Time transport correlations in abelian sandpile models
Valentin Lallemant

TL;DR
This paper investigates time transport correlations in abelian sandpile models, revealing general properties such as anticorrelation of dissipated particles and establishing explicit links between correlations and transport moments.
Contribution
It provides the first systematic analysis of time-dependent properties in abelian sandpile models, including explicit solutions for correlations in specific 1D models.
Findings
Particles dissipated are mostly anticorrelated in time.
Explicit linear relations between 2-point correlations and transport moments.
Results apply to Directed Stochastic Sandpile, Oslo, and Activated Random Walk models.
Abstract
Sandpiles form one of the largest class of models displaying a critical stationary state. Despite a few decades of research, a comprehensive and systematic rigorous characterisation of their spatial and, even more, time dependent properties has remained elusive. Among the obstacles, we can mention their out of equilibrium and non-linear dynamics features which prevent, in general, the access to the stationary properties explicitly. In fact, even the knowledge of the stationary state is quite exceptional in sandpiles. In that respect, it has become standard to develop a model to model strategy and, so to say, general results or tools applicable to these systems are missing. In this paper, we unveil general and simple properties of time transport correlations in certain classes of abelian sandpile models. We proceed gradually, starting from results applicable in a broad context, to more…
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Taxonomy
TopicsTheoretical and Computational Physics · Groundwater flow and contamination studies · CO2 Sequestration and Geologic Interactions
