Regenerative Agriculture
Regenerative Agriculture
Regenerative agriculture is a broad approach to farming that seeks not merely to reduce environmental damage but to improve the ecological systems on which agriculture depends. Rather than being defined by a single mandatory set of practices, it is commonly associated with improving soil health, increasing biological diversity, maintaining living roots and soil cover, reducing unnecessary soil disturbance, diversifying crops and livestock, improving water management, recycling nutrients, and strengthening the resilience of farms and agricultural landscapes.
There is no universally accepted definition of regenerative agriculture. Academic researchers, farmers, conservation organizations, certification programs, governments, and food companies use the term in somewhat different ways. Some definitions emphasize particular farming practices, while others emphasize measurable outcomes such as greater soil organic matter, improved water infiltration, increased biodiversity, reduced erosion, greater resilience, or improved farm profitability. This lack of a single definition is one of the central debates surrounding regenerative agriculture.
Principles and Farming Practices
Many regenerative farming systems are built around several recurring principles: keeping soil covered, maintaining living roots for as much of the year as possible, minimizing unnecessary disturbance, increasing biological diversity, integrating crops and livestock where appropriate, and adapting management to local environmental and economic conditions.
Common practices include cover cropping, diversified crop rotations, reduced tillage or no-till, compost and other organic amendments, managed grazing, integration of livestock and crops, agroforestry, silvopasture, perennial crops, hedgerows, integrated pest management, nutrient recycling, mulching, and more efficient water management.
Regenerative agriculture is therefore better understood as a management approach than as a rigid recipe. The usefulness of any particular practice depends on soil type, climate, crop, available water, farm equipment, markets, labor, livestock, and the goals of the farmer.
Soil Health and Soil Biology
Soil health is one of the strongest recurring themes in regenerative agriculture. Agricultural soils are complex living systems containing bacteria, fungi, nematodes, arthropods, earthworms, plant roots, organic matter, minerals, water, and air.
Cover crops, crop rotations, organic amendments, reduced disturbance, and managed grazing can influence soil aggregation, microbial activity, nutrient cycling, erosion, water infiltration, and organic matter. Maintaining living roots also provides carbon compounds to soil organisms and helps sustain biological activity outside the primary crop-growing season.
Research frequently finds improvements in individual soil-health indicators under regenerative or conservation management, although the magnitude and speed of those changes vary considerably among soils, climates, crops, and management systems.
Soil improvements may also occur primarily near the surface. In some long-term experiments, increases in organic matter and soil carbon have been much stronger in topsoil than in deeper soil layers.
Cover Crops, Crop Rotation, and Reduced Tillage
Cover crops protect bare soil between commercial crops and can reduce erosion, improve soil structure, capture nutrients, increase biological activity, provide habitat, suppress weeds, and add organic material to the soil.
Diversified crop rotations can interrupt pest and disease cycles, increase plant diversity, change soil microbial communities, distribute economic risk among crops, and improve nutrient management.
Reduced tillage and no-till systems seek to minimize physical disturbance of soil. These systems can reduce erosion and sometimes increase surface soil carbon and biological activity. Their effectiveness, however, depends heavily on climate, crop type, soil conditions, residue management, weed pressure, and the broader farming system.
Research in the source material repeatedly indicates that combinations of practices often perform better than treating a single practice such as no-till as a universal solution.
Regenerative Grazing and Livestock
Livestock can play an important role in some regenerative farming systems. Managed or adaptive grazing attempts to control grazing intensity, timing, recovery periods, and livestock movement so vegetation has adequate time to recover.
Studies of adaptive grazing have reported changes in vegetation production, water infiltration, soil biology, pasture condition, soil carbon, and farm productivity. Outcomes vary substantially among locations and management systems.
Livestock also create environmental trade-offs. Ruminants produce methane, and improved grazing management does not automatically eliminate the greenhouse-gas impacts of cattle or sheep production. Likewise, excessive grazing of cover crops can reduce surface residues and negatively affect some soil properties.
Regenerative grazing therefore depends more on the quality of management than on simply rotating animals among paddocks.
Agroforestry and Biodiversity
Regenerative agriculture frequently overlaps with agroforestry, silvopasture, diversified farming, habitat restoration, and other approaches that increase biological complexity in agricultural landscapes.
Trees and shrubs can provide shade, wind protection, wildlife habitat, carbon storage, nutrient cycling, erosion control, additional crops, and more complex root systems. Silvopastoral systems combine trees, forage, and livestock, while agroforestry can integrate trees with annual or perennial crops.
Regenerative farms may also use flowering plants, hedgerows, native vegetation, perennial ground cover, and reduced pesticide use to support pollinators and other beneficial organisms.
Research in orchards, grazing systems, and mixed agricultural landscapes suggests that greater habitat diversity can support soil organisms, insects, birds, pollinators, and other wildlife while continuing to produce agricultural commodities.
Water, Nutrients, and Agricultural Resilience
Improving the capacity of soil to capture and retain water is a major objective of regenerative farming. Better soil aggregation, greater organic matter, permanent ground cover, deeper roots, and reduced erosion can improve infiltration and reduce runoff under some conditions.
These characteristics are increasingly important as farms experience drought, extreme rainfall, heat, and greater climatic variability.
Regenerative systems also emphasize cycling nutrients within farms. Crop residues, manure, compost, legumes, cover crops, biochar, pruning residues, and other organic materials can sometimes replace part of the nutrients otherwise supplied through external inputs.
Research also shows that nutrient and water management require careful balancing. Practices that benefit one environmental indicator can negatively affect another, and effects often change with soil type, irrigation system, climate, or application rate.
Climate Change and Soil Carbon
Carbon sequestration is among the most prominent claims associated with regenerative agriculture. Plants capture atmospheric carbon dioxide through photosynthesis, and some of that carbon enters soils through roots, residues, microorganisms, manure, and other organic materials.
Cover crops, reduced tillage, perennial vegetation, agroforestry, compost, grazing management, and diversified rotations can increase soil carbon under some conditions.
However, agricultural soil carbon is not unlimited or necessarily permanent. Carbon accumulation can be slow, difficult to measure, concentrated near the soil surface, reversible when management changes, and highly dependent on climate and soil characteristics.
Climate assessments must also consider emissions from fertilizers, machinery, livestock, methane, nitrous oxide, changes in crop yields, and possible changes in land use. Consequently, increases in measured soil carbon do not automatically mean that an entire farming system is carbon neutral or climate positive.
The strongest evidence supports treating soil carbon as one potential benefit of improved land management rather than assuming that regenerative agriculture can universally offset agricultural greenhouse-gas emissions.
Farm Economics and the Transition to Regenerative Agriculture
Farm profitability is essential to the long-term adoption of regenerative practices. Farmers may benefit from lower fertilizer, pesticide, fuel, feed, or other input costs; improved soil productivity; diversified sources of income; reduced exposure to drought; or premiums for certified products.
At the same time, transitions can require new machinery, seeds, fencing, livestock infrastructure, training, additional labor, experimentation, and several years of adaptation.
Cover crops and other conservation practices can produce public benefits such as cleaner water, reduced erosion, greater biodiversity, and carbon storage while imposing short-term private costs on farmers.
Research therefore increasingly examines financial incentives, conservation payments, lower-cost loans, insurance, technical assistance, carbon programs, supply-chain payments, and other mechanisms for sharing the cost and risk of agricultural transitions.
Economic results vary considerably. Some regenerative farms have achieved strong profitability even with lower yields, while other studies find uncertain returns or substantial transition costs. Local conditions and farm management remain decisive.
Farmer Knowledge and Local Adaptation
Regenerative agriculture places unusually strong emphasis on observation and adaptation. Because soil, rainfall, livestock, pests, markets, and farm resources vary greatly, farmers often modify general regenerative principles to fit local circumstances.
Farmer-to-farmer networks, demonstration farms, extension services, agronomists, crop advisers, research partnerships, and digital discussion groups can all help spread knowledge.
Experience-based knowledge is particularly important because regenerative systems often involve interactions among multiple crops, livestock, soil organisms, weather conditions, and management decisions rather than a single standardized input.
The evidence therefore supports an adaptive approach in which farmers monitor ecological and economic outcomes and modify practices rather than assuming that a particular technique will work everywhere.
Standards, Certification, and Measurement
The growth of regenerative agriculture has produced numerous standards, certification programs, verification systems, and corporate frameworks.
These systems increasingly attempt to measure outcomes involving soil health, water, biodiversity, greenhouse gases, crop protection, animal welfare, farmer livelihoods, traceability, and continuous improvement.
Standards can provide a common framework for farmers, companies, consumers, and investors, but the proliferation of different definitions and certification systems also creates confusion.
Reliable measurement is especially important because regenerative claims can otherwise become difficult to distinguish from marketing. Soil carbon, biodiversity, greenhouse-gas reductions, water outcomes, and improvements in farmer livelihoods require appropriate baselines, monitoring, reporting, and verification.
Regenerative Agriculture and Global Supply Chains
Regenerative agriculture has moved from individual farms into major international commodity supply chains.
Programs now involve coffee, cocoa, cotton, potatoes, almonds, grains, dairy products, olives, rubber, tea, palm oil, vegetables, and other agricultural commodities.
Major food and agricultural companies have established regenerative farming targets, research farms, farmer-support programs, certification systems, financing arrangements, and sourcing commitments.
Coffee and cocoa projects in Africa and Latin America frequently combine soil restoration, agroforestry, farmer training, erosion control, biodiversity protection, climate adaptation, and efforts to improve farmer incomes.
Cotton initiatives connect regenerative farming with the textile and apparel industries, while corporate grain and potato programs increasingly use cover crops, reduced tillage, nutrient management, and soil-health measurements.
These developments could move regenerative farming beyond isolated demonstration projects, but they also raise questions about who pays for the transition, how outcomes are measured, how benefits are shared, and whether farmers carry a disproportionate amount of the financial risk.
Regenerative Agriculture in Africa
Regenerative agriculture is increasingly being tested and promoted across African farming systems.
Projects in Kenya include regenerative coffee production, agroforestry, composting, erosion control, soil testing, water management, biodiversity restoration, tree planting, and income diversification. Programs in Kenya and Uganda are also developing regenerative coffee guidance and farmer-training systems.
Research and development programs elsewhere in Africa address maize, cocoa, cotton, vegetables, livestock, soil restoration, biochar, nutrient cycling, crop diversification, and landscape restoration.
These programs are particularly relevant where farmers face declining soil fertility, unreliable rainfall, erosion, high input costs, and limited access to capital.
The African experience also illustrates why regenerative agriculture cannot rely on a single global prescription. Smallholder farmers, commercial farms, pastoral systems, tropical plantations, drylands, and highland farming regions require different combinations of practices and support.
Evidence, Limitations, and Criticism
The growing popularity of regenerative agriculture has outpaced agreement over its scientific definition.
Research reviews repeatedly find promising evidence for practices associated with regenerative agriculture, particularly in relation to soil health, erosion control, biodiversity, crop diversification, and water management. At the same time, results vary substantially among locations and farming systems.
Some of the greatest uncertainty surrounds claims about large-scale carbon sequestration, greenhouse-gas reductions, nutrient density of food, universal yield improvements, and the ability of regenerative livestock production to offset methane emissions.
Measurement presents another challenge. Researchers use different definitions, practices, indicators, comparison farms, time periods, and baselines, making studies difficult to compare.
There is also a risk of greenwashing if companies label products or agricultural programs "regenerative" without clear standards or measurable outcomes.
A scientifically credible approach therefore requires clearly defined objectives, appropriate baselines, long-term monitoring, transparent reporting, and evaluation of both benefits and trade-offs.
