#!/usr/bin/perl # Author: Fridger.Schrempp@desy.deuse Math::Libm ':all';open(ELMTS, ">spectbins.stc") || die "Can not create spectbins.stc\n";# boilerplate($ver = "Revision: 1.00 ") =~ s/\$//g;($me = $0) =~ s/.*\///;($sec,$min,$hour,$mday,$mon,$year,$wday,$yday,$isdst) = gmtime;$year += 1900;$mon += 1;print ELMTS "# Celestia binary orbit elements for spectroscopic binaries:\n"; print ELMTS "# generated with Perl extraction script: $me $ver\n";print ELMTS "# from D. Poubaix, Astron. Astrophys. Suppl. Ser. 145, 2000, 215-222\n";print ELMTS "# http://www.edpsciences.org/journal/index.cfm?v_url=aas/full/2000/14/ds9259/ds9259.html\n";print ELMTS "# Processed $year-$mon-$mday $hour:$min:$sec UTC\n";print ELMTS "# by Dr. Fridger Schrempp, fridger.schrempp\@desy.de\n";print ELMTS "# ------------------------------------------------------ \n";print ELMTS "\n";## constants#$pi = 3.14159265359;$ly2AU = 63239.7;$d_sol = 1.0/$ly2AU; # in ly$m_sol = -26.73; # apparent magnitude$solfac = 10**(0.4*($m_sol+$bmag_correctionGV[2]))/$d_sol**2; # 1/L_sol$c = $ly2AU/3600.0*$pi/180.0; # conversion a["] -> a[ly]$count = 0;open(HIP,"<stars.txt")|| die "Can not read stars.txt\n";while (<HIP>){chop();$line = $_;($hipnr1,$tmp) = split (/  /);# squeeze out all spaces and use as a key$hipnr1 =~ s/ //g;$stars{$hipnr1} = $line;#print STDOUT "$stars{$hipnr1}\n";}close (HIP);open(BINDAT1,"<Pourbaix-stars.txt")|| die "Can not read Pourbaix-stars.txt\n"; while (<BINDAT1>){chop();next if (/^#/);$line = $_;($hipnr,$tmp) = split (/\|/);# squeeze out all spaces and use as a key$hipnr =~ s/_| //g;$spects{$hipnr} = $line;}close (BINDAT1);open(BINDAT2,"<Pourbaix-orbits.txt")|| die "Can not read Pourbaix-orbits.txt\n"; while (<BINDAT2>) {chop();next if (/^#/);($hip,$a,$i,$omega,$OMEGA,$e,$Per,$T,$v0,$plx,$kappa,$MA,$MB) = split (/\|/,$_);# squeeze out all superfluous spaces$hip=~s/_| //g;$a=~s/_| //g;$i=~s/_| //g;$omega=~s/_| //g;$OMEGA=~s/_| //g;$e=~s/_| //g;$Per=~s/_| //g;$T=~s/_| //g;$plx=~s/_| //g;$kappa=~s/_| //g;$MA=~s/_| //g;$MB=~s/_| //g;#print STDOUT "$hip $a $i $omega $OMEGA $e $Per $T  $plx $kappa $MA $MB\n";#exitnext if($plx eq "");$d=1000/($ly2AU*$plx)*3600/$pi*180; # d in [ly]; $plx in [mas]$q= $MB/$MA;$a2 = $d*$c*$a/(1.0 + $q); # a2 [ly]$a1 = $a2*$q;              # a1 [ly]#next if ($stars{$hip} eq "");($h,$c1,$c2,$dd,$magapp,$color) = split(/[ \t]+/,$stars{$hip});# coordinates in decimal-degrees$c1 =~ s/ //g;$c2 =~ s/ //g;($hip2,$name,$hd,$mvA,$colorA,$mvB,$colorB,$type,$ref) = split(/\|/,$spects{$hip});$name=~s/_//g;$mvA=~s/_| //g;$colorA=~s/_| //g;$colorA=$colorA eq ""?"?":"$colorA";$mvB=~s/_| //g;$mvB=$mvB eq ""?"5.0":"$mvB";$colorB=~s/_| //g;$colorB=$colorB eq ""?"?":"$colorB";#print STDOUT "$hip $name $mvA $colorA $mvB $colorB\n";next if($plx eq "");$d=1000/($ly2AU*$plx)*3600/$pi*180; # d in [ly]; $plx in [mas]$q= $MB/$MA;# $a is in mas! $a1, $a2 in arc_secs$a2 = 0.001*$d*$c*$a/(1.0 + $q); # a2 [ly]$a1 = $a2*$q;              # a1 [ly]#$alt{$hip,'A'} = $name ne ""?"$name A":"HIP$hip A";$alt{$hip,'B'} = $name ne ""?"\"$name B\"":"HIP$hip B";$alt{$hip,'AB'} = $name ne ""?"