Supersymmetric lattice theories on curved space

We show how to construct Hamiltonian lattice theories with one exact supersymmetry on arbitrary triangulations of curved space in any number of dimensions. Both bosons and fermions satisfy discrete Kähler-Dirac equations. The quantization of the fermions proceeds by imposing conventional anticommutation relations while the bosons require a modification of the usual canonical commutator. On regular lattices we construct parity, time reversal and translation-by-one (shift) symmetries. We argue that the latter are generically noninvertible symmetries. We also show how to couple these degrees of freedom to background gauge fields which leads to a theory with enhanced supersymmetry.

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Publication Details

Journal
Physical review. D/Physical review. D.
Published
2026-03-12
DOI
https://doi.org/10.1103/z3qg-nlxc
Primary Topic
Black Holes and Theoretical Physics
Type
article
Field-Weighted Citation Impact
0.00
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article

Supersymmetric lattice theories on curved space

Anonymous
Physical review. D/Physical review. D.
Black Holes and Theoretical Physics
article

Supersymmetric lattice theories on curved space

Anonymous
article en

Abstract

We show how to construct Hamiltonian lattice theories with one exact supersymmetry on arbitrary triangulations of curved space in any number of dimensions. Both bosons and fermions satisfy discrete Kähler-Dirac equations. The quantization of the fermions proceeds by imposing conventional anticommutation relations while the bosons require a modification of the usual canonical commutator. On regular lattices we construct parity, time reversal and translation-by-one (shift) symmetries. We argue that the latter are generically noninvertible symmetries. We also show how to couple these degrees of freedom to background gauge fields which leads to a theory with enhanced supersymmetry.

Physical review. D/Physical review. D.Vol. 113(5)
University of California, Santa Barbara (US), Syracuse University (US)
Openalex Percentile: Top 24%
Black Holes and Theoretical Physics
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