《Table 1Artificial metalloenzymes with promising catalytic functionalities.》

《Table 1Artificial metalloenzymes with promising catalytic functionalities.》   提示:宽带有限、当前游客访问压缩模式
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《生物催化进展:从计算到代谢工程(英文)》


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Hydrogenation reactions have been reported utilizing an ar‐tificial metalloenzyme(ArM)for avidin protein[51].Recently,artificial metalloenzymes were applied for several purposes,suchasincell‐freeextracts[52,53],whole‐cell bio‐transformations[52,54,55],and in vivo applications[10,56].Through these approaches,the field of artificial metal‐loenzymes,biorthogonal chemistry,and synthetic biology are used,which enhances catalytic capabilities for producing tar‐geted molecules[57,58].From the industrial perspective,en‐zyme engineering offers an eco‐friendly solution for generating desired catalytic activity[59].Metals attached to enzymes alter enzyme characteristics;because of their stability,de novo con‐struction of ArMs remain limited[60].However,a de novo bio‐logical catalyst can establish bonds between carbon and silicon[52,61],as well as carbon and boron bonds[62,63].Therefore,natural enzymes have been modified by introducing non‐inherited catalytic activities[56,64].In another study,an in silico approach in combination with an evolutionary approach were used to produce organophosphate hydrolase[64].Some other artificial metalloenzymes with promising catalytic func‐tionalities are summarized in Table 1.