Regenerative agriculture is not just one farming method. It is a whole way of thinking about land, food, animals, people and ecosystems. At its heart, regenerative agriculture asks a simple but powerful question:
How can farming improve the land, rather than simply take from it?
Instead of only focusing on yield, regenerative farming looks at soil health, biodiversity, water cycles, animal welfare, carbon storage, nutrient density, farm resilience and the long-term wellbeing of the people who manage the land.
The good news is that regenerative agriculture is not a fixed recipe. It is a toolbox. Every farm, smallholding, garden, market garden, orchard or estate will use different practices depending on its soil, climate, landscape, animals, crops, finances and goals.
This guide brings together the main regenerative agriculture practices in one place, with simple explanations of what they are and why they matter.
Regenerative agriculture practices are farming methods that aim to restore and improve natural systems while producing food, fibre or other farm products.
They often focus on:
Not every regenerative farm uses every practice. A regenerative arable farm may focus on cover crops, diverse rotations and reduced tillage. A livestock farm may focus on adaptive grazing, pasture diversity and tree planting. A market garden may focus on compost, no-dig beds, mulching and biodiversity.
The key is context. Regenerative agriculture works best when practices are adapted to the land, rather than copied blindly from somewhere else.
One of the core principles of regenerative agriculture is to disturb the soil as little as possible.
Traditional ploughing and intensive cultivation can break up soil structure, expose soil organisms to the elements, reduce fungal networks and increase erosion. While some cultivation may still be necessary in certain systems, regenerative farmers aim to reduce unnecessary disturbance wherever they can.
This can include:
Less disturbance allows soil life to flourish. Earthworms, fungi, bacteria, beetles and other organisms help create stable soil aggregates, improve water infiltration and cycle nutrients naturally.
Bare soil is vulnerable soil.
When soil is left uncovered, it can be damaged by heavy rain, wind, heat and frost. Rain can compact the surface and wash soil away. Sun can dry it out and reduce biological activity. Wind can remove fine particles and organic matter.
Regenerative farmers aim to keep soil covered as much as possible using:
Soil cover protects the land like a living blanket. It reduces erosion, holds moisture, feeds soil organisms and moderates soil temperature.
In gardens and small-scale growing, mulching is one of the simplest regenerative practices. On farms, cover crops and crop residues often play this role.
Cover crops are plants grown mainly to protect and improve the soil rather than to be harvested as the main crop.
They are one of the most widely used regenerative agriculture practices because they can offer so many benefits at once.
Cover crops can:
Common cover crops include clover, vetch, rye, oats, phacelia, buckwheat, mustard, radish, peas and beans.
Different cover crops do different jobs. For example, legumes like clover and vetch can fix nitrogen. Deep-rooted plants like tillage radish can help open up compacted soil. Flowering species like phacelia and buckwheat can feed pollinators.
The best cover crop mix depends on the farm’s goals.
Regenerative agriculture often encourages farmers to keep living roots in the soil for as much of the year as possible.
Living roots feed soil life. Through photosynthesis, plants turn sunlight into sugars. Some of these sugars are released through the roots as root exudates, feeding bacteria, fungi and other soil organisms.
In return, soil organisms help plants access nutrients, water and minerals.
This living exchange is one of the foundations of healthy soil.
Ways to keep living roots in the ground include:
A field with living roots is biologically active. A bare field is more like a system on pause.
Nature rarely grows one plant in isolation. Meadows, woodlands, hedgerows and healthy grasslands are full of diversity. Regenerative agriculture borrows from this pattern.
Plant diversity can improve soil health, reduce pest pressure, support beneficial insects and make farms more resilient.
Farmers can increase plant diversity through:
Different plants have different root depths, nutrient needs and relationships with soil microbes. A diverse planting system supports a more diverse underground ecosystem.
Diversity is also a form of insurance. If one crop struggles in a difficult year, other species may still perform well.
