QGroupBox *CardEditor::createTextItemBox(const QString &text, const QFont &font, int skip, BlackEdgeTextItem *item){
QGroupBox *box = new QGroupBox;
QLineEdit *edit = new QLineEdit;
QPushButton *font_button = new QPushButton(font.family());
QSpinBox *size_spinbox = new QSpinBox;
size_spinbox->setRange(1, 96);
QSpinBox *space_spinbox = new QSpinBox;
space_spinbox->setRange(0, 100);
edit->setObjectName("name");
size_spinbox->setObjectName("font");
space_spinbox->setObjectName("space");
QFormLayout *layout = new QFormLayout;
layout->addRow(tr("Text"), edit);
layout->addRow(tr("Font"), font_button);
layout->addRow(tr("Line spacing"), space_spinbox);
QFontDialog *font_dialog = new QFontDialog(this);
setMapping(font_dialog, font_button);
connect(edit, SIGNAL(textChanged(QString)), item, SLOT(setText(QString)));
connect(font_dialog, SIGNAL(currentFontChanged(QFont)), item, SLOT(setFont(QFont)));
connect(space_spinbox, SIGNAL(valueChanged(int)), item, SLOT(setSkip(int)));
edit->setText(text);
font_dialog->setCurrentFont(font);
space_spinbox->setValue(skip);
box->setLayout(layout);
return box;
}
void contact_list_dialog::update_contacts()
{
INVARIANT(_list);
INVARIANT(_service);
_list->clear();
_ui.clear();
for(auto u : _service->user().contacts().list())
{
auto rm = make_x_button();
std::stringstream ss;
ss << "Remove `" << u->name() << "'";
rm->setToolTip(ss.str().c_str());
auto mapper = new QSignalMapper{this};
mapper->setMapping(rm, QString(u->id().c_str()));
connect(rm, SIGNAL(clicked()), mapper, SLOT(map()));
connect(mapper, SIGNAL(mapped(QString)), this, SLOT(remove(QString)));
auto ui = new user_info{u, _service, rm, false};
_list->add(ui);
_ui.push_back(ui);
}
_prev_contacts = _service->user().contacts().size();
}
void Dialog::AttachComboBox(int Row, int Col)
{
if (m_Table->rowCount() <= 0) { return; }
auto Mapper(new QSignalMapper(this));
auto Combo(CreateCombo());
m_Table->setCellWidget(Row, Col, Combo);
connect(Combo, SIGNAL(currentIndexChanged(int)), Mapper, SLOT(map()));
Mapper->setMapping(Combo, QString("%1-%2").arg(Row).arg(Col));
}
MappingParameters::MappingParameters(
mapping::Interface* _mapping,
QWidget* _parent) :
ParameterWidget(_parent)
{
QLayout *_layout = new QVBoxLayout;
_layout->setSpacing(2);
_layout->setContentsMargins(0, 0, 0, 0);
setLayout(_layout);
setMapping(_mapping);
}
void Remapper::beginRemapping( QString GUID, QString button ) {
// TODO: Let the user know about this situation
// FIXME: Wouldn't muting problem buttons fix this? Is this even necessary? Should we detect conflicts and offer to mute?
if( ignoreMode ) {
Key key = mappingStringToKey( button );
Val value = gameControllerToJoystick[ GUID ][ key ];
qInfo().noquote() << "Release" << valToFriendlyString( ignoreModeVal ) << "first before trying to remap" << button;
emit setMapping( GUID, button, valToFriendlyString( value ) );
emit remappingEnded();
return;
}
remapMode = true;
remapModeGUID = GUID;
remapModeKey = mappingStringToKey( button );
}
void MidiInterface::loadMapping()
{
if(!_mapping.isEmpty())
{
MidiMapping * mm = MidiMapping::loadFromFile(_mapping);
if(mm)
{
Minotor::minotor()->midiMapper()->loadMidiMapping(this, mm);
delete mm;
} else {
qDebug() << Q_FUNC_INFO
<< "Invalid file" << _mapping;
// Do not keep invalid mapping filename
setMapping("");
}
}
}
void ATPClientApp::uploadAsset() {
auto path = _url.path();
if (path == "/") {
qDebug() << "cannot upload to path of /";
QCoreApplication::exit(1);
}
auto upload = DependencyManager::get<AssetClient>()->createUpload(_localUploadFile);
QObject::connect(upload, &AssetUpload::finished, this, [=](AssetUpload* upload, const QString& hash) mutable {
if (upload->getError() != AssetUpload::NoError) {
qDebug() << "upload failed: " << upload->getErrorString();
} else {
setMapping(hash);
}
upload->deleteLater();
});
upload->start();
}
void InputDeviceMapping::remapMapping(QString previousEvent, QVariant event, QString retroId, unsigned port)
{
// Remove the previous mapping
auto prevEv = eventFromString(previousEvent);
if (prevEv != nullptr)
mapping.erase(prevEv);
InputDeviceEvent *ev = event.value<InputDeviceEvent *>();
if (ev) {
for (auto m=mapping.begin(); m != mapping.end(); ++m) {
qDebug() << QString(*(m->first));
QString prev_event = QString(*(m->first));
if (prev_event == QString(*ev)) {
qDebug() << "Value is already mapped";
return;
}
}
setMapping(ev, retroId.toUInt(), port);
}
}
bool InputDeviceMapping::populateFromSettings(QSettings &s)
{
// retro device type
QString device_type = s.value("device_type").toString();
if (device_type != "joypad") {
// TODO: only supported type for now
return false;
}
setDeviceType(RETRO_DEVICE_JOYPAD);
auto *mapping = settings_mappings.value(device_type);
for (auto i = mapping->constBegin(); i != mapping->constEnd(); i++) {
QVariant val = s.value(i.key());
if (!val.isValid())
continue;
QString eventstr = val.toString();
InputDeviceEvent *ev = eventFromString(eventstr);
if (ev != nullptr)
setMapping(ev, i.value());
}
return true;
}
void Remapper::dataIn( Node::DataType type, QMutex *mutex, void *data, size_t bytes, qint64 timeStamp ) {
switch( type ) {
case DataType::Input: {
// Copy incoming data to our own buffer
GamepadState gamepad;
{
mutex->lock();
gamepad = *reinterpret_cast<GamepadState *>( data );
mutex->unlock();
}
int instanceID = gamepad.instanceID;
int joystickID = gamepad.joystickID;
QString GUID( QByteArray( reinterpret_cast<const char *>( gamepad.GUID.data ), 16 ).toHex() );
// Do initial calibration if not done yet
{
if( deadzoneFlag[ GUID ] ) {
deadzoneFlag[ GUID ] = false;
// Apply default value
for( int i = 0; i < gamepad.joystickNumAxes; i++ ) {
deadzones[ GUID ][ i ] = 10000;
