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xiaoyu/media/samples/example/test/sample_demo_dual_aiisp_stresstest.c

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2025-03-04 22:36:42 +08:00
#ifdef __cplusplus
#if __cplusplus
extern "C" {
#endif
#endif /* End of #ifdef __cplusplus */
#include "rtsp_demo.h"
#include "sample_comm.h"
#include <assert.h>
#include <errno.h>
#include <fcntl.h>
#include <getopt.h>
#include <pthread.h>
#include <semaphore.h>
#include <signal.h>
#include <stdbool.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <sys/prctl.h>
#include <sys/syscall.h>
#include <time.h>
#include <unistd.h>
#define VI_NUM_MAX 4
#define VENC_CHN_MAX 4
#define VPSS_GRP_MAX 2
#define BUFFER_SIZE 255
#define RGN_NUM_MAX 4
#define GET_STREAM_TIMEOUT 2000
#define SEND_STREAM_TIMEOUT 2000
#define RGN_ATTACH_VPSS 0
#define RGN_ATTACH_VENC 1
#define RGN_ATTACH_NONE 2
#define CAM_0_INDEX 0
#define CAM_1_INDEX 1
#define TRACE_BEGIN() RK_LOGW("Enter\n")
#define TRACE_END() RK_LOGW("Exit\n")
typedef struct _rkThreadStatus {
RK_BOOL bIfMainThreadQuit;
RK_BOOL bIfVencThreadQuit[VENC_CHN_MAX];
RK_BOOL bIfViThreadQuit;
} ThreadStatus;
typedef struct _rkMpiCtx {
SAMPLE_VI_CTX_S vi[VI_NUM_MAX];
SAMPLE_VENC_CTX_S venc[VENC_CHN_MAX];
SAMPLE_RGN_CTX_S rgn[RGN_NUM_MAX];
SAMPLE_VPSS_CTX_S vpss[VPSS_GRP_MAX];
} SAMPLE_MPI_CTX_S;
typedef struct _rkCmdArgs {
RK_U32 u32Main0Width;
RK_U32 u32Main0Height;
RK_U32 u32Main1Width;
RK_U32 u32Main1Height;
RK_U32 u32Sub0Width;
RK_U32 u32Sub0Height;
RK_U32 u32Sub1Width;
RK_U32 u32Sub1Height;
RK_U32 u32ViBuffCnt;
RK_U32 u32Gop;
RK_CHAR *pInPathBmp1;
RK_CHAR *pInPathBmp2;
RK_CHAR *pOutPathVenc;
RK_CHAR *pIqFileDir;
RK_CHAR *pAiispModelPath;
RK_U32 u32AiispBuffCnt;
RK_BOOL bMultictx;
CODEC_TYPE_E enCodecType;
VENC_RC_MODE_E enRcMode;
RK_CHAR *pCodecName;
RK_S32 s32CamId;
RK_S32 s32loopCnt;
RK_BOOL bEnableAIIsp;
RK_S32 s32BitRate;
RK_U32 u32VencFps;
rk_aiq_working_mode_t eHdrMode;
RK_U32 s32RgnAttachModule; // 0:vpss,1:venc
} RkCmdArgs;
typedef struct _rkModeTest {
sem_t astSem[VENC_CHN_MAX];
pthread_mutex_t astMutex[VENC_CHN_MAX];
pthread_t s32ThreadId;
RK_S32 s32ModuleTestType;
RK_S32 s32ModuleTestLoop;
RK_U32 u32TestFrameCount;
RK_U32 u32VencGetFrameCount[VENC_CHN_MAX];
RK_BOOL bIfModuleTestopen;
} RkModeTest;
/* global param */
static RkCmdArgs *g_cmd_args = RK_NULL;
static SAMPLE_MPI_CTX_S *g_mpi_ctx = RK_NULL;
static ThreadStatus *g_thread_status = RK_NULL;
static RkModeTest *g_mode_test = NULL;
static RK_S32 g_exit_result = RK_SUCCESS;
static pthread_mutex_t g_rtsp_mutex = {0};
static RK_BOOL g_rtsp_ifenbale = RK_FALSE;
rtsp_demo_handle g_rtsplive = RK_NULL;
static rtsp_session_handle g_rtsp_session[VENC_CHN_MAX] = {RK_NULL};
/* Forward function declaration used for stresstest code */
static RK_S32 isp_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 isp_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 vi_chn_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 vi_chn_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 vpss_chn_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 vpss_chn_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 venc_chn_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 venc_chn_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 bind_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 bind_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 rgn_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 rgn_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs);
static RK_S32 rtsp_init(CODEC_TYPE_E enCodecType);
static RK_S32 rtsp_deinit();
static RK_S32 aiisp_callback(rk_ainr_param *pAinrParam, RK_VOID *pPrivateData) {
if (pAinrParam == RK_NULL) {
RK_LOGE("pAinrParam is nullptr!\n");
return RK_FAILURE;
}
RK_S32 s32Ret = RK_SUCCESS, s32CamId = (RK_S32)pPrivateData;
memset(pAinrParam, 0, sizeof(rk_ainr_param));
s32Ret = SAMPLE_COMM_ISP_GetAINrParams(s32CamId, pAinrParam);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("Can't get ainr param!\n");
return s32Ret;
}
RK_LOGD("aiisp cam %d enable %d\n", s32CamId, ((rk_ainr_param *)pAinrParam)->enable);
return s32Ret;
}
static void program_handle_error(const char *func, RK_U32 line) {
RK_LOGE("func: <%s> line: <%d> error exit!", func, line);
g_exit_result = RK_FAILURE;
g_thread_status->bIfMainThreadQuit = RK_TRUE;
}
static void program_normal_exit(const char *func, RK_U32 line) {
RK_LOGE("func: <%s> line: <%d> normal exit!", func, line);
g_thread_status->bIfMainThreadQuit = RK_TRUE;
}
static void sigterm_handler(int sig) {
fprintf(stderr, "signal %d\n", sig);
program_normal_exit(__func__, __LINE__);
}
static void *venc_get_stream(void *pArgs) {
SAMPLE_VENC_CTX_S *ctx = (SAMPLE_VENC_CTX_S *)pArgs;
RK_S32 s32Ret = RK_FAILURE;
FILE *fp = RK_NULL;
RK_S32 s32fd = 0;
RK_S32 loopCount = 0;
RK_VOID *pData = RK_NULL;
RK_CHAR name[BUFFER_SIZE] = {0};
sprintf(name, "venc_%d_get_stream", ctx->s32ChnId);
prctl(PR_SET_NAME, name);
RK_LOGE("venc_get_stream chnid:%d start\n", ctx->s32ChnId);
if (ctx->dstFilePath) {
memset(name, 0, BUFFER_SIZE);
snprintf(name, sizeof(name), "/%s/venc_%d.bin", ctx->dstFilePath, ctx->s32ChnId);
fp = fopen(name, "wb");
if (fp == RK_NULL) {
RK_LOGE("chn %d can't open %s file !\n", ctx->s32ChnId, ctx->dstFilePath);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
s32fd = fileno(fp);
}
while (!g_thread_status->bIfVencThreadQuit[ctx->s32ChnId]) {
s32Ret = SAMPLE_COMM_VENC_GetStream(ctx, &pData);
if (s32Ret == RK_SUCCESS) {
if (ctx->s32loopCount > 0) {
if (loopCount >= ctx->s32loopCount) {
SAMPLE_COMM_VENC_ReleaseStream(ctx);
program_normal_exit(__func__, __LINE__);
break;
}
}
if (fp && !g_thread_status->bIfMainThreadQuit) {
fwrite(pData, 1, ctx->stFrame.pstPack->u32Len, fp);
fflush(fp);
}
// PrintStreamDetails(ctx->s32ChnId, ctx->stFrame.pstPack->u32Len);
if (g_rtsp_ifenbale) {
pthread_mutex_lock(&g_rtsp_mutex);
rtsp_tx_video(g_rtsp_session[ctx->s32ChnId], pData,
ctx->stFrame.pstPack->u32Len, ctx->stFrame.pstPack->u64PTS);
rtsp_do_event(g_rtsplive);
pthread_mutex_unlock(&g_rtsp_mutex);
} else {
RK_LOGI("venc %d get_stream count: %d", ctx->s32ChnId, loopCount);
}
if (g_mode_test->bIfModuleTestopen) {
pthread_mutex_lock(&g_mode_test->astMutex[ctx->s32ChnId]);
g_mode_test->u32VencGetFrameCount[ctx->s32ChnId]++;
pthread_mutex_unlock(&g_mode_test->astMutex[ctx->s32ChnId]);
if (g_mode_test->u32VencGetFrameCount[ctx->s32ChnId] >=
g_mode_test->u32TestFrameCount) {
sem_post(&g_mode_test->astSem[ctx->s32ChnId]);
}
}
SAMPLE_COMM_VENC_ReleaseStream(ctx);
loopCount++;
}
}
if (fp) {
fsync(s32fd);
fclose(fp);
fp = RK_NULL;
}
RK_LOGE("venc_get_stream chnid:%d exit\n", ctx->s32ChnId);
return RK_NULL;
}
static RK_S32 pnMode_stressTest() {
RK_S32 s32Ret = RK_SUCCESS;
RK_MPI_VI_PauseChn(g_mpi_ctx->vi[0].u32PipeId, g_mpi_ctx->vi[0].s32ChnId);
RK_MPI_VI_PauseChn(g_mpi_ctx->vi[1].u32PipeId, g_mpi_ctx->vi[1].s32ChnId);
isp_deinit(g_mpi_ctx, g_cmd_args);
s32Ret = isp_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("isp_init failure\n");
return s32Ret;
}
s32Ret = RK_MPI_VI_ResumeChn(g_mpi_ctx->vi[0].u32PipeId, g_mpi_ctx->vi[0].s32ChnId);
s32Ret |= RK_MPI_VI_ResumeChn(g_mpi_ctx->vi[1].u32PipeId, g_mpi_ctx->vi[1].s32ChnId);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_VI_ResumeChn failure\n");
return s32Ret;
}
RK_LOGE("<--------------PN mode switch success---------->");
return RK_SUCCESS;
}
static RK_S32 hdrMode_stressTest() {
RK_S32 s32Ret = RK_SUCCESS;
// static rk_aiq_working_mode_t eNowHdrMode = RK_AIQ_WORKING_MODE_NORMAL;
#if defined(RV1106)
// FIXME: Just return now for 1106, wait for HDR enable...
