Ball(float mX, float mY)
{
shape.setPosition(mX, mY);
shape.setRadius(defRadius);
shape.setFillColor(defColor);
shape.setOrigin(defRadius, defRadius);
}
void Particles::initialize() {
int displayxi = int(displayx);
int displayyi = int(displayy);
int radiusi = int(radius);
int wallwidthi = int(wallwidth);
srand(time(NULL));
for( int i = 0; i<Nparticles; i++ ) {
float tempR = rand() % ((displayyi-24)/2);
float tempAngle = rand() % 360;
float tempX = -tempR*sin(tempAngle*conv);
float tempY = tempR*cos(tempAngle*conv);
sf::Vector2f temp(tempX, tempY);
sf::Vector2f placeParticles = temp + centerofmap;
particles.setPosition( placeParticles );
sf::Vector2f currentParticle = particles.getPosition();
sf::Vector2f tempPos(0,0);
sf::Vector2f disVec(0,0);
float distance = 0;
// Need to check if particles overlap during initialization
// if it does overlap, just move it by some amount
// We do not need to check if there is just one particle
if( i==0 ) {
storeParticles.push_back( particles );
}
else {
for( it = storeParticles.begin(); it != storeParticles.end(); it++ ) {
tempPos = (*it).getPosition();
disVec = currentParticle - tempPos;
distance = sqrt(pow(disVec.x,2) + pow(disVec.y,2) );
if( distance < 2.2*radius ) deleted++;
while( distance < 2.2*radius ){
(particles).setPosition( rand()%(displayxi-2*wallwidthi-3*radiusi)+(wallwidthi+1.5*radiusi), rand()%(displayyi-3*radiusi-2*wallwidthi)+(wallwidthi+1.5*radiusi) );
currentParticle = particles.getPosition();
tempPos = (*it).getPosition();
disVec = currentParticle - tempPos;
distance = sqrt(pow(disVec.x,2) + pow(disVec.y,2) );
if( i>=2 ) {
for( bit=storeParticles.begin(); bit != it; bit++ ){
tempPos = (*bit).getPosition();
disVec = currentParticle - tempPos;
distance = sqrt( pow(disVec.x,2)+pow(disVec.y,2));
if( distance < 2.2*radius ){
(particles).setPosition( rand()%(displayxi-2*wallwidthi-3*radiusi)+(wallwidthi+1.5*radiusi), rand()%(displayyi-3*radiusi-2*wallwidthi)+(wallwidthi+1.5*radiusi) );
}
}
}
}
}
storeParticles.push_back(particles);
}
}
}
Pong() : gameWindow(sf::VideoMode(600, 480), "Pong")
{
ball.setFillColor(sf::Color::Cyan);
ball.setPosition(100.0, 100.0);
ball.setRadius(10.f);
p1Paddle.setFillColor(sf::Color::Green);
p1Paddle.setPosition(10.0, 100.0);
p1Paddle.setSize(sf::Vector2f(10.0, 100.0));
p2Paddle.setFillColor(sf::Color::Red);
p2Paddle.setPosition(580.0, 100.0);
p2Paddle.setSize(sf::Vector2f(10.0, 100.0));
p1MovingUp = false;
p1MovingDown = false;
p2MovingUp = false;
p2MovingDown = false;
ballMovement = sf::Vector2f(ballSpeed, ballSpeed);
font.loadFromFile("arial.ttf");
p1ScoreText.setPosition(150, 10);
p1ScoreText.setFont(font);
p1ScoreText.setString(std::to_string(p1Score));
p1ScoreText.setColor(sf::Color::Red);
p1ScoreText.setCharacterSize(24);
p2ScoreText.setPosition(450, 10);
p2ScoreText.setFont(font);
p2ScoreText.setString(std::to_string(p2Score));
p2ScoreText.setColor(sf::Color::Red);
p2ScoreText.setCharacterSize(24);
}
/*
Name: checkCircleCollision
Desc: given to circles, it will check to see if they are colliding.
Args: p_circle1, the first circle
p_circle2, the second circle to check against.
Rtrn: bool, if the two are colliding
*/
bool Game::checkCircleCollision(const sf::CircleShape &p_circle1, const sf::CircleShape &p_circle2)
{
float xDistance = p_circle1.getPosition().x - p_circle2.getPosition().x;
float yDistance = p_circle1.getPosition().y - p_circle2.getPosition().y;
return sqrt((xDistance * xDistance) + (yDistance * yDistance)) < p_circle1.getRadius() + p_circle2.getRadius();
}
/*
* Mostra na tela os indicadores básicos do jogo:
* vidas restantes, HP e pontuação.
