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Audio: Mixin_mixout: Add HiFi5 implementation.
Add HiFi5 implementation of mix functions, compared with HiFi3 version, can reduce about 27% cycles. Signed-off-by: Andrula Song <andrula.song@intel.com>
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| Original file line number | Diff line number | Diff line change |
|---|---|---|
| @@ -1 +1 @@ | ||
| add_local_sources(sof mixin_mixout.c mixin_mixout_generic.c mixin_mixout_hifi3.c) | ||
| add_local_sources(sof mixin_mixout.c mixin_mixout_generic.c mixin_mixout_hifi3.c mixin_mixout_hifi5.c) |
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| @@ -0,0 +1,285 @@ | ||
| // SPDX-License-Identifier: BSD-3-Clause | ||
| // | ||
| // Copyright(c) 2024 Intel Corporation. All rights reserved. | ||
| // | ||
| // Author: Andrula Song <xiaoyuan.song@intel.com> | ||
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| #include <sof/common.h> | ||
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| #include "mixin_mixout.h" | ||
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| #if SOF_USE_HIFI(5, MIXIN_MIXOUT) | ||
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| #if CONFIG_FORMAT_S16LE | ||
| static void mix_s16(struct cir_buf_ptr *sink, int32_t start_sample, int32_t mixed_samples, | ||
| const struct cir_buf_ptr *source, | ||
| int32_t sample_count, uint16_t gain) | ||
| { | ||
| int samples_to_mix, samples_to_copy, left_samples; | ||
| int n, nmax, i, m, left; | ||
| ae_int16x4 in_sample, in_sample1; | ||
| ae_int16x4 out_sample, out_sample1; | ||
| ae_int16x8 *in; | ||
| ae_int16x8 *out; | ||
| ae_valignx2 inu = AE_ZALIGN128(); | ||
| ae_valignx2 outu1 = AE_ZALIGN128(); | ||
| ae_valignx2 outu2 = AE_ZALIGN128(); | ||
| /* cir_buf_wrap() is required and is done below in a loop */ | ||
| ae_int16 *dst = (ae_int16 *)sink->ptr + start_sample; | ||
| ae_int16 *src = source->ptr; | ||
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| assert(mixed_samples >= start_sample); | ||
| samples_to_mix = AE_MIN32(mixed_samples - start_sample, sample_count); | ||
| samples_to_copy = sample_count - samples_to_mix; | ||
| n = 0; | ||
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| for (left_samples = samples_to_mix; left_samples > 0; left_samples -= n) { | ||
| src = cir_buf_wrap(src + n, source->buf_start, source->buf_end); | ||
| dst = cir_buf_wrap(dst + n, sink->buf_start, sink->buf_end); | ||
| /* calculate the remaining samples*/ | ||
| nmax = (ae_int16 *)source->buf_end - src; | ||
| n = AE_MIN32(left_samples, nmax); | ||
| nmax = (ae_int16 *)sink->buf_end - dst; | ||
| n = AE_MIN32(n, nmax); | ||
| in = (ae_int16x8 *)src; | ||
| out = (ae_int16x8 *)dst; | ||
| inu = AE_LA128_PP(in); | ||
| outu1 = AE_LA128_PP(out); | ||
| m = n >> 3; | ||
| left = n & 0x07; | ||
| /* process 8 samples per loop */ | ||
| for (i = 0; i < m; i++) { | ||
| AE_LA16X4X2_IP(in_sample, in_sample1, inu, in); | ||
| AE_LA16X4X2_IP(out_sample, out_sample1, outu1, out); | ||
| out--; | ||
| out_sample = AE_ADD16S(in_sample, out_sample); | ||
| out_sample1 = AE_ADD16S(in_sample1, out_sample1); | ||
| AE_SA16X4X2_IP(out_sample, out_sample1, outu2, out); | ||
