clip_bone_range.scale.get_extent();
packed_scale = rtm::vector_mul_add(packed_scale, clip_range_extent, clip_range_min);
}
return packed_scale;
}
struct sample_context
{
uint32_t track_index;
uint32_t sample_key;
float sample_time;
BoneBitRate bit_rates;
};
inline uint32_t get_uniform_sample_key(const SegmentContext& segment, float sample_time)
{
uint32_t key0 = 0;
uint32_t key1 = 0;
float interpolation_alpha = 0.0F;
// Our samples are uniform, grab the nearest samples
const clip_context* clip = segment.clip;
find_linear_interpolation_samples_with_sample_rate(clip->num_samples, clip->sample_rate, sample_time, sample_rounding_policy::nearest, key0, key1, interpolation_alpha);
// Offset for the current segment and clamp
key0 = key0 - segment.clip_sample_offset;
if (key0 >= segment.num_samples)
{
key0 = 0;
interpolation_alpha = 1.0F;
}
key1 = key1 - segment.clip_sample_offset;
if (key1 >= segment.num_samples)
{
key1 = segment.num_samples - 1;
interpolation_alpha = 0.0F;
}
// When we sample uniformly, we always round to the nearest sample.
// As such, we don't need to interpolate.
return interpolation_alpha == 0.0F ? key0 : key1;
}
template<SampleDistribution8 distribution>
ACL_FORCE_INLINE rtm::quatf RTM_SIMD_CALL sample_rotation(const sample_context& context, const BoneStreams& bone_stream)
{
rtm::quatf rotation;
if (bone_stream.is_rotation_default)
rotation = rtm::quat_identity();
else if (bone_stream.is_rotation_constant)
rotation = rtm::quat_normalize(get_rotation_sample(bone_stream, 0));
else
{
uint32_t key0;
uint32_t key1;
float interpolation_alpha;
if (static_condition<distribution == SampleDistribution8::Variable>::test())
{
const uint32_t num_samples = bone_stream.rotations.get_num_samples();
const float sample_rate = bone_stream.rotations.get_sample_rate();
find_linear_interpolation_samples_with_sample_rate(num_samples, sample_rate, context.sample_time, sample_rounding_policy::none, key0, key1, interpolation_alpha);
}
else
{
key0 = context.sample_key;
key1 = 0;
interpolation_alpha = 0.0F;
}
const rtm::quatf sample0 = get_rotation_sample(bone_stream, key0);
if (static_condition<distribution == SampleDistribution8::Variable>::test())
{
const rtm::quatf sample1 = get_rotation_sample(bone_stream, key1);
rotation = rtm::quat_lerp(sample0, sample1, interpolation_alpha);
}
else
rotation = rtm::quat_normalize(sample0);
}
return rotation;
}
template<SampleDistribution8 distribution>
ACL_FORCE_INLINE rtm::quatf RTM_SIMD_CALL sample_rotation(const sample_context& context, const BoneStreams& bone_stream, const BoneStreams& raw_bone_stream, bool is_rotation_variable, rotation_format8 rotation_format)
{
rtm::quatf rotation;
if (bone_stream.is_rotation_default)
rotation = rtm::quat_identity();
else if (bone_stream.is_rotation_constant)
{
if (is_rotation_variable)
rotation = get_rotation_sample(raw_bone_stream, 0);
else
rotation = get_rotation_sample(raw_bone_stream, 0, rotation_format);
rotation = rtm::quat_normalize(rotation);
}
else
{
uint32_t key0;
uint32_t key1;
float interpolation_alpha;
if (static_condition<distribution == SampleDistribution8::Variable>::test())
{
const uint32_t num_samples = bone_stream.rotations.get_num_samples();
const float sample_rate = bone_stream.rotations.get_sample_rate();
find_linear_interpolation_samples_with_sample_rate(num_samples, sample_rate, context.sample_time, sample_rounding_policy::none, key0, key1, interpolation_alpha);
}
else
{
key0 = context.sample_key;
key1 = 0;
interpolation_alpha = 0.0F;
}
rtm::quatf sample0;
rtm::quatf sample1;