From Individual Practices to Whole Farming Systems
One of the strongest themes emerging from regenerative-agriculture research is that individual practices cannot be evaluated entirely in isolation.
Cover crops interact with tillage. Grazing interacts with vegetation recovery and stocking rates. Fertilizer use interacts with soil biology and crop yields. Agroforestry influences water, shade, biodiversity, nutrients, and farm income simultaneously.
As a result, regenerative agriculture increasingly focuses on whole-farm outcomes rather than simply counting whether particular practices have been adopted.
This systems perspective also helps explain why the same practice can produce different outcomes on different farms. Agricultural regeneration depends on interactions among biology, climate, soil, management, economics, and local knowledge.
Conclusion
Regenerative agriculture represents an effort to redesign farming around the long-term functioning of soils, ecosystems, farms, and agricultural communities. Its most common practices—including cover crops, diversified rotations, reduced disturbance, managed grazing, agroforestry, organic amendments, habitat restoration, and improved nutrient and water management—draw heavily on established soil-health, conservation, organic, agroecological, and agricultural-management principles.
The accumulated research shows substantial potential to improve soil health, biodiversity, water management, erosion control, ecological resilience, and in some circumstances farm profitability and soil-carbon storage. It also demonstrates that outcomes are highly dependent on local conditions and on how practices are combined and managed.
Regenerative agriculture should therefore not be treated as a guaranteed formula for higher yields, unlimited carbon sequestration, or climate-neutral farming. Transition costs, methane and nitrous-oxide emissions, measurement difficulties, inconsistent definitions, variable economic results, and the possibility of greenwashing remain important concerns.
Its long-term significance may lie less in any particular farming technique than in the shift toward treating farms as ecological and economic systems whose soils, water, biodiversity, climate resilience, productivity, and farmer livelihoods must be managed together.
Definitions, Principles, Frameworks, Reviews, and Critiques
| Lopamudra Subudhi et al. | Discover Sustainability | 2026-08-22
Systematic review examines biochar as a regenerative strategy for restoring degraded soils and supporting millet production in nutrient-poor and increasingly arid environments.
| Anna Kocira et al. | Agriculture | 2026-08-16
Reviews regenerative cereal systems and concludes that integrated combinations of residue retention, reduced tillage, diversified rotations, legumes, cover crops, organic amendments, and biological pest management generally outperform isolated interventions.
Compares farmer adoption of 17 regenerative soil-health practices in Poland, Germany, and Belarus and investigates differences in uptake among the three countries.
| Multiple authors | Agronomy | 2026-08-01
Compares major sustainable-agriculture approaches and evaluates their implications for resource-use efficiency, environmental performance, soil health, and agricultural productivity.
| Loekie Schreefel et al. | Communications Earth & Environment | 2026-06-27
Studies how regenerative-farming knowledge spreads across Europe, finding that international ideas are repeatedly modified to fit local climates, soils, institutions, markets, and farming traditions.
| Danielle Berman et al. | U.S. Department of Health and Human Services | 2026-06-25
Reviews regenerative agriculture from a population-health perspective, including soil biology, food quality, farmer profitability, reduced chemical exposure, and remaining research gaps.
| Multiple authors | Sustainable Futures | 2026-06
Reviews conservation agriculture, agroecology, organic farming, agroforestry, integrated pest management, and related approaches, emphasizing environmental benefits as well as trade-offs and adoption barriers.
| Multiple authors | Discover Sustainability | 2026-06
Systematic review of 272 sources evaluates minimal tillage, cover crops, legume rotations, agroforestry, compost, biochar, and planned grazing, finding generally positive soil-health effects but substantial variation by climate, soil, and management.
| Kate Congreves | Phys.org / The Conversation | 2026-04-08
Examines the distinction between sustainable and regenerative agriculture and argues that regeneration should include an ethic of reciprocity between agriculture and ecological systems.
| Alberto Cavallito et al. | Scientific Reports | 2026-02-10
Uses life-cycle modelling to compare conventional, organic, and regenerative maize-soybean rotations across productivity and environmental indicators.
| Multiple authors | Agriculture | 2026-02-05
Develops a scenario-based framework for evaluating whether regenerative agricultural systems are resilient to climate shocks and long-term environmental change.
| Multiple authors | Agriculture | 2026-01-05
Develops the REGENA production function as an economic model intended to account for ecological capital such as microorganisms, organic biomass, soil processes, and reduced external inputs.
| Multiple authors | FAO Agroecology Knowledge Hub | 2026
Synthesizes 120 empirical studies of no-till, organic amendments, biochar, residue retention, cover crops, rotations, agroforestry, and crop-livestock integration across tropical and temperate systems.
| Himanshu Pathak | Journal of the Indian Society of Soil Science / FAO AGRIS | 2026
Presents regenerative agriculture as a shift from extractive agriculture toward circular systems focused on restoring soil organic matter, fertility, biological function, and resilience.
| Kate A. Congreves | npj Sustainable Agriculture | 2025-11-14
Examines competing meanings of regenerative agriculture and proposes defining it as both an ecological approach to farming and an ethic of reciprocity with the land.
| Multiple authors | Sustainability | 2025-10-13
Reviews regenerative-agriculture principles and soil benefits while examining their application in an agrosilvopastoral farming region.
| Rainforest Alliance | Rainforest Alliance | 2025-09-08
Outlines a measurable regenerative-agriculture framework focused on soil health, biodiversity, climate resilience, reduced inputs, farm livelihoods, and commodity supply chains.
| CABI | Phys.org | 2025-08-21
Summarizes a critical review defining regenerative agriculture around the restoration of natural nutrient, carbon, biological, and hydrological cycles rather than a fixed checklist of practices.
| Multiple authors | Science of the Total Environment | 2025-08-15
Fifteen-year systematic review examines soil regeneration through biochar, agroforestry, biological approaches, digital technologies, and other emerging methods while emphasizing scalability and economic constraints.
| Multiple authors | Sustainability | 2025-08-11
Reviews farmer adoption of regenerative agriculture, focusing on scalability, farmer incentives, soil health, biodiversity, social equity, and obstacles to implementation.
| Multiple authors | Agriculture, Ecosystems & Environment | 2025-02-28
Reviews effects of less-intensive agricultural practices on bacteria, fungi, nematodes, and earthworms and finds generally positive or neutral biodiversity responses with important variation among taxa.
Explores regenerative agriculture as a broader agricultural paradigm and proposes linking its goals to safe and just Earth-system boundaries.
| Jessica Chapman, Brian Reid | Phys.org / The Conversation | 2025-01-21
Examines regenerative food labels, differences from organic certification, and the danger of greenwashing when monitoring, reporting, and verification standards are absent.
| Multiple authors | Sustainability | 2025-01
Scoping review finds regenerative agriculture is associated with many sustainability claims but concludes that evidence connecting particular practices to outcomes remains inconsistent.
| Oklahoma State University Extension | Oklahoma State University | 2025
Introduces regenerative agriculture, its major principles, and evidence surrounding soil health, water management, cover cropping, reduced tillage, and agricultural resilience.
| Amrit L. Meena et al. | Indian Farming / FAO AGRIS | 2025
Reviews no-till, diversification, cover crops, agroforestry, and organic amendments as strategies for improving water retention, nutrient cycling, microbial activity, and crop resilience.
| Alam Sher et al. | Discover Sustainability | 2024-12-04
Reviews regenerative agriculture's potential effects on soil health, biodiversity, climate mitigation, farm productivity, livelihoods, and wider social-ecological systems.
| Shai Sela et al. | npj Sustainable Agriculture | 2024-11-08
Proposes a structured method for prioritizing regenerative practices across cropping systems so investments can focus on measures most likely to deliver environmental improvements under local conditions.
| Multiple authors | Agronomy | 2024-10-19
Reviews circular regenerative agricultural practices in Africa and their potential to restore soils, recycle nutrients, reduce resource losses, and support sustainable food production.
| Multiple authors | Soil and Tillage Research | 2024-10
Finds that conservation-oriented integrated farming systems can improve soil organic carbon, soil structure, and resilience compared with more intensive systems.
| Multiple authors | Agriculture, Ecosystems & Environment | 2024-06-15
Finds that vegetation complexity and no-till management increase soil-fauna diversity and support organisms responsible for nutrient cycling and other ecosystem services.
Scoping review examines which practices are commonly classified as regenerative and which environmental, agricultural, social, and health outcomes are actually measured.
| Michigan State University | Michigan State University | 2024
Presents regenerative agriculture as a spectrum of locally adapted practices designed to improve soil, ecosystem services, farm profitability, water management, and resilience.
Reviews definitions and assessment methods used internationally and finds considerable inconsistency in how regenerative agriculture and its outcomes are measured.
| Regenerative Organic Alliance | Regenerative Organic Alliance | 2023-06-27
Defines Regenerative Organic Certified standards around three pillars: soil health and land management, animal welfare, and fairness for farmers and workers.
| G. A. Musto, P. A. Swanepoel, J. A. Strauss | The Journal of Agricultural Science | 2023-04-05
Compares regenerative and conservation agriculture for Mediterranean-climate cropping systems and calls for more long-term evidence on soil quality, crop production, grazing, and whole-farm economics.
| Multiple authors | iScience | 2023-02-17
Argues that soil microbial communities are essential but frequently under-measured components of regenerative agroecosystems and should be incorporated into monitoring and research designs.
| Ravjit Khangura, David Ferris, Cameron Wagg, Jamie Bowyer | Sustainability | 2023-01-27
Reviews regenerative practices and mechanisms affecting soil health and concludes that benefits from reduced tillage, cover cropping, livestock integration, and other measures vary among agroecological regions.
| Multiple authors | Advances in Agronomy | 2023
Reviews methods for assessing soil biological health and the challenge of selecting indicators that accurately reflect microbial, faunal, nutrient-cycling, and ecological soil functions.
| Multiple authors | Frontiers in Nutrition | 2023
Scoping review asks whether farming practices associated with regenerative agriculture increase micronutrient concentrations in edible crops and finds the evidence promising but limited and inconsistent.
| Multiple authors | Frontiers in Sustainable Food Systems | 2022-12-02
Finds perennial grassland agriculture can restore several ecosystem functions in the U.S. Upper Midwest by maintaining continuous living cover and reducing disturbance.
| Tom O'Donoghue, Budiman Minasny, Alex McBratney | Sustainability | 2022-05-11
Reviews regenerative agriculture's historical development and its potential effects on soil function, biodiversity, landscape processes, farm economics, and agricultural resilience.
| S. Wiltshire, B. Beckage | PLOS Climate | 2022-04-11
Estimates potential soil-carbon sequestration from regenerative agriculture in Vermont and explores economic incentives and payments needed to encourage broader adoption.
Reviews 229 academic articles and 25 practitioner organizations, finding that regenerative agriculture is variously defined through farming practices, environmental outcomes, or combinations of both.
| Noble Research Institute | Noble Research Institute | n.d.
Explains regenerative agriculture as management that works with ecological processes and emphasizes soil cover, diversity, living roots, reduced disturbance, livestock integration, and local context.
Soil Health, Biology, Carbon, Compost, and Microbiomes
Finds that cover crops improved surface soil health in organic Mid-South cropping systems, while subsurface compaction, salinity, carbon, and phosphorus remained important management concerns.
| Sequoia R. Williams et al. | Frontiers in Soil Science | 2026-08-11
Finds that grazing cover crops in organic vegetable systems can improve nitrogen cycling while producing relatively limited trade-offs in measured soil-health indicators.
| Ulrike Ehgartner, Steffen Hirth | Journal of Rural Studies | 2026-08
Studies UK stakeholder disagreements over the role of livestock in regenerative agriculture and shows how competing environmental, economic, and animal-management narratives shape adoption.
| K. French et al. | USDA Agricultural Research Service | 2026-07-28
Evaluates long-term Arkansas experiments and finds that conservation management can improve organic matter, microbial respiration, biological activity, and readily available soil carbon.
| C. Crespo et al. | USDA Agricultural Research Service | 2026-07-11
Quantifies how cover cropping and 4R nutrient stewardship influence soil-health indicators across multiple U.S. agricultural research sites.
| Multiple authors | Agricultural Water Management | 2026-07-01
Finds near-saturation irrigation in organic double-rice systems can reduce methane emissions and improve irrigation-water productivity while maintaining yields.