#if 0
RK_MPI_VI_PauseChn(CAM_0_INDEX, 0);
RK_MPI_VI_PauseChn(CAM_1_INDEX, 0);
isp_deinit(g_mpi_ctx, g_cmd_args);
if (g_cmd_args->eHdrMode == RK_AIQ_WORKING_MODE_NORMAL)
g_cmd_args->eHdrMode = RK_AIQ_WORKING_MODE_ISP_HDR2;
else
g_cmd_args->eHdrMode = RK_AIQ_WORKING_MODE_NORMAL;
s32Ret = isp_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("SAMPLE_COMM_ISP_Init_Run failure\n");
return s32Ret;
}
RK_MPI_VI_ResumeChn(CAM_0_INDEX, 0);
RK_MPI_VI_ResumeChn(CAM_1_INDEX, 0);
#endif
#elif defined(RV1126)
if (g_cmd_args->eHdrMode == RK_AIQ_WORKING_MODE_NORMAL)
g_cmd_args->eHdrMode = RK_AIQ_WORKING_MODE_ISP_HDR2;
else
g_cmd_args->eHdrMode = RK_AIQ_WORKING_MODE_NORMAL;
s32Ret |= SAMPLE_COMM_ISP_SetWDRModeDyn(CAM_0_INDEX, g_cmd_args->eHdrMode);
s32Ret |= SAMPLE_COMM_ISP_SetWDRModeDyn(CAM_1_INDEX, g_cmd_args->eHdrMode);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("SAMPLE_COMM_ISP_SetWDRModeDyn failure:%#X cam:%d hdrmodr:%d", s32Ret,
g_cmd_args->s32CamId, g_cmd_args->eHdrMode);
return s32Ret;
}
#endif
RK_LOGE("<------------switch to %d(normal:0 HDR2:16)--------------->",
g_cmd_args->eHdrMode);
return s32Ret;
}
static RK_S32 frameRate_switchTest(SAMPLE_VI_CTX_S *ctx) {
RK_S32 s32Ret = RK_FAILURE;
VI_CHN_ATTR_S pstChnAttr;
memset(&pstChnAttr, 0, sizeof(VI_CHN_ATTR_S));
s32Ret = RK_MPI_VI_GetChnAttr(ctx->u32PipeId, ctx->s32ChnId, &pstChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_VI_GetChnAttr failure:%X", s32Ret);
return s32Ret;
}
srand(time(NULL));
pstChnAttr.stFrameRate.s32DstFrameRate = rand() % 25 + 3;
pstChnAttr.stFrameRate.s32SrcFrameRate = 25;
s32Ret = RK_MPI_VI_SetChnAttr(ctx->u32PipeId, ctx->s32ChnId, &pstChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_VI_GetChnAttr failure:%X", s32Ret);
return s32Ret;
}
RK_LOGE("---------------Framerate switch to: %d",
pstChnAttr.stFrameRate.s32DstFrameRate);
return RK_SUCCESS;
}
static RK_S32 vpss_ai_isp_switchTest(SAMPLE_VPSS_CTX_S *ctx) {
RK_S32 s32Ret = RK_FAILURE;
AIISP_ATTR_S pstAIISPAttr;
memset(&pstAIISPAttr, 0, sizeof(AIISP_ATTR_S));
s32Ret = RK_MPI_VPSS_GetGrpAIISPAttr(ctx->s32GrpId, &pstAIISPAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_VPSS_GetGrpAIISPAttr failure:%X", s32Ret);
return s32Ret;
}
if (pstAIISPAttr.bEnable == RK_TRUE) {
pstAIISPAttr.bEnable = RK_FALSE;
} else {
pstAIISPAttr.bEnable = RK_TRUE;
}
pstAIISPAttr.stAiIspCallback.pfUpdateCallback = (AIISP_CALLBACK)aiisp_callback;
if (ctx->s32GrpId == 0)
pstAIISPAttr.stAiIspCallback.pPrivateData = (void *)CAM_0_INDEX;
else
pstAIISPAttr.stAiIspCallback.pPrivateData = (void *)CAM_1_INDEX;
pstAIISPAttr.pModelFilePath = g_cmd_args->pAiispModelPath;
pstAIISPAttr.u32FrameBufCnt = g_cmd_args->u32AiispBuffCnt;
s32Ret = RK_MPI_VPSS_SetGrpAIISPAttr(ctx->s32GrpId, &pstAIISPAttr);
if (RK_SUCCESS != s32Ret) {
RK_LOGE("VPSS GRP 0 RK_MPI_VPSS_SetGrpAIISPAttr failed with %#x!", s32Ret);
return s32Ret;
}
RK_LOGE("---------------AIISP GRP %d switch to: %d(0->close, 1->enable)",
ctx->s32GrpId, pstAIISPAttr.bEnable);
return RK_SUCCESS;
}
static RK_S32 vpss_chn0_resolution_switch_test(SAMPLE_VPSS_CTX_S *ctx) {
RK_S32 s32Ret = RK_FAILURE;
VPSS_CHN_ATTR_S pstChnAttr;
RK_U32 u32SrcWidth = ctx->stVpssChnAttr[0].u32Width;
RK_U32 u32SrcHeight = ctx->stVpssChnAttr[0].u32Height;
RK_U32 u32DstWidth = 1280;
RK_U32 u32DstHeight = 720;
memset(&pstChnAttr, 0, sizeof(VPSS_CHN_ATTR_S));
s32Ret = RK_MPI_VPSS_GetChnAttr(ctx->s32GrpId, 0, &pstChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_VPSS_GetChnAttr failure:%X", s32Ret);
return s32Ret;
}
if (pstChnAttr.u32Width == u32SrcWidth) {
pstChnAttr.u32Width = u32DstWidth;
pstChnAttr.u32Height = u32DstHeight;
} else {
pstChnAttr.u32Width = u32SrcWidth;
pstChnAttr.u32Height = u32SrcHeight;
}
s32Ret = RK_MPI_VPSS_SetChnAttr(ctx->s32GrpId, 0, &pstChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss set chn resolution failure");
return s32Ret;
}
RK_LOGE("---------------VPSS %d resolution switch to: %dx%d", ctx->s32GrpId,
pstChnAttr.u32Width, pstChnAttr.u32Height);
return RK_SUCCESS;
}
static RK_S32 vpss_venc_chn0_resolution_switch_test(RK_S32 s32VpssGrp, RK_S32 s32VpssChn,
RK_S32 s32VencChn) {
RK_S32 s32Ret = RK_FAILURE;
SAMPLE_VPSS_CTX_S *pVpssCtx = &g_mpi_ctx->vpss[s32VpssGrp];
SAMPLE_VENC_CTX_S *pVencCtx = &g_mpi_ctx->venc[s32VencChn];
RK_U32 u32SrcWidth = pVpssCtx->stVpssChnAttr[s32VpssChn].u32Width;
RK_U32 u32SrcHeight = pVpssCtx->stVpssChnAttr[s32VpssChn].u32Height;
RK_U32 u32DstWidth = 1280;
RK_U32 u32DstHeight = 720;
VPSS_CHN_ATTR_S VpsspstChnAttr;
VENC_CHN_ATTR_S VencChnAttr;
MPP_CHN_S stSrcChn, stDestChn;
// rgn detach venc
if (g_cmd_args->s32RgnAttachModule == RGN_ATTACH_VENC) {
s32Ret = rgn_deinit(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("venc_rgn_detach failure");
return s32Ret;
}
}
// unBind vpss and venc
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = s32VpssGrp;
stSrcChn.s32ChnId = s32VpssChn;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = s32VencChn;
s32Ret = SAMPLE_COMM_UnBind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss unbind to venc[0] failure");
return s32Ret;
}
memset(&VpsspstChnAttr, 0, sizeof(VPSS_CHN_ATTR_S));
/* vpss reset resolution */
s32Ret = RK_MPI_VPSS_GetChnAttr(s32VpssGrp, s32VpssChn, &VpsspstChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_VPSS_GetChnAttr failure:%X", s32Ret);
return s32Ret;
}
if (VpsspstChnAttr.u32Width == u32SrcWidth) {
VpsspstChnAttr.u32Width = u32DstWidth;
VpsspstChnAttr.u32Height = u32DstHeight;
} else {
VpsspstChnAttr.u32Width = u32SrcWidth;
VpsspstChnAttr.u32Height = u32SrcHeight;
}
s32Ret = RK_MPI_VPSS_SetChnAttr(s32VpssGrp, s32VpssChn, &VpsspstChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss set chn resolution failure");
return s32Ret;
}
RK_LOGE("vpss set chn resolution %dx%d-----\n", VpsspstChnAttr.u32Width,
VpsspstChnAttr.u32Height);
memset(&VencChnAttr, 0, sizeof(VENC_CHN_ATTR_S));
/* venc reset resolution */
s32Ret = RK_MPI_VENC_GetChnAttr(s32VencChn, &VencChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_VENC_GetChnAttr failure:%X", s32Ret);
return s32Ret;
}
pVencCtx->u32Width = VpsspstChnAttr.u32Width;
pVencCtx->u32Height = VpsspstChnAttr.u32Height;
VencChnAttr.stVencAttr.u32PicWidth = VpsspstChnAttr.u32Width;
VencChnAttr.stVencAttr.u32VirWidth = VpsspstChnAttr.u32Width;
VencChnAttr.stVencAttr.u32PicHeight = VpsspstChnAttr.u32Height;
VencChnAttr.stVencAttr.u32VirHeight = VpsspstChnAttr.u32Height;
s32Ret = RK_MPI_VENC_SetChnAttr(s32VencChn, &VencChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("venc set chn resolution failure");
return s32Ret;
}
RK_LOGE("venc set chn resolution %dx%d-----\n", VpsspstChnAttr.u32Width,
VpsspstChnAttr.u32Height);
// Bind vpss and venc
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = s32VpssGrp;
stSrcChn.s32ChnId = s32VpssChn;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = s32VencChn;
s32Ret = SAMPLE_COMM_Bind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss bind to venc[0] failure");
return s32Ret;
}
// rgn attach venc
if (g_cmd_args->s32RgnAttachModule == RGN_ATTACH_VENC) {
s32Ret = rgn_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("venc_rgn_attach failure");
return s32Ret;
}
}
return RK_SUCCESS;
}
static RK_S32 encode_destroy_and_restart(CODEC_TYPE_E enCodecType,
VENC_RC_MODE_E enRcMode, RK_U32 u32Profile,
RK_S32 s32VpssGrp, RK_S32 s32VpssChn,
RK_S32 s32VencChn) {
RK_S32 s32Ret = RK_FAILURE;
SAMPLE_VENC_CTX_S *pVencCtx = &g_mpi_ctx->venc[s32VencChn];
MPP_CHN_S stSrcChn, stDestChn;
// rgn detach venc
if (g_cmd_args->s32RgnAttachModule == RGN_ATTACH_VENC) {
s32Ret = rgn_deinit(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("venc_rgn_detach failure");
return s32Ret;
}
}
// Stop venc thread.
