Sustainable Agriculture and Land Restoration Training Course

Duration 10 days 16 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Agricultural Development Managers, Rural Livelihoods Officers and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-AA-064

Before you join: Participants should have practical exposure to agriculture, rural development, environmental management, food systems, climate adaptation or natural-resource programmes.

Dates & prices

Two start dates a month in every city, and live online on weekdays or weekends. Fees are per participant; classroom fees include tuition, materials, lunch and refreshments, and the certificate.

Suggest a date or city

Showing the next six months. Later dates, other cities and private deliveries for your team are available on request.

Course overview

Agricultural production systems must increase food and income while reducing soil erosion, nutrient loss, water stress, deforestation and declining biodiversity. For governments, development programmes, agribusinesses and humanitarian agencies, the challenge is to select restoration models that work within local farming systems, land-tenure arrangements, markets and climate risks. Poorly targeted interventions can shift costs to farmers, fail after project funding ends or create uneven benefits for women, youth and landless households.

This course equips participants to assess land degradation, diagnose farm and landscape constraints, and design sustainable agriculture and land restoration interventions. Participants apply agroecology principles, soil health assessment, climate-smart agriculture, agroforestry, conservation agriculture, rotational grazing, watershed management and regenerative business models. The course also addresses tenure, safeguards, farmer adoption, restoration finance, monitoring and reporting against land degradation neutrality objectives.

Instruction combines short technical briefings with case work from smallholder farming, commercial estates, dryland pastoralism and post-crisis recovery programmes. Participants use field-style datasets, maps, farm budgets and stakeholder evidence to build components of a restoration programme from the first week onward. They leave with a practical sustainable agriculture and land restoration project package, including a baseline, intervention design, implementation plan, monitoring framework and investment case.

The course is suited to professionals responsible for agricultural development, rural livelihoods, environmental management, food systems, climate adaptation, natural-resource programmes and responsible agricultural sourcing. It is also relevant to managers commissioning restoration activities through grants, public investment or agricultural value-chain partnerships.

What you will be able to do

  • Assess land degradation drivers using DPSIR, baseline evidence and spatial indicators
  • Design farm and landscape restoration models using agroecology and ecosystem-service principles
  • Develop soil health improvement plans using erosion, nutrient and organic-matter diagnostics
  • Select water management, agroforestry and grazing practices for defined land-use systems
  • Prepare restoration implementation plans with tenure, safeguards, adoption and financing measures
  • Construct farm-level economic analyses for sustainable agriculture investment decisions
  • Build monitoring frameworks using land degradation neutrality and results-based indicators
  • Present a complete sustainable agriculture and land restoration project package

Benefits of attending

For you

  • Design credible restoration interventions for farms, rangelands and watersheds
  • Assess proposed agricultural practices against soil, water and livelihood evidence
  • Discuss restoration trade-offs confidently with agronomists, communities and funders
  • Prepare investment cases that connect land health with farm economics
  • Produce monitoring plans suitable for donor, government and corporate reporting

For your organisation

  • Improve selection of restoration measures matched to local degradation drivers
  • Reduce failed investments caused by weak farmer adoption and tenure analysis
  • Strengthen climate adaptation, food security and biodiversity outcomes together
  • Create auditable restoration baselines, indicators and implementation milestones
  • Build fundable programme designs for public, donor and value-chain investment

Course modules

16 modules over 10 days

Participants can frame a land restoration problem using linked environmental, production and livelihood evidence.

  • Land degradation pathways distinguished through soil, water, vegetation and livelihood evidence
  • Drivers mapped using DPSIR: demographic, policy, market and management pressures
  • Baseline boundaries defined for farms, watersheds, rangelands and restoration sites
  • FAO SAFA dimensions used to frame sustainability assessment questions
  • Trade-offs between yields, ecosystem services, labour and equity documented
  • Stakeholder power-interest mapping identifies rights holders, duty bearers and producers

Participants can diagnose land-use constraints and tenure conditions affecting restoration feasibility.

  • Land-use systems classified by cropping, livestock, forestry and settlement functions
  • Tenure bundles analysed: access, use, exclusion, transfer and inheritance rights
  • Landscape units delineated from slope, soils, drainage and vegetation patterns
  • Participatory resource mapping captures seasonal use, access and conflict zones
  • Problem trees connect proximate degradation causes with institutional root causes
  • Restoration opportunity maps prioritise feasible areas, users and intervention types

Participants can prepare soil health improvement measures from field and laboratory evidence.

  • Soil health indicators selected for texture, structure, carbon and nutrient status
  • Visual soil assessment records compaction, aggregation, rooting and earthworm activity
  • Erosion risk estimated from slope, cover, rainfall and management practices
  • Nutrient balances calculated from fertilizer, manure, residues and harvested outputs
  • Organic matter strategies combine compost, cover crops and residue retention
  • Integrated soil fertility management sequences biological and mineral nutrient sources

Participants can design production-system changes using agroecological principles and farm constraints.

