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近年来,柔性/可穿戴酶燃料电池领域取得了新进展。

Recent advancements in the field of flexible/wearable enzyme fuel cells.

机构信息

Department of Applied Chemistry, ZHCET, Aligarh Muslim University, Aligarh, 202002, India.

Department of Chemistry, Carnegie Mellon University, USA.

出版信息

Biosens Bioelectron. 2022 Oct 15;214:114545. doi: 10.1016/j.bios.2022.114545. Epub 2022 Jul 6.

Abstract

This review article focusses on new advances in the field of enzyme fuel cells (EFCs), especially, on flexible materials which can be used to make flexible EFCs for wearable devices, three-dimensional (3D) printed structures to prepare electrodes for EFCs and micro/nano electromechanical structures (MEMS/NEMS) to fabricate micro-EFCs. Particular attention is given to newly developed approaches to obtain efficient electrodes for harvesting energy via EFCs. This review article explains the various attributes of these recently developing technologies and their ability to mitigate the energy requirements of flexible/wearable bioelectronic devices. Besides discussing key milestones achieved, this perspective review article also emphasizes the main hurdles that are currently impeding the realization of flexible/wearable EFCs. We have also emphasized on the major hurdles related to the flexible materials required to fabricate wearable EFCs, suitable 3D printing techniques required, and MEMS and NEMS to fabricate micro-EFCs. In all the recently developed techniques, there are some common issues like stability, low power output, mechanical strength and flexibility. This review article also provides various routes to mitigate these issues. The main aim of this perspective article is to develop curiosity among the researchers of various fields to team up in order to address the huge challenges that restrict the real-world application of flexible/wearable EFCs. Such collaboration is important to harness the full potential of EFCs. It is requested to read this review article with supporting information to get the complete essence.

摘要

这篇综述文章重点介绍了酶燃料电池(EFCs)领域的新进展,特别是可用于制造用于可穿戴设备的柔性 EFC 的柔性材料、用于 EFC 电极制备的三维(3D)打印结构以及用于制造微 EFC 的微/纳机电结构(MEMS/NEMS)。特别关注了通过 EFC 获得高效电极以收集能量的新开发方法。本文解释了这些最近发展的技术的各种特性及其减轻柔性/可穿戴生物电子设备能源需求的能力。除了讨论所取得的重要里程碑外,本观点综述文章还强调了目前阻碍柔性/可穿戴 EFC 实现的主要障碍。我们还强调了与制造可穿戴 EFC 所需的柔性材料、所需的合适 3D 打印技术以及制造微 EFC 的 MEMS 和 NEMS 相关的主要障碍。在所有最近开发的技术中,存在一些共同的问题,例如稳定性、低功率输出、机械强度和灵活性。本文还提供了减轻这些问题的各种途径。本文的主要目的是激发各个领域的研究人员的兴趣,以合作的方式来应对限制柔性/可穿戴 EFC 实际应用的巨大挑战。这种合作对于充分发挥 EFC 的潜力很重要。建议在阅读本文时参考支持信息,以获得完整的精华内容。

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