Phenazines contribute to microbiome dynamics by targeting topoisomerase IV.

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Main Authors: Zhou, Yaqi, Wang, Hongkai, Sun, Jiaxin, Wicaksono, Wisnu Adi, Liu, Chao, He, Yinghao, Qin, Yuxuan, Berg, Gabriele, Li, Lei, Lin, Houwen, Chai, Yunrong, Bai, Yang, Ma, Zhonghua, Cernava, Tomislav, Chen, Yun
Format: Artículo científico
Language:en
Published: Nature microbiology 2025
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author Zhou, Yaqi
Wang, Hongkai
Sun, Jiaxin
Wicaksono, Wisnu Adi
Liu, Chao
He, Yinghao
Qin, Yuxuan
Berg, Gabriele
Li, Lei
Lin, Houwen
Chai, Yunrong
Bai, Yang
Ma, Zhonghua
Cernava, Tomislav
Chen, Yun
author_facet Zhou, Yaqi
Wang, Hongkai
Sun, Jiaxin
Wicaksono, Wisnu Adi
Liu, Chao
He, Yinghao
Qin, Yuxuan
Berg, Gabriele
Li, Lei
Lin, Houwen
Chai, Yunrong
Bai, Yang
Ma, Zhonghua
Cernava, Tomislav
Chen, Yun
Zhou, Yaqi
Wang, Hongkai
Sun, Jiaxin
Wicaksono, Wisnu Adi
Liu, Chao
He, Yinghao
Qin, Yuxuan
Berg, Gabriele
Li, Lei
Lin, Houwen
Chai, Yunrong
Bai, Yang
Ma, Zhonghua
Cernava, Tomislav
Chen, Yun
collection PubMed - marine biology
contents Phenazines contribute to microbiome dynamics by targeting topoisomerase IV. Zhou, Yaqi Wang, Hongkai Sun, Jiaxin Wicaksono, Wisnu Adi Liu, Chao He, Yinghao Qin, Yuxuan Berg, Gabriele Li, Lei Lin, Houwen Chai, Yunrong Bai, Yang Ma, Zhonghua Cernava, Tomislav Chen, Yun Phenazines Rhizosphere Microbiota Bacillus subtilis DNA Topoisomerase IV Plant Diseases Soil Microbiology Bacteria Fusarium Pseudomonas Bacterial Proteins Genome, Bacterial DNA Damage Metagenomics Phenazines are highly prevalent, natural bioactive substances secreted by microbes. However, their mode of action and potential involvement in shaping microbiomes remain elusive. Here we performed a comprehensive analysis of over 1.35 million bacterial genomes to identify phenazine-producing bacteria distributed across 193 species in 34 families. Analysis of rhizosphere microbiome and public rhizosphere metagenomic datasets revealed that phenazines could shape the microbial community by inhibiting Gram-positive bacteria, which was verified by pairwise interaction assays using Phenazine-1-carboxamide (PCN)-producing Pseudomonas chlororaphis. PCN induced DNA damage in Bacillus subtilis, a model Gram-positive target, where it directly bound to the bacterial topoisomerase IV, inhibiting its decatenation activity and leading to cell death. A two-species consortium of phenazine-producing Pseudomonas and resistant B. subtilis exhibited superior synergistic activity in preventing Fusarium crown rot in wheat plants. This work advances our understanding of a prevalent microbial interaction and its potential for biocontrol.
format Artículo científico
id pubmed_40935925
institution PubMed
language en
publishDate 2025
publisher Nature microbiology
record_format pubmed
spellingShingle Phenazines contribute to microbiome dynamics by targeting topoisomerase IV.
Zhou, Yaqi
Wang, Hongkai
Sun, Jiaxin
Wicaksono, Wisnu Adi
Liu, Chao
He, Yinghao
Qin, Yuxuan
Berg, Gabriele
Li, Lei
Lin, Houwen
Chai, Yunrong
Bai, Yang
Ma, Zhonghua
Cernava, Tomislav
Chen, Yun
Phenazines
Rhizosphere
Microbiota
Bacillus subtilis
DNA Topoisomerase IV
Plant Diseases
Soil Microbiology
Bacteria
Fusarium
Pseudomonas
Bacterial Proteins
Genome, Bacterial
DNA Damage
Metagenomics
Phenazines contribute to microbiome dynamics by targeting topoisomerase IV. Zhou, Yaqi Wang, Hongkai Sun, Jiaxin Wicaksono, Wisnu Adi Liu, Chao He, Yinghao Qin, Yuxuan Berg, Gabriele Li, Lei Lin, Houwen Chai, Yunrong Bai, Yang Ma, Zhonghua Cernava, Tomislav Chen, Yun Phenazines Rhizosphere Microbiota Bacillus subtilis DNA Topoisomerase IV Plant Diseases Soil Microbiology Bacteria Fusarium Pseudomonas Bacterial Proteins Genome, Bacterial DNA Damage Metagenomics Phenazines are highly prevalent, natural bioactive substances secreted by microbes. However, their mode of action and potential involvement in shaping microbiomes remain elusive. Here we performed a comprehensive analysis of over 1.35 million bacterial genomes to identify phenazine-producing bacteria distributed across 193 species in 34 families. Analysis of rhizosphere microbiome and public rhizosphere metagenomic datasets revealed that phenazines could shape the microbial community by inhibiting Gram-positive bacteria, which was verified by pairwise interaction assays using Phenazine-1-carboxamide (PCN)-producing Pseudomonas chlororaphis. PCN induced DNA damage in Bacillus subtilis, a model Gram-positive target, where it directly bound to the bacterial topoisomerase IV, inhibiting its decatenation activity and leading to cell death. A two-species consortium of phenazine-producing Pseudomonas and resistant B. subtilis exhibited superior synergistic activity in preventing Fusarium crown rot in wheat plants. This work advances our understanding of a prevalent microbial interaction and its potential for biocontrol.
title Phenazines contribute to microbiome dynamics by targeting topoisomerase IV.
topic Phenazines
Rhizosphere
Microbiota
Bacillus subtilis
DNA Topoisomerase IV
Plant Diseases
Soil Microbiology
Bacteria
Fusarium
Pseudomonas
Bacterial Proteins
Genome, Bacterial
DNA Damage
Metagenomics
url https://pubmed.ncbi.nlm.nih.gov/40935925/