if (is_rotation_variable)
{
sample0 = get_rotation_sample(bone_stream, raw_bone_stream, key0, context.bit_rates.rotation);
if (static_condition<distribution == SampleDistribution8::Variable>::test())
sample1 = get_rotation_sample(bone_stream, raw_bone_stream, key1, context.bit_rates.rotation);
}
else
{
sample0 = get_rotation_sample(bone_stream, key0, rotation_format);
if (static_condition<distribution == SampleDistribution8::Variable>::test())
sample1 = get_rotation_sample(bone_stream, key1, rotation_format);
}
if (static_condition<distribution == SampleDistribution8::Variable>::test())
rotation = rtm::quat_lerp(sample0, sample1, interpolation_alpha);
else
rotation = rtm::quat_normalize(sample0);
}
return rotation;
}
template<SampleDistribution8 distribution>
ACL_FORCE_INLINE rtm::vector4f RTM_SIMD_CALL sample_translation(const sample_context& context, const BoneStreams& bone_stream)
{
rtm::vector4f translation;
if (bone_stream.is_translation_default)
translation = rtm::vector_zero();
else if (bone_stream.is_translation_constant)
translation = get_translation_sample(bone_stream, 0);
else
{
uint32_t key0;
uint32_t key1;
float interpolation_alpha;
if (static_condition<distribution == SampleDistribution8::Variable>::test())
{
const uint32_t num_samples = bone_stream.translations.get_num_samples();
const float sample_rate = bone_stream.translations.get_sample_rate();
find_linear_interpolation_samples_with_sample_rate(num_samples, sample_rate, context.sample_time, sample_rounding_policy::none, key0, key1, interpolation_alpha);
}
else
{
key0 = context.sample_key;
key1 = 0;
interpolation_alpha = 0.0F;
}
const rtm::vector4f sample0 = get_translation_sample(bone_stream, key0);
if (static_condition<distribution == SampleDistribution8::Variable>::test())
{
const rtm::vector4f sample1 = get_translation_sample(bone_stream, key1);
translation = rtm::vector_lerp(sample0, sample1, interpolation_alpha);
}
else
translation = sample0;
}
return translation;
}
template<SampleDistribution8 distribution>
ACL_FORCE_INLINE rtm::vector4f RTM_SIMD_CALL sample_translation(const sample_context& context, const BoneStreams& bone_stream, const BoneStreams& raw_bone_stream, bool is_translation_variable, vector_format8 translation_format)
{
rtm::vector4f translation;
if (bone_stream.is_translation_default)
translation = rtm::vector_zero();
else if (bone_stream.is_translation_constant)
translation = get_translation_sample(raw_bone_stream, 0, vector_format8::vector3f_full);
else
{
uint32_t key0;
uint32_t key1;
float interpolation_alpha;
if (static_condition<distribution == SampleDistribution8::Variable>::test())
{
const uint32_t num_samples = bone_stream.translations.get_num_samples();
const float sample_rate = bone_stream.translations.get_sample_rate();
find_linear_interpolation_samples_with_sample_rate(num_samples, sample_rate, context.sample_time, sample_rounding_policy::none, key0, key1, interpolation_alpha);
}
else
{
key0 = context.sample_key;
key1 = 0;
interpolation_alpha = 0.0F;
}
rtm::vector4f sample0;
rtm::vector4f sample1;
if (is_translation_variable)
{
sample0 = get_translation_sample(bone_stream, raw_bone_stream, key0, context.bit_rates.translation);
if (static_condition<distribution == SampleDistribution8::Variable>::test())
sample1 = get_translation_sample(bone_stream, raw_bone_stream, key1, context.bit_rates.translation);
}
else
{
sample0 = get_translation_sample(bone_stream, key0, translation_format);
if (static_condition<distribution == SampleDistribution8::Variable>::test())
sample1 = get_translation_sample(bone_stream, key1, translation_format);
