void PreFlightMiscPage::load()
{
GeneralConfig *conf = GeneralConfig::instance();
// @AP: Arrival Altitude is always saved as meter.
Altitude minArrival = conf->getSafetyAltitude();
if (m_altUnit == Altitude::meters) // user wants meters
{
m_edtMinimalArrival->setValue((int) rint(minArrival.getMeters()));
}
else // user gets feet
{
m_edtMinimalArrival->setValue((int) rint(minArrival.getFeet()));
}
m_edtArrivalAltitude->setCurrentIndex( conf->getArrivalAltitudeDisplay() );
m_edtQNH->setValue( conf->getQNH() );
m_edtLDTime->setValue( conf->getLDCalculationTime() );
m_bRecordInterval->setValue( conf->getBRecordInterval() );
m_kRecordInterval->setValue( conf->getKRecordInterval() );
m_chkLogAutoStart->setChecked( conf->getLoggerAutostartMode() );
Speed speed;
// speed is stored in Km/h
speed.setKph( GeneralConfig::instance()->getAutoLoggerStartSpeed() );
m_logAutoStartSpeed->setValue( speed.getValueInUnit( m_speedUnit ) );
// save loaded value for change control
m_loadedSpeed = m_logAutoStartSpeed->value();
}
Speed* Speed::create(ActionInterval* action, float speed)
{
Speed *ret = new (std::nothrow) Speed();
if (ret && ret->initWithAction(action, speed))
{
ret->autorelease();
return ret;
}
CC_SAFE_DELETE(ret);
return nullptr;
}
int main(int argc, char** argv) try
{
Speed speed;
speed.parseOptions (argc, argv);
speed.runTest ();
return 0;
}
catch (Error& error)
{
cerr << error << endl;
return -1;
}
void PreFlightMiscPage::save()
{
GeneralConfig *conf = GeneralConfig::instance();
IgcLogger *log = IgcLogger::instance();
if( m_chkLogAutoStart->isChecked() )
{
if ( ! log->getIsLogging() )
{
// Change logger mode to standby only, if logger is not on.
log->Standby();
}
}
else
{
if (log->getIsStandby())
{
log->Stop();
}
}
conf->setLoggerAutostartMode( m_chkLogAutoStart->isChecked() );
// @AP: Store altitude always as meter.
if (m_altUnit == Altitude::meters)
{
conf->setSafetyAltitude(Altitude(m_edtMinimalArrival->value()));
}
else
{
Altitude currentAlt; // Altitude will be converted to feet
currentAlt.setFeet((double) m_edtMinimalArrival->value());
conf->setSafetyAltitude(currentAlt);
}
conf->setArrivalAltitudeDisplay( (GeneralConfig::ArrivalAltitudeDisplay) m_edtArrivalAltitude->itemData(m_edtArrivalAltitude->currentIndex()).toInt() );
conf->setQNH(m_edtQNH->value());
conf->setLDCalculationTime(m_edtLDTime->value());
conf->setBRecordInterval(m_bRecordInterval->value());
conf->setKRecordInterval(m_kRecordInterval->value());
if( m_loadedSpeed != m_logAutoStartSpeed->value() )
{
Speed speed;
speed.setValueInUnit( m_logAutoStartSpeed->value(), m_speedUnit );
// store speed in Km/h
GeneralConfig::instance()->setAutoLoggerStartSpeed( speed.getKph() );
}
}
IEntity<T> *Speed<T>::clone(double x, double y)
{
Speed<T> *speed = new Speed<T>(*this);
speed->setPosX(x);
speed->setPosY(y);
speed->setScale(T(10, 10, 10));
speed->setPosition(T(x, 0, y));
speed->setRotation(T(0, 0, 0));
speed->setIsBreakable(true);
speed->setHitboxSize(1);
speed->setIsCrossable(true);
return (speed);
}
Vector::Vector(double angle, Speed R){
setAngleRad((float)angle);
// qDebug("angle: %f", angle*180/PI);
_speed=R.getMps();
// qDebug("_speed: %f", _speed);
dirtyDR=false;
dirtyXY=true;
}
Speed<T>::Speed(Speed const &other)
{
this->setPosX(other.getPosX());
this->setPosY(other.getPosY());
this->setHitboxSize(other.getHitboxSize());
this->setIsBreakable(other.isBreakable());
this->setPosition(other.getPosition());
this->setRotation(other.getRotation());
this->setScale(other.getScale());
this->setIsCrossable(other.isCrossable());
}
/**
* This function formats the variometer speed value in meters with sign +/-,
* 3 numbers with 3 decimal numbers.
