Imagine clothing that can gently squeeze or press against your skin — not with clunky motors, but with the fabric itself. The yarns in this fabric are coated with special polymers that contract when you apply a small voltage, like tiny muscles woven right into the textile. Today, 95% of haptic devices just vibrate, which is crude and noisy. These textile muscles are silent, soft, and feel completely different — more like a real touch than a buzz.
Today, if you want to add touch feedback to a wearable product, you're stuck with vibration motors — the same technology in 95% of haptic devices. They're rigid, noisy, and impossible to truly integrate into fabric. Companies making VR gear, smart workwear, or assistive devices need a way to deliver realistic touch sensations through clothing that people actually want to wear all day.
The project built 5 prototype garments with integrated textile actuators made from electroactive polymer-coated yarns that contract under low voltage. These garments were tested in user evaluations and demonstrated at exhibitions. Across 31 deliverables, the team covered material science, textile construction, soft mechatronics, and human perception testing.
If you are a VR or gaming company struggling to make haptic feedback feel natural — this project developed 5 prototype garments with silent textile actuators that deliver touch sensations directly through fabric. Unlike the vibration motors used in 95% of current haptic devices, these feel like actual pressure on skin and can be woven into any garment shape.
If you are an assistive technology company looking for ways to communicate through touch — this project built wearable garments with textile muscles that can create distinct pressure patterns on the body. The actuators are silent and lightweight, making them practical for all-day wear in real-world settings, unlike bulky vibration-based alternatives.
If you are a workwear manufacturer looking to add smart alerts to protective clothing — this project developed electroactive fabric actuators that can signal the wearer through gentle pressure without any noise. With 5 tested prototype garments and a consortium spanning 4 countries, the technology is ready for integration into industrial and ergonomic applications.
The project does not publish licensing fees or per-unit costs. The technology was developed under an EU RIA grant with 6 partners including 2 SMEs. Interested companies should contact the consortium directly to discuss licensing terms or co-development agreements.
The project specifically worked on manufacturability of electroactive fabrics and investigated different textile morphologies and producibility. However, 5 prototype garments were built for evaluation — industrial-scale production has not been demonstrated yet. Scaling would require partnership with textile manufacturers.
IP is shared among the 6 consortium partners across 4 countries (DE, FR, NL, SE), coordinated by Universiteit Twente. Standard EU RIA rules apply, meaning each partner typically owns the IP they generated. Licensing negotiations would involve the relevant IP holders.
According to the project data, 95% of wearable haptic applications currently use vibration motors, which are hard, bulky, and noisy. These textile muscles are silent, use low driving voltages, are lightweight and soft, and can be seamlessly integrated into garments — a fundamentally different approach.
The project delivered 5 prototype garments designed for user evaluations and demonstrations at exhibitions. The project ran from 2019 to 2023 and produced 31 deliverables covering everything from material development to garment integration. This is beyond lab-stage but not yet commercial.
The project explored applications in ergonomics, wellness, gaming, inclusion, and social communication. The 5 prototype garments were built for a single use case and used in user evaluations. Based on available project data, specific evaluation results are not detailed in the objective.
The WEAFING consortium has 6 partners from 4 countries (Germany, France, Netherlands, Sweden), with Universiteit Twente coordinating from the Netherlands. The mix is 4 universities and 2 industry partners, both of which are SMEs — giving a 33% industry ratio. This academic-heavy team is strong on research and prototyping but may need additional manufacturing and commercialization partners to bring the technology to market. The involvement of 2 SMEs suggests some commercial interest, and the multi-country spread provides access to several European textile and wearable technology markets.
Universiteit Twente (NL) — use SciTransfer's coordinator lookup to find the project lead's contact details
Want to explore licensing this textile haptics technology or find out if it fits your product roadmap? SciTransfer can arrange a direct introduction to the research team.
