void Ecliptic::drawCompassLabels() {
const Projector* proj = SkyMap::Instance()->projector();
KStarsData* data = KStarsData::Instance();
SkyLabeler* skyLabeler = SkyLabeler::Instance();
// Set proper color for labels
QColor color( data->colorScheme()->colorNamed( "CompassColor" ) );
skyLabeler->setPen( QPen( QBrush(color), 1, Qt::SolidLine) );
KSNumbers num( data->ut().djd() );
dms elat(0.0), elng(0.0);
QString label;
for( int ra = 0; ra < 23; ra += 6 ) {
elng.setH( ra );
SkyPoint o;
o.setFromEcliptic( num.obliquity(), elng, elat );
o.setRA0( o.ra() );
o.setDec0( o.dec() );
o.EquatorialToHorizontal( data->lst(), data->geo()->lat() );
bool visible;
QPointF cpoint = proj->toScreen( &o, false, &visible );
if( visible && proj->checkVisibility( &o ) ) {
label.setNum( o.ra().reduce().Degrees() );
skyLabeler->drawGuideLabel( cpoint, label, 0.0 );
}
}
}
QTime SkyObject::riseSetTimeUT( const KStarsDateTime &dt, const GeoLocation *geo, bool riseT ) {
// First trial to calculate UT
QTime UT = auxRiseSetTimeUT( dt, geo, ra(), dec(), riseT );
// We iterate once more using the calculated UT to compute again
// the ra and dec for that time and hence the rise/set time.
// Also, adjust the date by +/- 1 day, if necessary
KStarsDateTime dt0 = dt;
dt0.setTime( UT );
if ( riseT && dt0 > dt ) {
dt0 = dt0.addDays( -1 );
} else if ( ! riseT && dt0 < dt ) {
dt0 = dt0.addDays( 1 );
}
SkyPoint sp = recomputeCoords( dt0, geo );
UT = auxRiseSetTimeUT( dt0, geo, sp.ra(), sp.dec(), riseT );
// We iterate a second time (For the Moon the second iteration changes
// aprox. 1.5 arcmin the coordinates).
dt0.setTime( UT );
sp = recomputeCoords( dt0, geo );
UT = auxRiseSetTimeUT( dt0, geo, sp.ra(), sp.dec(), riseT );
return UT;
}
void SkyPoint::addEterms(void) {
SkyPoint spd = Eterms();
RA = RA + spd.ra();
Dec = Dec + spd.dec();
}
bool SkyPoint::bendlight() {
// NOTE: This should be applied before aberration
// NOTE: One must call checkBendLight() before unnecessarily calling this.
// We correct for GR effects
// NOTE: This code is buggy. The sun needs to be initialized to
// the current epoch -- but we are not certain that this is the
// case. We have, as of now, no way of telling if the sun is
// initialized or not. If we initialize the sun here, we will be
// slowing down the program rather substantially and potentially
// introducing bugs. Therefore, we just ignore this problem, and
// hope that whenever the user is interested in seeing the effects
// of GR, we have the sun initialized correctly. This is usually
// the case. When the sun is not correctly initialized, rearth()
// is not computed, so we just assume it is nominally equal to 1
// AU to get a reasonable estimate.
Q_ASSERT( m_Sun );
double corr_sec = 1.75 * m_Sun->physicalSize() / ( ( std::isfinite( m_Sun->rearth() ) ? m_Sun->rearth() : 1 ) * AU_KM * angularDistanceTo( static_cast<const SkyPoint *>(m_Sun) ).sin() );
Q_ASSERT( corr_sec > 0 );
SkyPoint sp = moveAway( *m_Sun, corr_sec );
setRA( sp.ra() );
setDec( sp.dec() );
return true;
}
SkyPoint SkyPoint::moveAway( const SkyPoint &from, double dist ) const {
dms lat1, dtheta;
if( dist == 0.0 ) {
qDebug() << "moveAway called with zero distance!";
return *this;
}
double dst = fabs( dist * dms::DegToRad / 3600.0 ); // In radian
// Compute the bearing angle w.r.t. the RA axis ("latitude")
dms dRA( ra() - from.ra() );
dms dDec( dec() - from.dec() );
double bearing = atan2( dRA.sin() / dRA.cos(), dDec.sin() ); // Do not use dRA = PI / 2!!
