Bijective combinatorial proof of the commutation of transfer matrices in the dense O(1) loop model
Ron Peled, Dan Romik

TL;DR
This paper presents a new combinatorial bijection proof for the commutation of transfer matrices in the dense O(1) loop model, connecting statistical physics, combinatorics, and integrable systems.
Contribution
It introduces a novel combinatorial bijection proof for the transfer matrices' commutation, replacing the traditional algebraic Yang-Baxter approach.
Findings
Establishes a bijective proof of transfer matrix commutation
Connects combinatorial structures with statistical physics models
Provides insights into the algebraic and combinatorial interplay
Abstract
The dense O(1) loop model is a statistical physics model with connections to the quantum XXZ spin chain, alternating sign matrices, the six-vertex model and critical bond percolation on the square lattice. When cylindrical boundary conditions are imposed, the model possesses a commuting family of transfer matrices. The original proof of the commutation property is algebraic and is based on the Yang-Baxter equation. In this paper we give a new proof of this fact using a direct combinatorial bijection.
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Taxonomy
TopicsAlgebraic structures and combinatorial models · Advanced Combinatorial Mathematics · Random Matrices and Applications