g_thread_status->bIfVencThreadQuit[s32VencChn] = RK_TRUE;
if (pVencCtx->getStreamCbFunc) {
pthread_join(pVencCtx->getStreamThread, RK_NULL);
pVencCtx->getStreamThread = 0;
}
// unBind vpss and venc
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = s32VpssGrp;
stSrcChn.s32ChnId = s32VpssChn;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = s32VencChn;
s32Ret = SAMPLE_COMM_UnBind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss unbind to venc[%d] failure", pVencCtx->s32ChnId);
program_handle_error(__func__, __LINE__);
return s32Ret;
}
// Destroy venc
s32Ret = SAMPLE_COMM_VENC_DestroyChn(pVencCtx);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("SAMPLE_COMM_VENC_DestroyChn %d Failure s32Ret:%#X", s32VencChn, s32Ret);
program_handle_error(__func__, __LINE__);
return s32Ret;
}
pVencCtx->enCodecType = enCodecType;
pVencCtx->enRcMode = enRcMode;
pVencCtx->stChnAttr.stVencAttr.u32Profile = u32Profile;
// Init VENC
g_thread_status->bIfVencThreadQuit[pVencCtx->s32ChnId] = RK_FALSE;
s32Ret = SAMPLE_COMM_VENC_CreateChn(pVencCtx);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("SAMPLE_COMM_VENC_DestroyChn %d Failure s32Ret:%#X", pVencCtx->s32ChnId,
s32Ret);
program_handle_error(__func__, __LINE__);
return s32Ret;
}
// Bind vpss and venc
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = s32VpssGrp;
stSrcChn.s32ChnId = s32VpssChn;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = s32VencChn;
s32Ret = SAMPLE_COMM_Bind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss unbind to venc[%d] failure", pVencCtx->s32ChnId);
program_handle_error(__func__, __LINE__);
return s32Ret;
}
// rgn attach venc
if (g_cmd_args->s32RgnAttachModule == RGN_ATTACH_VENC) {
s32Ret = rgn_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("venc_rgn_attach failure");
return s32Ret;
}
}
return s32Ret;
}
static RK_S32 encode_type_switch(RK_S32 s32VpssGrp, RK_S32 s32VpssChn,
RK_S32 s32VencChn) {
RK_S32 s32Ret = RK_FAILURE;
static RK_U32 now_test_loop = 0;
switch (now_test_loop % 2) {
case 0: /* H264 CBR */
RK_LOGE("-------------Switch To H264CBR---------------");
s32Ret = encode_destroy_and_restart(RK_CODEC_TYPE_H264, VENC_RC_MODE_H264CBR, 100,
s32VpssGrp, s32VpssChn, s32VencChn);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("switch to 264_cbr failure");
program_handle_error(__func__, __LINE__);
return RK_FAILURE;
}
case 1: /* H265 CBR */
RK_LOGE("-------------Switch To H265CBR---------------");
s32Ret = encode_destroy_and_restart(RK_CODEC_TYPE_H265, VENC_RC_MODE_H265CBR, 0,
s32VpssGrp, s32VpssChn, s32VencChn);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("switch to 265_cbr failure");
program_handle_error(__func__, __LINE__);
return RK_FAILURE;
}
default:
return RK_SUCCESS;
}
now_test_loop++;
RK_LOGE("encode_type_switch-------------");
return RK_SUCCESS;
}
static RK_S32 rgn_CreateAndDestory() {
RK_S32 s32Ret = RK_FAILURE;
s32Ret = rgn_deinit(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("rgn_deinit failed\n!");
return s32Ret;
}
s32Ret = rgn_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("rgn_init failed\n!");
return s32Ret;
}
RK_LOGE("rgn_initAndDeinit switch test");
return s32Ret;
}
static RK_S32 media_init(void) {
RK_S32 s32Ret = RK_FAILURE;
s32Ret = isp_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
printf("isp_init failure!\n");
return s32Ret;
}
s32Ret = RK_MPI_SYS_Init();
if (s32Ret != RK_SUCCESS) {
printf("RK_MPI_SYS_Init failure!\n");
return s32Ret;
}
// Initialize rtsp server.
rtsp_init(g_cmd_args->enCodecType);
// Initialize all pipeline nodes.
s32Ret = vi_chn_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vi init failed!\n");
return s32Ret;
}
s32Ret = vpss_chn_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss init failed!\n");
return s32Ret;
}
for (int i = 0; i < VENC_CHN_MAX; i++)
g_thread_status->bIfVencThreadQuit[i] = RK_FALSE;
s32Ret = venc_chn_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("venc init failed!\n");
return s32Ret;
}
s32Ret = rgn_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("rgn init failed!\n");
return s32Ret;
}
// Bind all pipeline nodes.
s32Ret = bind_init(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("bind init failed!\n");
return s32Ret;
}
return s32Ret;
}
static RK_S32 media_deinit(void) {
RK_S32 s32Ret = RK_FAILURE;
// Destroy pipeline.
for (int i = 0; i < VENC_CHN_MAX; i++) {
g_thread_status->bIfVencThreadQuit[i] = RK_TRUE;
pthread_join(g_mpi_ctx->venc[i].getStreamThread, RK_NULL);
g_mpi_ctx->venc[i].getStreamThread = 0;
}
s32Ret = bind_deinit(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("bind deinit failed!\n");
return s32Ret;
}
s32Ret = rgn_deinit(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("rgn deinit failed!\n");
return s32Ret;
}
s32Ret = venc_chn_deinit(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("venc deinit failed!\n");
return s32Ret;
}
s32Ret = vpss_chn_deinit(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss deinit failed!\n");
return s32Ret;
}
s32Ret = vi_chn_deinit(g_mpi_ctx, g_cmd_args);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vi deinit failed!\n");
return s32Ret;
}
rtsp_deinit();
RK_MPI_SYS_Exit();
isp_deinit(g_mpi_ctx, g_cmd_args);
return s32Ret;
}
static RK_S32 media_deinit_init(void) {
RK_S32 s32Ret = RK_FAILURE;
TRACE_BEGIN();
s32Ret = media_deinit();
if (s32Ret != RK_SUCCESS) {
RK_LOGE("media_deinit failure\n");
return s32Ret;
}
s32Ret = media_init();
if (s32Ret != RK_SUCCESS) {
RK_LOGE("media_init failure\n");
return s32Ret;
}
TRACE_END();
RK_LOGE("---------------------media_deinit_init StressTest");
return s32Ret;
}
static void wait_module_test_switch_success(void) {
for (RK_U32 i = 0; i < VENC_CHN_MAX; i++) {
pthread_mutex_lock(&g_mode_test->astMutex[i]);
g_mode_test->u32VencGetFrameCount[i] = 0;
pthread_mutex_unlock(&g_mode_test->astMutex[i]);
sem_wait(&g_mode_test->astSem[i]);
}
}
static void *sample_demo_stresstest(void *pArgs) {
prctl(PR_SET_NAME, "sample_demo_stress");
RK_CHAR *pCTestModel = RK_NULL;
RK_S32 s32Ret = RK_FAILURE;
RK_U32 u32TestCount = 0;
RK_S32 s32VpssGrp, s32VpssChn, s32VencChn;
TRACE_BEGIN();
wait_module_test_switch_success();
SAMPLE_COMM_DumpMeminfo("Enter sample_demo_stresstest",
g_mode_test->s32ModuleTestType);
while (g_mode_test->bIfModuleTestopen) {
switch (g_mode_test->s32ModuleTestType) {
case 1:
s32Ret = pnMode_stressTest();
if (s32Ret != RK_SUCCESS) {
RK_LOGE("pnMode_stressTest failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
pCTestModel = "pnMode_stressTest";
break;
case 2:
s32Ret = hdrMode_stressTest();
if (s32Ret != RK_SUCCESS) {
RK_LOGE("hdrMode_stressTest failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
pCTestModel = "hdrMode_stressTest";
break;
case 3:
s32Ret = frameRate_switchTest(&g_mpi_ctx->vi[0]);
s32Ret |= frameRate_switchTest(&g_mpi_ctx->vi[1]);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("frameRate_stressTest failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
pCTestModel = "frameRate_switchTest";
break;
case 4:
s32Ret = RK_SUCCESS;
s32Ret |= vpss_ai_isp_switchTest(&g_mpi_ctx->vpss[0]);
s32Ret |= vpss_ai_isp_switchTest(&g_mpi_ctx->vpss[1]);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss_aiisp switchTest failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
pCTestModel = "vpss_ai_isp_switchTest";
break;
case 5:
s32Ret = vpss_chn0_resolution_switch_test(&g_mpi_ctx->vpss[0]);
s32Ret |= vpss_chn0_resolution_switch_test(&g_mpi_ctx->vpss[1]);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss_chn0_resolution_switch_test failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
pCTestModel = "vpss_chn0_resolution_switch_test";
break;
case 6:
g_rtsp_ifenbale = RK_FALSE;
s32VpssGrp = 0;
s32VpssChn = 0;
s32VencChn = 0;
s32Ret =
vpss_venc_chn0_resolution_switch_test(s32VpssGrp, s32VpssChn, s32VencChn);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss_venc_chn0_resolution_switch_test failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
s32VpssGrp = 1;
s32VpssChn = 0;
s32VencChn = 2;
s32Ret =
vpss_venc_chn0_resolution_switch_test(s32VpssGrp, s32VpssChn, s32VencChn);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss_venc_chn0_resolution_switch_test failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
pCTestModel = "vpss_venc_chn0_resolution_switch_test";
break;
case 7:
s32VpssGrp = 0;
s32VpssChn = 0;
s32VencChn = 0;
s32Ret = encode_type_switch(s32VpssGrp, s32VpssChn, s32VencChn);
s32VpssGrp = 0;
s32VpssChn = 1;
s32VencChn = 1;
s32Ret |= encode_type_switch(s32VpssGrp, s32VpssChn, s32VencChn);
s32VpssGrp = 1;
s32VpssChn = 0;
s32VencChn = 2;
s32Ret |= encode_type_switch(s32VpssGrp, s32VpssChn, s32VencChn);
s32VpssGrp = 1;
s32VpssChn = 1;
s32VencChn = 3;
s32Ret |= encode_type_switch(s32VpssGrp, s32VpssChn, s32VencChn);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("encode_type_switch failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
pCTestModel = "encode_type_switch";
break;
case 8:
s32Ret = rgn_CreateAndDestory();
if (s32Ret != RK_SUCCESS) {
RK_LOGE("vpss rgn_initAndDeinit failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
pCTestModel = "rgn_initAndDeinit_test";
break;
case 9:
s32Ret = media_deinit_init();
if (s32Ret != RK_SUCCESS) {
RK_LOGE("Media_deinit_and_init failure %X", s32Ret);
program_handle_error(__func__, __LINE__);
return RK_NULL;
}
pCTestModel = "Media_deinit_and_init";
break;
default:
RK_LOGE("this test type is not support");
}
wait_module_test_switch_success();
u32TestCount++;
RK_LOGE("-----------------moduleTest:%s switch success total:%d now_count:%d",
pCTestModel, g_mode_test->s32ModuleTestLoop, u32TestCount);
if (g_mode_test->s32ModuleTestLoop > 0 &&
u32TestCount >= g_mode_test->s32ModuleTestLoop) {
RK_LOGE("------------------moduleTest: %s end(pass)", pCTestModel);
g_mode_test->bIfModuleTestopen = RK_FALSE;
g_rtsp_ifenbale = RK_TRUE;
program_normal_exit(__func__, __LINE__);
break;
}
}
SAMPLE_COMM_DumpMeminfo("Exit sample_demo_stresstest",
g_mode_test->s32ModuleTestType);
RK_LOGE("sample_demo_stresstest exit!!!");
TRACE_END();
return RK_NULL;
}
static RK_S32 rtsp_init(CODEC_TYPE_E enCodecType) {
TRACE_BEGIN();
RK_S32 i = 0;
g_rtsplive = create_rtsp_demo(554);
RK_CHAR rtspAddr[BUFFER_SIZE] = {0};
for (i = 0; i < VENC_CHN_MAX; i++) {
sprintf(rtspAddr, "/live/%d", i);
g_rtsp_session[i] = rtsp_new_session(g_rtsplive, rtspAddr);
if (enCodecType == RK_CODEC_TYPE_H264) {
rtsp_set_video(g_rtsp_session[i], RTSP_CODEC_ID_VIDEO_H264, RK_NULL, 0);
} else if (enCodecType == RK_CODEC_TYPE_H265) {
rtsp_set_video(g_rtsp_session[i], RTSP_CODEC_ID_VIDEO_H265, RK_NULL, 0);
} else {
RK_LOGE("not support other type\n");
g_rtsp_ifenbale = RK_FALSE;
return RK_SUCCESS;
}
rtsp_sync_video_ts(g_rtsp_session[i], rtsp_get_reltime(), rtsp_get_ntptime());
RK_LOGE("rtsp <%s> init success", rtspAddr);
}
g_rtsp_ifenbale = RK_TRUE;
TRACE_END();
return RK_SUCCESS;
}
static RK_S32 rtsp_deinit(void) {
TRACE_BEGIN();
if (g_rtsplive)
rtsp_del_demo(g_rtsplive);
TRACE_END();
return RK_SUCCESS;
}
static RK_S32 global_param_init(void) {
TRACE_BEGIN();
g_thread_status = (ThreadStatus *)malloc(sizeof(ThreadStatus));
if (!g_thread_status) {
RK_LOGI("malloc for g_thread_status failure\n");
goto __global_init_fail;
}
memset(g_thread_status, 0, sizeof(ThreadStatus));
// Allocate global ctx.
