Mhal_facebeauty::
Mhal_facebeauty(char const*const pszShotName,
uint32_t const u4ShotMode,
int32_t const i4OpenId)
: ImpShot(pszShotName, u4ShotMode, i4OpenId)
{
MY_LOGD("[Mhal_facebeauty] Mhal_facebeauty +");
halSensorDev_e meSensorDev;
if (i4OpenId == 0) {
meSensorDev = SENSOR_DEV_MAIN;
}
else if (i4OpenId == 1) {
meSensorDev == SENSOR_DEV_SUB;
}
else {
meSensorDev == SENSOR_DEV_NONE;
}
SensorHal* sensor = SensorHal::createInstance();
if(sensor)
sensor->sendCommand(meSensorDev, SENSOR_CMD_GET_SENSOR_TYPE, (int)&meSensorType);
else
MY_LOGE("[Mhal_facebeauty] Can not get sensor object \n");
MY_LOGD("[Mhal_facebeauty] Mhal_facebeauty meSensorType %d \n",meSensorType);
sensor->destroyInstance();
MY_LOGD("[Mhal_facebeauty] Mhal_facebeauty -");
}
bool
Feature::
setupSensorInfo_FromExModule()
{
if ( DevMetaInfo::queryDeviceId(mi4OpenId) == eDevId_AtvSensor )
{
ms8SensorName = DLSYM_MODULE_NAME_COMMON_SENSOR_ATV;
mu4SensorType = NSSensorType::eSensorType_YUV;
MY_LOGW("ATV sensor...return true");
return true;
}
#if '1'!=MTKCAM_HAVE_SENSOR_HAL //++++++++++++++++++++++++++++++++++++++++++
//
#warning "[FIXME] setupSensorInfo()"
ms8SensorName = "No_Sensor_Hal";
mu4SensorType = NSSensorType::eSensorType_RAW;
return true;
//
#else //MTKCAM_HAVE_SENSOR_HAL //..........................................
//
using namespace NSFeature;
SensorInfoBase* pSensorInfo = NULL;
bool ret = false;
halSensorDev_s halSensorDev = (halSensorDev_s)DevMetaInfo::queryHalSensorDev(mi4OpenId);
SensorHal* pSensorHal = SensorHal::createInstance();
if ( ! pSensorHal ) {
MY_LOGE("SensorHal::createInstance()");
goto lbExit;
}
//
if ( 0 != pSensorHal->sendCommand(halSensorDev, SENSOR_CMD_GET_SENSOR_FEATURE_INFO, (int)&pSensorInfo) || ! pSensorInfo )
{
MY_LOGE("SensorHal::sendCommand(%x, SENSOR_CMD_GET_SENSOR_FEATURE_INFO), pSensorInfo(%p)", halSensorDev, pSensorInfo);
goto lbExit;
}
//
MY_LOGD("type:%d <%#x/%s/%s>", pSensorInfo->GetType(), pSensorInfo->GetID(), pSensorInfo->getDrvName(), pSensorInfo->getDrvMacroName());
ms8SensorName = pSensorInfo->getDrvMacroName();
switch (pSensorInfo->GetType())
{
case SensorInfoBase::EType_RAW:
mu4SensorType = NSSensorType::eSensorType_RAW;
break;
case SensorInfoBase::EType_YUV:
mu4SensorType = NSSensorType::eSensorType_YUV;
break;
}
//
ret = true;
lbExit:
if ( pSensorHal ) {
pSensorHal->destroyInstance();
pSensorHal = NULL;
}
return ret;
//
#endif //MTKCAM_HAVE_SENSOR_HAL //------------------------------------------
}
/******************************************************************************
* test capture
*******************************************************************************/
static MUINT32 u4Capture_Cmd(int argc, char** argv)
{
// init sensor first
SensorHal *pSensorHal = SensorHal:: createInstance();
if (NULL == pSensorHal)
{
MY_LOGE("pSensorHal is NULL");
return 0;
}
// search sensor
pSensorHal->searchSensor();
//
// (1). init main sensor
//
printf("init main sensor\n");
pSensorHal->sendCommand(SENSOR_DEV_MAIN,
SENSOR_CMD_SET_SENSOR_DEV,
0,
0,
0);
//
printf("pSensorHal->init\n");
pSensorHal->init();
//insert HDR
printf("insert HDR\n");
//sp<HdrShot> pShot = NULL;
HdrShot *pShot = NULL;
pShot = new HdrShot("HdrShot", 0, 0);
pShot->mTestMode = 1; //test only
//for ImpShit interface
printf("pShot->onCmd_capture\n");
pShot->sendCommand(eCmd_capture, 0, 0);
printf("delete pShot\n");
delete pShot;
//
printf("pSensorHal->destroyInstance\n");
pSensorHal->destroyInstance();
return 0;
}
bool
ParamsManagerImp::
