void testStore()
{
#if 0
char dat;
int i;
while(1)
{
dat = utScb1();
if(dat=='1')
{
for(i=0;i<10;i++)
strctStore.bsicAir[i] = 1.0*i;
storeData ();
}
else if(dat=='2')
{
for(i=0;i<10;i++)
strctStore.bsicAir[i] = 55.55;
storeData ();
}
utTwk(200);
}
#endif
}
//====================================
// start...
//------------------------------------
void SaXProcess::start ( QList<char> args, int prog ) {
// .../
//! This start method will check if (prog) is a valid
//! program and call it by adding the options set in
//! args. After the call the appropriate evaluation
//! method is called to store the data
// ----
switch (prog) {
case SAX_ISAX:
mProc -> addArgument ( ISAX );
break;
case SAX_SYSP:
mProc -> addArgument ( SYSP );
break;
case SAX_PROF:
mProc -> addArgument ( PROF );
break;
case SAX_META:
mProc -> addArgument ( META );
break;
default:
mProc -> addArgument ( ISAX );
break;
}
QListIterator<char> it (args);
for (; it.current(); ++it) {
mProc->addArgument ( it.current() );
}
if ( ! mProc -> start() ) {
excProcessFailed();
qError (errorString(),EXC_PROCESSFAILED);
}
switch (prog) {
case SAX_ISAX:
storeData();
break;
case SAX_SYSP:
storeDataSysp();
break;
case SAX_PROF:
storeData();
break;
case SAX_META:
storeData();
break;
default:
storeData();
break;
}
}
/* load
* Reads the opened file, checks it for errors and stores it if none
* are found. If no file is opened, returns false.
* Params: none
* Returns: bool - true if the file was read and stored succesfully
* Modifies: lineNum, memory in memory.c
*
*/
bool load() {
if (file == NULL)
return FALSE;
char line[128];
lineNum = 1;
while (fgets(line, 128, file) != NULL) {
int result = testLine(line);
if (result >= 0)
// we want to count good lines and comments
lineNum++;
if (result == 0)
// comment line, just ignore and move on
continue;
if (result < 0) {
// found an error, stop parsing
printf("Error on line %d\n%s\n", lineNum, line);
return FALSE;
} else
// good line, store it
storeData(line);
}
// because we aren't barbarians
fclose(file);
return TRUE;
}
void
QA::closeEntry(void)
{
if( isCheckData )
{
// data: structure defined in hdhC.h
for( size_t i=0 ; i < qaExp.varMeDa.size() ; ++i )
{
if( qaExp.varMeDa[i].var->isNoData() )
continue;
// skip time test for proceeding time steps when var is fixed
if( isNotFirstRecord && qaExp.varMeDa[i].var->isFixed )
continue;
hdhC::FieldData fA( qaExp.varMeDa[i].var->pDS->get() ) ;
// test overflow of ranges specified in a table, or
// plausibility of the extrema.
qaExp.varMeDa[i].qaData.test(i, fA);
storeData(qaExp.varMeDa[i], fA);
}
}
// This here is only for the regular QA time series file
if( qaTime.isTime && isCheckTimeValues )
storeTime();
++currQARec;
return;
}
void PDCreceive::checkIR(IRrecv irrecv, decode_results results) {
if (irrecv.decode(&results)) {
// Serial.println("got something");
IR_busy = true;
irrecv.resume();
storeData(results.value);
}
}
int main() {
init();
storeData();
initTextures();
startLoop();
return 1;
}
bool DataModel::saveData() {
if(storeData(fileName)) {
isModified = false;
return true;
}
else
return false;
}
bool DataModel::changeLocation(QString filename) {
if (storeData(filename)) {
fileName = filename;
isModified = false;
return true;
}
else
return false;
}
// *********************** tableInfo functions *****************************
void bufferManager::addInfo(char* head, int size)
{
address store_add;
int j = storeData(head,size,store_add);
int i = readBlockFromDisk(0);
address head_add;
buffer[i].getData(1,(char *)&head_add);
buffer[j].setNextLink(store_add.index_position, head_add);
