ScrobblerAdapter::ScrobblerAdapter( QObject *parent, const QString &clientId )
: QObject( parent ),
m_scrobbler( new lastfm::Audioscrobbler( clientId ) ),
m_clientId( clientId ),
m_lastSaved( 0 )
{
DEBUG_BLOCK
resetVariables();
//HACK work around a bug in liblastfm---it doesn't create its config dir, so when it
// tries to write the track cache, it fails silently. until we have a fixed version, do this
// path finding code taken from liblastfm/src/misc.cpp
QString lpath = QDir::home().filePath( ".local/share/Last.fm" );
QDir ldir = QDir( lpath );
if( !ldir.exists() )
{
ldir.mkpath( lpath );
}
connect( The::mainWindow(), SIGNAL( loveTrack( Meta::TrackPtr) ), SLOT( loveTrack( Meta::TrackPtr ) ) );
connect( The::mainWindow(), SIGNAL( banTrack() ), SLOT( banTrack() ) );
EngineController *engine = The::engineController();
connect( engine, SIGNAL( stopped( qint64, qint64 ) ),
this, SLOT( stopped( qint64, qint64 ) ) );
connect( engine, SIGNAL( trackPositionChanged( qint64, bool ) ),
this, SLOT( trackPositionChanged( qint64, bool ) ) );
//Use trackChanged instead of trackPlaying to prevent reset of current track after Unpausing.
connect( engine, SIGNAL( trackChanged( Meta::TrackPtr ) ),
this, SLOT( trackPlaying( Meta::TrackPtr ) ) );
connect( engine, SIGNAL( trackMetadataChanged( Meta::TrackPtr ) ),
this, SLOT( trackMetadataChanged( Meta::TrackPtr ) ) );
}
void Slic::generateSpx(Mat & frame)
{
resetVariables();
Mat frameLab;
cvtColor(frame, frameLab, CV_BGR2Lab);
frameLab.convertTo(frameLab, CV_32FC3);
//initializa clusters
int diamSpx_d2 = m_diamSpx / 2;
for (int y = diamSpx_d2 - 1; y < m_height; y += m_diamSpx)
{
//Vec3f* frameLab_r = frameLab.ptr<Vec3f>(y);
for (int x = diamSpx_d2 - 1; x < m_width; x += m_diamSpx)
{
center c;
c.xy = Point(x, y);
Vec3f cLab;
moveToLowGrad(c.xy, cLab, frameLab);
c.Lab[0] = cLab[0];
c.Lab[1] = cLab[1];
c.Lab[2] = cLab[2];
m_allCenters.push_back(c);
}
}
m_nSpx = (int)m_allCenters.size(); //real number of spx
// iterate
for (int it = 0; it < m_nIteration; it++)
{
findCenters(frameLab);
updateCenters(frameLab);
}
//enforceConnectivity();
}
P_Crop::P_Crop( IWindow *dlg ) :
ISetCanvas( P_CROP, dlg, dlg, IRectangle(),
(ISetCanvas::classDefaultStyle |
ISetCanvas::decksByGroup |
ISetCanvas::packEven) &
~ISetCanvas::packTight ),
enableCBx( P_CROP_ENABLE_CBX, this, this, IRectangle(),
ICheckBox::classDefaultStyle |
IControl::group |
IControl::tabStop )
{
// initialize variables
resetVariables();
// force a groupbox around the canvas
setText( "Crop" ).disableGroup();
// set the enable/disable checkbox
enableCBx.setText( "enable" );
// setup handlers
ISelectHandler:: handleEventsFor( &enableCBx );
ICommandHandler:: handleEventsFor( this );
IMenuHandler:: handleEventsFor( this );
IMenuHandler:: handleEventsFor( &enableCBx );
return;
}
PDCreceive::PDCreceive(long product) {
pinMode(RECEIVEPIN, INPUT);