//double bearing = atan2( dDec.radians() , dRA.radians() );
double dir0 = (dist >= 0 ) ? bearing : bearing + dms::PI; // in radian
dist = fabs( dist ); // in radian
lat1.setRadians( asin( dec().sin() * cos( dst ) +
dec().cos() * sin( dst ) * cos( dir0 ) ) );
dtheta.setRadians( atan2( sin( dir0 ) * sin( dst ) * dec().cos(),
cos( dst ) - dec().sin() * lat1.sin() ) );
return SkyPoint( ra() + dtheta, lat1 );
}
Ecliptic::Ecliptic(SkyComposite *parent ) :
LineListIndex( parent, i18n("Ecliptic") ),
m_label( name() )
{
KStarsData *data = KStarsData::Instance();
KSNumbers num( data->ut().djd() );
dms elat(0.0), elng(0.0);
const double eps = 0.1;
const double minRa = 0.0;
const double maxRa = 23.0;
const double dRa = 2.0;
const double dRa2 = 2. / 5.;
for(double ra = minRa; ra < maxRa; ra += dRa ) {
LineList* lineList = new LineList();
for(double ra2 = ra; ra2 <= ra + dRa + eps; ra2 += dRa2 ) {
elng.setH( ra2 );
SkyPoint* o = new SkyPoint();
o->setFromEcliptic( num.obliquity(), elng, elat );
o->setRA0( o->ra().Hours() );
o->setDec0( o->dec().Degrees() );
o->EquatorialToHorizontal( data->lst(), data->geo()->lat() );
lineList->append( o );
}
appendLine( lineList );
}
}
void modCalcAltAz::slotCompute()
{
//Determine whether we are calculating Alt/Az coordinates from RA/Dec,
//or vice versa. We calculate Alt/Az by default, unless the signal
//was sent by changing the Az or Alt value.
if ( sender()->objectName() == "Az" || sender()->objectName() == "Alt" ) {
//Validate Az and Alt coordinates
bool ok( false );
dms alt;
dms az = Az->createDms( true, &ok );
if ( ok ) alt = Alt->createDms( true, &ok );
if ( ok ) {
SkyPoint sp;
sp.setAz( az );
sp.setAlt( alt );
sp.HorizontalToEquatorial( &LST, geoPlace->lat() );
RA->showInHours( sp.ra() );
Dec->showInDegrees( sp.dec() );
}
} else {
//Validate RA and Dec coordinates
bool ok( false );
dms ra;
dms dec = Dec->createDms( true, &ok );
if ( ok ) ra = RA->createDms( false, &ok );
if ( ok ) {
SkyPoint sp( ra, dec );
sp.EquatorialToHorizontal( &LST, geoPlace->lat() );
Az->showInDegrees( sp.az() );
Alt->showInDegrees( sp.alt() );
}
}
}
void SkyPoint::subtractEterms(void) {
SkyPoint spd = Eterms();
RA = RA - spd.ra();
Dec = Dec - spd.dec();
}
bool SkyPoint::bendlight() {
// NOTE: This should be applied before aberration
// NOTE: One must call checkBendLight() before unnecessarily calling this.
// We correct for GR effects
Q_ASSERT( m_Sun );
double corr_sec = 1.75 * m_Sun->physicalSize() / ( m_Sun->rearth() * AU_KM * angularDistanceTo( static_cast<const SkyPoint *>(m_Sun) ).sin() );
Q_ASSERT( corr_sec > 0 );
SkyPoint sp = moveAway( *m_Sun, corr_sec );
setRA( sp.ra() );
setDec( sp.dec() );
return true;
}
void KSPlanetBase::findPA( const KSNumbers *num ) {
//Determine position angle of planet (assuming that it is aligned with
//the Ecliptic, which is only roughly correct).