Crop rotation means growing different crops in sequence rather than planting the same crop in the same place year after year.
Diverse rotations are important because they can:
A simple rotation might include cereals, legumes, roots and grass or herbal leys. A more diverse rotation may include cash crops, cover crops, livestock grazing and fertility-building phases.
Regenerative crop rotations often include legumes such as peas, beans, clover or vetch because they help fix nitrogen naturally.
The aim is to design rotations that serve both the farm business and the soil.
Regenerative agriculture does not always mean completely input-free farming. However, many regenerative farmers aim to reduce dependence on synthetic fertilisers, pesticides, herbicides and fungicides.
This is not just about cost. It is about rebuilding the farm’s natural fertility and resilience.
Synthetic inputs can sometimes mask underlying problems. For example, if soil biology is poor, crops may need more fertiliser. If rotations are too simple, pests and diseases may increase. If soil is compacted, plants may struggle to access nutrients and water.
Regenerative practices aim to solve root causes by improving the whole system.
Alternatives may include:
The goal is not perfection overnight. It is gradual movement towards a more self-supporting system.
Compost is one of the oldest and most valuable tools in regenerative agriculture.
Good compost adds organic matter, nutrients and beneficial microbes to the soil. It can improve soil structure, water retention and biological activity.
Composting can be done at many scales, from garden compost bins to large farm windrows.
Common composting methods include:
Compost quality matters. Poorly made compost can contain weed seeds, pathogens or imbalanced nutrients. Well-made compost smells earthy, not rotten, and supports life rather than harming it.
For small farms and market gardens, compost can be central to soil fertility. For larger farms, compost may be used strategically alongside cover crops, manures and rotations.
Animal manure is a valuable source of nutrients and organic matter, but it needs careful management.
Regenerative farms often see manure as part of a nutrient cycle. Animals eat plants, return dung and urine to the land, and help feed soil organisms.
Manure can be applied directly through grazing animals or collected and composted before spreading.
Good manure management can:
However, poor manure management can cause pollution, nutrient runoff and soil damage. Timing, storage, application rates and weather conditions all matter.
The most regenerative approach is to treat manure as a resource, not a waste product.
Adaptive multi-paddock grazing, sometimes called rotational grazing or managed grazing, involves moving livestock regularly between grazing areas.
Instead of animals staying in one field for a long time, they graze a smaller area for a shorter period before moving on. The grazed area is then given time to recover.
This approach can help:
The word “adaptive” is important. Grazing decisions should change with the weather, season, pasture growth, animal needs and land condition.
It is not simply about moving fences. It is about observing the land and responding well.
Mob grazing is a more intensive form of managed grazing where animals are stocked at high density for a short time, then moved on.
The idea is to mimic the movement of wild grazing herds. Animals graze, trample plant material, fertilise the ground and move away, allowing the land to recover.
Potential benefits include:
Mob grazing needs skill. If done badly, it can damage soil, reduce animal performance or create welfare problems. The right stocking density, timing and recovery period are essential.
It is a powerful tool, but not a magic wand.
Herbal leys are diverse mixtures of grasses, legumes and herbs grown for grazing, fertility building or soil improvement.
They often include species such as:
Herbal leys can provide deep roots, nitrogen fixation, mineral-rich forage and improved drought resilience. They are especially useful in mixed farming systems where livestock are integrated into arable rotations.
They can also support pollinators and improve soil structure.
A herbal ley is like a fertility-building pause in the rotation, but it is far from inactive. Underground, a huge amount of biological work is happening.
Many regenerative systems bring livestock back into landscapes where they had been removed.
Animals can help cycle nutrients, graze cover crops, manage weeds, stimulate plant growth and add manure to the land.
Examples include:
Integration needs careful planning. Animals must be managed to avoid compaction, overgrazing, nutrient overload or damage to crops.
When done well, livestock can turn plant matter into fertility, food and income while supporting soil health.
Agroforestry means integrating trees with farming.