| } | ||
| AE_SA128POS_FP(outu2, out); | ||
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| /* process the left samples that less than 8 | ||
| * one by one to avoid memory access overrun | ||
| */ | ||
| for (i = 0; i < left ; i++) { | ||
| AE_L16_IP(in_sample, (ae_int16 *)in, sizeof(ae_int16)); | ||
| AE_L16_IP(out_sample, (ae_int16 *)out, 0); | ||
| out_sample = AE_ADD16S(in_sample, out_sample); | ||
| AE_S16_0_IP(out_sample, (ae_int16 *)out, sizeof(ae_int16)); | ||
| } | ||
| } | ||
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| for (left_samples = samples_to_copy; left_samples > 0; left_samples -= n) { | ||
| src = cir_buf_wrap(src + n, source->buf_start, source->buf_end); | ||
| dst = cir_buf_wrap(dst + n, sink->buf_start, sink->buf_end); | ||
| /* calculate the remaining samples*/ | ||
| nmax = (ae_int16 *)source->buf_end - src; | ||
| n = AE_MIN32(left_samples, nmax); | ||
| nmax = (ae_int16 *)sink->buf_end - dst; | ||
| n = AE_MIN32(n, nmax); | ||
| in = (ae_int16x8 *)src; | ||
| out = (ae_int16x8 *)dst; | ||
| inu = AE_LA128_PP(in); | ||
| m = n >> 3; | ||
| left = n & 0x07; | ||
| /* process 8 frames per loop */ | ||
| for (i = 0; i < m; i++) { | ||
| AE_LA16X4X2_IP(in_sample, in_sample1, inu, in); | ||
| AE_SA16X4X2_IP(in_sample, in_sample1, outu2, out); | ||
| } | ||
| AE_SA128POS_FP(outu2, out); | ||
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| /* process the left samples that less than 8 | ||
| * one by one to avoid memory access overrun | ||
| */ | ||
| for (i = 0; i < left ; i++) { | ||
| AE_L16_IP(in_sample, (ae_int16 *)in, sizeof(ae_int16)); | ||
| AE_S16_0_IP(in_sample, (ae_int16 *)out, sizeof(ae_int16)); | ||
| } | ||
| } | ||
| } | ||
| #endif /* CONFIG_FORMAT_S16LE */ | ||
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| #if CONFIG_FORMAT_S24LE | ||
| static void mix_s24(struct cir_buf_ptr *sink, int32_t start_sample, int32_t mixed_samples, | ||
| const struct cir_buf_ptr *source, | ||
| int32_t sample_count, uint16_t gain) | ||
| { | ||
| int samples_to_mix, samples_to_copy, left_samples; | ||
| int n, nmax, i, m, left; | ||
| ae_int32x2 in_sample, in_sample1; | ||
| ae_int32x2 out_sample, out_sample1; | ||
| ae_int32x4 *in; | ||
| ae_int32x4 *out; | ||
| ae_valignx2 inu = AE_ZALIGN128(); | ||
| ae_valignx2 outu1 = AE_ZALIGN128(); | ||
| ae_valignx2 outu2 = AE_ZALIGN128(); | ||
| /* cir_buf_wrap() is required and is done below in a loop */ | ||
| int32_t *dst = (int32_t *)sink->ptr + start_sample; | ||
| int32_t *src = source->ptr; | ||
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| assert(mixed_samples >= start_sample); | ||
| samples_to_mix = AE_MIN32(mixed_samples - start_sample, sample_count); | ||
| samples_to_copy = sample_count - samples_to_mix; | ||
| n = 0; | ||
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| for (left_samples = samples_to_mix; left_samples > 0; left_samples -= n) { | ||
| src = cir_buf_wrap(src + n, source->buf_start, source->buf_end); | ||
| dst = cir_buf_wrap(dst + n, sink->buf_start, sink->buf_end); | ||
| /* calculate the remaining samples*/ | ||
| nmax = (int32_t *)source->buf_end - src; | ||
| n = AE_MIN32(left_samples, nmax); | ||
