Hydrogen Systems Collaboration

Advancing Hydrogen Engineering Together

Hydrogen Systems Collaboration between the Manufacturing Technology Centre (MTC) and Loughborough University aims to accelerate the design and manufacture of hydrogen-compatible systems for aerospace, automotive, and power generation. This hydrogen systems engineering partnership brings together world-class research and real-world testing capability to overcome mechanical and material challenges in liquid and gaseous hydrogen environments, supporting the UK’s transition to a Net Zero future.

UK hydrogen momentum

Hydrogen has emerged as a cornerstone of the UK’s Net Zero strategy, with applications spanning transport, power generation, and industry. Research and innovation hubs across the Midlands are building capability to ensure the UK’s technical leadership in this sector.

The partnership between MTC and Loughborough University strengthens this ecosystem by connecting academic insight with industrial development. Through collaboration, engineers and researchers aim to advance hydrogen systems that are reliable, efficient, and scalable for high-performance applications.

Engineering focus and challenge areas

Hydrogen engineering confronts unique technical hurdles. Materials and components experience extreme conditions such as cryogenic temperatures, pressure cycling, and embrittlement. Interfaces and joints must resist hydrogen permeation while maintaining mechanical integrity.

By combining advanced simulation with rigorous experimentation and industrial demonstrators, the partnership will address:

• Thermal contraction and cryogenic sealing
• Hydrogen embrittlement and material permeability
• Pressure-cycle fatigue and joint performance

These challenges require multidisciplinary engineering that spans materials science, tribology, and mechanical system design.

Material science and high-fidelity validation

Many traditional design principles struggle under hydrogen’s unique thermomechanical demands. High-performance materials and interface engineering are essential. Researchers at Loughborough’s Wolfson School and Department of Materials are already pioneering work in sustainable, high-performance materials for demanding environments.

Such work aligns with broader UK research efforts, including innovations in green hydrogen testing and deployment at regional facilities such as the East Midlands Zero Carbon Innovation Centre, which is designed to bridge academic research with industry deployment and manufacturing scale-up.

From simulation to demonstrators

A major driver of this collaboration is the integration of simulation, experiment, and demonstrators in a continuous feedback loop. MTC’s advanced facilities at Ansty Park provide access to industrial-scale manufacturing environments and high-precision manufacturing technology, enabling rapid iteration and validation of hydrogen-ready systems.

By combining high-fidelity models with controlled experimentation and industrial test cases, engineers can identify practical failure modes and performance limits before deployment. This approach reduces risk and accelerates confidence in hydrogen systems across sectors where safety and reliability are non-negotiable.

Wider context in hydrogen innovation

Beyond this partnership, the UK hydrogen sector is seeing renewed investment and innovation. For example, advanced concepts in hydrogen production and storage are gaining recognition through national awards and demonstration facilities, reflecting the breadth of UK capability.

These developments demonstrate that hydrogen is not a niche energy vector but a platform for systems-level innovation — from material interfaces to powertrain integration and scalable manufacturing.

How CNR Can Support Hydrogen System Development

CNR’s engineering expertise aligns with the technical realities of hydrogen systems. The company supports mechanical design, materials analysis, and bespoke validation environments for emerging energy technologies. CNR’s engineering approach emphasizes:

• Mechanical system integration under extreme conditions
• Test rig design and real-world validation
• Design for reliability and manufacturability

This capability is directly relevant to hydrogen systems, where performance must be proven not just by simulation but through repeatable, representative testing.