An iterative approach between system, sub systems and components will be applied to define its cost, performance and ecological targets. This will be accompanied by a design to cost exercise as part of the life cycle analysis.
Efficiency greater than 75% will be achieved by:
- developing more effective electrodes
- adapting highly conductive new membrane materials
- increasing the operating temperature for increased kinetics
- lowering the hydrogen cross over using denser membranes
- increasing the system pressure to reduce pump losses
A stack life time towards 40 000 h will be achieved by:
- reducing hydrogen cross over reducing chemical degradation by peroxides
- developing more stable catalysts, porous current collectors and bipolar plates
- designing stack which minimizes temperature and mechanical stress gradients
- developing high efficient advanced power electronic minimising load stress for the electrolyser
Reducing system costs to EURO 5,000/Nm3 is a major driving force and will be addressed by:
- replacing/reducing of expensive materials (PFSA membrane, Pt loading, titanium)
- increasing the performance of components and sub-systems
- simplifying the system
- developing components suitable for mass production
The consortium is confident that the dissemination and exploitation of the project will create considerable impact especially in terms of Europe’s energy security, reducing greenhouse gas emission and increasing Europe’s competitiveness.
Funded under 7th FWP (Seventh Framework Programme)
