Examining the Capability of Machine Learning Methods for Unraveling Ocean Dynamics from Long-Range M-Sequence Data

Accurately representing ocean dynamics is crucial for naval monitoring and has garnered significant interest. The complexity of the ocean, akin to other intricate physical systems, poses challenges due to the absence of a closed-form equation of the dynamics. Additionally, environmental nonlinearities further complicate modeling efforts. However, recent advancements in data-driven machine learning methods offer promising solutions for unraveling some of the complex patterns in the ocean. In this work, we use long range m-sequence waveform data to investigate the ocean's hidden dynamics. The methods employed are inherently data-driven, enabling the discovery of low dimensional representations of the data without supervision. Preliminary results from applying these methods to m-sequence waveform data from the Wake Island Station are presented.

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Published
2024-09-23
DOI
https://doi.org/10.1109/oceans55160.2024.10754099
Primary Topic
Oceanographic and Atmospheric Processes
Type
article
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article

Examining the Capability of Machine Learning Methods for Unraveling Ocean Dynamics from Long-Range M-Sequence Data

Andrew J. Christensen, Ananya Sen Gupta, Nicholas C. Durofchalk, Kay L. Gemba et al.
Oceanographic and Atmospheric Processes
article

Examining the Capability of Machine Learning Methods for Unraveling Ocean Dynamics from Long-Range M-Sequence Data

Andrew J. Christensen, Ananya Sen Gupta, Nicholas C. Durofchalk, Kay L. Gemba, Timothy Linhardt, Ivars Kirsteins
article en

Abstract

Accurately representing ocean dynamics is crucial for naval monitoring and has garnered significant interest. The complexity of the ocean, akin to other intricate physical systems, poses challenges due to the absence of a closed-form equation of the dynamics. Additionally, environmental nonlinearities further complicate modeling efforts. However, recent advancements in data-driven machine learning methods offer promising solutions for unraveling some of the complex patterns in the ocean. In this work, we use long range m-sequence waveform data to investigate the ocean's hidden dynamics. The methods employed are inherently data-driven, enabling the discovery of low dimensional representations of the data without supervision. Preliminary results from applying these methods to m-sequence waveform data from the Wake Island Station are presented.

University of Iowa (US), Naval Undersea Warfare Center (US), Naval Postgraduate School (US)
Office of Naval Research
Life below water
Openalex Percentile: Top 78%
Oceanographic and Atmospheric Processes
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Examining the Capability of Machine Learning Methods for Unraveling Ocean Dynamics from Long-Range M-Sequence Data — Andrew J. Christensen, Ananya Sen Gupta, et al. · (2024) | TGRS Research Map | TGRS