updateDefaultParams2_ByQuery()
{
bool ret = false;
MY_LOGD("+");
//
mParameters.set(MtkCameraParameters::KEY_SENSOR_TYPE, 0xFF); // default values of sensor type are 1s for YUV type
#if '1'==MTKCAM_HAVE_SENSOR_HAL
halSensorDev_s halSensorDev = (halSensorDev_s)DevMetaInfo::queryHalSensorDev(mi4OpenId);
SensorHal* pSensorHal = SensorHal::createInstance();
if ( ! pSensorHal ) {
MY_LOGE("SensorHal::createInstance()");
}
else {
int iFOV_horizontal = 0, iFOV_vertical = 0;
if ( 0 != pSensorHal->sendCommand(halSensorDev, SENSOR_CMD_GET_SENSOR_VIEWANGLE, (int)&iFOV_horizontal, (int)&iFOV_vertical) )
{
MY_LOGE("SensorHal::sendCommand(%x, SENSOR_CMD_GET_SENSOR_VIEWANGLE)", halSensorDev);
}
else
{
MY_LOGD("view-angles:%d %d", iFOV_horizontal, iFOV_vertical);
mParameters.set(CameraParameters::KEY_HORIZONTAL_VIEW_ANGLE, iFOV_horizontal);
mParameters.set(CameraParameters::KEY_VERTICAL_VIEW_ANGLE, iFOV_vertical);
}
unsigned char uiSensorType;
uiSensorType = 0xFF;
halSensorType_e eSensorType;
if (0 != pSensorHal->sendCommand(SENSOR_DEV_MAIN, SENSOR_CMD_GET_SENSOR_TYPE, reinterpret_cast<int>(&eSensorType), 0, 0))
{
MY_LOGE("SensorHal::sendCommand(%x, SENSOR_CMD_GET_SENSOR_TYPE)", SENSOR_DEV_MAIN);
}
else
{
if (SENSOR_TYPE_RAW == eSensorType)
{
uiSensorType &= 0xFE;
}
else
{
uiSensorType |= 0x01;
}
}
if (0 != pSensorHal->sendCommand(SENSOR_DEV_SUB, SENSOR_CMD_GET_SENSOR_TYPE, reinterpret_cast<int>(&eSensorType), 0, 0))
{
MY_LOGE("SensorHal::sendCommand(%x, SENSOR_CMD_GET_SENSOR_TYPE)", SENSOR_DEV_SUB);
}
else
{
if (SENSOR_TYPE_RAW == eSensorType)
{
uiSensorType &= 0xFD;
}
else
{
uiSensorType |= 0x02;
}
}
mParameters.set(MtkCameraParameters::KEY_SENSOR_TYPE, uiSensorType);
MY_LOGD("KEY_SENSOR_TYPE = 0x%X", uiSensorType);
pSensorHal->destroyInstance();
pSensorHal = NULL;
}
#endif //MTKCAM_HAVE_SENSOR_HAL
//
#if '1'==MTKCAM_HAVE_3A_HAL
//
// (1) Query from CORE
using namespace NS3A;
FeatureParam_T r3ASupportedParam;
memset(&r3ASupportedParam, 0, sizeof(r3ASupportedParam));
Hal3ABase* p3AHal = Hal3ABase::createInstance(DevMetaInfo::queryHalSensorDev(getOpenId()));
if ( ! p3AHal )
{
MY_LOGE("Fail to create 3AHal");
return ret;
}
if ( ! p3AHal->getSupportedParams(r3ASupportedParam) )
{
MY_LOGE("getSupportedParams fail");
goto lbExit;
}
//
// AE/AWB Lock
#undef TRUE
#undef FALSE
mParameters.set(CameraParameters::KEY_AUTO_EXPOSURE_LOCK_SUPPORTED, r3ASupportedParam.bExposureLockSupported ?
CameraParameters::TRUE : CameraParameters::FALSE);
mParameters.set(CameraParameters::KEY_AUTO_WHITEBALANCE_LOCK_SUPPORTED, r3ASupportedParam.bAutoWhiteBalanceLockSupported ?
CameraParameters::TRUE : CameraParameters::FALSE);
//
// AE/AF areas
mParameters.set(CameraParameters::KEY_MAX_NUM_FOCUS_AREAS, r3ASupportedParam.u4MaxFocusAreaNum);
mParameters.set(CameraParameters::KEY_MAX_NUM_METERING_AREAS, r3ASupportedParam.u4MaxMeterAreaNum);
mParameters.set(MtkCameraParameters::KEY_FOCUS_ENG_MAX_STEP, r3ASupportedParam.i4MaxLensPos);
mParameters.set(MtkCameraParameters::KEY_FOCUS_ENG_MIN_STEP, r3ASupportedParam.i4MinLensPos);
//
// Focus Full Scan Step Range
mParameters.set(MtkCameraParameters::KEY_ENG_FOCUS_FULLSCAN_FRAME_INTERVAL_MAX, MtkCameraParameters::KEY_ENG_FOCUS_FULLSCAN_FRAME_INTERVAL_MAX_DEFAULT);
mParameters.set(MtkCameraParameters::KEY_ENG_FOCUS_FULLSCAN_FRAME_INTERVAL_MIN, MtkCameraParameters::KEY_ENG_FOCUS_FULLSCAN_FRAME_INTERVAL_MIN_DEFAULT);
mParameters.set(MtkCameraParameters::KEY_ENG_FOCUS_FULLSCAN_FRAME_INTERVAL, MtkCameraParameters::KEY_ENG_FOCUS_FULLSCAN_FRAME_INTERVAL_MIN_DEFAULT);
