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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.

Lance Miller

Professor of Astrophysics

Research theme

  • Astronomy and astrophysics

Sub department

  • Astrophysics

Research groups

  • Beecroft Institute for Particle Astrophysics and Cosmology
  • Cosmology
  • Euclid
Lance.Miller@physics.ox.ac.uk
  • About
  • Publications

A spectacular poststarburst quasar

ASTROPHYSICAL JOURNAL 520:2 (1999) L87-L90

Authors:

MS Brotherton, W van Breugel, SA Stanford, RJ Smith, BJ Boyle, L Miller, T Shanks, SM Croom, AV Filippenko
More details from the publisher
Details from ArXiV

A survey of UV-excess AGNs in the South Galactic Pole - A sample for the analysis of the QSO clustering

ASTRONOMY & ASTROPHYSICS SUPPLEMENT SERIES 140:3 (1999) 351-353

Authors:

F La Franca, C Lissandrini, S Cristiani, L Miller, MRS Hawkins, HT McGillivray
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Cosmological evolution and hierarchical galaxy formation

MONTHLY NOTICES OF THE ROYAL ASTRONOMICAL SOCIETY 309:4 (1999) 823-832

Authors:

W Percival, L Miller
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QSO clustering and the AAT 2dF QSO redshift survey

PHILOSOPHICAL TRANSACTIONS OF THE ROYAL SOCIETY A-MATHEMATICAL PHYSICAL AND ENGINEERING SCIENCES 357:1750 (1999) 185-198

Authors:

BJ Boyle, SM Groom, RJ Smith, T Shanks, L Miller, N Loaring
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Details from ArXiV

The halo formation rate and its link to the global star formation rate

ASTR SOC P 193 (1999) 525-528

Authors:

W Percival, L Miller, B Ballinger

Abstract:

The star formation history of the universe shows strong evolution with cosmological epoch. Although we know mergers between galaxies can cause luminous bursts of star formation, the relative importance of such mergers to the global star formation rate (SFR) is unknown. We present a simple analytic formula for the rate at which halos merge to form higher-mass systems, derived from Press-Schechter theory and confirmed by numerical simulations (for high halo masses). A comparison of the evolution in halo formation rate with the observed evolution in the global SFR indicates that the latter is largely driven by halo mergers at z > 1. Recent numerical simulations by Kolatt et al. (1999) and Knebe & Muller (1999) show how merging systems are strongly biased tracers of mass fluctuations, thereby explaining the strong clustering observed for Lyman-break galaxies without any need to assume that Lyman-break galaxies are associated only with the most massive systems at z similar to 3.
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