Calculating Lyapunov Exponents for Lorenz Systems

Resource Overview

Compute Lyapunov exponents for Lorenz systems with practical implementation. Easily adaptable code structure allows modification for calculating Lyapunov exponents of custom dynamical systems.

Detailed Documentation

Calculating Lyapunov exponents for Lorenz systems is highly valuable for studying the stability of dynamical systems. These exponents quantify system sensitivity to initial conditions and are fundamental tools for analyzing chaotic behavior. The implementation typically involves numerical integration of the Lorenz equations coupled with tangent vector evolution using algorithms like the Benettin method. By modifying the system equations and Jacobian matrix calculation in the code, you can adapt this framework to compute Lyapunov exponents for your own dynamical systems. Furthermore, Lyapunov exponents find applications across various physical phenomena and disciplines including meteorology, fluid dynamics, and ecological modeling, where they help characterize system predictability and chaotic properties. The core algorithm requires solving differential equations for both the trajectory and perturbation vectors, with careful attention to numerical stability and reorthonormalization procedures.