// Shading table initial value
mParameters.set(MtkCameraParameters::KEY_ENG_SHADING_TABLE, MtkCameraParameters::KEY_ENG_SHADING_TABLE_AUTO);
mParameters.set(MtkCameraParameters::KEY_ENG_SAVE_SHADING_TABLE, 0);
//
if (FlashMgr::getInstance())
{
int st, ed;
FlashMgr::getInstance()->egGetDutyRange(&st, &ed);
MY_LOGD("duty range = %d ~ %d", st, ed);
mParameters.set(MtkCameraParameters::KEY_ENG_FLASH_DUTY_MIN, st);
mParameters.set(MtkCameraParameters::KEY_ENG_FLASH_DUTY_MAX, ed);
mParameters.set(MtkCameraParameters::KEY_ENG_FLASH_DUTY_VALUE, MtkCameraParameters::KEY_ENG_FLASH_DUTY_DEFAULT_VALUE);
FlashMgr::getInstance()->egGetStepRange(&st, &ed);
MY_LOGD("step range = %d ~ %d", st, ed);
mParameters.set(MtkCameraParameters::KEY_ENG_FLASH_STEP_MIN, st);
mParameters.set(MtkCameraParameters::KEY_ENG_FLASH_STEP_MAX, ed);
FlashMgr::getInstance()->egSetMfDutyStep(MtkCameraParameters::KEY_ENG_FLASH_DUTY_DEFAULT_VALUE, mParameters.getInt(MtkCameraParameters::KEY_ENG_FLASH_STEP_MAX)); // Default values for flash
}
//
ret = true;
//
lbExit:
//
if ( p3AHal )
{
p3AHal->destroyInstance();
p3AHal = NULL;
}
#endif //MTKCAM_HAVE_3A_HAL
//
MY_LOGD("- ret(%d)", ret);
return ret;
}
sp<ICamAdapter>
createMtkZsdCamAdapter(
String8 const& rName,
int32_t const i4OpenId,
sp<IParamsManager> pParamsMgr
)
{
//
int32_t zsdMode = 0;
SensorHal* pSensorHal = NULL;
halSensorDev_e eSensorDev;
halSensorType_e eSensorType;
uint32_t u4TgInW = 0;
uint32_t u4TgInH = 0;
uint32_t scenario = ACDK_SCENARIO_ID_CAMERA_ZSD;
uint32_t fps = 0;
String8 const s8AppMode = PARAMSMANAGER_MAP_INST(eMapAppMode)->stringFor(pParamsMgr->getHalAppMode());
int err = 0;
// 1) query sensor info
MY_LOGD("SensorHal::createInstance(), i4OpenId:%d", i4OpenId);
pSensorHal = SensorHal::createInstance();
if ( ! pSensorHal ) {
MY_LOGE("pSensorHal == NULL");
goto lbExit;
}
//
eSensorDev = (halSensorDev_e)DevMetaInfo::queryHalSensorDev(i4OpenId);
// raw or yuv
pSensorHal->sendCommand(eSensorDev, SENSOR_CMD_GET_SENSOR_TYPE, (int32_t)&eSensorType);
// sensor full size
pSensorHal->sendCommand(eSensorDev, SENSOR_CMD_GET_SENSOR_FULL_RANGE, (int32_t)&u4TgInW, (int32_t)&u4TgInH);
// sensor full size fps
pSensorHal->sendCommand(eSensorDev, SENSOR_CMD_GET_DEFAULT_FRAME_RATE_BY_SCENARIO, (int32_t)&scenario, (int32_t)&fps);
//
pSensorHal->destroyInstance();
pSensorHal = NULL;
// 2) CC or NCC
// 5M case:
if (u4TgInW < SENSOR_8M_WIDTH_MIN)
{
zsdMode = ZSD_MODE_CC;
}
// 13M case:
else if (u4TgInW > SENSOR_8M_WIDTH_MAX)
{
zsdMode = ZSD_MODE_NCC;
}
// 8M case:
else
{
if (fps > 240)
zsdMode = ZSD_MODE_NCC;
else
zsdMode = ZSD_MODE_CC;
}
MY_LOGD("Sensor full size (%dx%d) fps(%d) ZSD mode (%s)",
u4TgInW, u4TgInH, fps,(zsdMode == ZSD_MODE_NCC)?"ZSDNCC":"ZSDCC");
//
lbExit:
// 3) Get property for debug
char value[PROPERTY_VALUE_MAX] = {'\0'};
property_get("camera.zsdmode", value, "0");
int pty = atoi(value);
if ( pty > 0 ) {
zsdMode = pty;
MY_LOGD("Set zsd mode by property(%d)(%s)", zsdMode, (zsdMode == ZSD_MODE_NCC)?"ZSDNCC":"ZSDCC");
}
if ( ZSD_MODE_NCC == zsdMode ) {
return createMtkZsdNccCamAdapter(s8AppMode, i4OpenId, pParamsMgr);
}
else {
return createMtkZsdCcCamAdapter(s8AppMode, i4OpenId, pParamsMgr);
}
}
bool
ParamsManager::
updateHalAppMode()
{
bool ret = false;
String8 s8HalAppMode;
//
RWLock::AutoWLock _lock(mRWLock);
//
int32_t const i4CamMode = mParameters.getInt(MtkCameraParameters::KEY_CAMERA_MODE);
MY_LOGD("+ KEY_CAMERA_MODE:%d", i4CamMode);
//
//
// If Client App Mode != <Default> App, then.
