void msPhysicalInterface::declarePhysicalVariable(double* ptr,double value,const msUnit& unit,string id) {
LOGGER_ENTER_FUNCTION_DBG("void msPhysicalInterface::declarePhysicalVariable(double* ptr,double value,const msUnit& unit,string id)", getFullId());
if(id=="") id = "var_"+output::getString<size_t>(PhysicalVariables.size());
*ptr = getUnits()->convert(unit,value);
PhysicalVariables[id] = boost::shared_ptr<msPhysicalVariable>(new msPhysicalVariable(id,ptr,unit));
LOGGER_EXIT_FUNCTION2("void msPhysicalInterface::declarePhysicalVariable(double* ptr,double value,const msUnit& unit,string id)");
//PtrOnPhysicalVariables[ptr] = unit;
}
boost::shared_ptr<msTreeMapper> msPhysicalInterface::homogenizeUnits() {
vector<boost::shared_ptr<msPhysicalInterface> > children =
getChildrenDerivedFrom<msPhysicalInterface>("msPhysicalInterface");
vector<boost::shared_ptr<msPhysicalInterface> >::iterator it;
for( it = children.begin(); it != children.end();++it){
(*it)->setUnits(getUnits());
}
return mySharedPtr();
}
void WeatherPlugin::timeout()
{
if (!getSocketFactory()->isActive() || m_fetch_id || (*getID() == 0))
return;
time_t now;
time(&now);
if ((unsigned)now < getTime() + CHECK_INTERVAL)
return;
string url = "http://xoap.weather.com/weather/local/";
url += getID();
url += "?cc=*&prod=xoap&par=1004517364&key=a29796f587f206b2&unit=";
url += getUnits() ? "s" : "m";
m_fetch_id = fetch(url.c_str());
}
// passing in a unit type of 0 returns a count of all units
size_t UnitInfoManager::getUnitTypeCount(int player, sc2::UnitTypeID type, bool completed) const
{
size_t count = 0;
for (auto & unit : getUnits(player))
{
if ((!type || type == unit.unit_type) && (!completed || unit.build_progress == 1.0f))
{
count++;
}
}
return count;
}
Parameter Parameter::getElementParameter()
{
Parameter element_parameter;
element_parameter.setType(getArrayElementType());
element_parameter.setUnits(getUnits());
if (rangeIsSet())
{
element_parameter.setRange(getRangeMin(),getRangeMax());
}
if (subsetIsSet())
{
element_parameter.setSubset(getSubset());
}
return element_parameter;
}
ossimProjection* ossimFgdcXmlDoc::getProjection()
{
if ( m_projection.valid() )
{
return m_projection.get();
}
ossimDrect rect = getBoundingBox();
ossimString projName (getProjCsn());
if (!projName.empty())
{
m_projection = ossimEpsgProjectionFactory::instance()->createProjection(projName);
if ( m_projection.valid() )
{
ossimDpt gsd(fabs(getXRes()), fabs(getYRes()));
ossimMapProjection* mapProj = dynamic_cast<ossimMapProjection*>(m_projection.get());
if (mapProj)
{
if (mapProj->isGeographic())
{
ossimGpt tie(rect.ul().lat, rect.ul().lon);
mapProj->setUlTiePoints(tie);
mapProj->setDecimalDegreesPerPixel(gsd);
}
else
{
ossimDpt tie(rect.ul().x, rect.ul().y);
if (getUnits().upcase() == "FEET")
{
gsd = gsd * METER_PER_FOOT;
tie = tie * METER_PER_FOOT;
}
mapProj->setUlTiePoints(tie);
mapProj->setMetersPerPixel(gsd);
}
}
}
}
return m_projection.get();
}
void WeatherPlugin::timeout()
{
if (!getSocketFactory()->isActive() || !isDone() || (*getID() == 0))
return;
time_t now = time(NULL);
if ((unsigned)now < getTime() + CHECK1_INTERVAL)
return;
m_bForecast = false;
if ((unsigned)now >= getForecastTime() + CHECK2_INTERVAL)
m_bForecast = true;
string url = "http://xoap.weather.com/weather/local/";
url += getID();
url += "?cc=*&prod=xoap&par=1004517364&key=a29796f587f206b2&unit=";
url += getUnits() ? "s" : "m";
if (m_bForecast && getForecast()){
url += "&dayf=";
url += number(getForecast());
}
fetch(url.c_str());
}
void TimelineIndicator::mouseDrag (const MouseEvent& ev)
