, Nucl. Phys. A, vol.656, p.3, 1999.
, Science, vol.332, p.205, 2011.
, Nature, vol.471, p.608, 2011.
, A&A, vol.579, p.30, 2015.
, A&A, vol.579, p.31, 2015.
, Z. Astrophys, vol.46, p.108, 1958.
, ApJ, vol.788, p.93, 2014.
, A&A, vol.555, p.54, 2013.
, Principles of Stellar Structure, 1968.
, A&A, vol.564, p.27, 2014.
, Nature, vol.459, p.398, 2009.
, A&A, vol.506, p.57, 2009.
, A&A, vol.544, p.4, 2012.
, A&A, vol.599, p.18, 2017.
, ApJ, vol.623, p.585, 2005.
, ApJ, vol.796, p.17, 2014.
, EPJ Web Conf, vol.160, p.4005, 2017.
, A&A, vol.549, p.75, 2013.
, Phys. Scr, vol.47, p.133, 1993.
, A&A, vol.572, p.11, 2014.
, A&ARv, vol.25, p.1, 2017.
, ApJ, vol.464, p.943, 1996.
, A&A, vol.509, p.77, 2010.
, A&A, vol.293, p.87, 1995.
, A&A, vol.543, p.108, 2012.
, MNRAS, vol.457, p.59, 2016.
, ApJ, vol.114, p.373, 1951.
, A&A, vol.549, p.74, 2013.
, ApJ, vol.766, p.118, 2013.
, The CoRot Legacy Book: The Adventure of the Ultra High Precision Photometry from space, p.197, 2016.
, A&A, vol.525, p.9, 2011.
, A&A, vol.537, p.30, 2012.
, A&A, vol.548, p.10, 2012.
, A&A, vol.540, p.143, 2012.
, A&A, vol.550, p.126, 2013.
, A&A, vol.572, p.5, 2014.
, A&A, vol.584, p.50, 2015.
, A&A, vol.598, p.62, 2017.
, A&A, vol.554, p.80, 2013.
, ApJS, vol.192, p.3, 2011.
, ApJS, vol.208, p.4, 2013.
, ApJS, vol.220, p.15, 2015.
, A&A, p.31, 2017.
, ApJS, vol.215, p.19, 2014.
, ApJ, vol.576, p.1064, 2002.
, A&A, vol.573, p.80, 2015.
, A&A, vol.36, p.107, 1974.
, A&A, vol.589, p.23, 2016.
, ApJ, vol.765, p.41, 2013.
, A&A, vol.317, p.749, 1997.
, Nonradial Oscillations of Stars, 1989.
, A&A, vol.588, p.87, 2016.
, EPJ Web Conf, vol.160, p.4012, 2017.
, A&A, vol.265, p.115, 1992.
, ApJS, vol.233, p.25, 2017.
, The CoRoT Mission Pre-Launch Status -Stellar Seismology and Planet Finding, vol.1306, p.377, 2006.
, ApJ, vol.729, p.10, 2011.
, A&A, vol.538, p.73, 2012.
, Science, vol.332, p.205, 2011.
, Nature, vol.481, p.55, 2012.
, Nature, vol.471, p.608, 2011.
, A&A, vol.579, p.31, 2015.
, A&A, vol.579, p.30, 2015.
, ApJ, vol.767, p.158, 2013.
, ApJ, vol.781, p.29, 2014.
, MNRAS, vol.453, p.2290, 2015.
, MNRAS, vol.469, p.4718, 2017.
, A&A, vol.588, p.82, 2016.
, Progress in Solar/Stellar Physics with Helio-and Asteroseismology, vol.462, p.503, 2012.
, A&A, vol.579, p.83, 2015.
, A&A, vol.612, p.2, 2018.
, Nature Astronomy, vol.1, p.64, 2017.
, ApJ, vol.805, p.127, 2015.
, A&A, vol.580, p.96, 2015.
, A&A, vol.564, p.27, 2014.
, A&A, p.75, 2017.
, ApJ, vol.817, p.65, 2016.
, A&A, vol.506, p.57, 2009.
, MNRAS, vol.466, p.3344, 2017.
, MNRAS, vol.414, p.6, 2011.
, A&A, vol.563, p.84, 2014.
, MNRAS, vol.476, p.1470, 2018.
, A&A, vol.506, p.7, 2009.
