| Literature DB >> 30010319 |
Yang Yang1,2,3, Gabriele Chiesura4, Bart Plovie1, Thomas Vervust1, Geert Luyckx4, Joris Degrieck4, Tsuyoshi Sekitani2, Jan Vanfleteren1.
Abstract
Sensory polymer composites are highly desirable for applications such as in situ and real-time production processes and structural health monitoring, and for technologies that include human-machine interfaces for the next generation of Internet of Things. However, the development of these materials is still in its infancy: these materials have been reported, but the large-scale fabrication of polymer composites with versatile and customizable sensing capabilities has yet to be demonstrated. Here, we report on a scalable fabrication strategy that enables such materials by designing and integrating PCB technology-inspired large-area flexible sensor matrices into polymer composites. The integrated sensor matrices successfully monitored in situ the production processes and structural health of an industrial polymer composite: from the application of vacuum, resin flow and polymerization, production defects, and temperature distribution. Our results demonstrate that the proposed strategy is a simple and effective solution as a distributed monitoring platform for polymer composites and shows the potential toward next generation of sensory polymer composites.Entities:
Keywords: PCB technology; flexible electronics; process monitoring; sensors; structural health monitoring
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Year: 2018 PMID: 30010319 DOI: 10.1021/acssensors.8b00425
Source DB: PubMed Journal: ACS Sens ISSN: 2379-3694 Impact factor: 7.711