Aide pour un projet en C++

Bonjour!
ça est ce que j'ai fait et ce qui mon donnée pour faire ce projet...
si vous voulez voir le site du projet lee site c'est cowww.epfl.ch/infgmel/et pas www. etc...salut et merci!
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#include <vector>
#include <iostream>
#include "Setup.h"
#include "Player.h"
#include "ConfigFile.h"
using namespace std;


//constructeur de la classe Setup

Setup::Setup(vector<Player>players, int difficulty)
{
int nbrplayer=2;
for(int o(0);o<nbrplayer;o++)
{
players.push_back(o);
}
this->difficulty=difficulty;
for(int i(0);i < players.size();i++)
{
this->players[i]=players[i];
};

}

//constructeur de copie de la même classe

Setup::Setup(const Setup& setup)
{

this->difficulty=setup.difficulty;

for(int j(0);j<players.size();j++)
{
this->players[j]=Setup.players[j];
};

}


//ici on surcharge l'operateur d'affectation (=)

Setup& Setup::operator=(const Setup& setup)
{
difficulty=setup.difficulty;

for(int k(0);k<players.size();k++)
{
players[k]=Setup.players[k];
};
}

//on défini le getter de la liste des joueurs

vector<Player>& Setup::getPlayers(){return players;}

//on défini le getter de la difficulte

int Setup::getDifficulty(){return difficulty;}

//on défini le set de la difficulte

void Setup::setDifficulty(int diff){difficulty=diff;}

//ici on surcharge l'operateur d'affichage (<<)

Setup ostream& Setup::operator<<(ostream& out, const Setup& setup)
{
out << "La difficulte est " << setup.difficulty << endl;
for(int l(0);l<players.size();l++)
{
out << setup.players[l] << endl;
};

return out;
}





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#include "ConfigFile.h"
#include <iterator>

//constructeur
ConfigFile::ConfigFile(string fileName)
{
//ce methode va lire dans le fichier et "construit" la Map
ifstream read;
read.open(fileName.c_str());
if (read.fail())
{ cout << "Impossible to read" << fileName << endl; }
else
{
string cle;
string inutile;
string val;

while (!read.eof())
{read >>cle>>inutile>>val;
Map[cle] = atof(val.c_str());}
}
}

//Renvoi la valeur reél associe à la clef " name"

double ConfigFile::doubleValueOf(string name)
{
return Map.find(name)->second;
}

//Renvoi la valeur entier associe à la clef " name"

int ConfigFile::intValueOf(string name)
{
return (int)Map.find(name)->second;
}

//ça sert à faire retourner la table de définition

map<string, double> ConfigFile::getMap() const
{
return Map;
}



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#ifndef __CONFIGFILE_H__
#define __CONFIGFILE_H__ 1

#include <iostream>
#include <fstream>
#include <string>
#include <map>

using namespace std;

// La classe ConfigFile permet d'aller lire un fichier de configuration.

class ConfigFile
{
public:
// constructeur
ConfigFile(string fileName);
// destructeur
~ConfigFile() {}

// retourne le double associé à la clef "name"
double doubleValueOf(string name);
// retourne l'entier associé à la clef "name"
int intValueOf(string name);
// retourne la table de définition
map<string, double> getMap() const;
// surcharge externe de l'opérateur <<
friend ostream& operator<<(ostream& sortie, const ConfigFile& config)
{
sortie << "Contenu de ConfigFile :" <<endl;
//parcours toute la table de définition à l'aide d'un itérateur => cours 18
for (map<string, double>::iterator mapIt(config.getMap().begin());
mapIt!=config.getMap().end(); mapIt++)
{
sortie << "\t" <<mapIt->first <<"="<< mapIt->second<< endl;
}

return sortie;
}

private:
// déclaration de la map
map <string, double> Map;
//declaration de la string qui est le nom du fichier de lecture
string fileName;

};

#endif



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#include "GameScreen.h"

using namespace std;


// ça défini le getteur de l'hauteur
double GameScreen::getHeight()

{return height;}
//ça défini le getteur de largeur
double GameScreen:: getWidth()
{return width;}


//ça défini le constructeur
GameScreen::GameScreen(double width, double height)
{
this->width=width;
this->height=height;
}
//ça défini le constructeur de copie
GameScreen::GameScreen(const GameScreen& GameScreen)
{
height=GameScreen.height;

width=GameScreen.width;
}


//ça défoni la surcharge de =
GameScreen& GameScreen::operator=(const GameScreen& GameScreen)
{
this->height=GameScreen.height;
this->width=GameScreen.width;
return(*this);
}

//ça défini la surcharge de <<
ostream& operator<<(ostream& cout , const GameScreen& GameScreen)
{
cout << "L ecran a une hauteur de " << GameScreen.height << " pixels et une largeur de " << GameScreen.width << " pixels." << endl;
return cout;
}






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#ifndef __GAME_SCREEN_H__
#define __GAME_SCREEN_H__ 1

#include <iostream>

using namespace std;

class GameScreen
{
public:
// constructeur
GameScreen(double width, double height);
// constructeur de copie
GameScreen(const GameScreen& GameScreen);
// destructeur
~GameScreen() {}

// surcharge de l'opérateur d'affectation
GameScreen& operator=(const GameScreen& gameScreen);

// retourne la hauteur
double getHeight();
// retourne la largeur
double getWidth();
// surcharge externe de l'opérateur <<
friend ostream& operator<<(ostream& cout, const GameScreen& GameScreen);

private:
//décalaration des variables
double height;
double width;
};

#endif



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## MAKEFILE POUR LE PROJET SPACEROCK

CFLAGS = -g -Wall `pkg-config gtk+-2.0 --cflags`
CXXFLAGS = -g -Wall `pkg-config gtk+-2.0 --cflags` -I/usr/local/mysql/include/mysql
DB_LIBS = -L/usr/local/mysql/lib/mysql -lmysqlclient
CC = gcc
CXX = g++
GL_LIBS = /usr/openwin/lib/libGL.so.1 /usr/openwin/lib/libGLU.so.1
GLUT_DIR = /home/infgmel3/projet/demo
GLUT_LIBS = $(GLUT_DIR)/libglut.so -lXmu -lXext -lXi -lX11 -lm
INFGMELHOME = /home/infgmel/pub/projet


# objets de base
BASEHDRS = ConfigFile.h GameScreen.h Player.h Scores.h Setup.h
BASEOBJS = ConfigFile.o GameScreen.o Player.o Scores.o Setup.o

PARTICLEOBJS = Particle.o Foe.o Friend.o Ship.o Bullet.o Rock.o ParticleType.o
PARTICLEHDRS = Particle.h Foe.h Friend.h Ship.h Bullet.h Rock.h

GLLHDRS = gll/gllSprite.h gll/gllProcess.h gll/gllFont.h gll/gllLibrary.h gll/gllTextures.h gll/gllBMParser.h
GLLOBJS = gll/gllSprite.o gll/gllProcess.o gll/gllFont.o gll/gllLibrary.o gll/gllTextures.o gll/gllBMParser.o

## COMMANDE PAR DEFAUT: tout construire
all: test_base test_particle sprite level SpaceRock


## MAKE SPACEROCK: pour construire le programme SpaceRock
SpaceRock: gllib $(BASEOBJS) $(PARTICLEOBJS) Game.o Level.o SetupPanel.o SpaceRock.o
$(CXX) $(CXXFLAGS) $(GL_LIBS) $(GLUT_LIBS) $(DB_LIBS) $(BASEOBJS) $(PARTICLEOBJS) $(GLLOBJS) Game.o Level.o\
$(INFGMELHOME)/objs/Database.o SetupPanel.o SpaceRock.o -o SpaceRock