//Displace a point along +Ecliptic Latitude by 1 degree
SkyPoint test;
dms newELat( ecLat().Degrees() + 1.0 );
test.setFromEcliptic( num->obliquity(), ecLong(), newELat );
double dx = ra().Degrees() - test.ra().Degrees();
double dy = test.dec().Degrees() - dec().Degrees();
double pa;
if ( dy ) {
pa = atan2( dx, dy )*180.0/dms::PI;
} else {
pa = dx < 0 ? 90.0 : -90.0;
}
setPA( pa );
}
double SkyPoint::vRSun(long double jd0) {
double ca, sa, cd, sd, vsun;
double cosRA, sinRA, cosDec, sinDec;
/* Sun apex (where the sun goes) coordinates */
dms asun(270.9592); // Right ascention: 18h 3m 50.2s [J2000]
dms dsun(30.00467); // Declination: 30^o 0' 16.8'' [J2000]
vsun=20.; // [km/s]
asun.SinCos(sa,ca);
dsun.SinCos(sd,cd);
/* We need an auxiliary SkyPoint since we need the
* source referred to the J2000 equinox and we do not want to ovewrite
* the current values
*/
SkyPoint aux;
aux.set(RA0,Dec0);
aux.precessFromAnyEpoch(jd0, J2000);
aux.ra().SinCos( sinRA, cosRA );
aux.dec().SinCos( sinDec, cosDec );
/* Computation is done performing the scalar product of a unitary vector
in the direction of the source with the vector velocity of Sun, both being in the
LSR reference system:
Vlsr = Vhel + Vsun.u_radial =>
Vlsr = Vhel + vsun(cos D cos A,cos D sen A,sen D).(cos d cos a,cos d sen a,sen d)
Vhel = Vlsr - Vsun.u_radial
*/
return vsun *(cd*cosDec*(cosRA*ca + sa*sinRA) + sd*sinDec);
}
void modCalcVlsr::processLines( QTextStream &istream ) {
// we open the output file
// QTextStream istream(&fIn);
QString outputFileName;
outputFileName = OutputFileBoxBatch->url().toLocalFile();
QFile fOut( outputFileName );
fOut.open(QIODevice::WriteOnly);
QTextStream ostream(&fOut);
QString line;
QChar space = ' ';
int i = 0;
long double jd0;
SkyPoint spB;
double sra, cra, sdc, cdc;
dms raB, decB, latB, longB;
QString epoch0B;
double vhB, vgB, vtB, vlsrB, heightB;
double vtopo[3];
QTime utB;
QDate dtB;
KStarsDateTime dt0B;
while ( ! istream.atEnd() ) {
line = istream.readLine();
line.trimmed();
//Go through the line, looking for parameters
QStringList fields = line.split( ' ' );
i = 0;
// Read Ut and write in ostream if corresponds
if(UTCheckBatch->isChecked() ) {
utB = QTime::fromString( fields[i] );
i++;
} else
utB = UTBoxBatch->time();
if ( AllRadioBatch->isChecked() )
ostream << KGlobal::locale()->formatTime( utB ) << space;
else
if(UTCheckBatch->isChecked() )
ostream << KGlobal::locale()->formatTime( utB ) << space;
// Read date and write in ostream if corresponds
if(DateCheckBatch->isChecked() ) {
dtB = QDate::fromString( fields[i] );
i++;
} else
dtB = DateBoxBatch->date();
if ( AllRadioBatch->isChecked() )
ostream << KGlobal::locale()->formatDate( dtB, KLocale::LongDate ).append(space);
else
if(DateCheckBatch->isChecked() )
ostream << KGlobal::locale()->formatDate( dtB, KLocale::LongDate ).append(space);
// Read RA and write in ostream if corresponds
if(RACheckBatch->isChecked() ) {
raB = dms::fromString( fields[i],false);
i++;
} else
raB = RABoxBatch->createDms(false);
if ( AllRadioBatch->isChecked() )
ostream << raB.toHMSString() << space;
else
if(RACheckBatch->isChecked() )
ostream << raB.toHMSString() << space;
// Read DEC and write in ostream if corresponds
if(DecCheckBatch->isChecked() ) {
decB = dms::fromString( fields[i], true);
i++;
} else
decB = DecBoxBatch->createDms();
if ( AllRadioBatch->isChecked() )
