Master hydrogen fuel cells, EV range extension technologies, hybrid energy storage systems, battery swapping, and megawatt charging through an industry-focused online certification programme.
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The Range Extension for eMobility: Hydrogen Fuel Cell & Runtime Charging course is designed for engineers and professionals who want to build expertise in next-generation electric mobility technologies. The programme provides a practical understanding of hydrogen fuel cells, EV range extension systems, Hybrid Energy Storage Systems (HESS), Megawatt Charging Systems (MCS), battery swapping, and Battery-as-a-Service (BaaS) models.
Through real-world engineering concepts and industry-focused learning, participants will explore how advanced charging infrastructure, hydrogen-powered propulsion, and sustainable mobility solutions are transforming commercial transportation, logistics, and fleet electrification. The curriculum combines technical knowledge with practical applications to help learners develop job-ready skills for the evolving electric vehicle and hydrogen mobility ecosystem.
Key topics include:
✓ Master the transition to Series-Electric and EREV architectures, using the engine solely as a high-efficiency "genset" to eliminate mechanical complexity and range anxiety.
✓ Master the 2026 hydrogen value chain and the engineering of hydrogen-fueled range extenders for heavy-duty, marine, and aviation series-hybrid platforms.
✓ Master the physics and standards of High-Power Runtime Charging, including Megawatt Charging System (MCS) implementation and dynamic wireless power transfer for continuous fleet uptime.
✓ Optimize energy density and lifecycles by designing Hybrid Energy Storage Systems (HESS) that integrate batteries, supercapacitors, and flywheels to manage high-power transients and regenerative braking.
✓ Transition from ownership to access by mastering BaaS and EaaS models through rigorous financial modeling to optimize battery asset life and unit economics.
✓ Optimize intercity and intracity mobility by leveraging data-driven forecasting and autonomous battery swapping to design high-efficiency "Relay Models" and sustainable logistics ecosystems.

Learn how to design next-generation EV powertrain architectures using hydrogen fuel cells, range extenders, and hybrid energy storage systems (HESS). Understand system integration, energy optimisation, and advanced propulsion technologies for commercial electric vehicles and future sustainable mobility solutions.

Develop expertise in data-driven logistics by applying predictive analytics, fleet optimisation, autonomous battery swapping, and mobility forecasting techniques. Learn how intelligent logistics systems improve operational efficiency, reduce costs, and support sustainable transportation across commercial EV fleets.

Understand the design and implementation of high-power EV charging infrastructure, including Megawatt Charging Systems (MCS), wireless charging, and advanced charging networks. Learn how scalable charging infrastructure enables faster charging, improved fleet uptime, and efficient long-distance electric mobility.

Explore Battery-as-a-Service (BaaS) and Energy-as-a-Service (EaaS) business models, financial modelling, and battery asset lifecycle management. Learn how subscription-based battery solutions improve fleet economics, reduce ownership costs, and accelerate the adoption of electric mobility.

Explore Battery-as-a-Service (BaaS) and Energy-as-a-Service (EaaS) business models, financial modelling, and battery asset lifecycle management. Learn how subscription-based battery solutions improve fleet economics, reduce ownership costs, and accelerate the adoption of electric mobility.

Understand the complete hydrogen value chain, from hydrogen production and storage to distribution and fuel cell integration. Learn how hydrogen mobility supports heavy-duty transportation, commercial fleets, and sustainable energy ecosystems while reducing carbon emissions.

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As the global automotive industry transitions towards sustainable mobility, technologies such as hydrogen fuel cells, EV range extension systems, and Hybrid Energy Storage Systems (HESS) are playing a crucial role in overcoming the limitations of conventional battery-electric vehicles. Industries including commercial transportation, logistics, mining, marine, and heavy-duty mobility are increasingly adopting hydrogen-powered vehicles, battery swapping, and Megawatt Charging Systems (MCS) to improve operational efficiency, reduce charging downtime, and support long-distance transportation.
The growing demand for EV charging infrastructure, runtime charging technologies, and Battery-as-a-Service (BaaS) business models is creating new opportunities for engineers with specialised expertise in next-generation electric mobility solutions. Understanding these technologies enables professionals to design efficient powertrain architectures, optimise energy storage systems, and develop scalable charging and fleet electrification solutions for future mobility.
This course equips learners with practical knowledge of emerging technologies that are shaping the future of electric vehicles, hydrogen mobility, and sustainable transportation, preparing them for high-impact careers in the rapidly evolving eMobility industry.

1 Courses • 17 Students
24+ years’ experience in global automotive design and product development on multiple EVs and Hybrid vehicle platforms, specializing in model-based design, calibration, testing, and system integration; a Six-Sigma Green Belt with 3 inventions in battery & hybrid electric vehicles. He earned his Master's degree in Energy Systems Engineering from the University of Michigan and his Bachelor's in Mechanical Engineering from Nagpur University.
The growing adoption of hydrogen fuel cell technology, EV range extension systems, battery swapping, and advanced charging infrastructure has created strong demand for professionals with expertise in next-generation electric mobility solutions. After completing this course, learners can explore career opportunities across automotive OEMs, energy companies, EV startups, charging infrastructure providers, and research organisations.
Potential roles include Hydrogen Systems Engineer, EV Charging Infrastructure Engineer, Energy Storage Engineer, Fleet Electrification Specialist, Sustainable Mobility Consultant, Battery Swapping Systems Engineer, Hydrogen Mobility Engineer, and e-Mobility R&D Engineer. The knowledge gained in hydrogen-powered propulsion, Hybrid Energy Storage Systems (HESS), Megawatt Charging Systems (MCS), and sustainable transportation prepares professionals to contribute to the development of innovative mobility solutions for commercial vehicles, logistics, and future transportation ecosystems.