J/ApJS/261/32 Finding GPQs. II. Sp. observations of |b|<20° QSOs (Fu+, 2022)

Finding quasars behind the Galactic plane. II. Spectroscopic identifications of 204 quasars at |b|<20°. Fu Y., Wu X.-B., Jiang L., Zhang Y., Huo Z.-Y., Ai Y.L., Yang Q., Ma Q., Feng X., Joshi R., Hon W.J., Wolf C., Li J.-T., Jin J.-J., Yao Su, Pang Y., Wang J.-G., Lu K.-X., Wang C.-J., Zheng J., Xu L., Yu X.-G., Lun B.-L., Zuo P. <Astrophys. J. Suppl. Ser., 261, 32 (2022)> =2022ApJS..261...32F 2022ApJS..261...32F
ADC_Keywords: QSOs; Galactic plane; Redshifts; Spectra, optical; Photometry, VRI; Black holes; Equivalent widths; Line Profiles Keywords: Active galactic nuclei ; Catalogs ; Supermassive black holes ; Galactic and extragalactic astronomy ; Quasars ; Spectroscopy Abstract: Quasars behind the Galactic plane (GPQs) are important astrometric references and valuable probes of Galactic gas, yet the search for GPQs is difficult due to severe extinction and source crowding in the Galactic plane. In this paper, we present a sample of 204 spectroscopically confirmed GPQs at |b|<20°, 191 of which are new discoveries. This GPQ sample covers a wide redshift range from 0.069 to 4.487. For the subset of 230 observed GPQ candidates, the lower limit of the purity of quasars is 85.2%, and the lower limit of the fraction of stellar contaminants is 6.1%. Using a multicomponent spectral fitting, we measure the emission line and continuum flux of the GPQs, and estimate their single-epoch virial black hole masses. Due to selection effects raised from Galactic extinction and target magnitude, these GPQs have higher black hole masses and continuum luminosities in comparison to the SDSS DR7 quasar sample. The spectral-fitting results and black hole mass estimates are compiled into a main spectral catalog, and an extended spectral catalog of GPQs. The successful identifications prove the reliability of both our GPQ selection methods and the GPQ candidate catalog, shedding light on the astrometric and astrophysical programs that make use of a large sample of GPQs in the future. Description: Spectroscopic observations for quasar behind the Galactic plane (GPQ) candidates have been carried out with five telescopes in China, USA, and Australia since 2018. A total of 243 GPQ candidates have been observed until 2021 May, 230 of which are selected from the GPQ candidate catalog in Paper I (Fu+ 2021, J/ApJS/254/6). The Xinglong 2.16m Telescope (XLT) is an equatorial mount reflector at Xinglong Observatory, National Astronomical Observatories, Chinese Academy of Sciences. Since 2018, we have been using the Beijing Faint Object Spectrograph and Camera on XLT to identify GPQ candidates with low-resolution spectroscopy (R=265 at 5007Å). The Lijiang 2.4m Telescope (LJT) is an altitude-azimuth mount reflector operated by Lijiang Observatory, Yunnan Observatories, Chinese Academy of Sciences. The instrument we use is the Yunnan Faint Object Spectrograph and Camera on LJT (R∼250 at 6030Å). The 200 