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linuxOS_AP06/external/rockit/mpi/example/mod/test_mpi_ai.cpp
hyx f2ecbedc91 v1.1.1
2025-06-03 12:28:32 +08:00

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52 KiB
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/*
* Copyright 2020 Rockchip Electronics Co. LTD
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*
*/
#include <stdio.h>
#include <errno.h>
#include <cstring>
#include <cstdlib>
#include <unistd.h>
#include <pthread.h>
#include <sys/poll.h>
#include "rk_defines.h"
#include "rk_debug.h"
#include "rk_mpi_ai.h"
#include "rk_mpi_sys.h"
#include "rk_mpi_mb.h"
#include "test_comm_argparse.h"
static RK_BOOL gAiExit = RK_FALSE;
#define TEST_AI_WITH_FD 0
#define AI_ALGO_FRAMES 256 // baed on 16kHz, it's 128 during 8kHz
typedef struct _rkMpiAICtx {
const char *srcFilePath;
const char *dstFilePath;
RK_S32 s32LoopCount;
RK_S32 s32ChnNum;
RK_S32 s32DeviceSampleRate;
RK_S32 s32SampleRate;
RK_S32 s32DeviceChannel;
RK_S32 s32Channel;
RK_S32 s32BitWidth;
RK_S32 s32DevId;
RK_S32 s32FrameNumber;
RK_S32 s32FrameLength;
char *chCardName;
RK_S32 s32ChnIndex;
RK_S32 s32SetVolumeCurve;
RK_S32 s32SetVolume;
RK_S32 s32SetMute;
RK_S32 s32SetFadeRate;
RK_S32 s32SetTrackMode;
RK_S32 s32GetVolume;
RK_S32 s32GetMute;
RK_S32 s32GetTrackMode;
RK_S32 s32LoopbackMode;
RK_S32 s32DevFd;
RK_S32 s32DataReadEnable;
RK_S32 s32AedEnable;
RK_S32 s32BcdEnable;
RK_S32 s32BuzEnable;
RK_S32 s32GbsEnable;
RK_S32 s32AedLoudCount;
RK_S32 s32BcdCount;
RK_S32 s32BuzCount;
RK_S32 s32GbsCount;
RK_S32 s32VqeGapMs;
RK_S32 s32VqeEnable;
RK_S32 s32DumpAlgo;
const char *pVqeCfgPath;
} TEST_AI_CTX_S;
static AUDIO_SOUND_MODE_E ai_find_sound_mode(RK_S32 ch) {
AUDIO_SOUND_MODE_E channel = AUDIO_SOUND_MODE_BUTT;
switch (ch) {
case 1:
channel = AUDIO_SOUND_MODE_MONO;
break;
case 2:
channel = AUDIO_SOUND_MODE_STEREO;
break;
default:
RK_LOGE("channel = %d not support", ch);
return AUDIO_SOUND_MODE_BUTT;
}
return channel;
}
static AUDIO_BIT_WIDTH_E ai_find_bit_width(RK_S32 bit) {
AUDIO_BIT_WIDTH_E bitWidth = AUDIO_BIT_WIDTH_BUTT;
switch (bit) {
case 8:
bitWidth = AUDIO_BIT_WIDTH_8;
break;
case 16:
bitWidth = AUDIO_BIT_WIDTH_16;
break;
case 24:
bitWidth = AUDIO_BIT_WIDTH_24;
break;
default:
RK_LOGE("bitwidth(%d) not support", bit);
return AUDIO_BIT_WIDTH_BUTT;
}
return bitWidth;
}
RK_S32 test_ai_poll_event(RK_S32 timeoutMsec, RK_S32 fd) {
RK_S32 num_fds = 1;
struct pollfd pollFds[num_fds];
RK_S32 ret = 0;
RK_ASSERT(fd > 0);
memset(pollFds, 0, sizeof(pollFds));
pollFds[0].fd = fd;
pollFds[0].events = (POLLPRI | POLLIN | POLLERR | POLLNVAL | POLLHUP);
ret = poll(pollFds, num_fds, timeoutMsec);
if (ret > 0 && (pollFds[0].revents & (POLLERR | POLLNVAL | POLLHUP))) {
RK_LOGE("fd:%d polled error", fd);
return -1;
}
return ret;
}
RK_S32 test_open_device_ai(TEST_AI_CTX_S *ctx) {
AUDIO_DEV aiDevId = ctx->s32DevId;
AUDIO_SOUND_MODE_E soundMode;
AIO_ATTR_S aiAttr;
RK_S32 result;
memset(&aiAttr, 0, sizeof(AIO_ATTR_S));
if (ctx->chCardName) {
snprintf(reinterpret_cast<char *>(aiAttr.u8CardName),
sizeof(aiAttr.u8CardName), "%s", ctx->chCardName);
}
aiAttr.soundCard.channels = ctx->s32DeviceChannel;
aiAttr.soundCard.sampleRate = ctx->s32DeviceSampleRate;
aiAttr.soundCard.bitWidth = AUDIO_BIT_WIDTH_16;
AUDIO_BIT_WIDTH_E bitWidth = ai_find_bit_width(ctx->s32BitWidth);
if (bitWidth == AUDIO_BIT_WIDTH_BUTT) {
goto __FAILED;
}
aiAttr.enBitwidth = bitWidth;
aiAttr.enSamplerate = (AUDIO_SAMPLE_RATE_E)ctx->s32SampleRate;
soundMode = ai_find_sound_mode(ctx->s32Channel);
if (soundMode == AUDIO_SOUND_MODE_BUTT) {
goto __FAILED;
}
aiAttr.enSoundmode = soundMode;
aiAttr.u32FrmNum = ctx->s32FrameNumber;
aiAttr.u32PtNumPerFrm = ctx->s32FrameLength;
if (!ctx->s32DataReadEnable)
aiAttr.u32EXFlag = 0;
else
aiAttr.u32EXFlag = 1;
aiAttr.u32ChnCnt = 2;
result = RK_MPI_AI_SetPubAttr(aiDevId, &aiAttr);
if (result != 0) {
RK_LOGE("ai set attr fail, reason = %d", result);
goto __FAILED;
}
result = RK_MPI_AI_Enable(aiDevId);
if (result != 0) {
RK_LOGE("ai enable fail, reason = %d", result);
goto __FAILED;
}
return RK_SUCCESS;
__FAILED:
return RK_FAILURE;
}
RK_S32 test_init_ai_data_read(TEST_AI_CTX_S *params) {
RK_S32 result;
if (params->s32DataReadEnable) {
result = RK_MPI_AI_EnableDataRead(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_EnableDataRead(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
}
return RK_SUCCESS;
}
RK_S32 test_init_ai_aed(TEST_AI_CTX_S *params) {
RK_S32 result;
if (params->s32AedEnable) {
AI_AED_CONFIG_S stAiAedConfig, stAiAedConfig2;
stAiAedConfig.fSnrDB = 10.0f;
stAiAedConfig.fLsdDB = -25.0f;
stAiAedConfig.s32Policy = 1;
result = RK_MPI_AI_SetAedAttr(params->s32DevId, params->s32ChnIndex, &stAiAedConfig);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetAedAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = RK_MPI_AI_GetAedAttr(params->s32DevId, params->s32ChnIndex, &stAiAedConfig2);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetAedAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = memcmp(&stAiAedConfig, &stAiAedConfig2, sizeof(AI_AED_CONFIG_S));
if (result != RK_SUCCESS) {
RK_LOGE("%s: set/get aed config is different: %d", __FUNCTION__, result);
return result;
}
result = RK_MPI_AI_EnableAed(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: EnableAed(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
