void iterateArray(Value::ConstValueIterator& itr,
Value::ConstValueIterator& itrEnd, StringBuffer *buffer,
Writer<StringBuffer> *writer, stringstream& ss) {
for (; itr != itrEnd; itr++) {
if (itr->IsObject()) {
Value::ConstMemberIterator itr_ = itr->MemberBegin();
Value::ConstMemberIterator itrEnd_ = itr->MemberEnd();
iterateObject(itr_, itrEnd_, buffer, writer, ss);
} else if (itr->IsArray()) {
Value::ConstValueIterator itr_ = itr->Begin();
Value::ConstValueIterator itrEnd_ = itr->End();
iterateArray(itr_, itrEnd_, buffer, writer, ss);
} else if (itr->IsBool()) {
ss << DELIM << itr->GetBool();
} else if (itr->IsInt()) {
ss << DELIM << itr->GetInt();
} else if (itr->IsInt64()) {
ss << DELIM << itr->GetInt64();
} else if (itr->IsDouble()) {
ss << DELIM << itr->GetDouble();
} else if (itr->IsString()) {
ss << DELIM << "\"" << itr->GetString() << "\"";
} else {
throw runtime_error(string("Case missing from tokenizer"));
}
}
}
/* ****************************************************************************
*
* parseContextAttributeCompoundValue -
*/
std::string parseContextAttributeCompoundValue
(
const Value::ConstValueIterator& node,
ContextAttribute* caP,
orion::CompoundValueNode* parent
)
{
if (node->IsObject())
{
int counter = 0;
for (Value::ConstMemberIterator iter = node->MemberBegin(); iter != node->MemberEnd(); ++iter)
{
std::string nodeType = jsonParseTypeNames[iter->value.GetType()];
orion::CompoundValueNode* cvnP = new orion::CompoundValueNode();
cvnP->valueType = stringToCompoundType(nodeType);
cvnP->name = iter->name.GetString();
cvnP->container = parent;
cvnP->rootP = parent->rootP;
cvnP->level = parent->level + 1;
cvnP->siblingNo = counter;
cvnP->path = parent->path + cvnP->name;
if (nodeType == "String")
{
cvnP->stringValue = iter->value.GetString();
}
else if (nodeType == "Number")
{
cvnP->numberValue = iter->value.GetDouble();
}
else if ((nodeType == "True") || (nodeType == "False"))
{
cvnP->boolValue = (nodeType == "True")? true : false;
}
else if (nodeType == "Null")
{
cvnP->valueType = orion::ValueTypeNone;
}
else if (nodeType == "Object")
{
cvnP->path += "/";
cvnP->valueType = orion::ValueTypeObject;
}
else if (nodeType == "Array")
{
cvnP->path += "/";
cvnP->valueType = orion::ValueTypeVector;
}
parent->childV.push_back(cvnP);
//
// Recursive call if Object or Array
//
if ((nodeType == "Object") || (nodeType == "Array"))
{
parseContextAttributeCompoundValue(iter, caP, cvnP);
}
++counter;
}
}
else if (node->IsArray())
{
int counter = 0;
for (Value::ConstValueIterator iter = node->Begin(); iter != node->End(); ++iter)
{
std::string nodeType = jsonParseTypeNames[iter->GetType()];
orion::CompoundValueNode* cvnP = new orion::CompoundValueNode();
char itemNo[4];
snprintf(itemNo, sizeof(itemNo), "%03d", counter);
cvnP->valueType = stringToCompoundType(nodeType);
cvnP->container = parent;
cvnP->rootP = parent->rootP;
cvnP->level = parent->level + 1;
cvnP->siblingNo = counter;
cvnP->path = parent->path + "[" + itemNo + "]";
if (nodeType == "String")
{
cvnP->stringValue = iter->GetString();
}
else if (nodeType == "Number")
{
cvnP->numberValue = iter->GetDouble();
}
else if ((nodeType == "True") || (nodeType == "False"))
{
cvnP->boolValue = (nodeType == "True")? true : false;
}
else if (nodeType == "Null")
{
cvnP->valueType = orion::ValueTypeNone;
}
else if (nodeType == "Object")
{
cvnP->path += "/";
cvnP->valueType = orion::ValueTypeObject;
}
else if (nodeType == "Array")
{
cvnP->path += "/";
cvnP->valueType = orion::ValueTypeVector;
}
parent->childV.push_back(cvnP);
//
// Recursive call if Object or Array
//
if ((nodeType == "Object") || (nodeType == "Array"))
{
parseContextAttributeCompoundValue(iter, caP, cvnP);
}
++counter;
}
}
return "OK";
}
std::multimap<RarityType,std::string>
MtgJsonAllSetsData::getCardPool( const std::string& code ) const
{
std::multimap<RarityType,std::string> rarityMap;
if( mAllSetCodes.count(code) == 0 )
{
mLogger->warn( "Unable to find set {}, returning empty card pool", code );
return rarityMap;
}
// In parse() this was vetted to be safe and yield an Array-type value.
const Value& cardsValue = mDoc[code]["cards"];
mLogger->debug( "{:-^40}", "assembling card pool" );
for( Value::ConstValueIterator iter = cardsValue.Begin(); iter != cardsValue.End(); ++iter )
{
Value::ConstMemberIterator nameIter = iter->FindMember( "name" );
Value::ConstMemberIterator rarityIter = iter->FindMember( "rarity" );
if( nameIter != iter->MemberEnd() && nameIter->value.IsString() &&
rarityIter != iter->MemberEnd() && rarityIter->value.IsString() )
{
std::string nameStr( nameIter->value.GetString() );
std::string rarityStr( rarityIter->value.GetString() );
mLogger->debug( "json: {} : {}", nameStr, rarityStr );
// Some cards have multiple entries (i.e. split/flip/double-sided),
// so make sure they are only represented once. Done by skipping
// over cards whose name doesn't match the first entry of the
// 'names' array (if it exists).
