Buyer's guide
A guide to hydrogen training and who each route suits, with a clear note on the one question that keeps coming up in both sectors: hydrogen or batteries, and for what.
Hydrogen training has expanded quickly, and quality varies more than in mature sectors. Five checks separate substance from enthusiasm.
Favour courses that treat hydrogen as a cost problem rather than a technology story. The chemistry is settled and easy to teach. What decides whether a project happens is the delivered cost per kilogram, who signs the offtake, and how the subsidy is structured. If a syllabus spends more time on molecules than on money, it will not prepare you for the work.
Electrolysis is straightforward to explain and most courses do it well. The hard part is levelised cost of hydrogen: electricity price, capacity factor, stack capex, efficiency degradation and the cost of capital.
A course that never builds a cost stack is teaching you to describe the sector rather than work in it.
A large share of announced hydrogen projects has not reached final investment decision, and offtake is the usual reason. Training that presents a pipeline of announcements as a market is misleading you.
Look for material that distinguishes committed industrial demand, such as existing refinery and ammonia use, from speculative demand in heating, cars and general power.
Electrolytic hydrogen dominates the conversation, but most hydrogen produced today comes from fossil feedstock, and the retrofit and carbon capture questions matter commercially.
A course that only teaches green hydrogen leaves you unable to assess the projects most likely to be financed in the near term.
Hydrogen is expensive to move and store. Compression, liquefaction, pipelines, ammonia and liquid organic carriers each carry an energy penalty and a capex profile.
If a course quotes production cost without delivered cost, the number is not usable. Ask whether transport is treated as a full module.
The useful skill is knowing which applications hydrogen wins. In heavy industry, shipping fuels and long-duration seasonal storage the case is strong. In light vehicles and short-duration grid storage, batteries have largely won on efficiency and cost.
A course that will not make that comparison is advocacy. You want the version that tells you where not to use hydrogen.
The phrase covers several distinct products aimed at different jobs.
Alkaline, PEM and solid oxide stacks, efficiency, degradation, balance of plant and scale-up. Suits engineers and technical buyers. Usually the strongest part of any hydrogen curriculum.
Levelised cost, capacity factor against electricity price, subsidy schemes, offtake structures and bankability. Suits investors and developers, and the scarcest content in the market.
Compression, liquefaction, pipelines, ammonia and liquid organic carriers, with the energy penalty and capex of each. Decides delivered cost, and is often taught too briefly.
Stack types, system integration, and applications in heavy transport, shipping and stationary power. Suits product engineers. Check whether it compares honestly against electrification.
Material compatibility, embrittlement, leak detection, certification schemes and the rules governing production and blending. Dull, essential, and frequently skipped.
Steel, ammonia, refining and chemicals: where hydrogen substitutes for existing feedstock and what it costs. The clearest near-term demand, and the most useful content for commercial roles.
Costs and formats for the alternatives are given as ranges because the market is young and provision varies widely.
| Hydrogen-specific training | University certificates | Self-paced video platforms | BatteryMBA (batteries only) | |
|---|---|---|---|---|
| Format | Short courses, 1 day to 8 weeks, mostly online | Semester length, live seminars plus recorded lectures | Recorded video, start any time, no fixed end | Live online, 12 weeks, fixed cohort, sessions recorded |
| Who teaches | Consultants, technology providers and researchers | Academic staff, occasional industry guests | Course producers and individual subject experts | 160+ industry lecturers across the battery value chain |
| Coverage | Strong on technology, uneven on economics and demand | Deep in the host department's specialism | One topic per course, bought separately | Batteries end to end, from raw materials to recycling |
| Accreditation | Varies widely, often provider certificate only | University certificate or ECTS credit | Platform completion certificate, no external review | CPD accredited |
| Time per week | A few hours, or full-time blocks | Often 8 hours or more, with assessment deadlines | Whatever you manage, which is often nothing | About 4 to 6 hours, stated up front |
| Network | Classmates for the duration | Classmates for the duration, alumni access varies | Comment threads or a forum | Cohort plus lifetime alumni network in 60+ countries |
| Typical cost | A few hundred to several thousand | Several thousand, varies by institution and country | Tens to low hundreds per course | EUR 2,900 for cohort 18 |
Straight answer
Battery Associates runs BatteryMBA and nothing else. If you need electrolyser engineering, hydrogen offtake or ammonia logistics, take a hydrogen course. Where we are useful is the comparison question, which people in both sectors keep having to answer.
A 12-week live online programme on the battery value chain, built for people who need it without leaving their job.
98% said the programme met or exceeded expectations. 95% would recommend it.
The BatteryMBA has exceeded my expectations because I learnt about the entire battery technology value chain. Whether you are a novice or an expert in the sector, the course is jam packed with takeaways from experts to help broaden your knowledge in the sector.
BatteryMBA graduateEach module was meticulously designed to cover crucial aspects of the battery ecosystem, from technical fundamentals to market trends and policy implications. The insights I gained have been directly applicable to my work.
BatteryMBA graduate, BESS businessCompany names indicate where BatteryMBA alumni work. They are not endorsements or partnerships.
Both if you work in energy strategy, one if you work on projects. The two technologies compete directly in short-duration grid storage and light vehicles, where batteries have largely won on round-trip efficiency and cost. They do not compete in steel, ammonia, refining or shipping fuels, where hydrogen has a role batteries cannot fill. Learn the one your projects actually use, and learn enough about the other to know when the answer changes.
Demand and economics. The technology content is usually solid because the chemistry is settled and easy to teach well. What gets skipped is the delivered cost per kilogram, the difference between announced and financed projects, and the fact that offtake is the constraint on most of the pipeline.
Not for the commercial routes. Hydrogen economics, offtake structuring and industrial decarbonisation content is aimed at investors, policy staff and commercial teams and assumes no chemistry. Electrolyser and fuel cell engineering courses do assume a technical background, and will be hard going without one.
It depends on your role. If you work in heavy industry, shipping, refining or ammonia, the demand is real and current and training pays back. If you are considering it because of general momentum in the sector, look first at how many projects near you have reached final investment decision rather than announcement.
No. We run BatteryMBA, a 12-week live online programme on the battery value chain. We publish this page because the hydrogen against batteries question comes up in almost every cohort, and because sending people to the right training matters more than filling seats.