Composite subsystem symmetries and decoration of sub-dimensional excitations
Abstract
Flux binding is a mechanism that is well-understood for global symmetries. Given two systems, each with a global symmetry, gauging the composite symmetry instead of individual symmetries corresponds to the condensation of the composite of gauge charges belonging to individually gauged theories and the binding of the gauge fluxes. The composite charge that is condensed is created by a ``short'' string given by the new minimal coupling corresponding to the composite symmetry. This paper studies what happens when combined subsystem symmetries are gauged, especially when the component charges and fluxes have different sub-dimensional mobilities. We investigate 3+1D systems with planar symmetries where, for example, the planar symmetry of a planon charge is combined with one of the planar symmetries of a fracton charge. We propose the principle of Remote Detectability to determine how the fluxes bind and potentially change their mobility. This understanding can then be used to design fracton models with sub-dimensional excitations that are decorated with excitations having nontrivial statistics or non-Abelian fusion rules.
Copyright and License
Copyright A. Vadali et al. This work is licensed under the Creative Commons Attribution 4.0 International License.
Published by the SciPost Foundation.
Acknowledgement
We are indebted to inspiring discussions with Xiuqi Ma.
Funding
Funding information A.V. is supported by the Ernest R. Roberts SURF fellowship. A.D., Z.W., and X.C. are supported by the National Science Foundation under award number DMR1654340, the Simons collaboration on “Ultra-Quantum Matter” (grant number 651438), the Simons Investigator Award (award ID 828078) and the Institute for Quantum Information and Matter at Caltech. W.S. acknowledges support from the Simons collaboration on “UltraQuantum Matter” (grant number 651444). X.C. is also supported by the Walter Burke Institute for Theoretical Physics at Caltech.
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Additional details
- Institute for Quantum Information and Matter, California Institute of Technology
- National Science Foundation
- DMR-1654340
- Simons Foundation
- Ultra-Quantum Matter 651438
- Simons Foundation
- 651444
- Simons Foundation
- Investigator Award 828078
- Walter Burke Institute for Theoretical Physics
- Accepted
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2024-08-15Accepted
- Available
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2024-09-02First published
- Publication Status
- Published