In recent years, the term regenerative agriculture has been appearing with increasing frequency. It is neither a passing trend nor a simple evolution of organic farming: it is a paradigm shift. The core idea is both simple and revolutionary: it is not enough to reduce the impact of agriculture — we must regenerate what has been degraded. Soil, water, biodiversity, landscape: everything can function better than before if managed with ecological intelligence.
The concept originated in the United States in the 1980s, thanks to the Rodale Institute, but it truly gained momentum over the past decade, as it became clear that intensive agricultural models — although productive — come with growing costs: erosion, loss of organic matter, water stress, declining biodiversity, and increased vulnerability to climate change. Today, regenerative agriculture is at the center of research projects, private investments, and supply‑chain initiatives in the USA, Canada, South Africa, Spain, and Italy, especially in perennial crops such as grapevines, fruit trees, berries, and citrus.

- Why Regenerative Agriculture Is Needed
The goal is not only to produce high‑quality fruit or grapes, but to do so within an agricultural system that improves over time instead of degrading.
Regenerating the soil
Soil is the heart of the system. Regenerative practices increase organic matter, improve structure, enhance microbial life, and make the soil more capable of retaining water. A living soil is a soil that “works” for the farmer: it filters, nourishes, protects.
Facing climate change
With hotter summers, irregular rainfall, and extreme events, resilience is everything. Regenerative systems reduce erosion, limit runoff, and maintain more moisture in the soil, making crops less vulnerable to stress.
Reducing inputs and costs
Fewer mineral fertilizers, fewer pesticides, fewer deep tillage operations. This is not only an environmental benefit — it is also an economic one, especially in the medium term.
Increasing biodiversity
Hedgerows, cover crops, natural groundcovers, and ecological infrastructures attract beneficial insects, pollinators, and natural predators. A richer ecosystem is also more stable and less dependent on chemical inputs.

- How It Is Practiced: The Levers of Regeneration
Regenerative agriculture is not a rigid protocol but a set of adaptable principles. The most common practices include:
- Permanent soil cover with cover crops or natural vegetation
- Reduced tillage to avoid disturbing soil structure
- Organic amendments such as compost, mature manure, digestate, biochar
- Ecological infrastructures: hedgerows, flower strips, ecological corridors
- Integration of grazing (especially sheep) in vineyards and orchards
- Reduction of chemical inputs thanks to more balanced ecosystems
Each farm builds its own pathway based on climate, soil, and crop type.
- What Really Changes: Observed Results
Studies conducted in key regions show recurring effects.
Healthier soil
Measurable increases in organic matter, greater aggregate stability, and more microbial life. The soil becomes softer, better drained, and more capable of retaining water.
Better water management
Faster infiltration, reduced runoff, greater water retention. In drought years, this makes a decisive difference.
More stable yields
In the short term, yields may be similar or slightly lower, but in the medium‑long term they become more stable, especially under challenging climatic conditions.
More consistent quality
Less stress means more balanced fruits, firmer texture, and better shelf life.
Environmental benefits
Carbon sequestration, reduced inputs, increased functional biodiversity.
- The Role of Protective Covers in Regenerative Agriculture

Within regenerative agriculture, protective covers — whether rain shelters, hail nets, insect‑proof nets, or multifunctional protection systems — are taking on an increasingly central role. Although often perceived as “technical” tools typical of intensive agriculture, numerous studies show that, when properly integrated, they can become key allies for soil regeneration, biodiversity, and climate resilience.
The first contribution of covers concerns soil protection. By reducing the direct impact of rainfall, they limit runoff and erosion — two major drivers of soil degradation, especially in hillside vineyards and orchards. In Spain and South Africa, where extreme events are frequent, covers have been shown to preserve soil structure, stabilize groundcover vegetation, and promote the accumulation of organic matter over time.
A second benefit relates to water management. Covers reduce fruit and soil wetness, limit evaporation, and help maintain a more stable microclimate. This results in lower water stress for plants and greater irrigation efficiency — a crucial aspect in a changing climate. In sensitive crops such as blueberries, kiwifruit, and stone fruits, studies show that covers can reduce fruit temperature and mitigate thermal peaks, improving plant physiology.
Covers also have a significant impact on reducing chemical inputs, a pillar of regenerative agriculture. Insect‑proof nets, for example, drastically reduce insecticide use, especially against Drosophila suzukii in berries. Fewer treatments mean less pressure on soil, biodiversity, and surrounding ecosystems.
Finally, covers contribute to production stability — a key element of regenerative systems. By protecting against rain, hail, insects, and thermal stress, they reduce losses and help maintain more consistent yields over time. This is particularly important for perennial crops, where production continuity is essential for economic sustainability.
In summary, when integrated into a regenerative system — with living soil, groundcover, biodiversity, and reduced tillage — covers are not an “artificial” element but a tool that enhances agroecosystem resilience, reduces inputs, and protects the natural capital of the farm.
- Crop‑Specific Applications
Grapevines
Regenerative viticulture is among the most advanced. In the USA, Spain, and Italy, growers experiment with multifunctional cover crops, sheep grazing, reduced tillage, and biodiversity hedgerows. Results include more stable soils, reduced erosion, improved vine balance, and in some cases, more complex wines.
Pome fruits (apple, pear)
In Canada, Italy, and Spain, efforts focus on permanent groundcover, compost, and hedgerows. Regenerative orchards show better soil structure, reduced compaction, and improved water efficiency.
Stone fruits (peach, apricot, cherry)
In Spain and Italy, growers adopt summer cover crops, regenerative irrigation management, and reduced inputs. Fruits tend to be firmer and less prone to water and heat stress.
Kiwifruit
A crop highly sensitive to soil and water issues, kiwifruit benefits naturally from regenerative practices. Compost, biochar, and controlled groundcover improve root health and drought resilience.
Strawberries
In intensive systems, regenerative practices (organic mulches, rotations, reduced tillage) improve soil structure and reduce soil‑borne diseases.
Blueberries
In the USA and Canada, growers use organic mulches, biochar, and groundcover. Results include firmer fruits, improved soil acidity, and reduced water stress.
Citrus
In Spain, Italy, and South Africa, permanent groundcover and regenerative water‑soil management reduce erosion and improve water efficiency.
- Trends and Future Scenarios
Regenerative agriculture is entering a phase of maturity. Specific certifications, carbon‑farming programs, and digital tools for monitoring soil, water, and biodiversity are becoming more widespread. Perennial crops — especially grapevines and fruit trees — will be among the key players in the coming years, thanks to their ability to integrate regenerative practices in a stable and long‑lasting way.




















