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Accelerated genome engineering of Pseudomonas putida by I-SceI-mediated recombination and CRISPR-Cas9 counterselection.通过I-SceI介导的重组和CRISPR-Cas9反选择实现恶臭假单胞菌的快速基因组工程
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A Post-translational Metabolic Switch Enables Complete Decoupling of Bacterial Growth from Biopolymer Production in Engineered Escherichia coli.翻译后修饰代谢开关实现了工程化大肠杆菌中细菌生长与生物聚合物生产的完全解耦。
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荧光标记辅助的快速基因组工程及质粒的可控消除

Rapid Genome Engineering of Assisted by Fluorescent Markers and Tractable Curing of Plasmids.

作者信息

Volke Daniel C, Wirth Nicolas T, Nikel Pablo I

机构信息

The Novo Nordisk Foundation Center for Biosustainability, Technical University of Denmark, Kongens Lyngby, Denmark.

出版信息

Bio Protoc. 2021 Feb 20;11(4):e3917. doi: 10.21769/BioProtoc.3917.

DOI:10.21769/BioProtoc.3917
PMID:33732804
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC7952922/
Abstract

Precise genome engineering has become a commonplace technique for metabolic engineering. Also, insertion, deletion and alteration of genes and other functional DNA sequences are essential for understanding and engineering cells. Several techniques have been developed to this end (, CRISPR/Cas-assisted methods, homologous recombination, or λ Red recombineering), yet most of them rely on the use of auxiliary plasmids, which have to be cured after the editing procedure. Temperature-sensitive replicons, counter-selectable markers or repeated passaging of plasmid-bearing cells have been traditionally employed to circumvent this hurdle. While these protocols work reasonably well in some bacteria, they are not applicable for other species or are time consuming and laborious. Here, we present a fast and versatile protocol of fluorescent marker-assisted genome editing in , followed by clean curing of auxiliary plasmids through user-controlled plasmid replication. One fluorescent marker facilitates identification of genome-edited colonies, while the second reporter enables detection of plasmid-free bacterial clones. Not only is this protocol the fastest available for species, but it can be easily adapted to any type of genome modifications, including sequence deletions, insertions, and replacements. .

摘要

精确的基因组工程已成为代谢工程中的一项常用技术。此外,基因及其他功能性DNA序列的插入、缺失和改变对于理解和改造细胞至关重要。为此已开发了多种技术(如CRISPR/Cas辅助方法、同源重组或λ Red重组工程),然而其中大多数都依赖于辅助质粒的使用,而这些质粒在编辑过程后必须去除。传统上采用温度敏感型复制子、反选择标记或携带质粒细胞的反复传代来克服这一障碍。虽然这些方案在某些细菌中效果相当不错,但它们不适用于其他物种,或者耗时费力。在此,我们展示了一种在[具体物种]中进行荧光标记辅助基因组编辑的快速通用方案,随后通过用户控制的质粒复制实现辅助质粒的彻底去除。一个荧光标记有助于鉴定基因组编辑的菌落,而第二个报告基因能够检测无质粒的细菌克隆。该方案不仅是[具体物种]可用的最快方案,而且可以轻松适用于任何类型的基因组修饰,包括序列缺失、插入和替换。