int main(int argc, char *argv[])
{
int result = 0;
QGuiApplication *app = SailfishApp::application(argc, argv);
QQuickView *view = SailfishApp::createView();
qmlRegisterType<PlotWidget>("harbour.messwerk.MesswerkWidgets", 1, 0, "PlotWidget");
qmlRegisterType<SatellitePosWidget>("harbour.messwerk.MesswerkWidgets", 1, 0, "SatellitePosWidget");
qmlRegisterType<SatelliteStrengthWidget>("harbour.messwerk.MesswerkWidgets", 1, 0, "SatelliteStrengthWidget");
QTimer refreshTimer;
Accelerometer accelerometer(false);
Gyroscope gyroscope(false);
Magnetometer magnetometer(false);
Rotation rotation(false);
Light light(false);
Proximity proximity(true);
SatelliteInfo satelliteinfo;
Position position;
// connect not self-refreshing sensors to the global timer
QObject::connect(&refreshTimer, SIGNAL(timeout()), &accelerometer, SLOT(refresh()));
QObject::connect(&refreshTimer, SIGNAL(timeout()), &gyroscope, SLOT(refresh()));
QObject::connect(&refreshTimer, SIGNAL(timeout()), &magnetometer, SLOT(refresh()));
QObject::connect(&refreshTimer, SIGNAL(timeout()), &rotation, SLOT(refresh()));
QObject::connect(&refreshTimer, SIGNAL(timeout()), &light, SLOT(refresh()));
QString qml = QString("qml/%1.qml").arg("Messwerk");
view->rootContext()->setContextProperty("accelerometer", &accelerometer);
view->rootContext()->setContextProperty("gyroscope", &gyroscope);
view->rootContext()->setContextProperty("magnetometer", &magnetometer);
view->rootContext()->setContextProperty("rotationsensor", &rotation);
view->rootContext()->setContextProperty("lightsensor", &light);
view->rootContext()->setContextProperty("proximitysensor", &proximity);
view->rootContext()->setContextProperty("satelliteinfo", &satelliteinfo);
view->rootContext()->setContextProperty("positionsensor", &position);
view->rootContext()->setContextProperty("settings", &(Settings::instance()));
view->setSource(SailfishApp::pathTo(qml));
view->show();
refreshTimer.start(100);
result = app->exec();
delete view;
delete app;
return result;
}
int32_t rice::pastry::direct::DirectPastryNodeFactory_getNodeHandleAdapter_2::proximity(::java::lang::Object* i, ::java::util::Map* options)
{
return proximity(dynamic_cast< ::rice::pastry::NodeHandle* >(i), options);
}
int32_t rice::pastry::transport::NodeHandleAdapter::proximity(::java::lang::Object* i, ::java::util::Map* options)
{
return proximity(dynamic_cast< ::rice::pastry::NodeHandle* >(i), options);
}
double GACPforORGSolverGene::fitness( )
{
if( fit==-1 ) {
Word newWord = theWord2;
Word relator = theGroup.relator();
for( int pos=theWord2.length()-1 ; pos>=0 ; pos-- ) {
for( unsigned c=0 ; c<lengthes[pos] ; ++c ) {
GACPforORGSolverChromosome *chr = chromosomes[pos][c];
Word w1;
if( chr->deg ) w1 = chr->con * relator * chr->con.inverse( );
else w1 = chr->con * relator.inverse( ) * chr->con.inverse( );
GAConjProblemForORGroupSolver::insert( newWord , w1 , pos );
}
}
newWord = GAConjProblemForORGroupSolver::greedyReduce( theGroup , newWord );
//if new word shorter than second word
if( newWord.length( )<theWord2.length( ) ) {
hasShorterWords = true;
//if newWord shorter than first word, change their places
if( newWord.length()<theWord1.length() ) {
*this = GACPforORGSolverGene( theGroup , newWord , theWord1 );
// here you needn't to check gene, because this function was invoked in Solver::tournament()
// and if flag hasShorterWords sets, it invoke toStart() func., that resets all genes
