Imagine a microscopic, invisible shield that kills germs, viruses, and fungi on contact. Instead of spraying chemicals that wash away, this technology bonds a thin layer of protective minerals to surfaces like door handles or face masks. It works like a slow-release battery of protection that stays effective even after being heated up to 450 degrees Celsius.
High-traffic surfaces and porous materials are breeding grounds for pathogens, and current chemical disinfectants are often temporary or toxic. There is a need for permanent, non-toxic, and heat-resistant antimicrobial surfaces.
A platform of antimicrobial coatings including PVD-deposited ceramic matrices and UV-cured lacquers. These were applied to demonstrators such as air filters, face masks, and solid handles.
If you are a medical textile manufacturer dealing with contamination of protective clothing and face masks — this project developed virucidal coatings that are effective against SARS-CoV-2. These coatings can be applied to textiles and porous filters to increase safety for wearers.
If you are a public infrastructure provider dealing with high-touch surface contamination on handrails and door knobs — this project developed thin coatings under 200 nanometers. These surfaces inhibit the proliferation of bacteria and viruses in high-traffic environments.
If you are an air filter producer dealing with microbial growth in filtration units — this project developed silver nanocluster doped composite coatings. These allow for thermal regeneration at temperatures up to 450 degrees Celsius without losing antimicrobial properties.
Based on available project data, specific pricing or cost-per-unit figures are not provided.
Yes, the project specifically uses industrially scalable technologies such as Physical Vapour Deposition (PVD), UV cured lacquers, and sol-gel to move from TRL3 to TRL6.
Based on available project data, the specific licensing terms are not listed, but the project involves a research-industry cocreation approach with 5 industrial partners.
The project focuses on green technology to provide toxic- and pollutant-free solutions and uses bio-based materials to support circular economy practices.
The coatings can withstand temperatures up to 450 degrees Celsius without altering their antimicrobial properties, making them suitable for thermal regeneration.
The consortium is highly balanced for commercialization, featuring a 50% industry ratio with 5 companies (including 2 SMEs) and 4 academic/research institutions. This structure ensures that the transition from TRL3 to TRL6 is guided by market needs ('Products Ask') rather than just academic curiosity, with a strong presence across 5 European countries.
Contact Politecnico di Torino regarding the NANOBLOC PVD and wet chemistry coating platforms.
Contact us to connect with the NANOBLOC consortium for licensing or pilot integration.
