Tseng Chia-Ping, Silberg Jonathan J, Bennett George N, Verduzco Rafael
Department of Chemical and Biomolecular Engineering, Rice University, Houston, Texas 77005, United States.
Department of Biosciences, Rice University, Houston, Texas 77005, United States.
ACS Macro Lett. 2020 Nov 17;9(11):1590-1603. doi: 10.1021/acsmacrolett.0c00573. Epub 2020 Nov 5.
Bioelectronics brings together the fields of biology and microelectronics to create multifunctional devices with the potential to address longstanding technological challenges and change our way of life. Microbial electrochemical devices are a growing subset of bioelectronic devices that incorporate naturally occurring or synthetically engineered microbes into electronic devices and have broad applications including energy harvesting, chemical production, water remediation, and environmental and health monitoring. The goal of this Viewpoint is to highlight recent advances and ongoing challenges in the rapidly developing field of microbial bioelectronic devices, with an emphasis on materials challenges. We provide an overview of microbial bioelectronic devices, discuss the biotic-abiotic interface in these devices, and then present recent advances and ongoing challenges in materials related to electron transfer across the abiotic-biotic interface, microbial adhesion, redox signaling, electronic amplification, and device miniaturization. We conclude with a summary and perspective of the field of microbial bioelectronics.
生物电子学将生物学和微电子学领域结合在一起,以创造出具有解决长期技术挑战和改变我们生活方式潜力的多功能设备。微生物电化学设备是生物电子设备中一个不断发展的子集,它将天然存在的或合成工程改造的微生物纳入电子设备,具有广泛的应用,包括能量收集、化学品生产、水修复以及环境和健康监测。本观点文章的目的是突出微生物生物电子设备快速发展领域的最新进展和持续面临的挑战,重点是材料方面的挑战。我们概述了微生物生物电子设备,讨论了这些设备中的生物 - 非生物界面,然后介绍了与跨非生物 - 生物界面的电子转移、微生物粘附、氧化还原信号传导、电子放大和设备小型化相关材料的最新进展和持续面临的挑战。我们最后对微生物生物电子学领域进行了总结和展望。