}
return RK_SUCCESS;
}
static RK_S32 test_init_ai_aed2(TEST_AI_CTX_S *params) {
RK_S32 result;
if (params->s32AedEnable) {
AI_AED_CONFIG_S stAiAedConfig, stAiAedConfig2;
stAiAedConfig.fSnrDB = 10.0f;
stAiAedConfig.fLsdDB = -25.0f;
stAiAedConfig.s32Policy = 2;
result = RK_MPI_AI_SetAedAttr(params->s32DevId, params->s32ChnIndex, &stAiAedConfig);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetAedAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = RK_MPI_AI_GetAedAttr(params->s32DevId, params->s32ChnIndex, &stAiAedConfig2);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetAedAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = memcmp(&stAiAedConfig, &stAiAedConfig2, sizeof(AI_AED_CONFIG_S));
if (result != RK_SUCCESS) {
RK_LOGE("%s: set/get aed config is different: %d", __FUNCTION__, result);
return result;
}
result = RK_MPI_AI_EnableAed(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: EnableAed(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
}
return RK_SUCCESS;
}
static RK_S32 test_init_ai_bcd(TEST_AI_CTX_S *params) {
RK_S32 result;
if (params->s32BcdEnable) {
AI_BCD_CONFIG_S stAiBcdConfig, stAiBcdConfig2;
stAiBcdConfig.mFrameLen = 100;
result = RK_MPI_AI_SetBcdAttr(params->s32DevId, params->s32ChnIndex, &stAiBcdConfig);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetBcdAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = RK_MPI_AI_GetBcdAttr(params->s32DevId, params->s32ChnIndex, &stAiBcdConfig2);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetBcdAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = memcmp(&stAiBcdConfig, &stAiBcdConfig2, sizeof(AI_BCD_CONFIG_S));
if (result != RK_SUCCESS) {
RK_LOGE("%s: set/get aed config is different: %d", __FUNCTION__, result);
return result;
}
result = RK_MPI_AI_EnableBcd(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: EnableBcd(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
}
return RK_SUCCESS;
}
static RK_S32 test_init_ai_bcd2(TEST_AI_CTX_S *params) {
RK_S32 result;
if (params->s32BcdEnable) {
AI_BCD_CONFIG_S stAiBcdConfig, stAiBcdConfig2;
stAiBcdConfig.mFrameLen = 100;
result = RK_MPI_AI_SetBcdAttr(params->s32DevId, params->s32ChnIndex, &stAiBcdConfig);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetBcdAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = RK_MPI_AI_GetBcdAttr(params->s32DevId, params->s32ChnIndex, &stAiBcdConfig2);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetBcdAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = memcmp(&stAiBcdConfig, &stAiBcdConfig2, sizeof(AI_BCD_CONFIG_S));
if (result != RK_SUCCESS) {
RK_LOGE("%s: set/get aed config is different: %d", __FUNCTION__, result);
return result;
}
result = RK_MPI_AI_EnableBcd(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: EnableBcd(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
}
return RK_SUCCESS;
}
static RK_S32 test_init_ai_buz(TEST_AI_CTX_S *params) {
RK_S32 result;
if (params->s32BuzEnable) {
AI_BUZ_CONFIG_S stAiBuzConfig, stAiBuzConfig2;
stAiBuzConfig.mFrameLen = 100;
result = RK_MPI_AI_SetBuzAttr(params->s32DevId, params->s32ChnIndex, &stAiBuzConfig);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetBuzAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = RK_MPI_AI_GetBuzAttr(params->s32DevId, params->s32ChnIndex, &stAiBuzConfig2);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetBuzAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = memcmp(&stAiBuzConfig, &stAiBuzConfig2, sizeof(AI_BUZ_CONFIG_S));
if (result != RK_SUCCESS) {
RK_LOGE("%s: set/get aed config is different: %d", __FUNCTION__, result);
return result;
}
result = RK_MPI_AI_EnableBuz(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: EnableBuz(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
}
return RK_SUCCESS;
}
static RK_S32 test_init_ai_buz2(TEST_AI_CTX_S *params) {
RK_S32 result;
if (params->s32BuzEnable) {
AI_BUZ_CONFIG_S stAiBuzConfig, stAiBuzConfig2;
stAiBuzConfig.mFrameLen = 100;
result = RK_MPI_AI_SetBuzAttr(params->s32DevId, params->s32ChnIndex, &stAiBuzConfig);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetBuzAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = RK_MPI_AI_GetBuzAttr(params->s32DevId, params->s32ChnIndex, &stAiBuzConfig2);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetBuzAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = memcmp(&stAiBuzConfig, &stAiBuzConfig2, sizeof(AI_BUZ_CONFIG_S));
if (result != RK_SUCCESS) {
RK_LOGE("%s: set/get aed config is different: %d", __FUNCTION__, result);
return result;
}
result = RK_MPI_AI_EnableBuz(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: EnableBuz(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
}
return RK_SUCCESS;
}
static RK_S32 test_init_ai_gbs(TEST_AI_CTX_S *params) {
RK_S32 result;
if (params->s32GbsEnable) {
AI_GBS_CONFIG_S stAiGbsConfig, stAiGbsConfig2;
stAiGbsConfig.mFrameLen = 30;
result = RK_MPI_AI_SetGbsAttr(params->s32DevId, params->s32ChnIndex, &stAiGbsConfig);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetGbsAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = RK_MPI_AI_GetGbsAttr(params->s32DevId, params->s32ChnIndex, &stAiGbsConfig2);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetGbsAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = memcmp(&stAiGbsConfig, &stAiGbsConfig2, sizeof(AI_GBS_CONFIG_S));
