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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

Excitations in the Higher Lattice Gauge Theory Model for Topological Phases II: The (2+1)-Dimensional Case

(2022)

Authors:

Joe Huxford, Steven H Simon

Excitations in the Higher Lattice Gauge Theory Model for Topological Phases I: Overview

(2022)

Authors:

Joe Huxford, Steven H Simon

Quantifying information scrambling via Classical Shadow Tomography on Programmable Quantum Simulators

(2022)

Authors:

Max McGinley, Sebastian Leontica, Samuel J Garratt, Jovan Jovanovic, Steven H Simon

Skyrmions in twisted bilayer graphene: stability, pairing, and crystallization

(2021)

Authors:

Yves H Kwan, Glenn Wagner, Nick Bultinck, Steven H Simon, SA Parameswaran

s-wave paired electron and hole composite fermion trial state for quantum Hall bilayers with 谓=1

Physical Review Letters American Physical Society 127 (2021) 246803

Abstract:

We introduce a new variational wave function for a quantum Hall bilayer at total filling νT=1, which is based on s-wave BCS pairing between electron composite fermions in one layer and hole composite fermions in the other. In addition, we reexamine a trial wave function based on p-wave BCS pairing between electron composite fermions in both layers. We compute the overlap of the optimized trial functions with the ground state from exact diagonalization calculations of up to 14 electrons in a spherical geometry, and we find excellent agreement over the entire range of values of the ratio between the layer separation and the magnetic length. The s-wave trial wave function naturally allows for charge imbalance between the layers and provides important insights into how the physics at large interlayer separations crosses over to that at small separations in a fashion analogous to the BEC-BCS crossover.

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