J/ApJS/261/19       DTGs of metal-poor stars. II. RAVE DR6       (Shank+, 2022)

Dynamically tagged groups of metal-poor stars. II. The RAdial Velocity Experiment Data Release 6. Shank D., Komater D., Beers T.C., Placco V.M., Huang Y. <Astrophys. J. Suppl. Ser., 261, 19 (2022)> =2022ApJS..261...19S 2022ApJS..261...19S
ADC_Keywords: Stars, metal-deficient; Abundances; Radial velocities; Associations, stellar; Photometry, UBV; Milky Way Keywords: Milky Way dynamics ; Galaxy dynamics ; Galactic archaeology ; Milky Way evolution ; Milky Way stellar halo ; Milky Way formation Abstract: Orbital characteristics based on Gaia Early Data Release 3 astrometric parameters are analyzed for ∼8000 metal-poor stars ([Fe/H]≤-0.8) compiled from the Radial Velocity Experiment (RAVE) Data Release 6. Selected as metal-poor candidates based on broadband photometry, RAVE collected moderate-resolution (R∼7500) spectra in the region of the Ca triplet for these stars. About 20% of the stars in this sample also have medium-resolution (1200≲R≲2000) validation spectra obtained over a 4yr campaign from 2014 to 2017 with a variety of telescopes. We match the candidate stars to photometric metallicity determinations from the Huang+ 2022ApJ...925..164H 2022ApJ...925..164H recalibration of the SkyMapper Southern Survey Data Release 2. We obtain dynamical clusters of these stars from the orbital energy and cylindrical actions using the HDBSCAN unsupervised learning algorithm. We identify 179 dynamically tagged groups (DTGs) with between 5 and 35 members; 67 DTGs have at least 10 member stars. Milky Way (MW) substructures such as Gaia-Sausage-Enceladus, the Metal-weak Thick Disk, the Splashed Disk, Thamnos, the Helmi Stream, and LMS-1 (Wukong) are identified. Associations with MW globular clusters are determined for 10 DTGs; no recognized MW dwarf galaxies were associated with any of our DTGs. Previously identified dynamical groups are also associated with our DTGs, with emphasis placed on their structural determination and possible new identifications. We identify chemically peculiar stars as members of several DTGs; we find 22 DTGs that are associated with r-process-enhanced stars. Carbon-enhanced metal-poor (CEMP) stars are identified among the targets with available spectroscopy, and we assign these to morphological groups following the approach given by Yoon+ 2016, J/ApJ/833/20. Description: The RAVE DR6 survey (Steinmetz+ 2020, III/283) forms the basis for the compilation of our data set. We construct three samples, the Full Sample (section 2.1), the Initial Sample (section 2.2 and Table 8), and the Final Sample (section 2.3 and Table 9). File Summary: -------------------------------------------------------------------------------- FileName Lrecl Records Explanations -------------------------------------------------------------------------------- ReadMe 80 . This file table1.dat 93 179 Identified dynamically tagged groups (DTGs) table2.dat 51 1807 *Stellar members of the DTGs identified by HDBSCAN abund.dat 69 179 The biweight estimates of the location and scale for the abundances in each DTG notes.dat 88 964 Additional information on each DTG table4.dat 109 179 *Cluster dynamical parameters determined by AGAMA table8.dat 560 8377 Initial sample from the RAVE survey table9.dat 714 7957 Final sample from the RAVE survey table10.dat 71 106 Identified carbon-enhanced metal-poor (CEMP) stars and their group