J/A+A/671/A136      Stars with debris disks and planets      (de la Reza+, 2023)

Searching for the nature of stars with debris disks and planets. de la Reza R., Chavero C., Roca-Fabrega S., Llorente de Andres F., Cruz P., Cifuentes C. <Astron. Astrophys. 671, A136 (2023)> =2023A&A...671A.136D 2023A&A...671A.136D (SIMBAD/NED BibCode)
ADC_Keywords: Stars, dwarfs ; Abundances ; Stars, ages ; Stars, masses Keywords: stars: solar-type - stars: abundances - planetary systems - Galaxy: disk - Galaxy: abundances Abstract: The nature of the few known solar mass stars containing debris disks and planets simultaneously remains an open question. Many authors have shown that this property appears to be independent on planetary masses and also on stellar age, but never studied possible correlations with stellar kinematics and metallicity. In this paper we show that the majority of known stars containing both, debris disks and planets, belong to the metal enriched Galactic thin-disk. The few exceptions are stars that seem to be born in the star formation peak occurred in the thick-disk formation times (HD10700, HD20794 and HD40307), i.e., between 11 and 8Gyr. The dusty disk's mass of these three old stars measured at 70um is very small, in fact it is less than that of the Kuiper belt of our Solar system by several orders of magnitude. These values are not surprising as are within the values expected for the stellar disk evolution of these primitive stars. In parallel, we have found other six thick-disk primitive stars but those containing only debris disks and stars containing only planets. These results enables us to establish a correlation between stellar metallicity and the dust disk mass modulated by the different epochs of the Galactic disks formation. Description: File table1 lists the whole collection of the stars related to this work with their stellar properties and references. This table 1 also proportionate Lithium abundances and U galactocentric velocities. File Summary: -------------------------------------------------------------------------------- FileName Lrecl Records Explanations -------------------------------------------------------------------------------- ReadMe 80 . This file table1.dat 165 46 Parameters of the stellar sample (MS stars) -------------------------------------------------------------------------------- Byte-by-byte Description of file: table1.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 9 A9 --- Star Stellar main identification in SIMBAD 11- 13 A3 --- Class Class of system (1) 17- 21 A5 --- Disk Galactic disk population (thin, thick, trans) 23- 28 A6 --- SpType Spectral type MK 30- 34 F5.3 Msun M* Stellar mass 36- 40 F5.3 Msun e_M* Stellar mass uncertainty 42- 47 F6.3 Gyr Age ? Stellar age 49- 53 F5.3 Gyr e_Age ? Stellar age uncertainty 55- 57 F3.1 Gyr b_Age ? Lower range limit to Age 59- 62 F4.1 Gyr B_Age ? Upper range limit to Age 65- 70 F6.3 [Sun] [Fe/H] Metallicity [Fe/H] 72- 76 F5.3 [Sun] e_[Fe/H] Uncertainty in [Fe/H] 78- 91 A14 --- r_[Fe/H] References of stellar parameters (2) 93- 98 F6.3 [-] [Ti/H] ? Abundance [Ti/H] (3) 100-104 F5.2 [-] [Ti/Fe] Abundance [Ti/Fe] (4) 108-113 F6.3 [-] [OSiMg/Fe] ? Mean of O, Si, Mg abundance (4) 115-123 A9 --- Ref References of Ti, O, Si, Mg abundances (2) 125-130 F6.2 km/s U ? U galactocentric velocity (5) 133-136 F4.2 [-] A(Li) ? Lithium Abundance A(Li) 140-144 A5 --- r_A(Li) Reference for A(Li) (2) 146 I1 --- Np ? Number of planets in Jupiter mass units 149-154 F6.3 --- sumMpl ? Sumatory of the mass planets 158-162 F5.2 [0.012Mgeo] Log(Md) ? Log dust mass (Md is in lunar mass units) 165 A1 --- Flag [1/2]? Remarks (6) -------------------------------------------------------------------------------- Note (1): Taking into account the presence of disk, planet or both CP = Stars with only planets DD = Stars with only debris discs DDP = Stars with known debris disc and planet Note (2): References as follows: Ad12 = Adibekyan et la., 2012A&A...545A..32A 2012A&A...545A..32A, Cat. J/A+A/545/A32 AG18 = Aguilera-Gomez et al., 2018A&A...614A..55A 2018A&A...614A..55A, Cat. J/A+A/614/A55 Be18 = Bensby & Lind, 2018A&A...615A.151B 2018A&A...615A.151B, Cat. J/A+A/615/A151 Bon16 = Bonfanti et al., 2016A&A...585A...5B 2016A&A...585A...5B, Cat. J/A+A/585/A5 Br16 = Brewer et al., 2016ApJS..225...32B 2016ApJS..225...32B, Cat. J/ApJS/225/32 Ca11 = Casagrande et al., 2011A&A...530A.138C 2011A&A...530A.138C, Cat. J/A+A/530/A138 CH19 = Chavero et al., 2019MNRAS.487.3162C 2019MNRAS.487.3162C, Cat. J/MNRAS/487/3162 Ed93 = Edvardsson et al., 1993A&A...275..101E 1993A&A...275..101E, Cat. J/A+A/275/101 DM15 = Delgado Mena et al., 2015A&A...576A..69D 2015A&A...576A..69D, Cat. J/A+A/576/A69 DM17 = Delgado Mena et al., 2017A&A...606A..94D 2017A&A...606A..94D, Cat. J/A+A/606/A94 DM19 = Delgado Mena et al., 2019A&A...624A..78D 2019A&A...624A..78D, Cat. J/A+A/624/A78 Ghe10 = Ghezzi et al., 2010ApJ...724..154G 2010ApJ...724..154G, Cat. J/ApJ/724/154 Hol09 = Holmberg et al., 2009A&A...501..941H 2009A&A...501..941H, Cat., V/130 Lu17 = Luck, 2017AJ....153...21L 2017AJ....153...21L, Cat. J/AJ/153/21 Pa13 = Pace, 2013A&A...551L...8P 2013A&A...551L...8P, Cat. J/A+A/551/L8 Ra12 = Ramirez et al., 2012ApJ...756...46R 2012ApJ...756...46R, Cat. J/ApJ/756/46 Ra14 = Ramirez et al., 2014A&A...561A...7R 2014A&A...561A...7R, Cat. J/A+A/561/A7 SilAg15 = Silva Aguirre et al., 2015MNRAS.452.2127S 2015MNRAS.452.2127S, Cat. J/MNRAS/452/2127 So05 = Soubiran et al., 2005A&A...438..139S 2005A&A...438..139S, Cat. J/A+A/438/139 So18 = Sousa et al., 2018A&A...620A..58S 2018A&A...620A..58S, Cat. J/A+A/620/A58 Ta20 = Tautvaisiene et al., 2020ApJS..248...19T 2020ApJS..248...19T, Cat. J/ApJS/248/19 Va05 = Valenti et al., 2005ApJS..159..141V 2005ApJS..159..141V, Cat. J/ApJS/159/141 Note (3): Relative to hydrogen. Note (4): Relative to iron. Note (5): taken from Llorente et al., 2021A&A...654A.137L 2021A&A...654A.137L, Cat. J/A+A/654/A137 Note (6): Remarks as follows: 1 = Stars with no [Ti/H] values available, it has been approximate [Ti/Fe]=[alpha/Fe]. 2 = High-alpha High-Metal stars. -------------------------------------------------------------------------------- Acknowledgements: Carolina Chavero, carolina.chavero (at) unc.edu.ar
(End) Carolina Chavero [OAC-UNC-CONICET], Patricia Vannier [CDS] 21-Jan-2023
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