// Check analog value at this moment. If its magnitude is less than 30000 then it's most likely
// an analog stick. Otherwise, it might be a trigger (with a centered value of -32768)
deadzoneModes[ GUID ][ i ] = ( qAbs( static_cast<int>( gamepad.joystickAxis[ i ] ) ) < 30000 );
}
// TODO: Replace with stored value from disk
}
}
// Inject deadzone settings into gamepad
{
for( int i = 0; i < gamepad.joystickNumAxes; i++ ) {
gamepad.deadzone[ i ] = deadzones[ GUID ][ i ];
gamepad.deadzoneMode[ i ] = deadzoneModes[ GUID ][ i ];
}
}
// Send raw joystick data to the model
// Do this before we apply joystick deadzones so the user sees completely unprocessed data
{
// Copy current gamepad into buffer
this->mutex.lock();
gamepadBuffer[ gamepadBufferIndex ] = gamepad;
this->mutex.unlock();
// Send buffer on its way
emit rawJoystickData( &( this->mutex ), reinterpret_cast<void *>( &gamepadBuffer[ gamepadBufferIndex ] ) );
// Increment the index
gamepadBufferIndex = ( gamepadBufferIndex + 1 ) % 100;
}
// Apply deadzones to each stick and both triggers independently
{
qreal deadzone = 0.0;
bool deadzoneMode = false;
for( int i = 0; i < 4; i++ ) {
int xAxis;
int yAxis;
// For the analog sticks, average the underlying joystick axes together to get the final deadzone value
// If either axis has deadzone mode set to true, it'll apply to both
// FIXME: If users complain about this, expand the code to handle this case (one axis true and one axis false) and treat axes indepenently
switch( i ) {
case 0: {
xAxis = SDL_CONTROLLER_AXIS_LEFTX;
yAxis = SDL_CONTROLLER_AXIS_LEFTY;
Val val = gameControllerToJoystick[ GUID ][ Key( AXIS, SDL_CONTROLLER_AXIS_LEFTX ) ];
int axisID = val.second.first;
if( val.first == AXIS ) {
deadzone = deadzones[ GUID ][ axisID ];
deadzoneMode = deadzoneModes[ GUID ][ axisID ];
}
Val val2 = gameControllerToJoystick[ GUID ][ Key( AXIS, SDL_CONTROLLER_AXIS_LEFTY ) ];
axisID = val2.second.first;
if( val2.first == AXIS ) {
deadzone += deadzones[ GUID ][ axisID ];
deadzone /= 2.0;
deadzoneMode = deadzoneMode || deadzoneModes[ GUID ][ axisID ];
}
break;
}
case 1: {
xAxis = SDL_CONTROLLER_AXIS_RIGHTX;
yAxis = SDL_CONTROLLER_AXIS_RIGHTY;
Val val = gameControllerToJoystick[ GUID ][ Key( AXIS, SDL_CONTROLLER_AXIS_RIGHTX ) ];
int axisID = val.second.first;
if( val.first == AXIS ) {
deadzone = deadzones[ GUID ][ axisID ];
deadzoneMode = deadzoneModes[ GUID ][ axisID ];
}
Val val2 = gameControllerToJoystick[ GUID ][ Key( AXIS, SDL_CONTROLLER_AXIS_RIGHTY ) ];
axisID = val2.second.first;
if( val2.first == AXIS ) {
deadzone += deadzones[ GUID ][ axisID ];
deadzone /= 2.0;
deadzoneMode = deadzoneMode || deadzoneModes[ GUID ][ axisID ];
}
break;
}
// For simplicity, just map the triggers to the line y = x
case 2: {
xAxis = SDL_CONTROLLER_AXIS_TRIGGERLEFT;
yAxis = SDL_CONTROLLER_AXIS_TRIGGERLEFT;
Val val = gameControllerToJoystick[ GUID ][ Key( AXIS, SDL_CONTROLLER_AXIS_TRIGGERLEFT ) ];
int axisID = val.second.first;
if( val.first == AXIS ) {
deadzone = deadzones[ GUID ][ axisID ];
deadzoneMode = deadzoneModes[ GUID ][ axisID ];
}
break;
}
case 3: {
xAxis = SDL_CONTROLLER_AXIS_TRIGGERRIGHT;
yAxis = SDL_CONTROLLER_AXIS_TRIGGERRIGHT;
Val val = gameControllerToJoystick[ GUID ][ Key( AXIS, SDL_CONTROLLER_AXIS_TRIGGERRIGHT ) ];
int axisID = val.second.first;
if( val.first == AXIS ) {
deadzone = deadzones[ GUID ][ axisID ];
deadzoneMode = deadzoneModes[ GUID ][ axisID ];
}
break;
}
}
// Map from [-32768, 32767] to [0, 32767]
if( !deadzoneMode ) {
gamepad.axis[ xAxis ] /= 2;
gamepad.axis[ yAxis ] /= 2;
gamepad.axis[ xAxis ] += 16384;
gamepad.axis[ yAxis ] += 16384;
}
// Get axis coords in cartesian coords
// Bottom right is positive -> top right is positive
qreal xCoord = gamepad.axis[ xAxis ];
qreal yCoord = -gamepad.axis[ yAxis ];
// Get radius from center
QVector2D position( static_cast<float>( xCoord ), static_cast<float>( yCoord ) );
qreal radius = static_cast<qreal>( position.length() );
if( !( radius > deadzone ) ) {
gamepad.axis[ xAxis ] = 0;
gamepad.axis[ yAxis ] = 0;
if( xAxis == SDL_CONTROLLER_AXIS_TRIGGERLEFT ) {
gamepad.digitalL2 = false;
}
if( xAxis == SDL_CONTROLLER_AXIS_TRIGGERRIGHT ) {
gamepad.digitalR2 = false;
}
} else {
if( xAxis == SDL_CONTROLLER_AXIS_TRIGGERLEFT ) {
gamepad.digitalL2 = true;
}
if( xAxis == SDL_CONTROLLER_AXIS_TRIGGERRIGHT ) {
gamepad.digitalR2 = true;
}
}
}
}
// Apply deadzones to all joystick axes
// Used only when detecting input for remapping
{
for( int i = 0; i < 16; i++ ) {
qreal deadzoneRadius = deadzones[ GUID ][ i ];
qreal coord = gamepad.joystickAxis[ i ];
if( !deadzoneModes[ GUID ][ i ] ) {
coord += 32768;
}
if( !( qAbs( coord ) > deadzoneRadius ) ) {
gamepad.joystickAxis[ i ] = 0;
}
}
}
// If ignoreMode is set, the user hasn't let go of the button they were remapping to
// Do not let the button go through until they let go
{
if( ignoreMode && ignoreModeGUID == GUID && ignoreModeInstanceID == gamepad.instanceID ) {
if( ignoreModeVal.first == BUTTON ) {
if( gamepad.joystickButton[ ignoreModeVal.second.first ] == SDL_PRESSED ) {
gamepad.joystickButton[ ignoreModeVal.second.first ] = SDL_RELEASED;
} else {
ignoreMode = false;
}
} else if( ignoreModeVal.first == HAT ) {
if( gamepad.joystickHat[ ignoreModeVal.second.first ] != SDL_HAT_CENTERED ) {
gamepad.joystickHat[ ignoreModeVal.second.first ] = SDL_HAT_CENTERED;
} else {
ignoreMode = false;
}
} else if( ignoreModeVal.first == AXIS ) {
if( gamepad.joystickAxis[ ignoreModeVal.second.first ] != 0 ) {
gamepad.joystickAxis[ ignoreModeVal.second.first ] = 0;
} else {
ignoreMode = false;
}
}
}
}
// If we opened an SDL2 Game controller handle from this class, keep it and inject it into all gamepads we send out