association -------------------------------------------------------------------------------- Note on table2.dat: HDBSCAN is a clustering algorithm developed by Campello, Moulavi, and Sander: http://hdbscan.readthedocs.io/en/latest/how_hdbscan_works.html Note on table4.dat: The Action-based GAlaxy Modeling Architecture (AGAMA) package is described in Vasiliev 2019MNRAS.482.1525V 2019MNRAS.482.1525V -------------------------------------------------------------------------------- See also: I/297 : NOMAD Catalog (Zacharias+ 2005) I/320 : SPM 4.0 Catalog (Girard+, 2011) II/336 : AAVSO Photometric All Sky Survey (APASS) DR9 (Henden+, 2016) II/358 : SkyMapper Southern Sky Survey. DR1.1 (Wolf+, 2018) III/283 : RAVE 6th data release (Steinmetz+, 2020) V/154 : Sloan Digital Sky Surveys (SDSS), Release 16 (DR16) (Ahumada+, 2020) I/352 : Distances to 1.47 billion stars in Gaia EDR3 (Bailer-Jones+, 2021) I/354 : StarHorse2, Gaia EDR3 photo-astrometric distances (Anders+, 2022) I/355 : Gaia DR3 Part 1. Main source (Gaia Collaboration, 2022) J/AJ/90/2089 : Stars of very low metal abundance. I (Beers+, 1985) J/AJ/103/1987 : Stars of very low metal abundance (Beers+ 1992) J/A+A/484/721 : HES survey. IV. Cand. metal-poor stars (Christlieb+, 2008) J/AJ/137/4377 : List of SEGUE plate pairs (Yanny+, 2009) J/MNRAS/421/3362 : Kinematics of galactic red clump stars (Bilir+, 2012) J/MNRAS/419/2844 : Radial metallicity gradient from RAVE (Coskunoglu+, 2012) J/ApJ/794/58 : Metal-poor stars in thick disk of the Galaxy (Beers+, 2014) J/ApJ/797/21 : Carbon-enhanced metal-poor stars (Placco+, 2014) J/ApJ/797/13 : Abundances of bright metal-poor stars (Schlaufman+, 2014) J/ApJ/830/93 : Abund. of the Ret II brightest red giant members (Ji+, 2016) J/ApJ/833/20 : Carbon-enhanced metal-poor star abundances (Yoon+, 2016) J/ApJ/835/81 : Bright metal-poor stars from HES Survey. II. (Beers+, 2017) J/ApJ/852/49 : Properties of metal-poor stars in APOGEE DR13 (Hayes+, 2018) J/ApJS/238/16 : LAMOST-DR3 very metal-poor star catalog (Li+, 2018) J/AJ/155/256 : Sp. validation of RAVE metal-poor stars (Placco+, 2018) J/AJ/156/179 : r-process-enhanced field star kinematics (Roederer+, 2018) J/ApJ/905/20 : Metal-poor stars observed with SALT/HRS (Rasmussen+, 2020) J/ApJ/891/39 : LAMOST very metal-poor stars of the Gal. halo (Yuan+, 2020) J/ApJ/908/79 : r-process Alliance; abundances in 519 stars (Gudin+, 2021) J/ApJ/907/10 : Initial vs final sample of VMP HK/HES stars (Limberg+, 2021) J/A+A/649/A3 : Gaia EDR3 photometric passbands (Riello+, 2021) J/MNRAS/505/5978 : Gaia EDR3 view on Gal. globular clusters (Vasiliev+, 2021) J/AJ/162/42 : MW Age-Metallicity-orbital energy relation (Woody+, 2021) J/ApJ/926/26 : DTGs of metal-poor stars. I. (Shank+, 2022) Byte-by-byte Description of file: table1.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 3 I3 --- DTG [1/179] Dynamically tagged groups (G1) 5- 6 I2 --- Ns [5/35] Number of members 8- 12 F5.1 % Conf [23.9/100] Confidence 14- 93 A80 --- Assoc Associations (G1) (1) -------------------------------------------------------------------------------- Note (1): Substructures and references (see Section 4.2) are: GSE = Gaia-Sausage-Enceladus (Naidu+ 2020ApJ...901...48N 2020ApJ...901...48N) MWTD = the metal-weak thick disk (Naidu+ 2020ApJ...901...48N 2020ApJ...901...48N) AH17 = Helmi et al. 2017A&A...598A..58H 2017A&A...598A..58H DG21 = Gudin et al. 2021, J/ApJ/908/79 DS21 = Shank et al. 