$name":"HIP$hip";if ($hip == 71683){$alt{$hip,'B'} = "71681 \"$name B\""; $mvB = 1.34; $colorB = "K0V"; }#print STDOUT "$hip $c1 $c2 $d $a $i $omega $OMEGA $e $Per $T  $plx $kappa $MA $MB $name $mvA $colorA $mvB $colorB\n";&RotOrbits($c1,$c2,$Per,$a,$i,$OMEGA,$T,$e,$omega,$d);print  ELMTS "Barycenter \"$alt{$hip,'AB'}\"\n";print  ELMTS "{\n";printf ELMTS "RA       %10.6f\n", $c1;printf ELMTS "Dec      %10.6f\n",$c2;printf ELMTS "Distance %10.6f\n",$d;print  ELMTS "}\n\n";print  ELMTS "\n";print  ELMTS "$hip \"$alt{$hip,'A'}\" \n";print  ELMTS "{\n";print  ELMTS "OrbitBarycenter \"$alt{$hip,'AB'}\"\n";print  ELMTS "SpectralType \"$colorA\"\n";print  ELMTS "AppMag $mvA\n";print  ELMTS "\n";print  ELMTS "        EllipticalOrbit {\n";printf ELMTS "                Period          %10.3f\n",$Period;  printf ELMTS "                SemiMajorAxis   %10.3f \# mass ratio %4.2f : %4.2f\n",$a1,$MA,$MB;printf ELMTS "                Eccentricity    %10.3f\n",$Eccentricity;printf ELMTS "                Inclination     %10.3f\n",$Inclination;printf ELMTS "                AscendingNode   %10.3f\n",$AscendingNode;$ArgOfPeri1 = $ArgOfPeri - 180;if ($ArgOfPeri1 < 0.0) { $ArgOfPeri1 = $ArgOfPeri + 180; }printf ELMTS "                ArgOfPericenter %10.3f\n",$ArgOfPeri1;printf ELMTS "                MeanAnomaly     %10.3f\n",$MeanAnomaly;print  ELMTS "        }\n";print  ELMTS "}\n\n";print  ELMTS "$alt{$hip,'B'}\n";print  ELMTS "{\n";print  ELMTS "OrbitBarycenter \"$alt{$hip,'AB'}\"\n";print  ELMTS "SpectralType \"$colorB\"\n";print  ELMTS "AppMag $mvB\n";print  ELMTS "\n";print  ELMTS "        EllipticalOrbit {\n";printf ELMTS "                Period          %10.3f\n",$Period;  printf ELMTS "                SemiMajorAxis   %10.3f \# mass ratio %4.2f : %4.2f\n",$a2,$MA,$MB;printf ELMTS "                Eccentricity    %10.3f\n",$Eccentricity;printf ELMTS "                Inclination     %10.3f\n",$Inclination;printf ELMTS "                AscendingNode   %10.3f\n",$AscendingNode;printf ELMTS "                ArgOfPericenter %10.3f\n",$ArgOfPeri;printf ELMTS "                MeanAnomaly     %10.3f\n",$MeanAnomaly;printf ELMTS "        }\n";print  ELMTS "}\n\n";    $count++;}print "$count\n";close (BINDAT2);sub RotOrbits { my($ra_deg,$del_deg,$P,$a_arcsec,$i,$PA_of_Node,$Epoch_of_peri,$e,$Arg_of_peri,$dist_ly) = @_;my $del_rad = -$del_deg*$pi/180.0;my $ra_rad = $ra_deg*$pi/180.0 - $pi;my $eps = $pi/180.0*23.4392911;my $ii = $pi/180.0*(90.0 - $i);my $om = $pi/180.0*($PA_of_Node - 270.0)+1.0e-8;my $alpha = atan(cos($ii)*cos($pi/180.0*($PA_of_Node))/(sin($ii)*cos($del_rad) -cos($ii)*sin($del_rad)*sin($pi/180.0*($PA_of_Node)))) + $ra_rad; if( sin($ii)*cos($del_rad)-cos($ii)*sin($del_rad)*sin($pi/180.0*$PA_of_Node) < 0 ) { $alpha = $alpha + $pi };my $delta=asin(cos($ii)*cos($del_rad)*sin($pi/180.0*$PA_of_Node)+sin($ii)*sin($del_rad));my $lambda=atan((sin($alpha)*cos($eps)+tan($delta)*sin($eps))/cos($alpha));if( cos($alpha) < 0 ) { $lambda = $lambda + $pi };my $beta = asin(sin($delta)*cos($eps) - cos($delta)*sin($eps)*sin($alpha));my $alphaOm = atan(cos($om)/(-sin($del_rad))/sin($om)) + $ra_rad;if( -sin($del_rad)*sin($om) < 0 ) { $alphaOm = $alphaOm + $pi };my $deltaOm = asin(cos($del_rad)*sin($om));my $lambdaOm = atan((sin($alphaOm)*cos($eps) +tan($deltaOm)*sin($eps))/cos($alphaOm));if( cos($alphaOm) < 0 ) { $lambdaOm = $lambdaOm + $pi };my $betaOm = asin(sin($deltaOm)*cos($eps) -cos($deltaOm)*sin($eps)*sin($alphaOm));my $sign = $betaOm > 0? 1.0:-1.0;my $dd = acos(cos($betaOm)*cos($lambdaOm - $lambda - $pi/2.0))*$sign;$Period = $P;$SemiMajorAxis = $dist_ly*63239.7*tan($pi/180.0*$a_arcsec/3600.0);$Eccentricity =  $e;$Inclination = 90 - $beta/$pi*180;$AscendingNode = $lambda/$pi*180 + 90  - floor(($lambda/$pi*180+90)/360.0)*360;$ArgOfPeri = $Arg_of_peri + $dd/$pi*180 - floor(($Arg_of_peri + $dd/$pi*180)/360.0)*360;$MeanAnomaly = 360*((2000.0 - $Epoch_of_peri)/$P - floor((2000.0 - $Epoch_of_peri)/$P));}