void update_screen(UART_instance_t * this_uart, int deg, float kp, float ki, float kd, float digit, k_value_t k_value)
{
// Print the pendulum
print_degrees(this_uart, deg);
// Print the constants
set_x(this_uart, 32);
set_y(this_uart, 16);
delay();
char buffer[64];
sprintf(buffer, "%07.3f\r\n%07.3f\r\n%07.3f", kp, ki, kd);
UART_polled_tx_string( this_uart, (const uint8_t *)&buffer);
// Clear the digit block
erase_block(this_uart, 112, 16, 159, 56);
// Print the digit increment/decrement
set_x(this_uart, 112);
delay();
char digit_buffer[16];
sprintf(digit_buffer, "%07.3f", digit);
if (k_value == KP)
{
set_y(this_uart, 16);
} else if (k_value == KI) {
set_y(this_uart, 24);
} else {
set_y(this_uart, 32);
}
UART_polled_tx_string( this_uart, (const uint8_t *)&digit_buffer);
}
void SceneGraph::link(TransformInstance child, TransformInstance parent)
{
unlink(child);
if (!is_valid(_data.first_child[parent.i]))
{
_data.first_child[parent.i] = child;
_data.parent[child.i] = parent;
}
else
{
TransformInstance prev = { UINT32_MAX };
TransformInstance node = _data.first_child[parent.i];
while (is_valid(node))
{
prev = node;
node = _data.next_sibling[node.i];
}
_data.next_sibling[prev.i] = child;
_data.first_child[child.i].i = UINT32_MAX;
_data.next_sibling[child.i].i = UINT32_MAX;
_data.prev_sibling[child.i] = prev;
}
Matrix4x4 parent_tr = _data.world[parent.i];
Matrix4x4 child_tr = _data.world[child.i];
const Vector3 cs = scale(child_tr);
Vector3 px = x(parent_tr);
Vector3 py = y(parent_tr);
Vector3 pz = z(parent_tr);
Vector3 cx = x(child_tr);
Vector3 cy = y(child_tr);
Vector3 cz = z(child_tr);
set_x(parent_tr, normalize(px));
set_y(parent_tr, normalize(py));
set_z(parent_tr, normalize(pz));
set_x(child_tr, normalize(cx));
set_y(child_tr, normalize(cy));
set_z(child_tr, normalize(cz));
const Matrix4x4 rel_tr = child_tr * get_inverted(parent_tr);
_data.local[child.i].position = translation(rel_tr);
_data.local[child.i].rotation = to_matrix3x3(rel_tr);
_data.local[child.i].scale = cs;
_data.parent[child.i] = parent;
transform(parent_tr, child);
}
void setup_screen(UART_instance_t * this_uart)
{
set_x(this_uart, 128);
set_y(this_uart, 8);
delay();
uint8_t header_buff[] = {"+/-\0"};
UART_polled_tx_string( this_uart,(const uint8_t *)&header_buff);
set_x(this_uart, 8);
set_y(this_uart, 16);
delay();
uint8_t label_buff[] = {"Kp: \r\nKi: \r\nKd: \0"};
UART_polled_tx_string( this_uart,(const uint8_t *)&label_buff);
}
void placerBateaux(JOU joueur){
int tailles_bateaux[5]={1,2,3,3,4};
int i=0;
for(i=0;i<5;i++){
BAT bateau=creerBateau(tailles_bateaux[i]);
int n_position=0;
for(n_position=0;n_position<tailles_bateaux[i];n_position++){
int abscisse=0;
int ordonnee=0;
printf("Entrez l'abscisse de la position %d du bateau %d:\n",i+1,n_position+1);
scanf("%d",&abscisse);
printf("Entrez l'abscisse de la position %d du bateau %d:\n",i+1,n_position+1);
scanf("%d",&abscisse);
POS position=creerPosition(abscisse, ordonnee);
while(!coordonneeValide(position)){
printf("Coordonnees invalide...");
printf("Entrez l'abscisse de la position %d du bateau %d:\n",i+1,n_position+1);
scanf("%d",&abscisse);
printf("Entrez l'ordonnee de la position %d du bateau %d:\n",i+1,n_position+1);
scanf("%d",&ordonnee);
set_x(position,abscisse);
set_y(position,ordonnee);
}/*end while*/
ajouterPosition(bateau,position);
}/*end for*/
ajouterBateau(joueur,bateau);
}/*end for*/
}