This can include trees with crops, trees with livestock, or trees in field boundaries and shelterbelts.
Agroforestry systems include:
Trees bring many benefits. They can provide shade, shelter, fruit, nuts, timber, fodder, biodiversity, carbon storage and improved water management.
Their roots also interact with soil biology and can bring nutrients up from deeper layers.
Agroforestry is one of the most exciting regenerative practices because it adds vertical diversity to farms. Instead of only farming across the surface, farmers begin using height, layers and time.
Silvopasture combines trees, pasture and grazing animals.
It can be as simple as planting widely spaced trees in pasture or as complex as a carefully designed system with timber, fruit, fodder, shelter and rotational grazing.
Benefits can include:
Tree species might include willow, alder, poplar, oak, chestnut, apple, pear, hazel or mulberry, depending on the site and purpose.
Silvopasture is especially useful as summers become hotter and weather becomes more unpredictable. Animals need shelter just as much as crops need soil.
Hedgerows are sometimes overlooked, but they are one of the most valuable features on a farm.
A healthy hedge can provide:
Traditional hedgerows can include hawthorn, blackthorn, hazel, field maple, dog rose, elder, holly and many other native species.
Regenerative farms often restore old hedges, plant new ones, allow hedges to flower and fruit, and manage them less aggressively.
A hedge is not just a boundary. It is a living ecosystem.
Regenerative agriculture pays close attention to water.
Healthy land should be able to absorb, hold and slowly release water. Degraded land often does the opposite: rain runs off quickly, taking soil and nutrients with it.
Regenerative water practices include:
Water management is not only about drought. It is also about floods. The same practices that help land hold water in dry periods can help slow water during heavy rainfall.
Soil is one of the best water storage systems we have. It just needs to be cared for.
Swales are shallow channels dug along the contour of the land. Their purpose is to slow, spread and sink water into the soil.
They are often used in permaculture and regenerative land design, especially on slopes.
Swales can help:
However, swales are not suitable everywhere. Poorly designed earthworks can cause waterlogging, slips or unwanted drainage problems.
Before digging, it is important to understand soil type, slope, rainfall, existing water flow and legal requirements.
Small, well-planned interventions are usually wiser than dramatic earthworks. Land has a memory, and water always gives honest feedback.
Keyline design is a land planning method that aims to distribute water more evenly through the landscape.
It involves understanding the shape of the land and using cultivation patterns, tree planting, dams or other features to slow and spread water.
Keyline approaches can support:
It is especially relevant on sloping land where water naturally rushes into valleys and lower areas.
Keyline design requires careful observation and planning. It is not just a technique; it is a way of reading the landscape.
Intercropping means growing two or more crops together in the same field or bed.
Examples include:
Intercropping can improve land use, reduce pest pressure, support pollinators and increase diversity.
Some crops help each other. One may provide structure, another may fix nitrogen, and another may attract beneficial insects.
It can be more complex to manage and harvest, but in the right setting it can create healthier and more resilient systems.
Companion planting is often associated with gardens, but the principle can apply across farming systems.
It involves growing plants together because they support each other in some way.
Companion plants may:
Examples include flowering strips near crops, herbs in orchards, clover under fruit trees or pest-repelling plants in vegetable systems.
It is important not to treat companion planting as folklore alone. Some combinations work better than others, and results depend on context.
Still, the broader principle is very regenerative: plants rarely thrive in isolation.
Regenerative agriculture aims to manage pests by creating balanced ecosystems, rather than relying only on pesticides.
Biological pest control means encouraging or introducing natural predators and beneficial organisms.
This can include:
Habitats that support beneficial species include hedgerows, beetle banks, ponds, wildflower strips, rough grass margins and diverse field edges.
The aim is not to eliminate every pest. A farm without any pests often cannot support predators either. The goal is balance.
Beetle banks are raised grassy strips placed within fields to provide habitat for predatory insects.
