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

Steve Simon

Professorial Research Fellow and Professorial Fellow of Somerville College

Sub department

  • Rudolf Peierls Centre for Theoretical Physics

Research groups

  • Condensed Matter Theory
steven.simon@physics.ox.ac.uk
Telephone: 01865 (2)73954
Rudolf Peierls Centre for Theoretical Physics, room 70.06
  • About
  • Publications

On the Outage Capacity of Correlated Multiple-Path MIMO Channels

(2005)

Authors:

Aris L Moustakas, Steven H Simon

Capacity and Character Expansions: Moment generating function and other exact results for MIMO correlated channels

(2005)

Authors:

Steven H Simon, Aris L Moustakas, Luca Marinelli

Topological Quantum Computing with Only One Mobile Quasiparticle

(2005)

Authors:

SH Simon, NE Bonesteel, MH Freedman, N Petrovic, L Hormozi

Statistical mechanics of multi-antenna communications: Replicas and correlations

Acta Physica Polonica B 36:9 (2005) 2719-2732

Authors:

AL Moustakas, SH Simon, AM Sengupta

Abstract:

The use of multi-antenna arrays has been predicted to provide substantial throughput gains for wireless communication systems. However, these predictions have to be assessed in realistic situations, such as correlated channels and in the presence of interference. In this review, we show results obtained using methods borrowed from statistical physics of random media for the average and the variance of the distribution of the mutual information of multi-antenna systems with arbitrary correlations and interferers. Even though the methods are asymptotic in the sense they are valid in the limit of large antenna numbers, the results are accurate even for small arrays. We also optimize over the input signal covariance with channel covariance feedback and calculate closed-loop capacities. This method provides a simple tool to analyze the statistics of throughput for arrays of any size.

Electrostatic traps for dipolar excitons

Physical Review B Condensed Matter and Materials Physics 72:7 (2005)

Authors:

R Rapaport, G Chen, S Simon, O Mitrofanov, L Pfeiffer, PM Platzman

Abstract:

We consider the design of two-dimensional electrostatic traps for dipolar indirect excitons. We show that the exciton dipole-dipole interaction, combined with the in-plane electric fields that arise due to the trap geometry, constrains the maximal density and lifetime of trapped excitons. We derive an analytic estimate of these values and determine their dependence on the trap geometry, thus suggesting the optimal design for high density trapping as a route for observing excitonic Bose-Einstein condensation. 漏 2005 The American Physical Society.

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