Comprehensive guide to regenerative agriculture in coffee — from soil health restoration and biodiversity enhancement to water conservation and resilient livelihoods. Evidence-based practices from the GCP RegenCoffee Guidance, Kenya ecological farming trials, Vietnam NESCAFÉ Plan, and global case studies.
Conventional coffee systems—characterized by tillage, monocropping, and intensive use of synthetic fertilizers and pesticides—have been shown to decrease soil organic matter, disrupt microbial communities, and exacerbate erosion, acidification, and water pollution [7]. With volatile prices, climate change, rising input costs, and pressure to decrease carbon footprints, regenerative agriculture offers a holistic, outcome-focused approach that emphasizes improving and restoring resources and services by nature [1][5].
According to the Global Coffee Platform's RegenCoffee Guidance (September 2025), regenerative agriculture in coffee is defined as a "holistic, outcome-focused approach to sustainable coffee farming that emphasizes improving and restoring resources and services by nature to achieve improved profitability and resilience of coffee farming systems" [1].
Regenerative agriculture encompasses five common goals according to Elevitch et al. [10]:
A 2025 systematic review by Jones et al. identified 43 peer-reviewed articles on organic and regenerative management in coffee, predominantly focusing on agroforestry, plant-derived additions, soil management, and animal manure. Research demonstrates multiple potential environmental benefits, but also increasing economic risks and trade-offs for farmers, particularly during transition periods [5][9].
This page integrates the latest research (2022-2026) on regenerative coffee agriculture, including global guidance frameworks, empirical field trials, and case studies from Kenya, Vietnam, Uganda, and beyond.
Global Coffee Platform's sector-wide framework for regenerative agriculture in coffee production [1]
"A holistic, outcome-focused approach to sustainable coffee farming that emphasizes improving and restoring resources and services by nature to achieve improved profitability and resilience of coffee farming systems." [1]
Improved soil structure, organic matter, microbial activity
Enhanced water infiltration, reduced runoff, improved quality
Enhanced biodiversity, natural pest control, reduced agrochemicals
Improved farmer prosperity, long-term productivity
First empirical paired-plot comparison of ecological vs conventional coffee management in Embu County, Kenya [7]
No-tillage Organic mulching Compost Indigenous Microorganisms (IMO) Fermented Plant Juice (FPJ) Fermented Herbal Juice (FHJ) Calcium phosphate (bone+vinegar) Calcium (eggshell+vinegar) [7]
Tillage Synthetic fertilizers (CAN, NPK) Copper-based fungicides Borozinc Epsom salt [7]
yield increase in ecological vs conventional (p < 0.001) [7]
Coffee Berry Disease incidence reduction (d = 2.24) [7]
Coffee Leaf Rust incidence reduction (d = 2.10) [7]
Input costs: Comparable between systems [7]
Early adopters exhibited greater yield gains, suggesting cumulative benefits as soil biological processes stabilized [7]
43 peer-reviewed articles analyzed for environmental, economic, and social impacts [5][9]
Gusii Regenerative Agriculture Landscape (GuRAL) Project, Kisii and Nyamira Counties [6]
smallholder farmers participating [6]
decline in Kenyan coffee production over 25 years [6]
current annual production (stagnated) [6]
60 outstanding farmers seminar at Nestlé Tri An Factory, Dong Nai Province [8]
irrigation water savings [8]
chemical fertilizers and pesticides reduction [8]
income increase [8]
high-yield seedlings distributed (2011-2023) [8]
Alliance of Bioversity International and CIAT country-specific guidebooks [2]
coffee partners implementing guidebooks [2]
farmers reached in Kenya and Uganda [2]
Influenced Starbucks' regenerative coffee program in Ethiopia [2]
Sixty percent of global coffee is produced from farms of <5 ha. Agroforestry offers practical advantages for income and food diversification [3]
Fruits, tubers, vegetables, grains
Timber, spices, secondary crops
Firewood, fodder, medicinal plants
Nitrogen fixation, microclimate regulation
Native flora and fauna conservation [3]
Multi-strata coffee systems provide multiple benefits quantification across five categories: market diversification, seasonal food needs, household uses, coffee productivity maintenance, and habitat [3].
SCG application improves plant growth and soil physicochemical properties, supporting circular resource use [4][7]
yield maintained with no loss [4]
improved leaf color, antioxidants, minerals [4]
Based on Elevitch et al. framework [10]
Reduce tillage, minimize synthetic inputs, maintain soil structure
Permanent ground cover, organic mulching, living mulches
Year-round plant cover, diverse root systems, continuous carbon flow
Livestock integration for nutrient cycling, rotational grazing
Diverse cropping systems, native species, habitat corridors
Frontiers: Agroforestry transformation framework, 60% coffee from <5 ha farms [3]
GCP RegenCoffee Guidance (September): Sector-wide regenerative framework [1]
Jones et al. systematic review: 43 articles, environmental benefits, economic trade-offs [5][9]
Alliance Bioversity/CIAT: Uganda/Kenya guidebooks, 12,000 farmers [2]
Nestlé NESCAFÉ Plan: 40-60% water savings, 30-150% income increase [8]
Lee et al. Kenya ecological farming: 1.12 kg/tree yield, 89-93% disease reduction [7]
Rainforest Alliance GuRAL Project: 10,000 farmers in Gusii, Kenya [6]
Global Coffee Platform (2025) [1]
4 core impact areas: soil health, water, biodiversity, resilient livelihoods; adaptable, farmer-centric, outcome-focused; common language for sector-wide transition.
Access GuidanceLee C., Murage E.M., Mutwoki A., et al. (2026). Front. Sustain. Food Syst. 9:1731814 [7]
34 farmers paired-plot; ecological vs conventional; +1.12 kg/tree yield; 89% CBD reduction (d=2.24); 93% CLR reduction (d=2.10); comparable input costs; early adopters cumulative benefits.
View AbstractJones K., Njeru E.M., Garnett K., Girkin N.T. (2025). Agroecology and Sustainable Food Systems [5][9]
43 articles; agroforestry, plant-derived additions, soil management, manure; environmental benefits; economic risks during transition; social barriers (education, knowledge networks).
View AbstractNestlé Vietnam / NESCAFÉ Plan (2025) [8]
40-60% water savings; 20% chemical reduction; 30-150% income increase; 467,000+ training sessions; 86 million seedlings; 86,000+ hectares replanted.
View ReportRahn E., Ocimati W., Waswa B.S., Notenbaert A. (2025). Alliance Bioversity/CIAT [2]
Country-specific guidebooks; 6 coffee partners; 12,000 farmers; influenced Starbucks' Ethiopia program; Periodic Table for Food Initiative.
View Case StudyFarmbizafrica (2026) [6]
10,000 farmers in Gusii, Kenya; 50% production decline over 25 years; partners: JDE, GCFCU, CFAs, WRUAs; regenerative landscape approach.
View ArticlePeer-reviewed sources and authoritative references cited in this research
* Additional references available in the complete Publications Database. All sources are peer-reviewed or authoritative.
Explore specific regenerative practices and case studies