//-----------------------------------------------------------------------------
PictureHolder::PictureHolder()
{
dataSlicesArray.fill(nullptr);
stridesArray.fill(0);
format = -1;
dimension = MSize(0,0);
}
CTaskStk *TaskStkNew(I64 stk_size,CTask *task)
{
CTaskStk *temps=MAlloc(stk_size+offset(CTaskStk.stk_base),task);
temps->next_stk=NULL;
temps->stk_ptr=NULL;
temps->stk_size=MSize(temps)-offset(CTaskStk.stk_base);
return temps;
}
void OnSize(HWND hWnd)
{
if (!g_bInited)
return;
g_sv.clear();
MRect rcClient;
::GetClientRect(hWnd, &rcClient);
for (int i = 0; i < c_nCtrls; ++i)
{
MRect rcCtrl(MPoint(0, c_height * i),
MSize(rcClient.Width(), c_height));
g_sv.AddCtrlInfo(g_ahwndCtrls[i], rcCtrl);
}
g_sv.SetExtentForAllCtrls();
g_sv.UpdateAll();
}
void
MetadataProvider::
updateData(IMetadata &rMetadata)
{
{
MINT32 maxJpegsize = 0;
IMetadata::IEntry blobEntry = rMetadata.entryFor(MTK_SCALER_AVAILABLE_STREAM_CONFIGURATIONS);
for(size_t i = 0; i < blobEntry.count(); i+=4) {
if (blobEntry.itemAt(0, Type2Type<MINT32>())!= HAL_PIXEL_FORMAT_BLOB) {
continue;
}
//avaiblable blob size list should order in descedning.
MSize maxBlob = MSize(blobEntry.itemAt(i+1, Type2Type<MINT32>()),
blobEntry.itemAt(i+2, Type2Type<MINT32>()));
MINT32 jpegsize = maxBlob.size()*1.2; //*2*0.6
if (jpegsize > maxJpegsize) {
maxJpegsize = jpegsize;
}
IMetadata::IEntry entry(MTK_JPEG_MAX_SIZE);
entry.push_back(maxJpegsize, Type2Type< MINT32 >());
rMetadata.update(MTK_JPEG_MAX_SIZE, entry);
}
}
}
/*******************************************************************************
* Config CamIO Pipe /floria
********************************************************************************/
int
Ts_UT::
main_ts_IOPipe_ZSD(int count)
{
// int count = 1000; //enque, deque loop iterations
printf("[iopipetest] E\n");
//for Enqueue, raw buf
MUINT32 u4RawBufSize = (u4SensorWidth * u4SensorHeight * 2 + L1_CACHE_BYTES-1) & ~(L1_CACHE_BYTES-1);
//for buffer per frame
int BufIdx = BUF_NUM, nCt = BUF_NUM;
#ifdef USE_IMAGEBUF_HEAP
MUINT32 bufStridesInBytes[3] = {1600, 0, 0};
MINT32 bufBoundaryInBytes[3] = {0, 0, 0};
#endif
#if 0
ringbuffer* mpRingImgo = new ringbuffer(
2,//PASS1_FULLRAW
PORT_IMGO,
0//fakeResized ? PASS1_RESIZEDRAW : 0
);
#endif
MY_LOGD("+");
/*------------------------------
* (1) Create Instance
*-----------------------------*/
/* eScenarioID_VSS, eScenarioFmt_RAW */
MUINT mSensorIdx = 0;//0:MAIN
const char Name = '1';
MUINT mIspEnquePeriod = 1;
prepareSensor();//test IHalSensor
printf("[iopipetest] INormalPipe::createInstance\n");
mpCamIO = (INormalPipe*)INormalPipe::createInstance(mSensorIdx, &Name, mIspEnquePeriod);
#if 0//camera 3.0, should create INormalPipe_FrmB class instance
mpCamIO = (IHalCamIO*)INormalPipe_FrmB::createInstance(mSensorIdx, &Name, mIspEnquePeriod);
#endif
/*------------------------------
test 3A build pass
------------------------------*/
#if 0
MINT32 handle;
MBOOL fgRet = mpCamIO->sendCommand(NSImageio_FrmB::NSIspio_FrmB::EPIPECmd_GET_MODULE_HANDLE,
NSImageio_FrmB::NSIspio_FrmB::EModule_AF,
(MINT32)&handle,
(MINT32)(&("AFMgr::setFlkWinConfig()")));
MINT32 wintmp;
IOPIPE_SET_MODUL_REG(handle, CAM_AF_WINX01, wintmp);
#endif
/*------------------------------
* (2) init
*-----------------------------*/
printf("[iopipetest] mpCamIO->init\n");
if(!mpCamIO->init())
{
printf("[iopipetest] mpCamIO->init failed!!\n");
}
/*------------------------------
* (3). Config pipe + RAW10
*-----------------------------*/
MSize mDstSize;
mDstSize.w = u4SensorWidth;
mDstSize.h = u4SensorHeight;
//prepare sensor config
vector<IHalSensor::ConfigParam> vSensorCfg;
IHalSensor::ConfigParam sensorCfg =
{
mSensorIdx, /* index */
mDstSize, /* crop no reference in NormalPipe */
u4Scenario, /* scenarioId */
0, /* isBypassScenario */
1, /* isContinuous */
0, /* iHDROn */
0, /* framerate */
0, /* two pixel on */
0, /* debugmode */
};
vSensorCfg.push_back(sensorCfg);
printf("[iopipetest] sensor %dx%d, sce %d, bypass %d, con %d, hdr %d, fps %d, twopxl %d\n",
sensorCfg.crop.w,
sensorCfg.crop.h,
sensorCfg.scenarioId,
sensorCfg.isBypassScenario,
sensorCfg.isContinuous,
sensorCfg.HDRMode,
sensorCfg.framerate,
sensorCfg.twopixelOn);
//
vector<portInfo> vPortInfo;
//
portInfo OutPort(
PORT_IMGO,
eImgFmt_BAYER10,
mDstSize, //dst size
0, //pPortCfg->mCrop, //crop
u4SensorWidth, //pPortCfg->mStrideInByte[0],
0, //pPortCfg->mStrideInByte[1],
0, //pPortCfg->mStrideInByte[2],
0, // pureraw
MTRUE //packed
);
vPortInfo.push_back(OutPort);
printf("[iopipetest] config portID(0x%x), fmt(%u), size(%dx%d), crop(%u,%u,%u,%u)\n",
OutPort.mPortID, OutPort.mFmt, OutPort.mDstSize.w, OutPort.mDstSize.h,
OutPort.mCropRect.p.x, OutPort.mCropRect.p.y,
OutPort.mCropRect.s.w, OutPort.mCropRect.s.h);
printf("[iopipetest] stride(%u,%u,%u), pureRaw(%u), pack(%d)\n",
OutPort.mStride[0], OutPort.mStride[1], OutPort.mStride[2],
OutPort.mPureRaw, OutPort.mPureRawPak);
//
QInitParam halCamIOinitParam(
0,
u4Bitdepth,
vSensorCfg,
vPortInfo);
printf("[iopipetest] mpCamIO->configPipe\n");
if(!mpCamIO->configPipe(halCamIOinitParam, eScenarioID_VSS))
{
printf("[iopipetest] mpCamIO->configPipe failed!!\n");
goto TEST_EXIT;
}
/*------------------------------
* (4). Enqueue
* 4.1, raw buf
*-----------------------------*/
#ifdef _USE_THREAD_QUE_
if(vRawMem.size() > 0)
{
freeRawMem();
TS_Thread_UnInit();
}
nCt--;
#else
//
int nReplace;
printf("*****************************************\n");
printf("Buffer per frame(1:y; else:n)\n");
scanf("%d", &nReplace);
printf("*****************************************\n");
if(nReplace != 1)
{
nCt--;
}
#endif
/* * * * * * * * * * * *
* buffer per frame
* nReplace = 1
* size = BUF_NUM + 1
*(replace buffer)
* * * * * * * * * * * *