2022ApJ...926...26S 2022ApJ...926...26S EV21 = Vasiliev & Baumgardt 2021, J/MNRAS/505/5978 GC21 = Cordoni et al. 2021MNRAS.503.2539C 2021MNRAS.503.2539C GL21 = Limberg et al. 2021, J/ApJ/907/10 GM17 = Myeong et al. 2017MNRAS.469L..78M 2017MNRAS.469L..78M GM18a = Myeong et al. 2018MNRAS.475.1537M 2018MNRAS.475.1537M GM18b = Myeong et al. 2018MNRAS.478.5449M 2018MNRAS.478.5449M HK18 = Koppelman et al. 2018ApJ...860L..11K 2018ApJ...860L..11K HL19 = Li et al. 2019ApJ...874...74L 2019ApJ...874...74L HL20 = Li et al. 2020ApJ...895...23L 2020ApJ...895...23L IR18 = Roederer et al. 2018, J/AJ/156/179 NB20 = Borsato et al. 2020MNRAS.492.1370B 2020MNRAS.492.1370B SM20 = Monty et al. 2020MNRAS.497.1236M 2020MNRAS.497.1236M -------------------------------------------------------------------------------- Byte-by-byte Description of file: table2.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 3 I3 --- DTG [1/179] Dynamically tagged group (G1) 5- 23 A19 --- ID RAVE DR6 identifier (JHHMMSS.ss+DDMMSS.s) 25- 30 F6.3 [Sun] [Fe/H] [-3.7/-0.8]? Adopted metallicity 32- 37 F6.3 [Sun] [C/Fe] [-0.93/2.23]? log C/Fe number abundance 39- 44 F6.3 [Sun] [C/Fe]c [-0.73/2.41]? Placco+ 2014, J/ApJ/797/21 corrected [C/Fe] 46- 51 F6.3 [Sun] [a/Fe] [-0.17/0.82]? Adopted alpha-element abundance -------------------------------------------------------------------------------- Byte-by-byte Description of file: abund.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 4 A4 --- --- [DTG-] 5- 7 I3 --- DTG [1/179] Dynamically tagged group (G1) 9- 14 F6.3 [-] [Fe/H] [-2.5/-0.8] Metallicity 16- 20 F5.3 [-] e_[Fe/H] [0.01/1] Uncertainty in [Fe/H] 23- 28 F6.3 [-] [C/Fe] [-0.93/2.1]?=- Log C/Fe number abundance 32- 36 F5.3 [-] e_[C/Fe] [0/1.1]?=- Uncertainty in [C/Fe] 39- 44 F6.3 [-] [C/Fe]c [-0.73/2.4]?=- Corrected [C/Fe] 48- 52 F5.3 [-] e_[C/Fe]c [0/1.2]?=- Uncertainty in [C/Fe]c 55- 60 F6.3 [-] [a/Fe] [-0.16/0.7]?=- Alpha-element abundance 65- 69 F5.3 [-] e_[a/Fe] [0/0.32]?=- Uncertainty in [a/Fe] -------------------------------------------------------------------------------- Byte-by-byte Description of file: notes.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 4 A4 --- --- [DTG-] 5- 7 I3 --- DTG [1/179] Dynamically tagged group (G1) 9- 88 A80 --- Note Text of the note -------------------------------------------------------------------------------- Byte-by-byte Description of file: table4.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 3 I3 --- DTG [1/179] Dynamically tagged group 5- 6 I2 --- Ns [5/35] Number of members 8- 13 F6.1 km/s Vr [-328/326] Mean Cluster Velocity in the radial direction, AGAMA 15- 19 F5.1 km/s e_Vr [4.9/325] Uncertainty in Vr 21- 26 F6.1 km/s Vphi [-160/294] Mean Cluster Velocity in the angular direction, AGAMA 28- 31 F4.1 km/s e_Vphi [1/48] Uncertainty in Vphi 33- 38 F6.1 km/s Vz [-242/108] Mean Cluster Velocity in the z direction, AGAMA 40- 44 F5.1 km/s e_Vz [3/296] Uncertainty in Vz 46- 51 F6.1 kpc.km/s Jr [1.4/1958] Mean Cluster Action in the radial direction, AGAMA 53- 57 F5.1 kpc.km/s e_Jr [0.6/209] Uncertainty in Jr 59- 65 F7.1 kpc.km/s Jphi [-1265/2353] Mean Cluster Action in the angular direction, AGAMA 67- 71 F5.1 kpc.km/s e_Jphi [0.6/309] Uncertainty in Jphi 73- 78 F6.1 kpc.km/s Jz [0.3/1989] Mean Cluster Action in the z direction, AGAMA 80- 84 F5.1 kpc.km/s e_Jz [0.1/104] Uncertainty in Jz 86- 91 F6.3 10+5kpc.km2/s2 E [-1.94/-1.2] Mean Cluster Orbital energy, AGAMA 93- 97 F5.3 10+5kpc.km2/s2 e_E [0/0.06] Uncertainty in E 99- 103 F5.3 --- ecc [0.03/0.98] Mean Cluster Eccentricity, AGAMA 105- 109 F5.3 --- e_ecc [0.001/0.2] Uncertainty in ecc -------------------------------------------------------------------------------- Byte-by-byte Description of file: table8.