Lhyfe and SAF+ International Group collaborate to produce e-SAF from green and renewable hydrogen for decarbonizing the aviation industry in the Le Havre area, France

At a glance

Lhyfe and SAF+ have announced a partnership to develop the production of electro Sustainable Aviation Fuel (e-SAF) from green and renewable hydrogen. The companies plan to build a green hydrogen production site in the Le Havre area with a capacity of over 100 tonnes per day to supply an e-SAF production site. The facility will be connected to the hydrocarbon transport network to transport the e-SAF to airports in the Paris region and other parts of France. The partners aim to launch the facility by 2030 to align with zero-emission targets set for 2050.

Nantes (France) and Montréal (Canada) – Lhyfe (EURONEXT: LHYFE), one of the world’s pioneers in the production of green and renewable hydrogen, and SAF+ International Group (SAF+), a world leader in the production and marketing of e-SAF (electro Sustainable Aviation Fuel), wish to combine their expertise to develop the production of e-SAF from green and renewable hydrogen, at a production site located in the Le Havre area. This is the first announcement of its kind for Lhyfe.  

SAF+, world leader in clean energy for aviation, brings together cutting-edge technical expertise to provide sustainable fuel solutions (e-SAF) and help reduce the carbon footprint of the aviation industry, using available raw materials and renewable energies – like the green hydrogen produced by Lhyfe – in accordance with international and European regulations (CORSIA and RefuelEU).

SAF+ brings together a coalition of leading international players from across the aviation value chain. In July 2023, the company announced the signature of a memorandum of understanding with the Air France-KLM Group for the supply of second-generation e-SAF fuel, with the first deliveries scheduled for 2030.

Lhyfe produces green and renewable hydrogen through the electrolysis of water, at production units powered by renewable energy. The company’s first site has already been operational since the second half of 2021, and two further sites in France were inaugurated in December 2023. Several other sites are currently under construction or extension across Europe.

As part of this memorandum of understanding, Lhyfe and SAF+ plan to assess the potential for developing e-SAF production in the Le Havre area and to sign a co-development agreement.

The partners are aiming for a facility in the port region of Le Havre, where Lhyfe would build a green hydrogen production site with a capacity of more than 100 tonnes per day (300 MW of installed electrolysis capacity) to supply an e-SAF production site that SAF+ is planning to build. This industrial complex would be connected to the hydrocarbon transport network in order to transport the e-SAF obtained from Le Havre to airports in the Paris region, as well as in northern and eastern France via the existing infrastructure.

The two partners are aiming for a market launch by 2030, to align with market expectations and the zero-emission targets set for 2050.

“This agreement between Lhyfe and SAF+ shows our shareholders and stakeholders that our European strategy is well on track. Demand for SAF in the coming years will be exponential, so we now need to be able to demonstrate that viable solutions will be put in place in the short term. The partnership signed today between two leaders like Lhyfe and SAF+ is proof that we can achieve these objectives,” explained SAF+ CEO Jean Paquin.

Matthieu Guesné, Founder and CEO of Lhyfe said: “Through this ambitious agreement with SAF+, we are demonstrating our determination to help decarbonise not only industry and road transport, but also air transport, which in 2020 accounted for 2.9% of global CO2 emissions[1]. Green and renewable hydrogen is now a mature solution that has established itself as one of the pillars of decarbonisation. It can and must now be deployed as quickly as possible, including in the aviation industry”.

[1] Paper by Science Direct: https://www.sciencedirect.com/science/article/pii/S1352231020305689?via%3Dihub