MBOOL
ImageTransform::
execute(
ImgBufInfo const rSrcBufInfo,
ImgBufInfo const rDstBufInfo,
Rect const rROI,
MUINT32 const u4Rotation,
MUINT32 const u4Flip,
MUINT32 const u4TimeOutInMs
)
{
FUNCTION_LOG_START;
MtkCamUtils::CamProfile profile("execute", "ImageTransform");
if (!lock(u4TimeOutInMs))
{
MY_LOGE("[execute] lock fail ");
return MFALSE;
}
// (1). Create Instance
#warning [TODO] sensor type ???
ICdpPipe *pCdpPipe = ICdpPipe::createInstance(eSWScenarioID_CAPTURE_NORMAL, eScenarioFmt_RAW);
CHECK_OBJECT(pCdpPipe);
//
if (pCdpPipe != NULL)
{
MY_LOGD("Pipe (Name, ID) = (%s, %d)", pCdpPipe->getPipeName(), pCdpPipe->getPipeId());
}
// (2). Query port property
vector<PortProperty> rInPortProperty;
vector<PortProperty> rOutPortProperty;
if (pCdpPipe->queryPipeProperty(rInPortProperty,rOutPortProperty))
{
MY_LOGD("Port Property (IN, OUT): (%d, %d)", rInPortProperty.size(), rOutPortProperty.size());
for (MUINT32 i = 0; i < rInPortProperty.size(); i++)
{
MY_LOGD("IN: (type, index, inout, fmt, rot, flip) = (%d, %d, %d, %d, %d, %d)",
rInPortProperty.at(i).type, rInPortProperty.at(i).index, rInPortProperty.at(i).inout,
rInPortProperty.at(i).u4SupportFmt, rInPortProperty.at(i).fgIsSupportRotate, rInPortProperty.at(i).fgIsSupportFlip);
}
for (MUINT32 i = 0; i < rOutPortProperty.size(); i++)
{
MY_LOGD("IN: (type, index, inout, fmt, rot, flip) = (%d, %d, %d, %d, %d, %d)",
rOutPortProperty.at(i).type, rOutPortProperty.at(i).index, rOutPortProperty.at(i).inout,
rOutPortProperty.at(i).u4SupportFmt, rOutPortProperty.at(i).fgIsSupportRotate, rOutPortProperty.at(i).fgIsSupportFlip);
}
}
// (3). init
pCdpPipe->init();
// (4). setCallback
pCdpPipe->setCallbacks(NULL, NULL, NULL);
// (5). Config pipe
//
MemoryInPortInfo rMemInPort(ImgInfo(rSrcBufInfo.eImgFmt, rSrcBufInfo.u4ImgWidth, rSrcBufInfo.u4ImgHeight),
0, rSrcBufInfo.u4Stride, Rect(rROI.x, rROI.y, rROI.w, rROI.h));
//
MemoryOutPortInfo rVdoPort(ImgInfo(rDstBufInfo.eImgFmt, rDstBufInfo.u4ImgWidth, rDstBufInfo.u4ImgHeight),
rDstBufInfo.u4Stride, u4Rotation, u4Flip);
rVdoPort.index = 1;
//
vector<PortInfo const*> vCdpInPorts;
vector<PortInfo const*> vCdpOutPorts;
//
vCdpInPorts.push_back(&rMemInPort);
vCdpOutPorts.push_back(&rVdoPort);
//
pCdpPipe->configPipe(vCdpInPorts, vCdpOutPorts);
// (6). Enqueue, In buf
//
QBufInfo rInBuf;
rInBuf.vBufInfo.clear();
BufInfo rBufInfo(rSrcBufInfo.u4BufSize, rSrcBufInfo.u4BufVA, rSrcBufInfo.u4BufPA, rSrcBufInfo.i4MemID);
rInBuf.vBufInfo.push_back(rBufInfo);
