// remove all contained objects.
virtual void clear()
{
while(!objects.empty())
{
#ifdef _DEBUG
Target *obj=objects.begin()->second;
delete obj;
#else
delete objects.begin()->second;
#endif
}
assert(objects.empty());
}
void
ObjectDeleteCommandImpl::undo()
{
for(Objects::iterator i = objects.begin(); i != objects.end(); ++i)
{
object_layer.add_object(*i);
}
}
void
ObjectDeleteCommandImpl::execute()
{
for(Objects::iterator i = objects.begin(); i != objects.end(); ++i)
{
object_layer.delete_object(*i);
}
}
void
ObjectMoveCommandImpl::undo()
{
for(ObjectMoveCommandImpl::Objects::iterator i = objects.begin();
i != objects.end();
++i)
{
i->obj.set_pos(i->old_pos);
}
}
void Frame::drawAll()
{
clear(sf::Color::Black);
Objects toDraw = objectsInBounds(sf::FloatRect(sf::Vector2f(0,0),_bounds));
Objects::iterator it = toDraw.begin();
for(;it != toDraw.end();it++)
{
(*it)->onDisplay();
draw(*(*it)->getDrawable());
}
display();
}
void drawCalibratedObjects(gluit::Graphics& g) const
{
Objects transformed = objects;
for (Objects::Iterator object = transformed.begin(); object != transformed.end(); ++object) {
(*object)->transform(*transformer);
gluit::Point position = convert((*object)->getPosition());
g.setColor(0xFF6666CC);
g.drawEllipse(gluit::Rectangle(gluit::Size(40)).centerOn(position), true);
}
}
void TUIOSender::send(const Objects& objects)
{
Mutex::scoped_lock lock(mutex);
if (!socket) {
return;
}
try {
char buffer[OUTBOUND_PACKET_STREAM_BUFFER_SIZE];
osc::OutboundPacketStream p(buffer, OUTBOUND_PACKET_STREAM_BUFFER_SIZE);
p << osc::BeginBundleImmediate;
p << osc::BeginMessage(oscAddress.getValue().c_str()) << "source" << sourceId.get().c_str() << osc::EndMessage;
p << osc::BeginMessage(oscAddress.getValue().c_str());
p << "alive";
for (Objects::ConstIterator object = objects.begin(); object != objects.end(); ++object) {
if ((*object)->isAlive()) {
p << int((*object)->getId());
}
}
p << osc::EndMessage;
for (Objects::ConstIterator object = objects.begin(); object != objects.end(); ++object) {
if ((*object)->isAlive()) {
p << osc::BeginMessage(oscAddress.getValue().c_str()) << "set" << (*object) << osc::EndMessage;
}
}
p << osc::BeginMessage(oscAddress.getValue().c_str()) << "fseq" << int(frameSequenceNumber++) << osc::EndMessage;
p << osc::EndBundle;
socket->Send(p.Data(), p.Size());
} catch (osc::OutOfBufferMemoryException& e) {
LOG4CPLUS_ERROR(logger, "Sending objects failed, too many objects to send (" << objects.getSize() << ")");
}
}
void SEQFile::drawAnims() {
Objects objects = getOrderedObjects();
// Draw the animation frames and advance the animation
for (Objects::iterator o = objects.begin(); o != objects.end(); ++o) {
int16 left, top, right, bottom;
if (o->object->draw(*_vm->_draw->_backSurface, left, top, right, bottom))
_vm->_draw->dirtiedRect(_vm->_draw->_backSurface, left, top, right, bottom);
o->object->advance();
}
}
PtrTracer(const ManagedHeap& heap)
{
// сформировать список объектов
objects.reserve(heap.allocations.size());
for(Allocations::const_iterator i = heap.allocations.begin(); i != heap.allocations.end(); ++i)
objects.push_back(Object(i->first, i->second.size, i->second.info));
std::sort(objects.begin(), objects.end(), sorter);
// сформировать карту ссылок
for(Ptrs::const_iterator i = heap.ptrs.begin(); i != heap.ptrs.end(); ++i)
{
// найти объект, в котором содержится указатель
Objects::const_iterator j = std::upper_bound(objects.begin(), objects.end(), i->first, sorter);
if(j > objects.begin())
{
--j;
if((size_t)((char*)i->first - (char*)j->data) < j->size)
// да, указатель содержится в этом объекте
// получить объект, на который указывает указатель, и добавить ссылку
links.insert(std::make_pair(j, std::lower_bound(objects.begin(), objects.end(), i->second, sorter)));
}
}
}
void Print(std::ostream& stream)
{
std::vector<Objects::const_iterator> referencedObjects;
referencedObjects.reserve(links.size());
for(Links::const_iterator i = links.begin(); i != links.end(); ++i)
referencedObjects.push_back(i->second);
std::sort(referencedObjects.begin(), referencedObjects.end());
referencedObjects.resize(std::unique(referencedObjects.begin(), referencedObjects.end()) - referencedObjects.begin());
// пока просто вывести
for(Objects::const_iterator object = objects.begin(); object != objects.end(); ++object)
{
if(std::binary_search(referencedObjects.begin(), referencedObjects.end(), object))
continue;
Print(stream, object);
}
}
void handleSourceDataUpdate(const Source<Objects>& source)
{
Objects::Mutex::scoped_lock lock(objects.mutex);
objects = source.get();
if (calibrating) {
for (Objects::Iterator object = objects.begin(); object != objects.end(); ++object) {
if ((*object)->isNew()) {
objectAdded(*object);
} else if ((*object)->isDead()) {
objectRemoved(*object);
} else {
objectUpdated(*object);
}
}
}
repaint();
}
void
Store::rename(const iterator top, const Raul::Path& new_path)
{
const Raul::Path old_path = top->first;
// Remove the object and all its descendants
Objects removed;
remove(top, removed);
// Rename all the removed objects
for (Objects::const_iterator i = removed.begin(); i != removed.end(); ++i) {
const Raul::Path path = (i->first == old_path)
? new_path
: new_path.child(
Raul::Path(i->first.substr(old_path.base().length() - 1)));
i->second->set_path(path);
assert(find(path) == end()); // Shouldn't be dropping objects!