//
if ( ms8ClientAppMode != MtkCameraParameters::APP_MODE_NAME_DEFAULT )
{
s8HalAppMode = ms8ClientAppMode;
goto lbExit;
}
//
// If Client App Mode == <Default> App, then:
//
if ( i4CamMode == MtkCameraParameters::CAMERA_MODE_NORMAL )
{
s8HalAppMode = MtkCameraParameters::APP_MODE_NAME_DEFAULT;
goto lbExit;
}
//
if ( i4CamMode == MtkCameraParameters::CAMERA_MODE_MTK_PRV )
{
char const* pszZsdMode = mParameters.get(MtkCameraParameters::KEY_ZSD_MODE);
if ( ! pszZsdMode || 0 != ::strcmp(pszZsdMode, MtkCameraParameters::ON) )
{
s8HalAppMode = MtkCameraParameters::APP_MODE_NAME_MTK_PHOTO;
}
else
{
s8HalAppMode = MtkCameraParameters::APP_MODE_NAME_MTK_ZSD;
}
// zsd: only for test
{
#if defined (MTK_ZSD_SUPPORT)
#warning "[FIXME] MTK_ZSD_SUPPORT"
MY_LOGD("MTK_ZSD_SUPPORT=yes This MACRO is for test ONLY");
SensorHal* pSensorHal = NULL;
halSensorType_e eSensorType;
halSensorDev_e eSensorDev = (halSensorDev_e)DevMetaInfo::queryHalSensorDev(getOpenId());
pSensorHal = SensorHal::createInstance();
if (pSensorHal == NULL) {
MY_LOGE("pSensorHal == NULL");
goto lbExit;
}
pSensorHal->sendCommand(eSensorDev, SENSOR_CMD_GET_SENSOR_TYPE, (int32_t)&eSensorType);
MY_LOGD("get sensor type, %d", eSensorType);
if (eSensorType == SENSOR_TYPE_RAW) {
s8HalAppMode = MtkCameraParameters::APP_MODE_NAME_MTK_ZSD;
}
pSensorHal->destroyInstance();
pSensorHal = NULL;
#endif
int32_t i4ZsdMode = 0;
char value[PROPERTY_VALUE_MAX] = {'\0'};
property_get("camera.zsdmode", value, "0");
i4ZsdMode = atoi(value);
MY_LOGD("zsd mode %d", i4ZsdMode);
if ( 1 == i4ZsdMode || 2 == i4ZsdMode ) {
s8HalAppMode = MtkCameraParameters::APP_MODE_NAME_MTK_ZSD;
} else if ( 3 == i4ZsdMode ) {
s8HalAppMode = MtkCameraParameters::APP_MODE_NAME_MTK_PHOTO;
}
}
goto lbExit;
}
if ( i4CamMode == MtkCameraParameters::CAMERA_MODE_MTK_VT )
{
s8HalAppMode = MtkCameraParameters::APP_MODE_NAME_MTK_VT;
goto lbExit;
}
//
if ( i4CamMode == MtkCameraParameters::CAMERA_MODE_MTK_VDO )
{
s8HalAppMode = MtkCameraParameters::APP_MODE_NAME_MTK_VIDEO;
goto lbExit;
}
//
//
MY_LOGE("- NOT IMPLEMENT YET !");
return false;
//
lbExit:
// (3) update Hal's App Mode.
// (.1) update Hal's property.
MtkCamUtils::Property::set(String8(PROPERTY_KEY_HAL_APPMODE), s8HalAppMode);
//
// (.2) set Hal's App Mode.
mi4HalAppMode = PARAMSMANAGER_MAP_INST(eMapAppMode)->valueFor(s8HalAppMode);
//
MY_LOGD("- property:%s=%s[%d]", PROPERTY_KEY_HAL_APPMODE, s8HalAppMode.string(), mi4HalAppMode);
return true;
}
bool
ImpShot::
makeExifHeader(MUINT32 const u4CamMode,
MUINT8* const puThumbBuf,
MUINT32 const u4ThumbSize,
MUINT8* puExifBuf,
MUINT32 &u4FinalExifSize,
MUINT32 u4ImgIndex,
MUINT32 u4GroupId,
MUINT32 u4FocusValH,
MUINT32 u4FocusValL)
{
//
MY_LOGD("[ImpShot]+ (u4CamMode, puThumbBuf, u4ThumbSize, puExifBuf) = (%d, %p, %d, %p)",
u4CamMode, puThumbBuf, u4ThumbSize, puExifBuf);
if (u4ThumbSize > 63 * 1024)
{
MY_LOGW("The thumbnail size is large than 63K, the exif header will be broken");
}
bool ret = true;
uint32_t u4App1HeaderSize = 0;
uint32_t u4AppnHeaderSize = 0;
uint32_t exifHeaderSize = 0;
CamExif rCamExif;
CamExifParam rExifParam;
CamDbgParam rDbgParam;
// ExifParam (for Gps)
if (! mJpegParam.ms8GpsLatitude.isEmpty() && !mJpegParam.ms8GpsLongitude.isEmpty())
{
rExifParam.u4GpsIsOn = 1;
::strncpy(reinterpret_cast<char*>(rExifParam.uGPSLatitude), mJpegParam.ms8GpsLatitude.string(), mJpegParam.ms8GpsLatitude.length());
::strncpy(reinterpret_cast<char*>(rExifParam.uGPSLongitude), mJpegParam.ms8GpsLongitude.string(), mJpegParam.ms8GpsLongitude.length());
::strncpy(reinterpret_cast<char*>(rExifParam.uGPSTimeStamp), mJpegParam.ms8GpsTimestamp.string(), mJpegParam.ms8GpsTimestamp.length());
::strncpy(reinterpret_cast<char*>(rExifParam.uGPSProcessingMethod), mJpegParam.ms8GpsMethod.string(), mJpegParam.ms8GpsMethod.length());
rExifParam.u4GPSAltitude = ::atoi(mJpegParam.ms8GpsAltitude.string());
}
// the bitstream already rotated. rotation should be 0