inch (5.3m) Hale Telescope (P200) is operated by Palomar Observatory. The Double Spectrograph (DBSP) has been used for the observations (R∼900 at central wavelengths of blue (2500-5700Å) and red (4800-10700Å) channels). The 2.3m telescope (ANU23) at Siding Spring Observatory is operated by the Australian National University. For all observations, we use the Wide-Field Spectrograph (R∼3000, ∼3300-9000Å). The McGraw-Hill 1.3m Telescope (MDM13) is operated by the MDM Observatory, which is located adjacent to the Kitt Peak National Observatory. We use the Boller and Chivens CCD Spectrograph (resolution of ∼4.4Å/pixel). Throughout this paper we adopt a flat ΛCDM cosmology with ΩΛ=0.7 and h=0.7. File Summary: -------------------------------------------------------------------------------- FileName Lrecl Records Explanations -------------------------------------------------------------------------------- ReadMe 80 . This file tablea1.dat 344 204 Main spectral catalog of the 204 identified quasars behind the Galactic plane (GPQs) tablea2.dat 2678 204 Extended spectral catalog of the 204 identified GPQs tablec1.dat 102 19 List of the stellar and galaxy contaminants -------------------------------------------------------------------------------- See also: VIII/65 : 1.4GHz NRAO VLA Sky Survey (NVSS) (Condon+ 1998) VII/233 : The 2MASS Extended sources (IPAC/UMass, 2003-2006) I/323 : International Celestial Reference Frame 2, ICRF2 (Ma+, 2009) II/328 : AllWISE Data Release (Cutri+ 2013) V/146 : LAMOST DR1 catalogs (Luo+, 2015) II/349 : The Pan-STARRS release 1 (PS1) Survey - DR1 (Chambers+, 2016) VII/289 : SDSS quasar catalog, sixteenth data release (DR16Q) (Lyke+, 2020) J/AJ/131/2766 : Quasar luminosity function from SDSS-DR3 (Richards+, 2006) J/ApJS/165/1 : BAL QSOs from SDSS DR3 (Trump+, 2006) J/ApJ/701/508 : 5000 AGNs behind the Magellanic clouds (Kozlowski+, 2009) J/ApJS/180/67 : Phot. selection of quasars from SDSS. II. (Richards+, 2009) J/ApJS/194/45 : QSO properties from SDSS-DR7 (Shen+, 2011) J/A+A/542/A110 : Neutral gas in the Milky Way halo (Ben Bekhti+, 2012) J/ApJ/750/99 : The Pan-STARRS1 photometric system (Tonry+, 2012) J/AJ/145/159 : LAMOST. II. ugriz photometry of 526 new quasars (Huo+, 2013) J/other/RAA/15.1438 : LAMOST new QSOs in M31 and M33 vicinity (Huo+, 2015) J/ApJ/825/126 : SEAMBHs. V. The third year (Du+, 2016) J/ApJS/241/34 : The SDSS Reverberation Mapping (SDSS-RM) project (Shen+, 2019) J/ApJS/249/17 : SDSS QSO DR14 spectral properties (Rakshit+, 2020) J/ApJS/254/6 : Finding QSOs behind the Galactic Plane. I. (Fu+, 2021) Byte-by-byte Description of file: tablea1.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 19 A19 --- Name Designation (JHHMMSS.ss+DDMMSS.s based on PS1) (G1) 21- 39 F19.15 deg GLON [6.8/355] Galactic longitude 41- 60 F20.16 deg GLAT [-19.9/19.9] Galactic latitude 62- 68 F7.4 mag imag [15.51/19.91] Mean PSF AB magnitude from PS1 i-filter detections 70- 80 F11.9 --- z [0.068/4.5] Redshift from visual inspection 82- 101 F20.15 [10-7W] logL1350 [46.16/48.01]?