## NETTOYAGE
clean:
rm -f core gll/*.o
rm -f core *.o SpaceRock test_base test_particle test_sprite test_level

## MAKE BASE: pour construire le programme test_base
test_base: $(BASEOBJS) test_base.o
$(CXX) $(CXXFLAGS) $(BASEOBJS) test_base.o -o test_base
test_base.o: $(BASEHDRS) test_base.cc

## MAKE PARTICLE: pour construire le programme test_particle
## attention, ce programme ne compilera plus tel quel lorsque vous aurez implémenté gllSprite
test_particle: $(PARTICLEOBJS) test_particle.o
$(CXX) $(CXXFLAGS) $(PARTICLEOBJS) $(BASEOBJS) test_particle.o -o test_particle
test_particle.o: $(PARTICLEHDRS) ConfigFile.h test_particle.cc

## MAKE SPRITE: pour construire le programme test_sprite
sprite: gllib $(BASEOBJS) $(PARTICLEOBJS) test_sprite.o
$(CXX) $(CXXFLAGS) $(GL_LIBS) $(GLUT_LIBS) $(GLLOBJS) $(BASEOBJS) $(PARTICLEOBJS) test_sprite.o -o test_sprite
test_sprite.o: $(BASEHDRS) $(PARTICLEHDRS) $(GLLHDRS) test_sprite.cc

## MAKE LEVEL: pour construire le programme test_level
level: gllib $(BASEOBJS) $(PARTICLEOBJS) Level.o test_level.o
$(CXX) $(CXXFLAGS) $(GL_LIBS) $(GLUT_LIBS) $(BASEOBJS) $(PARTICLEOBJS) $(GLLOBJS) Level.o test_level.o -o test_level
test_level.o: $(BASEHDRS) Particle.h $(GLLHDRS) test_level.cc

## REGLES POUR GLLIB
gllib: $(GLLOBJS)
gll/gllSprite.o: gll/gllSprite.cc $(GLLHDRS)
gll/gllProcess.o: gll/gllProcess.cc $(GLLHDRS)
gll/gllFont.o: gll/gllFont.cc $(GLLHDRS)
gll/gllLibrary.o: gll/gllLibrary.cc $(GLLHDRS)
gll/gllBMParser.o: gll/gllBMParser.cc $(GLLHDRS)
gll/gllTextures.o: gll/gllTextures.cc $(GLLHDRS)

## REGLES POUR LES FICHIERS STANDARDS
Bullet.o: Bullet.cc $(PARTICLEHDRS)
ConfigFile.o: ConfigFile.cc ConfigFile.h
Game.o: Game.cc Game.h $(BASEHDRS) $(PARTICLEHDRS) $(GLLHDRS)
GameScreen.o: GameScreen.cc GameScreen.h
Foe.o: Foe.cc Foe.h Particle.h
Friend.o: Friend.cc Friend.h Particle.h Player.h
Level.o: Level.cc Level.h GameScreen.h $(PARTICLEHDRS) $(GLLHDRS)
Particle.o: Particle.cc Particle.h GameScreen.h
ParticleType.o: ParticleType.cc ParticleType.h
Rock.o: Rock.cc Rock.h Particle.h ParticleType.h Foe.h ConfigFile.h
Player.o: Player.cc Player.h
Setup.o: Player.h Setup.h Scores.h ConfigFile.h Setup.cc
Scores.o: Player.h Setup.h Scores.h Scores.cc
SetupPanel.o: SetupPanel.cc SetupPanel.h Game.h
Ship.o: Ship.cc Ship.h Particle.h Friend.h ParticleType.h ConfigFile.h
SpaceRock.o: SpaceRock.cc Game.h SetupPanel.h HighScores.h $(INFGMELHOME)/include/Database.h



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#include "Particule.h"
#include <cmath>
using namespace std;


//constructeur
Particule::Particule(double coordx, double coordy, double vitesse, double direction,
double taille, double angleRotation,
GameScreen* ecran)
{
this->coordx = coordx;
this->coordy = coordy;
this->vitesse = vitesse;
this->direction = direction;
this->taille = taille;
this->angleRotation = angleRotation;
this->ecran = ecran;
}

//les getteurs:
double Particule::getCoordx(){return coordx;}
double Particule::getCoordy(){return coordy;}
double Particule::getVitesse(){return vitesse;}
double Particule::getDirection(){return direction;}
double Particule::getTaille(){return taille;}
double Particule::getAngleRotation(){return angleRotation;}
GameScreen* Particule::getEcran(){return ecran;}


//setteurs:
void Particule::setCoordx(double coordx){this->coordx = coordx;}
void Particule::setCoordy(double coordy){this->coordy = coordy;}
void Particule::setVitesse(double vitesse){this->vitesse = vitesse;}
void Particule::setDirection(double direction){this->direction = direction;}
void Particule::setTaille(double taille){this->taille = taille;}
void Particule::setAngleRotation(double angleRotation){this->angleRotation = angleRotation;}
void Particule::setEcran(GameScreen* ecran){this->ecran = ecran;}

//collision!!
bool Particule::Collision(Particule& a)
{
double distance;
distance = sqrt(pow(a.coordx-this->coordx , 2)+pow(a.coordy-this->coordy , 2));
if (distance<= ((0.8)*(a.taille+this->taille)))
return true;
else
return false;
}
//step
void Particule::Step (double t)
{
double deplacex;
double deplacey;

deplacex =coordx+ vitesse*t*cos(direction);

if ((deplacex) >(*ecran).getWidth())
coordx =deplacex-(*ecran).getWidth();
else if (deplacex < 0)
coordx = deplacex + (*ecran).getHeight();
else
coordx= deplacex;

deplacey = coordy +vitesse*t*sin(direction);

if (deplacey > (*ecran).getHeight())
coordy = deplacey - (*ecran).getHeight();
else if (deplacey<0)
coordy = deplacey + (*ecran).getHeight();
else
coordy = deplacey;
}


//surcharge externe de <<

ostream& operator << (ostream& out, const Particule* particle)
{
out << (*particle).coordx << (*particle).coordy;
out << (*particle).vitesse << (*particle).direction << (*particle).taille;
out << (*particle).angleRotation << (*particle).ecran <<endl;
}




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#include <iostream>
#include "GameScreen.h"

using namespace std;

class Particule
{protected:
//Constructeur et distructeur
Particule(double coordx, double coordy, double vitesse, double direction,
double taille, double angleRotation,
GameScreen* ecran);
~Particule(){}
//getteurs:
double getCoordx();
double getCoordy();
double getVitesse();
double getDirection();
double getTaille();
double getAngleRotation();
GameScreen* getEcran();

//et les setteurs
void setCoordx(double coordx);
void setCoordy(double coordy);
void setVitesse(double vitesse);
void setDirection(double direction);
void setTaille(double taille);
void setAngleRotation(double angleRotation);
void setEcran(GameScreen* ecran);

//methodes particuliérs:

//collision entre deux particules
bool Collision(Particule& a);

//step:celui qui calcule la nouvelle position, angluation, ecc
virtual void Step(double t);

//display qui est virtuel
virtual ostream& display (ostream& out)const =0;

