void Creature::drawOutfit(const Rect& destRect, bool resize)
{
int exactSize;
if(m_outfit.getCategory() == ThingCategoryCreature)
exactSize = getExactSize();
else
exactSize = g_things.rawGetThingType(m_outfit.getAuxId(), m_outfit.getCategory())->getExactSize();
if(g_graphics.canUseFBO()) {
const FrameBufferPtr& outfitBuffer = g_framebuffers.getTemporaryFrameBuffer();
outfitBuffer->resize(Size(2*Otc::TILE_PIXELS, 2*Otc::TILE_PIXELS));
outfitBuffer->bind();
g_painter->setAlphaWriting(true);
g_painter->clear(Color::alpha);
internalDrawOutfit(Point(Otc::TILE_PIXELS,Otc::TILE_PIXELS) + getDisplacement(), 1, false, true, Otc::South);
outfitBuffer->release();
Rect srcRect;
if(resize)
srcRect.resize(exactSize, exactSize);
else
srcRect.resize(2*Otc::TILE_PIXELS*0.75f, 2*Otc::TILE_PIXELS*0.75f);
srcRect.moveBottomRight(Point(2*Otc::TILE_PIXELS - 1, 2*Otc::TILE_PIXELS - 1));
outfitBuffer->draw(destRect, srcRect);
} else {
float scaleFactor;
if(resize)
scaleFactor = destRect.width() / (float)exactSize;
else
scaleFactor = destRect.width() / (float)(2*Otc::TILE_PIXELS*0.75f);
Point dest = destRect.bottomRight() - (Point(Otc::TILE_PIXELS,Otc::TILE_PIXELS) - getDisplacement())*scaleFactor;
internalDrawOutfit(dest, scaleFactor, false, true, Otc::South);
}
}
void world_update_state()
{
xSemaphoreTake(world.update_state_mutex, portMAX_DELAY);
// save current encoder data in prev encoder structures
xSemaphoreTake(world.encoder_mutex, portMAX_DELAY);
copy_encoder(&(world.curr_left), &(world.prev_left));
copy_encoder(&(world.curr_right), &(world.prev_right));
xSemaphoreGive(world.encoder_mutex);
// update encoder values
world_update_encoder(ODO_CURR_ENCODER_RIGHT);
world_update_encoder(ODO_CURR_ENCODER_LEFT);
// get displacement based on current tickvalues of encoders
State ds = getDisplacement(world.curr_right, world.curr_left,
world.prev_right, world.prev_left,
world.phi);
// update state of the robot
xSemaphoreTake(world.state_mutex, portMAX_DELAY);
world.phi += ds.phi;
if (world.phi < -PI) {
world.phi += 2*PI;
}
if (world.phi > PI) {
world.phi += -2*PI;
}
world.x += ds.x;
world.y += ds.y;
//UARTprintf("x : %d | y : %d | phi : %d\n", (int) world.x, (int) world.y, (int) (world.phi*1000));
xSemaphoreGive(world.state_mutex);
xSemaphoreGive(world.update_state_mutex);
}
//------------------------------------------------------------------------------
// draw()
//------------------------------------------------------------------------------
void BearingPointer::draw()
{
bool c = isCentered();
LCreal dis = getDisplacement();
lcSaveMatrix();
if (!c) lcTranslate(0, dis);
lcRotate(myRotation);
BasicGL::Graphic::draw();
lcRestoreMatrix();
}
void Creature::draw(const Point& dest, float scaleFactor, bool animate)
{
Point animationOffset = animate ? m_walkOffset : Point(0,0);
if(m_showTimedSquare && animate) {
g_painter->setColor(m_timedSquareColor);
g_painter->drawBoundingRect(Rect(dest + (animationOffset - getDisplacement() + 2)*scaleFactor, Size(28, 28)*scaleFactor), std::max((int)(2*scaleFactor), 1));
g_painter->setColor(Color::white);
}
if(m_showStaticSquare && animate) {
g_painter->setColor(m_staticSquareColor);
g_painter->drawBoundingRect(Rect(dest + (animationOffset - getDisplacement())*scaleFactor, Size(Otc::TILE_PIXELS, Otc::TILE_PIXELS)*scaleFactor), std::max((int)(2*scaleFactor), 1));
