Predicting PDF tails in systems with logarithmic non-linearity
Johan Anderson, Eun-jin Kim

TL;DR
This paper analytically predicts power-law tails in the flux PDF of systems with logarithmic non-linearity, attributing broad, intermittent distributions to short-lived coherent structures called instantons.
Contribution
It introduces an analytical method to predict the power-law tails of flux PDFs in systems with logarithmic non-linearity, linking them to intermittency and instantons.
Findings
PDF tails are broader than Gaussian distributions.
Power-law behavior is analytically derived for flux PDFs.
Intermittency is caused by short-lived coherent structures (instantons).
Abstract
The probability density function (PDF) of flux is computed in systems with logarithmic non-linearity using a model non-linear dynamical equation. The PDF tails of the first moment flux are analytically predicted to be power law. These PDF tails are shown to be broader than a Gaussian distribution and are a manifestation of intermittency caused by short lived coherent structures (instantons).
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