Algebraic structure of classical integrability for complex sine-Gordon
arXiv:1911.06720 · doi:10.21468/SciPostPhys.8.3.033
Abstract
The algebraic structure underlying the classical -matrix formulation of the complex sine-Gordon model is fully elucidated. It is characterized by two matrices and , components of the matrix as . They obey a modified classical reflection/Yang--Baxter set of equations, further deformed by non-abelian dynamical shift terms along the dual Lie algebra . The sign shift pattern of this deformation has the signature of the twisted boundary dynamical algebra. Issues related to the quantization of this algebraic structure and the formulation of quantum complex sine-Gordon on those lines are introduced and discussed.
arXiv comment12 pages, refs added
References in corpus (10)
- Geometry and classification of solutions of the Classical Dynamical Yang-Baxter Equation
- Interaction-Round-a-Face Models with Fixed Boundary Conditions: The ABF Fusion Hierarchy
- Quantum scattering of charged solitons in the complex sine-Gordon model
- Conservation Laws and Geometry of Perturbed Coset Models
- Alleviating the non-ultralocality of coset sigma models through a generalized Faddeev-Reshetikhin procedure
- Quantum dynamical Yang-Baxter equation over a nonabelian base
- The complex sine-Gordon model on a half line
- A new dynamical reflection algebra and related quantum integrable systems
- Spin chains from dynamical quadratic algebras
- Generalized sine-Gordon models and quantum braided groups