Renewable Energy Project Finance Training Course

Duration 10 days 22 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Project Finance Analysts, Infrastructure Investment Professionals 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-CFCM-005

Before you join: Participants should understand basic financial statements, time value of money, discounted cash flow and Excel formulas.

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

Renewable energy projects succeed or fail on whether their contracts, technical assumptions, risk allocation and financing terms produce dependable cash flows. Sponsors, lenders and public-sector procurers must test whether a solar, wind, storage or hybrid project can support debt, meet coverage ratios and deliver acceptable equity returns. A credible answer requires more than a headline IRR: it requires an auditable financial model, realistic downside cases and a clear view of bankability.

This course teaches participants to build and interpret renewable energy project-finance models from development through operations and refinancing. Participants assess resource yield, power purchase agreements, EPC and O&M contracts, construction drawdowns, operating costs, tax, debt sizing, cash waterfalls, DSCR, LLCR and equity returns. They also examine lender due diligence, insurance, environmental and social requirements, climate risks, carbon-credit revenues and financing term sheets. The course uses solar, wind, battery storage and hybrid-project cases relevant to infrastructure investors, banks, utilities, development finance institutions and government agencies.

Instructor-led sessions combine short technical briefings with case work, model-building tasks, group reviews, credit simulations and application planning. Participants progressively build a renewable project-finance model and supporting investment or credit analysis during the programme. They leave with reusable Excel model structures, assumption registers, risk tools, debt-sizing analyses and an investment-committee presentation pack. Successful participants receive a certificate of completion.

The course is suited to professionals who already work with infrastructure, energy transactions, corporate finance, lending, investment appraisal or project development and need to assess financing decisions with greater technical confidence.

What you will be able to do

  • Build an integrated renewable energy project-finance model from sources and uses through equity distributions
  • Translate power purchase, EPC, O&M and financing terms into modelled cash-flow assumptions
  • Calculate CFADS, DSCR, LLCR, PLCR, debt capacity and debt repayment profiles
  • Assess resource yield, curtailment, construction delay and merchant-price risks in downside cases
  • Structure debt sculpting, reserve accounts, cash waterfalls and distribution lock-up tests
  • Evaluate renewable project bankability using lender due diligence and risk-allocation methods
  • Model carbon-credit revenue, Article 6 considerations and renewable energy certificate allocation
  • Present an evidence-based investment or credit recommendation supported by financial-model outputs

Benefits of attending

For you

  • Produce lender-style renewable project models with auditable assumptions and error checks
  • Interpret debt coverage ratios and financing covenants during credit or investment reviews
  • Challenge energy-yield, tariff, construction-cost and operating-cost assumptions with confidence
  • Contribute quantified evidence during lender, sponsor, adviser and investment-committee discussions
  • Apply carbon-credit and renewable-certificate revenue analysis to project financing cases

For your organisation

  • Improve consistency of renewable project appraisals across development, lending and investment teams
  • Identify funding gaps, covenant pressure and downside exposures before financial close
  • Strengthen negotiation positions on debt terms, sponsor support and risk allocation
  • Reduce reliance on opaque third-party models through clearer internal model review
  • Prepare more defensible investment, credit and procurement recommendations for decision makers

Course modules

22 modules over 10 days

Participants can explain how renewable energy projects are structured, financed and assessed for bankability.

  • Project-finance ring fencing, non-recourse debt, and special-purpose vehicle structures
  • Revenue contracts mapped to solar, wind, storage, and hybrid assets
  • Lifecycle stakeholders from sponsor through lenders, advisers, contractors, and offtaker
  • Development milestones linked to bankability gates and financing decisions
  • Risk allocation traced through project agreements and financing documents
  • Term-sheet provisions compared with sponsor returns and lender protections

Participants can convert renewable energy technical inputs into financeable generation assumptions.

  • Solar irradiation, wind yield, degradation, and availability assumptions tested
  • P50, P90, and P99 energy cases linked to debt sizing
  • Battery round-trip efficiency, augmentation, and dispatch constraints modelled
  • Independent engineer reports translated into lender-case generation forecasts
  • Grid curtailment and transmission loss assumptions incorporated into energy sales
  • Technology warranties matched against performance guarantees and liquidated damages

Participants can assess how core project contracts affect cash flow certainty and lender risk.