* sequential buffer
* nReplace != 1
* size = BUF_NUM
*(no replace buffer)
* * * * * * * * * * * */
printf("[iopipetest] allocMem: RawBuff\n");
for (int i = 0; i <= nCt; i++) //BUF_NUM=3
{
IMEM_BUF_INFO rBuf;
rBuf.size = u4RawBufSize;
allocMem(rBuf);
#ifdef USE_IMAGEBUF_HEAP
PortBufInfo_v1 portBufInfo = PortBufInfo_v1( rBuf.memID,rBuf.virtAddr,0,rBuf.bufSecu, rBuf.bufCohe);
IImageBufferAllocator::ImgParam imgParam = IImageBufferAllocator::ImgParam((eImgFmt_BAYER10),
MSize(1280, 720), bufStridesInBytes, bufBoundaryInBytes, 1);
sp<ImageBufferHeap> pHeap = ImageBufferHeap::create( LOG_TAG, imgParam,portBufInfo,MTRUE);
IImageBuffer* tempBuffer = pHeap->createImageBuffer();
tempBuffer->incStrong(tempBuffer);
tempBuffer->lockBuf(LOG_TAG,eBUFFER_USAGE_HW_CAMERA_READWRITE | eBUFFER_USAGE_SW_READ_OFTEN);
//
BufInfo rBufInfo;
rBufInfo.mPortID = PORT_IMGO;
rBufInfo.mBuffer = tempBuffer;
rBufInfo.FrameBased.mMagicNum_tuning = 0;
rBufInfo.FrameBased.mDstSize = mDstSize;
rBufInfo.FrameBased.mCropRect = MRect(MPoint(0, 0), mDstSize);//no crop
rRawBuf.mvOut.push_back(rBufInfo);
#endif
vRawMem.push_back(rBuf);
printf("[iopipetest] vRawMem(%d)PA(0x%x)VA(0x%x)\n", i, vRawMem.at(i).phyAddr,vRawMem.at(i).virtAddr);
}
//for deque
for (int i = 0; i <= 0; i++)
{
IMEM_BUF_INFO rBuf;
rBuf.size = u4RawBufSize;
allocMem(rBuf);
#ifdef USE_IMAGEBUF_HEAP
PortBufInfo_v1 portBufInfo = PortBufInfo_v1( rBuf.memID,rBuf.virtAddr,0,rBuf.bufSecu, rBuf.bufCohe);
IImageBufferAllocator::ImgParam imgParam = IImageBufferAllocator::ImgParam((eImgFmt_BAYER10),
MSize(1280, 720), bufStridesInBytes, bufBoundaryInBytes, 1);
sp<ImageBufferHeap> pHeap = ImageBufferHeap::create( LOG_TAG, imgParam,portBufInfo,MTRUE);
IImageBuffer* tempBuffer = pHeap->createImageBuffer();
tempBuffer->incStrong(tempBuffer);
tempBuffer->lockBuf(LOG_TAG,eBUFFER_USAGE_HW_CAMERA_READWRITE | eBUFFER_USAGE_SW_READ_OFTEN);
//
BufInfo rBufInfo;
rBufInfo.mPortID = PORT_IMGO;
rBufInfo.mBuffer = tempBuffer;
rDequeBuf.mvOut.push_back(rBufInfo);
#endif
vDequeMem.push_back(rBuf);
printf("[iopipetest] vDequeMem(%d)PA(0x%x)VA(0x%x)\n", i, vDequeMem.at(i).phyAddr, vDequeMem.at(i).virtAddr);
}
/* enque 3 buffers */
for (int i = 0; i < BUF_NUM; i++)
{
#if 1
QBufInfo rInBuf;
rInBuf.mvOut.clear();
#ifdef USE_IMAGEBUF_HEAP
BufInfo rBufInfo(PORT_IMGO, rRawBuf.mvOut.at(i).mBuffer, rRawBuf.mvOut.at(i).mSize, rRawBuf.mvOut.at(i).mVa, rRawBuf.mvOut.at(i).mPa);
#else
BufInfo rBufInfo(PORT_IMGO, NULL, vRawMem.at(i).size, vRawMem.at(i).virtAddr, vRawMem.at(i).phyAddr);
#endif
rInBuf.mvOut.push_back(rBufInfo);
rInBuf.mvOut.at(0).FrameBased.mMagicNum_tuning = 0;
rInBuf.mvOut.at(0).FrameBased.mDstSize = mDstSize;
rInBuf.mvOut.at(0).FrameBased.mCropRect = MRect(MPoint(0, 0), mDstSize);//no crop
#ifdef USE_IMAGEBUF_HEAP
printf("[iopipetest] enque.PA(0x%x)VA(0x%x)buf(0x%x)\n", rInBuf.mvOut.at(0).mBuffer->getBufPA(0), rInBuf.mvOut.at(0).mBuffer->getBufVA(0), rInBuf.mvOut.at(0).mBuffer);
#else
printf("[iopipetest] enque.PA(0x%x)VA(0x%x)\n", rInBuf.mvOut.at(0).mPa, rInBuf.mvOut.at(0).mVa);
#endif
printf("[iopipetest] enque(%d)\n", i);
if(!mpCamIO->enque(rInBuf))
{
printf("[iopipetest] enque failed!!\n");
goto TEST_EXIT;
}
#else
/* * * * * * * * * * * * * * * * * * * * * * * * * *
* test:
* if enque a buffer,and it's port is not IMGO,
* mpCamIO->enque(rRawBuf)will return MFALSE
* * * * * * * * * * * * * * * * * * * * * * * * * */
QBufInfo rInBuf;
rInBuf.mvOut.clear();
#ifdef USE_IMAGEBUF_HEAP
BufInfo rBufInfo2(PORT_IMGO, rRawBuf.mvOut.at(i).mBuffer, rRawBuf.mvOut.at(i).mSize, rRawBuf.mvOut.at(i).mVa, rRawBuf.mvOut.at(i).mPa);
#else
BufInfo rBufInfo2(PORT_IMG2O, NULL, vRawMem.at(i).size, vRawMem.at(i).virtAddr, vRawMem.at(i).phyAddr);
#endif
rInBuf.mvOut.push_back(rBufInfo2);
printf("[iopipetest] enque(%d)\n", i);
if(!mpCamIO->enque(rInBuf)){//try to enque IMGO port
printf("[iopipetest] enque(%d) again\n", i);
rInBuf.mvOut.clear();
BufInfo rBufInfo(PORT_IMGO, NULL, vRawMem.at(i).size, vRawMem.at(i).virtAddr, vRawMem.at(i).phyAddr);
rInBuf.mvOut.push_back(rBufInfo);
if(!mpCamIO->enque(rInBuf))
{
printf("[iopipetest] enque failed!!\n");
goto TEST_EXIT;
}
}
#endif
}
/*------------------------------
* (5). start
*-----------------------------*/
printf("[iopipetest] mpCamIO->start\n");
if(!mpCamIO->start())
{
printf("[iopipetest] mpCamIO->start failed!!\n");
goto TEST_EXIT;
}
#if 0//for debug
// test: wait VSYNC
printf("[iopipetest] mpCamIO->irq(VSYNC)\n");
if(!mpCamIO->wait(mSensorIdx, EPipeSignal_SOF))
{
printf("[iopipetest] wait VSYNC failed!!\n");
goto TEST_EXIT;
}
// test: wait pass1 done
printf("[iopipetest] mpCamIO->irq(p1done)\n");
if(!mpCamIO->wait(mSensorIdx, EPipeSignal_EOF))
{
printf("[iopipetest] wait p1done failed!!\n");
goto TEST_EXIT;
}
#endif
/*------------------------------
* (6). deque/enque loop
* --> dequeue
* --> enqueue
*-----------------------------*/
#ifdef _USE_THREAD_QUE_
TS_Thread_Init(count);
#else
do
{
printf("-------------------------------------------\n");
QBufInfo halCamIOOutQBuf;
QBufInfo rEnBuf;
//
halCamIOOutQBuf.mvOut.clear();
#ifdef USE_IMAGEBUF_HEAP
BufInfo rDeBufInfo(PORT_IMGO, rDequeBuf.mvOut.at(0).mBuffer, rDequeBuf.mvOut.at(0).mSize, rDequeBuf.mvOut.at(0).mVa, rDequeBuf.mvOut.at(0).mPa);
#else
BufInfo rDeBufInfo(PORT_IMGO, NULL, vDequeMem.at(0).size, vDequeMem.at(0).virtAddr, vDequeMem.at(0).phyAddr);
#endif
halCamIOOutQBuf.mvOut.push_back(rDeBufInfo);
#ifdef USE_IMAGEBUF_HEAP
//do nothing
#else
printf("[iopipetest] dequeBuf.PA(0x%x)VA(0x%x)size(%d)\n", halCamIOOutQBuf.mvOut.at(0).mPa, halCamIOOutQBuf.mvOut.at(0).mVa, halCamIOOutQBuf.mvOut.size());
#endif
//
printf("[iopipetest] dequeBuf count(%d)\n", count);
