/*static*/ void Fitting::fitRect(VectorOfListOfPoint &vecListPoint,
float &fSlope1,
float &fSlope2,
std::vector<float> &vecIntercept,
bool bLineOneReversedFit,
bool bLineTwoReversedFit)
{
assert ( vecListPoint.size() == 4 ); //The input should has 4 lines
vecIntercept.clear();
auto totalRows = 0;
for ( const auto &vectorPoint : vecListPoint)
totalRows += ToInt32(vectorPoint.size());
cv::Mat A = cv::Mat::zeros ( totalRows, 5, CV_32FC1);
cv::Mat B = cv::Mat::zeros ( totalRows, 1, CV_32FC1);
int index = 0;
for (int i = 0; i < ToInt32 ( vecListPoint.size() ); ++ i )
{
ListOfPoint listPoint = vecListPoint[i];
for (const auto &point : listPoint )
{
A.at<float>(index, i + 1 ) = 1.f;
if ( i < 2 ) {
if (bLineOneReversedFit) {
A.at<float>(index, 0) = point.y;
B.at<float>(index, 0) = point.x;
}
else
{
A.at<float>(index, 0) = point.x;
B.at<float>(index, 0) = point.y;
}
}else {
if ( bLineOneReversedFit ) {
A.at<float>(index, 0) = -point.x;
B.at<float>(index, 0) = point.y;
}else {
A.at<float>(index, 0) = -point.y;
B.at<float>(index, 0) = point.x;
}
}
++ index;
}
}
cv::Mat matResult;
bool bResult = cv::solve(A, B, matResult, cv::DECOMP_QR);
fSlope1 = matResult.at<float>(0, 0);
fSlope2 = - fSlope1;
for ( int i = 0; i < 4; ++ i )
vecIntercept.push_back ( matResult.at < float >( i + 1, 0 ) );
}
v8::Handle<v8::Value> getPosition(const v8::Arguments& args) {
int offsetX = 0;
int offsetY = 0;
if (args.Length() > 1) {
offsetX = ToInt32(args[0]);
offsetY = ToInt32(args[1]);
}
v8::Handle<v8::Object> pos = Game::templates.position->NewInstance();
setNumberProp(pos, "x", Game::mouse.x - Game::graphics.offsetX + offsetX);
setNumberProp(pos, "y", Game::mouse.y - Game::graphics.offsetY + offsetY);
return pos;
}
void TestOCV_1()
{
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl << "OCV REGRESSION TEST #1 STARTING";
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl;
PR_LRN_OCV_CMD stLrnCmd;
PR_LRN_OCV_RPY stLrnRpy;
stLrnCmd.matInputImg = cv::imread("./data/TestOCV.png");
stLrnCmd.rectROI = cv::Rect(311, 818, 180, 61);
stLrnCmd.nCharCount = 4;
PR_LrnOcv(&stLrnCmd, &stLrnRpy);
std::cout << "PR_LrnOcv status " << ToInt32(stLrnRpy.enStatus) << std::endl;
if (stLrnRpy.enStatus != VisionStatus::OK)
return;
PR_OCV_CMD stOcvCmd;
PR_OCV_RPY stOcvRpy;
stOcvCmd.matInputImg = stLrnCmd.matInputImg;
stOcvCmd.rectROI = cv::Rect(288, 1075, 217, 142);
stOcvCmd.vecRecordId.push_back(stLrnRpy.nRecordId);
PR_Ocv(&stOcvCmd, &stOcvRpy);
PrintOcvRpy(stOcvRpy);
}
static EJS_NATIVE_FUNC(_ejs_Process_exit) {
ejsval code = _ejs_undefined;
if (argc > 0)
code = args[0];
exit(ToInt32(code));
}
void TestOCV_2()
{
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl << "OCV REGRESSION TEST #2 STARTING";
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl;
PR_LRN_OCV_CMD stLrnCmd;
PR_LRN_OCV_RPY stLrnRpy;
stLrnCmd.matInputImg = cv::imread("./data/TestOCV_2.png");
stLrnCmd.rectROI = cv::Rect(148, 206, 89, 152);