| nmax = (int32_t *)sink->buf_end - dst; | ||
| n = AE_MIN32(n, nmax); | ||
| in = (ae_int32x4 *)src; | ||
| out = (ae_int32x4 *)dst; | ||
| inu = AE_LA128_PP(in); | ||
| outu1 = AE_LA128_PP(out); | ||
| m = n >> 2; | ||
| left = n & 3; | ||
| /* process 2 samples per time */ | ||
| for (i = 0; i < m; i++) { | ||
| AE_LA32X2X2_IP(in_sample, in_sample1, inu, in); | ||
| AE_LA32X2X2_IP(out_sample, out_sample1, outu1, out); | ||
| out--; | ||
| out_sample = AE_ADD24S(in_sample, out_sample); | ||
| out_sample1 = AE_ADD24S(in_sample1, out_sample1); | ||
| AE_SA32X2X2_IP(out_sample, out_sample1, outu2, out); | ||
| } | ||
| AE_SA128POS_FP(outu2, out); | ||
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| /* process the left sample to avoid memory access overrun */ | ||
| if (left) { | ||
| AE_L32_IP(in_sample, (ae_int32 *)in, sizeof(ae_int32)); | ||
| AE_L32_IP(out_sample, (ae_int32 *)out, 0); | ||
| out_sample = AE_ADD24S(in_sample, out_sample); | ||
| AE_S32_L_IP(out_sample, (ae_int32 *)out, sizeof(ae_int32)); | ||
| } | ||
| } | ||
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| for (left_samples = samples_to_copy; left_samples > 0; left_samples -= n) { | ||
| src = cir_buf_wrap(src + n, source->buf_start, source->buf_end); | ||
| dst = cir_buf_wrap(dst + n, sink->buf_start, sink->buf_end); | ||
| nmax = (int32_t *)source->buf_end - src; | ||
| n = AE_MIN32(left_samples, nmax); | ||
| nmax = (int32_t *)sink->buf_end - dst; | ||
| n = AE_MIN32(n, nmax); | ||
| in = (ae_int32x4 *)src; | ||
| out = (ae_int32x4 *)dst; | ||
| inu = AE_LA128_PP(in); | ||
| m = n >> 2; | ||
| left = n & 3; | ||
| for (i = 0; i < m; i++) { | ||
| AE_LA32X2X2_IP(in_sample, in_sample1, inu, in); | ||
| AE_SA32X2X2_IP(in_sample, in_sample1, outu2, out); | ||
| } | ||
| AE_SA128POS_FP(outu2, out); | ||
| /* process the left sample to avoid memory access overrun */ | ||
| if (left) { | ||
| AE_L32_IP(in_sample, (ae_int32 *)in, sizeof(ae_int32)); | ||
| AE_S32_L_IP(in_sample, (ae_int32 *)out, sizeof(ae_int32)); | ||
| } | ||
| } | ||
| } | ||
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| #endif /* CONFIG_FORMAT_S24LE */ | ||
|
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| #if CONFIG_FORMAT_S32LE | ||
| static void mix_s32(struct cir_buf_ptr *sink, int32_t start_sample, int32_t mixed_samples, | ||
| const struct cir_buf_ptr *source, | ||
| int32_t sample_count, uint16_t gain) | ||
| { | ||
| int samples_to_mix, samples_to_copy, left_samples; | ||
| int n, nmax, i, m, left; | ||
| ae_int32x2 in_sample, in_sample1; | ||
| ae_int32x2 out_sample, out_sample1; | ||
| ae_int32x4 *in; | ||
| ae_int32x4 *out; | ||
| ae_valignx2 inu = AE_ZALIGN128(); | ||
| ae_valignx2 outu1 = AE_ZALIGN128(); | ||
| ae_valignx2 outu2 = AE_ZALIGN128(); | ||
| /* cir_buf_wrap() is required and is done below in a loop */ | ||
| int32_t *dst = (int32_t *)sink->ptr + start_sample; | ||
| int32_t *src = source->ptr; | ||
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| assert(mixed_samples >= start_sample); | ||
| samples_to_mix = AE_MIN32(mixed_samples - start_sample, sample_count); | ||
| samples_to_copy = sample_count - samples_to_mix; | ||