if(!mpCamIO->deque(halCamIOOutQBuf))
{
printf("[iopipetest] deque failed!!\n");
goto TEST_EXIT;
}
#ifdef USE_IMAGEBUF_HEAP
printf("[iopipetest] dequeBuf.PA(0x%x)VA(0x%x)buf(0x%x)\n", halCamIOOutQBuf.mvOut.at(0).mBuffer->getBufPA(0), halCamIOOutQBuf.mvOut.at(0).mBuffer->getBufVA(0), halCamIOOutQBuf.mvOut.at(0).mBuffer);
#else
printf("[iopipetest] dequeBuf.PA(0x%x)VA(0x%x)\n", halCamIOOutQBuf.mvOut.at(0).mPa, halCamIOOutQBuf.mvOut.at(0).mVa);
#endif
/* * * * * * * * * * * *
* get ResultMetadata
* * * * * * * * * * * */
ResultMetadata result = halCamIOOutQBuf.mvOut.at(0).mMetaData;
/* * * * * * * * * * * *
* check dummy frame
* * * * * * * * * * * */
if(halCamIOOutQBuf.mvOut.at(0).mMetaData.m_bDummyFrame == MTRUE)
{
printf("[iopipetest] this is a dummy frame\n");
}
/* * * * * * * * * * * *
* sequential buffer
*(no replace buffer)
* * * * * * * * * * * */
if(nReplace != 1)
{
rEnBuf.mvOut.clear();
BufInfo rBufInfo(PORT_IMGO,
#ifdef USE_IMAGEBUF_HEAP
halCamIOOutQBuf.mvOut.at(0).mBuffer,
#else
NULL,
#endif
halCamIOOutQBuf.mvOut.at(0).mSize,
halCamIOOutQBuf.mvOut.at(0).mVa,
halCamIOOutQBuf.mvOut.at(0).mPa);
rEnBuf.mvOut.push_back(rBufInfo);
}
/* * * * * * * * * * * *
* buffer per frame
*(replace buffer)
* * * * * * * * * * * */
else
{
rEnBuf.mvOut.clear();
#ifdef USE_IMAGEBUF_HEAP
BufInfo rBufInfo(PORT_IMGO, rRawBuf.mvOut.at(BufIdx).mBuffer, rRawBuf.mvOut.at(BufIdx).mSize, rRawBuf.mvOut.at(BufIdx).mVa, rRawBuf.mvOut.at(BufIdx).mPa);
#else
BufInfo rBufInfo(PORT_IMGO, NULL, vRawMem.at(BufIdx).size, vRawMem.at(BufIdx).virtAddr, vRawMem.at(BufIdx).phyAddr);
#endif
rEnBuf.mvOut.push_back(rBufInfo);
}
#ifdef USE_IMAGEBUF_HEAP
printf("[iopipetest] enqueBuf.PA(0x%x)VA(0x%x),BufId(%d)\n", rEnBuf.mvOut.at(0).mBuffer->getBufPA(0), rEnBuf.mvOut.at(0).mBuffer->getBufVA(0), BufIdx);
#else
printf("[iopipetest] enqueBuf.PA(0x%x)VA(0x%x),BufId(%d)\n", rEnBuf.mvOut.at(0).mPa, rEnBuf.mvOut.at(0).mVa, BufIdx);
#endif
/* * * * * * * * * * * *
* setting before enque
* * * * * * * * * * * */
rEnBuf.mvOut.at(0).FrameBased.mMagicNum_tuning = 0;
rEnBuf.mvOut.at(0).FrameBased.mDstSize = mDstSize;
rEnBuf.mvOut.at(0).FrameBased.mCropRect = MRect(MPoint(0, 0), mDstSize);//no crop
//
printf("[iopipetest] enque count(%d)\n", count);
if(!mpCamIO->enque(rEnBuf))
{
printf("[iopipetest] enque failed!!\n");
goto TEST_EXIT;
}
//
if(++BufIdx > BUF_NUM) BufIdx = 0;
//
} while(--count > 0);
#endif
/*------------------------------
* (7). Stop
*-----------------------------*/
printf("[iopipetest] mpCamIO->stop\n");
mpCamIO->stop();
TEST_EXIT:
/*------------------------------
* (8). uninit
*-----------------------------*/
printf("[iopipetest] mpCamIO->uninit\n");
if( !mpCamIO->uninit() )
{
MY_LOGE("uninit failed");
}
/*------------------------------
* (9). destory instance
*-----------------------------*/
printf("[iopipetest] mpCamIO->destroyInstance\n");
mpCamIO->destroyInstance(&Name);
mpCamIO = NULL;
printf("[iopipetest] X\n");
return 0;
}
/*******************************************************************************
* Sensor init
********************************************************************************/
int Ts_IT::sensorInit()
{
#if FAKE_SENSOR == 1
TS_FakeSensorList *pHalSensorList = 0;
#else
IHalSensorList *pHalSensorList = 0;
#endif
MUINT32 sensorNum = 0;
MINT32 supportedSensorDev = 0;
MINT32 ret;
MY_LOGD("E\n");
mSensorDev = m_CurDev;
MUINT32 tg_grab_w = 0;
MUINT32 tg_grab_h = 0;
MUINT32 max_prv_w = 0;
MUINT32 max_prv_h = 0;
#if FAKE_SENSOR == 1
pHalSensorList = TS_FakeSensorList::get();
#else
pHalSensorList = IHalSensorList::get();
#endif
pHalSensorList->searchSensors();
sensorNum = pHalSensorList->queryNumberOfSensors();
if (sensorNum == 0)
{
MY_LOGE("Sensor Not found");
return -1;
}
//Get sensor information
for (MUINT i = 0; i < sensorNum; i++){
MY_LOGD("name:%s type:%d", pHalSensorList->queryDriverName(i), 0/*pHalSensorList->queryType(i)*/);//debug
MY_LOGD("index:%d, SensorDevIdx:%d",i ,pHalSensorList->querySensorDevIdx(i));//debug
supportedSensorDev |= pHalSensorList->querySensorDevIdx(i);
}
//======================================================
// Open sensor device
//======================================================
for (MUINT i = 0; i < sensorNum; i++){
if (pHalSensorList->querySensorDevIdx(i) == mSensorDev)
{
mSensorIndex = i;
break;
}
}
MY_LOGD("mSensorIndex = %d",mSensorIndex);
//====== Sensor Init======
//set current sensor device
mpSensorHal = pHalSensorList->createSensor(mSensorCallerName, 1, &mSensorIndex);//modify
if (mpSensorHal == NULL)
{
MY_LOGE("mpSensorHal is NULL");
return -1;
}
//mSensorInit = MTRUE;
//======================================================
// Get sensor size
//======================================================
pHalSensorList->querySensorStaticInfo(mSensorDev, &sensorStaticInfo[0]);
u4SensorHalfWidth = sensorStaticInfo[0].previewWidth;
u4SensorHalfHeight = sensorStaticInfo[0].previewHeight;
u4SensorFullWidth = sensorStaticInfo[0].captureWidth;
u4SensorFullHeight = sensorStaticInfo[0].captureHeight;
MY_LOGD("Sensor resolution, Prv(%d,%d),Full(%d,%d)\n",u4SensorHalfWidth,
u4SensorHalfHeight, u4SensorFullWidth, u4SensorFullHeight);
//mSensorModeNum = sensorStaticInfo[0].SensorModeNum;
//======================================================
// Sensor power on
//======================================================
mpSensorHal->powerOn(mSensorCallerName, 1, &mSensorIndex);
//====== Get Sensor Size ======
if (mode == 0)
{
u4SensorWidth = u4SensorHalfWidth;
u4SensorHeight = u4SensorHalfHeight;
}
else
{
u4SensorWidth = u4SensorFullWidth;
u4SensorHeight = u4SensorFullHeight;
}
IHalSensor::ConfigParam configParam[2];
configParam[0].index = mSensorIndex;
