- The UK Government supports the project with £505,000 funding via Innovate UK.
- The project will store and transport 400 cubic meters of LOHC, carrying 20,000 kg of hydrogen.
- Completion is expected by the end of 2024.
- Axiom will design and manage laboratory testing.
Project Overview
Exolum is pioneering the commercial-scale transport and storage of hydrogen using Liquid Organic Hydrogen Carriers (LOHCs) in repurposed oil infrastructure. Supported by £505,000 from the UK Government via Innovate UK, the project will take place at Exolum’s Immingham terminal in the Humber region. This initiative is a significant step in Exolum's strategy to decarbonize and diversify energy solutions.
Technical Details
LOHCs are oil-like compounds that can absorb and release hydrogen through chemical reactions, making them suitable for hydrogen storage and transport. While previous projects have proven the processes to attach and release hydrogen from LOHCs, this project aims to demonstrate their transport and storage in existing oil infrastructure. The project will involve storing and transporting 400 cubic meters of LOHC, equivalent to 20,000 kg of hydrogen, between Immingham East and West facilities via a 1.5 km pipeline. Laboratory testing will ensure the quality of LOHC is maintained.
Timeline and Partners
The project is expected to be completed by the end of 2024. Axiom, a British engineering consultancy, will design and manage the laboratory testing. This collaboration aims to provide insights into using existing infrastructure for new energy carriers, supporting the development of large-scale hydrogen storage and distribution technologies.
Future Implications
Exolum's infrastructure, already capable of storing and distributing multiple liquid products, is adaptable to meet growing market demand. The project's success will support the first hydrogen projects in the UK, offering large-scale hydrogen storage and distribution ahead of alternative options. This initiative aligns with Exolum's commitment to advancing green hydrogen projects and exploring new energy vectors.
