Search citation statements
Paper Sections
Citation Types
Year Published
Publication Types
Relationship
Authors
Journals
Ocean observing systems in coastal, shelf and marginal seas collect diverse oceanographic information supporting a wide range of socioeconomic needs, but observations are necessarily sparse in space and/or time due to practical limitations. Ocean analysis and forecast systems capitalize on such observations, producing data-constrained, four-dimensional oceanographic fields. Here we review efforts to quantify the impact of ocean observations, observing platforms, and networks of platforms on model products of the physical ocean state in coastal regions. Quantitative assessment must consider a variety of issues including observation operators that sample models, error of representativeness, and correlated uncertainty in observations. Observing System Experiments, Observing System Simulation Experiments, representer functions and array modes, observation impacts, and algorithms based on artificial intelligence all offer methods to evaluate data-based model performance improvements according to metrics that characterize oceanographic features of local interest. Applications from globally distributed coastal ocean modeling systems document broad adoption of quantitative methods, generally meaningful reductions in model-data discrepancies from observation assimilation, and support for assimilation of complementary data sets, including subsurface in situ observation platforms, across diverse coastal environments.
Ocean observing systems in coastal, shelf and marginal seas collect diverse oceanographic information supporting a wide range of socioeconomic needs, but observations are necessarily sparse in space and/or time due to practical limitations. Ocean analysis and forecast systems capitalize on such observations, producing data-constrained, four-dimensional oceanographic fields. Here we review efforts to quantify the impact of ocean observations, observing platforms, and networks of platforms on model products of the physical ocean state in coastal regions. Quantitative assessment must consider a variety of issues including observation operators that sample models, error of representativeness, and correlated uncertainty in observations. Observing System Experiments, Observing System Simulation Experiments, representer functions and array modes, observation impacts, and algorithms based on artificial intelligence all offer methods to evaluate data-based model performance improvements according to metrics that characterize oceanographic features of local interest. Applications from globally distributed coastal ocean modeling systems document broad adoption of quantitative methods, generally meaningful reductions in model-data discrepancies from observation assimilation, and support for assimilation of complementary data sets, including subsurface in situ observation platforms, across diverse coastal environments.
The collection of meteorological and oceanographic (met-ocean) data is essential to advance knowledge of the state of the oceans, leading to better-informed decisions. Despite the technological advances and the increase in data collection in recent years, met-ocean data collection is still not trivial as it requires a high effort and cost. In this context, data resulting from commercial activities increasingly complement existing scientific data collections in the vast ocean. Commercial fishing vessels (herein fishing vessels) are an example of observing platforms for met-ocean data collection, providing valuable additional temporal and spatial coverage, particularly in regions often not covered by scientific platforms. These data could contribute to the Global Ocean Observing System (GOOS) with Essential Ocean Variables (EOV) provided that the accessibility and manageability of the created datasets are guaranteed by adhering to the FAIR principles, and reproducible uncertainty is included in the datasets. Like other industrial activities, fisheries sometimes are reluctant to share their data, thus anonymization techniques, as well as data license and access restrictions could help foster collaboration between them and the oceanographic community. The main aim of this article is to guide, from a practical point of view, how to create highly FAIR datasets from fishing vessel met-ocean observations towards establishing fishing vessels as new met-ocean observing platforms. First, the FAIR principles are presented and comprehensively described, providing context for their later implementation. Then, the lifecycle of three datasets is showcased as case studies to illustrate the steps to be followed. It starts from data acquisition and follows with the quality control, processing and validation of the data, which shows good general performance and therefore further reassures the potential of fishing vessels as met-ocean data collection platforms. The next steps contribute to making the datasets as FAIR as possible, by richly documenting them with standardized and convention-based vocabularies, metadata and format. Subsequently, the datasets are submitted to widely used repositories while a persistent identifier is also assigned. Finally, take-home messages and lessons learned are provided in case they are useful for new dataset creators.
scite is a Brooklyn-based organization that helps researchers better discover and understand research articles through Smart Citations–citations that display the context of the citation and describe whether the article provides supporting or contrasting evidence. scite is used by students and researchers from around the world and is funded in part by the National Science Foundation and the National Institute on Drug Abuse of the National Institutes of Health.
customersupport@researchsolutions.com
10624 S. Eastern Ave., Ste. A-614
Henderson, NV 89052, USA
This site is protected by reCAPTCHA and the Google Privacy Policy and Terms of Service apply.
Copyright © 2025 scite LLC. All rights reserved.
Made with 💙 for researchers
Part of the Research Solutions Family.