Reviews cover crops and mulching and finds that long-term soil cover can improve organic matter, aggregation, infiltration, microbial activity, nutrient cycling, and resistance to degradation.
| Multiple authors | Soil Advances | 2026-06
Finds that seasonal conditions can have stronger effects on microbial enzyme activity than management differences between regenerative and conventional dryland sheep pastures.
| Multiple authors | Environmental and Sustainability Indicators | 2026-06
Examines how oil-palm residues can be converted into compost, biofertilizers, biochar, and other products within circular regenerative agricultural systems.
| Ryusuke Hatano, Shinya Iwasaki | Agriculture | 2026-05-22
Reviews evidence connecting regenerative practices, soil organic-carbon storage, aggregate formation, soil structure, and improved soil physical functioning.
| Susmita Das Nishu, M. Nazrul Islam | Microorganisms | 2026-05-09
Synthesizes evidence on soil microbial dynamics in regenerative systems across the Western Canadian Prairies, including pest suppression, nutrient cycling, and yield stability.
| Julia Cooper, Isabel Mackintosh, Catriona Willoughby | Elsevier | 2026-05
Reviews on-farm composting systems and their role in recycling nutrients, building soil organic matter, reducing waste, and supporting regenerative agricultural systems.
| Nichola Austen et al. | Soil and Tillage Research | 2026-05
Compares wheat grown after regenerative leys with conventionally cultivated soils and examines biomass, drought resilience, soil aggregates, carbon allocation, and limits to short-term carbon sequestration.
| Mónica Molinares-Becerra et al. | Plant and Soil | 2026-03-18
Finds that regenerative management can improve soil functioning and increase soil-food-web complexity after a relatively short transition period.
| Joshua Garcia et al. | Discover Sustainability | 2026-03-16
Studies regenerative management on an urban farm and finds improvements in several indicators of soil biological activity, carbon, aggregation, and biodiversity.
| Wiebke Niether et al. | Scientific Reports | 2026-03-05
Finds that ten years of reduced tillage and compost increased topsoil organic carbon, while effects on deeper soil carbon were much smaller.
| Multiple authors | Results in Engineering | 2026-03
Reviews regenerative rice production in India and reports potential reductions in irrigation demand, energy consumption, and methane emissions under alternative management systems.
Ten-year grazing study finds strong interactions among pasture productivity, climate, nutrient availability, and soil carbon, with rotational grazing not automatically producing higher carbon stocks.
| L. Kohl, E.-M. L. Minarsch, A. Gattinger et al. | Scientific Reports | 2026-02-26
Provides early field evidence on using biochar within organic regenerative farming systems to improve soil characteristics and carbon management.
| A. Kiriga et al. | Frontiers in Sustainable Food Systems | 2026-02-25
Studies Kenyan maize-kale systems combining biofertilization and push-pull management and finds shifts in soil nematode communities associated with ecological intensification.
Tests methods for measuring denitrification and nitrogen losses in conventional and regenerative agricultural soils to improve understanding of nitrogen-cycle effects.
| Upulika Jayaneththi et al. | Biology and Fertility of Soils | 2026-02-07
Reviews interactions between pasture diversity, soil microbiomes, ruminant gut microbiomes, grazing management, nutrient cycling, and animal health in regenerative livestock systems.
| Aaron M. Prairie et al. | Soil and Tillage Research | 2026-02
Compares Kansas farms and investigates how regenerative-management intensity influences soil arthropods, particulate organic matter, mineral-associated organic matter, carbon, and nitrogen.
| Jason Taylor Arp, Debankur Sanyal, Jashandeep Kaur et al. | Frontiers in Agronomy | 2026
Reviews the relationship between regenerative farming and soil health in arid and semi-arid environments, where water availability and soil degradation strongly affect results.
| Md. Habibullah Siddiki, Iftekhar Ahmed Fagun et al. | Discover Sustainability | 2025-12-29
Finds combinations of compost, biochar, or ash with reduced mineral fertilizer can improve rice production and post-harvest soil fertility.
Reports improvements in soil-health indicators from combinations of cover crops, no-till management, and crop rotation in row-crop systems.
| Wuletawu Abera et al. | Phys.org / Alliance of Bioversity International and CIAT | 2025-10-06
Models soil carbon in Ethiopia's Abbay Basin and finds regenerative practices can rebuild carbon stocks, although warming and rainfall changes can sharply reduce future gains.
| Mukund Patil, Cuba Perumal, Ramesh Singh et al. | Scientific Reports | 2025-09-29
Meta-analyzes Indian studies and finds that regenerative practices can increase soil organic carbon, though effects vary substantially among practices, climates, and soils.
Evaluates grazing, cover crops, crop rotations, and perennial forage during the transition to organic production and their implications for building soil health.
| Multiple authors | Ecological Indicators | 2025-09
Studies a regenerative cocoa chronosequence and finds that specific soil-health and microbiome indicators change as cocoa systems mature even where composite health scores remain relatively stable.
| Multiple authors | Phyton-International Journal of Experimental Botany | 2025-08-29
Reviews regenerative agriculture as a strategy for improving plant and soil health while reducing dependence on chemical approaches to crop disease management.
| Multiple authors | Water | 2025-07-31
Tests cover crops and no-till in Southern Great Plains cotton production to evaluate runoff, water quality, soil resilience, and performance under water-limited conditions.
| Michigan State University researchers et al. | Phys.org | 2025-07
Examines improved baseline modelling for agricultural carbon markets and the challenge of accurately crediting soil-carbon gains from regenerative practices.
Finds that cover crops and transferred organic mulch can increase microbial biomass and activity in reduced-tillage organic potato systems.
| Anna Vaupel, Max Küsters, Lukas Beule et al. | Scientific Reports | 2025-01-09
Examines how trees influence soil microbial communities in temperate silvopastoral and syntropic agroforestry systems.
Reviews the use of cover crops for improving soil physical condition, biological activity, nutrient cycling, organic matter, and overall soil health.
| W.S. Reiter, A.V. Gamble, H. Crowell et al. | USDA Agricultural Research Service | 2024-09-09
Finds that increasingly long periods of cattle grazing on cover crops can reduce surface residues and negatively affect some soil physical properties even when many biological indicators change little.
| Sacha J. Mooney et al. | Nature Food | 2024-06-14
Argues that successful regenerative agriculture requires integrating plant breeding, root architecture, soil management, and manipulation of beneficial soil microbial communities.
| Natural Resources Conservation Service | USDA | n.d.
Explains how diverse rotations, cover crops, reduced tillage, and managed grazing increase soil organic matter and influence water retention, erosion, nutrients, and productivity.
| Natural Resources Conservation Service | USDA | n.d.
Summarizes soil-health principles including continuous living roots, minimum disturbance, permanent soil cover, biodiversity, cover crops, rotations, and reduced tillage.
Cover Crops, Tillage, Rotations, Water, and Nutrient Management
| Dinesh Panday et al. | Rodale Institute | 2026-08-25
Sweet-pepper experiment finds biochar responses are strongly dependent on soil type and application rate, with excessive rates capable of reducing microbial biomass despite increasing soil carbon.
| Muhammad Umer Arshad et al. | Phys.org / University of Illinois | 2026-08
Modelling suggests adding winter canola to Illinois corn-soybean rotations could increase productivity and profitability while improving whole-system carbon balance.
| Muhammad Adil et al. | Soil Use and Management | 2026-05-19
Meta-analysis finds that combining no-till with residue retention can improve soil carbon, microbial biomass, water-use efficiency, and wheat yields while lowering nitrous-oxide emissions.
| Sean Stokes | Rodale Institute | 2026-05-15
Argues that cover crops, diversified rotations, perennial systems, and organic management can address agricultural nitrate and pesticide pollution closer to its source.
| Lovish Kasrija, Dafeng Hui | Frontiers of Earth Science | 2026-04-30
Mega-analysis of 24 previous meta-analyses finds that reduced and no-tillage systems generally increase soil organic-carbon stocks, though effects differ among management systems.
| Multiple authors | Agriculture, Ecosystems & Environment | 2026-04-15
Meta-analysis of dryland agriculture finds that combinations of no-tillage, residue retention, irrigation management, and optimized nitrogen can improve carbon storage while reducing some greenhouse-gas emissions.
| Madhav Dhakal et al. | Rodale Institute / Agronomy Journal | 2026-04-06
Hemp-barley trials show that cover crops can improve performance but also demonstrate that no-till is not automatically agronomically viable for every crop or production system.
| Multiple authors | Agriculture, Ecosystems & Environment | 2026-02-28
Finds crop rotations change both organic and inorganic soil-carbon pools and shows that climate, topography, and cropping system determine the direction and magnitude of carbon responses.
| Multiple authors | Crop and Environment | 2026
Reviews Indian cereal systems and examines regenerative and conservation practices for improving soil health, water efficiency, carbon storage, and climate resilience.
| Multiple authors | Environmental Technology & Innovation | 2026
Examines long-term dryland wheat studies and finds benefits from integrating no-till, moderate nitrogen rates, crop residues, and cover cropping rather than relying on a single practice.
| Robert Myers | Sustainable Agriculture Research and Education | 2026
Explains how cover crops build organic matter, protect soil, improve nutrient cycling and moisture management, reduce erosion, and contribute to agricultural biodiversity.
| Dinesh Panday et al. | Industrial Crops & Products | 2026
Examines trade-offs among hemp biomass yield, nitrogen fertilization, tillage, cover cropping, and fiber quality within regenerative organic systems.
| Patty Skinkis et al. | Oregon State University Extension | 2026
Discusses increasing vineyard interest in cover crops, reduced tillage, reduced herbicide use, water management, rootstocks, and regenerative production philosophies.
| Multiple authors | Field Crops Research | 2025-12-02
Mega-analysis of 30 meta-analyses finds no overall yield effect from no-till or reduced tillage while showing that greenhouse-gas outcomes depend strongly on soil and management context.
| Chong Li et al. | Nature Communications | 2025-11-27
Global meta-analysis finds that crop rotation alters and often increases soil bacterial and fungal diversity, with microbial responses also associated with crop productivity.
| University of Minnesota Extension | University of Minnesota | 2025-10-21
Shows how soil-health and regenerative concepts can be adapted to urban farms, community gardens, and other small-scale growing systems.
| Multiple authors | Geoderma | 2025-08
Global meta-analysis of 225 studies finds that cover crops generally improve soil physical properties, although climate, soil texture, and cover-crop selection affect outcomes.
| Multiple authors | Journal of Environmental Management | 2025-07
Reviews 150 studies on crop rotation and cover crops, examining impacts on yields, erosion, soil moisture, fertility, biodiversity, emissions, and farm economics.
| Multiple authors | npj Sustainable Agriculture | 2025-03-05
Global meta-analysis finds cover crops can increase soil carbon and yields, while legume covers may increase nitrous-oxide emissions unless combined with appropriate complementary practices.
| Multiple authors | Field Crops Research | 2025-03-01
Finds fertilizer rates and straw management strongly influence whether no-tillage systems reduce greenhouse-gas emissions while maintaining crop productivity.
| University of Minnesota Extension | University of Minnesota | 2025-01-23
Explores wheat, rye, and oats as third crops that can diversify dominant corn-soybean rotations while considering agronomic risks and farm economics.
| Multiple authors | Applied Soil Ecology | 2025
Meta-analysis finds that crop rotation increases fungal diversity and alters microbial network complexity and functional characteristics compared with continuous cropping.
| Multiple authors | Agronomy | 2025
Meta-analysis of Chinese cereal systems finds legume and non-legume cover-crop mixtures improve soil nutrients, microbial biomass, soil organic matter, and physical properties.
| Multiple authors | Journal of Agriculture and Food Research | 2025
Global meta-analysis evaluates fertilization, reduced tillage, no-till, residue retention, yields, soil organic carbon, and soil nitrogen storage.
