sdk-hwV1.3/external/eyesee-mpp/middleware/sun8iw21/media/mpi_clock.c

664 lines
18 KiB
C
Executable File

/******************************************************************************
Copyright (C), 2001-2016, Allwinner Tech. Co., Ltd.
******************************************************************************
File Name : mpi_clock.c
Version : Initial Draft
Author : Allwinner BU3-PD2 Team
Created : 2016/08/31
Last Modified :
Description :
Function List :
History :
******************************************************************************/
//#define LOG_NDEBUG 0
#define LOG_TAG "mpi_clock"
#include <utils/plat_log.h>
//rely on platform headers
#include <stdlib.h>
#include <string.h>
#include <errno.h>
#include "plat_type.h"
#include "plat_errno.h"
#include "plat_defines.h"
#include "plat_math.h"
#include "cdx_list.h"
//rely on media internal common headers.
#include "tsemaphore.h"
//media api headers to app, some are relied on .
#include "mm_common.h"
#include <mm_component.h>
#include "mpi_clock.h"
typedef struct CLOCK_CHN_MAP_S
{
CLOCK_CHN mChn; // video decoder channel index, [0, CLOCK_MAX_CHN_NUM)
MM_COMPONENTTYPE *mComp; // video encode component instance
cdx_sem_t mSemCompCmd;
MPPCallbackInfo mCallbackInfo;
struct list_head mList;
}CLOCK_CHN_MAP_S;
typedef struct ClockChnManager
{
struct list_head mList; //element type: CLOCK_CHN_MAP_S
pthread_mutex_t mLock;
} ClockChnManager;
static ClockChnManager *gpClockChnManager = NULL;
ERRORTYPE CLOCK_Construct(void)
{
int ret;
if (gpClockChnManager != NULL)
{
return SUCCESS;
}
gpClockChnManager = (ClockChnManager*)malloc(sizeof(ClockChnManager));
if (NULL == gpClockChnManager)
{
aloge("alloc ClockChnManager error(%s)!", strerror(errno));
return FAILURE;
}
ret = pthread_mutex_init(&gpClockChnManager->mLock, NULL);
if (ret != 0)
{
aloge("fatal error! mutex init fail");
free(gpClockChnManager);
gpClockChnManager = NULL;
return FAILURE;
}
INIT_LIST_HEAD(&gpClockChnManager->mList);
return SUCCESS;
}
ERRORTYPE CLOCK_Destruct(void)
{
if (gpClockChnManager != NULL)
{
if (!list_empty(&gpClockChnManager->mList))
{
aloge("fatal error! some clock channel still running when destroy clock device!");
}
pthread_mutex_destroy(&gpClockChnManager->mLock);
free(gpClockChnManager);
gpClockChnManager = NULL;
}
return SUCCESS;
}
static ERRORTYPE searchExistChannel_l(CLOCK_CHN ClockChn, CLOCK_CHN_MAP_S** ppChn)
{
ERRORTYPE ret = FAILURE;
CLOCK_CHN_MAP_S* pEntry;
if (gpClockChnManager == NULL)
{
return FAILURE;
}
list_for_each_entry(pEntry, &gpClockChnManager->mList, mList)
{
if(pEntry->mChn == ClockChn)
{
if(ppChn)
{
*ppChn = pEntry;
}
ret = SUCCESS;
break;
}
}
return ret;
}
static ERRORTYPE searchExistChannel(CLOCK_CHN ClockChn, CLOCK_CHN_MAP_S** ppChn)
{
ERRORTYPE ret = FAILURE;
CLOCK_CHN_MAP_S* pEntry;
if (gpClockChnManager == NULL)
{
return FAILURE;
}
pthread_mutex_lock(&gpClockChnManager->mLock);
ret = searchExistChannel_l(ClockChn, ppChn);
pthread_mutex_unlock(&gpClockChnManager->mLock);
return ret;
}
static ERRORTYPE addChannel_l(CLOCK_CHN_MAP_S *pChn)
{
if (gpClockChnManager == NULL)
{
return FAILURE;
}
list_add_tail(&pChn->mList, &gpClockChnManager->mList);
return SUCCESS;
}
static ERRORTYPE addChannel(CLOCK_CHN_MAP_S *pChn)
{