They are especially useful in larger arable fields where beneficial insects need shelter and overwintering sites.
Wildlife strips, flower margins and rough grass areas can also support pollinators, birds and pest predators.
These features can:
A tidy farm is not always a healthy farm. Sometimes the scruffy edges are doing the most important work.
Pollinators are essential for many crops and wild plants. Regenerative farms often create habitat for bees, butterflies, hoverflies, moths and other insects.
Pollinator-friendly practices include:
Pollinator habitat is not just nice for nature. It can directly support food production, especially in orchards, soft fruit, beans, peas and many vegetable crops.
Permanent pasture can be a major asset in regenerative farming, especially when managed well.
Healthy pasture contains a diversity of grasses, herbs, legumes, fungi, insects and soil organisms. It protects the soil year-round and can support livestock, wildlife and carbon storage.
Regenerative pasture management may include:
Pasture is not just “grass.” It is a living community.
Compacted soil makes it difficult for roots, water and air to move through the ground.
It can be caused by heavy machinery, livestock pressure, repeated cultivation, poor drainage or working soil when it is too wet.
Regenerative ways to reduce compaction include:
Compaction is often invisible from the surface, but plants feel it. Poor growth, standing water and shallow roots can all be signs.
Soil organic matter is central to regenerative agriculture.
It helps soil hold water, store nutrients, support microbes and form stable structure.
Ways to build soil organic matter include:
Building organic matter takes time. It is a long-term process, not a quick fix.
But even small improvements can make a big difference to water retention, soil workability and crop resilience.
Mycorrhizal fungi form relationships with plant roots. They help plants access nutrients and water, while receiving sugars from the plant in return.
These fungal networks are easily damaged by excessive tillage, bare soil and some chemical inputs.
Regenerative practices that support fungi include:
Fungi are especially important in perennial systems, grasslands, orchards and woodlands.
A healthy soil is not just bacterial. It needs fungal life too.
Seed saving is not always discussed as a regenerative practice, but it can be part of building resilient local food systems.
Saving seed from plants that perform well in local conditions can gradually develop crops better suited to a particular farm or region.
Benefits include:
Seed saving is especially valuable for vegetables, grains, pulses and traditional varieties.
Regeneration is not only about soil. It is also about culture, knowledge and genetic diversity.
Perhaps the most important regenerative practice is observation.
Regenerative farmers often monitor:
Simple tests can be very useful. A spade, a jar, a notebook and a rain gauge can reveal a lot.
Regenerative agriculture is not about following a fashionable checklist. It is about learning from the land and making better decisions over time.
With so many options, it can feel overwhelming. The best place to start is not with the most impressive technique, but with the biggest limiting factor on your land.
Ask:
Then choose practices that address those problems.
For example:
Start small. Trial one field, one paddock, one bed or one rotation. Observe the results. Then adapt.
No — and that is exactly the point.
Regenerative agriculture in Devon will look different from regenerative agriculture in Australia, Kenya, Scotland, India or the American Midwest.
Climate, soil type, rainfall, culture, markets, land ownership, machinery, labour and farm goals all shape what is possible.
A regenerative farm might be:
There is no single model. Regenerative agriculture is more like a direction of travel.
Regenerative agriculture is not about doing everything at once. It is about changing the relationship between farming and the living world.
The practices in this list all point towards the same bigger goal: healthier soil, cleaner water, more biodiversity, better-functioning ecosystems, resilient farms and nourishing food.
Some practices are simple, like keeping soil covered. Others take more planning, like agroforestry or adaptive grazing. Some can be started in a garden bed. Others need whole-farm design.
The most important thing is to begin with observation.
Look at the soil. Watch where water flows. Notice where animals choose to graze. Count worms. Smell the compost. Listen for birds. Watch which plants thrive without help.
Regenerative agriculture begins when we stop seeing land as a factory floor and start seeing it as a living system.
And once you see the farm that way, every decision changes.
