void
FilterSwap4::process()
{
unsigned int const * first =
reinterpret_cast<unsigned int const *>(inputBuffer());
unsigned int const * last =
reinterpret_cast<unsigned int const *>(inputBuffer() + imageSize_);
unsigned int * dest =
reinterpret_cast<unsigned int *>(outputBuffer());
while (first < last) {
*(dest++) = __bswap_32(*(first++));
}
}
void
FilterSwap3::process()
{
unsigned char const * first = inputBuffer();
unsigned char const * last = inputBuffer() + imageSize_;
unsigned char * dest = outputBuffer();
char r, g, b;
while (first < last) {
b = *first++;
g = *first++;
r = *first++;
*dest++ = r;
*dest++ = g;
*dest++ = b;
}
}
void GPU::merge(uint32_t *input, size *positions, size n) const
{
cl::make_kernel<cl::Buffer&,cl::Buffer&,cl::Buffer&> merge(this->kmerge);
cl::make_kernel<cl::Buffer&,size,size> updatePositions(this->kupdatePositions);
cl::CommandQueue queue(context,dev);
size len=positions[n];
cl::Buffer inputBuffer(context, CL_MEM_READ_WRITE, sizeof(uint32_t)*len);
queue.enqueueWriteBuffer(inputBuffer, false, 0, sizeof(uint32_t)*len, input);
cl::Buffer outputBuffer(context, CL_MEM_READ_WRITE, sizeof(uint32_t)*len);
cl::Buffer positionsBuffer(context, CL_MEM_READ_WRITE, sizeof(size)*(n+1));
queue.enqueueWriteBuffer(positionsBuffer, false, 0, (n+1)*sizeof(size), positions);
if(n%2)
queue.enqueueCopyBuffer(inputBuffer, outputBuffer, sizeof(uint32_t)*positions[n-1],sizeof(uint32_t)*positions[n-1], (positions[n]-positions[n-1])*sizeof(uint32_t)); //kopiowanie ostatniego fragmentu, który przez pewien czas może nie być mergowany (jak długo jest nieparzysta liczba list)
while(n>1)
{
// std::clog<<n<<": ";
// std::copy(positions,positions+n+1,std::ostream_iterator<size>(std::clog," "));
// std::clog<<std::endl;
merge(cl::EnqueueArgs(queue,n/2),inputBuffer,outputBuffer,positionsBuffer);
size o=n;
n-=n/2;
updatePositions(cl::EnqueueArgs(queue,1),positionsBuffer,o,n);
std::swap(inputBuffer,outputBuffer);
}
queue.enqueueReadBuffer(inputBuffer, false, 0, sizeof(uint32_t)*len, input);
queue.finish();
}
//---------------------------------------------------------------
void
FilterYUV411toYUV::process()
{
unsigned char const * src_img = inputBuffer();
unsigned char * tgt_img = outputBuffer();
int srcImgSize = getImageSize(inputFormat_);
for (int i = 0; i < srcImgSize; i += 6) {
register int u = src_img[i];
register int y0 = src_img[i+1];
register int y1 = src_img[i+2];
register int v = src_img[i+3];
register int y2 = src_img[i+4];
register int y3 = src_img[i+5];
*(tgt_img++) = y0;
*(tgt_img++) = u;
*(tgt_img++) = v;
*(tgt_img++) = y1;
*(tgt_img++) = u;
*(tgt_img++) = v;
*(tgt_img++) = y2;
*(tgt_img++) = u;
*(tgt_img++) = v;
*(tgt_img++) = y3;
*(tgt_img++) = u;
*(tgt_img++) = v;
}
}
void AMRDeinterleaver::doGetNextFrame() {
// First, try getting a frame from the deinterleaving buffer:
if (fDeinterleavingBuffer->retrieveFrame(fTo, fMaxSize,
fFrameSize, fNumTruncatedBytes,
fLastFrameHeader, fPresentationTime,
fInputSource->isSynchronized())) {
// Success!
fNeedAFrame = False;
fDurationInMicroseconds = uSecsPerFrame;
// Call our own 'after getting' function. Because we're not a 'leaf'
// source, we can call this directly, without risking
// infinite recursion
afterGetting(this);
return;
}
// No luck, so ask our source for help:
fNeedAFrame = True;
if (!fInputSource->isCurrentlyAwaitingData()) {
fInputSource->getNextFrame(fDeinterleavingBuffer->inputBuffer(),
fDeinterleavingBuffer->inputBufferSize(),
afterGettingFrame, this,
FramedSource::handleClosure, this);
}
}
/*
*
* Adds data from the socket to the queue
*
*/
NETWORK_PROTOCOL_RESULT QuickProtocol::updateProtocol()
{
Buffer inputBuffer(receiveQueueBuffer.getBuffer()+receiveQueueBuffer.getSize(), //Directly pointing to the buffer
RECEIVEQUEUESIZE-receiveQueueBuffer.getSize());
NETWORK_SOCKET_RESULT result = socket->readIn(&inputBuffer);
if(result != NETWORK_SOCKET_OUT_OF_BUFFER)
{
return NETWORK_PROTOCOL_OK;
}
else if(result != NETWORK_SOCKET_OK) //ERROR
{
return NETWORK_PROTOCOL_ERROR;
}
if(inputBuffer.getSize() <= 0)
{
printf("BUG: Data but no data !\n");
return NETWORK_PROTOCOL_ERROR;
}
//manually sync the new size
receiveQueueBuffer.setSize(receiveQueueBuffer.getSize()+inputBuffer.getSize());
return NETWORK_PROTOCOL_OK;
}
InputStream createInputCompressedFileStream(const std::string &fileName)
{
InputStream inputStream;
boost::shared_ptr<InputCompressedFileStreamBuffer> inputBuffer(new InputCompressedFileStreamBuffer(fileName));
inputStream.setBuffer(inputBuffer);
return inputStream;
}
void
FilterFlip::process()
{
unsigned char const * src = inputBuffer();
unsigned char * dst = outputBuffer() + rowSize_ * (inputFormat_.height - 1);
for (unsigned int i = inputFormat_.height; i != 0; --i) {
memcpy(dst, src, rowSize_);
src += rowSize_;
dst -= rowSize_;
}
}
void
FilterHalfImage::process()
{
unsigned char const * src = inputBuffer() + offset_;
unsigned char * dst = outputBuffer();
for (unsigned int i = 0; i < inputFormat_.height; i += 2) {
memcpy(dst, src, rowSize_);
src += rowSize2_;
dst += rowSize_;
}
}
void
FilterReverse::process()
{
unsigned char const * src = inputBuffer();
unsigned char * dst = outputBuffer() + rowSize_ * (inputFormat_.height - 1);
int numberOfPixel = inputFormat_.height * inputFormat_.width;
for (unsigned int i = numberOfPixel; i != 0; --i)
{
memcpy(dst, src, bytesPerPixel);
src += bytesPerPixel;
dst -= bytesPerPixel;
}
}
int main(int argc, char** argv) {
/* Get number of devices */
int numberOfDevices;
std::string input_filename = FILENAME_TESTFILE;
std::string scope_filename = SCOPE_PARAMETERFILE;
std::string output_filename = OUTPUT_FILENAME;
if(argc > 1) {
input_filename = argv[1];
scope_filename = argv[1];
}
if(argc > 2) {
output_filename = argv[2];
}
//std::cout << "Args read (" << input_filename << ", " << output_filename << ")" << std::endl;
