IptcCoreLocationInfo ItemExtendedProperties::location()
{
IptcCoreLocationInfo location;
location.country = readProperty(ItemScanner::iptcCorePropertyName(MetadataInfo::IptcCoreCountry));
location.countryCode = readProperty(ItemScanner::iptcCorePropertyName(MetadataInfo::IptcCoreCountryCode));
location.city = readProperty(ItemScanner::iptcCorePropertyName(MetadataInfo::IptcCoreCity));
location.location = readProperty(ItemScanner::iptcCorePropertyName(MetadataInfo::IptcCoreLocation));
location.provinceState = readProperty(ItemScanner::iptcCorePropertyName(MetadataInfo::IptcCoreProvinceState));
return location;
}
bool Ambitus::readProperties(XmlReader& e)
{
const QStringRef& tag(e.name());
if (tag == "head")
readProperty(e, Pid::HEAD_GROUP);
else if (tag == "headType")
readProperty(e, Pid::HEAD_TYPE);
else if (tag == "mirror")
readProperty(e, Pid::MIRROR_HEAD);
else if (tag == "hasLine")
setHasLine(e.readInt());
else if (tag == "lineWidth")
readProperty(e, Pid::LINE_WIDTH);
else if (tag == "topPitch")
_topPitch = e.readInt();
else if (tag == "bottomPitch")
_bottomPitch = e.readInt();
else if (tag == "topTpc")
_topTpc = e.readInt();
else if (tag == "bottomTpc")
_bottomTpc = e.readInt();
else if (tag == "topAccidental") {
while (e.readNextStartElement()) {
if (e.name() == "Accidental") {
if (score()->mscVersion() < 301)
readAccidental206(&_topAccid, e);
else
_topAccid.read(e);
}
else
e.skipCurrentElement();
}
}
else if (tag == "bottomAccidental") {
while (e.readNextStartElement()) {
if (e.name() == "Accidental") {
if (score()->mscVersion() < 301)
readAccidental206(&_bottomAccid, e);
else
_bottomAccid.read(e);
}
else
e.skipCurrentElement();
}
}
else if (Element::readProperties(e))
;
else
return false;
return true;
}
std::string project() const
{
if (!empty())
return readProperty("project");
else
return std::string();
}
std::string rVersionHome()
{
if (!empty())
return readProperty("r-version-home");
else
return std::string();
}
std::string workingDir() const
{
if (!empty())
return readProperty("working-dir");
else
return std::string();
}
/** Funkcja na podstawie podanego jako parametr jezyka wczytuje komunikaty
* w danym jezyku. Domyslnie jest to ANG. Komunikaty sa przechowywane w
* tablicy asocjacyjnej w bierzacej klasie. Komunikatow pobranych z propertys nalezy uzywac
* w calej aplikacji. ZAKAZUJE SIE UZYWANIE STRINGOW NA SZTYWNO W KODZIE!
* @param string : Jezyk jaki bedzie ustawiony w grze, jest to zarazem koncowka w nazwie pliku (
data/property_xxx )
*/
void Property::init( const string& Languages ) {
pLanguages = Languages;
readSettings();
readProperty();
}
void MaterialEditDialog::readMaterial()
{
if (QFile::exists(m_fileName))
{
std::auto_ptr<XMLMaterial::material> material_xsd;
material_xsd = XMLMaterial::material_(compatibleFilename(m_fileName).toStdString(), xml_schema::flags::dont_validate);
XMLMaterial::material *material = material_xsd.get();
txtName->setText(QString::fromStdString(material->general().name()));
if (material->general().description().present())
txtDescription->setText(QString::fromStdString(material->general().description().get()));
m_properties.clear();
lstProperties->clear();
// properties
for (unsigned int i = 0; i < material->properties().property().size(); i++)
{
XMLMaterial::property prop = material->properties().property().at(i);