{
if (! dragable())
return;
Rectangle<int> r (getBoundsInParent());
dragger.dragComponent (this, ev, nullptr);
int snap = shouldSnap ? timeline()->pixelSnap (getBoundsInParent().getX())
: getBoundsInParent().getX();
setBounds (r); // reset it back to normal
if (snap != lastSnap || ! shouldSnap)
{
setBounds (snap, 0, 1, timeline()->getHeight());
pos.setValue (getUnits());
lastSnap = snap;
}
}
void CtrlInfo::show(FILE *f) const
{
if (getType() == Numeric)
{
fprintf(f, "CtrlInfo: Numeric\n");
fprintf(f, "Display : %g ... %g\n", getDisplayLow(), getDisplayHigh());
fprintf(f, "Alarm : %g ... %g\n", getLowAlarm(), getHighAlarm());
fprintf(f, "Warning : %g ... %g\n", getLowWarning(), getHighWarning());
fprintf(f, "Prec : %ld '%s'\n", (long)getPrecision(), getUnits());
}
else if (getType() == Enumerated)
{
fprintf(f, "CtrlInfo: Enumerated\n");
fprintf(f, "States:\n");
size_t i, len;
for (i=0; i<getNumStates(); ++i)
{
fprintf(f, "\tstate='%s'\n", getState(i, len));
}
}
else
fprintf(f, "CtrlInfo: Unknown\n");
}
monitoringDataType LH_HWiNFOData::getType()
{
return getType(getUnits());
}
void DragoonManager::executeMicro(const UnitVector & targets, BWAPI::Position regroup)
{
const UnitVector & dragoons = getUnits();
// figure out targets
UnitVector dragoonTargets;
for (size_t i(0); i<targets.size(); i++)
{
// conditions for targeting
if (targets[i]->isVisible())
{
dragoonTargets.push_back(targets[i]);
}
}
// for each zealot
BOOST_FOREACH(BWAPI::Unit * dragoon, dragoons)
{
if (DRAW_UALBERTABOT_DEBUG) BWAPI::Broodwar->drawLineMap(dragoon->getPosition().x(), dragoon->getPosition().y(),
dragoon->getTargetPosition().x(), dragoon->getTargetPosition().y(), BWAPI::Colors::White);
// regroup if we have to regroup and we're not near an enemy
if (order.type == order.Attack && regroup != BWAPI::Position(0,0))// && !unitNearEnemy(dragoon))
{
if (DRAW_UALBERTABOT_DEBUG) BWAPI::Broodwar->drawCircleMap(dragoon->getPosition().x(), dragoon->getPosition().y(), 3, BWAPI::Colors::Orange, true);
// if the zealot is outside the regroup area
if (dragoon->getDistance(regroup) > 100)
{
// regroup it
smartMove(dragoon, regroup);
}
else
{
smartAttackMove(dragoon, dragoon->getPosition());
}
}
// otherwise this unit is not regrouping
else
{
// if the order is to attack or defend
if (order.type == order.Attack || order.type == order.Defend) {
// if there are targets
if (!dragoonTargets.empty())
{
// find the best target for this zealot
BWAPI::Unit * target = getTarget(dragoon, dragoonTargets);
// attack it
smartAttackUnit(dragoon, target);
}
// if there are no targets
else
{
// if we're not near the order position
if (dragoon->getDistance(order.position) > 100)
{
// move to it
smartAttackMove(dragoon, order.position);
}
}
}
}
}
}
void Parameter::writeApi(Response & response,
bool write_name_only,
bool is_property,
bool write_firmware,
bool write_instance_details)
{
if (response.error())
{
return;
}
const ConstantString & name = getName();
if (write_name_only)
{
response.write(name);
return;
}
response.beginObject();
response.write(constants::name_constant_string,name);
if (write_firmware)
{
const ConstantString & firmware_name = getFirmwareName();
response.write(constants::firmware_constant_string,firmware_name);
}
JsonStream::JsonTypes type = getType();
if (write_instance_details)
{
switch (type)
{
case JsonStream::LONG_TYPE:
{
response.write(constants::type_constant_string,JsonStream::LONG_TYPE);
if (subsetIsSet())
{
response.writeKey(constants::subset_constant_string);
response.write(getSubset(),JsonStream::LONG_TYPE);