buffer[i].setNextLink(1,store_add);
}
void ControlZOHSimulation::run()
{
DEBUG_BEGIN("void ControlZOHSimulation::run()\n");
EventsManager& eventsManager = *_processSimulation->eventsManager();
unsigned k = 0;
boost::progress_display show_progress(_N);
boost::timer time;
time.restart();
TimeStepping& sim = static_cast<TimeStepping&>(*_processSimulation);
while (sim.hasNextEvent())
{
Event& nextEvent = *eventsManager.nextEvent();
if (nextEvent.getType() == TD_EVENT)
{
sim.computeOneStep();
}
sim.nextStep();
if (sim.hasNextEvent() && eventsManager.nextEvent()->getType() == TD_EVENT) // We store only on TD_EVENT
{
(*_dataM)(k, 0) = sim.startingTime();
storeData(k);
++k;
if (!_silent)
{
++show_progress;
}
}
}
/* saves last status */
(*_dataM)(k, 0) = sim.startingTime();
storeData(k);
++k;
_elapsedTime = time.elapsed();
_dataM->resize(k, _nDim + 1);
DEBUG_END("void ControlZOHSimulation::run()\n");
}
void ControlLsodarSimulation::run()
{
EventsManager& eventsManager = *_processSimulation->eventsManager();
unsigned k = 0;
boost::progress_display show_progress(_N);
boost::timer time;
time.restart();
EventDriven& sim = static_cast<EventDriven&>(*_processSimulation);
while (sim.hasNextEvent())
{
if (eventsManager.needsIntegration())
{
sim.advanceToEvent();
}
sim.processEvents();
Event& currentEvent = *eventsManager.currentEvent();
if (currentEvent.getType() == ACTUATOR_EVENT)
{
// this is necessary since we changed the control input, hence the RHS
sim.setIstate(1);
}
if (sim.hasNextEvent() && eventsManager.nextEvent()->getType() == TD_EVENT) // We store only on TD_EVENT, this should be settable
{
(*_dataM)(k, 0) = sim.startingTime();
storeData(k);
++k;
if (!_silent)
{
++show_progress;
}
}
}
/* saves last status */
(*_dataM)(k, 0) = sim.startingTime();
storeData(k);
++k;
_elapsedTime = time.elapsed();
_dataM->resize(k, _nDim + 1);
}
void FileParser::moveToMemory() {
bool is_data = false;
bool is_instruction = false;
Memory::clear(); // clear memory
storeData(m_data); //move to data
m_data.clear(); //delete the data collection
storeInstruction(m_instructions);//move to instructions
m_instructions.clear(); //delete the instruction collection
}
//------------------------------------------------------------------------------
void checkAScan()
{
if(sti==STI_SCAN)
{
if(curStep>MAX_SCAN) //700nm
{
#if 0
#if HEAT_LAMP
//关氘灯
GPIO_ResetBits(GPIOC,GPIO_Pin_9); //CTRL0->0
GPIO_SetBits(GPIOA,GPIO_Pin_13); //CTRL1->1
#endif
#endif
FILT_OFF; //扫完就关滤光片，省电
curStep=MAX_SCAN; //已切换到728步
strctStore.fOnCal = 0;
sti = STI_IDLE;
cntDA = 0;
cntFilt = 0;
utDAC8560Write(0);
//showInit();
if(utIsFlag (F_SCANX))
{
utClrFlag (F_SCANX);
calWaveX();
//校正
}
else if(utIsFlag (F_SCAN0))
{
utClrFlag (F_SCAN0);
strctStore.fAir = 1;
storeData();
}
#if 0
for(i=START_SCAN;i<=MAX_SCAN;i++)
{
utPrt("%x,%d\n",daDat[i],i);
}
#endif
return;
}
swgPlot();
}
}
int main() {
init();
storeData();
genNormalDis();
center = getCenter();
for (int i = 0; i < 500; i++) {
if (i % 6 == 0) std::cout << std::endl;
if (i % 3 == 0) std::cout << "_____";
std::cout << finalData[i] << ", ";
}
loop();
return 1;
}
void bufferManager::addRecord(CString table_name, char* head, int size)
{
address add, dataAdd, nextAdd;
findTableEntry(table_name, add);
if(add.block_position == -1 && add.index_position == -1)
{
int i = addTableEntry(table_name,add);
int j = storeData(head,size,dataAdd);
buffer[i].setRecordFrontLink(add.index_position, dataAdd);
buffer[i].setRecordNextLink(add.index_position, dataAdd);
buffer[j].setRecordFrontLink(dataAdd.index_position, add);
