void initPositions(void) {
waitMS(100);
if( getPosition(choice) == 0 || getPosition(choice) == 0xFFFF ) {
unsigned char i;
for( i = 1; i <= MAX_TRACKS; i++ ) {
// not initialized before
savePosition(i, initpos);
}
// default power off step motor
saveByte(ADDR_KEEPPOWER, KEEPPOWER_OFF);
}
// always set the calibration position
savePosition(choice, initpos);
}
bool QPositionNode::eventFilter(QObject* obj, QEvent* event)
{
if( event->type() == QEvent::DynamicPropertyChange )
{
QDynamicPropertyChangeEvent* ev = static_cast<QDynamicPropertyChangeEvent*>(event);
if( ev->propertyName() == "Position" )
{
QVec3f pos = obj->property("Position").value<QVec3f>();
savePosition( pos.X, pos.Y, pos.Z );
obj->setProperty("__AbsoluteTransformation", QVariant::fromValue(QMatrix4f::TransMat( pos.X, pos.Y, pos.Z) ) );
}
if( ev->propertyName() == "Scale" )
{
// No scale allowed
obj->setProperty("Scale", QVariant::fromValue(QVec3f(1, 1, 1)) );
}
// Set absolute transformation to the relative one but don't apply it to the xml data
if( ev->propertyName() == "__RelativeTransformation" )
{
QMatrix4f mat = obj->property("__RelativeTransformation").value<QMatrix4f>();
obj->setProperty("__AbsoluteTransformation", QVariant::fromValue(mat) );
}
}
return QXmlTreeNode::eventFilter(obj, event);
}
//------------------------------------------------------------------------------------
ToolOperation* CameraPositionTool::activate(const Any& _toolParameter)
{
const ToolParam& tp = any_cast<ToolParam>(_toolParameter);
if(tp.store)
{
World* world = WorldManager::getSingleton().getActiveWorld();
if(world)
{
Camera* camera = world->getCamera();
savePosition( tp.index, camera->getPosition(), camera->getOrientation());
updateMenuItems();
}
}
else
{
Vector3 position;
Quaternion rotation;
readPosition(tp.index, position, rotation);
World* world = WorldManager::getSingleton().getActiveWorld();
Camera* camera = world->getCamera();
camera->setPosition(position);
camera->setOrientation(rotation);
}
return nullptr;
}
void ERModel::saveERDiagram( string fileName )
{
ofstream outputERDiagramFile;
outputERDiagramFile.open(fileName);
if (!outputERDiagramFile.is_open())
{
creatFilePath(fileName);
outputERDiagramFile.open(fileName);
}
_isModify = false;
SaveComponentVisitor* saveComponentVisitor = new SaveComponentVisitor();
for(int i = 0; i < _components.size(); i++)
_components[i]->accept(saveComponentVisitor);
outputERDiagramFile << saveComponentVisitor->getERDiagramComponent();
outputERDiagramFile.close();
savePosition(fileName, saveComponentVisitor->getPositionInfo());
}
void MainWindow::handleStateChanged(Qt::WindowState state) {
stateChangedHook(state);
updateIsActive((state == Qt::WindowMinimized) ? Global::OfflineBlurTimeout() : Global::OnlineFocusTimeout());
psUserActionDone();
if (state == Qt::WindowMinimized && Global::WorkMode().value() == dbiwmTrayOnly) {
minimizeToTray();
}
savePosition(state);
}
void CDummyRepeaterFrame::onClose(wxCloseEvent& event)
{
if (!event.CanVeto()) {
saveCalls();
Destroy();
return;
}
int reply = ::wxMessageBox(_("Do you want to exit Dummy Repeater"), _("Exit Dummy Repeater"), wxOK | wxCANCEL | wxICON_QUESTION);
switch (reply) {
case wxOK:
saveCalls();
savePosition();
Destroy();
break;
case wxCANCEL:
event.Veto();
break;
}
}
bool CheckerboardDetection::detect(const sensor_msgs::ImageConstPtr& in_msg,
vector<double>& out) {
CheckerboardData cb;
out.resize(4);
if (detect(in_msg, cb)) {
savePosition(out);
saveImage(in_msg);
out[idx_x] = cb.x;
out[idx_y] = cb.y;
out[idx_rows] = this->patternSize.height;
out[idx_cols] = this->patternSize.width;
for (int i = 0; i < corners.size(); i++) {
out.push_back(corners[i].x);
out.push_back(corners[i].y);
}
out.push_back(this->squareLength); // square length
return true;
}
return false;
}
/*!
This is the main testing function. It is called whenever the user is idle,
and it tests the next grasp in the graspList. It follows the testing
process defined above. When the last grasp is reached, the hand is
returned to its position before the testing began, the graspList is sorted
in quality order, and the testingComplete signal is emitted.
*/
void
grasp_tester::testIt()
{
bool do_iteration;
bool do_save;
/* Show status bar */
#ifdef GRASPITDBG
std::cout << "PL_OUT: Testing grasp no " << actualGraspNr++ << " out of " <<
nrOfGrasps << std::endl;
#endif
/* Loop over all planned grasps to test them */
if (it_gr != (*graspList).end()) {
do_iteration = false;
do_save = false;
/* Update visualization */
#ifdef GRASPITDBG
std::cout << "PL_OUT: vor change color" << std::endl;
#endif
(*it_gr)->get_graspRepresentation()->changeColor(1., 0., 0.);
if (render) {
myViewer->render();
projectionViewer->render(); // this doesn't work!!!!!!
