Self-Organized Criticality Systems in Astrophysics (Chapter 13)

TL;DR

This chapter reviews the application of self-organized criticality (SOC) theory to various astrophysical phenomena, highlighting theoretical frameworks and observational evidence across multiple celestial systems.

Contribution

It synthesizes SOC theory with astrophysical observations, providing a comprehensive overview of how SOC explains diverse cosmic phenomena.

Findings

SOC models explain size distributions of astrophysical events

Scaling laws relate thermal emission and acceleration mechanisms

Observational data support SOC behavior in multiple celestial systems

Abstract

Chapter 13: SOC Systems in Astrophysics --- Content list: 13.1 Theory -- 13.1.1 The Sacle-Free Probability Theorem - 13.1.2 The Fractal-Diffusive Spatio-Temporal Relationship - 13.1.3 Size Distributions of Astrophysical Observables - 13.1.4 Scaling Laws for Thermal Emission of Astrophysical Plasmas - 13.1.5 Scaling Laws for Astrophysical Acceleration Mechanisms - 13.2 Observations -- 13.2.1 Lunar Craters - 13.2.2 Asteroid Belt - 13.2.3 Saturn Ring - 13.2.4 Magnetospheric Substorms and Auroras - 13.2.5 Solar Flares - 13.2.6 Stellar Flares - 13.2.7 Pulsars - 13.2.8 Soft Gamma-Ray Repeaters - 13.2.9 Black-Hole Objects - 13.2.10 Blazars - 13.2.11 Cosmic Rays - 13.3 Conclusions