buffer[j].setRecordNextLink(dataAdd.index_position, add);
}
else
{
int i = readBlockFromDisk(add.block_position);
buffer[i].getRecordNextLink(add.index_position, nextAdd);
if(nextAdd.block_position != -1 && nextAdd.index_position != -1)
{
int j = storeData(head, size, dataAdd);
buffer[i].getRecordNextLink(add.index_position, nextAdd);
int m = readBlockFromDisk(nextAdd.block_position);
buffer[j].setRecordFrontLink(dataAdd.index_position, add);
buffer[j].setRecordNextLink(dataAdd.index_position, nextAdd);
buffer[i].setRecordNextLink(add.index_position, dataAdd);
buffer[m].setRecordFrontLink(nextAdd.index_position, dataAdd);
}
else
{
int j = storeData(head, size, dataAdd);
buffer[j].setRecordFrontLink(dataAdd.index_position, add);
buffer[j].setRecordNextLink(dataAdd.index_position, add);
buffer[i].setRecordFrontLink(add.index_position, dataAdd);
buffer[i].setRecordNextLink(add.index_position, dataAdd);
}
}
}
// The loop function is called in an endless loop
void loop()
{
//horloge
displayDate();
displayTimeDigit();
//if (update == ON) {
//informations
getData();
storeData();
displayInformation();
//}
delay(500);
}
int main() {
init();
storeData();
genNormalDis();
center = getCenter();
/*
for (int i = 0; i < vsize; i++) {
if (i % 8 == 0) std::cout << std::endl;
else if (i % 3 == 0) std::cout << " ";
std::cout << finalData[i] << ", ";
} */
loop();
return 1;
}
void sortInRegister(float *data)
{
__m128 rData[rArrayLen];
loadData(data, rData, rArrayLen);
simdOddEvenSort(rData);
bitonicSort428<4>(rData, true);
bitonicSort8216<2>(rData, true);
bitonicSort16232(rData);
storeData(data, rData, rArrayLen);
}
void OnlineBible_Text::newVerse (int bookIdentifier, int chapterNumber, int verseNumber)
{
storeData ();
// Store passage and any text only in case the book is valid,
// and the chapter and verse are non-zero.
string book = Database_Books::getOnlinebibleFromId (bookIdentifier);
if (!book.empty()) {
if (chapterNumber > 0) {
if (verseNumber > 0) {
output.push_back ("$$$ " + book + " " + convert_to_string (chapterNumber) + ":" + convert_to_string (verseNumber));
currentLine.clear ();
lineLoaded = true;
}
}
}
}
void Mesh::draw()
{
if(!m_loadedTriangles)
storeData();
glBindVertexArray(m_vertexArray);
glActiveTexture(GL_TEXTURE0);
glBindTexture(GL_TEXTURE_2D, m_meshTexture);
glBindSampler(0, m_meshSampler);
glDrawArrays(GL_TRIANGLES, 0, m_vertexCount);
glBindVertexArray(0);
glBindTexture(GL_TEXTURE_2D, 0);
}
static void update_time() {
// Get a tm structure
time_t temp = time(NULL);
struct tm *tick_time = localtime(&temp);
int waterCntMl = calcDrinksVolume();
static char curDay[8];
strftime(curDay, sizeof(curDay), "%m-%d", tick_time); // %F = "%Y-%m-%d" ... but the year doesn't matter (unless you don't use the app for exactly one year °°)
if(0 != strcmp(curDay,g_day)) {
if(waterCntMl > DEFAULT_GOAL/2) {
g_goal = waterCntMl;
}
waterCntMl = 0;
memset(g_drinks,0,sizeof(g_drinks));
strcpy(g_day,curDay);
storeData();
}
// int curShould = (g_goal * tick_time->tm_hour / 23);
int clippedTime = 0;
if(tick_time->tm_hour > 20) {
clippedTime = 960; // (21-5)*60
}
else if(tick_time->tm_hour > 5) {
clippedTime = (tick_time->tm_hour - 5)*60 + tick_time->tm_min;
}
// int clippedHour = (tick_time->tm_hour < 20) ? tick_time->tm_hour-5 : 15;
// if(clippedHour<0) clippedHour = 0;
// int curShould = (g_goal * clippedHour / 15);
int curShould = (g_goal * clippedTime / 960);
int curDiff = waterCntMl - curShould;
int neg = (curDiff<0);
if(neg) curDiff *= -1;
// Write the current hours and minutes into a buffer