ostream << decB.toDMSString() << space;
else
if(DecCheckBatch->isChecked() )
ostream << decB.toDMSString() << space;
// Read Epoch and write in ostream if corresponds
if(EpochCheckBatch->isChecked() ) {
epoch0B = fields[i];
i++;
} else
epoch0B = EpochBoxBatch->text();
if ( AllRadioBatch->isChecked() )
ostream << epoch0B << space;
else
if(EpochCheckBatch->isChecked() )
ostream << epoch0B << space;
// Read vlsr and write in ostream if corresponds
if(InputVelocityCheckBatch->isChecked() ) {
vlsrB = fields[i].toDouble();
i++;
} else
vlsrB = InputVelocityComboBatch->currentText().toDouble();
if ( AllRadioBatch->isChecked() )
ostream << vlsrB << space;
else
if(InputVelocityCheckBatch->isChecked() )
ostream << vlsrB << space;
// Read Longitude and write in ostream if corresponds
if (LongCheckBatch->isChecked() ) {
longB = dms::fromString( fields[i],true);
i++;
} else
longB = LongitudeBoxBatch->createDms(true);
if ( AllRadioBatch->isChecked() )
ostream << longB.toDMSString() << space;
else
if (LongCheckBatch->isChecked() )
ostream << longB.toDMSString() << space;
// Read Latitude
if (LatCheckBatch->isChecked() ) {
latB = dms::fromString( fields[i], true);
i++;
} else
latB = LatitudeBoxBatch->createDms(true);
if ( AllRadioBatch->isChecked() )
ostream << latB.toDMSString() << space;
else
if (LatCheckBatch->isChecked() )
ostream << latB.toDMSString() << space;
// Read height and write in ostream if corresponds
if(ElevationCheckBatch->isChecked() ) {
heightB = fields[i].toDouble();
i++;
} else
heightB = ElevationBoxBatch->text().toDouble();
if ( AllRadioBatch->isChecked() )
ostream << heightB << space;
else
if(ElevationCheckBatch->isChecked() )
ostream << heightB << space;
// We make the first calculations
spB = SkyPoint (raB, decB);
dt0B.setFromEpoch(epoch0B);
vhB = spB.vHeliocentric(vlsrB, dt0B.djd());
jd0 = KStarsDateTime(dtB,utB).djd();
vgB = spB.vGeocentric(vlsrB, jd0);
geoPlace->setLong( longB );
geoPlace->setLat( latB );
geoPlace->setHeight( heightB );
dms gsidt = KStarsDateTime(dtB,utB).gst();
geoPlace->TopocentricVelocity(vtopo, gsidt);
spB.ra().SinCos(sra, cra);
spB.dec().SinCos(sdc, cdc);
vtB = vgB - (vtopo[0]*cdc*cra + vtopo[1]*cdc*sra + vtopo[2]*sdc);
ostream << vhB << space << vgB << space << vtB << endl;
}
fOut.close();
}
void modCalcAzel::processLines( QTextStream &istream ) {
// we open the output file
// QTextStream istream(&fIn);
QString outputFileName;
outputFileName = OutputLineEditBatch->text();
QFile fOut( outputFileName );
fOut.open(IO_WriteOnly);
QTextStream ostream(&fOut);
QString line;
QString space = " ";
int i = 0;
long double jd0, jdf;
dms LST;
SkyPoint sp;
dms raB, decB, latB, longB, azB, elB;
double epoch0B;
QTime utB;
ExtDate dtB;
while ( ! istream.eof() ) {
line = istream.readLine();
line.stripWhiteSpace();
//Go through the line, looking for parameters
QStringList fields = QStringList::split( " ", line );
i = 0;
// Read Ut and write in ostream if corresponds
if(utCheckBatch->isChecked() ) {
utB = QTime::fromString( fields[i] );
i++;
} else
utB = utBoxBatch->time();
if ( allRadioBatch->isChecked() )
ostream << utB.toString() << space;
else
if(utCheckBatch->isChecked() )
ostream << utB.toString() << space;
// Read date and write in ostream if corresponds
if(dateCheckBatch->isChecked() ) {
dtB = ExtDate::fromString( fields[i] );
i++;
} else
dtB = dateBoxBatch->date();
if ( allRadioBatch->isChecked() )