configParam[0].isBypassScenario = 0;
configParam[0].isContinuous = 1;
configParam[0].HDRMode = 0;
configParam[0].framerate = 0;
configParam[0].twopixelOn = 0;
configParam[0].debugMode = 0; //1 for output test model from seninf
if (mode == 0)
{
configParam[0].scenarioId = SENSOR_SCENARIO_ID_NORMAL_PREVIEW;
configParam[0].crop = MSize(sensorStaticInfo[0].previewWidth, sensorStaticInfo[0].previewHeight);
}
else
{ // sensor full size
configParam[0].scenarioId = SENSOR_SCENARIO_ID_NORMAL_CAPTURE;
configParam[0].crop = MSize(sensorStaticInfo[0].captureWidth, sensorStaticInfo[0].captureHeight);
}
mpSensorHal->configure(1, &configParam[0]);
mpSensorHal->querySensorDynamicInfo(mSensorDev, &sensorDynamicInfo[0]);
if (m_TestCase == 0)
{
MINT32 u32Enable = 1;
mpSensorHal->sendCommand(mSensorDev,
SENSOR_CMD_SET_TEST_PATTERN_OUTPUT,
(MUINTPTR)&u32Enable,
0,
0);
MY_LOGD("Sensor Test Pattern");
}
MY_LOGD("X\n");
return 0;
}
MBOOL
EngBufHandlerImpl::
dequeBuffer(MUINT32 const data, ImgRequest * pImgReq)
{
Mutex::Autolock _l(mLock);
//
MBOOL isDequeProvider = MFALSE;
MBOOL doCacheInvalid = MFALSE;
MINT32 bufQueIdx = mapNode2Dst(data);
ImgBufQueNode node;
list<MAP_PORT_INFO>::iterator iterMapPort;
//
#if 0
MY_LOGD("data(0x%08X)",data);
#endif
//
if(bufQueIdx == -1)
{
return MFALSE;
}
//
for(iterMapPort = mlMapPort[bufQueIdx].begin(); iterMapPort != mlMapPort[bufQueIdx].end(); iterMapPort++)
{
#if 0
MY_LOGD("bufQueIdx(%d),data(%d,%d),bufType(%d)",
bufQueIdx,data,
(*iterMapPort).nodeType,
(*iterMapPort).bufType);
#endif
if(data == (*iterMapPort).nodeType)
{
sp<IImgBufProvider> bufProvider = NULL;
pImgReq->mUsage = NSIoPipe::EPortCapbility_None;
switch((*iterMapPort).bufType)
{
case eBuf_Disp:
{
bufProvider = mspImgBufProvidersMgr->getDisplayPvdr();
pImgReq->mUsage = NSIoPipe::EPortCapbility_Disp;
break;
}
case eBuf_Rec:
{
bufProvider = mspImgBufProvidersMgr->getRecCBPvdr();
pImgReq->mUsage = NSIoPipe::EPortCapbility_Rcrd;
break;
}
case eBuf_AP:
{
bufProvider = mspImgBufProvidersMgr->getPrvCBPvdr();
doCacheInvalid = MTRUE;
break;
}
case eBuf_Generic:
{
bufProvider = mspImgBufProvidersMgr->getGenericBufPvdr();
break;
}
case eBuf_FD:
{
bufProvider = mspImgBufProvidersMgr->getFDBufPvdr();
break;
}
case eBuf_OT:
{
bufProvider = mspImgBufProvidersMgr->getOTBufPvdr();
break;
}
default:
{
MY_LOGE("un-supported bufType(%d)",(*iterMapPort).bufType);
return MFALSE;
}
}
//
if(bufProvider != 0 && bufProvider->dequeProvider(node))
{
node.setCookieDE((*iterMapPort).bufType);
mvBufQueNode[bufQueIdx].push_back(node);
isDequeProvider = MTRUE;
break;
}
}
}
//
if(isDequeProvider)
{
size_t bufStridesInBytes[] = { GET_IIMGBUF_IMG_STRIDE_IN_BYTE(node.getImgBuf(), 0),
GET_IIMGBUF_IMG_STRIDE_IN_BYTE(node.getImgBuf(), 1),
GET_IIMGBUF_IMG_STRIDE_IN_BYTE(node.getImgBuf(), 2)};
size_t bufBoundaryInBytes[] = {0,0,0};
IImageBufferAllocator::ImgParam imgParam = IImageBufferAllocator::ImgParam(
Format::queryImageFormat(node.getImgBuf()->getImgFormat().string()),
MSize(
node.getImgBuf()->getImgWidth(),
node.getImgBuf()->getImgHeight()),
bufStridesInBytes,
bufBoundaryInBytes,
Format::queryPlaneCount(Format::queryImageFormat(node.getImgBuf()->getImgFormat().string())));
PortBufInfo_v1 portBufInfo = PortBufInfo_v1(
node.getImgBuf()->getIonFd(),
(MUINTPTR)node.getImgBuf()->getVirAddr(),
0,
node.getImgBuf()->getBufSecu(),
node.getImgBuf()->getBufCohe());
//
sp<ImageBufferHeap> pHeap = ImageBufferHeap::create(
LOG_TAG,
imgParam,
portBufInfo,
mbEnableIImageBufferLog);
if(pHeap == 0)
{
MY_LOGE("pHeap is NULL");
return MFALSE;
}
//
IImageBuffer* tempBuffer = pHeap->createImageBuffer();
tempBuffer->incStrong(tempBuffer);
tempBuffer->lockBuf(
LOG_TAG,
eBUFFER_USAGE_HW_CAMERA_READWRITE | eBUFFER_USAGE_SW_READ_OFTEN);
if( doCacheInvalid )
{
if( !tempBuffer->syncCache(eCACHECTRL_INVALID) )
MY_LOGE("invalid cache failed imgbuf 0x%x", tempBuffer);
}
pImgReq->mBuffer = tempBuffer;
if(mbIsForceRotation)
{
pImgReq->mTransform = mRotationAnagle == 0 ? 0
: mRotationAnagle == 90 ? eTransform_ROT_90
: mRotationAnagle == 180 ? eTransform_ROT_180 : eTransform_ROT_270;
}
else
{
pImgReq->mTransform = node.getRotation() == 0 ? 0
: node.getRotation() == 90 ? eTransform_ROT_90
: node.getRotation() == 180 ? eTransform_ROT_180 : eTransform_ROT_270;
}
//
#if 0
MY_LOGD("Node:DE(%d),VA(0x%08X),S(%d),Id(%d)",
node.getCookieDE(),
(MUINT32)node.getImgBuf()->getVirAddr(),
node.getImgBuf()->getBufSize(),
node.getImgBuf()->getIonFd());
MY_LOGD("Node:F(%s),W(%d),H(%d),Str(%d,%d,%d),Rot(%d)",
node.getImgBuf()->getImgFormat().string(),
node.getImgBuf()->getImgWidth(),
node.getImgBuf()->getImgHeight(),
GET_IIMGBUF_IMG_W_STRIDE(node.getImgBuf(), 0),
GET_IIMGBUF_IMG_W_STRIDE(node.getImgBuf(), 1),
GET_IIMGBUF_IMG_W_STRIDE(node.getImgBuf(), 2),
node.getRotation());
#endif
//
#if 1
MY_LOGD("buf(%p),heap(%p),VA(0x%08X/0x%08X/0x%08X),PA(0x%08X/0x%08X/0x%08X),BS(%d=%d+%d+%d),Id(%d),F(0x%08X),S(%dx%d),Str(%d,%d,%d),R(%d),U(%d)",
pImgReq->mBuffer,
pImgReq->mBuffer->getImageBufferHeap(),
GET_IIMAGEBUFFER_BUF_VA(pImgReq->mBuffer, 0),
GET_IIMAGEBUFFER_BUF_VA(pImgReq->mBuffer, 1),
GET_IIMAGEBUFFER_BUF_VA(pImgReq->mBuffer, 2),
GET_IIMAGEBUFFER_BUF_PA(pImgReq->mBuffer, 0),
GET_IIMAGEBUFFER_BUF_PA(pImgReq->mBuffer, 1),
GET_IIMAGEBUFFER_BUF_PA(pImgReq->mBuffer, 2),
( GET_IIMAGEBUFFER_BUF_SIZE(pImgReq->mBuffer, 0)+
GET_IIMAGEBUFFER_BUF_SIZE(pImgReq->mBuffer, 1)+
GET_IIMAGEBUFFER_BUF_SIZE(pImgReq->mBuffer, 2)),
GET_IIMAGEBUFFER_BUF_SIZE(pImgReq->mBuffer, 0),
GET_IIMAGEBUFFER_BUF_SIZE(pImgReq->mBuffer, 1),
GET_IIMAGEBUFFER_BUF_SIZE(pImgReq->mBuffer, 2),
pImgReq->mBuffer->getFD(),
pImgReq->mBuffer->getImgFormat(),
pImgReq->mBuffer->getImgSize().w,
pImgReq->mBuffer->getImgSize().h,
