The Global Observation System for Mercury dataset for mercury stable isotope signatures in environmental media

The natural variability in the abundance ratios of stable isotopes of mercury (Hg), which collectively forms its isotopic composition, provides information on Hg sources and biogeochemical pathways. Modern mass spectrometry has allowed for measurement of Hg isotope ratios across atmospheric, aquatic, and terrestrial compartments, often at trace levels. Since realizing the utility of Hg isotope ratios, hundreds of studies have generated a wealth of data that is increasingly challenging to summarize and interpret for individual scientists. Arising as a complimentary initiative under the Global Observation System for Mercury (GOS<sup>4</sup>M) that supports the Minamata Convention on Mercury, we describe the establishment of the iGOS<sup>4</sup>M Hg isotope dataset. In its present form, iGOS<sup>4</sup>M has > 11,000 data entries from 190 studies, which together with metadata on sample type, geographical location, Hg concentration, and other environmental and ecological parameters, provide a long-needed catalogue of knowledge gathered by and for the Hg isotope community. We introduce the structure of iGOS<sup>4</sup>M and a standardization rubric to promote global consistency in measurement and data reporting.

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Publication Details

Journal
Scientific Data
Published
2026-03-17
DOI
https://doi.org/10.1038/s41597-026-07035-3
Primary Topic
Mercury impact and mitigation studies
Type
article
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article

The Global Observation System for Mercury dataset for mercury stable isotope signatures in environmental media

D. Williams, Sae Yun Kwon, Jason D. Demers, Ryan F. Lepak et al.
Scientific Data
Mercury impact and mitigation studies
article

The Global Observation System for Mercury dataset for mercury stable isotope signatures in environmental media

D. Williams, Sae Yun Kwon, Jason D. Demers, Ryan F. Lepak, Moonkyoung Cho, Wenbo Zheng, Hoin Lee, Sarah E. Janssen, Jeroen E. Sonke
article en

Abstract

The natural variability in the abundance ratios of stable isotopes of mercury (Hg), which collectively forms its isotopic composition, provides information on Hg sources and biogeochemical pathways. Modern mass spectrometry has allowed for measurement of Hg isotope ratios across atmospheric, aquatic, and terrestrial compartments, often at trace levels. Since realizing the utility of Hg isotope ratios, hundreds of studies have generated a wealth of data that is increasingly challenging to summarize and interpret for individual scientists. Arising as a complimentary initiative under the Global Observation System for Mercury (GOS<sup>4</sup>M) that supports the Minamata Convention on Mercury, we describe the establishment of the iGOS<sup>4</sup>M Hg isotope dataset. In its present form, iGOS<sup>4</sup>M has > 11,000 data entries from 190 studies, which together with metadata on sample type, geographical location, Hg concentration, and other environmental and ecological parameters, provide a long-needed catalogue of knowledge gathered by and for the Hg isotope community. We introduce the structure of iGOS<sup>4</sup>M and a standardization rubric to promote global consistency in measurement and data reporting.

Scientific Data
Pohang University of Science and Technology (KR), United States Geological Survey (US), Centre National de la Recherche Scientifique (FR), University of New Hampshire (US), Tianjin University (CN), University of Minnesota, Duluth (US), Géosciences Environnement Toulouse (FR), Institut de Recherche pour le Développement (FR), The Ohio State University (US)
Openalex Percentile: Top 21%
Mercury impact and mitigation studies
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