// irrecv.enableIRIn(); // Start the IR receiver
my_id = product;
resetVariables();
}
void AvalancheEngine::initVariables() {
for (int i = 0; i < 31; i++) {
_also[i][0] = nullptr;
_also[i][1] = nullptr;
}
memset(_fxPal, 0, 16 * 16 * 3);
for (int i = 0; i < 15; i++) {
_peds[i]._direction = kDirNone;
_peds[i]._x = 0;
_peds[i]._y = 0;
_magics[i]._operation = kMagicNothing;
_magics[i]._data = 0;
}
for (int i = 0; i < 7; i++) {
_portals[i]._operation = kMagicNothing;
_portals[i]._data = 0;
}
for (int i = 0; i < 30; i++) {
_fields[i]._x1 = 0;
_fields[i]._y1 = 0;
_fields[i]._x2 = 0;
_fields[i]._y2 = 0;
}
_fieldNum = 0;
_cp = 0;
_ledStatus = 177;
_alive = false;
_subjectNum = 0;
_him = kPeoplePardon;
_her = kPeoplePardon;
_it = Parser::kPardon;
_roomCycles = 0;
_doingSpriteRun = false;
_isLoaded = false;
_soundFx = true;
_holdTheDawn = false;
_lineNum = 0;
for (int i = 0; i < 50; i++)
_lines[i]._color = kColorWhite;
_dropsOk = false;
_cheat = false;
_letMeOut = false;
_thinks = 2;
_thinkThing = true;
_animationsEnabled = true;
_currentMouse = 177;
_holdLeftMouse = false;
resetVariables();
}
void SwingState::onExit(Scene & scene)
{
stateManager_->MovementState().setDirection(xDirection_);
stateManager_->MovementState().setSpeed(xSpeed_);
stateManager_->MovementState().setAngle(angle_);
stateManager_->MovementState().setRadius(radius_);
stateManager_->MovementState().setKeyDirection(false);
if (angleRange_ <= 0)
{
stateManager_->MovementState().setAngle(RESTING_ANGLE);
}
resetVariables();
}
void TSelectionClass::MakeSelection(UInt_t nEvents)
{if(nEvents==0)
this->nEvents=eventReader->GetEntries();
else if(nEvents>eventReader->GetEntries()){
cerr<<"nEvents is bigger than entries in eventReader tree: \""<<eventReader->getTree()->GetName()<<"\""<<endl;
}
else
this->nEvents=nEvents;
if(verbosity)cout<<"Make Selection"<<endl;
if(verbosity)cout<<"goToSelectionTreeDir"<<endl;
settings->goToSelectionTreeDir();
histSaver->SetNumberOfEvents(this->nEvents);
createdTree=createSelectionTree(nEvents);
if(!createdTree) return;
this->setBranchAdressess();
createFiducialCut();
hFiducialCutSilicon->Reset();
hFiducialCutSiliconDiamondHit->Reset();
hFiducialCutSiliconOneAndOnlyOneDiamondHit->Reset();
hAnalysisFraction->Reset();
hSelectedEvents->Reset();
nUseForAlignment=0;
nUseForAnalysis=0;
nUseForSiliconAlignment=0;
nValidButMoreThanOneDiaCluster=0;
nValidSiliconNoDiamondHit=0;
nNoValidSiliconTrack=0;
nValidSiliconTrack=0;
nValidSiliconAndDiamondCluster=0;
nValidDiamondTrack=0;
nSiliconTrackNotFiducialCut=0;
nToBigDiamondCluster=0;
cout<<"start selection in "<<nEvents<<" Events."<<endl;
if(settings->getTrainingMethod()==TSettings::enumFraction)
cout<<"Use Fraction Training, with fraction: "<<settings->getAlignment_training_track_fraction()*100.<<"%"<<endl;
else
cout<<"Use the first "<<settings->getAlignmentTrainingTrackNumber()<<" Events for Alignment!"<<endl;