g_painter->setColor(Color::white);
}
internalDrawOutfit(dest + animationOffset * scaleFactor, scaleFactor, animate, animate, m_direction);
m_footStepDrawn = true;
}
void Thing::internalDraw(const Point& dest, float scaleFactor, int w, int h, int xPattern, int yPattern, int zPattern, int layer, int animationPhase)
{
int scaledSize = Otc::TILE_PIXELS * scaleFactor;
int spriteId = getSpriteId(w, h, layer, xPattern, yPattern, zPattern, animationPhase);
if(spriteId) {
Rect drawRect(dest - getDisplacement()*scaleFactor, Size(scaledSize, scaledSize));
g_painter->setColor(Color::white);
g_painter->drawTexturedRect(drawRect, g_sprites.getSpriteTexture(spriteId));
}
}
void Creature::draw(const Point& dest, float scaleFactor, bool animate, LightView *lightView)
{
if(!canBeSeen())
return;
Point animationOffset = animate ? m_walkOffset : Point(0,0);
if(m_showTimedSquare && animate) {
g_painter->setColor(m_timedSquareColor);
g_painter->drawBoundingRect(Rect(dest + (animationOffset - getDisplacement() + 2)*scaleFactor, Size(28, 28)*scaleFactor), std::max<int>((int)(2*scaleFactor), 1));
g_painter->setColor(Color::white);
}
if(m_showStaticSquare && animate) {
g_painter->setColor(m_staticSquareColor);
g_painter->drawBoundingRect(Rect(dest + (animationOffset - getDisplacement())*scaleFactor, Size(Otc::TILE_PIXELS, Otc::TILE_PIXELS)*scaleFactor), std::max<int>((int)(2*scaleFactor), 1));
g_painter->setColor(Color::white);
}
internalDrawOutfit(dest + animationOffset * scaleFactor, scaleFactor, animate, animate, m_direction);
m_footStepDrawn = true;
if(lightView) {
Light light = rawGetThingType()->getLight();
if(m_light.intensity != light.intensity || m_light.color != light.color)
light = m_light;
// local player always have a minimum light in complete darkness
if(isLocalPlayer() && (g_map.getLight().intensity < 64 || m_position.z > Otc::SEA_FLOOR)) {
light.intensity = std::max<uint8>(light.intensity, 3);
if(light.color == 0 || light.color > 215)
light.color = 215;
}
if(light.intensity > 0)
lightView->addLightSource(dest + (animationOffset + Point(16,16)) * scaleFactor, scaleFactor, light);
}
}
//------------------------------------------------------------------------------
// converts screen to lat/lon coordinates
//------------------------------------------------------------------------------
bool MapPage::screen2LatLon(const LCreal x, const LCreal y,
double* const lat, double* const lon) const
{
bool ok = false;
const double scale = getScale();
const double cosLat = getCosRefLat();
if (lat != nullptr && lon != nullptr && scale != 0 && cosLat != 0) {
// buffer the inputs
double screenX = x;
double screenY = y;
// Adjust for the decentered displayment
if ( !getCentered() ) screenY -= getDisplacement();
// Scale from screen (inches) to A/C (NM) and
// transpose the X and Y from screen to A/C
const double acX = screenY/scale;
const double acY = screenX/scale;
// Rotate A/C to NED
double earthX = 0.0;
double earthY = 0.0;
if (getNorthUp()) {
earthX = acX;
earthY = acY;
}
else {
earthX = (acX * headingCos) - (acY * headingSin);
earthY = (acX * headingSin) + (acY * headingCos);
}
// Convert nautical miles (NED) from ref point to lat/lon
*lat = (earthX/60.0) + getReferenceLatDeg();
*lon = (earthY/(60.0*cosLat)) + getReferenceLonDeg();
ok = true;
}
return ok;
}
