About this Training Course
Power Project Economics & Financial Modelling is now central to how developers, investors, and lenders assess the viability of modern power and renewable energy projects. The global power sector is undergoing one of the most profound transformations in its history, driven by the accelerating energy transition, rising electricity demand, and the urgent need for energy security. Renewable energy capacity is expected to expand rapidly over the next decade, supported by declining technology costs, policy support, and increasing electrification across industries. At the same time, the scale of investment required is unprecedented, positioning power and renewable projects at the centre of one of the largest investment megatrends in modern history. This surge in capital is fundamentally reshaping how projects are structured, financed, and evaluated—placing greater emphasis on bankability, risk allocation, and robust financial modelling.
However, the market environment is becoming increasingly complex. Despite record levels of renewable investment, developers and investors must navigate challenges such as volatile interest rates, grid constraints, evolving regulatory frameworks, and shifting revenue models. In parallel, new demand drivers particularly from data centres, electrification, and industrial decarbonisation are accelerating the need for integrated solutions such as energy storage, hybrid systems, and flexible power generation. In this dynamic landscape, technical expertise alone is no longer sufficient. Successful power projects require a strong understanding of financial modelling, revenue structures, financing mechanisms, and risk management across the project lifecycle.
This 3-day comprehensive training is designed to equip participants with the critical knowledge and practical skills required to navigate modern power project economics and finance. Through a structured and hands-on approach, participants will develop the ability to build and interpret financial models, evaluate revenue models such as PPAs and merchant markets, understand financing structures including project finance, and assess key risks impacting project viability. By bridging the gap between technical and financial perspectives, participants will be able to develop bankable business cases and make informed investment decisions in today’s rapidly evolving energy market.
1. What is Power Project Economics & Financial Modelling?
Power Project Economics & Financial Modelling is the analysis of how a power project creates value, earns revenue, controls costs, and manages risk. It links technical factors, such as capacity factor, plant output, degradation, and operating life, with financial measures such as NPV, IRR, DSCR, and cash flow. Therefore, it helps investors, lenders, and developers decide whether a project can remain viable under real market conditions.
2. Why is financial modelling important for power project economics?
Financial modelling helps teams test whether a project can deliver stable returns. It also shows how capital costs, operating costs, tariffs, taxes, debt terms, and plant performance affect project value. For example, a small change in energy yield or interest rates can affect debt service and investor returns. As a result, power project financial modelling supports better pricing, funding, risk review, and investment decisions.
3. What are the main benefits of Power Project Economics & Financial Modelling?
The main benefit is better decision-making. Power Project Economics & Financial Modelling helps teams compare technologies, revenue structures, and funding options in a clear way. Moreover, it helps identify the strongest value drivers and the biggest risks before capital is committed. It also supports lender due diligence, PPA review, debt sizing, and business case development. However, the model must use realistic assumptions to remain useful.
4. How do PPAs and merchant markets affect power project economics?
Power Purchase Agreements, or PPAs, usually give power projects more revenue certainty. Therefore, lenders often prefer projects with strong contracted cash flows and creditworthy offtakers. In contrast, merchant power markets expose projects to wholesale price changes and demand risk. However, merchant exposure can create upside when prices rise. Many projects now use hybrid revenue models, which combine contracted income with some market-based revenue.
5. What risks should a power project financial model include?
A power project financial model should include construction, market, credit, grid, interest rate, foreign exchange, legal, and regulatory risks. It should also test technical risks, such as lower plant output, equipment failure, or faster asset degradation. Additionally, renewable projects need resource risk analysis for solar, wind, hydro, or biomass supply. By modelling these risks, teams can see how stress events affect cash flow, returns, and debt repayment.
6. How do sensitivity and scenario analysis support Power Project Economics & Financial Modelling?
Sensitivity analysis tests one variable at a time, such as capex, tariff, generation, or debt cost. Meanwhile, scenario analysis tests combined events, such as a construction delay plus lower power prices. Consequently, both tools help identify which assumptions matter most. In Power Project Economics & Financial Modelling, these methods help investors and lenders judge project resilience, compare downside cases, and improve risk allocation.
7. What is the future outlook for power project economics and financial modelling?
Power project economics will become more complex as energy systems change. For instance, battery storage, hybrid plants, corporate PPAs, capacity payments, carbon credits, and ancillary services can create several revenue streams. At the same time, grid limits, policy shifts, and interest rate changes can affect project value. Therefore, future financial models must capture flexibility, storage value, revenue stacking, and market risk more clearly.