Describes a six-state farmer research network collecting real-world data to determine which cover crops perform best under different Great Lakes climates and management conditions.
| Multiple authors | Nature Communications | 2024-11
Uses more than 2,300 observations to identify cover-crop combinations and management strategies that can jointly improve yields, soil carbon, erosion control, and agroecosystem services.
| Penn State Extension | Pennsylvania State University | 2024-10-24
Explains regenerative agriculture to producers while emphasizing context, continuous soil cover, reduced disturbance, greater diversity, living roots, and livestock integration.
| Michigan State University | Michigan State University | 2024-09-30
Describes Michigan research funding aimed at regenerative agriculture, climate adaptation, mitigation, soil and plant health, water management, and agricultural resilience.
| University of Minnesota Extension | University of Minnesota | 2024-01-23
Examines small grains as a practical route to longer crop rotations and discusses whether diversification can simultaneously improve soil health and remain profitable.
| Augustine Obour et al. | Sustainable Agriculture Research and Education | 2024
Kansas long-term research finds replacing fallow with grazed cover crops can improve soil health while generating livestock forage and potentially improving whole-farm economics.
| Texas A&M University | USDA National Institute of Food and Agriculture | 2024
Reports research on conservation tillage, cover cropping, crop rotation, integrated livestock, greenhouse gases, water use, soil function, cotton systems, and grazing in the Southern Great Plains.
| Multiple authors | Science of the Total Environment | 2024
Meta-analysis of conservation tillage evaluates straw retention, reduced tillage, and no-till effects on soil carbon and nitrous-oxide emissions.
| Julia Fohrafellner et al. | European Journal of Soil Science | 2024
Meta-analysis finds that cover crops increase several soil-carbon pools, including particulate, microbial-biomass, and mineral-associated organic carbon.
| Multiple authors | Agronomy Journal | 2023
Global meta-analysis of corn-based rotations finds cover crops increase soil organic carbon on average, with effects shaped by climate, biomass, tillage, and duration.
| Multiple authors | Journal of Integrative Agriculture | 2022
Meta-analysis finds the climate benefits of no-till vary according to experiment duration, climate, soil texture, carbon content, and use of crop rotation.
Grazing, Crop-Livestock Integration, and Pasture Management
| Zhaohai Bai, Lin Ma | Nature Food | 2026-03-26
Discusses benefits and limitations of regenerative grazing, noting improvements in soils and profitability while emphasizing that enteric methane remains a significant climate issue.
| Multiple authors | Nature Food | 2026
Australian sheep-farm study finds regenerative management can improve combined productivity, profitability, soil carbon, and emissions performance, while rainfall and stocking rates remain major determinants.
| Steven Apfelbaum et al. | Journal of Sustainable Agriculture and Environment | 2026
Northern Great Plains ranch comparison finds major differences in vegetation and ecosystem function under adaptive grazing, while soil-carbon responses are more complex.
| Said A. Hamido, Arash Ghalehgolabbehbahani, Andrew Smith | Agronomy | 2025-10-20
Studies soil-carbon dynamics and physical soil characteristics where rotational grazing and cover cropping are combined in regenerative organic agroecosystems.
Investigates adaptive multi-paddock grazing in Ontario and reports increased soil-carbon stocks and a lower carbon footprint for beef production under studied conditions.
| Multiple authors | Agriculture, Ecosystems & Environment | 2024-08-01
Finds adaptive multi-paddock grazing increased carbon in fine, mineral-associated soil fractions in northern grasslands, although climate and stocking management influenced the effect.
| Steven Apfelbaum et al. | Journal of Environmental Management | 2022-04-15
Comparison of southeastern U.S. ranches associates adaptive multi-paddock grazing with greater vegetation biomass, water infiltration, soil carbon, and stocking capacity.
| Multiple authors | PeerJ | 2022
Finds adaptive grazing was associated with greater pasture biomass, fungal activity, topsoil carbon, and changes in soil-food-web structure on southeastern U.S. ranches.
| Multiple authors | Journal of Environmental Management | 2021-06-15
Finds more soil carbon and nitrogen on southeastern U.S. ranches using adaptive multi-paddock grazing than on paired conventionally grazed ranches.
| Multiple authors | Geoderma | 2021
Study of western Canadian ranches finds higher average water-infiltration rates under adaptive grazing, with responses varying according to soil and environmental conditions.
Agroforestry, Biodiversity, Perennials, and Diversified Farming
| Phoebe Weston | The Guardian | 2026-08-25
Profiles a British farm combining agroforestry, heritage grains, sheep, wildflower habitat, reduced pesticides, and direct marketing to restore biodiversity and improve farm economics.
| Falcó-Garí et al. | Frontiers in Conservation Science | 2026-08
Finds regenerative vegetation management and native cover crops can increase pollinator abundance and richness in commercial perennial orchards across multiple seasons.
| SEARCA | SEARCA AFNR Knowledge Platform | 2026-07-29
Reviews regenerative agriculture in Southeast Asia and emphasizes that appropriate practices and outcomes differ substantially among climates, farming systems, commodities, and communities.
| Meat & Livestock Australia | Meat & Livestock Australia | 2026-06-16
Documents a northern Australian rangeland project combining landscape rehydration, regenerative grazing, natural-capital management, and monitoring of ecological and production outcomes.
| RegenWA | RegenWA | 2026-04-15
Reports results from a vineyard cover-crop demonstration examining minimum-tillage establishment, legumes, earthworms, soil cover, moisture retention, and practical management challenges.
| Montana Department of Natural Resources and Conservation | Montana DNRC | 2026-04-09
Describes a project intended to improve soil health and grazing management across approximately 100,000 acres of Montana ranchland.
Preprint investigates returning almond hulls and shells to orchards as a circular nutrient-management strategy that could reduce waste and dependence on synthetic fertilizer.
| Multiple authors | Scientia Horticulturae | 2026-03-01
Reviews regenerative practices in major Mediterranean vegetable crops, including tomatoes and Brassicas, and examines effects of mulches, cover crops, organic amendments, yield, and crop quality.
| Multiple authors | Geoderma Regional | 2026-03
Finds conversion of degraded Brazilian pasture to silvopastoral systems increases soil carbon and nitrogen and restores important soil-quality indicators.
| Milagros Torrús-Castillo et al. | Soil Use and Management | 2026-02-16
Finds that year-round ground cover, sheep grazing, and recycling pruning residues in a Spanish olive orchard improved several soil, ecosystem-service, and economic indicators.
| Multiple authors | Applied Soil Ecology | 2026-02
Finds even short-term tillage in a previously covered Mediterranean vineyard can reduce organic matter, soil water capacity, microbial activity, enzymes, and soil microarthropods.
| Estelle Raveloaritiana, Thomas Cherico Wanger | Nature Communications | 2026-01-26
Second-order meta-analysis finds long-term agricultural diversification improves profitability, biodiversity, pollination, soil quality, and carbon sequestration without significant overall yield losses.
| Multiple authors | Agriculture, Ecosystems & Environment | 2026-01-01
Meta-analysis finds agroecological interventions across Europe generally increase biodiversity and soil-carbon storage while producing more mixed greenhouse-gas outcomes.
| World Vegetable Center | World Vegetable Center | 2026
Describes expansion of the Veggies for People and Planet program in Africa, combining regenerative vegetable production with water management, renewable energy, finance, and market development.
| Multiple authors | Agricultural Systems | 2026
Models mixed cropping in semi-arid dryland agriculture and finds opportunities to improve profitability while reducing greenhouse-gas emissions compared with less diversified cropping systems.
| Multiple authors | Plants | 2026
Field experiment compares several citrus-orchard cover crops and finds rapid changes in soil moisture, nutrient availability, plant physiology, and soil carbon-dioxide flux.
Reviews soil-carbon sequestration within regenerative agriculture and discusses cover crops, reduced tillage, organic amendments, diversified systems, and climate resilience.
| Soils for Life | Soils for Life | 2026
Provides guidance on grazing recovery periods, stocking decisions, ground cover, soil carbon, water infiltration, livestock performance, farm costs, and landscape regeneration.
| Northeast Grass-Fed Beef Initiative | Sustainable Agriculture Research and Education | 2026
Reports early results from a Vermont farm after one year of regenerative grazing, including changes in surface soil biology, pasture management, and grazing observations.
| Multiple authors | Environmental Microbiome | 2026
Finds clover and ryegrass cover cropping alters citrus rhizosphere microbiomes, nutrient availability, and fruit characteristics, including vitamin C and soluble-solids content.
| Multiple authors | Ecological Applications | 2026
Meta-analysis across 15 countries finds cattle silvopastoral systems support substantially more biodiversity and abundance than treeless pasture systems.
| Almond Board of California | Almond Board of California | 2025-12
Summarizes regenerative practices applicable to perennial almond production, including cover crops, compost, integrated pest management, biodiversity, reduced disturbance, and nutrient management.
| Multiple authors | Agronomy | 2025-11-22
Finds alfalfa and other orchard cover systems increase soil nutrients, microbial diversity, and microbial-network complexity in a semi-arid apple orchard.
| Earthworm Foundation | Earthworm Foundation | 2025-11-10
Describes exchanges among Malaysia, Côte d'Ivoire, and Brazil focused on regenerative agriculture, agroforestry, farmer livelihoods, landscape restoration, and tropical commodity production.
| Multiple authors | Agriculture, Ecosystems & Environment | 2025-11-01
Finds tropical silvopastoral systems stored substantially more carbon and emitted less soil carbon dioxide than treeless pastures while moderating local microclimates.
| Cathy Hawes et al. | Frontiers in Sustainable Food Systems | 2025-10-06
Long-term field comparison finds integrated regenerative cropping can increase in-field biodiversity and soil health while sustaining commercially relevant crop yields.
| Multiple authors | European Journal of Soil Science | 2025-10-06
Assessment of 87 California vineyards finds long-term cover cropping is strongly associated with higher soil-health scores and that livestock integration may accelerate some improvements.
| Vanessa Wynter, E. J. Milner-Gulland, Joseph Poore | Agricultural Systems | 2025-10
Global comparison finds traditional diverse coffee agroforestry has lower biodiversity impacts than monoculture, while intensive shade systems can resemble monocultures more closely.
| Emily Pappo et al. | Communications Earth & Environment | 2025-08-19
Global coffee analysis finds protecting existing complex agroforests may conserve more carbon than tree-planting initiatives alone and warns that carbon and biodiversity outcomes do not always align.
| Earthworm Foundation | Earthworm Foundation | 2025-07-16
Examines regenerative palm-oil production as a response to declining soil fertility, producer vulnerability, ecosystem degradation, and the need for more resilient tropical supply chains.