static char s_buffer[8];
snprintf(s_buffer,sizeof(s_buffer),"%c%d.%.2d",neg?'-':'+',curDiff/1000,(curDiff/10)%100);
// Display this time on the TextLayer
text_layer_set_text(s_time_layer, s_buffer);
static char s_buffer2[16];
snprintf(s_buffer2,sizeof(s_buffer2),"%d / %d", waterCntMl, g_goal);
text_layer_set_text(s_subtext,s_buffer2);
// text_layer_set_text(s_subtext,curDay);
}
KexiDB::SchemaData* KexiReportDesignView::storeNewData(const KexiDB::SchemaData& sdata, bool &cancel)
{
KexiDB::SchemaData *s = KexiView::storeNewData(sdata, cancel);
kexipluginsdbg << "new id:" << s->id();
if (!s || cancel) {
delete s;
return 0;
}
if (!storeData()) {
//failure: remove object's schema data to avoid garbage
KexiDB::Connection *conn = KexiMainWindowIface::global()->project()->dbConnection();
conn->removeObject(s->id());
delete s;
return 0;
}
return s;
#if 0
KexiDB::SchemaData *rpt = new KexiDB::SchemaData();
*rpt = sdata;
//sdata.setName ( name );
//sdata.setDescription ( _rd->reportTitle() );
KexiDB::Connection *conn = KexiMainWindowIface::global()->project()->dbConnection();
if (conn->storeObjectSchemaData(*rpt, true /*newObject*/)) {
window()->setId(rpt->id());
if (rpt->id() > 0 && storeDataBlock(_rd->document().toString(), "pgzreport_layout")) {
kDebug() << "Saved OK " << rpt->id();
} else {
kDebug() << "NOT Saved OK";
return 0;
}
} else {
kDebug() << "Unable to store schema data";
return 0;
}
return rpt;
#endif
}
DB::SchemaData* ReportDesignView::storeNewData ( const DB::SchemaData& sdata, bool &cancel ) {
DB::SchemaData *s = View::storeNewData ( sdata, cancel );
kexipluginsdbg << "new id:" << s->id();
if ( !s || cancel ) {
delete s;
return 0;
}
if ( !storeData() ) {
//failure: remove object's schema data to avoid garbage
DB::Connection *conn = MainWindowIface::global()->project()->dbConnection();
conn->removeObject ( s->id() );
delete s;
return 0;
}
return s;
}
KexiDB::SchemaData* KexiReportDesignView::storeNewData(const KexiDB::SchemaData& sdata,
KexiView::StoreNewDataOptions options,
bool &cancel)
{
KexiDB::SchemaData *s = KexiView::storeNewData(sdata, options, cancel);
kDebug() << "new id:" << s->id();
if (!s || cancel) {
delete s;
return 0;
}
if (!storeData()) {
//failure: remove object's schema data to avoid garbage
KexiDB::Connection *conn = KexiMainWindowIface::global()->project()->dbConnection();
conn->removeObject(s->id());
delete s;
return 0;
}
return s;
}
int main(int argc, char * argv[])
{
printUsage(argv[0]);
std::string data_filename;
std::vector<std::size_t> address_list;
if(argc == 1) {
address_list = generateAddressList(c_addr_num);
storeData("data.log", address_list);
} else if(argc == 2) {
address_list = processFile(argv[1]);
} else {
std::exit(EXIT_FAILURE);
}//if-else
std::size_t addrsz = address_list.size();
for(std::size_t mem_sz = 1; mem_sz <= 35; ++mem_sz) {
std::cout << std::setw(2) << mem_sz << " page frames: ";
std::size_t page_fault =
FIFO_algorithm(mem_sz, address_list);
std::cout << " FIFO:" << std::fixed << std::setprecision(4)
<< 1-(double)(page_fault)/addrsz
<< ",";
page_fault =
LRU_algorithm(mem_sz, address_list);
std::cout << " LRU:" << std::fixed << std::setprecision(4)
<< 1-(double)(page_fault)/addrsz
<< ",";
page_fault =
OPT_algorithm(mem_sz, address_list);
std::cout << " OPT:" << std::fixed << std::setprecision(4)
<< 1-(double)(page_fault)/addrsz
<< std::endl;
}//for
return 0;
}//main
/*
Convert an integer into Peter's Binary Form, and stores the binary form into a charater array with each character storing one bit of information.
