Stellar Evolution in Real Time. II. R Hydrae and an Open-Source Grid of >3000 Seismic TP-AGB Models Computed with MESA

We present a comprehensive characterization of the evolved thermally pulsing asymptotic giant branch (TP-AGB) star R Hydrae (R Hya), building on the techniques applied in Stellar Evolution in Real Time I (Molnár et al.) to T Ursae Minoris. We compute over 3000 theoretical TP-AGB pulse spectra using...

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Veröffentlicht in:The Astrophysical journal 2024-08, Vol.971 (2), p.186
Hauptverfasser: Joyce, Meridith, Molnár, László, Cinquegrana, Giulia, Karakas, Amanda, Tayar, Jamie, Tarczay-Nehéz, Dóra
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container_issue 2
container_start_page 186
container_title The Astrophysical journal
container_volume 971
creator Joyce, Meridith
Molnár, László
Cinquegrana, Giulia
Karakas, Amanda
Tayar, Jamie
Tarczay-Nehéz, Dóra
description We present a comprehensive characterization of the evolved thermally pulsing asymptotic giant branch (TP-AGB) star R Hydrae (R Hya), building on the techniques applied in Stellar Evolution in Real Time I (Molnár et al.) to T Ursae Minoris. We compute over 3000 theoretical TP-AGB pulse spectra using MESA and the corresponding oscillation spectra with GYRE . We combine these with classical observational constraints and nearly 400 years of measurements of R Hya’s period evolution to fit R Hya’s evolutionary and asteroseismic features. Two hypotheses for the mode driving R Hya’s period are considered. Solutions that identify this as the fundamental mode (FM) as well as the first overtone are consistent with observations. Using a variety of statistical tests, we find that R Hya is most likely driven by the FM and currently occupies the “power-down” phase of an intermediate pulse (TP ∼ 9–16). We predict that its pulsation period will continue to shorten for millennia. Supported by calculations from the Monash stellar evolution code, we find that R Hya has most likely undergone third dredge-up in its most recent pulse. The MESA + GYRE model grid used in this analysis includes exact solutions to the linear, adiabatic equations of stellar oscillation for the first 10 radial-order pressure modes for every time step in every evolutionary track. The grid is fully open source and packaged with a data visualization application. This is the first publicly available grid of TP-AGB models with seismology produced with MESA .
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subjects Adiabatic equations
Astronomical models
Asymptotic giant branch stars
Exact solutions
Neutrons
Pulsation
Real time
Scientific visualization
Seismology
Statistical tests
Stellar evolution
Stellar evolutionary models
Stellar oscillations
Stellar seismology
Stellar spectra
title Stellar Evolution in Real Time. II. R Hydrae and an Open-Source Grid of >3000 Seismic TP-AGB Models Computed with MESA
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