{
if( gameControllerHandles[ instanceID ] ) {
gamepad.gamecontrollerHandle = gameControllerHandles[ instanceID ];
}
}
// If we are in remap mode, check for a button press from the stored GUID, and remap the stored button to that button
// All game controller states are cleared past this point if in remap mode
{
if( remapMode && GUID == remapModeGUID ) {
// Find a button press, the first one we encounter will be the new remapping
bool foundInput = false;
Key key = remapModeKey;
Val value = Val( INVALID, VHat( -1, -1 ) );
// Prioritize buttons and hats over analog sticks
for( int joystickButton = 0; joystickButton < 256; joystickButton++ ) {
if( gamepad.joystickButton[ joystickButton ] == SDL_PRESSED ) {
qCDebug( phxInput ).nospace() << "Button b" << joystickButton
<< " from GUID " << GUID << " now activates " << keyToMappingString( key );
foundInput = true;
value.first = BUTTON;
value.second = VHat( joystickButton, -1 );
break;
}
}
for( int joystickHat = 0; joystickHat < 16; joystickHat++ ) {
if( gamepad.joystickHat[ joystickHat ] != SDL_HAT_CENTERED ) {
qCDebug( phxInput ).nospace() << "Hat h" << joystickHat << "." << gamepad.joystickHat[ joystickHat ]
<< " from GUID " << GUID << " now activates " << keyToMappingString( key );
foundInput = true;
value.first = HAT;
value.second = VHat( joystickHat, gamepad.joystickHat[ joystickHat ] );
break;
}
}
for( int joystickAxis = 0; joystickAxis < 16; joystickAxis++ ) {
if( gamepad.joystickAxis[ joystickAxis ] != 0 ) {
qCDebug( phxInput ).nospace() << "Axis a" << joystickAxis
<< " from GUID " << GUID << " now activates " << keyToMappingString( key );
foundInput = true;
value.first = AXIS;
value.second = VHat( joystickAxis, -1 );
break;
}
}
if( foundInput ) {
// Store the new remapping internally
gameControllerToJoystick[ GUID ][ remapModeKey ] = value;
// Tell SDL2 about it
QString mappingString;
QString platform( SDL_GetPlatform() );
{
QString friendlyName = QString( SDL_JoystickName( gamepad.joystickHandle ) );
mappingString.append( GUID ).append( "," ).append( friendlyName ).append( "," );
for( Key key : gameControllerToJoystick[ GUID ].keys() ) {
if( gameControllerToJoystick[ GUID ][ key ].first != INVALID ) {
mappingString.append( keyToMappingString( key ) ).append( ':' )
.append( valToMappingString( gameControllerToJoystick[ GUID ][ key ] ) ).append( ',' );
}
}
mappingString.append( "platform:" ).append( platform ).append( "," );
qDebug().nospace() << mappingString;
// Give SDL the new mapping string
SDL_GameControllerAddMapping( mappingString.toUtf8().constData() );
// If this is not a game controller, reopen as one
SDL_GameController *gamecontrollerHandle = nullptr;
if( !gameControllerHandles[ instanceID ] ) {
gamecontrollerHandle = SDL_GameControllerOpen( joystickID );
gamepad.gamecontrollerHandle = gamecontrollerHandle;
// Store internally so we can inject it into all future events from this instanceID
gameControllerHandles[ instanceID ] = gamecontrollerHandle;
qDebug() << "Opened newly remapped joystick as a game controller:" << gamecontrollerHandle;
}
}
// Store this mapping to disk
{
if( !userDataPath.isEmpty() ) {
QFile mappingFile( userDataPath + "/gamecontrollerdb.txt" );
mappingFile.open( QIODevice::ReadWrite | QIODevice::Text );
QByteArray mappingFileData = mappingFile.readAll();
if( !mappingFile.isOpen() ) {
qWarning() << "Unable to open mapping file for reading" << mappingFile.errorString();
}
mappingFile.close();
QTextStream mappingFileStreamIn( &mappingFileData );
mappingFileStreamIn.setCodec( "UTF-8" );
mappingFile.open( QIODevice::WriteOnly | QIODevice::Text );
if( !mappingFile.isOpen() ) {
qWarning() << "Unable to open mapping file for writing" << mappingFile.errorString();
}
QTextStream mappingFileStreamOut( &mappingFile );
mappingFileStreamOut.setCodec( "UTF-8" );
QString line = "";
while( !line.isNull() ) {
line = mappingFileStreamIn.readLine();
// We want to replace the line (any line) for our platform that contains our GUID
// We'll also filter out empty lines
if( line.isEmpty() || ( line.contains( GUID ) && line.contains( platform ) ) ) {
continue;
}
mappingFileStreamOut << line << endl;
}
mappingFileStreamOut << mappingString << endl;
mappingFile.close();
} else {
qWarning() << "Unable to open controller mapping file, user data path not set";
}
}
// End remap mode, start ignore mode
{
remapMode = false;
ignoreMode = true;
ignoreModeGUID = GUID;
ignoreModeVal = value;
ignoreModeInstanceID = gamepad.instanceID;
}
// Tell the model we're done
{
emit setMapping( GUID, keyToMappingString( key ), valToFriendlyString( value ) );
emit remappingEnded();
}
}
// Clear all game controller states (joystick states are untouched)
for( int i = 0; i < SDL_CONTROLLER_BUTTON_MAX; i++ ) {
gamepad.button[ i ] = 0;
}
for( int i = 0; i < SDL_CONTROLLER_AXIS_MAX; i++ ) {
gamepad.axis[ i ] = 0;
}
} else if( remapMode ) {
// Clear all gamepad states
for( int i = 0; i < SDL_CONTROLLER_BUTTON_MAX; i++ ) {
gamepad.button[ i ] = 0;
}
for( int i = 0; i < SDL_CONTROLLER_AXIS_MAX; i++ ) {
gamepad.axis[ i ] = 0;
}
}
}
// OR all joystick button, hat and analog states together by GUID for RemapperModel to indicate presses
{
for( int i = 0; i < 256; i++ ) {
pressed[ GUID ] |= gamepad.joystickButton[ i ];
}
for( int i = 0; i < 16; i++ ) {
pressed[ GUID ] |= ( gamepad.joystickHat[ i ] != SDL_HAT_CENTERED );
}
for( int i = 0; i < 16; i++ ) {
pressed[ GUID ] |= ( gamepad.joystickAxis[ i ] != 0 );
}
}
// Apply axis to d-pad, if enabled
// This will always be enabled if we're not currently playing so GlobalGamepad can use the analog stick
{
if( analogToDpad[ GUID ] || !playing ) {
// TODO: Support other axes?
