PyRep *PyPacket::Encode() {
PyTuple *arg_tuple = new PyTuple(6);
//command
arg_tuple->items[0] = new PyInt(type);
//source
arg_tuple->items[1] = source.Encode();
//dest
arg_tuple->items[2] = dest.Encode();
//unknown3
if(userid == 0)
arg_tuple->items[3] = new PyNone();
else
arg_tuple->items[3] = new PyInt(userid);
//payload
//TODO: we don't really need to clone this if we can figure out a way to say "this is read only"
//or if we can change this encode method to consume the PyPacket (which will almost always be the case)
arg_tuple->items[4] = payload; PyIncRef(payload);
//named arguments
if(named_payload == NULL) {
arg_tuple->items[5] = new PyNone();
} else {
arg_tuple->items[5] = named_payload; PyIncRef(named_payload);
}
return new PyObject(
new PyString( type_string ), arg_tuple
);
}
void ClientSession::EncodeChanges( PyDict* into )
{
PyDict::const_iterator cur, end;
cur = mSession->begin();
end = mSession->end();
for(; cur != end; cur++)
{
PyString* str = cur->first->AsString();
PyTuple* value = cur->second->AsTuple();
PyRep* last = value->GetItem( 0 );
PyRep* current = value->GetItem( 1 );
if( last->hash() != current->hash() )
{
// Duplicate tuple
PyTuple* t = new PyTuple( 2 );
t->SetItem( 0, last ); PyIncRef( last );
t->SetItem( 1, current ); PyIncRef( current );
into->SetItem( str, t ); PyIncRef( str );
// Update our tuple
value->SetItem( 0, current ); PyIncRef( current );
}
}
mDirty = false;
}
PyCachedObject *PyCachedObject::Clone() const
{
PyCachedObject *res = new PyCachedObject();
res->timestamp = timestamp;
res->version = version;
res->nodeID = nodeID;
res->shared = shared;
res->cache = (PyBuffer *) cache; PyIncRef(cache);
res->compressed = compressed;
res->objectID = objectID; PyIncRef(objectID);
return res;
}
PyObject *PyCachedObject::Encode()
{
PyTuple *arg_tuple = new PyTuple(7);
PyTuple *versiont = new PyTuple(2);
versiont->items[0] = new PyLong(timestamp);
versiont->items[1] = new PyInt(version);
arg_tuple->items[0] = versiont;
arg_tuple->items[1] = new PyNone();
arg_tuple->items[2] = new PyInt(nodeID);
arg_tuple->items[3] = new PyInt(shared?1:0);
//compression or not, we want to encode this into bytes so it doesn't
//get cloned in object form just to be encoded later
/* cache->EncodeData();
if(compressed) {
uint8 *buf = new uint8[cache->length];
uint32 deflen = DeflatePacket(cache->data, cache->length, buf, cache->length);
if(deflen == 0 || deflen >= cache->length) {
//failed to deflate or it did no good (client checks this)
memcpy(buf, cache->data, cache->length);
deflen = cache->length;
compressed = false;
}
//buf is consumed:
arg_tuple->items[4] = new PyBuffer(&buf, deflen);
} else {
//TODO: we dont really need to clone this if we can figure out a way to say "this is read only"
//or if we can change this encode method to consume the PyCachedObject (which will almost always be the case)
arg_tuple->items[4] = cache->Clone();
}*/
//TODO: we don't really need to clone this if we can figure out a way to say "this is read only"
//or if we can change this encode method to consume the PyCachedObject (which will almost always be the case)
arg_tuple->items[4] = cache; PyIncRef(cache);
arg_tuple->items[5] = new PyInt(compressed?1:0);
//same cloning stattement as above.
arg_tuple->items[6] = objectID; PyIncRef(objectID);
return new PyObject(
new PyString( "objectCaching.CachedObject" ), arg_tuple
);
}
PyObject *CachedObjectMgr::GetCachedObject(const PyRep *objectID)
{
const std::string str = OIDToString(objectID);
CachedObjMapItr res = m_cachedObjects.find(str);
if(res == m_cachedObjects.end())
return NULL;
PyCachedObject co;
co.timestamp = res->second->timestamp;
co.version = res->second->version;
co.nodeID = HackCacheNodeID; //hack, doesn't matter until we have multi-node networks.
