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Eigenvalue amplitudes of the Potts model on a torus

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abstract

We consider the Q-state Potts model in the random-cluster formulation, defined on finite two-dimensional lattices of size L x N with toroidal boundary conditions. Due to the non-locality of the clusters, the partition function Z(L,N) cannot be written simply as a trace of the transfer matrix T\_L. Using a combinatorial method, we establish the decomposition Z(L,N) = \sum\_{l,D\_k} b^{l,D\_k} K\_{l,D\_k}, where the characters K\_{l,D\_k} = \sum\_i (\lambda\_i)^N are simple traces. In this decomposition, the amplitudes b^{l,D\_k} of the eigenvalues \lambda\_i of T\_L are labelled by the number l=0,1,...,L of clusters which are non-contractible with respect to the transfer (N) direction, and a representation D\_k of the cyclic group C\_l. We obtain rigorously a general expression for b^{l,D\_k} in terms of the characters of C\_l, and, using number theoretic results, show that it coincides with an expression previously obtained in the continuum limit by Read and Saleur.

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math.RT 1

years

2023 1

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UNVERDICTED 1

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Uncoiled affine Temperley-Lieb algebras and their Wenzl-Jones projectors

math.RT · 2023-02-24 · unverdicted · novelty 6.0

Introduces uncoiled affine and periodic Temperley-Lieb algebras as finite quotients and constructs explicit Wenzl-Jones idempotents projecting onto their one-dimensional modules, with Markov trace evaluations expressed via Chebyshev polynomials.

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  • Uncoiled affine Temperley-Lieb algebras and their Wenzl-Jones projectors math.RT · 2023-02-24 · unverdicted · none · ref 62 · internal anchor

    Introduces uncoiled affine and periodic Temperley-Lieb algebras as finite quotients and constructs explicit Wenzl-Jones idempotents projecting onto their one-dimensional modules, with Markov trace evaluations expressed via Chebyshev polynomials.