Isoline retrieval: An optimal sounding method for validation of advected contours
Peter Mills

TL;DR
This paper introduces isoline retrieval, an optimal method for validating advected contours in fluid systems, demonstrated through water vapor measurements in the upper troposphere, showing high accuracy and agreement with satellite and radiosonde data.
Contribution
The study presents isoline retrieval as a novel, highly effective validation technique for advected contours in atmospheric fluid dynamics.
Findings
Isoline retrieval accurately captures chaotic mixing features.
The method shows good agreement with satellite and radiosonde data.
Rescaling probabilities reveals filament structures in the data.
Abstract
The study of chaotic mixing is important for its potential to improve our understanding of fluid systems. Contour advection simulations provide a good model of the phenomenon by tracking the evolution of one or more contours or isolines of a trace substance to a high level of precision. The most accurate method of validating an advected contour is to divide the tracer concentration into discrete ranges and perform a maximum likelihood classification, a method that we term, "isoline retrieval." Conditional probabilities generated as a result provide excellent error characterization. In this study, a water vapour isoline of 0.001 mass-mixing-ratio is advected over five days in the upper troposphere and compared with high-resolution AMSU (Advanced Microwave Sounding Unit) satellite retrievals. The goal is to find the same fine-scale, chaotic mixing in the isoline retrievals as seen in…
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