PhAGE Enables One-Step Genome Integration of Large DNA Fragments in Escherichia coli

Abstract Escherichia coli is a well-established model organism in molecular biology and biotechnology. Despite its long history as a laboratory workhorse, the efficient single-step chromosomal integration of large DNA fragments remains a challenge. Currently known methods are either simple but have limitations on insert size, or flexible but laborious requiring plasmid construction or multi-step procedures. Here, we present PhAGE (Phage-Assisted Genome Engineering), which enables the integration of ∼20 kb DNA fragments into the E. coli genome within a single day. PhAGE method uses in vitro packaging of recombinant DNA into bacteriophage capsids, followed by general transduction to introduce pre-assembled DNA with flanking homology arms into recipient cells. This approach allows efficient and landing pad-free integration of large constructs into the target loci. We demonstrate its usefulness through rapid integration of multi-gene operons. PhAGE resolves the long-standing trade-off between simplicity and insert size in E. coli genome engineering, providing a powerful assembly-to-integration toolkit that accelerates strain construction across a wide range of applications, from biosynthetic pathway engineering to genome-scale design.

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Publication Details

Journal
ACS Synthetic Biology
Published
2026-09-25
DOI
https://doi.org/10.1021/acssynbio.6c00489
Primary Topic
Bacterial Genetics and Biotechnology
Type
article
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article

PhAGE Enables One-Step Genome Integration of Large DNA Fragments in Escherichia coli

Shingo Nozaki, Yoshihiro Miwa
ACS Synthetic Biology
Bacterial Genetics and Biotechnology
article

PhAGE Enables One-Step Genome Integration of Large DNA Fragments in Escherichia coli

Shingo Nozaki, Yoshihiro Miwa
article en

Abstract

Abstract Escherichia coli is a well-established model organism in molecular biology and biotechnology. Despite its long history as a laboratory workhorse, the efficient single-step chromosomal integration of large DNA fragments remains a challenge. Currently known methods are either simple but have limitations on insert size, or flexible but laborious requiring plasmid construction or multi-step procedures. Here, we present PhAGE (Phage-Assisted Genome Engineering), which enables the integration of ∼20 kb DNA fragments into the E. coli genome within a single day. PhAGE method uses in vitro packaging of recombinant DNA into bacteriophage capsids, followed by general transduction to introduce pre-assembled DNA with flanking homology arms into recipient cells. This approach allows efficient and landing pad-free integration of large constructs into the target loci. We demonstrate its usefulness through rapid integration of multi-gene operons. PhAGE resolves the long-standing trade-off between simplicity and insert size in E. coli genome engineering, providing a powerful assembly-to-integration toolkit that accelerates strain construction across a wide range of applications, from biosynthetic pathway engineering to genome-scale design.

ACS Synthetic Biology
RIKEN BioResource Research Center (JP)
Industry, innovation and infrastructure
Openalex Percentile: Top 12%
Bacterial Genetics and Biotechnology
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