g_mpi_ctx = (SAMPLE_MPI_CTX_S *)(malloc(sizeof(SAMPLE_MPI_CTX_S)));
if (!g_mpi_ctx) {
printf("ctx is null, malloc failure\n");
goto __global_init_fail;
}
memset(g_mpi_ctx, 0, sizeof(SAMPLE_MPI_CTX_S));
g_cmd_args = malloc(sizeof(RkCmdArgs));
if (!g_cmd_args) {
printf("g_cmd_args is null, malloc failure\n");
goto __global_init_fail;
}
memset(g_cmd_args, 0, sizeof(RkCmdArgs));
g_mode_test = malloc(sizeof(RkModeTest));
if (!g_mode_test) {
printf("g_mode_test is null, malloc failure\n");
goto __global_init_fail;
}
memset(g_mode_test, 0, sizeof(RkModeTest));
if (RK_SUCCESS != pthread_mutex_init(&g_rtsp_mutex, RK_NULL)) {
RK_LOGE("pthread_mutex_init failure");
goto __global_init_fail;
}
for (int i = 0; i != VENC_CHN_MAX; ++i) {
pthread_mutex_init(&g_mode_test->astMutex[i], RK_NULL);
sem_init(&g_mode_test->astSem[i], 0, 0);
}
TRACE_END();
return RK_SUCCESS;
__global_init_fail:
if (g_thread_status) {
free(g_thread_status);
g_thread_status = RK_NULL;
}
if (g_mpi_ctx) {
free(g_mpi_ctx);
g_mpi_ctx = NULL;
}
if (g_cmd_args) {
free(g_cmd_args);
g_cmd_args = NULL;
}
if (g_mode_test) {
free(g_mode_test);
g_mode_test = NULL;
}
TRACE_END();
return RK_FAILURE;
}
static RK_S32 global_param_deinit(void) {
TRACE_BEGIN();
pthread_mutex_destroy(&g_rtsp_mutex);
for (int i = 0; i != VENC_CHN_MAX; ++i) {
pthread_mutex_destroy(&g_mode_test->astMutex[i]);
sem_destroy(&g_mode_test->astSem[i]);
}
if (g_thread_status) {
free(g_thread_status);
g_thread_status = RK_NULL;
}
if (g_mpi_ctx) {
free(g_mpi_ctx);
g_mpi_ctx = NULL;
}
if (g_cmd_args) {
free(g_cmd_args);
g_cmd_args = NULL;
}
if (g_mode_test) {
free(g_mode_test);
g_mode_test = NULL;
}
TRACE_END();
return RK_SUCCESS;
}
static RK_S32 rgn_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_FAILURE;
RK_U32 u32Width = 0;
RK_U32 u32Height = 0;
MPP_CHN_S stDstChn;
OSD_SURFACE_S Surface;
OSD_BITMAPFILEHEADER bmpFileHeader;
OSD_BITMAPINFO bmpInfo;
TRACE_BEGIN();
/* Init RGN[0] */
ctx->rgn[0].rgnHandle = 0;
ctx->rgn[0].stRgnAttr.enType = COVER_RGN;
ctx->rgn[0].stRgnChnAttr.bShow = RK_TRUE;
ctx->rgn[0].stRgnChnAttr.enType = COVER_RGN;
ctx->rgn[0].stRgnChnAttr.unChnAttr.stCoverChn.stRect.s32X = 0;
ctx->rgn[0].stRgnChnAttr.unChnAttr.stCoverChn.stRect.s32Y = 0;
ctx->rgn[0].stRgnChnAttr.unChnAttr.stCoverChn.stRect.u32Width = 256;
ctx->rgn[0].stRgnChnAttr.unChnAttr.stCoverChn.stRect.u32Height = 256;
ctx->rgn[0].stRgnChnAttr.unChnAttr.stCoverChn.u32Layer = 1;
ctx->rgn[0].stRgnChnAttr.unChnAttr.stCoverChn.u32Color = 0x00f800; // green
s32Ret = RK_MPI_RGN_Create(ctx->rgn[0].rgnHandle, &ctx->rgn[0].stRgnAttr);
if (RK_SUCCESS != s32Ret) {
RK_LOGE("RK_MPI_RGN_Create (%d) failed with %#x!", ctx->rgn[0].rgnHandle, s32Ret);
return RK_FAILURE;
}
stDstChn.enModId = RK_ID_VI;
stDstChn.s32ChnId = 0;
stDstChn.s32DevId = 0;
s32Ret = RK_MPI_RGN_AttachToChn(ctx->rgn[0].rgnHandle, &stDstChn,
&ctx->rgn[0].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[0].rgnHandle,
s32Ret);
return RK_FAILURE;
}
s32Ret = RK_MPI_RGN_SetDisplayAttr(ctx->rgn[0].rgnHandle, &stDstChn,
&ctx->rgn[0].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[0].rgnHandle,
s32Ret);
return RK_FAILURE;
}
stDstChn.enModId = RK_ID_VI;
stDstChn.s32ChnId = 0;
stDstChn.s32DevId = 1;
s32Ret = RK_MPI_RGN_AttachToChn(ctx->rgn[0].rgnHandle, &stDstChn,
&ctx->rgn[0].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[0].rgnHandle,
s32Ret);
return RK_FAILURE;
}
s32Ret = RK_MPI_RGN_SetDisplayAttr(ctx->rgn[0].rgnHandle, &stDstChn,
&ctx->rgn[0].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[0].rgnHandle,
s32Ret);
return RK_FAILURE;
}
/* Init RGN[1] */
ctx->rgn[1].rgnHandle = 1;
ctx->rgn[1].stRgnAttr.enType = COVER_RGN;
ctx->rgn[1].stRgnChnAttr.bShow = RK_TRUE;
ctx->rgn[1].stRgnChnAttr.enType = COVER_RGN;
ctx->rgn[1].stRgnChnAttr.unChnAttr.stCoverChn.stRect.s32X = 0;
ctx->rgn[1].stRgnChnAttr.unChnAttr.stCoverChn.stRect.s32Y = 0;
ctx->rgn[1].stRgnChnAttr.unChnAttr.stCoverChn.stRect.u32Width = 128;
ctx->rgn[1].stRgnChnAttr.unChnAttr.stCoverChn.stRect.u32Height = 128;
ctx->rgn[1].stRgnChnAttr.unChnAttr.stCoverChn.u32Layer = 2;
ctx->rgn[1].stRgnChnAttr.unChnAttr.stCoverChn.u32Color = 0x00ffff; // blue
s32Ret = RK_MPI_RGN_Create(ctx->rgn[1].rgnHandle, &ctx->rgn[1].stRgnAttr);
if (RK_SUCCESS != s32Ret) {
RK_LOGE("RK_MPI_RGN_Create (%d) failed with %#x!", ctx->rgn[1].rgnHandle, s32Ret);
return RK_FAILURE;
}
stDstChn.enModId = RK_ID_VI;
stDstChn.s32ChnId = 0;
stDstChn.s32DevId = 0;
s32Ret = RK_MPI_RGN_AttachToChn(ctx->rgn[1].rgnHandle, &stDstChn,
&ctx->rgn[1].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[1].rgnHandle,
s32Ret);
return RK_FAILURE;
}
s32Ret = RK_MPI_RGN_SetDisplayAttr(ctx->rgn[1].rgnHandle, &stDstChn,
&ctx->rgn[1].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[0].rgnHandle,
s32Ret);
return RK_FAILURE;
}
stDstChn.enModId = RK_ID_VI;
stDstChn.s32ChnId = 0;
stDstChn.s32DevId = 1;
s32Ret = RK_MPI_RGN_AttachToChn(ctx->rgn[1].rgnHandle, &stDstChn,
&ctx->rgn[1].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[1].rgnHandle,
s32Ret);
return RK_FAILURE;
}
s32Ret = RK_MPI_RGN_SetDisplayAttr(ctx->rgn[1].rgnHandle, &stDstChn,
&ctx->rgn[1].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[1].rgnHandle,
s32Ret);
return RK_FAILURE;
}
/* Init RGN[2] */
s32Ret = SAMPLE_COMM_GetBmpResolution(pArgs->pInPathBmp1, &u32Width, &u32Height);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("SAMPLE_COMM_GetBmpResolution failure");
u32Width = 256;
u32Height = 256;
}
ctx->rgn[2].rgnHandle = 2;
ctx->rgn[2].stRgnAttr.enType = OVERLAY_RGN;
ctx->rgn[2].stRgnAttr.unAttr.stOverlay.enPixelFmt = RK_FMT_BGRA5551;
ctx->rgn[2].stRgnAttr.unAttr.stOverlay.stSize.u32Width = u32Width;
ctx->rgn[2].stRgnAttr.unAttr.stOverlay.stSize.u32Height = u32Width;
ctx->rgn[2].stRgnChnAttr.bShow = RK_TRUE;
ctx->rgn[2].stRgnChnAttr.enType = OVERLAY_RGN;
ctx->rgn[2].stRgnChnAttr.unChnAttr.stOverlayChn.stPoint.s32X = 256;
ctx->rgn[2].stRgnChnAttr.unChnAttr.stOverlayChn.stPoint.s32Y = 256;
ctx->rgn[2].stRgnChnAttr.unChnAttr.stOverlayChn.u32BgAlpha = 128;
ctx->rgn[2].stRgnChnAttr.unChnAttr.stOverlayChn.u32FgAlpha = 128;
ctx->rgn[2].stRgnChnAttr.unChnAttr.stOverlayChn.u32Layer = 3;
s32Ret = RK_MPI_RGN_Create(ctx->rgn[2].rgnHandle, &ctx->rgn[2].stRgnAttr);
if (RK_SUCCESS != s32Ret) {
RK_LOGE("RK_MPI_RGN_Create (%d) failed with %#x!", ctx->rgn[2].rgnHandle,
s32Ret);
return RK_FAILURE;
}
stDstChn.enModId = RK_ID_VENC;
stDstChn.s32ChnId = 0;
stDstChn.s32DevId = 0;
s32Ret = RK_MPI_RGN_AttachToChn(ctx->rgn[2].rgnHandle, &stDstChn,
&ctx->rgn[2].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[2].rgnHandle,
s32Ret);
return RK_FAILURE;
}
stDstChn.enModId = RK_ID_VENC;
stDstChn.s32ChnId = 2;
stDstChn.s32DevId = 0;
s32Ret = RK_MPI_RGN_AttachToChn(ctx->rgn[2].rgnHandle, &stDstChn,
&ctx->rgn[2].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[2].rgnHandle,
s32Ret);
return RK_FAILURE;
}
if (pArgs->pInPathBmp1 &&
get_bmp_info(pArgs->pInPathBmp1, &bmpFileHeader, &bmpInfo) == RK_SUCCESS) {
ctx->rgn[2].stBitmap.pData =
malloc(4 * (bmpInfo.bmiHeader.biWidth) * (bmpInfo.bmiHeader.biHeight));
if (RK_NULL == ctx->rgn[2].stBitmap.pData) {
RK_LOGE("malloc osd memroy err!");
return RK_FAILURE;
}
Surface.enColorFmt = OSD_COLOR_FMT_BGRA5551;
create_surface_by_bitmap(pArgs->pInPathBmp1, &Surface,
(RK_U8 *)(ctx->rgn[2].stBitmap.pData));
ctx->rgn[2].stBitmap.u32Width = Surface.u16Width;
ctx->rgn[2].stBitmap.u32Height = Surface.u16Height;
ctx->rgn[2].stBitmap.enPixelFormat = RK_FMT_BGRA5551;
s32Ret = RK_MPI_RGN_SetBitMap(ctx->rgn[2].rgnHandle, &ctx->rgn[2].stBitmap);
if (s32Ret != RK_SUCCESS)
RK_LOGE("RK_MPI_RGN_SetBitMap failed %#X\n", s32Ret);
} else {
ctx->rgn[2].stBitmap.pData = malloc(4 * u32Width * u32Height);
if (RK_NULL == ctx->rgn[2].stBitmap.pData) {
RK_LOGE("malloc osd memroy err!");
return RK_FAILURE;
}
SAMPLE_COMM_FillImage(ctx->rgn[2].stBitmap.pData, u32Width,
u32Height, u32Width,
u32Height, RK_FMT_BGRA5551, 0);
ctx->rgn[2].stBitmap.u32Width = u32Width;
ctx->rgn[2].stBitmap.u32Height = u32Height;
ctx->rgn[2].stBitmap.enPixelFormat = RK_FMT_BGRA5551;
s32Ret = RK_MPI_RGN_SetBitMap(ctx->rgn[2].rgnHandle, &ctx->rgn[2].stBitmap);
if (s32Ret != RK_SUCCESS)
RK_LOGE("RK_MPI_RGN_SetBitMap failed %#X\n", s32Ret);
}
/* Init RGN[3] */
s32Ret = SAMPLE_COMM_GetBmpResolution(pArgs->pInPathBmp2, &u32Width, &u32Height);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("SAMPLE_COMM_GetBmpResolution failure");
u32Width = 256;
u32Height = 256;
}
ctx->rgn[3].rgnHandle = 3;
ctx->rgn[3].stRgnAttr.enType = OVERLAY_RGN;
ctx->rgn[3].stRgnAttr.unAttr.stOverlay.enPixelFmt = RK_FMT_BGRA5551;
ctx->rgn[3].stRgnAttr.unAttr.stOverlay.stSize.u32Width = u32Width;
ctx->rgn[3].stRgnAttr.unAttr.stOverlay.stSize.u32Height = u32Width;
ctx->rgn[3].stRgnChnAttr.bShow = RK_TRUE;
ctx->rgn[3].stRgnChnAttr.enType = OVERLAY_RGN;