  • Power purchase agreement pricing structures compared: fixed, indexed, merchant
  • Take-or-pay, availability, and volume risk allocated under offtake contracts
  • EPC price, schedule, interface, and performance obligations assessed
  • O&M agreements reviewed for availability guarantees, pass-throughs, and termination
  • Direct agreements establish lender step-in rights and cure periods
  • Change-in-law, force majeure, and termination payment clauses quantified

Participants can establish a transparent, auditable structure for a renewable project-finance model.

  • Excel model structure separates inputs, calculations, outputs, and error checks
  • Timeline conventions align construction, operations, debt service, and distributions
  • Named ranges, colour conventions, and version controls support model auditability
  • Sources-and-uses schedule reconciles development costs, contingencies, and financing fees
  • Assumption register records source, owner, date, and approval status
  • Balance checks identify circular references, sign errors, and hardcodes

Participants can model construction spending, funding drawdowns and completion-period financing needs.

  • EPC drawdowns timed against milestones, retention, contingency, and VAT
  • Construction interest during construction calculated from debt draw profiles
  • Contingency draw rules distinguish cost overruns from schedule delays
  • Working capital needs reflect receivables, payables, inventory, and reserves
  • Commissioning dates trigger revenue commencement, debt service, and warranty periods
  • Cost-to-complete tests identify funding gaps before financial close

Participants can forecast operating revenues, costs and reserve requirements from project assumptions.

  • Generation forecast converts resource data into monthly net energy output
  • Tariff escalation, indexation lags, and settlement timing drive revenue
  • Operating costs separated into fixed, variable, lifecycle, and pass-through items
  • Major maintenance reserves funded through operating cash flow waterfalls
  • Land lease, royalties, and concession fees modelled under contract terms
  • Receivables ageing captures payment delays, disputes, and collection assumptions

Participants can derive CFADS and model project cash movements through financing waterfalls.

  • Income statement, balance sheet, and cash flow statements integrated
  • Cash flow available for debt service derived from operating assumptions
  • Cash waterfall prioritises taxes, operating costs, reserves, debt, distributions
  • Debt service reserve account sizing follows financing agreement requirements
  • Restricted cash movements reconciled between project accounts and balance sheet
  • Distribution lock-up tests linked to covenant and reserve conditions

Participants can size and structure project debt against project cash flow and risk.

  • Senior debt, subordinated debt, and shareholder loans modelled separately
  • Debt sizing constrained by debt-to-equity ratios and coverage ratios
  • Annuity, straight-line, and sculpted repayment profiles compared
  • Sculpting aligns principal repayments with projected cash flow available
  • Interest margins, fees, swaps, and commitment charges calculated
  • Refinancing assumptions tested against remaining tenor and projected value

Participants can incorporate material tax, accounting and related-party effects into project returns.

  • Tax depreciation schedules reflect local allowances and asset classes
  • Loss carryforwards, withholding tax, and VAT timing incorporated
  • Deferred tax movements reconciled with project financial statements
  • IFRS 16 lease treatment considered for land and equipment
  • Transfer pricing and related-party charges tested for bankability
  • Tax sensitivities show impacts on distributions and equity returns

Participants can calculate, interpret and explain sponsor returns from renewable energy projects.

  • Equity internal rate of return calculated from shareholder cash flows
  • Project IRR distinguished from equity IRR and lender metrics
  • Net present value uses sponsor hurdle rates and terminal assumptions
  • Distribution waterfalls allocate returns among sponsors and preferred equity
  • Exit valuation based on contracted cash flows and market multiples
  • Return bridges explain value effects from revenue, costs, and gearing

Participants can review a base-case model and document findings for decision makers.

  • Base-case model audit traces every headline output to assumptions
  • Model review checklist tests formulas, units, signs, and timing
  • Independent model audit findings classified by severity and remedy
  • Input-output dashboards present generation, revenue, debt, and returns
  • Version comparison identifies changed assumptions and material output movements
  • Model documentation records logic, sources, limitations, and approvals

Participants can identify, quantify and mitigate project risks affecting financing viability.

