Cost Management for Energy Projects Training Course

Duration 10 days 19 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Project Finance Managers, Project Controls Managers and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-FM-139

Before you join: Participants should have practical exposure to budgets, financial reporting, project delivery, engineering economics or commercial management.

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

Energy projects commit large sums before revenue certainty is established. Cost estimates can be distorted by immature scope, inflation, foreign exchange exposure, contractor claims, production assumptions and changing regulatory obligations. Finance and project teams need a common basis for approving capital, controlling committed cost, forecasting cash requirements and explaining variances to investment committees, lenders, partners and auditors.

This course develops the financial management methods used across oil and gas, power generation, renewables, transmission, mining-linked energy infrastructure and energy transition projects. Participants build cost estimates, develop time-phased budgets, assess capital and operating expenditure, apply earned value management, forecast estimate at completion, analyse project cash flows and test economic viability using NPV, IRR, payback and levelised cost measures. The course also addresses funding structures, tax and royalty effects, contract cost control, risk quantification, asset impairment indicators and decommissioning liabilities.

Teaching combines concise technical briefings with worked energy-project cases, spreadsheet-based analysis, group decisions and structured review of project reports. Participants progressively develop a financial control pack for an energy project, beginning with a basis of estimate and cost breakdown structure, then adding budgets, forecasts, risk analysis and investment appraisal. They leave with reusable templates and a completed project financial model suitable for adaptation to their own capital programme.

The course suits finance, project controls and commercial professionals who contribute to energy-project decisions and require stronger command of cost, cash flow and investment analysis.

What you will be able to do

  • Build a basis of estimate and work breakdown structure for an energy project
  • Prepare time-phased CAPEX, OPEX and contingency budgets using cost-control accounts
  • Apply earned value management to calculate cost and schedule performance indicators
  • Forecast estimate at completion using actual costs, commitments and remaining work
  • Construct project cash flow models incorporating tax, royalties, debt and working capital
  • Evaluate investment cases using NPV, IRR, payback period and levelised cost metrics
  • Quantify cost and schedule uncertainty using sensitivity analysis and Monte Carlo simulation
  • Present an integrated project cost-control and investment recommendation to decision-makers

Benefits of attending

For you

  • Produce defensible cost forecasts for capital-intensive energy projects
  • Challenge contractor estimates, contingency assumptions and change-order values
  • Translate engineering scope changes into cash flow and investment impacts
  • Present investment recommendations with transparent economic assumptions
  • Strengthen credibility in project finance, controls and commercial roles

For your organisation

  • Improved capital allocation through consistent project appraisal methods
  • Earlier identification of cost overruns and funding shortfalls
  • More reliable forecasts of CAPEX, OPEX and project completion costs
  • Clearer governance evidence for investment committees, lenders and partners
  • Better control of contractor commitments, claims and contingency drawdown

Course modules

19 modules over 10 days

Participants can map the financial structure, decision gates and value drivers of an energy project.

  • Project lifecycle gates from concept selection through decommissioning funding
  • CAPEX, OPEX and abandonment costs classified within project economics
  • Value drivers linking production, availability, tariffs and operating costs
  • Stage-gate decision criteria for concept select, sanction and operations
  • Roles of sponsors, lenders, contractors, regulators and joint-venture partners
  • Financial control cycle connecting estimate, budget, actuals, forecast and approval

Participants can translate technical scope into a structured and controllable cost baseline.

  • Work breakdown structure aligned with engineering deliverables and construction packages
  • Cost breakdown structure linking accounts, disciplines, assets and contract packages
  • Control accounts assigned to accountable managers and measurable work packages
  • Scope dictionaries defining inclusions, exclusions, interfaces and estimate assumptions
  • Coding structures connecting schedules, procurement systems and general ledger accounts
  • Change-control thresholds established for scope, quantities and technical specifications

Participants can select and document appropriate estimating methods for different project maturities.

  • AACE estimate classes matched to project definition maturity and accuracy ranges
  • Analogous estimates derived from normalised historical project cost data
  • Factor estimating using capacity, complexity and installation multipliers
  • Bottom-up quantities priced through labour, materials, equipment and subcontract rates
  • Vendor quotations evaluated for exclusions, escalation, validity and commercial terms
  • Basis of estimate records assumptions, methodology, allowances and exclusions

Participants can develop estimates that distinguish real costs, nominal costs and currency exposure.

  • Base-date pricing separated from escalation and contingency allowances
  • Real and nominal cash flows reconciled with consistent discount rates
  • Commodity price indices selected for steel, fuel, labour and equipment
  • Foreign exchange assumptions applied to imported equipment and offshore services
  • Forward curves distinguished from inflation indices in economic models
  • Sensitivity tables quantify cost exposure to currency and price movements

Participants can quantify uncertainty and set contingency using structured risk analysis.