Examines circular agricultural systems on tropical farms and finds improved recovery and recycling of potassium compared with more linear nutrient-management systems.
| Ágota Horel et al. | Plant and Soil | 2025-06-09
Three-year organic-vineyard study investigates how permanent and developing cover crops alter soil moisture and grapevine physiological performance.
| Multiple authors | Trees, Forests and People | 2025-06
Documents native-tree diversity in Peruvian Amazon silvopastoral systems and examines links between tree species, soil nutrients, biodiversity, and livestock landscapes.
| Multiple authors | Environmental and Sustainability Indicators | 2025-06
Reviews carbon storage among agroforestry systems and finds agrosilvopastoral configurations can maintain substantial carbon in both biomass and soils.
| Multiple authors | Geoderma | 2025-05
Finds management designed to enhance natural ecological processes can substantially improve soil carbon, nitrogen, enzyme activity, functional diversity, and overall soil-health indices in olive groves.
| Margot T. Flynn et al. | California Agriculture | 2025-04-08
Compares evapotranspiration across five California almond orchards spanning conventional-to-regenerative management and investigates whether regenerative practices alter orchard water demand.
Evaluates compost and multispecies cover crops in mature organic almond orchards and examines soil health, crop performance, nutrient cycling, and food-quality indicators.
| J. Llanos et al. | Science of the Total Environment | 2025-03-10
Finds environmental DNA more effective than hand sorting for detecting earthworm biodiversity recovery associated with regenerative management and temporary grass-clover leys.
| Multiple authors | Journal for Nature Conservation | 2025-03
Compares organic and conventional apple orchards across multiple taxonomic groups and assesses how farm management and surrounding semi-natural habitat influence biodiversity.
| Thomas P. Baker et al. | Agricultural Systems | 2025-03
Global quantitative analysis finds effects of trees on crop, pasture, and livestock productivity depend strongly on agroforestry design, tree age, density, arrangement, and environmental conditions.
| Multiple authors | Applied Soil Ecology | 2025-02
Finds diverse cover crops alter nematode communities in commercial citrus orchards and suggests nematodes can serve as sensitive biological indicators of soil-health changes.
| Multiple authors | Applied Soil Ecology | 2025-02
Finds four years of vineyard cover management increases microbial biomass and activity, although changes in total soil organic carbon occur more slowly.
| Multiple authors | CATENA | 2025-02
Global meta-analysis finds agroforestry increases soil-carbon sequestration, with especially strong responses reported in arid environments.
| Chen Chen, Wenya Xiao, Han Y. H. Chen | Nature | 2025-01-08
Global meta-analysis finds mixtures of plant species are generally more productive than monocultures, although benefits differ substantially among grasslands, forests, and croplands.
| Multiple authors | Applied Soil Ecology | 2025
Examines grassland-management systems and finds tillage disturbance to be a major factor explaining differences in soil microarthropods, nematodes, earthworms, and overall soil biodiversity.
| Multiple authors | Agriculture, Ecosystems & Environment | 2025
Fourteen-year Bolivian cocoa experiment finds successional and conventional agroforestry systems store substantially more biomass carbon than cacao monocultures.
| Multiple authors | Science of the Total Environment | 2025
Finds conversion of Colombian Amazon pasture to silvopastoral systems improves soil carbon, nutrient status, and multiple indicators of ecosystem-service delivery.
| Multiple authors | Nature Sustainability | 2025
Causal analysis across Southeast Asia associates agroforestry with significant reductions in forest loss and avoided carbon emissions while finding considerable geographic variation.
| Multiple authors | Frontiers in Plant Science | 2025
Finds soybean green-manure intercropping improves citrus soil nutrients, beneficial microbial communities, and several measures of fruit quality.
| Multiple authors | Environmental Microbiome | 2025
Finds vineyard cover crops increase microbial biomass, fungal-to-bacterial ratios, microbial-network complexity, and potentially beneficial microbial functions over time.
| Filippo Ferlito et al. | Agronomy for Sustainable Development | 2025
Meta-analysis finds vineyard cover crops generally improve erosion control, water regulation, pollination, nutrient cycling, microbial activity, and weed suppression without reducing average grape yield.
| Multiple authors | Sustainability | 2024-06
Reports rapid increases in soil organic matter, aggregation, microbial biomass, and beneficial fungal groups after conversion of several crop systems from conventional to regenerative management.
| Multiple authors | Scientific Data | 2024
Introduces the iMAP-FP evidence library compiling meta-analytical evidence on dozens of farming practices and outcomes involving biodiversity, soil health, climate, water, and productivity.
| Multiple authors | Frontiers in Plant Science | 2024
Finds citrus-orchard groundcover can reduce runoff, erosion, nitrogen loss, and phosphorus loss while improving tree nutrition and growth on sloping farmland.
| Phoebe Weston | The Guardian | 2022-09-12
Describes regenerative experiments at Riverford using flowering plants and ecological pest management to encourage predators, pollinators, and greater farm biodiversity.
| SARE Project Team | Sustainable Agriculture Research and Education | 2018-2022
Evaluates cover-crop management for forage, weed suppression, crop yields, soil health, and profitability in dryland grain systems.
| Susan Jaster | Sustainable Agriculture Research and Education | 2020-2022
Evaluates how regenerative grazing and improving soil health may increase pasture biodiversity, water storage, climate resilience, and farm sustainability.
| Natalie Lampert | The Guardian | 2021-05-08
Profiles Colorado farmers using perennial crops, rotational grazing, reduced chemical inputs, and diversified livestock as an alternative to industrial farming.
| Jonathan Lundgren et al. | Frontiers in Sustainable Food Systems | 2021
Comparison of California almond systems finds regenerative orchards had higher soil health, biodiversity, water infiltration, and profitability while maintaining similar yields.
| SARE Project Team | Sustainable Agriculture Research and Education | 2017-2018
Tests integrating cover crops and livestock into dryland cropping systems to examine impacts on soil health, weeds, nutrients, moisture, and crop establishment.
Climate Change, Carbon Sequestration, and Resilience
| Dinesh Panday, Saurav Das, Said Hamido | Rodale Institute | 2026-08-25
Reviews long-term Rodale research on soil carbon, water infiltration, microbial biomass, organic matter, and resilience under organic and regenerative management.
| Reuters | Reuters | 2026-08-19
Reports growing European interest in regenerative agriculture as extreme heat and drought increase demand for farming systems with better water retention and lower input dependence.
| Isobel Tomlinson, Ruth Wade, Jennifer Hodbod, David R. Williams | Agricultural Systems | 2026-06
UK evidence review finds major gaps in empirical data on regenerative agriculture's net greenhouse-gas effects, particularly when yields and complete emissions balances are considered.
| Multiple authors | Agriculture, Ecosystems & Environment | 2026-04-01
Meta-analysis of rice systems finds cover crops can increase soil carbon and yields but can also affect methane and nitrous-oxide emissions, illustrating important climate trade-offs.
| Joanna Partridge | The Guardian | 2025-05-28
Examines agricultural soil-carbon markets as a possible source of farm income while discussing scientific concerns about measurement, additionality, permanence, and offset claims.
| Reuters | Reuters | 2024-06-10
Examines calls for food companies and investors to share the financial cost of transitioning farmers toward regenerative practices rather than leaving farmers to absorb transition risk.
| Multiple authors | Environmental Research Communications | 2023
Reviews evidence for the climate and environmental effects of major regenerative practices and emphasizes that benefits depend heavily on management, soils, and climate.
| Rachel McDevitt | StateImpact Pennsylvania | 2021-02-23
Explores how Pennsylvania farmers are using cover crops, reduced tillage, diversified rotations, and better grazing management to build soil organic matter and climate resilience.
| Jeff Moyer, Andrew Smith, Yichao Rui, Jessica Hayden | Rodale Institute | 2020
Argues that regenerative organic farming can increase soil-carbon storage while improving soil health, biodiversity, water management, and agricultural resilience.
| Environmental Defense Fund | Environmental Defense Fund | n.d.
Explains the possibilities and limitations of agricultural soil-carbon sequestration, including slow accumulation, reversibility, and difficulties in measurement and verification.
Nutrition, Food Quality, Climate, and Emerging Directions
| Lucas Krusinski | Exploration of Foods and Foodomics | 2026-05-06
Reviews emerging links between regenerative farming and nutrient density and argues that food claims should increasingly rely on measured outcomes rather than practice labels alone.
| David Rose | Vitagri | 2026-04
Synthesizes proposed connections among soil biology, nutrient cycling, plant physiology, crop mineral composition, and the nutritional quality of food.
| David Rose | Vitagri | 2026-04
Reviews claims about regenerative agriculture and nutrient density and argues that measurable biological and nutritional outcomes are more informative than farming labels alone.
| Multiple authors | Sustainable Cropping Systems Under a Changing Climate | 2026
Reviews regenerative agriculture within climate-resilient cropping systems, including soil restoration, diversification, reduced disturbance, organic inputs, water management, and resilience.
| Multiple authors | Agriculture, Ecosystems & Environment | 2026
Examines regenerative grazing and soil-enzyme activity and finds that ecological responses can vary strongly with season, pasture characteristics, and management intensity rather than following a single universal regenerative pattern.
| General Mills | General Mills | 2026
Places regenerative agriculture within a broader corporate strategy addressing greenhouse-gas emissions, water stewardship, biodiversity, packaging, and resilient food supply chains.
| Nutrient Density Initiative | Nutrient Density Initiative | 2026
Examines consumer understanding of nutrient density, farming methods, certification, and the challenges of communicating measurable food-quality outcomes.
| Nutrient Density Initiative | Nutrient Density Initiative | 2026
Describes the Regen Nutrition Project, which is collecting food, soil, and management data to investigate connections between farming systems and nutrient density.
| David R. Montgomery, Anne Biklé, Ray Archuleta, Paul Brown, Jazmin Jordan | PeerJ | 2022-01-27
Preliminary paired-farm study reports differences in soil health and nutrient concentrations between selected regenerative and conventional farms while emphasizing the small sample size and need for larger studies.
| Multiple authors | Emerging Topics in Life Sciences | 2020-05-28
Reviews ecological intensification and diversification strategies for maintaining food production while supporting biodiversity and ecosystem services under environmental change.
Farm Economics, Adoption, and Farmer Knowledge
| Multiple authors | Discover Agriculture | 2026-07
Studies regenerative-agriculture awareness and adoption among smallholder maize farmers in Ghana and identifies access to compost, manure, cover-crop seed, and other inputs as major constraints.
| Sharvari Shashank Bidaye | Frontiers in Sustainable Food Systems | 2026-04-01
Finds that diversified rotations, nutrient budgeting, hedgerows, and legume-rich leys are relatively feasible for UK root crops while no-till and agroforestry face greater constraints.
| Multiple authors | European Journal of Agronomy | 2026-04
Peruvian Andes experiments find reduced tillage, mulching, and organic fertilizer can improve some yield, profitability, carbon, and soil outcomes, while zero tillage and intercropping require local adaptation.
Analysis of 438 Kansas crop farms finds higher soil-health adoption is associated with better financial performance under one expert-informed classification system, while other classification methods produce weaker relationships.
| Multiple authors | British Food Journal | 2026-01-23
Examines finance, corporate programs, risk allocation, measurement, and power within regenerative agriculture and argues that financing structures can transfer significant transition risk to farmers.
| University of Eastern Finland | Phys.org | 2026-01-07
Research finds regenerative farmers increasingly describe nature as an active professional partner whose signals influence timing, management, and farm decisions.
| The Nature Conservancy et al. | The Nature Conservancy | 2026
Proposes using agronomists, crop advisers, retailers, and other trusted farm advisers as a major pathway for accelerating regenerative-agriculture adoption.
| The Nature Conservancy | The Nature Conservancy | 2026
Profiles Michigan farmers recognized for reduced tillage, soil cover, nutrient management, innovation, and long-term soil-health stewardship.
| Wageningen University & Research | Wageningen University & Research | 2026
Evaluates environmental and economic performance across European farms and highlights interactions among fertilizer reduction, legumes, biodiversity, production, and profitability.
| University of Missouri Extension | University of Missouri | 2026
Reports a Missouri demonstration using GPS-enabled virtual fencing to make rotational grazing more flexible and improve access to pasture and cover-crop forage.