stLrnCmd.enDirection = PR_DIRECTION::UP;
stLrnCmd.nCharCount = 3;
PR_LrnOcv(&stLrnCmd, &stLrnRpy);
std::cout << "PR_LrnOcv status " << ToInt32(stLrnRpy.enStatus) << std::endl;
if (stLrnRpy.enStatus != VisionStatus::OK)
return;
PR_OCV_CMD stOcvCmd;
PR_OCV_RPY stOcvRpy;
stOcvCmd.matInputImg = cv::imread("./data/TestOCV_2.png");
stOcvCmd.rectROI = cv::Rect(141, 903, 120, 296);
stOcvCmd.enDirection = PR_DIRECTION::UP;
stOcvCmd.vecRecordId.push_back(stLrnRpy.nRecordId);
PR_Ocv(&stOcvCmd, &stOcvRpy);
PrintOcvRpy(stOcvRpy);
}
void TestInspDevice()
{
std::cout << std::endl << "------------------------------------------";
std::cout << std::endl << "INSPECT DEVICE REGRESSION TEST #1 STARTING";
std::cout << std::endl << "------------------------------------------";
std::cout << std::endl;
PR_FreeAllRecord();
VisionStatus enStatus;
PR_LRN_DEVICE_CMD stLrnDeviceCmd;
stLrnDeviceCmd.matInputImg = cv::imread("./data/TmplResistor.png");
stLrnDeviceCmd.bAutoThreshold = false;
stLrnDeviceCmd.nElectrodeThreshold = 150;
stLrnDeviceCmd.rectDevice = cv::Rect2f( 39, 27, 104, 65 );
PR_LRN_DEVICE_RPY stLrnDeviceRpy;
PR_SetDebugMode(PR_DEBUG_MODE::DISABLED);
enStatus = PR_LrnDevice ( &stLrnDeviceCmd, &stLrnDeviceRpy );
if ( enStatus != VisionStatus::OK ) {
std::cout << "Failed to learn device, status " << ToInt32( enStatus ) << std::endl;
return;
}
std::cout << "Success to learn device" << std::endl;
PR_INSP_DEVICE_CMD stInspDeviceCmd;
stInspDeviceCmd.matInputImg = cv::imread("./data/RotatedDevice.png");
stInspDeviceCmd.nElectrodeThreshold = stLrnDeviceRpy.nElectrodeThreshold;
stInspDeviceCmd.nDeviceCount = 1;
stInspDeviceCmd.astDeviceInfo[0].nCriteriaNo = 0;
stInspDeviceCmd.astDeviceInfo[0].rectSrchWindow = cv::Rect ( 33, 18, 96, 76 );
stInspDeviceCmd.astDeviceInfo[0].stCtrPos = cv::Point(72,44);
stInspDeviceCmd.astDeviceInfo[0].stInspItem.bCheckMissed = true;
stInspDeviceCmd.astDeviceInfo[0].stInspItem.bCheckRotation = true;
stInspDeviceCmd.astDeviceInfo[0].stInspItem.bCheckScale = true;
stInspDeviceCmd.astDeviceInfo[0].stInspItem.bCheckShift = true;
stInspDeviceCmd.astDeviceInfo[0].stSize = stLrnDeviceRpy.sizeDevice;
stInspDeviceCmd.astCriteria[0].fMaxOffsetX = 15;
stInspDeviceCmd.astCriteria[0].fMaxOffsetY = 15;
stInspDeviceCmd.astCriteria[0].fMaxRotate = 5;
stInspDeviceCmd.astCriteria[0].fMaxScale = 1.3f;
stInspDeviceCmd.astCriteria[0].fMinScale = 0.7f;
PR_INSP_DEVICE_RPY stInspDeviceRpy;
PR_InspDevice( &stInspDeviceCmd, &stInspDeviceRpy );
std::cout << "Device inspection status " << stInspDeviceRpy.astDeviceResult[0].nStatus << std::endl;
stInspDeviceCmd.matInputImg = cv::imread("./data/ShiftedDevice.png");
stInspDeviceCmd.astDeviceInfo[0].stCtrPos = cv::Point(85, 48);
stInspDeviceCmd.astDeviceInfo[0].stSize = cv::Size2f(99, 52);
stInspDeviceCmd.astDeviceInfo[0].rectSrchWindow = cv::Rect ( 42, 16, 130, 100 );
PR_InspDevice( &stInspDeviceCmd, &stInspDeviceRpy );