for(nEvent=0;nEvent<nEvents;nEvent++){
TRawEventSaver::showStatusBar(nEvent,nEvents,100,verbosity>=20);
eventReader->LoadEvent(nEvent);
if(verbosity>10)cout<<"Loaded Event "<<nEvent<<flush;
resetVariables();
if(verbosity>10)cout<<"."<<flush;
setVariables();
if(verbosity>10)cout<<"."<<flush;
selectionTree->Fill();
if(verbosity>10)cout<<"DONE"<<endl;
}
createCutFlowDiagramm();
}
void myGauge2::paintEvent(QPaintEvent *)
{
QPainter painter(this);
painter.setRenderHints(QPainter::Antialiasing|QPainter::TextAntialiasing);
resetVariables(&painter);
drawOuterCircle(&painter);
drawInnerCircle(&painter);
drawColorPie(&painter);
drawCoverCircle(&painter);
drawMark(&painter);
drawIndicator(&painter);
drawCoverBall(&painter);
drawTextRect(&painter);
painter.end();
}
//Begins Text Input
void getText(char *buffer)
{
int FINISHED = 0;
clearScreen();
setupInterrupts();
initializeSprites();
drawKeyboard();
playBG = TRUE;
while(!FINISHED)
{
if(playBG && !BGplaying)
{
// play the bg music
DMA[2].cnt |= DMA_ON;
REG_TM1CNT |= TM_ON;
startBG = vblankcount;
BGplaying = TRUE;
DMA[2].src = flute;
}
checkMovement();
//Check Input and End Function if finished
if(!endInput)
{
checkSelection(buffer);
copyShadow();
waitForVblank();
moveSpriteToMem();
}
else
{
DMA[2].cnt &= ~DMA_ON;
REG_TM1CNT &= ~TM_ON;
playBG = FALSE;
waitForVblank();
FINISHED = 1;
resetVariables();
endInput = 0;
resetCursor();
}
}
clearScreen();
}
void TSelectionClass::createFiducialCut(){
// std::vector<std::pair<Float_t,Float_t> > xInt,yInt;
// xInt.push_back( make_pair(settings->getSi_avg_fidcut_xlow(),settings->getSi_avg_fidcut_xhigh()));
// yInt.push_back( make_pair(settings->getSi_avg_fidcut_ylow(),settings->getSi_avg_fidcut_yhigh()));
// fiducialCuts = new TFidCutRegions(xInt,yInt,1);
fiducialCuts = settings->getSelectionFidCuts();
cout<<"Create AutoFidCut with "<<endl;
fiducialCuts->Print(1);
UInt_t nEvents = settings->getAutoFidCutEvents();
if(nEvents>eventReader->GetEntries())nEvents=eventReader->GetEntries();
cout<<" "<<nEvents<<endl;
for(nEvent=0;nEvent<nEvents;nEvent++){
TRawEventSaver::showStatusBar(nEvent,nEvents,100,verbosity>=20);
eventReader->LoadEvent(nEvent);
if(verbosity>10)cout<<"Loaded Event "<<nEvent<<flush;
resetVariables();
if(verbosity>10)cout<<"."<<flush;
setVariables();
}
// findFiducialCut(hFiducialCutSiliconDiamondHit);
if(settings->getUseAutoFidCut()==true){
delete fiducialCuts;
fiducialCuts = new TFidCutRegions(hFiducialCutSiliconDiamondHit,settings->getNDiamonds(),settings->getAutoFidCutPercentage());
fiducialCuts->setRunDescription(settings->getRunDescription());
}
else{
fiducialCuts->setHistogramm(hFiducialCutSiliconDiamondHit);
}
histSaver->SaveCanvas(fiducialCuts->getFiducialCutCanvas(TPlaneProperties::X_COR));
histSaver->SaveCanvas(fiducialCuts->getFiducialCutCanvas(TPlaneProperties::Y_COR));
TCanvas *c1 = fiducialCuts->getFiducialCutCanvas(TPlaneProperties::XY_COR);
