Validating a Chaos Based Anoxic Event Prediction Method for Estuaries

This paper presents and experiments with a new validation dataset using a method that models anoxia in estuaries. The proposed method incorporates nonlinear time series characterization, time delay methods, unsupervised techniques for intrinsic dimensionality estimation, and manifold learning to predict anoxic events. Characterizing dissolved oxygen time series with features derived from nonlinear time series analysis effectively identified families of series exhibiting differences in their dynamics. The built models showed high correlations and relatively low errors, thus validating the approach on these additional data. However, further work is needed to develop more advanced models capable of operating with time-ordered events.

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Publication Details

Published
2024-09-23
DOI
https://doi.org/10.1109/oceans55160.2024.10754209
Primary Topic
Oceanographic and Atmospheric Processes
Type
article
Field-Weighted Citation Impact
0.00

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article

Validating a Chaos Based Anoxic Event Prediction Method for Estuaries

Thomas Guyondet, Julio J. Valdés, Michael R.S. Coffin, Olivia Rice et al.
Oceanographic and Atmospheric Processes
article

Validating a Chaos Based Anoxic Event Prediction Method for Estuaries

Thomas Guyondet, Julio J. Valdés, Michael R.S. Coffin, Olivia Rice, Guillaume Durand
article en

Abstract

This paper presents and experiments with a new validation dataset using a method that models anoxia in estuaries. The proposed method incorporates nonlinear time series characterization, time delay methods, unsupervised techniques for intrinsic dimensionality estimation, and manifold learning to predict anoxic events. Characterizing dissolved oxygen time series with features derived from nonlinear time series analysis effectively identified families of series exhibiting differences in their dynamics. The built models showed high correlations and relatively low errors, thus validating the approach on these additional data. However, further work is needed to develop more advanced models capable of operating with time-ordered events.

University of New Brunswick (CA), Fisheries and Oceans Canada (CA), National Research Council Canada (CA)
Canadian Food Inspection Agency, Environment and Climate Change Canada, Canadian Space Agency, National Research Council Canada
Life below water, Climate action
Openalex Percentile: Top 78%
Oceanographic and Atmospheric Processes
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