if (result != RK_SUCCESS) {
RK_LOGE("%s: set/get aed config is different: %d", __FUNCTION__, result);
return result;
}
result = RK_MPI_AI_EnableGbs(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: EnableGbs(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
}
return RK_SUCCESS;
}
static RK_S32 test_init_ai_gbs2(TEST_AI_CTX_S *params) {
RK_S32 result;
if (params->s32GbsEnable) {
AI_GBS_CONFIG_S stAiGbsConfig, stAiGbsConfig2;
stAiGbsConfig.mFrameLen = 30;
result = RK_MPI_AI_SetGbsAttr(params->s32DevId, params->s32ChnIndex, &stAiGbsConfig);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetGbsAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = RK_MPI_AI_GetGbsAttr(params->s32DevId, params->s32ChnIndex, &stAiGbsConfig2);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetGbsAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = memcmp(&stAiGbsConfig, &stAiGbsConfig2, sizeof(AI_GBS_CONFIG_S));
if (result != RK_SUCCESS) {
RK_LOGE("%s: set/get aed config is different: %d", __FUNCTION__, result);
return result;
}
result = RK_MPI_AI_EnableGbs(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: EnableGbs(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
}
return RK_SUCCESS;
}
RK_S32 test_init_ai_vqe(TEST_AI_CTX_S *params) {
AI_VQE_CONFIG_S stAiVqeConfig, stAiVqeConfig2;
RK_S32 result;
if (params->s32VqeEnable == 0)
return RK_SUCCESS;
// Need to config enCfgMode to VQE attr even the VQE is not enabled
memset(&stAiVqeConfig, 0, sizeof(AI_VQE_CONFIG_S));
if (params->pVqeCfgPath != RK_NULL) {
stAiVqeConfig.enCfgMode = AIO_VQE_CONFIG_LOAD_FILE;
memcpy(stAiVqeConfig.aCfgFile, params->pVqeCfgPath, strlen(params->pVqeCfgPath));
}
if (params->s32VqeGapMs != 16 && params->s32VqeGapMs != 10) {
RK_LOGE("Invalid gap: %d, just supports 16ms or 10ms for AI VQE", params->s32VqeGapMs);
return RK_FAILURE;
}
stAiVqeConfig.s32WorkSampleRate = params->s32SampleRate;
stAiVqeConfig.s32FrameSample = params->s32SampleRate * params->s32VqeGapMs / 1000;
result = RK_MPI_AI_SetVqeAttr(params->s32DevId, params->s32ChnIndex, 0, 0, &stAiVqeConfig);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetVqeAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = RK_MPI_AI_GetVqeAttr(params->s32DevId, params->s32ChnIndex, &stAiVqeConfig2);
if (result != RK_SUCCESS) {
RK_LOGE("%s: SetVqeAttr(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
result = memcmp(&stAiVqeConfig, &stAiVqeConfig2, sizeof(AI_VQE_CONFIG_S));
if (result != RK_SUCCESS) {
RK_LOGE("%s: set/get vqe config is different: %d", __FUNCTION__, result);
return result;
}
result = RK_MPI_AI_EnableVqe(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: EnableVqe(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
return RK_SUCCESS;
}
RK_S32 test_init_mpi_ai(TEST_AI_CTX_S *params) {
RK_S32 result;
result = test_init_ai_data_read(params);
if (result != 0) {
RK_LOGE("ai file read init fail, reason = %x, aiChn = %d", result, params->s32ChnIndex);
return RK_FAILURE;
}
result = test_init_ai_aed(params);
if (result != 0) {
RK_LOGE("ai aed init fail, reason = %x, aiChn = %d", result, params->s32ChnIndex);
return RK_FAILURE;
}
result = test_init_ai_bcd(params);
if (result != 0) {
RK_LOGE("ai bcd init fail, reason = %x, aiChn = %d", result, params->s32ChnIndex);
return RK_FAILURE;
}
result = test_init_ai_buz(params);
if (result != 0) {
RK_LOGE("ai buz init fail, reason = %x, aiChn = %d", result, params->s32ChnIndex);
return RK_FAILURE;
}
result = test_init_ai_gbs(params);
if (result != 0) {
RK_LOGE("ai gbs init fail, reason = %x, aiChn = %d", result, params->s32ChnIndex);
return RK_FAILURE;
}
result = test_init_ai_vqe(params);
if (result != 0) {
RK_LOGE("ai vqe init fail, reason = %x, aiChn = %d", result, params->s32ChnIndex);
return RK_FAILURE;
}
result = RK_MPI_AI_EnableChn(params->s32DevId, params->s32ChnIndex);
if (result != 0) {
RK_LOGE("ai enable channel fail, aiChn = %d, reason = %x", params->s32ChnIndex, result);
return RK_FAILURE;
}
#if TEST_AI_WITH_FD
// open fd immediate after enable chn will be better.
params->s32DevFd = RK_MPI_AI_GetFd(params->s32DevId, params->s32ChnIndex);
RK_LOGI("ai (devId: %d, chnId: %d), selectFd:%d", params->s32DevId, params->s32ChnIndex, params->s32DevFd);
#endif
RK_BOOL needResample = (params->s32DeviceSampleRate != params->s32SampleRate) ? RK_TRUE : RK_FALSE;
if (needResample == RK_TRUE) {
RK_LOGI("need to resample %d -> %d", params->s32DeviceSampleRate, params->s32SampleRate);
result = RK_MPI_AI_EnableReSmp(params->s32DevId, params->s32ChnIndex,
(AUDIO_SAMPLE_RATE_E)params->s32SampleRate);
if (result != 0) {
RK_LOGE("ai enable channel fail, reason = %x, aiChn = %d", result, params->s32ChnIndex);
return RK_FAILURE;
}
}
RK_LOGI("Set volume curve type: %d", params->s32SetVolumeCurve);
if ((params->s32SetVolumeCurve == AUDIO_CURVE_LOGARITHM) ||
(params->s32SetVolumeCurve == AUDIO_CURVE_CUSTOMIZE)) {
AUDIO_VOLUME_CURVE_S volumeCurve;
volumeCurve.enCurveType = (AUDIO_VOLUME_CURVE_E)params->s32SetVolumeCurve;
volumeCurve.s32Resolution = 101;
volumeCurve.fMinDB = -51.0f;
volumeCurve.fMaxDB = 0.0f;
volumeCurve.pCurveTable = RK_NULL; // here none means using default logarithm curve by default.
