PropertyTree &
PropertyTree::addChild(const char *path,
const boost::spirit::hold_any &defaultValue)
{
PropertyTree *ch = this;
char **names = g_strsplit(path, "/", -1);
char **name = names;
assert(*name);
while (*(name + 1))
{
Table::iterator it = ch->m_children.find(*name);
if (it == ch->m_children.end())
{
PropertyTree *newChild = new PropertyTree(*name);
ch->addChild(*newChild);
ch = newChild;
}
else
ch = it->second;
++name;
}
PropertyTree *newChild = new PropertyTree(*name, defaultValue);
ch->addChild(*newChild);
g_strfreev(names);
return *newChild;
}
DefaultTransitionModel::DefaultTransitionModel( const Map& _map, const PropertyTree& ptree ) :
map( _map ),
xNoise( ptree.get_child("x_noise") ),
yNoise( ptree.get_child("y_noise") ),
thNoise( ptree.get_child("th_noise") ) {
SeedDistributions();
}
/** \brief serializes the Plan
*
*
*/
Serializable::PropertyTree Timetable::Plan::serialize() const
{
PropertyTree pt;
pt.put("start-time", _startTime.time);
pt.put("end-time", _endTime.time);
pt.put("interval", _interval.time);
pt.put("days", _days);
return pt;
}
void
updateNode(PropertyTree& node) {
node.put("Topology.<xmlattr>.TopologyType", topologyType);
std::stringstream ss;
for (std::size_t d = 0; d < dimensions.size(); ++d) {
if (ss.str().empty()) {
ss << dimensions[d];
} else {
ss << ' ' << dimensions[d];
}
}
node.put("Topology.<xmlattr>.Dimensions", ss.str());
}
LaserSensorModel::LaserSensorModel( const Map& _map, const PropertyTree& ptree ) :
map( _map ),
laserSubsample( ptree.get<unsigned int>("laser_subsample") ),
gaussianWeight( ptree.get<double>("gaussian_weight") ),
gaussianVarianceScale( ptree.get<double>("gaussian_variance_scale") ),
uniformWeight( ptree.get<double>("uniform_weight") ),
exponentialWeight( ptree.get<double>("exponential_weight") ),
maxRangeWeight( ptree.get<double>("max_range_weight") ),
gaussianComponent( ptree.get_child("gaussian_component") ),
uniformComponent( ptree.get_child("uniform_component") ),
exponentialCoefficient( ptree.get<double>("exponential_coeff") ),
raytraceStepsize( ptree.get<double>("raytrace_stepsize") ),
raytraceThreshold( ptree.get<double>("raytrace_threshold") ) {
numProbsToSkip = std::round( SensorData::ScanSize*ptree.get<double>("percent_outliers") );
numPoints = std::floor( SensorData::ScanSize/(double)laserSubsample );
}
void
updateNode(PropertyTree& node) {
PropertyTree& attr_node = node.add("Attribute", "");
attr_node.put("<xmlattr>.Name", name);
attr_node.put("<xmlattr>.AttributeType", type);
attr_node.put("<xmlattr>.Center", center);
item.updateNode(attr_node);
}
void MaterialObject::build() {
check();
if (!debugInactivate_()) {
// for (auto& currentSensor : sensorNode_) {
// ReferenceSensor temporarySensor;
// temporarySensor.store(currentSensor.second);
// temporarySensor.check();
// temporarySensor.cleanup();
// std::cout << "[" << currentSensor.first << "]=" << temporarySensor.numChannels() << "; ";
// sensorChannels[currentSensor.first] = temporarySensor.numChannels();
// }
// std::cout << "}" << std::endl;
static std::map<MaterialObjectKey, Materials*> materialsMap_; //for saving memory
for (auto& currentMaterialNode : materialsNode_) {
store(currentMaterialNode.second);
check();
if (type_().compare(getTypeString()) == 0) {
MaterialObjectKey myKey(currentMaterialNode.first, sensorChannels, destination_.state()? destination_() : std::string(""));
if (materialsMap_.count(myKey) == 0) {
Materials * newMaterials = new Materials(materialType_);
newMaterials->store(currentMaterialNode.second);
//pass destination to newMaterials
if(destination_.state()) {
PropertyTree destinationPt;
destinationPt.add(destination_.name(), destination_());
newMaterials->store(destinationPt);
}
newMaterials->build(sensorChannels);
materialsMap_[myKey] = newMaterials;
}
materials_ = materialsMap_[myKey];
break;
}
}
}
cleanup();
}
void
updateNode(PropertyTree& node) {
PropertyTree& geometry_node = node.add("Geometry", "");
geometry_node.put("<xmlattr>.GeometryType", geometryType);
for (auto& item : data_items) {
item.updateNode(geometry_node);
}
}
void MoveGenerationDatabase::PopulateDb(const PropertyTree& jsonDb, KnightMovesDB (&vals)[BoardSize_TilesCount * BoardSize_TilesCount], const std::string& name)
