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This research advances the theoretical framework for simulating complex quantum states by integrating symmetry-enriched topological order into tensor network methods. By constructing representations of topological defect sectors and analyzing phase transitions via gauging, the study provides new tools for understanding anyonic excitations in two-dimensional systems. Such foundational work is critical for developing efficient classical simulations that could eventually support practical quantum error correction and material design.
Symmetry-enriched topological order in tensor networks: Defects, gauging and anyon condensation

Quantum 10, 2199 (2026). https://doi.org/10.22331/q-2026-09-01-2199 We study symmetry-enriched topological order in two-dimensional tensor network states by using graded matrix product operator algebras to represent symmetry-induced domain walls. A close connection to the theory of graded unitary fusion categories is established. Tensor network representations of the topological defect superselection sectors are constructed for all domain walls. The emergent symmetry-enriched topological order is extracted from these representations, including the symmetry action on the underlying anyons. Dual phase transitions, induced by gauging a global symmetry, and condensation of a bosonic subtheory, are analyzed and the relationship between topological orders on either side of the transition is derived. Several examples are worked through explicitly.
We study symmetry-enriched topological order in two-dimensional tensor network states by using graded matrix product operator algebras to represent symmetry-induced domain walls. A close connection to the theory of graded unitary fusion categories is established. Tensor network representations of the topological defect superselection sectors are constructed for all domain walls. The emergent symmetry-enriched topological order is extracted from these representations, including the symmetry action on the underlying anyons. Dual phase transitions, induced by gauging a global symmetry, and condensation of a bosonic subtheory, are analyzed and the relationship between topological orders on either side of the transition is derived. Several examples are worked through explicitly.
The interplay of symmetry and topology in entangled states of quantum matter produce physical phenomena such as the fractionalization of charge on anyonic quasiparticle excitations. Tensor networks provide a tractable classical framework for the simulation of complex quantum states. In this work we extend that framework to include general symmetry actions on topological states of quantum matter in two dimensions.
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[62] Laurens Lootens, Robijn Vanhove, and Frank Verstraete, "Cardy states, defect lines and chiral operators of coset CFTs on the lattice", arXiv:1907.02520, (2019).
[63] Clement Delcamp and Nafiz Ishtiaque, "Symmetry Topological Field Theory and Non-Abelian Kramers─Wannier Dualities of Generalised Ising Models", Annales Henri Poincaré 27 6, 2273 (2026).
[64] Tian Lan, "Tube Category, Tensor Renormalization and Topological Holography", Communications in Mathematical Physics 406 8, 196 (2025).
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