Studies regenerative-practice adoption among maize farmers in Katsina State, Nigeria, and examines household and farm factors affecting participation.
| Antony Philip Emenyu et al. | Earth System Dynamics | 2025-10-10
Examines how social, economic, institutional, and reinforcing feedbacks might create positive tipping points that accelerate regenerative-practice adoption among African smallholders.
| Tatenda Mambo, Francine Nelson, Juhi Huda, Guillaume Lhermie | Journal of Rural Studies | 2025-10
Interviews Alberta stakeholders and identifies climate, short growing seasons, producer knowledge, policy gaps, and inadequate financial incentives as barriers to regenerative-agriculture adoption.
| Multiple authors | Journal of Development Economics | 2025-09
Randomized study finds digital farmer-to-farmer discussion groups can increase adoption of regenerative practices such as intercropping and organic fertilizer production.
| Andrew B. Rosenberg, Maria Bowman | USDA Economic Research Service | 2025-08-12
Finds U.S. farmers who plant cover crops are substantially more likely to also use no-till, reduced tillage, and different nitrogen-management strategies.
| USDA Economic Research Service | USDA Economic Research Service | 2025-06
Analyzes economic outcomes of U.S. soil-health and conservation practices and finds that short-term cover-crop returns are often negative even when longer-term benefits may emerge.
Interviews Corn Belt farmers and finds environmental benefits motivate regenerative adoption while startup costs, infrastructure, marketing, and uncertain profits remain important barriers.
| Soja Sädeharju | Phys.org / University of Eastern Finland | 2025-04-10
Finds Finnish regenerative farmers often use experience-based intuition in decision-making even though intuition remains difficult to discuss within formal agricultural institutions.
Models autonomous swarm robotics for regenerative strip intercropping and finds automation could help overcome labor and machinery constraints that currently reduce profitability.
| The Nature Conservancy | The Nature Conservancy | 2025
Examines how regenerative practices can influence drinking-water quality, air quality, public health, farm resilience, and the need for stronger technical and financial assistance.
| Multiple authors | Journal of Environmental Quality | 2025
Tracks the first three transition years of an Upper Midwest regenerative cropping system and finds yield penalties can narrow while lower operating costs improve relative economic performance.
Finds that cover crops create public environmental benefits but often impose short-term private costs on farmers, strengthening the economic case for well-designed public incentives.
| Multiple authors | International Journal of Agricultural Sustainability | 2024
Uses grower case studies to examine lessons from organic agriculture for regenerative adoption, including certification, regulation, labor, market premiums, pest management, and financial incentives.
| McKinsey & Company | McKinsey & Company | 2024
Examines potential financial benefits of regenerative farming alongside obstacles including transition costs, equipment, uncertain yields, technical knowledge, market incentives, and weather risk.
| Jack Bugas, Helena Conant, Sonya Hoo et al. | Boston Consulting Group | 2023-08-15
Models the economics of regenerative agriculture for U.S. wheat farmers and argues that financing mechanisms can reduce transition risk and improve long-term profitability.
| Chris Clayton | DTN | 2023-05-25
Examines the long-term economics of regenerative farming while highlighting the financial difficulty of the first several transition years and uncertainty surrounding projected returns.
| L. Schreefel et al. | Agricultural Systems | 2022-12
Uses Dutch farm scenarios to show that regenerative transitions need tailor-made combinations of practices rather than a single universal package.
| L. Schreefel et al. | Agricultural Systems | 2022-04
Develops a farm-modelling framework showing that regenerative practices can improve soil functions while creating important profitability and management trade-offs.
| Claire E. LaCanne, Jonathan G. Lundgren | PeerJ | 2018-02-26
Comparison of regenerative and conventional corn farms finds lower average yields but higher profitability on regenerative farms, with pest abundance and soil organic matter strongly associated with outcomes.
| The Nature Conservancy | The Nature Conservancy | n.d.
AgEvidence makes tens of thousands of research observations available to practitioners and compares outcomes from no-till, cover crops, fertilizer management, and other regenerative practices.
Practical Farmer Guidance and On-Farm Management
| Natural Resources Conservation Service | USDA | 2026-04
Describes a multi-year cropland transition pathway combining rotations, cover crops, nutrient management, irrigation management, no-till, contour farming, and other conservation practices.
| Andrew B. Rosenberg | USDA Economic Research Service | 2025-12-17
Reviews U.S. tillage and crop-rotation practices and their implications for erosion, nutrient runoff, soil organic matter, carbon storage, farm costs, and long-term productivity.
| Penn State Extension | Pennsylvania State University | 2025-12-01
Examines the economics of combining dairy forage production with cover cropping to obtain soil-health benefits while generating additional usable forage.
| Penn State Extension | Pennsylvania State University | 2025-11-24
Explains why no-till works best when combined with cover crops and residue management rather than being treated as a stand-alone soil-health intervention.
| Penn State Extension | Pennsylvania State University | 2025-11-24
Explains opportunities and management considerations for grazing cover crops to reduce livestock feed costs while supporting soil health and nutrient cycling.
| Gabi Bolwerk, Laura Paine | University of Minnesota Extension | 2025-10-20
Reviews the economics of integrating livestock into annual cropping systems through residue and cover-crop grazing.
| University of Minnesota Extension | University of Minnesota | 2025-10
Provides a practical field protocol for evaluating surface cover, aggregation, compaction, organic matter, roots, and other visible soil-health indicators.
| Penn State Extension | Pennsylvania State University | 2025-09-22
Discusses using legume and non-legume cover crops to add, capture, recycle, and synchronize nitrogen availability in vegetable systems.
| Anna Cates, Liz Stahl, Axel Garcia y Garcia | University of Minnesota Extension | 2025-08-18
Provides practical cover-crop selection guidance based on recent Minnesota trials and discusses erosion protection, biomass, soil structure, and water management.
| Mehmet Ozturk, Anna Cates, Lindsay Pease | University of Minnesota Extension | 2025-08-11
On-farm research finds cereal rye planted after sugarbeets can reduce severe wind erosion during exposed winter conditions.
| Penn State Extension | Pennsylvania State University | 2025-07-23
Reviews cover-crop selection, soil organic matter, erosion control, weed suppression, nutrient retention, and other farm-management benefits.
| Natural Resources Conservation Service | USDA | 2025-04
Summarizes potential economic benefits of soil-health systems through reduced erosion, fertilizer requirements, weed pressure, compaction costs, drainage costs, and livestock feed expenses.
| Bailey Tangen, Marcelle Lewandowski, Anna Cates | University of Minnesota Extension | 2025-03-10
Uses agricultural census, remote-sensing, and conservation-program data to track adoption of no-till, reduced tillage, residue retention, and cover crops across Minnesota.
| Sarah Richards et al. | Penn State Extension | 2025-03-06
Explains how cover crops can alter bacteria, fungi, and other components of the soil microbiome associated with nutrient cycling and soil health.
| Hugh Aljoe | Noble Research Institute | 2025
Describes soil health as the foundation of regenerative ranching and connects improved soils with water retention, forage production, biodiversity, resilience, and reduced input dependence.
| Heidi Reed et al. | Penn State Extension | 2025
Reports Pennsylvania on-farm trials of broadcast cover crops in soybeans, including differences in biomass, weed competition, timing, and establishment success.
| Penn State Extension | Pennsylvania State University | 2024-10-21
Examines benefits and soil risks associated with grazing residues and cover crops as part of integrated crop-livestock management.
| Liz Stahl, Axel Garcia y Garcia | University of Minnesota Extension | 2024-07-15
Explains how cover crops can protect flooded or unplanted areas from weeds, erosion, soil biological decline, and loss of living roots.
| Bailey Tangen | University of Minnesota Extension | 2024-04-04
Describes a farmer-data project linking cover-crop management with measured green cover to improve locally specific recommendations.
Examines the trade-off between cover-crop water use and improvements in soil protection, infiltration, and resilience during drought.
| Noble Research Institute | Noble Research Institute | 2024
Describes a multi-year monitoring program measuring soil, infiltration, earthworms, bees, dung beetles, ecological indicators, production, and finances across regeneratively managed ranches.
| Associated Press | Associated Press | 2024
Uses Sweetgreen's regenerative-beef claims to examine the growing corporate use of regenerative agriculture and questions whether soil practices and carbon offsets can fully compensate for livestock emissions.
| Noble Research Institute | Noble Research Institute | 2023
Provides practical methods for establishing soil-health baselines and observing changes during a transition toward regenerative management.
| Noble Research Institute | Noble Research Institute | 2023
Explains regenerative management through six principles: understand context, cover soil, minimize disturbance, increase diversity, maintain living roots, and integrate livestock.
| Noble Research Institute | Noble Research Institute | 2022
Explains why minimizing disturbance does not necessarily mean eliminating every disturbance and discusses using grazing and other interventions strategically within regenerative systems.
| Natural Resources Conservation Service | USDA | n.d.
Provides practical guidance on crop rotation, cover crops, organic nutrient management, reduced tillage, and organic no-till systems for building healthy soils.
| Natural Resources Conservation Service | USDA | n.d.
Explains how biodiversity, living roots, reduced disturbance, soil cover, residues, crop rotations, and microbial communities interact in soil-health management systems.
| Michel Cavigelli | USDA Agricultural Research Service | n.d.
Discusses the economics of regenerative agriculture and explains how reduced tillage, perennial crops, cover crops, organic amendments, and greater crop diversity may reduce costs and rebuild soils.
| University of Minnesota Extension | University of Minnesota | n.d.
Provides vegetable-farm guidance on fitting cover crops into rotations and reducing tillage intensity to improve soil structure, water holding capacity, and biological activity.
| Heidi Reed, Jeffrey Graybill | Penn State Extension | n.d.
Introduces cover crops as a strategy for keeping soil protected, feeding soil organisms, reducing erosion, and maintaining productive soils between cash crops.