//Add for JPEG-Sensor
MBOOL outputJPEGFile, bFixedOrientation;
SensorHal* pSensorHal = SensorHal::createInstance();
MUINT32 u4DeviceID = 0;
if (NULL != pSensorHal)
{
u4DeviceID = static_cast<MUINT32>(MtkCamUtils::DevMetaInfo::queryHalSensorDev(getOpenId()));
MY_LOGW("[shot][makeExifHeader] u4DeviceID=%d\n", u4DeviceID);
pSensorHal->init();
//get sensor format info
pSensorHal->sendCommand(static_cast<halSensorDev_e>(u4DeviceID),
SENSOR_CMD_GET_YUV_SENSOR_CAPTURE_OUTPUT_JPEG,
(MBOOL)&outputJPEGFile,
0,
0
);
pSensorHal->sendCommand(static_cast<halSensorDev_e>(u4DeviceID),
SENSOR_CMD_GET_YUV_SENSOR_FIXED_JPEG_ORIENTATION,
(MBOOL)&bFixedOrientation,
0,
0
);
}
else
{
outputJPEGFile = 0;
bFixedOrientation = 0;
}
if (outputJPEGFile && bFixedOrientation)
{
rExifParam.u4Orientation = mShotParam.mi4Rotation;
MY_LOGW("[shot][makeExifHeader] u4Orientation=%d, bFixedOrientation=%d, outputJPEGFile=%d\n", mShotParam.mi4Rotation, bFixedOrientation, outputJPEGFile);
}
else
{
rExifParam.u4Orientation = 0;
MY_LOGW("[shot][makeExifHeader] nonJpegSensor, u4Orientation=0\n");
}
rExifParam.u4ZoomRatio = mShotParam.mu4ZoomRatio;
//
camera_info rCameraInfo = MtkCamUtils::DevMetaInfo::queryCameraInfo(getOpenId());
rExifParam.u4Facing = rCameraInfo.facing;
//
rExifParam.u4ImgIndex = u4ImgIndex;
rExifParam.u4GroupId = u4GroupId;
//
rExifParam.u4FocusH = u4FocusValH;
rExifParam.u4FocusL = u4FocusValL;
//
//! CamDbgParam (for camMode, shotMode)
rDbgParam.u4CamMode = u4CamMode;
rDbgParam.u4ShotMode = getShotMode();
//
rCamExif.init(rExifParam, rDbgParam);
//
Hal3ABase* p3AHal = Hal3ABase::createInstance(MtkCamUtils::DevMetaInfo::queryHalSensorDev(getOpenId()));
p3AHal->set3AEXIFInfo(&rCamExif);
// the bitstream already rotated. it need to swap the width/height
if ((!outputJPEGFile) && (90 == mShotParam.mi4Rotation || 270 == mShotParam.mi4Rotation))
{
rCamExif.makeExifApp1(mShotParam.mi4PictureHeight, mShotParam.mi4PictureWidth, u4ThumbSize, puExifBuf, &u4App1HeaderSize);
}
else
{
rCamExif.makeExifApp1(mShotParam.mi4PictureWidth, mShotParam.mi4PictureHeight, u4ThumbSize, puExifBuf, &u4App1HeaderSize);
}
// copy thumbnail image after APP1
MUINT8 *pdest = puExifBuf + u4App1HeaderSize;
::memcpy(pdest, puThumbBuf, u4ThumbSize) ;
//
// 3A Debug Info
p3AHal->setDebugInfo(&rCamExif);
//
// Sensor Debug Info
pSensorHal->setDebugInfo(&rCamExif);
pdest = puExifBuf + u4App1HeaderSize + u4ThumbSize;
//
rCamExif.appendDebugExif(pdest, &u4AppnHeaderSize);
rCamExif.uninit();
u4FinalExifSize = u4App1HeaderSize + u4ThumbSize + u4AppnHeaderSize;
p3AHal->destroyInstance();
pSensorHal->destroyInstance();
MY_LOGD("- (app1Size, appnSize, exifSize) = (%d, %d, %d)",
u4App1HeaderSize, u4AppnHeaderSize, u4FinalExifSize);
return ret;
}
bool
ImpShot::
makeExifHeader(MUINT32 const u4CamMode,
MUINT8* const puThumbBuf,
MUINT32 const u4ThumbSize,
MUINT8* puExifBuf,
MUINT32 &u4FinalExifSize,
MUINT32 u4ImgIndex,
MUINT32 u4GroupId,
MUINT32 u4FocusValH,
MUINT32 u4FocusValL)
{
//
MY_LOGD("+ (u4CamMode, puThumbBuf, u4ThumbSize, puExifBuf) = (%d, %p, %d, %p)",
u4CamMode, puThumbBuf, u4ThumbSize, puExifBuf);
if (u4ThumbSize > 63 * 1024)
{
MY_LOGW("The thumbnail size is large than 63K, the exif header will be broken");
}
bool ret = true;
uint32_t u4App1HeaderSize = 0;
uint32_t u4AppnHeaderSize = 0;
uint32_t exifHeaderSize = 0;
CamExif rCamExif;
CamExifParam rExifParam;
CamDbgParam rDbgParam;
// ExifParam (for Gps)
if (! mJpegParam.ms8GpsLatitude.isEmpty() && !mJpegParam.ms8GpsLongitude.isEmpty())
{
rExifParam.u4GpsIsOn = 1;
::strncpy(reinterpret_cast<char*>(rExifParam.uGPSLatitude), mJpegParam.ms8GpsLatitude.string(), sizeof(rExifParam.uGPSLatitude));
::strncpy(reinterpret_cast<char*>(rExifParam.uGPSLongitude), mJpegParam.ms8GpsLongitude.string(), sizeof(rExifParam.uGPSLongitude));
::strncpy(reinterpret_cast<char*>(rExifParam.uGPSTimeStamp), mJpegParam.ms8GpsTimestamp.string(), sizeof(rExifParam.uGPSTimeStamp));
