2007
DOI: 10.3842/sigma.2007.028
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Bethe Ansatz for the Ruijsenaars Model of BC1-Type

Abstract: Abstract. We consider one-dimensional elliptic Ruijsenaars model of type BC 1 . It is given by a three-term difference Schrödinger operator L containing 8 coupling constants. We show that when all coupling constants are integers, L has meromorphic eigenfunctions expressed by a variant of Bethe ansatz. This result generalizes the Bethe ansatz formulas known in the A 1 -case.

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Cited by 5 publications
(14 citation statements)
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“…The integral now continues analytically to Im x − σ ∈ (0, a s ). Since a s ≥ m and ρ (1) n (γ ; x) is holomorphic for Im x − σ ∈ (−m, m) (as already shown), the lemma follows.…”
Section: )supporting
confidence: 59%
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“…The integral now continues analytically to Im x − σ ∈ (0, a s ). Since a s ≥ m and ρ (1) n (γ ; x) is holomorphic for Im x − σ ∈ (−m, m) (as already shown), the lemma follows.…”
Section: )supporting
confidence: 59%
“…In the relativistic elliptic BC 1 case at hand, there are only eigenfunction formulae available for an R 8 -lattice of coupling constants. Indeed, for this discrete set of couplings eigenfunctions of Floquet-Bloch type for one of the A∆Os were found by Chalykh [1]. They involve a transcendental system of 'Bethe Ansatz' equations whose solutions are quite inaccessible.…”
Section: Introductionmentioning
confidence: 91%
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“…The example studied here is a non-relativistic two particles quantum mechanical problem with elliptic potential, has a direct connection with supersymmetric gauge theory. It has a relativistic generalization, the corresponding spectral problem is a difference equation with coefficients given by elliptic function [51][52][53]. Various relativistic or non-relativistic version of two particles quantum mechanical system with elliptic, trigonometric/hyperbolic and rational potentials are obtained from limits of the relativistic-DTV potential.…”
Section: Jhep08(2020)070mentioning
confidence: 99%