, European Physical Journal Web of Conferences, vol.160, p.4005, 2016.
, , 2018.
, A&A, vol.549, p.75, 2013.
, A&A, vol.572, p.11, 2014.
, MNRAS, vol.472, p.979, 2017.
, A&A Rev, p.25, 2017.
, A&A, vol.610, p.80, 2018.
, ApJ, vol.713, p.87, 2010.
, A&A, vol.541, p.51, 2012.
, ApJ, vol.859, p.156, 2018.
, MNRAS, vol.457, p.59, 2016.
, ApJ, vol.387, p.712, 1992.
, MNRAS, vol.419, p.2077, 2012.
, Astronomische Nachrichten, vol.338, p.644, 2017.
, A&A, vol.520, p.6, 2010.
, ApJ, vol.766, p.118, 2013.
, A&A, vol.508, p.877, 2009.
, A&A, vol.532, p.86, 2011.
, A&A, vol.525, p.9, 2011.
, A&A, vol.598, p.62, 2017.
, A&A, vol.572, p.5, 2014.
, A&A, vol.559, p.137, 2013.
, A&A, vol.537, p.30, 2012.
, A&A, vol.540, p.143, 2012.
, A&A, vol.548, p.10, 2012.
, A&A, vol.600, p.1, 2017.
, A&A, vol.584, p.50, 2015.
, A&A, vol.554, p.80, 2013.
, A&A, vol.165, p.218, 1986.
, PASJ, vol.31, p.87, 1979.
, ApJ, vol.788, p.10, 2014.
, ApJ, vol.739, p.13, 2011.
, ApJ, vol.835, p.83, 2017.
, PASJ, vol.58, p.893, 2006.
, PASJ, vol.68, p.109, 2016.
, PASJ, vol.68, p.91, 2016.
, ApJS, vol.43, p.469, 1980.
, A&A, vol.602, p.62, 2017.
, Nonradial oscillations of stars, 1989.
, A&A, vol.579, p.84, 2015.
, A&A, p.588, 2016.
, hydrogène en fusion, lorsque l'on s'approche du point d'inversion entre les zones en contraction et en dilatation où la variation du moment d'inertie est nulle. Ainsi, pour un modèle donné, le taux d'extraction du moment cinétique en fonction du temps dans les régions en contraction est dominé par les régions
, Pour un modèle d'une masse donnée, la variation locale du moment d'inertie est de plus en plus importante au cours de l'évolution dans les régions qui sont progressivement accrétées dans le coeur d'hélium inerte, et un gradient de variation temporelle du moment d'inertie se met en place entre le centre et les régions nouvellement accrétées au cours de l'évolution sur la branche des géantes rouges (Fig 8.3). Cela signifie que le taux de moment cinétique à extraire en fonction du temps pour conserver un profil de rotation
, Les modèles mettent en avant une différence de comportement de l'évolution de la variation locale du moment d'inertie entre les modèles de M < 2.2 M ? et M ? 2.2 M ? : la variation temporelle du moment d'inertie des régions situées dans le coeur d'hélium inerte augmente d'environ un ordre de grandeur le long de la branche des géantes rouges pour les étoiles de M < 2.2 M ? , alors qu'elle diminue d'environ un ordre de grandeur dans ces régions pour les
, On observe également que la différence de variation du moment d'inertie entre la zone autour de la couche d'hydrogène en fusion et le coeur d'hélium augmente au cours de l'évolution mais diminue avec la masse. Pour le premier modèle sur la branche des géantes rouges, cette différence passe de trois ordres de grandeur pour une étoile de 1 M ? à un ordre de grandeur pour une étoile de 2.5 M ? ; pour le dernier modèle, elle passe de huit ordres de grandeur pour une étoile de 1 M ? à trois ordre de grandeur pour une étoile de 2.5 M ? (Fig 8.3). Cela signifie que, Cela signifie qu'en supposant un profil de rotation constant dans le coeur en fonction du temps, le taux d'extraction du moment cinétique en fonction du temps augmente dans le coeur d'hélium inerte de manière comparable au cours de l'évolution sur la branche des géantes rouges pour les étoiles de M < 2
, Pour les modèles de masses comprises entre 1 et 2.2 M ? , on remarque qu'à un moment de l'évolution la variation temporelle du moment d'inertie devient moins importante au niveau de la base de la couche d'hydrogène en fusion, avant de recommencer à augmenter (Fig. 8.3). Cette inversion dans l'évolution de la variation du moment d'inertie de la base de la couche d'hydrogène en fusion n'est pas visible pour une étoile de 2.5 M ? . Elle survient entre le troisième et le quatrième modèle, On peut noter une caractéristique intéressante au cours de l'évolution sur la branche des géantes rouges
,
, Asteroseismology, 2010.
