| Literature DB >> 29411908 |
Xiandi Wang1,2, Yufei Zhang1,2,3, Xiaojia Zhang1,2, Zhihao Huo1,2, Xiaoyi Li1,2, Miaoling Que1,2, Zhengchun Peng4, Hui Wang3, Caofeng Pan1,2,4.
Abstract
Recently, the quest for new highly stretchable transparent tactile sensors with large-scale integration and rapid response time continues to be a great impetus to research efforts to expand the promising applications in human-machine interactions, artificial electronic skins, and smart wearable equipment. Here, a self-powered, highly stretchable, and transparent triboelectric tactile sensor with patterned Ag-nanofiber electrodes for detecting and spatially mapping trajectory profiles is reported. The Ag-nanofiber electrodes demonstrate high transparency (>70%), low sheet resistance (1.68-11.1 Ω □-1 ), excellent stretchability, and stability (>100% strain). Based on the electrode patterning and device design, an 8 × 8 triboelectric sensor matrix is fabricated, which works well under high strain owing to the effect of the electrostatic induction. Using cross-locating technology, the device can execute more rapid tactile mapping, with a response time of 70 ms. In addition, the object being detected can be made from any commonly used materials or can even be human hands, indicating that this device has widespread potential in tactile sensing and touchpad technology applications.Entities:
Keywords: metallized nanofiber; self-powered; stretchable; tactile sensor; transparent
Year: 2018 PMID: 29411908 DOI: 10.1002/adma.201706738
Source DB: PubMed Journal: Adv Mater ISSN: 0935-9648 Impact factor: 30.849