Shannon entropy analysis of the stretched exponential process : application to various shear induced multilamellar vesicles system
Hirokazu Maruoka, Akio Nishimura, Makoto Yoshida, Keisuke Hatada

TL;DR
This study uses Shannon entropy to analyze the non-uniformity of relaxation processes in shear-induced multilamellar vesicles, revealing how shear type and frequency affect the process's statistical homogeneity and entropy.
Contribution
It introduces Shannon entropy as a novel tool to quantify non-uniformity in stretched exponential relaxation processes under shear conditions.
Findings
Shannon entropy peaks at β=1, indicating a single exponential process.
Sine shear shows frequency-dependent Shannon entropy.
Higher shear intensity correlates with increased Shannon entropy, reflecting less constrained diffusion.
Abstract
The stretched exponential function, , describes various relaxation processes while it has been suggested that the power exponent, is derived from the non-uniformity of the process. In this paper, we attempted to estimate this non-uniformity by introducing Shannon entropy. Shannon entropy evaluates the average information contents of the distribution function, which reflects statistical homogeneity. We investigated the relaxation process of shear induced multilamellar system, which is described with the stretched exponential function. Three types of shear (constant, square, sine) at different frequencies are attempted in order to determine their effects on the relaxation process. We found that the Shannon entropy to which the first moment was introduced is maximized at : a single exponential. The Shannon entropy of sine shear experiments…
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