int xAxis = SDL_CONTROLLER_AXIS_LEFTX;
int yAxis = SDL_CONTROLLER_AXIS_LEFTY;
// TODO: Let user configure these
qreal threshold = 16384.0;
// Size in degrees of the arc covering and centered around each cardinal direction
// If <90, there will be gaps in the diagonals
// If >180, this code will always produce diagonal inputs
qreal rangeDegrees = 180.0 - 45.0;
// Get axis coords in cartesian coords
// Bottom right is positive -> top right is positive
qreal xCoord = gamepad.axis[ xAxis ];
qreal yCoord = -gamepad.axis[ yAxis ];
// Get radius from center
QVector2D position( static_cast<float>( xCoord ), static_cast<float>( yCoord ) );
qreal radius = static_cast<qreal>( position.length() );
// Get angle in degrees
qreal angle = qRadiansToDegrees( qAtan2( yCoord, xCoord ) );
if( angle < 0.0 ) {
angle += 360.0;
}
if( radius > threshold ) {
qreal halfRange = rangeDegrees / 2.0;
if( angle > 90.0 - halfRange && angle < 90.0 + halfRange ) {
gamepad.button[ SDL_CONTROLLER_BUTTON_DPAD_UP ] = true;
}
if( angle > 270.0 - halfRange && angle < 270.0 + halfRange ) {
gamepad.button[ SDL_CONTROLLER_BUTTON_DPAD_DOWN ] = true;
}
if( angle > 180.0 - halfRange && angle < 180.0 + halfRange ) {
gamepad.button[ SDL_CONTROLLER_BUTTON_DPAD_LEFT ] = true;
}
if( angle > 360.0 - halfRange || angle < 0.0 + halfRange ) {
gamepad.button[ SDL_CONTROLLER_BUTTON_DPAD_RIGHT ] = true;
}
}
}
}
// Apply d-pad to axis, if enabled
{
if( dpadToAnalog[ GUID ] ) {
gamepad = mapDpadToAnalog( gamepad );
}
}
// Send updated data out
{
// Copy current gamepad into buffer
this->mutex.lock();
gamepadBuffer[ gamepadBufferIndex ] = gamepad;
this->mutex.unlock();
// Send buffer on its way
emit dataOut( DataType::Input, &( this->mutex ),
reinterpret_cast<void *>( &gamepadBuffer[ gamepadBufferIndex ] ), 0,
nodeCurrentTime() );
// Increment the index
gamepadBufferIndex = ( gamepadBufferIndex + 1 ) % 100;
}
break;
}
case DataType::KeyboardInput: {
// Unpack keyboard states and write to gamepad according to remap data
{
mutex->lock();
KeyboardState keyboard = *reinterpret_cast<KeyboardState *>( data );
for( int i = keyboard.head; i < keyboard.tail; i = ( i + 1 ) % 128 ) {
int key = keyboard.key[ i ];
bool pressed = keyboard.pressed[ i ];
if( keyboardKeyToSDLButton.contains( key ) ) {
keyboardGamepad.button[ keyboardKeyToSDLButton[ key ] ] = pressed ? SDL_PRESSED : SDL_RELEASED;
}
}
mutex->unlock();
}
// OR all key states together and store that value
for( int i = 0; i < SDL_CONTROLLER_BUTTON_MAX; i++ ) {
keyboardKeyPressed |= keyboardGamepad.button[ i ];
}
// Apply d-pad to axis, if enabled
if( dpadToAnalogKeyboard ) {
keyboardGamepad = mapDpadToAnalog( keyboardGamepad, true );
}
// Send gamepad on its way
{
// Copy current gamepad into buffer
this->mutex.lock();
gamepadBuffer[ gamepadBufferIndex ] = keyboardGamepad;
this->mutex.unlock();
// Send buffer on its way
emit dataOut( DataType::Input, &( this->mutex ),
reinterpret_cast< void * >( &gamepadBuffer[ gamepadBufferIndex ] ), 0,
nodeCurrentTime() );
// Increment the index
gamepadBufferIndex = ( gamepadBufferIndex + 1 ) % 100;
}
break;
}
default: {
emit dataOut( type, mutex, data, bytes, timeStamp );
break;
}
}
}
void Remapper::commandIn( Command command, QVariant data, qint64 timeStamp ) {
switch( command ) {
case Command::Stop:
case Command::Load:
case Command::Pause:
case Command::Unload:
case Command::Reset: {
emit commandOut( command, data, timeStamp );
playing = false;
break;
}
case Command::Play: {
emit commandOut( command, data, timeStamp );
playing = true;
break;
}
case Command::HandleGlobalPipelineReady: {
emit commandOut( command, data, timeStamp );
emit controllerAdded( "", "Keyboard", 0, 0, 0 );
// TODO: Read keyboard setting from disk too
dpadToAnalogKeyboard = true;
// Give the model friendly names for all the keys set
for( int physicalKey : keyboardKeyToSDLButton.keys() ) {
int virtualButton = keyboardKeyToSDLButton[ physicalKey ];
// This prints garbage as-is, so change it to something that doesn't
// Confirmed on Windows but looks okay in OS X?
