bool ArgumentCoder<DragData>::decode(Decoder& decoder, DragData& dragData)
{
IntPoint clientPosition;
if (!decoder.decode(clientPosition))
return false;
IntPoint globalPosition;
if (!decoder.decode(globalPosition))
return false;
uint64_t sourceOperationMask;
if (!decoder.decode(sourceOperationMask))
return false;
uint64_t flags;
if (!decoder.decode(flags))
return false;
bool hasPlatformData;
if (!decoder.decode(hasPlatformData))
return false;
RefPtr<DataObjectGtk> platformData;
if (hasPlatformData) {
if (!decodeDataObject(decoder, platformData))
return false;
}
dragData = DragData(platformData.leakRef(), clientPosition, globalPosition, static_cast<DragOperation>(sourceOperationMask),
static_cast<DragApplicationFlags>(flags));
return true;
}
void decode(Decoder& d, Reporter& reporter) override {
String groupStr;
d.decode(groupStr);
groupByValue = std::string(groupStr);
d.decode(total);
d.decode(count);
}
bool Coder<WebCore::CertificateInfo>::decode(Decoder& decoder, WebCore::CertificateInfo& certificateInfo)
{
bool hasCertificate;
if (!decoder.decode(hasCertificate))
return false;
if (!hasCertificate)
return true;
uint64_t size = 0;
if (!decoder.decode(size))
return false;
Vector<uint8_t> vector(size);
if (!decoder.decodeFixedLengthData(vector.data(), vector.size()))
return false;
GByteArray* certificateData = g_byte_array_sized_new(vector.size());
certificateData = g_byte_array_append(certificateData, vector.data(), vector.size());
GRefPtr<GByteArray> certificateBytes = adoptGRef(certificateData);
GTlsBackend* backend = g_tls_backend_get_default();
GRefPtr<GTlsCertificate> certificate = adoptGRef(G_TLS_CERTIFICATE(g_initable_new(
g_tls_backend_get_certificate_type(backend), 0, 0, "certificate", certificateBytes.get(), nullptr)));
certificateInfo.setCertificate(certificate.get());
uint32_t tlsErrors;
if (!decoder.decode(tlsErrors))
return false;
certificateInfo.setTLSErrors(static_cast<GTlsCertificateFlags>(tlsErrors));
return true;
}
bool Coder<WebCore::HTTPHeaderMap>::decode(Decoder& decoder, WebCore::HTTPHeaderMap& headers)
{
uint64_t headersSize;
if (!decoder.decode(headersSize))
return false;
for (uint64_t i = 0; i < headersSize; ++i) {
String name;
if (!decoder.decode(name))
return false;
String value;
if (!decoder.decode(value))
return false;
headers.add(name, value);
}
return true;
}
bool ArgumentCoder<CString>::decode(Decoder& decoder, CString& result)
{
uint32_t length;
if (!decoder.decode(length))
return false;
if (length == std::numeric_limits<uint32_t>::max()) {
// This is the null string.
result = CString();
return true;
}
// Before allocating the string, make sure that the decoder buffer is big enough.