  • Risk register links development, construction, operating, and financial risks
  • Probability-impact scoring prioritises risks requiring financial mitigation
  • Risk owners, triggers, treatments, and residual exposures documented
  • Political risk, currency convertibility, and expropriation exposures assessed
  • Currency mismatch quantified between revenues, costs, debt, and distributions
  • Hedging options compared using forwards, swaps, caps, and natural hedges

Participants can test financial resilience through structured sensitivities, scenarios and simulations.

  • One-way sensitivities test tariff, yield, capex, opex, and interest rates
  • Two-way data tables reveal combined resource and price downside
  • Scenario cases define downside, base, upside, and break-even assumptions
  • Break-even tariff identifies minimum price meeting lender coverage thresholds
  • Monte Carlo simulation interprets correlated resource, price, and delay risks
  • Tornado charts rank drivers of equity value and debt capacity

Participants can calculate lender ratios and assess covenant compliance under changing conditions.

  • DSCR, LLCR, and PLCR calculated using financing agreement definitions
  • Debt service coverage ratios tested against base and downside cases
  • Loan life coverage ratio relates debt balance to discounted CFADS
  • Financial covenants modelled with testing dates, cure rights, and defaults
  • Cash sweep mechanisms accelerate repayment after covenant thresholds are exceeded
  • Distribution tests connect reserve balances, ratios, and default conditions

Participants can assess due diligence findings and financial-close readiness from a lender perspective.

  • Bankability review scopes technical, legal, tax, insurance, and environmental diligence
  • Independent engineer deliverables tested against lender information requirements
  • Legal due diligence confirms land rights, permits, consents, and enforceability
  • Environmental and social action plans costed and scheduled
  • Lender model audit process documents assumptions, checks, and qualifications
  • Conditions precedent tracked through financial close readiness checklists

Participants can assess insurance arrangements and their effect on debt protection and recovery.

  • Construction all-risk, delay-in-start-up, and operational covers compared
  • Business interruption limits linked to debt service and fixed costs
  • Deductibles, exclusions, and insured events tested against project exposures
  • Insurance proceeds waterfall allocates claims between restoration and lenders
  • Force majeure schedules distinguish insured events from contractual relief
  • Claims cooperation clauses protect lender rights after material losses

Participants can incorporate environmental, social and climate-risk requirements into financing analysis.

  • IFC Performance Standards mapped to renewable project development activities
  • Equator Principles screening identifies applicable environmental and social requirements
  • Stakeholder engagement plans address land access, livelihoods, and grievances
  • Climate physical-risk assessment tests heat, flood, wind, and wildfire
  • Biodiversity mitigation hierarchy informs design changes, budgets, and permits
  • ESG covenants and reporting obligations incorporated into financing documents

Participants can evaluate carbon-market and environmental-attribute revenues within project financing cases.

  • Carbon credit additionality assessed against baseline, investment, and barrier tests
  • Article 6 authorisation risks distinguished from voluntary market claims
  • Verified Carbon Standard methodologies considered for eligible project activities
  • Carbon revenue modelled with issuance timing, buffers, fees, and prices
  • Corresponding adjustments assessed for host-country authorised mitigation outcomes
  • Green attributes allocated between renewable certificates, offtakers, and sponsors

Participants can compare financing options and plan a lender process or refinancing case.

  • Competitive lender process compares pricing, tenor, covenants, and flex provisions
  • Financing plan sequences development capital, construction debt, and permanent financing
  • Green Loan Principles assessed against use-of-proceeds and reporting requirements
  • Refinancing case compares call premiums, break costs, and revised debt capacity
  • Bond financing contrasted with bank debt for operating assets
  • Transaction timetable coordinates adviser mandates, diligence, approvals, and signing

Participants can translate financing terms into economic effects and informed negotiation positions.

  • Term sheet translated into model inputs, conditions, and risk allocations
  • Debt pricing compares margins, reference rates, floors, and fees
  • Mandatory prepayment clauses tested under refinancing, insurance, and asset sale
  • Intercreditor arrangements define payment priorities, standstill, and enforcement rights
  • Sponsor support obligations sized for completion, cost overruns, and liquidity
  • Negotiation positions supported by quantified effects on returns and bankability

Participants can prepare a concise, evidence-based project financing recommendation for approval.