co.shared = true;
co.objectID = res->second->objectID; PyIncRef(res->second->objectID);
co.cache = res->second->cache;
if(res->second->cache->content().size() == 0 || res->second->cache->content()[0] == MarshalHeaderByte)
co.compressed = false;
else
co.compressed = true;
sLog.Debug("CachedObjMgr","Returning cached object '%s' with checksum 0x%x", str.c_str(), co.version);
PyObject *result = co.Encode();
co.cache = NULL; //avoid a copy
return result;
}
void CachedObjectMgr::_UpdateCache(const PyRep *objectID, PyBuffer **buffer)
{
//this is the hard one..
CacheRecord *r = new CacheRecord;
r->timestamp = Win32TimeNow();
r->objectID = (PyRep*)objectID; PyIncRef(objectID);
// retake ownership
r->cache = *buffer;
*buffer = NULL;
r->version = CRC32::Generate( &r->cache->content()[0], r->cache->content().size() );
const std::string str = OIDToString(objectID);
//find and destroy any older version of this object.
CachedObjMapItr res = m_cachedObjects.find(str);
if(res != m_cachedObjects.end()) {
sLog.Debug("CachedObjMgr","Destroying old cached object with ID '%s' of length %u with checksum 0x%x", str.c_str(), res->second->cache->content().size(), res->second->version);
SafeDelete( res->second );
}
sLog.Debug("CachedObjMgr","Registering new cached object with ID '%s' of length %u with checksum 0x%x", str.c_str(), r->cache->content().size(), r->version);
m_cachedObjects[str] = r;
}
void UserError::AddKeyword( const char* name, PyRep* value )
{
// We need 2 refs ... the first one is given to us,
// but we must create the second one ...
PyIncRef( value );
_GetTupleKeywords()->SetItemString( name, value );
_GetDictKeywords()->SetItemString( name, value );
}
PyCallArgs::PyCallArgs(Client *c, PyTuple* tup, PyDict* dict)
: client(c),
tuple(tup)
{
PyIncRef( tup );
PyDict::const_iterator cur, end;
cur = dict->begin();
end = dict->end();
for(; cur != end; cur++) {
if(!cur->first->IsString()) {
_log(SERVICE__ERROR, "Non-string key in call named arguments. Skipping.");
cur->first->Dump(SERVICE__ERROR, " ");
continue;
}
byname[ cur->first->AsString()->content() ] = cur->second;
PyIncRef( cur->second );
}
}
CRowSet* CFilterRowSet::NewRowset( PyRep* key )
{
DBRowDescriptor* rowDesc = _GetRowDesc();
PyIncRef( rowDesc );
CRowSet* row = new CRowSet( &rowDesc );
dict().SetItem( key , row );
return row;
}
PyPackedRow* CIndexedRowSet::NewRow( PyRep* key )
{
DBRowDescriptor* rowDesc = _GetRowDesc();
PyIncRef( rowDesc );
PyPackedRow* row = new PyPackedRow( rowDesc );
dict().SetItem( key , row );
return row;
}
PyException& PyException::operator=( const PyException& oth )
{
PySafeDecRef( ssException );
ssException = oth.ssException;
if( NULL != ssException )
PyIncRef( ssException );
return *this;
}
PyResult& PyResult::operator=( const PyResult& oth )
{
PySafeDecRef( ssResult );
ssResult = oth.ssResult;
if( NULL != ssResult )
PyIncRef( ssResult );
return *this;
}
PyPackedRow* CRowSet::NewRow()
{
DBRowDescriptor* rowDesc = _GetRowDesc();
PyIncRef( rowDesc );
PyPackedRow* row = new PyPackedRow( rowDesc );
list().AddItem( row );
return row;
}
PyPacket *PyPacket::Clone() const
{
PyPacket *res = new PyPacket();
res->type_string = type_string;
res->type = type;
res->source = source;
res->dest = dest;
res->userid = userid;
res->payload = (PyTuple *) payload; PyIncRef(payload);
if(named_payload == NULL)
{
res->named_payload = NULL;
}
else
{
res->named_payload = (PyDict *) named_payload; PyIncRef(named_payload);
}
return res;
}
PyObject *CachedObjectMgr::CacheRecord::EncodeHint() const
{
objectCaching_CachedObject_spec spec;
spec.objectID = objectID; PyIncRef(objectID);
spec.nodeID = HackCacheNodeID;
spec.timestamp = timestamp;
spec.version = version;
return spec.Encode();
}
/**
* LoadCachedFromFile
*
* Load a cached object from file.