// https://bugreports.qt.io/browse/QTBUG-40030
if( physicalKey == Qt::Key_Shift ) {
physicalKey = Qt::ShiftModifier;
}
if( physicalKey == Qt::Key_Control ) {
physicalKey = Qt::ControlModifier;
}
if( physicalKey == Qt::Key_Meta ) {
physicalKey = Qt::MetaModifier;
}
if( physicalKey == Qt::Key_Alt ) {
physicalKey = Qt::AltModifier;
}
if( physicalKey == Qt::Key_AltGr ) {
physicalKey = Qt::AltModifier;
}
QString keyString = QKeySequence( physicalKey ).toString( QKeySequence::NativeText );
// Strip out trailing + in the corrected keys
if( keyString.length() > 1 ) {
keyString = keyString.section( '+', 0, 0 );
}
emit setMapping( "", keyString, gameControllerIDToMappingString( virtualButton ) );
}
break;
}
case Command::SetUserDataPath: {
userDataPath = data.toString();
qDebug() << "Using path" << userDataPath;
break;
}
case Command::Heartbeat: {
emit commandOut( command, data, timeStamp );
// Tell the model to clear its stored states
emit heartbeat();
// Send out per-GUID OR'd states to RemapperModel then clear stored pressed states
for( QString GUID : pressed.keys() ) {
emit buttonUpdate( GUID, pressed[ GUID ] );
pressed[ GUID ] = false;
}
// Do the same for the keyboard
emit buttonUpdate( "", keyboardKeyPressed );
keyboardKeyPressed = false;
// If in remap mode, make sure the GUID in question still exists, exit remap mode if not
if( remapMode && !GUIDCount.contains( remapModeGUID ) ) {
qCWarning( phxInput ) << "No controllers with GUID" << remapModeGUID << "remaining, exiting remap mode!";
remapMode = false;
emit remappingEnded();
}
break;
}
case Command::AddController: {
emit commandOut( command, data, timeStamp );
GamepadState gamepad = data.value<GamepadState>();
int instanceID = gamepad.instanceID;
QString GUID( QByteArray( reinterpret_cast<const char *>( gamepad.GUID.data ), 16 ).toHex() );
// Add to map if it hasn't been encountered yet
// Otherwise, just increment the count
if( !GUIDCount.contains( GUID ) ) {
GUIDCount[ GUID ] = 1;
emit controllerAdded( GUID, gamepad.friendlyName, gamepad.joystickNumButtons, gamepad.joystickNumHats, gamepad.joystickNumAxes );
} else {
GUIDCount[ GUID ]++;
}
// Initialize mappings with invalid values
for( int i = 0; i < SDL_CONTROLLER_BUTTON_MAX; i++ ) {
Key key = Key( BUTTON, i );
Val val = Val( INVALID, VHat( -1, -1 ) );
gameControllerToJoystick[ GUID ][ key ] = val;
emit setMapping( GUID, keyToMappingString( key ), valToFriendlyString( val ) );
}
// Grab gamepad handle
gameControllerHandles[ instanceID ] = gamepad.gamecontrollerHandle;
for( int i = 0; i < SDL_CONTROLLER_AXIS_MAX; i++ ) {
Key key = Key( AXIS, i );
Val val = Val( INVALID, VHat( -1, -1 ) );
gameControllerToJoystick[ GUID ][ key ] = val;
emit setMapping( GUID, keyToMappingString( key ), valToFriendlyString( val ) );
}
// TODO: Read value from disk
analogToDpad[ GUID ] = false;
dpadToAnalog[ GUID ] = false;
// Set calibration flag, analog values will be read and deadzone values will be calculated the first time
// we get data
deadzoneFlag[ GUID ] = true;
QString mappingString = gamepad.mappingString;
if( mappingString.isEmpty() ) {
return;
}
// Parse mapping string
{
QStringList mappings = mappingString.split( ',', QString::SkipEmptyParts );
// No one likes QList asserts failing
if( mappings.isEmpty() ) {
return;
}
/*QString gamepadGUID =*/ mappings.takeFirst();
if( mappings.isEmpty() ) {
return;
}
QString friendlyName = mappings.takeFirst();
if( mappings.isEmpty() ) {
return;
}
QString platform;
// Parse the main part of the remapping string
for( QString mapping : mappings ) {
if( mapping.contains( "platform" ) ) {
platform = mapping;
continue;
}
QString keyString = mapping.section( ':', 0, 0 );
QString valueString = mapping.section( ':', 1, 1 );
// Give up if there's nothing parsed
if( keyString.isEmpty() || valueString.isEmpty() ) {
continue;
}
Type valueType;
// Parse the key
Key key = Key( BUTTON, SDL_CONTROLLER_BUTTON_INVALID );
{
bool okay;
key = mappingStringToKey( keyString, &okay );
if( !okay ) {
continue;
}
}
// Parse the value
int value = -1;
int hatValue = -1;
{
// Button, format: bX
if( valueString.startsWith( "b" ) ) {
valueType = BUTTON;
bool okay;
value = valueString.right( valueString.size() - 1 ).toInt( &okay );
if( !okay ) {
continue;
}
}
// Hat, format: hX.Y
else if( valueString.startsWith( "h" ) ) {
valueType = HAT;
bool okay;
value = valueString.right( valueString.size() - 1 ).split( '.' )[ 0 ].toInt( &okay );
if( !okay ) {
continue;
}
hatValue = valueString.split( '.' )[ 1 ].toInt( &okay );
if( !okay ) {
continue;
}
}
// Axis, format aX
else if( valueString.startsWith( "a" ) ) {
valueType = AXIS;
bool okay;
value = valueString.right( valueString.size() - 1 ).toInt( &okay );
if( !okay ) {
continue;
}
} else {
continue;
}
}
//qDebug() << keyString << valueString << key << keyType << value << hatValue << valueType;
gameControllerToJoystick[ GUID ][ key ] = Val( valueType, VHat( value, hatValue ) );
emit setMapping( GUID, keyToMappingString( key ), valToFriendlyString( Val( valueType, VHat( value, hatValue ) ) ) );
}
}
break;
}
case Command::RemoveController: {
GamepadState gamepad = data.value<GamepadState>();
int instanceID = gamepad.instanceID;
QString GUID( QByteArray( reinterpret_cast<const char *>( gamepad.GUID.data ), 16 ).toHex() );
GUIDCount[ GUID ]--;
// Remove from map if no longer there
if( GUIDCount[ GUID ] == 0 ) {
GUIDCount.remove( GUID );
emit controllerRemoved( GUID );
}
// If we opened an SDL2 Game controller handle from this class, keep it and inject it into all gamepads we send out
if( gameControllerHandles[ instanceID ] ) {
gamepad.gamecontrollerHandle = gameControllerHandles[ instanceID ];
}
gameControllerHandles.remove( instanceID );
emit commandOut( Command::RemoveController, QVariant::fromValue( gamepad ), nodeCurrentTime() );