//methodes Virtuelles:isFriend et getType
virtual bool isFriend();
virtual int getType();

//fonction virtuelle qui affichera:

virtual ostream display (ostream& out);

//surcharge externe de l'operateur <<

friend ostream& operator<< (ostream& , const Particule*);


private:
//declaration des attributs
//coordonnes
double coordx;
double coordy;
//vitesse linéaire
double vitesse;
//direction de mouvement
double direction;
//rayon de la taille de la particule
double taille;
//vitesse de rotation
double angleRotation;
//pointer sur l'ecran
GameScreen* ecran;

};



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#include "ParticleType.h"


ParticleType::ParticleType (){
Ship = 0 ;
Bullet = 1 ;
Rock = 2 ; }

bool ParticleType::isShip (int Var)
{

if ( Var == 0 )
return true;
else
return false;
}
bool ParticleType::isBullet (int Var)
{
if (Var == 1)
return true;
else
return false;
}
bool ParticleType::isRock (int Var)
{
if (Var ==2)
return true;
else
return false;

}

// getteur

int ParticleType::getShip ()
{
return 0;
}

int ParticleType::getBullet ()
{
return 1;
}

int ParticleType::getRock ()
{
return 2;
}



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#include <iostream>
using namespace std;


class ParticleType
{


public:
//constructeur
ParticleType();

// vérificateur

bool isShip (int Var);
bool isBullet(int Var);
bool isRock(int Var);

//déclaration de getteurs

int getShip ();
int getBullet();
int getRock();

protected:

// attribution d'un éntier au trois type de particule

int Ship ;
int Bullet ;
int Rock ;
};




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#include "Player.h"
#include <iostream>
#include <string>
using namespace std;

//constructeur de la classe Player

Player::Player(string name, Scores* scores)
{

this->name=name;
this->scores= new(Scores);
this->scores = scores;
}

//constructeur de copie de la classe Player

Player::Player(const Player& player)
{
this->name=player.name;
this->scores=player.scores;
}

//destructeur de la classe Player

Player::~Player()
{
delete scores;
}

//ici on fait une surcharge de l operateur =

Player& Player::operator=(const Player& player)
{
this->name=player.name;
this->scores=player.scores;
}

// killer du player

void Player::setAlive(bool alive)
{
this->alive=alive;
}

//assigne un nom au joueur

string Player::getName(){return name;}

// verifeie si le vasseau du jouer est en vie

bool Player::isAlive()
{
return alive;
}


//retourne l'objet scores

Scores* Player::getScores(){return scores;}

//definition de l'attribut scores

void Player::setScores(Scores* s)
{ scores=s;}

// surcharge d'operateur <<
ostream& operator<<(ostream& out,const Player& player)
{ out << "Nom du joueur " << player.name << endl << player.scores << endl;
return out;
}




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#ifndef __PLAYER_H__
#define __PLAYER_H__ 1

#include <string>
#include <iostream>
#include "Scores.h"

using namespace std;

class Player
{
public:
// constructeur
Player(string name, Scores* scores = new Scores());
// constructeur de copie
Player(const Player& player);
// destructeur
~Player();

// surchage interne de l'opérateur d'affectation
Player& operator=(const Player & player);

// indique que le vaisseau du joueur est mort
void setAlive(bool alive);
// verifie si le vaisseau du joueur est en vie
bool isAlive();
// retourne le nom du joueur
string getName();
// retourne l'objet Scores
Scores* getScores();
// definit l'attribut scores
void setScores(Scores* s);
// surcharge externe de <<
friend ostream& operator<<(ostream& out, const Player& player);

private:
//déclaration des variables
string name;
bool alive;
Scores* scores;
};
#endif



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#include "Scores.h"
#include <iostream>
using namespace std;


// Constructeur de la classe scores

Scores::Scores(int lastLevelReached, int score)
{
this->lastLevelReached=lastLevelReached;
this->score=score;
}

//constructeur par defaut de la classe scores

Scores::Scores(){}

//constructeur de copie tousjours de la classe scores

Scores::Scores(const Scores& scores)
{
this->lastLevelReached=scores.lastLevelReached;
this->score=scores.score;
}

//ici on surcharge l'operateur d'affectation (=)

Scores& Scores::operator=(const Scores& scores)
{
this->lastLevelReached=scores.lastLevelReached;
this->score=scores.score;
return(*this);
}

//on définit le getter du dernier niveau atteint

int Scores::getLastLevelReached(){return lastLevelReached;}

//on définit le set du niveau atteint

void Scores::setLastLevelReached(int lastLevelReached){this->lastLevelReached=lastLevelReached;}

//on définit le getter du score

int Scores::getScore(){return score;}

//on définit le set du score

void Scores::setScore(int score){this->score=score;}

//ici on surcharge l' operateur d'affichage (<<)


ostream& operator<<(ostream& out, const Scores& scores)
{
out << "Scores: " << scores.score << endl << "Dernier niveau atteint: "
<< scores.lastLevelReached << endl;
return out;
}



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#ifndef __SCORES_H__
//Pour verifier qu'il n'y ait qu'une inclusion du fichier.
#define __SCORES_H__ 1

#include <iostream>

using namespace std;

/*
* Cette classe contient toutes les informations sur les scores
* d'un joueur:
* - son niveau maximum atteint a cette partie;
* - son score.
*/

class Scores
{
public:
// constructeur
Scores(int lastLevelReached, int score);
//constructeur par defaut
Scores();
// constructeur de copie
Scores(const Scores& scores);
// destructeur
~Scores();

// operateur d'affectation.
Scores& operator=(const Scores& scores);

// retourne le niveau maximal atteint
int getLastLevelReached();
// met à jour le dernier niveau atteint
void setLastLevelReached(int lastLevelReached);
// retourne le score
int getScore();
// met à jour le score
void setScore(int score);
// surcharge externe de <<
friend ostream& operator<<(ostream& out, const Scores& scores);

private:
//déclaration des variables
int lastLevelReached;
int score;
};
#endif



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#include <vector>
#include <iostream>
#include "Setup.h"
#include "Player.h"
#include "ConfigFile.h"
using namespace std;
//constructeur de la classe Setup

Setup::Setup(vector<Player>players, int difficulty)
{
this-> players=players;
this-> difficulty=difficulty;
}

//constructeur de copie de la même classe

Setup::Setup(const Setup& setup)
{

this->difficulty=setup.difficulty;

for(int j(0);j<players.size();j++)
{
this->players[j]=Setup.players[j];
};

}


//ici on surcharge l'operateur d'affectation (=)

Setup& Setup::operator=(const Setup& setup)
{
difficulty=setup.difficulty;

for(int k(0);k<players.size();k++)
{
players[k]=Setup.players[k];
};
}

//on défini le getter de la liste des joueurs

vector<Player>& Setup::getPlayers(){return players;}

//on défini le getter de la difficulte

int Setup::getDifficulty(){return difficulty;}

//on défini le set de la difficulte

void Setup::setDifficulty(int diff){difficulty=diff;}

//ici on surcharge l'operateur d'affichage (<<)

Setup ostream& Setup::operator<<(ostream& out, const Setup& setup)
{
out << "La difficulte est " << setup.difficulty << endl;
for(int l(0);l<players.size();l++)
{
out << setup.players[l] << endl;
};

return out;
}





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#ifndef __SETUP_H__
#define __SETUP_H__ 1

