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Quantum Transfer Matrix Approach to One-Dimensional Solvable Models

和光 堺

Published Jan 1, 2000• 0 citations
Publisher
DOI
10.11501/3190229

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The generalization of Lorentz invariance to solvable two-dimensional lattice fermion models has been formulated in terms of Baxter’s corner transfer matrix. In these models, the lattice Hamiltonian and boost operator are given by fermionized nearest-neighbor Heisenberg spin chain operators. The transformation properties of the local lattice fermion operators under a boost provide a natural and precise way of generalizing the chiral structure of a continuum Dirac field to the lattice. The resulting formulation differs from both the Wilson and staggered (Kogut-Susskind) prescriptions. In particular, an axial Q5 rotation is sitewise local, while the vector charge rotation mixes nearest neighbors on even and odd sublattices. One of the most interesting developments in the theory of solvable two-dimensional lattice statistics models is Baxter’s invention of the “corner transfer matrix ” (CTM)[[1]]. In the same sense that an ordinary (row-to-row) transfer matrix can be viewed as an operator which translates by one row of sites on a lattice, the CTM may be defined as an operator which rotates around a central