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Inflammation-free, gas-permeable, lightweight, stretchable on-skin electronics with nanomeshes
- Inflammation-free, gas-permeable, lightweight, stretchable on-skin electronics with nanomeshes
- Miyamoto, Akihito; Lee, Sungwon; Cooray, Nawalage Florence; Lee, Sunghoon; Mori, Mami; Matsuhisa, Naoji; Jin, Hnbit; Yoda, Leona; Yokota, Tomoyuki; Itoh, Akira; Sekino, Masaki; Kawasaki, Hiroshi; Ebihara, Tamotsu; Amagai, Masayuki; Someya, Takao
- DGIST Authors
- Lee, Sungwon
- Issue Date
- Nature Nanotechnology, 12(9), 907-+
- Article Type
- Contact Allergy; Elastic Conductors; Electrolytes; Epidermal Electronics; Films; Large Area; Matrix; Pressure; Sensors
- Thin-film electronic devices can be integrated with skin for health monitoring and/or for interfacing with machines. Minimal invasiveness is highly desirable when applying wearable electronics directly onto human skin. However, manufacturing such on-skin electronics on planar substrates results in limited gas permeability. Therefore, it is necessary to systematically investigate their long-term physiological and psychological effects. As a demonstration of substrate-free electronics, here we show the successful fabrication of inflammation-free, highly gas-permeable, ultrathin, lightweight and stretchable sensors that can be directly laminated onto human skin for long periods of time, realized with a conductive nanomesh structure. A one-week skin patch test revealed that the risk of inflammation caused by on-skin sensors can be significantly suppressed by using the nanomesh sensors. Furthermore, a wireless system that can detect touch, temperature and pressure is successfully demonstrated using a nanomesh with excellent mechanical durability. In addition, electromyogram recordings were successfully taken with minimal discomfort to the user.
- Nature Publishing Group
- Related Researcher
Lee, Sung Won
Bio-Harmonized Device Lab
Ultrathin Device Fabrication; Bio sensors Development; Functional Material Development
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- Department of Emerging Materials ScienceBio-Harmonized Device Lab1. Journal Articles
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