SF
S. Feltzing
astro-ph.GAastro-ph.SRastro-phastro-ph.IMastro-ph.COastro-ph.EPastro-ph.HE
On Valency
published · living versionsW_qeuhnzz7·v1 · currentpublished
Young stars in an old bulge: a natural outcome of internal evolution in the Milky Way
with M. Ness, Victor. P. Debattista, T. Bensby, R. Roskar +3
1 version
W_twhp8u2d·v1published
W_snwmudhw·v1published
Preprints & journals
153 papers in the corpus · 1997–2026A Broken Clock Is Right Twice a Day: [Ce/Mg] Is Not a Universal Chemical Clock2608.26261v1 · Liam O. Dubay, Jennifer A. Johnson, James W. Johnson et al.2026 · 0 citationsarXiv
Dawn of the Milky Way disk: Determination of when a rotationally supported disk appears and dating the spin-up of the disk2605.20959v1 · Sofia Feltzing, Diane Feuillet, Thomas Bensby2026 · 0 citationsarXiv
Abundances in 78 metal-rich bulge spheroid stars from APOGEE2602.12415v1 · H. Ernandes, B. Barbuy, C. Chiappini et al.2026 · 3 citationsarXiv
First large scale spatial and velocity patterns of local metal-rich stars in the Milky Way2509.17420v1 · Georges Kordopatis, Diane Feuillet, Christian Lehmann et al.2025 · 1 citationA&A 703, A151 (2025)
Disentangling Milky Way halo populations at low metallicities using [Al/Fe]2509.06773v2 · H. Ernandes, 'A. Sk'ulad'ottir, S. Feltzing et al.2025 · 6 citationsA&A 703, A256 (2025)
Abundances of P, S, and K in 58 bulge spheroid stars from APOGEE2507.11667v1 · B. Barbuy, H. Ernandes, A.C.S. Friaca et al.2025 · 8 citationsarXiv
Evidence of Gaia Enceladus experiencing at least two passages around the Milky Way2506.00409v1 · 'Asa Sk'ulad'ottir, Heitor Ernandes, Diane K. Feuillet et al.2025 · 10 citationsarXiv
Abundances of iron-peak elements in 58 bulge spheroid stars from APOGEE2410.13751v1 · B. Barbuy, A.C.S. Friaca, H. Ernandes et al.2024 · 7 citationsarXiv
The PLATO Mission2406.05447v2 · Heike Rauer, Conny Aerts, Juan Cabrera et al.2024 · 13 citationsarXiv
The Extremely Metal Rich Knot of Stars at the Heart of the Galaxy2406.01706v1 · Hans-Walter Rix, Vedant Chandra, Gail Zasowski et al.2024 · 21 citationsarXiv
Probing the strength of radial migration via churning by using metal-rich red giant stars from APOGEE2405.19089v2 · Christian Lehmann, Sofia Feltzing, Diane Feuillet et al.2024 · 8 citationsarXiv
Gaia-Sausage-Enceladus star formation history as revealed by detailed elemental abundances2405.13641v3 · H. Ernandes, D. Feuillet, S. Feltzing et al.2024 · 18 citationsA&A 691, A333 (2024)
The Gaia-ESO Survey: Calibrating the lithium-age relation with open clusters and associations. II. Expanded cluster sample and final membership selection2404.08859v1 · M.L. Guti'errez Albarr'an, D. Montes, H.M. Tabernero et al.2024 · 0 citationsarXiv
The Gaia-ESO Survey: homogenisation of stellar parameters and elemental abundances2304.07720v1 · A. Hourihane, P. Francois, C. C. Worley et al.2023 · 51 citationsA&A 676, A129 (2023)
The metal-weak Milky Way stellar disk hidden in the Gaia-Sausage-Enceladus debris: the APOGEE DR17 view2303.00016v2 · Sofia Feltzing, Diane Feuillet2023 · 21 citationsarXiv
The wide-field, multiplexed, spectroscopic facility WEAVE: Survey design, overview, and simulated implementation2212.03981v2 · Shoko Jin, Scott C. Trager, Gavin B. Dalton et al.2022 · 221 citationsarXiv
