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

John Chalker

Professorial Research Fellow

Research theme

  • Fields, strings, and quantum dynamics
  • Quantum materials

Sub department

  • Rudolf Peierls Centre for Theoretical Physics

Research groups

  • Condensed Matter Theory
John.Chalker@physics.ox.ac.uk
Telephone: 01865 (2)73973
Rudolf Peierls Centre for Theoretical Physics, room 70.07
  • About
  • Teaching
  • Publications

Magnetic Excitations of the Classical Spin Liquid MgCr2O4

PHYSICAL REVIEW LETTERS 122:9 (2019) ARTN 097201

Authors:

X Bai, JAM Paddison, E Kapit, SM Koohpayeh, J-J Wen, SE Dutton, AT Savici, AI Kolesnikov, GE Granroth, CL Broholm, JT Chalker, M Mourigal
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Percolation in Fock space as a proxy for many-body localisation

(2018)

Authors:

Sthitadhi Roy, JT Chalker, David E Logan
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Exact solution of a percolation analogue for the many-body localisation transition

(2018)

Authors:

Sthitadhi Roy, David E Logan, JT Chalker
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Mott, Floquet, and the response of periodically driven Anderson insulators

Physical Review B 98:21 (2018)

Authors:

DT Liu, JT Chalker, V Khemani, SL Sondhi

Abstract:

© 2018 American Physical Society. We consider periodically driven Anderson insulators. The short-time behavior for weak, monochromatic, uniform electric fields is given by linear response theory and was famously derived by Mott. We go beyond this to consider both long times - which is the physics of Floquet late time states - and strong electric fields. This results in a "phase diagram" in the frequency-field strength plane, in which we identify four distinct regimes. These are a linear response regime dominated by preexisting Mott resonances, which exists provided Floquet saturation is not reached within a period; a nonlinear perturbative regime, which exhibits multiphoton-absorption in response to the field; a near-adiabatic regime, which exhibits a primarily reactive response spread over the entire sample and is insensitive to preexisting resonances; and finally an enhanced dissipative regime.
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Solution of a Minimal Model for Many-Body Quantum Chaos

PHYSICAL REVIEW X 8:4 (2018) ARTN 041019

Authors:

Amos Chan, Andrea De Luca, JT Chalker
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