std::cout << "Device inspection status " << stInspDeviceRpy.astDeviceResult[0].nStatus << std::endl;
}
//The equation is from http://hotmath.com/hotmath_help/topics/line-of-best-fit.html
/*static*/ void Fitting::fitLine(const ListOfPoint &listPoint, float &fSlope, float &fIntercept, bool reverseFit)
{
if ( listPoint.size() < 2 )
return;
//double Sx = 0., Sy = 0., Sx2 = 0., Sy2 = 0., Sxy = 0.;
//for ( const auto &point : listPoint ) {
// Sx += point.x;
// Sy += point.y;
// Sx2 += point.x * point.x;
// Sy2 += point.y * point.y;
// Sxy += point.x * point.y;
//}
//size_t n = listPoint.size();
//if ( reverseFit ) {
// fSlope = static_cast<float>( ( n * Sxy - Sx * Sy ) / ( n * Sy2 - Sy * Sy ) );
// fIntercept = static_cast< float >( ( Sx * Sy2 - Sy * Sxy ) / ( n * Sy2 - Sy * Sy ) );
//}else {
// fSlope = static_cast<float>( ( n * Sxy - Sx * Sy ) / ( n * Sx2 - Sx * Sx ) );
// fIntercept = static_cast< float >( ( Sy * Sx2 - Sx * Sxy ) / ( n * Sx2 - Sx * Sx ) );
//}
cv::Mat B(ToInt32(listPoint.size()), 1, CV_32FC1);
cv::Mat A = cv::Mat::ones(ToInt32(listPoint.size()), 2, CV_32FC1);
int i = 0;
for (const auto &point : listPoint) {
if (reverseFit) {
A.at<float>(i, 0) = point.y;
B.at<float>(i, 0) = point.x;
}
else
{
A.at<float>(i, 0) = point.x;
B.at<float>(i, 0) = point.y;
}
++ i;
}
cv::Mat matResult;
bool bResult = cv::solve(A, B, matResult, cv::DECOMP_SVD);
fSlope = matResult.at<float>(0, 0);
fIntercept = matResult.at<float>(1, 0);
}
void PrintOcvRpy(const PR_OCV_RPY &stRpy)
{
std::cout << "PR_Ocv status " << ToInt32(stRpy.enStatus) << std::endl;
std::cout << std::fixed << std::setprecision(1);
std::cout << "Overall score: " << stRpy.fOverallScore << std::endl;
std::cout << "Individual char score: ";
for (auto score : stRpy.vecCharScore)
std::cout << score << " ";
std::cout << std::endl;
}
void FillHoleWidget::on_cbAlgorithm_currentIndexChanged(int index)
{
bool bKernelSizeVisible = ( ToInt32 ( PR_FILL_HOLE_METHOD::MORPHOLOGY ) == index );
ui.labelMorphShape->setVisible ( bKernelSizeVisible );
ui.cbMorphShape->setVisible ( bKernelSizeVisible );
ui.labelKernelSize->setVisible ( bKernelSizeVisible );
ui.lineEditKernalSize->setVisible ( bKernelSizeVisible );
ui.labelIteration->setVisible ( bKernelSizeVisible );
ui.lineEditIteration->setVisible ( bKernelSizeVisible );
}
/*static*/ void Fitting::fitParallelLine(const ListOfPoint &listPoints1,
const ListOfPoint &listPoints2,
float &fSlope,
float &fIntercept1,
float &fIntercept2,
bool reverseFit)
{
if ( listPoints1.size() < 2 || listPoints2.size() < 2 )
return;
auto totalDataCount = static_cast<int>(listPoints1.size() + listPoints2.size());
auto dataCount1 = listPoints1.size();
cv::Mat B(totalDataCount, 1, CV_32FC1);
cv::Mat A = cv::Mat::zeros(totalDataCount, 3, CV_32FC1);
ListOfPoint::const_iterator it1 = listPoints1.begin();
ListOfPoint::const_iterator it2 = listPoints2.begin();
for ( int i = 0; i < totalDataCount; ++ i ) {
if ( i < ToInt32 ( listPoints1.size() ) ) {
if ( reverseFit )
