Scaling of Star Polymers with one to 80 Arms
arXiv:cond-mat/0310534 · doi:10.1021/ma0355958
Abstract
We present large statistics simulations of 3-dimensional star polymers with up to arms, and with up to 4000 monomers per arm for small values of . They were done for the Domb-Joyce model on the simple cubic lattice. This is a model with soft core exclusion which allows multiple occupancy of sites but punishes each same-site pair of monomers with a Boltzmann factor . We use this to allow all arms to be attached at the central site, and we use the `magic' value to minimize corrections to scaling. The simulations are made with a very efficient chain growth algorithm with resampling, PERM, modified to allow simultaneous growth of all arms. This allows us to measure not only the swelling (as observed from the center-to-end distances), but also the partition sum. The latter gives very precise estimates of the critical exponents . For completeness we made also extensive simulations of linear (unbranched) polymers which give the best estimates for the exponent .
7 pages, 7 figures
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Cited by in corpus (41)
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