ostream << dtB.toString().append(space);
else
if(dateCheckBatch->isChecked() )
ostream << dtB.toString().append(space);
// Read Longitude and write in ostream if corresponds
if (longCheckBatch->isChecked() ) {
longB = dms::fromString( fields[i],TRUE);
i++;
} else
longB = longBoxBatch->createDms(TRUE);
if ( allRadioBatch->isChecked() )
ostream << longB.toDMSString() << space;
else
if (longCheckBatch->isChecked() )
ostream << longB.toDMSString() << space;
// Read Latitude
if (latCheckBatch->isChecked() ) {
latB = dms::fromString( fields[i], TRUE);
i++;
} else
latB = latBoxBatch->createDms(TRUE);
if ( allRadioBatch->isChecked() )
ostream << latB.toDMSString() << space;
else
if (latCheckBatch->isChecked() )
ostream << latB.toDMSString() << space;
// Read Epoch and write in ostream if corresponds
if(epochCheckBatch->isChecked() ) {
epoch0B = fields[i].toDouble();
i++;
} else
epoch0B = getEpoch( epochBoxBatch->text() );
if ( allRadioBatch->isChecked() )
ostream << epoch0B << space;
else
if(epochCheckBatch->isChecked() )
ostream << epoch0B << space;
// We make the first calculations
KStarsDateTime dt;
dt.setFromEpoch( epoch0B );
jdf = KStarsDateTime(dtB,utB).djd();
jd0 = dt.djd();
LST = KStarsDateTime(dtB,utB).gst().Degrees() + longB.Degrees();
// Equatorial coordinates are the input coords.
if (!horInputCoords) {
// Read RA and write in ostream if corresponds
if(raCheckBatch->isChecked() ) {
raB = dms::fromString( fields[i],FALSE);
i++;
} else
raB = raBoxBatch->createDms(FALSE);
if ( allRadioBatch->isChecked() )
ostream << raB.toHMSString() << space;
else
if(raCheckBatch->isChecked() )
ostream << raB.toHMSString() << space;
// Read DEC and write in ostream if corresponds
if(decCheckBatch->isChecked() ) {
decB = dms::fromString( fields[i], TRUE);
i++;
} else
decB = decBoxBatch->createDms();
if ( allRadioBatch->isChecked() )
ostream << decB.toDMSString() << space;
else
if(decCheckBatch->isChecked() )
ostream << decB.toDMSString() << space;
sp = SkyPoint (raB, decB);
sp.apparentCoord(jd0, jdf);
sp.EquatorialToHorizontal( &LST, &latB );
ostream << sp.az()->toDMSString() << space << sp.alt()->toDMSString() << endl;
// Input coords are horizontal coordinates
} else {
if(azCheckBatch->isChecked() ) {
azB = dms::fromString( fields[i],FALSE);
i++;
} else
azB = azBoxBatch->createDms();
if ( allRadioBatch->isChecked() )
ostream << azB.toHMSString() << space;
else
if(raCheckBatch->isChecked() )
ostream << azB.toHMSString() << space;
// Read DEC and write in ostream if corresponds
if(elCheckBatch->isChecked() ) {
elB = dms::fromString( fields[i], TRUE);
i++;
} else
elB = decBoxBatch->createDms();
if ( allRadioBatch->isChecked() )
ostream << elB.toDMSString() << space;
else
if(elCheckBatch->isChecked() )
ostream << elB.toDMSString() << space;
sp.setAz(azB);
sp.setAlt(elB);
sp.HorizontalToEquatorial( &LST, &latB );
ostream << sp.ra()->toHMSString() << space << sp.dec()->toDMSString() << endl;
}
}
fOut.close();
}
void modCalcAzel::showEquCoords ( SkyPoint sp )
{
raBox->show( sp.ra(), FALSE );
decBox->show( sp.dec() );
showEpoch( getDateTime() );
}
QList<const StarObject *> StarHopper::computePath( const SkyPoint &src, const SkyPoint &dest, float fov_, float maglim_ ) {
fov = fov_;
maglim = maglim_;
start = &src;
end = &dest;
came_from.clear();
result_path.clear();
// Implements the A* search algorithm
QList<SkyPoint const *> cSet;