Policy, Standards, Certification, Finance, and Measurement
| PepsiCo | PepsiCo | 2026-08-13
Describes more than 30 Positive Agriculture Outcomes projects testing locally adapted regenerative approaches, technologies, incentives, and farm-resilience strategies.
| Regenagri | Regenagri | 2026-07-30
Introduces Farm Standard 4.0 with strengthened requirements covering soil, water, biodiversity, crop protection, greenhouse gases, animal welfare, governance, and continuous improvement.
| European Commission | European Commission | 2026-07-29
Describes development of an EU market for certified carbon removals and carbon farming, including agricultural practices that increase soil carbon and landscape resilience.
| WBCSD and EIT Food | World Business Council for Sustainable Development | 2026-07-16
Describes a farmer-centered blended-finance pilot designed to coordinate buyers, financial institutions, and producers around landscape-scale regenerative transitions.
| Ryan Daily | AgNavigator | 2026-07-16
Examines an ADM, Walmart, and General Mills initiative supporting regenerative practices across 40,000 acres of Midwest wheat through financial and technical assistance.
| Financial Times | Financial Times | 2026-07
Examines increased British interest in regenerative practices as extreme heat, drought, input costs, and weather volatility expose weaknesses in conventional production systems.
| Maggie Monast | Environmental Defense Fund | 2026-06-29
Reports results from a three-year financing program offering grain farmers lower borrowing costs for meeting soil-health and nitrogen-management requirements.
| Wageningen University & Research | Wageningen University & Research | 2026-06-25
European Regenomics research finds regenerative agriculture's economic and environmental benefits vary greatly among farms, making region-specific and farm-specific transition strategies essential.
| Regenagri | Regenagri | 2026-06-25
Describes a system linking verified regenerative farm practices with supply-chain carbon insetting units intended to generate additional farmer income.
| Rainforest Alliance | Rainforest Alliance | 2026-06-24
Reports regenerative agriculture, forest restoration, farmer-livelihood, certification, and biodiversity work across coffee, cocoa, tea, and other agricultural landscapes.
| Rainforest Alliance | Rainforest Alliance | 2026-06-15
Summarizes monitoring of more than 14,000 cocoa farms across five countries, including adoption of regenerative practices, farm management, and household-livelihood indicators.
| Rainforest Alliance | Rainforest Alliance | 2026-06-05
Sets auditing, soil-assessment, group-certification, and implementation rules for farms using the Rainforest Alliance Regenerative Agriculture Standard.
| Sustainable Agriculture and Food Systems Funders | SAFSF | 2026-05-04
Examines how philanthropic and private capital can better support farmers facing multi-year transition costs before regenerative benefits become economically measurable.
| Rainforest Alliance | Rainforest Alliance | 2026-04-21
Describes a partnership helping coffee growers in Honduras adopt regenerative practices and obtain certification focused on soil, water, biodiversity, climate resilience, and livelihoods.
| Harvard Business School | Climate Rising | 2026-03-18
Examines the use of satellite data, machine learning, farm records, carbon credits, and insetting programs to finance regenerative agriculture across European farms.
| Krisy Gashler | Cornell Chronicle | 2026-03-11
Examines how lending, crop insurance, land values, environmental payments, and financial institutions could make soil-health and regenerative transitions less risky for farmers.
| Harvard Business School | Climate Rising | 2026-03-04
Explores agricultural carbon markets, farmer incentives, measurement, additionality, permanence, remote sensing, and the economics of regenerative-practice adoption.
| Rainforest Alliance | Rainforest Alliance | 2026-02-19
Describes how scientific evidence, field pilots, crop scorecards, farmer experience, and existing certification systems were combined to create the organization's regenerative standard.
| Common Fund for Commodities | Common Fund for Commodities | 2026-01-12
Reports the first close of a $40 million agricultural transformation fund intended to finance commodity businesses adopting regenerative and climate-resilient practices.
| Preferred by Nature | Preferred by Nature | 2026
Describes a science-based regenerative certification framework being piloted in Kenya, the Dominican Republic, and Sri Lanka with an emphasis on measurable outcomes and value-chain transparency.
| Natural Resources Conservation Service | USDA | 2026
Provides Washington-specific information on USDA's regenerative-agriculture pilot, technical-service providers, conservation planning, and producer assistance.
| The Nature Conservancy | The Nature Conservancy | 2026
Describes India's PRANA initiative, which links regenerative agriculture with crop-residue management, reduced field burning, water conservation, soil health, finance, and farmer resilience.
| International Finance Corporation | IFC | 2026
Establishes a regenerative-agriculture framework for investment in emerging markets, including minimum criteria, environmental outcomes, technical assistance, and financial risk-sharing.
| General Mills | General Mills | 2026
Describes General Mills' regenerative strategy, including farmer coaching, soil-health measurement, water stewardship, biodiversity, and its one-million-acre goal.
| Lauren Baker | FAO Agroecology Knowledge Hub | 2026
Examines transition finance for regenerative and agroecological food systems and highlights initiatives in Africa, India, Brazil, Europe, and the U.S. Midwest.
| Cornell Atkinson Center for Sustainability | Cornell University | 2026
Describes research into new transition-finance mechanisms that reward farmers for environmental outcomes while addressing the up-front costs of regenerative management.
| Cargill | RegenConnect | 2026
Describes a market-based program that compensates participating farmers for adopting eligible soil-health and regenerative practices while tracking environmental outcomes.
| Rainforest Alliance | Rainforest Alliance | 2026
Provides the current certification framework connecting regenerative requirements with soil health, biodiversity, climate resilience, water management, and social standards.
| Natural Resources Conservation Service | USDA | 2025-12
Explains USDA's Farmer First Regenerative Agriculture Pilot, including whole-farm assessment, technical assistance, EQIP and CSP funding, and outcome-oriented conservation planning.
| Natural Resources Conservation Service | USDA | 2025-12
Describes USDA's Regenerative Pilot Program, including $700 million in planned conservation investment through EQIP and CSP and an outcomes-oriented whole-farm approach.
Studies how communication networks and information channels influence regenerative-practice awareness and adoption among farmers in Andhra Pradesh and Telangana, India.
| Bethany Freund | General Mills | 2025-10-10
Describes farmer-led regenerative programs across U.S. sourcing regions and emphasizes producer networks, locally appropriate practices, technical assistance, and supply-chain resilience.
| Regenagri | Regenagri | 2025-09-17
Reports expansion of regenerative certification across cotton, coffee, tea, and grain farms and discusses measurement of carbon footprints and other environmental indicators.
| World Resources Institute Africa | WRI Africa | 2025-09-10
Examines how better agricultural data can help African countries scale agroecology and regenerative agriculture while closing information gaps and improving farm decision-making.
| Soil & Climate Initiative | Soil & Climate Initiative | 2025-07-14
Introduces an updated verification framework built around seven regenerative pillars and intended to improve confidence in farm and product claims.
| SAI Platform | SAI Platform | 2025-06
Provides a global regenerative-agriculture framework that connects locally appropriate farm practices with measurable environmental and agricultural outcomes.
| Sophia Sanniti et al. | World Resources Institute | 2025-05-16
Examines how faith-based organizations in Rwanda can help advance regenerative agriculture, reduce food loss, support vulnerable communities, and strengthen food-system transformation.
| World Wildlife Fund | WWF | 2025-03-19
Uses producer examples to examine how reducing crop loss and waste can improve farm economics and circularity during transitions toward regenerative agriculture.
| Rainforest Alliance | Rainforest Alliance | 2025-03-18
Explains the rationale for creating a third-party regenerative certification system and discusses concerns about common definitions, verification, greenwashing, and measurable outcomes.
| Syngenta | Syngenta | 2025-01
Profiles an Illinois farmer using soil-health and regenerative practices and describes changes in soil biology, earthworm activity, erosion, and production management.
| Rainforest Alliance | Rainforest Alliance | 2025
Traces development of the Rainforest Alliance Regenerative Agriculture Standard from early research and commodity scorecards through field pilots and formal certification.
| The Nature Conservancy | The Nature Conservancy | 2025
Reviews lessons from mission-oriented agricultural investments and explores how recoverable grants and private capital can help scale regenerative agricultural innovation.
| IUCN | International Union for Conservation of Nature | 2025
Summarizes World Conservation Congress resolutions calling for a shared regenerative-agriculture framework and broader transition toward regenerative economic models.
| USDA Economic Research Service | USDA | 2025
Reviews the U.S. organic sector and discusses emerging regenerative certifications and labels alongside established organic production and marketing systems.
| IUCN | International Union for Conservation of Nature | 2024-12
Summarizes land-degradation discussions at UNCCD COP16 and calls for agricultural transitions centered on soil health, nature-based solutions, and regenerative land management.
| World Economic Forum | World Economic Forum | 2024
Examines financing models intended to accelerate adoption of regenerative and sustainable farming practices by reducing farmer risk and mobilizing public and private capital.
| SAI Platform | SAI Platform | 2023-09
Sets out an earlier global framework for regenerative agriculture based on farm-level criteria, principles, and outcome measurement rather than a universal prescribed practice list.
| The Nature Conservancy | The Nature Conservancy | n.d.
Calls for U.S. Farm Bill incentives that reward regenerative practices producing soil-health, resilience, habitat, and carbon-sequestration benefits.
Corporate Supply Chains, Commodities, and Market Programs
| Regenagri | Regenagri | 2026-08-03
Describes IKEA's participation in an Indian regenerative-cotton program designed to reduce farmer transition risk, improve verification, and strengthen long-term demand.
| World Cocoa Foundation | World Cocoa Foundation | 2026-07-30
Examines why scaling regenerative cocoa requires food companies, financiers, and other supply-chain actors to share transition costs and risks with farmers rather than simply increasing sustainability requirements.
| Common Fund for Commodities | Common Fund for Commodities | 2026-07-07
Describes a $2 million financing agreement with a Honduran coffee cooperative intended to support regenerative farming, carbon sequestration, climate resilience, and smallholder livelihoods.
| TechnoServe and Sustainable Food Lab | TechnoServe | 2026-07-06
Seven-country analysis finds regenerative coffee practices can close or reduce living-income gaps in some regions but are insufficient on their own in others.
| Alice Waithera | The Star | 2026-07-01
Reports coffee and tea farmers in Embu and Kirinyaga, Kenya, experiencing improved yields and biodiversity after adopting regenerative and climate-resilient farming practices.
| PepsiCo | PepsiCo | 2026-07-01
Reports regenerative, restorative, or protective practices expanded to 4.7 million acres as PepsiCo works toward a 10-million-acre 2030 agriculture target.
Reports distribution of 2.6 million trees and technical assistance to tens of thousands of cocoa farmers in Ghana and Côte d'Ivoire to expand agroforestry and regenerative practices.
| KIND Snacks / Mars | Mars | 2026-06-24
Reports that roughly half of KIND's almond volume is being sourced from farms using regenerative practices following a three-year California almond pilot.
| Power for Food Partnership and CoELIB-Egerton | Power for Food Partnership | 2026-06-15
Survey of Kenyan agricultural stakeholders finds relatively high awareness but much lower adoption of regenerative practices, with finance and technology access among major barriers.
| Regenagri | Regenagri | 2026-06-02
Profiles a Brazilian regenerative coffee farm and a UK roaster combining regenerative sourcing with lower-emission ocean transportation.
| Conservation International | Conservation International | 2026-05-04
Describes a $3 million investment supporting regenerative production of fashion materials in South Africa through land restoration, improved livelihoods, climate mitigation, and animal welfare.
| Danone Ecosystem | Danone | 2026-05-04
Describes a French dairy initiative testing and disseminating more sustainable and regenerative agricultural practices through farmer demonstrations and partnerships.
| Regenagri | Regenagri | 2026-04-29
Reports on GreenPods, an early Regenagri-certified nut producer, and its use of regenerative management within perennial nut farming.
| Regenagri | Regenagri | 2026-04-16
Describes Walmart's use of regenerative certification and traceability within global cotton, apparel, and food sourcing networks.
| General Mills | General Mills | 2026-04-15
Reports more than 800,000 acres participating in General Mills regenerative-agriculture programs as the company works toward its one-million-acre target.
| Mars and ofi | Mars | 2026-04-15
Announces a five-year Ecuador cocoa collaboration intended to expand climate-smart and regenerative practices while reducing emissions and improving farmer productivity and resilience.
| PepsiCo Foundation | PepsiCo | 2026-04-09
Describes regenerative olive-growing training in Jaén, Spain, including cover crops, composting, irrigation management, organic fertility, soil restoration, and support for younger farmers.
| Regenagri | Regenagri | 2026-04-07
Introduces Carbon Insetting Standard 2.0, including additionality tests, farm-level carbon accounting, risk assessment, verification, and mechanisms for channeling supply-chain climate finance toward regenerative farms.
| IUCN | International Union for Conservation of Nature | 2026-04-07
Profiles Ugandan coffee farmers using mulch, improved planting material, soil restoration, and other regenerative practices to adapt to drought and increasingly unreliable rainfall.
| Regenagri | Regenagri | 2026-03-31
Profiles 111 Sri Lankan rubber farms using regenerative certification to improve soil health, biodiversity, climate resilience, intercropping, and supply-chain transparency.
| Kenya News Agency | Government Advertising Agency | 2026-03-25
Reports a Kenyan initiative intended to help 5,000 women and young people access finance, markets, and regenerative agricultural training in coffee-growing counties.
| IAS-CSIC | Spanish National Research Council | 2026-02-26
Summarizes Spanish research evaluating soil health, ecosystem services, production, and economic performance under regenerative management in commercial olive orchards.
| National Geographic Society and PepsiCo | PepsiCo | 2026-02-24
Funds on-farm regenerative research involving wheat, maize, potatoes, soy, and coffee in climate-stressed agricultural regions across several countries.
| McCain Foods | McCain Foods | 2026-02-03
Reports nearly 70% of McCain potato acreage has entered its regenerative framework and describes research farms testing soil cover, biodiversity, nutrient cycling, and other practices.
| McCain Foods | McCain Foods | 2026-02-03
Announces a commercial-scale regenerative potato research farm in North Yorkshire developed with the University of Leeds to test practices under real farm conditions.
| PepsiCo and Fertiberia | PepsiCo | 2026
Describes plans to expand lower-carbon fertilizer, precision agriculture, digital tools, and regenerative management across European potato and corn production.