ctx->rgn[3].stRgnChnAttr.unChnAttr.stOverlayChn.stPoint.s32X = 512;
ctx->rgn[3].stRgnChnAttr.unChnAttr.stOverlayChn.stPoint.s32Y = 512;
ctx->rgn[3].stRgnChnAttr.unChnAttr.stOverlayChn.u32BgAlpha = 255;
ctx->rgn[3].stRgnChnAttr.unChnAttr.stOverlayChn.u32FgAlpha = 255;
ctx->rgn[3].stRgnChnAttr.unChnAttr.stOverlayChn.u32Layer = 4;
s32Ret = RK_MPI_RGN_Create(ctx->rgn[3].rgnHandle, &ctx->rgn[3].stRgnAttr);
if (RK_SUCCESS != s32Ret) {
RK_LOGE("RK_MPI_RGN_Create (%d) failed with %#x!", ctx->rgn[3].rgnHandle,
s32Ret);
return RK_FAILURE;
}
stDstChn.enModId = RK_ID_VENC;
stDstChn.s32ChnId = 0;
stDstChn.s32DevId = 0;
s32Ret = RK_MPI_RGN_AttachToChn(ctx->rgn[3].rgnHandle, &stDstChn,
&ctx->rgn[3].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[3].rgnHandle,
s32Ret);
return RK_FAILURE;
}
stDstChn.enModId = RK_ID_VENC;
stDstChn.s32ChnId = 2;
stDstChn.s32DevId = 0;
s32Ret = RK_MPI_RGN_AttachToChn(ctx->rgn[3].rgnHandle, &stDstChn,
&ctx->rgn[3].stRgnChnAttr);
if (s32Ret != RK_SUCCESS) {
RK_LOGE("RK_MPI_RGN_AttachToChn (%d) failed with %#x!", ctx->rgn[3].rgnHandle,
s32Ret);
return RK_FAILURE;
}
if (pArgs->pInPathBmp2 &&
get_bmp_info(pArgs->pInPathBmp2, &bmpFileHeader, &bmpInfo) == RK_SUCCESS) {
ctx->rgn[3].stBitmap.pData =
malloc(4 * (bmpInfo.bmiHeader.biWidth) * (bmpInfo.bmiHeader.biHeight));
if (RK_NULL == ctx->rgn[3].stBitmap.pData) {
RK_LOGE("malloc osd memroy err!");
return RK_FAILURE;
}
Surface.enColorFmt = OSD_COLOR_FMT_BGRA5551;
create_surface_by_bitmap(pArgs->pInPathBmp2, &Surface,
(RK_U8 *)(ctx->rgn[3].stBitmap.pData));
ctx->rgn[3].stBitmap.u32Width = Surface.u16Width;
ctx->rgn[3].stBitmap.u32Height = Surface.u16Height;
ctx->rgn[3].stBitmap.enPixelFormat = RK_FMT_BGRA5551;
s32Ret = RK_MPI_RGN_SetBitMap(ctx->rgn[3].rgnHandle, &ctx->rgn[3].stBitmap);
if (s32Ret != RK_SUCCESS)
RK_LOGE("RK_MPI_RGN_SetBitMap failed %#X\n", s32Ret);
} else {
ctx->rgn[3].stBitmap.pData = malloc(4 * u32Width * u32Height);
if (RK_NULL == ctx->rgn[3].stBitmap.pData) {
RK_LOGE("malloc osd memroy err!");
return RK_FAILURE;
}
SAMPLE_COMM_FillImage(ctx->rgn[3].stBitmap.pData, u32Width,
u32Height, u32Width,
u32Height, RK_FMT_BGRA5551, 0);
ctx->rgn[3].stBitmap.u32Width = u32Width;
ctx->rgn[3].stBitmap.u32Height = u32Height;
ctx->rgn[3].stBitmap.enPixelFormat = RK_FMT_BGRA5551;
s32Ret = RK_MPI_RGN_SetBitMap(ctx->rgn[3].rgnHandle, &ctx->rgn[3].stBitmap);
if (s32Ret != RK_SUCCESS)
RK_LOGE("RK_MPI_RGN_SetBitMap failed %#X\n", s32Ret);
}
TRACE_END();
return s32Ret;
}
static RK_S32 rgn_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
MPP_CHN_S stDstChn;
TRACE_BEGIN();
/* Destroy RGN[0] */
stDstChn.enModId = RK_ID_VI;
stDstChn.s32ChnId = 0;
stDstChn.s32DevId = 0;
RK_MPI_RGN_DetachFromChn(ctx->rgn[0].rgnHandle, &stDstChn);
stDstChn.s32DevId = 1;
RK_MPI_RGN_DetachFromChn(ctx->rgn[0].rgnHandle, &stDstChn);
RK_MPI_RGN_Destroy(ctx->rgn[0].rgnHandle);
/* Destroy RGN[1] */
stDstChn.s32DevId = 0;
RK_MPI_RGN_DetachFromChn(ctx->rgn[1].rgnHandle, &stDstChn);
stDstChn.s32DevId = 1;
RK_MPI_RGN_DetachFromChn(ctx->rgn[1].rgnHandle, &stDstChn);
RK_MPI_RGN_Destroy(ctx->rgn[1].rgnHandle);
/* Destroy RGN[2] */
stDstChn.enModId = RK_ID_VENC;
stDstChn.s32ChnId = 0;
stDstChn.s32DevId = 0;
RK_MPI_RGN_DetachFromChn(ctx->rgn[2].rgnHandle, &stDstChn);
stDstChn.s32ChnId = 2;
RK_MPI_RGN_DetachFromChn(ctx->rgn[2].rgnHandle, &stDstChn);
RK_MPI_RGN_Destroy(ctx->rgn[2].rgnHandle);
if (ctx->rgn[2].stBitmap.pData) {
free(ctx->rgn[2].stBitmap.pData);
ctx->rgn[2].stBitmap.pData = NULL;
}
/* Destroy RGN[3] */
stDstChn.enModId = RK_ID_VENC;
stDstChn.s32ChnId = 0;
stDstChn.s32DevId = 0;
RK_MPI_RGN_DetachFromChn(ctx->rgn[3].rgnHandle, &stDstChn);
stDstChn.s32ChnId = 2;
RK_MPI_RGN_DetachFromChn(ctx->rgn[3].rgnHandle, &stDstChn);
RK_MPI_RGN_Destroy(ctx->rgn[3].rgnHandle);
if (ctx->rgn[3].stBitmap.pData) {
free(ctx->rgn[3].stBitmap.pData);
ctx->rgn[3].stBitmap.pData = NULL;
}
TRACE_END();
return s32Ret;
}
static RK_S32 isp_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
if (g_cmd_args->pIqFileDir) {
s32Ret = SAMPLE_COMM_ISP_Init(CAM_0_INDEX, g_cmd_args->eHdrMode,
g_cmd_args->bMultictx, g_cmd_args->pIqFileDir);
s32Ret |= SAMPLE_COMM_ISP_Run(CAM_0_INDEX);
if (s32Ret != RK_SUCCESS) {
printf("#ISP cam %d init failed!\n", CAM_0_INDEX);
return s32Ret;
}
s32Ret = SAMPLE_COMM_ISP_Init(CAM_1_INDEX, g_cmd_args->eHdrMode,
g_cmd_args->bMultictx, g_cmd_args->pIqFileDir);
s32Ret |= SAMPLE_COMM_ISP_Run(CAM_1_INDEX);
if (s32Ret != RK_SUCCESS) {
printf("#ISP cam %d init failed!\n", CAM_1_INDEX);
return s32Ret;
}
}
return s32Ret;
}
static RK_S32 isp_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
if (g_cmd_args->pIqFileDir) {
SAMPLE_COMM_ISP_Stop(CAM_0_INDEX);
SAMPLE_COMM_ISP_Stop(CAM_1_INDEX);
}
return s32Ret;
}
static RK_S32 vi_chn_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
TRACE_BEGIN();
/* Init VI[0] */
ctx->vi[0].u32Width = pArgs->u32Main0Width;
ctx->vi[0].u32Height = pArgs->u32Main0Height;
ctx->vi[0].s32DevId = CAM_0_INDEX;
ctx->vi[0].u32PipeId = CAM_0_INDEX;
ctx->vi[0].s32ChnId = 0;
ctx->vi[0].stChnAttr.stIspOpt.stMaxSize.u32Width = pArgs->u32Main0Width;
ctx->vi[0].stChnAttr.stIspOpt.stMaxSize.u32Height = pArgs->u32Main0Height;
ctx->vi[0].stChnAttr.stIspOpt.u32BufCount = pArgs->u32ViBuffCnt;
ctx->vi[0].stChnAttr.stIspOpt.enMemoryType = VI_V4L2_MEMORY_TYPE_DMABUF;
ctx->vi[0].stChnAttr.enPixelFormat = RK_FMT_YUV420SP;
ctx->vi[0].stChnAttr.enCompressMode = COMPRESS_MODE_NONE;
ctx->vi[0].stChnAttr.stFrameRate.s32SrcFrameRate = -1;
ctx->vi[0].stChnAttr.stFrameRate.s32DstFrameRate = -1;
s32Ret = SAMPLE_COMM_VI_CreateChn(&(ctx->vi[0]));
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VI_CreateChn 0 failure:%d", s32Ret);
/* Init VI[1] */
ctx->vi[1].u32Width = pArgs->u32Main1Width;
ctx->vi[1].u32Height = pArgs->u32Main1Height;
ctx->vi[1].s32DevId = CAM_1_INDEX;
ctx->vi[1].u32PipeId = CAM_1_INDEX;
ctx->vi[1].s32ChnId = 0;
ctx->vi[1].stChnAttr.stIspOpt.stMaxSize.u32Width = pArgs->u32Main0Width;
ctx->vi[1].stChnAttr.stIspOpt.stMaxSize.u32Height = pArgs->u32Main0Height;
ctx->vi[1].stChnAttr.stIspOpt.u32BufCount = pArgs->u32ViBuffCnt;
ctx->vi[1].stChnAttr.stIspOpt.enMemoryType = VI_V4L2_MEMORY_TYPE_DMABUF;
ctx->vi[1].stChnAttr.enPixelFormat = RK_FMT_YUV420SP;
ctx->vi[1].stChnAttr.enCompressMode = COMPRESS_MODE_NONE;
ctx->vi[1].stChnAttr.stFrameRate.s32SrcFrameRate = -1;
ctx->vi[1].stChnAttr.stFrameRate.s32DstFrameRate = -1;
s32Ret = SAMPLE_COMM_VI_CreateChn(&(ctx->vi[1]));
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VI_CreateChn 1 failure:%d", s32Ret);
TRACE_END();
return s32Ret;
}
static RK_S32 vi_chn_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
TRACE_BEGIN();
s32Ret = SAMPLE_COMM_VI_DestroyChn(&(ctx->vi[1]));
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VI_DestroyChn 1 failure:%d", s32Ret);
s32Ret = SAMPLE_COMM_VI_DestroyChn(&(ctx->vi[0]));
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VI_DestroyChn 0 failure:%d", s32Ret);
TRACE_END();
return s32Ret;
}
static RK_S32 vpss_chn_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
RK_S32 vpssGrpId;
TRACE_BEGIN();
// Init VPSS[0]
vpssGrpId = 0;
ctx->vpss[vpssGrpId].s32GrpId = vpssGrpId;
ctx->vpss[vpssGrpId].s32ChnId = 0;
ctx->vpss[vpssGrpId].enVProcDevType = VIDEO_PROC_DEV_RGA;
ctx->vpss[vpssGrpId].stGrpVpssAttr.enPixelFormat = RK_FMT_YUV420SP;
ctx->vpss[vpssGrpId].stGrpVpssAttr.enCompressMode = COMPRESS_MODE_NONE; // no compress
ctx->vpss[vpssGrpId].s32ChnRotation[0] = ROTATION_0;
// SET VPSS[0,0]
ctx->vpss[vpssGrpId].stVpssChnAttr[0].enChnMode = VPSS_CHN_MODE_AUTO;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].enCompressMode = COMPRESS_MODE_NONE;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].enDynamicRange = DYNAMIC_RANGE_SDR8;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].enPixelFormat = RK_FMT_YUV420SP;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].stFrameRate.s32SrcFrameRate = -1;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].stFrameRate.s32DstFrameRate = -1;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].u32Width = pArgs->u32Main0Width;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].u32Height = pArgs->u32Main0Height;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].u32Depth = 0;
// SET VPSS[0,1]
ctx->vpss[vpssGrpId].stVpssChnAttr[1].enChnMode = VPSS_CHN_MODE_AUTO;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].enCompressMode = COMPRESS_MODE_NONE;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].enDynamicRange = DYNAMIC_RANGE_SDR8;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].enPixelFormat = RK_FMT_YUV420SP;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].stFrameRate.s32SrcFrameRate = -1;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].stFrameRate.s32DstFrameRate = -1;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].u32Width = pArgs->u32Sub0Width;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].u32Height = pArgs->u32Sub0Height;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].u32Depth = 0;