if (!decoder.bufferIsLargeEnoughToContain<char>(length)) {
decoder.markInvalid();
return false;
}
char* buffer;
CString string = CString::newUninitialized(length, buffer);
if (!decoder.decodeFixedLengthData(reinterpret_cast<uint8_t*>(buffer), length, 1))
return false;
result = string;
return true;
}
bool SubresourceInfo::decode(Decoder& decoder, SubresourceInfo& info)
{
if (!decoder.decode(info.m_isTransient))
return false;
if (info.m_isTransient)
return true;
if (!decoder.decode(info.m_firstPartyForCookies))
return false;
if (!decoder.decode(info.m_requestHeaders))
return false;
return true;
}
inline void
invoke_reuse_helper(Encoder encoder, Decoder decoder)
{
std::vector<uint8_t> payload(encoder->payload_size());
std::vector<uint8_t> data_in = random_vector(encoder->block_size());
sak::mutable_storage storage_in = sak::storage(data_in);
encoder->set_symbols(storage_in);
// Set the encoder non-systematic
if(kodo::is_systematic_encoder(encoder))
kodo::set_systematic_off(encoder);
while( !decoder->is_complete() )
{
uint32_t payload_used = encoder->encode( &payload[0] );
EXPECT_TRUE(payload_used <= encoder->payload_size());
decoder->decode( &payload[0] );
}
std::vector<uint8_t> data_out(decoder->block_size(), '\0');
decoder->copy_symbols(sak::storage(data_out));
EXPECT_TRUE(std::equal(data_out.begin(),
data_out.end(),
data_in.begin()));
}
bool ArgumentCoder<AtomicString>::decode(Decoder& decoder, AtomicString& atomicString)
{
String string;
if (!decoder.decode(string))
return false;
atomicString = string;
return true;
}
bool ArgumentCoder<std::chrono::system_clock::time_point>::decode(Decoder& decoder, std::chrono::system_clock::time_point& result)
{
int64_t time;
if (!decoder.decode(time))
return false;
result = std::chrono::system_clock::time_point(std::chrono::system_clock::duration(static_cast<std::chrono::system_clock::rep>(time)));
return true;
}
int
decode()
{
Decoder* dec = Decoder::GetDecoder();
if (!dec)
return -1;
int ret = dec->decode();
delete dec;
return ret;
}
bool StringReference::decode(Decoder& decoder, StringReference& result)
{
DataReference dataReference;
if (!decoder.decode(dataReference))
return false;
result.m_data = reinterpret_cast<const char*>(dataReference.data());
result.m_size = dataReference.size();
return true;
}
bool Coder<String>::decode(Decoder& decoder, String& result)
{
uint32_t length;
if (!decoder.decode(length))
return false;
if (length == std::numeric_limits<uint32_t>::max()) {
// This is the null string.
result = String();
return true;
}
bool is8Bit;
if (!decoder.decode(is8Bit))
return false;
if (is8Bit)
return decodeStringText<LChar>(decoder, length, result);
return decodeStringText<UChar>(decoder, length, result);
}
Item::Item(Decoder& decoder, Engine* engine, Item* owner) : engine_(engine), owner_(owner)
{
decoder.decode(typeID_);
decoder.decode(groupID_);
decoder.decode(categoryID_);
{
AttributesMap::size_type size;
decoder.decode(size);
for (AttributesMap::size_type i = 0; i < size; i++)
{
Attribute* attribute = new Attribute(decoder, engine, this);
attributes_[attribute->getAttributeID()] = attribute;
}
}
{
EffectsList::size_type size;
decoder.decode(size);
for (EffectsList::size_type i = 0; i < size; i++)
{
TypeID effectID;
decoder.decode(effectID);
effects_.push_back(Effect::getEffect(engine_, effectID));
}
}
}
static bool decodeCFData(Decoder& decoder, RetainPtr<CFDataRef>& data)
{
uint64_t size = 0;
if (!decoder.decode(size))
return false;
Vector<uint8_t> vector(size);
if (!decoder.decodeFixedLengthData(vector.data(), vector.size()))
return false;
data = adoptCF(CFDataCreate(nullptr, vector.data(), vector.size()));
return true;
}
/**
* \brief Decode from XDQP stream
*/
void decode(Decoder& d, Reporter& reporter) {
try {
int size;
d.decode(size);
IInterimResult* interim;