QList<SkyPoint const *> oSet;
QHash<SkyPoint const *, double> g_score;
QHash<SkyPoint const *, double> f_score;
QHash<SkyPoint const *, double> h_score;
kDebug() << "StarHopper is trying to compute a path from source: " << src.ra().toHMSString() << src.dec().toDMSString() << " to destination: " << dest.ra().toHMSString() << dest.dec().toDMSString() << "; a starhop of " << src.angularDistanceTo( &dest ).Degrees() << " degrees!";
oSet.append( &src );
g_score[ &src ] = 0;
h_score[ &src ] = src.angularDistanceTo( &dest ).Degrees()/fov;
f_score[ &src ] = h_score[ &src ];
while( !oSet.isEmpty() ) {
kDebug() << "Next step";
// Find the node with the lowest f_score value
SkyPoint const *curr_node = NULL;
double lowfscore = 1.0e8;
foreach( const SkyPoint *sp, oSet ) {
if( f_score[ sp ] < lowfscore ) {
lowfscore = f_score[ sp ];
curr_node = sp;
}
}
kDebug() << "Lowest fscore (vertex distance-plus-cost score) is " << lowfscore << " with coords: " << curr_node->ra().toHMSString() << curr_node->dec().toDMSString() << ". Considering this node now.";
if( curr_node == &dest || (curr_node != &src && h_score[ curr_node ] < 0.5) ) {
// We are at destination
reconstructPath( came_from[ curr_node ] );
kDebug() << "We've arrived at the destination! Yay! Result path count: " << result_path.count();
// Just a test -- try to print out useful instructions to the debug console. Once we make star hopper unexperimental, we should move this to some sort of a display
kDebug() << "Star Hopping Directions: ";
const SkyPoint *prevHop = start;
foreach( const StarObject *hopStar, result_path ) {
QString direction;
double pa; // should be 0 to 2pi
dms angDist = prevHop->angularDistanceTo( hopStar, &pa );
dms dmsPA;
dmsPA.setRadians( pa );
direction = KSUtils::toDirectionString( dmsPA );
kDebug() << " Slew " << angDist.Degrees() << " degrees " << direction << " to find a " << hopStar->spchar() << " star of mag " << hopStar->mag();
prevHop = hopStar;
}
kDebug() << " The destination is within a field-of-view";
return result_path;
}
void ObservingList::slotAddObject( SkyObject *obj, bool session, bool update ) {
bool addToWishList=true;
if( ! obj )
obj = ks->map()->clickedObject();
if( obj->name() == "star" ) {
KMessageBox::sorry(0, i18n( "Unnamed stars are not supported in the observing lists"));
return;
}
//First, make sure object is not already in the list
if ( obsList().contains( obj ) ) {
addToWishList = false;
if( ! session ) {
ks->statusBar()->changeItem( i18n( "%1 is already in your wishlist.", obj->name() ), 0 );
return;
}
}
if ( session && sessionList().contains( obj ) ) {
ks->statusBar()->changeItem( i18n( "%1 is already in the session plan.", obj->name() ), 0 );
return;
}
QString smag = "--";
if ( - 30.0 < obj->mag() && obj->mag() < 90.0 )
smag = QString::number( obj->mag(), 'g', 2 ); // The lower limit to avoid display of unrealistic comet magnitudes
SkyPoint p = obj->recomputeCoords( dt, geo );
//Insert object in the Wish List
if( addToWishList ) {
m_ObservingList.append( obj );
m_CurrentObject = obj;
QList<QStandardItem*> itemList;
QString ra, dec;
if(obj->name() == "star" ) {
ra = obj->ra0().toHMSString();
dec = obj->dec0().toDMSString();
}
else {
ra = p.ra().toHMSString();
dec = p.dec().toDMSString();
}
itemList << new QStandardItem( obj->translatedName() )
<< new QStandardItem( ra )
<< new QStandardItem( dec )