insert(make_pair(path, i->second));
}
}
void CriticalCurves::setParameters(double radius_1, double radius_2, Arrangements_2 insets_1, Arrangements_2 insets_2)
{
Arrangement_2_iterator inset_1 = insets_1.begin();
Arrangement_2_iterator inset_2 = insets_2.begin();
while (inset_1 != insets_1.end() && inset_2 != insets_2.end())
{
Arrangement_2 arrangement;
// Add the curves of the inset.
for (Edge_iterator edge = inset_1->edges_begin(); edge != inset_1->edges_end(); ++edge)
{
insert(arrangement, edge->curve());
}
// Add the critical curves of type I.
for (Edge_iterator edge = inset_2->edges_begin(); edge != inset_2->edges_end(); ++edge)
{
if (CGAL::COLLINEAR == edge->curve().orientation())
{
// Displaced a segment.
Nt_traits nt_traits;
Algebraic_ft factor = nt_traits.convert(Rational(radius_1) + Rational(radius_2));
Conic_point_2 source = edge->curve().source();
Conic_point_2 target = edge->curve().target();
Algebraic_ft delta_x = target.x() - source.x();
Algebraic_ft delta_y = target.y() - source.y();
Algebraic_ft length = nt_traits.sqrt(delta_x * delta_x + delta_y * delta_y);
Algebraic_ft translation_x = factor * delta_y / length;
Algebraic_ft translation_y = - factor * delta_x / length;
Conic_point_2 point_1(source.x() + translation_x, source.y() + translation_y);
Conic_point_2 point_2(target.x() + translation_x, target.y() + translation_y);
Algebraic_ft a = - delta_y;
Algebraic_ft b = delta_x;
Algebraic_ft c = factor * length - (source.y() * target.x() - source.x() * target.y());
X_monotone_curve_2 x_monotone_curve(a, b, c, point_1, point_2);
insert(arrangement, x_monotone_curve);
}
else
{
// Displaces an arc.
Rational two(2);
Rational four(4);
Rational r = edge->curve().r();
Rational s = edge->curve().s();
Rational t = edge->curve().t();
Rational u = edge->curve().u();
Rational v = edge->curve().v();
Rational w = edge->curve().w();
Nt_traits nt_traits;
Rational x_center = - u / (two * r);
Rational y_center = - v / (two * r);
Rat_point_2 rat_center(x_center, y_center);
Conic_point_2 center(nt_traits.convert(x_center), nt_traits.convert(y_center));
Rational radius = Rational(radius_1) + two * Rational(radius_2);
Algebraic_ft coefficient = nt_traits.convert(radius / Rational(radius_2));
Conic_point_2 source_1 = edge->curve().source();
Algebraic_ft x_source_2 = center.x() + coefficient * (source_1.x() - center.x());
Algebraic_ft y_source_2 = center.y() + coefficient * (source_1.y() - center.y());
Conic_point_2 source_2(x_source_2, y_source_2);
Conic_point_2 target_1 = edge->curve().target();
Algebraic_ft x_target_2 = center.x() + coefficient * (target_1.x() - center.x());
Algebraic_ft y_target_2 = center.y() + coefficient * (target_1.y() - center.y());
Conic_point_2 target_2(x_target_2, y_target_2);
Rat_circle_2 circle(rat_center, radius * radius);
Conic_arc_2 conic_arc(circle, CGAL::COUNTERCLOCKWISE, source_2, target_2);
insert(arrangement, conic_arc);
}
}
// Add the critical curves of type II.
for (Edge_iterator edge = inset_2->edges_begin(); edge != inset_2->edges_end(); ++edge)
{
double x = CGAL::to_double(edge->curve().source().x());
double y = CGAL::to_double(edge->curve().source().y());
double radius = radius_1 + radius_2;
Rat_point_2 center(x, y);
Rat_circle_2 circle(center, radius * radius);
Conic_arc_2 conic_arc(circle);
insert(arrangement, conic_arc);
}
// Remove the curves which are not include in the inset.
Objects objects;
Face_handle face;
for (Edge_iterator edge = arrangement.edges_begin(); edge != arrangement.edges_end(); ++edge)
{
CGAL::zone(*inset_1, edge->curve(), std::back_inserter(objects));
for (Object_iterator object = objects.begin(); object != objects.end(); ++object)
{
if (assign(face, *object))
{
if (face->is_unbounded())
{
remove_edge(arrangement, edge);
break;
}
}
}
objects.clear();
}
// Print essential information on the standard input.
std::cout << "Arrangement:" << std::endl;
std::cout << " Number of vertices: " << arrangement.number_of_vertices() << std::endl;
std::cout << " Number of edges : " << arrangement.number_of_edges() << std::endl;
std::cout << " Number of face : " << arrangement.number_of_faces() << std::endl;
this->critical_curves.push_back(arrangement);
++inset_1;
++inset_2;
}
// Commit changes.
emit(criticalCurvesChanged());
return;
}
const_iterator begin() const { return objects.begin(); }
iterator begin() { return objects.begin(); }