}
if (rangeIsSet())
{
long min = getRangeMin().l;
long max = getRangeMax().l;
response.write(constants::min_constant_string,min);
response.write(constants::max_constant_string,max);
}
break;
}
case JsonStream::DOUBLE_TYPE:
{
response.write(constants::type_constant_string,JsonStream::DOUBLE_TYPE);
if (rangeIsSet())
{
double min = getRangeMin().d;
double max = getRangeMax().d;
response.write(constants::min_constant_string,min);
response.write(constants::max_constant_string,max);
}
break;
}
case JsonStream::BOOL_TYPE:
{
response.write(constants::type_constant_string,JsonStream::BOOL_TYPE);
break;
}
case JsonStream::NULL_TYPE:
{
break;
}
case JsonStream::STRING_TYPE:
{
response.write(constants::type_constant_string,JsonStream::STRING_TYPE);
if (subsetIsSet())
{
response.writeKey(constants::subset_constant_string);
response.write(getSubset(),JsonStream::STRING_TYPE);
}
break;
}
case JsonStream::OBJECT_TYPE:
{
response.write(constants::type_constant_string,JsonStream::OBJECT_TYPE);
break;
}
case JsonStream::ARRAY_TYPE:
{
response.write(constants::type_constant_string,JsonStream::ARRAY_TYPE);
JsonStream::JsonTypes array_element_type = getArrayElementType();
switch (array_element_type)
{
case JsonStream::LONG_TYPE:
{
response.write(constants::array_element_type_constant_string,JsonStream::LONG_TYPE);
if (subsetIsSet())
{
response.writeKey(constants::array_element_subset_constant_string);
response.write(getSubset(),JsonStream::LONG_TYPE);
}
if (rangeIsSet())
{
long min = getRangeMin().l;
long max = getRangeMax().l;
response.write(constants::array_element_min_constant_string,min);
response.write(constants::array_element_max_constant_string,max);
}
break;
}
case JsonStream::DOUBLE_TYPE:
{
response.write(constants::array_element_type_constant_string,JsonStream::DOUBLE_TYPE);
if (rangeIsSet())
{
double min = getRangeMin().d;
double max = getRangeMax().d;
response.write(constants::array_element_min_constant_string,min);
response.write(constants::array_element_max_constant_string,max);
}
break;
}
case JsonStream::BOOL_TYPE:
{
response.write(constants::array_element_type_constant_string,JsonStream::BOOL_TYPE);
break;
}
case JsonStream::NULL_TYPE:
{
break;
}
case JsonStream::STRING_TYPE:
{
response.write(constants::array_element_type_constant_string,JsonStream::STRING_TYPE);
if (subsetIsSet())
{
response.writeKey(constants::array_element_subset_constant_string);
response.write(getSubset(),JsonStream::STRING_TYPE);
}
break;
}
case JsonStream::OBJECT_TYPE:
{
response.write(constants::array_element_type_constant_string,JsonStream::OBJECT_TYPE);
break;
}
case JsonStream::ARRAY_TYPE:
{
response.write(constants::array_element_type_constant_string,JsonStream::ARRAY_TYPE);
break;
}
case JsonStream::ANY_TYPE:
{
response.write(constants::array_element_type_constant_string,JsonStream::ANY_TYPE);
break;
}
}
if (arrayLengthRangeIsSet() && !is_property)
{
size_t array_length_min = getArrayLengthMin();
size_t array_length_max = getArrayLengthMax();
response.write(constants::array_length_min_constant_string,array_length_min);
response.write(constants::array_length_max_constant_string,array_length_max);
}
break;
}
case JsonStream::ANY_TYPE:
{
response.write(constants::type_constant_string,JsonStream::ANY_TYPE);
break;
}
}
}
else
{
response.write(constants::type_constant_string,type);
if (type == JsonStream::ARRAY_TYPE)
{
JsonStream::JsonTypes array_element_type = getArrayElementType();
response.write(constants::array_element_type_constant_string,array_element_type);
}
}
if (write_instance_details)
