Bioiontronics

IF 42.7
Yujia Zhang  (, ), Hagan Bayley
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引用次数: 0

Abstract

Bioiontronics is an interdisciplinary field emerging from a confluence of breakthroughs in iontronics and bioengineering. Bioiontronics promotes communication with living matter through ions and biological molecules, thereby mediating the detection and modulation of biological activities. This process can function at abiotic–biotic interfaces in an autonomous fashion or in integral, modular components of biomedical devices. The clinical need to use specific biomolecular information, such as ion concentrations and biomarker levels, for personalized diagnostics and treatments has driven the rapid evolution of bioiontronics, through the convergence of fundamental science and application-oriented engineering. However, several challenges remain, including control of ion transport, device miniaturization, biocompatible encapsulation for long-term implantation and tools to decipher and then harness multimodal biological signals. In this Review, we discuss the underlying mechanisms and recent prototypes of bioiontronic devices and describe challenges in the fabrication and application of such systems. Bioiontronics enables communication with living systems through controlled ion and biomolecule transport at abiotic–biotic interfaces. This Review outlines the mechanisms and emerging device prototypes driving the field and discusses key challenges in ion control, miniaturization, biocompatible fabrication, as well as diagnostic and therapeutic applications.
Bioiontronics
生物电子学是一门交叉学科,是由离子电子学和生物工程的突破融合而成的。生物电子通过离子和生物分子促进与生物物质的通信,从而介导生物活动的检测和调节。这个过程可以在非生物-生物界面上以自主的方式或在生物医学设备的整体模块化组件中发挥作用。临床需要使用特定的生物分子信息,如离子浓度和生物标志物水平,进行个性化诊断和治疗,通过基础科学和面向应用的工程的融合,推动了生物电子学的快速发展。然而,仍然存在一些挑战,包括离子传输的控制、设备的小型化、长期植入的生物相容性封装以及破译和利用多模态生物信号的工具。在这篇综述中,我们讨论了潜在的机制和生物电子器件的最新原型,并描述了在制造和应用这些系统的挑战。生物电子技术通过控制离子和生物分子在非生物-生物界面上的传输,实现与生命系统的通信。本文概述了驱动该领域的机制和新兴设备原型,并讨论了离子控制,小型化,生物相容性制造以及诊断和治疗应用方面的关键挑战。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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