}
if (static_condition<distribution == SampleDistribution8::Variable>::test())
translation = rtm::vector_lerp(sample0, sample1, interpolation_alpha);
else
translation = sample0;
}
return translation;
}
template<SampleDistribution8 distribution>
ACL_FORCE_INLINE rtm::vector4f RTM_SIMD_CALL sample_scale(const sample_context& context, const BoneStreams& bone_stream, rtm::vector4f_arg0 default_scale)
{
rtm::vector4f scale;
if (bone_stream.is_scale_default)
scale = default_scale;
else if (bone_stream.is_scale_constant)
scale = get_scale_sample(bone_stream, 0);
else
{
uint32_t key0;
uint32_t key1;
float interpolation_alpha;
if (static_condition<distribution == SampleDistribution8::Variable>::test())
{
const uint32_t num_samples = bone_stream.scales.get_num_samples();
const float sample_rate = bone_stream.scales.get_sample_rate();
find_linear_interpolation_samples_with_sample_rate(num_samples, sample_rate, context.sample_time, sample_rounding_policy::none, key0, key1, interpolation_alpha);
}
else
{
key0 = context.sample_key;
key1 = 0;
interpolation_alpha = 0.0F;
}
const rtm::vector4f sample0 = get_scale_sample(bone_stream, key0);
if (static_condition<distribution == SampleDistribution8::Variable>::test())
{
const rtm::vector4f sample1 = get_scale_sample(bone_stream, key1);
scale = rtm::vector_lerp(sample0, sample1, interpolation_alpha);
}
else
scale = sample0;
}
return scale;
}
template<SampleDistribution8 distribution>
ACL_FORCE_INLINE rtm::vector4f RTM_SIMD_CALL sample_scale(const sample_context& context, const BoneStreams& bone_stream, const BoneStreams& raw_bone_stream, bool is_scale_variable, vector_format8 scale_format, rtm::vector4f_arg0 default_scale)
{
rtm::vector4f scale;
if (bone_stream.is_scale_default)
scale = default_scale;
else if (bone_stream.is_scale_constant)
scale = get_scale_sample(raw_bone_stream, 0, vector_format8::vector3f_full);
else
{
uint32_t key0;
uint32_t key1;
float interpolation_alpha;
if (static_condition<distribution == SampleDistribution8::Variable>::test())
{
const uint32_t num_samples = bone_stream.scales.get_num_samples();
const float sample_rate = bone_stream.scales.get_sample_rate();
find_linear_interpolation_samples_with_sample_rate(num_samples, sample_rate, context.sample_time, sample_rounding_policy::none, key0, key1, interpolation_alpha);
}
else
{
key0 = context.sample_key;
key1 = 0;
interpolation_alpha = 0.0F;
}
rtm::vector4f sample0;
rtm::vector4f sample1;
if (is_scale_variable)
{
sample0 = get_scale_sample(bone_stream, raw_bone_stream, key0, context.bit_rates.scale);
if (static_condition<distribution == SampleDistribution8::Variable>::test())
sample1 = get_scale_sample(bone_stream, raw_bone_stream, key1, context.bit_rates.scale);
}
else
{
sample0 = get_scale_sample(bone_stream, key0, scale_format);
if (static_condition<distribution == SampleDistribution8::Variable>::test())
sample1 = get_scale_sample(bone_stream, key1, scale_format);
}
if (static_condition<distribution == SampleDistribution8::Variable>::test())
scale = rtm::vector_lerp(sample0, sample1, interpolation_alpha);
else
scale = sample0;
}
return scale;
}
inline void sample_streams(const BoneStreams* bone_streams, uint32_t num_bones, float sample_time, rtm::qvvf* out_local_pose)
{
const SegmentContext* segment_context = bone_streams->segment;
const rtm::vector4f default_scale = get_default_scale(segment_context->clip->additive_format);
const bool has_scale = segment_context->clip->has_scale;
// With uniform sample distributions, we do not interpolate.