<< new QStandardItem( smag )
<< new QStandardItem( obj->typeName() );
m_Model->appendRow( itemList );
//Note addition in statusbar
ks->statusBar()->changeItem( i18n( "Added %1 to observing list.", obj->name() ), 0 );
ui->TableView->resizeColumnsToContents();
if( ! update ) slotSaveList();
}
//Insert object in the Session List
if( session ){
m_SessionList.append(obj);
dt.setTime( TimeHash.value( obj->name(), obj->transitTime( dt, geo ) ) );
dms lst(geo->GSTtoLST( dt.gst() ));
p.EquatorialToHorizontal( &lst, geo->lat() );
QList<QStandardItem*> itemList;
QString ra, dec, time = "--", alt = "--", az = "--";
QStandardItem *BestTime = new QStandardItem();
if(obj->name() == "star" ) {
ra = obj->ra0().toHMSString();
dec = obj->dec0().toDMSString();
BestTime->setData( QString( "--" ), Qt::DisplayRole );
}
else {
ra = p.ra().toHMSString();
dec = p.dec().toDMSString();
BestTime->setData( TimeHash.value( obj->name(), obj->transitTime( dt, geo ) ), Qt::DisplayRole );
alt = p.alt().toDMSString();
az = p.az().toDMSString();
}
// TODO: Change the rest of the parameters to their appropriate datatypes.
itemList << new QStandardItem( obj->translatedName() )
<< new QStandardItem( ra )
<< new QStandardItem( dec )
<< new QStandardItem( smag )
<< new QStandardItem( obj->typeName() )
<< BestTime
<< new QStandardItem( alt )
<< new QStandardItem( az );
m_Session->appendRow( itemList );
//Adding an object should trigger the modified flag
isModified = true;
ui->SessionView->resizeColumnsToContents();
//Note addition in statusbar
ks->statusBar()->changeItem( i18n( "Added %1 to session list.", obj->name() ), 0 );
}
setSaveImagesButton();
}
void CatalogDB::GetAllObjects(const QString &catalog,
QList< SkyObject* > &sky_list,
QList < QPair <int, QString> > &object_names,
CatalogComponent *catalog_ptr) {
sky_list.clear();
QString selected_catalog = QString::number(FindCatalog(catalog));
skydb_.open();
QSqlQuery get_query(skydb_);
get_query.prepare("SELECT Epoch, Type, RA, Dec, Magnitude, Prefix, "
"IDNumber, LongName, MajorAxis, MinorAxis, "
"PositionAngle, Flux FROM ObjectDesignation JOIN DSO "
"JOIN Catalog WHERE Catalog.id = :catID AND "
"ObjectDesignation.id_Catalog = Catalog.id AND "
"ObjectDesignation.UID_DSO = DSO.UID");
get_query.bindValue("catID", selected_catalog);
// kWarning() << get_query.lastQuery();
// kWarning() << get_query.lastError();
// kWarning() << FindCatalog(catalog);
if (!get_query.exec()) {
kWarning() << get_query.lastQuery();
kWarning() << get_query.lastError();
}
while (get_query.next()) {
int cat_epoch = get_query.value(0).toInt();
unsigned char iType = get_query.value(1).toInt();
dms RA(get_query.value(2).toDouble());
dms Dec(get_query.value(3).toDouble());
float mag = get_query.value(4).toFloat();
QString catPrefix = get_query.value(5).toString();
int id_number_in_catalog = get_query.value(6).toInt();
QString lname = get_query.value(7).toString();
float a = get_query.value(8).toFloat();
float b = get_query.value(9).toFloat();
float PA = get_query.value(10).toFloat();
float flux = get_query.value(11).toFloat();
QString name = catPrefix + ' ' + QString::number(id_number_in_catalog);
SkyPoint t;
t.set(RA, Dec);
if (cat_epoch == 1950) {
// Assume B1950 epoch
t.B1950ToJ2000(); // t.ra() and t.dec() are now J2000.0
// coordinates
} else if (cat_epoch == 2000) {
// Do nothing
{ }
} else {
// FIXME: What should we do?
