int main(int argc, char* argv[])
{
char filename[] = "doom-e1m1.mid";
RtMidiOut *midiout = new RtMidiOut();
string portName;
nPorts = midiout->getPortCount();
if(argc < 2) {
if ( nPorts == 0 ) cout << "No ports available!\n";
for ( unsigned int i=0; i<nPorts; i++ ) {
try { portName = midiout->getPortName(i); }
catch (RtError &error) {error.printMessage(); }
cout << " Output Port #" << i+1 << ": " << portName << '\n';
}
}else{
int port = atoi(argv[1]);
//midiout->openPort( port );
cout << "Opening midi" << endl;
char *filef = argv[2];
if(argc == 3)
parser.Open(filef);
else
parser.Open(filename);
tickspersecond = ( (parser.bpm / 30.0) * ( parser.tpb));
cout << " Ticks per second: " << tickspersecond << endl;
(void) signal(SIGINT, finish);
tickcount = 0;
Sequencer sequencers[parser.numtracks];
SequencerRunning = true;
for(int i=0;i<parser.numtracks;i++) {
sequencers[i].StartSequencer(i, &parser.mididata.tracks[i], port);
sf::Sleep(0.01f);
}
sf::Sleep(1);
timer.Reset();
while(run) {
timecount = timer.GetElapsedTime();
tickcount += timecount * tickspersecond;
timer.Reset();
//sf::Sleep(0.0001f);
}
}
delete midiout;
finish(0);
return 0;
}
void Train::Update(const sf::Input &input) {
static sf::Clock clock;
static bool waiting = false;
acceleration = (1/mass) *(push_force - speed * brakes_factor);
speed += acceleration;
position.z += speed;
if (position.z > 900 || position.z < -900) {
position.z = -position.z;
//comingSound.SetPosition(this->position);
comingSound.Play();
StopGas();
}
if (!user_controlled){
if (position.z < -250 && position.z > -300){
StopGas();
Brakes();
}
if (IsStopped() && !waiting){
clock.Reset();
alarm=false;
waiting = true;
printf("\n\n\n waiting\n");
}
if (waiting && clock.GetElapsedTime() > waiting_time) {
Gas();
waiting = false;
printf(" timed out\n");
}
if (waiting && clock.GetElapsedTime() > waiting_time-4 && !alarm) {
alarm=true;
sound.SetBuffer(Buffer);
//sound.SetPitch(0.6);
//sound.SetAttenuation(0.4);
sound.SetRelativeToListener(true);
sound.SetPosition(this->position);
sound.SetMinDistance(100);
sound.Play();
//movmetnSound.SetPosition(this->position);
movmetnSound.Play();
}
light->position = sf::Vector3f(-40.900002,10,position.z + 5) ;
if(camera !=NULL)
camera->SetOrigin(position.x+8.3,position.y+15,position.z);
}else {
if (input.IsKeyDown(sf::Key::Z)) {
push_force = 0.1f;
}else if (input.IsKeyDown(sf::Key::X)){
brakes_factor = 0.05f;
}
}
}
void updatePositions() {
static float elapsed = 0.0f;
elapsed += clck.GetElapsedTime();
clck.Reset();
float delta = elapsed - lastTime;
lastTime = elapsed;
float speed = 5.0;
if (go_forward) {
current_location += speed * delta * current_forward;
}
if (go_backward) {
current_location -= speed * delta * current_forward;
}
if (go_left) {
current_location -= speed * delta * current_right;
}
if (go_right) {
current_location += speed * delta * current_right;
}
if (go_up) {
current_location += speed * delta * Up;
}
if (go_down) {
current_location -= speed * delta * Up;
}
}
// called every couple of lines. Use it to check for events
void Turing_StdlibSFML_PeriodicCallback() {
// check every quarter of a second. This does make input delayed.