c1->SetTitle(Form("Fiducial Cut of Run %i with \"%s\"",settings->getRunNumber(),settings->getRunDescription().c_str()));
c1->SetName("cFidCutCanvasXY");
histSaver->SaveCanvas(c1);
if(verbosity)
fiducialCuts->Print(1);
if (verbosity>3&&verbosity%2==1){
cout<<"Press a key and enter to continue..."<<flush;
char t;
cin >>t;
}
void MainWindow::on_enterButton_clicked()
{
input2 = inputString.toDouble();
if(function == "add"){
answer = input1 + input2;
}else if(function == "subtract"){
answer = input1 - input2;
}else if(function == "multiply"){
answer = input1 * input2;
}else if(function == "divide"){
answer = input1 / input2;
}
inputString = QString::number(answer);
ui->numberView->display(inputString);
resetVariables();
}
void myGauge1::paintEvent(QPaintEvent *)
{
QPainter painter;
painter.begin(this);
painter.setRenderHints(QPainter::Antialiasing|QPainter::TextAntialiasing);
resetVariables(&painter);
drawOuterCircle(&painter);
drawInnerCircle(&painter);
drawColorPies(&painter);
drawGraph(&painter);
drawCoverLines(&painter);
drawCoverCircle(&painter);
drawMarkAndText(&painter);
drawTextRect(&painter);
painter.end();
}
void CDebugDrawer::removeFramebuffers()
{
CTextureResource::bind(0, 0, GL_TEXTURE_2D);
if(m_fboId != 0)
{
glDeleteFramebuffers(1, &m_fboId);
}
if(m_fboPickId != 0)
{
glDeleteTextures(1, &m_fboPickId);
}
if(m_fboDepthId != 0)
{
glDeleteTextures(1, &m_fboDepthId);
}
resetVariables();
}
Common::Error MortevielleEngine::run() {
// Initialize the game
Common::ErrorCode err = initialize();
if (err != Common::kNoError)
return err;
// Check for a savegame
int loadSlot = 0;
if (ConfMan.hasKey("save_slot")) {
int gameToLoad = ConfMan.getInt("save_slot");
if ((gameToLoad >= 1) && (gameToLoad <= 999))
loadSlot = gameToLoad;
}
if (loadSlot == 0)
// Show the game introduction
showIntroduction();
else {
_caff = 51;
_text->taffich();
}
// Either load the initial game state savegame, or the specified savegame number
adzon();
resetVariables();
if (loadSlot != 0)
_savegameManager->loadSavegame(generateSaveFilename(loadSlot));
// Run the main game loop
mainGame();
// Cleanup (allocated in initialize())
_screenSurface->free();
free(_soundManager->_cfiphBuffer);
free(_cfiecBuffer);
return Common::kNoError;
}
// ----- initialisation des registres specifiques au QEI -----
void QEIInit()
{
resetVariables();
LATCbits.LATC3 = 0; //desactivation des pattes
LATCbits.LATC4 = 0;
LATBbits.LATB5 = 0;
LATBbits.LATB6 = 0;
TRISCbits.TRISC3 = 1; //configuration en tant qu'inputs
TRISCbits.TRISC4 = 1;
TRISBbits.TRISB5 = 1;
TRISBbits.TRISB6 = 1;
//reconfiguration des pattes RP19/20 (moteur gauche) et RP5/6 (moteur droit) en mode QEI
RPINR14bits.QEA1R = 19; //phases A et B moteur gauche
RPINR14bits.QEB1R = 20;
RPINR16bits.QEA2R = 5; //phases A et B moteur droit
RPINR16bits.QEB2R = 6;
QEI1CON = 0x0000; //reset "propre" du registre