Describes coffee programs using agroforestry, soil cover, compost, improved fertilization, farm renovation, and farmer training across multiple producing countries.
| McCain Foods | McCain Foods | 2026
Explains McCain's regenerative potato framework, including soil cover, crop diversity, reduced disturbance, water efficiency, agrochemical optimization, and integration of organic and livestock practices.
Reports dozens of climate-smart agriculture projects across multiple countries and crops, including regenerative farming, farmer training, resilience, and emissions reduction.
| General Mills | General Mills | 2026
Connects regenerative agriculture with General Mills' climate strategy through soil cover, reduced disturbance, nutrient cycling, dairy management, and agricultural greenhouse-gas reductions.
| Suntory Holdings and Conservation International | Suntory | 2025-12-04
Announces a Colombian coffee pilot testing regenerative management of coffee residues and fertilizer to reduce emissions, improve soils, and strengthen farmer resilience.
| Global Coffee Platform | Global Coffee Platform | 2025-09-02
Introduces RegenCoffee guidance intended to give the global coffee industry a common language for regenerative principles, outcomes, practices, profitability, and resilience.
| Flora Southey | FoodNavigator | 2025-06-12
Explains how agroforestry, shade management, ground cover, biodiversity, and soil restoration are being incorporated into regenerative cocoa systems.
| Nestlé | Nestlé | 2025-06-11
Reports Nescafé sourced 32% of its coffee from farmers adopting regenerative practices during 2024 while expanding farmer training across major coffee-producing regions.
| PepsiCo | PepsiCo | 2025-05-22
Expands PepsiCo's regenerative-agriculture ambition to 10 million acres by 2030 while acknowledging infrastructure, economics, and other systemic barriers to scaling.
| Regenagri | Regenagri | 2025-05-06
Describes updated regenerative food and textile standards intended to improve environmental measurement, traceability, certification integrity, and product claims.
| International Olive Council | International Olive Council | 2025-05-05
Examines regenerative olive production as a strategy for restoring soils, increasing biodiversity, storing carbon, improving water management, and developing more circular olive systems.
Describes regenerative programs involving cover crops, rotations, reduced tillage, natural fertilizer alternatives, water stewardship, biodiversity, and more resilient sourcing systems.
| Conservation International | Conservation International | 2025
Describes the Regenerative Fund for Nature's effort to transform agricultural raw-material supply chains such as cotton, leather, wool, and cashmere while restoring ecosystems and livelihoods.
| Cargill | Cargill Impact Report | 2025
Reports regenerative programs across numerous countries involving cover crops, reduced tillage, rotational grazing, grassland restoration, farmer payments, and supply-chain partnerships.
| Cargill | Cargill Annual Report | 2025
Describes investments in soil-health and regenerative initiatives across cropping, livestock, carbon, commodity sourcing, and farmer-support programs.
| Regenagri | Regenagri | 2025
Defines chain-of-custody requirements for regeneratively produced food, feed, and textile materials and establishes rules for traceability and claims through supply chains.
| Blue Bottle Coffee | Blue Bottle Coffee | 2025
Describes Blue Bottle's plans to develop locally tailored regenerative coffee-production models and expand transition work beginning with producers in Peru.
| Eric Rahn et al. | Alliance of Bioversity International and CIAT | 2025
Describes regenerative coffee guidebooks now being used by companies and institutions working with approximately 12,000 farmers in Kenya and Uganda.
| Cargill | Cargill | 2024-11-12
Reports more than one million U.S. acres enrolled in RegenConnect, which supports farmers adopting cover crops, reduced tillage, no-till, and other soil-health practices.
| KIND Snacks | KIND Snacks | 2024-10-22
Reports expansion of regenerative almond programs following pilot work in California and describes plans to scale soil-health practices through the company's almond supply chain.
| Reuters | Reuters | 2024-05-22
Examines regenerative cotton projects in India and their potential to reduce chemical inputs, diversify farmer income, lower emissions, and strengthen women's participation.
| Boaz Waswa et al. | Alliance of Bioversity International and CIAT | 2024-02-09
Explores regenerative agriculture as a strategy for improving Kenyan coffee productivity, soil health, climate resilience, market position, and farmer income.
| Kelani Valley Plantations | Regenagri | 2024
Profiles a Sri Lankan tea estate's transition toward regenerative soil management, biodiversity restoration, ecosystem health, and long-term plantation resilience.
| Farm Africa | Farm Africa | 2022-08-09
Describes regenerative work with thousands of farmers in Embu County, Kenya, involving soil restoration, maize and pulse production, climate resilience, and farmer training.
Regional and Global Case Studies
| Tewodros Tefera, Jochen Froebrich | Challenges | 2026-08-15
Argues that agroecology and regenerative agriculture can operate as complementary approaches for restoring Ethiopian landscapes and improving agricultural resilience.
| The Guardian | The Guardian | 2026-07-24
Investigates claims that healthier soils and regenerative management can improve the nutrient density of food while noting limited evidence, measurement problems, cost, and greenwashing concerns.
| Solomie Gebrezgabher, Alexander Schöning | CGIAR | 2026-07-22
Examines circular and regenerative approaches to recovering water, nutrients, and energy in refugee-hosting landscapes while supporting food production and livelihoods.
| Alliance of Bioversity International and CIAT | CGIAR | 2026-07-01
Reports field demonstrations with more than 400 participants in Embu County, Kenya, focused on soil restoration, climate resilience, and locally appropriate regenerative practices.
| FAO Investment Centre | FAO | 2026-06-17
Examines degraded African soils, fertilizer policy, soil testing, integrated fertility management, regenerative agriculture, finance, insurance, and infrastructure needed for long-term soil restoration.
| Reuters | Reuters | 2026-05-18
Examines corporate attempts to move regenerative agriculture from isolated pilot projects toward global frameworks while addressing farmer risk, inconsistent definitions, and reporting burdens.
| Alliance of Bioversity International and CIAT | CGIAR | 2026-04-30
Examines regional efforts to accelerate regenerative food-system transitions across Asia and the Pacific under growing climate, market, and geopolitical pressures.
| Rainforest Alliance | Rainforest Alliance | 2026-04-06
Summarizes regenerative-agriculture programs across tropical landscapes, including agroforestry, soil health, farmer livelihoods, education, landscape management, biodiversity, and market development.
| Rainforest Alliance | Rainforest Alliance | 2026-02-06
Profiles Nicaragua's La Cumplida coffee farm, where greater soil cover, beneficial microorganisms, reforestation, and biodiversity management form part of regenerative certification.
| Farm Africa | Farm Africa | 2026
Describes a Kenya, Ethiopia, and Tanzania program combining regenerative agriculture, agroforestry, climate-risk finance, insurance, and market development for vulnerable producers.
Provides a research collection covering regenerative farming systems, soil health, economics, climate resilience, livestock management, biodiversity, and nutrient density.
| A. M. Visscher et al. | FAO AGRIS | 2026
Kenyan field experiments find early soil-health responses to crop diversification, legumes, manure, intercropping, and rotations vary substantially among tropical agroecological zones.
| CGIAR and partners | CGIAR | 2025-12-02
Describes regenerative pathways for Kenya's Central Highlands involving water management, finance, rangelands, soil restoration, biodiversity, and food security.
| Alliance of Bioversity International and CIAT | CGIAR | 2025-10-24
Explores regenerative agriculture as a food-system strategy linking farmers, researchers, governments, diets, biodiversity, climate resilience, and landscape restoration.
| The Guardian | The Guardian | 2025-08-29
Explores farmers' growing interest in soil fungi, bacteria, compost extracts, microscopy, reduced disturbance, and other attempts to rebuild agricultural soil microbiomes.
| World Bank | World Bank | 2025-03-14
Describes Kenya's Data for Soil Health and Innovation Challenge, which supports digital tools, AI, soil information, and practical solutions for improving agricultural soil management.
| Rainforest Alliance | Rainforest Alliance | 2025
Reports that more than 34,000 certified coffee and tea farmers in the Mount Kenya program transitioned toward regenerative practices during 2024.
| Farm Africa | Farm Africa | 2025
Reports evidence from Embu and Tharaka Nithi, Kenya, linking regenerative practices with changes in soil health, microbial diversity, organic carbon, yields, income, and on-farm tree density.
| DeSIRA-LIFT / FAO Agroecology Knowledge Hub | FAO | 2025
Reviews discussions from the Africa Fertilizer and Soil Health Summit on agroecology, regenerative agriculture, biofertilizers, farmer knowledge, ecological intensification, and enabling policy.
| University of Minnesota Extension | University of Minnesota | 2025
Uses Minnesota farm demonstrations and soil pits to show how reduced tillage, cover crops, roots, aggregation, and soil structure respond to management.
| Alliance of Bioversity International and CIAT | CGIAR | 2024-11-01
Discusses how regenerative practices may reduce input dependence and environmental degradation while generating viable economic opportunities for farmers.
| World Wildlife Fund | Living Planet Report | 2024
Places regenerative agriculture within a broader nature-positive food-system transition aimed at reducing biodiversity loss, land degradation, water stress, and ecosystem decline.
| Andrew Dabalen, Aparajita Goyal, Ruozi Song | European Commission Knowledge4Policy | 2024
Reviews international regenerative-agriculture evidence and argues that outcomes depend on local biophysical and economic conditions, incentives, and farmer capacity.
| Rainforest Alliance | Rainforest Alliance | 2023-11-27
Describes a project with 10,000 western Kenyan coffee farmers involving agroforestry, soil testing, composting, erosion control, income diversification, water management, and landscape restoration.
| Kate McCauley, Kate Barlow | SURG Journal | 2023-09-14
Reviews plant diversification and soil-carbon sequestration in regenerative landscapes and discusses both potential benefits and scientific limitations.
| The Guardian | The Guardian | 2023-09-10
Examines disagreement over what regenerative agriculture means in Australia and the risks of using the term without common standards or measurable outcomes.
| Alexandra Topping | The Guardian | 2023-08-14
Profiles the expanding UK regenerative-farming movement and its emphasis on soil cover, living roots, biodiversity, grazing animals, reduced inputs, and farm profitability.
| Crops & Soils | American Society of Agronomy | 2021
Introduces regenerative agriculture for crop advisers and explains major practices, soil-health concepts, ecological goals, and questions surrounding scientific evidence.
| Agriculture and Horticulture Development Board | AHDB | 2021
Provides a UK farming perspective on regenerative agriculture, examining practical principles, soil management, profitability claims, evidence gaps, and the importance of local farm conditions.
| Claire LaCanne, Jonathan Lundgren et al. | Sustainable Agriculture Research and Education | 2018
Reports field research comparing regenerative and conventional corn systems across pest abundance, soil organic matter, production, and farm profitability.
