George W. Woodruff School of Mechanical Engineering, Institute for Electronics and Nanotechnology, Georgia Institute of Technology, Atlanta, GA, 30332, USA.
Department of Mechanical Engineering, University of South Alabama, Mobile, AL, 36608, USA.
Adv Mater. 2020 Apr;32(15):e1901924. doi: 10.1002/adma.201901924. Epub 2019 Jul 8.
Recent advances in soft materials and system integration technologies have provided a unique opportunity to design various types of wearable flexible hybrid electronics (WFHE) for advanced human healthcare and human-machine interfaces. The hybrid integration of soft and biocompatible materials with miniaturized wireless wearable systems is undoubtedly an attractive prospect in the sense that the successful device performance requires high degrees of mechanical flexibility, sensing capability, and user-friendly simplicity. Here, the most up-to-date materials, sensors, and system-packaging technologies to develop advanced WFHE are provided. Details of mechanical, electrical, physicochemical, and biocompatible properties are discussed with integrated sensor applications in healthcare, energy, and environment. In addition, limitations of the current materials are discussed, as well as key challenges and the future direction of WFHE. Collectively, an all-inclusive review of the newly developed WFHE along with a summary of imperative requirements of material properties, sensor capabilities, electronics performance, and skin integrations is provided.
近年来,软物质和系统集成技术的进步为设计各种用于先进人类医疗保健和人机接口的可穿戴柔性混合电子设备(WFHE)提供了独特的机会。将柔软和生物相容的材料与小型化无线可穿戴系统进行混合集成无疑是一个吸引人的前景,因为成功的设备性能需要高度的机械灵活性、传感能力和用户友好的简单性。在这里,提供了用于开发先进 WFHE 的最新材料、传感器和系统封装技术。讨论了机械、电气、物理化学和生物相容性特性的细节,并结合医疗保健、能源和环境中的集成传感器应用进行了讨论。此外,还讨论了当前材料的局限性,以及 WFHE 的关键挑战和未来方向。总的来说,对新开发的 WFHE 进行了全面的回顾,并对材料性能、传感器功能、电子性能和皮肤集成的必要要求进行了总结。