The Gaia-ESO Public Spectroscopic Survey: Motivation, implementation, GIRAFFE data processing, analysis, and final data products2208.05432v1 · G. Gilmore, S. Randich, C. C. Worley et al.2022 · 136 citationsA&A 666, A120 (2022)
An old, metal-rich accreted stellar component in the Milky Way stellar disk2206.03875v1 · Diane K. Feuillet, Sofia Feltzing, Christian Sahlholdt et al.2022 · 20 citationsarXiv
The Gaia-ESO Public Spectroscopic Survey: Implementation, data products, open cluster survey, science, and legacy2206.02901v1 · S. Randich, G. Gilmore, L. Magrini et al.2022 · 189 citationsarXiv
The Gaia-ESO Survey: Chemical tagging in the thin disk. Open clusters blindly recovered in the elemental abundance space2203.14991v1 · L. Spina, L. Magrini, G. G. Sacco et al.2022 · 15 citationsA&A 668, A16 (2022)
The Gaia-ESO Survey: Age-chemical-clock relations spatially resolved in the Galactic disc2202.04863v1 · C. Viscasillas V'azquez, L. Magrini, G. Casali et al.2022 · 50 citationsA&A 660, A135 (2022)
Characterizing epochs of star formation across the Milky Way disc using age-metallicity distributions of GALAH stars2112.08218v1 · Christian L. Sahlholdt, Sofia Feltzing, Diane K. Feuillet2021 · 54 citationsarXiv
Detailed elemental abundances of binary stars: Searching for signatures of planet formation and atomic diffusion2108.11001v1 · Fan Liu, Bertram Bitsch, Martin Asplund et al.2021 · 30 citationsarXiv
Chemical evolution of the Galactic bulge as traced by microlensed dwarf and subgiant stars. VIII. Carbon and oxygen2106.11314v2 · T. Bensby, A. Gould, M. Asplund et al.2021 · 12 citationsA&A 655, A117 (2021)
Selecting accreted populations: metallicity, elemental abundances, and ages of the Gaia-Sausage-Enceladus and Sequoia populations2105.12141v2 · Diane K. Feuillet, Christian L. Sahlholdt, Sofia Feltzing et al.2021 · 102 citationsarXiv
The COMBS Survey -- II. Distinguishing the Metal-Poor Bulge from the Halo Interlopers2009.03886v3 · Madeline Lucey, Keith Hawkins, Melissa Ness et al.2020 · 43 citationsarXiv
The Gaia-ESO Survey: Calibrating the lithium-age relation with open clusters and associations. I. Cluster age range and initial membership selections2009.00610v1 · M.L. Guti'errez Albarr'an, D. Montes, M. G'omez Garrido et al.2020 · 40 citationsA&A 643, A71 (2020)
An optimised tiling pattern for multi-object spectroscopic surveys: application to the 4MOST survey2007.03307v1 · E. Tempel, T. Tuvikene, M. M. Muru et al.2020 · 10 citationsarXiv
The Gaia-ESO survey: the non-universality of the age-chemical-clocks-metallicity relations in the Galactic disc2006.05763v1 · G. Casali, L. Spina, L. Magrini et al.2020 · 90 citationsA&A 639, A127 (2020)
VINTERGATAN I: The origins of chemically, kinematically and structurally distinct discs in a simulated Milky Way-mass galaxy2006.06008v2 · Oscar Agertz, Florent Renaud, Sofia Feltzing et al.2020 · 171 citationsarXiv
The HR 1614 moving group is not a dissolving cluster2005.05054v2 · Iryna Kushniruk, Thomas Bensby, Sofia Feltzing et al.2020 · 15 citationsA&A 638, A154 (2020)
The GALAH survey: Multiple stars and our Galaxy. I. A comprehensive method for deriving properties of FGK binary stars2005.00014v1 · G. Traven, S. Feltzing, T. Merle et al.2020 · 70 citationsA&A 638, A145 (2020)
