Quantum spectral curves, quantum integrable systems and the geometric Langlands correspondence
arXiv:hep-th/0604128
Abstract
The spectral curve is the key ingredient in the modern theory of classical integrable systems. We develop a construction of the ``quantum spectral curve'' and argue that it takes the analogous structural and unifying role on the quantum level also. In the simplest, but essential case the ``quantum spectral curve'' is given by the formula "det"(L(z)-dz) [Talalaev04] (hep-th/0404153). As an easy application of our constructions we obtain the following: quite a universal receipt to define quantum commuting hamiltonians from the classical ones, in particular an explicit description of a maximal commutative subalgebra in U(gl(n)[t])/t^N and in U(\g[t^{-1}])\otimes U(t\g[t]); its relation with the center on the of the affine algebra; an explicit formula for the center generators and a conjecture on W-algebra generators; a receipt to obtain the q-deformation of these results; the simple and explicit construction of the Langlands correspondence; the relation between the ``quantum spectral curve'' and the Knizhnik-Zamolodchikov equation; new generalizations of the KZ-equation; the conjecture on rationality of the solutions of the KZ-equation for special values of level. In the simplest cases we observe the coincidence of the ``quantum spectral curve'' and the so-called Baxter equation. Connection with the KZ-equation offers a new powerful way to construct the Baxter's Q-operator.
54 pp. minor changes
References in corpus (23)
- Wilson-'t Hooft operators in four-dimensional gauge theories and S-duality
- Mirror symmetry, Langlands duality, and the Hitchin system
- Spectral determinants for Schroedinger equation and Q-operators of Conformal Field Theory
- Noncommutative symmetric functions
- Off-Shell Bethe Ansatz Equation and N-point Correlators in the SU(2) WZNW Theory
- Affine Algebras, Langlands Duality and Bethe Ansatz
- Combinatorial nature of ground state vector of O(1) loop model
- Quantum Knizhnik-Zamolodchikov equation, generalized Razumov-Stroganov sum rules and extended Joseph polynomials
- Quantum Group Representations and Baxter Equation
- Separation of variables for the classical and quantum Neumann model
- Unified description of correlators in non-Gaussian phases of Hermitean matrix model
- Reduction of bihamiltonian systems and separation of variables: an example from the Boussinesq hierarchy
- Quantization of the Gaudin System
- Spectrum and Bethe ansatz equations for the U_ {q}(gl(N)) closed and open spin chains in any representation
- Differential Geometry of Gerbes
- Classical limit of the Knizhnik-Zamolodchikov-Bernard equations as hierarchy of isomonodromic deformations. Free fields approach
- Cayley-Hamilton-Newton identities and quasitriangular Hopf algebras
- Spectrum of the quantum Neumann model
- Quantum line bundles on noncommutative sphere
- Dualities in integrable systems: geometrical aspects
- Quasideterminants and Casimir elements for the general Lie superalgebra
- Classical elliptic hypergeometric functions and their applications
- Uniqueness of higher Gaudin hamiltonians
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