35 pages, 15 FiguresInternational audienceWe introduce a dissipative version of the Zhang's model of Self-Organized Criticality, where a parameter allows to tune the local energy dissipation. We analyze the main dynamical features of the model and relate in particular the Lyapunov spectrum with the transport properties in the stationary regime. We develop a thermodynamic formalism where we define formal Gibbs measure, partition function and pressure characterizing the avalanche distributions. We discuss the infinite size limit in this setting. We show in particular that a Lee-Yang phenomenon occurs in this model, for the only conservative case. This suggests new connexions to classical critical phenomena
We introduce a general theoretical scheme for a class of phenomena characterized by an extremal dyna...
We describe the construction of a conserved reaction-diffusion system that exhibits self-organized c...
Unlike the conventional case of using cellular automata, we use a system of differential equations t...
35 pages, 15 FiguresWe introduce a dissipative version of the Zhang\'s model of Self-Organized Criti...
Cessac B, Blanchard P, Krüger T, Meunier JL. Self-organized criticality and thermodynamic formalism....
Cessac B, Blanchard P, Krüger T. Lyapunov exponents and transport in the Zhang model of self-organiz...
33 pages, 6 figures, 1 tableWe discuss the role played by the Lyapunov exponents in the dynamics of ...
Blanchard P, Cessac B, Krüger T. What can one learn about self-organized criticality from dynamical ...
33 pages, 19 figures, submittedWe show that the generating functions of avalanche observables in SOC...
Different microscopic models exhibiting self-organized criticality are studied numerically and analy...
10 pages, proceeding of the conference "Fractales en progres", Paris 12-13 NovemberInternational aud...
We suggest that ensembles of self-replicating entities such as biological systems naturally evolve t...
Critical exponents of the infinitely slowly driven Zhang model of self-organized criticality are com...
Power laws and distributions with heavy tails are common features of many complex systems. Examples ...
Critical exponents of the infinitely slowly driven Zhang model of self-organized criticality are com...
We introduce a general theoretical scheme for a class of phenomena characterized by an extremal dyna...
We describe the construction of a conserved reaction-diffusion system that exhibits self-organized c...
Unlike the conventional case of using cellular automata, we use a system of differential equations t...
35 pages, 15 FiguresWe introduce a dissipative version of the Zhang\'s model of Self-Organized Criti...
Cessac B, Blanchard P, Krüger T, Meunier JL. Self-organized criticality and thermodynamic formalism....
Cessac B, Blanchard P, Krüger T. Lyapunov exponents and transport in the Zhang model of self-organiz...
33 pages, 6 figures, 1 tableWe discuss the role played by the Lyapunov exponents in the dynamics of ...
Blanchard P, Cessac B, Krüger T. What can one learn about self-organized criticality from dynamical ...
33 pages, 19 figures, submittedWe show that the generating functions of avalanche observables in SOC...
Different microscopic models exhibiting self-organized criticality are studied numerically and analy...
10 pages, proceeding of the conference "Fractales en progres", Paris 12-13 NovemberInternational aud...
We suggest that ensembles of self-replicating entities such as biological systems naturally evolve t...
Critical exponents of the infinitely slowly driven Zhang model of self-organized criticality are com...
Power laws and distributions with heavy tails are common features of many complex systems. Examples ...
Critical exponents of the infinitely slowly driven Zhang model of self-organized criticality are com...
We introduce a general theoretical scheme for a class of phenomena characterized by an extremal dyna...
We describe the construction of a conserved reaction-diffusion system that exhibits self-organized c...
Unlike the conventional case of using cellular automata, we use a system of differential equations t...