纳米孔
生物催化
纳米材料
纳米技术
固定化酶
纳米尺度
材料科学
化学
酶
辅因子
化学工程
催化作用
生物化学
工程类
离子液体
作者
Andreas Buthe,Songtao Wu,Ping Wang
出处
期刊:Methods in molecular biology
日期:2010-08-31
卷期号:: 37-48
被引量:10
标识
DOI:10.1007/978-1-60761-895-9_5
摘要
Recent pursuit on utilization of nanoscale materials has manifested a variety of configurations of highly efficient enzymic biocatalyst systems for biotechnological applications. Nanoscale structures are particularly powerful in effecting multienzyme biocatalysis. Inherent properties of nanomaterials--primarily, the high surface area to volume ratio and atomic scale 3D configurations--enable higher enzyme loadings, microenvironment control surrounding enzyme molecules, regulation on mass transfer, and protein structural stabilization of the biocatalyst as compared to traditional immobilization systems. This chapter introduces one versatile nanoscale immobilization method via details demonstrated using the case of nanoporous silica glass (30 nm diameter) for the concomitant incorporation of lactate dehydrogenase (LDH), glucose dehydrogenase (GDH), and the cofactor (NADH).
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