  • Risk register links causes, events, consequences, owners and responses
  • Three-point estimates define minimum, most-likely and maximum cost outcomes
  • Probability distributions selected for uncertain quantities, rates and durations
  • Monte Carlo simulation generates P50, P80 and confidence-level cost forecasts
  • Correlation assumptions prevent unrealistic aggregation of independent risk events
  • Contingency drawdown tracked against realised risks and approved scope changes

Participants can convert approved estimates into time-phased budgets and funding requirements.

  • Control budgets allocated across work packages, periods and responsible managers
  • Resource-loaded schedules generate labour, equipment and procurement expenditure profiles
  • S-curves compare planned expenditure, commitments, actuals and forecast completion
  • Long-lead procurement schedules identify deposit, milestone and delivery payment dates
  • Funding plans reconcile project cash needs with equity and debt drawdowns
  • Annual budget submissions distinguish authorised funds from forecast expenditure

Participants can establish reliable actual-cost reporting from accounting and procurement records.

  • Purchase orders and contracts captured as committed-cost exposure
  • Invoice matching checks quantities, rates, milestones, retention and tax treatment
  • Accruals estimate received work not yet invoiced at period close
  • General ledger reconciliations identify miscoding, duplicates and timing differences
  • Cost reports separate actuals, commitments, accruals and remaining forecast costs
  • Data-quality checks test coding completeness, cut-off discipline and approval evidence

Participants can calculate and interpret earned value indicators for project performance control.

  • ANSI/EIA-748 principles connect scope, schedule, budget and performance measurement
  • Planned value derived from authorised budget and baseline schedule
  • Earned value credited through weighted milestones, quantities and physical progress
  • Actual cost reconciled from accounting records, accruals and approved adjustments
  • CPI, SPI, CV and SV calculated for control-account performance
  • Performance thresholds trigger management review, recovery actions and forecast updates

Participants can produce credible completion forecasts from current performance and remaining scope.

  • Estimate at completion combines actuals, commitments and estimate-to-complete
  • Independent EAC formulas tested against current cost performance index
  • Remaining work forecast using updated quantities, productivity and market rates
  • Schedule-delay effects translated into indirect cost and escalation exposure
  • Management reserve distinguished from project contingency and unapproved scope
  • Forecast narratives explain movements, corrective actions and decision requirements

Participants can assess contractor cost exposure, payment mechanisms and change-control evidence.

  • Lump-sum, reimbursable and target-cost contracts allocate cost risk differently
  • Payment terms assessed for milestones, retention, advance payments and incentives
  • Variation orders priced through quantity changes, rates and time impacts
  • Change logs record instruction dates, entitlement evidence and approval status
  • Claims analysis separates disruption, prolongation, acceleration and defective-work costs
  • Open-book audits test allowable costs against contract reimbursement provisions

Participants can analyse operating expenditure drivers and build operational cost forecasts.

  • Fixed and variable OPEX separated for production and availability analysis
  • Unit operating costs calculated per barrel, megawatt-hour or throughput unit
  • Maintenance strategies compared using planned, corrective and shutdown cost profiles
  • Production forecasts connect volumes, energy yields, tariffs and operating costs
  • Benchmarking identifies cost gaps across assets, plants and operating teams
  • Life-cycle cost analysis compares equipment alternatives beyond purchase price

Participants can build project cash flow forecasts covering construction, operations and closure.

  • Monthly project cash flows sequence construction, commissioning and operating periods
  • Revenue models incorporate production, losses, tariffs, availability and curtailment
  • Working capital forecasts include receivables, inventory, payables and cash balances
  • Debt-service schedules calculate interest, principal repayments and reserve accounts
  • Tax timing reflects depreciation, loss carryforwards and deductible expenditure
  • Decommissioning cash flows incorporated using timing, inflation and funding assumptions

Participants can evaluate project value using standard capital-investment appraisal methods.

  • Net present value calculated from discounted after-tax project cash flows
  • Internal rate of return interpreted alongside reinvestment and scale limitations
  • Payback period assessed against liquidity constraints and capital recovery targets
  • Discount rates reflect project risk, capital structure and currency assumptions
  • Levelised cost of energy compares lifetime costs against lifetime generation
  • Profitability index ranks constrained capital opportunities using present-value ratios

Participants can assess how financing terms affect project viability and investor returns.

  • Corporate finance and project finance structures allocate risk differently
  • Debt sizing uses debt-service coverage ratio and projected cash flows
  • Loan covenants assessed for reserve accounts, distributions and reporting obligations
  • Equity returns calculated after debt service, taxes and partner distributions
  • Power purchase agreements evaluated for tenor, indexation and counterparty risk
  • Lender due diligence tests technical, market, legal and financial assumptions

Participants can incorporate fiscal terms and partner interests into project financial analysis.

  • Tax depreciation schedules model capital allowances and taxable income timing
  • Royalty structures apply volume-based, value-based and profit-based fiscal mechanisms
  • Production-sharing terms allocate cost recovery, profit production and government take
  • Joint operating agreements define cash calls, billings and partner voting rights
  • Non-operated venture statements reconciled with budgets, commitments and expenditure approvals
  • Effective tax rates tested under price, cost and production sensitivities

Participants can identify reporting implications of energy-project costs and long-term obligations.