A.at<float>(i, 0) = (*it1).y;
else
A.at<float>(i, 0) = (*it1).x;
A.at<float>(i, 1) = 1.f;
if ( reverseFit )
B.at<float>(i, 0) = (*it1).x;
else
B.at<float>(i, 0) = (*it1).y;
++ it1;
}
else
{
if ( reverseFit )
A.at<float>(i, 0) = (*it2).y;
else
A.at<float>(i, 0) = (*it2).x;
A.at<float>(i, 2) = 1.f;
if ( reverseFit )
B.at<float>(i, 0) = (*it2).x;
else
B.at<float>(i, 0) = (*it2).y;
++ it2;
}
}
cv::Mat matResult;
bool bResult = cv::solve(A, B, matResult, cv::DECOMP_SVD);
fSlope = matResult.at<float>(0, 0);
fIntercept1 = matResult.at<float>(1, 0);
fIntercept2 = matResult.at<float>(2, 0);
}
v8::Handle<v8::Value> wasReleased(const v8::Arguments& args) {
bool ok = false;
if (args.Length() > 0) {
int id = ToInt32(args[0]);
if (id > 0 && id < 3) {
ok = Game::mouse.state[id] == 0 && Game::mouse.stateOld[id] > 0;
}
}
return ok? v8::True() : v8::False();
}
v8::Handle<v8::Value> setCursor(const v8::Arguments& args) {
ALLEGRO_SYSTEM_MOUSE_CURSOR cursor = ALLEGRO_SYSTEM_MOUSE_CURSOR_DEFAULT;
if (args.Length() > 0) {
cursor = (ALLEGRO_SYSTEM_MOUSE_CURSOR)ToInt32(args[0]);
}
if (al_set_system_mouse_cursor(Game::allegro.display, cursor)) {
return v8::True();
} else {
return v8::False();
}
}
//Using least square method to fit. Solve equation A * X = B.
/*static*/ void Fitting::fitParallelLine(const std::vector<cv::Point2f> &vecPoints1,
const std::vector<cv::Point2f> &vecPoints2,
float &fSlope,
float &fIntercept1,
float &fIntercept2,
bool reverseFit)
{
if ( vecPoints1.size() < 2 || vecPoints2.size() < 2 )
return;
auto totalDataCount = static_cast<int>(vecPoints1.size() + vecPoints2.size());
auto dataCount1 = vecPoints1.size();
cv::Mat B(totalDataCount, 1, CV_32FC1);
cv::Mat A = cv::Mat::zeros(totalDataCount, 3, CV_32FC1);
for ( int i = 0; i < totalDataCount; ++ i ) {
if ( i < ToInt32 ( vecPoints1.size() ) ) {
if ( reverseFit )
A.at<float>(i, 0) = vecPoints1[i].y;
else
A.at<float>(i, 0) = vecPoints1[i].x;
A.at<float>(i, 1) = 1.f;
if ( reverseFit )
B.at<float>(i, 0) = vecPoints1[i].x;
else
B.at<float>(i, 0) = vecPoints1[i].y;
}
else
{
if ( reverseFit )
A.at<float>(i, 0) = vecPoints2[i - dataCount1].y;
else
A.at<float>(i, 0) = vecPoints2[i - dataCount1].x;
A.at<float>(i, 2) = 1.f;
if ( reverseFit )
B.at<float>(i, 0) = vecPoints2[i - dataCount1].x;
else
B.at<float>(i, 0) = vecPoints2[i - dataCount1].y;
}
}
cv::Mat matResult;
bool bResult = cv::solve(A, B, matResult, cv::DECOMP_SVD);
fSlope = matResult.at<float>(0, 0);
fIntercept1 = matResult.at<float>(1, 0);
fIntercept2 = matResult.at<float>(2, 0);
}
SoundOpenAL::SoundOpenAL(const WaveData& wave_data)
{
alGenSources(1u, &_source);
ASSERT(_source != 0);
alSourcef(_source, AL_PITCH, 1);
alSourcef(_source, AL_GAIN, 1);
alSource3f(_source, AL_POSITION, 0, 0, 0);
alSource3f(_source, AL_VELOCITY, 0, 0, 0);
alSourcei(_source, AL_LOOPING, AL_FALSE);
alGenBuffers(1u, &_buffer);
ASSERT(_buffer != 0);
auto& wf = wave_data.Format();
ALenum format =
wf.channels == 1 ?