m_properties.append(prop);
// item
QListWidgetItem *item = new QListWidgetItem(lstProperties);
item->setText(QString::fromStdString(prop.name()));
item->setData(Qt::UserRole, lstProperties->count() - 1);
lstProperties->addItem(item);
}
propertyGUI->setEnabled(lstProperties->count() > 0);
btnDeleteProperty->setEnabled(lstProperties->count() > 0);
if (lstProperties->count() > 0)
{
lstProperties->setCurrentRow(0);
readProperty(m_properties.at(0));
}
else
{
readProperty();
}
}
}
bool TextLineBase::readProperties(XmlReader& e)
{
const QStringRef& tag(e.name());
for (P_ID i :pids) {
if (readProperty(tag, e, i)) {
setPropertyFlags(i, PropertyFlags::UNSTYLED);
return true;
}
}
return SLine::readProperties(e);
}
void SimpleAbstractStreamReader::readProperties(AST::UiObjectDefinition *uiObjectDefinition)
{
Q_ASSERT(uiObjectDefinition);
for (AST::UiObjectMemberList *it = uiObjectDefinition->initializer->members; it; it = it->next) {
AST::UiObjectMember *member = it->member;
AST::UiScriptBinding *scriptBinding = AST::cast<AST::UiScriptBinding *>(member);
if (scriptBinding)
readProperty(scriptBinding);
}
}
bool savePromptRequired() const
{
if (!empty())
{
std::string value = readProperty("save_prompt_required");
if (!value.empty())
return safe_convert::stringTo<bool>(value, false);
else
return false;
}
else
return false;
}
bool executing() const
{
if (!empty())
{
std::string value = readProperty("executing");
if (!value.empty())
return safe_convert::stringTo<bool>(value, false);
else
return false;
}
else
return false;
}
bool initial() const
{
if (!empty())
{
std::string value = readProperty("initial");
if (!value.empty())
return safe_convert::stringTo<bool>(value, false);
else
return false;
}
else
return false;
}
double lastUsed() const
{
if (!empty())
{
std::string value = readProperty("last-used");
if (!value.empty())
return safe_convert::stringTo<double>(value, 0);
else
return 0;
}
else
{
return 0;
}
}
inline bool Json::next(const JsonValue& _current, JsonValue& _next)
{
m_readPos = m_fileContent.data() + _current.offset;
// Iterate through the stream to the next ','. Meanwhile the number of
// brackets ({} and []) must match.
int parenthesis = 0;
do {
if(!readToken()) return false;
if(m_tokenPos[0] == '{' || m_tokenPos[0] == '[') ++parenthesis;
else if(m_tokenPos[0] == '}' || m_tokenPos[0] == ']') --parenthesis;
} while(parenthesis > 0 || m_tokenPos[0] != ',');
if(parenthesis < 0) return false;
readProperty(_next);
return true;
}
bool
Reader::accessProperty(PropertyInfo& p)
{
Request r = property(stringFromId(p.name), stringFromId(p.interpretation), p);
p.requested = r.m_want;
p.propertyData = r.m_data;
if (p.requested)
{
seekTo(p);
readProperty(p);
}
return true;
}
bool
Reader::readBinaryGTO()
{
readIndexTable(); // OK to continue if this fails
readHeader(); if (m_error) return false;
readStringTable(); if (m_error) return false;
readObjects(); if (m_error) return false;
readComponents(); if (m_error) return false;
readProperties(); if (m_error) return false;
descriptionComplete();
if (m_mode & HeaderOnly)
{
return true;
}
Properties::iterator p = m_properties.begin();
for (Components::iterator i = m_components.begin();
i != m_components.end();
++i)
{
ComponentInfo &comp = *i;
if (comp.flags & Gto::Transposed)
{
cerr << "ERROR: Transposed data for '"
<< stringFromId( comp.object->name ) << "."
