Carbon Farming and Sequestration Training Course

Participants can screen carbon farming practices against biophysical, operational and economic conditions.

• Cover crops assessed for biomass production, nitrogen dynamics and termination
• Reduced tillage constraints under soil type, residue and weed pressure
• Nutrient stewardship using the 4R framework for nitrous oxide reduction
• Rotational grazing design using stocking rates, recovery periods and residuals
• Agroforestry configurations matched to farm enterprises and carbon objectives
• Biochar feedstock, pyrolysis conditions, stability and agronomic suitability
• Peatland rewetting options assessed through hydrology, livelihoods and emissions

Participants can define a defensible project boundary, baseline scenario and additionality case.

• Project boundaries define land parcels, sources, sinks and reservoirs
• Baseline scenarios built from historical management and plausible future practice
• Additionality tests address regulatory, financial, barrier and common-practice evidence
• Leakage pathways identified through displaced production, grazing and commodity demand
• Stratification separates fields, soils, management zones and vegetation classes
• Counterfactual assumptions documented with evidence, rationale and uncertainty ranges

Participants can produce preliminary emissions and removals calculations using transparent assumptions and activity data.

• IPCC Tier 1, Tier 2 and Tier 3 approaches compared
• Activity data collected from inputs, yields, livestock and field operations
• Emission factors selected for fertiliser, manure, fuel and enteric methane
• Soil carbon stock change estimated using reference stocks and factors
• Biomass increments calculated from allometric equations and inventory measurements
• Global warming potentials applied using stated assessment report values
• Uncertainty quantified through parameter ranges, sampling error and sensitivity analysis

Participants can specify a soil carbon monitoring plan suited to project scale, risk and budget.

• Sampling objectives linked to claims, strata and decision thresholds
• Random, systematic and stratified sampling designs compared for field variability
• Sample depth, bulk density and equivalent soil mass methods
• Chain-of-custody procedures protect sample identity and laboratory traceability
• Dry combustion and loss-on-ignition methods compared for soil carbon
• Minimum detectable difference assessed against expected sequestration rates
• Remote sensing indicators support land-cover, biomass and practice monitoring

Participants can identify reversal risks and prepare risk controls for long-term carbon storage.

• Permanence periods compared across soil, biomass, biochar and restoration projects
• Reversal risks assessed for drought, fire, pests, flooding and management change
• Buffer pool contributions calculated from project-specific risk ratings
• Risk registers assign controls, owners, triggers and response actions
• Land tenure analysis identifies rights, restrictions and transfer risks
• Insurance, reserve accounts and replacement credits address reversal liabilities

Participants can identify the documentation and evidence needed for a verifiable carbon farming project.

• ISO 14064-2 requirements for project quantification, monitoring and reporting
• Verra VCS methodology selection matched to activity and geography
• Gold Standard requirements considered for stakeholder outcomes and safeguards
• Monitoring reports link field evidence, calculations and data quality checks
• Validation evidence supports eligibility, baseline, additionality and stakeholder consultation
• Verification trails connect source records, calculations, controls and final claims
• Materiality thresholds guide error correction and reporting decisions

Participants can evaluate carbon farming credits and project proposals using quality and claim criteria.

• Credit quality assessed through additionality, permanence, leakage and measurement integrity
• Registry records reviewed for issuance, retirement, status and project documents
• Vintage, methodology version and monitoring period examined before procurement
• Corresponding adjustment relevance considered for voluntary buyer claims
• Price drivers include monitoring costs, delivery risk and co-benefit evidence
• Greenwashing risks identified through vague claims and unsupported impact statements

Participants can structure landholder participation and safeguards for durable, equitable project delivery.

• Free, prior and informed consent principles applied to project engagement
• Landholder agreements clarify practice obligations, data rights and credit ownership
• Benefit-sharing models allocate payments, costs, risks and reversal responsibilities
• Grievance mechanisms document complaints, investigation, resolution and escalation procedures
• Biodiversity safeguards prevent harmful monocultures, displacement and habitat loss
• Gender and inclusion analysis identifies participation barriers and benefit distribution
• Data governance addresses consent, access, retention and commercial confidentiality

Participants can prepare an implementable carbon farming project plan with costs, milestones and governance.

• Project work breakdown structures sequence mobilisation, practice change and monitoring
• Implementation budgets separate establishment, monitoring, verification and contingency costs
• Cash-flow models align farmer payments with credit issuance schedules
• Marginal abatement cost compares practices using tonnes, costs and co-benefits
• Governance arrangements define accountable owners, technical reviewers and escalation routes
• Procurement scopes specify agronomy, sampling, laboratory and assurance services
• Ninety-day application plans assign actions, evidence needs and decision gates