=-999 Log, continuum luminosity at rest-frame 1350Å, in erg/s units (G3) 103- 123 F21.16 [10-7W] e_logL1350 [0.002/0.04]?=-999 Measurement error in logL1350 (G3) 125- 144 F20.15 [10-7W] logL3000 [44.8/48.41]?=-999 Log, continuum luminosity at rest-frame 3000Å, erg/s 146- 166 F21.16 [10-7W] e_logL3000 [0.001/0.06]?=-999 Measurement error in logL3000 168- 187 F20.15 [10-7W] logL5100 [42.88/46]?=-999 Log, continuum luminosity at rest-frame 5100Å, erg/s 189- 209 F21.16 [10-7W] e_logL5100 [0.002/0.04]?=-999 Measurement error in logL5100 211- 230 F20.15 [Msun] logBHHb [7.3/9.4]?=-999 Log, single-epoch virial BH mass based on Hβ 232- 252 F21.16 [Msun] e_logBHHb [0.012/0.5]?=-999 Uncertainty in logBH-HB 254- 273 F20.15 [Msun] logBHMgII [8.13/10.62]?=-999 Log, single-epoch virial BH mass based on MgII 275- 295 F21.16 [Msun] e_logBHMgII [0.0009/0.64]?=-999 Uncertainty in logBHMgII 297- 316 F20.15 [Msun] logBHCIV [9.1/10.52]?=-999 Log, single-epoch virial BH mass based on CIV (G3) 318- 338 F21.16 [Msun] e_logBHCIV [0.025/0.34]?=-999 Uncertainty in logBHCIV (G3) 340- 344 A5 --- Tel Telescope used to acquire the spectrum (G4) -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablea2.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 19 A19 --- Name Designation (JHHMMSS.ss+DDMMSS.s based on PS1) (G1) 21- 38 F18.14 deg RAdeg PS1 Right Ascension (J2000) (G2) 40- 57 F18.14 deg DEdeg PS1 Declination (J2000) (G2) 59- 77 F19.15 deg GLON [6.8/355] Galactic longitude 79- 98 F20.16 deg GLAT [-20/20] Galactic latitude 100- 106 F7.4 mag imag [15.51/19.91] Mean PSF AB magnitude from PS1 i-filter detections 108- 118 F11.9 --- EBV [0.029/0.7] Line-of-sight E(B-V) given by the Planck (2014A&A...571A..11P 2014A&A...571A..11P) dust map 120- 130 F11.9 --- z [0.068/4.5] Redshift from visual inspection 132- 150 F19.15 mag iMAG2 [-31/-21] SDSS i-band absolute magnitude M_i(z=2), K-corrected to z=2 152- 169 F18.12 d MJD [58252.77/59345.88] Modified Julian Date of spectroscopic observation (JD-2400000.5) 171- 175 A5 --- Tel Telescope used to acquire the spectrum (G4) 177- 195 F19.16 --- SNRSp [1.4/41] Median S/N per pixel of the spectrum 197- 216 F20.15 [10-7W] logL1350 [46/48.1]?=-999 Log, continuum luminosity at rest-frame 1350Å, in erg/s units (G3) 218- 238 F21.16 [10-7W] e_logL1350 [0.002/0.04]?=-999 Measurement error in logL1350 (G3) 240- 259 F20.15 [10-7W] logL3000 [44.8/48.41]?=-999 Log, continuum luminosity at rest-frame 3000Å, erg/s 261- 281 F21.16 [10-7W] e_logL3000 [0.001/0.06]?=-999 Measurement error in logL3000 283- 302 F20.15 [10-7W] logL5100 [42.88/46]?=-999 Log, continuum luminosity at rest-frame 5100Å, erg/s 304- 324 F21.16 [10-7W] e_logL5100 [0.002/0.04]?=-999 Measurement error in logL5100 326- 345 F20.15 [Msun] logBHHb [7.33/9.4]?=-999 Log, single-epoch virial BH mass based on Hβ 347- 367 F21.16 [Msun] e_logBHHb [0.012/0.5]?=-999 Uncertainty in logBHHb 369- 388 F20.15 [Msun] logBHMgII [8.13/10.62]?