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Abstract
The integration of soft, conformable components and rigid microelectronics or devices is a critical frontier in stretchable hybrid device development. However, engineering interconnects capable of tolerating high-stress concentrations and preventing debonding failures remain a key challenge. Here a stretchable conductive interconnect derived from the liquid metal conductor with supramolecular confinement is reported, capable of reliably connecting soft and rigid parts through a simple “Heat-Press-N-Go” method. Leveraging the dynamic bonding nature of supramolecular polymers, when confined within liquid metal compartments, not only effectively stabilizes the conductive path of the stretchable interconnect, but also offers high adhesion to diverse surfaces, reaching an exceptional electrical stretchability of up to 2800%. As proof of concept, this interconnect is used to assemble wearable devices including reconfigurable stretchable circuits, multifunctional sensors, and on-skin electromyography, exhibiting high signal integrity and mechanical durability. The “Heat-Press-N-Go” chip and circuit integration offers the boundless potential to enhance the adaptability, convenience, and versatility of on-skin and wearable electronics across various applications. © 2025 Wiley-VCH GmbH.
| Original language | English |
|---|---|
| Article number | 2425264 |
| Journal | Advanced Functional Materials |
| DOIs | |
| Publication status | Online published - 6 Jan 2025 |
Funding
This study received support from the Research Grant Council of Hong Kong with a No. of CityU11307721, Shenzhen Basic Research Program with a No. of JCYJ20210324134009024, Innovation and Technology Fund with a No. of MHP/030/21, and Research Project from City University of Hong Kong with a No. of 7005875.
Research Keywords
- and wearable electronics
- liquid metal composites
- reconfigurable interconnects
- stretchable hybrid devices
RGC Funding Information
- RGC-funded
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GRF: Noncovalent Interaction Assisted Assembly and Manipulation of Liquid Metals in Supramolecular Polymers
YAO, X. (Principal Investigator / Project Coordinator)
1/01/22 → …
Project: Research
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ITF: Development of Damage-healable Structural-Color Material for Waterborne Wood Paints
YAO, X. (Principal Investigator / Project Coordinator) & Li, M. (Co-Investigator)
1/09/22 → 31/08/24
Project: Research