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 19 A19 --- ID RAVE DR6 identifier (JHHMMSS.ss+DDMMSS.s) 21- 39 I19 --- GaiaEDR3 Gaia EDR3 identifier 41- 49 I9 --- SMSS [10446/505160346]? SMSS DR2 identifier 51- 71 A21 --- ObsID RAVE DR6 ObsID 73- 74 I2 h RAh Hour of Right Ascension (J2000) 76- 77 I2 min RAm Minute of Right Ascension (J2000) 79- 83 F5.2 s RAs Second of Right Ascension (J2000) 85 A1 --- DE- Sign of the Declination (J2000) 86- 87 I2 deg DEd Degree of Declination (J2000) 89- 90 I2 arcmin DEm Arcminute of Declination (J2000) 92- 95 F4.1 arcsec DEs Arcsecond of Declination (J2000) 97- 100 A4 --- Tel Telescope used for spectrum (G2) 102- 107 F6.3 mag Vmag [6.2/16.88] V magnitude of the star 109- 114 F6.3 mag Gmag [5.87/15] Gaia EDR3 G mean magnitude 116- 120 F5.3 mag BP-RP [0.13/5.1] Gaia EDR3 BP-RP color mean magnitude 122- 127 F6.3 mag VmagG [6.17/17.31] V magnitude transformed from Gaia Gmag (G3) 129- 134 F6.1 km/s RVR [-988/933]? RAVE DR6 radial velocity 136- 140 F5.1 km/s e_RVR [0.3/360]? Uncertainty in RVG 142- 147 F6.1 km/s RVG [-463/587]? Gaia EDR3 radial velocity 149- 152 F4.1 km/s e_RVG [0.1/20]? Uncertainty in RVG 154- 160 F7.4 mas plx [0.01/22.5]? Gaia EDR3 parallax 162- 167 F6.4 mas e_plx [0.008/0.9]? Uncertainty in plx 169- 175 F7.4 kpc Dist [0.04/80]? Distance, inverse Gaia EDR3 parallax 177- 184 F8.4 kpc e_Dist [0/132]? Uncertainty in Dist 186- 192 F7.4 kpc Distc [0.04/26]? Corrected distance, inverse parallax (G4) 194- 200 F7.4 kpc e_Distc [0/22]? Uncertainty in Distc (G4) 202- 207 F6.4 --- RelErrc [0.0005/1.3]? Relative error, Distc 209- 215 F7.4 kpc DistB [0.04/17.2]? Bailer-Jones+ (2021, I/352) 50th percentile distance 217- 222 F6.4 kpc e_DistB [0/6]? Error estimated from DistB (G5) 224- 229 F6.4 --- RelErrB [0.0005/0.7]? Relative error, DistB 231- 237 F7.4 kpc Dist-s [0.04/14.2]? Anders+ 2022, I/354 50th percentile distance 239- 244 F6.4 kpc e_Dist-s [0/3.1]? Error estimated for Dist-s (G5) 246- 251 F6.4 --- RelErr-s [0.0001/1.1]? Relative error, Dist-s 253- 261 F9.4 mas/yr pmRA [-343/287]? Gaia EDR3 proper motion along RA 263- 268 F6.4 mas/yr e_pmRA [0.006/0.8]? Uncertainty in pmRA 270- 278 F9.4 mas/yr pmDE [-574/139]? Gaia EDR3 proper motion along DE 280- 285 F6.4 mas/yr e_pmDE [0.007/0.8]? Uncertainty in pmDE 287- 293 F7.4 --- pmRApmDEcor [-0.97/0.8]? Gaia EDR3 correlation coefficient, pmRA, pmDE 295- 298 I4 K TeffR [4250/6923]? Effective temperature, RAVE DR6 300- 302 I3 K e_TeffR [15/321]? Uncertainty in TeffR 304- 307 I4 K TeffS [3248/7881]? Effective temperature, n-SSPP 309- 311 I3 K e_TeffS [49/945]? Uncertainty in TeffS 313- 316 I4 K TeffP [4218/6923]? Effective temperature, Huang+ 2022ApJ...925..164H 2022ApJ...925..164H 318- 320 I3 K e_TeffP [8/251]? Uncertainty in TeffP 322- 325 I4 K Teff [4010/6512]? Adopted effective temperature, Parameter Procedure 327- 329 I3 K e_Teff [51/321]? Uncertainty in Teff 331- 335 F5.3 [cm/s2] log(g)R [0.09/5.5]? Log, surface gravity, RAVE DR6 337- 341 F5.3 [cm/s2] e_log(g)R [0.08/1.1]? Uncertainty in log(g)R 343- 347 F5.3 [cm/s2] log(g)S [0.1/5]? Log, surface gravity, n-SSPP 349- 353 F5.3 [cm/s2] e_log(g)S [0.001/1.1]? Uncertainty in log(g)S 355- 359 F5.3 [cm/s2] logg [0.1/4.9]? Adopted surface gravity, Parameter Procedure 361- 365 F5.3 [cm/s2] e_logg [0.001/1.1]? Uncertainty in logg 367- 372 F6.3 [Sun] [M/H]R [-3.7/-0.8]? RAVE DR6 metallicity 374- 378 F5.3 [Sun] e_[M/H]R [0/1.3]? Uncertainty in [M/H]R 380- 385 F6.3 [Sun] [Fe/H]S [-5.8/0.95]? N-SSPP metallicity 387- 391 F5.3 [Sun] e_[Fe/H]S [0.07/0.8]? Uncertainty in [Fe/H]S 393- 398 F6.3 [Sun] [Fe/H]P [-3.7/0.07]? Huang+ 2021ApJ...907...68H 2021ApJ...907...68H metallicity 400- 404 F5.3 [Sun] e_[Fe/H]P [0/0.41]? Uncertainty in [Fe/H]P 406- 411 F6.3 [Sun] [Fe/H] [-3.4/0.3]? Adopted metallicity from Parameter Procedure 413- 417 F5.3 [Sun] e_[Fe/H] [0.1/1.3]? Uncertainty in [Fe/H] 419- 424 F6.3 [Sun] [C/Fe] [-1.4/2.7]? Log C/Fe number abundance 426- 430 F5.3 [Sun] e_[C/Fe] [0.06/0.6]? Uncertainty in [C/Fe] 432- 437 F6.3 [Sun] [C/Fe]c [-0.9/2.8]? Placco+ 2014, J/ApJ/797/21 corrected [C/Fe] 439- 443 F5.3 [Sun] ACc [4.6/8.6]? Absolute corrected carbon abundance (G6) 445 A1 --- CARDET A [C/Fe] flag (G7) 447- 452 F6.3 --- CC[C/Fe] [-0.09/1]? N-SSPP correlation coefficient of [C/Fe] 454 A1 --- CEMP Flag for Carbon-Enhanced Metal-Poor (G8) 456- 461 F6.3 [Sun] [a/Fe]R [-0.5/0.9]? Log alpha-element number abundance, RAVE DR6 463- 467 F5.3 [Sun] e_[a/Fe]R [0.05/1.1]? Uncertainty in [a/Fe]R 469- 474 F6.3 [Sun] [a/Fe]S [-0.297/1.006]? Log alpha-element number abundance, n-SSPP 476- 480 F5.3 [Sun] e_[a/Fe]S [0.027/0.14]? Uncertainty in [a/Fe]S 482- 487 F6.3 [Sun] [a/Fe] [-0.3/1.1]? Adopted alpha-element abundance from Parameter Procedure 489- 493 F5.3 [Sun] e_[a/Fe] [0.027/0.14]? Uncertainty in [a/Fe] 495 A1 --- ALPDET Alpha abundance flag (G9) 497- 502 F6.3 --- CC[a/Fe] [-0.5/1]? N-SSPP correlation coefficient of [a/Fe] 504- 507 I4 --- SNR [0/2031]? Average n-SSPP Signal-to-Noise Ratio 509- 516 A8 --- Ref Reference for the star (G10) 518- 530 A13 --- PProc Procedure used to determine adopted stellar parameters (G11) 532- 538 A7 --- r_Vmag Reference for Vmag (G12) 540- 551 A12 --- refDist Reference for AGAMA distance (G13) 553- 560 A8 --- refRVel Reference for AGAMA RVel (always "RAVE DR6") -------------------------------------------------------------------------------- Byte-by-byte Description of file: table9.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 19 A19 --- ID RAVE DR6 identifier (JHHMMSS.ss+DDMMSS.s) 21- 39 I19 --- GaiaEDR3 Gaia EDR3 identifier 41- 49 I9 --- SMSS [10446/505160346]? SMSS DR2 identifier 51- 71 A21 --- ObsID RAVE DR6 ObsID 73- 74 I2 h RAh Hour of Right Ascension (J2000) 76- 77 I2 min RAm Minute of Right Ascension (J2000) 79- 83 F5.2 s RAs Second of Right Ascension (J2000) 85 A1 --- DE- Sign of the Declination (J2000) 86- 87 I2 deg DEd Degree of Declination (J2000) 89- 90 I2 arcmin DEm Arcminute of Declination (J2000) 92- 95 F4.1 arcsec DEs Arcsecond of Declination (J2000) 97- 100 A4 --- Tel Telescope used for spectrum (G2) 102- 107 F6.3 mag Vmag [6.2/15.2] V magnitude of the star 109- 114 F6.3 mag Gmag [5.8/15] Gaia EDR3 G mean magnitude 116- 120 F5.3 mag BP-RP [0.13/4.3] Gaia EDR3 BP-RP color mean magnitude 122- 127 F6.3 mag VmagG [6.17/15.8] V magnitude transformed from Gaia Gmag (G3) 129- 134 F6.1 km/s RVR [-464.5/735]? RAVE DR6 radial velocity 136- 140 F5.1 km/s e_RVR [0.3/101]? Uncertainty in RVG 142- 147 F6.1 km/s RVG [-463/587]? Gaia EDR3 radial velocity 149- 152 F4.1 km/s e_RVG [0.1/20]? Uncertainty in RVG 154- 160 