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

Professor James Binney FRS

Emeritus Professor

Sub department

  • Rudolf Peierls Centre for Theoretical Physics

Research groups

  • Theoretical astrophysics and plasma physics at RPC
James.Binney@physics.ox.ac.uk
Telephone: 01865 (2)73979
Rudolf Peierls Centre for Theoretical Physics, room 50.3
  • About
  • Publications

Angle-action variables for orbits trapped at a Lindblad resonance

Monthly Notices of the Royal Astronomical Society Oxford University Press (OUP) 495:1 (2020) 886-894
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Trapped orbits and solar-neighbourhood kinematics

Monthly Notices of the Royal Astronomical Society Oxford University Press (OUP) 495:1 (2020) 895-904
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Details from ArXiV

Relaxation of spherical stellar systems

Monthly Notices of the Royal Astronomical Society Oxford University Press (OUP) 490:1 (2019) 478-490

Authors:

Jun Yan Lau, James Binney
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Details from ArXiV

Modelling our Galaxy

(2019)
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Action-based models for dwarf spheroidal galaxies and globular clusters

Monthly Notices of the Royal Astronomical Society Oxford University Press 488:2 (2019) 2423-2439

Authors:

R Pascale, James Binney, C Nipoti, L Posti

Abstract:

A new family of self-consistent distribution function (DF)-based models of stellar systems is explored. The stellar component of the models is described by a DF depending on the action integrals, previously used to model the Fornax dwarf spheroidal galaxy (dSph). The stellar component may cohabit with either a dark halo, also described by a DF, or with a massive central black hole. In all cases we solve for the models self-consistent potential. Focussing on spherically symmetric models, we show how the stellar observables vary with the anisotropy prescribed by the DF, with the dominance and nature of the dark halo, and with the mass of the black hole. We show that precise fits to the observed surface brightness profiles of four globular clusters can be obtained for a wide range of prescribed velocity anisotropies. We also obtain precise fits to the observed projected densities of four dSphs. Finally, we present a three-component model of the Sculptor dSph with distinct DFs for the red and blue horizontal branch stars and the dark matter halo.
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