A compilation of charged-particle induced thermonuclear reaction rates, Nuclear Physics A, vol.656, pp.3-183, 1999. ,
URL : https://hal.archives-ouvertes.fr/in2p3-00002757
On posterior probability and significance level: application to the power spectrum of HD 49 933 observed by CoRoT, A&A, vol.506, pp.1-5, 2009. ,
The Chemical Composition of the Sun, Annual Review of Astronomy & Astrophysics, vol.47, pp.481-522, 2009. ,
Hough transform for robust regression and automated detection, A&A, vol.286, pp.1011-1018, 1994. ,
Solarlike oscillations of Procyon A: stellar models and time series simulations versus observations, A&A, vol.350, pp.617-625, 1999. ,
,
Sounding Open Clusters: Asteroseismic Constraints from Kepler on the Properties of NGC 6791 and NGC 6819, ApJL, vol.729, p.10, 2011. ,
Modelling a high-mass red giant observed by CoRoT, A&A, vol.538, p.73, 2012. ,
URL : https://hal.archives-ouvertes.fr/hal-00855777
, Jenkins. Kepler Detected Gravity-Mode Period Spacings in a Red Giant Star. Science, vol.332, p.205, 2011.
Constraining the core-rotation rate in red-giant stars from Kepler space photometry, Astronomische Nachrichten, vol.333, p.967, 2012. ,
,
Pulsating red giant stars in eccentric binary systems discovered from Kepler space-based photometry. A sample study and the analysis of KIC 5006817, A&A, vol.564, p.36, 2014. ,
URL : https://hal.archives-ouvertes.fr/cea-01236275
Fast core rotation in red-giant stars as revealed by gravity-dominated mixed modes, Nature, vol.481, pp.55-57, 2012. ,
URL : https://hal.archives-ouvertes.fr/cea-00881388
Gravity modes as a way to distinguish between hydrogen-and helium-burning red giant stars, Nature, vol.471, pp.608-611, 2011. ,
URL : https://hal.archives-ouvertes.fr/cea-00904006
The underlying physical meaning of the ? max -? c relation, A&A, vol.530, p.142, 2011. ,
Angular momentum redistribution by mixed modes in evolved low-mass stars. II. Spin-down of the core of red giants induced by mixed modes, A&A, vol.579, p.31, 2015. ,
URL : https://hal.archives-ouvertes.fr/cea-01300613
Angular momentum redistribution by mixed modes in evolved low-mass stars. I. Theoretical formalism, A&A, vol.579, p.30, 2015. ,
URL : https://hal.archives-ouvertes.fr/cea-01300613
Asteroseismology of Evolved Stars with Kepler: A New Way to Constrain Stellar Interiors Using Mode Inertias, The Astrophysical Journal Letters, vol.781, p.29, 2014. ,
Stellar evolution of low and intermediate-mass stars. I. Mass loss on the AGB and its consequences for stellar evolution, A&A, vol.297, p.727, 1995. ,
Über die Wasserstoffkonvektionszone in Sternen verschiedener Effektivtemperaturen und Leuchtkräfte. Mit 5 Textabbildungen. Über die Wasserstoffkonvektionszone in Sternen verschiedener Effektivtemperaturen und Leuchtkräfte, vol.46, p.108, 1958. ,
P-mode observations on ? Cen A, A&A, vol.374, pp.5-8, 2001. ,
The sun and asteroseismology, Frontiers of Stellar Evolution, vol.20, pp.139-183, 1991. ,
Testing the asymptotic relation for period spacings from mixed modes of red giants observed with the Kepler mission, A&A, vol.588, p.82, 2016. ,
Angular Momentum Transport within Evolved Low-mass Stars, ApJ, vol.788, p.93, 2014. ,
Understanding angular momentum transport in red giants: the case of KIC 7341231, A&A, vol.555, p.54, 2013. ,
URL : https://hal.archives-ouvertes.fr/cea-01135408
, New. BiSON Performance. Solar Physics, vol.168, pp.1-18, 1996.