<< stringFromId( comp.name )
<< "' is currently unsupported." << endl;
abort();
}
else
{
for (Properties::iterator e = p + comp.numProperties; p != e; ++p)
{
if (!readProperty(*p))
{
return false;
}
}
}
}
return true;
}
void LayoutBreak::read(XmlReader& e)
{
while (e.readNextStartElement()) {
const QStringRef& tag(e.name());
if (tag == "subtype")
readProperty(e, Pid::LAYOUT_BREAK);
else if (tag == "pause")
_pause = e.readDouble();
else if (tag == "startWithLongNames")
_startWithLongNames = e.readInt();
else if (tag == "startWithMeasureOne")
_startWithMeasureOne = e.readInt();
else if (!Element::readProperties(e))
e.unknown();
}
layout0();
}
inline bool Json::child(const JsonValue& _current, JsonValue& _next)
{
m_readPos = m_fileContent.data() + _current.offset;
if(!readToken()) return false;
if(_current.type == JsonValue::Type::ARRAY)
{
// Next token is '[' otherwise the type would have been wrong
if(m_tokenPos[0] != '[') return false;
// Read array value directly
if(!readToken()) return false;
return readValue(_next);
} else if( _current.type == JsonValue::Type::OBJECT)
{
// Next token is '{' otherwise the type would have been wrong
if(m_tokenPos[0] != '{') return false;
// Subobject has a property list
return readProperty(_next);
}
return false;
}
void Trill::read(XmlReader& e)
{
eraseSpannerSegments();
while (e.readNextStartElement()) {
const QStringRef& tag(e.name());
if (tag == "subtype")
setTrillType(e.readElementText());
else if (tag == "Accidental") {
_accidental = new Accidental(score());
_accidental->read(e);
_accidental->setParent(this);
}
else if ( tag == "ornamentStyle")
readProperty(e, Pid::ORNAMENT_STYLE);
else if ( tag == "play")
setPlayArticulation(e.readBool());
else if (!SLine::readProperties(e))
e.unknown();
}
}
bool Articulation::readProperties(XmlReader& e)
{
const QStringRef& tag(e.name());
if (tag == "subtype") {
QString s = e.readElementText();
SymId id = Sym::name2id(s);
if (id == SymId::noSym)
id = oldArticulationNames2SymId(s); // compatibility hack for "old" 3.0 scores
setSymId(id);
}
else if (tag == "channel") {
_channelName = e.attribute("name");
e.readNext();
}
else if (tag == "anchor")
_anchor = ArticulationAnchor(e.readInt());
else if (tag == "direction")
readProperty(e, P_ID::DIRECTION);
else if ( tag == "ornamentStyle")
setProperty(P_ID::ORNAMENT_STYLE, Ms::getProperty(P_ID::ORNAMENT_STYLE, e));
else if ( tag == "play")
setPlayArticulation(e.readBool());
else if (tag == "timeStretch")
_timeStretch = e.readDouble();
else if (tag == "offset") {
if (score()->mscVersion() > 114)
Element::readProperties(e);
else
e.skipCurrentElement(); // ignore manual layout in older scores
}
else if (Element::readProperties(e))
;
else
return false;
return true;
}
bool UltMtgReader::readEntity(MtgEntity& entity)
{
string entityType;
string entityValue;
unsigned int entityWeight;
string entityAdditionalSearchTerm;
unsigned int propertyCount;
unsigned int generatorCount;
unsigned char majorv;
unsigned char minorv;
if(!_unserializer->readByte(majorv))
return false;
if(!_unserializer->readByte(minorv))
return false;
if(majorv != 1 || minorv != 0)
return false;
if(!_unserializer->readString(entityType))
return false;
if(!_unserializer->readString(entityValue))
return false;
if(!_unserializer->readInt(entityWeight))
return false;
if(!_unserializer->readString(entityAdditionalSearchTerm))
return false;
entity._version = "1.0";
entity._type = QString::fromStdString(entityType);
entity._value = QString::fromStdString(entityValue);
entity._weight = entityWeight;
entity._additionalSearchTerm = QString::fromStdString(entityAdditionalSearchTerm);
//Properties
if(!_unserializer->readInt(propertyCount))
return false;
for(unsigned int i(0); i<propertyCount; ++i)
{
MtgProperty property;
if(!readProperty(property))
{
qCritical("[x] readProperty failed");
return false;
}
entity._propertyHash.insert(property.name,property);
}
//Generators
if(!_unserializer->readInt(generatorCount))
return false;
for(unsigned int i(0); i<generatorCount; ++i)
{
MtgGenerator generator;
if(!readGenerator(generator))
{
qCritical("[x] readGenerator failed");
return false;
}
entity._generatorList.append(generator);
}
unsigned char byte;
_unserializer->readByte(byte);
if(byte != 2) // bourrage
{
qCritical("pronostic failed %x",byte);
return false;
}
unsigned char majorversion;
_unserializer->readByte(majorversion);
unsigned char minorversion;
_unserializer->readByte(minorversion);
if(majorversion != 1 && minorversion != 0) //major & minor version ?
