void
Visit(LineSectorZone& oz)
{
fixed line_length =
Units::ToSysDistance(GetFormValueFixed(*wf, _T("prpOZLineLength")));
if (fabs(line_length - oz.getLength()) > fixed(49)) {
oz.setLength(line_length);
task_modified = true;
}
}
ObservationZonePoint*
Serialiser::deserialise_oz(const Waypoint& wp, const bool is_turnpoint)
{
tstring type;
if (!m_node.get_attribute(_T("type"),type)) {
assert(1);
return NULL;
}
if (_tcscmp(type.c_str(), _T("Line")) == 0) {
LineSectorZone *ls = new LineSectorZone(wp.Location);
fixed length;
if (m_node.get_attribute(_T("length"), length)) {
ls->setLength(length);
}
return ls;
} else if (_tcscmp(type.c_str(), _T("Cylinder")) == 0) {
CylinderZone *ls = new CylinderZone(wp.Location);
fixed radius;
if (m_node.get_attribute(_T("radius"), radius)) {
ls->setRadius(radius);
}
return ls;
} else if (_tcscmp(type.c_str(), _T("Sector")) == 0) {
SectorZone *ls = new SectorZone(wp.Location);
fixed radius;
Angle start, end;
if (m_node.get_attribute(_T("radius"), radius)) {
ls->setRadius(radius);
}
if (m_node.get_attribute(_T("start_radial"), start)) {
ls->setStartRadial(start);
}
if (m_node.get_attribute(_T("end_radial"), end)) {
ls->setEndRadial(end);
}
return ls;
} else if (_tcscmp(type.c_str(), _T("FAISector")) == 0) {
return new FAISectorZone(wp.Location, is_turnpoint);
} else if (_tcscmp(type.c_str(), _T("Keyhole")) == 0) {
return new KeyholeZone(wp.Location);
} else if (_tcscmp(type.c_str(), _T("BGAFixedCourse")) == 0) {
return new BGAFixedCourseZone(wp.Location);
} else if (_tcscmp(type.c_str(), _T("BGAEnhancedOption")) == 0) {
return new BGAEnhancedOptionZone(wp.Location);
}
assert(1);
return NULL;
}
virtual void Visit(LineSectorZone& tp) {
// length
tp.setLength(fixed(1000));
}