if (gpClockChnManager == NULL)
{
return FAILURE;
}
pthread_mutex_lock(&gpClockChnManager->mLock);
ERRORTYPE ret = addChannel_l(pChn);
pthread_mutex_unlock(&gpClockChnManager->mLock);
return SUCCESS;
}
static ERRORTYPE removeChannel(CLOCK_CHN_MAP_S *pChn)
{
if (gpClockChnManager == NULL)
{
return FAILURE;
}
pthread_mutex_lock(&gpClockChnManager->mLock);
list_del(&pChn->mList);
pthread_mutex_unlock(&gpClockChnManager->mLock);
return SUCCESS;
}
MM_COMPONENTTYPE* CLOCK_GetChnComp(MPP_CHN_S *pMppChn)
{
CLOCK_CHN_MAP_S* pChn;
if (searchExistChannel(pMppChn->mChnId, &pChn) != SUCCESS) {
return NULL;
}
return pChn->mComp;
}
static CLOCK_CHN_MAP_S* CLOCK_CHN_MAP_S_Construct()
{
CLOCK_CHN_MAP_S *pChannel = (CLOCK_CHN_MAP_S*)malloc(sizeof(CLOCK_CHN_MAP_S));
if(NULL == pChannel)
{
aloge("fatal error! malloc fail[%s]!", strerror(errno));
return NULL;
}
memset(pChannel, 0, sizeof(CLOCK_CHN_MAP_S));
cdx_sem_init(&pChannel->mSemCompCmd, 0);
return pChannel;
}
static void CLOCK_CHN_MAP_S_Destruct(CLOCK_CHN_MAP_S *pChannel)
{
if(pChannel->mComp)
{
aloge("fatal error! Clock component need free before!");
COMP_FreeHandle(pChannel->mComp);
pChannel->mComp = NULL;
}
cdx_sem_deinit(&pChannel->mSemCompCmd);
free(pChannel);
}
static ERRORTYPE ClockEventHandler(
PARAM_IN COMP_HANDLETYPE hComponent,
PARAM_IN void* pAppData,
PARAM_IN COMP_EVENTTYPE eEvent,
PARAM_IN unsigned int nData1,
PARAM_IN unsigned int nData2,
PARAM_IN void* pEventData)
{
ERRORTYPE ret;
MPP_CHN_S ClockChnInfo;
ret = COMP_GetConfig(hComponent, COMP_IndexVendorMPPChannelInfo, &ClockChnInfo);
if(ret == SUCCESS)
{
alogv("clock event, MppChannel[%d][%d][%d]", ClockChnInfo.mModId, ClockChnInfo.mDevId, ClockChnInfo.mChnId);
}
CLOCK_CHN_MAP_S *pChn = (CLOCK_CHN_MAP_S*)pAppData;
switch(eEvent)
{
case COMP_EventCmdComplete:
{
if(COMP_CommandStateSet == nData1)
{
alogv("clock EventCmdComplete, current StateSet[%d]", nData2);
cdx_sem_up(&pChn->mSemCompCmd);
break;
}
else if(COMP_CommandVendorChangeANativeWindow == nData1)
{
alogd("change video layer?");
break;
}
else
{
alogw("Low probability! what command[0x%x]?", nData1);
break;
}
}
case COMP_EventError:
{
if(ERR_CLOCK_SAMESTATE == nData1)
{
alogv("set same state to clock!");
cdx_sem_up(&pChn->mSemCompCmd);
break;
}
else if(ERR_CLOCK_INVALIDSTATE == nData1)
{
aloge("why clock state turn to invalid!");
break;
}
else if(ERR_CLOCK_INCORRECT_STATE_TRANSITION == nData1)
{
aloge("fatal error! clock state transition incorrect.");
break;
}
else
{
aloge("fatal error! unknown error[0x%x]!", nData1);
break;
}
}
default:
aloge("fatal error! unknown event[0x%x]", eEvent);
break;
}
return SUCCESS;
}
COMP_CALLBACKTYPE ClockCallback = {
.EventHandler = ClockEventHandler,
.EmptyBufferDone = NULL,
.FillBufferDone = NULL,
};
ERRORTYPE AW_MPI_CLOCK_CreateChn(CLOCK_CHN ClockChn, CLOCK_CHN_ATTR_S *pAttr)
{
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
if(NULL == pAttr)
{
aloge("fatal error! illagal VencAttr!");
return ERR_CLOCK_ILLEGAL_PARAM;
}
pthread_mutex_lock(&gpClockChnManager->mLock);
if(SUCCESS == searchExistChannel_l(ClockChn, NULL))
{
pthread_mutex_unlock(&gpClockChnManager->mLock);
return ERR_CLOCK_EXIST;
}
CLOCK_CHN_MAP_S *pNode = CLOCK_CHN_MAP_S_Construct();
pNode->mChn = ClockChn;
//create Clock Component here...
