共价键
固定化酶
原位
金属有机骨架
催化作用
封装(网络)
多孔性
材料科学
化学工程
化学
浸出(土壤学)
纳米技术
酶
组合化学
有机化学
环境科学
计算机科学
计算机网络
吸附
工程类
土壤科学
土壤水分
标识
DOI:10.1002/anie.202213405
摘要
Enzyme immobilization is a widely reported method to favor the applicability of enzymes by enhancing their stability and re-usability. Among the various existing solid supports and immobilization strategies, the in situ encapsulation of enzymes within crystalline porous matrices is a powerful tool to design biohybrids with a stable and protected catalytic activity. However, to date, only a few metal-organic frameworks (MOFs) and hydrogen-bonded organic frameworks (HOFs) have been reported. Excitingly, for the first time, Y. Chen and co-workers expanded the in situ bio-encapsulation to a new class of crystalline porous materials, namely covalent organic frameworks (COFs). The enzyme@COF materials not only exhibited high enzyme loading with minimal leaching, high catalytic activity and selectivity, chemical and long-term stability and recyclability but could also be scaled up to a few grams. Undoubtedly, this work opens new striking opportunities for enzymatic immobilization and will stimulate new research on COF-based matrices.
科研通智能强力驱动
Strongly Powered by AbleSci AI