{
int position = 0;
for (auto& pos : jsonDb.get_child(name))
{
for (auto& destPos : pos.second)
{
vals[position].push_back(destPos.second.get_value<unsigned>());
}
++position;
}
}
bool PropertyTree::set(const boost::spirit::hold_any &value,
bool correct,
std::list<std::string> *errors)
{
boost::spirit::hold_any save(m_value);
m_value = value;
bool valid = true;
for (PropertyTree *p = this; p && !p->m_correcting; p = p->m_parent)
{
if (p->m_validator)
if (!p->m_validator(*p, correct, errors))
valid = false;
}
if (!valid)
{
assert(!correct);
m_value = save;
return false;
}
if (!m_correcting)
m_changed(*this);
return true;
}
void
updateNode(PropertyTree& node) {
std::stringstream ss;
for (std::size_t d = 0; d < dimensions.size(); ++d) {
if (ss.str().empty()) {
ss << dimensions[d];
} else {
ss << ' ' << dimensions[d];
}
}
PropertyTree& dat_node = node.add("DataItem", data);
dat_node.put("<xmlattr>.Dimensions", ss.str());
dat_node.put("<xmlattr>.NumberType", numberType);
dat_node.put("<xmlattr>.Format", format);
}
/** \brief serializes the timetable
*
*/
Serializable::PropertyTree Timetable::serialize() const
{
PropertyTree pt;
pt.put_child("plans.weekday", _plans[PLAN_WEEKDAY].serialize());
pt.put_child("plans.morning-rush", _plans[PLAN_MORNING_RUSH].serialize());
pt.put_child("plans.evening-rush", _plans[PLAN_EVENING_RUSH].serialize());
pt.put_child("plans.weekend", _plans[PLAN_WEEKEND].serialize());
pt.put_child("plans.night", _plans[PLAN_NIGHT].serialize());
pt.put_child("plans.custom", _plans[PLAN_CUSTOM].serialize());
return pt;
}
WiiFishController::WiiFishController(FishMaster* fm, Camera* cam, SimpleSetup* setup, PropertyTree& ptree, StereoCamera* sc)
: fm(fm)
, cam(cam)
, stereoCam(sc)
, setup(setup)
, ptree(ptree)
, curCamIdx(-1)
, speed(0)
, direction(0)
, jaw(0)
, up(false)
, down(false)
, left(false)
, right(false)
, forward(false)
, back(false)
{
ptree.PropertiesChangedEvent().Attach(*this);
ReloadConfig();
SetKeyBindings();
}
void PropertyTree::removeChild(PropertyTree& child)
{
m_children.erase(child.name());
child.removeFromList(m_firstChild, m_lastChild);
}
void PropertyTree::addChild(PropertyTree &child)
{
child.addToList(m_firstChild, m_lastChild);
child.m_parent = this;
m_children.insert(std::make_pair(child.name(), &child));
}
bool PropertyTree::reset(const std::list<const char *> &paths,
bool correct,
std::list<std::string> *errors)
{
std::vector<std::pair<PropertyTree *, boost::spirit::hold_any> > saved;
saved.reserve(paths.size());
std::list<std::set<PropertyTree *> > levels;
for (std::list<const char *>::const_iterator it = paths.begin();
it != paths.end();
++it)
{
PropertyTree *ch = this;
std::list<std::set<PropertyTree *> >::iterator it2 = levels.begin();
char **names = g_strsplit(*it, "/", -1);
for (char **name = names; *name; ++name)
{
ch = ch->m_children.find(*name)->second;
if (it2 == levels.end())
it2 = levels.insert(it2, std::set<PropertyTree *>());
it2->insert(ch);
++it2;
}
g_strfreev(names);
saved.push_back(std::make_pair(ch, ch->m_value));
ch->m_value = ch->m_defaultValue;
}
bool valid = true;
for (std::list<std::set<PropertyTree *> >::reverse_iterator it =
levels.rbegin();
it != levels.rend();
++it)
{
for (std::set<PropertyTree *>::const_iterator it2 = it->begin();
it2 != it->end();
++it2)
{
assert(!(*it2)->m_correcting);
if ((*it2)->m_validator)
if (!(*it2)->m_validator(**it2, false, errors))
valid = false;
}
}
for (PropertyTree *p = this; p && !p->m_correcting; p = p->m_parent)
{
if (p->m_validator)
if (!p->m_validator(*p, false, errors))
valid = false;
}
if (!valid)
{
assert(!correct);
for (std::vector<std::pair<PropertyTree *,
boost::spirit::hold_any> >::const_iterator
it = saved.begin();
it != saved.end();
++it)
it->first->m_value = it->second;
return false;
}
for (std::vector<std::pair<PropertyTree *,
boost::spirit::hold_any> >::const_iterator
it = saved.begin();
it != saved.end();
++it)
if (!it->first->m_correcting)
it->first->m_changed(*it->first);
return true;
}
void Configs::merge(const PropertyTree &parent, const PropertyTree::path_type &childPath, const PropertyTree &child)
{
mProperties.put(childPath, child.data());
}