GENE ONLINE|News &
Opinion
Blog

2026-07-16|

Tufts University Engineers Develop Thread-Based Integrated Circuits for Wearable Textiles

by GOAI
Share To

Engineers at Tufts University have developed a new class of wearable electronics that utilize thread-based integrated circuits rather than traditional rigid, planar chips. These flexible circuits allow the technology to bend, coil, and stretch, enabling the devices to conform to the contours of the human body. This platform allows the electronics to be sewn directly into clothing or wrapped around curved surfaces, marking a shift away from the form factor of conventional wearable devices like smart rings.

The research team designed these thread-based components to integrate seamlessly into everyday items, prioritizing a free-form structure that adapts to movement. By replacing standard silicon-based hardware with these pliable materials, the engineers aim to create electronics that remain functional while maintaining the physical properties of fabric. The development represents a change in how wearable sensors and circuits interact with the wearer, moving toward materials that mimic the flexibility of textiles.

Newsflash | Powered by GeneOnline AI

Source: GO-AI-ne1

For any suggestion and feedback, please contact us.

Date: July 17, 2026

©www.geneonline.com All rights reserved. Collaborate with us: [email protected]
Author
Related Post
LATEST
UC Riverside Study Finds High-Intensity Running Does Not Reduce Lifespan in Mice
2026-08-13
New Phase-Change Material Cooling System Reduces Energy Use in Cold-Chain Logistics
2026-08-13
Syndax Pharmaceuticals CMO Nick Botwood Outlines Leadership Standards for R&D Organizations
2026-08-13
Regeneron Oncology Marketing Lead Sarah Ghosh Details Strategy for Adapting Global Pharmaceutical Narratives
2026-08-13
Christopher Savage Advocates for Long-Term Internal Growth Over Frequent Job Changes
2026-08-13
GPS Tracking Study Shows Barred Owls Occupy Northern Spotted Owl Habitats in Old-Growth Forests
2026-08-13
Researchers Identify SLK as a c-Myc Co-regulator Using Light-Triggered Proximity Labeling
2026-08-13
Scroll to Top