  • IFRS 6 exploration expenditure assessed for capitalisation and impairment indicators
  • IAS 16 component accounting distinguishes major inspections and replacement costs
  • IAS 36 impairment testing compares carrying value with recoverable amount
  • IAS 37 provisions estimate decommissioning, restoration and environmental obligations
  • Asset retirement obligations discounted and accreted through project life
  • Management reporting reconciles project metrics with statutory financial statements

Participants can test investment resilience and communicate financially material uncertainties.

  • One-way sensitivity analysis ranks variables by value and cash impact
  • Two-way data tables test combined commodity price and capital cost changes
  • Scenario analysis compares base, downside, upside and stress-case assumptions
  • Tornado charts communicate material drivers to investment committee members
  • Break-even analysis identifies minimum price, volume or availability requirements
  • Decision trees value staged commitments under technical and market uncertainty

Participants can design cost-control reporting that supports timely management intervention.

  • Delegated authorities define approval limits for budgets, changes and commitments
  • Monthly cost reports present baseline, actuals, forecast, variance and actions
  • Variance analysis distinguishes price, quantity, productivity, timing and scope drivers
  • Forecast assurance reviews challenge assumptions, evidence and estimate completeness
  • Investment committee packs connect performance trends with approval decisions
  • Dashboard metrics balance financial status, schedule progress, risks and opportunities

Participants can build, review and present a complete energy-project cost-control and investment recommendation.

  • Project scope translated into cost breakdown structure and basis of estimate
  • Time-phased budget reconciled with procurement commitments and funding requirements
  • Earned value results incorporated into estimate-at-completion forecast
  • Cash flow model calculates NPV, IRR and debt-service coverage
  • Risk simulation and sensitivity analysis support contingency and investment decisions
  • Management pack presents findings, actions, approvals and decision recommendation

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

What you take back to work

  1. Energy project basis of estimate template
  2. Time-phased CAPEX and OPEX budget model
  3. Earned value and estimate-at-completion dashboard
  4. Project cash flow and investment appraisal model
  5. Cost risk register and contingency analysis template
  6. Investment committee financial control pack

Who should attend

  • Project Finance Managers — assess project economics, funding requirements and investment cases
  • Project Controls Managers — establish budgets, forecasts and cost-performance reporting
  • Energy Project Managers — make informed decisions on scope, cost and schedule trade-offs
  • Financial Analysts — build and review energy-project financial models and sensitivities
  • Commercial Managers — control contract exposure, change orders and contractor payments
  • Engineers and Asset Managers — translate technical plans into credible cost and cash forecasts

Skills and tools covered

Project cost estimatingEarned value analysisCapital budgetingCash flow modellingCost risk analysisInvestment appraisal

Tools and standards

AACE International Total Cost Management Framework, ANSI/EIA-748 Earned Value Management System, IFRS 6 Exploration for and Evaluation of Mineral Resources, IAS 36 Impairment of Assets

How the course runs

Training methodology

The course uses short instructor briefings followed by energy-project case work, spreadsheet calculations, facilitated group analysis and decision simulations. Participants interpret cost reports, challenge estimate assumptions, build cash flow forecasts and compare investment alternatives under changing price, schedule and cost conditions. Cases reflect renewable generation, conventional energy assets and supporting infrastructure. Each module adds a component to an individual project financial control pack. Facilitated reviews focus on assumptions, calculation logic, reporting clarity and management decisions.

Requirements and prerequisites

Participants should have practical exposure to budgets, financial reporting, project delivery, engineering economics or commercial management. They should be comfortable reading income statements, cash flow forecasts and basic project schedules, and should understand common terms such as CAPEX, OPEX, margin and variance. Basic spreadsheet confidence is expected because participants review and build financial calculations during the course. Previous experience in energy projects is useful but not essential; cases introduce sector-specific terms as needed. Advanced corporate finance, programming, specialist valuation credentials and prior Monte Carlo modelling experience are not required.

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 should understand basic budgeting, project delivery or financial reporting and be comfortable with spreadsheets. Advanced valuation, accounting qualifications and previous energy-sector experience are not required.

Bring a laptop with spreadsheet software and, where permitted, an anonymised project budget, cost report or investment case. Course templates and case materials are provided.

It is designed for project finance, project controls, commercial, engineering, asset management and investment professionals working with energy-project costs. It also suits managers who approve capital projects and need to challenge financial assumptions.

The course focuses on the financial mechanics of capital-intensive energy assets, including cost estimating, contractor commitments, production-linked revenue, decommissioning and fiscal terms. General project management courses usually give less attention to project economics and financial control.

Participants can use the basis of estimate, cost-reporting, cash flow and investment-appraisal templates on active projects. The methods support budget reviews, forecast updates, contractor discussions and investment committee submissions.

The first week establishes cost estimating, budgeting, cost collection and performance control methods. The second week develops cash flow modelling, investment appraisal, financing, reporting and the final integrated capstone presentation.

Questions about this course?

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