Peter's Binary Form is composed of two parts.
The length defining part is initially 3 bits, specifying the length of the data part. If the 3 bits are all 1 (i.e. the length is equal to or greater than 7), another 3 bits are added. The rule applies for the subsequent 3-bits parts. The value is read as the sum of all the 3-bits part.
The data part stores the binary form of the integer.
NOTE: if the integer is 0, it will be stored as 000, no data part will be stored
PARAMETERS: input - integer to be converted
output - character array used to store PBF
outputLimit - the size of the character array
RETURN: the total number of bits of the Peter's Binary Form
*/
int intToPBF(int input, char *output, int outputLimit) {
if (input == 0) {
sprintf(output, "000");
return 3;
}
unsigned bin, counter;
bin = intToBin(input);
//get the length of the binary number
int length = sprintf(output, "%d", bin);
counter = storeLen(length, output);
if (counter + length > outputLimit) {
fprintf(stderr, "PBFLIMIT too small");
EXIT_FAILURE;
}
counter += storeData(bin, output+counter);
return counter;
}
int bufferManager::addTableEntry(CString table_name, address &return_value)
{
int size = 0;
size = table_name.GetLength() + 1 + 6*sizeof(int);
char* tableEntryHead = new char[size];
for(int i = 0; i < table_name.GetLength(); i++)
tableEntryHead[i] = table_name.GetAt(i);
tableEntryHead[i++] = '\0';
((int *)(tableEntryHead + i))[0] = ((int *)(tableEntryHead + i))[1]
= ((int *)(tableEntryHead + i))[2] = ((int *)(tableEntryHead + i))[3]
= ((int *)(tableEntryHead + i))[4] = ((int *)(tableEntryHead + i))[5]
= -1;
int j = storeData(tableEntryHead, size, return_value);
i = readBlockFromDisk(0);
address head_add;
buffer[i].getData(0,(char *)&head_add);
buffer[j].setNextLink(return_value.index_position, head_add);
buffer[i].setNextLink(0,return_value);
delete [] tableEntryHead;
return j;
}
/**
* Runs the SendByte state machine.
* @param CurrentEvent: the event to process
* @return an event to return
*/
ES_Event RunSendByteSM(ES_Event CurrentEvent) {
bool MakeTransition = false; // are we making a state transition?