Lecture notes on stellar oscillations, 2003. ,
ADIPLS: Aarhus Adiabatic Oscillation Package (ADIPACK), 2011. ,
Stellar 5 min oscillations, Solar Physics, vol.82, pp.469-486, 1983. ,
Seismology of solar oscillation line widths, ApJL, vol.341, pp.103-106, 1989. ,
Solar structure from global studies of the 5-minute oscillation, Nature, vol.282, pp.591-594, 1979. ,
Bayesian peak bagging analysis of 19 low-mass low-luminosity red giants observed with Kepler, A&A, vol.579, p.83, 2015. ,
URL : https://hal.archives-ouvertes.fr/cea-01300612
Spin alignment of stars in old open clusters, Nature Astronomy, vol.1, p.64, 2017. ,
The non-radial oscillations of polytropic stars, MNRAS, vol.101, p.367, 1941. ,
Principles of stellar structure, 1968. ,
Structural Glitches near the Cores of Red Giants Revealed by Oscillations in g-mode Period Spacings from Stellar Models, ApJ, vol.805, p.127, 2015. ,
Non-radial oscillation modes with long lifetimes in giant stars, Nature, vol.459, pp.398-400, 2009. ,
Seismic evidence for a weak radial differential rotation in intermediate-mass core helium burning stars, A&A, vol.580, p.96, 2015. ,
URL : https://hal.archives-ouvertes.fr/cea-01383662
, Seismic constraints on the radial dependence of the internal rotation profiles of six Kepler subgiants and young red giants, vol.564, p.27, 2014.
URL : https://hal.archives-ouvertes.fr/cea-01236278
Seismic Evidence for a Rapidly Rotating Core in a Lower-giant-branch Star Observed with Kepler, ApJ, vol.756, p.19, 2012. ,
Near-degeneracy effects on the frequencies of rotationally-split mixed modes in red giants, A&A, vol.605, p.75, 2017. ,
Observations of low wavenumber nonradial eigenmodes of the sun, A&A, vol.44, pp.371-375, 1975. ,
Differential rotation of the solar interior: new helioseismic results by inversion of the SOI-MDI/SOHO data, vol.69, p.559, 1998. ,
Internal Rotation of the Red-giant Star KIC 4448777 by Means of Asteroseismic Inversion, ApJ, vol.817, p.65, 2016. ,
Theoretical amplitudes and lifetimes of non-radial solar-like oscillations in red giants, A&A, vol.506, pp.57-67, 2009. ,
,
Helium content in the solar convective envelope from helioseismology, MNRAS, vol.249, pp.602-605, 1991. ,
Constraining the efficiency of angular momentum transport with asteroseismology of red giants: the effect of stellar mass, A&A, vol.599, p.18, 2017. ,
URL : https://hal.archives-ouvertes.fr/hal-01719285
Angular momentum transport in stellar interiors constrained by rotational splittings of mixed modes in red giants, A&A, vol.544, p.4, 2012. ,
The Importance of Long-Term Synoptic Observations and Data Sets for Solar Physics and Helioseismology, Space Science Reviews, vol.196, pp.137-166, 2015. ,
Observational Study of Macroscopic Inhomogeneities in the Solar Atmosphere. III. Vertical Oscillatory Motions in the Solar Photosphere, ApJ, vol.136, p.493, 1962. ,
Low-Temperature Opacities, ApJ, vol.623, pp.585-596, 2005. ,
The IRIS network for full disk helioseismology -Present status of the programme, Solar Physics, vol.133, pp.1-12, 1991. ,
Asymptotic g modes: Evidence for a rapid rotation of the solar core, A&A, vol.604, p.40, 2017. ,
Detection of Solar-like oscillations in the G7 giant star ? Hya, A&A, vol.394, pp.5-8, 2002. ,
Angular Momentum Transport via Internal Gravity Waves in Evolving Stars, ApJ, vol.796, p.17, 2014. ,
, , vol.162, pp.61-99, 1995.
