Sandpiles on the square lattice
arXiv:1703.00827 · doi:10.1007/s00220-019-03408-5
Abstract
We give a non-trivial upper bound for the critical density when stabilizing i.i.d. distributed sandpiles on the lattice . We also determine the asymptotic spectral gap, asymptotic mixing time and prove a cutoff phenomenon for the recurrent state abelian sandpile model on the torus . The techniques use analysis of the space of functions on which are harmonic modulo 1. In the course of our arguments, we characterize the harmonic modulo 1 functions in as linear combinations of certain discrete derivatives of Green's functions, extending a result of Schmidt and Verbitskiy.
arXiv commentv3: Minor changes
References in corpus (17)
- The abelian sandpile and related models
- Chip-Firing and Rotor-Routing on Directed Graphs
- Chip-firing games, potential theory on graphs, and spanning trees
- Algebraic Aspects of Abelian Sandpile Models
- Growth Rates and Explosions in Sandpiles
- Convergence of the Abelian sandpile
- Driving sandpiles to criticality and beyond
- Infinite volume limit of the Abelian sandpile model in dimensions d >= 3
- Stabilizability and percolation in the infinite volume sandpile model
- Abelian Sandpiles and the Harmonic Model
- The divisible sandpile at critical density
- Approaching criticality via the zero dissipation limit in the abelian avalanche model
- Threshold state and a conjecture of Poghosyan, Poghosyan, Priezzhev and Ruelle
- Mixing and cut-off in cycle walks
- Algebraic Aspects of Abelian Sandpile Models
- Some halting problems for abelian sandpiles are undecidable in dimension three
- Organized versus self-organized criticality in the abelian sandpile model
Cited by in corpus (7)
- Cut-off for sandpiles on tiling graphs
- Convergence of the random Abelian sandpile
- Exact sampling and fast mixing of Activated Random Walk
- Nonstationary but quasisteady states in Self-organized Criticality
- How far do Activated Random Walkers spread from a single source?
- The spectrum of the abelian sandpile model
- The hockey-stick conjecture for activated random walk