InputBuffer inputBuffer(CHUNK_BUFFER_COUNT, 1);
/* Initialize input buffer (with dynamic elements) */
ScopeReader::ScopeParameter parameter(scope_filename);
//int nSegments = parameter.nbrSegments;
//int nWaveforms = parameter.nbrWaveforms;
int nSample = parameter.nbrSamples;
ScopeReader reader(parameter, &inputBuffer, CHUNK_COUNT);
GrayBatStream<Chunk> os(1,masterUri, fitterUri);
std::thread sendingThread([&inputBuffer, &os](){
while(inputBuffer.isFinished()) {
inputBuffer.popTry([&os](Chunk& t){
os.send(t);
});
}
os.quit();
});
//std::cout << "Buffer created." << std::endl;
reader.readToBuffer();
//Make sure all results are written back
sendingThread.join();
return 0;
}
int main (void)
{
std::cout << "Initializing...";
boost::circular_buffer<Frame> outputBuffer(5);
boost::circular_buffer<Frame> inputBuffer(5);
PhysicalLayer physicalLayer(paFloat32, 2, 1000, 8000, paFloat32, 2, 500, 8000);
physicalLayer.startDataStream();
std::cout << "\nReady for playback...\n\n";
std::system("PAUSE");
outputBuffer.push_back(Frame(255,255,255));
outputBuffer.push_back(Frame(0,0,0));
outputBuffer.push_back(Frame(1,2,3));
outputBuffer.push_back(Frame(4,5,6));
outputBuffer.push_back(Frame(7,8,9));
physicalLayer.send(&outputBuffer);
std::system("PAUSE");
std::cout << "\n\n----------------------------------------------------------------------------\n";
std::cout << "Recorded frames:\n";
physicalLayer.receive(&inputBuffer);
for (int i = 0; i < inputBuffer.size(); i++)
{
Frame funFrame = inputBuffer[i];
funFrame.coutHeader();
}
std::cout << "\n\n----------------------------------------------------------------------------\n";
std::system("PAUSE");
std::cout << "\nStopping data streams...\n\n";
physicalLayer.stopDataStream();
return 0;
}
/**
* Image conversion.
*/
void
FilterGray::process()
{
// Pointer to the input image.
unsigned char const * src = inputBuffer();
// Pointer to the output image.
unsigned char * dest = outputBuffer();
// Past the end pointer of the output image for termination condition.
unsigned char * last = dest + outputSize_;
while (dest < last) {
*(dest++) =
(unsigned char) ( ( *(src++) * params_->weightRed +
*(src++) * params_->weightGreen +
*(src++) * params_->weightBlue)
/ sum_) ;
}
}
void GPU::sort(uint32_t *p_input, size arraySize) const
{
cl::make_kernel<cl::Buffer&,size,size,size> sort(this->ksort);
cl::CommandQueue queue(context,dev);
size ceiling=1;
while(ceiling<arraySize)
ceiling<<=1;
cl::Buffer inputBuffer(context, CL_MEM_READ_WRITE, sizeof(uint32_t)*ceiling);
queue.enqueueWriteBuffer(inputBuffer, false, 0, sizeof(uint32_t)*arraySize, p_input);
if(ceiling!=arraySize)
{
// z jakiejś przyczyny segfaultuje nawet na pocl
// queue.enqueueFillBuffer(inputBuffer, std::numeric_limits<uint32_t>::max(), 0, sizeof(uint32_t)*ceiling);
size rest=ceiling-arraySize;
uint32_t *pattern=new uint32_t[rest];
std::fill(pattern, pattern+rest, std::numeric_limits<uint32_t>::max());
queue.enqueueWriteBuffer(inputBuffer, false, sizeof(uint32_t)*arraySize, rest*sizeof(uint32_t), pattern);
delete []pattern;
// ekstremalnie powolne
// uint32_t pattern=std::numeric_limits<uint32_t>::max();
// for(size n=arraySize;n<ceiling;++n)
// queue.enqueueWriteBuffer(inputBuffer, false, n*sizeof(uint32_t), sizeof(pattern), &pattern);
}
for(size n=1;(1<<n)<=ceiling;n++)
{
for(size k=n; k>=1; k--)
{
sort(cl::EnqueueArgs(queue,ceiling/2), inputBuffer, arraySize, n, k);
#if 0
uint32_t *tmp=new uint32_t[ceiling];
queue.enqueueReadBuffer(inputBuffer, false, 0, sizeof(uint32_t)*ceiling, tmp);
queue.finish();
std::cout<<"n="<<n<<" k="<<k<<": ";
for(int j=0;j<ceiling;++j)
std::cout<<tmp[j]<<" ";
std::cout<<"\n";
delete []tmp;
#endif
}
}
queue.enqueueReadBuffer(inputBuffer, false, 0, sizeof(uint32_t)*arraySize, p_input);
queue.finish();
}
void PHIAScene::dragMoveEvent( QGraphicsSceneDragDropEvent *e )
{
if ( !e->mimeData()->hasFormat( "application/x-phi-dd" ) ) return e->ignore();
QByteArray input=e->mimeData()->data( "application/x-phi-dd" );
QBuffer inputBuffer( &input );
inputBuffer.open( QIODevice::ReadOnly );
QDataStream ds( &inputBuffer );
ds.setVersion( PHI_DSV );
quint8 version;
QString id;
qint32 opts;
ds >> version >> id >> opts;
PHIBaseItem *item=_view->page()->getElementById( id );
if ( !item ) return e->ignore(); // should never executed
item->setData( PHIItem::DDragStartPos, e->scenePos() );
QGraphicsScene::dragMoveEvent( e );
if ( !item->dragRevertOnIgnore() && !item->dragRevertOnAccept()
&& item->dragMoveAction() ) return e->accept();
}
int main(int argc, char* argv[]) {
std::string input_filename = FILENAME_TESTFILE;
std::string scope_filename = SCOPE_PARAMETERFILE;
std::string output_filename = OUTPUT_FILENAME;
if(argc > 1) {
input_filename = argv[1];
scope_filename = argv[1];
}
if(argc > 2) {
output_filename = argv[2];
}
std::cout << "Args read (" << input_filename << ", " << output_filename << ")" << std::endl;
OutputBuffer inputBuffer(CHUNK_BUFFER_COUNT, 1);
GrayBatReader<Output> gbReader(masterUri, onlineDspUri);
std::cout << "Buffer created." << std::endl;
std::thread writerThread([&inputBuffer](){
std::fstream out;
out.open("results.txt");
while(!inputBuffer.isFinished()) {
auto elem = inputBuffer.pop();
out << elem.status << " " << elem.woffset << " ";
std::cout << elem.status << " " << elem.woffset << " ";
for(auto p : elem.param) out << p << " ";
out << std::endl;
std::cout << std::endl;
}
out.close();
});
gbReader.readToBuffer();
std::cout << "Data read." << std::endl;
//Make sure all results are written back
writerThread.join();
return 0;
}
InputStream createInputFileStream(const std::string &fileName)
{
InputStream inputStream;
boost::shared_ptr<InputFileStreamBuffer> inputBuffer(new InputFileStreamBuffer(fileName));
// TODO: would need a seperate error check, eof is not the same as file does not exist!
