The su(N) Hubbard model
Z. Maassarani (Laval university)

TL;DR
This paper introduces an integrable su(n) symmetric generalization of the Hubbard model, extending its symmetry and integrability properties from the well-known su(2) case to higher su(n) cases, applicable in any dimension.
Contribution
The paper presents a new integrable model with extended su(n) symmetry, generalizing the Hubbard model beyond su(2) and demonstrating its integrability through L-matrix and transfer matrix methods.
Findings
The model exhibits su(n) symmetry and integrability.
It generalizes the Hubbard Hamiltonian to any dimension.
Complete integrability is established via L-matrix construction.
Abstract
The one-dimensional Hubbard model is known to possess an extended su(2) symmetry and to be integrable. I introduce an integrable model with an extended su(n) symmetry. This model contains the usual su(2) Hubbard model and has a set of features that makes it the natural su(n) generalization of the Hubbard model. Complete integrability is shown by introducing the L-matrix and showing that the transfer matrix commutes with the hamiltonian. While the model is integrable in one dimension, it provides a generalization of the Hubbard hamiltonian in any dimension.
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