Climate-Smart Agriculture Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Agricultural Programme Managers, Agronomists and Extension Specialists and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 9 Nov 2026 Course code SD-AA-054

Before you join: Participants should have practical familiarity with agriculture, rural development, food security, agribusiness, natural-resource management or climate adaptation 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

Climate variability is already affecting crop calendars, water availability, livestock health, pest pressure and household income. Agricultural programmes must improve productivity while reducing exposure to droughts, floods, heat and market shocks, without creating avoidable emissions or excluding vulnerable producers. Managers and technical teams need a disciplined way to identify suitable practices, test trade-offs, cost interventions, measure results and explain investment choices to funders, ministries, buyers and farming communities.

This course applies the FAO Climate-Smart Agriculture approach to programme, project and agribusiness decisions. Participants assess climate risks in farming systems; establish farm and value-chain baselines; select adaptation, productivity and mitigation options; and prepare implementation arrangements. They use climate risk screening, theory of change, greenhouse-gas accounting concepts, economic appraisal, gender analysis, monitoring plans and climate-finance criteria. The course covers crops, livestock, soils, water, agroforestry, post-harvest systems and agricultural advisory services.

Instruction combines short technical briefings with cases from smallholder, commercial and mixed farming systems. Participants work through climate data, seasonal calendars, farm records, value-chain maps and project documents, then develop a climate-smart agriculture intervention package relevant to their own setting. They leave with a structured CSA project concept or programme improvement plan, including a risk analysis, intervention rationale, implementation plan, budget assumptions, monitoring indicators and emissions considerations.

The course suits professionals responsible for agricultural development, food security, rural finance, sustainability programmes, agribusiness sourcing and public agricultural services. It is particularly useful where teams must justify practical adaptation and mitigation investments under limited budgets and uncertain climate conditions.

What you will be able to do

  • Assess farming-system climate risks using hazard, exposure and vulnerability analysis
  • Apply the FAO Climate-Smart Agriculture framework to intervention selection
  • Design climate-smart crop, livestock, soil and water management packages
  • Estimate greenhouse-gas sources and mitigation options using agricultural inventory principles
  • Prepare a CSA theory of change with measurable adaptation and productivity outcomes
  • Cost and prioritise CSA interventions using economic and multi-criteria appraisal
  • Develop monitoring, reporting and verification indicators for CSA programmes
  • Present a complete climate-smart agriculture project concept for technical review

Benefits of attending

For you

  • Produce defensible CSA recommendations for crops, livestock and natural-resource investments
  • Assess adaptation and mitigation trade-offs before approving field activities
  • Build credible CSA project concepts for donor, government or commercial review
  • Use climate and farm evidence to strengthen technical recommendations
  • Communicate CSA results through practical indicators, budgets and implementation plans

For your organisation

  • Improves selection of agricultural investments under climate and resource constraints
  • Reduces maladaptation risks in extension, irrigation and input-support programmes
  • Strengthens project proposals with measurable productivity, resilience and emissions outcomes
  • Creates consistent CSA screening criteria across field teams and partners
  • Improves evidence for donor reporting, climate-finance applications and management decisions

Course modules

20 modules over 10 days

Participants can explain the FAO CSA approach and apply its three objectives to agricultural decisions.

  • FAO CSA framework: productivity, adaptation, mitigation and trade-off assessment
  • CSA intervention pathways linking farm practices, services, markets and policy
  • Distinguishing climate-smart practices from context-specific climate-smart agricultural systems
  • FAO CSA Sourcebook structure and evidence categories for planning
  • Theory of change connecting practices, outputs, outcomes and impacts
  • Trade-off matrices comparing food security, resilience and emissions outcomes

Participants can interpret climate information relevant to agricultural planning and seasonal decisions.

  • Weather variability, climate trends and extreme-event probabilities distinguished clearly
  • Interpreting rainfall onset, dry spells and growing-season length
  • Temperature thresholds affecting crop development, livestock productivity and pest cycles
  • Seasonal climate forecasts and their limits for farm decisions
  • Representative Concentration Pathways used in long-term agricultural scenario analysis
  • Climate data quality checks for missing values and inconsistent records

Participants can establish a baseline describing production systems, livelihoods, resources and market links.

