Asteroseismology across the HR diagram
Donald Kurtz

TL;DR
Asteroseismology has advanced significantly over the past decade due to space-based photometry, enabling detailed insights into stellar physics across various star types and supporting multiple astrophysical fields.
Contribution
This review highlights recent developments in asteroseismology driven by Kepler and TESS data, expanding the understanding of stellar interiors and evolution.
Findings
Increased number of pulsators across star classes by an order of magnitude
Improved measurements of stellar parameters like mass, radius, and age
Enhanced models of stellar structure and evolution
Abstract
Asteroseismology has grown from its beginnings three decades ago to a mature field teeming with discoveries and applications. This phenomenal growth has been enabled by space photometry with precision times better than ground-based observations, with nearly continuous light curves for durations of weeks to years, and by large scale ground-based surveys spanning years designed to detect all time-variable phenomena. The new high precision data are full of surprises, deepening our understanding of the physics of stars. This review explores asteroseismic developments from the last decade primarily as a result of light curves from the Kepler and TESS space missions for: massive upper main-sequence OBAF stars, pre-main-sequence stars, peculiar stars, classical pulsators, white dwarfs and subdwarfs, and tidally interacting close binaries. The space missions…
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Taxonomy
TopicsAstronomy and Astrophysical Research · Stellar, planetary, and galactic studies · Astronomical Observations and Instrumentation
