Fracton physics of spatially extended excitations. II. Polynomial ground state degeneracy of exactly solvable models
arXiv:2104.05735 · doi:10.1103/PhysRevB.104.235127
Abstract
Generally, ``fracton'' topological orders are referred to as gapped phases that support \textit{point-like topological excitations} whose mobility is, to some extent, restricted. In our previous work [Phys. Rev. B 101, 245134 (2020)], a large class of exactly solvable models on hypercubic lattices are constructed. In these models, \textit{spatially extended excitations} possess generalized fracton-like properties: not only mobility but also deformability is restricted. As a series work, in this paper, we proceed further to compute ground state degeneracy (GSD) in both isotropic and anisotropic lattices. We decompose and reconstruct ground states through a consistent collection of subsystem ground state sectors, in which mathematical game ``coloring method'' is applied. Finally, we are able to systematically obtain GSD formulas (expressed as ) which exhibit diverse kinds of polynomial dependence on system sizes. For example, the GSD of the model labeled as in four dimensional isotropic hypercubic lattice shows dependence on the linear size of the lattice. Inspired by existing results [Phys. Rev. X 8, 031051 (2018)], we expect that the polynomial formulas encode geometrical and topological fingerprints of higher-dimensional manifolds beyond toric manifolds used in this work. This is left to future investigation.
See also: arXiv:1909.02814; Accepted by Phys. Rev. B
References in corpus (14)
- Local stabilizer codes in three dimensions without string logical operators
- Twisted Gauge Theory Model of Topological Phases in Three Dimensions
- Non-Abelian String and Particle Braiding in Topological Order: Modular SL(3,Z) Representation and 3+1D Twisted Gauge Theory
- Fracton topological phases from strongly coupled spin chains
- Generalized modular transformations in 3+1D topologically ordered phases and triple linking invariant of loop braiding
- Anomalies of discrete symmetries in various dimensions and group cohomology
- Topological phases and quantum computation
- Layer construction of 3D topological states and string braiding statistics
- Isotropic Layer Construction and Phase Diagram for Fracton Topological Phases
- Fractonic superfluids. (II). Condensing subdimensional particles
- Compactifying fracton stabilizer models
- Symmetry Enrichment in Three-Dimensional Topological Phases
- Compatible braidings with Hopf links, multi-loop, and Borromean rings in -dimensional spacetime
- Topological Orders, Braiding Statistics, and Mixture of Two Types of Twisted Theories in Five Dimensions
Cited by in corpus (16)
- Topological fracton quantum phase transitions by tuning exact tensor network states
- Fracton Topological Order at Finite Temperature
- Height-conserving quantum dimer models
- Evolution of Dynamical Signature in the X-cube Fracton Topological Order
- Topological Orders, Braiding Statistics, and Mixture of Two Types of Twisted Theories in Five Dimensions
- Detecting Subsystem Symmetry Protected Topological Order Through Strange Correlators
- Higher-Order Cellular Automata Generated Symmetry-Protected Topological Phases and Detection Through Multi-Point Strange Correlators
- Hierarchical Proliferation of Higher-Rank Symmetry Defects in Fractonic Superfluids
- Hierarchy of Entanglement Renormalization and Long-Range Entangled States
- Quantum Hydrodynamics of Fractonic Superfluids with Lineon Condensate: from Navier-Stokes-like Equations to Landau-like Criterion
- Generalized toric codes on twisted tori for quantum error correction
- Three-dimensional fracton topological orders with boundary Toeplitz braiding
- Novel quantum phases on graphs using abelian gauge theory
- Fractonic superfluids. III. Hybridizing higher moments
- Infinite-component field theory: Connection of fracton order, Toeplitz braiding, and non-Hermitian amplification
- Preparing Code States via Seed-Entangler-Enriched Sequential Quantum Circuits: Application to Tetra-Digit Topological Error-Correcting Codes