ERRORTYPE eRet = SUCCESS;
eRet = COMP_GetHandle((COMP_HANDLETYPE*)&pNode->mComp, CDX_ComponentNameClock, (void*)pNode, &ClockCallback);
if(eRet != SUCCESS)
{
aloge("fatal error! get comp handle fail!");
}
MPP_CHN_S ChannelInfo;
ChannelInfo.mModId = MOD_ID_CLOCK;
ChannelInfo.mDevId = 0;
ChannelInfo.mChnId = pNode->mChn;
eRet = pNode->mComp->SetConfig(pNode->mComp, COMP_IndexVendorMPPChannelInfo, (void*)&ChannelInfo);
COMP_TIME_CONFIG_CLOCKSTATETYPE clockState;
clockState.eState = COMP_TIME_ClockStateWaitingForStartTime;
clockState.nWaitMask = pAttr->nWaitMask;
eRet = pNode->mComp->SetConfig(pNode->mComp, COMP_IndexConfigTimeClockState, (void*)&clockState);
eRet = pNode->mComp->SendCommand(pNode->mComp, COMP_CommandStateSet, COMP_StateIdle, NULL);
cdx_sem_down(&pNode->mSemCompCmd);
//create clock Component done!
addChannel_l(pNode);
pthread_mutex_unlock(&gpClockChnManager->mLock);
return SUCCESS;
}
ERRORTYPE AW_MPI_CLOCK_DestroyChn(CLOCK_CHN ClockChn)
{
ERRORTYPE ret;
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
CLOCK_CHN_MAP_S *pChn;
if(SUCCESS != searchExistChannel(ClockChn, &pChn))
{
return ERR_CLOCK_UNEXIST;
}
ERRORTYPE eRet;
if(pChn->mComp)
{
COMP_STATETYPE nCompState;
if(SUCCESS == pChn->mComp->GetState(pChn->mComp, &nCompState))
{
if(nCompState == COMP_StateIdle)
{
eRet = pChn->mComp->SendCommand(pChn->mComp, COMP_CommandStateSet, COMP_StateLoaded, NULL);
cdx_sem_down(&pChn->mSemCompCmd);
eRet = SUCCESS;
}
else if(nCompState == COMP_StateLoaded)
{
eRet = SUCCESS;
}
else if(nCompState == COMP_StateInvalid)
{
alogw("Low probability! Component StateInvalid?");
eRet = SUCCESS;
}
else
{
aloge("fatal error! invalid ClockChn[%d] state[0x%x]!", ClockChn, nCompState);
eRet = FAILURE;
}
if(eRet == SUCCESS)
{
removeChannel(pChn);
COMP_FreeHandle(pChn->mComp);
pChn->mComp = NULL;
CLOCK_CHN_MAP_S_Destruct(pChn);
ret = SUCCESS;
}
else
{
ret = ERR_CLOCK_BUSY;
}
}
else
{
aloge("fatal error! GetState fail!");
ret = ERR_CLOCK_BUSY;
}
}
else
{
aloge("fatal error! no Clock component!");
list_del(&pChn->mList);
CLOCK_CHN_MAP_S_Destruct(pChn);
ret = SUCCESS;
}
return ret;
}
ERRORTYPE AW_MPI_CLOCK_Start(CLOCK_CHN ClockChn)
{
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
CLOCK_CHN_MAP_S *pChn;
if(SUCCESS != searchExistChannel(ClockChn, &pChn))
{
return ERR_CLOCK_UNEXIST;
}
int ret;
int eRet;
COMP_STATETYPE nCompState;
eRet = pChn->mComp->GetState(pChn->mComp, &nCompState);
if(COMP_StateIdle == nCompState || COMP_StatePause == nCompState)
{
eRet = pChn->mComp->SendCommand(pChn->mComp, COMP_CommandStateSet, COMP_StateExecuting, NULL);
if(eRet != SUCCESS)
{
aloge("fatal error! send command stateExecuting fail");
}
cdx_sem_down(&pChn->mSemCompCmd);