// FIXME: This warning will be printed for each line in the
// catalog rather than once for the entire catalog
kWarning() << "Unknown epoch while dealing with custom "
"catalog. Will ignore the epoch and assume"
" J2000.0";
}
RA = t.ra();
Dec = t.dec();
if (iType == 0) { // Add a star
StarObject *o = new StarObject(RA, Dec, mag, lname);
sky_list.append(o);
} else { // Add a deep-sky object
DeepSkyObject *o = new DeepSkyObject(iType, RA, Dec, mag,
name, QString(), lname,
catPrefix, a, b, -PA);
o->setFlux(flux);
o->setCustomCatalog(catalog_ptr);
sky_list.append(o);
// Add name to the list of object names
if (!name.isEmpty()) {
object_names.append(qMakePair<int,QString>(iType, name));
}
}
if (!lname.isEmpty() && lname != name) {
object_names.append(qMakePair<int,QString>(iType, lname));
}
}
get_query.clear();
skydb_.close();
}
void modCalcGalCoord::processLines( QTextStream &istream ) {
// we open the output file
// QTextStream istream(&fIn);
const QString outputFileName = OutputFileBoxBatch->url().toLocalFile();
QFile fOut( outputFileName );
fOut.open(QIODevice::WriteOnly);
QTextStream ostream(&fOut);
QString line;
QChar space = ' ';
int i = 0;
SkyPoint sp;
dms raB, decB, galLatB, galLongB;
QString epoch0B;
while ( ! istream.atEnd() ) {
line = istream.readLine();
line.trimmed();
//Go through the line, looking for parameters
QStringList fields = line.split( ' ' );
i = 0;
// Input coords are galactic coordinates:
if (galInputCoords) {
// Read Galactic Longitude and write in ostream if corresponds
if(galLongCheckBatch->isChecked() ) {
galLongB = dms::fromString( fields[i], true);
i++;
} else
galLongB = galLongBoxBatch->createDms(true);
if ( allRadioBatch->isChecked() )
ostream << galLongB.toDMSString() << space;
else
if(galLongCheckBatch->isChecked() )
ostream << galLongB.toDMSString() << space;
// Read Galactic Latitude and write in ostream if corresponds
if(galLatCheckBatch->isChecked() ) {
galLatB = dms::fromString( fields[i], true);
i++;
} else
galLatB = galLatBoxBatch->createDms(true);
if ( allRadioBatch->isChecked() )
ostream << galLatB.toDMSString() << space;
else
if(galLatCheckBatch->isChecked() )
ostream << galLatB.toDMSString() << space;
sp = SkyPoint ();
sp.GalacticToEquatorial1950(&galLongB, &galLatB);
ostream << sp.ra().toHMSString() << space << sp.dec().toDMSString() << epoch0B << endl;
// Input coords. are equatorial coordinates:
} else {
// Read RA and write in ostream if corresponds
if(raCheckBatch->isChecked() ) {
raB = dms::fromString( fields[i],false);
i++;
} else
raB = raBoxBatch->createDms(false);
if ( allRadioBatch->isChecked() )
ostream << raB.toHMSString() << space;
else
if(raCheckBatch->isChecked() )
ostream << raB.toHMSString() << space;
// Read DEC and write in ostream if corresponds
if(decCheckBatch->isChecked() ) {
decB = dms::fromString( fields[i], true);
i++;
} else
decB = decBoxBatch->createDms();
if ( allRadioBatch->isChecked() )
ostream << decB.toDMSString() << space;
else
if(decCheckBatch->isChecked() )
ostream << decB.toDMSString() << space;
// Read Epoch and write in ostream if corresponds
if(epochCheckBatch->isChecked() ) {
epoch0B = fields[i];
i++;
} else
epoch0B = epochBoxBatch->text();
if ( allRadioBatch->isChecked() )
ostream << epoch0B << space;
else
if(epochCheckBatch->isChecked() )
ostream << epoch0B << space;
sp = SkyPoint (raB, decB);
sp.J2000ToB1950();
sp.Equatorial1950ToGalactic(galLongB, galLatB);
ostream << galLongB.toDMSString() << space << galLatB.toDMSString() << endl;
}
}
fOut.close();
}