for (long i = 0;i < size;i++) {
// decode all interim results
interim = resultTypeRef();
interim->decode(d,reporter);
}
} catch (std::exception& ex) {
reporter.error(("Exception in decode(): " + std::string(ex.what())).c_str());
}
}
bool Coder<WebCore::CertificateInfo>::decode(Decoder& decoder, WebCore::CertificateInfo& certificateInfo)
{
uint64_t certificateSize;
if (!decoder.decode(certificateSize))
return false;
Vector<uint8_t> data(certificateSize);
if (!decoder.decodeFixedLengthData(data.data(), data.size()))
return false;
IPC::ArgumentDecoder argumentDecoder(data.data(), data.size());
if (!argumentDecoder.decode(certificateInfo)) {
decoder.markInvalid();
return false;
}
return true;
}
static bool decodeGKeyFile(Decoder& decoder, GUniquePtr<GKeyFile>& keyFile)
{
DataReference dataReference;
if (!decoder.decode(dataReference))
return false;
if (!dataReference.size())
return true;
keyFile.reset(g_key_file_new());
if (!g_key_file_load_from_data(keyFile.get(), reinterpret_cast<const gchar*>(dataReference.data()), dataReference.size(), G_KEY_FILE_NONE, 0)) {
keyFile.reset();
return false;
}
return true;
}
static bool decodeCertificateChain(Decoder& decoder, RetainPtr<CFArrayRef>& certificateChain)
{
uint64_t size;
if (!decoder.decode(size))
return false;
auto array = adoptCF(CFArrayCreateMutable(0, 0, &kCFTypeArrayCallBacks));
for (size_t i = 0; i < size; ++i) {
RetainPtr<CFDataRef> data;
if (!decodeCFData(decoder, data))
return false;
auto certificate = adoptCF(SecCertificateCreateWithData(0, data.get()));
CFArrayAppendValue(array.get(), certificate.get());
}
certificateChain = WTFMove(array);
return true;
}
static bool decodeSecTrustRef(Decoder& decoder, RetainPtr<SecTrustRef>& result)
{
bool hasTrust;
if (!decoder.decode(hasTrust))
return false;
if (!hasTrust)
return true;
RetainPtr<CFDataRef> trustData;
if (!decodeCFData(decoder, trustData))
return false;
auto trust = adoptCF(SecTrustDeserialize(trustData.get(), nullptr));
if (!trust)
return false;
result = WTFMove(trust);
return true;
}
QString SourceFile::getCode()
{
if(interpreter)
{
KHTMLPart *part = ::qt_cast< KHTMLPart * >(static_cast< ScriptInterpreter * >(interpreter)->part());
if(part && url == part->url().url() && KHTMLPageCache::self()->isValid(part->cacheId()))
{
Decoder *decoder = part->createDecoder();
QByteArray data;
QDataStream stream(data, IO_WriteOnly);
KHTMLPageCache::self()->saveData(part->cacheId(), &stream);
QString str;
if(data.size() == 0)
str = "";
else
str = decoder->decode(data.data(), data.size()) + decoder->flush();
delete decoder;
return str;
}
}
return code;
}
static bool decodeImage(Decoder& decoder, GRefPtr<GdkPixbuf>& pixbuf)
{
ShareableBitmap::Handle handle;
if (!decoder.decode(handle))
return false;
RefPtr<ShareableBitmap> bitmap = ShareableBitmap::create(handle);
if (!bitmap)
return false;
RefPtr<Image> image = bitmap->createImage();
if (!image)
return false;
RefPtr<cairo_surface_t> surface = image->nativeImageForCurrentFrame();
if (!surface)
return false;
pixbuf = adoptGRef(gdk_pixbuf_get_from_surface(surface.get(), 0, 0, cairo_image_surface_get_width(surface.get()), cairo_image_surface_get_height(surface.get())));
if (!pixbuf)
return false;
return true;
}
bool Generator::getAndQueueEventInt(bool block)
{
bool result = true;
//static ArchEvent *arch_event = NULL;
ArchEvent* arch_event = getCachedEvent();
vector<Event::ptr> events;
vector<ArchEvent *> archEvents;
if (isExitingState()) {
pthrd_printf("Generator exiting before processWait\n");
result = false;
goto done;
}
setState(process_blocked);
result = processWait(block);
if (isExitingState()) {
pthrd_printf("Generator exiting after processWait\n");
result = false;
goto done;
}
if (!result) {
pthrd_printf("Generator exiting after processWait returned false\n");