// Movimiento de la partida de caza hacia el patch destino
int move_hunters ()
{
int x = get_x(), y = get_y(), guanacos;
// Si estoy cazando no me muevo del patch
if (get_start() == 1)
return 0;
// Change the patch
// Avanzar en x
if (x != DESTINY[0])
x = (x>DESTINY[0]) ? x-1:x+1;
// Avanzar en y
else if (y != DESTINY[1])
y = (y>DESTINY[1]) ? y-1:y+1;
// Llegada al objetivo
else
set_arrive(1);
// Asks guanacos number to the new patch
add_numGuanacos_message (x,y);
/* // Recive num of guanacos
START_INFOGUANACOS_MESSAGE_LOOP
guanacos = infoGuanacos_message->amount;
FINISH_INFOGUANACOS_MESSAGE_LOOP
// si hay guanacos comenzar la caza
if (guanacos > 0)
set_start(1);
// Sino y se ha llegado al destino, acabar la caza
else if (get_arrive() == 1 )
set_end(1);*/
set_x(x);
set_y(y);
printf("movido\n");
return 0;
}
void ObjectManager::create_ships(PlayerState& player_state)
{
for (int i = 1; i <= NUM_OF_POSSIBLE_PLAYERS; i++) {
if (player_state.energy_max(i)) {
std::string name = "Player " + std::to_string(i);
int s = player_state.score(i);
int e = player_state.energy_max(i);
player_state.set_energy(i, e); // reset energy to max
ObjIndex player_index = Object::parse_player_index(i);
sdlc::Surface& gfx = obj[player_index];
sdlc::Surface& hit_gfx = obj_hit[player_index];
auto w1 = create_main_weapon(i, player_state);
auto w2 = create_extra_weapon(i, player_state);
KeySet keyset(i); // For now we don't set custom keys
auto new_ship = std::make_shared<Ship>(name, e, s, gfx, hit_gfx, w1, w2, keyset);
new_ship->set_locked_to_screen(false);
new_ship->set_x((float)(213 * i - new_ship->width()));
new_ship->set_y(480);
new_ship->set_vel(0, -200.0f);
queue.push_back(new_ship);
}
}
}
// reset vector from rectangular coordinates if form is
// RECT (the default) or else from polar coordinates if
// form is POL
void Vector:: reset(double n1, double n2, Mode form)
{
mode = form;
if (form == RECT)
{
x = n1;
y = n2;
//set_mag();
//set_ang();
}
else if (form == POL)
{
double mag = n1;
double ang = n2 / Rad_to_deg;
set_x(mag,ang);
set_y(mag,ang);
}
else
{
cout << "Incorrect 3rd argument to Vector() -- ";
cout << "vector set to 0\n";
x = y = 0.0;
mode = RECT;
}
}
Surface& Surface::operator=(const Surface& rSurf)
{
_pMaterialNext=0;
_pMaterialPrev=0;
set_type(rSurf.type());
set_conic(rSurf.conic());
set_radius_curvature(rSurf.radius_curvature());
set_R4(rSurf.R4());
set_R6(rSurf.R6());
set_R8(rSurf.R8());
set_R10(rSurf.R10());
set_comment(rSurf.comment());
set_x(rSurf.x());
set_y(rSurf.y());
set_z(rSurf.z());
set_diameter(rSurf.diameter());
set_auto_diameter(rSurf.get_auto_diameter());
set_inner_diameter(rSurf.inner_diameter());
set_auto_inner_diameter(rSurf.get_auto_inner_diameter());
return *this;
}
Thyra::ModelEvaluatorBase::InArgs<double>
init_nominal_values_(
const std::shared_ptr<const Tpetra::Vector<double,int,int>> & x
)
{
const auto f_params = f_->get_scalar_parameters();
const auto jac_params = jac_->get_scalar_parameters();
const auto dfdp_params = dfdp_->get_scalar_parameters();
std::map<std::string, double> all_params;
all_params.insert(f_params.begin(), f_params.end());
all_params.insert(jac_params.begin(), jac_params.end());
all_params.insert(dfdp_params.begin(), dfdp_params.end());
auto p_init = Thyra::createMember(this->get_p_space(0));
int k = 0;
for (auto it = all_params.begin(); it != all_params.end(); ++it) {
Thyra::set_ele(k, it->second, p_init());