{
const ConstantString & units = getUnits();
if (units.length() != 0)
{
response.write(constants::units_constant_string,units);
}
}
if (!is_property)
{
response.endObject();
}
}
void RangedManager::executeMicro(const UnitVector & targets)
{
const UnitVector & rangedUnits = getUnits();
// figure out targets
UnitVector rangedUnitTargets;
for (size_t i(0); i<targets.size(); i++)
{
// conditions for targeting
if (targets[i]->isVisible())
{
rangedUnitTargets.push_back(targets[i]);
}
}
// for each zealot
BOOST_FOREACH(BWAPI::Unit * rangedUnit, rangedUnits)
{
// train sub units such as scarabs or interceptors
//trainSubUnits(rangedUnit);
// if the order is to attack or defend
if (order.type == order.Attack || order.type == order.Defend || order.type == order.Tanks || order.type == order.Vultures || order.type == order.Goliaths || order.type == order.Marines) {
// if there are targets
if (!rangedUnitTargets.empty())
{
// find the best target for this zealot
BWAPI::Unit * target = getTarget(rangedUnit, rangedUnitTargets);
// attack it
if (!rangedUnit->getType() == BWAPI::UnitTypes::Terran_Siege_Tank_Tank_Mode) {
kiteTarget(rangedUnit, target);
}
else {
smartPositionAndDefend(rangedUnit,order.position);
}
}
// if there are no targets
else
{
// if we're not in range of the position
if (rangedUnit->getDistance(order.position) > rangedUnit->getInitialType().groundWeapon().maxRange())
{
//unsiege tanks if they're sieged
if (rangedUnit->getType() == BWAPI::UnitTypes::Terran_Siege_Tank_Siege_Mode) {
rangedUnit->unsiege();
}
// move to it
if (! (order.type == order.Defend)) {
smartAttackMove(rangedUnit, order.position);
}
else {
smartPositionAndDefend(rangedUnit,order.position);
}
}
//else if we're in range and we're supposed to s
else if (rangedUnit->getType() == BWAPI::UnitTypes::Terran_Siege_Tank_Tank_Mode) {
rangedUnit->siege();
}
}
}
if (Options::Debug::DRAW_UALBERTABOT_DEBUG)
{
BWAPI::Broodwar->drawLineMap(rangedUnit->getPosition().x(), rangedUnit->getPosition().y(),
rangedUnit->getTargetPosition().x(), rangedUnit->getTargetPosition().y(), Options::Debug::COLOR_LINE_TARGET);
}
}
}
// Draws a timescale (physical). Note this can fail if the span is short
// enough which can happen when we find no events.
QString VisWidget::drawTimescale(QPainter * painter, unsigned long long start,
unsigned long long span, int margin)
{
// Draw the scale bar
int lineHeight = rect().height() - (timescaleHeight - 1);
painter->setPen(QPen(Qt::black, 1, Qt::SolidLine));
painter->drawLine(margin, lineHeight, rect().width() - margin, lineHeight);
if (!visProcessed)
return "";
painter->setFont(QFont("Helvetica", 10));
QFontMetrics font_metrics = this->fontMetrics();
// Figure out the units and number of ticks ( may handle units later )
QLocale systemlocale = QLocale::system();
QString text = systemlocale.toString(start);
int textWidth = font_metrics.width(text) * 1.4;
// We can't have more than this and fit text
int max_ticks = floor((rect().width() - 2*margin) / 1.0 / textWidth);
int y = lineHeight + timescaleTickHeight + font_metrics.xHeight() + 4;
// We want a round number
unsigned long long tick_span = span / max_ticks; // Not round
int power = floor(log10(tick_span)); // How many zeros
unsigned long long roundfactor = std::max(1.0, pow(10, power));
tick_span = (tick_span / roundfactor) * roundfactor; // Now round
if (tick_span < 1)
tick_span = 1;
// Now we must find the first number after startTime divisible by
// the tick_span. We don't want to just find the same roundness
// because then panning doesn't work.
