/** Called when a mouse click happens. If the click happened while the mouse
* was hovering on top of a challenge, the kart will be teleported to
* the challenge.
* \param x,y Mouse coordinates.
*/
void OverWorld::onMouseClick(int x, int y)
{
const OverworldChallenge *challenge =
((RaceGUIOverworld*)getRaceGUI())->getCurrentChallenge();
if(challenge)
{
// Use the 'get closest start point' rescue function
// from WorldWithRank by setting the kart's position to
// be the location of the challenge bubble.
AbstractKart* kart = getKart(0);
kart->setXYZ(challenge->m_position);
unsigned int index = getRescuePositionIndex(kart);
btTransform s = getRescueTransform(index);
const btVector3 &xyz = s.getOrigin();
float angle = atan2(challenge->m_position.X - xyz[0],
challenge->m_position.Z - xyz[2]);
s.setRotation( btQuaternion(btVector3(0.0f, 1.0f, 0.0f), angle) );
moveKartTo(kart, s);
return;
}
} // onMouseClick
/** This function is called after instanciating. This can't be moved to the
* contructor as child classes must be instanciated, otherwise polymorphism
* will fail and the results will be incorrect . Also in init() functions
* can be called that use World::getWorld().
*/
void World::init()
{
race_state = new RaceState();
m_faster_music_active = false;
m_fastest_kart = 0;
m_eliminated_karts = 0;
m_eliminated_players = 0;
m_num_players = 0;
// Create the race gui before anything else is attached to the scene node
// (which happens when the track is loaded). This allows the race gui to
// do any rendering on texture.
createRaceGUI();
// Grab the track file
m_track = track_manager->getTrack(race_manager->getTrackName());
if(!m_track)
{
std::ostringstream msg;
msg << "Track '" << race_manager->getTrackName()
<< "' not found.\n";
throw std::runtime_error(msg.str());
}
// Create the physics
m_physics = new Physics();
unsigned int num_karts = race_manager->getNumberOfKarts();
//assert(num_karts > 0);
// Load the track models - this must be done before the karts so that the
// karts can be positioned properly on (and not in) the tracks.
m_track->loadTrackModel(this, race_manager->getReverseTrack());
for(unsigned int i=0; i<num_karts; i++)
{
std::string kart_ident = history->replayHistory()
? history->getKartIdent(i)
: race_manager->getKartIdent(i);
int local_player_id = race_manager->getKartLocalPlayerId(i);
int global_player_id = race_manager->getKartGlobalPlayerId(i);
AbstractKart* newkart = createKart(kart_ident, i, local_player_id,
global_player_id,
race_manager->getKartType(i));
m_karts.push_back(newkart);
m_track->adjustForFog(newkart->getNode());
} // for i
if(ReplayPlay::get())
ReplayPlay::get()->Load();
resetAllKarts();
// Note: track reset must be called after all karts exist, since check
// objects need to allocate data structures depending on the number
// of karts.
m_track->reset();
if(!history->replayHistory()) history->initRecording();
if(ReplayRecorder::get()) ReplayRecorder::get()->init();
network_manager->worldLoaded();
powerup_manager->updateWeightsForRace(num_karts);
// erase messages left over
RaceGUIBase* rg = getRaceGUI();
if (rg)
{
rg->init();
rg->clearAllMessages();
}
} // init
