void TerminalImageFilterChain::setImage(const Character* const image , int lines , int columns, const QVector<LineProperty>& lineProperties)
{
if (empty())
return;
// reset all filters and hotspots
reset();
PlainTextDecoder decoder;
decoder.setTrailingWhitespace(false);
// setup new shared buffers for the filters to process on
QString* newBuffer = new QString();
QList<int>* newLinePositions = new QList<int>();
setBuffer( newBuffer , newLinePositions );
// free the old buffers
delete _buffer;
delete _linePositions;
_buffer = newBuffer;
_linePositions = newLinePositions;
QTextStream lineStream(_buffer);
decoder.begin(&lineStream);
for (int i=0 ; i < lines ; i++)
{
_linePositions->append(_buffer->length());
decoder.decodeLine(image + i*columns,columns,LINE_DEFAULT);
// pretend that each line ends with a newline character.
// this prevents a link that occurs at the end of one line
// being treated as part of a link that occurs at the start of the next line
//
// the downside is that links which are spread over more than one line are not
// highlighted.
//
// TODO - Use the "line wrapped" attribute associated with lines in a
// terminal image to avoid adding this imaginary character for wrapped
// lines
if ( !(lineProperties.value(i,LINE_DEFAULT) & LINE_WRAPPED) )
lineStream << QChar('\n');
}
decoder.end();
}
void OpenGLExample::onInitialize()
{
// create program
globjects::init();
#ifdef __APPLE__
globjects::Shader::clearGlobalReplacements();
globjects::Shader::globalReplace("#version 140", "#version 150");
globjects::debug() << "Using global OS X shader replacement '#version 140' -> '#version 150'" << std::endl;
#endif
m_texture = new globjects::Texture;
// void image2D(gl::GLint level, gl::GLenum internalFormat, gl::GLsizei width, gl::GLsizei height, gl::GLint border, gl::GLenum format, gl::GLenum type, const gl::GLvoid * data);
m_texture->image2D(0, gl::GL_RGBA, m_viewportCapability->width(), m_viewportCapability->height(), 0, gl::GL_RGBA, gl::GL_UNSIGNED_BYTE, nullptr);
m_fbo = new globjects::Framebuffer;
m_fbo->attachTexture(gl::GL_COLOR_ATTACHMENT0, m_texture, 0);
m_vertices = new globjects::Buffer;
m_vertices->setData(std::vector<float>{
-0.8, -0.8,
0.8, -0.8,
0.8, 0.8
}, gl::GL_STATIC_DRAW);
m_vao = new globjects::VertexArray;
auto binding = m_vao->binding(0);
binding->setAttribute(0);
binding->setBuffer(m_vertices, 0, 2 * sizeof(float));
binding->setFormat(2, gl::GL_FLOAT);
m_vao->enable(0);
m_program = new globjects::Program;
m_program->attach(
globjects::Shader::fromFile(gl::GL_VERTEX_SHADER, "data/openglexample/shader.vert"),
globjects::Shader::fromFile(gl::GL_FRAGMENT_SHADER, "data/openglexample/shader.frag")
);
gl::glClearColor(1.0, 1.0, 1.0, 1.0);
m_fbo->unbind();
}
BitBlock::BitBlock(BitBlock& block_) : Block (block_) {
valSorted=block_.valSorted;
//outPair=new Pair();
outPair=new IntValPos();
bfrSize=block_.bfrSize;
if (block_.bfr!=NULL) {
memcpy(bfr, block_.bfr, bfrSize);
}
else {
bfr=NULL;
}
init=block_.init;
fieldSize=block_.fieldSize;
startPos=block_.startPos;
setBuffer(bfr, bfrSize);
}
CLSTList lz77Compress (
char* string, unsigned sliding_size, unsigned buffer_size
) {
CLSTList compress = clstNew();
int i, str_lenght = strlen(string);
char sliding[sliding_size + 1];
char buffer[buffer_size + 1];
sliding[0] = '\0';
buffer[0] = '\0';
for (i = 0; i < str_lenght; i ++) {
setSliding(sliding, string, i, sliding_size);
setBuffer(buffer, string, i, buffer_size);
clstAppend(compress, getTuple(sliding, buffer, &i));
}
return compress;
}
bool File::open(Mode mode)
{
if (mode == CLOSED)
return true;
// File must exist if read mode.
