Key Laboratory of Materials Physics, Ministry of Education, School of Physics and Microelectronics, Zhengzhou University, Zhengzhou 450001, China.
Biosensors (Basel). 2023 Mar 17;13(3):393. doi: 10.3390/bios13030393.
Epidermal electronics offer an important platform for various on-skin applications including electrophysiological signals monitoring and human-machine interactions (HMI), due to their unique advantages of intrinsic softness and conformal interfaces with skin. The widely used nondegradable synthetic materials may produce massive electronic waste to the ecosystem and bring safety issues to human skin. However, biomaterials extracted from nature are promising to act as a substitute material for the construction of epidermal electronics, owing to their diverse characteristics of biocompatibility, biodegradability, sustainability, low cost and natural abundance. Therefore, the development of natural biomaterials holds great prospects for advancement of high-performance sustainable epidermal electronics. Here, we review the recent development on different types of biomaterials including proteins and polysaccharides for multifunctional epidermal electronics. Subsequently, the applications of biomaterials-based epidermal electronics in electrophysiological monitoring and HMI are discussed, respectively. Finally, the development situation and future prospects of biomaterials-based epidermal electronics are summarized. We expect that this review can provide some inspirations for the development of future, sustainable, biomaterials-based epidermal electronics.
表皮电子学为各种表皮应用提供了一个重要平台,包括电生理信号监测和人机交互(HMI),这要归功于其与皮肤具有内在柔软性和贴合界面的独特优势。广泛使用的不可降解合成材料可能会对生态系统产生大量电子废物,并给人类皮肤带来安全问题。然而,从自然界中提取的生物材料有望替代表皮电子学的构建材料,因为它们具有生物相容性、可生物降解性、可持续性、低成本和天然丰富性等多种特性。因此,开发天然生物材料为高性能可持续表皮电子学的发展带来了广阔的前景。在这里,我们综述了不同类型的生物材料,包括蛋白质和多糖,用于多功能表皮电子学。随后,分别讨论了基于生物材料的表皮电子学在电生理监测和 HMI 中的应用。最后,总结了基于生物材料的表皮电子学的发展现状和未来展望。我们希望本综述能为未来可持续的基于生物材料的表皮电子学的发展提供一些启示。