ret = SUCCESS;
}
else
{
alogd("ClockChannel[%d] State[0x%x], do nothing!", ClockChn, nCompState);
ret = SUCCESS;
}
return ret;
}
ERRORTYPE AW_MPI_CLOCK_Stop(CLOCK_CHN ClockChn)
{
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
CLOCK_CHN_MAP_S *pChn;
if(SUCCESS != searchExistChannel(ClockChn, &pChn))
{
return ERR_CLOCK_UNEXIST;
}
int ret;
int eRet;
COMP_STATETYPE nCompState;
eRet = pChn->mComp->GetState(pChn->mComp, &nCompState);
if(COMP_StateExecuting == nCompState || COMP_StatePause == nCompState)
{
eRet = pChn->mComp->SendCommand(pChn->mComp, COMP_CommandStateSet, COMP_StateIdle, NULL);
if(eRet != SUCCESS)
{
aloge("fatal error! send command stateIdle fail");
}
cdx_sem_down(&pChn->mSemCompCmd);
ret = SUCCESS;
}
else if(COMP_StateIdle == nCompState)
{
alogv("ClockChannel[%d] State[0x%x], do nothing!", ClockChn, nCompState);
ret = SUCCESS;
}
else
{
aloge("fatal error! check ClockChannelState[0x%x]!", nCompState);
ret = SUCCESS;
}
return ret;
}
ERRORTYPE AW_MPI_CLOCK_Pause(CLOCK_CHN ClockChn)
{
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
CLOCK_CHN_MAP_S *pChn;
if(SUCCESS != searchExistChannel(ClockChn, &pChn))
{
return ERR_CLOCK_UNEXIST;
}
int ret;
int eRet;
COMP_STATETYPE nCompState;
eRet = pChn->mComp->GetState(pChn->mComp, &nCompState);
if(COMP_StateExecuting == nCompState)
{
eRet = pChn->mComp->SendCommand(pChn->mComp, COMP_CommandStateSet, COMP_StatePause, NULL);
if(eRet != SUCCESS)
{
aloge("fatal error! Send command statePause fail!");
}
cdx_sem_down(&pChn->mSemCompCmd);
ret = SUCCESS;
}
else if(COMP_StatePause == nCompState)
{
alogd("ClockChannel[%d] already statePause.", ClockChn);
ret = SUCCESS;
}
else if(COMP_StateIdle == nCompState)
{
alogd("ClockChannel[%d] stateIdle, can't turn to statePause!", ClockChn);
ret = ERR_CLOCK_INCORRECT_STATE_TRANSITION;
}
else
{
aloge("fatal error! check ClockChannel[%d]State[0x%x]!", ClockChn, nCompState);
ret = ERR_CLOCK_INCORRECT_STATE_TRANSITION;
}
return ret;
}
ERRORTYPE AW_MPI_CLOCK_Seek(CLOCK_CHN ClockChn)
{
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
CLOCK_CHN_MAP_S *pChn;
if(SUCCESS != searchExistChannel(ClockChn, &pChn))
{
return ERR_CLOCK_UNEXIST;
}
int ret;
int eRet;
COMP_STATETYPE nCompState;
eRet = pChn->mComp->GetState(pChn->mComp, &nCompState);
if(COMP_StateIdle == nCompState || COMP_StateExecuting == nCompState || COMP_StatePause == nCompState)
{
ret = pChn->mComp->SetConfig(pChn->mComp, COMP_IndexVendorSeekToPosition, NULL);
}
else
{
aloge("fatal error! check ClockChannel[%d]State[0x%x]!", ClockChn, nCompState);
ret = ERR_CLOCK_INCORRECT_STATE_OPERATION;
}
return ret;
}
/**
* Register callback, mpp_clock use callback to notify caller.