result = false;
goto done;
}
result = plat_continue(arch_event);
if(!result) {
pthrd_printf("Generator exiting after plat_continue returned false\n");
result = false;
goto done;
}
setState(system_blocked);
pthrd_printf("About to getEvent()\n");
result = getMultiEvent(block, archEvents);
pthrd_printf("Got event\n");
if (isExitingState()) {
pthrd_printf("Generator exiting after getEvent\n");
result = false;
goto done;
}
if (!result) {
pthrd_printf("Error. Unable to recieve event\n");
result = false;
goto done;
}
setState(decoding);
//mbox()->lock_queue();
ProcPool()->condvar()->lock();
for (vector<ArchEvent *>::iterator i = archEvents.begin(); i != archEvents.end(); i++) {
arch_event = *i;
for (decoder_set_t::iterator j = decoders.begin(); j != decoders.end(); j++) {
Decoder *decoder = *j;
bool result = decoder->decode(arch_event, events);
if (result)
break;
}
}
setState(statesync);
for (vector<Event::ptr>::iterator i = events.begin(); i != events.end(); i++) {
Event::ptr event = *i;
if(event) {
event->getProcess()->llproc()->updateSyncState(event, true);
}
}
ProcPool()->condvar()->unlock();
setState(queueing);
for (vector<Event::ptr>::iterator i = events.begin(); i != events.end(); ++i) {
mbox()->enqueue(*i);
Generator::cb_lock->lock();
for (set<gen_cb_func_t>::iterator j = CBs.begin(); j != CBs.end(); ++j) {
(*j)();
}
Generator::cb_lock->unlock();
}
//mbox()->unlock_queue();
result = true;
done:
setState(none);
setCachedEvent(arch_event);
return result;
}
Xchar ExternalInputSource::fill(Messenger &mgr)
{
ASSERT(cur() == end());
while (end() >= bufLim_) {
// need more data
while (so_ == 0) {
if (soIndex_ >= sov_.size())
return eE;
if (soIndex_ > 0)
info_->noteStorageObjectEnd(bufLimOffset_ - (bufLim_ - end()));
const StorageObjectSpec &spec = info_->spec(soIndex_);
if (mayNotExist_) {
NullMessenger nullMgr;
sov_[soIndex_]
= spec.storageManager->makeStorageObject(spec.specId, spec.baseId,
spec.search,
mayRewind_, nullMgr,
info_->id(soIndex_));
}
else
sov_[soIndex_]
= spec.storageManager->makeStorageObject(spec.specId, spec.baseId,
spec.search,
mayRewind_, mgr,
info_->id(soIndex_));
so_ = sov_[soIndex_].pointer();
if (so_) {
decoder_ = spec.codingSystem->makeDecoder();
info_->setDecoder(soIndex_, decoder_);
zapEof_ = spec.zapEof;
switch (spec.records) {
case StorageObjectSpec::asis:
recordType_ = asis;
insertRS_ = false;
break;
case StorageObjectSpec::cr:
recordType_ = cr;
break;
case StorageObjectSpec::lf:
recordType_ = lf;
break;
case StorageObjectSpec::crlf:
recordType_ = crlf;
break;
case StorageObjectSpec::find:
recordType_ = unknown;
break;
default:
CANNOT_HAPPEN();
}
soIndex_++;
readSize_ = so_->getBlockSize();
nLeftOver_ = 0;
break;
}
else
setAccessError();
soIndex_++;
}
size_t keepSize = end() - start();
const size_t align = sizeof(int)/sizeof(Char);
size_t readSizeChars = (readSize_ + (sizeof(Char) - 1))/sizeof(Char);
readSizeChars = roundUp(readSizeChars, align);
size_t neededSize; // in Chars
size_t startOffset;
// compute neededSize and readSize
unsigned minBytesPerChar = decoder_->minBytesPerChar();
if (nLeftOver_ == 0 && minBytesPerChar >= sizeof(Char)) {
// In this case we want to do decoding in place.
// FIXME It might be a win on some systems (Irix?) to arrange that the
// read buffer is on a page boundary.
if (keepSize >= size_t(-1)/sizeof(Char) - (align - 1) - insertRS_)
abort(); // FIXME throw an exception
// Now size_t(-1)/sizeof(Char) - (align - 1) - insertRS_ - keepSize > 0
if (readSizeChars
> size_t(-1)/sizeof(Char) - (align - 1) - insertRS_ - keepSize)
abort();
neededSize = roundUp(readSizeChars + keepSize + insertRS_, align);
startOffset = ((neededSize > bufSize_ ? neededSize : bufSize_)
- readSizeChars - insertRS_ - keepSize);
}
else {
// Needs to be room for everything before decoding.