F7.4 mas plx [0.012/22.5]? Gaia EDR3 parallax 162- 167 F6.4 mas e_plx [0.008/0.9]? Uncertainty in plx 169- 175 F7.4 kpc Dist [0.04/80]? Distance, inverse Gaia EDR3 parallax 177- 184 F8.4 kpc e_Dist [0/132]? Uncertainty in Dist 186- 192 F7.4 kpc Distc [0.04/26]? Corrected distance, inverse parallax (G4) 194- 200 F7.4 kpc e_Distc [0/22]? Uncertainty in Distc (G4) 202- 207 F6.4 --- RelErrc [0.0005/0.96]? Relative error, Distc 209- 215 F7.4 kpc DistB [0.04/17.2] Bailer-Jones+ 2021, I/352 50th percentile distance 217- 222 F6.4 kpc e_DistB [0/6] Error estimated from DistB (G5) 224- 229 F6.4 --- RelErrB [0.0005/0.7] Relative error, DistB 231- 237 F7.4 kpc Dist-s [0.04/14.2]? Anders+ 2022, I/354 50th percentile distance 239- 244 F6.4 kpc e_Dist-s [0/3.1]? Error estimated for Dist-s (G5) 246- 251 F6.4 --- RelErr-s [0.0001/1.1]? Relative error, Dist-s 253- 261 F9.4 mas/yr pmRA [-318/287]? Gaia EDR3 proper motion along RA 263- 268 F6.4 mas/yr e_pmRA [0.006/0.8]? Uncertainty in pmRA 270- 278 F9.4 mas/yr pmDE [-448/139]? Gaia EDR3 proper motion along DE 280- 285 F6.4 mas/yr e_pmDE [0.007/0.8]? Uncertainty in pmDE 287- 293 F7.4 --- pmRApmDEcor [-0.97/0.8] Gaia EDR3 correlation coefficient, pmRA, pmDE 295- 298 I4 K TeffR [4250/6923]? Effective temperature, RAVE DR6 300- 302 I3 K e_TeffR [15/321]? Uncertainty in TeffR 304- 307 I4 K TeffS [3248/7881]? Effective temperature, n-SSPP 309- 311 I3 K e_TeffS [49/945]? Uncertainty in TeffS 313- 316 I4 K TeffP [4218/6923]? Effective temperature, Huang+ 2022ApJ...925..164H 2022ApJ...925..164H 318- 320 I3 K e_TeffP [8/251]? Uncertainty in TeffP 322- 325 I4 K Teff [4010/6512]? Adopted effective temperature, Parameter Procedure 327- 329 I3 K e_Teff [51/321]? Uncertainty in Teff 331- 335 F5.3 [cm/s2] log(g)R [0.09/5.2]? Log, surface gravity, RAVE DR6 337- 341 F5.3 [cm/s2] e_log(g)R [0.08/1.1]? Uncertainty in log(g)R 343- 347 F5.3 [cm/s2] log(g)S [0.1/4.9]? Log, surface gravity, n-SSPP 349- 353 F5.3 [cm/s2] e_log(g)S [0.001/1.1]? Uncertainty in log(g)S 355- 359 F5.3 [cm/s2] logg [0.1/4.9]? Adopted surface gravity, Parameter Procedure 361- 365 F5.3 [cm/s2] e_logg [0.001/1.1]? Uncertainty in logg 367- 372 F6.3 [Sun] [M/H]R [-3.7/-0.8]? RAVE DR6 metallicity 374- 378 F5.3 [Sun] e_[M/H]R [0/1.3]? Uncertainty in [M/H]R 380- 385 F6.3 [Sun] [Fe/H]S [-5.8/0.9]? N-SSPP metallicity 387- 391 F5.3 [Sun] e_[Fe/H]S [0.07/0.8]? Uncertainty in [Fe/H]S 393- 398 F6.3 [Sun] [Fe/H]P [-3.7/0.07]? Huang+ 2021ApJ...907...68H 2021ApJ...907...68H metallicity 400- 404 F5.3 [Sun] e_[Fe/H]P [0/0.41]? Uncertainty in [Fe/H]P 406- 411 F6.3 [Sun] [Fe/H] [-3.4/0.26]? Adopted metallicity from Parameter Procedure 413- 417 F5.3 [Sun] e_[Fe/H] [0.1/1.3]? Uncertainty in [Fe/H] 419- 424 F6.3 [Sun] [C/Fe] [-1.4/2.5]? Log C/Fe number abundance 426- 430 F5.3 [Sun] e_[C/Fe] [0.06/0.5]? Uncertainty in [C/Fe] 432- 437 F6.3 [Sun] [C/Fe]c [-0.9/2.7]? Placco+ (2014, J/ApJ/797/21) corrected [C/Fe] 439- 443 F5.3 [Sun] ACc [4.6/8.6]? Absolute corrected carbon abundance (G6) 445 A1 --- CARDET A [C/Fe] flag (G7) 447- 452 F6.3 --- CC[C/Fe] [-0.09/1]? N-SSPP correlation coefficient of [C/Fe] 454 A1 --- CEMP Flag for Carbon-Enhanced Metal-Poor (G8) 456- 461 F6.3 [Sun] [a/Fe]R [-0.5/0.9]? Log alpha-element number abundance, RAVE DR6 463- 467 F5.3 [Sun] e_[a/Fe]R [0.05/1.1]? Uncertainty in [a/Fe]R 469- 474 F6.3 [Sun] [a/Fe]S [-0.3/1.1]? Log alpha-element number abundance, n-SSPP 476- 480 F5.3 [Sun] e_[a/Fe]S [0.02/0.14]? Uncertainty in [a/Fe]S 482- 487 F6.3 [Sun] [a/Fe] [-0.3/1.1]? Adopted alpha-element abundance from Parameter Procedure 489- 493 F5.3 [Sun] e_[a/Fe] [0.027/0.14]? Uncertainty in [a/Fe] 495 A1 --- ALPDET Alpha abundance flag (G9) 497- 502 F6.3 --- CC[a/Fe] [-0.5/1]? N-SSPP correlation coefficient of [a/Fe] 504- 507 I4 --- SNR [0/2031]? Average n-SSPP Signal-to-Noise Ratio 509- 516 A8 --- Ref Reference for the star (G10) 518- 530 A13 --- PProc Procedure used to determine adopted stellar parameters (G11) 532- 538 A7 --- r_Vmag Reference for Vmag (G12) 540- 551 A12 --- refDist Reference for AGAMA distance (G13) 553- 560 A8 --- refRVel Reference for AGAMA RVel (always "RAVE DR6") 562- 567 F6.1 km/s Vr [-512/407] Velocity in the radial direction, AGAMA 569- 574 F6.1 km/s Vphi [-443/431] Velocity in the angular direction, AGAMA 576- 581 F6.1 km/s Vz [-435/411] Velocity in the z direction, AGAMA 583- 586 F4.1 km/s e_Vr [0/72] Uncertainty in Vr (1) 588- 591 F4.1 km/s e_Vphi [0/65.1] Uncertainty in Vphi (1) 593- 596 F4.1 km/s e_Vz [0.1/68.4] Uncertainty in Vz (1) 598- 605 F8.1 kpc.km/s Jr [0/153415] Action in the radial direction, AGAMA 607- 613 F7.1 kpc.km/s Jphi [-3606/3470] Action in the angular direction, AGAMA 615- 620 F6.1 kpc.km/s Jz [0/3166] Action in the z direction, AGAMA 622- 629 F8.1 kpc.km/s e_Jr [0/273428] Uncertainty in Jr (1) 631- 635 F5.1 kpc.km/s e_Jphi [0.1/371] Uncertainty in Jphi (1) 637- 641 F5.1 kpc.km/s e_Jz [0/477] Uncertainty in Jz (1) 643- 648 F6.3 kpc.km2/s2 E [-2.3/-0.1] Orbital energy, AGAMA 650- 654 F5.3 kpc.km2/s2 e_E [0.001/0.3] Uncertainty in E (1) 656- 661 F6.3 kpc rperi [0.03/11.3] Galactic pericentric distance, AGAMA 663- 667 F5.3 kpc e_rperi [0/1.5] Uncertainty in rperi (1) 669- 676 F8.3 kpc rapo [2.6/3052] Galactic apocentric distance, AGAMA 678- 685 F8.3 kpc e_rapo [0/2689] Uncertainty in rapo (1) 687- 694 F8.3 kpc Zmax [0.014/1297] Maximum height above Galactic plane, AGAMA 696- 702 F7.3 kpc e_Zmax [0/798] Uncertainty in Zmax (1) 704- 708 F5.3 --- ecc [0.002/0.995] Eccentricity, AGAMA (2) 710- 714 F5.3 --- e_ecc [0/0.2] Uncertainty in ecc (1) -------------------------------------------------------------------------------- Note (1): Error derived from Monte Carlo sampling Note (2): Eccentricity of the star given by (rapo-rperi)/(rapo+rperi) through the Action-based GAlaxy Modeling Architecture (AGAMA) package (Vasiliev 2019MNRAS.482.1525V 2019MNRAS.482.1525V). -------------------------------------------------------------------------------- Byte-by-byte Description of file: table10.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 19 A19 --- ID RAVE DR6 identifier (JHHMMSS.ss+DDMMSS.s) 21- 26 A6 --- Group CEMP Group as given by Yoon+ 2016, J/ApJ/833/20 (1) 28- 31 I4 K Teff [4191/7782] Stellar effective temperature 33- 37 F5.3 [cm/s2] logg [0.2/4.74] log of surface gravity 39- 44 F6.3 [Sun] [Fe/H] [-3.7/-0.93] Metallicity 46- 51 F6.3 [Sun] [C/Fe] [-0.05/2.64] log C/Fe number abundance 53- 58 F6.3 [Sun] [C/Fe]c [0.7/2.75] Placco+ (2014, J/ApJ/797/21) corrected [C/Fe] 60- 64 F5.3 [Sun] ACc [5.9/9] Absolute corrected carbon abundance (G6) 66- 71 F6.3 [Sun] [a/Fe] [-0.15/1.1]? log alpha-element number abundance -------------------------------------------------------------------------------- Note (1): Object group as follows: III = Group III star ([Fe/H]<-3.5, centered on A(C)∼6.8); II = Group II star (metallicity range of -5.0≲[Fe/H]≲-2.5, and, in