(wf.bits_per_sample == 8 ? AL_FORMAT_MONO8 : AL_FORMAT_MONO16) :
(wf.bits_per_sample == 8 ? AL_FORMAT_STEREO8 : AL_FORMAT_STEREO16);
alBufferData(_buffer, format, wave_data.Data(), ToInt32(wave_data.DataByteSize()), wf.samples_per_seconds);
ASSERT(alGetError() == 0);
}
osc_bundle_element_size_t ReceivedBundleElement::Size() const
{
return ToInt32( sizePtr_ );
}
TSLKValue::operator bool()
{
return ToInt32() > 0;
}
TSLKValue::operator unsigned short()
{
return (unsigned short)ToInt32();
}
TSLKValue::operator unsigned long()
{
return (unsigned long)ToInt32();
}
void TestInspBridge() {
auto PrintRpy = [](const PR_INSP_BRIDGE_RPY &stRpy) {
char chArrMsg[100];
std::cout << "Inspect bridge status " << ToInt32(stRpy.enStatus) << std::endl;
int nBridgeWindowIndex = 0;
for (const auto &rectBridge : stRpy.vecBridgeWindow) {
_snprintf(chArrMsg, sizeof(chArrMsg), "%d, %d, %d, %d", rectBridge.x, rectBridge.y, rectBridge.width, rectBridge.height);
std::cout << "Bridge window " << nBridgeWindowIndex << " : " << chArrMsg << std::endl;
++ nBridgeWindowIndex;
}
};
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl << "INSPECT BRIDGE REGRESSION TEST #1 STARTING";
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl;
{
PR_INSP_BRIDGE_CMD stCmd;
PR_INSP_BRIDGE_RPY stRpy;
stCmd.matInputImg = cv::imread("./data/TestInspBridge.png", cv::IMREAD_GRAYSCALE);
stCmd.enInspMode = PR_INSP_BRIDGE_MODE::OUTER;
stCmd.rectROI = cv::Rect(221, 195, 28, 82);
stCmd.rectOuterSrchWindow = cv::Rect(212, 187, 43, 102);
for (int i = 0; i < 4; ++i)
stCmd.vecOuterInspDirection.push_back(PR_DIRECTION(i));
PR_InspBridge(&stCmd, &stRpy);
PrintRpy(stRpy);
}
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl << "INSPECT BRIDGE REGRESSION TEST #2 STARTING";
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl;
{
PR_INSP_BRIDGE_CMD stCmd;
PR_INSP_BRIDGE_RPY stRpy;
stCmd.matInputImg = cv::imread("./data/TestInspBridge.png", cv::IMREAD_GRAYSCALE);
stCmd.enInspMode = PR_INSP_BRIDGE_MODE::OUTER;
stCmd.rectROI = cv::Rect(169, 195, 28, 82);
stCmd.rectOuterSrchWindow = cv::Rect(158, 187, 45, 108);
for (int i = 0; i < 4; ++i)
stCmd.vecOuterInspDirection.push_back(PR_DIRECTION(i));
PR_InspBridge(&stCmd, &stRpy);
PrintRpy(stRpy);
}
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl << "INSPECT BRIDGE REGRESSION TEST #3 STARTING";
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl;
{
PR_INSP_BRIDGE_CMD stCmd;
PR_INSP_BRIDGE_RPY stRpy;
stCmd.matInputImg = cv::imread("./data/F1-7-4.png", cv::IMREAD_GRAYSCALE);
stCmd.enInspMode = PR_INSP_BRIDGE_MODE::INNER;
stCmd.rectROI = cv::Rect(1539, 1858, 24, 108);
stCmd.stInnerInspCriteria.fMaxLengthX = 15;
stCmd.stInnerInspCriteria.fMaxLengthY = 50;
PR_InspBridge(&stCmd, &stRpy);
PrintRpy(stRpy);
}
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl << "INSPECT BRIDGE REGRESSION TEST #4 STARTING";
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl;
{
PR_INSP_BRIDGE_CMD stCmd;
PR_INSP_BRIDGE_RPY stRpy;
stCmd.matInputImg = cv::imread("./data/F1-7-4.png", cv::IMREAD_GRAYSCALE);
stCmd.enInspMode = PR_INSP_BRIDGE_MODE::INNER;
stCmd.rectROI = cv::Rect(1607, 1862, 24, 108);
stCmd.stInnerInspCriteria.fMaxLengthX = 15;