pCdpPipe->enqueBuf(PortID(EPortType_MemoryIn, 0, 0), rInBuf);
//
QBufInfo rOutBuf;
rOutBuf.vBufInfo.clear();
rBufInfo.u4BufSize = rDstBufInfo.u4BufSize;
rBufInfo.u4BufVA = rDstBufInfo.u4BufVA;
rBufInfo.u4BufPA = rDstBufInfo.u4BufPA;
rBufInfo.i4MemID = rDstBufInfo.i4MemID;
//rBufInfo.eMemType = rDstBufInfo.eMemType;
rOutBuf.vBufInfo.push_back(rBufInfo);
pCdpPipe->enqueBuf(PortID(EPortType_MemoryOut, 1, 1), rOutBuf);
//
profile.print();
// (7). start
pCdpPipe->start();
// (8). Dequeue Vdo Out Buf
QTimeStampBufInfo rQVdoOutBuf;
pCdpPipe->dequeBuf(PortID(EPortType_MemoryOut, 1, 1), rQVdoOutBuf);
// (8.1) Dequeue In Buf
QTimeStampBufInfo rQInBUf;
pCdpPipe->dequeBuf(PortID(EPortType_MemoryIn, 0, 0), rQInBUf);
// (9). Stop
pCdpPipe->stop();
// (10). uninit
pCdpPipe->uninit();
// (11). destory instance
pCdpPipe->destroyInstance();
unlock();
profile.print();
//
return 0;
}
/*******************************************************************************
* Cdp 1 IN / 2 Out
********************************************************************************/
int main_testCDP(IMEM_BUF_INFO rInMem, int width, int height, int format)
{
MY_LOGD("+");
// (1). Create Instance
ICdpPipe *pCdpPipe = ICdpPipe::createInstance(eSWScenarioID_CAPTURE_NORMAL, eScenarioFmt_RAW);
if (pCdpPipe != NULL)
{
MY_LOGD("Pipe (Name, ID, IDName) = (%s, %d)", pCdpPipe->getPipeName(), pCdpPipe->getPipeId());
}
// (2). Query port property
vector<PortProperty> rInPortProperty;
vector<PortProperty> rOutPortProperty;
if (pCdpPipe->queryPipeProperty(rInPortProperty,rOutPortProperty))
{
MY_LOGD("Port Property (IN, OUT): (%d, %d)", rInPortProperty.size(), rOutPortProperty.size());
for (MUINT32 i = 0; i < rInPortProperty.size(); i++)
{
MY_LOGD("IN: (type,index,inout) = (%d, %d, %d)", rInPortProperty.at(i).type, rInPortProperty.at(i).index, rInPortProperty.at(i).inout);
MY_LOGD("IN: (fmt, rot, flip) = (%d, %d, %d)", rInPortProperty.at(i).u4SupportFmt,
rInPortProperty.at(i).fgIsSupportRotate, rInPortProperty.at(i).fgIsSupportFlip);
}
for (MUINT32 i = 0; i < rOutPortProperty.size(); i++)
{
MY_LOGD("OUT: (type,index,inout) = (%d, %d, %d)", rOutPortProperty.at(i).type, rOutPortProperty.at(i).index, rOutPortProperty.at(i).inout);
MY_LOGD("OUT: (fmt, rot, flip) = (%d, %d, %d)", rOutPortProperty.at(i).u4SupportFmt,
rOutPortProperty.at(i).fgIsSupportRotate, rOutPortProperty.at(i).fgIsSupportFlip);
}
}
// (3). init
pCdpPipe->init();
// (4). setCallback
pCdpPipe->setCallbacks(NULL, NULL, NULL);
// (5). Config pipe
//
MUINT32 u4YuvStride[3] = {width, 0, 0};