QEI2CON = 0x0000;
QEI1CONbits.QEIM = 0b111; //configuration en mode x4 (POSxCNT reset si = MAXxCNT)
QEI2CONbits.QEIM = 0b111;
QEI1CONbits.SWPAB = 1;
MAX1CNT = 360-1; //valeur maximale du compteur de position --> 360 pins par tour en x4
MAX2CNT = 360-1;
POS1CNT = 0; //valeur initiale du compteur de position
POS2CNT = 0;
IEC3bits.QEI1IE = 1; //on active l'interruption
IEC4bits.QEI2IE = 1;
IFS3bits.QEI1IF = 0; //on reset le flag d'interruption
IFS4bits.QEI2IF = 0;
}
void P_Crop::deleteExtraControls()
{
// delete all of the unused controls
IMenuHandler::stopHandlingEventsFor( xStartTxt );
IMenuHandler::stopHandlingEventsFor( yStartTxt );
IMenuHandler::stopHandlingEventsFor( xEndTxt );
IMenuHandler::stopHandlingEventsFor( yEndTxt );
IFocusHandler::stopHandlingEventsFor( xStartSB );
IFocusHandler::stopHandlingEventsFor( yStartSB );
IFocusHandler::stopHandlingEventsFor( xEndSB );
IFocusHandler::stopHandlingEventsFor( yEndSB );
delete( xStartTxt );
delete( yStartTxt );
delete( xStartSB );
delete( yStartSB );
delete( xEndTxt );
delete( yEndTxt );
delete( xEndSB );
delete( yEndSB );
resetVariables();
return;
}
//print the array when the end of transmission code is received
void PDCreceive::printTransmission() {
Serial.println("print transmission called");
Serial.print("index = "); Serial.println(h_index);
// delay(10);
for (int i=0; i<h_index; i++) {
Keyboard.print(transmissionArray[0][i]);
// delay(10);
Keyboard.print(",");
// delay(10);
Keyboard.print(transmissionArray[1][i]);
// delay(10);
if (i == h_index-1) {
Keyboard.print(":");
// delay(10);
} else {
Keyboard.print(";");
// delay(10);
}
}
resetVariables();
}
void HangState::onExit(Scene& scene)
{
resetVariables();
}
int main(int argc, char **argv)
{
daemonize();
storepid();//Lagra pid nummer för att kunna stänga med stop-skript
srand(time(NULL));
gameOver = true;
ghostHitCount = 0;
r3p1v.x = 180;
r3p1v.y = 97;
r3p1v.w = 16;
r3p1v.h = 50;
r3p1h.x = 440;
r3p1h.y = 97;
r3p1h.w = 16;
r3p1h.h = 50;
r2p0v.x = 0;
r2p0v.y = 195;
r2p0v.w = 16;
r2p0v.h = 50;
r2p0h.x = 270;
r2p0h.y = 195;
r2p0h.w = 16;
r2p0h.h = 50;
r2p1v.x = 370;
r2p1v.y = 195;
r2p1v.w = 16;
r2p1v.h = 50;
r2p1h.x = 622;
r2p1h.y = 195;
r2p1h.w = 16;
r2p1h.h = 50;
r1p1v.x = 190;
r1p1v.y = 297;
r1p1v.w = 16;
r1p1v.h = 50;
r1p1h.x = 450;
r1p1h.y = 297;
r1p1h.w = 16;
r1p1h.h = 50;
r0p0v.x = 0;
r0p0v.y = 415;
r0p0v.w = 16;
r0p0v.h = 50;
r0p0h.x = 622;
r0p0h.y = 415;
r0p0h.w = 16;
r0p0h.h = 50;
ghostRect1.x = 300;
ghostRect1.y = 97;
ghostRect1.w = 50;
ghostRect1.h = 50;
ghostRect2.x = 50;
ghostRect2.y = 195;
ghostRect2.w = 50;
ghostRect2.h = 50;
ghostRect3.x = 500;
ghostRect3.y = 195;
ghostRect3.w = 50;
ghostRect3.h = 50;
ghostRect4.x = 300;
ghostRect4.y = 297;
ghostRect4.w = 50;
ghostRect4.h = 50;
ghostRect5.x = 400;
ghostRect5.y = 415;
ghostRect5.w = 50;
ghostRect5.h = 50;
IPaddress ip, *remoteIP;
int quit, quit2;
