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Investigating the origin of high efficiency in confined multienzyme catalysis

机译:调查效率高的起源在多酶的催化

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Biomimetic strategies have successfully been applied to confine multiple enzymes on scaffolds to obtain higher catalytic efficiency of enzyme cascades than freely distributed enzymes. However, the origin of high efficiency is poorly understood. We developed a coarse-grained, particle-based model to understand the origin of high efficiency. We found that a reaction intermediate is the key in affecting reaction kinetics. In the case of unstable intermediates, the confinement of multiple enzymes in clusters enhanced the catalytic efficiency and a shorter distance between enzymes resulted in a higher reaction rate and yield. This understanding was verified by co-encapsulating multiple enzymes in metal-organic framework (MOF) nanocrystals as artificially confined multienzyme complexes. The activity enhancement of multiple enzymes in MOFs depended on the distance between enzymes, when the decay of intermediates existed. The finding of this study is useful for designing in vitro synthetic biology systems based on artificial multienzyme complexes.
机译:仿生策略已经成功支架上的多个酶应用于界限获得更高的酶的催化效率瀑布比自由分布的酶。然而,效率高的起源是不佳理解。particle-based模型来理解的起源效率高。中间是影响反应的关键动力学。集群中的多个酶的监禁提高了催化效率和更短的距离酶导致更高反应速率和产量。验证了co-encapsulating多种酶有机框架(MOF)纳米晶体人为地限制多酶复合体。活动增强mof的多种酶取决于酶之间的距离,当的衰败中间体的存在。本研究有助于设计体外基于人工合成生物学系统多酶的复合物。

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