//------------------------------------------------------------------------------
// converts lat/lon to screen coordinates
//------------------------------------------------------------------------------
bool MapPage::latLon2Screen(const double lat, const double lon,
LCreal* const x, LCreal* const y) const
{
bool ok = false;
if (x != nullptr && y != nullptr) {
// Convert to nautical miles (NED) centered on ownship
const double earthX = ((lat - getReferenceLatDeg()) * 60.0);
const double earthY = ((lon - getReferenceLonDeg()) * 60.0 * getCosRefLat());
// Rotate to aircraft coordinates
double acX = 0;
double acY = 0;
if (getNorthUp()) {
acX = earthX;
acY = earthY;
}
else {
acX = (earthX * headingCos) + (earthY * headingSin);
acY = -(earthX * headingSin) + (earthY * headingCos);
}
// Scale from nautical miles to inches and
// transpose the X and Y from A/C to screen
double screenY = acX * getScale();
const double screenX = acY * getScale();
// Adjust for the decentered displayment
if ( !getCentered() ) screenY += getDisplacement();
*x = static_cast<LCreal>(screenX);
*y = static_cast<LCreal>(screenY);
ok = true;
}
return ok;
}
/*! Assumes a linear spring with the rest value at the joint minimum */
double
Joint::getSpringForce() const
{
return mK * getDisplacement();
}
// -----------------------------------------------------------------------
// drawMap() - Called from draw fun, it tells our specific map to draw.
// -----------------------------------------------------------------------
void MapDrawer::drawMap(const int zone, const int idx)
{
if (myMap != 0 && pagers[idx] != 0 && showMap && getDisplay() != 0){
// Update the tiles for the pager
pagers[idx]->updateTextures(textureRow[idx], textureCol[idx]);
// Set up for drawing
lcColor3(mapIntensity, mapIntensity, mapIntensity);
glPushMatrix();
// Not centered, move the whole map down the displacement value.
if (!getCentered()) {
LCreal dis = getOuterRadius();
//LCreal scale = getScale();
LCreal myScale = vpHL / dis;
glTranslatef(0, GLfloat(getDisplacement() * myScale), 0);
}
glTranslatef(0, 0, -0.1f);
sinAng = 0.0f;
cosAng = 1.0f;
// Set the scale, if not the CENTER_PAGER
if (idx != CENTER_PAGER) determineScaling(idx);
bool nu = getNorthUp();
if (!nu) {
GLfloat hdg = (GLfloat) getHeadingDeg();
glRotatef(hdg, 0.0f, 0.0f, 1.0f);
sinAng = (LCreal)lcSin(hdg * (LCreal)Basic::Angle::D2RCC);
cosAng = (LCreal)lcCos(hdg * (LCreal)Basic::Angle::D2RCC);
}
// Translate down the pixels first
float transPixelX = -pixelCol[idx] * scalingEast[idx];
float transPixelY = pixelRow[idx] * scalingNorth[idx];
// Translate to the next tile
glTranslatef(transPixelX, transPixelY, 0.0f);
TextureTable& tbl = pagers[idx]->getTable();
int si = tbl.getLowerBoundIndex();
int i1 = si;
int i = 0;
int lb = 0, ub = 0;
// Enable texturing
glEnable(GL_TEXTURE_2D);
lb = tbl.getLowerBoundIndex();
ub = tbl.getUpperBoundIndex();
for (i = lb; i <= ub; i++) {
int j1 = si;
for (int j = lb; j <= ub; j++) {
drawTexture(i1, j1, idx);
j1++;
}
i1++;
}
glDisable(GL_TEXTURE_2D);
// Done drawing tiles, now draw grid, if selected to draw.
if (drawGrid) {
i1 = si;
for (i = lb; i <= ub; i++) {
int j1 = si;
for (int j = lb; j <= ub; j++) {
goDrawGrid(i1, j1, idx);
j1++;
}
i1++;
}
}
glPopMatrix();
}
}
/*!
Get the robot articular displacement since the last call of this method.
