If you are an assistive device manufacturer struggling to serve the estimated 2.5 million deafblind people in the EU — this project developed a wearable haptic interface with sensor arrays, object recognition, and smart textiles that translates environmental and language cues into touch signals. Three prototype iterations were tested with real users across 8 partner organizations in 7 countries.
Wearable Haptic Suit That Lets Deafblind People Sense and Communicate Through Touch
Imagine wearing a vest that taps and vibrates on your skin to tell you what's around you — who's nearby, what objects are in your path, even what someone is saying. That's what SUITCEYES built for people who are both deaf and blind. It combines cameras, distance sensors, and machine learning to read the environment, then translates all that information into touch patterns on smart fabric. Think of it like subtitles for the real world, except delivered through your skin instead of a screen.
What needed solving
An estimated 2.5 million people in the EU live with combined vision and hearing loss, yet mainstream ICT products almost never address their needs. Existing assistive devices are limited, expensive, and rarely combine environmental sensing with communication in a single wearable. This leaves a large underserved market where care costs are high and personal independence is severely restricted.
What was built
The project built a wearable haptic communication system combining smart textiles with embedded sensors, cameras for face and object recognition, machine learning, and gamification-based learning. Concrete outputs include 3 iterations of working demonstrators, a final integrated sensor-haptic prototype (HIPI), sensor arrays with Raspberry Pi, object recognition camera modules, electromechanical textile driving units, and prototypes validated in psychophysical user studies.
Who needs this
Who can put this to work
If you are a smart textile company looking for proven applications beyond fitness tracking — this project built electromechanical driving and control units integrated into fabric that deliver precise haptic feedback through touch, heat, and olfactory channels. The textile prototypes went through multiple iterations with psychophysical testing, giving you validated technical specifications for commercialization.
If you run care facilities or develop rehab technology for elderly residents losing both vision and hearing — this project created a wearable system that helps users perceive their surroundings and communicate without sight or sound. The gamification-based learning approach means users can gradually master the haptic language at their own pace, reducing dependence on constant caregiver assistance.
Quick answers
What would it cost to license or adopt this technology?
The project was funded with EUR 2,359,963 in EU contribution as a Research and Innovation Action. Licensing terms would need to be negotiated directly with the coordinator (Högskolan i Borås, Sweden) and the consortium. Since this is publicly funded research, results may be available under favorable academic licensing conditions.
Can this scale to industrial production?
The project produced 3 iterations of working demonstrators and separate prototypes for user studies, showing progressive maturity. However, with only 1 industrial partner (12% industry ratio) in the consortium of 8, scaling to mass production would require additional manufacturing partnerships and supply chain development.
What is the IP situation — who owns the results?
IP is shared among the 8 consortium partners across 7 countries, with the coordinator Högskolan i Borås (Sweden) likely holding primary rights. As an EU-funded RIA project, the consortium members jointly own results they generated. Specific licensing arrangements would need to be clarified with the coordinator.
How mature is the technology — is it ready to deploy?
The project delivered 3 full demonstrator iterations, a final prototype sensor system (HIPI) integrated with the haptic interface, and prototypes tested in psychophysical user studies. This places it at a late prototype stage — functional and user-tested, but not yet a commercial product ready for deployment.
Who was involved in building this?
The consortium included 8 partners from 7 countries (DE, EL, FR, NL, PL, SE, UK), with 5 universities, 1 research organization, 1 industry partner, and 1 other organization. The academic-heavy team (only 1 SME) means strong research foundations but a commercialization partner would be needed.
What specific technical components were delivered?
Key deliverables include an initial sensor system with distance sensors and Raspberry Pi, a camera-based object recognition module, the final HIPI sensor-haptic interface prototype, electromechanical driving and control units for the textile, and prototypes tested with one and two touch dimensions. The project produced 49 deliverables total, including 11 demonstrator-type outputs.
Does this comply with accessibility regulations?
The project was informed by disability studies and developed through a user-centered iterative design process with frequent evaluations. It addresses inclusion in social life and employment, aligning with EU accessibility directives. Based on available project data, specific regulatory certification was not part of the project scope.
Who built it
The SUITCEYES consortium of 8 partners across 7 countries (DE, EL, FR, NL, PL, SE, UK) is heavily academic — 5 universities and 1 research organization dominate, with only 1 industrial partner and 1 SME (12% industry ratio). This signals strong scientific depth but a clear gap in commercialization capability. The coordinator, Högskolan i Borås in Sweden, is a university — not a product company. For any business looking to adopt this technology, expect to invest in productization, manufacturing partnerships, and regulatory certification that the current consortium was not set up to deliver. The geographic spread across 7 EU countries does offer a ready-made network for multi-market pilot testing.
- HOEGSKOLAN I BORASCoordinator · SE
- ETHNIKO KENTRO EREVNAS KAI TECHNOLOGIKIS ANAPTYXISparticipant · EL
- STICHTING VUparticipant · NL
- HOCHSCHULE OFFENBURGparticipant · DE
- Harpo Sp. z o. o.participant · PL
- UNIVERSITY OF LEEDSparticipant · UK
- TECHNISCHE UNIVERSITEIT EINDHOVENparticipant · NL
Coordinator is Högskolan i Borås (University of Borås), Sweden. Use SciTransfer's coordinator lookup to find the project lead's direct contact.
Talk to the team behind this work.
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