k++;
}
auto nominal_values = this->createInArgs();
const Teuchos::RCP<const Tpetra::Vector<double,int,int>> initial_x =
Teuchos::rcp(x);
const auto xxx = Thyra::createConstVector(initial_x, space_);
nominal_values.set_p(0, p_init);
nominal_values.set_x(xxx);
return nominal_values;
}
void Vector::set(double n1, double n2, char form)
{
mode = form;
if ( form == 'r')
{
x = n1;
y = n2;
set_mag();
set_ang();
}
else if (form = 'p')
{
mag = n1;
ang = n2 / Rad_to_deg;
set_x();
set_y();
}
else
{
cout << "Incorrect form\n";
cout << "vector set to 0\n";
x = y = mag = ang = 0.0;
mode = 'r';
}
}
//! Wipe out stored data.
void clear()
{
set_x(Teuchos::null);
set_dxdt(Teuchos::null);
set_f(Teuchos::null);
set_A(Teuchos::null);
}
// construct vector from rectangular coordinates if form is r
// (the default) or else from polar coordinates if form is p
Vector::Vector(double n1, double n2, Mode form)
{
mode = form;
if (form == RECT)
{
x = n1;
y = n2;
set_mag();
set_ang();
}
else if (form == POL)
{
mag = n1;
ang = n2 / Rad_to_deg;
set_x();
set_y();
}
else
{
cout << "Incorrect 3rd argument to Vector() -- ";
cout << "vector set to 0\n";
x = y = mag = ang = 0.0;
mode = RECT;
}
}
void BolsaDinero::hit(Actor *who, int damage)
{
switch (who->get_team())
{
case TEAM_OSO:
am->del(this);
break;
case TEAM_COMIDA:
case TEAM_AGUA:
case TEAM_VENENO:
case TEAM_HORMIGAS_ROJAS:
case TEAM_HORMIGAS_VERDES:
case TEAM_RANA:
case TEAM_SCORE:
case TEAM_BOLSA_DINERO:
case TEAM_HORMIGUERO:
set_x(Game::rnd(0,Game::gfx_w-get_w()));
set_y(Game::rnd(0,Game::gfx_h-get_h()));
break;
default:
break;
}
}
bool GuiWindow::mousemove(int x, int y) {
if (mouse_is_down && moving_valid) {
set_x(x - distance_x);
set_y(y - distance_y);
}
return true;
}
vector::Vector::Vector(double n1, double n2, Mode form)
{
Vector::mode = form;
if (form == RECT) {
set_x(n1);
set_y(n2);
} else if (form == POL) {
int x_ = n1 * cos (n2);
int y_ = n1 * sin (n2);
set_x(x_);
set_y(y_);
} else {
std::cout << "Incorrect 3d arg param" << std::endl;
vector::Vector();
}
}
circle::circle(pos p, double radius, double radiussize, gradient grad, int bt)
: shape(bt), gradient_(grad)
{
set_x(p.get_x());
set_y(p.get_y());
set_z(p.get_z());
set_radius(radius);
set_radiussize(radiussize);
}
void Particle::update(const Timer& timer)
{
// Update position
set_x(x() + (x_vel() * timer.frame_time()));
set_y(y() + (y_vel() * timer.frame_time()));
// Update alpha
set_alpha(alpha() - (fade_speed() * timer.frame_time()));
}
void TMaps::SerialiseRespPoints(Epsilon5::World& world) {
for (auto i = RespPoints.begin(); i != RespPoints.end(); i++) {
auto point = world.add_resp_points();
point->set_x(i->X);
point->set_y(i->Y);
point->set_is_main(i->IsMain);
point->set_team(i->Team);
}
}
void CreateBuildingCommand::setParams()
{
auto request = m_requestMessage->MutableExtension(CreateBuildingRequest::id);
request->set_instanceid(m_instanceId);
request->set_buildingid(m_buildingId);
request->set_x(m_x);
request->set_y(m_y);
}
Paleta::Paleta (Almacen &almacen)
{
piel = new Suelo (this, almacen, 2);
set_actor_graphic (piel);
setCodigo (Nombres::paleta);
set_x (0);
set_y (SCREEN_H - 70);
set_is_detected (true);
set_collision_method (CollisionManager::PP_COLLISION);
};
Loro::Loro (Almacen &almacen):
ControllableActor (),
kboard (new Keyboard())
{
// ¡Cuidado! Esto falla si en el almacén no existe el bitmap que se pide.