if (volumeCurve.enCurveType == AUDIO_CURVE_CUSTOMIZE) {
volumeCurve.pCurveTable = (RK_U32 *)calloc(volumeCurve.s32Resolution, sizeof(RK_U32));
RK_ASSERT(volumeCurve.pCurveTable != RK_NULL);
// TODO: fill your customize table of volume curve folllowing to:
// volumeCurve.pCurveTable[0, resolution-1]
}
RK_MPI_AI_SetVolumeCurve(params->s32DevId, &volumeCurve);
}
return RK_SUCCESS;
}
RK_S32 test_deinit_mpi_ai(TEST_AI_CTX_S *params) {
RK_S32 result;
RK_MPI_AI_DisableReSmp(params->s32DevId, params->s32ChnIndex);
if (params->s32BuzEnable) {
result = RK_MPI_AI_DisableBuz(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableBuz(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
params->s32BuzEnable = 0;
}
if (params->s32BcdEnable) {
result = RK_MPI_AI_DisableBcd(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableBcd(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
params->s32BcdEnable = 0;
}
if (params->s32AedEnable) {
result = RK_MPI_AI_DisableAed(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableAed(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
params->s32AedEnable = 0;
}
if (params->s32GbsEnable) {
result = RK_MPI_AI_DisableGbs(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableGbs(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
params->s32GbsEnable = 0;
}
if (params->s32VqeEnable) {
result = RK_MPI_AI_DisableVqe(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableVqe(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
params->s32VqeEnable = 0;
}
if (params->s32DataReadEnable) {
result = RK_MPI_AI_DisableDataRead(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableDataRead(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return result;
}
params->s32DataReadEnable = 0;
}
result = RK_MPI_AI_DisableChn(params->s32DevId, params->s32ChnIndex);
if (result != 0) {
RK_LOGE("ai disable channel fail, reason = %d", result);
return RK_FAILURE;
}
result = RK_MPI_AI_Disable(params->s32DevId);
if (result != 0) {
RK_LOGE("ai disable fail, reason = %d", result);
return RK_FAILURE;
}
return RK_SUCCESS;
}
static AUDIO_BIT_WIDTH_E find_bit_width(RK_S32 bit) {
AUDIO_BIT_WIDTH_E bitWidth = AUDIO_BIT_WIDTH_BUTT;
switch (bit) {
case 8:
bitWidth = AUDIO_BIT_WIDTH_8;
break;
case 16:
bitWidth = AUDIO_BIT_WIDTH_16;
break;
case 24:
bitWidth = AUDIO_BIT_WIDTH_24;
break;
default:
RK_LOGE("bitwidth(%d) not support", bit);
return AUDIO_BIT_WIDTH_BUTT;
}
return bitWidth;
}
static AUDIO_SOUND_MODE_E find_sound_mode(RK_S32 ch) {
AUDIO_SOUND_MODE_E channel = AUDIO_SOUND_MODE_BUTT;
switch (ch) {
case 1:
channel = AUDIO_SOUND_MODE_MONO;
break;
case 2:
channel = AUDIO_SOUND_MODE_STEREO;
break;
default:
RK_LOGE("channel = %d not support", ch);
return AUDIO_SOUND_MODE_BUTT;
}
return channel;
}
void* sendDataThread(void * ptr) {
TEST_AI_CTX_S *params = reinterpret_cast<TEST_AI_CTX_S *>(ptr);
RK_S32 result = 0;
RK_S32 s32MilliSec = -1;
RK_S32 bufferLen = 1024;
RK_S32 readLen = bufferLen;
RK_S32 frames = 0;
AUDIO_FRAME_S sendFrame;
RK_U8 *srcData = RK_NULL;
RK_U8 *tmpData = RK_NULL;
RK_S32 size = 0;
RK_U64 timeStamp = 0;
FILE *file = RK_NULL;
file = fopen(params->srcFilePath, "rb");
if (file == RK_NULL) {
RK_LOGE("open input file %s failed because %s.", params->srcFilePath, strerror(errno));
goto __EXIT;
}
srcData = reinterpret_cast<RK_U8 *>(calloc(bufferLen, sizeof(RK_U8)));
if (!srcData) {
RK_LOGE("malloc pstVdecCtx falied");
goto __EXIT;
}
while (!gAiExit) {
size = fread(srcData, 1, readLen, file);
sendFrame.u32Len = size;
sendFrame.u64TimeStamp = timeStamp++;
sendFrame.enBitWidth = find_bit_width(params->s32BitWidth);
sendFrame.enSoundMode = find_sound_mode(params->s32DeviceChannel);
sendFrame.bBypassMbBlk = RK_FALSE;
MB_EXT_CONFIG_S extConfig;
memset(&extConfig, 0, sizeof(extConfig));
extConfig.pOpaque = srcData;
extConfig.pu8VirAddr = srcData;
extConfig.u64Size = size;
RK_MPI_SYS_CreateMB(&(sendFrame.pMbBlk), &extConfig);
__RETRY:
result = RK_MPI_AI_SendFrame(params->s32DevId, params->s32ChnIndex, &sendFrame, s32MilliSec);
if (result < 0) {
RK_LOGE("send frame fail, result = %X, TimeStamp = %lld, s32MilliSec = %d",
result, sendFrame.u64TimeStamp, s32MilliSec);
goto __RETRY;
}
RK_MPI_MB_ReleaseMB(sendFrame.pMbBlk);
if (size <= 0) {
RK_LOGI("eof");
break;
}
}
if (gAiExit) {
sendFrame.u32Len = 0;
sendFrame.u64TimeStamp = timeStamp++;
sendFrame.enBitWidth = find_bit_width(params->s32BitWidth);
sendFrame.enSoundMode = find_sound_mode(params->s32DeviceChannel);
sendFrame.bBypassMbBlk = RK_FALSE;
MB_EXT_CONFIG_S extConfig;
memset(&extConfig, 0, sizeof(extConfig));
extConfig.pOpaque = srcData;
extConfig.pu8VirAddr = srcData;
extConfig.u64Size = 0;
RK_MPI_SYS_CreateMB(&(sendFrame.pMbBlk), &extConfig);
RK_LOGI("ai send frame exit");