New insights on the solar core, Journal of Physics Conference Series, vol.271, p.12046, 2011. ,
Tracking Solar Gravity Modes: The Dynamics of the Solar Core, Science, vol.316, p.1591, 2007. ,
Measuring the core rotation of red giant stars, 2016. ,
Rapidly rotating red giants, European Physical Journal Web of Conferences, vol.160, p.4005, 2017. ,
DOI : 10.1051/epjconf/201716004005
URL : https://www.epj-conferences.org/articles/epjconf/pdf/2017/29/epjconf_azores2017_04005.pdf
Core rotation braking on the red giant branch for various mass ranges, A&A, vol.616, p.24, 2018. ,
Determining the Inclination of the Rotation Axis of a Sun-like Star, ApJ, vol.589, pp.1009-1019, 2003. ,
Classical mechanics, 2002. ,
Seismic diagnostics for transport of angular momentum in stars. II. Interpreting observed rotational splittings of slowly rotating red giant stars, A&A, vol.549, p.75, 2013. ,
URL : https://hal.archives-ouvertes.fr/hal-00856138
Atomic data and the spectrum of the solar photosphere, Physica Scripta, vol.T, pp.133-138, 1993. ,
Theoretical power spectra of mixed modes in low-mass red giant stars, A&A, vol.572, p.11, 2014. ,
SONG: Stellar Oscillations Network Group . A global network of small telescopes for asteroseismology and planet searches, vol.77, p.458, 2006. ,
NGC 6819: testing the asteroseismic mass scale, mass loss and evidence for products of non-standard evolution, MNRAS, vol.472, pp.979-997, 2017. ,
Stellar interiors : physical principles, structure, and evolution, 2004. ,
Stellar evolution in early phases of gravitational contraction, Publications of the Astronomical Society of Japan, vol.13, 1961. ,
Giant star seismology, The Astronomy and Astrophysics Review, vol.25, p.1, 2017. ,
Gravity mode offset and properties of the evanescent zone in red-giant stars, A&A, vol.610, p.80, 2018. ,
Characteristics of solar-like oscillations in red giants observed in the CoRoT exoplanet field, A&A, vol.506, pp.465-469, 2009. ,
The Global Oscillation Network Group site survey. 1: Data collection and analysis methods, Solar Physics, vol.152, pp.321-349, 1994. ,
Asteroseismology of Red Giants from the First Four Months of Kepler Data: Global Oscillation Parameters for 800 Stars, ApJ, vol.723, pp.1607-1617, 2010. ,
Age and Initial Helium Abundance of Stars in the Globular Cluster M15, Nature, vol.220, pp.143-146, 1968. ,
Updated Opal Opacities, ApJ, vol.464, p.943, 1996. ,
Evolutionary influences on the structure of red-giant acoustic oscillation spectra from 600d of Kepler observations, A&A, vol.541, p.51, 2012. ,
Oscillating red giants in the CoRoT exofield: asteroseismic mass and radius determination, A&A, vol.509, p.77, 2010. ,
URL : https://hal.archives-ouvertes.fr/hal-01438917
Reliability of stellar inclination estimated from asteroseismology: analytical criteria, mock simulations and Kepler data analysis, MNRAS, 2018. ,
The Red-giant Branch Bump Revisited: Constraints on Envelope Overshooting in a Wide Range of Masses and Metallicities, ApJ, vol.859, p.156, 2018. ,
The luminosity function on the subgiant branch of 47 Tucanae A comparison of observation and theory, ApJ, vol.299, pp.674-682, 1985. ,
Stellar Structure and Evolution, 2012. ,
Amplitudes of stellar oscillations: the implications for asteroseismology, A&A, vol.293, pp.87-106, 1995. ,
Thermohaline instability and rotation-induced mixing. III. Grid of stellar models and asymptotic asteroseismic quantities from the pre-main sequence up to the AGB for low-and intermediatemass stars of various metallicities, A&A, vol.543, p.108, 2012. ,
DOI : 10.1051/0004-6361/201117739
URL : https://hal.archives-ouvertes.fr/hal-02009592
Population synthesis to constrain Galactic and stellar physics. I. Determining age and mass of thin-disc red-giant stars, A&A, vol.601, p.27, 2017. ,
DOI : 10.1051/0004-6361/201630253
URL : https://hal.archives-ouvertes.fr/hal-01595877
Periods of 25 Variable Stars in the Small Magellanic Cloud. Harvard College Observatory Circular, vol.173, pp.1-3, 1912. ,
How accurate are stellar ages based on stellar models?. I. The impact of stellar models uncertainties, EAS Publications Series, vol.65, pp.99-176, 2014. ,
DOI : 10.1051/eas/1465004
URL : https://hal.archives-ouvertes.fr/hal-01094517
The Nonradial Oscillations of Gaseous Stars and the Problem of Beta Canis Majoris, ApJ, vol.114, p.373, 1951. ,
A New Description of the Solar Five-Minute Oscillation, Astrophysical Letters, vol.7, pp.191-192, 1971. ,
Velocity Fields in the Solar Atmosphere, ApJ, vol.135, p.474, 1962. ,
Physics, Formation and Evolution of Rotating Stars, 2009. ,
Seismic diagnostics for transport of angular momentum in stars. I. Rotational splittings from the pre-main sequence to the red-giant branch, A&A, vol.549, p.74, 2013. ,
URL : https://hal.archives-ouvertes.fr/hal-00856138
Evidence for global pressure oscillations on Procyon, A&A, vol.351, pp.993-1002, 1999. ,
A Jupiter-mass companion to a solar-type star, Nature, vol.378, pp.355-359, 1995. ,
DOI : 10.1038/378355a0
Asteroseismology of old open clusters with Kepler: direct estimate of the integrated red giant branch mass-loss in NGC 6791 and 6819, MNRAS, vol.419, pp.2077-2088, 2012. ,
, Astronomische Nachrichten, vol.338, pp.644-661, 2017.
