Renewable Energy for Sustainable Development Training Course

Participants can select appropriate renewable technology options for different energy service requirements.

• Solar photovoltaic systems for grid-connected, rooftop, and off-grid applications
• Concentrated solar power characteristics, thermal storage, and dispatchable generation
• Onshore wind resource conditions, turbine selection, and wake losses
• Small hydropower site requirements, seasonal flows, and civil works
• Geothermal resource types, drilling risks, and electricity conversion systems
• Bioenergy feedstocks, anaerobic digestion, combustion, and sustainability safeguards

Participants can create a demand baseline and load profile for a renewable energy project.

• Electricity bills, meter data, and interval readings for baseline development
• Load duration curves identifying baseload, peak demand, and seasonal variation
• End-use energy audits for motors, cooling, lighting, and process heat
• Demand growth assumptions using production plans, occupancy, and connection forecasts
• Energy efficiency measures assessed before renewable generation sizing decisions
• Critical load classification for hospitals, water systems, and industrial facilities

Participants can assess resource data quality and prepare preliminary renewable energy yield estimates.

• Solar irradiation datasets, plane-of-array conversion, and shading assessment
• Wind speed distributions using Weibull parameters and hub-height extrapolation
• Hydrological records, flow duration curves, and dependable energy estimates
• Biomass feedstock mapping by quantity, moisture content, and competing uses
• Meteorological data validation using long-term reference datasets and uncertainty ranges
• Energy yield assumptions documented through P50, P75, and P90 estimates

Participants can prepare a structured technology screening for a defined energy need.

• Multi-criteria analysis weighting cost, reliability, emissions, land, and local capability
• Technology screening matrix matching resource quality with demand characteristics
• Site constraints covering access roads, topography, drainage, and land tenure
• Preliminary system sizing from load profiles and expected energy yield
• Hybrid system configurations combining renewables, storage, grid supply, and generators
• Project concept notes stating objectives, scope, assumptions, and decision gates

Participants can specify the main technical components and design assumptions for a solar PV project.

• PV module technologies, degradation rates, temperature coefficients, and warranties
• Inverter selection based on capacity, voltage, grid code, and redundancy
• Array orientation, tilt angle, row spacing, and shading losses
• Balance-of-system components including mounting, cabling, protection, and monitoring
• Performance ratio calculation using irradiation, losses, availability, and generation
• Rooftop structural assessment, fire safety, and electrical isolation requirements

Participants can identify technical design issues specific to non-solar renewable projects.

• Wind turbine power curves, cut-in speeds, and annual energy production
• Micrositing decisions using terrain, roughness, setbacks, and wake modelling
• Hydropower intake, penstock, turbine, and tailrace design considerations
• Biogas plant sizing from feedstock volumes, retention time, and methane yield
• Biomass supply contracts addressing seasonality, transport, storage, and quality
• Geothermal drilling programmes, reservoir management, and reinjection requirements

Participants can assess connection, storage and control requirements for renewable energy systems.

• Grid hosting capacity, voltage limits, fault levels, and protection coordination
• Interconnection studies covering load flow, short circuit, and contingency analysis
• Battery energy storage sizing for peak shaving, backup, and renewable shifting
• State-of-charge operating limits, cycle life, degradation, and replacement planning
• Mini-grid architecture using generation, distribution, metering, and tariff systems
• Power quality management for frequency, voltage, harmonics, and flicker

Participants can compare renewable energy options using consistent cost and performance assumptions.

• CAPEX breakdown covering equipment, civil works, development, and connection costs
• OPEX assumptions for maintenance, insurance, land leases, and asset management
• Levelised cost of electricity calculation using discounted lifetime cash flows
• Capacity factor, availability, curtailment, and degradation in generation forecasts
• Marginal cost comparison against diesel generation, grid tariffs, and fuel escalation
• Sensitivity analysis for exchange rates, inflation, resource yield, and delays

Participants can prepare and interpret a preliminary renewable energy investment case.

• Discounted cash flow models using NPV, IRR, payback, and debt service
• Revenue structures under feed-in tariffs, net metering, auctions, and PPAs
• Debt, equity, grants, guarantees, and concessional finance funding structures
• Bankability requirements covering contracts, permits, resource data, and creditworthiness
• Financial model assumptions register with source references and ownership
• Investment committee papers presenting returns, risks, scenarios, and recommendations

Participants can analyse how policy and regulation affect renewable energy project viability.

