Renewable Energy for Climate Mitigation Training Course

Participants can construct an energy-demand baseline suitable for renewable project screening.

• Utility-bill data cleaned into monthly electricity and fuel consumption baselines
• Load-duration curves identify daytime, seasonal, and peak-demand patterns
• Energy intensity metrics compare facilities using production or floor-area denominators
• Interval-meter data reveals coincidence between demand and renewable generation
• Demand-side management measures reduce project capacity before technology sizing
• Weather normalisation separates operational changes from temperature-driven consumption

Participants can compare renewable technologies against site, demand and operating requirements.

• Solar photovoltaic configurations compared: rooftop, ground-mounted, floating, and carport systems
• Wind turbine suitability assessed through wind regime and setback constraints
• Bioenergy feedstock tests address quantity, moisture, competing uses, and transport
• Geothermal applications distinguished between power generation and direct heat
• Solar thermal systems matched to process heat and hot-water demand
• Technology screening matrix scores resource, land, grid, cost, and reliability

Participants can develop preliminary energy-yield assumptions for renewable-energy projects.

• Solar irradiation datasets converted into plane-of-array energy estimates
• Performance ratio accounts for temperature, soiling, shading, and electrical losses
• Wind measurements extrapolated using hub-height and wake-loss assumptions
• P50 and P90 yield cases support lender and sponsor decisions
• Site shading assessed through horizon profiles and obstruction surveys
• Annual degradation rates incorporated into long-term generation forecasts

Participants can identify grid conditions that affect renewable project feasibility.

• Interconnection studies assess voltage, fault levels, protection, and export capacity
• Grid curtailment risk estimated from congestion and dispatch constraints
• Net metering, wheeling, and behind-the-meter arrangements compared
• Reactive power and power-quality requirements affect inverter specifications
• Connection queues and permitting timelines incorporated into development schedules
• System operator rules shape dispatch, settlement, and balancing obligations

Participants can prepare a structured concept note for a renewable-energy intervention.

• Project problem statement links energy costs, reliability, emissions, and demand
• Site constraints documented through land, access, geotechnical, and permitting checks
• Preliminary capacity sizing matches generation profiles to consumption patterns
• Concept notes define sponsor, beneficiaries, revenue source, and decision gates
• Options appraisal records technical, financial, social, and environmental trade-offs
• Stage-gate development plans identify feasibility, approvals, procurement, and commissioning

Participants can evaluate renewable project viability using standard investment metrics.

• Capital expenditure schedules separate equipment, civil works, development, and contingencies
• Operating cost assumptions cover maintenance, insurance, land, and administration
• Levelized cost of energy compares technologies across different lifetimes
• Discounted cash flow models calculate NPV, IRR, and payback period
• Sensitivity analysis tests tariffs, yields, inflation, exchange rates, and costs
• Debt-service coverage ratios assess affordability under project-finance structures

Participants can assess how policy and market rules affect project revenue and compliance.

• Renewable portfolio standards and auction schemes influence project demand
• Feed-in tariffs compared with competitive tenders and merchant revenues
• Carbon pricing affects avoided-cost assumptions and investment priorities
• Licensing pathways distinguish generation, distribution, supply, and self-generation activities
• Tax incentives assessed for eligibility, timing, transferability, and recapture risk
• Policy risk register captures tariff changes, permitting delays, and curtailment

Participants can select a suitable procurement and contracting approach for a project.

• Direct ownership, leasing, and energy-as-a-service models compared
• Corporate PPAs distinguish physical, virtual, sleeved, and synthetic structures
• PPA term sheets allocate volume, price, curtailment, and credit risks
• Competitive tender criteria assess technical capability, price, warranties, and delivery record
• EPC contracts allocate design, procurement, construction, and performance obligations
• Bankability review examines termination rights, step-in rights, and security packages

Participants can quantify and document emissions reductions from renewable-energy projects.

• Location-based and market-based Scope 2 methods applied to electricity claims
• Emission factors selected from credible national, utility, and lifecycle sources
• Avoided-emissions calculations document baseline generation and displacement assumptions
• Renewable energy certificates assessed for ownership, retirement, and double counting
• ISO 14064-1 principles guide relevance, completeness, consistency, and transparency
• Monitoring plans specify meters, data owners, quality checks, and reporting cycles

Participants can identify material environmental and social controls for renewable projects.