unsigned long long tick = (tick_span - start % tick_span) + start;
// TODO: MAKE THIS PART OPTIONAL
QString seconds = getUnits(trace->units);
int tick_divisor = 1;
unsigned long long tick_base = 0;
if (!options->absoluteTime)
{
tick_base = tick - tick_span;
int span_unit = (int) floor(log10(tick_span));
tick_divisor = pow(3 * floor(span_unit / 3), 10);
if (!tick_divisor)
tick_divisor = 1;
seconds = systemlocale.toString(tick_base
/ pow((double) trace->units, 10),
'f', trace->units - span_unit)
+ "s + "
+ getUnits(trace->units
- 3 * floor(span_unit / 3))
+ ":";
}
// And now we draw
while (tick < start + span)
{
int x = margin + round((tick - start) / 1.0 / span
* (rect().width() - 2*margin));
painter->drawLine(x, lineHeight, x, lineHeight + timescaleTickHeight);
text = systemlocale.toString((tick - tick_base) / tick_divisor);
textWidth = font_metrics.width(text) / 3;
painter->drawText(x - textWidth, y, text);
tick += tick_span;
}
return seconds;
}
bool ossimAuxXmlSupportData::initializeProjection( const ossimXmlDocument xdoc,
const std::string& wkt,
ossimProjection* proj ) const
{
bool result = false;
ossimRefPtr<ossimMapProjection> mapProj = dynamic_cast<ossimMapProjection*>( proj );
if ( mapProj.valid() )
{
// Find the tie and scale.
ossimString path = "/PAMDataset/Metadata/MDI";
std::vector<ossimRefPtr<ossimXmlNode> > xnodes;
xdoc.findNodes(path, xnodes);
if ( xnodes.size() )
{
ossimDpt tie;
ossimDpt scale;
tie.makeNan();
scale.makeNan();
for ( ossim_uint32 i = 0; i < xnodes.size(); ++i )
{
if ( xnodes[i].valid() )
{
ossimString value;
ossimString attrName = "key";
ossimRefPtr<ossimXmlAttribute> attr = xnodes[i]->findAttribute( attrName );
if ( attr.valid() )
{
if (attr->getValue() == "IMAGE__XY_ORIGIN" )
{
value = xnodes[i]->getText();
if ( value.size() )
{
// Split it:
std::vector<ossimString> list;
value.split( list, ossimString(","), true );
if ( list.size() == 2 )
{
if ( list[0].size() )
{
tie.x = list[0].toFloat64();
}
if ( list[1].size() )
{
tie.y = list[1].toFloat64();
}
}
}
}
else if (attr->getValue() == "IMAGE__X_RESOLUTION" )
{
value = xnodes[i]->getText();
if ( value.size() )
{
scale.x = value.toFloat64();
}
}
else if (attr->getValue() == "IMAGE__Y_RESOLUTION" )
{
value = xnodes[i]->getText();
if ( value.size() )
{
scale.y = value.toFloat64();
}
}
}
} // Matches: if ( xnodes[i].valid() )
} // Matches: for ( ossim_uint32 i = 0; i < xnodes.size(); ++i )
if ( !tie.hasNans() && !scale.hasNans() )
{
if ( mapProj->isGeographic() )
{
// Assuming tie and scale in decimal degrees:
mapProj->setDecimalDegreesPerPixel( scale );
ossimGpt gpt(tie.y, tie.x, 0.0);
mapProj->setUlTiePoints( ossimGpt( gpt ) );
result = true;
}
else
{
// Get the units:
ossimUnitType units = getUnits( wkt );
// Convert to meters:
result = true;
if ( units != OSSIM_METERS )
{
if ( units == OSSIM_FEET )
{
tie.x = tie.x * MTRS_PER_FT;
tie.y = tie.y * MTRS_PER_FT;
scale.x = scale.x * MTRS_PER_FT;
scale.y = scale.y * MTRS_PER_FT;
}
else if ( units == OSSIM_US_SURVEY_FEET)
{
tie.x = tie.x * US_METERS_PER_FT;
tie.y = tie.y * US_METERS_PER_FT;
scale.x = scale.x * OSSIM_US_SURVEY_FEET;
scale.y = scale.y * OSSIM_US_SURVEY_FEET;
}
else
{
ossimNotify(ossimNotifyLevel_WARN)
<< "ossimAuxXmlSupportData::initializeProjection WARNING: "
<< "Unhandled unit type: " << units << std::endl;
result = false;
}
}
if ( result )
{
mapProj->setMetersPerPixel( scale );
mapProj->setUlTiePoints( tie );
}
}
}
} // Matches: if ( xnodes.size() )
}
return result;
} // ossimAuxXmlSupportData::initializeProjection
void RangedManager::executeMicro(const UnitVector & targets)
