About this Training Course
The global energy transition is accelerating at an unprecedented pace, with wind and solar power accounting for the majority of new power generation capacity additions worldwide. As countries pursue ambitious net-zero commitments and energy security objectives, the development of co-located wind–solar hybrid plants integrated with Battery Energy Storage Systems (BESS) is emerging as a preferred solution for delivering reliable, cost-effective, and dispatchable renewable energy. According to industry forecasts, hybrid renewable energy projects are expected to experience significant growth over the next decade as developers seek to maximise land utilisation, optimise grid connection capacity, reduce curtailment losses, and enhance project economics.
The increasing penetration of variable renewable energy sources is also creating new challenges for grid operators, project developers, utilities, and investors. As a result, there is growing demand for engineers and energy professionals who can design, evaluate, and optimise hybrid renewable energy plants that effectively combine wind, solar, and energy storage technologies. Understanding resource complementarity, energy yield assessment, grid integration requirements, battery sizing strategies, and techno-economic optimisation has become critical for ensuring project bankability and long-term operational performance.
This highly practical training course equips participants with the knowledge and tools required to assess, model and optimise modern co-located Wind–PV Hybrid Plants with optional BESS integration. Through a combination of technical lectures, software-based simulations, design exercises, and real-world case studies, participants will gain a comprehensive understanding of renewable energy resource assessment, energy yield modelling, hybrid plant configuration, grid connection constraints, energy storage integration, and commercial performance evaluation. The programme is designed to help participants address current industry challenges while preparing for the next generation of hybrid renewable energy developments.
1. What are Hybrid Wind and PV Plants with BESS?
Hybrid Wind and PV Plants with BESS combine wind turbines, solar PV systems, and battery storage at one site. Developers use this setup to share land and grid infrastructure. As a result, Hybrid Wind and PV Plants with BESS can improve energy output and power reliability.
2. Why are hybrid renewable energy projects becoming more popular?
Countries need more clean and reliable electricity. Therefore, developers are building more hybrid projects. These projects help reduce curtailment, improve grid usage, and increase project value. They also support net-zero and energy transition goals.
3. What is Energy Yield Assessment (EYA)?
Energy Yield Assessment estimates how much electricity a project can generate. Engineers analyse weather data, plant design, system losses, and uncertainty. As a result, investors and developers can make better project decisions.
4. Which software tools support wind and solar yield modelling?
Engineers use WindPro to assess wind resources and model energy production. They use PVSyst or RatedPower to analyse solar PV performance. In addition, they use Excel to evaluate hybrid systems and battery sizing options.
5. Why does wind and solar complementarity matter?
Wind and solar resources often produce electricity at different times. For example, solar panels generate power during the day. Wind turbines may produce more energy at night or in different seasons. Therefore, developers can create a more balanced energy profile by combining both technologies.
6. How does BESS improve hybrid plant performance?
BESS stores excess energy when renewable generation is high. It releases stored energy when demand rises or generation falls. As a result, operators can reduce curtailment and improve energy delivery. In addition, BESS can support grid services and create new revenue streams.
7. What grid challenges affect hybrid wind and solar projects?
Grid operators often limit export capacity at connection points. Consequently, hybrid plants may face congestion and curtailment. Developers must optimise plant sizing, storage capacity, and operating strategies. These actions help maximise energy delivery and maintain grid compliance.