\param d The measured articular displacement. The dimension of d is 2 (the
number of axis of the robot) with respectively d[0] (pan displacement),
d[1] (tilt displacement)
\sa getDisplacement(), getCameraDisplacement()
*/
void vpRobotPtu46::getArticularDisplacement(vpColVector &d)
{
getDisplacement(vpRobot::ARTICULAR_FRAME, d);
}
/*!
Get the robot displacement expressed in the camera frame since the last call
of this method.
\param v The measured displacement in camera frame. The dimension of v is 6
(tx, ty, ty, rx, ry, rz). Translations are expressed in meters, rotations in
radians.
\sa getDisplacement(), getArticularDisplacement()
*/
void
vpRobotPtu46::getCameraDisplacement(vpColVector &v)
{
getDisplacement(vpRobot::CAMERA_FRAME, v);
}
//------------------------------------------------------------------------------
// draw() - draw the objects in their proper place
//------------------------------------------------------------------------------
void SymbolLoader::draw()
{
if (isVisible()) {
// Y Displacement (ie, decentered)
LCreal displacement = 0;
if (!getCentered()) displacement = getDisplacement();
// Radius (ie., range)
LCreal radius = 0;
if (!getCentered()) radius = getOuterRadiusDC();
else radius = getOuterRadius();
LCreal radius2 = radius * radius;
// ---
// Setup the drawing parameters for all of our symbols ...
// ---
for (int i = 0; i < MAX_SYMBOLS; i++) {
if (symbols[i] != 0) {
// When the symbol visibility flag is true ...
if (symbols[i]->isVisible()) {
// Get the pointer to the symbol's graphical component
Basic::Pair* p = symbols[i]->getSymbolPair();
BasicGL::Graphic* g = (BasicGL::Graphic*)p->object();
// We need the symbol's position in screen coordinates (inches) ...
LCreal xScn = (LCreal) symbols[i]->getScreenXPos();
LCreal yScn = (LCreal) symbols[i]->getScreenYPos();
if ( !(symbols[i]->isPositionScreen()) ) {
// But when we were not give screen coordinates,
// we'll need to compute them from A/C coordinates
LCreal acX = 0.0;
LCreal acY = 0.0;
// 1) when given A/C coordinates ...
if ( symbols[i]->isPositionAC() ) {
acX = (LCreal) symbols[i]->getXPosition();
acY = (LCreal) symbols[i]->getYPosition();
}
// 2) when given NED or L/L coordinates ..
else {
LCreal north = 0;
LCreal east = 0;
if (symbols[i]->isPositionLL()) {
// 2a) we were give L/L so convert to NED coordinates
double lat = symbols[i]->getXPosition();
double lon = symbols[i]->getYPosition();
latLon2Earth(lat, lon, &north, &east);
}
else {
// 2b) we were give NED coordinates
north = (LCreal) symbols[i]->getXPosition();
east = (LCreal) symbols[i]->getYPosition();
}
// 2c) convert the NED coordinates to aircraft coordinates
earth2Aircraft(north, east, &acX, &acY);
}
// 3) Convert the aircraft coordinates to screen coordinates
aircraft2Screen(acX, acY, &xScn, &yScn);
// 4) Save the screen coordinates (inches)
symbols[i]->setXScreenPos(xScn);
symbols[i]->setYScreenPos(yScn);
}
// In range? Do we care?