{
const UnitVector & rangedUnits = getUnits();
// figure out targets
UnitVector rangedUnitTargets;
for (size_t i(0); i<targets.size(); i++)
{
// conditions for targeting
if (targets[i]->isVisible())
{
rangedUnitTargets.push_back(targets[i]);
}
}
// for each zealot
BOOST_FOREACH(BWAPI::Unit * rangedUnit, rangedUnits)
{
// train sub units such as scarabs or interceptors
//trainSubUnits(rangedUnit);
// if the order is to attack or defend
if (order.type == order.Attack || order.type == order.Defend) {
// if there are targets
if (!rangedUnitTargets.empty())
{
// find the best target for this zealot
BWAPI::Unit * target = getTarget(rangedUnit, rangedUnitTargets);
/*
if ( rangedUnit->getType().groundWeapon().maxRange() < target->getDistance(rangedUnit))
{
if(rangedUnit->getType() == BWAPI::UnitTypes::Zerg_Lurker)
{
//BWAPI::Broodwar->printf("############# Lurker in distance: %d ###############", rangedUnit->getID());
LurkerBurrow(rangedUnit);
}
}
*/
// attack it
kiteTarget(rangedUnit, target);
}
// if there are no targets
else
{
// if we're not near the order position
if (rangedUnit->getDistance(order.position) > 100)
{
// move to it
smartAttackMove(rangedUnit, order.position);
}
}
}
if (Options::Debug::DRAW_UALBERTABOT_DEBUG)
{
BWAPI::Broodwar->drawLineMap(rangedUnit->getPosition().x(), rangedUnit->getPosition().y(),
rangedUnit->getTargetPosition().x(), rangedUnit->getTargetPosition().y(), Options::Debug::COLOR_LINE_TARGET);
}
}
}
bool CUnitValidator::validate()
{
mVariableUnits = mProvidedVariableUnits;
if (mTree.getType() == CEvaluationTree::MassAction)
{
std::vector< CValidatedUnit >::iterator it = mVariableUnits.begin();
std::vector< CValidatedUnit >::iterator end = mVariableUnits.end();
CValidatedUnit & k1 = *it++;
k1 = mTargetUnit;
for (; it != end && !(*it == CBaseUnit::undefined); ++it)
{
it->buildExpression();
k1 = k1 * it->exponentiate(-1.0);
}
k1.buildExpression();
if (it == end) return k1.conflict();
CValidatedUnit & k2 = *it++;
k2 = mTargetUnit;
for (; it != end; ++it)
{
it->buildExpression();
k2 = k2 * it->exponentiate(-1.0);
}
k2.buildExpression();
if (it == end) return k1.conflict() || k2.conflict();
}
CVector< C_FLOAT64 > CurrentValues;
if (mApplyIntitialValue)
{
CurrentValues = mMathContainer.getValues();
mMathContainer.applyInitialValues();
}
mObjectUnits.clear();
mNodeUnits.clear();
do
{
getUnits();
}
while (setUnits());
bool conflict = false;
std::map < CEvaluationNode * , CValidatedUnit >::const_iterator itMap = mNodeUnits.begin();
std::map < CEvaluationNode * , CValidatedUnit >::const_iterator endMap = mNodeUnits.end();
for (; itMap != endMap && !conflict; ++itMap)
if (itMap->second.conflict())
{
conflict = true;
}
std::map < CObjectInterface *, CValidatedUnit >::iterator itObject = mObjectUnits.begin();
std::map < CObjectInterface *, CValidatedUnit >::iterator endObject = mObjectUnits.end();
for (; itObject != endObject; ++itObject)
{
itObject->second.buildExpression();
if (itObject->second.conflict())
{
conflict = true;
}
}
std::vector< CValidatedUnit >::iterator it = mVariableUnits.begin();
std::vector< CValidatedUnit >::iterator end = mVariableUnits.end();
for (; it != end; ++it)
{
it->buildExpression();
if (it->conflict())
{
conflict = true;
}
}
std::map < CEvaluationNode * , CValidatedUnit >::iterator found = mNodeUnits.find(const_cast< CEvaluationNode * >(mTree.getRoot()));
if (found != mNodeUnits.end())
{
found->second.setConflict(conflict);
}
if (mApplyIntitialValue)
{
mMathContainer.setValues(CurrentValues);
}
return !conflict;
}
