Scaling laws and simulation results for the self--organized critical forest--fire model
S. Clar, B. Drossel, and F. Schwabl

TL;DR
This paper investigates a self-organized critical forest-fire model, deriving scaling laws and critical exponents through simulations across multiple dimensions, revealing a critical dimension and universality of exponents.
Contribution
It introduces a comprehensive analysis of the model's scaling laws, critical exponents, and universality, including the identification of a critical dimension.
Findings
Critical dimension identified as d_c=6.
Critical exponents are universal across different lattice symmetries.
Mean-field behavior observed above the critical dimension.
Abstract
We discuss the properties of a self--organized critical forest--fire model which has been introduced recently. We derive scaling laws and define critical exponents. The values of these critical exponents are determined by computer simulations in 1 to 8 dimensions. The simulations suggest a critical dimension above which the critical exponents assume their mean--field values. Changing the lattice symmetry and allowing trees to be immune against fire, we show that the critical exponents are universal.
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