*/
bool CachedObjectMgr::LoadCachedFromFile(const std::string &cacheDir, const PyRep *objectID)
{
const std::string str = OIDToString(objectID);
std::string filename(cacheDir);
filename += "/" + str + ".cache";
FILE *f = fopen(filename.c_str(), "rb");
if(f == NULL)
return false;
CacheFileHeader header;
if(fread(&header, sizeof(header), 1, f) != 1) {
fclose(f);
return false;
}
/* check if its a valid cache file */
if(header.magic != CacheFileMagic) {
fclose(f);
return false;
}
Buffer* buf = new Buffer( header.length );
if( fread( &(*buf)[0], sizeof( uint8 ), header.length, f ) != header.length ) {
SafeDelete( buf );
fclose( f );
return false;
}
fclose( f );
CachedObjMapItr res = m_cachedObjects.find( str );
if( res != m_cachedObjects.end() )
SafeDelete( res->second );
CacheRecord* cache = new CacheRecord;
cache->objectID = (PyRep*)objectID; PyIncRef(objectID);
cache->cache = new PyBuffer( &buf );
cache->timestamp = header.timestamp;
cache->version = header.version;
m_cachedObjects[ str ] = cache;
return true;
}
PyTuple *EVENotificationStream::Encode() {
PyTuple *t4 = new PyTuple(2);
t4->items[0] = new PyInt(1);
//see notes in other objects about what we could do to avoid this clone.
t4->items[1] = args; PyIncRef(args);
PyTuple *t3 = new PyTuple(2);
t3->items[0] = new PyInt(0);
t3->items[1] = t4;
PyTuple *t2 = new PyTuple(2);
t2->items[0] = new PyInt(0);
t2->items[1] = new PySubStream(t3);
PyTuple *t1 = new PyTuple(2);
t1->items[0] = t2;
t1->items[1] = new PyNone();
return(t1);
/*
//remoteObject
if(remoteObject == 0)
arg_tuple->items[0] = new PyString(remoteObjectStr.c_str());
else
arg_tuple->items[0] = new PyInt(remoteObject);
//method name
arg_tuple->items[1] = new PyString(method.c_str());
//args
//TODO: we dont really need to clone this if we can figure out a way to say "this is read only"
//or if we can change this encode method to consume the PyCallStream (which will almost always be the case)
arg_tuple->items[2] = args->Clone();
//options
if(included_options == 0) {
arg_tuple->items[3] = new PyNone();
} else {
PyDict *d = new PyDict();
arg_tuple->items[3] = d;
if(included_options & oMachoVersion) {
d->items[ new PyString("machoVersion") ] = new PyInt( macho_version );
}
}
return(arg_tuple);
*/
}
void CachedObjectMgr::UpdateCacheFromSS(const std::string &objectID, PySubStream **in_cached_data) {
PyCachedObjectDecoder cache;
if(!cache.Decode(in_cached_data)) {
_log(SERVICE__ERROR, "Failed to decode cache stream");
return;
}
PyString* str = new PyString( objectID );
PyBuffer* buf = cache.cache->data();
PyIncRef( buf );
_UpdateCache(str, &buf);
PyDecRef( str );
}
PyDict *DBResultToPackedRowDict( DBQueryResult &result, uint32 key_index )
{
DBRowDescriptor *header = new DBRowDescriptor( result );
PyDict *res = new PyDict();
DBResultRow row;
for( uint32 i = 0; result.GetRow( row ); i++ )
{
res->SetItem( DBColumnToPyRep(row, key_index), CreatePackedRow( row, header ) );
PyIncRef( header );
}
PyDecRef( header );
return res;
}
