Jeuken Lars J C
University of Leeds, Leeds, UK.
Adv Biochem Eng Biotechnol. 2016;158:43-73. doi: 10.1007/10_2015_5011.
The interactions between proteins and electrode surfaces are of fundamental importance in bioelectrochemistry, including photobioelectrochemistry. In order to optimise the interaction between electrode and redox protein, either the electrode or the protein can be engineered, with the former being the most adopted approach. This tutorial review provides a basic description of the most commonly used electrode materials in bioelectrochemistry and discusses approaches to modify these surfaces. Carbon, gold and transparent electrodes (e.g. indium tin oxide) are covered, while approaches to form meso- and macroporous structured electrodes are also described. Electrode modifications include the chemical modification with (self-assembled) monolayers and the use of conducting polymers in which the protein is imbedded. The proteins themselves can either be in solution, electrostatically adsorbed on the surface or covalently bound to the electrode. Drawbacks and benefits of each material and its modifications are discussed. Where examples exist of applications in photobioelectrochemistry, these are highlighted.
在生物电化学(包括光生物电化学)中,蛋白质与电极表面之间的相互作用至关重要。为了优化电极与氧化还原蛋白之间的相互作用,可以对电极或蛋白质进行改造,其中前者是最常用的方法。本教程综述对生物电化学中最常用的电极材料进行了基本描述,并讨论了修饰这些表面的方法。涵盖了碳电极、金电极和透明电极(如氧化铟锡),同时也描述了形成中孔和大孔结构电极的方法。电极修饰包括用(自组装)单层进行化学修饰以及使用嵌入蛋白质的导电聚合物。蛋白质本身可以处于溶液中、静电吸附在表面或共价结合到电极上。讨论了每种材料及其修饰的缺点和优点。在存在光生物电化学应用实例的地方,会突出显示这些实例。