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

Andrei Starinets

Professor of Physics

Research theme

  • Fields, strings, and quantum dynamics

Sub department

  • Rudolf Peierls Centre for Theoretical Physics

Research groups

  • Particle theory
andrei.starinets@physics.ox.ac.uk
Telephone: 01865 (2)73955
Rudolf Peierls Centre for Theoretical Physics, room 70.09
  • About
  • Research
  • Publications

Zero-viscosity limit in a holographic Gauss-Bonnet liquid

Theoretical and Mathematical Physics Springer Nature 182:1 (2015) 61-73

Authors:

S Grozdanov, AO Starinets
More details from the publisher

On the universal identity in second order hydrodynamics

(2014)

Authors:

Sašo Grozdanov, Andrei O Starinets
More details from the publisher

Holographic zero sound at finite temperature

Physical Review D - Particles, Fields, Gravitation and Cosmology 85:2 (2012)

Authors:

RA Davison, AO Starinets

Abstract:

We use gauge-gravity duality to study the temperature dependence of the zero sound mode and the fundamental matter diffusion mode in the strongly coupled N=4 SU(N c) supersymmetric Yang-Mills theory with N f N=2 hypermultiplets in the N c≫ 1, N c ≫ N f limit, which is holographically realized via the D3/D7 brane system. In the high density limit μ≫T, three regimes can be identified in the behavior of these modes, analogous to the collisionless quantum, collisionless thermal, and hydrodynamic regimes of a Landau Fermi liquid. The transitions between the three regimes are characterized by the parameters T/μ and (T/μ) 2, respectively, and in each of these regimes the modes have a distinctively different temperature and momentum dependence. The collisionless-hydrodynamic transition occurs when the zero sound poles of the density-density correlator in the complex frequency plane collide on the imaginary axis to produce a hydrodynamic diffusion pole. We observe that the properties characteristic of a Landau Fermi-liquid zero sound mode are present in the D3/D7 system despite the atypical T 6/μ 3 temperature scaling of the specific heat and an apparent lack of a directly identifiable Fermi surface. © 2012 American Physical Society.
More details from the publisher

Holographic zero sound at finite temperature

Physical Review D American Physical Society (APS) 85:2 (2012) 026004

Authors:

Richard A Davison, Andrei O Starinets
More details from the publisher
Details from ArXiV

Holographic zero sound at finite temperature

(2011)

Authors:

Richard A Davison, Andrei O Starinets
More details from the publisher

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