return false;
double x,y;
_unserializer->readDouble(x);
_unserializer->readDouble(y);
entity._posx = x;
entity._posy = y;
if(_obfuscationByte)
{
if(!_unserializer->readByte(byte))
return false;
}
return true;
}
QString ItemExtendedProperties::jobId()
{
return readProperty(ItemScanner::iptcCorePropertyName(MetadataInfo::IptcCoreJobID));
}
QString ItemExtendedProperties::intellectualGenre()
{
return readProperty(ItemScanner::iptcCorePropertyName(MetadataInfo::IptcCoreIntellectualGenre));
}
IsoMediaFile::Content WriterConfig::readContent(const Json::Value& contentValues) const
{
IsoMediaFile::Content newContent;
/// @todo Throw an exception if a content does not have the master.
// The Content.Master parameters
const Json::Value& masterValues = contentValues["master"];
newContent.master.uniq_bsid = readOptionalUint(masterValues["uniq_bsid"]);
newContent.master.make_vide = readBool(masterValues["make_vide"], false);
newContent.master.file_path = masterValues["file_path"].asString();
newContent.master.hdlr_type = masterValues["hdlr_type"].asString();
newContent.master.code_type = masterValues["code_type"].asString();
newContent.master.encp_type = masterValues["encp_type"].asString();
newContent.master.disp_xdim = readUint32(masterValues, "disp_xdim");
newContent.master.disp_ydim = readUint32(masterValues, "disp_ydim");
newContent.master.disp_rate = readOptionalUint(masterValues["disp_rate"], 0);
newContent.master.tick_rate = readOptionalUint(masterValues["tick_rate"], 90000);
// If content master has an edit list file
if (masterValues["edit_file"].asString() != "")
{
readEditList(masterValues["edit_file"].asString(), newContent.master);
}
// The Content.Thumb parameters
for (const auto& thumb : contentValues["thumbs"])
{
IsoMediaFile::Thumbs newThumb;
newThumb.uniq_bsid = readOptionalUint(thumb["uniq_bsid"]);
newThumb.file_path = thumb["file_path"].asString();
newThumb.hdlr_type = thumb["hdlr_type"].asString();
newThumb.code_type = thumb["code_type"].asString();
newThumb.disp_xdim = readUint32(thumb, "disp_xdim");
newThumb.disp_ydim = readUint32(thumb, "disp_ydim");
newThumb.tick_rate = readOptionalUint(thumb["tick_rate"], 90000);
newThumb.sync_rate = readOptionalUint(thumb["sync_rate"], 0);
const Json::Value syncidxs_array = thumb["sync_idxs"];
for (const auto& synxIndex : syncidxs_array)
{
newThumb.sync_idxs.push_back(std::stoi(synxIndex.asString()));
}
// If this thumbs has an edit list file
if (thumb["edit_file"].asString() != "")
{
readEditList(thumb["edit_file"].asString(), newThumb);
}
newContent.thumbs.push_back(newThumb);
}
for (const auto& metadata : contentValues["metadata"])
{
IsoMediaFile::Metadata newMetadata;
newMetadata.file_path = metadata["file_path"].asString();
newMetadata.hdlr_type = metadata["hdlr_type"].asString();
newContent.metadata.push_back(newMetadata);
}
const Json::Value& derivedValues = contentValues["derived"];
if (not derivedValues.isNull())
{
IsoMediaFile::Derived newDerived;
IsoMediaFile::Property newProperty;
for (const auto& irot : derivedValues["irot"])
{
IsoMediaFile::Irot newIrot;
newIrot.angle = readUint32(irot, "angle");
newIrot.uniq_bsid = readOptionalUint(irot["uniq_bsid"]);
newIrot.refs_list = parseRefsList(irot["refs_list"]);
newIrot.idxs_list = parseIndexList(irot["idxs_list"]);
newDerived.irots.push_back(newIrot);
}
for (const auto& rloc : derivedValues["rloc"])
{
IsoMediaFile::Rloc newRloc;
newRloc.horizontal_offset = readUint32(rloc, "horizontal_offset");