  • Farming-system typology using resource endowments, enterprises and livelihood strategies
  • Seasonal calendars mapping labour, rainfall, cropping, feed and cash flows
  • Farm-gate production baselines from yields, inputs, costs and losses
  • Value-chain mapping from input supply through aggregation, processing and markets
  • Resource-flow diagrams tracking biomass, nutrients, water and energy
  • Baseline assumptions documented for later monitoring and intervention appraisal

Participants can identify priority climate risks and vulnerable groups within an agricultural system.

  • Hazard exposure vulnerability framework applied to agricultural production systems
  • Climate hazard profiles covering drought, flood, heat, wind and salinity
  • Sensitivity analysis for crops, livestock, soils, water and infrastructure
  • Adaptive-capacity indicators covering assets, knowledge, services and institutions
  • Participatory vulnerability assessment with women, youth and marginalised producers
  • Risk matrices ranking likelihood, consequence and management priority

Participants can select adaptation options using evidence, feasibility and equity criteria.

  • Adaptation pathways sequencing immediate, medium-term and transformational responses
  • Multi-criteria analysis scoring effectiveness, cost, feasibility and equity
  • No-regrets measures suitable under uncertain rainfall and temperature projections
  • Maladaptation screening for interventions increasing water demand or exclusion
  • Producer adoption analysis covering labour, cash, land tenure and risk
  • Option portfolios combining farm practices, advisory services and risk transfer

Participants can design water-management measures matched to local hydrology and farm constraints.

  • Water balance calculations using rainfall, evapotranspiration, runoff and storage
  • Rainwater harvesting designs for roofs, fields, ponds and farm reservoirs
  • Deficit irrigation scheduling using crop stages and soil-moisture observations
  • Drip irrigation appraisal covering energy, filtration, maintenance and affordability
  • Watershed management links between upstream land use and downstream supply
  • Water productivity indicators expressed as yield, value or nutrition per volume

Participants can specify soil-management measures that improve resilience, productivity and nutrient efficiency.

  • Soil health assessment using texture, organic matter, pH and infiltration
  • Conservation agriculture principles: minimum disturbance, cover and crop diversification
  • Integrated soil fertility management combining organic and mineral nutrient sources
  • Nutrient budgeting for nitrogen, phosphorus and potassium application decisions
  • Erosion-control measures including contour strips, terraces and vegetative barriers
  • Soil organic carbon practices linked to moisture retention and productivity

Participants can assemble climate-smart crop packages for priority production constraints.

  • Variety selection using maturity duration, heat tolerance and stress resistance
  • Crop diversification through rotations, intercropping and relay-cropping arrangements
  • Integrated pest management under shifting pest ranges and weather conditions
  • Climate-informed planting calendars based on rainfall onset and forecast updates
  • Seed-system assessment covering availability, quality assurance and farmer preferences
  • Post-harvest loss reduction through drying, storage and handling controls

Participants can identify livestock adaptation and emissions measures suited to production systems.

  • Heat-stress management using shade, ventilation, water and adjusted feeding
  • Fodder calendars matching feed supply with seasonal livestock requirements
  • Rangeland condition assessment using vegetation cover, stocking pressure and recovery
  • Rotational grazing plans balancing forage use, regeneration and access rights
  • Animal-health surveillance for climate-sensitive vectors, diseases and outbreaks
  • Manure management options including composting, storage and biogas production

Participants can incorporate agroforestry and ecosystem functions into CSA intervention design.

  • Agroforestry design matching tree species with crops, livestock and markets
  • Tree-crop interactions affecting shade, water competition and nutrient cycling
  • Riparian buffers protecting water quality, habitat and floodplain functions
  • Pollinator habitat measures supporting yields and farm biodiversity
  • Ecosystem-based adaptation using vegetation, soils and watershed restoration
  • Tenure and benefit-sharing arrangements for tree-based production systems

Participants can identify agricultural emissions sources and prioritise practical mitigation measures.