result = RK_MPI_AI_SendFrame(params->s32DevId, params->s32ChnIndex, &sendFrame, s32MilliSec);
if (result < 0) {
RK_LOGE("send frame fail, result = %X, TimeStamp = %lld, s32MilliSec = %d",
result, sendFrame.u64TimeStamp, s32MilliSec);
}
RK_MPI_MB_ReleaseMB(sendFrame.pMbBlk);
}
__EXIT:
if (file) {
fclose(file);
file = RK_NULL;
}
if (srcData)
free(srcData);
if (tmpData)
free(tmpData);
pthread_exit(NULL);
return RK_NULL;
}
void* getDataThread(void * ptr) {
TEST_AI_CTX_S *params = reinterpret_cast<TEST_AI_CTX_S *>(ptr);
RK_S32 result = 0;
RK_S32 s32MilliSec = -1;
AUDIO_FRAME_S getFrame;
FILE *fp_aed, *fp_bcd, *fp_buz, *fp_gbs;
RK_U8 *srcData = RK_NULL;
RK_S16 *buf_aed, *buf_bcd, *buf_buz, *buf_gbs;
RK_S32 s32AiAlgoFrames = 0;
RK_U32 aed_count = 0, aed_flag = 0;
RK_U32 bcd_count = 0, bcd_flag = 0;
RK_U32 buz_count = 0, buz_flag = 0;
RK_U32 gbs_count = 0, gbs_flag = 0;
if (params->dstFilePath) {
AUDIO_SAVE_FILE_INFO_S save;
save.bCfg = RK_TRUE;
save.u32FileSize = 1024;
snprintf(save.aFilePath, sizeof(save.aFilePath), "%s", params->dstFilePath);
snprintf(save.aFileName, sizeof(save.aFileName), "%s", "cap_out.pcm");
RK_MPI_AI_SaveFile(params->s32DevId, params->s32ChnIndex, &save);
}
if (params->s32SampleRate == 16000)
s32AiAlgoFrames = AI_ALGO_FRAMES;
else if (params->s32SampleRate == 8000)
s32AiAlgoFrames = (AI_ALGO_FRAMES >> 1);
/* Do not dump if s32AiAlgoFrames is invalid */
if (s32AiAlgoFrames == 0)
params->s32DumpAlgo = 0;
if (params->s32DumpAlgo) {
buf_aed = (RK_S16 *)calloc(s32AiAlgoFrames * 2 * sizeof(RK_S16), 1);
RK_ASSERT(buf_aed != RK_NULL);
fp_aed = fopen("/tmp/cap_aed_2ch.pcm", "wb");
RK_ASSERT(fp_aed != RK_NULL);
buf_bcd = (RK_S16 *)calloc(s32AiAlgoFrames * 1 * sizeof(RK_S16), 1);
RK_ASSERT(buf_bcd != RK_NULL);
fp_bcd = fopen("/tmp/cap_bcd_1ch.pcm", "wb");
RK_ASSERT(fp_bcd != RK_NULL);
buf_buz = (RK_S16 *)calloc(s32AiAlgoFrames * 1 * sizeof(RK_S16), 1);
RK_ASSERT(buf_aed != RK_NULL);
fp_buz = fopen("/tmp/cap_buz_1ch.pcm", "wb");
RK_ASSERT(fp_buz != RK_NULL);
buf_gbs = (RK_S16 *)calloc(s32AiAlgoFrames * 1 * sizeof(RK_S16), 1);
RK_ASSERT(buf_aed != RK_NULL);
fp_gbs = fopen("/tmp/cap_gbs_1ch.pcm", "wb");
RK_ASSERT(fp_gbs != RK_NULL);
}
while (!gAiExit || params->s32DataReadEnable) {
#if TEST_AI_WITH_FD
test_ai_poll_event(-1, params->s32DevFd);
#endif
if (params->s32AedEnable == 2) {
if ((aed_count + 1) % 50 == 0) {
result = RK_MPI_AI_DisableAed(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableAed(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return RK_NULL;
}
if (aed_flag) {
RK_LOGI("%s - aed_count=%ld test_init_ai_aed\n", __func__, aed_count);
test_init_ai_aed(params);
aed_flag = 0;
} else {
RK_LOGI("%s - aed_count=%ld test_init_ai_aed2\n", __func__, aed_count);
test_init_ai_aed2(params);
aed_flag = 1;
}
}
aed_count++;
}
if (params->s32BcdEnable == 2) {
if ((bcd_count + 1) % 50 == 0) {
result = RK_MPI_AI_DisableBcd(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableBcd(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return RK_NULL;
}
if (bcd_flag) {
RK_LOGI("%s - bcd_count=%ld test_init_ai_bcd\n", __func__, bcd_count);
test_init_ai_bcd(params);
bcd_flag = 0;
} else {
RK_LOGI("%s - bcd_count=%ld test_init_ai_bcd2\n", __func__, bcd_count);
test_init_ai_bcd2(params);
bcd_flag = 1;
}
}
bcd_count++;
}
if (params->s32BuzEnable == 2) {
if ((buz_count + 1) % 50 == 0) {
result = RK_MPI_AI_DisableBuz(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableBuz(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return RK_NULL;
}
if (buz_flag) {
RK_LOGI("%s - buz_count=%ld test_init_ai_buz\n", __func__, buz_count);
test_init_ai_buz(params);
buz_flag = 0;
} else {
RK_LOGI("%s - buz_count=%ld test_init_ai_buz2\n", __func__, buz_count);
test_init_ai_buz2(params);
buz_flag = 1;
}
}
buz_count++;
}
if (params->s32GbsEnable == 2) {
if ((gbs_count + 1) % 50 == 0) {
result = RK_MPI_AI_DisableGbs(params->s32DevId, params->s32ChnIndex);
if (result != RK_SUCCESS) {
RK_LOGE("%s: RK_MPI_AI_DisableGbs(%d,%d) failed with %#x",
__FUNCTION__, params->s32DevId, params->s32ChnIndex, result);
return RK_NULL;
}
if (gbs_flag) {
RK_LOGI("%s - gbs_count=%ld test_init_ai_gbs\n", __func__, gbs_count);
test_init_ai_gbs(params);
gbs_flag = 0;
} else {
RK_LOGI("%s - gbs_count=%ld test_init_ai_gbs2\n", __func__, gbs_count);
test_init_ai_gbs2(params);
gbs_flag = 1;
}
}
gbs_count++;
}
result = RK_MPI_AI_GetFrame(params->s32DevId, params->s32ChnIndex, &getFrame, RK_NULL, s32MilliSec);
if (result == 0) {
void* data = RK_MPI_MB_Handle2VirAddr(getFrame.pMbBlk);
RK_LOGV("data = %p, len = %d", data, getFrame.u32Len);
if (getFrame.u32Len <= 0) {
RK_LOGD("get ai frame end");
break;
}
RK_MPI_AI_ReleaseFrame(params->s32DevId, params->s32ChnIndex, &getFrame, RK_NULL);