break;
}
default: {
emit commandOut( command, data, timeStamp );
break;
}
}
}
void DataBase::copyAttributes(Object::const_ptr src, bool replace) {
Base::copyAttributes(src, replace);
if (auto d = DataBase::as(src)) {
setMapping(d->mapping());
}
}
void VertexWelder::update(NxMeshData meshData)
{
assert(mWriteVerticesPtr != NULL);
bool updateVertices = (*(meshData.dirtyBufferFlagsPtr) & (NX_MDF_VERTICES_POS_DIRTY | NX_MDF_VERTICES_NORMAL_DIRTY)) > 0;
bool updateIndices = (*(meshData.dirtyBufferFlagsPtr) & (NX_MDF_INDICES_DIRTY | NX_MDF_PARENT_INDICES_DIRTY)) > 0;
NxU32 numNewVertices = *meshData.numVerticesPtr;
NxU32 numTriangles = *meshData.numIndicesPtr / 3;
NxU32 oldMappingDomain = mMappingDomain;
NxArray<NewVertex> newVertices;
NxArray<DifficultVertex> difficultVertices;
mMappingDomainAddition = 0;
if (updateVertices)
{
if (mMappingDomain < numNewVertices)
{
#ifdef DEBUG_WELDER
printf("------------------------------------\n");
#endif
for (NxU32 i = mMappingDomain; i < numNewVertices; i++)
{
NewVertex v;
v.index = i;
v.parent = *(NxU32*)(((char*)meshData.parentIndicesBegin) + meshData.parentIndicesByteStride * i);
while (v.parent >= (NxI32)mMappingDomain) {
v.parent = *(NxU32*)(((char*)meshData.parentIndicesBegin) + meshData.parentIndicesByteStride * v.parent);
}
#ifdef DEBUG_WELDER
printf("New Vertex: %d %d\n", v.index, v.parent);
#endif
newVertices.push_back(v);
}
std::sort(newVertices.begin(), newVertices.end(), sortParent);
}
for (NxU32 i = 0; i < mMappingSize; i++)
{
NxU32 mappedIndex = getMapping(i);
NewVertex newV;
newV.parent = mappedIndex;
// Find all vertices that are a parent for a newly created vertex
NxArray<NewVertex>::iterator found = std::lower_bound(newVertices.begin(), newVertices.end(), newV, sortParent);
while (found != NULL && found->parent == mappedIndex)
{
found->mappedVertices ++;
if (found->mappedVertices == 1)
{
found->unMapParent = i;
#ifdef DEBUG_WELDER
printf("New Vertex Update, %d %d %d\n", found->index, found->parent, found->unMapParent);
#endif
}
else
{
// several unmapped parents
DifficultVertex v;
v.mappedIndex = found->index;
v.unMappedIndex = i;
difficultVertices.push_back(v);
#ifdef DEBUG_WELDER
printf("Difficult Vertex %d %d\n", v.unMappedIndex, v.mappedIndex);
#endif
if (found->mappedVertices == 2)
{
v.unMappedIndex = found->unMapParent;
difficultVertices.push_back(v);
#ifdef DEBUG_WELDER
printf("Difficult Vertex %d %d\n", v.unMappedIndex, v.mappedIndex);
#endif
}
found->unMapParent = -2;
}
found++;
}
NxVec3& vertex = *(NxVec3*)(((char*)mWriteVerticesPtr) + mWriteVerticesStride * i);
NxVec3& normal = *(NxVec3*)(((char*)mWriteNormalsPtr) + mWriteNormalsStride* i);
//float* texCoord = (float*)(((char*)texCoords) + texStride * i);
const NxVec3& oldVertex = *(NxVec3*)(((char*)meshData.verticesPosBegin) + meshData.verticesPosByteStride * mappedIndex);
const NxVec3& oldNormal = *(NxVec3*)(((char*)meshData.verticesNormalBegin) + meshData.verticesNormalByteStride * mappedIndex);
vertex = oldVertex;
normal = oldNormal;
}
// Adapt the mapping table
std::sort(newVertices.begin(), newVertices.end(), sortIndex);
std::sort(difficultVertices.begin(), difficultVertices.end(), sortDifficultExt);
}
if (updateIndices)
{
std::vector<bool> bitVector(mMappingSpace, false);
#ifdef DEBUG_WELDER
printf("updateIndices: Vertices: %d, Indices %d, gfx Vertices: %d\n", *meshData.numVerticesPtr, *meshData.numIndicesPtr, mMappingSize);
#endif
if (difficultVertices.size() > 0)
{
#ifdef DEBUG_WELDER
printf(" Difficult Vertices:\n");
#endif
for (NxU32 i = 0; i < difficultVertices.size(); i++)
{
DifficultVertex& v = difficultVertices[i];
#ifdef DEBUG_WELDER
printf(" V %d %d\n", v.unMappedIndex, v.mappedIndex);
#endif
}
}
assert((meshData.flags & NX_MF_16_BIT_INDICES) == 0);
assert(meshData.indicesByteStride == 4);
for (NxU32 i = 0; i < numTriangles; i++)
{
const NxU32* simTriangle = (NxU32*)(((char*)meshData.indicesBegin) + meshData.indicesByteStride * (i*3));
NxU32* gfxTriangle = (NxU32*)(((char*)mWriteIndicesPtr) + mWriteIndicesStride* i);
if (simTriangle[0] == simTriangle[1] && simTriangle[1] == simTriangle[2])
{
// Face was deleted (outside valid bounds probably)
gfxTriangle[0] = gfxTriangle[1] = gfxTriangle[2] = 0;
continue;
}
for (NxU32 j = 0; j < 3; j++)
{
DifficultVertex v;
v.mappedIndex = simTriangle[j];
v.unMappedIndex = gfxTriangle[j];
if (std::binary_search(difficultVertices.begin(), difficultVertices.end(), v, sortDifficult))
{
NxArray<DifficultVertex>::iterator it = std::lower_bound(difficultVertices.begin(), difficultVertices.end(), v, sortDifficultExt);
#ifdef DEBUG_WELDER
printf("-- Triangle %d (%d) (%d %d %d) (%d %d %d)", i, j, simTriangle[0], simTriangle[1], simTriangle[2], gfxTriangle[0], gfxTriangle[1], gfxTriangle[2]);
printf(" %d %d\n", v.unMappedIndex, v.mappedIndex);
#endif
if (it == NULL || it->mappedIndex != simTriangle[j])
{
// element hasn't been found
//insert element
#ifdef DEBUG_WELDER
printf("Adding Diff %d %d\n", v.unMappedIndex, v.mappedIndex);
#endif
difficultVertices.push_back(v);
// sort now, don't know whether this could be done less often, so far the list is extremely small
std::sort(difficultVertices.begin(), difficultVertices.end(), sortDifficultExt);
// get the freshly created item
it = std::lower_bound(difficultVertices.begin(), difficultVertices.end(), v, sortDifficultExt);
// element has to exist
assert(it != NULL);
}
if (it->newUnMappedIndex >= 0)
{
gfxTriangle[j] = it->newUnMappedIndex;
}
else if (bitVector[it->unMappedIndex])
{
#ifdef DEBUG_WELDER
printf("Bit %d is true\n", it->unMappedIndex);
#endif
// create a new gfx vertex
it->newUnMappedIndex = mMappingSize;
addNewVertex(gfxTriangle[j]);
setMapping(it->newUnMappedIndex, simTriangle[j]);