MemoryInPortInfo rMemInPort(ImgInfo(eImgFmt_YUY2, width, height),
0, u4YuvStride, Rect(0, 0, width, height));
//
MemoryOutPortInfo rDispPort(ImgInfo(eImgFmt_NV21, width, height),
u4YuvStride, 0, 0);
MUINT32 u4VdoStride[3] = {320, 0, 0};
MemoryOutPortInfo rVdoPort(ImgInfo(eImgFmt_NV21, 320, 240),
u4VdoStride, 0, 0);
rVdoPort.index = 1;
//
vector<PortInfo const*> vCdpInPorts;
vector<PortInfo const*> vCdpOutPorts;
//
vCdpInPorts.push_back(&rMemInPort);
vCdpOutPorts.push_back(&rDispPort);
vCdpOutPorts.push_back(&rVdoPort);
//
pCdpPipe->configPipe(vCdpInPorts, vCdpOutPorts);
// (6). Enqueue, In buf
//
QBufInfo rInBuf;
rInBuf.vBufInfo.clear();
BufInfo rBufInfo(rInMem.size, rInMem.virtAddr, rInMem.phyAddr, rInMem.memID);
rInBuf.vBufInfo.push_back(rBufInfo);
pCdpPipe->enqueBuf(PortID(EPortType_MemoryIn, 0, 0), rInBuf);
// (6.1) Enqueue, Out Buf
//
IMEM_BUF_INFO rDispMem;
rDispMem.size = ((width * height * 2) + L1_CACHE_BYTES-1) & ~(L1_CACHE_BYTES-1);
allocMem(rDispMem);
//
QBufInfo rOutBuf;
rOutBuf.vBufInfo.clear();
rBufInfo.u4BufSize = rDispMem.size;
rBufInfo.u4BufVA = rDispMem.virtAddr;
rBufInfo.u4BufPA = rDispMem.phyAddr;
rBufInfo.i4MemID = rDispMem.memID;
rOutBuf.vBufInfo.push_back(rBufInfo);
pCdpPipe->enqueBuf(PortID(EPortType_MemoryOut, 0, 1), rOutBuf);
//
IMEM_BUF_INFO rVdoMem;
rVdoMem.size = ((320 * 240 * 2)+ L1_CACHE_BYTES - 1) & ~(L1_CACHE_BYTES - 1);
allocMem(rVdoMem);
//
rOutBuf.vBufInfo.at(0).u4BufSize = rVdoMem.size;
rOutBuf.vBufInfo.at(0).u4BufVA = rVdoMem.virtAddr;
rOutBuf.vBufInfo.at(0).u4BufPA = rVdoMem.phyAddr;
rOutBuf.vBufInfo.at(0).i4MemID = rVdoMem.memID;
pCdpPipe->enqueBuf(PortID(EPortType_MemoryOut, 1, 1), rOutBuf);
// (7). start
pCdpPipe->start();
// (8). Dequeue
QTimeStampBufInfo rQDispOutBuf;
QTimeStampBufInfo rQVdoOutBuf;
QTimeStampBufInfo rQInBuf;
pCdpPipe->dequeBuf(PortID(EPortType_MemoryOut, 0, 1), rQDispOutBuf);
pCdpPipe->dequeBuf(PortID(EPortType_MemoryOut, 1, 1), rQVdoOutBuf);
pCdpPipe->dequeBuf(PortID(EPortType_MemoryIn, 0, 0), rQInBuf);
// (9). Stop
pCdpPipe->stop();
// (10). uninit
pCdpPipe->uninit();
// (11). destory instance
pCdpPipe->destroyInstance();
char filename[256];
sprintf(filename, "/data/disp%dx%d.yuv", width, height);
saveBufToFile(filename, reinterpret_cast<MUINT8*>(rDispMem.virtAddr), width * height * 2);
deallocMem(rDispMem);
sprintf(filename, "/data/vdo%dx%d.yuv", 320, 240);
saveBufToFile(filename, reinterpret_cast<MUINT8*>(rVdoMem.virtAddr), 320 * 240 * 2);
deallocMem(rVdoMem);
//
return 0;
}