*
* @return SUCCESS.
* @param ClockChn clock channel number.
* @param pCallback callback struct.
*/
ERRORTYPE AW_MPI_CLOCK_RegisterCallback(CLOCK_CHN ClockChn, MPPCallbackInfo *pCallback)
{
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
CLOCK_CHN_MAP_S *pChn;
if(SUCCESS != searchExistChannel(ClockChn, &pChn))
{
return ERR_CLOCK_UNEXIST;
}
pChn->mCallbackInfo.callback = pCallback->callback;
pChn->mCallbackInfo.cookie = pCallback->cookie;
return SUCCESS;
}
ERRORTYPE AW_MPI_CLOCK_GetCurrentMediaTime(CLOCK_CHN ClockChn, int* pMediaTime)
{
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
CLOCK_CHN_MAP_S *pChn;
if(SUCCESS != searchExistChannel(ClockChn, &pChn))
{
return ERR_CLOCK_UNEXIST;
}
int ret;
int eRet;
COMP_STATETYPE nCompState;
eRet = pChn->mComp->GetState(pChn->mComp, &nCompState);
if(COMP_StateIdle == nCompState || COMP_StateExecuting == nCompState || COMP_StatePause == nCompState)
{
COMP_TIME_CONFIG_TIMESTAMPTYPE timeStamp;
ret = pChn->mComp->GetConfig(pChn->mComp, COMP_IndexConfigTimeCurrentMediaTime, &timeStamp);
if(-1 == timeStamp.nTimestamp)
{
*pMediaTime = -1;
}
else
{
*pMediaTime = timeStamp.nTimestamp/1000;
}
}
else
{
aloge("fatal error! call in wrong ClockChannel[%d]State[0x%x]!", ClockChn, nCompState);
*pMediaTime = -1;
ret = SUCCESS;
}
return ret;
}
/**
set variable playing speed.
@param fVps
scope:[0.5, 4]
*/
ERRORTYPE AW_MPI_CLOCK_SetVps(CLOCK_CHN ClockChn, float fVps)
{
ERRORTYPE ret;
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
CLOCK_CHN_MAP_S *pChn;
if(SUCCESS != searchExistChannel(ClockChn, &pChn))
{
return ERR_CLOCK_UNEXIST;
}
if(fVps < 0.5 || fVps > 4)
{
aloge("fatal error! vps wrong[%f]", fVps);
return ERR_CLOCK_ILLEGAL_PARAM;
}
//need convert fVps to clock component adjust ratio.
int nRatio = (int)(100 - 100*fVps);
ret = COMP_SetConfig(pChn->mComp, COMP_IndexVendorVps, &nRatio);
if(ret != SUCCESS)
{
aloge("fatal error! set vps[%f-%d] fail", fVps, nRatio);
}
return ret;
}
ERRORTYPE AW_MPI_CLOCK_GetVps(CLOCK_CHN ClockChn, float *pfVps)
{
ERRORTYPE ret;
if(!(ClockChn>=0 && ClockChn <CLOCK_MAX_CHN_NUM))
{
aloge("fatal error! invalid ClockChn[%d]!", ClockChn);
return ERR_CLOCK_INVALID_CHNID;
}
CLOCK_CHN_MAP_S *pChn;
if(SUCCESS != searchExistChannel(ClockChn, &pChn))
{
return ERR_CLOCK_UNEXIST;
}
if(NULL == pfVps)
{
aloge("fatal error! NULL pointer?");
return ERR_CLOCK_ILLEGAL_PARAM;
}
int nRatio = 0;
ret = COMP_GetConfig(pChn->mComp, COMP_IndexVendorVps, &nRatio);
if(SUCCESS == ret)
{
*pfVps = 1 - (float)nRatio/100;
}
else
{
aloge("fatal error! clockChn[%d] get vps fail[0x%x]", ClockChn, ret);
}
return ret;
}