uint32_t sample_key;
if (segment_context->distribution == SampleDistribution8::Uniform)
sample_key = get_uniform_sample_key(*segment_context, sample_time);
else
sample_key = 0; // Not used
acl_impl::sample_context context;
context.sample_key = sample_key;
context.sample_time = sample_time;
if (segment_context->distribution == SampleDistribution8::Uniform)
{
for (uint32_t bone_index = 0; bone_index < num_bones; ++bone_index)
{
context.track_index = bone_index;
const BoneStreams& bone_stream = bone_streams[bone_index];
const rtm::quatf rotation = acl_impl::sample_rotation<SampleDistribution8::Uniform>(context, bone_stream);
const rtm::vector4f translation = acl_impl::sample_translation<SampleDistribution8::Uniform>(context, bone_stream);
const rtm::vector4f scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Uniform>(context, bone_stream, default_scale) : default_scale;
out_local_pose[bone_index] = rtm::qvv_set(rotation, translation, scale);
}
}
else
{
for (uint32_t bone_index = 0; bone_index < num_bones; ++bone_index)
{
context.track_index = bone_index;
const BoneStreams& bone_stream = bone_streams[bone_index];
const rtm::quatf rotation = acl_impl::sample_rotation<SampleDistribution8::Variable>(context, bone_stream);
const rtm::vector4f translation = acl_impl::sample_translation<SampleDistribution8::Variable>(context, bone_stream);
const rtm::vector4f scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Variable>(context, bone_stream, default_scale) : default_scale;
out_local_pose[bone_index] = rtm::qvv_set(rotation, translation, scale);
}
}
}
inline void sample_stream(const BoneStreams* bone_streams, uint32_t num_bones, float sample_time, uint32_t bone_index, rtm::qvvf* out_local_pose)
{
(void)num_bones;
const SegmentContext* segment_context = bone_streams->segment;
const rtm::vector4f default_scale = get_default_scale(segment_context->clip->additive_format);
const bool has_scale = segment_context->clip->has_scale;
// With uniform sample distributions, we do not interpolate.
uint32_t sample_key;
if (segment_context->distribution == SampleDistribution8::Uniform)
sample_key = get_uniform_sample_key(*segment_context, sample_time);
else
sample_key = 0; // Not used
acl_impl::sample_context context;
context.track_index = bone_index;
context.sample_key = sample_key;
context.sample_time = sample_time;
const BoneStreams& bone_stream = bone_streams[bone_index];
rtm::quatf rotation;
rtm::vector4f translation;
rtm::vector4f scale;
if (segment_context->distribution == SampleDistribution8::Uniform)
{
rotation = acl_impl::sample_rotation<SampleDistribution8::Uniform>(context, bone_stream);
translation = acl_impl::sample_translation<SampleDistribution8::Uniform>(context, bone_stream);
scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Uniform>(context, bone_stream, default_scale) : default_scale;
}
else
{
rotation = acl_impl::sample_rotation<SampleDistribution8::Variable>(context, bone_stream);
translation = acl_impl::sample_translation<SampleDistribution8::Variable>(context, bone_stream);
scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Variable>(context, bone_stream, default_scale) : default_scale;
}
out_local_pose[bone_index] = rtm::qvv_set(rotation, translation, scale);
}
inline void sample_streams_hierarchical(const BoneStreams* bone_streams, uint32_t num_bones, float sample_time, uint32_t bone_index, rtm::qvvf* out_local_pose)
{
(void)num_bones;
const SegmentContext* segment_context = bone_streams->segment;
const rtm::vector4f default_scale = get_default_scale(segment_context->clip->additive_format);
const bool has_scale = segment_context->clip->has_scale;
// With uniform sample distributions, we do not interpolate.