bool inRange = !showInRangeOnly || (((xScn * xScn) + (yScn * yScn)) <= radius2);
if (inRange) {
// set symbol's visibility
g->setVisibility(true);
// and set the symbol's position
g->lcSaveMatrix();
g->lcTranslate(xScn, yScn + displacement);
// pass the argument value to the symbol (if needed)
if (symbols[i]->getValue() != 0) {
g->event(UPDATE_VALUE, symbols[i]->getValue());
}
// rotate the symbol's heading subcomponent (if needed)
// -- sending a 'Z' rotation event to a component named 'hdg'
if (symbols[i]->isHeadingValid()) {
BasicGL::Graphic* phdg = symbols[i]->getHdgGraphics();
if (phdg == 0) {
Basic::Pair* hpair = (Basic::Pair*) g->findByName("hdg");
if (hpair != 0) {
phdg = dynamic_cast<Graphic*>(hpair->object());
symbols[i]->setHdgGraphics(phdg);
}
}
if (phdg != 0) {
Basic::Degrees* angObj = symbols[i]->getHdgAngleObj();
if (angObj == 0) {
angObj = new Basic::Degrees();
symbols[i]->setHdgAngleObj(angObj);
}
double relHeading = symbols[i]->getHeadingDeg() - getHeadingDeg();
angObj->set(-relHeading);
phdg->event(UPDATE_VALUE6, angObj);
}
}
}
else {
// out of range, so clear the graphical component's visibility flag
g->setVisibility(false);
}
}
// When the symbol visibility flag is false ...
else {
Basic::Pair* p = symbols[i]->getSymbolPair();
BasicGL::Graphic* g = (BasicGL::Graphic*)p->object();
g->setVisibility(false);
}
}
}
// ---
// Let our base class handle the drawing
// ---
BaseClass::draw();
// ---
// now restore the matrices on all of our graphical components
// ---
for (int i = 0; i < MAX_SYMBOLS; i++) {
if (symbols[i] != 0) {
Basic::Pair* p = symbols[i]->getSymbolPair();
BasicGL::Graphic* g = (BasicGL::Graphic*)p->object();
if (g->isVisible()) g->lcRestoreMatrix();
}
}
}
}
/*!
Get the robot displacement expressed in the camera frame since the last call
of this method.
\param d The measured displacement in camera frame. The dimension of d is 6
(tx, ty, ty, rx, ry, rz). Translations are expressed in meters, rotations in
radians.
\sa getDisplacement(), getArticularDisplacement()
*/
void
vpRobotBiclops::getCameraDisplacement(vpColVector &d)
{
getDisplacement(vpRobot::CAMERA_FRAME, d);
}
sf::Vector2f Camera::screenPositionToGamePosition(const int x, const int y) const {
return sf::Vector2f(x*mScalingFactor.x, y*mScalingFactor.y) + getDisplacement();
}
void MRFRegistration2DParametersWidget::startRegistration()
{
/*
/////////////////////////////////////////////////////////////////
// Get the values of the parameters out of the controls
// and then emit the signal and close the box
//////////////////////////////////////////////////////////////////
ParameterSet params;
params.gridSpacing = this->spacingValue->value();
params.labelInc = this->labelIncValue->value();
params.labelSteps = this->labelStepsValue->value();
params.maxDisplacement = this->maxDisplacementValue->value();
params.optimiserIterations = this->optimiserIterationsValue->value();
params.regularisationAmount = this->regularisationValue->value();
params.resolutionLevels = this->multiResultionValue->value();
params.useSparseSampling = this->useSparseSampling->isChecked();
params.xGridOrigin = this->xOriginValue->value();
params.xGridSize = this->xSizeValue->value();
params.yGridOrigin = this->yOriginValue->value();
params.yGridSize = this->ySizeValue->value();
params.metricType = this->metricValue->currentIndex();
*/
// do some sanity checking
//
//
//
if(this->fixedImageSelector->currentIndex() == 0)
{
QMessageBox box;
box.setText(tr("No fixed Image Set"));
box.exec();
return;
}
if(this->movingImageSelector->currentIndex() == 0)
{
QMessageBox box;
box.setText(tr("No moving Image Set"));
box.exec();
return;
}
if(this->movingImageSelector->currentIndex() == this->fixedImageSelector->currentIndex())
{
QMessageBox box;
