Jiaxin Dong, Guanxiong Liu, Yuri V. Petrov, Yujie Feng, Dechang Jia, Vladimir E Baulin, Aslan Yu Tsivadze, Yu Zhou, Baoqiang Li
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引用次数: 0
摘要
作为电催化剂的磷化铁/碳(FeP/C)在氧还原反应(ORR)过程中表现出卓越的活性。过氧化物酶(POD)催化的 H2O2 类似于 ORR 过程中新电子传递通道的形成和含氧中间产物吸附或产物解吸的优化。然而,在生物催化的电催化数据库中发现具有增强的类似 POD 催化活性的 FeP/C 仍是一个挑战。本文展示了由电催化活性驱动的、具有增强类 POD 催化活性的 FeP/碳点(FeP/CDs)纳米酶的发现。由 CDs-Fe3+ 螯合剂衍生的 FeP/CDs 显示出增强的类 POD 催化和抗菌活性。FeP/CDs 表现出更强的类 POD 活性,其特定活性为 31.1 U mg-1,比 FeP 高出一倍。增强了 POD 类活性的 FeP/CDs 纳米酶的抗菌能力达到 98.1%。与 FeP、Fe2O3/CDs 和 Cu3P/CDs 纳米酶相比,FeP/CDs 纳米酶(250 µg mL-1)的抗菌率分别提高了 5%、15% 和 36%。在电催化数据库中,FeP/CDs 纳米酶将吸引更多的力量去发现或筛选具有增强的 POD 类催化活性的过渡金属磷化物/C 纳米酶,用于生物催化。
Discovery of FeP/Carbon Dots Nanozymes for Enhanced Peroxidase-Like Catalytic and Antibacterial Activity
Iron phosphide/carbon (FeP/C) serving as electrocatalysts exhibit excellent activity in oxygen reduction reaction (ORR) process. H2O2 catalyzed by peroxidase (POD) is similar to the formation of new electron transfer channels and the optimization of adsorption of oxygen-containing intermediates or desorption of products in ORR process. However, it is still a challenge to discover FeP/C with enhanced POD-like catalytic activity in the electrocatalytic database for biocatalysis. The discovery of FeP/carbon dots (FeP/CDs) nanozymes driven by electrocatalytic activity for enhanced POD-like ability is demonstrated. FeP/CDs derived from CDs-Fe3+ chelates show enhanced POD-like catalytic and antibacterial activity. FeP/CDs exhibit enhanced POD-like activities with a specific activity of 31.1 U mg−1 that is double higher than that of FeP. The antibacterial ability of FeP/CDs nanozymes with enhanced POD-like activity is 98.1%. The antibacterial rate of FeP/CDs nanozymes (250 µg mL−1) increased by 5%, 15%, and 36% compared with FeP, Fe2O3/CDs, and Cu3P/CDs nanozymes, respectively. FeP/CDs nanozymes will attract more efforts to discover or screen transition metal phosphide/C nanozymes with enhanced POD-like catalytic activity for biocatalysis in the electrocatalytic database.
期刊介绍:
Advanced Healthcare Materials, a distinguished member of the esteemed Advanced portfolio, has been dedicated to disseminating cutting-edge research on materials, devices, and technologies for enhancing human well-being for over ten years. As a comprehensive journal, it encompasses a wide range of disciplines such as biomaterials, biointerfaces, nanomedicine and nanotechnology, tissue engineering, and regenerative medicine.