Solar panels go quiet at night; wind can drop for days at a time. Neither resource alone can guarantee a steady power supply – but put them together, and their weaknesses start to cancel each other out. That is the simple logic behind hybrid wind-solar systems, and it is why they are becoming a default choice for developers chasing reliable renewable power.

Arab British Fellowship Training Academy built this course to give engineers, project managers, and energy consultants the practical skills to design, size, and optimise a hybrid wind-solar system from the ground up – from initial site assessment through to a fully deployed, storage-backed installation.

Who Should Attend?

• Engineers, project managers, and energy consultants involved in designing, implementing, or operating renewable energy systems.
• Professionals in electrical engineering, sustainable energy, or environmental science who want to deepen their knowledge of hybrid systems.
• Those transitioning into the renewable energy sector, or looking to build on existing skills in hybrid system design.
• Newcomers and experienced professionals alike who want to expand their expertise in the hybrid energy field.

Programme Objectives

By the end of the programme, participants will be able to:

• Explain the technical principles behind wind and solar technologies, and the advantages hybrid systems hold over standalone ones.
• Design a hybrid wind-solar system suited to a specific location's resources and demand.
• Evaluate and optimise hybrid system performance under changing environmental conditions.
• Apply best practice in planning, installation, and maintenance, including integration with energy storage for improved reliability.

Module 1: Why Combine Wind and Solar?

• How wind and solar complement each other across day/night and seasonal cycles.
• Reliability, reduced intermittency, and energy security gains from combining sources.
• Economic upside: lower costs and higher efficiency versus standalone systems.

Module 2: Hybrid Systems in the Bigger Energy Picture

• The growing need for hybrid systems in decentralised energy grids.
• Hybrid systems' contribution to decarbonisation and sustainability goals.
• Supporting energy resilience in remote and off-grid locations.

Module 3: Solar Power Fundamentals and System Design

• How photovoltaic cells convert sunlight into electricity, and the difference between PV and solar thermal.
• Steps in designing a solar system: site assessment, sizing, and component selection.
• Selecting inverters, batteries, and balance-of-system components.

Module 4: What Affects Solar Performance

• Climate, temperature, and solar radiation effects.
• Shading and panel tilt impact on efficiency.
• Seasonal variability and its effect on output.

Module 5: Wind Power Fundamentals and System Design

• How turbines convert wind into mechanical and electrical power, and their key components.
• Site assessment, turbine sizing, and configuration decisions.
• Grid integration considerations for turbine placement and transmission.

Module 6: Assessing Wind Resources for a Hybrid Site

• Using wind maps, meteorological data, and anemometers for site assessment.
• The value of long-term wind data for system reliability.
• Predicting wind speed and output across the year.

Module 7: Designing the Hybrid System

• Key design factors: location, energy demand, and available resources.
• Balancing wind and solar capacity for maximum efficiency, and selecting hybrid-compatible components.
• Sizing the system to match production with demand, and handling surplus or shortfall.

Module 8: Storage's Role in a Hybrid System

• Why continuous power supply depends on storage in a hybrid setup.
• Battery, flow battery, and pumped storage options compared.
• Selecting the right storage technology by size, location, and budget.

Module 9: Getting the Most Out of the System

• Techniques for optimising hybrid system operation and performance.
• Using energy management systems (EMS) to coordinate wind, solar, and storage.
• Extending storage lifespan through smarter charge/discharge cycling.

Module 10: The Business Case – Costs and Returns

• Capital costs and operating expenses of hybrid systems.
• Financial models: payback period, ROI, and NPV.
• Incentives, subsidies, and financing options available.

Module 11: Environmental and Sustainability Impact

• How hybrid systems cut greenhouse gas emissions and support sustainability goals.
• Conducting a lifecycle assessment (LCA).
• Benefits for biodiversity, ecosystems, and carbon footprint reduction.

Module 12: Policy and Regulatory Landscape

• Global renewable energy policies and regulations relevant to hybrid systems.
• Feed-in tariffs, tax credits, and other incentives.
• How policy frameworks shape adoption and scalability.