High-resolution soybean tracing for deforestation-free supply chains

Abstract Soybean farming—providing protein-rich feed for farm animals worldwide—is the third largest driver of tropical deforestation and expanding. Importing economies are considering regulating the trade of soybeans and other deforestation-driving commodities, and trading companies will be required to conduct due diligence to ensure compliance. However, complex supply chains obscure provenance, and origin declarations may be falsified. Here, leveraging Gaussian Process modelling and a georeferenced dataset of isotopic and elemental composition of soybeans from across the main soy growing areas of South America, we identify soybean origin to within 192.52 ( ± 23.51) kilometres from the true harvest location. The average 95% Credible Regions reduces prediction uncertainty to within 3.8% of the area considered for prediction. Our spatially explicit model is a leap forward in commodity traceability, enabling both origin determination and verification of origin claims in true geographical space. Applicable to many commodities, this framework provides transparency regardless of supply-chain complexity, and facilitates effective regulation of commodity supply chains to tackle illegal deforestation.

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Publication Details

Journal
Communications Earth & Environment
Published
2026-04-13
DOI
https://doi.org/10.1038/s43247-026-03380-8
Primary Topic
Isotope Analysis in Ecology
Type
article
Field-Weighted Citation Impact
0.00

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article

High-resolution soybean tracing for deforestation-free supply chains

Jade Saunders, Jessica Dunn, Roi Maor, Isabella Miles-Bunch et al.
Communications Earth & Environment
Isotope Analysis in Ecology
article

High-resolution soybean tracing for deforestation-free supply chains

Jade Saunders, Jessica Dunn, Roi Maor, Isabella Miles-Bunch, Lauren Phelan, Caspar Chater, Victor Deklerck, Marigold Norman, L Prior, Jakub Truszkowski, Henry Jennings, Paul Wilkin, Rosario Carrasco, Marysol Jaime-Arteaga, Francesca Ablett
article en

Abstract

Abstract Soybean farming—providing protein-rich feed for farm animals worldwide—is the third largest driver of tropical deforestation and expanding. Importing economies are considering regulating the trade of soybeans and other deforestation-driving commodities, and trading companies will be required to conduct due diligence to ensure compliance. However, complex supply chains obscure provenance, and origin declarations may be falsified. Here, leveraging Gaussian Process modelling and a georeferenced dataset of isotopic and elemental composition of soybeans from across the main soy growing areas of South America, we identify soybean origin to within 192.52 ( ± 23.51) kilometres from the true harvest location. The average 95% Credible Regions reduces prediction uncertainty to within 3.8% of the area considered for prediction. Our spatially explicit model is a leap forward in commodity traceability, enabling both origin determination and verification of origin claims in true geographical space. Applicable to many commodities, this framework provides transparency regardless of supply-chain complexity, and facilitates effective regulation of commodity supply chains to tackle illegal deforestation.

Communications Earth & EnvironmentVol. 7(1)
Meise Botanic Garden (BE), Royal Botanic Gardens, Kew (GB), Government of the United States of America (US), University of Oxford (GB), World Forest ID, University of Gothenburg (SE), University of Sheffield (GB)
Department for Environment, Food and Rural Affairs, UK Government
Zero hunger
Openalex Percentile: Top 22%
Isotope Analysis in Ecology
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