#include <vector>
#include <iostream>
#include "Player.h"
#include "ConfigFile.h"

using namespace std;

class Setup
{
public:
/*
* Pourquoi utiliser un vecteur de joueurs alors que le jeu en
* possede seulement deux? Tout simplement pour faciliter
* eventuelle extension: si l'on decide soudain que l'on veut
* pouvoir jouer a 4 joueurs, il ne sera pas necessaire de
* modifier le code de gestion de joueurs puisque le vecteur est
* dynamique.
*/
//constructeur
Setup(vector<Player> players, int difficulty);
// constructeur de copie
Setup(const Setup& setup);
// destructeur
~Setup();

// surcharge de l'operateur d'affectation
Setup& operator=(const Setup& setup);

// retourne la liste des joueurs
vector<Player>& getPlayers();
// retourne le niveau de jeu actuel
int getDifficulty();
// definit le niveau de jeu actuel
void setDifficulty(int diff);
// surcharge externe de <<
friend ostream& operator<<(ostream& out, const Setup& setup);

private:
//déclaration des variables
int nbrPlayer;
vector <Player> players;
int difficulty;
};

#endif



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#include "Scores.h"
#include "Setup.h"
#include "Player.h"
#include "ConfigFile.h"
#include "GameScreen.h"
#include <iostream>
using namespace std;

int main(int argc, char *argv[])
{
cout << "***Testing GameScreen******************************"<<endl;
GameScreen* gs = new GameScreen(1280,768);
cout << (*gs) << endl;
GameScreen gs_2 = *gs;
cout << "Width= "<<gs_2.getWidth()<<endl;
cout << "height= "<<gs_2.getHeight()<<endl;
cout << gs_2 <<endl;
cout << "***End Testing GameScreen**************************\n\n"<<endl;

cout << "***Testing Scores******************************"<<endl;
Scores score(3,500);
cout << score<<endl;
score.setLastLevelReached(10);
score.setScore(1000);
cout << "score.last level:=" << score.getLastLevelReached()<<endl;
cout << "score.score:=" << score.getScore()<<endl;
cout << score<<endl;
Scores score_2=score;
cout << "Score #2= " << score_2<<endl;
cout << "***End Testing Scores**************************\n\n"<<endl;

cout << "***Testing Player******************************"<<endl;
Scores* score_3= new Scores(score_2);
Player player("Vincent",score_3);
cout << player<<endl;
Player player_1=player;
cout << "Player #1" << player_1 <<endl;
Player player_2("Basile",player.getScores());
player_2.setAlive(false);
cout << "Player #2 " <<"state:=" << player_2.isAlive()<<endl;
cout << "Player #2 " <<"name:=" <<player_2.getName()<<endl;
player_2.setScores(new Scores(5,200));
cout << "Player #2 " <<"score:="<<*player_2.getScores()<<endl;
cout << "Player #2 " <<player_2<<endl;
cout << "***End Testing Player**************************\n\n"<<endl;

cout << "***Testing Setup*******************************"<<endl;
vector<Player> joueurs;
joueurs.push_back(player);
joueurs.push_back(player_2);
Setup setup(joueurs,0);
cout << setup<<endl;

Setup setup_2=setup;
setup_2.setDifficulty(20);
cout <<"Setup #2 " <<setup_2<<endl;

setup.getPlayers()[0].getScores()->setLastLevelReached(8);
cout << "Level =" << setup.getPlayers()[0].getScores()->getLastLevelReached()<<endl;
setup.getPlayers()[0].getScores()->setScore(101);
cout << "Score =" << setup.getPlayers()[0].getScores()->getScore()<<endl;
setup.getPlayers()[0].setAlive(true);
cout << "isAlive =" <<setup.getPlayers()[0].isAlive()<<endl;
cout<<setup<<endl;
cout << "***End Testing Setup***************************\n\n"<<endl;

cout << "***Testing ConfigFile****************************"<<endl;
ConfigFile cf("Rock.conf");
cout << cf;
cout << "Value of damage:= "<<cf.doubleValueOf("damage")<<endl;
cout << "***End Testing ConfigFile************************\n\n"<<endl;
}



--------------------------------------------------------------------------------


#include "gll/gllLibrary.h"

#include <iostream>

#include "Setup.h"
#include "Level.h"
#include "GameScreen.h"
#include "Rock.h"
#include "Ship.h"
#include "Bullet.h"

using namespace std;

GameScreen gs(640, 480);
Setup *setup;
Level *level;


// Boucle principale
void test_levelIdleFunc()
{
// A FAIRE : implémenter le comportement de ce processus
double dt = gllTimer(TIMER_GETELAPSEDTIME);
if (dt == 0.0)
{
gllout << gllsetup(16,11,640,480);
gllTimer(TIMER_RESET);
gllTimer(TIMER_START);
}

level->step(dt);

Level::LEVEL_OVER state;
if (state = level->isOver())
{
if (state == Level::ALL_SHIPS_DEAD)
{

delete level;
delete setup;
exit(0);
}
else{
gllTimer(TIMER_STOP);
level = new Level(level);
}

}

// Demande à glut de redessiner la fenêtre graphique
glutPostRedisplay();
}

// Fonction d'affichage
void test_levelDisplayFunc()
{
// Efface le contenu de la fenêtre
glClear(GL_COLOR_BUFFER_BIT);

// A FAIRE : Appeler les fonctions d'affichage
level->show();


// Met à jour le contenu de la fenêtre
glutSwapBuffers();
}

// FONCTION MAIN
int main(int argc, char *argv[])
{
// Processus gllib
gllProcessInformation *pi = new gllProcessInformation();
pi->name = "test_level_process";
pi->realTime = true;
pi->idleFunc = test_levelIdleFunc;
pi->displayFunc = test_levelDisplayFunc;
gllRegisterProcess(pi);


vector<Player> players;
players.push_back(Player("jean-claude"));
players.push_back(Player("popeye"));
setup = new Setup(players, 1);
level = new Level(setup, &gs);


// Démarre gllib
// Le processus donnée en dernier argument sera activé
// Les autres arguments servent à donner un nom à la fenêtre graphique
// ainsi que ses dimensions
gllMainLoop(argc, argv, argv[0], 640, 480, "test_level_process");

return 0;
}



--------------------------------------------------------------------------------


#include "Particle.h"
#include "Foe.h"
#include "Friend.h"
#include "Ship.h"
#include "Bullet.h"
#include "Rock.h"
#include "ConfigFile.h"
#include <vector>
#include <iostream>
using namespace std;

//le temps
const double dt=0.5;

int main(int argc, char *argv[])
{
Player* p1 = new Player("Vincent",new Scores(5,100));
Player* p2 = new Player("Basile",new Scores());

cout << "***Testing GameScreen******************************"<<endl;
GameScreen* gs = new GameScreen(1280,768);
cout << (*gs) << endl;
cout << "***End Testing GameScreen**************************\n\n"<<endl;

