Imagine a hydrogen tank that is as strong as steel but light as plastic, and can be completely melted down and reused when it's old. Instead of baking these tanks in giant ovens for hours, they use a special light-curing resin that sets instantly. It's like switching from a slow-bake oven to a fast UV-cure nail polish for industrial-sized fuel tanks.
Current hydrogen storage tanks are expensive to make, difficult to recycle, and require energy-intensive curing processes. They also lack real-time health monitoring, leading to shorter usable lifetimes and higher safety risks.
A high-speed filament winding process using UV-curable thermoplastic resin and embedded AI-driven sensors for structural health monitoring.
If you are a vehicle manufacturer dealing with high fuel tank costs and waste — this project developed a recyclable composite tank that reduces whole lifecycle costs by at least 30%. It increases safety and lifetime by at least 50% compared to current solutions.
If you are an aviation supplier dealing with strict weight limits and safety risks — this project developed a high-strength carbon fiber tank with embedded sensors for real-time health monitoring. This ensures higher reliability and longer service life for aviation tubes.
If you are a station operator dealing with expensive above-ground storage maintenance — this project developed a 100% recyclable storage system. It uses a fire-resistant, self-healing resin that lowers the carbon footprint and operational costs.
The project aims to reduce whole lifecycle costs by at least 30% through energy-efficient manufacturing (no high-temperature ovens) and a 100% recycling process for carbon fibers and resin.
The project is developing four industrial demonstrators at TRL4, covering trucks, buses, aviation, and above-ground stations, with plans to move toward TRL 8.
Based on available project data, specific licensing terms are not listed, but the consortium includes 10 industrial partners who will validate the demonstrators.
Safety is increased by at least 50% through the use of fire-resistant resins and embedded sensors that monitor structural health and damage in real-time using AI.
The project runs from 2024-01-01 to 2027-12-31, focusing on moving from TRL4 to higher readiness levels.
The project is heavily industry-driven, with 67% of the 15 partners coming from the industrial sector (10 companies), including 4 SMEs. This high industry ratio, combined with partners across 7 countries, suggests a strong focus on commercial viability and direct application in the transport and energy sectors rather than pure academic research.
Contact Institut Mines-Telecom in France for technical specifications on the UV polymerization process.
Contact us to connect with the ECOHYDRO consortium for TRL 4-8 transition opportunities.