*/
QString IgcLogger::formatVario(const Speed vSpeed)
{
QString result;
double mps = vSpeed.getMps();
if( mps == 0.0 )
{
result += " ";
}
else if( mps > 0.0 )
{
result += "+";
}
// We need a number with 6 digits and without a decimal point. Therefore
// the value meter per second is multiplied with 1000.
result += QString("%1").arg( (int) rint(mps*1000.0), 6, 10, QChar('0') );
return result;
}
void make_power()
{
if(power_available == 0 || power_taken)
return;
glPushMatrix();
if(power_choosen == MAGNET)
{
magnet.design(8,power_position.x,power_position.y,power_position.z);
}
else if(power_choosen == SPEED)
{
speed.design(5,power_position.x,power_position.y,power_position.z);
}
else if(power_choosen == INVISIBLE)
{
invisible.design(5,power_position.x,power_position.y,power_position.z);
}
glPopMatrix();
}
MetersPerSecond::MetersPerSecond(const Speed& speed) {
m_metersPerSecond = speed.getMetersPerSecond();
}
/// Here we use E=1/2m.v²
Mass::Mass(const Energy& energy,const Speed& speed)
: m_value(2*energy.Joule()/(speed.MeterPerSecond().length()*speed.MeterPerSecond().length())),
m_unit(_Kilogram)
{}
/*
* https://github.com/LK8000/LK8000/tree/master/Common/Distribution/LK8000/_Polars
*
* Format explanation: all lines starting with a * are comments and you can also have empty lines
*
* Field 1: Gross weight of the glider, excluded ballast, when the values were measured
* Field 2: Max ballast you can load (water). It will add wing loading, separately
* Field 3-4, 5-6, 7-8 are couples of speed,sink rate in km/h and m/s .
* these values are used to create an interpolated curve of sink rates
* Field 9: NEW! Normally winpilot does not have this value. Put here at all cost the glider
* surface area in squared meters (m2). If the polar curve you are using does not have
* this value, go on wikipedia to find the wing area for that glider and add it after a comma.
*
* Here is the REAL polar used internally, that you have to create or change, for a glider
* that during test flight was weighting 330kg including pilots and everything, that can load
* extra 90 liters of water ballast, that at 75km/h has a sink rate of 0.7 m/s , at 93 km/h of 0,74
* at 185 km/h sinks at 3.1 m/s and finally that has a wing surface of 10.6 m2.
* Thus, the polar was calculated with a default wing loading of 31.1 kg/m2
* So this is an example
*
* 330, 90, 75.0, -0.7, 93.0, -0.74, 185.00, -3.1, 10.6
*
* Speed Astir.plr file content
*
* LK8000 polar for: Speed Astir
* MassDryGross[kg], MaxWaterBallast[liters], Speed1[km/h], Sink1[m/s], Speed2, Sink2, Speed3, Sink3, WingArea[m2]
* 351, 90, 90, -0.63, 105, -0.72, 157, -2.00, 11.5 // BestLD40@105
*
*/
bool GliderEditorNumPad::readLK8000PolarFile( const QString& fileName, Polar& polar )
{
QFile polarFile( fileName );
if( polarFile.exists() == false )
{
qWarning() << "readLK8000PolarFile:" << fileName << "does not exists!";
return false;
}
if( polarFile.open(QIODevice::ReadOnly) == false )
{
qWarning() << "readLK8000PolarFile:" << fileName << "is not readable!";
return false;
}
// We take the polar file name as gilder type name. The type description
// is sometimes missing in the file.
QString name = QFileInfo(fileName).completeBaseName();
polar.setName( name );
if( name.contains( "PAS") )
{
// Polar of a double seater was selected
polar.setSeats( 2 );
}
QTextStream stream( &polarFile );
int lineNo = 0;
while( !stream.atEnd() )
{
QString line = stream.readLine().trimmed();
lineNo++;
if( line.isEmpty() || line.startsWith("*") || line.startsWith("//") )
{
continue;
}
// Lines can contain at their right end C++ comments. This part must be
// removed first.
