If you are a hospital manager dealing with high infection rates in operating rooms — this project developed nanocoatings that provide 99.99% effectiveness against pathogens. This reduces the risk of cross-contamination in the most critical medical environments.
Self-Cleaning Antimicrobial Nanocoatings for High-Traffic Public and Medical Surfaces
Imagine a transparent shield applied to door handles or railings that actively kills germs on contact. Instead of just wiping surfaces with chemicals, these coatings make the material itself hostile to viruses and bacteria. It works like a permanent invisible soap that keeps surfaces clean and safe for everyone touching them.
What needed solving
High-traffic surfaces in hospitals and public spaces act as hubs for cross-contamination of viruses and bacteria. Current cleaning methods are temporary and often fail to cover diverse materials like glass, metal, and textiles simultaneously.
What was built
A series of wide-spectrum antimicrobial nanocoatings and the pilot-scale processes to apply them to complex surfaces.
Who needs this
Who can put this to work
If you are a transport operator dealing with germs on handrails and poles — this project developed a wide-spectrum coating that works on metal and glass. This helps reduce the spread of viruses among passengers in crowded spaces.
If you are a textile producer dealing with contaminated scrubs or linens — this project developed treatments for fabrics that stop fungi and bacteria from proliferating. This adds a layer of safety to wearable medical equipment.
Quick answers
What is the expected cost or price of the solution?
Based on available project data, the specific price per unit is not mentioned, but the project explicitly lists economic viability as a core challenge to be solved.
Can this be produced at an industrial scale?
Yes, the project aims to bring these nanocoatings to pilot scale (TRL6) using pilot plant conduction.
How is the IP and licensing handled?
Based on available project data, the exploitation strategy deeply involves SMEs and uses a spill-over strategy to reach private partners.
When will this be available on the market?
The project expects the solutions to enter the market (TRL9) within 3 years after the project ends in May 2026.
How does it integrate with existing materials?
The coatings are designed to work across a range of mixed surfaces, specifically including glass, metal, and textiles.
Who built it
The consortium is heavily weighted toward commercial application, with 8 industry partners (53% ratio) and 5 SMEs. This strong industrial presence, combined with 6 research entities and 1 university across 8 countries, suggests a high focus on market transition rather than pure academic study.
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Contact us to connect with the MIRIA consortium for licensing pilot-scale nanocoatings.