GET_IIMAGEBUFFER_BUF_STRIDE_IN_BYTE(pImgReq->mBuffer, 0),
GET_IIMAGEBUFFER_BUF_STRIDE_IN_BYTE(pImgReq->mBuffer, 1),
GET_IIMAGEBUFFER_BUF_STRIDE_IN_BYTE(pImgReq->mBuffer, 2),
pImgReq->mTransform,
pImgReq->mUsage);
#endif
//
return MTRUE;
}
//
#if 0
MY_LOGD("empty data(0x%08X)",data);
#endif
return MFALSE;
}
MImagePV()
{
sws = nullptr;
lastCvtFmt = -1;
lastCvtSize = MSize(0,0);
}
MVOID HalSensorList::querySensorDrvInfo()
{
MUINT i = 0, ret = 0;
MINT sensorDev;
SensorDrv *const pSensorDrv = SensorDrv::get();
#ifdef MTK_MAIN2_IMGSENSOR
for (sensorDev = SENSOR_MAIN; sensorDev <= SENSOR_MAIN_2; sensorDev <<= 1) {
#else
#ifdef MTK_SUB_IMGSENSOR
for (sensorDev = SENSOR_MAIN; sensorDev <= SENSOR_SUB; sensorDev <<= 1) {
#else
for (sensorDev = SENSOR_MAIN; sensorDev < SENSOR_SUB; sensorDev <<= 1) {
#endif
#endif
pSensorDrv->init((SENSOR_DEV_ENUM)sensorDev);
pSensorDrv->getInfo2((SENSOR_DEV_ENUM)sensorDev,&sensorDrvInfo[i]);
ret = getRawInfo((SENSOR_DEV_ENUM)sensorDev, &sensorRawInfo[i]);
i++;
pSensorDrv->uninit();
}
querySensorInfo();//to remap data
}
MUINT HalSensorList::getRawInfo(SENSOR_DEV_ENUM sensorDevId, SENSOR_HAL_RAW_INFO_STRUCT *pInfo)
{
MUINT32 ret = 0;
SensorDrv *const pSensorDrv = SensorDrv::get();
switch(sensorDevId) {
case SENSOR_MAIN:
pInfo->u1Order = sensorDrvInfo[0].SensorOutputDataFormat;
break;
case SENSOR_SUB:
pInfo->u1Order = sensorDrvInfo[1].SensorOutputDataFormat;
break;
case SENSOR_MAIN_2:
pInfo->u1Order = sensorDrvInfo[2].SensorOutputDataFormat;
break;
default:
break;
}
/* Modify getSensorType from getInfo Ioctl to directly compute sensorType from pInfo->u1Order
//sensorType = pSensorDrv->getCurrentSensorType(sensorDevId);
*/
// Compute sensorType from SensorOutputDataFormat
if (pInfo->u1Order >= SENSOR_OUTPUT_FORMAT_RAW_B &&
pInfo->u1Order <= SENSOR_OUTPUT_FORMAT_RAW_R) {
pInfo->sensorType = IMAGE_SENSOR_TYPE_RAW;
}
else if (pInfo->u1Order >= SENSOR_OUTPUT_FORMAT_RAW8_B &&
pInfo->u1Order <= SENSOR_OUTPUT_FORMAT_RAW8_R) {
pInfo->sensorType = IMAGE_SENSOR_TYPE_RAW8;
}
else if (pInfo->u1Order >= SENSOR_OUTPUT_FORMAT_UYVY &&
pInfo->u1Order <= SENSOR_OUTPUT_FORMAT_YVYU) {
pInfo->sensorType = IMAGE_SENSOR_TYPE_YUV;
}
else if (pInfo->u1Order >= SENSOR_OUTPUT_FORMAT_CbYCrY &&
pInfo->u1Order <= SENSOR_OUTPUT_FORMAT_YCrYCb) {
pInfo->sensorType = IMAGE_SENSOR_TYPE_YCBCR;
}
else {
MY_LOGE("Unsupport SensorOutputDataFormat \n");
}
MY_LOGD("SensorOutputDataFormat: %d, ImageSensor Type: %d\n", pInfo->u1Order, pInfo->sensorType);
switch (pInfo->sensorType) {
case IMAGE_SENSOR_TYPE_RAW:
pInfo->u4BitDepth = 10;
pInfo->u4IsPacked = 1;
break;
case IMAGE_SENSOR_TYPE_RAW8:
pInfo->u4BitDepth = 8;
pInfo->u4IsPacked = 1;
break;
case IMAGE_SENSOR_TYPE_RAW12:
pInfo->u4BitDepth = 12;
pInfo->u4IsPacked = 1;
break;
case IMAGE_SENSOR_TYPE_RAW14:
pInfo->u4BitDepth = 14;
pInfo->u4IsPacked = 1;
break;
case IMAGE_SENSOR_TYPE_YUV:
case IMAGE_SENSOR_TYPE_YCBCR:
pInfo->u4BitDepth = 8;
pInfo->u4IsPacked = 0;
break;
case IMAGE_SENSOR_TYPE_RGB565:
pInfo->u4BitDepth = 8;
pInfo->u4IsPacked = 0;
break;
default:
MY_LOGE("Unsupport Sensor Type \n");
break;
}
return ret;
}
MVOID HalSensorList::querySensorInfo()
{
MUINT idx;
//MUINT32 data1,data2;
MUINTPTR data1,data2;
SensorDrv *const pSensorDrv = SensorDrv::get();
#ifdef MTK_MAIN2_IMGSENSOR
for(idx=0; idx<3; idx++) {
#else
#ifdef MTK_SUB_IMGSENSOR
for(idx=0; idx<2; idx++) {
#else
for(idx=0; idx<1; idx++) {
#endif
#endif
switch (idx) {
case 0:
pSensorDrv->init(SENSOR_MAIN);
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_MCLK_CONNECTION, (MUINTPTR)&data1);
sensorPara[idx].mclkSrc = data1;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_MIPI_SENSOR_PORT, (MUINTPTR)&data1);
sensorPara[idx].mipiPad = data1;
sensorStaticInfo[idx].sensorDevID = pSensorDrv->getMainSensorID();
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_SENSOR_ORIENTATION_ANGLE, (MUINTPTR)&data1);
sensorStaticInfo[idx].orientationAngle = data1;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_SENSOR_FACING_DIRECTION, (MUINTPTR)&data1);
sensorStaticInfo[idx].facingDirection = data1;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_FAKE_ORIENTATION, (MUINTPTR)&data1);
sensorStaticInfo[idx].fakeOrientation = data1;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_SENSOR_VIEWANGLE, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].horizontalViewAngle =data1;
sensorStaticInfo[idx].verticalViewAngle = data2;
data1 = SENSOR_SCENARIO_ID_NORMAL_PREVIEW;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].previewFrameRate = data2;
data1 = SENSOR_SCENARIO_ID_NORMAL_CAPTURE;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].captureFrameRate = data2;
data1 = SENSOR_SCENARIO_ID_NORMAL_VIDEO;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].videoFrameRate = data2;
data1 = SENSOR_SCENARIO_ID_SLIM_VIDEO1;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video1FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_SLIM_VIDEO2;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM1;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM2;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM3;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM4;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM5;
pSensorDrv->sendCommand(SENSOR_MAIN, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
pSensorDrv->uninit();
break;
case 1:
pSensorDrv->init(SENSOR_SUB);
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_MCLK_CONNECTION, (MUINTPTR)&data1);
sensorPara[idx].mclkSrc = data1;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_MIPI_SENSOR_PORT, (MUINTPTR)&data1);
sensorPara[idx].mipiPad = data1;
