Ecological impact of conventional, organic and biodynamic viticultural systems and associated practices on soil microbiota in different French territories

Organic (OV) and biodynamic (BD) production systems have developed substantially as alternatives to conventional systems (CV) to increase the sustainability of viticulture. However, their impact on the biological quality of soil is still poorly documented. Here, we characterised different soil microbiota parameters in a network of 152 vineyard plots using molecular tools based on soil DNA characterisation. The plots were equally distributed in three French viticultural territories (Alsace, northern Burgundy, southern Burgundy) and selected to balance the relative share of each production system (1/3 of CV, OV and BD). Data on soil management practices such as soil tillage, inter-row plant cover and fertilisation were also collected for each plot to explore their impact on the soil microbiota. More intensive soil tillage, sparse inter-row plant cover, and the export of vine shoots frequently observed in northern Burgundy plots partly explained the reduction of ∼50 % of molecular microbial biomass, ∼15 % of microbial diversity and ∼90 % of microbial interactions compared to the soils sampled in Alsace. Variance partitioning of the cumulated microbial dataset showed higher microbial biomass and bacterial richness in OV than in CV and in BD than in OV. The complexity of microbial interactions networks increased by about 145 % in BD compared to CV and decreased by about 37 % in OV compared to CV. Our findings suggest that while OV and BD systems can enhance soil microbiota quality, their benefits could be further optimized through improved cover cropping and reduced tillage. Comparative stimulation of soil microbiota parameters according to viticultural systems. • An extensive network of viticultural plots is relevant for assessing the impact of viticulture on soil microbiota. • Soil management intensity was a significant driver of soil microbiota. • Soil microbiota was significantly stimulated by organic and biodynamic viticulture.

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Publication Details

Journal
Agriculture Ecosystems & Environment
Published
2025-05-28
DOI
https://doi.org/10.1016/j.agee.2025.109748
Citations
1
Primary Topic
Horticultural and Viticultural Research
Type
article
Field-Weighted Citation Impact
1.75
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Ecological impact of conventional, organic and biodynamic viticultural systems and associated practices on soil microbiota in different French territories

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Ecological impact of conventional, organic and biodynamic viticultural systems and associated practices on soil microbiota in different French territories

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article en
1 citations

Abstract

Organic (OV) and biodynamic (BD) production systems have developed substantially as alternatives to conventional systems (CV) to increase the sustainability of viticulture. However, their impact on the biological quality of soil is still poorly documented. Here, we characterised different soil microbiota parameters in a network of 152 vineyard plots using molecular tools based on soil DNA characterisation. The plots were equally distributed in three French viticultural territories (Alsace, northern Burgundy, southern Burgundy) and selected to balance the relative share of each production system (1/3 of CV, OV and BD). Data on soil management practices such as soil tillage, inter-row plant cover and fertilisation were also collected for each plot to explore their impact on the soil microbiota. More intensive soil tillage, sparse inter-row plant cover, and the export of vine shoots frequently observed in northern Burgundy plots partly explained the reduction of ∼50 % of molecular microbial biomass, ∼15 % of microbial diversity and ∼90 % of microbial interactions compared to the soils sampled in Alsace. Variance partitioning of the cumulated microbial dataset showed higher microbial biomass and bacterial richness in OV than in CV and in BD than in OV. The complexity of microbial interactions networks increased by about 145 % in BD compared to CV and decreased by about 37 % in OV compared to CV. Our findings suggest that while OV and BD systems can enhance soil microbiota quality, their benefits could be further optimized through improved cover cropping and reduced tillage. Comparative stimulation of soil microbiota parameters according to viticultural systems. • An extensive network of viticultural plots is relevant for assessing the impact of viticulture on soil microbiota. • Soil management intensity was a significant driver of soil microbiota. • Soil microbiota was significantly stimulated by organic and biodynamic viticulture.

Agriculture Ecosystems & EnvironmentVol. 392
Centre National de la Recherche Scientifique (FR), Université Paris Sciences et Lettres (FR), École Normale Supérieure - PSL (FR), Institut National de Recherche pour l'Agriculture, l'Alimentation et l'Environnement (FR), Comité Champagne (FR), Biodynamic Research Corporation (United States) (US), Santé et Agroécologie du Vignoble (FR), École Normale Supérieure (BI), Institut Agro Dijon (FR), Laboratoire de Sciences de la Terre (FR), Laboratoire de Géologie de l’École Normale Supérieure (FR), Dassault Systèmes (France) (FR)
Zero hunger
Openalex Percentile: Top 15%
Horticultural and Viticultural Research
1.75
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