=-999 Log, single-epoch virial BH mass based on MgII 390- 410 F21.16 [Msun] e_logBHMgII [0.0009/0.7]?=-999 Uncertainty in logBHMgII 412- 431 F20.15 [Msun] logBHCIV [9.1/10.52]?=-999 Log, single-epoch virial BH mass based on CIV (G3) 433- 453 F21.16 [Msun] e_logBHCIV [0.02/0.4]?=-999 Uncertainty in logBHCIV (G3) 455- 475 F21.16 --- FenormUV [0.07/239]?=-999 Normalization factor of the ultraviolet FeII template 477- 499 E23.18 --- FeShiftUV [-0.01/0.01]?=-999 Wavelength shift of the ultraviolet FeII template 501- 519 F19.13 --- FeFWHMUV [1200/10000]?=-999 Gaussian FWHM applied to convolve the ultraviolet FeII 521- 541 F21.16 --- FenormOp [0.38/755]?=-999 Normalization factor of the optical FeII template 543- 564 E22.17 --- FeShiftOp [-0.01/0.01]?=-999 Wavelength shift of the optical FeII template 566- 584 F19.13 --- FeFWHMOp [1200/10000]?=-999 Gaussian FWHM applied to convolve the optical FeII template 586- 607 F22.16 10-17cW/m2/nm PLnorm [0.06/10397]?=-999 Normalization factor of the power-law model, in 10-17erg/s/cm2/Å 609- 627 F19.16 --- PLalpha [-5/3]?=-999 Wavelength power-law index 629- 650 E22.17 --- PolyA [-4.2/4.8]?=-999 Efficient of the three-order polynomial model (b1) 652- 674 E23.18 --- PolyB [-0.007/0.004]?=-999 Efficient of the three-order polynomial model (b2) 676- 698 E23.18 --- PolyC [-3.4e-7/3.3e-6]?=-999 Efficient of the three-order polynomial model (b3) 700- 705 F6.1 --- NpixCIV [134/946]?=-999 Number of good pixels for the rest-frame 1500-1700Å 707- 712 F6.1 --- StCIV [1/5]?=-999 Line-fitting status of CIV 714- 734 F21.16 --- SNCIV [1.6/33.4]?=-999 Median S/N per pixel for the rest-frame 1500-1700Å 736- 754 F19.13 km/s FWHMCIV [3135/13615]?=-999 FWHM of the whole CIV 756- 774 F19.14 km/s e_FWHMCIV [148/3100]?=-999 Measurement error in FWHMCIV 776- 795 F20.15 0.1nm EWCIV [10/91]?=-999 Rest-frame equivalent width of the whole CIV 797- 817 F21.16 0.1nm e_EWCIV [0.4/12]?=-999 Measurement error in EWCIV 819- 839 F21.14 10-20W/m2 FCIV [259/789498]?=-999 FLUX of the whole CIV, 10-17erg/s/cm2 841- 861 F21.15 10-20W/m2 e_FCIV [17/47653]?=-999 Measurement error in FCIV 863- 868 F6.1 --- NpixCIII [56/1159]?=-999 Number of good pixels for the rest-frame 1700-1970Å 870- 875 F6.1 --- StCIII [1/2]?=-999 Line-fitting status of CIII 877- 897 F21.16 --- SNCIII [0.29/35]?=-999 Median S/N per pixel for the rest-frame 1700-1970Å 899- 917 F19.13 km/s FWHMCIII [2826/14449]?=-999 FWHM of the whole CIII 919- 937 F19.14 km/s e_FWHMCIII [48/4223]?=-999 Measurement error in FWHMCIII 939- 959 F21.16 0.1nm EWCIII [2/71]?=-999 Rest-frame equivalent width of the whole CIII 961- 981 F21.16 0.1nm e_EWCIII [0.36/8.6]?=-999 Measurement error in EWCIII 983- 1003 F21.14 10-20W/m2 FCIII [148/254655]?=-999 FLUX of the whole CIII, 10-17erg/s/cm2 1005- 1025 F21.15 10-20W/m2 e_FCIII [26/16181]?=-999 Measurement error in FCIII 1027- 1032 F6.1 --- NpixMgII [47/730]?=-999 Number of good pixels for the rest-frame 2700-2900Å 1034- 1039 F6.1 --- StMgII [1/5]?