If you are a truck manufacturer dealing with high fuel cell replacement costs — this project developed MEAs that target a 20,000h lifetime. This ensures vehicles stay on the road longer with fewer maintenance stops.
High-Durability Fuel Cell Components for Heavy-Duty Electric Trucks
Imagine the heart of a hydrogen truck as a sandwich of special layers. This project redesigns those layers so they don't wear out as quickly and cost less to make. It's like upgrading a battery to last much longer while using fewer expensive precious metals.
What needed solving
Heavy-duty fuel cells are currently too expensive and don't last long enough for commercial trucking. High platinum costs and rapid degradation of membrane electrode assemblies increase the total cost of ownership.
What was built
Developed high-performance MEAs featuring intermetallic electrocatalysts, modified carbon supports, and a low-cost single-layer gas diffusion layer.
Who needs this
Who can put this to work
If you are a chemical company dealing with high platinum costs — this project developed intermetallic electrocatalysts that aim for 0.3 g Pt/kW or below. This reduces the amount of expensive raw materials needed per unit.
If you are a component supplier dealing with complex multi-layer manufacturing — this project developed a new, lower cost single-layer gas diffusion layer. This simplifies the production process and lowers the bill of materials.
Quick answers
How does this project reduce the cost of fuel cell stacks?
It targets cost reduction through the development of a lower cost single-layer gas diffusion layer and by reducing platinum loading to 0.3 g Pt/kW or below.
Is this technology ready for industrial scale production?
The project involves a European supply chain of materials and components producers and an OEM stack developer, validating components at the cell and short stack level.
What is the IP or licensing potential for the catalysts?
Based on available project data, the project has developed novel intermetallic electrocatalysts and modified carbon supports with improved stability and activity.
What is the expected operational lifespan of the developed components?
The project aims to meet a lifetime target of 20,000h for heavy-duty vehicle applications.
How is the new technology integrated into existing truck systems?
The components are designed in tandem to ensure compatibility and lowest interface resistance, specifically tuned to bipolar plate flow-field geometry.
Who built it
The consortium is heavily industry-driven with a 69% industry ratio, comprising 13 partners across 5 countries. The presence of 9 industrial partners, including 2 SMEs and an OEM stack developer, indicates a strong focus on commercial viability and supply chain integration rather than pure academic research.
Contact CNRS (France) for technical specifications on MEA durability.
Talk to the team behind this work.
Contact SciTransfer to connect with the HIGHLANDER consortium for licensing opportunities.