if( iter->HasMember("names") )
{
const Value& names = (*iter)["names"];
if( names.IsArray() && !names.Empty() && (nameStr != names[0]) )
{
continue;
}
// Modify the name for split cards.
if( MtgJson::isSplitCard( *iter ) )
{
nameStr = MtgJson::createSplitCardName( names );
}
}
// Some cards have variations with multiple entries that should
// only be counted once. Done by checking if there are
// variations and checking a card's number for a non-digit,
// non-'a' ending.
if( iter->HasMember("variations") && iter->HasMember("number") )
{
const Value& numberValue = (*iter)["number"];
if( numberValue.IsString() )
{
const std::string numberStr( numberValue.GetString() );
const char c = numberStr.back();
if( !std::isdigit( c ) && (c != 'a') )
{
continue;
}
}
}
RarityType rarity = MtgJson::getRarityFromString( rarityStr );
if( rarity != RARITY_UNKNOWN )
rarityMap.insert( std::make_pair( rarity, nameStr ) );
else
mLogger->warn( "Unknown rarity type {}, ignoring!", rarityStr );
}
else
{
mLogger->notice( "card entry without name or rarity in set {}", code );
}
}
return rarityMap;
}
list loadCOCO( const std::string & name, int fold ) {
using namespace rapidjson;
// Load the annotations
char buf[1024];
sprintf( buf, COCO_ANNOT.c_str(), name.c_str() );
// Read the json file
Document doc;
std::ifstream t(buf);
std::string json_str = std::string(std::istreambuf_iterator<char>(t),std::istreambuf_iterator<char>());
doc.Parse( (char*)json_str.c_str() );
// Go through all instance labels
std::unordered_map< uint64_t, std::vector<int> > categories;
std::unordered_map< uint64_t, std::vector<float> > areas;
std::unordered_map< uint64_t, std::vector<Polygons> > segments;
const Value & instances = doc["instances"];
for ( Value::ConstValueIterator i = instances.Begin(); i != instances.End(); i++ ) {
// Get the image id
Value::ConstMemberIterator cmi_image_id = i->FindMember("image_id");
eassert( cmi_image_id != i->MemberEnd() );
const int image_id = cmi_image_id->value.GetInt();
// Get the category id
Value::ConstMemberIterator cmi_category_id = i->FindMember("category_id");
eassert( cmi_category_id != i->MemberEnd() );
const int category_id = cmi_category_id->value.GetInt();
// Get the category id
Value::ConstMemberIterator cmi_area = i->FindMember("area");
eassert( cmi_area != i->MemberEnd() );
const float area = cmi_area->value.GetDouble();
// Read the polygon
Value::ConstMemberIterator cmi_segmentation = i->FindMember("segmentation");
eassert( cmi_segmentation != i->MemberEnd() );
const Value & segmentations = cmi_segmentation->value;
// For now just use the first segmentation for each object
Polygons polygons;
for( Value::ConstValueIterator segmentation = segmentations.Begin(); segmentation!=segmentations.End(); segmentation++ ){
Polygon polygon = RMatrixXf( segmentation->Size() / 2, 2 );
float * ppolygon = polygon.data();
for ( Value::ConstValueIterator j = segmentation->Begin(); j != segmentation->End(); j++ )
*(ppolygon++) = j->GetDouble();
polygons.push_back( polygon );
}
if( !ONLY_CONNECTED || polygons.size() == 1 ) {
categories[ image_id ].push_back( category_id );
segments[ image_id ].push_back( polygons );
areas[ image_id ].push_back( area );
}
}
// Load all images
Value::ConstValueIterator B = doc["images"].Begin(), E = doc["images"].End();
const int N = E-B;
Value::ConstValueIterator i0 = B+(fold*N/N_FOLDS), i1 = B+((fold+1)*N/N_FOLDS);
std::vector< std::shared_ptr<Image8u> > images( i1 - i0 );
#pragma omp parallel for
for ( int k=0; k<i1-i0; k++ ) {
Value::ConstValueIterator i = i0+k;
// Get the file name and path
Value::ConstMemberIterator cmi_file_name = i->FindMember("file_name");
eassert( cmi_file_name != i->MemberEnd() );
const std::string file_name = cmi_file_name->value.GetString();
Value::ConstMemberIterator cmi_file_path = i->FindMember("file_path");
eassert( cmi_file_path != i->MemberEnd() );
const std::string file_path = cmi_file_path->value.GetString();
// Add the image entry
images[i-i0] = imreadShared( coco_dir+"/"+file_path+"/"+file_name );
}
// Create the python struct with the result
list r;
for ( Value::ConstValueIterator i = i0; i != i1; i++ ) {
// Get the image id
Value::ConstMemberIterator cmi_image_id = i->FindMember("id");
eassert( cmi_image_id != i->MemberEnd() );
const int image_id = cmi_image_id->value.GetInt();
// Add the image entry
const int N = categories[ image_id ].size();
if( N > 0 ){
dict entry;
entry["id"] = image_id;
entry["image"] = images[i - i0];
entry["categories"] = categories[ image_id ];
entry["areas"] = areas[ image_id ];
entry["segmentation"] = segments[ image_id ];
r.append( entry );
}
// else
// printf("Image '%d' doesn't have any annotations!\n", image_id );
}
return r;
}