contrast to the Group III stars, exhibit a clear dependence of A(C) on [Fe/H]); I = Group I star (CEMP-no stars that fall into neither of these groups, but are scattered throughout the region primarily occupied by the CEMP-s/rs stars); -------------------------------------------------------------------------------- Global notes: Note (G1): We adopt the nomenclature for previously identified DTGs and CDTGs from Yuan+ 2020ApJ...898L..37Y 2020ApJ...898L..37Y Note (G2): Telescope used for spectrum as follows: GEMS = the Gemini-South 8.1m telescope KPNK = the Kitt Peak National Observatory (KPNO) Mayall 4m telescope with KOSMOS. KPNR = the Kitt Peak National Observatory (KPNO) Mayall 4m telescope NTTE = the ESO New Technology (NTT) 3.58m telescope SOAR = the Southern Astrophysical Research (SOAR) 4.1m telescope Note (G3): V magnitude of the star as determined by the transformations from G mag to V mag using the equation from Riello+ (2021, J/A+A/649/A3): V=G+0.02704-0.01424*(BP-RP)+0.2156*(BP-RP)2-0.01426(BP-RP)3 Note (G4): The corrected inverse parallax distance (1/(pls+0.026)) is based on Huang+ (2021ApJ...907...68H 2021ApJ...907...68H). The corrected inverse parallax distance error follows (e_plx/((plx+0.026)2)) Note (G5): 50 percentile error as estimated from the 84 percentile distance and the 16 percentile distance, (dist84-dist16)/2 Note (G6): The absolute carbon corrected for evolutionary effects from Placco+ (2014, J/ApJ/797/21) ([C/Fe]c+[Fe/H]+log(ε)Carbon,Solar) (Taken from solar value of 8.43 from Asplund+ 2009ARA&A..47..481A 2009ARA&A..47..481A). Note (G7): The [C/Fe] flag as follows: D = the carbon abundance ([C/Fe]) is detected from n-SSPP; U = an upper limit by n-SSPP; L = a lower limit by n-SSPP; N = none is detected by n-SSPP. Note (G8): CEMP Flag as follows: C = Carbon-Enhanced Metal-Poor (CEMP) if [C/Fe]c>+0.7; I = CEMP-intermediate if +0.5<[C/Fe]c≤+0.7; N = Carbon-Normal if [C/Fe]c≤+0.5 X = no [C/Fe]c information. Note (G9): Alpha abundance flag as follows: D = the alpha abundance ([α/Fe]) is detected from n-SSPP; U = an upper limit by n-SSPP; L = a lower limit by n-SSPP; N = none is detected by n-SSPP. Note (G10): The Reference for the star as given by "RAVE DR6" for the sample of stars from Steinmetz+ 2020, III/283 sample and "RAVE DR5" for the sample of stars from Kunder+ (2017, III/279) and "RAVE DR4" for the star from Kordopatis+ (2013, III/272). Note (G11): Procedure used to determine adopted stellar parameters -- Average = difference between [Fe/H]S and [Fe/H]P is less ≤0.5dex Spectroscopic = only [Fe/H]S is available Photometric = only [Fe/H]P is available, Note (G12): Reference for Vmag as follows: APASS = AAVSO Photometric All Sky Survey DR9 (see II/336); APOP = Absolute Proper motions Outside the Plane (Qi+, 2015, I/331) NOMAD-1 = see I/297 SPM4 = Yale/San Juan Southern Proper Motion Catalog 4 (Girard+, 2011, I/320) UCAC4 = see I/322 Note (G13): Reference for the distance used in AGAMA. Dist-s (STARHORSE) is prioritized over Dist-b (BAILER-JONES) unless RelErr-s>0.3. If both RelErr-s and RelErr-b are >0.3 we adopt no distance estimate. -------------------------------------------------------------------------------- History: From electronic version of the journal References: Shank et al. Paper I. 2022ApJ...926...26S 2022ApJ...926...26S Cat. J/ApJ/926/26
(End) Prepared by [AAS], Emmanuelle Perret [CDS] 22-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