PyList *DBResultToPackedRowList( DBQueryResult &result )
{
DBRowDescriptor *header = new DBRowDescriptor( result );
PyList *res = new PyList( result.GetRowCount() );
DBResultRow row;
for( uint32 i = 0; result.GetRow( row ); i++ )
{
res->SetItem( i, CreatePackedRow( row, header ) );
PyIncRef( header );
}
PyDecRef( header );
return res;
}
PyObject *PyCachedObjectDecoder::EncodeHint() {
PyTuple *arg_tuple = new PyTuple(3);
PyTuple *versiont = new PyTuple(2);
versiont->items[0] = new PyLong(timestamp);
versiont->items[1] = new PyInt(version);
arg_tuple->items[0] = objectID; PyIncRef(objectID);
arg_tuple->items[1] = new PyInt(nodeID);
arg_tuple->items[2] = versiont;
return new PyObject(
new PyString( "util.CachedObject" ), arg_tuple
);
}
/* function not used */
PyTuple *DBResultToPackedRowListTuple( DBQueryResult &result )
{
DBRowDescriptor * header = new DBRowDescriptor( result );
size_t row_count = result.GetRowCount();
PyList * list = new PyList( row_count );
DBResultRow row;
uint32 i = 0;
while( result.GetRow(row) )
{
list->SetItem( i++, CreatePackedRow( row, header ) );
PyIncRef( header );
}
PyTuple * root = new PyTuple(2);
root->SetItem( 0, header );
root->SetItem( 1, list );
return root;
}
PyRep *StationDB::GetSolarSystem(uint32 solarSystemID) {
PyRep* ret = (PyRep*)g_station_db_storage.find(solarSystemID);
PyIncRef(ret);
return ret;
// old code for reference.
/*DBQueryResult res;
if(!sDatabase.RunQuery(res,
"SELECT "
" solarSystemID," // nr
" solarSystemName," // string
" x, y, z," // double
" radius," // double
" security," // double
" constellationID," // nr
" factionID," // nr
" sunTypeID," // nr
" regionID,"
//crap
" NULL AS allianceID," // nr
" 0 AS sovereigntyLevel," // nr
" 0 AS constellationSovereignty" // nr
" FROM mapSolarSystems"
" WHERE solarSystemID=%u", solarSystemID
))
{
_log(SERVICE__ERROR, "Error in GetSolarSystem query: %s", res.error.c_str());
return NULL;
}
DBResultRow row;
if(!res.GetRow(row)) {
_log(SERVICE__ERROR, "Error in GetSolarSystem query: no solarsystem for id %d", solarSystemID);
return NULL;
}
return(DBRowToRow(row));*/
}
bool PyCachedCall::Decode(PySubStream **in_ss)
{
PySubStream *ss = *in_ss; //consume
*in_ss = NULL;
PySafeDecRef( result );
ss->DecodeData();
if(ss->decoded() == NULL) {
sLog.Error("PyCachedCall","Unable to decode initial stream for PyCachedCall");
PyDecRef( ss );
return false;
}
if(!ss->decoded()->IsDict()) {
sLog.Error("PyCachedCall","Cached call substream does not contain a dict: %s", ss->decoded()->TypeString());
PyDecRef( ss );
return false;
}
PyDict *po = (PyDict *) ss->decoded();
PyDict::const_iterator cur, end;
cur = po->begin();
end = po->end();
for(; cur != end; cur++) {
if(!cur->first->IsString())
continue;
PyString *key = (PyString *) cur->first;
if( key->content() == "lret" ) {
result = cur->second; PyIncRef(result);
}
}
PyDecRef( ss );
return result != NULL;
}
EVENotificationStream *EVENotificationStream::Clone() const {
EVENotificationStream *res = new EVENotificationStream();