}
//dump results of SED(AED/BCD) modules
if (params->s32AedEnable) {
AI_AED_RESULT_S aed_result;
memset(&aed_result, 0, sizeof(aed_result));
result = RK_MPI_AI_GetAedResult(params->s32DevId, params->s32ChnIndex, &aed_result);
if (result == 0) {
if (aed_result.bAcousticEventDetected)
RK_LOGI("AED Result: AcousticEvent:%d",
aed_result.bAcousticEventDetected);
if (aed_result.bLoudSoundDetected) {
params->s32AedLoudCount++;
RK_LOGI("AED Result: LoudSound:%d",
aed_result.bLoudSoundDetected);
}
if (aed_result.bLoudSoundDetected)
RK_LOGI("AED Result: LoudSound Volume Result:%f db",
aed_result.lsdResult);
}
if (params->s32DumpAlgo) {
for (RK_S32 i = 0; i < s32AiAlgoFrames; i++) {
*(buf_aed + 2 * i + 0) = 10000 * aed_result.bAcousticEventDetected;
*(buf_aed + 2 * i + 1) = 10000 * aed_result.bLoudSoundDetected;
}
fwrite(buf_aed, s32AiAlgoFrames * 2 * sizeof(RK_S16), 1, fp_aed);
}
}
if (params->s32BcdEnable) {
AI_BCD_RESULT_S bcd_result;
memset(&bcd_result, 0, sizeof(bcd_result));
result = RK_MPI_AI_GetBcdResult(params->s32DevId, params->s32ChnIndex, &bcd_result);
if (result == 0 && bcd_result.bBabyCry) {
params->s32BcdCount++;
RK_LOGI("BCD Result: BabyCry:%d", bcd_result.bBabyCry);
}
if (params->s32DumpAlgo) {
for (RK_S32 i = 0; i < s32AiAlgoFrames; i++) {
*(buf_bcd + 1 * i) = 10000 * bcd_result.bBabyCry;
}
fwrite(buf_bcd, s32AiAlgoFrames * 1 * sizeof(RK_S16), 1, fp_bcd);
}
}
if (params->s32BuzEnable) {
AI_BUZ_RESULT_S buz_result;
memset(&buz_result, 0, sizeof(buz_result));
result = RK_MPI_AI_GetBuzResult(params->s32DevId, params->s32ChnIndex, &buz_result);
if (result == 0 && buz_result.bBuzz) {
params->s32BuzCount++;
RK_LOGI("BUZ Result: Buzz:%d", buz_result.bBuzz);
}
if (params->s32DumpAlgo) {
for (RK_S32 i = 0; i < s32AiAlgoFrames; i++) {
*(buf_buz + 1 * i) = 10000 * buz_result.bBuzz;
}
fwrite(buf_buz, s32AiAlgoFrames * 1 * sizeof(RK_S16), 1, fp_buz);
}
}
if (params->s32GbsEnable) {
AI_GBS_RESULT_S gbs_result;
memset(&gbs_result, 0, sizeof(gbs_result));
result = RK_MPI_AI_GetGbsResult(params->s32DevId, params->s32ChnIndex, &gbs_result);
if (result == 0 && gbs_result.bGbs) {
params->s32GbsCount++;
RK_LOGI("GBS Result: Gbs:%d", gbs_result.bGbs);
}
if (params->s32DumpAlgo) {
for (RK_S32 i = 0; i < s32AiAlgoFrames; i++) {
*(buf_gbs + 1 * i) = 10000 * gbs_result.bGbs;
}
fwrite(buf_gbs, s32AiAlgoFrames * 1 * sizeof(RK_S16), 1, fp_gbs);
}
}
}
if (params->s32DumpAlgo) {
if (buf_aed)
free(buf_aed);
if (buf_bcd)
free(buf_bcd);
if (buf_buz)
free(buf_buz);
if (buf_gbs)
free(buf_gbs);
if (fp_aed)
fclose(fp_aed);
if (fp_bcd)
fclose(fp_bcd);
if (fp_buz)
fclose(fp_buz);
if (fp_gbs)
fclose(fp_gbs);
}
pthread_exit(NULL);
return RK_NULL;
}
void* commandThread(void * ptr) {
TEST_AI_CTX_S *params = reinterpret_cast<TEST_AI_CTX_S *>(ptr);
AUDIO_FADE_S aFade;
aFade.bFade = RK_FALSE;
aFade.enFadeOutRate = (AUDIO_FADE_RATE_E)params->s32SetFadeRate;
aFade.enFadeInRate = (AUDIO_FADE_RATE_E)params->s32SetFadeRate;
RK_BOOL mute = (params->s32SetMute == 0) ? RK_FALSE : RK_TRUE;
RK_LOGI("test info : mute = %d, volume = %d", mute, params->s32SetVolume);
RK_MPI_AI_SetMute(params->s32DevId, mute, &aFade);
RK_MPI_AI_SetVolume(params->s32DevId, params->s32SetVolume);
if (params->s32SetTrackMode) {
RK_LOGI("test info : set track mode = %d", params->s32SetTrackMode);
RK_MPI_AI_SetTrackMode(params->s32DevId, (AUDIO_TRACK_MODE_E)params->s32SetTrackMode);
params->s32SetTrackMode = 0;
}
if (params->s32GetVolume) {
RK_S32 volume = 0;
RK_MPI_AI_GetVolume(params->s32DevId, &volume);
RK_LOGI("test info : get volume = %d", volume);
params->s32GetVolume = 0;
}
if (params->s32GetMute) {
RK_BOOL mute = RK_FALSE;
AUDIO_FADE_S fade;
RK_MPI_AI_GetMute(params->s32DevId, &mute, &fade);
RK_LOGI("test info : is mute = %d", mute);
params->s32GetMute = 0;
}
if (params->s32GetTrackMode) {
AUDIO_TRACK_MODE_E trackMode;
RK_MPI_AI_GetTrackMode(params->s32DevId, &trackMode);
RK_LOGI("test info : get track mode = %d", trackMode);
params->s32GetTrackMode = 0;
}
pthread_exit(NULL);
return RK_NULL;
}
static RK_S32 test_set_channel_params_ai(TEST_AI_CTX_S *params) {
AUDIO_DEV aiDevId = params->s32DevId;
AI_CHN aiChn = params->s32ChnIndex;
RK_S32 result = 0;
AI_CHN_PARAM_S pstParams;
memset(&pstParams, 0, sizeof(AI_CHN_PARAM_S));
pstParams.enLoopbackMode = (AUDIO_LOOPBACK_MODE_E)params->s32LoopbackMode;
pstParams.s32UsrFrmDepth = 4;
result = RK_MPI_AI_SetChnParam(aiDevId, aiChn, &pstParams);
if (result != RK_SUCCESS) {
RK_LOGE("ai set channel params, aiChn = %d", aiChn);
return RK_FAILURE;
}
return RK_SUCCESS;
}
RK_S32 unit_test_mpi_ai(TEST_AI_CTX_S *ctx) {
RK_S32 i = 0;
TEST_AI_CTX_S params[AI_MAX_CHN_NUM];
pthread_t tidSend[AI_MAX_CHN_NUM];
pthread_t tidGet[AI_MAX_CHN_NUM];
pthread_t tidComand[AI_MAX_CHN_NUM];