*/
void Jogo::exibeHud()
{
float x = 0.10 * janela.getSize().x;
float y = 0.15 * janela.getSize().y;
/* Desenha vidas extras da nave */
static sf::CircleShape losango(20.0, 4);
for (int i = 0; i < nave->getVidas(); i++) {
double deltaX = 2.5 * losango.getRadius();
losango.setPosition(x + (i * deltaX), y);
janela.draw(losango);
}
/* Desenha caixa da lifebar */
y += 3.0 * losango.getRadius();
static sf::RectangleShape caixa({200.0, 10.0});
caixa.setPosition(x, y);
caixa.setFillColor(sf::Color::Blue);
janela.draw(caixa);
/* Desenha lifebar com parcial do HP */
float k = (float) nave->getHP() / nave->getHPMax();
sf::RectangleShape lifebar({k * caixa.getSize().x,
caixa.getSize().y});
lifebar.setPosition(x, y);
lifebar.setFillColor(k > 0.25 ? sf::Color::Green : sf::Color::Red);
janela.draw(lifebar);
/* Imprime pontuação (e, se for o caso, mensagem de pausa) */
y += 2.5 * lifebar.getSize().y;
sf::String str = "Score: " + std::to_string(nave->getScore());
if (pausado) str += " (pausa)";
sf::Text texto(str, fonte, 20);
texto.setPosition(x, y);
janela.draw(texto);
}
bool Engine::collisionCircle(sf::FloatRect box1, sf::CircleShape circle)
{
int d2 = (box1.left-circle.getPosition().x)*(box1.left-circle.getPosition().x) + (box1.top-circle.getPosition().y)*(box1.top-circle.getPosition().y);
if (d2>pow(circle.getRadius(),2))
return false;
else
return true;
}
void ColorPalette::refresh(void) {
selected.setFillColor(color);
label.setColor(color);
label.setString(ColorPalette::interpret(color, str));
rgb_c.setOutlineColor(Utility::Color::getInverseColor(color));
bw_c.setOutlineColor(Utility::Color::getInverseColor(color));
}
void Unit::setPosition(float x, float y) {
if(_isLoaded) {
_circle.setPosition(x,y);
_sprite.setPosition(x,y);
}
else {
_circle.setPosition(x,y);
}
}
Stone (float x, float y, float a, float b)
{
velocity.x = x;
velocity.y = y;
s.setRadius(radius);
s.setOrigin(radius,radius);
s.setFillColor(sf::Color::Black);
s.setPosition(a,b);
}
static void init(sf::RenderWindow &window)
{
window.setMouseCursorVisible(false);
window.setVerticalSyncEnabled(true);
crosshair.setFillColor(sf::Color(0, 0, 0, 0));
crosshair.setOutlineColor(sf::Color(0, 0, 0));
crosshair.setOutlineThickness(2.0f);
srand(static_cast<unsigned>(time(0)));
}
void set_circle(sf::CircleShape& circle, const float value, const float norm_radius,
const sf::Vector2f& position, const sf::Color& color)
{
const float radius{sqrt_value_tot_radius(value, norm_radius)};
circle.setRadius(radius);
circle.setOrigin(radius, radius);
circle.setPosition(position);
circle.setFillColor(color);
}
// Costruttore: prende come parametri la posizione iniziale
// della pallina, sotto forma di due `float`.
Ball(float mX, float mY)
{
// SFML usa un sistema di coordinate avente l'origine
// posizionata nell'angolo in alto a sinistra della
// finestra.