// (for now, just assuming that there will be no 0 byte length files, and if there are, those are errors)
// NOTE: this will spam the error message even in some cases when we are not really trying to read a file,
// but just to check for its existance... (shit happens)
//if (inputBuffer->isEof())
//{
// if (!input_file_stream_no_nonexisting_error_message)
// {
// Logger::getInstance()->error("createInputFileStream - File does not exist or is zero length.");
// Logger::getInstance()->debug(fileName.c_str());
// }
//}
inputStream.setBuffer(inputBuffer);
return inputStream;
}
//---------------------------------------------------------------
void
FilterOmni2Pan::process()
{
unsigned char const * srcImg = inputBuffer();
unsigned char * tgtImg = outputBuffer();
int * srcOffset = srcOffset_;
if (outputFormat_.palette == Miro::RGB_24) {
unsigned char * tgtImgEnd = tgtImg + IMAGE_WIDTH * IMAGE_HEIGHT * 3;
for (; tgtImg != tgtImgEnd; ++srcOffset) {
*tgtImg++ = *(srcImg + *srcOffset);
*tgtImg++ = *(srcImg + *srcOffset + 1);
*tgtImg++ = *(srcImg + *srcOffset + 2);
}
}
else {
unsigned char * tgtImgEnd = tgtImg + IMAGE_WIDTH * IMAGE_HEIGHT;
for (; tgtImg != tgtImgEnd; ++srcOffset) {
*tgtImg++ = *(srcImg + *srcOffset);
}
}
}
//---------------------------------------------------------------
void
FilterYUV422toRGB::process()
{
unsigned char const * src_img = inputBuffer();
unsigned char * tgt_img = outputBuffer();
unsigned int srcImgSize = getImageSize(inputFormat_);
for (unsigned int i = 0; i < srcImgSize; i += 4) {
register int u = src_img[i];
register int y0 = src_img[i+1];
register int v = src_img[i+2];
register int y1 = src_img[i+3];
*(tgt_img++) = t_r[(y0<<8)|v];
*(tgt_img++) = t_g2[(y0<<8)|t_g1[(u<<8)|v]];
*(tgt_img++) = t_b[(y0<<8)|u];
*(tgt_img++) = t_r[(y1<<8)|v];
*(tgt_img++) = t_g2[(y1<<8)|t_g1[(u<<8)|v]];
*(tgt_img++) = t_b[(y1<<8)|u];
}
}
void motor(int speed1, int direction) {
int i;
int motortable[4];
if ( direction == FORWARD)
for (int i = 0; i < 4; i++)
motortable[i] = FORWARD[i];
else if ( direction == BACKWARD)
for (int i = 0; i < 4; i++)
motortable[i] = BACKWARD[i];
else if ( direction == TURNLEFT)
for (int i = 0; i < 4; i++)
motortable[i] = TURNLEFT[i];
else if ( direction == TURNRIGHT)
for (int i = 0; i < 4; i++)
motortable[i] = TURNRIGHT[i];
for ( ; ; ) {
index1 = (++index1)%4; // read table as normal
MotorPort.Motor = motortable[index1]; // output by portb
Delay_ms(SPEEDTABLE[speed1]); // delay per step
inputBuffer();
}
}
void SendTable_WritePropList(
const SendTable *pTable,
const void *pState,
const int nBits,
bf_write *pOut,
const int objectID,
const int *pCheckProps,
const int nCheckProps )
{
if ( nCheckProps == 0 )
{
// Write single final zero bit, signifying that there no changed properties
pOut->WriteOneBit( 0 );
return;
}
bool bDebugWatch = Sendprop_UsingDebugWatch();
s_debug_info_shown = false;
s_debug_bits_start = pOut->GetNumBitsWritten();
CSendTablePrecalc *pPrecalc = pTable->m_pPrecalc;
CDeltaBitsWriter deltaBitsWriter( pOut );
bf_read inputBuffer( "SendTable_WritePropList->inputBuffer", pState, BitByte( nBits ), nBits );
CDeltaBitsReader inputBitsReader( &inputBuffer );
// Ok, they want to specify a small list of properties to check.
int iToProp = NextProp( &inputBitsReader );
int i = 0;
while ( i < nCheckProps )
{
// Seek the 'to' state to the current property we want to check.
while ( iToProp < pCheckProps[i] )
{
SkipPropData( &inputBuffer, pPrecalc->GetProp( iToProp ) );
iToProp = NextProp( &inputBitsReader );
}
if ( iToProp == PROP_SENTINEL )
{
break;
}
else if ( iToProp == pCheckProps[i] )
{
const SendProp *pProp = pPrecalc->GetProp( iToProp );
// Show debug stuff.
if ( bDebugWatch )
{
ShowEncodeDeltaWatchInfo( pTable, pProp, inputBuffer, objectID, iToProp );
}
// See how many bits the data for this property takes up.
int iStartBit = inputBuffer.GetNumBitsRead();
SkipPropData( &inputBuffer, pProp );
int nToStateBits = inputBuffer.GetNumBitsRead() - iStartBit;
TRACE_PACKET( ( " Send Field (%s) = %d (%d bytes)\n", pProp->GetName(), nToStateBits, ( nToStateBits + 7 ) / 8 ) );
// Write the data into the output.
deltaBitsWriter.WritePropIndex( iToProp );
inputBuffer.Seek( iStartBit );
pOut->WriteBitsFromBuffer( &inputBuffer, nToStateBits );
// Seek to the next prop.
