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Main Authors: Chen, Yongbin, Chen, Yanyang, Wei, Xiaoyu, Yuan, Jifeng, Cao, Mingfeng, He, Ning
Format: Artículo científico
Language:en
Published: Journal of agricultural and food chemistry 2025
Subjects:
Online Access:https://pubmed.ncbi.nlm.nih.gov/40611812/
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author Chen, Yongbin
Chen, Yanyang
Wei, Xiaoyu
Yuan, Jifeng
Cao, Mingfeng
He, Ning
author_facet Chen, Yongbin
Chen, Yanyang
Wei, Xiaoyu
Yuan, Jifeng
Cao, Mingfeng
He, Ning
Chen, Yongbin
Chen, Yanyang
Wei, Xiaoyu
Yuan, Jifeng
Cao, Mingfeng
He, Ning
collection PubMed - marine biology
contents Structurally Tunable Cell-Free System: to Expand the Synthetic Biology Toolkit for Studies on Extracellular Polysaccharide. Chen, Yongbin Chen, Yanyang Wei, Xiaoyu Yuan, Jifeng Cao, Mingfeng He, Ning Synthetic Biology Cell-Free System Bacillus licheniformis Polysaccharides Bacterial Proteins Hexosyltransferases Membrane Proteins Polysaccharides, Bacterial Cell-free systems not only offer an efficient strategy for producing proteins that are hard to express but also serve as an innovative platform for studying biosynthetic modules of complex microbial metabolites and reconstructing metabolic pathways . As microbial extracellular polysaccharides (EPS) hold significant industrial potential, the biosynthetic pathway is highly complex, involving numerous key enzymes and membrane-associated biochemical reactions that are challenging to analyze. In this research, a flexible cell-free (membrane) protein synthesis system (CF(M)PS) was developed and applied to glycobiology associated with membrane proteins (MPs) by incorporating nanoliposomes as membrane mimics to facilitate transcription-translation coupling and promote MPs solubilization. The membrane-bound phosphoglycosyl transferase from CGMCC 2876, which initiates the assembly of sugar repeat units, was successfully expressed with CF(M)PS, and subsequent catalytic reaction was coupled to produce glycoconjugate. This initiation of EPS synthesis in a cell-free platform also facilitated the identification of targets for component-oriented regulation of extracellular polymers. Furthermore, CF(M)PS enabled efficient Levan biosynthesis, revealing the application potential of a newly identified levansucrase. The successful application of CF(M)PS provides an efficient and versatile platform for glycans synthesis. CF(M)PS expands the synthetic glycobiology toolbox and is expected to accelerate the study of complex metabolites.
format Artículo científico
id pubmed_40611812
institution PubMed
language en
publishDate 2025
publisher Journal of agricultural and food chemistry
record_format pubmed
spellingShingle Structurally Tunable Cell-Free System: to Expand the Synthetic Biology Toolkit for Studies on Extracellular Polysaccharide.
Chen, Yongbin
Chen, Yanyang
Wei, Xiaoyu
Yuan, Jifeng
Cao, Mingfeng
He, Ning
Synthetic Biology
Cell-Free System
Bacillus licheniformis
Polysaccharides
Bacterial Proteins
Hexosyltransferases
Membrane Proteins
Polysaccharides, Bacterial
Structurally Tunable Cell-Free System: to Expand the Synthetic Biology Toolkit for Studies on Extracellular Polysaccharide. Chen, Yongbin Chen, Yanyang Wei, Xiaoyu Yuan, Jifeng Cao, Mingfeng He, Ning Synthetic Biology Cell-Free System Bacillus licheniformis Polysaccharides Bacterial Proteins Hexosyltransferases Membrane Proteins Polysaccharides, Bacterial Cell-free systems not only offer an efficient strategy for producing proteins that are hard to express but also serve as an innovative platform for studying biosynthetic modules of complex microbial metabolites and reconstructing metabolic pathways . As microbial extracellular polysaccharides (EPS) hold significant industrial potential, the biosynthetic pathway is highly complex, involving numerous key enzymes and membrane-associated biochemical reactions that are challenging to analyze. In this research, a flexible cell-free (membrane) protein synthesis system (CF(M)PS) was developed and applied to glycobiology associated with membrane proteins (MPs) by incorporating nanoliposomes as membrane mimics to facilitate transcription-translation coupling and promote MPs solubilization. The membrane-bound phosphoglycosyl transferase from CGMCC 2876, which initiates the assembly of sugar repeat units, was successfully expressed with CF(M)PS, and subsequent catalytic reaction was coupled to produce glycoconjugate. This initiation of EPS synthesis in a cell-free platform also facilitated the identification of targets for component-oriented regulation of extracellular polymers. Furthermore, CF(M)PS enabled efficient Levan biosynthesis, revealing the application potential of a newly identified levansucrase. The successful application of CF(M)PS provides an efficient and versatile platform for glycans synthesis. CF(M)PS expands the synthetic glycobiology toolbox and is expected to accelerate the study of complex metabolites.
title Structurally Tunable Cell-Free System: to Expand the Synthetic Biology Toolkit for Studies on Extracellular Polysaccharide.
topic Synthetic Biology
Cell-Free System
Bacillus licheniformis
Polysaccharides
Bacterial Proteins
Hexosyltransferases
Membrane Proteins
Polysaccharides, Bacterial
url https://pubmed.ncbi.nlm.nih.gov/40611812/