Dr Artur Majewski is an Associate Professor in Hydrogen/Hydrogen-Based Energy Technology at the School of Chemical Engineering, University of Birmingham, UK.

At University of Birmingham, Artur is a module leader for modules:

• Hydrogen and hydrogen-based fuels
• Hydrogen safety

He is also involved in teaching modules:

• High-Temperature Fuel Cells
• Fuel Cell Technologies
• Sustainable Process Engineering
• Energy Storage
• Fuel Cell and Hydrogen Technologies

He is involved in the project Ammogen which aims to design, build, commission, and operate the world’s largest and most efficient ammonia-to-hydrogen conversion unit of its kind. Based on innovative technology developed by H2SITE. Ammogen will deliver 200 kg/day of transport-grade hydrogen to an existing and co-located hydrogen refuelling station at Tyseley Energy Park.He is also working as a Project Manager of a consortium of 12 industrial and academic partners in the EU H2020 GreenFlexJET project (€19m). The GreenFlexJET project is constructing a pre-commercial demonstration plant to produce advanced aviation biofuel (bio-jet fuel) from waste vegetable oil and organic solid waste biomass, demonstrating the integration of transesterification, hydrodeoxygenation and hydrocracking/isomerisation, and Thermo-Catalytic Reforming combined with hydrogen separation through Pressure Swing Adsorption to produce fully equivalent jet fuel. Artur has published over 30 scientific articles in journals and books and has wide-ranging research interests in chemical engineering with a particular focus on hydrogen production and the application of high-temperature solid oxide cells. Artur completed his PhD in 2007 at the Koszalin University of Technology, Poland. He joined the Centre for Fuel Cells and Hydrogen Research at the School of Chemical Engineering at the University of Birmingham in June 2008. He has been working on the development and evaluation of solid oxide cells (stacks and cells). He took part in several international projects related to fuel cell technology and hydrogen production using electrochemical, physicochemical, and biological methods. His recent work focuses on hydrogen production, transportation and storage, materials for solid oxide cells and biofuels.