neededSize = (keepSize + insertRS_ + readSizeChars
+ (nLeftOver_ + sizeof(Char) - 1)/sizeof(Char));
// Also must be room for everything after decoding.
size_t neededSize2
= (keepSize + insertRS_
// all the converted characters
+ (nLeftOver_ + readSize_)/minBytesPerChar
// enough Chars to contain left over bytes
+ ((readSize_ % minBytesPerChar + sizeof(Char) - 1)
/ sizeof(Char)));
if (neededSize2 > neededSize)
neededSize = neededSize2;
neededSize = roundUp(neededSize, align);
if (neededSize > size_t(-1)/sizeof(Char))
abort();
startOffset = 0;
}
if (bufSize_ < neededSize)
reallocateBuffer(neededSize);
Char *newStart = buf_ + startOffset;
if (newStart != start() && keepSize > 0)
memmove(newStart, start(), keepSize*sizeof(Char));
char *bytesStart = (char *)(buf_ + bufSize_ - readSizeChars) - nLeftOver_;
if (nLeftOver_ > 0 && leftOver_ != bytesStart)
memmove(bytesStart, leftOver_, nLeftOver_);
moveStart(newStart);
bufLim_ = end();
size_t nread;
if (so_->read((char *)(buf_ + bufSize_ - readSizeChars), readSize_,
mgr, nread)) {
if (nread > 0) {
const char *bytesEnd = bytesStart + nLeftOver_ + nread;
size_t nChars = decoder_->decode((Char *)end() + insertRS_,
bytesStart,
nLeftOver_ + nread
- (zapEof_ && bytesEnd[-1] == EOFCHAR),
&leftOver_);
nLeftOver_ = bytesEnd - leftOver_;
if (nChars > 0) {
if (insertRS_) {
noteRS();
*(Char *)end() = RS;
advanceEnd(end() + 1);
insertRS_ = false;
bufLim_ += 1;
bufLimOffset_ += 1;
}
bufLim_ += nChars;
bufLimOffset_ += nChars;
break;
}
}
}
else
so_ = 0;
}
ASSERT(end() < bufLim_);
if (insertRS_) {
noteRS();
insertChar(RS);
insertRS_ = false;
bufLimOffset_ += 1;
}
switch (recordType_) {
case unknown:
{
const Char *e = findNextCrOrLf(end(), bufLim_);
if (e) {
if (*e == '\n') {
recordType_ = lf;
info_->noteInsertedRSs();
*(Char *)e = RE;
advanceEnd(e + 1);
insertRS_ = true;
}
else {
if (e + 1 < bufLim_) {
if (e[1] == '\n') {
recordType_ = crlf;
advanceEnd(e + 1);
if (e + 2 == bufLim_) {
bufLim_--;
bufLimOffset_--;
insertRS_ = true;
}
}
else {
advanceEnd(e + 1);
recordType_ = cr;
info_->noteInsertedRSs();
insertRS_ = true;
}
}
else {
recordType_ = crUnknown;
advanceEnd(e + 1);
}
}
}
else
advanceEnd(bufLim_);
}
break;
case crUnknown:
{
if (*cur() == '\n') {
noteRS();
advanceEnd(cur() + 1);
recordType_ = crlf;
}
else {
advanceEnd(cur() + 1);
insertRS_ = true;
recordType_ = cr;
info_->noteInsertedRSs();
}
}
break;
case lf:
{
Char *e = (Char *)findNextLf(end(), bufLim_);
if (e) {
advanceEnd(e + 1);
*e = RE;
insertRS_ = true;
}
else
advanceEnd(bufLim_);
}
break;
case cr:
{
const Char *e = findNextCr(end(), bufLim_);
if (e) {
advanceEnd(e + 1);
insertRS_ = true;
}
else
advanceEnd(bufLim_);
}
break;
case crlf:
{
const Char *e = end();
for (;;) {
e = findNextLf(e, bufLim_);
if (!e) {
advanceEnd(bufLim_);
break;
}
// Need to delete final RS if not followed by anything.
