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Theoretical physicists working at a blackboard collaboration pod in the Beecroft building.
Credit: Jack Hobhouse

Caroline Terquem

Professor of Physics

Research theme

  • Astronomy and astrophysics
  • Exoplanets and planetary physics
  • Plasma physics

Sub department

  • Rudolf Peierls Centre for Theoretical Physics

Research groups

  • Exoplanets and Stellar Physics
  • Geophysical and Astrophysical Fluid Dynamics
  • Planet formation and dynamics
  • Theoretical astrophysics and plasma physics at RPC
Caroline.Terquem@physics.ox.ac.uk
Telephone: 01865 (2)73983
Rudolf Peierls Centre for Theoretical Physics, room 50.11
  • About
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  • Publications

On the tidal interaction of a solar-type star with an orbiting companion: Excitation of g-mode oscillation and orbital evolution

The Astrophysical Journal 502:2 PART 1 (1998) 788-801

Authors:

C Terquem, JCB Papaloizou, RP Nelson, DNC Lin
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Details from ArXiV

The response of accretion disks to bending waves: Angular momentum transport and resonances

Astrophysical Journal 509:2 PART I (1998) 819-835
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Oscillations in solar-type stars tidally induced by orbiting planets

ArXiv astro-ph/9711213 (1997)

Authors:

C Terquem, JCB Papaloizou, RP Nelson, DNC Lin

Abstract:

We examine the effect of dynamical tides raised by a companion on a solar-type star. In these binaries, gravity or g mode oscillations are excited by the companion in the radiative region beneath the convective envelope of the star. They become evanescent in the convection zone. This is of particular interest in connection with the newly discovered planets, some of which are found to orbit around solar-type stars with a period comparable to that of the high order g modes of the star. One such example is 51 Pegasi. Here, we determine the magnitude of the perturbed velocity induced by the tides at the stellar surface. We show that, in the case of 51 Pegasi, this velocity is too small to be observed. This result is insensitive to the magnitude of the stellar turbulent viscosity assumed and is not affected by the possibility of resonance, which occurs when the frequency of the tidal disturbance is close to that of some normal mode of the star. We also discuss the orbital evolution and synchronization timescales associated with the tidal interaction.
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On the global warping of a thin self-gravitating near Keplerian gaseous disk with application to the disk in NGC 4258

(1997)

Authors:

John CB Papaloizou, Caroline Terquem, Doug NC Lin
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Bending Instabilities in Magnetized Accretion Discs

(1997)

Authors:

Vasso Agapitou, John CB Papaloizou, Caroline Terquem
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