uint32_t sample_key;
if (segment_context->distribution == SampleDistribution8::Uniform)
sample_key = get_uniform_sample_key(*segment_context, sample_time);
else
sample_key = 0; // Not used
acl_impl::sample_context context;
context.sample_key = sample_key;
context.sample_time = sample_time;
if (segment_context->distribution == SampleDistribution8::Uniform)
{
uint32_t current_bone_index = bone_index;
while (current_bone_index != k_invalid_track_index)
{
context.track_index = current_bone_index;
const BoneStreams& bone_stream = bone_streams[current_bone_index];
const rtm::quatf rotation = acl_impl::sample_rotation<SampleDistribution8::Uniform>(context, bone_stream);
const rtm::vector4f translation = acl_impl::sample_translation<SampleDistribution8::Uniform>(context, bone_stream);
const rtm::vector4f scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Uniform>(context, bone_stream, default_scale) : default_scale;
out_local_pose[current_bone_index] = rtm::qvv_set(rotation, translation, scale);
current_bone_index = bone_stream.parent_bone_index;
}
}
else
{
uint32_t current_bone_index = bone_index;
while (current_bone_index != k_invalid_track_index)
{
context.track_index = current_bone_index;
const BoneStreams& bone_stream = bone_streams[current_bone_index];
const rtm::quatf rotation = acl_impl::sample_rotation<SampleDistribution8::Variable>(context, bone_stream);
const rtm::vector4f translation = acl_impl::sample_translation<SampleDistribution8::Variable>(context, bone_stream);
const rtm::vector4f scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Variable>(context, bone_stream, default_scale) : default_scale;
out_local_pose[current_bone_index] = rtm::qvv_set(rotation, translation, scale);
current_bone_index = bone_stream.parent_bone_index;
}
}
}
inline void sample_streams(const BoneStreams* bone_streams, const BoneStreams* raw_bone_steams, uint32_t num_bones, float sample_time, const BoneBitRate* bit_rates, rotation_format8 rotation_format, vector_format8 translation_format, vector_format8 scale_format, rtm::qvvf* out_local_pose)
{
const bool is_rotation_variable = is_rotation_format_variable(rotation_format);
const bool is_translation_variable = is_vector_format_variable(translation_format);
const bool is_scale_variable = is_vector_format_variable(scale_format);
const SegmentContext* segment_context = bone_streams->segment;
const rtm::vector4f default_scale = get_default_scale(segment_context->clip->additive_format);
const bool has_scale = segment_context->clip->has_scale;
// With uniform sample distributions, we do not interpolate.
uint32_t sample_key;
if (segment_context->distribution == SampleDistribution8::Uniform)
sample_key = get_uniform_sample_key(*segment_context, sample_time);
else
sample_key = 0; // Not used
acl_impl::sample_context context;
context.sample_key = sample_key;
context.sample_time = sample_time;
if (segment_context->distribution == SampleDistribution8::Uniform)
{
for (uint32_t bone_index = 0; bone_index < num_bones; ++bone_index)
{
context.track_index = bone_index;
context.bit_rates = bit_rates[bone_index];
const BoneStreams& bone_stream = bone_streams[bone_index];
const BoneStreams& raw_bone_steam = raw_bone_steams[bone_index];
const rtm::quatf rotation = acl_impl::sample_rotation<SampleDistribution8::Uniform>(context, bone_stream, raw_bone_steam, is_rotation_variable, rotation_format);
const rtm::vector4f translation = acl_impl::sample_translation<SampleDistribution8::Uniform>(context, bone_stream, raw_bone_steam, is_translation_variable, translation_format);
const rtm::vector4f scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Uniform>(context, bone_stream, raw_bone_steam, is_scale_variable, scale_format, default_scale) : default_scale;
out_local_pose[bone_index] = rtm::qvv_set(rotation, translation, scale);
}
}
else
{
for (uint32_t bone_index = 0; bone_index < num_bones; ++bone_index)
{
context.track_index = bone_index;
context.bit_rates = bit_rates[bone_index];
const BoneStreams& bone_stream = bone_streams[bone_index];