iToProp = NextProp( &inputBitsReader );
}
++i;
}
if ( s_debug_info_shown )
{
int bits = pOut->GetNumBitsWritten() - s_debug_bits_start;
ConDMsg( "= %i bits (%i bytes)\n", bits, Bits2Bytes(bits) );
}
inputBitsReader.ForceFinished(); // avoid a benign assert
}
void
FilterCopy::process()
{
std::cout << __PRETTY_FUNCTION__ << std::endl;
memcpy(outputBuffer(), inputBuffer(), imageSize_);
}
bool
CIMGCodec::Encode( const CImage& inputImage ,
CORE::CIOAccess& encodedOutput )
{GUCEF_TRACE;
if ( inputImage.HasFrames() )
{
CORE::CDynamicBuffer inputBuffer( 102400, true );
CORE::CDynamicBufferAccess bufferAccess( &inputBuffer, false );
// Fill our header
TImageInfo imageInfo;
imageInfo.version = GUCEF_IMAGE_TIMAGEINFO_VERSION;
imageInfo.nrOfFramesInImage = inputImage.GetFrameCount();
// write header
bufferAccess.Write( &imageInfo, sizeof( TImageInfo ), 1 );
// Now we add each frame's info + mipmap info
TImageFrameInfo frameInfo;
frameInfo.version = GUCEF_IMAGE_TIMAGEFRAMEINFO_VERSION;
TImageMipMapLevelInfo mipMapInfo;
mipMapInfo.version = GUCEF_IMAGE_TIMAGEMIPMAPLEVELINFO_VERSION;
const CImage::TMipMapList* mipMapList = NULL;
const TPixelMapPtr* pixelMap = NULL;
for ( UInt32 frameNr=0; frameNr<imageInfo.nrOfFramesInImage; ++frameNr )
{
mipMapList = &inputImage.GetFrame( frameNr );
frameInfo.nrOfMipmapLevels = static_cast< UInt32 >( mipMapList->size() );
bufferAccess.Write( &frameInfo, sizeof( TImageFrameInfo ), 1 );
// Now we add the info for each mipmap level
for ( UInt32 mipLvl=0; mipLvl<frameInfo.nrOfMipmapLevels; ++mipLvl )
{
pixelMap = &(*mipMapList)[ mipLvl ];
mipMapInfo.frameWidth = (*pixelMap)->GetWidthInPixels();
mipMapInfo.frameHeight = (*pixelMap)->GetHeightInPixels();
mipMapInfo.pixelStorageFormat = (*pixelMap)->GetPixelStorageFormat();
mipMapInfo.pixelComponentDataType = (*pixelMap)->GetPixelComponentDataType();
bufferAccess.Write( &mipMapInfo, sizeof( TImageMipMapLevelInfo ), 1 );
}
}
// Now it is time to add the pixel data itself
for ( UInt32 frameNr=0; frameNr<imageInfo.nrOfFramesInImage; ++frameNr )
{
mipMapList = &inputImage.GetFrame( frameNr );
for ( UInt32 mipLvl=0; mipLvl<mipMapList->size(); ++mipLvl )
{
pixelMap = &(*mipMapList)[ mipLvl ];
bufferAccess.Write( (*pixelMap)->GetDataPtr(), (*pixelMap)->GetTotalSizeInBytes(), 1 );
}
}
// We have now merged all the image object data into a single buffer using the decoded 'ImageCodec' format
// It is time to perform the actual Encode()
return Encode( bufferAccess ,
encodedOutput );
}
return false;
}
void
FilterCopy::process()
{
memcpy(outputBuffer(), inputBuffer(), imageSize_);
}
// render markdown to HTML -- assumes UTF-8 encoding
Error markdownToHTML(const std::string& markdownInput,
const Extensions& extensions,
const HTMLOptions& options,
std::string* pHTMLOutput)
{
std::string input = markdownInput;
boost::scoped_ptr<MathFilter> pMathFilter;
if (extensions.ignoreMath)
pMathFilter.reset(new MathFilter(&input, pHTMLOutput));
// setup input buffer
SundownBuffer inputBuffer(input);
if (!inputBuffer.allocated())
return allocationError(ERROR_LOCATION);
// render table of contents if requested
if (options.toc)
{
struct sd_callbacks htmlCallbacks;
struct html_renderopt htmlOptions;
::sdhtml_toc_renderer(&htmlCallbacks, &htmlOptions);
std::string tocOutput;
Error error = renderMarkdown(inputBuffer,
extensions,
options.smartypants,
&htmlCallbacks,
&htmlOptions,
&tocOutput);
if (error)
return error;
pHTMLOutput->append("<div id=\"toc\">\n");
pHTMLOutput->append("<div id=\"toc_header\">Table of Contents</div>\n");
pHTMLOutput->append(tocOutput);
pHTMLOutput->append("</div>\n");
pHTMLOutput->append("\n");
}
// setup html renderer
struct sd_callbacks htmlCallbacks;
struct html_renderopt htmlOptions;
int htmlRenderMode = 0;
if (options.useXHTML)
htmlRenderMode |= HTML_USE_XHTML;
if (options.hardWrap)
htmlRenderMode |= HTML_HARD_WRAP;
if (options.toc)
htmlRenderMode |= HTML_TOC;
if (options.safelink)
htmlRenderMode |= HTML_SAFELINK;
if (options.skipHTML)
htmlRenderMode |= HTML_SKIP_HTML;
if (options.skipStyle)
htmlRenderMode |= HTML_SKIP_STYLE;
if (options.skipImages)
htmlRenderMode |= HTML_SKIP_IMAGES;
if (options.skipLinks)
htmlRenderMode |= HTML_SKIP_LINKS;
if (options.escape)
htmlRenderMode |= HTML_ESCAPE;
::sdhtml_renderer(&htmlCallbacks, &htmlOptions, htmlRenderMode);
// render page
std::string output;
Error error = renderMarkdown(inputBuffer,
extensions,
options.smartypants,
&htmlCallbacks,
&htmlOptions,
&output);
if (error)
return error;
// append output and return success
pHTMLOutput->append(output);
return Success();
}
LtcClock::LtcClock(bool masterClock, const string& deviceName)
{
registerAttributes();
_listener = unique_ptr<Listener>(new Listener());
_listener->setParameters(1, 0, Listener::SAMPLE_FMT_U8, deviceName);
if (!_listener)
{
_listener.reset();
return;
}
_masterClock = masterClock;
_continue = true;
Log::get() << Log::MESSAGE << "LtcClock::" << __FUNCTION__ << " - Input clock enabled" << Log::endl;
_ltcThread = thread([&]() {
LTCDecoder* ltcDecoder = ltc_decoder_create(1920, 32);
LTCFrameExt ltcFrame;
vector<uint8_t> inputBuffer(256);
long int total = 0;
while (_continue)
{
if (!_listener->readFromQueue(inputBuffer))
{
this_thread::sleep_for(chrono::milliseconds(5));
continue;
}
// Check all values to check whether the clock is paused or not
bool paused = true;
for (auto& v : inputBuffer)
{
if (v < 126 || v > 129) // This is for noise handling. There is not enough room for a clock in between.
{
paused = false;
break;
}
}
_clock.paused = paused;
ltc_decoder_write(ltcDecoder, (ltcsnd_sample_t*)inputBuffer.data(), inputBuffer.size(), total);
total += inputBuffer.size();
while (ltc_decoder_read(ltcDecoder, <cFrame))
{
_ready = true;
SMPTETimecode stime;
ltc_frame_to_time(&stime, <cFrame.ltc, LTC_TC_CLOCK);
Clock clock;
clock.years = stime.years;
clock.months = stime.months;
clock.days = stime.days;
clock.hours = stime.hours;
clock.mins = stime.mins;
clock.secs = stime.secs;
// This updates the maximum frames per second, to be able to handle any framerate
if (stime.frame == 0)
{
// Only accept some specific values
if (_previousFrame == 24 || _previousFrame == 25 || _previousFrame == 30 || _previousFrame == 60)
{
// Small trick to handle errors
if (_framerateChanged)
{
_maximumFramePerSec = _previousFrame + 1;
_framerateChanged = false;
}
else
{
_framerateChanged = true;
}
}
}
_previousFrame = stime.frame;
clock.frame = stime.frame * 120 / _maximumFramePerSec;
_clock = clock;
}
if (_masterClock)
{
Values v;
getClock(v);
Timer::get().setMasterClock(v);
}
}
ltc_decoder_free(ltcDecoder);
});
}
int _tmain( int argc, _TCHAR* argv[] )
{
cl_uint userPlatform = 0;
cl_uint userDevice = 0;
size_t iterations = 0;
size_t length = 0;
size_t algo = 1;
cl_device_type deviceType = CL_DEVICE_TYPE_DEFAULT;
bool defaultDevice = true;
bool print_clInfo = false;
bool systemMemory = false;
/******************************************************************************
* Parameter parsing *
******************************************************************************/
try
{
// Declare the supported options.