sensorStaticInfo[idx].sensorDevID = pSensorDrv->getSubSensorID();
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_SENSOR_ORIENTATION_ANGLE, (MUINTPTR)&data1);
sensorStaticInfo[idx].orientationAngle = data1;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_SENSOR_FACING_DIRECTION, (MUINTPTR)&data1);
sensorStaticInfo[idx].facingDirection = data1;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_FAKE_ORIENTATION, (MUINTPTR)&data1);
sensorStaticInfo[idx].fakeOrientation = data1;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_SENSOR_VIEWANGLE, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].horizontalViewAngle =data1;
sensorStaticInfo[idx].verticalViewAngle = data2;
data1 = SENSOR_SCENARIO_ID_NORMAL_PREVIEW;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].previewFrameRate = data2;
data1 = SENSOR_SCENARIO_ID_NORMAL_CAPTURE;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].captureFrameRate = data2;
data1 = SENSOR_SCENARIO_ID_NORMAL_VIDEO;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].videoFrameRate = data2;
data1 = SENSOR_SCENARIO_ID_SLIM_VIDEO1;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video1FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_SLIM_VIDEO2;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM1;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM2;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM3;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM4;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM5;
pSensorDrv->sendCommand(SENSOR_SUB, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
pSensorDrv->uninit();
break;
case 2:
pSensorDrv->init(SENSOR_MAIN_2);
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_MCLK_CONNECTION, (MUINTPTR)&data1);
sensorPara[idx].mclkSrc = data1;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_MIPI_SENSOR_PORT, (MUINTPTR)&data1);
sensorPara[idx].mipiPad = data1;
sensorStaticInfo[idx].sensorDevID = pSensorDrv->getMain2SensorID();
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_SENSOR_ORIENTATION_ANGLE, (MUINTPTR)&data1);
sensorStaticInfo[idx].orientationAngle = data1;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_SENSOR_FACING_DIRECTION, (MUINTPTR)&data1);
sensorStaticInfo[idx].facingDirection = data1;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_FAKE_ORIENTATION, (MUINTPTR)&data1);
sensorStaticInfo[idx].fakeOrientation = data1;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_SENSOR_VIEWANGLE, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].horizontalViewAngle =data1;
sensorStaticInfo[idx].verticalViewAngle = data2;
data1 = SENSOR_SCENARIO_ID_NORMAL_PREVIEW;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].previewFrameRate = data2;
data1 = SENSOR_SCENARIO_ID_NORMAL_CAPTURE;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].captureFrameRate = data2;
data1 = SENSOR_SCENARIO_ID_NORMAL_VIDEO;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].videoFrameRate = data2;
data1 = SENSOR_SCENARIO_ID_SLIM_VIDEO1;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video1FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_SLIM_VIDEO2;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM1;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM2;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM3;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM4;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
data1 = SENSOR_SCENARIO_ID_CUSTOM5;
pSensorDrv->sendCommand(SENSOR_MAIN_2, CMD_SENSOR_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (MUINTPTR)&data1, (MUINTPTR)&data2);
sensorStaticInfo[idx].video2FrameRate = data2;
pSensorDrv->uninit();
break;
default:
break;
}
switch (sensorRawInfo[idx].sensorType) {
case IMAGE_SENSOR_TYPE_RAW:
sensorStaticInfo[idx].sensorType = SENSOR_TYPE_RAW;
sensorStaticInfo[idx].rawSensorBit = RAW_SENSOR_10BIT;
break;
case IMAGE_SENSOR_TYPE_RAW8:
sensorStaticInfo[idx].sensorType = SENSOR_TYPE_RAW;
sensorStaticInfo[idx].rawSensorBit = RAW_SENSOR_8BIT;
break;
case IMAGE_SENSOR_TYPE_RAW12:
sensorStaticInfo[idx].sensorType = SENSOR_TYPE_RAW;
sensorStaticInfo[idx].rawSensorBit = RAW_SENSOR_12BIT;
break;
case IMAGE_SENSOR_TYPE_RAW14:
sensorStaticInfo[idx].sensorType = SENSOR_TYPE_RAW;
sensorStaticInfo[idx].rawSensorBit = RAW_SENSOR_14BIT;
break;
case IMAGE_SENSOR_TYPE_YUV:
case IMAGE_SENSOR_TYPE_YCBCR:
sensorStaticInfo[idx].sensorType = SENSOR_TYPE_YUV;
sensorStaticInfo[idx].rawSensorBit = RAW_SENSOR_ERROR;
break;
case IMAGE_SENSOR_TYPE_RGB565:
sensorStaticInfo[idx].sensorType = SENSOR_TYPE_RGB;
sensorStaticInfo[idx].rawSensorBit = RAW_SENSOR_ERROR;
break;
case IMAGE_SENSOR_TYPE_JPEG:
sensorStaticInfo[idx].sensorType = SENSOR_TYPE_JPEG;
sensorStaticInfo[idx].rawSensorBit = RAW_SENSOR_ERROR;
break;
default:
sensorStaticInfo[idx].sensorType = SENSOR_TYPE_UNKNOWN;
sensorStaticInfo[idx].rawSensorBit = RAW_SENSOR_ERROR;
break;
}
switch (sensorRawInfo[idx].u1Order) {
case SENSOR_OUTPUT_FORMAT_RAW_B:
case SENSOR_OUTPUT_FORMAT_RAW8_B:
sensorStaticInfo[idx].sensorFormatOrder = SENSOR_FORMAT_ORDER_RAW_B;
break;
case SENSOR_OUTPUT_FORMAT_RAW_Gb:
case SENSOR_OUTPUT_FORMAT_RAW8_Gb:
sensorStaticInfo[idx].sensorFormatOrder = SENSOR_FORMAT_ORDER_RAW_Gb;
break;
case SENSOR_OUTPUT_FORMAT_RAW_Gr:
case SENSOR_OUTPUT_FORMAT_RAW8_Gr:
sensorStaticInfo[idx].sensorFormatOrder = SENSOR_FORMAT_ORDER_RAW_Gr;
break;
case SENSOR_OUTPUT_FORMAT_RAW_R:
case SENSOR_OUTPUT_FORMAT_RAW8_R:
sensorStaticInfo[idx].sensorFormatOrder = SENSOR_FORMAT_ORDER_RAW_R;
break;
case SENSOR_OUTPUT_FORMAT_UYVY:
case SENSOR_OUTPUT_FORMAT_CbYCrY:
sensorStaticInfo[idx].sensorFormatOrder = SENSOR_FORMAT_ORDER_UYVY;
break;
case SENSOR_OUTPUT_FORMAT_VYUY:
