Red supergiants and neutrino emission.
Red supergiants as old derivatives of main sequence O and B stars, discussing neutrino emissions and carbon core contraction
Engineering topics
Publications and source records attributed to Stothers, R..
Red supergiants as old derivatives of main sequence O and B stars, discussing neutrino emissions and carbon core contraction
Structure and pulsational properties of massive stars with helium cores and thin hydrogen poor envelopes
Normal O, blue supergiants and brightest yellow and red supergiant massive stars, considering evolution, luminosity, lifetime mass loss, pulsational instability and supernovae
UV dwarfs observational lifetime, considering progenitor main sequence, red giants and planetary nebulae central stars evolutionary sequence
Variable He star HZ29, noting unusually wide and shallow He I lines and possible mass and composition
Massive supergiant star models construction for core He plasma burning evolution phase, discussing luminosity and temperature sensitivity to internal instability
Blue supergiant stars pulsational stability and brightness constancy using model interiors, considering surface shell energy source and stellar evolution implications
Red supergiant pulsar hypothesis using Q values derived from stellar luminosity, period, and spectrum
Radial pulsation model for helium-burning main sequence star
Structure and pulsational properties of hydrogen poor massive blue stars with helium cores
Evolution sequence of 30 solar mass stellar models, discussing structural and nuclear evolution
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Pulsation properties of star models with linear density distribution, considering radial, adiabatic contraction and dynamical stability
Plasma neutrino process of Adams, Ruderman and Woo dependent on direct electron-neutrino interaction and connected with stellar evolution
Plasma neutrino process as accelerating mechanism for evolution in UV dwarfs
Plasma neutrino process of Adams, Ruderman and Woo dependent on direct electron-neutrino interaction and connected with stellar evolution
Semiconvective zone in very massive stars during hydrogen burning, noting factors leading to instability