  • IPCC source categories for enteric fermentation, manure, soils and rice
  • Emission drivers from fertiliser rates, manure handling and residue management
  • Methane reduction options through feed quality, herd management and manure
  • Nitrous oxide mitigation through nutrient timing, placement and inhibitor use
  • Alternate wetting and drying for methane reduction in rice systems
  • Mitigation prioritisation balancing emissions reductions, productivity and adoption feasibility

Participants can conduct an initial carbon-balance screening for agricultural project options.

  • EX-ACT project boundary, baseline and with-project scenario definition
  • Land-use change categories affecting biomass and soil carbon stocks
  • Activity data requirements for crops, livestock, fertiliser and land management
  • Carbon-balance interpretation using tonnes of carbon dioxide equivalent results
  • Uncertainty sources in agricultural emissions estimates and baseline assumptions
  • Avoiding unsupported carbon claims in CSA project communication

Participants can compare CSA options using farm economics and programme investment criteria.

  • Partial budget analysis comparing additional costs, returns and avoided losses
  • Enterprise budgets for crop, livestock and diversified farm activities
  • Net present value and discounting for long-lived farm investments
  • Sensitivity analysis for yield, price, rainfall and input-cost assumptions
  • Cost-effectiveness metrics for resilience, nutrition and emissions outcomes
  • Prioritisation matrices combining economics, climate risk and implementation capacity

Participants can design CSA actions that address differentiated access, benefits and risks.

  • Gender analysis examining roles, assets, decisions, labour and benefit control
  • Time-use analysis identifying labour burdens from proposed agricultural practices
  • Social inclusion criteria for youth, pastoralists, tenants and land-poor households
  • Do-no-harm screening for conflict, displacement and resource-access risks
  • Safeguard measures for pesticides, water infrastructure and land restoration
  • Consultation plans using accessible venues, languages and feedback channels

Participants can define delivery arrangements for CSA advisory services and institutional coordination.

  • Extension-system mapping across public, private, producer and civil-society providers
  • Farmer field school methods for testing and disseminating CSA practices
  • Climate service chains from forecast production to farmer advisory messages
  • Digital advisory tools assessed for access, literacy, language and trust
  • Producer organisation roles in aggregation, learning, input supply and marketing
  • Coordination mechanisms linking meteorological, agricultural and water authorities

Participants can align CSA interventions with viable financing, market and service models.

  • Climate-finance eligibility criteria for adaptation, mitigation and resilience investments
  • Blended finance structures combining grants, credit, guarantees and private capital
  • Agricultural credit appraisal considering climate risk, seasonality and collateral
  • Index insurance principles, basis risk and suitability for farming households
  • Offtake agreements and sourcing standards supporting climate-smart producer investments
  • Business-model canvases for fee-based advisory, inputs and mechanisation services

Participants can convert selected CSA options into an implementable project design.

  • Problem statements linking climate hazards with production and livelihood constraints
  • Results frameworks specifying outputs, outcomes, assumptions and impact pathways
  • Work breakdown structures assigning activities, responsibilities and delivery milestones
  • Procurement planning for seeds, equipment, services and technical assistance
  • Risk registers covering climate, operational, fiduciary and social risks
  • Budget structures separating capital costs, recurrent costs and contingency allowances

Participants can prepare a CSA monitoring system with credible indicators and data processes.

  • Results indicators for productivity, resilience, adaptation and mitigation outcomes
  • Indicator reference sheets defining measures, sources, frequency and responsibilities
  • Baseline and endline survey design for farm and household outcomes
  • Remote sensing uses and limits for vegetation, land cover and water
  • MRV procedures for activity records, quality assurance and audit trails
  • Learning reviews using monitoring evidence to adjust implementation decisions

Participants can manage CSA portfolios through scenario planning, risk review and adaptive management.

