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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

Star formation in a multi-phase interstellar medium

Astrophysics and Space Science 284:2 (2003) 833-836

Authors:

A Slyz, J Devriendt, G Bryan, J Silk

Abstract:

This contribution reports on our first efforts to simulate a multiphase interstellar medium on a kiloparsec scale in three dimensions with the stars and gas modeled self-consistently. Starting from inhomogenous initial conditions, our closed box simulations follow the gas as it cools and collapses under its own self-gravity to form stars which eventually return material and energy back through supernovae explosions and winds.

Exploring spiral galaxy potentials with hydrodynamical simulations

Monthly Notices of the Royal Astronomical Society 346 (2003) 1162-1178

Authors:

AD Slyz, Thilo Kranz, Hans-Walter Rix

Exploring spiral galaxy potentials with hydrodynamical simulations

(2003)

Authors:

Adrianne Slyz, Thilo Kranz, Hans-Walter Rix

Turbulent Ambipolar Diffusion: Numerical Studies in 2D

(2003)

Authors:

F Heitsch, EG Zweibel, AD Slyz, JEG Devriendt

Heating cooling flows with jets

ArXiv astro-ph/0307471 (2003)

Authors:

Henrik Omma, James Binney, Greg Bryan, Adrianne Slyz

Abstract:

Active galactic nuclei are clearly heating gas in `cooling flows'. The effectiveness and spatial distribution of the heating are controversial. We use three-dimensional simulations on adaptive grids to study the impact on a cooling flow of weak, subrelativistic jets. The simulations show cavities and vortex rings as in the observations. The cavities are fast-expanding dynamical objects rather than buoyant bubbles as previously modelled, but shocks still remain extremely hard to detect with X-rays. At late times the cavities turn into overdensities that strongly excite the cluster's g-modes. These modes damp on a long timescale. Radial mixing is shown to be an important phenomenon, but the jets weaken the metallicity gradient only very near the centre. The central entropy density is modestly increased by the jets. We use a novel algorithm to impose the jets on the simulations.

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