ZQuestFile* ZQuestFileReader::read()
{
atUint32 magic, version, compressedLen, uncompressedLen;
ZQuestFile::Game game = ZQuestFile::NoGame;
std::string gameString;
atUint16 BOM;
atUint32 checksum = 0;
magic = readUint32();
if ((magic & 0x00FFFFFF) != (ZQuestFile::Magic & 0x00FFFFFF))
{
atError("Not a valid ZQuest file");
return nullptr;
}
version = readUint32();
if (version > ZQuestFile::Version)
{
atError("Unsupported ZQuest version");
return nullptr;
}
compressedLen = readUint32();
uncompressedLen = readUint32();
if (version >= ZQUEST_VERSION_CHECK(2, 0, 0))
{
gameString = std::string((const char*)readBytes(0x0A).get(), 0x0A);
for (size_t i = 0; i < ZQuestFile::gameStringList().size(); i++)
{
if (!ZQuestFile::gameStringList().at(i).substr(0, 0x0A).compare(gameString))
{
gameString = ZQuestFile::gameStringList().at(i);
game = (ZQuestFile::Game)i;
break;
}
}
BOM = readUint16();
checksum = readUint32();
}
else
{
game = (ZQuestFile::Game)readUint32();
BOM = readUint16();
seek(0x0A);
}
std::unique_ptr<atUint8[]> data = readUBytes(compressedLen); // compressedLen is always the total file size
if (version >= ZQUEST_VERSION_CHECK(2, 0, 0))
{
if (checksum != athena::Checksums::crc32(data.get(), compressedLen))
{
atError("Checksum mismatch, data corrupt");
return nullptr;
}
}
else
{
std::clog << "ZQuest version 0x" << std::uppercase << std::setw(8) << std::setfill('0') << std::hex << athena::utility::swapU32(version);
std::clog << " has no checksum field" << std::endl;
}
if (compressedLen != uncompressedLen)
{
atUint8* dst = new atUint8[uncompressedLen];
atUint32 dstLen = io::Compression::decompressZlib(data.get(), compressedLen, dst, uncompressedLen);
if (dstLen != uncompressedLen)
{
delete[] dst;
atError("Error decompressing data");
return nullptr;
}
data.reset(dst);
}
return new ZQuestFile(game, BOM == 0xFEFF ? Endian::BigEndian : Endian::LittleEndian, std::move(data), uncompressedLen, gameString);
}
Map* MapFileReader::read()
{
Map* ret = new Map;
Uint32 magic = base::readUInt32();
if (magic != Map::MAGIC_NUMBER)
throw zelda::error::IOException("MapFileReader::read -> Not a valid zmap file");
Uint32 version = base::readUInt32();
if (version != Map::VERSION)
throw zelda::error::IOException("MapFileReader::read -> Unsupported version");
Uint16 bom = readUInt16();
if (bom == 0xFFFE)
base::setEndianess(zelda::BigEndian);
ret->setName(base::readString());
int rgba = base::readUInt32();
ret->setBackgroundColor(*((RGBA*)&rgba));
ret->setWidth(base::readUInt32());
ret->setHeight(base::readUInt32());
ret->setTileWidth(base::readUInt16());
ret->setTileHeight(base::readUInt16());
Uint32 tilesetCount = base::readUInt32();
Uint32 layerCount = base::readUInt32();
base::seek((base::position() + 0x1F) & ~0x1F, base::Beginning);
while ((tilesetCount--) > 0)
{
ret->addTileset(base::readString());
}
// Align to 32bytes for Wii/GCN support
base::seek((base::position() + 0x1F) & ~0x1F, base::Beginning);
int compressedSize = base::readUInt32();
int uncompressedSize = base::readUInt32();
// data is compressed if the compressed size is smaller than
// uncompressedSize
if (compressedSize < uncompressedSize)
{
Uint8* data = readUBytes(compressedSize);
Uint8* uncompData = new Uint8[uncompressedSize];
int ret = zelda::io::Compression::decompressZlib(data, compressedSize, uncompData, uncompressedSize);
if (ret != uncompressedSize)
throw zelda::error::IOException("MapReader::read -> Error decompressing data");
base::setData(uncompData, uncompressedSize);
delete[] data;
}
for (Uint32 i = 0; i < layerCount; i++)
{
std::cout << "Layer " << (i + 1) << std::endl;
Layer* layer = new Layer;
layer->setVisible(base::readBool());
layer->setZOrder(base::readUInt32());
int tileCount = base::readUInt32();
std::vector<Tile*> tiles;
base::seek((base::position() + 0x1F) & ~0x1F, base::Beginning);
for (int j = 0; j < tileCount; j++)
{
Sakura::Core::Tile* tile = new Sakura::Core::Tile();
tile->setId(base::readUInt32());
tile->setTileset(base::readUInt32());
tile->setFlippedHor(base::readBit());
tile->setFlippedVer(base::readBit());
tile->setFlippedDiag(base::readBit());
tile->setPosition(base::readUInt16(), base::readUInt16());
tiles.push_back(tile);
// layer->addTile(tile);
}
// this is the new method
layer->setTiles(tiles);
base::seek((base::position() + 0x1F) & ~0x1F, base::Beginning);
ret->addLayer(layer);
}
std::unordered_map<int, std::unordered_map<int, Cell*> > collision;
for (Uint32 y = 0; y < ret->height() / ret->tileHeight(); y++)
{
for (Uint32 x = 0; x < ret->width() / ret->tileWidth(); x++)
{
Cell* cell = new Cell;
cell->CollisionType = base::readByte();
cell->FlippedAndDamage = base::readByte();
collision[x][y] = cell;
}
}
ret->setCollisionData(collision);
return ret;
}
