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

Paul Fendley

Professor and Senior Research Fellow, All Souls College

Sub department

  • Rudolf Peierls Centre for Theoretical Physics

Research groups

  • Condensed Matter Theory
paul.fendley@physics.ox.ac.uk
Telephone: 01865 (2)73957
Rudolf Peierls Centre for Theoretical Physics, room 70.32
  • About
  • Publications

Critical lines and ordered phases in a Rydberg-blockade ladder

(2023)

Authors:

Luisa Eck, Paul Fendley
More details from the publisher

From the XXZ chain to the integrable Rydberg-blockade ladder via non-invertible duality defects

(2023)

Authors:

Luisa Eck, Paul Fendley
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Topological quantum field theory and polynomial identities for graphs on the torus

Annales de l'Institut Henri Poincare (D) Combinatorics, Physics and their Interactions European Mathematical Society Publishing House 10:2 (2022) 277-298

Authors:

Paul Fendley, Vyacheslav Krushkal

Abstract:

We establish a relation between the trace evaluation in SO(3) topological quantum field theory and evaluations of a topological Tutte polynomial. As an application, a generalization of the Tutte golden identity is proved for graphs on the torus.
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Stochastic strong zero modes and their dynamical manifestations

(2022)

Authors:

Katja Klobas, Paul Fendley, Juan P Garrahan
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Microscopic characterization of Ising conformal field theory in Rydberg chains

Physical Review B: Condensed matter and materials physics American Physical Society 104:23 (2021) 235109

Authors:

Kevin Slagle, David Aasen, Hannes Pichler, Roger SK Mong, Paul Fendley, Xie Chen, Manuel Endres, Jason Alicea

Abstract:

Rydberg chains provide an appealing platform for probing conformal field theories (CFTs) that capture universal behavior in a myriad of physical settings. Focusing on a Rydberg chain at the Ising transition separating charge density wave and disordered phases, we establish a detailed link between microscopics and low-energy physics emerging at criticality. We first construct lattice incarnations of primary fields in the underlying Ising CFT including chiral fermions, a nontrivial task given that the Rydberg chain Hamiltonian does not admit an exact fermionization. With this dictionary in hand, we compute correlations of microscopic Rydberg operators, paying special attention to finite, open chains of immediate experimental relevance. We further develop a method to quantify how second-neighbor Rydberg interactions tune the sign and strength of four-fermion couplings in the Ising CFT. Finally, we determine how the Ising fields evolve when four-fermion couplings drive an instability to Ising tricriticality. Our results pave the way to a thorough experimental characterization of Ising criticality in Rydberg arrays, and can inform the design of novel higher-dimensional phases based on coupled critical chains.
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