Course overview
Energy storage has moved from a niche engineering topic to a central pillar of how power systems are planned and operated. As wind and solar take a larger share of generation, the ability to shift energy across hours, days, and seasons decides whether a grid stays stable and whether renewable targets are actually met. This course gives you a clear, technically grounded view of the main storage families, how they differ in cost and performance, and where each one earns its place.
Across five units you will work through battery chemistries, hydrogen and thermal storage, grid integration, and the policy and safety questions that shape deployment. The emphasis is on real projects and documented outcomes, so you leave able to read a storage proposal critically and explain the trade-offs to technical and non-technical colleagues alike. Storage rarely stands alone, and the course connects it to the wider picture of Renewable Energy Integration in Traditional Energy Systems.
Why this matters for energy organizations
The economics of storage have changed quickly. Lithium-ion pack prices have fallen sharply over the past decade, grid-scale battery installations are being procured at gigawatt scale, and agencies such as the IEA and IRENA now treat storage as essential to meeting Paris Agreement and net-zero pathways. Decisions made today about chemistry, siting, and contracting will lock in costs and risks for fifteen years or more.
At the same time, the field is genuinely uncertain. Solid-state batteries, long-duration flow systems, and green hydrogen produced through electrolysis all promise to fill gaps that lithium-ion cannot, but each carries open questions on cost, durability, and safety. Teams that understand these distinctions can avoid overpaying for the wrong technology and can spot where a hybrid approach beats a single solution.
What you will be able to do afterwards
By the end of the course you will be able to:
- Match storage technology to duty, from seconds to seasons.
- Compare lithium-ion cells against flow and solid-state batteries.
- Assess where green hydrogen and thermal storage outperform batteries.
- Design hybrid configurations combining multiple storage methods.
- Interpret storage's role in smart grids and demand response.
- Quantify project costs and identify key business-case drivers.
- Evaluate safety, lifecycle, and recycling considerations for batteries.
- Map policy and regulatory trends across deployment markets.
Course outline
Unit 1: Introduction to energy storage systems
- Storage's role in modern energy systems.
- Applications in grid stability, renewables, mobility.
- Market trends and drivers in IEA and IRENA outlooks.
- Case studies in utility, commercial, and community storage.
Unit 2: Battery technologies and applications
- Lithium-ion battery design, performance, and limits.
- Flow batteries and solid-state battery designs.
- EV versus grid-scale application requirements.
- Worked example: battery project sizing, duty cycle, cost.
Unit 3: Hydrogen and thermal energy storage
- Hydrogen as fuel and storage: PEM, alkaline electrolysis.
- Thermal storage: molten salt, sensible, and latent heat.
- Hybrid storage combining batteries, hydrogen, thermal.
- Case studies in hydrogen and thermal innovation.
Unit 4: Grid integration and deployment strategies
- Grid-scale storage for system flexibility and reserve.
- Smart grids: demand response and demand-side management.
- Revenue stacking and offtake structures.
- Guided case study: siting to dispatch decisions.
Unit 5: Future innovations and policy frameworks
- Next-generation storage technologies in development.
- Policy, regulation, and safety considerations for storage.
- Sustainability: raw materials, recycling, end-of-life.
- Future outlook under net-zero and Paris Agreement goals.
How the course is delivered
The course is led by an experienced instructor and built around expert-led discussion, worked examples, and documented case studies rather than lectures alone. You will follow guided walkthroughs of costing and sizing frameworks, review real project data, and take part in group discussion to test your reasoning against others in the room. There are no live laboratories or field exercises; the practical learning comes from analyzing real cases together. Because the material touches on project financing and market economics, please note that the course is educational and does not constitute financial or investment advice.
Who should attend
The course suits professionals who need a solid working grasp of storage technologies and their trade-offs, whether or not they come from a deep engineering background.
- Engineers and technical staff working on renewable, grid, or storage projects.
- Project developers and planners evaluating storage options for new schemes.
- Energy managers and consultants advising on technology selection.
- Policy, regulatory, and sustainability specialists who need to understand storage.
- Investment and commercial analysts assessing storage business cases.
About EuroQuest International Training
EuroQuest International Training was founded in 2015 and delivers more than 1000 professional development courses to over 15,000 participants worldwide. The organization is headquartered in Bratislava, Slovakia, with training hubs that include Dubai, London, Barcelona, Istanbul, Vienna, Paris, and Geneva.
Frequently asked questions
Do I need an engineering background to follow this course?
No. The course explains the technical concepts from the ground up and keeps the language accessible. A general familiarity with energy or power systems helps, but engineers and non-engineers both get value from it.
Does the course cover hydrogen and thermal storage as well as batteries?
Yes. While batteries take up a full unit given how widely they are used, a separate unit is devoted to hydrogen, thermal storage, and hybrid systems, so you see the full range of options and where each fits.
Will this course certify me in energy storage?
No. This is an educational course, not a certification course, and it does not provide a compliance or legal opinion. It gives you the knowledge to assess technologies and projects with confidence.
Related courses
- Green Hydrogen and Future Energy Solutions
- Energy Transition and Decarbonization in Oil & Gas
- Sustainable Energy Strategies and Renewable Integration
- Renewable Energy and Geothermal Resource Exploration
Register for this course
To reserve a place or ask about upcoming sessions, register your interest or contact the EuroQuest International Training team, who will be glad to help you plan your attendance.
All Course Dates & Locations
29 dates · 11 cities · Oct 2026 – Jul 2027