We measure the critical exponents of two-dimensional and three-dimensional random-site percolation and find excellent agreement with Nienhuis exact results (two-dimensions) and good agreement with other numerical work (three-dimensions). We also measure the correlation length amplitude ratio and th
Invasion percolation between two sites in two, three, and four dimensions
β Scribed by Sang Bub Lee
- Publisher
- Elsevier Science
- Year
- 2009
- Tongue
- English
- Weight
- 759 KB
- Volume
- 388
- Category
- Article
- ISSN
- 0378-4371
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β¦ Synopsis
The mass distribution of invaded clusters in non-trapping invasion percolation between an injection site and an extraction site has been studied, in two, three, and four dimensions. This study is an extension of the recent study focused on two dimensions by AraΓΊjo et al.
[A.D. AraΓΊjo, T.F. Vasconcelos, A.A. Moreira, L.S. Lucena, J.S. Andrade Jr., Phys. Rev. E 72 ( 2005) 041404] with respect to higher dimensions. The mass distribution exhibits a powerlaw behavior, P(m) β m -Ξ± . It has been found that the index Ξ± for p e < p c , p c being the percolation threshold of a regular percolation, appears to be independent of the value of p e and is also independent of the lattice dimensionality. When p e = p c , Ξ± appears to depend marginally on the lattice dimensionality, and the relation Ξ± = Ο -1, Ο being the exponent associated with cluster size distribution of a regular percolation via n s β s -Ο , appears to be valid.
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