case SENSOR_OUTPUT_FORMAT_CrYCbY:
sensorStaticInfo[idx].sensorFormatOrder = SENSOR_FORMAT_ORDER_VYUY;
break;
case SENSOR_OUTPUT_FORMAT_YUYV:
case SENSOR_OUTPUT_FORMAT_YCbYCr:
sensorStaticInfo[idx].sensorFormatOrder = SENSOR_FORMAT_ORDER_YUYV;
break;
case SENSOR_OUTPUT_FORMAT_YVYU:
case SENSOR_OUTPUT_FORMAT_YCrYCb:
sensorStaticInfo[idx].sensorFormatOrder = SENSOR_FORMAT_ORDER_YVYU;
break;
default:
sensorStaticInfo[idx].sensorFormatOrder = SENSOR_FORMAT_ORDER_NONE;
break;
}
sensorStaticInfo[idx].iHDRSupport = sensorDrvInfo[idx].iHDRSupport;
sensorStaticInfo[idx].PDAF_Support = sensorDrvInfo[idx].PDAF_Support;
sensorStaticInfo[idx].previewWidth = sensorDrvInfo[idx].SensorPreviewWidth;
sensorStaticInfo[idx].previewHeight = sensorDrvInfo[idx].SensorPreviewHeight;
sensorStaticInfo[idx].captureWidth = sensorDrvInfo[idx].SensorCapWidth;
sensorStaticInfo[idx].captureHeight = sensorDrvInfo[idx].SensorCapHeight;
sensorStaticInfo[idx].videoWidth = sensorDrvInfo[idx].SensorVideoWidth;
sensorStaticInfo[idx].videoHeight = sensorDrvInfo[idx].SensorVideoHeight;
sensorStaticInfo[idx].video1Width = sensorDrvInfo[idx].SensorVideo1Width;
sensorStaticInfo[idx].video1Height = sensorDrvInfo[idx].SensorVideo1Height;
sensorStaticInfo[idx].video2Width = sensorDrvInfo[idx].SensorVideo2Width;
sensorStaticInfo[idx].video2Height = sensorDrvInfo[idx].SensorVideo2Height;
sensorStaticInfo[idx].SensorCustom1Width = sensorDrvInfo[idx].SensorCustom1Width;
sensorStaticInfo[idx].SensorCustom1Height = sensorDrvInfo[idx].SensorCustom1Height;
sensorStaticInfo[idx].SensorCustom2Width = sensorDrvInfo[idx].SensorCustom2Width;
sensorStaticInfo[idx].SensorCustom2Height = sensorDrvInfo[idx].SensorCustom2Height;
sensorStaticInfo[idx].SensorCustom3Width = sensorDrvInfo[idx].SensorCustom3Width;
sensorStaticInfo[idx].SensorCustom3Height = sensorDrvInfo[idx].SensorCustom3Height;
sensorStaticInfo[idx].SensorCustom4Width = sensorDrvInfo[idx].SensorCustom4Width;
sensorStaticInfo[idx].SensorCustom4Height = sensorDrvInfo[idx].SensorCustom4Height;
sensorStaticInfo[idx].SensorCustom5Width = sensorDrvInfo[idx].SensorCustom5Width;
sensorStaticInfo[idx].SensorCustom5Height = sensorDrvInfo[idx].SensorCustom5Height;
sensorStaticInfo[idx].previewDelayFrame = sensorDrvInfo[idx].PreviewDelayFrame;
sensorStaticInfo[idx].captureDelayFrame = sensorDrvInfo[idx].CaptureDelayFrame;
sensorStaticInfo[idx].videoDelayFrame = sensorDrvInfo[idx].VideoDelayFrame;
sensorStaticInfo[idx].video1DelayFrame = sensorDrvInfo[idx].HighSpeedVideoDelayFrame;
sensorStaticInfo[idx].video2DelayFrame = sensorDrvInfo[idx].SlimVideoDelayFrame;
sensorStaticInfo[idx].Custom1DelayFrame = sensorDrvInfo[idx].Custom1DelayFrame;
sensorStaticInfo[idx].Custom2DelayFrame = sensorDrvInfo[idx].Custom2DelayFrame;
sensorStaticInfo[idx].Custom3DelayFrame = sensorDrvInfo[idx].Custom3DelayFrame;
sensorStaticInfo[idx].Custom4DelayFrame = sensorDrvInfo[idx].Custom4DelayFrame;
sensorStaticInfo[idx].Custom5DelayFrame = sensorDrvInfo[idx].Custom5DelayFrame;
sensorStaticInfo[idx].aeShutDelayFrame = sensorDrvInfo[idx].AEShutDelayFrame;
sensorStaticInfo[idx].aeSensorGainDelayFrame = sensorDrvInfo[idx].AESensorGainDelayFrame;
sensorStaticInfo[idx].aeISPGainDelayFrame = sensorDrvInfo[idx].AEISPGainDelayFrame;
sensorStaticInfo[idx].previewActiveWidth = sensorDrvInfo[idx].SensorEffectivePreviewWidth;//3d use onlyl?
sensorStaticInfo[idx].previewActiveHeight = sensorDrvInfo[idx].SensorEffectivePreviewHeight;//3d use onlyl?
sensorStaticInfo[idx].captureActiveWidth = sensorDrvInfo[idx].SensorEffectiveCapWidth;//3d use onlyl?
sensorStaticInfo[idx].captureActiveHeight = sensorDrvInfo[idx].SensorEffectiveCapHeight;//3d use onlyl?
sensorStaticInfo[idx].videoActiveWidth = sensorDrvInfo[idx].SensorEffectiveVideoWidth;//3d use onlyl?
sensorStaticInfo[idx].videowActiveHeight = sensorDrvInfo[idx].SensorEffectiveVideoHeight;//3d use onlyl?
sensorStaticInfo[idx].previewHoizontalOutputOffset = sensorDrvInfo[idx].SensorPreviewWidthOffset;//3d use onlyl?
sensorStaticInfo[idx].previewVerticalOutputOffset = sensorDrvInfo[idx].SensorPreviewHeightOffset; //3d use onlyl?
sensorStaticInfo[idx].captureHoizontalOutputOffset = sensorDrvInfo[idx].SensorCapWidthOffset;//3d use onlyl?
sensorStaticInfo[idx].captureVerticalOutputOffset = sensorDrvInfo[idx].SensorCapHeightOffset; //3d use onlyl?
sensorStaticInfo[idx].videoHoizontalOutputOffset = sensorDrvInfo[idx].SensorVideoWidthOffset;//3d use onlyl?
sensorStaticInfo[idx].videoVerticalOutputOffset = sensorDrvInfo[idx].SensorVideoHeightOffset; //3d use onlyl?
sensorStaticInfo[idx].virtualChannelSupport = sensorDrvInfo[idx].virtualChannelSupport;
sensorStaticInfo[idx].iHDR_First_IS_LE = sensorDrvInfo[idx].iHDR_First_IS_LE;
sensorStaticInfo[idx].SensorModeNum = sensorDrvInfo[idx].SensorModeNum;
}
MY_LOGD("MCLK Source: Main = %d, Sub = %d, Main_2 =%d\n",sensorPara[0].mclkSrc,sensorPara[1].mclkSrc,sensorPara[2].mclkSrc);
MY_LOGD("MIPI pad: Main = %d, Sub = %d, Main_2 =%d\n",sensorPara[0].mipiPad,sensorPara[1].mipiPad,sensorPara[2].mipiPad);
}
MVOID HalSensorList::buildSensorMetadata()
{
MINT idx;
MINT64 exposureTime1 = 0x4000;
MINT64 exposureTime2 = 0x4000;
MUINT8 u8Para = 0;
MINT32 s32Para = 0;
MY_LOGD("impBuildSensorInfo start!\n");
#ifdef MTK_MAIN2_IMGSENSOR
for(idx=0; idx<3; idx++) {
#else
#ifdef MTK_SUB_IMGSENSOR
for(idx=0; idx<2; idx++) {
#else
for(idx=0; idx<1; idx++) {
#endif
#endif
IMetadata& metadataA = gSensorMetadata[idx];
{
IMetadata::IEntry entryA(MTK_SENSOR_EXPOSURE_TIME);
entryA.push_back(exposureTime1, Type2Type<MINT64>());
entryA.push_back(exposureTime2, Type2Type<MINT64>());
metadataA.update(MTK_SENSOR_EXPOSURE_TIME, entryA);
}
{ //using full size?
