M.C.R.G. Study of Fixed-connectivity Surfaces
arXiv:hep-lat/9601005 · doi:10.1016/0550-3213(96)00154-X
Abstract
We apply Monte Carlo Renormalization group to the crumpling transition in random surface models of fixed connectivity. This transition is notoriously difficult to treat numerically. We employ here a Fourier accelerated Langevin algorithm in conjunction with a novel blocking procedure in momentum space which has proven extremely successful in . We perform two successive renormalizations in lattices with up to sites. We obtain a result for the critical exponent in general agreement with previous estimates and similar error bars, but with much less computational effort. We also measure with great accuracy . As a by-product we are able to determine the fractal dimension of random surfaces at the crumpling transition.
35 pages,Latex file, 6 Postscript figures uuencoded,uses psfig.sty 2 misspelled references corrected and one added. Paper unchanged
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