const BoneStreams& raw_bone_steam = raw_bone_steams[bone_index];
const rtm::quatf rotation = acl_impl::sample_rotation<SampleDistribution8::Variable>(context, bone_stream, raw_bone_steam, is_rotation_variable, rotation_format);
const rtm::vector4f translation = acl_impl::sample_translation<SampleDistribution8::Variable>(context, bone_stream, raw_bone_steam, is_translation_variable, translation_format);
const rtm::vector4f scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Variable>(context, bone_stream, raw_bone_steam, is_scale_variable, scale_format, default_scale) : default_scale;
out_local_pose[bone_index] = rtm::qvv_set(rotation, translation, scale);
}
}
}
inline void sample_stream(const BoneStreams* bone_streams, const BoneStreams* raw_bone_steams, uint32_t num_bones, float sample_time, uint32_t bone_index, const BoneBitRate* bit_rates, rotation_format8 rotation_format, vector_format8 translation_format, vector_format8 scale_format, rtm::qvvf* out_local_pose)
{
(void)num_bones;
const bool is_rotation_variable = is_rotation_format_variable(rotation_format);
const bool is_translation_variable = is_vector_format_variable(translation_format);
const bool is_scale_variable = is_vector_format_variable(scale_format);
const SegmentContext* segment_context = bone_streams->segment;
const rtm::vector4f default_scale = get_default_scale(segment_context->clip->additive_format);
const bool has_scale = segment_context->clip->has_scale;
// With uniform sample distributions, we do not interpolate.
uint32_t sample_key;
if (segment_context->distribution == SampleDistribution8::Uniform)
sample_key = get_uniform_sample_key(*segment_context, sample_time);
else
sample_key = 0; // Not used
acl_impl::sample_context context;
context.track_index = bone_index;
context.sample_key = sample_key;
context.sample_time = sample_time;
context.bit_rates = bit_rates[bone_index];
const BoneStreams& bone_stream = bone_streams[bone_index];
const BoneStreams& raw_bone_stream = raw_bone_steams[bone_index];
rtm::quatf rotation;
rtm::vector4f translation;
rtm::vector4f scale;
if (segment_context->distribution == SampleDistribution8::Uniform)
{
rotation = acl_impl::sample_rotation<SampleDistribution8::Uniform>(context, bone_stream, raw_bone_stream, is_rotation_variable, rotation_format);
translation = acl_impl::sample_translation<SampleDistribution8::Uniform>(context, bone_stream, raw_bone_stream, is_translation_variable, translation_format);
scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Uniform>(context, bone_stream, raw_bone_stream, is_scale_variable, scale_format, default_scale) : default_scale;
}
else
{
rotation = acl_impl::sample_rotation<SampleDistribution8::Variable>(context, bone_stream, raw_bone_stream, is_rotation_variable, rotation_format);
translation = acl_impl::sample_translation<SampleDistribution8::Variable>(context, bone_stream, raw_bone_stream, is_translation_variable, translation_format);
scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Variable>(context, bone_stream, raw_bone_stream, is_scale_variable, scale_format, default_scale) : default_scale;
}
out_local_pose[bone_index] = rtm::qvv_set(rotation, translation, scale);
}
inline void sample_streams_hierarchical(const BoneStreams* bone_streams, const BoneStreams* raw_bone_steams, uint32_t num_bones, float sample_time, uint32_t bone_index, const BoneBitRate* bit_rates, rotation_format8 rotation_format, vector_format8 translation_format, vector_format8 scale_format, rtm::qvvf* out_local_pose)
{
(void)num_bones;
const bool is_rotation_variable = is_rotation_format_variable(rotation_format);
const bool is_translation_variable = is_vector_format_variable(translation_format);
const bool is_scale_variable = is_vector_format_variable(scale_format);
const SegmentContext* segment_context = bone_streams->segment;
const rtm::vector4f default_scale = get_default_scale(segment_context->clip->additive_format);
const bool has_scale = segment_context->clip->has_scale;
// With uniform sample distributions, we do not interpolate.