s32Ret = SAMPLE_COMM_VPSS_CreateChn(&(ctx->vpss[vpssGrpId]));
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VPSS_CreateChn group 0 failed %#X\n", s32Ret);
// Attach aiisp to vpss group 0.
if (pArgs->bEnableAIIsp) {
AIISP_ATTR_S stAIISPAttr;
memset(&stAIISPAttr, 0, sizeof(AIISP_ATTR_S));
stAIISPAttr.bEnable = RK_TRUE;
stAIISPAttr.stAiIspCallback.pfUpdateCallback = (AIISP_CALLBACK)aiisp_callback;
stAIISPAttr.stAiIspCallback.pPrivateData = (void *)CAM_0_INDEX;
stAIISPAttr.pModelFilePath = pArgs->pAiispModelPath;
stAIISPAttr.u32FrameBufCnt = pArgs->u32AiispBuffCnt;
s32Ret = RK_MPI_VPSS_SetGrpAIISPAttr(vpssGrpId, &stAIISPAttr);
if (RK_SUCCESS != s32Ret)
RK_LOGE("VPSS GRP 0 RK_MPI_VPSS_SetGrpAIISPAttr failed with %#x!", s32Ret);
}
// Init VPSS[1]
vpssGrpId = 1;
ctx->vpss[vpssGrpId].s32GrpId = vpssGrpId;
ctx->vpss[vpssGrpId].s32ChnId = 0;
ctx->vpss[vpssGrpId].enVProcDevType = VIDEO_PROC_DEV_RGA;
ctx->vpss[vpssGrpId].stGrpVpssAttr.enPixelFormat = RK_FMT_YUV420SP;
ctx->vpss[vpssGrpId].stGrpVpssAttr.enCompressMode = COMPRESS_MODE_NONE; // no compress
ctx->vpss[vpssGrpId].s32ChnRotation[0] = ROTATION_0;
// SET VPSS[1,0]
ctx->vpss[vpssGrpId].stVpssChnAttr[0].enChnMode = VPSS_CHN_MODE_AUTO;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].enCompressMode = COMPRESS_MODE_NONE;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].enDynamicRange = DYNAMIC_RANGE_SDR8;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].enPixelFormat = RK_FMT_YUV420SP;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].stFrameRate.s32SrcFrameRate = -1;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].stFrameRate.s32DstFrameRate = -1;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].u32Width = pArgs->u32Main1Width;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].u32Height = pArgs->u32Main1Height;
ctx->vpss[vpssGrpId].stVpssChnAttr[0].u32Depth = 0;
// SET VPSS[1,1]
ctx->vpss[vpssGrpId].stVpssChnAttr[1].enChnMode = VPSS_CHN_MODE_AUTO;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].enCompressMode = COMPRESS_MODE_NONE;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].enDynamicRange = DYNAMIC_RANGE_SDR8;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].enPixelFormat = RK_FMT_YUV420SP;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].stFrameRate.s32SrcFrameRate = -1;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].stFrameRate.s32DstFrameRate = -1;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].u32Width = pArgs->u32Sub1Width;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].u32Height = pArgs->u32Sub1Height;
ctx->vpss[vpssGrpId].stVpssChnAttr[1].u32Depth = 0;
s32Ret = SAMPLE_COMM_VPSS_CreateChn(&(ctx->vpss[vpssGrpId]));
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VPSS_CreateChn group 0 failed %#X\n", s32Ret);
// Attach aiisp to vpss group 1.
if (pArgs->bEnableAIIsp) {
AIISP_ATTR_S stAIISPAttr;
memset(&stAIISPAttr, 0, sizeof(AIISP_ATTR_S));
stAIISPAttr.bEnable = RK_TRUE;
stAIISPAttr.stAiIspCallback.pfUpdateCallback = (AIISP_CALLBACK)aiisp_callback;
stAIISPAttr.stAiIspCallback.pPrivateData = (void *)CAM_1_INDEX;
stAIISPAttr.pModelFilePath = pArgs->pAiispModelPath;
stAIISPAttr.u32FrameBufCnt = pArgs->u32AiispBuffCnt;
s32Ret = RK_MPI_VPSS_SetGrpAIISPAttr(vpssGrpId, &stAIISPAttr);
if (RK_SUCCESS != s32Ret)
RK_LOGE("VPSS GRP 1 RK_MPI_VPSS_SetGrpAIISPAttr failed with %#x!", s32Ret);
}
TRACE_END();
return s32Ret;
}
static RK_S32 vpss_chn_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
TRACE_BEGIN();
s32Ret = SAMPLE_COMM_VPSS_DestroyChn(&(ctx->vpss[1]));
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VPSS_DestroyChn group 1 failed %#X\n", s32Ret);
s32Ret = SAMPLE_COMM_VPSS_DestroyChn(&(ctx->vpss[0]));
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VPSS_DestroyChn group 0 failed %#X\n", s32Ret);
TRACE_END();
return s32Ret;
}
static RK_S32 venc_chn_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
TRACE_BEGIN();
// Init VENC[0]
ctx->venc[0].s32ChnId = 0;
ctx->venc[0].u32Width = pArgs->u32Main0Width;
ctx->venc[0].u32Height = pArgs->u32Main0Height;
ctx->venc[0].u32Fps = pArgs->u32VencFps;
ctx->venc[0].u32Gop = pArgs->u32Gop;
ctx->venc[0].u32BitRate = pArgs->s32BitRate;
ctx->venc[0].enCodecType = pArgs->enCodecType;
ctx->venc[0].enRcMode = pArgs->enRcMode;
ctx->venc[0].getStreamCbFunc = venc_get_stream;
ctx->venc[0].s32loopCount = pArgs->s32loopCnt;
ctx->venc[0].dstFilePath = pArgs->pOutPathVenc;
ctx->venc[0].u32BuffSize = pArgs->u32Main0Width * pArgs->u32Main0Height / 2;
ctx->venc[0].enable_buf_share = RK_TRUE;
// H264 66：Baseline 77：Main Profile 100：High Profile
// H265 0：Main Profile 1：Main 10 Profile
// MJPEG 0：Baseline
ctx->venc[0].stChnAttr.stGopAttr.enGopMode =
VENC_GOPMODE_NORMALP; // VENC_GOPMODE_SMARTP
if (RK_CODEC_TYPE_H264 != pArgs->enCodecType) {
ctx->venc[0].stChnAttr.stVencAttr.u32Profile = 0;
} else {
ctx->venc[0].stChnAttr.stVencAttr.u32Profile = 100;
}
s32Ret = SAMPLE_COMM_VENC_CreateChn(&ctx->venc[0]);
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VENC_CreateChn venc0 failed %#X\n", s32Ret);
// Init VENC[1]
ctx->venc[1].s32ChnId = 1;
ctx->venc[1].u32Width = pArgs->u32Sub0Width;
ctx->venc[1].u32Height = pArgs->u32Sub0Height;
ctx->venc[1].u32Fps = pArgs->u32VencFps;
ctx->venc[1].u32Gop = pArgs->u32Gop;
ctx->venc[1].u32BitRate = pArgs->s32BitRate;
ctx->venc[1].enCodecType = pArgs->enCodecType;
ctx->venc[1].enRcMode = pArgs->enRcMode;
ctx->venc[1].getStreamCbFunc = venc_get_stream;
ctx->venc[1].s32loopCount = pArgs->s32loopCnt;
ctx->venc[1].dstFilePath = pArgs->pOutPathVenc;
ctx->venc[1].u32BuffSize = pArgs->u32Sub0Width * pArgs->u32Sub0Height / 2;
ctx->venc[1].enable_buf_share = RK_TRUE;
// H264 66：Baseline 77：Main Profile 100：High Profile
// H265 0：Main Profile 1：Main 10 Profile
// MJPEG 0：Baseline
ctx->venc[1].stChnAttr.stGopAttr.enGopMode =
VENC_GOPMODE_NORMALP; // VENC_GOPMODE_SMARTP
if (RK_CODEC_TYPE_H264 != pArgs->enCodecType) {
ctx->venc[1].stChnAttr.stVencAttr.u32Profile = 0;
} else {
ctx->venc[1].stChnAttr.stVencAttr.u32Profile = 100;
}
s32Ret = SAMPLE_COMM_VENC_CreateChn(&ctx->venc[1]);
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VENC_CreateChn venc1 failed %#X\n", s32Ret);
// Init VENC[2]
ctx->venc[2].s32ChnId = 2;
ctx->venc[2].u32Width = pArgs->u32Main1Width;
ctx->venc[2].u32Height = pArgs->u32Main1Height;
ctx->venc[2].u32Fps = pArgs->u32VencFps;
ctx->venc[2].u32Gop = pArgs->u32Gop;
ctx->venc[2].u32BitRate = pArgs->s32BitRate;
ctx->venc[2].enCodecType = pArgs->enCodecType;
ctx->venc[2].enRcMode = pArgs->enRcMode;
ctx->venc[2].getStreamCbFunc = venc_get_stream;
ctx->venc[2].s32loopCount = pArgs->s32loopCnt;
ctx->venc[2].dstFilePath = pArgs->pOutPathVenc;
ctx->venc[2].u32BuffSize = pArgs->u32Main1Width * pArgs->u32Main1Height / 2;
ctx->venc[2].enable_buf_share = RK_TRUE;
// H264 66：Baseline 77：Main Profile 100：High Profile
// H265 0：Main Profile 1：Main 10 Profile
// MJPEG 0：Baseline
ctx->venc[2].stChnAttr.stGopAttr.enGopMode =
VENC_GOPMODE_NORMALP; // VENC_GOPMODE_SMARTP
if (RK_CODEC_TYPE_H264 != pArgs->enCodecType) {
ctx->venc[2].stChnAttr.stVencAttr.u32Profile = 0;
} else {
ctx->venc[2].stChnAttr.stVencAttr.u32Profile = 100;
}
s32Ret = SAMPLE_COMM_VENC_CreateChn(&ctx->venc[2]);
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VENC_CreateChn venc2 failed %#X\n", s32Ret);
// Init VENC[3]
ctx->venc[3].s32ChnId = 3;
ctx->venc[3].u32Width = pArgs->u32Sub1Width;
ctx->venc[3].u32Height = pArgs->u32Sub1Height;
ctx->venc[3].u32Fps = pArgs->u32VencFps;
ctx->venc[3].u32Gop = pArgs->u32Gop;
ctx->venc[3].u32BitRate = pArgs->s32BitRate;
ctx->venc[3].enCodecType = pArgs->enCodecType;
ctx->venc[3].enRcMode = pArgs->enRcMode;
ctx->venc[3].getStreamCbFunc = venc_get_stream;
ctx->venc[3].s32loopCount = pArgs->s32loopCnt;
ctx->venc[3].dstFilePath = pArgs->pOutPathVenc;
ctx->venc[3].u32BuffSize = pArgs->u32Sub1Width * pArgs->u32Sub1Height / 2;
ctx->venc[3].enable_buf_share = RK_TRUE;
// H264 66：Baseline 77：Main Profile 100：High Profile
// H265 0：Main Profile 1：Main 10 Profile
// MJPEG 0：Baseline
ctx->venc[3].stChnAttr.stGopAttr.enGopMode =
VENC_GOPMODE_NORMALP; // VENC_GOPMODE_SMARTP
if (RK_CODEC_TYPE_H264 != pArgs->enCodecType) {
ctx->venc[3].stChnAttr.stVencAttr.u32Profile = 0;
} else {
ctx->venc[3].stChnAttr.stVencAttr.u32Profile = 100;
}
s32Ret = SAMPLE_COMM_VENC_CreateChn(&ctx->venc[3]);
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VENC_CreateChn venc3 failed %#X\n", s32Ret);
TRACE_END();
return s32Ret;
}
static RK_S32 venc_chn_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
TRACE_BEGIN();
s32Ret = SAMPLE_COMM_VENC_DestroyChn(&ctx->venc[3]);
