| Literature DB >> 32255615 |
Liyun Ma1,2,3, Mengjuan Zhou2, Ronghui Wu2,3, Aniruddha Patil3, Hao Gong3, Shuihong Zhu3, Tingting Wang1, Yifan Zhang2,3, Shen Shen1, Kai Dong1, Likun Yang3, Jun Wang2, Wenxi Guo3, Zhong Lin Wang1,4.
Abstract
Textile-based triboelectric nanogenerators (TENG) that can effectively harvest biomechanical energy and sense multifunctional posture and movement have a wide range of applications in next-generation wearable and portable electronic devices. Hence, bulk production of fine yarns with high triboelectric output through a continuous manufacturing process is an urgent task. Here, an ultralight single-electrode triboelectric yarn (SETY) with helical hybridized nano-micro core-shell fiber bundles is fabricated by a facile and continuous electrospinning technology. The obtained SETY device exhibits ultralightness (0.33 mg cm-1), extra softness, and smaller size (350.66 μm in diameter) compared to those fabricated by conventional fabrication techniques. Based on such a textile-based TENG, high energy-harvesting performance (40.8 V, 0.705 μA cm-2, and 9.513 nC cm-2) was achieved by applying a 2.5 Hz mechanical drive of 5 N. Importantly, the triboelectric yarns can identify textile materials according to their different electron affinity energies. In addition, the triboelectric yarns are compatible with traditional textile technology and can be woven into a high-density plain fabric for harvesting biomechanical energy and are also competent for monitoring tiny signals from humans or insects.Entities:
Keywords: all-yarn-based; biomechanical energy harvesting; biomechanical signal sensing; electrospinning; single-electrode triboelectric yarn
Mesh:
Year: 2020 PMID: 32255615 DOI: 10.1021/acsnano.0c00524
Source DB: PubMed Journal: ACS Nano ISSN: 1936-0851 Impact factor: 15.881