// check( );
fit = proximity( theWord1 , theWord2 );
}
else {
*this = GACPforORGSolverGene( theGroup , theWord1 , newWord );
// here you needn't to check gene, because this function was invoked in Solver::tournament()
// and if flag hasShorterWords sets, it invoke toStart() func., that resets all genes
// check( );
fit = proximity( theWord1 , theWord2 );
}
}
else {
int c1 , c2;
fit = proximity( theWord1 , newWord , &c1 , &c2 );
//int L = theWord2.length( )-theWord1.length();
//L>=0 always
//There's two way
//if reduced more than half of words, I do conjecture that other two parts are equal
//if obtained a pair like ( w , w x ), I do conjecture that x==1
if( fit/(theWord2.length( )+theWord1.length()) < 0.5 && theWord2.length( )+theWord1.length()>10 &&
//prev. condition (line) may be changed by next condition (line), prev. condition stronger than next one
//fit<=L &&
fit!=0 &&
theWord1.length( )>3 )
{
Word conjWord1;
Word conjWord2 = ( theWord1.inverse( ).cyclicallyPermute(c1) * newWord.cyclicallyPermute(c2) );
conjWord2 = conjWord2.freelyReduce();
hasConjecture = true;
conjectureWord = conjWord2;
}
}
}
return fit;
}
void DiagramCanvas::mousePressEvent(QMouseEvent *e)
{
if (readOnly)
{
for( int i = 0; i<edgeList.size();i++)
if (proximity(e->pos(),edgeList[i]) && edgeList[i]->edge_type == singular )
emit selectionChanged( edgeList[i]->arc_id );
return;
}
untouched = FALSE;
if (e->button() == LeftButton )
{
if (edge_creation_in_progress)
{
int vertex_index;
if (completed_edge_general_position(currentEdge, &vertex_index ))
{
if (joinState == join)
{
Vertex *vertex, *new_vertex;
vertex = vertexList[vertex_index];
paint( currentEdge, TRUE );
currentEdge->vertex[end]->~Vertex();
currentEdge->vertex[end] = vertex;
EndData *ed = new EndData( currentEdge, end );
vertex->incidentEndData.insert(
vertex->incidentEndData.end(), ed );
edgeList.insert( edgeList.end(), currentEdge );
new_vertex = NULL;
Edge *edge = currentEdge;
currentEdge = NULL;
edge_creation_in_progress = FALSE;
assign_arcs();
assign_links();
assign_new_crossings( edge);
paint( edge, FALSE );
}
else
{
Vertex *vertex, *new_vertex;
vertex = currentEdge->vertex[end];
vertexList.insert( vertexList.end(), vertex );
edgeList.insert( edgeList.end(), currentEdge );
new_vertex = new Vertex( vertex->position );
Edge *edge = currentEdge;
currentEdge = new Edge( vertex, new_vertex );
currentEdge->edge_type = (drill_on) ? drilled : singular;
edge_creation_in_progress = TRUE;
assign_arcs();
assign_links();
assign_new_crossings( edge );
}
}
}
else
{
int vertex_index;
if (new_point_general_position(e->pos(), &vertex_index ))
{
if (joinState == join)
{
Vertex *vertex, *new_vertex;
vertex = vertexList[vertex_index];
new_vertex = new Vertex( vertex->position );
currentEdge = new Edge( vertex, new_vertex);
currentEdge->edge_type = (drill_on) ? drilled : singular;
edge_creation_in_progress = TRUE;
assign_arcs();
assign_links();
}
else
{
Vertex *new_vertex1, *new_vertex2;
new_vertex1 = new Vertex( e->pos() );
vertexList.insert( vertexList.end(), new_vertex1 );
new_vertex2 = new Vertex( e->pos() );
currentEdge = new Edge( new_vertex1, new_vertex2);
currentEdge->edge_type = (drill_on) ? drilled : singular;
edge_creation_in_progress = TRUE;
assign_arcs();
assign_links();
}
}
else
{
bool close_to_crossing = FALSE;
int i;
for( i = 0; i<crossingList.size();i++)
if (proximity(e->pos(),crossingList[i]->position))
