Every serious decarbonisation roadmap today assigns hydrogen a central role — as a fuel, an energy carrier, and a feedstock for industries that cannot simply switch to batteries. Turning that ambition into working infrastructure, however, depends on engineers and decision-makers who understand exactly how hydrogen is produced, converted, and safely deployed at scale.

Arab British Fellowship Training Academy built this course around that practical need. Rather than treating hydrogen as a single technology, it walks participants through the full value chain — from the chemistry of production routes to the engineering of fuel cells and the real-world sectors, transport, industry and power generation, where both are already being deployed.

By the End of This Programme, You Will Be Able To

• Explain why hydrogen is treated as a strategic energy carrier and where it fits within global decarbonisation strategies.
• Compare the main hydrogen production routes, from natural gas and coal-based methods to electrolysis and emerging biological and solar techniques, on cost, maturity and environmental impact.
• Describe how fuel cells convert hydrogen into electricity, and distinguish between the main fuel cell types and their best-fit applications.
• Assess where hydrogen and fuel cells are already being deployed, from electric vehicles to aviation, shipping and heavy industry.
• Identify the safety, regulatory and environmental considerations that govern hydrogen production, storage and use.

Target Audience

• Engineers and technical specialists working in renewable energy, power systems or industrial process design.
• Project managers and executives evaluating hydrogen as part of a company's energy transition strategy.
• Researchers and R&D professionals developing or assessing hydrogen and fuel cell technologies.
• Policymakers, regulators and sustainability consultants shaping hydrogen-related strategy and standards.

Module 1: Why Hydrogen Matters Now – The Energy Transition Imperative

• The urgency of decarbonising transport, industry and power generation.
• Where hydrogen fits alongside electrification and other low-carbon options.
• Barriers slowing the global adoption of hydrogen technologies.

Module 2: Hydrogen as an Energy Carrier – Properties and Economics

• Physical and chemical properties that make hydrogen unique as a fuel.
• The concept of the hydrogen economy and its supply chain.
• Comparing hydrogen's cost and efficiency with conventional energy carriers.

Module 3: Producing Hydrogen from Fossil and Carbon-Based Sources

• Steam methane reforming: process, efficiency and carbon emissions.
• Coal gasification as a hydrogen source and its environmental trade-offs.
• Carbon capture options for lowering the footprint of these routes.

Module 4: Biomass and Water-Based Production Pathways

• Converting biomass into hydrogen and its environmental benefits.
• Water electrolysis: how it works and the role of different electrolyzer types.
• Green hydrogen and its dependence on renewable electricity.

Module 5: Solar-Driven and Emerging Production Technologies

• Photoelectrochemical water splitting and its working principles.
• Microbial electrolysis and biological hydrogen production.
• Thermochemical cycles and hybrid production systems on the horizon.

Module 6: Fuel Cell Fundamentals

• The electrochemical process that converts hydrogen into electricity.
• The role of the anode, cathode and electrolyte.
• Why fuel cells outperform combustion engines on efficiency and emissions.

Module 7: Fuel Cell Types and How to Choose Between Them

• Proton Exchange Membrane (PEM) fuel cells and their typical uses.
• Solid Oxide (SOFC) and Alkaline (AFC) fuel cells compared.
• Matching fuel cell type to application requirements.

Module 8: Powering Vehicles – FCEVs and Refuelling Infrastructure

• How Fuel Cell Electric Vehicles work and their advantages over conventional vehicles.
• Challenges in scaling FCEVs for mass-market adoption.
• Building the hydrogen refuelling network needed to support them.

Module 9: Decarbonising Aviation, Shipping and Heavy Industry

• Hydrogen's potential in long-haul aviation and maritime transport.
• Current research, prototypes and infrastructure gaps.
• Hydrogen as feedstock and fuel in steel manufacturing, refining and chemicals.

Module 10: Stationary and Portable Fuel Cell Applications

• Backup power and off-grid uses for fuel cells.
• Portable fuel cell systems and their practical limitations.
• Integrating fuel cells into distributed energy systems.

Module 11: Environmental Footprint and Lifecycle Impact

• Lifecycle analysis of the main hydrogen production methods.
• Comparing carbon footprints across production technologies.
• Hydrogen's contribution to cutting global greenhouse gas emissions.

Module 12: Safety, Standards and Regulation

• Risks and mitigation strategies in hydrogen handling and storage.
• Safety standards governing hydrogen infrastructure.
• Emergency response practices for hydrogen-powered systems.

Module 13: What's Next for Hydrogen and Fuel Cells

• Innovations on the horizon in production and conversion technologies.
• Potential breakthroughs in storage and transportation.
• Hydrogen's long-term role in achieving carbon neutrality.