stCmd.stInnerInspCriteria.fMaxLengthY = 50;
PR_InspBridge(&stCmd, &stRpy);
PrintRpy(stRpy);
}
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl << "INSPECT BRIDGE REGRESSION TEST #5 STARTING";
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl;
{
PR_INSP_BRIDGE_CMD stCmd;
PR_INSP_BRIDGE_RPY stRpy;
stCmd.matInputImg = cv::imread("./data/F1-7-4.png", cv::IMREAD_GRAYSCALE);
stCmd.enInspMode = PR_INSP_BRIDGE_MODE::INNER;
stCmd.rectROI = cv::Rect(1542, 2048, 24, 108);
stCmd.stInnerInspCriteria.fMaxLengthX = 15;
stCmd.stInnerInspCriteria.fMaxLengthY = 50;
PR_InspBridge(&stCmd, &stRpy);
PrintRpy(stRpy);
}
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl << "INSPECT BRIDGE REGRESSION TEST #6 STARTING";
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl;
{
PR_INSP_BRIDGE_CMD stCmd;
PR_INSP_BRIDGE_RPY stRpy;
stCmd.matInputImg = cv::imread("./data/TestInspBridge_1.png", cv::IMREAD_GRAYSCALE);
stCmd.enInspMode = PR_INSP_BRIDGE_MODE::OUTER;
stCmd.rectROI = cv::Rect(184, 828, 208, 80);
stCmd.rectOuterSrchWindow = cv::Rect(146, 776, 285, 185);
stCmd.vecOuterInspDirection = {PR_DIRECTION::UP, PR_DIRECTION::DOWN, PR_DIRECTION::LEFT};
PR_InspBridge(&stCmd, &stRpy);
PrintRpy(stRpy);
}
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl << "INSPECT BRIDGE REGRESSION TEST #7 STARTING";
std::cout << std::endl << "---------------------------------------------";
std::cout << std::endl;
{
PR_INSP_BRIDGE_CMD stCmd;
PR_INSP_BRIDGE_RPY stRpy;
stCmd.matInputImg = cv::imread("./data/TestInspBridge_2.png", cv::IMREAD_GRAYSCALE);
stCmd.enInspMode = PR_INSP_BRIDGE_MODE::OUTER;
stCmd.rectROI = cv::Rect(9, 14, 45, 173);
stCmd.rectOuterSrchWindow = cv::Rect(0, 0, 64, 202);
stCmd.vecOuterInspDirection = {PR_DIRECTION::LEFT, PR_DIRECTION::RIGHT};
PR_InspBridge(&stCmd, &stRpy);
PrintRpy(stRpy);
}
}
PrimitiveTypeMapCache() {
// if we create the TypeMap as a static function member, the constructor
// is guarantueed to be called by only one thread (see C++11 standard sec 6.7)
// while all other threads wait for completion. Thus no manual synchronization
// is needed for the initialization.
// create all type mappers
/* convert primitive types */
#define CONVERT_NUMBER(NAME, TYPE, PRED, CONV) \
{ \
func_t f = [](const Local<Value>& val) \
-> std::tuple<size_t, void*, cl_int> { \
if (!val->PRED()){ \
return std::tuple<size_t, void*,cl_int>(0, NULL, CL_INVALID_ARG_VALUE);\
} \
void* ptr_data = new TYPE; \
size_t ptr_size = sizeof(TYPE); \
*((TYPE *)ptr_data) = val->CONV(); \
return std::tuple<size_t, void*,cl_int>(ptr_size, ptr_data, 0); \
}; \
m_converters[NAME] = f; \
}
CONVERT_NUMBER("char", cl_char, IsInt32, ToInt32()->Value);
CONVERT_NUMBER("uchar", cl_uchar, IsInt32, ToUint32()->Value);
CONVERT_NUMBER("short", cl_short, IsInt32, ToInt32()->Value);
CONVERT_NUMBER("ushort", cl_ushort, IsInt32, ToUint32()->Value);
CONVERT_NUMBER("int", cl_int , IsInt32, ToInt32()->Value);
CONVERT_NUMBER("uint", cl_uint, IsInt32, ToUint32()->Value);
CONVERT_NUMBER("long", cl_long, IsNumber, ToInteger()->Value);
CONVERT_NUMBER("ulong", cl_ulong, IsNumber, ToInteger()->Value);
CONVERT_NUMBER("float", cl_float, IsNumber, NumberValue);
CONVERT_NUMBER("double", cl_double, IsNumber, NumberValue);