if ((mode == READ) && !PHYSFS_exists(filename.c_str()))
throw love::Exception("Could not open file %s. Does not exist.", filename.c_str());
// Check whether the write directory is set.
if ((mode == APPEND || mode == WRITE) && (PHYSFS_getWriteDir() == 0) && !hack_setupWriteDirectory())
throw love::Exception("Could not set write directory.");
// File already open?
if (file != 0)
return false;
this->mode = mode;
switch (mode)
{
case READ:
file = PHYSFS_openRead(filename.c_str());
break;
case APPEND:
file = PHYSFS_openAppend(filename.c_str());
break;
case WRITE:
file = PHYSFS_openWrite(filename.c_str());
break;
default:
break;
}
if (file != 0 && !setBuffer(bufferMode, bufferSize))
{
// Revert to buffer defaults if we don't successfully set the buffer.
bufferMode = BUFFER_NONE;
bufferSize = 0;
}
return (file != 0);
}
void SFMLAudioEngine::playSound(std::string fileName)
{
if(loadSound(fileName))
{
for(auto it = m_sounds.begin(); it != m_sounds.end(); it++)
{
if(it->getStatus() != sf::Sound::Playing)
{
it->setBuffer(*m_soundBuffers[fileName]);
it->play();
return;
}
}
m_sounds.push_back(sf::Sound(*m_soundBuffers[fileName]));
m_sounds.back().setVolume(m_soundVolume);
m_sounds.back().play();
}
}
void SludgeZBufferMaker::postOpen()
{
gtk_adjustment_set_upper( theSliderAdjustment, backdrop.total-1 );
gtk_adjustment_set_upper( theYAdjustment, -backdrop.sprites[0].height*2 ); // *2 to allow obscuring characters exiting to the bottom
setBuffer(1);
setBufferY(backdrop.sprites[buffer()].special);
char buf[5];
sprintf(buf, "%i", backdrop.total-1);
gtk_label_set_text(theNumBuffersLabel, buf);
activateZoomButtons(backdrop.sprites[0].width, -backdrop.sprites[0].height);
showStatusbar(backdrop.sprites[0].width, -backdrop.sprites[0].height);
on_zoom_fit_clicked();
reshape();
loadZTextures(&backdrop);
render_timer_event(theDrawingarea);
setupButtons();
}
SpillOutputStream::SpillOutputStream(
SharedSegmentFactory pSegmentFactoryInit,
SharedCacheAccessor pCacheAccessorInit,
std::string spillFileNameInit)
: pSegmentFactory(pSegmentFactoryInit),
pCacheAccessor(pCacheAccessorInit),
spillFileName(spillFileNameInit)
{
// REVIEW: this causes pCacheAccessor to lose its chance to intercept any
// of the scratch calls
scratchAccessor = pSegmentFactory->newScratchSegment(
pCacheAccessor->getCache(),
1);
scratchPageLock.accessSegment(scratchAccessor);
scratchPageLock.allocatePage();
cbBuffer = scratchAccessor.pSegment->getUsablePageSize();
setBuffer(
scratchPageLock.getPage().getWritableData(),
cbBuffer);
}
void Sound::loadWav(const char *filename)
{
sound = filename;
buffer = Manager::getInstance().getBuffer(filename);
// We create a source, binded to our buffer :
generateSource();
if (alGetError() != AL_NO_ERROR)
throw RubyException(rb_eRuntimeError, "Cannot generator source.");
setBuffer(buffer);
setPos(0.f, 0.f, 0.f);
setVelocity(0.f, 0.f, 0.f);
setDirection(0.f, 0.f, 0.f);
if (alGetError() != AL_NO_ERROR)
throw RubyException(rb_eRuntimeError, "Cannot set buffer.");
}
/**
* Load the sound parameters from georges' form
*/
void CSimpleSound::importForm(const std::string& filename, NLGEORGES::UFormElm& root)
{
NLGEORGES::UFormElm *psoundType;
std::string dfnName;
// some basic checking.
