Trace formulas for stochastic evolution operators: Weak noise perturbation theory
arXiv:chao-dyn/9807034 · doi:10.1023/B:JOSS.0000033173.38345.f9
Abstract
Periodic orbit theory is an effective tool for the analysis of classical and quantum chaotic systems. In this paper we extend this approach to stochastic systems, in particular to mappings with additive noise. The theory is cast in the standard field theoretic formalism, and weak noise perturbation theory written in terms of Feynman diagrams. The result is a stochastic analog of the next-to-leading hbar corrections to the Gutzwiller trace formula, with long time averages calculated from periodic orbits of the deterministic system. The perturbative corrections are computed analytically and tested numerically on a simple 1-dimensional system.
20 pages, 2 graphs and 15 Feynman diagrams imported into the text
Cited by in corpus (18)
- Noise-enhanced trapping in chaotic scattering
- Spectrum of stochastic evolution operators: Local matrix representation approach
- Trace formulas for stochastic evolution operators: Smooth conjugation method
- Chaotic Field Theory - a Sketch
- Dynamical entropy for systems with stochastic perturbation
- A boundary integral formalism for stochastic ray tracing in billiards
- Weak noise approach to the logistic map
- A chaotic lattice field theory in one dimension
- Noise corrections to stochastic trace formulas
- Periodic orbit sum rules for billiards: Accelerating cycle expansions
- Traces and determinants of strongly stochastic operators
- Limits of Learning Dynamical Systems
- Trace formula for noise corrections to trace formulas
- Asymptotic expansions for the escape rate of stochastically perturbed unimodal maps
- Noise Can Reduce Disorder in Chaotic Dynamics
- Asymptotics of high order noise corrections
- Escape-rate response to noise of all amplitudes in leaky chaos
- Fractal asymptotics