void msPhysicalInterface::setUnits(boost::shared_ptr<msUnitsManager> units){
LOGGER_ENTER_FUNCTION_DBG("void msPhysicalInterface::setUnits(boost::shared_ptr<msUnitsManager> units)", getFullId());
msUnitsManager old;
old.set( Units->getExpression() );
msTreeMapper::update<msUnitsManager>( Units , units);
units->addObjectUsingMe( boost::static_pointer_cast<msPhysicalInterface>( mySharedPtr() ) );
LOGGER_WRITE(msLogger::DEBUG, "Number of objects using the units: " + output::getString<size_t>(getUnits()->LinkedObjects.size()));
updateUnits(old,*units);
LOGGER_EXIT_FUNCTION2("void msPhysicalInterface::setUnits(boost::shared_ptr<msUnitsManager> units)");
}
std::string Inversion::toString() const
{
return getUnits().second + " to " + getUnits().first + " converter";
}
void WraithManagerExt::executeMicro(const UnitVector & targets)
{
const UnitVector & selectedUnits = getUnits();
_noTurretTargetsNo = 0;
// figure out targets
UnitVector selectedUnitTargets;
for (size_t i(0); i<targets.size(); i++)
{
// conditions for targeting
if (targets[i]->isVisible())
{
selectedUnitTargets.push_back(targets[i]);
if (!isTurret(targets[i]))
{
_noTurretTargetsNo++;
}
}
}
setAverageEnemyPosition(selectedUnitTargets);
// For each unit
BOOST_FOREACH(BWAPI::Unit * selectedUnit, selectedUnits)
{
// Adjust cloak to the situation
manageCloak(selectedUnit, selectedUnitTargets);
// if the order is to attack or defend
if (order.type == order.Attack || order.type == order.Defend)
{
// if there are targets
if (!selectedUnitTargets.empty())
{
// find the best target for this unit
BWAPI::Unit * target = getTarget(selectedUnit, selectedUnitTargets);
// attack it
kiteTarget(selectedUnit, target);
}
// if there are no targets
else
{
// if we're not near the order position
if (selectedUnit->getDistance(order.position) > 100)
{
// move to it
// Border movement
BWAPI::Position movePosition;
if (order.type == SquadOrder::Attack
&& (StrategyManager::Instance().getCurrentStrategy() == StrategyManager::Instance().TerranWraithRush1Port))
{
movePosition = UnitManagerExt::Instance().getMovePosition(selectedUnit);
}
else
{
movePosition = order.position;
}
// eof Border movement
if (!movePosition.isValid())
{
movePosition.makeValid();
}
smartAttackMove(selectedUnit, movePosition);
}
}
}
if (Options::Debug::DRAW_UALBERTABOT_DEBUG)
{
BWAPI::Broodwar->drawLineMap(selectedUnit->getPosition().x(), selectedUnit->getPosition().y(),
selectedUnit->getTargetPosition().x(), selectedUnit->getTargetPosition().y(), Options::Debug::COLOR_LINE_TARGET);
}
}
int ocs_build_answer(AAAMessage *ccr, AAAMessage *cca, int result_code, int granted_units, int final_unit) {
AAA_AVP *avp;
AAA_AVP_LIST granted_list, mscc_list, final_list;
char x[4];
str granted_group, mscc_group, final_group;
int service, group, used;
if (!ccr) return 0;
if (!cca) return 0;
// Set some basic data: Application-ID, CCR-Type, CCR-Request-Number
set_4bytes(x, IMS_Ro);
ocs_add_avp(cca, x, 4, AVP_Acct_Application_Id, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
avp = cdpb.AAAFindMatchingAVP(ccr,0,AVP_IMS_CCR_Type,0,0);
ocs_add_avp(cca, avp->data.s, avp->data.len, AVP_IMS_CCR_Type, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
avp = cdpb.AAAFindMatchingAVP(ccr,0,AVP_CC_Request_Number,0,0);
ocs_add_avp(cca, avp->data.s, avp->data.len,AVP_CC_Request_Number, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
// Result-Code:
set_4bytes(x, result_code);
ocs_add_avp(cca, x, 4, AVP_Result_Code, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
if (result_code == DIAMETER_SUCCESS) {
granted_list.head = 0;
granted_list.tail = 0;