//contains the particles
vector<Particle *> particles;

cout << "***Testing Ship**********************************"<<endl;
Ship* s1= new Ship(gs,p1);
particles.push_back(s1);
cout << s1 <<endl;
Ship* s2= new Ship(gs,p2);
particles.push_back(s2);
cout << s2 <<endl;
cout << "***End Testing Ship******************************\n\n"<<endl;

cout << "***Testing Bullet**********************************"<<endl;
Bullet* b1= new Bullet(s1,gs);
particles.push_back(b1);
cout << b1 <<endl;
Bullet* b2= new Bullet(s2,gs);
particles.push_back(b2);
cout << b2 <<endl;
cout << "***End Testing Bullet******************************\n\n"<<endl;

cout << "***Testing Rock************************************"<<endl;
// le premier paramètre de Rock est le niveau de difficulté,
// qui est utilisé pour calculer leur vitesse
Rock* r1= new Rock(3,gs);
particles.push_back(r1);
cout << r1 <<endl;
cout << "***End Testing Rock******************************\n\n"<<endl;

cout << "***Testing virtual method step*******************"<<endl;
cout << "Timestamp= "<<dt << endl;
for (int i=0;i<particles.size();i++)
{
particles[i]->step(dt);
if (particles[i]->isFriend())
cout<<"Allie (type "<<particles[i]->getType()<<")=>" ;
else
cout<<"Ennemie (type "<<particles[i]->getType()<<")=>" ;
cout << particles[i] << endl;
}
//fait avancer seulement la particule 0
for (int i=0;i<500;i++)
{
particles[0]->step(dt);
}
cout << particles[0] << endl;
cout << "***End Testing step******************************\n\n"<<endl;

cout << "***Testing method colision***********************"<<endl;
for (int i=0;i<particles.size()-1;i++)
{
if (particles[i]->collision(*particles[i+1]))
cout << "Particles "<<i<< " en collision avec particles "<<i+1<<endl;
if (particles[i]->collision(*particles[i]))
cout << "Particles "<<i<< " en collision avec elle meme "<<endl;

}
cout << "***End Testing collision******************************\n\n"<<endl;

}



--------------------------------------------------------------------------------


#include "gll/gllLibrary.h"

#include <iostream>

#include "GameScreen.h"
#include "Rock.h"
#include "Ship.h"
#include "Bullet.h"

using namespace std;

gllSprite sprite(10.0, -1);
double x_pos = 0.0;

GameScreen gs(320, 240);
Rock rock(0, &gs);
Scores scores;
Player player("a_player",&scores);
Ship ship(&gs, &player);
Bullet bullet(&ship, &gs);


// Boucle principale
void test_spriteIdleFunc()
{
// A FAIRE : implémenter le comportement de ce processus
double dt = gllTimer(TIMER_GETELAPSEDTIME);
x_pos += 40.0 * dt;
while (x_pos > 320.0)
x_pos -= 320.0;
sprite.translate(x_pos, 120.0);
rock.step(dt);
ship.step(dt);
bullet.step(dt);

// Demande à glut de redessiner la fenêtre graphique
glutPostRedisplay();
}

// Fonction d'affichage
void test_spriteDisplayFunc()
{
// Efface le contenu de la fenêtre
glClear(GL_COLOR_BUFFER_BIT);

// A FAIRE : Appeler les fonctions d'affichage
glColor4f(0.1,0.3,0.2,0.7);
gllDrawRect(0,20,320,200,-1);

sprite.blit();

rock.blit();
ship.blit();
bullet.blit();


// Met à jour le contenu de la fenêtre
glutSwapBuffers();
}

// FONCTION MAIN
int main(int argc, char *argv[])
{
// Processus gllib
gllProcessInformation *pi = new gllProcessInformation();
pi->name = "test_sprite_process";
pi->realTime = true;
pi->idleFunc = test_spriteIdleFunc;
pi->displayFunc = test_spriteDisplayFunc;
gllRegisterProcess(pi);

sprite.color(1.0, 0.0, 0.0, 0.6);
ship.x = 160;
ship.y= 120;
ship.direction = PI/2.0;
bullet.x = 160;
bullet.y = 110;
bullet.direction = PI/2.0;


gllTimer(TIMER_START);

// Démarre gllib
// Le processus donnée en dernier argument sera activé
// Les autres arguments servent à donner un nom à la fenêtre graphique
// ainsi que ses dimensions
gllMainLoop(argc, argv, argv[0], 320, 240, "test_sprite_process");

return 0;
}



--------------------------------------------------------------------------------


/*---------------------------------------------------------------------*\
| GLLIB : FONCTIONS GRAPHIQUES / ENTREES / TEMPS REEL |
| |
| Fichier: gllBMParser.bmp |
\*---------------------------------------------------------------------*/



/*
BMParser.cpp
Copyright (c) 2003 Thibault Genessay

See the header 'gllBMParser.h' for informations
*/

#ifdef WIN32
#include "windows.h"
#endif

#include <GL/gl.h>
#include <GL/glut.h>
#include "stdio.h"
#include "math.h"
#include <string.h>

#include "gllBMParser.h"

BMParser::BMParser(const char* bitmap) {
iErrors = 0;
strcpy(filename,bitmap);
pBitmap = NULL;
file = NULL;
if (strcmp(bitmap, "") == 0)
{
printf("BMP loader error : no file name specified\n");
iErrors++;
}else
if ((file = fopen(bitmap, "rb"))==NULL)
{
printf("BMP loader error : could not open file\n");
iErrors++;
}
sz = 0;
}

BMParser::~BMParser() {
if (file != NULL)
fclose(file);
}

void BMParser::Read(void* lpBuf, UINT nCount, bool inverse) {
if (fread(lpBuf, nCount, 1, file) != 1)
error("unexpected end of file");
#ifndef WIN32
if (inverse)
{
// inverse data for non x86 processors
char* begin = (char*)lpBuf, *end = (char*)lpBuf+nCount-1;
while (begin < end)
{
char tmp = *begin;
*begin = *end;
*end = tmp;
begin++;
end--;
}
}
#endif
sz+= nCount;
}

Bitmap* BMParser::Parse()
{
try {
// printf("reading header\n");
if (iErrors)
error("file is not open");
pBitmap = new Bitmap;
Read(pBitmap->sIdentifier, 2);
Read(&pBitmap->dwFileSize, sizeof(DWORD));
Read(&pBitmap->dwReserved, sizeof(DWORD));
Read(&pBitmap->dwDataOffset, sizeof(DWORD));
Read(&pBitmap->dwHeaderSize, sizeof(DWORD));
Read(&pBitmap->dwWidth, sizeof(DWORD));
Read(&pBitmap->dwHeight, sizeof(DWORD));
Read(&pBitmap->wPlanes, sizeof(WORD));
// printf("# of planes : %d\n", pBitmap->wPlanes);
if (pBitmap->wPlanes != 1)
error("only one plane supported, multiple encountered");
Read(&pBitmap->wBpp, sizeof(WORD));
Read(&pBitmap->dwCompression, sizeof(DWORD));
Read(&pBitmap->dwDataSize, sizeof(DWORD));
pBitmap->dwPitch = (pBitmap->wBpp / 8) * pBitmap->dwWidth;
if (pBitmap->dwPitch%4 != 0)
pBitmap->dwPitch += 4-pBitmap->dwPitch%4;
if (pBitmap->dwDataSize == 0) // if size is not present, compute it
pBitmap->dwDataSize = pBitmap->dwPitch * pBitmap->dwHeight;
else
if (pBitmap->dwDataSize != pBitmap->dwPitch * pBitmap->dwHeight)
error("scan-line width * height != bitmap size !! <- this is an unexpected error, probably due to an incorrect file format");
Read(&pBitmap->dwHRes, sizeof(DWORD));
Read(&pBitmap->dwVRes, sizeof(DWORD));
Read(&pBitmap->dwColors, sizeof(DWORD));
Read(&pBitmap->dwImportantColors, sizeof(DWORD));
// printf("reading palette\n");
ReadPalette();
// printf("reading data\n");
ReadData();
return pBitmap;
} catch (BMError* e) {
printf("BMP parser error : %s\n", e->msg);
if (pBitmap)
delete pBitmap;
return NULL;
}
}