root.getNodeByName(&psoundType, ".SoundType");
nlassert(psoundType != NULL);
psoundType->getDfnName(dfnName);
nlassert(dfnName == "simple_sound.dfn");
// Call the base class
CSound::importForm(filename, root);
// Name
_Filename = CStringMapper::map(filename);
// Buffername
std::string bufferName;
root.getValueByName(bufferName, ".SoundType.Filename");
bufferName = CFile::getFilenameWithoutExtension(bufferName);
_Buffername = CStringMapper::map(bufferName);
setBuffer(NULL);
// contain % so it need a context to play
if (bufferName.find ("%") != string::npos)
{
_NeedContext = true;
}
// MaxDistance
root.getValueByName(_MaxDist, ".SoundType.MaxDistance");
// MinDistance
root.getValueByName(_MinDist, ".SoundType.MinDistance");
// Alpha
root.getValueByName(_Alpha, ".SoundType.Alpha");
}
void PlayDrillCommandClass::parse()
{
LOGF("Parsing PlayDrill commmand");
StringArray steps;
String unparsed(getBuffer());
int commaIdx = unparsed.indexOf(',');
String pausePercentage = unparsed.substring(0, commaIdx);
unparsed= unparsed.substring(commaIdx + 1);
m_execData.pauseFactor= pausePercentage.toFloat() / 100.0;
split(unparsed, EOF_STEP, steps);
int stepIndex= 0;
parse(*this, steps, stepIndex);
setBuffer("");
}
void TransferRequest::setDefaults( ATP_TransferRequest_t * header, int id ){
setFrameID( header, "ATP" );
setFrameType( header, ATP_TRANSFER_REQUEST );
setMeshAddress( header, 0 ); // Pan address for XBee radios
setDatetime( header, (unsigned long) millis() );
setAtpID( header, id );
setVersion( header, 1 );
setStatus( header, ATP_UNSENT );
// Do not change the above members of the struct. The app.cpp dispatcher requires these.
setTopChunk( header, 0 );
setChunkCount( header, 0 );
setSize( header, 0 );
setExpires( header, 0 );
setDescriptor( header, "CC");
setSource( header, 0 ); //todo Implement for Pinoccio Scouts, right now we're using XBee radios in direct connect mode
setDestination( header, 0 );
setFileName( header, "" );
setBuffer( header, 0 );
}
ICalcPU & ICalcPU ::
setDisplayFromAccumulator (double iAccumulator)
{
char tempString[20];
signed long tempAccum = iAccumulator;
//
// Convert the accumulator value to a string and display it
//
if (iAccumulator != tempAccum)
sprintf(tempString, "%f", iAccumulator);
else
sprintf(tempString, "%d", tempAccum);
setBuffer ( tempString ); //want the event, bufferId(),
//to be signalled, so call set
return *this;
}
void Image::initializeParent()
{
stromx::runtime::Image::PixelType pixelType = stromx::runtime::Image::MONO_8;
switch(m_image.format())
{
case QImage::Format_Indexed8:
pixelType = stromx::runtime::Image::MONO_8;
break;
case QImage::Format_RGB888:
pixelType = stromx::runtime::Image::RGB_24;
break;
default:
m_image = QImage();
}
setBuffer(reinterpret_cast<uint8_t*>(m_image.bits()), m_image.byteCount());
initializeImage(m_image.width(), m_image.height(), m_image.bytesPerLine(),
m_image.bits(), pixelType);
}
void ts::scene::Engine_sound_controller::register_car(const world::Car* car)
{
const auto& car_definition = car->car_definition();
auto audio_buffer = engine_sound_store_.load_from_file(car_definition.engine_sample);
engine_sounds_.push_back({ car, nullptr });
if (audio_buffer)
{
Vector2<float> position = car->position();
auto& entry = engine_sounds_.back();
auto sound_ptr = std::make_unique<sf::Sound>();
sound_ptr->setLoop(true);
sound_ptr->setPitch(base_pitch);
sound_ptr->setBuffer(*audio_buffer);
sound_ptr->setMinDistance(200.0f);
sound_ptr->setRelativeToListener(false);
entry.second = std::move(sound_ptr);
sorting_required_ = true;
}
}
void Display::write(uint32_t w) {
if (lastWrite == w)