po::options_description desc( "OpenCL CopyBuffer command line options" );
desc.add_options()
( "help,h", "produces this help message" )
( "version,v", "Print queryable version information from the Bolt CL library" )
( "queryOpenCL,q", "Print queryable platform and device info and return" )
( "gpu,g", "Report only OpenCL GPU devices" )
( "cpu,c", "Report only OpenCL CPU devices" )
( "all,a", "Report all OpenCL devices" )
( "systemMemory,s", "Allocate vectors in system memory, otherwise device memory" )
( "platform,p", po::value< cl_uint >( &userPlatform )->default_value( 0 ), "Specify the platform under test using the index reported by -q flag" )
( "device,d", po::value< cl_uint >( &userDevice )->default_value( 0 ), "Specify the device under test using the index reported by the -q flag. "
"Index is relative with respect to -g, -c or -a flags" )
( "length,l", po::value< size_t >( &length )->default_value( 1048576 ), "Specify the length of scan array" )
( "iterations,i", po::value< size_t >( &iterations )->default_value( 50 ), "Number of samples in timing loop" )
//( "algo,a", po::value< size_t >( &algo )->default_value( 1 ), "Algorithm used [1,2] 1:SCAN_BOLT, 2:XYZ" )//Not used in this file
;
po::variables_map vm;
po::store( po::parse_command_line( argc, argv, desc ), vm );
po::notify( vm );
if( vm.count( "version" ) )
{
cl_uint libMajor, libMinor, libPatch;
bolt::cl::getVersion( libMajor, libMinor, libPatch );
const int indent = countOf( "Bolt version: " );
bolt::tout << std::left << std::setw( indent ) << _T( "Bolt version: " )
<< libMajor << _T( "." )
<< libMinor << _T( "." )
<< libPatch << std::endl;
}
if( vm.count( "help" ) )
{
// This needs to be 'cout' as program-options does not support wcout yet
std::cout << desc << std::endl;
return 0;
}
if( vm.count( "queryOpenCL" ) )
{
print_clInfo = true;
}
if( vm.count( "gpu" ) )
{
deviceType = CL_DEVICE_TYPE_GPU;
}
if( vm.count( "cpu" ) )
{
deviceType = CL_DEVICE_TYPE_CPU;
}
if( vm.count( "all" ) )
{
deviceType = CL_DEVICE_TYPE_ALL;
}
if( vm.count( "systemMemory" ) )
{
systemMemory = true;
}
}
catch( std::exception& e )
{
std::cout << _T( "Scan Benchmark error condition reported:" ) << std::endl << e.what() << std::endl;
return 1;
}
/******************************************************************************
* Initialize platforms and devices *
* /todo we should move this logic inside of the control class *
******************************************************************************/
// Query OpenCL for available platforms
cl_int err = CL_SUCCESS;
// Platform vector contains all available platforms on system
std::vector< cl::Platform > platforms;
bolt::cl::V_OPENCL( cl::Platform::get( &platforms ), "Platform::get() failed" );
if( print_clInfo )
{
// /todo: port the printing code from test/scan to control class
//std::for_each( platforms.begin( ), platforms.end( ), printPlatformFunctor( 0 ) );
return 0;
}
// Device info
std::vector< cl::Device > devices;
bolt::cl::V_OPENCL( platforms.at( userPlatform ).getDevices( deviceType, &devices ), "Platform::getDevices() failed" );
cl::Context myContext( devices.at( userDevice ) );
cl::CommandQueue myQueue( myContext, devices.at( userDevice ) );
// Now that the device we want is selected and we have created our own cl::CommandQueue, set it as the
// default cl::CommandQueue for the Bolt API
bolt::cl::control::getDefault( ).setCommandQueue( myQueue );
std::string strDeviceName = bolt::cl::control::getDefault( ).getDevice( ).getInfo< CL_DEVICE_NAME >( &err );
bolt::cl::V_OPENCL( err, "Device::getInfo< CL_DEVICE_NAME > failed" );
std::cout << "Device under test : " << strDeviceName << std::endl;
/******************************************************************************
* Benchmark logic *
******************************************************************************/
bolt::statTimer& myTimer = bolt::statTimer::getInstance( );
myTimer.Reserve( 1, iterations );
size_t scanId = myTimer.getUniqueID( _T( "copybuffer" ), 0 );
size_t pruned = 0;
double scanTime = std::numeric_limits< double >::max( );
double scanGB = ( length * sizeof( int ) ) / (1024.0 * 1024.0 * 1024.0);
::cl::CommandQueue& boltQueue = bolt::cl::control::getDefault( ).getCommandQueue( );
// ::cl::Buffer can not handle buffers of size 0
if( length > 0 )
{
if( systemMemory )
{
std::vector< int > input( length, 1 );
std::vector< int > output( length );
::cl::Buffer inputBuffer( bolt::cl::control::getDefault( ).getContext( ), CL_MEM_USE_HOST_PTR|CL_MEM_READ_ONLY, length * sizeof( int ), input.data( ) );
::cl::Buffer outputBuffer( bolt::cl::control::getDefault( ).getContext( ), CL_MEM_USE_HOST_PTR|CL_MEM_WRITE_ONLY, length * sizeof( int ), output.data( ) );
for( unsigned i = 0; i < iterations; ++i )
{
myTimer.Start( scanId );
boltQueue.enqueueCopyBuffer( inputBuffer, outputBuffer, 0, 0, length * sizeof( int ) );
void* tmpPtr = boltQueue.enqueueMapBuffer( outputBuffer, true, CL_MAP_READ, 0, length * sizeof( int ) );
boltQueue.enqueueUnmapMemObject( outputBuffer, tmpPtr );
boltQueue.finish( );
myTimer.Stop( scanId );
}
}
else
{
::cl::Buffer inputBuffer( bolt::cl::control::getDefault( ).getContext( ), CL_MEM_READ_ONLY, length * sizeof( int ) );
::cl::Buffer outputBuffer( bolt::cl::control::getDefault( ).getContext( ), CL_MEM_WRITE_ONLY, length * sizeof( int ) );
for( unsigned i = 0; i < iterations; ++i )
{
myTimer.Start( scanId );
boltQueue.enqueueCopyBuffer( inputBuffer, outputBuffer, 0, 0, length * sizeof( int ) );
boltQueue.finish( );
myTimer.Stop( scanId );
}
}
// Remove all timings that are outside of 2 stddev (keep 65% of samples); we ignore outliers to get a more consistent result
pruned = myTimer.pruneOutliers( 1.0 );
