/**
* @luafunc GameType LuaGameInfo::getGameType()
*
* @brief Get the \ref GameTypeEnum of the current game.
*
* @desc For possible values, see \ref GameTypeEnum.
*
* @code
* print(info:getGameType() == GameType.CTFGameType) -- `true` when playing CTF
* @endcode
*
* @return A member of \ref GameTypeEnum.
*/
S32 LuaGameInfo::lua_getGameType(lua_State *L)
{
TNLAssert(mServerGame->getGameType(), "Need Gametype check in getGameType");
return returnInt(L, mServerGame->getGameType()->getGameTypeId());
}
const Vector<Point> *SimpleLineGeometry::getFill() const
{
TNLAssert(false, "SimpleLines do not have fill!");
return NULL;
}
void SimpleLineGeometry::readGeom(S32 argc, const char **argv, S32 firstCoord, F32 gridSize)
{
TNLAssert(false, "Haven't figured this one out yet!");
}
const Vector<Point> *PointGeometry::getOutline() const
{
TNLAssert(false, "Points do not have an inherent outline -- if you need an outline for this object, "
"please implement an override for getOutline() in the object itself.");
return NULL;
}
void Geometry::read(unsigned char *geom, S32 bytes)
{
TNLAssert(false, "Not implemented");
}
string Geometry::geomToLevelCode() const
{
TNLAssert(false, "Not implemented");
return string();
}
Rect Geometry::calcExtents() const
{
TNLAssert(false, "Not implemented");
return Rect();
}
bool Geometry::deleteVert(S32 vertIndex)
{
TNLAssert(false, "Not implemented");
return false;
}
bool Geometry::insertVert(Point vertex, S32 vertIndex)
{
TNLAssert(false, "Not implemented");
return false;
}
F32 PolygonGeometry::getLabelAngle() const
{
TNLAssert(!mTriangluationDisabled, "Triangluation disabled!");
return mLabelAngle;
}
bool Geometry::addVertFront(Point vert)
{
TNLAssert(false, "Not implemented");
return false;
}
Point PolygonGeometry::getCentroid() const
{
TNLAssert(!mTriangluationDisabled, "Triangluation disabled!");
return Parent::getCentroid();
}
const Vector<Point> *PolygonGeometry::getFill() const
{
TNLAssert(!mTriangluationDisabled, "Triangluation disabled!");
return &mPolyFill;
}
bool Geometry::addVert(const Point &point, bool ignoreMaxPointsLimit)
{
TNLAssert(false, "Not implemented");
return false;
}
void Geometry::unpackGeom(GhostConnection *connection, BitStream *stream)
{
TNLAssert(false, "Not implemented");
}
bool Geometry::anyVertsSelected()
{
TNLAssert(false, "Not implemented");
return false;
}
void Geometry::setGeom(const Vector<Point> &points)
{
TNLAssert(false, "Not implemented");
}
void Geometry::unselectVert(S32 vertIndex)
{
TNLAssert(false, "Not implemented");
}
void Geometry::readGeom(S32 argc, const char **argv, S32 firstCoord, F32 gridSize)
{
TNLAssert(false, "Not implemented");
}
void Geometry::unselectVerts()
{
TNLAssert(false, "Not implemented");
}
GeomType Geometry::getGeomType() const
{
TNLAssert(false, "Not implemented");
return geomNone;
}
bool Geometry::vertSelected(S32 vertIndex)
{
TNLAssert(false, "Not implemented");
return false;
}
const Vector<Point> *PointGeometry::getFill() const
{
TNLAssert(false, "Points do not have fill!");
return NULL;
}
const Vector<Point> *Geometry::getFill() const
{
TNLAssert(false, "Not implemented");
return NULL;
}
void Geometry::write(BitStream *stream) const
{
TNLAssert(false, "Not implemented");
}
Point Geometry::getCentroid() const
{
TNLAssert(false, "Not implemented");
return Point();
}
void Geometry::disableTriangulation()
{
TNLAssert(false, "Not implemented");
}
F32 Geometry::getLabelAngle() const
{
TNLAssert(false, "Not implemented");
return 0;
}
Point Geometry::getVert(S32 index) const
{
TNLAssert(false, "Not implemented");
return Point();
}
Journal::Journal()
{
TNLAssert(mJournal == NULL, "Cannot construct more than one Journal instance.");
mJournal = this;
}