char buffer[512];
bool clientInitiated;
firstPosition = false;
SDL_Thread *client1, *client2, *enemy1, *enemy2, *enemy3, *enemy4, *enemy5;
positionSetMutex = SDL_CreateMutex();
ghostHitMutex = SDL_CreateMutex();
if(!positionSetMutex)
{
return 0;
}
if(!ghostHitMutex)
{
return 0;
}
initFunctions(&ip, &sd); //Initiera TCP för SDL
enemy1 = SDL_CreateThread(nextMove, "ghost1", &ghostRect1);
enemy2 = SDL_CreateThread(nextMove, "ghost1", &ghostRect2);
enemy3 = SDL_CreateThread(nextMove, "ghost1", &ghostRect3);
enemy4 = SDL_CreateThread(nextMove, "ghost1", &ghostRect4);
enemy5 = SDL_CreateThread(nextMove, "ghost1", &ghostRect5);
while(true)
{
if(gameOver == true)
{
waitForClients(&sd); // Väntar på 2 st klienter ska koppla upp sig
resetVariables();
gameOver = false;
client1Position = 0;
client1 = SDL_CreateThread(startClient, "Client1", (void *)NULL);
client2 = SDL_CreateThread(startClient, "Client2", (void *)NULL);
SDL_DetachThread(client1); // Förhindrar att tråden tar upp minne efter att den stänger ner
SDL_DetachThread(client2);
}
SDL_Delay(1000);
}
SDLNet_TCP_Close(sd);
SDLNet_Quit();
return EXIT_SUCCESS;
}
// Asservissement en vitesse des moteurs pour qu'il atteignent leur propre consigne
void asservirMoteurs(void){
pos0 = position_m3; //pas inversé
pos1 = pos1 + QEIVelocityGet(QEI1_BASE)*QEIDirectionGet(QEI1_BASE); //pas inversé
pos2 = position_m2;//pas inversé
pos3 = pos3 - QEIVelocityGet(QEI0_BASE)*QEIDirectionGet(QEI0_BASE); //inversé
ajustementVitesse();
//Motor 0
measured_speed0 = (pos0 - previous_pos0)/dt;
if(measured_speed0 < 0){
measured_speed0 = -measured_speed0;
}
previous_pos0 = pos0;
if(consigne0 > 3200){
output0 = PIDHandler0(&consigne0, &measured_speed0, &I0, &previous_error0, dt);
}
else{
output0 = SlowPIDHandler0(&consigne0, &measured_speed0, &I0, &previous_error0, dt);
}
//Motor 1
measured_speed1 = QEIVelocityGet(QEI1_BASE)/dt;//(pos1 - previous_pos1)*10;
if(measured_speed1 < 0){
measured_speed1 = -measured_speed1;
}
previous_pos1 = pos1;
if(consigne1 > 3200){
output1 = PIDHandler1(&consigne1, &measured_speed1, &I1, &previous_error1, dt);
}
else{
output1 = SlowPIDHandler1(&consigne1, &measured_speed1, &I1, &previous_error1, dt);
}
//Motor 2
measured_speed2 = (pos2 - previous_pos2)/dt;
if(measured_speed2 < 0){
measured_speed2 = -measured_speed2;
}
previous_pos2 = pos2;
if(consigne2 > 3200){
output2 = PIDHandler2(&consigne2, &measured_speed2, &I2, &previous_error2, dt);
}
else{
output2 = SlowPIDHandler2(&consigne2, &measured_speed2, &I2, &previous_error2, dt);
}
//Motor 3
measured_speed3 = QEIVelocityGet(QEI0_BASE)/dt;//(pos3 - previous_pos3)*10;
if(measured_speed3 < 0){
measured_speed3 = -measured_speed3;
}
previous_pos3 = pos3;
if(consigne3 > 3200){
output3 = PIDHandler3(&consigne3, &measured_speed3, &I3, &previous_error3, dt);
}
else{
output3 = SlowPIDHandler3(&consigne3, &measured_speed3, &I3, &previous_error3, dt);