scanTime = myTimer.getAverageTime( scanId );
}
else
{
iterations = 0;
}
bolt::tout << std::left;
bolt::tout << std::setw( colWidth ) << _T( "CopyBuffer profile: " ) << _T( "[" ) << iterations-pruned << _T( "] samples" ) << std::endl;
bolt::tout << std::setw( colWidth ) << _T( " Size (GB): " ) << scanGB << std::endl;
bolt::tout << std::setw( colWidth ) << _T( " Time (s): " ) << scanTime << std::endl;
bolt::tout << std::setw( colWidth ) << _T( " Speed (GB/s): " ) << scanGB / scanTime << std::endl;
bolt::tout << std::endl;
// bolt::tout << myTimer;
return 0;
}
void run()
{
bool doDecode = false;
static const int samples = 450*1024;
static const int inputBufferSize = samples;
static const int sampleSpaceBefore = 256;
static const int sampleSpaceAfter = 256;
FileStream in = File("captured.zdr", true).openRead();
UInt64 inputFileSizeRemaining = in.size();
Array<Byte> inputBuffer(inputBufferSize);
int inputBufferRemaining = 0;
Byte* inputPointer = 0;
z_stream zs;
memset(&zs, 0, sizeof(z_stream));
if (inflateInit(&zs) != Z_OK)
throw Exception("inflateInit failed");
Array<Byte> buffer(sampleSpaceBefore + samples + sampleSpaceAfter);
Byte* b = &buffer[0] + sampleSpaceBefore;
for (int i = 0; i < sampleSpaceBefore; ++i)
b[i - sampleSpaceBefore] = 0;
for (int i = 0; i < sampleSpaceAfter; ++i)
b[i + samples] = 0;
int outputBytesRemaining = samples;
Vector outputSize;
NTSCCaptureDecoder<UInt32> decoder;
if (doDecode)
outputSize = Vector(960, 240);
else
outputSize = Vector(1824, 253);
Bitmap<UInt32> decoded(outputSize);
decoder.setOutputBuffer(decoded);
decoded.fill(0);
decoder.setInputBuffer(b);
decoder.setOutputPixelsPerLine(1140);
decoder.setYScale(1);
decoder.setDoDecode(doDecode);
FileStream outputStream = File("u:\\captured.bin", true).openWrite();
do {
if (inputBufferRemaining == 0) {
int bytesToRead = inputBufferSize;
if (bytesToRead > inputFileSizeRemaining)
bytesToRead = inputFileSizeRemaining;
inputPointer = &inputBuffer[0];
in.read(inputPointer, bytesToRead);
inputBufferRemaining = bytesToRead;
inputFileSizeRemaining -= bytesToRead;
}
zs.avail_in = inputBufferRemaining;
zs.next_in = inputPointer;
zs.avail_out = outputBytesRemaining;
zs.next_out = b + samples - outputBytesRemaining;
int r = inflate(&zs, Z_SYNC_FLUSH);
if (r != Z_STREAM_END && r != Z_OK)
throw Exception("inflate failed");
outputBytesRemaining = zs.avail_out;
inputPointer = zs.next_in;
inputBufferRemaining = zs.avail_in;
if (outputBytesRemaining == 0) {
if (inflateReset(&zs) != Z_OK)
throw Exception("inflateReset failed");
outputBytesRemaining = samples;
console.write(".");
if (doDecode) {
decoder.decode();
outputStream.write(decoded.data(), decoded.stride()*outputSize.y);
}
else
outputStream.write(b, 1824*253);
}
} while (inputFileSizeRemaining != 0);
if (inflateEnd(&zs) != Z_OK)
throw Exception("inflateEnd failed");
}
void run()
{
bool doDecode = false;
static const int samples = 450*1024;
static const int inputBufferSize = samples;
static const int sampleSpaceBefore = 256;
static const int sampleSpaceAfter = 256;
FileHandle in = File("captured.zdr", true).openRead();
UInt64 inputFileSizeRemaining = in.size();
Array<Byte> inputBuffer(inputBufferSize);
int inputBufferRemaining = 0;
Byte* inputPointer = 0;
z_stream zs;
memset(&zs, 0, sizeof(z_stream));
if (inflateInit(&zs) != Z_OK)
throw Exception("inflateInit failed");
Array<Byte> buffer(sampleSpaceBefore + samples + sampleSpaceAfter);
Byte* b = &buffer[0] + sampleSpaceBefore;
for (int i = 0; i < sampleSpaceBefore; ++i)
b[i - sampleSpaceBefore] = 0;
for (int i = 0; i < sampleSpaceAfter; ++i)
b[i + samples] = 0;
int outputBytesRemaining = samples;
Vector outputSize;
NTSCCaptureDecoder<UInt32> decoder;
if (doDecode)
outputSize = Vector(1280, 720);
else
outputSize = Vector(1824, 253);
Bitmap<UInt32> decoded(outputSize);
if (doDecode)
decoder.setOutputBuffer(
decoded.subBitmap(Vector(160, 0), Vector(960, 720)));
else
decoder.setOutputBuffer(decoded);
decoded.fill(0);
decoder.setInputBuffer(b);
decoder.setOutputPixelsPerLine(1140);
decoder.setYScale(3);
decoder.setDoDecode(doDecode);
_handle = fopen("u:\\captured2.avi","wb");
if (!_handle)
throw Exception("Can't open file");
_VectorCount = 1;
_VectorTable[0].x = _VectorTable[0].y = 0;
for (int s = 1; s <= 10; ++s) {
for (int y = -s; y <= s; ++y)
for (int x = -s; x <= s; ++x) {
if (abs(x) == s || abs(y) == s) {
_VectorTable[_VectorCount].x = x;
_VectorTable[_VectorCount].y = y;
++_VectorCount;
}
}
}
memset(&_zstream, 0, sizeof(_zstream));
_pitch = outputSize.x + 2*MAX_VECTOR;
if (deflateInit(&_zstream, 4) != Z_OK)
throw Exception("deflateInit failed");
_bufSize = 4*outputSize.x*outputSize.y + 2*(1+(outputSize.x/8)) * (1+(outputSize.y/8))+1024;
_bufSize += _bufSize / 1000;
_buf = malloc(_bufSize);
if (!_buf)
throw Exception("Out of memory");
_index = (UInt8*)malloc(16*4096);
if (!_buf)
throw Exception("Out of memory");
_indexsize = 16*4096;
_indexused = 8;
for (int i = 0; i < AVI_HEADER_SIZE; ++i)
fputc(0, _handle);
_frames = 0;
_written = 0;
_audioused = 0;
_audiowritten = 0;
int blockwidth = 16;
int blockheight = 16;
_pixelsize = 4;
_bufsize = (outputSize.y + 2*MAX_VECTOR)*_pitch*_pixelsize+2048;
_buf1.allocate(_bufsize);
_buf2.allocate(_bufsize);
_work.allocate(_bufsize);
int xblocks = (outputSize.x/blockwidth);
int xleft = outputSize.x % blockwidth;
if (xleft)
++xblocks;
int yblocks = (outputSize.y/blockheight);
int yleft = outputSize.y % blockheight;
if (yleft)
++yblocks;
_blockcount = yblocks*xblocks;
_blocks = new FrameBlock[_blockcount];
int i = 0;
for (int y = 0; y < yblocks; ++y) {
for (int x = 0; x < xblocks; ++x) {
_blocks[i].start = ((y*blockheight) + MAX_VECTOR)*_pitch+
x*blockwidth + MAX_VECTOR;