void BMParser::ReadPalette()
{
if (pBitmap->wBpp == BPP_MONOCHROME)
error("unsupported format : monochrome BMP");
if (pBitmap->wBpp == BPP_16COLORS)
error("unsupported format : 4 bpp BMP");
if (pBitmap->wBpp == BPP_256COLORS)
{
/* pBitmap->pPalette = new DWORD[256];
Read(pBitmap->pPalette, pBitmap->dwColors*sizeof(DWORD));*/
error("unsupported format : 8 bpp BMP");
}
if (pBitmap->wBpp == BPP_HIGHCOLOR)
error("unsupported format : 16 bpp BMP");
// 24 bpp and 32 bpp bitmaps do not contain any palette entriy if dwCompression is BI_RGB
// which is always the case here since other compression formats are not supported
}

void BMParser::ReadData()
{
if (pBitmap->dwCompression != BI_RGB)
{
char buf[64];
strcpy(buf, "unsupported compressed format : ");
if (pBitmap->dwCompression == BI_RLE4)
strcat(buf, "BI_RLE4");
if (pBitmap->dwCompression == BI_RLE8)
strcat(buf, "BI_RLE8");
if (pBitmap->dwCompression == BI_BITFIELDS)
strcat(buf, "BI_BITFILEDS");
error(buf);
}
pBitmap->pData = new unsigned char[pBitmap->dwDataSize];
// bmp files are stored bottom-up, so we need to invert the scan-lines
// i.e. the first line in the file is the bottom line of the image
for (DWORD i=0;i<pBitmap->dwHeight;i++)
{
fseek(file, pBitmap->dwDataOffset+(pBitmap->dwHeight-i-1)*pBitmap->dwPitch, SEEK_SET);
Read(&pBitmap->pData[i*pBitmap->dwPitch], pBitmap->dwPitch, false);
}

if (pBitmap->wBpp == BPP_TRUECOLOR)
{ // in this format, a line is a sequence of triplets (b,g,r), so we invert them to get (r,g,b)
for (DWORD i=0;i<pBitmap->dwDataSize;i+=3)
{
char tmp = pBitmap->pData[i];
pBitmap->pData[i] = pBitmap->pData[i+2];
pBitmap->pData[i+2] = tmp;
}
}
if (pBitmap->wBpp == BPP_32)
{ // in this format, a line is a sequence of triplets (b,g,r,a), so we invert them to get (r,g,b,a)
for (DWORD i=0;i<pBitmap->dwDataSize;i+=4)
{
char tmp = pBitmap->pData[i];
pBitmap->pData[i] = pBitmap->pData[i+2];
pBitmap->pData[i+2] = tmp;
}
}

}

bool BMParser::Failed(char *reason)
{
if (reason != NULL)
{
if (iErrors)
strcpy(reason, lastError);
else
strcpy(reason, "No error");
}
return iErrors == 0;
}

bool Bitmap::ColorKey(unsigned char key_r, unsigned char key_g, unsigned char key_b)
{
// Make a few checks first
if (pData == NULL)
{
printf("ColorKey() failed : image is empty !\n");
return false;
}
if (wBpp != BPP_TRUECOLOR)
{
printf("ColorKey() failed : keying is only available for 24 bpp images\n");
return false;
}

// Kepp the old pitch value, we'll need it to index the old data
DWORD oldPitch = dwPitch;
// Set new file format (24->32bpp)
wBpp = BPP_32;
// Recompute the image pitch and size
dwPitch = 4*dwWidth;
dwDataSize = dwPitch * dwHeight;
// Allocate new memory
unsigned char *newData = new unsigned char[dwDataSize];
// The key to look for
unsigned int key = (key_r<<16) + (key_g<<8) + key_b;
// Loop through all the pixels
for (DWORD line=0;line<dwHeight;line++)
{
for (DWORD c=0;c<dwWidth;c++)
{
unsigned int ir,ig,ib;
// The color of the current pixel
ir = pData[line*oldPitch+3*c];
ig = pData[line*oldPitch+3*c+1];
ib = pData[line*oldPitch+3*c+2];
// Compare it with the key
bool isKey = ((ir<<16) + (ig<<8) + ib) == key;
int offset = line*dwPitch + 4*c;
// Fill in new values. Set to black all transparent pixels
newData[ offset ] = isKey ? 0 : ir;
newData[offset + 1] = isKey ? 0 : ig;
newData[offset + 2] = isKey ? 0 : ib;
newData[offset + 3] = isKey ? 0 : 0xFF;
}
}
// Update the pData pointer
delete[] pData;
pData = newData;
return true;
}

inline void Bitmap::ColorAt(unsigned int x, unsigned int y, unsigned char* r, unsigned char* g, unsigned char* b, unsigned char* a)
{
int offset = y*dwPitch+(wBpp/8)*x;
*r = pData[offset];
*g = pData[offset+1];
*b = pData[offset+2];
if (wBpp == 32)
*a = pData[offset+3];
}

inline void Bitmap::ColorAt(unsigned int x, unsigned int y, unsigned char rgba[])
{
int offset = y*dwPitch+(wBpp/8)*x;
for (int i=0;i<wBpp/8;i++)
rgba[i] = pData[offset+i];
}

void Bitmap::Filter(int filter[3][3])
{
unsigned char* newData = new unsigned char[dwDataSize];
for (DWORD l=0;l<dwHeight;l++)
{
for (DWORD c=0;c<dwWidth;c++)
{
int rgba_dest[4];
unsigned char rgba_src[4];
if (c>0&&c<dwWidth-1&&l>0&&l<dwHeight-1)
{
for (int x=-1;x<=1;x++)
{
for (int y=-1;y<=1;y++)
{
int factor = filter[x+1][y+1];
ColorAt(c+x,l+y,rgba_src);
for (int i=0;i<wBpp/8;i++)
{
rgba_dest[i] += factor*rgba_src[i];
}
}
}
for (int i=0;i<wBpp/8;i++)
{
rgba_dest[i] /= 9;
if (rgba_dest[i]<0)
rgba_src[i] = 0;
else if (rgba_dest[i]>255)
rgba_src[i] = 255;
else rgba_src[i] = rgba_dest[i];
}
memcpy(&newData[l*dwPitch+(wBpp/8)*c], rgba_src, wBpp/8*sizeof(unsigned char));
}else{
memcpy(&newData[l*dwPitch+(wBpp/8)*c], &pData[l*dwPitch+(wBpp/8)*c], wBpp/8*sizeof(unsigned char));
}
}
}
delete[] pData;
pData = newData;
}

void Bitmap::Smooth()
{
int filter[3][3] = {{1,1,1},{1,1,1},{1,1,1}};
Filter(filter);
}



--------------------------------------------------------------------------------


/*---------------------------------------------------------------------*\
| GLLIB : FONCTIONS GRAPHIQUES / ENTREES / TEMPS REEL |
| |
| Fichier: gllBMParser.h |
| Description: |
| Voir ci-dessous (en anglais) |
\*---------------------------------------------------------------------*/


/*
BMParser.h
Copyright (c) 2003 Thibault Genessay

Defines the BMParser class which allows to load bitmaps for easy use with OpenGL
It supports both Unix/Linux and Win32 platforms