QStringList items = line.split( "//" );
items = items.at(0).split( ",", QString::SkipEmptyParts );
if( items.size() < 9 )
{
qWarning() << "Polar file"
<< QFileInfo(fileName).fileName()
<< "line"
<< lineNo
<< "contains to less items:"
<< line;
polarFile.close();
return false;
}
// Extract data, Example is from Spped Astir.
// MassDryGross[kg], MaxWaterBallast[liters], Speed1[km/h], Sink1[m/s], Speed2, Sink2, Speed3, Sink3, WingArea[m2]
// 351, 90, 90, -0.63, 105, -0.72, 157, -2.00, 11.5 // BestLD40@105
for( int i = 0; i < 9; i++ )
{
bool ok;
double dv = items.at(i).trimmed().toDouble(&ok);
Speed speed;
if( ! ok )
{
polarFile.close();
return false;
}
switch(i)
{
case 0:
polar.setGrossWeight( dv );
break;
case 1:
polar.setMaxWater( rint(dv) );
break;
case 2:
speed.setKph( dv );
polar.setV1( speed );
break;
case 3:
speed.setMps( dv );
polar.setW1( speed );
break;
case 4:
speed.setKph( dv );
polar.setV2( speed );
break;
case 5:
speed.setMps( dv );
polar.setW2( speed );
break;
case 6:
speed.setKph( dv );
polar.setV3( speed );
break;
case 7:
speed.setMps( dv );
polar.setW3( speed );
break;
case 8:
polar.setWingArea( dv );
break;
default:
break;
}
}
polar.recalculatePolarData();
polarFile.close();
return true;
}
polarFile.close();
qWarning() << "readLK8000PolarFile:" << fileName << "contains no polar data!";
return false;
}
/** * operator for speed. */
Speed
operator *(double left, const Speed& right)
{
return Speed(left * right.getMps());
}
void MetersPerSecond::operator+=(const Speed& speed) {
m_metersPerSecond += speed.getMetersPerSecond();
}
double MetersPerSecond::operator/(const Speed& speed) const {
return getMetersPerSecond() / speed.getMetersPerSecond();
}
MetersPerSecond MetersPerSecond::operator-(const Speed& speed) const {
return MetersPerSecond(getMetersPerSecond() - speed.getMetersPerSecond());
}
/** Sets the X (longitudinal) speed in meters per second. */
void Vector::setX(Speed x){
if (dirtyXY) recalcXY();
_x=x.getMps();
dirtyDR=true;
}
/** Sets the Y (latitudinal) speed in meters per second. */
void Vector::setY(Speed y){
if (dirtyXY) recalcXY();
_y=y.getMps();
dirtyDR=true;
}
void Animal::Bounce(Speed &speed)
{
/// Sytuacja, gdy zwierzątko dojdzie do lewego rogu.
if(position.GetX()<25)
{
if(this->Decision(1)) speed.SetDirection(1); //n
else
if(this->Decision(8)) speed.SetDirection(8); //ne
else
if(this->Decision(6)) speed.SetDirection(6); //se
else
if(this->Decision(5)) speed.SetDirection(5); //s
else
speed.SetDirection(7); //e
} else
/// Sytuacja, gdy zwierzątko dojdzie do prawego rogu.
if(position.GetX()>A-50)
{
if(this->Decision(1)) speed.SetDirection(1); //n
else
if(this->Decision(2)) speed.SetDirection(2); //nw
else
if(this->Decision(4)) speed.SetDirection(4); //sw
else
if(this->Decision(5)) speed.SetDirection(5); //s
else
speed.SetDirection(3); //w
} else
/// Sytuacja, gdy zwierzątko dojdzie do górnego rogu.
if(position.GetY()<25)
{
if(this->Decision(3)) speed.SetDirection(3); //w
else
if(this->Decision(4)) speed.SetDirection(4); //sw
else
if(this->Decision(5)) speed.SetDirection(5); //s
else
if(this->Decision(6)) speed.SetDirection(6); //se
else
speed.SetDirection(7); //e
} else
/// Sytuacja, gdy zwierzątko dojdzie do dolnego rogu.
if(position.GetY()>B-50)
{
if(this->Decision(3)) speed.SetDirection(3); //w
else
if(this->Decision(2)) speed.SetDirection(2); //nw
else
if(this->Decision(1)) speed.SetDirection(1); //n
else
if(this->Decision(8)) speed.SetDirection(8); //ne
else
speed.SetDirection(7); //e
}
}
/**
* @track: A Track
* @iter: Iterator to given Track
* @is_route: Is the track of the trackpoint actually a route?