res->args = (PyTuple *) args;
PyIncRef(args);
return res;
}
bool PyPacket::Decode(PyRep **in_packet)
{
PyRep *packet = *in_packet; //consume
*in_packet = NULL;
PySafeDecRef(payload);
PySafeDecRef(named_payload);
if(packet->IsChecksumedStream())
{
PyChecksumedStream* cs = packet->AsChecksumedStream();
//TODO: check cs->checksum
packet = cs->stream();
PyIncRef( packet );
PyDecRef( cs );
}
//Dragon nuance... it gets wrapped again
if(packet->IsSubStream())
{
PySubStream* ss = packet->AsSubStream();
ss->DecodeData();
if(ss->decoded() == NULL)
{
codelog(NET__PACKET_ERROR, "failed: unable to decode initial packet substream.");
PyDecRef(packet);
return false;
}
packet = ss->decoded();
PyIncRef( packet );
PyDecRef( ss );
}
if(!packet->IsObject())
{
codelog(NET__PACKET_ERROR, "failed: packet body is not an 'Object': %s", packet->TypeString());
PyDecRef(packet);
return false;
}
PyObject *packeto = (PyObject *) packet;
type_string = packeto->type()->content();
if(!packeto->arguments()->IsTuple())
{
codelog(NET__PACKET_ERROR, "failed: packet body does not contain a tuple");
PyDecRef(packet);
return false;
}
PyTuple *tuple = (PyTuple *) packeto->arguments();
if(tuple->items.size() != 7)
{
codelog(NET__PACKET_ERROR, "failed: packet body does not contain a tuple of length 7");
PyDecRef(packet);
return false;
}
if(!tuple->items[0]->IsInt())
{
codelog(NET__PACKET_ERROR, "failed: First main tuple element is not an integer");
PyDecRef(packet);
return false;
}
PyInt *typer = (PyInt *) tuple->items[0];
switch(typer->value()) {
case AUTHENTICATION_REQ:
case AUTHENTICATION_RSP:
case IDENTIFICATION_REQ:
case IDENTIFICATION_RSP:
case CALL_REQ:
case CALL_RSP:
case TRANSPORTCLOSED:
case RESOLVE_REQ:
case RESOLVE_RSP:
case NOTIFICATION:
case ERRORRESPONSE:
case SESSIONCHANGENOTIFICATION:
case SESSIONINITIALSTATENOTIFICATION:
case PING_REQ:
case PING_RSP:
type = (MACHONETMSG_TYPE) typer->value();
break;
default:
codelog(NET__PACKET_ERROR, "failed: Unknown message type %"PRIu64, typer->value());
PyDecRef(packet);
return false;
break;
}
//source address
if(!source.Decode(tuple->items[1]))
{
//error printed in decoder
PyDecRef(packet);
return false;
}
//dest address
if(!dest.Decode(tuple->items[2]))
{
//error printed in decoder
PyDecRef(packet);
return false;
}
if(tuple->items[3]->IsInt())
{
PyInt *i = (PyInt *) tuple->items[3];
userid = i->value();
} else if(tuple->items[3]->IsNone()) {
userid = 0;
} else {
codelog(NET__PACKET_ERROR, "failed: User ID has invalid type");
PyDecRef(packet);
return false;
}
//payload
if(!(tuple->items[4]->IsBuffer() || tuple->items[4]->IsTuple())) {
codelog(NET__PACKET_ERROR, "failed: Fifth main tuple element is not a tuple");
PyDecRef(packet);
return false;
}
payload = (PyTuple *) tuple->items[4];
tuple->items[4] = NULL; //we keep this one
//options dict
if(tuple->items[5]->IsNone())
{
named_payload = NULL;
}
else if(tuple->items[5]->IsDict())
{
named_payload = (PyDict *) tuple->items[5];
tuple->items[5] = NULL; //we keep this too.