if (xleft && x == xblocks - 1) {
_blocks[i].dx = xleft;
} else {
_blocks[i].dx = blockwidth;
}
if (yleft && y == yblocks - 1) {
_blocks[i].dy = yleft;
} else {
_blocks[i].dy = blockheight;
}
++i;
}
}
memset(&_buf1[0], 0, _bufsize);
memset(&_buf2[0], 0, _bufsize);
memset(&_work[0], 0, _bufsize);
_oldframe = &_buf1[0];
_newframe = &_buf2[0];
do {
if (inputBufferRemaining == 0) {
int bytesToRead = inputBufferSize;
if (bytesToRead > inputFileSizeRemaining)
bytesToRead = inputFileSizeRemaining;
inputPointer = &inputBuffer[0];
in.read(inputPointer, bytesToRead);
inputBufferRemaining = bytesToRead;
inputFileSizeRemaining -= bytesToRead;
}
zs.avail_in = inputBufferRemaining;
zs.next_in = inputPointer;
zs.avail_out = outputBytesRemaining;
zs.next_out = b + samples - outputBytesRemaining;
int r = inflate(&zs, Z_SYNC_FLUSH);
if (r != Z_STREAM_END && r != Z_OK)
throw Exception("inflate failed");
outputBytesRemaining = zs.avail_out;
inputPointer = zs.next_in;
inputBufferRemaining = zs.avail_in;
if (outputBytesRemaining == 0) {
if (inflateReset(&zs) != Z_OK)
throw Exception("inflateReset failed");
outputBytesRemaining = samples;
console.write(".");
decoder.decode();
bool keyFrame = false;
if (_frames % 300 == 0)
keyFrame = true;
keyFrame = true;
/* replace oldframe with new frame */
unsigned char* copyFrame = _newframe;
_newframe = _oldframe;
_oldframe = copyFrame;
compress.linesDone = 0;
compress.writeSize = _bufSize;
compress.writeDone = 1;
compress.writeBuf = (unsigned char *)_buf;
/* Set a pointer to the first byte which will contain info about this frame */
unsigned char* firstByte = compress.writeBuf;
*firstByte = 0;
//Reset the work buffer
_workUsed = 0;
_workPos = 0;
if (keyFrame) {
/* Make a keyframe */
*firstByte |= Mask_KeyFrame;
KeyframeHeader* header = (KeyframeHeader *)(compress.writeBuf + compress.writeDone);
header->high_version = 0; // DBZV_VERSION_HIGH;
header->low_version = 1; // DBZV_VERSION_LOW;
header->compression = 1; // COMPRESSION_ZLIB
header->format = 8; // ZMBV_FORMAT_32BPP
header->blockwidth = 16;
header->blockheight = 16;
compress.writeDone += sizeof(KeyframeHeader);
/* Copy the new frame directly over */
/* Restart deflate */
deflateReset(&_zstream);
}
for (int i = 0; i < outputSize.y; ++i) {
void* rowPointer = decoded.data() + decoded.stride()*i;
unsigned char* destStart = _newframe + _pixelsize*(MAX_VECTOR+(compress.linesDone+MAX_VECTOR)*_pitch);
memcpy(destStart, rowPointer, outputSize.x * _pixelsize);
destStart += _pitch * _pixelsize;
compress.linesDone++;
}
if ((*compress.writeBuf) & Mask_KeyFrame) {
/* Add the full frame data */
unsigned char* readFrame = _newframe + _pixelsize*(MAX_VECTOR+MAX_VECTOR*_pitch);
for (int i = 0; i < outputSize.y; ++i) {
memcpy(&_work[_workUsed], readFrame, outputSize.x*_pixelsize);
readFrame += _pitch*_pixelsize;
_workUsed += outputSize.x*_pixelsize;
}
}
else {
/* Add the delta frame data */
int written = 0;
int lastvector = 0;
signed char* vectors = (signed char*)&_work[_workUsed];
/* Align the following xor data on 4 byte boundary*/
_workUsed = (_workUsed + _blockcount*2 + 3) & ~3;
int totalx = 0;
int totaly = 0;
for (int b = 0; b < _blockcount; ++b) {
FrameBlock* block = &_blocks[b];
int bestvx = 0;
int bestvy = 0;
int bestchange = CompareBlock(0, 0, block);
int possibles = 64;
for (int v = 0; v < _VectorCount && possibles; ++v) {
if (bestchange < 4)
break;
int vx = _VectorTable[v].x;
int vy = _VectorTable[v].y;
if (PossibleBlock(vx, vy, block) < 4) {
--possibles;
int testchange = CompareBlock(vx, vy, block);
if (testchange < bestchange) {
bestchange = testchange;
bestvx = vx;
bestvy = vy;
}
}
}
vectors[b*2+0] = (bestvx << 1);
vectors[b*2+1] = (bestvy << 1);
if (bestchange) {
vectors[b*2+0] |= 1;
long* pold=((long*)_oldframe) + block->start + bestvy*_pitch + bestvx;
long* pnew=((long*)_newframe) + block->start;
for (int y = 0; y < block->dy; ++y) {
for (int x = 0; x < block->dx; ++x) {
*((long*)&_work[_workUsed]) = pnew[x] ^ pold[x];
_workUsed += sizeof(long);
}
pold += _pitch;
pnew += _pitch;
}
}
}
}
/* Create the actual frame with compression */
_zstream.next_in = (Bytef *)&_work[0];
_zstream.avail_in = _workUsed;
_zstream.total_in = 0;
_zstream.next_out = (Bytef *)(compress.writeBuf + compress.writeDone);
_zstream.avail_out = compress.writeSize - compress.writeDone;
_zstream.total_out = 0;
int res = deflate(&_zstream, Z_SYNC_FLUSH);
int written = compress.writeDone + _zstream.total_out;
CAPTURE_AddAviChunk( "00dc", written, _buf, keyFrame ? 0x10 : 0x0);
++_frames;
//void CAPTURE_AddWave(UInt32 freq, UInt32 len, SInt16 * data)
//{
// UInt left = WAVE_BUF - _audioused;
// if (left > len)
// left = len;
// memcpy( &_audiobuf[_audioused], data, left*4);
// _audioused += left;
// _audiorate = freq;
//}
//if ( capture.video.audioused ) {
// CAPTURE_AddAviChunk( "01wb", _audioused * 4, _audiobuf, 0);
// _audiowritten = _audioused*4;
// _audioused = 0;
//}
}
} while (inputFileSizeRemaining != 0);
if (inflateEnd(&zs) != Z_OK)
throw Exception("inflateEnd failed");
int main_list;
_header_pos = 0;
/* Try and write an avi header */
AVIOUT4("RIFF"); // Riff header
AVIOUTd(AVI_HEADER_SIZE + _written - 8 + _indexused);
AVIOUT4("AVI ");
AVIOUT4("LIST"); // List header
main_list = _header_pos;
AVIOUTd(0); // TODO size of list
AVIOUT4("hdrl");
AVIOUT4("avih");
AVIOUTd(56); /* # of bytes to follow */
AVIOUTd((11*912*262*2)/315); /* Microseconds per frame */ // 1752256/105 ~= 16688
AVIOUTd(0);
AVIOUTd(0); /* PaddingGranularity (whatever that might be) */
AVIOUTd(0x110); /* Flags,0x10 has index, 0x100 interleaved */
AVIOUTd(_frames); /* TotalFrames */
AVIOUTd(0); /* InitialFrames */
AVIOUTd(2); /* Stream count */
