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Black Hole

Lensing of space time around a black hole. At Oxford we study black holes observationally and theoretically on all size and time scales - it is some of our core work.

Credit: ALAIN RIAZUELO, IAP/UPMC/CNRS. CLICK HERE TO VIEW MORE IMAGES.

Adrianne Slyz

Professor of Astrophysics

Sub department

  • Astrophysics

Research groups

  • Beecroft Institute for Particle Astrophysics and Cosmology
Adrianne.Slyz@physics.ox.ac.uk
Telephone: 01865 (2)83013
Denys Wilkinson Building, room 555D
  • About
  • Publications

Formation of Structure in Molecular Clouds: A Case Study

(2005)

Authors:

F Heitsch, A Burkert, L Hartmann, AD Slyz, JEG Devriendt
More details from the publisher

Formation of structure in molecular clouds: A case study

ASTROPHYSICAL JOURNAL 633:2 (2005) L113-L116

Authors:

F Heitsch, A Burkert, LW Hartmann, AD Slyz, JEG Devriendt
More details from the publisher

Towards simulating star formation in the interstellar medium

Monthly Notices of the Royal Astronomical Society 356 (2005) 737-752

Authors:

AD Slyz, Julien Devriendt, Greg Bryan, Joseph Silk
More details from the publisher
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Towards simulating star formation in the interstellar medium

(2004)

Authors:

A Slyz, J Devriendt, Greg Bryan, Joseph Silk
More details from the publisher

Turbulent ambipolar diffusion: Numerical studies in two dimensions

Astrophysical Journal 603:1 I (2004) 165-179

Authors:

F Heitsch, EG Zweibel, AD Slyz, JEG Devriendt

Abstract:

Under ideal MHD conditions the magnetic field strength should be correlated with density in the interstellar medium (ISM). However, observations indicate that this correlation is weak. Ambipolar diffusion can decrease the flux-to-mass ratio in weakly ionized media; however, it is generally thought to be too slow to play a significant role in the ISM except in the densest molecular clouds. Turbulence is often invoked in astrophysical problems to increase transport rates above the (very slow) laminar values predicted by kinetic theory. We describe a series of numerical experiments addressing the problem of turbulent transport of magnetic fields in weakly ionized gases. We show, subject to various geometrical and physical restrictions, that turbulence in a weakly ionized medium rapidly diffuses the magnetic flux-to-mass ratio B/ρ through the buildup of appreciable ion-neutral drifts on small scales. These results are applicable to the field strength-density correlation in the ISM, as well as the merging of flux systems such as protostar and accretion disk fields or protostellar jets with ambient matter, and the vertical transport of galactic magnetic fields.
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