}
else
{
codelog(NET__PACKET_ERROR, "failed: Sixth main tuple element is not a dict");
PyDecRef(packet);
return false;
}
PyDecRef(packet);
return true;
}
bool PyCachedObjectDecoder::Decode(PySubStream **in_ss)
{
PySubStream *ss = *in_ss; //consume
*in_ss = NULL;
PySafeDecRef( cache );
PySafeDecRef( objectID );
ss->DecodeData();
if(ss->decoded() == NULL) {
sLog.Error("PyCachedObjectDecoder","Unable to decode initial stream for PycachedObject");
PyDecRef( ss );
return false;
}
if(!ss->decoded()->IsObject()) {
sLog.Error("PyCachedObjectDecoder","Cache substream does not contain an object: %s", ss->decoded()->TypeString());
PyDecRef( ss );
return false;
}
PyObject *po = (PyObject *) ss->decoded();
//TODO: could check type string, dont care... (should be objectCaching.CachedObject)
if(!po->arguments()->IsTuple()) {
sLog.Error("PyCachedObjectDecoder","Cache object's args is not a tuple: %s", po->arguments()->TypeString());
PyDecRef( ss );
return false;
}
PyTuple *args = (PyTuple *) po->arguments();
if(args->items.size() != 7) {
sLog.Error("PyCachedObjectDecoder","Cache object's args tuple has %lu elements instead of 7", args->items.size());
PyDecRef( ss );
return false;
}
if(!args->items[0]->IsTuple()) {
sLog.Error("PyCachedObjectDecoder","Cache object's arg %d is not a Tuple: %s", 0, args->items[0]->TypeString());
PyDecRef( ss );
return false;
}
//ignore unknown [1]
/*if(!args->items[1]->IsInt()) {
_log(CLIENT__ERROR, "Cache object's arg %d is not a None: %s", 1, args->items[1]->TypeString());
PyDecRef( ss );
return false;
}*/
if(!args->items[2]->IsInt()) {
sLog.Error("PyCachedObjectDecoder","Cache object's arg %d is not an Integer: %s", 2, args->items[2]->TypeString());
PyDecRef( ss );
return false;
}
if(!args->items[3]->IsInt()) {
sLog.Error("PyCachedObjectDecoder","Cache object's arg %d is not an Integer: %s", 3, args->items[3]->TypeString());
PyDecRef( ss );
return false;
}
if(!args->items[5]->IsInt()) {
sLog.Error("PyCachedObjectDecoder","Cache object's arg %d is not a : %s", 5, args->items[5]->TypeString());
PyDecRef( ss );
return false;
}
PyTuple *objVt = (PyTuple *) args->items[0];
if(!objVt->items[0]->IsInt()) {
sLog.Error("PyCachedObjectDecoder","Cache object's version tuple %d is not an Integer: %s", 0, objVt->items[0]->TypeString());
PyDecRef( ss );
return false;
}
if(!objVt->items[1]->IsInt()) {
sLog.Error("PyCachedObjectDecoder","Cache object's version tuple %d is not an Integer: %s", 1, objVt->items[1]->TypeString());
PyDecRef( ss );
return false;
}
PyInt *nodeidr = (PyInt *) args->items[2];
PyInt *sharedr = (PyInt *) args->items[3];
PyInt *compressedr = (PyInt *) args->items[5];
PyInt *timer = (PyInt *) objVt->items[0];
PyInt *versionr = (PyInt *) objVt->items[1];
timestamp = timer->value();
version = versionr->value();
nodeID = nodeidr->value();
shared = ( sharedr->value() != 0 );
compressed = ( compressedr->value() != 0 );
//content (do this as the last thing, since its the heavy lifting):
if(args->items[4]->IsSubStream()) {
cache = (PySubStream *) args->items[4];
//take it
args->items[4] = NULL;
} else if(args->items[4]->IsBuffer()) {
//this is a data buffer, likely compressed.
PyBuffer* buf = args->items[4]->AsBuffer();
PyIncRef( buf );
cache = new PySubStream( buf );
} else if(args->items[4]->IsString()) {
//this is a data buffer, likely compressed, not sure why it comes through as a string...
PyString* str = args->items[4]->AsString();
cache = new PySubStream( new PyBuffer( *str ) );
} else {
sLog.Error("PyCachedObjectMgr", "Cache object's arg %d is not a substream or buffer: %s", 4, args->items[4]->TypeString());
PyDecRef( ss );
return false;
}
objectID = args->items[6]; PyIncRef(objectID);
PyDecRef( ss );
return true;
}