Testing Convective-core Overshooting Using Period Spacings of Dipole Modes in Red Giants, ApJ, vol.766, p.118, 2013. ,
CESAM: A code for stellar evolution calculations, A&A Supplement series, vol.124, pp.597-614, 1997. ,
URL : https://hal.archives-ouvertes.fr/hal-01122784
, Hélio & astérosismologie : observations. Master M2 Recherche Spécialité A&A, 2004.
On detecting the large separation in the autocorrelation of stellar oscillation times series, A&A, vol.508, pp.877-887, 2009. ,
Mixed modes in red-giant stars observed with CoRoT, A&A, vol.532, p.86, 2011. ,
The universal red-giant oscillation pattern. An automated determination with CoRoT data, A&A, vol.525, p.9, 2011. ,
Red-giant seismic properties analyzed with CoRoT, A&A, vol.517, p.22, 2010. ,
Dipole modes with depressed amplitudes in red giants are mixed modes, A&A, vol.598, p.62, 2017. ,
URL : https://hal.archives-ouvertes.fr/obspm-02190218
Mixed modes in red giants: a window on stellar evolution, A&A, vol.572, p.5, 2014. ,
URL : https://hal.archives-ouvertes.fr/hal-01094507
Period-luminosity relations in evolved red giants explained by solar-like oscillations, A&A, vol.559, p.137, 2013. ,
Characterization of the power excess of solar-like oscillations in red giants with Kepler, A&A, vol.537, p.30, 2012. ,
Period spacings in red giants IV: Toward a complete description of the mixed-mode pattern, 2018. ,
URL : https://hal.archives-ouvertes.fr/hal-01321683
, , vol.548, p.10, 2012.
Probing the core structure and evolution of red giants using gravity-dominated mixed modes observed with Kepler, A&A, vol.540, p.143, 2012. ,
Asymptotic and measured large frequency separations, A&A, vol.550, p.126, 2013. ,
IV.2 Pulsating red giant stars, p.197, 2016. ,
URL : https://hal.archives-ouvertes.fr/hal-01321683
Period spacings in red giants. III. Coupling factors of mixed modes, A&A, vol.600, p.1, 2017. ,
URL : https://hal.archives-ouvertes.fr/obspm-02190209
Period spacings in red giants. I. Disentangling rotation and revealing core structure discontinuities, A&A, vol.584, p.50, 2015. ,
URL : https://hal.archives-ouvertes.fr/obspm-02190209
Non-perturbative effect of rotation on dipolar mixed modes in red giant stars, A&A, vol.554, p.80, 2013. ,
Pulsational Instability Domains in the Upper Main Sequence, Acta Astronomica, vol.49, pp.119-148, 1999. ,
Modules for Experiments in Stellar Astrophysics (MESA), ApJS, vol.192, p.3, 2011. ,
, Modules for Experiments in Stellar Astrophysics (MESA): Planets, Oscillations, Rotation, and Massive Stars, vol.208, p.4, 2013.
, Modules for Experiments in Stellar Astrophysics (MESA): Binaries, Pulsations, and Explosions, vol.220, p.15, 2015.