newRloc.vertical_offset = readUint32(rloc, "vertical_offset");
newRloc.uniq_bsid = readOptionalUint(rloc["uniq_bsid"]);
newRloc.refs_list = parseRefsList(rloc["refs_list"]);
newRloc.idxs_list = parseIndexList(rloc["idxs_list"]);
newDerived.rlocs.push_back(newRloc);
}
for (const auto& clap : derivedValues["clap"])
{
IsoMediaFile::Clap newClap;
newClap.clapWidthN = readUint32(clap, "clapWidthN");
newClap.clapWidthD = readUint32(clap, "clapWidthD");
newClap.clapHeightN = readUint32(clap, "clapHeightN");
newClap.clapHeightD = readUint32(clap, "clapHeightD");
newClap.horizOffN = readUint32(clap, "horizOffN");
newClap.horizOffD = readUint32(clap, "horizOffD");
newClap.vertOffN = readUint32(clap, "vertOffN");
newClap.vertOffD = readUint32(clap, "vertOffD");
newClap.uniq_bsid = readUint32(clap, "uniq_bsid");
newClap.refs_list = parseRefsList(clap["refs_list"]);
newClap.idxs_list = parseIndexList(clap["idxs_list"]);
newDerived.claps.push_back(newClap);
}
for (const auto& prederived : derivedValues["pre-derived"])
{
IsoMediaFile::PreDerived newPreDerived;
newPreDerived.uniq_bsid = readUint32(prederived, "uniq_bsid");
newPreDerived.pre_refs_list = parseRefsList(prederived["pre_refs_list"]);
newPreDerived.pre_idxs_list = parseIndexList(prederived["pre_idxs_list"]);
newPreDerived.base_refs_list = parseRefsList(prederived["base_refs_list"]);
newPreDerived.base_idxs_list = parseIndexList(prederived["base_idxs_list"]);
newDerived.prederiveds.push_back(newPreDerived);
}
for (const auto& grid : derivedValues["grid"])
{
IsoMediaFile::Grid newGrid;
newGrid.columns = readUint32(grid, "columns");
newGrid.outputHeight = readUint32(grid, "output_height");
newGrid.outputWidth = readUint32(grid, "output_width");
newGrid.rows = readUint32(grid, "rows");
newGrid.uniq_bsid = readUint32(grid, "uniq_bsid");
for (const auto& reference : grid["refs_list"])
{
newGrid.refs_list.push_back(std::stoi(reference.asString()));
}
for (const auto& idxsList : grid["idxs_list"])
{
std::vector<std::uint32_t> idxListEntries;
for (const auto& index : idxsList)
{
idxListEntries.push_back(std::stoi(index.asString()));
}
newGrid.idxs_list.push_back(idxListEntries);
}
newDerived.grids.push_back(newGrid);
}
for (const auto& iovl : derivedValues["iovl"])
{
IsoMediaFile::Iovl newIovl;
newIovl.outputHeight = readUint32(iovl, "output_height");
newIovl.outputWidth = readUint32(iovl, "output_width");
newIovl.uniq_bsid = readUint32(iovl, "uniq_bsid");
for (const auto& canvasFill : iovl["canvas_fill"])
{
newIovl.canvasFillValue.push_back(std::stoi(canvasFill.asString()));
}
if (newIovl.canvasFillValue.size() != 4)
{
throw std::runtime_error("Invalid iovl canvas_fill");
}
for (const auto& reference : iovl["refs_list"])
{
newIovl.refs_list.push_back(std::stoi(reference.asString()));
}
for (const auto& idxsList : iovl["idxs_list"])
{
std::vector<std::uint32_t> idxListEntries;
for (const auto& index : idxsList)
{
idxListEntries.push_back(std::stoi(index.asString()));
}
newIovl.idxs_list.push_back(idxListEntries);
}
for (const auto& offset : iovl["offsets"])
{
IsoMediaFile::Iovl::Offset newOffset;
newOffset.horizontal = std::stoi(offset[0].asString()); ///< @todo Check that this is the intended order
newOffset.vertical = std::stoi(offset[1].asString()); ///< @todo Check that this is the intended order
newIovl.offsets.push_back(newOffset);
}
newDerived.iovls.push_back(newIovl);
}
/// @todo Add other derived image types as well.
