HE 1429-0551 , the SIMBAD biblio

HE 1429-0551 , the SIMBAD biblio (29 results) C.D.S. - SIMBAD4 rel 1.8 - 2026.10.14CEST10:40:37

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Bibcode/DOI Score in Title|Abstract|
Keywords 		in a table in teXt, Caption, ... Nb occurence Nb objects in ref Citations
(from ADS) 		Title First 3 Authors
2001A&A...375..366C viz 410 121 The stellar content of the Hamburg/ESO survey. II. A large, homogeneously-selected sample of high latitude carbon stars. CHRISTLIEB N., GREEN P.J., WISOTZKI L., et al.
2005MNRAS.359..531G 101 32 CH stars at high Galactic latitudes. GOSWAMI A.
2007ApJS..168..128B viz 15       D               1852 38 Broadband UBVRCIC photometry of horizontal-branch and metal-poor candidates from the HK and Hamburg/ESO surveys. I. BEERS T.C., FLYNN C., ROSSI S., et al.
2007ApJ...655..492A viz 1 70 376 Carbon-enhanced metal-poor stars. I. Chemical compositions of 26 stars. AOKI W., BEERS T.C., CHRISTLIEB N., et al.
2010A&A...509A..93M viz 15       D               2 181 196 A holistic approach to carbon-enhanced metal-poor stars. MASSERON T., JOHNSON J.A., PLEZ B., et al.
2010ApJ...722L..90G 166       D S   X         4 21 4 Evidence of v-band polarimetric separation of carbon stars at high galactic latitude. GOSWAMI A., KARTHA S.S. and SEN A.K.
2011MNRAS.412..843S viz 15       D               1 148 109 The stellar abundances for galactic archaeology (SAGA) data base – II. Implications for mixing and nucleosynthesis in extremely metal-poor stars and chemical enrichment of the galaxy. SUDA T., YAMADA S., KATSUTA Y., et al.
2011MNRAS.418..284B viz 167       D     X         5 115 191 The s-process in low-metallicity stars – II. Interpretation of high-resolution spectroscopic observations with asymptotic giant branch models. BISTERZO S., GALLINO R., STRANIERO O., et al.
2012MNRAS.422..849B 92       D         F     2 97 85 The s-process in low-metallicity stars - III. Individual analysis of CEMP-s and CEMP-s/r with asymptotic giant branch models. BISTERZO S., GALLINO R., STRANIERO O., et al.
2013ApJ...762...26Y viz 15       D               1 198 263 The most metal-poor stars. II. Chemical abundances of 190 metal-poor stars including 10 new stars with [Fe/H] ≤ -3.5. YONG D., NORRIS J.E., BESSELL M.S., et al.
2013ApJ...762...28N 15       D               1 106 171 The most metal-poor stars. IV. The two populations with [Fe/H] ≲ -3.0. NORRIS J.E., YONG D., BESSELL M.S., et al.
2012A&A...548A..34A viz 15       D               4 134 38 Elemental abundances and classification of carbon-enhanced metal-poor stars. ALLEN D.M., RYAN S.G., ROSSI S., et al.
2014ApJ...788..180C viz 15       D               1 329 52 Carbon-enhanced metal-poor stars: CEMP-s and CEMP-no subclasses in the halo system of the Milky Way. CAROLLO D., FREEMAN K., BEERS T.C., et al.
2014ApJ...797...21P viz 15       D               2 606 226 Carbon-enhanced metal-poor star frequencies in the galaxy: corrections for the effect of evolutionary status on carbon abundances. PLACCO V.M., FREBEL A., BEERS T.C., et al.
2015ApJ...803...17Z 39           X         1 15 2 The evolved pulsating CEMP star HD 112869. ZACS L., SPERAUSKAS J., GRANKINA A., et al.
2015A&A...581A..22A viz 16       D               4 66 34 Carbon-enhanced metal-poor stars: a window on AGB nucleosynthesis and binary evolution. II. Statistical analysis of a sample of 67 CEMP-s stars. ABATE C., POLS O.R., IZZARD R.G., et al.
2016A&A...586A.158J viz 252       D     X C       6 48 33 Binary properties of CH and carbon-enhanced metal-poor stars. JORISSEN A., VAN ECK S., VAN WINCKEL H., et al.
2016ApJ...833...20Y viz 16       D               1 304 147 Observational constraints on first-star nucleosynthesis. I. Evidence for multiple progenitors of CEMP-no stars. YOON J., BEERS T.C., PLACCO V.M., et al.
2020MNRAS.498.3549M 1646     A D S   X C       39 15 ~ Constraining nucleosynthesis in two CEMP progenitors using fluorine. MURA-GUZMAN A., YONG D., ABATE C., et al.
2021A&A...645A..61K viz 209     A D     X         6 27 23 Low-mass low-metallicity AGB stars as an efficient i-process site explaining CEMP-rs stars. KARINKUZHI D., VAN ECK S., GORIELY S., et al.
2021A&A...648A.119C 18       D               1 15 26 The intermediate neutron capture process. I. Development of the i-process in low-metallicity low-mass AGB stars. CHOPLIN A., SIESS L. and GORIELY S.
2021ApJ...922...28P 1338     A D     X C       32 9 4 Observational evidence points at AGB stars as possible progenitors of CEMP-s and CEMP-r/s stars. PURANDARDAS M. and GOSWAMI A.
2022AJ....163..152S viz 17       D               1 583193 11 APOGEE Net: An Expanded Spectral Model of Both Low-mass and High-mass Stars. SPRAGUE D., CULHANE C., KOUNKEL M., et al.
2022ApJS..259...35A viz 17       D               1 611005 320 The Seventeenth Data Release of the Sloan Digital Sky Surveys: Complete Release of MaNGA, MaStar, and APOGEE-2 Data. ABDURRO'UF, ACCETTA K., AERTS C., et al.
2022A&A...668A.100G viz 85         O X         2 5 2 Nucleosynthetic yields of intermediate-mass primordial to extremely metal-poor stars. GIL-PONS P., DOHERTY C.L., CAMPBELL S.W., et al.
2023ApJ...947...23Z viz 17       D               1 647 14 Chemodynamically Tagged Groups of CEMP Stars in the Halo of the Milky Way. I. Untangling the Origins of CEMP-s and CEMP-no Stars. ZEPEDA J., BEERS T.C., PLACCO V.M., et al.
2024A&A...687A.260R 18       D               1 29 ~ The impact of overshoot on the i-process in AGB stars. REMPLE B.A., BATTICH T. and WEISS A.
2025MNRAS.538.3177M 233           X C F     3 10 ~ Fluorine abundances in CEMP stars at the lowest metallicity: hints on the nature of the first stars. MURA-GUZMAN A., YONG D., KOBAYASHI C., et al.
2025A&A...696A.241T 47           X         1 7 ~ Fluorine production in He-burning regions of massive stars during cosmic history. TSIATSIOU S., MEYNET G., FARRELL E., et al.

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