gfxTriangle[j] = it->newUnMappedIndex;
bitVector[it->newUnMappedIndex] = true;
}
else
{
#ifdef DEBUG_WELDER
printf("Set Bit %d to true\n", it->unMappedIndex);
#endif
bitVector[it->unMappedIndex] = true;
it->newUnMappedIndex = it->unMappedIndex;
setMapping(it->newUnMappedIndex, simTriangle[j]);
}
}
else if (simTriangle[j] >= oldMappingDomain) // only used when not a difficult vertex
{
// unamp index and update
for (NxU32 k = 0; k < newVertices.size(); k++)
{
NewVertex& v = newVertices[k];
if (v.index == simTriangle[j] && v.mappedVertices == 1)
{
#ifdef DEBUG_WELDER
printf("- Triangle %d (%d %d %d) (%d %d %d)", i, simTriangle[0], simTriangle[1], simTriangle[2], gfxTriangle[0], gfxTriangle[1], gfxTriangle[2]);
printf(" %d %d\n", v.unMapIndex, v.index);
#endif
if (v.unMapIndex == -1)
{
#ifdef DEBUG_WELDER
printf("Add Simple\n");
#endif
v.unMapIndex = mMappingSize;
//addNewVertex(vertices, vertexStride, normals, normalStride, texCoords, texStride, v.unMapParent);
addNewVertex(gfxTriangle[j]);
gfxTriangle[j] = v.unMapIndex;
setMapping(v.unMapIndex, v.index);
}
else
{
#ifdef DEBUG_WELDER
printf("Use Simple\n");
#endif
gfxTriangle[j] = v.unMapIndex;
}
break; // for (k)
}
}
}
}
}
}
if (updateVertices)
{
mMappingDomain = *meshData.numVerticesPtr;
#ifdef DEBUG_WELDER
static bool sanityCheck = true;
if (sanityCheck)
{
// sanity check
NxU32 temp = 0;
for (NxU32 i = 0; i < mMappingSize; i++)
{
temp = NxMath::max(getMapping(i), temp);
}
if (temp != mMappingDomain - 1)
{
printf("Mapping Domain not right, is %d, should be %d\n", temp, mMappingDomain-1);
assert(0);
}
for (NxU32 i = 0; i < numTriangles; i++)
{
const NxU32* simTriangle = (NxU32*)(((char*)meshData.indicesBegin) + meshData.indicesByteStride * (i*3));
NxU32* gfxTriangle = (NxU32*)(((char*)mWriteIndicesPtr) + mWriteIndicesStride * i);
for (NxU32 j = 0; j < 3; j++)
{
if (simTriangle[j] != getMapping(gfxTriangle[j]))
{
printf("Triangle %d (%d) not correct (%d %d %d) -> (%d %d %d) != (%d %d %d)\n",
i, 3*i+j,
gfxTriangle[0], gfxTriangle[1], gfxTriangle[2],
getMapping(gfxTriangle[0]), getMapping(gfxTriangle[1]), getMapping(gfxTriangle[2]),
simTriangle[0], simTriangle[1], simTriangle[2]);
assert(0);
}
}
}
}
#endif
}
return;
}
void processPacket (MWEvent *eventPacket)
{
MW244BPacket *p = new MW244BPacket ;
p = eventPacket->eventDetail;
/*cout << p->ID<< endl;
cout << p->sequence_number<< endl;
cout << p->score<< endl;
cout << p->x_pos<< endl;
cout << p->y_pos<< endl;
cout << p->dir<< endl;
cout << p->tagged_rat<< endl;
cout << p->globalID<< endl;
ConvertIncoming(p);
cout << p->ID<< endl;
cout << p->sequence_number<< endl;
cout << p->score<< endl;
cout << p->x_pos<< endl;
cout << p->y_pos<< endl;
cout << p->dir<< endl;
cout << p->tagged_rat<< endl;
cout << p->globalID<< endl;
exit(0);*/
cout << "PP " << p->ID << endl;
if (myPacket(p, &eventPacket->eventSource) && join)// BECAUSE WHILE YOU ARE STILL 0, you will get packets with ID 0
{
return;
}
else {
if (!join && expected_seqno[p->ID] <= p->sequence_number){
if (p->globalID == 7) // What if there is only player with global ID 7? :/
{
cout << "You are one player too many :(" << endl;
cout << "Please try again later." << endl;
exit(0);
}
else
{ for (int i = 0; i < 100; i++)
cout << "Incrementing for no reason" << endl;
join = true;
GLOBAL_ID = p->globalID+1;
M->myRatIdIs(GLOBAL_ID);
setMapping();
UpdateScoreCard(0);
MW244BPacket q;
makePacket(&q,'h',-1, updateSeqNo);
sendPacketToPlayers(q);
participants[p->ID]++;
Rat r;
r.playing = 1;
cout << "NEW " << p->ID << endl;
r.x=p->x_pos;
r.y=p->y_pos;
r.dir=(p->dir);
M->mazeRats_[Mapping_idToIndex.find(p->ID)->second] = r;
rat_array[p-> ID]=new MW244BPacket;
rat_array[Mapping_idToIndex.find(p->ID)->second]=p;
Loc x(p->x_pos);
Loc y(p->y_pos);
Direction dir(p-> dir);
RatIndexType ratId(Mapping_idToIndex.find(p->ID)->second);
SetRatPosition(ratId, x, y, dir);
UpdateScoreCard(Mapping_idToIndex.find(p-> ID)->second);
expected_seqno[p->ID] = p->sequence_number + 1;
return;
}
}
if (GLOBAL_ID < p->globalID && expected_seqno[p->ID] <= p->sequence_number )
GLOBAL_ID = p->globalID;
if (p->status == 'a' && p->tagged_rat == M->myRatId().value())
{ // cannot discard expected_seqno[p->ID] <= p->sequence_number
// because we're getting this packet because the other side didn't get b :(
// MUST send b
MW244BPacket q;
makePacket(&q,'b',-1, updateSeqNo);
sendPacketToPlayers(q);
cout<<p->sequence_number<<"Seq number"<<endl;
cout<<prevseq_a[p->ID]<<"Previous Seq number"<<endl;
if (p->sequence_number > prevseq_a[p->ID])
{ // dealing with duplicates
DrawString("You have been tagged!",21,200,250);
M->scoreIs( M->score().value()-5 );
UpdateScoreCard(0);
NewPosition(M);
}
prevseq_a[p->ID] = p->sequence_number;
}
else if (p->status == 'a' && expected_seqno[p->ID] <= p->sequence_number){
//RatIndexType ratId(p-> ID);
//ClearRatPosition(ratId);
RatIndexType ratId( Mapping_idToIndex.find(p->ID)->second);
ClearRatPosition(ratId);
}
if (p->status == 'b' && expected_seqno[p->ID] <= p->sequence_number)
{
checkingzero = 1;
updateSeqNo = true;
}
if (p->status == 'f' && expected_seqno[p->ID] <= p->sequence_number)
{
//player has left
cout << "Player has gone :(" << endl;
participants[p->ID] = -1;// in next section, will be incremented to 0
// automatically dealt with in ratstates
RatIndexType ratId( Mapping_idToIndex.find(p->ID)->second);
ClearRatPosition(ratId); // WHY IS THIS NOT WORKING? :/
clearSquare(p->x_pos, p->y_pos);
cout << p->x_pos << "," << p->y_pos << endl;
cout << M->mazeRats_[Mapping_idToIndex.find(p->ID)->second].x.value() << "," << M->mazeRats_[Mapping_idToIndex.find(p->ID)->second].y.value() << endl;
}
if (expected_seqno[p->ID] <= p->sequence_number)
{ // if this condition is false, then we are discarding the packet.
