Calculation of the connective constant for self-avoiding walks via the pivot algorithm
arXiv:1302.2106 · doi:10.1088/1751-8113/46/24/245001
Abstract
We calculate the connective constant for self-avoiding walks on the simple cubic lattice to unprecedented accuracy, using a novel application of the pivot algorithm. We estimate that μ= 4.684 039 931(27). Our method also provides accurate estimates of the number of self-avoiding walks, even for walks with millions of steps.
10 pages, 3 figures
References in corpus (4)
Cited by in corpus (23)
- High-precision estimate of the hydrodynamic radius for self-avoiding walks
- Scale-free Monte Carlo method for calculating the critical exponent of self-avoiding walks
- Hopping conductivity and insulator-metal transition in films of touching semiconductor nanocrystals
- Three-dimensional terminally attached self-avoiding walks and bridges
- Parallel PERM
- The distribution of first hitting times of random walks on Erdős-Rényi networks
- Brownian non-Gaussian diffusion of self-avoiding walks
- GPU implementation of the Rosenbluth generation method for static Monte Carlo simulations
- Endless self-avoiding walks
- Random Polymers and Generalized Urn Processes
- Partition and generating function zeros in adsorbing self-avoiding walks
- A solvable non-directed model of polymer adsorption
- Long Polymers Near Wedges and Cones
- Energy of the Interacting Self-Avoiding Walk at the point
- Numerical estimates of square lattice star vertex exponents
- Random knotting in very long off-lattice self-avoiding polygons
- Lattice star and acyclic branched polymer vertex exponents in 3d
- Supermultiplicative relations in models of interacting self-avoiding walks and polygons
- Lattice polymers near a permeable interface
- Upper bounds for the connective constant of weighted self-avoiding walks
- Critical scaling of lattice polymers confined to a box without endpoint restriction
- Equilibrium Energy and Entropy of Vortex Filaments on a Cubic Lattice: A Localized Transformations Algorithm
- Entropic exponents of grafted lattices stars