// {Info: coordinate system}
shape.setPosition(mX, mY);
shape.setRadius(defRadius);
shape.setFillColor(defColor);
shape.setOrigin(defRadius, defRadius);
}
// Draw a ring around the object to show it's selected
inline void set_select_state(bool select)
{
select_state = select;
if (select)
{
circ.setOutlineColor(sf::Color::Green);
circ.setOutlineThickness(OBJECT_SIZE/5);
}
else
{
circ.setOutlineColor(sf::Color::Black);
circ.setOutlineThickness(OBJECT_SIZE/10);
}
}
Polygons():
_polygons(),
__polygonsVect()
{
_polygons.setRadius(50);
_polygons.setFillColor(sf::Color::Red);
for(int i = 3; i < 9;i++)
{
_polygons.setPointCount(i);
_polygons.setPosition(100.0 + (i*99) , 200.0);
__polygonsVect.push_back(_polygons);
}
}
void bounceStone(std::vector<Stone>& stones){
sf::Vector2f loc = s.getPosition();
sf::Vector2f stonePos;
bool collide = 0;
std::vector<sf::Vector2f> Pos;
for (int i=0; i<stones.size(); i++){
stonePos = stones[i].s.getPosition();
Pos.push_back(stonePos);
}
//comparing x and y positions of each stone
//determines the distance between the x and y coordinates of each stone
for(int i=0; i<Pos.size(); i++){
float d = sqrt(pow((loc.x-Pos[i].x),2)+pow((loc.y-Pos[i].y),2));
if (d<=80 && loc!=Pos[i]){
float newVelX1 = stones[i].velocity.x;
float newVelY1 = stones[i].velocity.y;
float newVelX2 = velocity.x;
float newVelY2 = velocity.y;
stones[i].velocity.x = newVelX2;
stones[i].velocity.y = newVelY2;
velocity.x = newVelX1;
velocity.y = newVelY1;
}
}
}
void World::RespawnApple() {
_msgCallback("Respawning Apple");
int maxX = _windowSize.x / _blockSize - 2;
int maxY = _windowSize.y / _blockSize - 2;
_item = sf::Vector2i(rand() % maxX + 1, rand() % maxY + 1);
_appleShape.setPosition(_item.x * _blockSize, _item.y * _blockSize);
}
void update()
{
// Le classi shape di SFML hanno un metodo `move` che
// prende come parametro un vettore `float` di offset.
// {Info: ball movement}
shape.move(velocity);
}
// We define this function to print the current values that were updated by the on...() functions above.
void print()
{
// Clear the current line
std::cout << '\r';
// Print out the orientation. Orientation data is always available, even if no arm is currently recognized.
std::cout << '[' << std::string(roll_w, '*') << std::string(18 - roll_w, ' ') << ']'
<< '[' << std::string(pitch_w, '*') << std::string(18 - pitch_w, ' ') << ']'
<< '[' << std::string(yaw_w, '*') << std::string(18 - yaw_w, ' ') << ']'<< std::endl;
if(color_input == true)
{ shape.setFillColor(sf::Color((roll_w*10.75), ((270+pitch_w)*10.75), ((90 +yaw_w)*10.75)));
}
if (onArm) {
// Print out the currently recognized pose and which arm Myo is being worn on.
// Pose::toString() provides the human-readable name of a pose. We can also output a Pose directly to an
// output stream (e.g. std::cout << currentPose;). In this case we want to get the pose name's length so
// that we can fill the rest of the field with spaces below, so we obtain it as a string using toString().
std::string poseString = currentPose.toString();
std::cout << '[' << (whichArm == myo::armLeft ? "L" : "R") << ']'
<< '[' << poseString << std::string(14 - poseString.size(), ' ') << ']';
} else {
// Print out a placeholder for the arm and pose when Myo doesn't currently know which arm it's on.
std::cout << "[?]" << '[' << std::string(14, ' ') << ']';
}
std::cout << std::flush;
}
void update()
{
// We need to keep the ball "inside the window".
// The most common (and probably best) way of doing this, and
// of dealing with any kind of collision detection, is moving
// the object first, then checking if it's intersecting
// something.
// If the test is positive, we simply respond to the collision
// by altering the object's position and/or velocity.
// Therefore, we begin by moving the ball.
shape.move(velocity);
// After the ball has moved, it may be "outside the window".
// We need to check every direction and respond by changing
// the velocity.
// If it's leaving towards the left, we need to set
// horizontal velocity to a positive value (towards the right).
if(left() < 0) velocity.x = defVelocity;
// Otherwise, if it's leaving towards the right, we need to
// set horizontal velocity to a negative value (towards the
// left).
else if(right() > wndWidth) velocity.x = -defVelocity;
// The same idea can be applied for top/bottom collisions.