RK_S32 result = RK_SUCCESS;
if (test_open_device_ai(ctx) != RK_SUCCESS) {
goto __FAILED;
}
for (i = 0; i < ctx->s32ChnNum; i++) {
memcpy(&(params[i]), ctx, sizeof(TEST_AI_CTX_S));
params[i].s32ChnIndex = i;
params[i].s32DevFd = -1;
result = test_set_channel_params_ai(&params[i]);
if (result != RK_SUCCESS)
goto __FAILED;
result = test_init_mpi_ai(&params[i]);
if (result != RK_SUCCESS)
goto __FAILED;
if (ctx->s32DataReadEnable)
pthread_create(&tidSend[i], RK_NULL, sendDataThread, reinterpret_cast<void *>(&params[i]));
pthread_create(&tidGet[i], RK_NULL, getDataThread, reinterpret_cast<void *>(&params[i]));
pthread_create(&tidComand[i], RK_NULL, commandThread, reinterpret_cast<void *>(&params[i]));
}
for (i = 0; i < ctx->s32ChnNum; i++) {
if (ctx->s32DataReadEnable)
pthread_join(tidSend[i], RK_NULL);
pthread_join(tidComand[i], RK_NULL);
pthread_join(tidGet[i], RK_NULL);
ctx->s32AedLoudCount = params[i].s32AedLoudCount;
ctx->s32BcdCount = params[i].s32BcdCount;
ctx->s32BuzCount = params[i].s32BuzCount;
ctx->s32GbsCount = params[i].s32GbsCount;
result = test_deinit_mpi_ai(&params[i]);
if (result != RK_SUCCESS)
goto __FAILED;
}
return RK_SUCCESS;
__FAILED:
return RK_FAILURE;
}
static void mpi_ai_test_show_options(const TEST_AI_CTX_S *ctx) {
RK_PRINT("cmd parse result:\n");
RK_PRINT("input file name : %s\n", ctx->srcFilePath);
RK_PRINT("output file name : %s\n", ctx->dstFilePath);
RK_PRINT("loop count : %d\n", ctx->s32LoopCount);
RK_PRINT("channel number : %d\n", ctx->s32ChnNum);
RK_PRINT("open sound rate : %d\n", ctx->s32DeviceSampleRate);
RK_PRINT("record data rate : %d\n", ctx->s32SampleRate);
RK_PRINT("sound card channel : %d\n", ctx->s32DeviceChannel);
RK_PRINT("output channel : %d\n", ctx->s32Channel);
RK_PRINT("bit_width : %d\n", ctx->s32BitWidth);
RK_PRINT("frame_number : %d\n", ctx->s32FrameNumber);
RK_PRINT("frame_length : %d\n", ctx->s32FrameLength);
RK_PRINT("sound card name : %s\n", ctx->chCardName);
RK_PRINT("device id : %d\n", ctx->s32DevId);
RK_PRINT("set volume curve : %d\n", ctx->s32SetVolumeCurve);
RK_PRINT("set volume : %d\n", ctx->s32SetVolume);
RK_PRINT("set mute : %d\n", ctx->s32SetMute);
RK_PRINT("set track_mode : %d\n", ctx->s32SetTrackMode);
RK_PRINT("get volume : %d\n", ctx->s32GetVolume);
RK_PRINT("get mute : %d\n", ctx->s32GetMute);
RK_PRINT("get track_mode : %d\n", ctx->s32GetTrackMode);
RK_PRINT("data read enable : %d\n", ctx->s32DataReadEnable);
RK_PRINT("aed enable : %d\n", ctx->s32AedEnable);
RK_PRINT("bcd enable : %d\n", ctx->s32BcdEnable);
RK_PRINT("buz enable : %d\n", ctx->s32BuzEnable);
RK_PRINT("vqe gap duration (ms) : %d\n", ctx->s32VqeGapMs);
RK_PRINT("vqe enable : %d\n", ctx->s32VqeEnable);
RK_PRINT("vqe config file : %s\n", ctx->pVqeCfgPath);
RK_PRINT("dump algo pcm data : %d\n", ctx->s32DumpAlgo);
}
static const char *const usages[] = {
"./rk_mpi_ai_test [--device_rate rate] [--device_ch ch] [--out_rate rate] [--out_ch ch] "
"[--aed_enable] [--bcd_enable] [--buz_enable] [--vqe_enable] [--vqe_cfg]...",
NULL,
};
int main(int argc, const char **argv) {
RK_S32 i;
RK_S32 s32Ret = 0;
TEST_AI_CTX_S *ctx;
ctx = reinterpret_cast<TEST_AI_CTX_S *>(malloc(sizeof(TEST_AI_CTX_S)));
memset(ctx, 0, sizeof(TEST_AI_CTX_S));
ctx->srcFilePath = RK_NULL;
ctx->dstFilePath = RK_NULL;
ctx->s32LoopCount = 1;
ctx->s32ChnNum = 1;
ctx->s32BitWidth = 16;
ctx->s32FrameNumber = 4;
ctx->s32FrameLength = 1024;
ctx->chCardName = RK_NULL;
ctx->s32DevId = 0;
ctx->s32SetVolumeCurve = 0;
ctx->s32SetVolume = 100;
ctx->s32SetMute = 0;
ctx->s32SetTrackMode = 0;
ctx->s32SetFadeRate = 0;
ctx->s32GetVolume = 0;
ctx->s32GetMute = 0;
ctx->s32GetTrackMode = 0;
ctx->s32DataReadEnable = 0;
ctx->s32AedEnable = 0;
ctx->s32BcdEnable = 0;
ctx->s32BuzEnable = 0;
ctx->s32GbsEnable = 0;
ctx->s32VqeGapMs = 16;
ctx->s32VqeEnable = 0;
ctx->pVqeCfgPath = RK_NULL;
ctx->s32LoopbackMode = AUDIO_LOOPBACK_NONE;
ctx->s32DumpAlgo = 0;
struct argparse_option options[] = {
OPT_HELP(),
OPT_GROUP("basic options:"),
OPT_INTEGER('\0', "device_rate", &(ctx->s32DeviceSampleRate),
"the sample rate of open sound card. <required>", NULL, 0, 0),
OPT_INTEGER('\0', "device_ch", &(ctx->s32DeviceChannel),
"the number of sound card channels. <required>.", NULL, 0, 0),
OPT_INTEGER('\0', "out_ch", &(ctx->s32Channel),
"the channels of out data. <required>", NULL, 0, 0),
OPT_INTEGER('\0', "out_rate", &(ctx->s32SampleRate),
"the sample rate of out data. <required>", NULL, 0, 0),
OPT_STRING('i', "input", &(ctx->srcFilePath),
"input file name, e.g.(./ai). default(NULL).", NULL, 0, 0),
OPT_STRING('o', "output", &(ctx->dstFilePath),
"output file name, e.g.(./ai). default(NULL).", NULL, 0, 0),
OPT_INTEGER('n', "loop_count", &(ctx->s32LoopCount),
"loop running count. can be any count. default(1)", NULL, 0, 0),