return;
lastWrite = w;
uint8_t pos = parseInt(w, parse); // Parsed number
if (pos >= digits) // Check if digit was not overflow
return overflowDisp();
update(pos); // Update display
for (; pos >=0; pos--) {
setBuffer(decodMap[digits - pos - 1]); // Set buffer for display
set(parse[pos]); // Set the number
if (pos == 0)
return;
}
}
void loadIndex(void)
{ setBuffer(frmBuffer);
int **line = frmIndex.line, color[256], colorNb=1 ;
int c=4 ; while(--c) if(line[c]) free(line[c]);
c=2 ; while(c) line[--c] = (int*)malloc((frmIndex.szx)*4);
c=2 ; while(c) line[(--c)+2] = (int*)malloc((frmIndex.szy)*4);
int *ptr = (int*)(Form1->lastFrmImg->Picture->Bitmap->ScanLine[frmIndex.y]) ;
ptr+= frmIndex.x ;
for(c=0;c<frmIndex.szx;c++) (line[0])[c]=*ptr++ ; // fill up index
ptr = (int*)(Form1->lastFrmImg->Picture->Bitmap->ScanLine[frmIndex.y+frmIndex.szy-1]) ;
ptr+= frmIndex.x ;
for(c=0;c<frmIndex.szx;c++) (line[1])[c]=*ptr++ ; // fill down index
for(c=0;c<frmIndex.szy;c++)
{ ptr = (int*)(Form1->lastFrmImg->Picture->Bitmap->ScanLine[frmIndex.y+c]) ;
(line[2])[c]= ptr[frmIndex.x] ; // fill left
(line[3])[c]= ptr[frmIndex.x+frmIndex.szx-1] ; // and right
};
int n,found=0 ; *color=**line ;
for(c=0;c<frmIndex.szx;c++) // count and get colors of up and down index line
{ for(n=0;n<colorNb;n++)
if((line[0])[c] == color[n]) { found=1 ; break ; }
if(!found) color[colorNb++] = (line[0])[c] ; else found=0 ;
for(n=0;n<colorNb;n++)
if((line[1])[c] == color[n]) { found=1 ; break ; }
if(!found) color[colorNb++] = (line[1])[c] ; else found=0 ;
};
for(c=0;c<frmIndex.szy;c++) // and do the same for left & right
{ for(n=0;n<colorNb;n++)
if((line[2])[c] == color[n]) { found=1 ; break ; }
if(!found) color[colorNb++] = (line[2])[c] ; else found=0 ;
for(n=0;n<colorNb;n++)
if((line[3])[c] == color[n]) { found=1 ; break ; }
if(!found) color[colorNb++] = (line[3])[c] ; else found=0 ;
};
frmIndex.colorNb = colorNb;
frmIndex.color = (int*)malloc(colorNb*4);
memcpy(frmIndex.color,color,colorNb*4);
}
void Reader::IoSmartCardPower(IWDFIoRequest* pRequest,SIZE_T inBufSize,SIZE_T outBufSize) {
UNREFERENCED_PARAMETER(inBufSize);
UNREFERENCED_PARAMETER(outBufSize);
OutputDebugString(L"[BixVReader][POWR]IOCTL_SMARTCARD_POWER");
DWORD code=getInt(pRequest);
if (code==SCARD_COLD_RESET) {
OutputDebugString(L"[BixVReader][POWR]SCARD_COLD_RESET");
protocol=0;
powered=1;
state=SCARD_NEGOTIABLE;
}
else if (code==SCARD_WARM_RESET) {
OutputDebugString(L"[BixVReader][POWR]SCARD_WARM_RESET");
protocol=0;
powered=1;
state=SCARD_NEGOTIABLE;
}
else if (code==SCARD_POWER_DOWN) {
OutputDebugString(L"[BixVReader][POWR]SCARD_POWER_DOWN");
protocol=0;
powered=0;
state=SCARD_SWALLOWED;
}
if (code==SCARD_COLD_RESET || code==SCARD_WARM_RESET) {
BYTE ATR[100];
DWORD ATRsize;
if (!QueryATR(ATR,&ATRsize,true))
{
pRequest->CompleteWithInformation(STATUS_NO_MEDIA, 0);
return;
}
setBuffer(device,pRequest,ATR,ATRsize);
}
else {
SectionLocker lock(device->m_RequestLock);
pRequest->CompleteWithInformation(STATUS_SUCCESS, 0);
}
}
void Box::setBoxWithRandomColor(float width, float height, float depth)
{
float w2 = width / 2;
float h2 = height / 2;
float d2 = depth / 2;
std::vector<FigureVertex> vertices;
std::vector<UINT> indices;
GeometryGenerator::createBox(width, height, depth, vertices, indices);
setBuffer(vertices, indices);
auto material = Material();
material.m_Ambient = XMFLOAT4(0.01f * (rand() % 100), 0.01f * (rand() % 100), 0.01f * (rand() % 100), 1.0f);
material.m_Diffuse = XMFLOAT4(0.01f * (rand() % 100), 0.01f * (rand() % 100), 0.01f * (rand() % 100), 0.5f);