It only supports a few formats because I don't have enough time to complete it
Feel free to add the lacking functionalities
Supported BMP formats:
True Color (24 bpp, RGB)
True Color with transparency (32 bpp, RGBA)
Unsupported formats:
monochrome BMP (1 bpp)
16 color BMP (4 bpp)
256 color BMP (8 bpp)
65536 color BMP (16 bpp)
and any compressed format

Usage:
Create a BMParser instance with the filename as the constructor's parameter
Call BMParser::Parse()
- if the call succeeds, it returns a Bitmap structure. The bitmap data
is stored in the pData field of this structure
- if any kind of error occured, it returns NULL

Notes:
- it is your responsibility to delete the Bitmap structure when
you don't need it anymore
- the constructor call cannot fail, hence if the file was not found, you
won't be notified until you call Parse() or Failed()
*/

#ifndef __BMPARSER_H
#define __BMPARSER_H

typedef unsigned long DWORD;
typedef unsigned short WORD;

#define ID_WINDOWS "BM"
#define ID_OS2_ARRAY "BA"
#define ID_OS2_COLORICON "CI"
#define ID_OS2_COLORPOINTER "CP"
#define ID_OS2_ICON "IC"
#define ID_OS2_POINTER "PT"

#define BPP_MONOCHROME 1
#define BPP_16COLORS 4
#define BPP_256COLORS 8
#define BPP_HIGHCOLOR 16
#define BPP_TRUECOLOR 24
#define BPP_32 32

#ifndef WIN32 // already defined in windows GDI
#define BI_RGB 0 // no compression
#define BI_RLE8 1 // 8-bit RLE
#define BI_RLE4 2 // 4-bit RLE
#define BI_BITFIELDS 3 // rarely used format
#define UINT unsigned int // Windows doesn't like unsigned ints, but loves UINTs
#endif //WIN32

// Represents a BMP file
struct Bitmap
{
char sIdentifier[2]; // a member of ID_XXX
DWORD dwFileSize; // file size in bytes
DWORD dwReserved; // reserved for later use
DWORD dwDataOffset; // offset to the data
DWORD dwHeaderSize; // may be 28h for windows, OCh for OS/2 1.x and F0h for OS/2 2.x
DWORD dwWidth; // width of the bitmap in pixels
DWORD dwHeight; // height
WORD wPlanes; // 1
WORD wBpp; // a member of BPP_XXX
DWORD dwCompression; // a member of BI_XXX
DWORD dwDataSize; // 32-bit aligned size of the data
DWORD dwHRes, dwVRes; // resolutions in pixel/meter
DWORD dwColors; // # of colors used in the bitmap
DWORD dwImportantColors;// # of important colors
DWORD *pPalette; // palette: for each entry, 4 bytes R,G,B,X (X is a filler set to 0) if appliable (1,4,and 8 bpp; no palette for 16, 24 and 32 bpp)
unsigned char *pData; // actual bitmap data
DWORD dwPitch; // actual scan-line width (32-bit aligned value of dwWidth)

Bitmap() {
pData = NULL;
pPalette = NULL;
}
~Bitmap() {
if (pData)
delete[] pData;
if (pPalette)
delete[] pPalette;
}

inline void ColorAt(unsigned int x, unsigned int y, unsigned char* r, unsigned char* g, unsigned char* b, unsigned char* a=NULL);
inline void ColorAt(unsigned int x, unsigned int y, unsigned char rgba[]);

bool ColorKey(unsigned char key_r, unsigned char key_g, unsigned char key_b);
void Filter(int filter[3][3]);
void Smooth();
};

// The parser itself
class BMParser
{
protected:
int iErrors;
struct BMError {
BMError(const char* _msg) {
strcpy(msg, _msg);
}
char msg[256];
};
void error(const char* msg) {
strcpy(lastError, msg);
iErrors++;
throw new BMError(msg);
}
int sz;
char filename[256];
FILE* file;
Bitmap* pBitmap;
void Read(void* lpBuf, UINT nCount, bool inverse = true);
void ReadPalette();
void ReadData();

char lastError[128];
public:
BMParser(const char* bitmap);
~BMParser();

Bitmap* Parse();
Bitmap* GetBitmap() { return pBitmap; };

bool Failed(char *reason);
};


#endif




--------------------------------------------------------------------------------


#include "gllFont.h"

gllFont gllout;

const int gllFont::bmpLines = 4;
const int gllFont::bmpColumns = 26;

gllFont::gllFont()
{
active = false;
for (int i=0;i<4;i++) color[i]=1.0f;
}


gllFont::CharPos gllFont::getCharPos(char ch)
{
int l,c;
if (ch >= 'a' && ch <= 'z')
{
l=0;
c=ch-'a';
}else if (ch >= 'A' && ch <= 'Z')
{
l=1;
c=ch-'A';
}else if (ch >= '0' && ch <= '9')
{
l=2;
c=ch-'0';
}else{
l=2;
switch (ch)
{
case 'à': c=10; break;
case 'â': c=11; break;
case '.': c=12; break;
case 'é': c=13; break;
case 'è': c=14; break;
case 'ê': c=15; break;
case 'ë': c=16; break;
case 'î': c=17; break;
case 'ï': c=18; break;
case 'ô': c=19; break;
case ',': c=20; break;
case 'ù': c=21; break;
case 'û': c=22; break;
case 'ü': c=23; break;
case '!': c=24; break;
case '?': c=25; break;
default:
{
l=3;
switch (ch) {
case '+': c=0; break;
case '-': c=1; break;
case '_': c=2; break;
case '=': c=3; break;
case '\'': c=4; break;
case '\"': c=5; break;
case ';': c=6; break;
case '^': c=7; break;
case '~': c=8; break;
case '*': c=9; break;
case 'ç': c=10; break;
case '%': c=11; break;
case '&': c=12; break;
case '/': c=13; break;
case '\\': c=14; break;
case '<': c=15; break;
case '>': c=16; break;
case '(': c=17; break;
case ')': c=18; break;
case '[': c=19; break;
case ']': c=20; break;
case '{': c=21; break;
case '}': c=22; break;
case '@': c=23; break;
case '#': c=24; break;
case ':': c=25; break;
}
}
}
}

return CharPos(l,c);
}

const float gllFont::TexCoords::tc_delta = 0.003f;
gllFont::TexCoords gllFont::getTexCoords(CharPos pos)
{
return TexCoords((float)pos.column/(float)bmpColumns,
(float)pos.line/(float)bmpLines,
(float)(pos.column+1)/(float)bmpColumns,
(float)(pos.line+1)/(float)bmpLines);
}

gllFont& gllFont::operator<<(FormatToken& token)
{
token.execute(*this);
return (*this);
}
#ifndef WIN32
gllFont& gllFont::operator<<(gllcolor token)
{
token.execute(*this);
return (*this);
}
gllFont& gllFont::operator<<(gllalign token)
{
token.execute(*this);
return (*this);
}
gllFont& gllFont::operator<<(gllgoto token)
{
token.execute(*this);
return (*this);
}
gllFont& gllFont::operator<<(gllsetup token)
{
token.execute(*this);
return (*this);
}
gllFont& gllFont::operator<<(gllskipl token)
{
token.execute(*this);
return (*this);
}
#endif


gllFont& gllFont::operator<<(const char* text)
{
int l = strlen(text);
// glBegin(GL_QUADS);
glColor4fv(color);
for (int i=0;i<l;i++)
{
if (text[i] == ' ') {
if (++column > maxColumns)
{
line++;
column = 0;
}
continue;
}