newContent.derived = newDerived;
}
newContent.property = readProperty(contentValues["property"]);
for (const auto& auxiliary : contentValues["auxiliary"])
{
newContent.auxiliary.push_back(readAuxiliary(auxiliary));
}
return newContent;
}
void Image::read(XmlReader& e)
{
if (score()->mscVersion() <= 114)
_sizeIsSpatium = false;
while (e.readNextStartElement()) {
const QStringRef& tag(e.name());
if (tag == "autoScale")
readProperty(e, Pid::AUTOSCALE);
else if (tag == "size")
readProperty(e, Pid::SIZE);
else if (tag == "lockAspectRatio")
readProperty(e, Pid::LOCK_ASPECT_RATIO);
else if (tag == "sizeIsSpatium")
// setting this using the property Pid::SIZE_IS_SPATIUM breaks, because the
// property setter attempts to maintain a constant size. If we're reading, we
// don't want to do that, because the stored size will be in:
// mm if size isn't spatium
// sp if size is spatium
_sizeIsSpatium = e.readBool();
else if (tag == "path")
_storePath = e.readElementText();
else if (tag == "linkPath")
_linkPath = e.readElementText();
else if (tag == "subtype") // obsolete
e.skipCurrentElement();
else if (!BSymbol::readProperties(e))
e.unknown();
}
// once all paths are read, load img or retrieve it from store
// loading from file is tried first to update the stored image, if necessary
qDebug("linkPath <%s>", qPrintable(_linkPath));
qDebug("storePath <%s>", qPrintable(_storePath));
QString path;
bool loaded = false;
// if a store path is given, attempt to get the image from the store
if (!_storePath.isEmpty()) {
_storeItem = imageStore.getImage(_storePath);
if (_storeItem) {
_storeItem->reference(this);
loaded = true;
}
// if no image in store, attempt to load from path (for backward compatibility)
else
loaded = load(_storePath);
path = _storePath;
}
// if no success from store path, attempt loading from link path (for .mscx files)
if (!loaded) {
_linkIsValid = load(_linkPath);
path = _linkPath;
}
if (path.endsWith(".svg"))
setImageType(ImageType::SVG);
else
setImageType(ImageType::RASTER);
}
/*
\overload
*/
QVariant DomTool::readProperty(const QDomElement& e, const QString& name, const QVariant& defValue)
{
QString comment;
return readProperty(e, name, defValue, comment);
}
void Property::resetLang(string Languages){
pLanguages = Languages;
property.clear();
readProperty();
}
void BinReader::readClass(Type *type)
{
readMemberInfo(type);
MetaInfo *meta = type->getMetaInfo("Native");
if (meta)
{
type->attr.isNative = true;
if (meta->keys.find("managed") != UT_NPOS)
{
type->attr.isNativeManaged = true;
}
}
int numClassAttr = bytes->readInt();
for (int i = 0; i < numClassAttr; i++)
{
const char *cattr = readPoolString();
if (!strcmp(cattr, "public"))
{
type->attr.isPublic = true;
}
if (!strcmp(cattr, "static"))
{
type->attr.isStatic = true;
}
if (!strcmp(cattr, "final"))
{
type->attr.isFinal = true;
}
}
// base type
Type *baseType = getType(readPoolString());
if (baseType)
{
type->setBaseType(baseType);
}
// interfaces
int numInterfaces = bytes->readInt();
for (int i = 0; i < numInterfaces; i++)
{
Type *interface = getType(readPoolString());
type->addInterface(interface);
}
// delegate types
int numDelegateTypes = bytes->readInt();
for (int i = 0; i < numDelegateTypes; i++)
{
Type *delegateType = getType(readPoolString());
type->addDelegateType(delegateType);
}
// delegateReturnType
Type *delegateReturnType = getType(readPoolString());
if (delegateReturnType)
{
type->setDelegateReturnType(delegateReturnType);
}
// imports
int numImports = bytes->readInt();
for (int i = 0; i < numImports; i++)
{
Type *import = getType(readPoolString());
type->addImport(import);
}
// read constructor
if (bytes->readBoolean())
{
ConstructorInfo *cinfo = readConstructor(type);