| n = 0; | ||
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| for (left_samples = samples_to_mix; left_samples > 0; left_samples -= n) { | ||
| src = cir_buf_wrap(src + n, source->buf_start, source->buf_end); | ||
| dst = cir_buf_wrap(dst + n, sink->buf_start, sink->buf_end); | ||
| /* calculate the remaining samples*/ | ||
| nmax = (int32_t *)source->buf_end - src; | ||
| n = AE_MIN32(left_samples, nmax); | ||
| nmax = (int32_t *)sink->buf_end - dst; | ||
| n = AE_MIN32(n, nmax); | ||
| in = (ae_int32x4 *)src; | ||
| out = (ae_int32x4 *)dst; | ||
| inu = AE_LA128_PP(in); | ||
| outu1 = AE_LA128_PP(out); | ||
| m = n >> 2; | ||
| left = n & 3; | ||
| for (i = 0; i < m; i++) { | ||
| AE_LA32X2X2_IP(in_sample, in_sample1, inu, in); | ||
| AE_LA32X2X2_IP(out_sample, out_sample1, outu1, out); | ||
| out--; | ||
| out_sample = AE_ADD32S(in_sample, out_sample); | ||
| out_sample1 = AE_ADD32S(in_sample1, out_sample1); | ||
| AE_SA32X2X2_IP(out_sample, out_sample1, outu2, out); | ||
| } | ||
| AE_SA128POS_FP(outu2, out); | ||
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| /* process the left sample to avoid memory access overrun */ | ||
| if (left) { | ||
| AE_L32_IP(in_sample, (ae_int32 *)in, sizeof(ae_int32)); | ||
| AE_L32_IP(out_sample, (ae_int32 *)out, 0); | ||
| out_sample = AE_ADD32S(in_sample, out_sample); | ||
| AE_S32_L_IP(out_sample, (ae_int32 *)out, sizeof(ae_int32)); | ||
| } | ||
| } | ||
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| for (left_samples = samples_to_copy; left_samples > 0; left_samples -= n) { | ||
| src = cir_buf_wrap(src + n, source->buf_start, source->buf_end); | ||
| dst = cir_buf_wrap(dst + n, sink->buf_start, sink->buf_end); | ||
| /* calculate the remaining samples*/ | ||
| nmax = (int32_t *)source->buf_end - src; | ||
| n = AE_MIN32(left_samples, nmax); | ||
| nmax = (int32_t *)sink->buf_end - dst; | ||
| n = AE_MIN32(n, nmax); | ||
| in = (ae_int32x4 *)src; | ||
| out = (ae_int32x4 *)dst; | ||
| inu = AE_LA128_PP(in); | ||
| m = n >> 2; | ||
| left = n & 3; | ||
| for (i = 0; i < m; i++) { | ||
| AE_LA32X2X2_IP(in_sample, in_sample1, inu, in); | ||
| AE_SA32X2X2_IP(in_sample, in_sample1, outu2, out); | ||
| } | ||
| AE_SA128POS_FP(outu2, out); | ||
| /* process the left sample to avoid memory access overrun */ | ||
| if (left) { | ||
| AE_L32_IP(in_sample, (ae_int32 *)in, sizeof(ae_int32)); | ||
| AE_S32_L_IP(in_sample, (ae_int32 *)out, sizeof(ae_int32)); | ||
| } | ||
| } | ||
| } | ||
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| #endif /* CONFIG_FORMAT_S32LE */ | ||
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| const struct mix_func_map mix_func_map[] = { | ||
| #if CONFIG_FORMAT_S16LE | ||
| { SOF_IPC_FRAME_S16_LE, mix_s16 }, | ||
| #endif | ||
| #if CONFIG_FORMAT_S24LE | ||
| { SOF_IPC_FRAME_S24_4LE, mix_s24 }, | ||
| #endif | ||
| #if CONFIG_FORMAT_S32LE | ||
| { SOF_IPC_FRAME_S32_LE, mix_s32 } | ||
| #endif | ||
| }; | ||
|
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| const size_t mix_count = ARRAY_SIZE(mix_func_map); | ||
|
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| #endif |
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