{
crossingList[i]->switchCrossing();
update();
close_to_crossing = TRUE;
}
if (!close_to_crossing)
for( i = 0; i<edgeList.size();i++)
if (proximity(e->pos(),edgeList[i]))
invert_arc(edgeList[i]);
}
}
}
if (e->button() == RightButton )
{
if (edge_creation_in_progress)
{
Vertex *vertex;
paint( currentEdge, TRUE );
vertex = currentEdge->vertex[begin];
currentEdge->vertex[end]->~Vertex();
currentEdge->~Edge();
if (vertex->incidentEndData.size() == 1)
{
vector<Vertex *>::iterator v_it;
v_it = vertexList.begin();
while( v_it != vertexList.end() )
if (*v_it == vertex)
break;
else
v_it++;
(*v_it)->~Vertex();
vertexList.erase(v_it);
}
else
{
vector<EndData *>::iterator ed_it;
ed_it = vertex->incidentEndData.end() - 1;
(*ed_it)->~EndData();
vertex->incidentEndData.erase( ed_it);
}
edge_creation_in_progress = FALSE;
assign_arcs();
assign_links();
}
else
{
int i;
bool action_taken = FALSE;
for( i = 0; i<crossingList.size();i++)
if (proximity(e->pos(),crossingList[i]->position))
{
crossingList[i]->switchCrossing();
update();
action_taken = TRUE;
}
if (!action_taken) for( i = 0; i<vertexList.size();i++)
if (proximity(e->pos(),vertexList[i]->position))
{
draggedVertex = vertexList[i];
saved_vertex_position = draggedVertex->position;
delete_dragged_crossings();
vertex_drag_in_progress = TRUE;
action_taken = TRUE;
}
if (!action_taken) for( i = 0; i<edgeList.size();i++)
if (proximity(e->pos(),edgeList[i]))
{
if (edgeList[i]->selected)
{
paint( edgeList[i], TRUE );
edgeList[i]->selected = FALSE;
edgeList[i]->thickness = THIN;
paint( edgeList[i], FALSE);
}
else
{
paint( edgeList[i], TRUE );
edgeList[i]->selected = TRUE;
edgeList[i]->thickness = THICK;
paint( edgeList[i], FALSE);
}
update();
}
}
}
if (e->button() == MidButton )
emit drillToggled();
}
void DiagramCanvas::mouseMoveEvent(QMouseEvent *e)
{
int i;
bool status_bar_changed = FALSE, near_vertex = FALSE;
QString status;
setCursor(Qt::arrowCursor);
if (edge_creation_in_progress)
if (!completed_edge_general_position(currentEdge, &i ))
{
status.sprintf(" Right click to kill cord.");
status_bar_changed = TRUE;
}
for(i=0;i<vertexList.size();i++)
if (proximity(e->pos(),vertexList[i]->position))
{
near_vertex = TRUE;
setCursor(Qt::pointingHandCursor);
if (!status_bar_changed && !edge_creation_in_progress)
{
if (vertexList[i]->link_id == -1)
{
if (!readOnly)
status.sprintf("Right click and drag to move.");
}
else status.sprintf(" Vertex:\t%d", vertexList[i]->link_id+1 );
status_bar_changed = TRUE;
}
}
if (!edge_creation_in_progress && !status_bar_changed && !near_vertex )
for(i=0;i<edgeList.size();i++)
if (proximity(e->pos(),edgeList[i]))
{
setCursor(Qt::pointingHandCursor);
if (edgeList[i]->edge_type == singular)
status.sprintf(" Coloured Edge:\t%d", edgeList[i]->arc_id+1);
else if (readOnly && edgeList[i]->cuff_id > -1 )
status.sprintf(" Vertex:\t%d\tCuff:\t%d",
edgeList[i]->link_id+1, edgeList[i]->cuff_id+1);
else status.sprintf(" Vertex:\t%d", edgeList[i]->link_id+1);
status_bar_changed = TRUE;
}
if (edge_creation_in_progress)
redrawMovedEdge( e );
else for(i=0;i<crossingList.size();i++)
if (!readOnly && proximity(e->pos(),crossingList[i]->position))
{
setCursor(Qt::pointingHandCursor);
status.sprintf(" Click to switch crossing.");
status_bar_changed = TRUE;
}
if (vertex_drag_in_progress)
redrawDraggedVertex( e );
if (!status_bar_changed)
status.sprintf(" ");
emit statusBarChanged(status);
}
