Accurate simulation of q-state clock model
arXiv:2009.10695 · doi:10.1103/PhysRevResearch.4.023159
Abstract
We accurately simulate the phase diagram and critical behavior of the -state clock model on the square lattice by using the state-of-the-art loop optimization for tensor network renormalzation(loop-TNR) algorithm. The two phase transition points for are determined with very high accuracy. Furthermore, by computing the conformal scaling dimensions, we are able to accurately determine the compactification radius of the compactified boson theories at both phase transition points. In particular, the compactification radius at high-temperature critical point is precisely the same as the predicted for Berezinskii-Kosterlitz-Thouless (BKT) transition. Moreover, we find that the fixed point tensors at high-temperature critical point also converge(up to numerical errors) to the same one for large enough and the corresponding operator product expansion(OPE) coefficient of the compactified boson theory can also be read out directly from the fixed point tensor.
16 pages, 31 figures
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