// Animación de la derecha.
izquierda = new Sprite(this);
izquierda->add_frame(almacen.get_bitmap("sprite_042"), 0, 13, 10);
izquierda->add_frame(almacen.get_bitmap("sprite_043"), 0, 0, 10);
izquierda->add_frame(almacen.get_bitmap("sprite_044"), 0, 3, 10);
izquierda->setMirror(true);
// Animación de la izquierda.
derecha = new Sprite(this);
derecha->add_frame(almacen.get_bitmap("sprite_042"), 0, 13, 10);
derecha->add_frame(almacen.get_bitmap("sprite_043"), 0, 0, 10);
derecha->add_frame(almacen.get_bitmap("sprite_044"), 0, 3, 10);
derecha->setMirror(false);
// Animación de giro.
giro_der = new Sprite(this);
giro_der->add_frame(almacen.get_bitmap("pre2_338"), 10, 0, 5);
giro_der->setMirror (true);
giro_izq = new Sprite(this);
giro_izq->add_frame(almacen.get_bitmap("pre2_338"), 10, 0, 5);
giro_izq->setMirror (false);
setCodigo (Nombres::herny);
set_x(SCREEN_W/2);
set_y(SCREEN_H/2);
set_is_detected (true);
set_collision_method(CollisionManager::PP_COLLISION);
set_wh (36,26);
// Animación de inicio.
estado = FLOTANDO_DER;
set_actor_graphic (derecha);
// Se crea el control necesario para las acciones del loro.
control = new Control ();
control->add_action_name (LEFT, "Izquierda");
control->add_action_name (RIGHT, "Derecha");
control->add_action_name (UP, "Arriba");
control->add_action_name (DOWN, "Abajo");
control->add_action_name (JUMP, "Saltar");
control->set_owner(this);
// Se va a usar el teclado como único periférico para el loro.
control->set_actionperipheral (UP, kboard, KEY_UP, Peripheral::ON_PRESSING);
control->set_actionperipheral (DOWN, kboard, KEY_DOWN, Peripheral::ON_PRESSING);
control->set_actionperipheral (LEFT, kboard, KEY_LEFT, Peripheral::ON_PRESSING);
control->set_actionperipheral (RIGHT, kboard, KEY_RIGHT, Peripheral::ON_PRESSING);
control->set_actionperipheral (JUMP, kboard, KEY_A, Peripheral::ON_PRESS);
};
void CVector::set_item(int iIndex, float fValue)
{
if (iIndex == 0)
return set_x(fValue);
else if (iIndex == 1)
return set_y(fValue);
else if (iIndex == 2)
return set_z(fValue);
BOOST_RAISE_EXCEPTION(PyExc_IndexError, "Index out of range.")
}
line::line(pos p, pos p2, double size, gradient grad, int blending_type)
: shape(blending_type)
{
set_x(p.get_x());
set_y(p.get_y());
set_z(p.get_z());
set_x2(p2.get_x());
set_y2(p2.get_y());
set_z2(p2.get_z());
set_size(size);
set_gradient(grad);
}
/**
* \brief Updates the position.
