重组酶
生物
计算生物学
基因组
细菌基因组大小
合成生物学
基因
遗传学
水平基因转移
重写
基因组学
DNA
基因组编辑
计算机科学
转座因子
重编程
生命之树(生物学)
整合酶
桥(图论)
人类基因组
核糖核酸
微生物群
作者
Jaymin R. Patel,Sophia E. Swartz,Agnès Oromí-Bosch,Liana Yong,Zachary W. LaTurner,Jack Demaray,Angela Voelker,Ryuichi Ono,Patrick Vu,Preeti Rao,Hannah Luskin,Pia De Andrade,Michael L. Cui,Givi Mchedlishvili,Madeline M. Hayes,Natalie Aluwihare,Carlos E. Iglesias-Aguirre,Emma C. MacKenzie,Cynthia I. Rodriguez,Suzanne Devkota
出处
期刊:
[Cold Spring Harbor Laboratory]
日期:2026-04-29
被引量:4
标识
DOI:10.64898/2026.04.29.721476
摘要
Abstract Bacteria drive crucial processes across ecosystems and impact human health, yet tools to rewrite microbiomes remain limited. Here, we show that bridge recombinase enables versatile and programmable genome editing across the bacterial tree of life. In Escherichia coli , we achieved 142 kb insertions at >90% efficiency, megabase-scale inversions (2.3 Mb), and pathway-scale 50 kb excisions. With a single ortholog and bridge RNA (bRNA), we edited bacterial isolates spanning five phyla and diverse members of two human gut communities. We overcame cross-reactivity between co-expressed bRNAs to establish search-and-replace Targetable Recombinase Assisted DNA Exchange (TRADE) editing and demonstrated capture and interphylum transfer of chromosomal pathways, enabling programmable horizontal gene transfer. These advances establish bridge recombinase as a foundation for reprogramming gene flow in complex microbial communities.
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