Most people picture solar power as a rooftop panel converting sunlight straight into electricity. Concentrated Solar Power (CSP) works differently and, at utility scale, can outperform that model: fields of mirrors or lenses focus sunlight onto a single point, generating enough heat to boil water and spin a conventional steam turbine - the same principle power plants have used for a century, just with the sun as the fuel.

That single design choice unlocks something photovoltaic panels cannot easily do: store energy as heat and keep generating electricity for hours after sunset. It also raises a distinct set of engineering questions, from which mirror configuration suits a given site to how molten salts or other fluids carry and store that heat efficiently.

This course from the Arab British Fellowship Training Academy takes participants through CSP from first principles to project delivery - covering the main technology families, site selection and plant design, thermal storage and heat-transfer fluids, and the financial and project-management skills needed to take a CSP plant from concept to commissioning.

Who Should Attend?

• Renewable-energy engineers and technicians moving into utility-scale solar projects.
• Environmental science professionals and students studying large-scale renewable deployment.
• Energy policy makers and analysts assessing CSP as part of a national energy mix.
• Anyone exploring sustainable, utility-scale energy solutions as a career or investment area.

Knowledge and Benefits

By the end of this course, participants will be able to:

• Explain the thermodynamic principles and technologies that underpin CSP systems.
• Compare parabolic trough, power tower, Fresnel and dish Stirling configurations and their design trade-offs.
• Carry out site-selection and feasibility assessments for a proposed CSP plant.
• Take a CSP system from concept through to detailed design and implementation.
• Apply core project-management and economic-evaluation skills used in CSP deployment.

Module 1: Why Concentrated Solar Power: Turning Sunlight into Utility-Scale Steam

• Why solar energy matters in the global energy landscape, and where CSP fits alongside photovoltaics.
• The core idea behind CSP: concentrating sunlight to produce heat instead of electricity directly.
• How CSP compares with photovoltaic systems for utility-scale generation.

Module 2: Thermodynamics Behind CSP: Radiation, Heat Conversion and Power Cycles

• Fundamentals of solar radiation and how it is measured.
• Key concepts in converting concentrated heat into usable thermal energy.
• An overview of the thermodynamic cycles used to turn that heat into electricity.

Module 3: Core System Components: Mirrors, Receivers and Balance of Plant

• The main components shared across CSP technologies: mirrors, receivers and turbines.
• The role of balance-of-plant systems in keeping a CSP facility running.
• An introduction to the control systems that coordinate CSP operations.

Module 4: Parabolic Trough Technology

• Design features and operating principles of parabolic trough systems.
• Performance metrics and efficiency considerations.
• Where parabolic trough plants are most commonly deployed.

Module 5: Power Tower (Central Receiver) Technology

• How central receiver technology is structured and how it functions.
• Advantages and limitations compared with other CSP configurations.
• Recent advancements in power tower technology.

Module 6: Fresnel Reflectors and Dish Stirling Systems

• Design and operation of linear Fresnel reflector systems.
• How dish Stirling technology works and where it is typically applied.
• A comparative look at efficiency across all four CSP configurations.

Module 7: Site Selection and Solar Resource Assessment

• Key factors influencing site suitability, including geography, climate and accessibility.
• Techniques for measuring and analysing solar resource at candidate sites.
• How resource assessment findings feed directly into project feasibility.

Module 8: Environmental Impact and Regulatory Assessments

• Environmental factors that must be evaluated before a CSP project proceeds.
• Methods for assessing ecological impact.
• Regulatory requirements that shape the environmental assessment process.

Module 9: Designing a CSP Plant: From Concept to Layout

• The overall system design process and the decisions it involves.
• Core components and how they interconnect within a full plant.
• Layout principles aimed at maximising overall efficiency.

Module 10: Thermal Storage: Extending Power Beyond Sunset

• Why thermal storage is one of CSP's defining advantages.
• Types of thermal storage technologies and their relative benefits.
• Design considerations for integrating storage into a CSP system.

Module 11: Heat Transfer Fluids: Selection and Performance Impact

• Criteria used to select a heat transfer fluid for a given CSP configuration.
• Common fluid types and their physical properties.
• How fluid choice affects overall system efficiency.

Module 12: Cost Structure and Lifecycle Economics of CSP Projects

• Breaking down capital and operational costs across a project's lifetime.
• Lifecycle cost analysis methods specific to CSP.
• Factors that most affect overall cost efficiency.

Module 13: Financial Modeling and Risk-Adjusted Returns

• Building a financial model to evaluate a proposed CSP project.
• Key metrics for judging economic viability.
• Using sensitivity analysis to manage financial risk.

Module 14: Funding, Incentives and Securing Capital

• Potential funding sources available for CSP projects.
• Government incentives and subsidies supporting renewable energy.
• Practical strategies for securing financial backing.

Module 15: Project Management from Initiation to Closure

• Core project-management methodologies used in renewable energy delivery.
• The project lifecycle: initiation, planning, execution and closure.
• Why stakeholder management and communication make or break a CSP project.

Module 16: Risk Management and Performance Monitoring

• Identifying and analysing the risks specific to CSP projects.
• Mitigation strategies and tools for effective risk management.
• Tracking progress with key performance indicators and post-project evaluation.

Module 17: Emerging Technologies in CSP

• Innovations in materials and design reshaping CSP systems.
• Hybrid systems that combine CSP with other renewable sources.
• Advances in thermal energy storage technology.

Module 18: Market Trends and Policy Outlook

• The current state of the global CSP market and regional growth patterns.
• Policies and international agreements shaping CSP deployment.
• Challenges, opportunities and the future outlook for the sector.