=-999 Line-fitting status of MgII 1041- 1061 F21.16 --- SNMedMgII [0.5/42]?=-999 Median S/N per pixel for the rest-frame 2700-2900Å 1063- 1081 F19.13 km/s FWHMbMgII [1622/10609]?=-999 FWHM of the whole broad MgII 1083- 1102 F20.15 km/s e_FWHMbMgII [12/2826]?=-999 Measurement error in FWHMbMgII 1104- 1123 F20.15 0.1nm EWbMgII [8/107]?=-999 Rest-frame equivalent width of the whole broad MgII 1125- 1145 F21.16 0.1nm e_EWbMgII [0.4/5.4]?=-999 Measurement error in EWbMgII 1147- 1167 F21.14 10-20W/m2 FbMgII [306/403613]?=-999 Flux of the whole broad MgII, 10-17erg/s/cm2 1169- 1189 F21.15 10-20W/m2 e_FbMgII [21/38994]?=-999 Measurement error in FbMgII 1191- 1209 F19.14 km/s FWHMnMgII [351/1206]?=-999 FWHM of Narrow MgII 1211- 1231 F21.16 km/s e_FWHMnMgII [0.007/407]?=-999 Measurement error in FWHMnMgII 1233- 1253 F21.16 0.1nm EWnMgII [0.0016/9.42]?=-999 Rest-frame equivalent width of Narrow MgII 1255- 1275 F21.16 0.1nm e_EWnMgII [0.08/4]?=-999 Measurement error in EWnMgII 1277- 1296 F20.15 10-20W/m2 FnMgII [0.39/5375]?=-999 Flux of Narrow MgII, 10-17erg/s/cm2 1298- 1318 F21.16 10-20W/m2 e_FnMgII [5/8513]?=-999 Measurement error in FnMgII 1320- 1325 F6.1 --- NpixHb [140/1065]?=-999 Number of good pixels for the rest-frame 4640-5100Å 1327- 1332 F6.1 --- StHb [1/5]?=-999 Line-fitting status of 4640-5100Å 1334- 1353 F20.15 --- SNMedHb [3.7/43.2]?=-999 Median S/N per pixel for the res t-frame 4640-5100Å 1355- 1373 F19.13 km/s FWHMbHb [2826/15493]?=-999 FWHM of broad Hbeta 1375- 1393 F19.14 km/s e_FWHMbHb [33/3623]?=-999 Measurement error in FWHMbHb 1395- 1414 F20.15 0.1nm EWbHb [6/361]?=-999 Rest-frame equivalent width of broad Hbeta 1416- 1436 F21.16 0.1nm e_EWbHb [1/39]?=-999 Measurement error in EWbHb 1438- 1458 F21.14 10-20W/m2 FbHb [100/135788]?=-999 Flux of broad Hbeta, 10-17erg/s/cm2 1460- 1479 F20.14 10-20W/m2 e_FbHb [43/25315]?=-999 Measurement error in FbHb 1481- 1499 F19.14 km/s FWHMnHb [168/1204]?=-999 FWHM of narrow Hbeta 1501- 1520 F20.15 km/s e_FWHMnHb [14/371]?=-999 Measurement error in FWHMnHb 1522- 1542 F21.16 0.1nm EWnHb [0.28/37]?=-999 Rest-frame equivalent width of narrow Hbeta 1544- 1564 F21.16 0.1nm e_EWnHb [0.19/9]?=-999 Measurement error in EWnHb 1566- 1585 F20.15 10-20W/m2 FnHb [4/7991]?=-999 Flux of narrow Hbeta, 10-17erg/s/cm2 1587- 1606 F20.15 10-20W/m2 e_FnHb [11.9/2879]?=-999 Measurement error in FnHb 1608- 1625 F18.13 km/s FWHMOIII4959 [258.9/2284]?=-999 FWHM of [OIII]MgII4959 1627- 1647 F21.16 km/s e_FWHMOIII4959 [0.78/767]?=-999 Measurement error in FWHMOIII4959 1649- 1669 F21.16 0.1nm EWOIII4959 [0.6/42]?=-999 Rest-frame equivalent width of [OIII]MgII4959 1671- 1691 F21.16 0.1nm e_EWOIII4959 [0.2/8]?=-999 Measurement error in EWOIII4959 1693- 1712 F20.15 10-20W/m2 FOIII4959 [14.8/3551]?=-999 Flux of [OIII]MgII4959, 10-17erg/s/cm2 1714- 1733 F20.15 10-20W/m2 e_FOIII4959 [11/2439]?=-999 Measurement error in FOIII4959 1735- 1753 F19.14 km/s FWHMOIII5007 [336/1954]?=-999 FWHM of [OIII]MgII5007 1755- 1775 F21.16 km/s e_FWHMOIII5007 [0.7/694]?