if(top() < 0) velocity.y = defVelocity;
else if(bottom() > wndHeight) velocity.y = -defVelocity;
}
// Atualiza o objeto movendo com a velocidade atual;
void update () {
shape.move (velocity);
// Pra manter a bola dentro da tela, precisamos testar se está nas
// extremidades da tela e inverter sua velocidade
if (left() < 0 || right() > windowWidth) velocity.x *= -1;
if (top() < 0 || bottom() > windowHeight) velocity.y *= -1;
}
TestBox(bool isCollidable) :
sg::Entity(isCollidable)
{
r0.setSize(sf::Vector2f(100.0f, 50.0f));
r0.setOrigin(50.0f, 25.0f);
this->addDrawable(r0, false);
bs.addShape(r0);
r1.setRadius(40.0f);
r1.setOrigin(40.0f, 40.0f);
r1.move(100.0f, 0.0f);
r1.scale(2.0f, 1.0f);
this->addDrawable(r1, false);
bs.addShape(r1);
r2.setSize(sf::Vector2f(250.0f, 10.0f));
r2.setOrigin(125.0f, 5.0f);
r2.rotate(-90.0f);
this->addDrawable(r2, false);
bs.addShape(r2);
r3.setRadius(40.0f);
r3.setOrigin(40.0f, 40.0f);
r3.move(-100.0f, 0.0f);
this->addDrawable(r3, false);
bs.addShape(r3);
//bs.rotate(-45.0f);
this->addTransformable(bs);
//this->rotate(45.0f);
}
void update(EntityFixture &fixture, const sf::Time &delta) {
playerUpdater->update(delta);
velocitiesUpdater->update(delta);
walker->update(delta);
poseUpdater->update(delta);
xformHistorian->update(delta);
dot.setPosition(fixture.GetInput().getCursorPosition());
}
void ColorPalette::update(const sf::Time& dt) {
if(sf::Mouse::isButtonPressed(sf::Mouse::Left)) {
double x = Settings::mouse_position.x;
double y = Settings::mouse_position.y;
if((angular[0]*x+linear[0]-y)<=0 &&
(angular[1]*x+linear[1]-y)>=0 &&
(angular[2]*x+linear[2]-y)<=0) {
rgb_c.setPosition(x, y);
identify(rgb, x, y);
refresh();
} else if((angular[3]*x+linear[3]-y)<=0 &&
(angular[4]*x+linear[4]-y)>=0 &&
(angular[5]*x+linear[5]-y)>=0) {
bw_c.setPosition(x, y);
}
}
}
void Game::update() {
posicion_jugable_x = mPlayer.getPosition().x;
posicion_jugable_y = mPlayer.getPosition().y;
this->movement.y = 0.f;
this->movement.x = 0.f;
if (this->mIsMovingUp & this->mIsMovingUpRel & (posicion_jugable_y > 0) & movimiento_valido(0, -1)) {
this->movement.y -= 50.f;
this->mIsMovingUpRel = 0;
}
if (this->mIsMovingDown & this->mIsMovingDownRel & (posicion_jugable_y < 450) & movimiento_valido(0, 1)) {
this->movement.y += 50.f;
this->mIsMovingDownRel = 0;
}
if (this->mIsMovingLeft & this->mIsMovingLeftRel & (posicion_jugable_x > 0) & movimiento_valido(-1, 0)) {
this->movement.x -= 50.f;
this->mIsMovingLeftRel = 0;
}
if (this->mIsMovingRight & this->mIsMovingRightRel & (posicion_jugable_x < 650) & movimiento_valido(1, 0)) {
this->movement.x += 50.f;
this->mIsMovingRightRel = 0;
}
if(mPlayer.getPosition() == mPlayerObj.getPosition()) {
this->mIsMapGenerate = true;
Game::generacion_mapa();
}
mPlayer.move(this->movement);
}
void update(sf::Time timeChange)
{
sf::Vector2f p1Movement(0, 0);
sf::Vector2f p2Movement(0, 0);
if (p1MovingUp)
p1Movement.y -= paddleSpeed;
if (p1MovingDown)
p1Movement.y += paddleSpeed;
if (p2MovingUp)
p2Movement.y -= paddleSpeed;
if (p2MovingDown)
p2Movement.y += paddleSpeed;
p1Paddle.move(p1Movement * timeChange.asSeconds());
p2Paddle.move(p2Movement * timeChange.asSeconds());
// Check collision
if (ball.getPosition().y < 0 || ball.getPosition().y > 480){
ballMovement.y *= -1;
}
if (ball.getGlobalBounds().intersects(p1Paddle.getGlobalBounds()) || ball.getGlobalBounds().intersects(p2Paddle.getGlobalBounds())){
ballMovement.x *= -1;
}
// Scoring
if (ball.getPosition().x > 600){
// P1 scores
ball.setPosition(300, 240);
p1Score++;
p1ScoreText.setString(std::to_string(p1Score));
}
else if (ball.getPosition().x < 0){
// P2 scores
ball.setPosition(300, 240);
p2Score++;
p2ScoreText.setString(std::to_string(p2Score));
}
ball.move(ballMovement * timeChange.asSeconds());
}
void bounce(){
sf::Vector2f Pos = s.getPosition();
if (Pos.x >= 960 || Pos.x <=40){
velocity.x= -velocity.x;
}
if (Pos.y >=960 || Pos.y <=40){
velocity.y = -velocity.y;
}
}
// onPose() is called whenever the Myo detects that the person wearing it has changed their pose, for example,
// making a fist, or not making a fist anymore.
