Path integral description and direct interaction approximation for elastic plate turbulence
Ignacio Pavez, Gustavo D\"uring

TL;DR
This paper applies the path integral formalism and diagrammatic techniques to elastic plate turbulence, deriving DIA equations that connect stochastic processes with wave turbulence theory, potentially advancing understanding of nonlinear wave behavior.
Contribution
It introduces a novel application of the Martin-Siggia-Rose path integral formalism to elastic plates and derives DIA equations linking stochastic processes to wave turbulence.
Findings
DIA equations for elastic plates are derived from non-markovian stochastic processes.
In the weakly nonlinear limit, DIA reduces to the wave turbulence kinetic equation.
The approach offers insights into the statistical properties and breakdown of wave turbulence.
Abstract
In this work, we apply the Martin-Siggia-Rose path integral formalism to the equations of a thin elastic plate. Using a diagrammatic technique, we obtain the direct interaction approximation (DIA) equations to describe the evolutions of the correlation function and the response function of the fields. Consistent with previous results, we show that DIA equations for elastic plates can be derived from a non-markovian stochastic process and that in the weakly nonlinear limit, the DIA equations lead to the kinetic equation of wave turbulence theory. We expect that this approach will allow a better understanding of the statistical properties of wave turbulence and that DIA equations can open new avenues for understanding the breakdown of weakly nonlinear turbulence for elastic plates.
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Taxonomy
TopicsFluid Dynamics and Turbulent Flows · Advanced Fiber Optic Sensors · Surfactants and Colloidal Systems