}
/*output0 = output0_old +(dt/Tf0)*(output0-output0_old);
output1 = output1_old +(dt/Tf1)*(output1-output1_old);
output2 = output2_old +(dt/Tf2)*(output2-output2_old);
output3 = output3_old +(dt/Tf3)*(output3-output3_old);
output0_old = output0;
output1_old = output1;
output2_old = output2;
output3_old = output3;*/
//output0_table[index%10] = output0;
//output1_table[index%10] = output1;
//output2_table[index%10] = output2;
//output3_table[index%10] = output3;
//Traduction 6400e de tour fraction appliqué au pulse width
float fraction0;
float fraction1;
float fraction2;
float fraction3;
//Une équation linéaire est utilisée x*0.5/7700 = % du duty cycle
fraction0 = ((output0*0.5)/7700);
if(fraction0 > 0.99){
fraction0 = 0.99;
}
else if(fraction0 < 0){
fraction0 = 0;
}
fraction1 = ((output1*0.5)/7700);
if(fraction1 > 0.99){
fraction1 = 0.99;
}else if(fraction1 < 0){
fraction1 = 0;
}
fraction2 = ((output2*0.5)/7700);
if(fraction2 > 0.99){
fraction2 = 0.99;
}else if(fraction2 < 0){
fraction2 = 0;
}
fraction3 = ((output3*0.5)/7700);
if(fraction3 > 0.99){
fraction3 = 0.99;
}else if(fraction3 < 0){
fraction3 = 0;
}
PWMPulseWidthSet(PWM_BASE, PWM_OUT_0, (periodPWM*fraction0));
PWMPulseWidthSet(PWM_BASE, PWM_OUT_1, (periodPWM*fraction1));
PWMPulseWidthSet(PWM_BASE, PWM_OUT_2, (periodPWM*fraction2));
PWMPulseWidthSet(PWM_BASE, PWM_OUT_3, (periodPWM*fraction3));
pos0_table[index%300]=GPIOPinRead(GPIO_PORTD_BASE, GPIO_PIN_4 | GPIO_PIN_5 | GPIO_PIN_6 | GPIO_PIN_7);
pos1_table[index%300]=GPIOPinRead(GPIO_PORTE_BASE, GPIO_PIN_4 | GPIO_PIN_5);
pos2_table[index%300]=pos2;
pos3_table[index%300]=pos3;
speed0_table[index%300]=measured_speed0;
speed1_table[index%300]=measured_speed1;
speed2_table[index%300]=measured_speed2;
speed3_table[index%300]=measured_speed3;
output0_table[index%300]=output0;
output1_table[index%300]=output1;
output2_table[index%300]=output2;
output3_table[index%300]=output3;
fraction0_table[index%300]=fraction0;
fraction1_table[index%300]=fraction1;
fraction2_table[index%300]=fraction2;
fraction3_table[index%300]=fraction3;
//Si le robot est immobile
if(a_atteint_consigne && measured_speed0==0 && measured_speed1==0 && measured_speed2==0 && measured_speed3==0){
resetVariables();
resetQEIs();
ROM_PWMPulseWidthSet(PWM_BASE, PWM_OUT_0, 0);//periodPWM / 4);
ROM_PWMPulseWidthSet(PWM_BASE, PWM_OUT_1, 0);
ROM_PWMPulseWidthSet(PWM_BASE, PWM_OUT_2, 0);
ROM_PWMPulseWidthSet(PWM_BASE, PWM_OUT_3, 0);
est_en_mouvement = false;
}
else{
est_en_mouvement = true;
}
}
Sequence::Sequence(AvalancheEngine *vm) {
_vm = vm;
resetVariables();
}
PDCreceive::PDCreceive() {
pinMode(RECEIVEPIN, INPUT);
// irrecv.enableIRIn(); // Start the IR receiver
resetVariables();
}
Nim::Nim(AvalancheEngine *vm) {
_vm = vm;
resetVariables();
}
void MainWindow::on_clearAllButton_clicked()
{
resetVariables();
ui->numberView->display("0");
}