  • Agroecology principles applied to diversity, recycling, resilience and co-creation
  • Crop rotation plans interrupt pest cycles and improve nutrient availability
  • Intercropping designs match species architecture, maturity periods and market demand
  • Cover crop selection considers rainfall, biomass, nitrogen fixation and termination
  • Integrated pest management applies thresholds, biological control and selective treatments
  • Farm system diagrams show flows of biomass, nutrients, labour and income

Participants can select water management measures for farm and watershed restoration objectives.

  • Water balance calculations relate rainfall, runoff, infiltration, storage and demand
  • Contour bunds, terraces and grass strips reduce runoff velocity
  • Rainwater harvesting options compared by catchment, storage losses and maintenance
  • Irrigation scheduling uses crop water requirements and soil moisture observations
  • Riparian buffer design protects channels from sediment, nutrients and pesticides
  • Watershed committees coordinate upstream actions with downstream water users

Participants can specify agroforestry designs that support production, restoration and household benefits.

  • Agroforestry systems matched to alley cropping, silvopasture and boundary planting
  • Species selection considers survival, rooting depth, fodder, timber and tenure
  • Tree-crop competition managed through spacing, pruning and seasonal water planning
  • Farmer-managed natural regeneration protects and manages naturally occurring trees
  • Nursery plans define seed provenance, planting stock and hardening procedures
  • Tree survival monitoring records stocking, mortality causes and replacement needs

Participants can develop grazing management and restoration measures for degraded rangelands.

  • Rangeland condition assessed through ground cover, species composition and bare soil
  • Carrying capacity estimated from forage supply, herd demand and seasonal variability
  • Rotational grazing plans allocate paddocks, rest periods and water access
  • Mob grazing considerations distinguish forage recovery from livestock welfare requirements
  • Reseeding decisions compare native species recovery with establishment costs
  • Pastoral mobility agreements address corridors, dry-season reserves and conflict management

Participants can integrate climate risk analysis into sustainable agriculture and restoration designs.

  • Climate hazard profiles identify drought, flood, heat, wind and pest risks
  • Seasonal calendars align planting, grazing and labour decisions with rainfall patterns
  • Climate-smart agriculture screens practices for productivity, adaptation and emissions effects
  • Stress-tolerant varieties assessed for maturity, yield stability and seed access
  • Contingency plans define triggers, actions, responsibilities and emergency resources
  • Index insurance limitations examined alongside savings, diversification and social protection

Participants can incorporate biodiversity outcomes and social safeguards into restoration plans.

  • Ecosystem service mapping identifies provisioning, regulating, cultural and supporting benefits
  • High conservation value screening identifies sensitive habitats and restricted activities
  • Pollinator habitat measures combine flowering resources, nesting sites and pesticide controls
  • Free, prior and informed consent principles guide engagement with indigenous communities
  • Gender analysis identifies differentiated access to land, labour, finance and decisions
  • Grievance mechanisms define accessible channels, response times and escalation routes

Participants can develop adoption strategies grounded in farmer incentives, constraints and learning systems.

  • Adoption barriers analysed through costs, labour, risk, norms and information access
  • Farmer field school cycles structure observation, experimentation and peer learning
  • Lead farmer selection addresses credibility, inclusion, technical capacity and incentives
  • Behaviour change communication segments audiences by motivation, ability and opportunity
  • Input supply plans assess quality, timing, affordability and local distribution
  • Extension monitoring tracks attendance, practice trials, adoption and disadoption reasons

Participants can assess farm-level financial viability and incentive needs for restoration practices.

  • Partial budgets compare additional costs, savings, returns and foregone income
  • Enterprise budgets separate variable costs, fixed costs, yields and prices
  • Discounted cash flow estimates net present value for perennial investments
  • Sensitivity analysis tests rainfall, yield, price and input-cost assumptions
  • Payment for ecosystem services schemes assess conditionality, additionality and transaction costs
  • Producer aggregation models strengthen market access, procurement and service delivery

Participants can identify financing routes and partnership arrangements for restoration programmes.

  • Financing gaps mapped across establishment, maintenance, working capital and monitoring
  • Blended finance structures combine grants, concessional loans and commercial capital
  • Results-based financing links payments to verified restoration milestones and outcomes
  • Public-private partnership roles allocate investment, delivery, risk and accountability
  • Carbon project screening considers additionality, permanence, leakage and benefit sharing
  • Procurement specifications define technical standards, survival rates and reporting requirements

Participants can prepare operational plans for phased restoration delivery and quality control.

  • Work breakdown structures organise restoration activities, outputs, owners and dependencies
  • Seasonal implementation schedules align land preparation, planting and maintenance windows
  • Bill of quantities estimates materials, labour, equipment and transport requirements
  • Quality assurance checklists verify planting, erosion control and input standards
  • Risk registers assign mitigation actions for climate, conflict, pests and procurement
  • Adaptive management reviews use monitoring evidence to revise implementation decisions

Participants can create a results framework for land restoration performance and learning.

