Kinetics of Fluid Demixing in Complex Plasmas: Domain Growth Analysis using Minkowski Tensors
Alexander B\"obel, Christoph R\"ath

TL;DR
This study uses Minkowski tensor analysis to investigate the demixing kinetics in complex plasmas, revealing differences in domain growth behavior based on interaction scales and demonstrating the method's superior sensitivity over traditional power spectrum analysis.
Contribution
The paper introduces Minkowski tensor analysis as a more sensitive tool for studying domain growth in plasma demixing, highlighting its ability to distinguish interaction scale effects.
Findings
Minkowski tensor methods outperform power spectrum in sensitivity.
Distinct demixing behaviors for single vs. multiple interaction scales.
Universal behavior observed after proper scaling.
Abstract
A molecular dynamics simulation of the demixing process of a binary complex plasma is analysed and the role of distinct interaction potentials is discussed by using morphological Minkowski tensor analysis of the minority phase domain growth in a demixing simulated binary complex plasma. These Minkowski tensor methods are compared with previous results that utilized a power spectrum method based on the time-dependent average structure factor. It is shown that the Minkowski tensor methods are superior to the previously used power spectrum method in the sense of higher sensitivity to changes in domain size. By analysis of the slope of the temporal evolution of Minkowski tensor measures qualitative differences between the case of particle interaction with a single length scale compared to particle interactions with two different length scales (dominating long range interaction) are…
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Taxonomy
TopicsDust and Plasma Wave Phenomena · Solar and Space Plasma Dynamics · Theoretical and Computational Physics