IMetadata::IEntry entryA(MTK_SENSOR_INFO_ACTIVE_ARRAY_REGION);
MRect region1(MPoint(sensorStaticInfo[idx].captureHoizontalOutputOffset,sensorStaticInfo[idx].captureVerticalOutputOffset), MSize(sensorStaticInfo[idx].captureWidth,sensorStaticInfo[idx].captureHeight));
entryA.push_back(region1, Type2Type<MRect>());
metadataA.update(MTK_SENSOR_INFO_ACTIVE_ARRAY_REGION, entryA);
}
{
IMetadata::IEntry entryA(MTK_SENSOR_INFO_COLOR_FILTER_ARRANGEMENT);
switch(sensorStaticInfo[idx].sensorFormatOrder) {
case SENSOR_FORMAT_ORDER_RAW_B:
u8Para = 0x3;//BGGR
break;
case SENSOR_FORMAT_ORDER_RAW_Gb:
u8Para = 0x2;//GBRG
break;
case SENSOR_FORMAT_ORDER_RAW_Gr:
u8Para = 0x1;//GRBG
break;
case SENSOR_FORMAT_ORDER_RAW_R:
u8Para = 0x0;//RGGB
break;
default:
u8Para = 0x4;//BGR not bayer
break;
}
entryA.push_back(u8Para, Type2Type<MUINT8>());
metadataA.update(MTK_SENSOR_INFO_COLOR_FILTER_ARRANGEMENT, entryA);
}
{ //need to add query from kernel
IMetadata::IEntry entryA(MTK_SENSOR_INFO_EXPOSURE_TIME_RANGE);
entryA.push_back(3000, Type2Type<MINT64>());
entryA.push_back(3000000000, Type2Type<MINT64>());
metadataA.update(MTK_SENSOR_INFO_EXPOSURE_TIME_RANGE, entryA);
}
{ //need to add query from kernel
IMetadata::IEntry entryA(MTK_SENSOR_INFO_MAX_FRAME_DURATION);
entryA.push_back(50000000000, Type2Type<MINT64>());
metadataA.update(MTK_SENSOR_INFO_MAX_FRAME_DURATION, entryA);
}
{ //need to add query from kernel
IMetadata::IEntry entryA(MTK_SENSOR_INFO_PHYSICAL_SIZE);
entryA.push_back(5.82, Type2Type<MFLOAT>());
entryA.push_back(4.76, Type2Type<MFLOAT>());
metadataA.update(MTK_SENSOR_INFO_PHYSICAL_SIZE, entryA);
}
{ //need to add query from kernel
IMetadata::IEntry entryA(MTK_SENSOR_INFO_PIXEL_ARRAY_SIZE);
MSize Size1(4000,3000);
entryA.push_back(Size1, Type2Type<MSize>());
metadataA.update(MTK_SENSOR_INFO_PIXEL_ARRAY_SIZE, entryA);
}
{ //need to add query from kernel
IMetadata::IEntry entryA(MTK_SENSOR_INFO_WHITE_LEVEL);
switch (sensorStaticInfo[idx].rawSensorBit) {
case RAW_SENSOR_8BIT:
s32Para = 256;
break;
case RAW_SENSOR_10BIT:
s32Para = 1024;
break;
case RAW_SENSOR_12BIT:
s32Para = 4096;
break;
case RAW_SENSOR_14BIT:
s32Para = 16384;
break;
default:
s32Para = 256;
break;
}
entryA.push_back(s32Para, Type2Type<MINT32>());
metadataA.update(MTK_SENSOR_INFO_WHITE_LEVEL, entryA);
}
{
IMetadata::IEntry entryA(MTK_SENSOR_INFO_ORIENTATION);
entryA.push_back((MINT32)sensorStaticInfo[idx].orientationAngle, Type2Type<MINT32>());
metadataA.update(MTK_SENSOR_INFO_ORIENTATION, entryA);
}
{
IMetadata::IEntry entryA(MTK_SENSOR_INFO_PACKAGE);
{
IMetadata metadataB;
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_SCENARIO_ID);
entryB.push_back((MINT32)SENSOR_SCENARIO_ID_NORMAL_PREVIEW,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_SCENARIO_ID, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_FRAME_RATE);
entryB.push_back((MINT32)sensorStaticInfo[idx].previewFrameRate,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_FRAME_RATE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE);
MSize size1(sensorStaticInfo[idx].previewWidth,sensorStaticInfo[idx].previewHeight);
entryB.push_back(size1,Type2Type<MSize>());
metadataB.update(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY);
MRect region1(MPoint(0,0), MSize(sensorStaticInfo[idx].previewWidth,sensorStaticInfo[idx].previewHeight));
entryB.push_back(region1,Type2Type<MRect>());
metadataB.update(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY, entryB);
}
entryA.push_back(metadataB,Type2Type<IMetadata>());
}
{
IMetadata metadataB;
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_SCENARIO_ID);
entryB.push_back((MINT32)SENSOR_SCENARIO_ID_NORMAL_CAPTURE,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_SCENARIO_ID, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_FRAME_RATE);
entryB.push_back((MINT32)sensorStaticInfo[idx].captureFrameRate,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_FRAME_RATE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE);
MSize size1(sensorStaticInfo[idx].captureWidth,sensorStaticInfo[idx].captureHeight);
entryB.push_back(size1,Type2Type<MSize>());
metadataB.update(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY);
MRect region1(MPoint(0,0), MSize(sensorStaticInfo[idx].captureWidth,sensorStaticInfo[idx].captureHeight));
entryB.push_back(region1,Type2Type<MRect>());
metadataB.update(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY, entryB);
}
entryA.push_back(metadataB,Type2Type<IMetadata>());
}
{
IMetadata metadataB;
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_SCENARIO_ID);
entryB.push_back((MINT32)SENSOR_SCENARIO_ID_NORMAL_VIDEO,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_SCENARIO_ID, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_FRAME_RATE);
entryB.push_back((MINT32)sensorStaticInfo[idx].videoFrameRate,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_FRAME_RATE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE);
MSize size1(sensorStaticInfo[idx].videoWidth,sensorStaticInfo[idx].videoHeight);
entryB.push_back(size1,Type2Type<MSize>());
metadataB.update(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY);
MRect region1(MPoint(0,0), MSize(sensorStaticInfo[idx].videoWidth,sensorStaticInfo[idx].videoHeight));
entryB.push_back(region1,Type2Type<MRect>());
metadataB.update(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY, entryB);
}
entryA.push_back(metadataB,Type2Type<IMetadata>());
}
{
IMetadata metadataB;
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_SCENARIO_ID);
entryB.push_back((MINT32)SENSOR_SCENARIO_ID_SLIM_VIDEO1,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_SCENARIO_ID, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_FRAME_RATE);
entryB.push_back((MINT32)sensorStaticInfo[idx].video1FrameRate,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_FRAME_RATE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE);
MSize size1(sensorStaticInfo[idx].video1Width,sensorStaticInfo[idx].video1Height);
entryB.push_back(size1,Type2Type<MSize>());
metadataB.update(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY);
MRect region1(MPoint(0,0), MSize(sensorStaticInfo[idx].video1Width,sensorStaticInfo[idx].video1Height));
entryB.push_back(region1,Type2Type<MRect>());
metadataB.update(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY, entryB);
}
entryA.push_back(metadataB,Type2Type<IMetadata>());
}
{
IMetadata metadataB;
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_SCENARIO_ID);
entryB.push_back((MINT32)SENSOR_SCENARIO_ID_SLIM_VIDEO2,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_SCENARIO_ID, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_FRAME_RATE);
entryB.push_back((MINT32)sensorStaticInfo[idx].video2FrameRate,Type2Type<MINT32>());
metadataB.update(MTK_SENSOR_INFO_FRAME_RATE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE);
MSize size1(sensorStaticInfo[idx].video2Width,sensorStaticInfo[idx].video2Height);
entryB.push_back(size1,Type2Type<MSize>());
metadataB.update(MTK_SENSOR_INFO_REAL_OUTPUT_SIZE, entryB);
}
{
IMetadata::IEntry entryB(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY);
MRect region1(MPoint(0,0), MSize(sensorStaticInfo[idx].video2Width,sensorStaticInfo[idx].video2Height));
entryB.push_back(region1,Type2Type<MRect>());
metadataB.update(MTK_SENSOR_INFO_OUTPUT_REGION_ON_ACTIVE_ARRAY, entryB);
}
entryA.push_back(metadataB,Type2Type<IMetadata>());
}
metadataA.update(MTK_SENSOR_INFO_PACKAGE, entryA);
}
metadataA.sort();
}
MY_LOGD("impBuildSensorInfo end!\n");
}