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VENC_CreateChn venc3 failed %#X\n", s32Ret);
s32Ret = SAMPLE_COMM_VENC_DestroyChn(&ctx->venc[2]);
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VENC_CreateChn venc2 failed %#X\n", s32Ret);
s32Ret = SAMPLE_COMM_VENC_DestroyChn(&ctx->venc[1]);
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VENC_CreateChn venc1 failed %#X\n", s32Ret);
s32Ret = SAMPLE_COMM_VENC_DestroyChn(&ctx->venc[0]);
if (s32Ret != RK_SUCCESS)
RK_LOGE("SAMPLE_COMM_VENC_CreateChn venc0 failed %#X\n", s32Ret);
TRACE_END();
return s32Ret;
}
static RK_S32 bind_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
MPP_CHN_S stSrcChn, stDestChn;
TRACE_BEGIN();
// Bind VI[0] and VPSS[0]
stSrcChn.enModId = RK_ID_VI;
stSrcChn.s32DevId = ctx->vi[0].s32DevId;
stSrcChn.s32ChnId = ctx->vi[0].s32ChnId;
stDestChn.enModId = RK_ID_VPSS;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 0;
s32Ret = SAMPLE_COMM_Bind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS)
RK_LOGE("bind vi0 to vpss0 failed");
/* Bind VPSS[0, 0] and VENC[0] */
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = 0;
stSrcChn.s32ChnId = 0;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 0;
s32Ret = SAMPLE_COMM_Bind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS)
RK_LOGE("bind vpss[0,0] to venc0 fail");
/* Bind VPSS[0, 1] and VENC[1] */
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = 0;
stSrcChn.s32ChnId = 1;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 1;
s32Ret = SAMPLE_COMM_Bind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS)
RK_LOGE("bind vpss[0,1] to venc1 fail");
// Bind VI[1] and VPSS[1]
stSrcChn.enModId = RK_ID_VI;
stSrcChn.s32DevId = ctx->vi[1].s32DevId;
stSrcChn.s32ChnId = ctx->vi[1].s32ChnId;
stDestChn.enModId = RK_ID_VPSS;
stDestChn.s32DevId = 1;
stDestChn.s32ChnId = 0;
s32Ret = SAMPLE_COMM_Bind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS)
RK_LOGE("bind vi1 to vpss1 failed");
/* Bind VPSS[1, 0] and VENC[2] */
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = 1;
stSrcChn.s32ChnId = 0;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 2;
s32Ret = SAMPLE_COMM_Bind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS)
RK_LOGE("bind vpss[1,0] to venc2 fail");
/* Bind VPSS[1, 1] and VENC[3] */
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = 1;
stSrcChn.s32ChnId = 1;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 3;
s32Ret = SAMPLE_COMM_Bind(&stSrcChn, &stDestChn);
if (s32Ret != RK_SUCCESS)
RK_LOGE("bind vpss[1,1] to venc3 fail");
TRACE_END();
return s32Ret;
}
static RK_S32 bind_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
RK_S32 s32Ret = RK_SUCCESS;
MPP_CHN_S stSrcChn, stDestChn;
TRACE_BEGIN();
/* UnBind VPSS[1, 1] and VENC[3] */
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = 1;
stSrcChn.s32ChnId = 1;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 3;
SAMPLE_COMM_UnBind(&stSrcChn, &stDestChn);
/* UnBind VPSS[1, 0] and VENC[2] */
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = 1;
stSrcChn.s32ChnId = 0;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 2;
SAMPLE_COMM_UnBind(&stSrcChn, &stDestChn);
// UnBind VI1 and VPSS[1]
stSrcChn.enModId = RK_ID_VI;
stSrcChn.s32DevId = ctx->vi[1].s32DevId;
stSrcChn.s32ChnId = ctx->vi[1].s32ChnId;
stDestChn.enModId = RK_ID_VPSS;
stDestChn.s32DevId = 1;
stDestChn.s32ChnId = 0;
SAMPLE_COMM_UnBind(&stSrcChn, &stDestChn);
/* UnBind VPSS[0, 1] and VENC[1] */
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = 0;
stSrcChn.s32ChnId = 1;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 1;
SAMPLE_COMM_UnBind(&stSrcChn, &stDestChn);
/* UnBind VPSS[0, 0] and VENC[0] */
stSrcChn.enModId = RK_ID_VPSS;
stSrcChn.s32DevId = 0;
stSrcChn.s32ChnId = 0;
stDestChn.enModId = RK_ID_VENC;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 0;
SAMPLE_COMM_UnBind(&stSrcChn, &stDestChn);
// UnBind VI and VPSS[0]
stSrcChn.enModId = RK_ID_VI;
stSrcChn.s32DevId = ctx->vi[0].s32DevId;
stSrcChn.s32ChnId = ctx->vi[0].s32ChnId;
stDestChn.enModId = RK_ID_VPSS;
stDestChn.s32DevId = 0;
stDestChn.s32ChnId = 0;
SAMPLE_COMM_UnBind(&stSrcChn, &stDestChn);
TRACE_END();
return s32Ret;
}
static RK_S32 sub_threads_init(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
TRACE_BEGIN();
if (g_mode_test->s32ModuleTestType) {
g_mode_test->bIfModuleTestopen = RK_TRUE;
pthread_create(&g_mode_test->s32ThreadId, 0, sample_demo_stresstest, NULL);
}
TRACE_END();
return RK_SUCCESS;
}
static RK_S32 sub_threads_deinit(SAMPLE_MPI_CTX_S *ctx, RkCmdArgs *pArgs) {
TRACE_BEGIN();
if (g_mode_test->s32ModuleTestType) {
g_mode_test->bIfModuleTestopen = RK_FALSE;
for (RK_U32 i = 0; i < VENC_CHN_MAX; i++)
sem_post(&g_mode_test->astSem[i]);
pthread_join(g_mode_test->s32ThreadId, RK_NULL);
g_mode_test->s32ThreadId = 0;
}
for (int i = 0; i < VENC_CHN_MAX; i++) {
g_thread_status->bIfVencThreadQuit[i] = true;
pthread_join(ctx->venc[i].getStreamThread, RK_NULL);
ctx->venc[i].getStreamThread = 0;
}
TRACE_END();
return RK_SUCCESS;
}
static RK_CHAR optstr[] = "?::a::w:h:o:l:b:f:r:g:v:e:i:s:I:";
static const struct option long_options[] = {
{"aiq", optional_argument, RK_NULL, 'a'},
{"sensor_id", required_argument, NULL, 's'},
{"width", required_argument, RK_NULL, 'w'},
{"height", required_argument, RK_NULL, 'h'},
{"encode", required_argument, RK_NULL, 'e'},
{"output_path", required_argument, RK_NULL, 'o'},
{"loop_count", required_argument, RK_NULL, 'l'},
{"bitrate", required_argument, NULL, 'b'},
{"fps", required_argument, RK_NULL, 'f'},
{"vi_buff_cnt", required_argument, RK_NULL, 'v'},
{"vi_chnid", required_argument, RK_NULL, 'v' + 'i'},
{"rgn_attach_module", required_argument, RK_NULL, 'r'},
{"gop", required_argument, RK_NULL, 'g'},
{"enable_aiisp", required_argument, RK_NULL, 'e' + 'a'},
{"aiisp_model_path", required_argument, RK_NULL, 'e' + 'j'},
{"aiisp_buff_cnt", required_argument, RK_NULL, 'e' + 'k'},
{"inputBmpPath1", required_argument, RK_NULL, 'i'},
{"inputBmpPath2", required_argument, RK_NULL, 'I'},
{"mode_test_type", required_argument, RK_NULL, 'm'},
{"mode_test_loop", required_argument, RK_NULL, 't' + 'l'},
{"test_frame_count", required_argument, RK_NULL, 'c'},
{"help", optional_argument, RK_NULL, '?'},
{RK_NULL, 0, RK_NULL, 0},
};
/******************************************************************************
* function : show usage
******************************************************************************/
static void print_usage(const RK_CHAR *name) {
printf("example:\n");
printf("\t%s --test_frame_count 50 --mode_test_loop 50 --mode_test_type 1\n", name);
printf("\t-a | --aiq : enable aiq with dirpath provided, eg:-a /etc/iqfiles/, \n"
"\t set dirpath empty to using path by default, without "
"this option aiq \n"
"\t should run in other application\n");
printf("\t-s | --sensor_id : sensor id\n");
printf("\t-w | --width : mainStream width, must is sensor width, default 1920\n");
printf("\t-h | --height : mainStream height, must is sensor height, default 1080\n");
printf("\t-e | --encode: encode type, Default:h264cbr, Value:h264cbr, "
"h264vbr, h264avbr "
"h265cbr, h265vbr, h265avbr, mjpegcbr, mjpegvbr\n");
printf("\t-b | --bitrate: encode bitrate, Default 4096\n");
printf("\t-o | --output_path : encode output file path, Default: RK_NULL\n");
printf("\t-l | --loop_count : when encoder output frameCounts equal to "
"<loop_count>, "
"process will exit. Default: -1\n");
printf("\t-v | --vi_buff_cnt : main stream vi buffer num, Default: 2\n");
printf("\t--vi_chnid : vi channel id, default: 0\n");
printf("\t-r | --rgn_attach_module : where to attach rgn, 0: vpss, 1: venc, 2: "
"close. default: 1\n");
printf("\t-g | --gop : venc GOP(group of pictures). default: 75\n");
printf("\t-i | --inputpathbmp1 : input bmp file path. default: RK_NULL\n");
printf("\t-I | --inputpathbmp2 : input bmp file path. default: RK_NULL\n");
printf("\t-f | --fps : set fps, default: 25\n");
printf("\t--enable_aiisp : enable ai isp, 0: close, 1: enable. default: 1\n");
printf("\t--aiisp_model_path : aiisp model data path, default: /oem/usr/lib\n");
printf("\t--aiisp_buff_cnt : aiisp buffer count, default: 2\n");
printf("\t--test_frame_count : when encoder outputs frameCount equal to "
"<test_frame_count>, mode_test start next loop, default: 50\n");
printf("\t--mode_test_loop : module test loop, default: -1\n");
printf("\t-m | --mode_test_type : test type, 0:none, 1: pn_mode_test"
"\n\t 2: hdr_mode_test, 3: frameRate_switchTest"
"\n\t 4: vpss_ai_isp_switchTest, 5:vpss_chn0_resolution_switch_test"
"\n\t 6: vpss_venc_chn0_resolution_switch_test, 7: encode_type_switch"
"\n\t 8: rgn_init_and_deinit, 9: Media_deinit_and_init, Default: 0\n");
}
/******************************************************************************
* function : parse_cmd_args()
* Description : Parse command line arguments.