Rat r;
r.playing = 1;
cout << "IF " << p->ID << endl;
r.x=p->x_pos;
r.y=p->y_pos;
r.dir=(p->dir);
M->mazeRats_[Mapping_idToIndex.find(p->ID)->second] = r;
rat_array[p-> ID]=new MW244BPacket;
rat_array[Mapping_idToIndex.find(p->ID)->second]=p;
Loc x(p->x_pos);
Loc y(p->y_pos);
Direction dir(p-> dir);
RatIndexType ratId(Mapping_idToIndex.find(p->ID)->second);
SetRatPosition(ratId, x, y, dir);
UpdateScoreCard(Mapping_idToIndex.find(p-> ID)->second);
expected_seqno[p->ID] = p->sequence_number + 1;
participants[p->ID]++;
}
}
}
/* ----------------------------------------------------------------------- */
void play(void)
{ // initialisation
cout << "Starting Play" << endl;
//SetRatPosition(7,1,5,0);
proj.present = false;
proj.prev_x = proj.prev_y = proj.x = proj.y = 1;
int turn = 0;
updateSeqNo = true;
join = false;
for (int k = 0; k < 8; k++)
participants[k] = prevseq_a[k] = 0;
for (int k = 0; k < 8; k++)
expected_seqno[k] = k+1;
GLOBAL_ID = 0;
checking = 1;
checkingzero=1;
MWEvent event;
MW244BPacket incoming;
event.eventDetail = &incoming;
while (TRUE) {
turn ++;
NextEvent(&event, M->theSocket());
if (!M->peeking())
switch(event.eventType) {
case EVENT_A:
aboutFace();
break;
case EVENT_S:
leftTurn();
break;
case EVENT_D:
forward();
break;
case EVENT_F:
rightTurn();
break;
case EVENT_LEFT_D:
peekLeft();
break;
case EVENT_BAR:
shoot();
break;
case EVENT_RIGHT_D:
peekRight();
break;
case EVENT_NETWORK:
processPacket(&event);
break;
case EVENT_TIMEOUT:
checking = (++checking) % 25;
if (checking == 0 && !join){
cout << "Setting ID to zero" << endl;
join = true;
setMapping();
}
else {cout << "TIMEOUT" << endl;
participation = (++participation) % 30;
manageMissiles();
if (participation == 29)
{ ratStates(); /* clean house */
for (int i = 0 ; i < 8 ; i++)
participants[i] = 0;
}
}
break;
case EVENT_INT:
quit(0);
break;
}
else
switch (event.eventType) {
case EVENT_RIGHT_U:
case EVENT_LEFT_U:
peekStop();
break;
case EVENT_NETWORK:
processPacket(&event);
break;
}
DoViewUpdate();
checking ++;
manageMissiles();
if (join && checkingzero == 0)
{
MW244BPacket p;
makePacket(&p,'a',kills, updateSeqNo);
sendPacketToPlayers(p);
}
else if (join && turn % 2 == 0)
{
MW244BPacket p;
makePacket(&p,'t',-1, updateSeqNo);
sendPacketToPlayers(p);
}
}
}
ViewerWindow::ViewerWindow(QWidget* parent, Qt::WindowFlags flags)
: QMainWindow(parent, flags)
, gameData(nullptr)
, gameWorld(nullptr)
, renderer(nullptr)
{
setMinimumSize(640, 480);
QMenuBar* mb = this->menuBar();
QMenu* file = mb->addMenu("&File");
file->addAction("Open &Game", this, SLOT(loadGame()));
file->addSeparator();
for(int i = 0; i < MaxRecentGames; ++i) {
QAction* r = file->addAction("");
recentGames.append(r);
connect(r, SIGNAL(triggered()), SLOT(openRecent()));
}
recentSep = file->addSeparator();
auto ex = file->addAction("E&xit");
ex->setShortcut(QKeySequence::Quit);
connect(ex, SIGNAL(triggered()), QApplication::instance(), SLOT(closeAllWindows()));
//----------------------- View Mode setup
viewerWidget = new ViewerWidget;
viewerWidget->context()->makeCurrent();
connect(this, SIGNAL(loadedData(GameWorld*)), viewerWidget, SLOT(dataLoaded(GameWorld*)));
//------------- Object Viewer
m_views[ViewMode::Object] = new ObjectViewer(viewerWidget);
m_viewNames[ViewMode::Object] = "Objects";
//------------- Model Viewer
m_views[ViewMode::Model] = new ModelViewer(viewerWidget);
m_viewNames[ViewMode::Model] = "Model";
//------------- World Viewer
m_views[ViewMode::World] = new WorldViewer(viewerWidget);
m_viewNames[ViewMode::World] = "World";
//------------- display mode switching
viewSwitcher = new QStackedWidget;
auto signalMapper = new QSignalMapper(this);
auto switchPanel = new QVBoxLayout();
int i = 0;
for(auto viewer : m_views) {
viewSwitcher->addWidget(viewer);
connect(this, SIGNAL(loadedData(GameWorld*)), viewer, SLOT(showData(GameWorld*)));
auto viewerButton = new QPushButton(m_viewNames[i].c_str());
signalMapper->setMapping(m_views[i], i);
signalMapper->setMapping(viewerButton, i);
connect(viewerButton, SIGNAL(clicked()), signalMapper, SLOT(map()));
switchPanel->addWidget(viewerButton);
i++;
}
// Map world viewer loading placements to switch to the world viewer
connect(m_views[ViewMode::World], SIGNAL(placementsLoaded(QString)), signalMapper, SLOT(map()));
switchView(ViewMode::Object);
connect(m_views[ViewMode::Object], SIGNAL(showObjectModel(uint16_t)), this, SLOT(showObjectModel(uint16_t)));
connect(m_views[ViewMode::Object], SIGNAL(showObjectModel(uint16_t)), m_views[ViewMode::Model], SLOT(showObject(uint16_t)));
connect(this, SIGNAL(loadAnimations(QString)), m_views[ViewMode::Model], SLOT(loadAnimations(QString)));
connect(signalMapper, SIGNAL(mapped(int)), this, SLOT(switchView(int)));
connect(signalMapper, SIGNAL(mapped(int)), viewSwitcher, SLOT(setCurrentIndex(int)));
switchPanel->addStretch();
auto mainlayout = new QHBoxLayout();
mainlayout->addLayout(switchPanel);
mainlayout->addWidget(viewSwitcher);
auto mainwidget = new QWidget();
mainwidget->setLayout(mainlayout);
QMenu* data = mb->addMenu("&Data");
//data->addAction("Export &Model", objectViewer, SLOT(exportModel()));
QMenu* anim = mb->addMenu("&Animation");
anim->addAction("Load &Animations", this, SLOT(openAnimations()));
QMenu* map = mb->addMenu("&Map");
map->addAction("Load IPL", m_views[ViewMode::World], SLOT(loadPlacements()));
this->setCentralWidget(mainwidget);
updateRecentGames();
}