The SkyMapper-Gaia RVS view of the Gaia-Enceladus-Sausage -- an investigation of the metallicity and mass of the Milky Way's last major merger2003.11039v2 · Diane K Feuillet, Sofia Feltzing, Christian Sahlholdt et al.2020 · 118 citationsarXiv
Chemical evolution of the Galactic bulge as traced by microlensed dwarf and subgiant stars. VII. Lithium2001.06222v1 · T. Bensby, S. Feltzing, J.C. Yee et al.2020 · 17 citationsA&A 634, A130 (2020)
Constraining churning and blurring in the Milky Way using large spectroscopic surveys -- an exploratory study1907.08011v1 · Sofia Feltzing, J. Bradley Bowers, Oscar Agertz2019 · 45 citationsarXiv
The Gaia-ESO survey: Calibrating a relationship between Age and the [C/N] abundance ratio with open clusters1907.07350v2 · G. Casali, L. Magrini, E. Tognelli et al.2019 · 64 citationsA&A 629, A62 (2019)
Characteristics of the two sequences seen in the high-velocity Hertzsprung-Russell diagram in Gaia DR21907.05652v2 · Christian L. Sahlholdt, Luca Casagrande, Sofia Feltzing2019 · 30 citationsarXiv
The Gaia-ESO Survey: The inner disc, intermediate-age open cluster Pismis 181906.09828v1 · D. Hatzidimitriou, E. V. Held, E. Tognelli et al.2019 · 17 citationsAstronomy & Astrophysics, 2019, Volume 626, id.A90, 14 pp
The COMBS survey I: Chemical Origins of Metal-Poor Stars in the Galactic Bulge1903.11615v2 · Madeline Lucey, Keith Hawkins, Melissa Ness et al.2019 · 34 citationsarXiv
4MOST: Project overview and information for the First Call for Proposals1903.02464v2 · R.S. de Jong, O. Agertz, A. Agudo Berbel et al.2019 · 406 citationsThe Messenger, 2019, 175, 3
4MOST Scientific Operations1903.02465v2 · C.J. Walcher, M. Banerji, C. Battistini et al.2019 · 14 citationsThe Messenger, 2019, 175, 12
4MOST Survey Strategy Plan1903.02466v2 · G. Guiglion, C. Battistini, C.P.M. Bell et al.2019 · 11 citationsThe Messenger, 2019, 175, 17
4MOST Consortium Survey 1: The Milky Way Halo Low-Resolution Survey1903.02467v3 · A. Helmi, M. Irwin, A. Deason et al.2019 · 13 citationsThe Messenger, 2019, 175, 23
4MOST Consortium Survey 2: The Milky Way Halo High-Resolution Survey1903.02468v2 · N. Christlieb, C. Battistini, P. Bonifacio et al.2019 · 15 citationsThe Messenger, 2019, 175, 26
4MOST Consortium Survey 3: Milky Way Disc and Bulge Low-Resolution Survey (4MIDABLE-LR)1903.02469v2 · C. Chiappini, I. Minchev, E. Starkenburg et al.2019 · 27 citationsThe Messenger, 2019, 175, 30
4MOST Consortium Survey 4: Milky Way Disc and Bulge High-Resolution Survey (4MIDABLE-HR)1903.02470v2 · T. Bensby, M. Bergemann, J. Rybizki et al.2019 · 16 citationsThe Messenger, 2019, 175, 35
4MOST Consortium Survey 9: One Thousand and One Magellanic Fields (1001MC)1903.02475v2 · M.-R.L. Cioni, J. Storm, C.P.M. Bell et al.2019 · 18 citationsThe Messenger, 2019, 175, 54
Chemical (in)homogeneity and atomic diffusion in the open cluster M671902.11008v2 · F. Liu, M. Asplund, D. Yong et al.2019 · 69 citationsA&A 627, A117 (2019)
Benchmark ages for the Gaia benchmark stars1810.02829v1 · Christian L. Sahlholdt, Sofia Feltzing, Lennart Lindegren et al.2018 · 46 citationsarXivon Valency
The ELT-MOS (MOSAIC): towards the construction phase1807.00720v2 · Simon Morris, Francois Hammer, Pascal Jagourel et al.2018 · 6 citationsarXiv
Career total: at least 336 works. 153 are in this corpus.Showing the 50 most recent.
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