******************************************************************************/
static RK_S32 parse_cmd_args(int argc, char **argv, RkCmdArgs *pArgs) {
pArgs->u32Main0Width = 1920;
pArgs->u32Main0Height = 1080;
pArgs->u32Sub0Width = 720;
pArgs->u32Sub0Height = 480;
pArgs->u32Main1Width = 1920;
pArgs->u32Main1Height = 1080;
pArgs->u32Sub1Width = 720;
pArgs->u32Sub1Height = 480;
pArgs->u32ViBuffCnt = 5;
#if defined(RV1106)
pArgs->u32ViBuffCnt = 2;
#endif
pArgs->u32Gop = 75;
pArgs->pInPathBmp1 = NULL;
pArgs->pInPathBmp2 = NULL;
pArgs->pOutPathVenc = NULL;
pArgs->pIqFileDir = "/etc/iqfiles/";
pArgs->bMultictx = RK_TRUE;
pArgs->enCodecType = RK_CODEC_TYPE_H264;
pArgs->enRcMode = VENC_RC_MODE_H264CBR;
pArgs->pCodecName = "H264";
pArgs->s32CamId = 0;
pArgs->s32loopCnt = -1;
pArgs->bEnableAIIsp = RK_TRUE;
pArgs->s32BitRate = 4 * 1024;
pArgs->u32VencFps = 25;
pArgs->eHdrMode = RK_AIQ_WORKING_MODE_NORMAL;
pArgs->s32RgnAttachModule = RGN_ATTACH_VENC; // 0:vpss,1:venc
pArgs->pAiispModelPath = "/oem/usr/lib/";
pArgs->u32AiispBuffCnt = 1;
// For stress test
g_mode_test->s32ModuleTestType = 0;
g_mode_test->u32TestFrameCount = 50;
g_mode_test->s32ModuleTestLoop = -1;
RK_S32 c = 0;
while ((c = getopt_long(argc, argv, optstr, long_options, RK_NULL)) != -1) {
const char *tmp_optarg = optarg;
switch (c) {
case 'a':
if (!optarg && RK_NULL != argv[optind] && '-' != argv[optind][0]) {
tmp_optarg = argv[optind++];
}
if (tmp_optarg) {
pArgs->pIqFileDir = (char *)tmp_optarg;
} else {
pArgs->pIqFileDir = RK_NULL;
}
break;
case 's':
pArgs->s32CamId = atoi(optarg);
break;
case 'w':
if (pArgs->s32CamId == 0)
pArgs->u32Main0Width = atoi(optarg);
else if (pArgs->s32CamId == 1)
pArgs->u32Main1Width = atoi(optarg);
else
printf("Parse cmd line error, wrong sensor index %d!\n", pArgs->s32CamId);
break;
case 'h':
if (pArgs->s32CamId == 0)
pArgs->u32Main0Height = atoi(optarg);
else if (pArgs->s32CamId == 1)
pArgs->u32Main1Height = atoi(optarg);
else
printf("Parse cmd line error, wrong sensor index %d!\n", pArgs->s32CamId);
break;
case 'b':
pArgs->s32BitRate = atoi(optarg);
break;
case 'e':
if (!strcmp(optarg, "h264cbr")) {
pArgs->enCodecType = RK_CODEC_TYPE_H264;
pArgs->enRcMode = VENC_RC_MODE_H264CBR;
} else if (!strcmp(optarg, "h264vbr")) {
pArgs->enCodecType = RK_CODEC_TYPE_H264;
pArgs->enRcMode = VENC_RC_MODE_H264VBR;
} else if (!strcmp(optarg, "h264avbr")) {
pArgs->enCodecType = RK_CODEC_TYPE_H264;
pArgs->enRcMode = VENC_RC_MODE_H264AVBR;
} else if (!strcmp(optarg, "h265cbr")) {
pArgs->enCodecType = RK_CODEC_TYPE_H265;
pArgs->enRcMode = VENC_RC_MODE_H265CBR;
} else if (!strcmp(optarg, "h265vbr")) {
pArgs->enCodecType = RK_CODEC_TYPE_H265;
pArgs->enRcMode = VENC_RC_MODE_H265VBR;
} else if (!strcmp(optarg, "h265avbr")) {
pArgs->enCodecType = RK_CODEC_TYPE_H265;
pArgs->enRcMode = VENC_RC_MODE_H265AVBR;
} else {
RK_LOGE("Invalid encoder type!");
return RK_FAILURE;
}
break;
case 'o':
pArgs->pOutPathVenc = optarg;
break;
case 'l':
pArgs->s32loopCnt = atoi(optarg);
break;
case 'f':
pArgs->u32VencFps = atoi(optarg);
break;
case 'v':
pArgs->u32ViBuffCnt = atoi(optarg);
break;
case 'g':
pArgs->u32Gop = atoi(optarg);
break;
case 'r':
pArgs->s32RgnAttachModule = atoi(optarg);
break;
case 'e' + 'a':
pArgs->bEnableAIIsp = atoi(optarg);
break;
case 'e' + 'j':
pArgs->pAiispModelPath = optarg;
break;
case 'e' + 'k':
pArgs->u32AiispBuffCnt = atoi(optarg);
break;
case 'i':
pArgs->pInPathBmp1 = optarg;
break;
case 'I':
pArgs->pInPathBmp2 = optarg;
break;
case 'm':
g_mode_test->s32ModuleTestType = atoi(optarg);
break;
case 'c':
g_mode_test->u32TestFrameCount = atoi(optarg);
break;
case 't' + 'l':
g_mode_test->s32ModuleTestLoop = atoi(optarg);
break;
case '?':
default:
print_usage(argv[0]);
return RK_FAILURE;
}
}
return RK_SUCCESS;
}
/******************************************************************************
* function : main()
* Description : main
******************************************************************************/
int main(int argc, char *argv[]) {
if (argc < 2) {
printf("bad arguments!\n");
return RK_FAILURE;
}
if (global_param_init() != RK_SUCCESS) {
printf("global_param_init failure\n");
return RK_FAILURE;
}
if (parse_cmd_args(argc, argv, g_cmd_args) != RK_SUCCESS) {
printf("parse_cmd_args failure\n");
goto __ISP_INIT_FAILED;
}
signal(SIGINT, sigterm_handler);
signal(SIGTERM, sigterm_handler);
printf("#Camera 0: width %d, height %d \n", g_cmd_args->u32Main0Width,
g_cmd_args->u32Main0Height);
printf("#Camera 1: width %d, height %d \n", g_cmd_args->u32Main1Width,
g_cmd_args->u32Main1Height);
printf("#CodecName:%s\n", g_cmd_args->pCodecName);
printf("#Output Path: %s\n", g_cmd_args->pOutPathVenc);
printf("#RGN_ATTACH: %d\n", g_cmd_args->s32RgnAttachModule);
printf("#IQ Path: %s\n", g_cmd_args->pIqFileDir);
if (g_cmd_args->pIqFileDir) {
printf("#Rkaiq XML DirPath: %s\n", g_cmd_args->pIqFileDir);
printf("#bMultictx: %d\n\n", g_cmd_args->bMultictx);
}
if (isp_init(g_mpi_ctx, g_cmd_args) != RK_SUCCESS) {
printf("isp_init failure!\n");
g_exit_result = RK_FAILURE;
goto __ISP_INIT_FAILED;
}
if (RK_MPI_SYS_Init() != RK_SUCCESS) {
printf("RK_MPI_SYS_Init failure!\n");
g_exit_result = RK_FAILURE;
goto __MPI_INIT_FAILED;
}
// Initialize rtsp server.
rtsp_init(g_cmd_args->enCodecType);
// Initialize all pipeline nodes.
vi_chn_init(g_mpi_ctx, g_cmd_args);
vpss_chn_init(g_mpi_ctx, g_cmd_args);
venc_chn_init(g_mpi_ctx, g_cmd_args);
rgn_init(g_mpi_ctx, g_cmd_args);
// Bind all pipeline nodes.
bind_init(g_mpi_ctx, g_cmd_args);
// Start sub-threads after all initialization done.
sub_threads_init(g_mpi_ctx, g_cmd_args);
// Keep running ...
while (!g_thread_status->bIfMainThreadQuit) {
sleep(1);
}
// Destroy pipeline.
sub_threads_deinit(g_mpi_ctx, g_cmd_args);
bind_deinit(g_mpi_ctx, g_cmd_args);
rgn_deinit(g_mpi_ctx, g_cmd_args);
venc_chn_deinit(g_mpi_ctx, g_cmd_args);
vpss_chn_deinit(g_mpi_ctx, g_cmd_args);
vi_chn_deinit(g_mpi_ctx, g_cmd_args);
rtsp_deinit();
RK_MPI_SYS_Exit();
__MPI_INIT_FAILED:
isp_deinit(g_mpi_ctx, g_cmd_args);
__ISP_INIT_FAILED:
global_param_deinit();
return g_exit_result;
}
#ifdef __cplusplus
#if __cplusplus
}
#endif
#endif /* End of #ifdef __cplusplus */
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