Nonradial Oscillations of Stars, ApJ, vol.88, p.189, 1938. ,
Can plume-induced internal gravity waves regulate the core rotation of subgiant stars?, A&A, vol.605, p.31, 2017. ,
, The APOKASC Catalog: An Asteroseismic and Spectroscopic Joint Survey of Targets in the Kepler Fields, vol.215, p.19, 2014.
An Introduction to the Theory of Stellar Structure and Evolution, 2000. ,
Asymptotic properties of low degree solar gravity modes, A&A, vol.165, pp.218-226, 1986. ,
Circumstellar absorption lines and mass loss from red giants. Memoires of the Societe Royale des Sciences de Liege, vol.8, pp.369-382, 1975. ,
Updated and Expanded OPAL Equation-of-State Tables: Implications for Helioseismology, ApJ, vol.576, pp.1064-1074, 2002. ,
The angular momentum transport by unstable toroidal magnetic fields, A&A, vol.573, p.80, 2015. ,
Evolution of Stars and Stellar Populations, 2005. ,
Post first dredge-up [C/N] ratio as age indicator. Theoretical calibration, A&A, vol.583, p.87, 2015. ,
Stellar oscillations -II -The non-adiabatic case, EAS Publications Series, vol.73, pp.111-191, 2015. ,
Excitation of stellar p-modes by turbulent convection. I. Theoretical formulation, A&A, vol.370, pp.136-146, 2001. ,
On the Evolution of the Main-Sequence Stars, ApJ, vol.96, p.161, 1942. ,
Helioseismic Studies of Differential Rotation in the Solar Envelope by the Solar Oscillations Investigation Using the Michelson Doppler Imager, ApJ, vol.505, pp.390-417, 1998. ,
The Non Radial Oscillations of Condensed Polytropes, A&A, vol.36, p.107, 1974. ,
Observations of solar pulsations, Nature, vol.259, pp.87-89, 1976. ,
Modal analysis of stellar nonradial oscillations by an asymptotic method, Astronomical Society of Japan, vol.31, pp.87-104, 1979. ,
Angular momentum transport efficiency in post-main sequence low-mass stars, A&A, vol.589, p.23, 2016. ,
Asteroseismic Classification of Stellar Populations among 13,000 Red Giants Observed by Kepler, ApJL, vol.765, p.41, 2013. ,
An Asteroseismic Membership Study of the Red Giants in Three Open Clusters Observed by Kepler: NGC 6791, NGC 6819, and NGC 6811, ApJ, vol.739, p.13, 2011. ,
Evolutionary sequences for red giant stars, ApJ, Supplement, vol.36, pp.405-437, 1978. ,
Asymptotic analysis of dipolar mixed modes of oscillations in red giant stars, Astronomical Society of Japan, vol.68, p.109, 2016. ,
Physical formulation of mixed modes of stellar oscillations, Publications of the Astronomical Society of Japan, vol.68, p.91, 2016. ,
Anisotropic diffusion and shear instabilities, A&A, vol.317, pp.749-751, 1997. ,
Asymptotic approximations for stellar nonradial pulsations, ApJ, Supplement, vol.43, pp.469-490, 1980. ,
Second-order asymptotic approximations for stellar nonradial acoustic modes, ApJ, vol.358, pp.313-327, 1990. ,
Implications of rapid core rotation in red giants for internal angular momentum transport in stars, ApJ, vol.775, p.1, 2013. ,
Internal rotation of 13 low-mass low-luminosity red giants in the Kepler field, A&A, vol.602, p.62, 2017. ,
Looking for Gravity-Mode Multiplets with the GOLF Experiment aboard SOHO, ApJ, vol.604, pp.455-468, 2004. ,
The Five-Minute Oscillations on the Solar Surface, ApJ, vol.162, p.993, 1970. ,
Interpretation of global solar oscillation frequencies -WIMPS vs initial composition inhomogenieties, In Bulletin of the American Astronomical Society, vol.18, p.989, 1986. ,
Nonradial oscillations of stars, 1989. ,
Helium signature in red giant oscillation patterns observed by Kepler, A&A, vol.579, p.84, 2015. ,
URL : https://hal.archives-ouvertes.fr/cea-01300602
Period spacings in red giants. II. Automated measurement, A&A, vol.588, p.87, 2016. ,
Circulation and turbulence in rotating stars, A&A, vol.265, pp.115-132, 1992. ,