Dynamical Asteroseismology: towards improving the theories of stellar structure and (tidal) evolution

The potential of the dynamical asteroseismology, the research area that builds upon the synergies between the asteroseismology and binary stars research fields, is discussed in this manuscript. We touch upon the following topics: i) the mass discrepancy observed in intermediate-to high-mass main-seq...

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Main Author: Tkachenko Andrew
Format: Article
Language:English
Published: EDP Sciences 2017-01-01
Series:EPJ Web of Conferences
Online Access:https://doi.org/10.1051/epjconf/201716005007
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spelling doaj-633380a778554ea2946a43795b6e1e1f2021-08-02T07:00:27ZengEDP SciencesEPJ Web of Conferences2100-014X2017-01-011600500710.1051/epjconf/201716005007epjconf_azores2017_05007Dynamical Asteroseismology: towards improving the theories of stellar structure and (tidal) evolutionTkachenko AndrewThe potential of the dynamical asteroseismology, the research area that builds upon the synergies between the asteroseismology and binary stars research fields, is discussed in this manuscript. We touch upon the following topics: i) the mass discrepancy observed in intermediate-to high-mass main-sequence and evolved binaries as well as in the low mass systems that are still in the pre-main sequence phase of their evolution; ii) the rotationally induced mixing in high-mass stars, in particular how the most recent theoretical predictions and spectroscopic findings compare to the results of asteroseismic investigations; iii) internal gravity waves and their potential role in the evolution of binary star systems and surface nitrogen enrichment in high-mass stars; iv) the tidal evolution theory, in particular how its predictions of spin-orbit synchronisation and orbital circularisation compare to the present-day high-quality observations; v) the tidally-induced pulsations and their role in the angular momentum transport within binary star systems; vi) the scaling relations between fundamental and seismic properties of stars across the entire HR-diagram.https://doi.org/10.1051/epjconf/201716005007
collection DOAJ
language English
format Article
sources DOAJ
author Tkachenko Andrew
spellingShingle Tkachenko Andrew
Dynamical Asteroseismology: towards improving the theories of stellar structure and (tidal) evolution
EPJ Web of Conferences
author_facet Tkachenko Andrew
author_sort Tkachenko Andrew
title Dynamical Asteroseismology: towards improving the theories of stellar structure and (tidal) evolution
title_short Dynamical Asteroseismology: towards improving the theories of stellar structure and (tidal) evolution
title_full Dynamical Asteroseismology: towards improving the theories of stellar structure and (tidal) evolution
title_fullStr Dynamical Asteroseismology: towards improving the theories of stellar structure and (tidal) evolution
title_full_unstemmed Dynamical Asteroseismology: towards improving the theories of stellar structure and (tidal) evolution
title_sort dynamical asteroseismology: towards improving the theories of stellar structure and (tidal) evolution
publisher EDP Sciences
series EPJ Web of Conferences
issn 2100-014X
publishDate 2017-01-01
description The potential of the dynamical asteroseismology, the research area that builds upon the synergies between the asteroseismology and binary stars research fields, is discussed in this manuscript. We touch upon the following topics: i) the mass discrepancy observed in intermediate-to high-mass main-sequence and evolved binaries as well as in the low mass systems that are still in the pre-main sequence phase of their evolution; ii) the rotationally induced mixing in high-mass stars, in particular how the most recent theoretical predictions and spectroscopic findings compare to the results of asteroseismic investigations; iii) internal gravity waves and their potential role in the evolution of binary star systems and surface nitrogen enrichment in high-mass stars; iv) the tidal evolution theory, in particular how its predictions of spin-orbit synchronisation and orbital circularisation compare to the present-day high-quality observations; v) the tidally-induced pulsations and their role in the angular momentum transport within binary star systems; vi) the scaling relations between fundamental and seismic properties of stars across the entire HR-diagram.
url https://doi.org/10.1051/epjconf/201716005007
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