uint32_t sample_key;
if (segment_context->distribution == SampleDistribution8::Uniform)
sample_key = get_uniform_sample_key(*segment_context, sample_time);
else
sample_key = 0; // Not used
acl_impl::sample_context context;
context.sample_key = sample_key;
context.sample_time = sample_time;
if (segment_context->distribution == SampleDistribution8::Uniform)
{
uint32_t current_bone_index = bone_index;
while (current_bone_index != k_invalid_track_index)
{
context.track_index = current_bone_index;
context.bit_rates = bit_rates[current_bone_index];
const BoneStreams& bone_stream = bone_streams[current_bone_index];
const BoneStreams& raw_bone_stream = raw_bone_steams[current_bone_index];
const rtm::quatf rotation = acl_impl::sample_rotation<SampleDistribution8::Uniform>(context, bone_stream, raw_bone_stream, is_rotation_variable, rotation_format);
const rtm::vector4f translation = acl_impl::sample_translation<SampleDistribution8::Uniform>(context, bone_stream, raw_bone_stream, is_translation_variable, translation_format);
const rtm::vector4f scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Uniform>(context, bone_stream, raw_bone_stream, is_scale_variable, scale_format, default_scale) : default_scale;
out_local_pose[current_bone_index] = rtm::qvv_set(rotation, translation, scale);
current_bone_index = bone_stream.parent_bone_index;
}
}
else
{
uint32_t current_bone_index = bone_index;
while (current_bone_index != k_invalid_track_index)
{
context.track_index = current_bone_index;
context.bit_rates = bit_rates[current_bone_index];
const BoneStreams& bone_stream = bone_streams[current_bone_index];
const BoneStreams& raw_bone_stream = raw_bone_steams[current_bone_index];
const rtm::quatf rotation = acl_impl::sample_rotation<SampleDistribution8::Variable>(context, bone_stream, raw_bone_stream, is_rotation_variable, rotation_format);
const rtm::vector4f translation = acl_impl::sample_translation<SampleDistribution8::Variable>(context, bone_stream, raw_bone_stream, is_translation_variable, translation_format);
const rtm::vector4f scale = has_scale ? acl_impl::sample_scale<SampleDistribution8::Variable>(context, bone_stream, raw_bone_stream, is_scale_variable, scale_format, default_scale) : default_scale;
out_local_pose[current_bone_index] = rtm::qvv_set(rotation, translation, scale);
current_bone_index = bone_stream.parent_bone_index;
}
}
}
inline void sample_streams(const BoneStreams* bone_streams, uint32_t num_bones, uint32_t sample_index, rtm::qvvf* out_local_pose)
{
for (uint32_t bone_index = 0; bone_index < num_bones; ++bone_index)
{
const BoneStreams& bone_stream = bone_streams[bone_index];
const uint32_t rotation_sample_index = !bone_stream.is_rotation_constant ? sample_index : 0;
const rtm::quatf rotation = get_rotation_sample(bone_stream, rotation_sample_index);
const uint32_t translation_sample_index = !bone_stream.is_translation_constant ? sample_index : 0;
const rtm::vector4f translation = get_translation_sample(bone_stream, translation_sample_index);
const uint32_t scale_sample_index = !bone_stream.is_scale_constant ? sample_index : 0;
const rtm::vector4f scale = get_scale_sample(bone_stream, scale_sample_index);
out_local_pose[bone_index] = rtm::qvv_set(rotation, translation, scale);
}
}
}
}
ACL_IMPL_FILE_PRAGMA_POP