::strncpy(reinterpret_cast<char*>(rExifParam.uGPSProcessingMethod), mJpegParam.ms8GpsMethod.string(), sizeof(rExifParam.uGPSProcessingMethod));
rExifParam.u4GPSAltitude = ::atoi(mJpegParam.ms8GpsAltitude.string());
}
// the bitstream already rotated. rotation should be 0
rExifParam.u4Orientation = 0;
rExifParam.u4ZoomRatio = mShotParam.mu4ZoomRatio;
//
camera_info rCameraInfo = MtkCamUtils::DevMetaInfo::queryCameraInfo(getOpenId());
rExifParam.u4Facing = rCameraInfo.facing;
//
rExifParam.u4ImgIndex = u4ImgIndex;
rExifParam.u4GroupId = u4GroupId;
//
rExifParam.u4FocusH = u4FocusValH;
rExifParam.u4FocusL = u4FocusValL;
//
//! CamDbgParam (for camMode, shotMode)
rDbgParam.u4CamMode = u4CamMode;
rDbgParam.u4ShotMode = getShotMode();
//
rCamExif.init(rExifParam, rDbgParam);
//
Hal3ABase* p3AHal = Hal3ABase::createInstance(MtkCamUtils::DevMetaInfo::queryHalSensorDev(getOpenId()));
SensorHal* pSensorHal = SensorHal::createInstance();
p3AHal->set3AEXIFInfo(&rCamExif);
// the bitstream already rotated. it need to swap the width/height
if (90 == mShotParam.mi4Rotation || 270 == mShotParam.mi4Rotation)
{
rCamExif.makeExifApp1(mShotParam.mi4PictureHeight, mShotParam.mi4PictureWidth, u4ThumbSize, puExifBuf, &u4App1HeaderSize);
}
else
{
rCamExif.makeExifApp1(mShotParam.mi4PictureWidth, mShotParam.mi4PictureHeight, u4ThumbSize, puExifBuf, &u4App1HeaderSize);
}
// copy thumbnail image after APP1
MUINT8 *pdest = puExifBuf + u4App1HeaderSize;
::memcpy(pdest, puThumbBuf, u4ThumbSize) ;
//
// 3A Debug Info
p3AHal->setDebugInfo(&rCamExif);
//
// Sensor Debug Info
pSensorHal->setDebugInfo(&rCamExif);
pdest = puExifBuf + u4App1HeaderSize + u4ThumbSize;
//
rCamExif.appendDebugExif(pdest, &u4AppnHeaderSize);
rCamExif.uninit();
u4FinalExifSize = u4App1HeaderSize + u4ThumbSize + u4AppnHeaderSize;
p3AHal->destroyInstance();
pSensorHal->destroyInstance();
MY_LOGD("- (app1Size, appnSize, exifSize) = (%d, %d, %d)",
u4App1HeaderSize, u4AppnHeaderSize, u4FinalExifSize);
return ret;
}
bool
AsdClient::
init()
{
bool ret = true;
//Get Sensor Type
//MINT32 i4SensorDevId = DevMetaInfo::queryHalSensorDev(mpParamsMgr->getOpenId());
SensorHal* pSensorHal = SensorHal::createInstance();
if ( !pSensorHal )
{
return NULL;
}
pSensorHal->sendCommand(static_cast<halSensorDev_e>(SENSOR_DEV_MAIN),
SENSOR_CMD_GET_SENSOR_TYPE,
reinterpret_cast<int>(&eSensorType),
0,
0
);
if ( pSensorHal )
{
pSensorHal->destroyInstance();
pSensorHal = NULL;
}
if(eSensorType == SENSOR_TYPE_YUV)
MY_LOGD("ASD: YUV Sensor");
else if(eSensorType == SENSOR_TYPE_RAW)
MY_LOGD("ASD: RAW Sensor");
else
MY_LOGD("ASD: Unknown Sensor");
//Create Working Buffer
mpWorkingBuf = (MUINT8*)malloc(MHAL_ASD_WORKING_BUF_SIZE);
if(mpWorkingBuf == NULL)
{
MY_LOGW("memory is not enough");
return false;
}
//Create FD Buffer
mpFaceInfo = new MtkCameraFaceMetadata;
if ( NULL != mpFaceInfo )
{
MtkCameraFace *faces = new MtkCameraFace[AsdClient::mDetectedFaceNum];
MtkFaceInfo *posInfo = new MtkFaceInfo[AsdClient::mDetectedFaceNum];
if ( NULL != faces && NULL != posInfo)
{
mpFaceInfo->faces = faces;
mpFaceInfo->posInfo = posInfo;
mpFaceInfo->number_of_faces = 0;
}
}
mSceneCur = mhal_ASD_DECIDER_UI_AUTO;
mScenePre = mhal_ASD_DECIDER_UI_SCENE_NUM;
//
return ret;
}
MBOOL
HdrHal::init(void *pInitInData)
{
HDR_LOGD("- E. mUsers: %d.", mUsers);
HDR_PIPE_INIT_INFO* prHdrPipeInitInfo = (HDR_PIPE_INIT_INFO*)pInitInData;
HDR_LOGV("ImgW/H: (%d, %d). FinalGainDiff[0/1]: (%d, %d). OutputFrameNum: %d. TargetTone: %d.", prHdrPipeInitInfo->u4ImgW, prHdrPipeInitInfo->u4ImgH, prHdrPipeInitInfo->u4FinalGainDiff0, prHdrPipeInitInfo->u4FinalGainDiff1, prHdrPipeInitInfo->u4OutputFrameNum, prHdrPipeInitInfo->u4TargetTone);
HDR_LOGV("pSourceImgBufAddr[0/1/2]: (%p, %p, %p).", prHdrPipeInitInfo->pSourceImgBufAddr[0], prHdrPipeInitInfo->pSourceImgBufAddr[1], prHdrPipeInitInfo->pSourceImgBufAddr[2]);
MBOOL ret = MFALSE;
MINT32 err = 0; // 0: No error. other value: error.