if (e + 1 == bufLim_) {
bufLim_--;
bufLimOffset_--;
advanceEnd(e);
insertRS_ = true;
break;
}
noteRSAt(e);
e++;
}
}
break;
case asis:
advanceEnd(bufLim_);
break;
default:
CANNOT_HAPPEN();
}
return nextChar();
}
void encode_decode_chunkwise(bool encode, const Codec *codec,
const QByteArray &infile_buffer, QFile &outfile)
{
Encoder *enc = 0;
Decoder *dec = 0;
QByteArray indata(inbufsize);
QByteArray outdata(outbufsize);
// we're going to need this below:
#define write_full_outdata_then_reset do { \
kdDebug( verbose ) << " flushing output buffer." << endl; \
if ( writing ) { \
Q_LONG outlen = outfile.writeBlock( outdata.data(), \
outdata.size() ); \
if ( outlen != (int)outdata.size() ) \
exit(OUTFILE_WRITE_ERR); \
} \
oit = outdata.begin(); \
} while ( false )
#define report_status(x,y) do { \
kdDebug( verbose ) << " " #x "() returned " #y " after processing " \
<< iit - indata.begin() << " bytes of input.\n" \
<< " output iterator now at position " \
<< oit - outdata.begin() << " of " \
<< outdata.size() << endl; \
} while ( false )
#define report_finish_status(y) do { \
kdDebug( verbose ) << " finish() returned " #y "\n" \
<< " output iterator now at position " \
<< oit - outdata.begin() << " of " \
<< outdata.size() << endl; \
} while ( false )
// Initialize the output iterators:
QByteArray::Iterator oit = outdata.begin();
QByteArray::Iterator oend = outdata.end();
// Get an encoder. This one you have to delete!
if(encode)
{
enc = codec->makeEncoder(withCRLF);
assert(enc);
}
else
{
dec = codec->makeDecoder(withCRLF);
assert(dec);
}
//
// Loop over input chunks:
//
uint offset = 0;
while(offset < infile_buffer.size())
{
uint reallyRead = QMIN(indata.size(), infile_buffer.size() - offset);
indata.duplicate(infile_buffer.begin() + offset, reallyRead);
offset += reallyRead;
kdDebug(verbose) << " read " << reallyRead << " bytes (max: "
<< indata.size() << ") from input." << endl;
// setup input iterators:
QByteArray::ConstIterator iit = indata.begin();
QByteArray::ConstIterator iend = indata.begin() + reallyRead;
if(encode)
{
//
// Loop over encode() calls:
//
while(!enc->encode(iit, iend, oit, oend))
{
report_status(encode, false);
if(oit == oend)
// output buffer full:
write_full_outdata_then_reset;
}
report_status(encode, true);
}
else
{
//
// Loop over decode() calls:
//
while(!dec->decode(iit, iend, oit, oend))
{
report_status(decode, false);
if(oit == oend)
// output buffer full:
write_full_outdata_then_reset;
}
report_status(decode, true);
}
} // end loop over input chunks
//
// Now finish the encoding/decoding:
// (same loops as above, just s/encode|decode/finish())
//
if(withFinish)
if(encode)
{
while(!enc->finish(oit, oend))
{
report_finish_status(false);
if(oit == oend)
write_full_outdata_then_reset;
}
report_finish_status(true);
}
else
{
while(!dec->finish(oit, oend))
{
report_finish_status(false);
if(oit == oend)
write_full_outdata_then_reset;
}
report_finish_status(true);
}
//
// Write out last (partial) output chunk:
//
if(writing)
{
Q_LONG outlen = outfile.writeBlock(outdata.data(),
oit - outdata.begin());
if(outlen != oit - outdata.begin())
exit(OUTFILE_WRITE_ERR);
}
//
// Delete en/decoder:
//
if(encode)
delete enc;
else
delete dec;
}
static bool decodeDataObject(Decoder& decoder, RefPtr<DataObjectGtk>& dataObject)
{
RefPtr<DataObjectGtk> data = DataObjectGtk::create();
bool hasText;
if (!decoder.decode(hasText))
return false;
if (hasText) {
String text;
if (!decoder.decode(text))
return false;
data->setText(text);
}
bool hasMarkup;