  • Scenario planning using plausible climate, market and policy future conditions
  • Decision triggers for drought response, input support and contingency actions
  • Portfolio diversification across commodities, locations, practices and financing instruments
  • Adaptive management cycles linking evidence, review meetings and course correction
  • Partner performance dashboards tracking delivery, adoption and outcome indicators
  • Scale-up criteria covering evidence strength, costs, capacity and local ownership

Participants can build, review and present a complete climate-smart agriculture project concept with justified interventions, costs, risks and monitoring arrangements.

  • Climate-risk baseline synthesised into a clearly defined agricultural problem statement
  • CSA option package selected through evidence, trade-offs and adoption criteria
  • Theory of change linking activities with productivity, resilience and emissions results
  • Implementation plan assigning partners, milestones, resources and risk controls
  • Monitoring framework specifying indicators, baselines, data sources and reporting cycles
  • Technical peer review testing feasibility, inclusion, economics and climate rationale

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

What you take back to work

  1. FAO CSA intervention screening template
  2. Farming-system climate risk assessment
  3. CSA theory of change model
  4. Agricultural emissions screening worksheet
  5. CSA investment prioritisation matrix
  6. Climate-smart agriculture project concept

Who should attend

  • Agricultural Programme Managers — design and supervise climate-resilient agricultural investments
  • Agronomists and Extension Specialists — recommend practices suited to local climate risks
  • Food Security Advisers — link production, resilience and household nutrition outcomes
  • Agribusiness Sustainability Managers — improve sourcing systems and producer support plans
  • Rural Finance Professionals — assess climate-smart farm and value-chain investments
  • Government Agricultural Officers — translate climate policy into extension and programme actions

Skills and tools covered

Climate risk assessmentCSA intervention designSoil water managementAgricultural GHG accountingCSA project appraisalResults monitoring

Tools and standards

FAO Climate-Smart Agriculture Sourcebook, EX-ACT, IPCC 2006 Guidelines for National Greenhouse Gas Inventories, Farmer Field School approach

How the course runs

Training methodology

The course uses short instructor briefings to establish FAO CSA concepts, followed by case analysis, facilitated group work, calculations and decision simulations. Participants interpret seasonal calendars, climate hazards, farm records, value-chain information and project budgets. Cases cover rainfed smallholder systems, irrigated production, livestock enterprises and commercial sourcing arrangements. Application planning begins in the first week and is refined through peer review. Trainers adapt examples and group tasks to participants' commodities, geographies and institutional responsibilities.

Requirements and prerequisites

Participants should have practical familiarity with agriculture, rural development, food security, agribusiness, natural-resource management or climate adaptation programmes. They should be able to interpret basic farm, project or value-chain information and discuss local production constraints. Experience managing projects, extension services, producer groups or agricultural investments is useful. No advanced climate-science qualification, carbon-accounting certification, GIS expertise or statistical modelling experience is required. Participants do not need to arrive with a completed project, although bringing a current programme document or agricultural case will improve application work.

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 need working familiarity with agriculture, rural development, food security, agribusiness or natural-resource programmes. Advanced climate modelling, GIS, carbon accounting and economics qualifications are not required.

A current project document, production-system description, seasonal calendar, proposal or business case is useful but not essential. Participants should bring a laptop for reviewing templates and developing their application materials.

The course is designed for agricultural programme staff, agronomists, extension specialists, food-security advisers, sustainability managers, rural-finance teams and government officers. It suits professionals who influence agricultural investments or technical recommendations.

The course concentrates on the FAO Climate-Smart Agriculture approach and its use in agricultural programme and investment decisions. It connects climate risk, farm practices, emissions, economics, implementation and monitoring in one applied project-design process.

Participants can use the screening templates and project-design materials to revise an existing agricultural programme or prepare a new investment concept. The methods can also support extension planning, donor proposals, sourcing programmes and climate-finance submissions.

The first week establishes CSA principles, climate-risk assessment and technical options for crops, livestock, soils and water. The second week covers emissions, economics, inclusion, finance, implementation, monitoring and a final capstone presentation; each training day runs from 08:30 to 16:30 with about 6.5 contact hours.

Questions about this course?

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