bioRxivSynthetic BiologyPreprint
Clustering enzymes using E.coli inner cell membrane as scaffold in metabolic pathway
You WangiD, Yuqi WuiD, Yang SuoiD, Huaqing Guo, Yineng Yu, Ruonan Yin, Rui XiiD, Jiajie WuiD, Nan HuaiD, Yuehan ZhangiD, Shaobo Zhang, Zhenming Jin, Yushu WangiD, Lin HeiD, Gang MaiD
Abstract
Clustering enzymes in the same metabolism pathway is a natural strategy to enhance the productivity. Several systems have been designed to artificially cluster desired enzymes in the cell, such as synthetic protein scaffold and nucleic acid scaffold. However, these scaffolds require complicated construction process and have limited slots for target enzymes. Following this direction, we designed a scaffold system based on natural cell membrane. Target enzymes (FabZ, FabG, FabI and TesA in fatty acid synthesis II pathway) are anchored on the E.coli inner membrane, showing the enhanced metabolism flux without the requirement of the further artificial interactions to force the clustering. Furthermore, anchoring the enzymes on the membrane enhances the products exportation, which further increases the productivity. Together, the proposed system has potential applications in producing valuable biomaterials.
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