  • Investment memorandum frames project rationale, assumptions, risks, and recommendation
  • Credit paper explains repayment sources, security package, and downside resilience
  • Executive dashboards present debt capacity, returns, sensitivities, and key risks
  • Decision gates identify approvals required before bid, close, and construction
  • Recommendation wording distinguishes conditions, mitigants, and unresolved issues
  • Q&A preparation traces likely challenge questions to model evidence

Participants can build, review and present a complete renewable energy project-finance model and financing recommendation.

  • Integrated solar project model populated with contractual and technical assumptions
  • Sources-and-uses, CFADS, debt schedule, and equity returns reconciled
  • Downside case tests yield, delay, tariff, and interest shocks
  • Bankability risks documented with mitigants, owners, and financing implications
  • Credit recommendation supported by coverage ratios, sensitivities, and conditions
  • Investment committee presentation defends financing structure, returns, and risk allocation

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

What you take back to work

  1. Renewable project-finance Excel model template
  2. Project assumption register template
  3. Debt sizing and coverage-ratio analysis
  4. Bankability risk register and mitigation plan
  5. Lender due diligence checklist
  6. Investment committee presentation pack

Who should attend

  • Project Finance Analysts — build and review bankable renewable energy financial models
  • Infrastructure Investment Professionals — test returns, risks and financing structures before investment decisions
  • Commercial and Investment Bankers — assess debt capacity, covenants and repayment resilience
  • Renewable Energy Developers — translate project contracts and technical inputs into financeable cases
  • Public-Sector Energy Officials — evaluate private-finance proposals, concessions and procurement bids
  • Development Finance Professionals — assess lender requirements, environmental conditions and project risks

Skills and tools covered

Project finance modellingDebt sizing analysisBankability assessmentRenewable revenue forecastingCredit risk analysisInvestment committee reporting

Tools and standards

Microsoft Excel, IFC Performance Standards, Equator Principles, Verified Carbon Standard

How the course runs

Training methodology

The course combines focused technical briefings with worked renewable energy cases, guided Excel modelling, small-group analysis, lender-credit simulations and structured model reviews. Participants apply each method to evolving solar, wind, storage and hybrid-project cases rather than treating finance concepts separately. Trainers use project agreements, technical assumptions, financing term sheets and model outputs to prompt practical decisions. Individual and group application planning helps participants identify how to improve an active transaction, pipeline opportunity or internal approval process after the course.

Requirements and prerequisites

Participants should understand basic financial statements, time value of money, discounted cash flow and Excel formulas. Experience in corporate finance, lending, infrastructure, energy development, investment analysis, transaction advisory or public-sector project appraisal is helpful. Participants should be comfortable interpreting income statements, cash flow forecasts and simple debt calculations. Prior renewable energy experience is useful but not essential. No advanced programming, prior project-finance modelling course, engineering qualification or carbon-market certification is required. The course explains sector-specific technical concepts before applying them in financial analysis.

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 basic financial literacy, including familiarity with financial statements, discounted cash flow and Excel formulas. Prior work in energy is helpful but not required; the course introduces the technical inputs needed for financial analysis.

Participants should bring a laptop with Microsoft Excel installed and permission to use spreadsheets during class. They may also bring a non-confidential project case, term sheet or model issue they want to consider during application planning.

The course suits finance, lending, investment, development, advisory and public-sector professionals working on renewable infrastructure. It is intended for people who need to assess or prepare project-finance cases rather than for complete beginners in finance.

General corporate finance focuses on company-level valuation and funding, while this course focuses on ring-fenced project cash flows, contracts, debt covenants and lender requirements. Carbon-market revenues are covered where they affect renewable project economics and financing decisions.

Participants can use the model structure, assumption register, risk checklist and debt-sizing methods for active development, lending or investment cases. The methods also support review of adviser-built models, financing term sheets and investment papers.

Each day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first half establishes project contracts, model architecture and core cash flows; the second half focuses on debt, risks, due diligence, financing terms and the final capstone presentation.

Questions about this course?

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