material.m_Specular = XMFLOAT4(0.01f * (rand() % 100), 0.01f * (rand() % 100), 0.01f * (rand() % 100), 16.0f);
setMaterial(material);
}
std::shared_ptr<sf::Sound> SoundSystem::GetSound(const std::string& name) {
auto s = CurrentSounds.GetItem(name);
if (s)
{
return s;
} else
{
std::shared_ptr<sf::Sound> s;
std::shared_ptr<sf::SoundBuffer> sb = Engine::GetResMgr()->get<sf::SoundBuffer>(name);
if (!sb) return s;
s.reset(new sf::Sound());
s->setBuffer(*sb);
return s;
}
Engine::out(Engine::ERROR) << "SoundSYS: Unable to play or load sound: " << name << std::endl;
return s;
}
void Reader::IoSmartCardTransmit(IWDFIoRequest* pRequest,SIZE_T inBufSize,SIZE_T outBufSize) {
UNREFERENCED_PARAMETER(inBufSize);
UNREFERENCED_PARAMETER(outBufSize);
OutputDebugString(L"[BixVReader][TRSM]IOCTL_SMARTCARD_TRANSMIT");
SCARD_IO_REQUEST *scardRequest=NULL;
int scardRequestSize=0;
BYTE *RAPDU=NULL;
int RAPDUSize=0;
if (!getBuffer(pRequest,(void **)&scardRequest,&scardRequestSize)
|| scardRequestSize<sizeof *scardRequest
|| scardRequest->dwProtocol!=protocol) {
SectionLocker lock(device->m_RequestLock);
pRequest->CompleteWithInformation(STATUS_INVALID_DEVICE_STATE, 0);
goto end;
}
if (!QueryTransmit((BYTE *)(scardRequest+1),
scardRequestSize-sizeof(SCARD_IO_REQUEST),
&RAPDU,&RAPDUSize))
{
SectionLocker lock(device->m_RequestLock);
pRequest->CompleteWithInformation(STATUS_NO_MEDIA, 0);
goto end;
}
SCARD_IO_REQUEST *p=(SCARD_IO_REQUEST *)realloc(scardRequest,RAPDUSize+sizeof(SCARD_IO_REQUEST));
if (p==NULL) {
SectionLocker lock(device->m_RequestLock);
pRequest->CompleteWithInformation(STATUS_INVALID_DEVICE_STATE, 0);
goto end;
}
scardRequest = p;
scardRequest->cbPciLength=sizeof(SCARD_IO_REQUEST);
scardRequest->dwProtocol=protocol;
memcpy(scardRequest+1,RAPDU,RAPDUSize);
setBuffer(device,pRequest,scardRequest,RAPDUSize+sizeof(SCARD_IO_REQUEST));
end:
free(scardRequest);
free(RAPDU);
}
void Cc3dALSource::initSource(Cc3dALBuffer*buffer){
assert(buffer);
setBuffer(buffer);
// //记录buffer和isPermanent
// m_buffer=(Cc3dALBuffer*)pBuffer;
//创建source
ALenum error;
alGenSources(1, &m_source);
if(alGetError() != AL_NO_ERROR)
{
printf("Error generating sources! %x\n", error);
exit(1);
}
//初始化source
alSourcei(m_source, AL_BUFFER, buffer->getBuffer());
alSourcef(m_source, AL_PITCH, 1.0f);
alSourcef(m_source, AL_GAIN, 1.0f);
alSourcei(m_source, AL_LOOPING, AL_FALSE);
// 设定距离模型参数
alSourcef(m_source, AL_REFERENCE_DISTANCE, 30);
alSourcef(m_source, AL_ROLLOFF_FACTOR,0.25);
}
void SpillOutputStream::flushBuffer(uint cbRequested)
{
if (scratchPageLock.isLocked()) {
assert(!pSegOutputStream);
// grow from short to long
spill();
} else {
assert(pSegOutputStream);
assert(!scratchPageLock.isLocked());
// already long
assert(cbBuffer >= getBytesAvailable());
pSegOutputStream->consumeWritePointer(cbBuffer - getBytesAvailable());
}
assert(pSegOutputStream);
if (cbRequested) {
PBuffer pBuffer =
pSegOutputStream->getWritePointer(cbRequested,&cbBuffer);
setBuffer(pBuffer, cbBuffer);
} else {
pSegOutputStream->hardPageBreak();
cbBuffer = 0;
}
}
gboolean SludgeZBufferMaker::init(gboolean calledFromConstructor)
{
currentFilename[0] = 0;
sprintf(currentShortname, "%s", getUntitledFilename());
setBuffer(1);
if (calledFromConstructor) {
backdrop.total=0;
backdrop.type=2;
backdrop.sprites=NULL;
backdrop.myPalette.pal=NULL;
backdrop.myPalette.r=NULL;
backdrop.myPalette.g=NULL;
backdrop.myPalette.b=NULL;
if (!reserveSpritePal(&backdrop.myPalette, 0)) {
return TRUE;
}
}
return FALSE;
}
CBin::t_size CBin::Share( CBin *x_p )
{_STT();
if ( !x_p || !x_p->getUsed() )
{ Destroy();
return 0;
} // end if
// Lose any Ptr buffer
FreePtr();
// Ptr buffer?