=-999 Measurement error in FWHMOIII5007 1777- 1798 F22.16 0.1nm EWOIII5007 [1/21152]?=-999 Rest-frame equivalent width of [OIII]MgII5007 1800- 1824 F25.16 0.1nm e_EWOIII5007 [0.2/23816586]?=-999 Measurement error in EWOIII5007 1826- 1847 F22.15 10-20W/m2 FOIII5007 [10/371363]?=-999 Flux of [OIII]MgII5007, 10-17erg/s/cm2 1849- 1873 F25.15 10-20W/m2 e_FOIII5007 [10/415655263]?=-999 Measurement error in FOIII5007 1875- 1880 F6.1 --- NpixHa [138/421]?=-999 Number of good pixels for the rest-frame 6400-6800Å 1882- 1887 F6.1 --- StHa [1/5]?=-999 Line-fitting status of Hα 1889- 1908 F20.15 --- SNMedHa [7.5/36]?=-999 Median S/N per pixel for the rest-frame 6400-6800Å 1910- 1928 F19.13 km/s FWHMbHa [2820/10166]?=-999 FWHM of broad Hα 1930- 1948 F19.14 km/s e_FWHMbHa [231/984]?=-999 Measurement error in FWHMbHa 1950- 1972 F23.15 0.1nm EWbHa [16.8/2578644]?=-999 Rest-frame equivalent width of broad Hα 1974- 1995 F22.15 0.1nm e_EWbHa [9/557576]?=-999 Measurement error in EWbHa 1997- 2016 F20.14 10-20W/m2 FbHa [82/57519]?=-999 Flux of broad Hα, 10-17erg/s/cm2 2018- 2038 F21.15 10-20W/m2 e_FbHa [33.9/11765]?=-999 Measurement error in FbHa 2040- 2058 F19.14 km/s FWHMnHa [353/1205]?=-999 FWHM of narrow Hα 2060- 2080 F21.16 km/s e_FWHMnHa [0.14/349]?=-999 Measurement error in FWHMnHa 2082- 2103 F22.16 0.1nm EWnHa [0.59/51230]?=-999 Rest-frame equivalent width of narrow Hα 2105- 2126 F22.15 0.1nm e_EWnHa [4.8/481024]?=-999 Measurement error in EWnHa 2128- 2147 F20.14 10-20W/m2 FnHa [22/47532]?=-999 Flux of narrow Hα, 10-17erg/s/cm2 2149- 2168 F20.15 10-20W/m2 e_FnHa [11/6961]?=-999 Measurement error in FnHa 2170- 2188 F19.14 km/s FWHMNII6549 [353/1205]?=-999 FWHM of [NII]6549 2190- 2210 F21.16 km/s e_FWHMNII6549 [0.4/348]?=-999 Measurement error in FWHMNII6549 2212- 2232 F21.16 0.1nm EWNII6549 [2.7/1816]?=-999 Rest-frame equivalent width of [NII]6549 2234- 2254 F21.16 0.1nm e_EWNII6549 [2.8/3583]?=-999 Measurement error in EWNII6549 2256- 2275 F20.14 10-20W/m2 FNII6549 [40/11937]?=-999 Flux of [NII]6549, 10-17erg/s/cm2 2277- 2296 F20.15 10-20W/m2 e_FNII6549 [8/4359]?=-999 Measurement error in FNII6549 2298- 2316 F19.14 km/s FWHMNII6585 [453/1205]?=-999 FWHM of [NII]6585 2318- 2338 F21.16 km/s e_FWHMNII6585 [0.14/304]?=-999 Measurement error in FWHMNII6585 2340- 2360 F21.16 0.1nm EWNII6585 [1.8/1038]?=-999 Rest-frame equivalent width of [NII]6585 2362- 2382 F21.16 0.1nm e_EWNII6585 [4/570]?=-999 Measurement error in EWNII6585 2384- 2403 F20.14 10-20W/m2 FNII6585 [187/15319]?=-999 Flux of [NII]6585, 10-17erg/s/cm2 2405- 2424 F20.15 10-20W/m2 e_FNII6585 [12/3455]?=-999 Measurement error in FNII6585 2426- 2443 F18.13 km/s FWHMSII6718 [353/1204]?=-999 FWHM of [SII] 2445- 2465 F21.16 km/s e_FWHMSII6718 [0.15/364]?=-999 Measurement error in FWHMSII6718 2467- 2487 F21.16 0.1nm EWSII6718 [0.4/166]?=-999 Rest-frame equivalent width of [SII]MgII6718 2489- 2509 F21.16 0.1nm e_EWSII6718 [1/57]?=-999 Measurement error in EWSII6718 2511- 2530 F20.15 10-20W/m2 FSII6718 [12/1282]?