*
* Sets the Trackpoint Edit Window to the values of the current trackpoint given in @tpl.
*/
void PropertiesDialogTP::set_dialog_data(Track * track, const TrackPoints::iterator & current_tp_iter, bool is_route)
{
const HeightUnit height_unit = Preferences::get_unit_height();
const DistanceUnit distance_unit = Preferences::get_unit_distance();
const SpeedUnit speed_unit = Preferences::get_unit_speed();
Trackpoint * tp = *current_tp_iter;
this->trkpt_name->setEnabled(true);
this->trkpt_name->setText(tp->name); /* The name may be empty, but we have to do this anyway (e.g. to overwrite non-empty name of previous trackpoint). */
/* User can insert only if not at the end of track (otherwise use extend track). */
this->button_insert_tp_after->setEnabled(std::next(current_tp_iter) != track->end());
this->button_delete_current_tp->setEnabled(true);
/* We can only split up a track if it's not an endpoint. */
this->button_split_track->setEnabled(std::next(current_tp_iter) != track->end() && current_tp_iter != track->begin());
this->button_go_forward->setEnabled(std::next(current_tp_iter) != track->end());
this->button_go_back->setEnabled(current_tp_iter != track->begin());
this->lat_entry->setEnabled(true);
this->lon_entry->setEnabled(true);
this->alt->setEnabled(true);
this->timestamp_widget->setEnabled(tp->timestamp.is_valid());
this->set_dialog_title(track->name);
this->timestamp_widget->setEnabled(!is_route);
if (is_route) {
/* Remove any data that may have been previously displayed. */
this->timestamp_widget->clear();
}
this->sync_to_current_tp_block = true; /* Don't update while setting data. */
const LatLon lat_lon = tp->coord.get_latlon();
this->lat_entry->setValue(lat_lon.lat);
this->lon_entry->setValue(lat_lon.lon);
this->alt->set_value_iu(tp->altitude);
this->update_timestamp_widget(tp);
this->sync_to_current_tp_block = false; /* Can now update after setting data. */
if (this->cur_tp) {
const Distance diff = Coord::distance_2(tp->coord, this->cur_tp->coord);
this->diff_dist->setText(diff.convert_to_unit(Preferences::get_unit_distance()).to_nice_string());
if (tp->timestamp.is_valid() && this->cur_tp->timestamp.is_valid()) {
this->diff_time->setText(tr("%1 s").arg((long) (tp->timestamp.get_value() - this->cur_tp->timestamp.get_value())));
if (tp->timestamp == this->cur_tp->timestamp) {
this->diff_speed->setText("--");
} else {
const double dist = Coord::distance(tp->coord, this->cur_tp->coord);
const Time duration = Time::get_abs_diff(tp->timestamp, this->cur_tp->timestamp);
const Speed tmp_speed(dist / duration.get_value(), SpeedUnit::MetresPerSecond);
this->diff_speed->setText(tmp_speed.to_string());
}
} else {
this->diff_time->setText("");
this->diff_speed->setText("");
}
}
this->course->setText(tp->course.to_string());
this->speed->setText(Speed(tp->speed, SpeedUnit::MetresPerSecond).convert_to_unit(speed_unit).to_string());
this->hdop->setText(Distance(tp->hdop, SupplementaryDistanceUnit::Meters).convert_to_unit(distance_unit).to_nice_string());
this->pdop->setText(Distance(tp->pdop, SupplementaryDistanceUnit::Meters).convert_to_unit(distance_unit).to_nice_string());
this->vdop->setText(Altitude(tp->vdop, HeightUnit::Metres).convert_to_unit(height_unit).to_nice_string());
this->sat->setText(tr("%1 / %2").arg(tp->nsats).arg((int) tp->fix_mode));
this->cur_tp = tp;
}