4.7 Review

Materials, Electrical Performance, Mechanisms, Applications, and Manufacturing Approaches for Flexible Strain Sensors

Journal

NANOMATERIALS
Volume 11, Issue 5, Pages -

Publisher

MDPI
DOI: 10.3390/nano11051220

Keywords

flexible electronics; strain sensors; flexible materials; implantable sensors

Funding

  1. National Key R&D Program of China [2018YFE0204600]
  2. Key-Area Research and Development Programof Guang Dong Province [2019B010131001]
  3. Shenzhen Key Project for Basic Research [JCYJ20200109140822796]

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With recent advancements in flexible and wearable electronic materials, the next generation of skin-mountable and implantable smart devices have great potential for lifestyle modification. Flexible strain sensors, as a core component of wearable electronics, play a crucial role in design and optimization. Efforts have been made to enhance the performance of flexible strain sensors through material design, manufacturing approaches, and various applications.
With the recent great progress made in flexible and wearable electronic materials, the upcoming next generation of skin-mountable and implantable smart devices holds extensive potential applications for the lifestyle modifying, including personalized health monitoring, human-machine interfaces, soft robots, and implantable biomedical devices. As a core member within the wearable electronics family, flexible strain sensors play an essential role in the structure design and functional optimization. To further enhance the stretchability, flexibility, sensitivity, and electricity performances of the flexible strain sensors, enormous efforts have been done covering the materials design, manufacturing approaches and various applications. Thus, this review summarizes the latest advances in flexible strain sensors over recent years from the material, application, and manufacturing strategies. Firstly, the critical parameters measuring the performances of flexible strain sensors and materials development contains different flexible substrates, new nano- and hybrid- materials are introduced. Then, the developed working mechanisms, theoretical analysis, and computational simulation are presented. Next, based on different material design, diverse applications including human motion detection and health monitoring, soft robotics and human-machine interface, implantable devices, and biomedical applications are highlighted. Finally, synthesis consideration of the massive production industry of flexible strain sensors in the future; different fabrication approaches that are fully expected are classified and discussed.

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