OPT_INTEGER('c', "channel_count", &(ctx->s32ChnNum),
"the count of adec channel. default(1).", NULL, 0, 0),
OPT_INTEGER('\0', "bit", &(ctx->s32BitWidth),
"the bit width of open sound card, range(8, 16, 24), default(16)", NULL, 0, 0),
OPT_INTEGER('\0', "frame_length", &(ctx->s32FrameLength),
"the bytes size of output frame", NULL, 0, 0),
OPT_INTEGER('\0', "frame number", &(ctx->s32FrameNumber),
"the max frame num in buf", NULL, 0, 0),
OPT_STRING('\0', "sound_card_name", &(ctx->chCardName),
"the sound name for open sound card, default(NULL)", NULL, 0, 0),
OPT_INTEGER('\0', "set_volume_curve", &(ctx->s32SetVolumeCurve),
"set volume curve(builtin linear), 0:unset 1:linear 2:logarithm 3:customize. default(0).", NULL, 0, 0),
OPT_INTEGER('\0', "set_volume", &(ctx->s32SetVolume),
"set volume test, range(0, 100), default(100)", NULL, 0, 0),
OPT_INTEGER('\0', "set_mute", &(ctx->s32SetMute),
"set mute test, range(0, 1), default(0)", NULL, 0, 0),
OPT_INTEGER('\0', "set_fade", &(ctx->s32SetFadeRate),
"set fade rate, range(0, 7), default(0)", NULL, 0, 0),
OPT_INTEGER('\0', "set_track_mode", &(ctx->s32SetTrackMode),
"set track mode test, range(0:normal, 1:both_left, 2:both_right, 3:exchange, 4:mix,"
"5:left_mute, 6:right_mute, 7:both_mute, 8: only left, 9: only right, 10:out stereo), default(0)", NULL, 0, 0),
OPT_INTEGER('\0', "get_volume", &(ctx->s32GetVolume),
"get volume test, range(0, 1), default(0)", NULL, 0, 0),
OPT_INTEGER('\0', "get_mute", &(ctx->s32GetMute),
"get mute test, range(0, 1), default(0)", NULL, 0, 0),
OPT_INTEGER('\0', "get_track_mode", &(ctx->s32GetTrackMode),
"get track mode test, range(0, 1), default(0)", NULL, 0, 0),
OPT_INTEGER('\0', "data_read_enable", &(ctx->s32DataReadEnable),
"the data read enable, 0:disable 1:enable. default(0).", NULL, 0, 0),
OPT_INTEGER('\0', "aed_enable", &(ctx->s32AedEnable),
"the aed enable, 0:disable 1:enable 2:reload test. default(0).", NULL, 0, 0),
OPT_INTEGER('\0', "bcd_enable", &(ctx->s32BcdEnable),
"the bcd enable, 0:disable 1:enable. default(0).", NULL, 0, 0),
OPT_INTEGER('\0', "buz_enable", &(ctx->s32BuzEnable),
"the buz enable, 0:disable 1:enable. default(0).", NULL, 0, 0),
OPT_INTEGER('\0', "gbs_enable", &(ctx->s32GbsEnable),
"the gbs enable, 0:disable 1:enable. default(0).", NULL, 0, 0),
OPT_INTEGER('\0', "vqe_gap", &(ctx->s32VqeGapMs),
"the vqe gap duration in milliseconds. only supports 16ms or 10ms. default(16).", NULL, 0, 0),
OPT_INTEGER('\0', "vqe_enable", &(ctx->s32VqeEnable),
"the vqe enable, 0:disable 1:enable. default(0).", NULL, 0, 0),
OPT_STRING('\0', "vqe_cfg", &(ctx->pVqeCfgPath),
"the vqe config file, default(NULL)", NULL, 0, 0),
OPT_INTEGER('\0', "loopback_mode", &(ctx->s32LoopbackMode),
"configure the loopback mode during ai runtime", NULL, 0, 0),
OPT_INTEGER('\0', "dump_algo", &(ctx->s32DumpAlgo),
"dump algorithm pcm data during ai runtime", NULL, 0, 0),
OPT_END(),
};
struct argparse argparse;
argparse_init(&argparse, options, usages, 0);
argparse_describe(&argparse, "\nselect a test case to run.",
"\nuse --help for details.");
argc = argparse_parse(&argparse, argc, argv);
mpi_ai_test_show_options(ctx);
if (ctx->s32Channel <= 0
|| ctx->s32SampleRate <= 0
|| ctx->s32DeviceSampleRate <= 0
|| ctx->s32DeviceChannel <= 0
|| (ctx->s32DataReadEnable && (ctx->srcFilePath == NULL))) {
argparse_usage(&argparse);
s32Ret = -1;
goto __FAILED;
}
RK_MPI_SYS_Init();
for (i = 0; i < ctx->s32LoopCount; i++) {
ctx->s32AedLoudCount = 0;
ctx->s32BcdCount = 0;
ctx->s32BuzCount = 0;
ctx->s32GbsCount = 0;
RK_LOGI("start running loop count = %d", i);
s32Ret = unit_test_mpi_ai(ctx);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("unit_test_mpi_ai failed: %d", s32Ret);
s32Ret = -1;
goto __FAILED;
}
RK_LOGI("end running loop count = %d", i);
}
if (ctx->s32AedEnable && ctx->s32AedLoudCount < 10) {
RK_LOGE("Aed Loud event count: %d", ctx->s32AedLoudCount);
s32Ret = -1;
} else if (ctx->s32AedEnable) {
RK_LOGD("Aed Loud event count: %d", ctx->s32AedLoudCount);
}
if (ctx->s32BcdEnable && ctx->s32BcdCount < 10) {
RK_LOGE("Bcd event count: %d", ctx->s32BcdCount);
s32Ret = -1;
} else if (ctx->s32BcdEnable) {
RK_LOGD("Bcd event count: %d", ctx->s32BcdCount);
}
if (ctx->s32BuzEnable && ctx->s32BuzCount < 10) {
RK_LOGE("Buz event count: %d", ctx->s32BuzCount);
s32Ret = -1;
} else if (ctx->s32BuzEnable) {
RK_LOGD("Buz event count: %d", ctx->s32BuzCount);
}
if (ctx->s32GbsEnable && ctx->s32GbsCount < 10) {
RK_LOGE("Gbs event count: %d", ctx->s32GbsCount);
s32Ret = -1;
} else if (ctx->s32GbsEnable) {
RK_LOGD("Gbs event count: %d", ctx->s32GbsCount);
}
__FAILED:
if (ctx) {
free(ctx);
ctx = RK_NULL;
}
RK_MPI_SYS_Exit();
return s32Ret;
}
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