// It only stops the system from deeming us unresponsive
if(WinMan && eventClock.GetElapsedTime() > 0.5) {
WinMan->surface();
eventClock.Reset();
}
}
int main(int argc, const char **argv)
{
init(argc, argv);
loadAssets();
while (window.IsOpened()) {
clockdiff = clck.GetElapsedTime();
elapsed += clockdiff;
clck.Reset();
inputFn();
renderFn();
window.Display();
}
return 0;
}
sf::Vector2f cHero::getMovement(const sf::Input & theInput, sf::Clock & jumpClock)
{
sf::Vector2f movementVector;
xSpeed = 0;
ySpeed = 0;
// horizontal movement
if (theInput.IsKeyDown(sf::Key::Left)) {
xSpeed += -5;
xAccel += -.2;
}
else if (theInput.IsKeyDown(sf::Key::Right)) {
xSpeed += 5;
xAccel += .2;
}
// vertical movement
if (theInput.IsKeyDown(sf::Key::Up)) {
if (isOnGround()) {
jumpClock.Reset();
//ySpeed = -8;
}
if (jumpClock.GetElapsedTime() < .3) {
yAccel -= .12 / (jumpClock.GetElapsedTime());
ySpeed = 30 * (jumpClock.GetElapsedTime() - .3);
}
}
if (isOnGround()) {
yAccel = 0;
if (xAccel > .2)
xAccel -= .05;
else if (xAccel < -.2)
xAccel += .05;
}
else {
yAccel += 1 + (jumpClock.GetElapsedTime() / 20);
}
movementVector.x = xSpeed + xAccel;
movementVector.y = ySpeed + yAccel;
return movementVector;
}
void GameServer::update()
{
static sf::Clock clock;
if (clock.GetElapsedTime() > 150)
{
while (client_->commandAvailable())
{
client_->getCommand()->execute (this);
}
clock.Reset();
}
std::vector<ActionArray::iterator> to_remove;
ActionArray to_add;
for (ActionArray::iterator it = actions_.begin(); it != actions_.end(); it ++)
{
if ((*it)->isDone())
{
//if ((*it)->hasNextAction())
to_remove.push_back(it);
}
else
{
if ((*it)->isActive())
(*it)->update();
}
client_->sendData ((*it)->getUnit()->getStatus());
}
for (std::vector<ActionArray::iterator>::reverse_iterator it = to_remove.rbegin();
it != to_remove.rend(); it ++)
{
delete (*(*it));
actions_.erase(*it);
}
}
void World::update(float time)
{
static sf::Clock timer;
static int flag = 0;
if (timer.GetElapsedTime() > 1) {
timer.Reset();
for ( vector<Dynamic*>::iterator i = dynamicList.begin(); i != dynamicList.end(); i++ ) {
if ( !(*i)->echo() ) {
if ( !Manager::Instance()->check( (*i)->getPosition() , (*i)->getSize() ) ) {
Manager::Instance()->clearMatch();
Manager::Instance()->updatePath( (*i)->getPosition() , (*i)->getSize() );
for ( vector<Dynamic*>::iterator i = dynamicList.begin(); i != dynamicList.end(); i++ ) {
if ( !(*i)->echo() ) continue;
Manager::Instance()->collect( (*i)->getID() , (*i)->getPosition() );
}
Manager::Instance()->solve();
} else {
for ( vector<Dynamic*>::iterator i = dynamicList.begin(); i != dynamicList.end(); i++ ) {
if ( !(*i)->echo() ) {
int t = -1;
Manager::Instance()->updatePos( t , (*i)->getPosition() );
} else Manager::Instance()->updatePos( (*i)->getID() , (*i)->getPosition() );
}
Manager::Instance()->attack();
}
break;
}
}
}
for (vector<Dynamic*>::iterator i = dynamicList.begin(); i != dynamicList.end(); ++ i)
{
(*i)->update(time);
}
Camera::Instance()->update(time);
}
void init()
{
// Create the main window
App = new sf::Window(sf::VideoMode(RESOLUTION_X, RESOLUTION_Y, 32), "Modeling Program");
// Create a clock for measuring time elapsed
Clock = sf::Clock();
__glewInit();
currentRes[0] = RESOLUTION_X;
currentRes[1] = RESOLUTION_Y;
transM = TRANS_TRANSLATION;
axisM = X_AXIS;
selected = 0;
idCounter = 1;
//Initial light position
lightPos[0] = 2.0f;
lightPos[1] = 2.0f;
lightPos[2] = 2.0f;
//Initial camera position
cameraPos[0] = 0.0f;
cameraPos[1] = 0.0f;
cameraPos[2] = 0.0f;
//Perspective setup
glMatrixMode(GL_PROJECTION);
glLoadIdentity();
gluPerspective(45.0,currentRes[0]/currentRes[1], 0.5, 50.0);
glMatrixMode(GL_MODELVIEW);
//Camera setup
camera = Camera();
camera.translate(0.0,0.0,20.0);
camera.rotate(60.0, 1.0, 0.0, 0.0);
camera.rotate(30.0, 0.0, 0.0, 1.0);
camera.apply_transformations();
//setup render target texture
//this will eventually hald the rendered scene and be
//rendered to a quad for post process effects
/*int numTex = 1;
glGenTextures(numTex, &textureTarget);
setupTargetTexture();*/
//setup the shader programs