void onPose(myo::Myo* myo, uint64_t timestamp, myo::Pose pose)
{
currentPose = pose;
// Vibrate the Myo whenever we've detected that the user has made a fist.
if (pose == myo::Pose::waveIn) {
myo->vibrate(myo::Myo::vibrationMedium);
std::cout << "RGB Colour (" << (float)shape.getFillColor().r << " , " << (float)shape.getFillColor().g << " , " << (float)shape.getFillColor().b << ")" << std::endl;
if(color_input == true)
{ color_input = false;
}
else
{ color_input = true;
}
}
else if(pose == myo::Pose::waveOut)
{ //myo->vibrate(myo::Myo::vibrationMedium); // this proved to be a bit of a distraction
INPUT ip;
ip.type = INPUT_MOUSE;
ip.mi.dx = 0;
ip.mi.dy = 0;
ip.mi.time = 0.2;
ip.mi.dwFlags = MOUSEEVENTF_RIGHTDOWN;
SendInput(1, &ip, sizeof(INPUT));
ip.mi.dwFlags = MOUSEEVENTF_RIGHTUP; // KEYEVENTF_KEYUP for key release
SendInput(1, &ip, sizeof(INPUT));
}
else if((pose == myo::Pose::fist)||(pose == myo::Pose::thumbToPinky))
{ //myo->vibrate(myo::Myo::vibrationMedium);
INPUT ip;
ip.type = INPUT_MOUSE;
ip.mi.dx = 0;
ip.mi.dy = 0;
ip.mi.time = 0.2;
ip.mi.dwFlags = MOUSEEVENTF_LEFTDOWN;
SendInput(1, &ip, sizeof(INPUT));
ip.mi.dwFlags = MOUSEEVENTF_LEFTUP; // KEYEVENTF_KEYUP for key release
SendInput(1, &ip, sizeof(INPUT));
}
}
void ColorPalette::plot(const sf::VertexArray& shape) {
double l = ColorPalette::dist(shape[0].position.x, shape[0].position.y,
shape[1].position.x, shape[1].position.y);
double da = l*(color.r)/255;
double db = l*(color.g)/255;
double x = (linear[1]-linear[2]+da-db)/(angular[2]-angular[1]);
double y = angular[1]*x+linear[1]+da;
rgb_c.setPosition(x, y);
}
cerclesTransparents():
_mesCercles(),
__vectCercles()
{
sf::Vector2u tailleWindow = _window.getSize();
unsigned int hauteur = tailleWindow.y;
unsigned int largeur = tailleWindow.x;
float rayon = 400;
for(int i = 0 ; i < 10; i++)
{
_mesCercles.setOrigin(rayon, rayon);
_mesCercles.setPosition(400,400);
_mesCercles.setRadius(rayon);
_mesCercles.setFillColor(sf::Color(0.0, 0.0 + (25*i) , 255 - (25*i), 127));
rayon -= 25;
__vectCercles.push_back(_mesCercles);
}
cout << "Taille du vect --> " << __vectCercles.size() << endl;
}
void drawParticles(sf::RenderWindow &window, sf::CircleShape &particle_shape, b2ParticleSystem *particle_system)
{
for(int i = 0; i < particle_system->GetParticleCount(); i++) //loops through all the particles
{
b2Vec2 pos = particle_system->GetPositionBuffer()[i]; //gets the position of the current particle
if( &pos != NULL ) //if the particle exists
{
particle_shape.setPosition( pos.x, pos.y );
window.draw( particle_shape );
}
}
}
