Abelian deterministic self organized criticality model: Complex dynamics of avalanche waves
arXiv:0908.0318 · doi:10.1103/PhysRevE.82.061116
Abstract
The aim of this study is to investigate a wave dynamics and size scaling of avalanches which were created by the mathematical model {[}J. Černák Phys. Rev. E \textbf{65}, 046141 (2002)]. Numerical simulations were carried out on a two dimensional lattice in which two constant thresholds and were randomly distributed. A density of sites with the threshold and threshold are parameters of the model. I have determined autocorrelations of avalanche size waves, Hurst exponents, avalanche structures and avalanche size moments for several densities and thresholds . I found correlated avalanche size waves and multifractal scaling of avalanche sizes not only for specific conditions, densities , 1.0 and thresholds , in which relaxation rules were precisely balanced, but also for more general conditions, densities and thresholds $8\leq E_{c}^{II}\leq3 in which relaxation rules were unbalanced. The results suggest that the hypothesis of a precise relaxation balance could be a specific case of a more general rule.
References in corpus (8)
- Multifractal scaling in the Bak-Tang-Wiesenfeld Sandpile and edge events
- Universality in Sandpile Models
- Universality in sandpiles
- Some Results and a Conjecture for Manna's Stochastic Sandpile Model
- From waves to avalanches: two different mechanisms of sandpile dynamics
- Precise toppling balance, quenched disorder, and universality for sandpiles
- Inhomogeneous sandpile model: Crossover from multifractal scaling to finite size scaling
- Sandpile model on a quenched substrate generated by kinetic self-avoiding trails