  • Theory of change links activities, adoption, land condition and livelihood outcomes
  • Land Degradation Neutrality indicators track land cover, productivity and carbon stocks
  • Baseline survey protocols define sampling frames, methods, quality controls and consent
  • Remote sensing applications compare vegetation indices with ground-truth observations
  • Results frameworks specify indicators, baselines, targets, sources and reporting frequency
  • Outcome harvesting captures unexpected restoration effects and causal contribution evidence

Participants can establish credible data processes for restoration reporting and decision-making.

  • Data dictionaries standardise indicator definitions, units, sources and collection methods
  • Mobile data collection forms include validation rules, consent and geotagging
  • Data quality assessments test completeness, accuracy, timeliness, integrity and consistency
  • Dashboard specifications connect management questions with indicators and visualisations
  • Restoration reports distinguish outputs, outcomes, assumptions, limitations and recommendations
  • Independent verification plans define evidence files, sampling and reviewer responsibilities

Participants can build, review and present a complete sustainable agriculture and land restoration project package.

  • Problem statement synthesises degradation evidence, affected groups and priority land units
  • Restoration model combines soil, water, production, biodiversity and livelihood measures
  • Implementation plan sequences activities, resources, partners, safeguards and quality controls
  • Farm economics justify incentives, financing needs, returns and sensitivity assumptions
  • Monitoring framework specifies Land Degradation Neutrality indicators and verification methods
  • Peer review tests feasibility, risks, assumptions, evidence gaps and presentation clarity

Exercises and examples are adapted to each cohort's sectors and roles.

What you take back to work

  1. Land degradation diagnostic template
  2. Soil health improvement plan
  3. Sustainable agriculture practice-selection matrix
  4. Restoration implementation workplan
  5. Farm restoration investment model
  6. Land Degradation Neutrality monitoring framework

Who should attend

  • Agricultural Development Managers — design and manage sustainable production programmes
  • Rural Livelihoods Officers — link farm restoration with household income and food security
  • Environmental Programme Managers — plan land restoration interventions and safeguards
  • Agribusiness Sustainability Managers — improve sourcing landscapes and producer resilience
  • Climate Adaptation Specialists — integrate agriculture into adaptation and resilience portfolios
  • Monitoring and Evaluation Officers — measure restoration results, adoption and land-condition change

Skills and tools covered

Land degradation assessmentSoil health planningRestoration model designClimate-smart agricultureRestoration investment analysisResults-based monitoring

Tools and standards

FAO SAFA, DPSIR framework, Land Degradation Neutrality framework, WOCAT

How the course runs

Training methodology

The course uses short instructor briefings, guided analysis and structured group work. Participants interpret soil, production, rainfall, tenure and market evidence from realistic agricultural cases. Teams compare restoration options for smallholder farms, commercial supply areas, rangelands and watersheds, then test choices through farm budgets, stakeholder scenarios and implementation planning. Facilitated discussions address trade-offs between production, ecosystem services and social safeguards. Individual application planning connects each method to a current programme, investment pipeline or operational area.

Requirements and prerequisites

Participants should have practical exposure to agriculture, rural development, environmental management, food systems, climate adaptation or natural-resource programmes. Familiarity with basic farming systems, project planning and simple budget calculations is useful. Participants should be able to interpret tables, maps and programme documents. Prior experience in soil science, GIS, agronomy, ecology or carbon accounting is not required. The course explains technical concepts sufficiently for programme, policy, procurement and monitoring professionals, while expecting participants to contribute examples from their own locations or portfolios.

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

Live online deliveries follow the same structure in East Africa Time, with shorter screen blocks and longer breaks.

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Refreshments and lunch on classroom deliveries
  • Certificate of completion
  • Post-course application plan

Frequently asked questions

Participants should have exposure to agriculture, rural development, environmental management or related programmes. Specialist qualifications in agronomy, soil science, GIS or ecology are not required.

Bring a laptop for working with planning templates and simple budget models. Participants are encouraged to bring non-confidential information on a farm, watershed, supply area or restoration programme they support.

The course suits programme managers, agricultural officers, sustainability staff, climate specialists, environmental managers and monitoring professionals. It is particularly useful for those designing or supervising land restoration investments.

Agronomy courses often focus on crop production techniques, while conservation courses may focus primarily on ecosystems. This course connects farm practices with tenure, adoption, finance, safeguards, implementation and performance measurement.

Participants can use the diagnostic, practice-selection, budgeting and monitoring templates to improve active projects or prepare new proposals. The capstone package provides a structured basis for internal review, donor discussions or partner planning.

The course runs from 08:30 to 16:30 each day, with about 6.5 contact hours. The first week establishes diagnosis and restoration methods, while the second week focuses on financing, delivery, measurement and the final project package.

Questions about this course?

Ask about dates, fees, group bookings or running it for your team. Our training team replies by email.