=-999 Flux of [SII]MgII6718, 10-17erg/s/cm2 2532- 2551 F20.15 10-20W/m2 e_FSII6718 [5/440]?=-999 Measurement error in FSII6718 2553- 2570 F18.13 km/s FWHMSII6732 [453/1205]?=-999 FWHM of [SII]MgII6732 2572- 2592 F21.16 km/s e_FWHMSII6732 [0.14/330]?=-999 Measurement error in FWHMSII6732 2594- 2614 F21.16 0.1nm EWSII6732 [0.29/55]?=-999 Rest-frame equivalent width of [SII]MgII6732 2616- 2636 F21.16 0.1nm e_EWSII6732 [0.7/25]?=-999 Measurement error in EWSII6732 2638- 2657 F20.15 10-20W/m2 FSII6732 [33/516]?=-999 Flux of [SII]MgII6732, 10-17erg/s/cm2 2659- 2678 F20.15 10-20W/m2 e_FSII6732 [5/283]?=-999 Measurement error in FSII6732 -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec1.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 19 A19 --- Name Designation (JHHMMSS.ss+DDMMSS.s) (G1) 21- 31 F11.7 deg RAdeg [2.3/300] PS1 right ascension (J2000) (G2) 33- 42 F10.7 deg DEdeg [4.4/62.1] PS1 declination (J2000) (G2) 44- 54 F11.7 deg GLON [80.3/212.5] Galactic longitude 56- 65 F10.7 deg GLAT [-3.9/17] Galactic latitude 67- 72 F6.3 mag imag [15.12/19.65] Mean PSF AB magnitude from PS1 i-filter detections 74- 79 A6 --- Class Class ("star" or "galaxy") 81- 86 F6.4 --- z [0.04/0.11]?=0 Redshift from visual inspection 88- 96 F9.3 d MJD [58252.85/59229.3] Modified Julian Date of spectroscopic observation (JD-2400000.5) 98- 102 A5 --- Tel Telescope -------------------------------------------------------------------------------- Global notes: Note (G1): Pan-STARRS sources are named in Simbad. Note (G2): Pan-STARRS coordinates from single epoch detections (weighted mean) in equinox J2000 at the mean epoch given by epochMean ("Epoch" column, in Cat. II/349). Note (G3): When a value is provided for logL1350 but the measurement error is set to a null value, it is because the rest-frame 1350Å is close to the edge of the spectrum. In such cases, black hole masses based on CIV are not reported. Note (G4): Telescope as follows: LJT = The Lijiang 2.4m Telescope with the Yunnan Faint Object Spectrograph and Camera (YFOSC; 76 occurrences) XLT = The Xinglong 2.16m Telescope with the Beijing Faint Object Spectrograph and Camera (BFOSC; 61 occurrences) MDM13 = The McGraw-Hill 1.3m Telescope with the Boller and Chivens CCD Spectrograph (28 occurrences) P200 = The 200 inch (5.3m) Hale Telescope with the Double Spectrograph (DBSP; 26 occurrences) ANU23 = The 2.3m telescope at Siding Spring Observatory (operated by the Australian National University) with the Wide-Field Spectrograph (13 occurrences) -------------------------------------------------------------------------------- History: From electronic version of the journal References: Fu et al. Paper I. 2021ApJS..254....6F 2021ApJS..254....6F Cat. J/ApJS/254/6
(End) Prepared by [AAS], Emmanuelle Perret [CDS] 29-Sep-2022
The document above follows the rules of the Standard Description for Astronomical Catalogues; from this documentation it is possible to generate f77 program to load files into arrays or line by line