//the first set is the vertex and fragment shaders for the 3D render
//the second set is the shaders for the texture post process effects
ShaderManager shaders;
shaders.GL20Support = GL20Support;
char const * drawVert = "Shaders/Render3dModel.vert";
char const * drawFrag = "Shaders/Render3dModel.frag";
shaderProg = shaders.buildShaderProgram(&drawVert, &drawFrag, 1, 1);
/*char const * texVert = "Shaders/RenderTexture.vert";
char const * texFrag = "Shaders/RenderTexture.frag";
texProg = shaders.buildShaderProgram(&texVert, &texFrag, 1, 1);*/
char const * noLightVert = "Shaders/NoLighting.vert";
char const * noLightFrag = "Shaders/NoLighting.frag";
noLightProg = shaders.buildShaderProgram(&noLightVert, &noLightFrag, 1, 1);
//this object helps draw textures that fill the viewport
/*texRender = ShowTexture(texProg);
texRender.GL20Support = GL20Support;*/
// Bind custom attributes
glBindAttribLocation(shaderProg, 1, "ambient");
// Start render loop
while (App->IsOpened())
{
Clock.Reset();
// Process events
handleEvents();
// Set the active window before using OpenGL commands
// It's useless here because active window is always the same,
// but don't forget it if you use multiple windows or controls
App->SetActive();
//render 3D scene, then put 2D output in texture, render texture
renderScene();
// Finally, display rendered frame on screen
App->Display();
float diff = 1.0/FPS-Clock.GetElapsedTime();
if(diff > 0)
sf::Sleep(diff);
}
}
int main()
{
// Open the serial port for reading:
ardu.Open(PORT);
ardu.SetBaudRate(SerialStreamBuf::BAUD_115200);
ardu.SetCharSize(SerialStreamBuf::CHAR_SIZE_8);
char str[8];
// ardu << out;
ardu >> str;
std::cout << str;
//sscanf(str,"%d",&res);
//sleep(1);
//serial_send(fd, 'A');
sleep(1);
//while(result != 'A')
return 1;
while(true)
{
ardu >> str;
std::cout << str;
//int test = read(fd, &byte, 1);
//serial_send(fd, 'A');
//printf("%i %i %c\n", test, byte, byte);
//sleep(1);
}
// Set the last signalled state of the system as sent by the opto signal over USB.
// "t" is top-dead-center, and "b" is bottom-dead-center.
char system_state = 'B';
int image_counter = image_counter_min;
// Create the main rendering window
sf::RenderWindow App(sf::VideoMode(800, 600, 32), "SFML Graphics");
// Use v-sync (make it so that we sync with the monitor, and don't draw more than 60fps.
App.UseVerticalSync(false);
// App.SetFramerateLimit(60); // Limit to 60 frames per second
// App.SetFramerateLimit(0); // No limit
// Start game loop
while (App.IsOpened())
{
// Process events
sf::Event Event;
while (App.GetEvent(Event))
{
// Close window : exit
if (Event.Type == sf::Event::Closed)
App.Close();
// A key has been pressed
if (Event.Type == sf::Event::KeyPressed)
{
// Escape key : exit
if (Event.Key.Code == sf::Key::Escape)
App.Close();
}
}
// Read from the USB port.
uint8_t input_state; //= serial_recv(fd);
printf("%i ", input_state);
if (input_state != system_state && (input_state == 'B' || input_state == 'T'))
{ // Start the appropriate image sequence.
// Change the system state.
system_state = input_state;
//printf("%c\n", system_state);
// Reset the image counter.
image_counter = 0;
}
// Get the elapsed time.
float elapsed = Clock.GetElapsedTime();
if (elapsed > refresh_rate)
{
// Update the image.
printf("%i %f\n", image_counter, elapsed);
Clock.Reset();
// Increment or decrement the image counter.
if (system_state == 'B') image_counter++;
else if (system_state == 'T') image_counter++;
// Make sure the counter doesn't go out of bounds.
if (image_counter > image_counter_max) image_counter = image_counter_max;
if (image_counter < image_counter_min) image_counter = image_counter_min;
// Draw the appropriate colour:
switch( image_counter )
{
case 0:
App.Clear(sf::Color(0, 0, 0));
break;
case 1:
App.Clear(sf::Color(85, 85, 85));
break;
case 2:
App.Clear(sf::Color(170, 170, 170));
break;
case 3:
App.Clear(sf::Color(255, 255, 255));
break;
}
}
// Clear the screen with red color
// App.Clear(sf::Color(200, 0, 0));
// Display window contents on screen
App.Display();
}
return EXIT_SUCCESS;
}