Self-organized criticality and interface depinning transitions
K. B. Lauritsen, M. J. Alava

TL;DR
This paper explores the connection between self-organized criticality and interface depinning transitions by mapping sandpile models to driven interfaces, providing a continuum description and insights into different criticality approaches.
Contribution
It introduces a continuum framework linking sandpile models to interface depinning, revealing new scaling relations and criticality mechanisms.
Findings
Derived a scaling relation for the correlation length exponent in sandpiles.
Established equivalence between self-organized criticality and depinning transitions.
Provided a unified description for various criticality tuning methods.
Abstract
We discuss the relation between self-organized criticality and depinning transitions by mapping sandpile models to equations that describe driven interfaces in random media. This equivalence yields a continuum description and gives insight about various ways of reaching the depinning critical point: slow drive (self-organized criticality), fixed density simulations, tuning the interface velocity (extremal drive criticality), or tuning the driving force. We obtain a scaling relation for the correlation length exponent for sandpiles.
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Taxonomy
TopicsTheoretical and Computational Physics · Hydrocarbon exploration and reservoir analysis · Geological formations and processes
