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DOE OSTI · 1769712

Framework for an adaptive integrated observation system using a hierarchy of machine learning approaches

Abstract

Focal Area(s): 1. Data acquisition enabled by machine learning, AI, and advanced methods including experimental/network design/optimization, and hardware-related efforts involving AI. 2. Insight gleaned from complex measurements using AI, big data analytics, and other advanced methods, including explainable AI and physics- or knowledge-guided AI Science Challenge and Rationale: Atmospheric processes are stochastic, occur at scales from the micrometer to many kilometers, and are constantly changing over time. Characterizing these interactions and associated environmental conditions using traditional measurement techniques is difficult and can take years to build statistics on atmospheric phenomena that occurs episodically. Developing new innovative approaches to modify sampling strategies in real-time would enable the routine collection of targeted measurements focused on a specific set of science questions.

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BibTeXRIS

Comstock, Jennifer, Hardin, Joseph C., Feng, Zhe. 2021-04-15. Framework for an adaptive integrated observation system using a hierarchy of machine learning approaches. https://doi.org/10.2172/1769712

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