- NextChem Tech will apply its proprietary Catalytic Partial Oxidation technology (NX CPO), an advanced process to produce synthesis gas
- The contract is related to the development of an industrial scale plant to produce sustainable aviation fuel (SAF) from green hydrogen and CO2 in Mosjøen, Norway
NextChem Tech will apply its proprietary 1NX CPO technology, an advanced innovative process to produce synthesis gas via a controlled partial oxidation, through a very fast reaction. When applied to synthetic fuel production, this versatile technology is contributing to improve carbon efficiency recovery yield.
The first plant developed by Norsk e-Fuel will have a production capacity of 40 000 tpa of e-Fuels to enter operation after 2026. Based on the initial design, two additional facilities with a capacity of approx. 80 000 tpa each are planned to be built by 2030. The aim is to effectively reduce current flight emissions by leveraging the use of cutting-edge technologies to produce e-Fuels.
Alessandro Bernini, CEO of MAIRE, commented: “We are proud of being part of this breakthrough technological initiative with SMS group and Norsk e-Fuel aimed at industrializing e-Fuels production in Norway for aviation”.
“Our collaboration with NextChem Tech is another step towards improving carbon efficiency of our production processes while simultaneously reducing costs. We are grateful for this impactful partnership and look forward to the seamless integration of all technology components”, says Karl Hauptmeier, CEO Norsk e-Fuel.
“Having NextChem Tech on board completes the overall picture of technology providers involved in the Project. This collaboration enables Nork e-Fuel to improve process efficiency and competitiveness in the e-Fuels market. With now all partners on board and having the FEED study started, we are confident to bring this project to an historical success” says Paul Tockert, Executive Vice President Metallurgy SMS group.
1NX CPO (Catalytic Partial Oxidation) technology, constitutes a solution for syngas production. Hydrocarbon or biobased feedstocks undergo a controlled partial oxidation in presence of a catalyst that facilitates the conversion into syngas through an entirely heterogeneous very fast reaction.