Mutex::Autolock lock(mLock);
if (mUsers > 0)
{
HDR_LOGD("%d has created.", mUsers);
android_atomic_inc(&mUsers);
HDR_LOGD("- X. ret: %d.", MTRUE);
return MTRUE;
}
// Create HdrDrv instance.
m_pHdrDrv = MTKHdr::createInstance();
if (!m_pHdrDrv)
{
HDR_LOGD("MTKHdr::createInstance() fail.");
goto create_fail_exit;
}
// Allocate working buffer needed by Drv (HdrDrv and MavDrv).
// Init HdrDrv object.
// Fill init data.
HDR_SET_ENV_INFO_STRUCT rHdrInitInfo;
rHdrInitInfo.image_num = prHdrPipeInitInfo->u4OutputFrameNum;
GS_u4OutputFrameNum = prHdrPipeInitInfo->u4OutputFrameNum; // Record u4OutputFrameNum for HDR Pipe to use.
rHdrInitInfo.ev_gain1 = (MUINT16)prHdrPipeInitInfo->u4FinalGainDiff0;
rHdrInitInfo.ev_gain2 = 1024; // Fix at 1024.
rHdrInitInfo.ev_gain3 = (MUINT16)prHdrPipeInitInfo->u4FinalGainDiff1;
rHdrInitInfo.target_tone = prHdrPipeInitInfo->u4TargetTone;
rHdrInitInfo.image_width = prHdrPipeInitInfo->u4ImgW;
rHdrInitInfo.image_height = prHdrPipeInitInfo->u4ImgH;
if(CustomHdrUseIspGamma())
{
HDR_LOGD("Use ISP Gamma");
rHdrInitInfo.pIsp_gamma = prHdrPipeInitInfo->pIsp_gamma;
}
else
{
HDR_LOGD("Use Fixed Gamma");
rHdrInitInfo.pIsp_gamma = NULL;
}
rHdrInitInfo.hdr_tuning_data.BRatio = CustomHdrBRatioGet();
for (MUINT32 i = 0; i < 11; i++)
{
rHdrInitInfo.hdr_tuning_data.Gain[i] = CustomHdrGainArrayGet(i);
}
rHdrInitInfo.hdr_tuning_data.BottomFRatio = CustomHdrBottomFRatioGet();
rHdrInitInfo.hdr_tuning_data.TopFRatio = CustomHdrTopFRatioGet();
rHdrInitInfo.hdr_tuning_data.BottomFBound = CustomHdrBottomFBoundGet();
rHdrInitInfo.hdr_tuning_data.TopFBound = CustomHdrTopFBoundGet();
rHdrInitInfo.hdr_tuning_data.ThHigh = CustomHdrThHighGet();
rHdrInitInfo.hdr_tuning_data.ThLow = CustomHdrThLowGet();
rHdrInitInfo.hdr_tuning_data.TargetLevelSub = CustomHdrTargetLevelSubGet();
rHdrInitInfo.hdr_tuning_data.CoreNumber = CustomHdrCoreNumberGet();
rHdrInitInfo.hdr_tuning_data.HdrSpeed = HDR_PROCESS_NORMAL; //Never use HDR_PROCESS_FAST
#if 0
//(#) get sensor type
{
HDR_INFO_SRC_ENUM meSensorType = HDR_INFO_SRC_RAW;
halSensorDev_e meSensorDev;
SensorHal* mpSensor;
//temp mark to avoid build error
//mpSensor = SensorHal::createInstance();
if (!mpSensor)
{
HDR_LOGD("[%s] NULL m_pSensorHal!\n", __FUNCTION__);
return MFALSE;
}
mpSensor->sendCommand(SENSOR_DEV_NONE, SENSOR_CMD_GET_SENSOR_DEV, (MINTPTR)&meSensorDev, 0, 0);
if (meSensorDev == SENSOR_DEV_NONE)
{
HDR_LOGD("[%s] m_SensorDev is incorrect %d\n", __FUNCTION__,
SENSOR_DEV_NONE);
return MFALSE;
}
mpSensor->sendCommand(meSensorDev, SENSOR_CMD_GET_SENSOR_TYPE, (MINTPTR)&meSensorType);
if(meSensorType == SENSOR_TYPE_YUV) {
rHdrInitInfo.HdrSrcInfo = HDR_INFO_SRC_YUV;
} else {
rHdrInitInfo.HdrSrcInfo = HDR_INFO_SRC_RAW;
}
mpSensor->destroyInstance();
}
HDR_LOGD("rHdrInitInfo:: ImgW/H: (%d, %d). FinalGainDiff[0/1]: (%d, %d). OutputFrameNum: %d. TargetTone: %d. RawSensor: %d."
