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20182022
most citedSchwarzschild and Ledoux are equivalent on evolutionary timescales

29 citations · 68 across the 6 of their papers we have counts for

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9 papers · 1 filter

astro-ph.SR202211 cited

The Stability of Prendergast Magnetic Fields

Emma Kaufman, Daniel Lecoanet, Evan H. Anders +4

Convection in massive main sequence stars generates large scale magnetic fields in their cores which persists as they evolve up the red giant branch. The remnants of these fields m…

astro-ph.SR2022

Moosinesq Convection in the Cores of Moosive Stars

Evan H. Anders, Evan B. Bauer, Adam S. Jermyn +7

Stars with masses have core convection zones during their time on the main sequence. In these moosive stars, convection…

astro-ph.SR2022

Convective Penetration in Early-Type Stars

Adam S. Jermyn, Evan H. Anders, Daniel Lecoanet +1

Observations indicate that the convective cores of stars must ingest a substantial amount of material from the overlying radiative zone, but the extent of this mixing and the mecha…

astro-ph.SR202229 cited

Schwarzschild and Ledoux are equivalent on evolutionary timescales

Evan H. Anders, Adam S. Jermyn, Daniel Lecoanet +4

Stellar evolution models calculate convective boundaries using either the Schwarzschild or Ledoux criterion, but confusion remains regarding which criterion to use. Here we present…

astro-ph.SR202214 cited

A Transparent Window into Early-Type Stellar Variability

Adam S. Jermyn, Evan H. Anders, Matteo Cantiello

Subsurface convection zones are ubiquitous in early-type stars. Driven by narrow opacity peaks, these thin convective regions transport little heat but play an important role in se…

astro-ph.SR2021

Surface Manifestation of Stochastically Excited Internal Gravity Waves

Daniel Lecoanet, Matteo Cantiello, Evan H. Anders +5

Recent photometric observations of massive stars show ubiquitous low-frequency "red-noise" variability, which has been interpreted as internal gravity waves (IGWs). Simulations of…