AVIOUTd(0); /* SuggestedBufferSize */
AVIOUTd(outputSize.x); /* Width */
AVIOUTd(outputSize.y); /* Height */
AVIOUTd(0); /* TimeScale: Unit used to measure time */
AVIOUTd(0); /* DataRate: Data rate of playback */
AVIOUTd(0); /* StartTime: Starting time of AVI data */
AVIOUTd(0); /* DataLength: Size of AVI data chunk */
/* Video stream list */
AVIOUT4("LIST");
AVIOUTd(4 + 8 + 56 + 8 + 40); /* Size of the list */
AVIOUT4("strl");
/* video stream header */
AVIOUT4("strh");
AVIOUTd(56); /* # of bytes to follow */
AVIOUT4("vids"); /* Type */
AVIOUT4(CODEC_4CC); /* Handler */
AVIOUTd(0); /* Flags */
AVIOUTd(0); /* Reserved, MS says: wPriority, wLanguage */
AVIOUTd(0); /* InitialFrames */
AVIOUTd(82137); /* Scale */ // 11*912*262
AVIOUTd(4921875); /* Rate: Rate/Scale == samples/second */ // 157500000
AVIOUTd(0); /* Start */
AVIOUTd(_frames); /* Length */
AVIOUTd(0); /* SuggestedBufferSize */
AVIOUTd(~0); /* Quality */
AVIOUTd(0); /* SampleSize */
AVIOUTd(0); /* Frame */
AVIOUTd(0); /* Frame */
/* The video stream format */
AVIOUT4("strf");
AVIOUTd(40); /* # of bytes to follow */
AVIOUTd(40); /* Size */
AVIOUTd(outputSize.x); /* Width */
AVIOUTd(outputSize.y); /* Height */
// OUTSHRT(1); OUTSHRT(24); /* Planes, Count */
AVIOUTd(0);
AVIOUT4(CODEC_4CC); /* Compression */
AVIOUTd(outputSize.x*outputSize.y*4); /* SizeImage (in bytes?) */
AVIOUTd(0); /* XPelsPerMeter */
AVIOUTd(0); /* YPelsPerMeter */
AVIOUTd(0); /* ClrUsed: Number of colors used */
AVIOUTd(0); /* ClrImportant: Number of colors important */
/* Audio stream list */
AVIOUT4("LIST");
AVIOUTd(4 + 8 + 56 + 8 + 16); /* Length of list in bytes */
AVIOUT4("strl");
/* The audio stream header */
AVIOUT4("strh");
AVIOUTd(56); /* # of bytes to follow */
AVIOUT4("auds");
AVIOUTd(0); /* Format (Optionally) */
AVIOUTd(0); /* Flags */
AVIOUTd(0); /* Reserved, MS says: wPriority, wLanguage */
AVIOUTd(0); /* InitialFrames */
AVIOUTd(4); /* Scale */
AVIOUTd(_audiorate*4); /* Rate, actual rate is scale/rate */
AVIOUTd(0); /* Start */
if (!_audiorate)
_audiorate = 1;
AVIOUTd(_audiowritten/4); /* Length */
AVIOUTd(0); /* SuggestedBufferSize */
AVIOUTd(~0); /* Quality */
AVIOUTd(4); /* SampleSize */
AVIOUTd(0); /* Frame */
AVIOUTd(0); /* Frame */
/* The audio stream format */
AVIOUT4("strf");
AVIOUTd(16); /* # of bytes to follow */
AVIOUTw(1); /* Format, WAVE_ZMBV_FORMAT_PCM */
AVIOUTw(2); /* Number of channels */
AVIOUTd(_audiorate); /* SamplesPerSec */
AVIOUTd(_audiorate*4); /* AvgBytesPerSec*/
AVIOUTw(4); /* BlockAlign */
AVIOUTw(16); /* BitsPerSample */
int nmain = _header_pos - main_list - 4;
/* Finish stream list, i.e. put number of bytes in the list to proper pos */
int njunk = AVI_HEADER_SIZE - 8 - 12 - _header_pos;
AVIOUT4("JUNK");
AVIOUTd(njunk);
/* Fix the size of the main list */
_header_pos = main_list;
AVIOUTd(nmain);
_header_pos = AVI_HEADER_SIZE - 12;
AVIOUT4("LIST");
AVIOUTd(_written + 4); /* Length of list in bytes */
AVIOUT4("movi");
/* First add the index table to the end */
memcpy(_index, "idx1", 4);
host_writed(_index+4, _indexused - 8 );
fwrite(_index, 1, _indexused, _handle);
fseek(_handle, 0, SEEK_SET);
fwrite(&_avi_header, 1, AVI_HEADER_SIZE, _handle);
fclose(_handle);
free(_index);
free(_buf);
_handle = 0;
}
// render markdown to HTML -- assumes UTF-8 encoding
Error markdownToHTML(const std::string& markdownInput,
const Extensions& extensions,
const HTMLOptions& options,
std::string* pHTMLOutput)
{
// exclude fenced code blocks
std::vector<ExcludePattern> excludePatterns;
excludePatterns.push_back(ExcludePattern(boost::regex("^`{3,}[^\\n]*?$"),
boost::regex("^`{3,}\\s*$")));
// exclude inline verbatim code
excludePatterns.push_back(ExcludePattern(boost::regex("`[^\\n]+?`")));
// exclude indented code blocks
excludePatterns.push_back(ExcludePattern(
boost::regex("(\\A|\\A\\s*\\n|\\n\\s*\\n)(( {4}|\\t)[^\\n]*\\n)*(( {4}|\\t)[^\\n]*)")));
std::string input = markdownInput;
boost::scoped_ptr<MathJaxFilter> pMathFilter;
if (extensions.ignoreMath)
{
pMathFilter.reset(new MathJaxFilter(excludePatterns,
&input,
pHTMLOutput));
}
// setup input buffer
SundownBuffer inputBuffer(input);
if (!inputBuffer.allocated())
return allocationError(ERROR_LOCATION);
// render table of contents if requested
if (options.toc)
{
struct sd_callbacks htmlCallbacks;
struct html_renderopt htmlOptions;
::sdhtml_toc_renderer(&htmlCallbacks, &htmlOptions);
std::string tocOutput;
Error error = renderMarkdown(inputBuffer,
extensions,
options.smartypants,
&htmlCallbacks,
&htmlOptions,
&tocOutput);
if (error)
return error;
pHTMLOutput->append("<div id=\"toc\">\n");
pHTMLOutput->append("<div id=\"toc_header\">Table of Contents</div>\n");
pHTMLOutput->append(tocOutput);
pHTMLOutput->append("</div>\n");
pHTMLOutput->append("\n");
}
// setup html renderer
struct sd_callbacks htmlCallbacks;
struct html_renderopt htmlOptions;
int htmlRenderMode = 0;
if (options.useXHTML)
htmlRenderMode |= HTML_USE_XHTML;
if (options.hardWrap)
htmlRenderMode |= HTML_HARD_WRAP;
if (options.toc)
htmlRenderMode |= HTML_TOC;
if (options.safelink)
htmlRenderMode |= HTML_SAFELINK;
if (options.skipHTML)
htmlRenderMode |= HTML_SKIP_HTML;
if (options.skipStyle)
htmlRenderMode |= HTML_SKIP_STYLE;
if (options.skipImages)
htmlRenderMode |= HTML_SKIP_IMAGES;
if (options.skipLinks)
htmlRenderMode |= HTML_SKIP_LINKS;
if (options.escape)
htmlRenderMode |= HTML_ESCAPE;
::sdhtml_renderer(&htmlCallbacks, &htmlOptions, htmlRenderMode);
// render page
std::string output;
Error error = renderMarkdown(inputBuffer,
extensions,
options.smartypants,
&htmlCallbacks,
&htmlOptions,
&output);
if (error)
return error;
// append output and return success
pHTMLOutput->append(output);
return Success();
}