*/
void FollowMovement::update() {
if (entity_followed == NULL) {
finished = true;
return;
}
if (entity_followed->is_being_removed()) {
finished = true;
RefCountable::unref(entity_followed);
entity_followed = NULL;
}
else {
int next_x = entity_followed->get_x() + x;
int next_y = entity_followed->get_y() + y;
int dx = next_x - get_x();
int dy = next_y - get_y();
if (!are_obstacles_ignored()) {
if (!finished && (dx != 0 || dy != 0)) {
if (!test_collision_with_obstacles(dx, dy)) {
set_x(next_x);
set_y(next_y);
}
else {
finished = true;
notify_obstacle_reached();
}
}
}
else {
set_x(next_x);
set_y(next_y);
}
}
}
void Point_3D::move(Point_3D* origin)
{
//Mise à jour de l'abcisse
set_x(get_x()-origin->get_x());
//Mise à jour de l'ordonnée
set_y(get_y()-origin->get_y());
//Mise à jour de la profondeur
set_z(get_z()-origin->get_z());
//Mise à jour de l'abcisse d'origine
dbl_x_origin-=origin->get_x();
//Mise à jour de l'ordonnée d'origine
dbl_y_origin-=origin->get_y();
//Mise à jour de la profondeur d'origin
dbl_z_origin-=origin->get_z();
}
void Point_3D::scale(int coef)
{
//Mise à jour de l'abcisse
set_x(coef*get_x());
//Mise à jour de l'ordonnée
set_y(coef*get_y());
//Mise à jour de la profondeur
set_z(coef*get_z());
//Mise à jour de l'abcisse d'origine
dbl_x_origin=dbl_x_origin*coef;
//Mise à jour de l'ordonnée d'origine
dbl_y_origin=dbl_y_origin*coef;
//Mise à jour de la profondeur d'origin
dbl_z_origin=dbl_z_origin*coef;
}
Thyra::ModelEvaluatorBase::InArgs<double>
init_nominal_values_(
const Teuchos::RCP<const Tpetra::Vector<double,int,int>> & x,
const double alpha0
)
{
auto p_init = Thyra::createMember(this->get_p_space(0));
Thyra::set_ele(0, alpha0, p_init());
const auto xxx = Thyra::createConstVector(x, space_);
auto nominal_values = this->createInArgs();
nominal_values.set_p(0, p_init);
nominal_values.set_x(xxx);
return nominal_values;
}
void vector::Vector::reset(double n1, double n2, Mode form)
{
mode = form;
if (form == RECT) {
x = n1;
y = n2;
} else if (form == POL){
int x_ = n1 * cos (n2);
int y_ = n1 * sin (n2);
set_x(x_);
set_y(y_);
} else {
std::cout << "Incorrect 3d arg" << std::endl;
x = y = 0.0;
mode = RECT;
}
}
GuiFPSWidget::GuiFPSWidget() : GuiContext(0,0)
{
label = new GuiLabel(FontManager::font("small"),"100 FPS",0,0,1.0,true);
background = new GuiColorRect(0,0,label->get_width()+10,label->get_height()+10);
background->set_rgba(0.0,0.0,0.0,0.6);
add(background);
add(label);
set_width(background->get_width());
set_height(background->get_height());
set_x(SCREEN_WIDTH/2-width/2);
set_y(-SCREEN_HEIGHT/2+height/2);
this->ticksTillUpdate = 0;
this->className = "GuiFPSWidget";
}
int main(void) {
char tictactoe[SIZE][SIZE];
for(int i=0;i<SIZE; ++i)
for(int j=0; j<SIZE; ++j)
tictactoe[i][j] = NO_GLYPH;
set_x(tictactoe, 1, 1);
set_o(tictactoe, 2, 1);
for(int i=0; i < SIZE; ++i) {
for(int j=0; j < SIZE; ++j)
printf("%c ", tictactoe[i][j]);
printf("\n");
}
return 0;
}
