France is facing growing agricultural challenges as droughts, rising costs, supply shortages, and climate change place increasing pressure on farmers and food production. A new study suggests that regenerative farming may offer an effective solution by improving crop resilience during extreme weather while helping restore soil health.
The research, conducted by Soil Capital in partnership with Belgium’s KU Leuven University, analyzed independently verified data from 1,262 farms covering more than 331,000 hectares across France between 2021 and 2024. The study examined farming practices, soil conditions, and crop yields to determine how different management approaches performed during the severe droughts of 2023.
The results showed a significant advantage for farms using regenerative practices. Highly regenerative farms experienced an average crop yield decline of just 8 percent during drought conditions, compared with a 22 percent decline among the least regenerative farms. These findings provide some of the strongest large-scale evidence to date that regenerative farming can improve agricultural resilience and reduce production losses during periods of water scarcity.
The benefits were particularly noticeable in cereal-growing regions, which represented 82 of France’s 96 departments included in the study. Researchers found that regenerative practices reduced drought-related yield losses by at least 10 percent in approximately 85 percent of drought-affected cereal-growing areas. The analysis accounted for other variables, including soil type, helping strengthen confidence that farming practices played a major role in the improved outcomes.
According to Soil Capital, widespread adoption of the most effective regenerative methods across France could protect enough wheat during a future drought to supply a typical industrial flour mill for 17 weeks. This amount of wheat would be sufficient to produce approximately 130 million baguettes, highlighting the potential food security benefits of these practices.
The findings arrive as concerns about global water shortages continue to grow. The United Nations’ 2026 Global Water Bankruptcy report warned that critical water systems around the world have suffered extensive damage, partly due to soil degradation. Drought-related losses now exceed $307 billion annually worldwide, and the UN projects that drought could affect three out of every four people by 2050. International organizations increasingly identify soil restoration as a key strategy for improving food security, climate resilience, and water management.
The effectiveness of regenerative farming is closely linked to its ability to improve soil health. Unlike conventional agricultural systems that often rely heavily on tillage, monocropping, and synthetic fertilizers, regenerative approaches focus on rebuilding soil organic matter, increasing biodiversity, and improving ecosystem function. Healthier soils act like natural sponges, storing and retaining more water during dry periods.
Research from France’s national agricultural research institute, INRAE, found that soils managed using regenerative techniques can hold between 8 and 15 percent more water than conventionally tilled soils. These soils also produced 15 to 20 percent more biomass from the same amount of water. Additional studies suggest that a one percent increase in soil organic matter can allow a hectare of land to store roughly 350,000 extra litres of water.
Key practices associated with regenerative farming include cover cropping, crop rotation, and reduced tillage. Cover crops protect and enrich the soil between harvests, crop rotations improve nutrient balance and reduce pest pressures, and reduced tillage encourages earthworm activity and deeper root systems that improve water infiltration. Together, these techniques help farmers build more resilient soils capable of withstanding drought.
The study’s findings reinforce growing evidence that restoring soil health may be one of the most effective ways to strengthen agricultural productivity, improve climate resilience, and protect food supplies in an increasingly warming world.