box.setText(tr("Fixed and Moving are the same... pretty pointless"));
box.exec();
return;
}
// create the data nodes to pass to the reg display
//
//
//
mitk::DataNode::Pointer fixedNode = mitk::DataNode::New();
fixedNode->SetData(this->imageHolder[this->fixedImageSelector->currentIndex()-1]);
mitk::DataNode::Pointer movingNode = mitk::DataNode::New();
movingNode->SetData(this->imageHolder[this->movingImageSelector->currentIndex()-1]);
MRFRegistration2DDisplayWidget * regDisplay = new MRFRegistration2DDisplayWidget(this);
regDisplay->setFixedImage(fixedNode);
regDisplay->setMovingImage(movingNode);
regDisplay->setXGridOrigin(this->xOriginValue->value());
regDisplay->setYGridOrigin(this->yOriginValue->value());
regDisplay->setXGridSize(this->xSizeValue->value());
regDisplay->setYGridSize(this->ySizeValue->value());
regDisplay->setGridSpacing(this->spacingValue->value());
regDisplay->setLabelSteps(this->labelStepsValue->value());
regDisplay->setLabelInc(this->labelIncValue->value());
regDisplay->setOptimiserIterations(this->optimiserIterationsValue->value());
regDisplay->setUseSparseSampling(this->useSparseSampling->isChecked());
regDisplay->setResolutionLevels(this->multiResultionValue->value());
regDisplay->initialise();
// connect the output
connect(regDisplay, SIGNAL(registrationFinished(mitk::DataNode::Pointer)), this, SLOT(getDisplacement(mitk::DataNode::Pointer)));
regDisplay->show();
//emit sendData(params);
}
IRWItem<double> * BrownianMotion::getDisplacementItem(int partp){
IRWItem<double> * ret = new RWDp<double>();
QVector<double> temp= getDisplacement(partp);
ret->receiveData(temp.data(),temp.size());
return ret;
}
// >>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
void Processor::flush() {
size_t n = _samplePool.size();
double *data = _samplePool.samples;
bool clipped = false;
// Skip empty sample pool
if ( n == 0 ) return;
// -------------------------------------------------------------------
// Saturation check
// -------------------------------------------------------------------
if ( _config.saturationThreshold >= 0 ) {
double maxCounts = (_config.saturationThreshold * 0.01) * (2 << 23);
for ( size_t i = 0; i < n; ++i ) {
if ( fabs(data[i]) > maxCounts ) clipped = true;
}
}
// -------------------------------------------------------------------
// Sensitivity correction
// -------------------------------------------------------------------
double scorr = 1.0 / _streamConfig[_usedComponent].gain;
for ( size_t i = 0; i < n; ++i ) data[i] *= scorr;
// -------------------------------------------------------------------
// Baseline correction and filtering
// -------------------------------------------------------------------
double amp0 = getValue(n, data, NULL, _baselineCorrection0, _filter0.get());
// -------------------------------------------------------------------
// Conversion to ACC, VEL, DISP
// -------------------------------------------------------------------
SignalUnit unit;
if ( !unit.fromString(_streamConfig[_usedComponent].gainUnit.c_str()) ) {
SEISCOMP_ERROR("%s: internal error: invalid gain unit '%s'",
Private::toStreamID(_waveformID).c_str(),
_streamConfig[_usedComponent].gainUnit.c_str());
return;
}
double vel, acc, disp;
std::vector<double> tmp;
double *vel_data;
switch ( unit ) {
case MeterPerSecond:
vel = amp0;
tmp.assign(data, data+n);
vel_data = &tmp[0];
acc = getAcceleration(n, data);
break;
case MeterPerSecondSquared:
acc = amp0;
vel = getVelocity(n, data);
vel_data = data;
break;
default:
SEISCOMP_ERROR("%s: internal error: unsupported gain unit '%s'",
Private::toStreamID(_waveformID).c_str(),
_streamConfig[_usedComponent].gainUnit.c_str());
return;
}
disp = getDisplacement(n, vel_data);
// Publish result
if ( _func )
