Quantum and classical integrable sine-Gordon model with defect

Physics – High Energy Physics – High Energy Physics - Theory

Scientific paper

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18 pages, 3 figures, latex. Sect. 4 is revised for needed generalization for the boundary condition of the field

Scientific paper

10.1016/j.nuclphysb.2007.11.022

Defects which are predominant in a realistic model, usually spoil its integrability or solvability. We on the other hand show the exact integrability of a known sine-Gordon field model with a defect (DSG), at the classical as well as at the quantum level based on the Yang-Baxter equation. We find the associated classical and quantum R-matrices and the underlying q-algebraic structures, analyzing the exact lattice regularized model. We derive algorithmically all higher conserved quantities $C_n, n=1,2,...$ of this integrable DSG model, focusing explicitly on the contribution of the defect point to each $C_n$. The bridging condition across the defect, defined through the B\"acklund transformation is found to induce creation or annihilation of a soliton by the defect point or its preservation with a phase shift.

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