Power-law decay in first-order relaxation processes
A. Fondado, J. Mira, J. Rivas

TL;DR
This paper demonstrates that first-order relaxation processes tend to follow a power-law decay near the stationary state and introduces a graphical method to distinguish between power-law and stretched exponential decays, supported by experimental and simulated data.
Contribution
It provides a new graphical approach to differentiate decay types in relaxation processes and confirms the prevalence of power-law decay near stationarity.
Findings
Power-law decay fits experimental relaxation data near stationarity.
Graphical method effectively discriminates between power-law and stretched exponential decays.
Supported by magnetic, dielectric, and simulated data.
Abstract
Starting from a simple definition of stationary regime in first-order relaxation processes, we obtain that experimental results are to be fitted to a power-law when approaching the stationary limit. On the basis of this result we propose a graphical representation that allows the discrimination between power-law and stretched exponential time decays. Examples of fittings of magnetic, dielectric and simulated relaxation data support the results.
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