_func(this, acc, vel, disp, _currentStartTime, clipped);
_samplePool.clear();
}
void Creature::internalDrawOutfit(Point dest, float scaleFactor, bool animateWalk, bool animateIdle, Otc::Direction direction)
{
// outfit is a real creature
if(m_outfit.getCategory() == ThingCategoryCreature) {
int animationPhase = animateWalk ? m_walkAnimationPhase : 0;
if(isAnimateAlways() && animateIdle) {
int ticksPerFrame = 1000 / getAnimationPhases();
animationPhase = (g_clock.millis() % (ticksPerFrame * getAnimationPhases())) / ticksPerFrame;
}
// xPattern => creature direction
int xPattern;
if(direction == Otc::NorthEast || direction == Otc::SouthEast)
xPattern = Otc::East;
else if(direction == Otc::NorthWest || direction == Otc::SouthWest)
xPattern = Otc::West;
else
xPattern = direction;
int zPattern = 0;
if(m_outfit.getMount() != 0) {
auto datType = g_things.rawGetThingType(m_outfit.getMount(), ThingCategoryCreature);
dest -= datType->getDisplacement() * scaleFactor;
datType->draw(dest, scaleFactor, 0, xPattern, 0, 0, animationPhase);
dest += getDisplacement() * scaleFactor;
zPattern = 1;
}
// yPattern => creature addon
for(int yPattern = 0; yPattern < getNumPatternY(); yPattern++) {
// continue if we dont have this addon
if(yPattern > 0 && !(m_outfit.getAddons() & (1 << (yPattern-1))))
continue;
auto datType = rawGetThingType();
datType->draw(dest, scaleFactor, 0, xPattern, yPattern, zPattern, animationPhase);
if(getLayers() > 1) {
Color oldColor = g_painter->getColor();
Painter::CompositionMode oldComposition = g_painter->getCompositionMode();
g_painter->setCompositionMode(Painter::CompositionMode_Multiply);
g_painter->setColor(m_outfit.getHeadColor());
datType->draw(dest, scaleFactor, SpriteMaskYellow, xPattern, yPattern, zPattern, animationPhase);
g_painter->setColor(m_outfit.getBodyColor());
datType->draw(dest, scaleFactor, SpriteMaskRed, xPattern, yPattern, zPattern, animationPhase);
g_painter->setColor(m_outfit.getLegsColor());
datType->draw(dest, scaleFactor, SpriteMaskGreen, xPattern, yPattern, zPattern, animationPhase);
g_painter->setColor(m_outfit.getFeetColor());
datType->draw(dest, scaleFactor, SpriteMaskBlue, xPattern, yPattern, zPattern, animationPhase);
g_painter->setColor(oldColor);
g_painter->setCompositionMode(oldComposition);
}
}
// outfit is a creature imitating an item or the invisible effect
} else {
ThingType *type = g_things.rawGetThingType(m_outfit.getAuxId(), m_outfit.getCategory());
int animationPhase = 0;
int animationPhases = type->getAnimationPhases();
int animateTicks = Otc::ITEM_TICKS_PER_FRAME;
// when creature is an effect we cant render the first and last animation phase,
// instead we should loop in the phases between
if(m_outfit.getCategory() == ThingCategoryEffect) {
animationPhases = std::max(1, animationPhases-2);
animateTicks = Otc::INVISIBLE_TICKS_PER_FRAME;
}
if(animationPhases > 1) {
if(animateIdle)
animationPhase = (g_clock.millis() % (animateTicks * animationPhases)) / animateTicks;
else
animationPhase = animationPhases-1;
}
if(m_outfit.getCategory() == ThingCategoryEffect)
animationPhase = std::min(animationPhase+1, animationPhases);
type->draw(dest - (getDisplacement() * scaleFactor), scaleFactor, 0, 0, 0, 0, animationPhase);
}
}
/*!
Get the robot displacement (frame has to be specified).
\param frame : Control frame. For the moment, only vpRobot::REFERENCE_FRAME is implemented.
\param dis : A 6 dimension vector that corresponds to the displacement of the robot since the last call to the function.
\exception vpRobotException::wrongStateError : If the specified control frame is not supported.
*/
void vpROSRobot::getDisplacement(const vpRobot::vpControlFrameType frame, vpColVector &dis){
struct timespec timestamp;
getDisplacement(frame, dis, timestamp);
}