if (!decoder.decode(hasMarkup))
return false;
if (hasMarkup) {
String markup;
if (!decoder.decode(markup))
return false;
data->setMarkup(markup);
}
bool hasURL;
if (!decoder.decode(hasURL))
return false;
if (hasURL) {
String url;
if (!decoder.decode(url))
return false;
data->setURL(URL(URL(), url), String());
}
bool hasURIList;
if (!decoder.decode(hasURIList))
return false;
if (hasURIList) {
String uriList;
if (!decoder.decode(uriList))
return false;
data->setURIList(uriList);
}
bool hasImage;
if (!decoder.decode(hasImage))
return false;
if (hasImage) {
GRefPtr<GdkPixbuf> image;
if (!decodeImage(decoder, image))
return false;
data->setImage(image.get());
}
bool hasUnknownTypeData;
if (!decoder.decode(hasUnknownTypeData))
return false;
if (hasUnknownTypeData) {
HashMap<String, String> unknownTypes;
if (!decoder.decode(unknownTypes))
return false;
auto end = unknownTypes.end();
for (auto it = unknownTypes.begin(); it != end; ++it)
data->setUnknownTypeData(it->key, it->value);
}
dataObject = data;
return true;
}
void QRcodeReader::decode() {
Binarizer binarizer(img);
img = binarizer.getBlackMatrix();
if (more) {
imshow("original", rgbImg);
imshow("test",img);
waitKey(0);
printf("**************************************************************\n");
printf("Begin detection to find the three finder pattern centers:\n");
}
Finder finder = Finder(img);
FinderResult fr = finder.find();
if (more) {
printf("\n");
printf("Three finder pattern centers:\n");
FinderPoint bL = fr.getBottomLeft();
FinderPoint tL = fr.getTopLeft();
FinderPoint tR = fr.getTopRight();
printf("bottomLeft: (%f, %f)\n", bL.getX(), bL.getY());
printf("topLeft: (%f, %f)\n", tL.getX(), tL.getY());
printf("topRight: (%f, %f)\n", tR.getX(), tR.getY());
Point2f p1 = Point2f(bL.getX(), bL.getY());
circle(rgbImg, p1, 3, Scalar(0,255,0));
Point2f p2 = Point2f(tL.getX(), tL.getY());
circle(rgbImg, p2, 3, Scalar(0,255,0));
Point2f p3 = Point2f(tR.getX(), tR.getY());
circle(rgbImg, p3, 3, Scalar(0,255,0));
imshow("original", rgbImg);
waitKey(0);
}
Detector detector = Detector(img);
DetectorResult detectorResult = detector.processFinderPatternInfo(fr);
if (more) {
vector<FinderPoint> patternPoints = detectorResult.getResultPoints();
BitMatrix bits = detectorResult.getBits();
printf("\n");
printf("Module Size: %f\n", detectorResult.getModuleSize());
printf("Dimension: %d\n", detectorResult.getDimension());
printf("Alignment Pattern : (%f, %f)\n", patternPoints[3].getX(), patternPoints[3].getY());
Point2f p4 = Point2f(patternPoints[3].getX(), patternPoints[3].getY());
circle(rgbImg, p4, 3, Scalar(0,255,0));
imshow("original", rgbImg);
waitKey(0);
printf("\n");
printf("The bit matrix:\n");
bits.display();
printf("\nDetection Done!\n");
printf("**************************************************************\n");
waitKey(0);
}
Decoder decoder = Decoder(detectorResult);
DecoderResult decoderResult = decoder.decode();
if (more) {
printf("Decode:\n");
printf("version : %d\n", decoderResult.getVersion());
printf("Error correct level : %d\n", decoderResult.getEcLevel());
vector<char> resultBytes = decoderResult.getResultBytes();
printf("Data bytes: ");
for (int i = 0; i < resultBytes.size(); ++i) {
printf("%d ",resultBytes[i]);
}
printf("\n");
string result = decoderResult.getResultText();
printf("%s\n", result.c_str());
waitKey(0);
}
else {
string result = decoderResult.getResultText();
printf("%s\n", result.c_str());
}
}
std:: string SYS2INNER(const std::string &systemString)
{
return toUTF8String(defaultDecoder.decode(systemString));
}