SendByteState_t NextState = CurrentState;
ES_Event EntryEventKind = { ES_ENTRY, 0 }; // default to normal entry to new state
ES_Event ReturnEvent = { ES_NO_EVENT, 0 }; // assume no error
switch (CurrentState) {
case WaitingByte: {
CurrentEvent = DuringWaitingByte(CurrentEvent);
if (CurrentEvent.EventType != ES_NO_EVENT) {
if (CurrentEvent.EventType == SendByte) {
sendData(CurrentEvent.EventParam); // write the byte to the SSI data register
//printf("%X\r\n",CurrentEvent.EventParam); // DEBUG *****************************************************
NextState = WaitingForEOT;
MakeTransition = true;
}
}
}
break;
case WaitingForEOT: {
//printf("\r\n XX");
CurrentEvent = DuringWaitingForEOT(CurrentEvent);
//printf("\r\n 1");
if (CurrentEvent.EventType != ES_NO_EVENT) {
if (CurrentEvent.EventType == EndOfTransmit) {
storeData(); // store received data
NextState = WaitingForTimeout;
MakeTransition = true;
ES_Timer_InitTimer(DRS_TIMER, WAIT_TIME); // start DRS timer
}
}
}
break;
case WaitingForTimeout: {
//printf("\r\n XXX");
CurrentEvent = DuringWaitingForTimeout(CurrentEvent);
if (CurrentEvent.EventType != ES_NO_EVENT) {
if ((CurrentEvent.EventType == ES_TIMEOUT) && (CurrentEvent.EventParam == DRS_TIMER)) {
//printf("Got timeout\r\n"); //******************************************************************************************************************
//NextState = WaitingByte;
//MakeTransition = true;
MakeTransition = false;
ReturnEvent = CurrentEvent;
CurrentState = WaitingByte;
}
}
}
break;
}
/* If we are making a state transition */
if (MakeTransition == true) {
/* Execute exit function for current state */
CurrentEvent.EventType = ES_EXIT;
RunSendByteSM(CurrentEvent);
CurrentState = NextState; // modify state variable
/* Execute entry function for new state */
/* This defaults to ES_ENTRY */
RunSendByteSM(EntryEventKind);
}
return ReturnEvent;
}
void
DPXCodec::compress(const FrameBuffer &frame)
{
const PixelType pixel_type = (_depth == DPX_8 ? MoxFiles::UINT8 : MoxFiles::UINT16);
const size_t bytes_per_subpixel = PixelSize(pixel_type);
const int num_channels = (_channels == DPX_RGBA ? 4 : 3);
const Box2i dataW = dataWindow();
const int width = (dataW.max.x - dataW.min.x + 1);
const int height = (dataW.max.y - dataW.min.y + 1);
const size_t bytes_per_pixel = bytes_per_subpixel * num_channels;
const size_t rowbytes = bytes_per_pixel * width;
const size_t buffer_size = rowbytes * height;
DataChunk data(buffer_size);
FrameBuffer frame_buffer(dataW);
char *origin = (char *)data.Data;
frame_buffer.insert("R", Slice(pixel_type, origin + (bytes_per_subpixel * 0), bytes_per_pixel, rowbytes));
frame_buffer.insert("G", Slice(pixel_type, origin + (bytes_per_subpixel * 1), bytes_per_pixel, rowbytes));
frame_buffer.insert("B", Slice(pixel_type, origin + (bytes_per_subpixel * 2), bytes_per_pixel, rowbytes));
if(_channels == DPX_RGBA)
frame_buffer.insert("A", Slice(pixel_type, origin + (bytes_per_subpixel * 3), bytes_per_pixel, rowbytes));
frame_buffer.copyFromFrame(frame);
MemoryFile file(buffer_size);
DPXCodec_OutStream ostream(file);
dpx::Writer dpx;
dpx.SetOutStream(&ostream);
dpx.SetFileInfo("MOX", // fileName
NULL, // creation time (set by libdpx)
"DPXcodec, part of MOX", // creator
NULL, // project
NULL, // copyright
~0, // encryption key (0xffffffff means no encryption)
false); // don't swap byte order
dpx.SetImageInfo(width, height);
dpx.header.SetAspectRatio(0, _pixelAspectRatio.Numerator);
dpx.header.SetAspectRatio(1, _pixelAspectRatio.Denominator);
dpx.header.SetFrameRate((dpx::R32)_frameRate.Numerator / (dpx::R32)_frameRate.Denominator);