type->addMember(cinfo);
}
// read fields
int numFields = bytes->readInt();
for (int i = 0; i < numFields; i++)
{
FieldInfo *fieldInfo = readField(type);
type->addMember(fieldInfo);
}
// read properties
int numProps = bytes->readInt();
for (int i = 0; i < numProps; i++)
{
PropertyInfo *propertyInfo = readProperty(type);
type->addMember(propertyInfo);
}
// read methods
int numMethods = bytes->readInt();
for (int i = 0; i < numMethods; i++)
{
MethodInfo *methodInfo = readMethodInfo(type);
type->addMember(methodInfo);
}
type->setBCStaticInitializer(ByteCode::decode64(bytes->readString()));
type->setBCInstanceInitializer(ByteCode::decode64(bytes->readString()));
}
pair<typename properties::tagType, const properties*> baseStructureParser<streamT>::next() {
bool success = true;
string readTxt; // String where text read by readUntil() will be placed
char termChar; // Character where readUntil() places the character that caused parsing to terminate
string tagName; // The name of the current tag
string propName, propVal;
long int numProps;
bool derived;
std::map<std::string, std::string> pMap;
// Reset tagProperties in preparation of a new tag being read
tagProperties.clear();
#ifdef VERBOSE
cout << "============"<<(loc==start?"start":(loc==textRead?"textRead":(loc==enterTagRead?"enterTagRead":(loc==exitTagRead?"exitTagRead":(loc==done?"done":"???")))))<<"============"<<endl;
if(loc!=start) cout << "buf["<<bufIdx<<"]="<<buf[bufIdx]<<endl;
#endif
// When we enter this function we resume text processing from where we left off
// in the last call to getNext(). loc records this location and we now jump to it.
switch(loc) {
case start:
goto START_LOC;
case textRead:
goto TEXT_READ_LOC;
case enterTagRead:
goto ENTER_TAG_READ_LOC;
case exitTagRead:
goto EXIT_TAG_READ_LOC;
case done:
goto DONE_LOC;
}
START_LOC:
// Start reading the file, filling as much of buf as possible. Store the number of
// bytes read in dataInBuf and initialize bufIdx to refer to the start of buf.
//cout << "f="<<f<<", feof(f)="<<feof(f)<<", ferror(f)="<<ferror(f)<<", sizeof(buf)="<<sizeof(buf)<<endl;
dataInBuf = readData();
bufIdx=0;
while(success) {
//cout << "main loop, bufIdx="<<bufIdx<<", bufSize="<<bufSize<<endl;
// We must currently be outside of a tag, although we may be between the multiple individual
// tags that encode entry into an object with a multi-level inheritance hierarchy (multiple tags)
// Look for the start of the next tag
success = readUntil(true, "[", 1, termChar, readTxt);
// Emit the text before the start of the tag
#ifdef VERBOSE
cout << "text=\""<<readTxt<<"\""<<endl;
#endif
//dbg << readTxt;
if(readTxt != "") {
std::map<std::string, std::string> pMap;
pMap["text"] = readTxt;
tagProperties.add("text", pMap);
loc = textRead;
return make_pair(properties::enterTag, &tagProperties);
}
if(!success) goto DONE_LOC;
TEXT_READ_LOC:
nextChar();
// Now look for the end of name of the tag (a whitespace char) or the / char
// that indicates that this is the end rather than beginning of a tag
if(!(success = readUntil(true, " \t\r\n/|", 6, termChar, tagName))) goto DONE_LOC;
// If this is the end of a tag, read until its end to determine its name
if(termChar == '/') {
if(!nextChar()) goto DONE_LOC;
if(!(success = readUntil(true, "]", 1, termChar, tagName))) goto DONE_LOC;
//if(!(success = readUntil(true, " \t\r\n", 4, termChar, tagName))) goto DONE_LOC;
#ifdef VERBOSE
cout << "END \""<<tagName<<"\""<<endl;
#endif
tagProperties.add(tagName, pMap);
loc = exitTagRead;
return make_pair(properties::exitTag, &tagProperties);
EXIT_TAG_READ_LOC:
if(!nextChar()) goto DONE_LOC;
} else {
// Records whether this entry tag corresponds to a base class that has been derived by another
derived=false;
