Sustainable intensification: time to question the goal of ever-increasing agricultural production

• We analysed detailed farm management data and multiple soil functions concurrently on 82 commercial farms. • Pedoclimatic variability was constrained to isolate management effects. • Land use intensity increased the function primary production but reduced biodiversity and climate regulation. • Organic fields showed lower land use intensity than conventional, across croplands and grasslands. • Managing soils for multifunctionality requires reframing sustainability beyond field-scale production. Soils play a pivotal role in agroecosystems by supporting multiple functions such as primary production, nutrient cycling, water regulation, climate regulation, and habitat for biodiversity. This study examines how land use intensity (LUI) affects soil multifunctionality in agricultural systems, with a focus on grasslands and croplands under conventional, organic and semi-natural management. Our approach uniquely combines detailed management information from commercial farms with a detailed assessment of multiple soil functions. By restricting the study to a narrow geographic area in the east of the Netherlands, we were able to isolate the effects of management from pedoclimatic variability, thus providing one of the first empirical tests of how LUI shapes multifunctionality under real farming conditions. Soil samples from 45 grasslands and 37 croplands were analysed. Soil functions were quantified using the Soil Navigator Decision Support System, and LUI was calculated from 11 management indicators for grasslands and croplands separately. Results showed that higher LUI improved primary production and nutrient cycling functions but negatively impacted climate regulation and habitat for biodiversity. Organic fields, defined here as those not receiving synthetic fertilisers or pest control, exhibited lower LUI, achieving better biodiversity and climate regulation but at a cost of productivity. Trade-offs were evident between primary production and biodiversity and climate regulation, while synergies were found between habitat for biodiversity and climate regulation. These findings emphasise the complexity of balancing soil functions at field scale, challenging claims that productivity can increase without trade-offs. We conclude that, rather than systematically aiming at intensifying production sustainably at field or farm scale, more attention should be given to balancing food availability with landscape management demands at regional to global scales.

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Publication Details

Journal
Geoderma
Published
2025-10-16
DOI
https://doi.org/10.1016/j.geoderma.2025.117555
Citations
2
Primary Topic
Agriculture Sustainability and Environmental Impact
Type
article
Field-Weighted Citation Impact
3.43
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Sustainable intensification: time to question the goal of ever-increasing agricultural production

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Sustainable intensification: time to question the goal of ever-increasing agricultural production

Chenguang Gao, Rachel Creamer, Peter M. van Bodegom, Johanna Schild, Henk Martens, Jan Hassink, Michiel H. in ‘t Zandt, Gabriel Y.K. Moinet, N.J.M. van Eekeren, Marie J. Zwetsloot, Carmen Vázquez, Rosa Boone, giulia vultaggio, Howard Koster, Marta Loreggian, Deborah J. de Groot
article en
2 citations

Abstract

• We analysed detailed farm management data and multiple soil functions concurrently on 82 commercial farms. • Pedoclimatic variability was constrained to isolate management effects. • Land use intensity increased the function primary production but reduced biodiversity and climate regulation. • Organic fields showed lower land use intensity than conventional, across croplands and grasslands. • Managing soils for multifunctionality requires reframing sustainability beyond field-scale production. Soils play a pivotal role in agroecosystems by supporting multiple functions such as primary production, nutrient cycling, water regulation, climate regulation, and habitat for biodiversity. This study examines how land use intensity (LUI) affects soil multifunctionality in agricultural systems, with a focus on grasslands and croplands under conventional, organic and semi-natural management. Our approach uniquely combines detailed management information from commercial farms with a detailed assessment of multiple soil functions. By restricting the study to a narrow geographic area in the east of the Netherlands, we were able to isolate the effects of management from pedoclimatic variability, thus providing one of the first empirical tests of how LUI shapes multifunctionality under real farming conditions. Soil samples from 45 grasslands and 37 croplands were analysed. Soil functions were quantified using the Soil Navigator Decision Support System, and LUI was calculated from 11 management indicators for grasslands and croplands separately. Results showed that higher LUI improved primary production and nutrient cycling functions but negatively impacted climate regulation and habitat for biodiversity. Organic fields, defined here as those not receiving synthetic fertilisers or pest control, exhibited lower LUI, achieving better biodiversity and climate regulation but at a cost of productivity. Trade-offs were evident between primary production and biodiversity and climate regulation, while synergies were found between habitat for biodiversity and climate regulation. These findings emphasise the complexity of balancing soil functions at field scale, challenging claims that productivity can increase without trade-offs. We conclude that, rather than systematically aiming at intensifying production sustainably at field or farm scale, more attention should be given to balancing food availability with landscape management demands at regional to global scales.

GeodermaVol. 463
Leiden University (NL), Netherlands Environmental Assessment Agency (NL), Radboud University Nijmegen (NL), Radboud University Medical Center (NL), Netherlands Institute of Ecology (NL), Radboud Institute for Molecular Life Sciences (NL), Louis Bolk Instituut (NL), Wageningen University & Research (NL)
Openalex Percentile: Top 7%
Agriculture Sustainability and Environmental Impact
3.43
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