• Renewable portfolio standards, auctions, quotas, and feed-in tariff mechanisms
• Electricity market structures involving utilities, independent producers, and traders
• Licensing pathways for generation, distribution, self-generation, and mini-grids
• Grid codes specifying connection performance, dispatch, protection, and metering
• Tax incentives, import duties, subsidies, and foreign exchange provisions
• Policy risk assessment using regulatory triggers, scenarios, and mitigation actions

Participants can identify environmental and social risks and define proportionate management measures.

• Environmental and social impact assessment scoping for renewable energy projects
• IFC Performance Standards applied to land, biodiversity, labour, and communities
• Biodiversity screening for bird migration, habitat loss, and aquatic ecosystems
• Land acquisition planning, involuntary resettlement risks, and livelihood restoration
• Community consultation plans with grievance mechanisms and disclosure records
• Environmental management plans defining controls, monitoring, responsibilities, and budgets

Participants can quantify emissions effects and define sustainable development indicators for projects.

• GHG Protocol project accounting boundaries, baselines, and emission sources
• Avoided emissions calculation using grid emission factors and generation forecasts
• Lifecycle emissions comparison for solar, wind, bioenergy, and diesel systems
• Additionality assessment for carbon finance and voluntary carbon market claims
• Sustainable development indicators covering jobs, health, access, and resilience
• Monitoring plans linking project outputs, outcomes, indicators, and data sources

Participants can structure procurement documents and key commercial terms for renewable energy projects.

• Procurement strategies for EPC, EPCM, build-own-operate, and energy service contracts
• Technical specifications defining performance guarantees, testing, and acceptance criteria
• Bid evaluation matrices combining technical compliance, price, capability, and risk
• Power purchase agreement terms covering tariffs, dispatch, payment, and curtailment
• EPC contract provisions for liquidated damages, warranties, and change control
• Owner's engineer roles during design review, construction supervision, and commissioning

Participants can plan project delivery controls from construction through asset operation.

• Construction schedules using critical path method, milestones, and interface management
• Quality assurance plans for equipment inspection, installation, testing, and handover
• Health and safety controls for electrical works, lifting, excavation, and working heights
• Commissioning protocols covering functional tests, performance tests, and documentation
• Operations and maintenance strategies using preventive, corrective, and condition-based maintenance
• Asset performance dashboards tracking availability, generation, alarms, and downtime

Participants can develop a project risk register, governance structure and decision process.

• Risk registers using probability, impact, ownership, treatment, and residual risk
• Technical risks from resource uncertainty, equipment failure, and grid constraints
• Commercial risks involving currency exposure, off-taker credit, and payment delay
• Political and regulatory risks assessed through stakeholder mapping and scenario planning
• Project governance roles for sponsors, lenders, engineers, contractors, and operators
• Stage-gate decisions linking feasibility evidence to approval and funding releases

Participants can design renewable energy interventions that support productive use and service resilience.

• Productive use loads for irrigation, cold chains, milling, and small industry
• Solar water pumping design using hydraulic head, flow demand, and storage
• Renewable energy for health facilities, vaccine refrigeration, and emergency power
• Resilient energy systems for water utilities, telecommunications, and disaster response
• Gender and inclusion considerations in energy access project design
• Local workforce development plans for installation, maintenance, and enterprise support

Participants can establish performance reporting and corrective action processes for renewable energy projects.

• Key performance indicators for energy yield, availability, costs, and emissions
• Baseline and target setting for energy access and service reliability
• Data collection protocols covering meters, inspections, invoices, and beneficiary records
• Variance analysis comparing actual generation, costs, and schedules with plans
• Corrective action logs assigning root causes, owners, deadlines, and verification
• Management reports using dashboards, narrative analysis, and investment recommendations

Participants can integrate technical, financial, environmental and delivery analyses into a coherent project plan.

• Project workplan integrating demand analysis, resource data, and technology selection
• Assumption testing against cost, yield, tariff, and financing scenarios
• Cross-functional review of engineering, finance, safeguards, and procurement decisions
• Decision criteria for proceeding, redesigning, deferring, or rejecting projects
• Executive communication methods for technical evidence, risks, and investment choices
• Implementation roadmaps sequencing approvals, procurement, construction, and operations

Participants can build, review and present a complete renewable energy project assessment and investment proposal.

• Define project objectives, beneficiaries, energy services, and development outcomes
• Prepare demand baseline, load profile, and renewable resource assumptions
• Select technology configuration using multi-criteria analysis and site constraints
• Build preliminary LCOE, cash flow, emissions, and sensitivity calculations
• Compile safeguards, procurement, risk, governance, and implementation requirements
• Present investment proposal with recommendations, decision gates, and supporting evidence