glPushMatrix();
glTranslatef((float)(column*columnSize)+hcs, (float)(screenHeight-line*lineSize)-hls,0.0f);
if (align == gllRIGHT)
glTranslatef((float)(screenWidth-l*columnSize),0.0f,0.0f);
else if (align == gllMIDDLE)
glTranslatef((float)(screenWidth-l*columnSize)/2.0f,0.0f,0.0f);
glBegin(GL_POLYGON);
// glRotatef(75,0,0,1);
gllFont::TexCoords tc = getTexCoords(getCharPos(text[i]));
glTexCoord2f(tc.u_min,tc.v_min);
glVertex2f(-hcs, hls);
glTexCoord2f(tc.u_max,tc.v_min);
glVertex2f(hcs,hls);
glTexCoord2f(tc.u_max,tc.v_max);
glVertex2f(hcs,-hls);
glTexCoord2f(tc.u_min,tc.v_max);
glVertex2f(-hcs,-hls);
if (++column > maxColumns)
{
line++;
column = 0;
}
glEnd();
glPopMatrix();
}
// glEnd();
return (*this);
}

gllFont& gllFont::operator<<(const string& str)
{
return this->operator<<(str.c_str());
}

gllFont& gllFont::operator<<(char c)
{
char buf[4];
sprintf(buf, "%c", c);
return this->operator <<(buf);
}

gllFont& gllFont::operator<<(int i)
{
char buf[32];
sprintf(buf, "%d", i);
return this->operator <<(buf);
}

gllFont& gllFont::operator<<(double d)
{
char buf[32];
sprintf(buf, "%f", d);
return this->operator <<(buf);
}

_gllendl gllendl;
void _gllendl::execute(gllFont& font)
{
font.line++;
font.column = 0;
}
_glltab glltab;
void _glltab::execute(gllFont& font)
{
font.column = (font.column/4)*5;
}
void gllskipl::execute(gllFont& font)
{
if (!noCR)
font.column = 0;
font.line += number;
}
void gllgoto::execute(gllFont& font)
{
font.line = l;
font.column = c;
}
void gllsetup::execute(gllFont& font)
{
font.lineSize = sl;
font.columnSize = sc;
font.hls = (float)font.lineSize/2.0f;
font.hcs = (float)font.columnSize/2.0f;
font.maxLines = h / sl;
font.screenHeight = h;
font.maxColumns = w / sc;
font.screenWidth = w;
font.line = 0;
font.column = 0;
}
_gllstart gllstart;
void _gllstart::execute(gllFont& font)
{
font.active = true;
glEnable(GL_TEXTURE_2D);
glBindTexture(GL_TEXTURE_2D, textureNames[TEX_FONT]);
font << gllcolor(1,1,1,1);
font << gllgoto(0,0);
font << gllalign(gllLEFT);
}
_gllend gllend;
void _gllend::execute(gllFont& font)
{
glDisable(GL_TEXTURE_2D);
font.active = false;
}
void gllcolor::execute(gllFont& font)
{
memcpy(font.color, col, 4*sizeof(float));
}
void gllalign::execute(gllFont& font)
{
font.align = type;
font.column = 0;
}



--------------------------------------------------------------------------------


/*---------------------------------------------------------------------*\
| GLLIB : FONCTIONS GRAPHIQUES / ENTREES / TEMPS REEL |
| |
| Fichier: gllFont.h |
| Description: |
\*---------------------------------------------------------------------*/

#ifndef __GLL_FONT_H__
#define __GLL_FONT_H__

#include "gllLibrary.h"

using namespace std;

class gllFont;
extern gllFont gllout;

struct FormatToken {
FormatToken() {}
virtual void execute(gllFont& font) = 0;
};

enum gllalign_type {
gllLEFT,
gllMIDDLE,
gllRIGHT
};

class gllFont
{
static const int bmpLines;
static const int bmpColumns;
struct CharPos {
CharPos(int l, int c) : line(l), column(c) {}
int line, column;
};
struct TexCoords {
static const float tc_delta;
TexCoords(float umin, float vmin, float umax, float vmax) :
u_min(umin+tc_delta), v_min(vmin+tc_delta), u_max(umax-tc_delta),v_max(vmax-tc_delta) {}
float u_min, v_min, u_max, v_max;
};
int line, column, maxLines, maxColumns, lineSize, columnSize, screenHeight, screenWidth;
float hls, hcs;
bool active;

float color[4];
gllalign_type align;
public:
gllFont();

int getLine() { return line; }
int getColumn() { return column; }
int getMaxLines() { return maxLines; }
int getMaxColums() { return maxColumns; }
public:
friend struct _gllendl;
friend struct _glltab;
friend struct gllgoto;
friend struct gllsetup;
friend struct gllskipl;
friend struct _gllstart;
friend struct _gllend;
friend struct gllcolor;
friend struct gllalign;

// void print(const char* text, ...);
// void printxy(int x, int y, const char* text, ...);



gllFont& operator<<(FormatToken& token);
#ifndef WIN32 // gcc n'accepte pas les commandes glout << glcolor directement
//il faut lui spécifier chaque classe ARRGGG !
// sous windows avec cl.exe (VC6) , pas de problème
gllFont& operator<<(gllcolor token);
gllFont& operator<<(gllgoto token);
gllFont& operator<<(gllalign token);
gllFont& operator<<(gllsetup token);
gllFont& operator<<(gllskipl token);
#endif
gllFont& operator<<(const char* text);
gllFont& operator<<(const string& str);
gllFont& operator<<(char c);
gllFont& operator<<(int i);
gllFont& operator<<(double d);

private:
CharPos getCharPos(char ch);
TexCoords getTexCoords(CharPos pos);
};

struct _gllendl : public FormatToken {
void execute(gllFont& font);
};
extern _gllendl gllendl;

struct _glltab : public FormatToken {
void execute(gllFont& font);
};
extern _glltab glltab;

struct gllskipl : public FormatToken {
int number;
bool noCR;
gllskipl(int nb, bool noCR = false) {
number = nb;
this->noCR = noCR;
}
void execute(gllFont& font);
};

struct gllgoto : public FormatToken {
int l,c;
gllgoto(int line, int col) {
l = line;
c = col;
}
void execute(gllFont& font);
};

struct _gllstart : public FormatToken {
void execute(gllFont& font);
};
extern _gllstart gllstart;

struct _gllend : public FormatToken {
void execute(gllFont& font);
};
extern _gllend gllend;

struct gllsetup : public FormatToken {
int w,h,sl,sc;
gllsetup(int linSize, int colSize, int screenWidth, int screenHeight) {
sl = linSize;
sc = colSize;
h = screenHeight;
w = screenWidth;
}
void execute(gllFont& font);
};


struct gllcolor : public FormatToken {
float col[4];
gllcolor(float r, float g, float b, float a) {
col[0]=r;col[1]=g;col[2]=b;col[3]=a;
}
void execute(gllFont& font);
};
struct gllalign : public FormatToken {
gllalign_type type;
gllalign(gllalign_type t) {
type = t;
}
void execute(gllFont& font);
};

#endif



--------------------------------------------------------------------------------


/*---------------------------------------------------------------------*\

Salut!
mon problème est dans ces trois classe...Player.cc qui ne m'affiche pas l'état du jouer, Setup.cc qui est appele dans jouer donc à le mème problème et dans ConfigFile.cc qui e lit jamais le ficher...
Ciao valde