CONVERT_NUMBER("half", cl_half, IsNumber, NumberValue);
#undef CONVERT_NUMBER
/* convert vector types (e.g. float4, int16, etc) */
#define CONVERT_VECT(NAME, TYPE, I, PRED, COND) \
{ \
func_t f = [](const Local<Value>& val) \
-> std::tuple<size_t, void*, cl_int> { \
if (!val->IsArray()) { \
/*THROW_ERR(CL_INVALID_ARG_VALUE); */ \
return std::tuple<size_t,void*,cl_int>(0, NULL, CL_INVALID_ARG_VALUE);\
} \
Local<Array> arr = Local<Array>::Cast(val); \
if (arr->Length() != I) { \
/*THROW_ERR(CL_INVALID_ARG_SIZE);*/ \
return std::tuple<size_t,void*,cl_int>(0, NULL, CL_INVALID_ARG_SIZE); \
} \
TYPE * vvc = new TYPE[I]; \
size_t ptr_size = sizeof(TYPE) * I; \
void* ptr_data = vvc; \
for (unsigned int i = 0; i < I; ++ i) { \
if (!arr->Get(i)->PRED()) { \
/*THROW_ERR(CL_INVALID_ARG_VALUE);*/ \
/*THROW_ERR(CL_INVALID_ARG_VALUE);*/ \
return std::tuple<size_t,void*,cl_int>(0, NULL, CL_INVALID_ARG_VALUE);\
} \
vvc[i] = arr->Get(i)->COND(); \
} \
return std::tuple<size_t,void*,cl_int>(ptr_size, ptr_data, 0); \
}; \
m_converters["NAME ## I"] = f; \
}
#define CONVERT_VECTS(NAME, TYPE, PRED, COND) \
CONVERT_VECT(NAME, TYPE, 2, PRED, COND);\
CONVERT_VECT(NAME, TYPE, 3, PRED, COND);\
CONVERT_VECT(NAME, TYPE, 4, PRED, COND);\
CONVERT_VECT(NAME, TYPE, 8, PRED, COND);\
CONVERT_VECT(MAME, TYPE, 16, PRED, COND);
CONVERT_VECTS("char", cl_char, IsInt32, ToInt32()->Value);
CONVERT_VECTS("uchar", cl_uchar, IsInt32, ToUint32()->Value);
CONVERT_VECTS("short", cl_short, IsInt32, ToInt32()->Value);
CONVERT_VECTS("ushort", cl_ushort, IsInt32, ToUint32()->Value);
CONVERT_VECTS("int", cl_int, IsInt32, ToInt32()->Value);
CONVERT_VECTS("uint", cl_uint, IsInt32, ToUint32()->Value);
CONVERT_VECTS("long", cl_long, IsNumber, ToInteger()->Value);
CONVERT_VECTS("ulong", cl_ulong, IsNumber, ToInteger()->Value);
CONVERT_VECTS("float", cl_float, IsNumber, NumberValue);
CONVERT_VECTS("double", cl_double, IsNumber, NumberValue);
CONVERT_VECTS("half", cl_half, IsNumber, NumberValue);
#undef CONVERT_VECT
#undef CONVERT_VECTS
// add boolean conversion
m_converters["bool"] = [](const Local<Value>& val) {
size_t ptr_size = sizeof(cl_bool);
void* ptr_data = new cl_bool;
*((cl_bool *)ptr_data) = val->BooleanValue() ? 1 : 0;
return std::tuple<size_t,void*,cl_int>(ptr_size, ptr_data, 0);
};
}
static void PrintInspReply(const PR_INSP_CONTOUR_RPY &stRpy) {
std::cout << "Inspect contour status: " << ToInt32(stRpy.enStatus) << std::endl;
std::cout << "Number of defects: " << stRpy.vecDefectContour.size() << std::endl;
}
static Elem toType(Elem a) {
return ToInt32(a);
}
char ReceivedMessageArgument::AsCharUnchecked() const
{
return (char)ToInt32( argument_ );
}
TSLKValue::operator int()
{
return ToInt32();
}
TSLKValue::operator unsigned int()
{
return (unsigned int)ToInt32();
}
static void PrintLrnReply(const PR_LRN_CONTOUR_RPY &stRpy) {
std::cout << "Learn contour status: " << ToInt32(stRpy.enStatus) << std::endl;
std::cout << "Result threshold: " << stRpy.nThreshold << std::endl;
std::cout << "Number of contour: " << stRpy.vecContours.size() << std::endl;
}
static void toType2(JSContext *cx, JS::Handle<JS::Value> v, Elem *out) {
ToInt32(cx,v,out);
}