}
#ifdef GRASPITDBG
std::cout << "PL_OUT: Put hand in position" << std::endl;
#endif
/* First, put hand to starting point outside the object */
if (putIt(*it_gr, render) == SUCCESS) {
#ifdef GRASPITDBG
std::cout << "PL_OUT: set preshape" << std::endl;
#endif
/* Use given preshape */
preshapeIt((*it_gr)->get_preshape(), render);
#ifdef GRASPITDBG
std::cout << "PL_OUT: test for collisions" << std::endl;
#endif
/* check if hand collides already with any obstacle (like the table) */
if (!handCollision()) {
#ifdef GRASPITDBG
std::cout << "PL_OUT: move hand towards object" << std::endl;
#endif
/* Now, move the hand in the specified direction */
if (moveIt((*it_gr)->get_graspDirection(), render)) {
#ifdef GRASPITDBG
std::cout << "PL_OUT: check contacts" << std::endl;
#endif
/* Check if contact exists between hand and the right object */
if (checkContactToHand((*it_gr)->get_graspableBody())) {
/* Then close the fingers */
my_hand->autoGrasp(render, 1);
// my_world->findAllContacts();
my_world->updateGrasps();
// if (render) myViewer->render();
/* Evaluate grasp */
(*it_gr)->set_quality(my_grasp->getQM(whichQM)->evaluate());
#ifdef GRASPITDBG
std::cout << "PL_OUT: !!!! whichQM: " << whichQM << " quality: " << (*it_gr)->get_quality() << std::endl;
#endif
if (saveToFile) { saveGrasp((*it_gr)->get_quality()); }
/* save final position to grasp class */
if ((*it_gr)->get_quality() > QUALITY_MIN_THRESHOLD && (*it_gr)->get_quality() <= 1.0) {
do_save = true;
}
}
else {
do_iteration = true;
}
/* iteration if:
- grasp not stable
- wrong contacts */
if (do_iteration ||
((*it_gr)->get_quality() <= QUALITY_MIN_THRESHOLD)) {
if (iteration(**it_gr)) {
/* save final position to grasp class */
do_save = true;
}
}
}
#ifdef GRASPITDBG
else { std::cout << "PL_OUT: MoveIt failed." << std::endl; }
#endif
}
}
#ifdef GRASPITDBG
else {
std::cout << "PL_OUT: putIt failed. Stepping to next grasp." << std::endl;
}
#endif
if (do_save) {
/* change radius in vis window according to quality */
(*it_gr)->get_graspRepresentation()->changeRadius((*it_gr)->get_quality());
/* save final position to grasp class */
savePosition(**it_gr);
}
else {
(*it_gr)->remove_graspRepresentation();
}
/* reset color */
//(*it_gr)->get_graspRepresentation()->resetColor();
/* increment iterator for next step */
if (it_gr != (*graspList).end()) {
it_gr++;
}
}
/* last grasp reached */
else {
#ifdef GRASPITDBG
std::cout << "PL_OUT: Last grasp reached" << std::endl;
#endif
/* Order List and remove bad grasps */
orderGraspListByQuality(*graspList);
if (saveToFile) {graspFile.close(); saveToFile = false;}
/* we are ready; kill idleSensor */
if (idleSensor != NULL) {
delete idleSensor;
}
idleSensor = NULL;
if (render) {
/* put the hand back to starting position */
my_hand->setTran(origTran);
my_hand->forceDOFVals(dofs);
}
PROF_STOP_TIMER(TOTAL_PLANNER);
PROF_PRINT_ALL;
Q_EMIT testingComplete();
}
if (idleSensor != NULL) {
idleSensor->schedule();
}
if (!render) {
/* put the hand back to starting position */
my_hand->setTran(origTran);
my_hand->forceDOFVals(dofs);
}
}
void ParametersPage::on_spinAngle_valueChanged()
{
savePosition();
}
void ParametersPage::on_editPositionY_valueChanged()
{
savePosition();
}
/*
* setup service to define the track positions
* control remains in this function as long as the setup button is active
*/
void setup(void) {
confirm(5);
// start with position mid
stepnr = initpos;
choice = MAX_TRACKS / 2 + 1;
updateDisplay();
pulswidth = MAX_PULSWIDTH;
power = POWER_ON;
waitMS(100);
curtrack = choice;
while( buttonSetup == BUTTON_ON ) {
waitMS(10);
if( buttonRight == BUTTON_ON && buttonLeft == BUTTON_ON ) {
saveByte( ADDR_KEEPPOWER, readByte(ADDR_KEEPPOWER) ? KEEPPOWER_OFF:KEEPPOWER_ON );
confirm(3);
while( buttonRight == BUTTON_ON && buttonLeft == BUTTON_ON );
}
while( stepnr < MAX_STEPS && buttonLeft == BUTTON_OFF && buttonRight == BUTTON_ON ) {
// turn right; end position is not reached
stepnr++;
oneStep(STEP_RIGHT);
};
while( stepnr > 0 && buttonLeft == BUTTON_ON && buttonRight == BUTTON_OFF ) {
// turn left; start position is not reached
stepnr--;
oneStep(STEP_LEFT);
};
// check if the buttonSave is pressed
if( buttonSave == BUTTON_ON ) {
// save the new position in eeprom
savePosition( choice, stepnr);
confirm(1);
choice++;
if( choice > MAX_TRACKS )
choice = 1;
curtrack = choice;
updateDisplay();
while( buttonSave == BUTTON_ON )
waitMS(10);
}
// check if the buttonNext is pressed
if( buttonNext == BUTTON_ON ) {
confirm(1);
choice++;
if( choice > MAX_TRACKS )
choice = 1;
curtrack = choice;
updateDisplay();
while( buttonNext == BUTTON_ON )
waitMS(10);
}
} // end while
if( !readByte(ADDR_KEEPPOWER) )
power = POWER_OFF; /* power off step motor */
}