//cout << "START "<<tagName<<" termChar="<<termChar<<endl;
if(termChar == '|') {
if(!nextChar()) goto DONE_LOC;
if(!(success = readUntil(true, " \t\r\n", 4, termChar, tagName))) goto DONE_LOC;
derived=true;
}
// Read the "numProperties" property
if(!(success = readProperty(propName, propVal, termChar))) {
goto DONE_LOC;
}
if(propName != "numProperties") {
cerr<< "ERROR: expecting numProperties property in tag "<<tagName<<" but got \""<<propName<<"\"!"<<endl;
exit(-1);
}
numProps = strtol(propVal.c_str(), NULL, 10);
//cout << "propName=\""<<propName<<"\", propVal=\""<<propVal<<"\", numProps="<<numProps<<", termChar=\""<<termChar<<"\""<<endl;
// Skip until the start of the next property or the end of the tag
if(!(success = readUntil(true, " \t\r\n]", 5, termChar, readTxt))) goto DONE_LOC;
// Read the properties of this tag
pMap.clear();
for(long int p=0; p<numProps; p++) {
// If we reached the end of the tag before processing all the properties
if(termChar==']') {
cerr << "ERROR: reached the end of tag "<<tagName<<" after processing "<<p<<" properties but expected "<<numProps<<" properties!"<<endl;
exit(-1);
}
//cout << " prop "<<p<<": termChar=\""<<termChar<<"\""<<" buf["<<bufIdx<<"]=\""<<buf[bufIdx]<<"\""<<endl;
// Read the name/val pair that encodes the name of the current property
string propNameName, propNameVal;
if(!(success = readProperty(propNameName, propNameVal, termChar))) {
goto DONE_LOC;
}
//cout << " prop "<<p<<": "<<propNameName<<" = "<<propNameVal<<endl;
// Skip until the start of the next name/val pair
if(!(success = readUntil(true, " \t\r\n]", 5, termChar, readTxt))) goto DONE_LOC;
if(termChar==']') {
cerr << "ERROR: reached the end of tag "<<tagName<<" reading the name of property "<<p<<" but expected "<<numProps<<" properties!"<<endl;
exit(-1);
}
// Read the name/val pair that encodes the name of the current property
string propValName, propValVal;
if(!(success = readProperty(propValName, propValVal, termChar))) {
goto DONE_LOC;
}
//cout << " prop "<<p<<": "<<propValName<<" = "<<propValVal<<endl;
pMap[unescape(propNameVal)] = unescape(propValVal);
// cout << " prop "<<p<<": termChar=\""<<termChar<<"\""<<" buf["<<bufIdx<<"]=\""<<buf[bufIdx]<<"\""<<endl;
// Skip until the start of the next property or the end of the tag
if(!(success = readUntil(true, " \t\r\n]", 5, termChar, readTxt))) goto DONE_LOC;
// cout << " prop "<<p<<": termChar=\""<<termChar<<"\""<<" buf["<<bufIdx<<"]=\""<<buf[bufIdx]<<"\""<<endl;
}
//cout << "end tag: termChar=\""<<termChar<<"\""<<" buf["<<bufIdx<<"]=\""<<buf[bufIdx]<<"\""<<endl;
// If we failed to reach the end of the tag after processing all the properties
if(termChar!=']') {
// Keep reading the remaining whitespace
if(!(success = readUntil(true, " \t\r\n", 4, termChar, readTxt))) goto DONE_LOC;
// This must be the end of the tag
if(termChar != ']')
{
cerr << "ERROR: failed to reached the end of tag "<<tagName<<" after processing "<<numProps<<" properties! termChar=\""<<termChar<<"\""<<endl;
exit(-1);
}
}
if(!nextChar()) goto DONE_LOC;
// If this tag corresponds to an object at the outer-most level of a derivation hierarchy
// (it was not derived by another)
if(!derived) {
// Print out the properties
#ifdef VERBOSE
cout << "START "<<tagName<<endl;
#endif
tagProperties.add(tagName, pMap);
#ifdef VERBOSE
cout << tagProperties.str()<<endl;
#endif
loc = enterTagRead;
return make_pair(properties::enterTag, &tagProperties);
ENTER_TAG_READ_LOC:
;
// If this tag's class was derived by another, add its properties to pStack so that it can be
// picked up when we reach the derived class' tag
} else
tagProperties.add(tagName, pMap);
}
}
DONE_LOC:
loc = done;
return make_pair(properties::exitTag, &tagProperties);
}