//dpx.header.SetInterlace(info->field_label->type == FIEL_Type_FRAME_RENDERED ? 0 : 1);
const unsigned int bit_depth = (_depth == DPX_8 ? 8 :
_depth == DPX_10 ? 10 :
_depth == DPX_12 ? 12 :
_depth == DPX_16 ? 16 :
10);
const dpx::Descriptor dpx_desc = (_channels == DPX_RGBA ? dpx::kRGBA : dpx::kRGB);
const dpx::Packing packing = ((bit_depth == 8 || bit_depth == 16) ? dpx::kPacked : dpx::kFilledMethodA);
const dpx::Characteristic transfer = dpx::kLogarithmic;
const dpx::Characteristic colorimetric = dpx::kLogarithmic;
dpx.SetElement(0, dpx_desc, bit_depth, transfer, colorimetric, packing);
const bool wrote_header = dpx.WriteHeader();
if(!wrote_header)
throw MoxMxf::ArgExc("Error writing header");
const dpx::DataSize size = (pixel_type == MoxFiles::UINT16 ? dpx::kWord : dpx::kByte);
const bool wrote_element = dpx.WriteElement(0, data.Data, size);
if(!wrote_element)
throw MoxMxf::ArgExc("Error writing image");
const bool wrote_finish = dpx.Finish();
if(!wrote_finish)
throw MoxMxf::ArgExc("Error writing finish");
storeData( file.getDataChunk() );
}
void
JPEGLSCodec::compress(const FrameBuffer &frame)
{
const Box2i dataW = dataWindow();
const int width = (dataW.max.x - dataW.min.x + 1);
const int height = (dataW.max.y - dataW.min.y + 1);
const PixelType pixType = (_depth == JPEGLS_8 ? UINT8 :
_depth == JPEGLS_10 ? UINT10 :
_depth == JPEGLS_12 ? UINT12 :
_depth == JPEGLS_16 ? UINT16 :
UINT8);
const size_t pixSize = PixelSize(pixType);
const unsigned int bitDepth = PixelBits(pixType);
const int numChannels = (_channels == JPEGLS_RGBA ? 4 : 3);
const size_t tempPixelSize = (numChannels * pixSize);
const size_t tempRowbytes = (tempPixelSize * width);
const size_t tempBufSize = (tempRowbytes * height);
DataChunk dataChunk(tempBufSize);
char *tempBuffer = (char *)dataChunk.Data;
assert(dataW.min.x == 0 && dataW.min.y == 0);
FrameBuffer tempFrameBuffer(dataW);
tempFrameBuffer.insert("R", Slice(pixType, &tempBuffer[0 * pixSize], tempPixelSize, tempRowbytes));
tempFrameBuffer.insert("G", Slice(pixType, &tempBuffer[1 * pixSize], tempPixelSize, tempRowbytes));
tempFrameBuffer.insert("B", Slice(pixType, &tempBuffer[2 * pixSize], tempPixelSize, tempRowbytes));
if(_channels == JPEGLS_RGBA)
tempFrameBuffer.insert("A", Slice(pixType, &tempBuffer[3 * pixSize], tempPixelSize, tempRowbytes));
tempFrameBuffer.copyFromFrame(frame);
JlsParameters params = JlsParameters();
params.width = width;
params.height = height;
params.bitspersample = bitDepth;
//params.bytesperline = (tempRowbytes / 3);
params.components = numChannels;
params.allowedlossyerror = 0; // always lossless
params.ilv = ILV_SAMPLE;
params.colorTransform = COLORXFORM_NONE;
//params.outputBgr = 0;
/*
params.custom.MAXVAL = 255;
params.custom.T1 = 0;
params.custom.T2 = 0;
params.custom.T3 = 0;
params.custom.RESET = 1;
params.jfif.Ver = 123;
params.jfif.units = 0;
params.jfif.XDensity = 72;
params.jfif.YDensity = 72;
params.jfif.Xthumb = 0;
params.jfif.Ythumb = 0;
params.jfif.pdataThumbnail = NULL;
*/
ByteStreamInfo inStream = FromByteArray(dataChunk.Data, dataChunk.Size);
DataChunkPtr outDataChunk = new DataChunk(tempBufSize);
size_t bytesWritten = 0;
JLS_ERROR err = OK;
do
{
ByteStreamInfo outStream = FromByteArray(outDataChunk->Data, outDataChunk->Size);
err = JpegLsEncodeStream(outStream, &bytesWritten, inStream, ¶ms);
if(err == CompressedBufferTooSmall)
{
outDataChunk->Resize(2 * outDataChunk->Size, false);
}
}while(err == CompressedBufferTooSmall);
assert(err != TooMuchCompressedData);
if(err == OK)
{
assert(bytesWritten > 0);
outDataChunk->Resize(bytesWritten);
storeData(outDataChunk);
}
else
throw MoxMxf::ArgExc("JPEG-LS compression error");
}