Imagine a security scanner that can find hidden items without ever touching you or taking a picture of your body. It uses low-frequency sound waves and special sensors to 'feel' the difference between a human and a hidden object. It's like using a high-tech sonar to spot things hidden under clothes or inside the body without invading anyone's privacy.
Security agencies struggle to detect contraband in body cavities and under clothes without violating privacy or risking staff safety through physical contact. Current imaging technologies often clash with intimacy protections and human rights regulations.
A series of blast-proof prototypes combining infrasound, mm-wave, and THz sensors, integrated into a cabin with automated disinfection and bio-aerosol sampling capabilities.
If you are a border agency dealing with smuggling of drugs and weapons — this project developed blast-proof prototypes that detect concealed items without physical contact. This increases staff safety and improves the traveler experience by removing the need to undress.
If you are a security firm dealing with mass event crowds — this project developed non-imaging interrogation technology that identifies illicit goods. This allows for fast screening in arenas while maintaining absolute respect for privacy.
If you are a prison administrator dealing with contraband entering facilities — this project developed a system using infrasound and mm-wave sensors. This provides a non-invasive way to detect hidden items in body cavities.
Based on available project data, specific pricing or cost details for the prototypes are not provided.
The project aimed for TRL 7-8, demonstrating prototypes in operational environments such as EU external borders in Spain, Greece, Romania, and Finland, suggesting it is ready for scaling.
Based on available project data, specific patent or licensing terms are not mentioned, though the project involves 15 partners across 9 countries.
Yes, the project specifically mentions that the CE mark according to EU safety directives will be applied and blast tests were conducted according to ASIAD regulations.
The technology is integrated into a bio-safe blast-proof cabin equipped with a Counterfog disinfection system and a Bioaerosol Fast Sampler (BIAFTS).
The consortium is well-balanced for technology transfer, consisting of 15 partners across 9 countries. With a 20% industry ratio (3 industrial partners, including 3 SMEs), the project bridges the gap between academic research (4 universities, 4 research centers) and commercial application, ensuring that the developed prototypes are grounded in operational needs.
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Contact us to explore licensing opportunities for the non-contact screening prototypes.