• Environmental and social impact assessment scoping identifies material project risks
• Biodiversity screening addresses habitat loss, bird collisions, and ecosystem disturbance
• Land acquisition plans address tenure, livelihoods, compensation, and grievance mechanisms
• Stakeholder engagement maps affected groups, concerns, commitments, and disclosure methods
• Labour management controls cover contractor safety, working conditions, and incident reporting
• End-of-life plans address panel recycling, battery disposal, and site restoration

Participants can structure governance and controls for renewable project delivery.

• Work breakdown structures define engineering, procurement, construction, and commissioning activities
• Critical-path schedules sequence permits, equipment orders, grid works, and testing
• RACI matrices clarify sponsor, owner, engineer, contractor, and operator accountabilities
• Risk registers assign probability, impact, mitigation, owner, and review dates
• Change-control procedures govern scope, budget, schedule, and technical specification amendments
• Stage-gate governance aligns approvals with feasibility, investment, and completion evidence

Participants can assess storage and flexibility measures alongside renewable generation.

• Battery storage use cases include peak shaving, backup, arbitrage, and firming
• Round-trip efficiency, depth of discharge, and cycle life affect sizing
• Dispatch strategies prioritise self-consumption, resilience, tariff savings, or export
• Hybrid solar-storage models test generation, load, and battery degradation profiles
• Demand response contracts convert flexible loads into grid-support resources
• Safety planning addresses thermal runaway, fire suppression, and emergency response

Participants can assess distributed renewable-energy models for local energy needs.

• Mini-grid demand forecasting combines household, enterprise, institutional, and productive loads
• Anchor-load strategies improve revenue certainty for rural energy systems
• Tariff design balances affordability, cost recovery, service quality, and collection
• Productive-use assessments identify equipment supporting income-generating electricity demand
• Community governance models define ownership, representation, maintenance, and complaint handling
• Productive asset financing links energy access with equipment acquisition and repayment

Participants can define operating indicators and maintenance controls for renewable assets.

• Availability, capacity factor, and performance ratio measure operational output
• Preventive maintenance schedules address inspections, cleaning, lubrication, and component replacement
• SCADA data supports fault detection, alarm management, and performance reporting
• Warranty claims require evidence of defects, losses, notifications, and corrective actions
• Spare-parts strategies balance lead times, inventory cost, and equipment criticality
• Performance guarantees compare actual generation against contracted energy-yield thresholds

Participants can sequence renewable-energy actions within a wider decarbonisation plan.

• Abatement pathways sequence efficiency, electrification, renewables, storage, and residual emissions
• Portfolio screening compares sites using emissions, cost, readiness, and strategic value
• Transition roadmaps align capital cycles with renewable project development timelines
• Scenario analysis tests demand growth, fuel prices, grid decarbonisation, and policy changes
• Internal carbon prices inform project ranking and capital allocation decisions
• Board reporting links renewable investments to climate targets and financial performance

Participants can prepare decision-ready evidence for renewable project approval.

• Investment memoranda present strategic rationale, assumptions, economics, risks, and recommendations
• Risk-adjusted scenarios distinguish development, construction, operating, and market exposures
• Due diligence checklists cover land rights, permits, contracts, technology, and counterparties
• Independent engineer reviews test energy yield, design, cost, and schedule assumptions
• Decision criteria balance emissions impact, financial returns, resilience, and deliverability
• Approval conditions specify evidence required before financial close and notice-to-proceed

Participants can build, review and present a complete renewable-energy climate mitigation project proposal supported by technical, financial, emissions and delivery evidence.

• Energy baseline defines demand, emissions sources, tariffs, and operating constraints
• Technology selection justifies capacity, resource assumptions, grid arrangement, and storage
• Financial model presents capital costs, operating costs, LCOE, NPV, and sensitivities
• Emissions model documents baseline, project boundary, emission factors, and reductions
• Risk and safeguard plan assigns controls for delivery, operations, and stakeholders
• Implementation roadmap sequences approvals, procurement, construction, commissioning, and performance monitoring