if ( x_p->m_ptr )
setBuffer( x_p->m_ptr, x_p->m_nUsed, x_p->m_nOffset, x_p->m_bFree );
// Share native buffer
else
m_nUsed = x_p->m_nUsed,
m_nOffset = x_p->m_nOffset,
m_buf.Share( x_p->m_buf );
return m_nUsed;
}
ICalcPU & ICalcPU :: processDigit (IString iCurrentDigit)
{
IString tempString;
//
// If expecting a new input number or if the display has been cleared,
// start a new number. Otherwise get the current buffer contents and
// add the new digit to what is already there.
//
if (dExpectNewOperand || dBuffer == "")
{
tempString = "";
dExpectNewOperand = false;
}
else tempString = dBuffer;
tempString += iCurrentDigit; // Add to the current buffer contents
setBuffer(tempString); // Want event, bufferId(), to get
// signalled, so call set to display.
return *this;
}
Sound& Sound::operator =(const Sound& right)
{
// Here we don't use the copy-and-swap idiom, because it would mess up
// the list of sound instances contained in the buffers and unnecessarily
// destroy/create OpenAL sound sources
// Delegate to base class, which copies all the sound attributes
SoundSource::operator=(right);
// Detach the sound instance from the previous buffer (if any)
if (m_buffer)
{
stop();
m_buffer->detachSound(this);
m_buffer = NULL;
}
// Copy the remaining sound attributes
if (right.m_buffer)
setBuffer(*right.m_buffer);
setLoop(right.getLoop());
return *this;
}
void Reader::IoSmartCardTransmit(IWDFIoRequest* pRequest,SIZE_T inBufSize,SIZE_T outBufSize) {
UNREFERENCED_PARAMETER(inBufSize);
UNREFERENCED_PARAMETER(outBufSize);
OutputDebugString(L"[BixVReader][TRSM]IOCTL_SMARTCARD_TRANSMIT");
BYTE APDU[1000];
int APDUSize;
getBuffer(pRequest,APDU,&APDUSize);
if (((SCARD_IO_REQUEST*)APDU)->dwProtocol!=protocol) {
SectionLocker lock(device->m_RequestLock);
pRequest->CompleteWithInformation(STATUS_INVALID_DEVICE_STATE, 0);
return;
}
BYTE Resp[1000];
int RespSize;
if (!QueryTransmit(APDU+sizeof(SCARD_IO_REQUEST),APDUSize-sizeof(SCARD_IO_REQUEST),Resp+sizeof(SCARD_IO_REQUEST),&RespSize))
{
SectionLocker lock(device->m_RequestLock);
pRequest->CompleteWithInformation(STATUS_NO_MEDIA, 0);
return;
}
((SCARD_IO_REQUEST*)Resp)->cbPciLength=sizeof(SCARD_IO_REQUEST);
((SCARD_IO_REQUEST*)Resp)->dwProtocol=protocol;
setBuffer(device,pRequest,Resp,RespSize+sizeof(SCARD_IO_REQUEST));
}
OscMessage(uint8_t* data, int size) {
setBuffer(data, size);
// parse();
}
IntDecoder::IntDecoder(byte* buffer_, bool valSorted_) : Decoder(buffer_) {
outBlock = new MultiBlock(valSorted_, true, true, ValPos::INTTYPE);
setBuffer(buffer_);
outPair = outBlock->vp;
}
