Imagine trying to move super-chilled liquid hydrogen—which is incredibly cold and volatile—into trucks or ships without a clear rulebook on how to do it safely. This work creates that rulebook by testing what happens during leaks or fires and finding the best safety barriers to prevent accidents. It's like designing the ultimate safety manual for a high-risk fuel that the world is just starting to use at scale.
Companies lack a standardized safety manual for transferring liquid hydrogen into mobile tanks, making it difficult to get permits and ensure safety in public areas.
A set of safety protocols, hazard zoning strategies, and validated numerical simulation models for cryogenic hydrogen transfer.
If you are a port operator dealing with the risks of refueling hydrogen-powered vessels — this project developed safety protocols and hazard zoning strategies that reduce the risk of catastrophic leaks during transfer.
If you are a fleet manager dealing with the lack of safety standards for liquid hydrogen filling stations — this project developed validated numerical models and safety barrier selections that ensure safer refueling in public areas.
If you are a manufacturer dealing with uncertainty regarding equipment failure rates — this project developed a failure frequency study using decades of internal database records to improve equipment reliability.
Based on available project data, specific implementation costs are not provided; the project focuses on developing the safety strategies and standards themselves.
The project is currently in the research and validation phase, aiming to provide the guidelines and protocols necessary to enable safe industrial-scale mobile applications.
Based on available project data, IP details are not specified, though the project involves sharing exclusive data on safety barriers from partner Air Liquide.
The project specifically aims to fill gaps in international standards and contribute to the development of new regulations and codes for cryogenic hydrogen transfer.
The project runs from 2023-01-01 to 2026-09-30, suggesting that finalized guidelines will be available toward the end of 2026.
The consortium is heavily weighted toward research and academia, with 4 universities and 3 research institutes, while only 1 industry partner (12% ratio) is involved. This suggests the output will be primarily technical guidelines and scientific validation rather than a turnkey commercial product, although the presence of Air Liquide provides critical industrial data and practical expertise in cryogenic transfer.
Contact NTNU (Norwegian University of Science and Technology) regarding the ELVHYS project deliverables.
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