, rHdrInitInfo.image_width
, rHdrInitInfo.image_height
, rHdrInitInfo.ev_gain1
, rHdrInitInfo.ev_gain3
, rHdrInitInfo.image_num
, rHdrInitInfo.target_tone
, rHdrInitInfo.HdrSrcInfo);
#else
rHdrInitInfo.HdrSrcInfo = (prHdrPipeInitInfo->u4SensorType == SENSOR_TYPE_YUV)
? HDR_INFO_SRC_YUV
: HDR_INFO_SRC_RAW;
HDR_LOGD("rHdrInitInfo:: ImgW/H: (%d, %d). FinalGainDiff[0/1]: (%d, %d). OutputFrameNum: %d. TargetTone: %d."
, rHdrInitInfo.image_width
, rHdrInitInfo.image_height
, rHdrInitInfo.ev_gain1
, rHdrInitInfo.ev_gain3
, rHdrInitInfo.image_num
, rHdrInitInfo.target_tone);
#endif
//HDR_LOGV("rHdrInitInfo:: pSourceImgBufAddr[0/1/2]: (0x%08X, 0x%08X, 0x%08X).", rHdrInitInfo.image_addr[0], rHdrInitInfo.image_addr[1], rHdrInitInfo.image_addr[2]);
HDR_LOGV("rHdrInitInfo:: BRatio: %d. BottomFRatio: %f. TopFRatio: %f. BottomFBound: %d. TopFBound: %d.",
rHdrInitInfo.hdr_tuning_data.BRatio,
rHdrInitInfo.hdr_tuning_data.BottomFRatio,
rHdrInitInfo.hdr_tuning_data.TopFRatio,
rHdrInitInfo.hdr_tuning_data.BottomFBound,
rHdrInitInfo.hdr_tuning_data.TopFBound
);
HDR_LOGV("rHdrInitInfo:: ThHigh: %d. ThLow: %d. TargetLevelSub: %d.",
rHdrInitInfo.hdr_tuning_data.ThHigh,
rHdrInitInfo.hdr_tuning_data.ThLow,
rHdrInitInfo.hdr_tuning_data.TargetLevelSub
);
for (MUINT32 i = 0; i < 11; i++)
HDR_LOGV("rHdrInitInfo:: u4Gain[%d]: %d.", i, rHdrInitInfo.hdr_tuning_data.Gain[i]);
// Call HdrDrv init.
err = m_pHdrDrv->HdrInit(&rHdrInitInfo, 0);
if (err) // if ret != 0 means error happened.
{
HDR_LOGD("m_pHdrDrv->HdrInit() fail, err=%d", err);
goto create_fail_exit;
}
if(1) {
// set HDR default pthread attribute to avoid RT throttling
pthread_attr_t attr = {0, NULL, 1024 * 1024, 4096, SCHED_OTHER, ANDROID_PRIORITY_FOREGROUND+1};
m_pHdrDrv->HdrFeatureCtrl(HDR_FEATURE_SET_PTHREAD_ATTR, &attr, NULL);
}
#if EARLY_MAV_INIT
// Create MavDrv instance.
m_pMavDrv = MTKMav::createInstance(DRV_MAV_OBJ_SWHDR);
if (!m_pMavDrv)
{
HDR_LOGD("MTKMav::createInstance() fail.");
goto create_fail_exit;
}
// Init MavDrv object.
// Fill init data.
MavInitInfo rMavInitInfo;
rMavInitInfo.WorkingBuffAddr = (MUINT32)global_buffer_rectify; // FIXME: Allocate working buffer for MAV.
rMavInitInfo.pTuningInfo = NULL;
// Call MavDrv init.
err = m_pMavDrv->MavInit(&rMavInitInfo, 0);
if (err) // if ret != 0 means error happened.
{
HDR_LOGD("m_pMavDrv->MavInit() fail. err: %d.", err);
goto create_fail_exit;
}
#endif // EARLY_MAV_INIT
android_atomic_inc(&mUsers);
ret = MTRUE;
HDR_LOGD("- X. ret: %d.", ret);
return ret;
create_fail_exit:
// HdrDrv Init failed, destroy HdrDrv instance.
if (m_pHdrDrv)
{
m_pHdrDrv->destroyInstance();
m_pHdrDrv = NULL;
}
#if EARLY_MAV_INIT
// MavDrv Init failed, destroy MavDrv instance.
if (m_pMavDrv)
{
m_pMavDrv->MavReset();
m_pMavDrv->destroyInstance();
m_pMavDrv = NULL;
}
#endif // EARLY_MAV_INIT
HDR_LOGD("- X. ret: %d.", ret);
return ret; // 0: No error. other value: error.
}