final_list.head = 0;
final_list.tail = 0;
mscc_list.head = 0;
mscc_list.tail = 0;
getUnits(ccr, &used, &service, &group);
set_4bytes(x, group);
ocs_add_avp_list(&mscc_list, x, 4, AVP_Rating_Group, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
set_4bytes(x, service);
ocs_add_avp_list(&mscc_list, x, 4, AVP_Service_Identifier, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
if (granted_units > 0) {
set_4bytes(x, granted_units);
ocs_add_avp_list(&granted_list, x, 4, AVP_CC_Time, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
granted_group = cdpb.AAAGroupAVPS(granted_list);
cdpb.AAAFreeAVPList(&granted_list);
ocs_add_avp_list(&mscc_list, granted_group.s, granted_group.len, AVP_Granted_Service_Unit, AAA_AVP_FLAG_MANDATORY, 0, AVP_FREE_DATA, __FUNCTION__);
}
// Result-Code:
set_4bytes(x, result_code);
ocs_add_avp_list(&mscc_list, x, 4, AVP_Result_Code, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
set_4bytes(x, 86400);
ocs_add_avp_list(&mscc_list, x, 4, AVP_Validity_Time, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
if (final_unit > 0) {
set_4bytes(x, 0);
ocs_add_avp_list(&final_list, x, 4, AVP_Final_Unit_Action, AAA_AVP_FLAG_MANDATORY, 0, AVP_DUPLICATE_DATA, __FUNCTION__);
final_group = cdpb.AAAGroupAVPS(final_list);
cdpb.AAAFreeAVPList(&final_list);
ocs_add_avp_list(&mscc_list, final_group.s, final_group.len, AVP_Final_Unit_Indication, AAA_AVP_FLAG_MANDATORY, 0, AVP_FREE_DATA, __FUNCTION__);
}
mscc_group = cdpb.AAAGroupAVPS(mscc_list);
cdpb.AAAFreeAVPList(&mscc_list);
return ocs_add_avp(cca, mscc_group.s, mscc_group.len, AVP_Multiple_Services_Credit_Control, AAA_AVP_FLAG_MANDATORY, 0, AVP_FREE_DATA, __FUNCTION__);
}
return 1;
}
void VultureManagerExt::executeMicro(const UnitVector & targets)
{
const UnitVector & selectedUnits = getUnits();
// figure out targets
UnitVector selectedUnitTargets;
UnitVector nearbyTargets;
for (size_t i(0); i<targets.size(); i++)
{
// conditions for targeting
if (targets[i]->isVisible()
&& !targets[i]->getType().isFlyer())
{
selectedUnitTargets.push_back(targets[i]);
}
}
//setAverageEnemyPosition(selectedUnitTargets);
// For each unit
BOOST_FOREACH(BWAPI::Unit * selectedUnit, selectedUnits)
{
// Avg enemy pos
for (size_t i(0); i<targets.size(); i++)
{
// conditions for targeting
if (targets[i]->isVisible()
&& !targets[i]->getType().isFlyer())
{
if (targets[i]->getDistance(selectedUnit) < 500)
{
nearbyTargets.push_back(targets[i]);
}
}
}
if (!nearbyTargets.empty())
{
setAverageEnemyPosition(nearbyTargets);
}
else
{
setAverageEnemyPosition(selectedUnitTargets);
}
// eof avg eveeny pos
// if the order is to attack or defend
if ((StrategyManager::Instance().getCurrentStrategy() == StrategyManager::Instance().TerranWraithRush1Port)
&& !isAttack())
{
executeTerranWraithRush1Port(selectedUnit, selectedUnitTargets);
}
else if (order.type == order.Attack || order.type == order.Defend)
{
// if there are targets
if (!selectedUnitTargets.empty())
{
// find the best target for this Marine
BWAPI::Unit * target = getTarget(selectedUnit, selectedUnitTargets);
// attack it
kiteTarget(selectedUnit, target);
}
// if there are no targets
else
{
// if we're not near the order position
if (selectedUnit->getDistance(order.position) > 100)
{
// move to it
smartAttackMove(selectedUnit, order.position);
}
}
}
if (Options::Debug::DRAW_UALBERTABOT_DEBUG)
{
BWAPI::Broodwar->drawLineMap(selectedUnit->getPosition().x(), selectedUnit->getPosition().y(),
selectedUnit->getTargetPosition().x(), selectedUnit->getTargetPosition().y(), Options::Debug::COLOR_LINE_TARGET);
}
}
}
