| Literature DB >> 33997649 |
Jia Zhu1, Zhihui Hu1,2, Chaoyun Song3, Ning Yi4, Zhaozheng Yu1, Zhendong Liu1,5, Shangbin Liu1,6, Mengjun Wang7, Michael Gregory Dexheimer1, Jian Yang8, Huanyu Cheng1,4,6,8.
Abstract
The ultimate application of bio-integrated, stretchable electronics hinges on the indispensable modules of stretchable wireless data transmission and power supplies. While radiofrequency (RF) antennas and rectennas could enable wireless communication and RF energy harvesting in the far-field, their performance deteriorates because of the frequency detuning from mechanical deformations. Here, stretchable wideband antennas and rectennas are introduced to robustly operate and combine received RF power over their wideband upon mechanical deformations. Devices with stretchable wideband antennas and rectennas create application opportunities such as self-powered systems, remote monitoring of the environment, and clean energy. A comprehensive set of manufacturing schemes, device components, and theoretical design tools for the stretchable wideband antennas and rectennas is reported. A stretchable wideband rectenna integrated with various functional sensing modules and its demonstration with enhanced effective rectenna efficiency over the state-of-the-art by 10-100 times illustrates a system-level example of this technology.Entities:
Keywords: Laser-induced graphene-based electronics; RF energy harvesting; Self-powered systems; Stretchable wideband dipole antennas; Stretchable wideband rectennas
Year: 2021 PMID: 33997649 PMCID: PMC8117448 DOI: 10.1016/j.mtphys.2021.100377
Source DB: PubMed Journal: Mater Today Phys ISSN: 2542-5293