Potentiation of curing by a broad-host-range self-transmissible vector for displacing resistance plasmids to tackle AMR

Plasmids are potent vehicles for spread of antibiotic resistance genes in bacterial populations and often persist in the absence of selection due to efficient maintenance mechanisms. We previously constructed non-conjugative high copy number plasmid vectors that efficiently displace stable plasmids...

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Veröffentlicht in:PloS one 2020-01, Vol.15 (1), p.e0225202
Hauptverfasser: Lazdins, Alessandro, Maurya, Anand Prakash, Miller, Claire E, Kamruzzaman, Muhammad, Liu, Shuting, Stephens, Elton R, Lloyd, Georgina S, Haratianfar, Mona, Chamberlain, Melissa, Haines, Anthony S, Kreft, Jan-Ulrich, Webber, Mark A, Iredell, Jonathan, Thomas, Christopher M
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container_start_page e0225202
container_title PloS one
container_volume 15
creator Lazdins, Alessandro
Maurya, Anand Prakash
Miller, Claire E
Kamruzzaman, Muhammad
Liu, Shuting
Stephens, Elton R
Lloyd, Georgina S
Haratianfar, Mona
Chamberlain, Melissa
Haines, Anthony S
Kreft, Jan-Ulrich
Webber, Mark A
Iredell, Jonathan
Thomas, Christopher M
description Plasmids are potent vehicles for spread of antibiotic resistance genes in bacterial populations and often persist in the absence of selection due to efficient maintenance mechanisms. We previously constructed non-conjugative high copy number plasmid vectors that efficiently displace stable plasmids from enteric bacteria in a laboratory context by blocking their replication and neutralising their addiction systems. Here we assess a low copy number broad-host-range self-transmissible IncP-1 plasmid as a vector for such curing cassettes to displace IncF and IncK plasmids. The wild type plasmid carrying the curing cassette displaces target plasmids poorly but derivatives with deletions near the IncP-1 replication origin that elevate copy number about two-fold are efficient. Verification of this in mini IncP-1 plasmids showed that elevated copy number was not sufficient and that the parB gene, korB, that is central to its partitioning and gene control system, also needs to be included. The resulting vector can displace target plasmids from a laboratory population without selection and demonstrated activity in a mouse model although spread is less efficient and requires additional selection pressure.
doi_str_mv 10.1371/journal.pone.0225202
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We previously constructed non-conjugative high copy number plasmid vectors that efficiently displace stable plasmids from enteric bacteria in a laboratory context by blocking their replication and neutralising their addiction systems. Here we assess a low copy number broad-host-range self-transmissible IncP-1 plasmid as a vector for such curing cassettes to displace IncF and IncK plasmids. The wild type plasmid carrying the curing cassette displaces target plasmids poorly but derivatives with deletions near the IncP-1 replication origin that elevate copy number about two-fold are efficient. Verification of this in mini IncP-1 plasmids showed that elevated copy number was not sufficient and that the parB gene, korB, that is central to its partitioning and gene control system, also needs to be included. 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subjects Addictions
Animals
Antibiotic resistance
Antibiotics
Antimicrobial agents
Bacteria
Bacterial Infections - drug therapy
Bacterial Infections - genetics
Bacterial Infections - microbiology
Binding sites
Biology and life sciences
Cassettes
Conjugation, Genetic - genetics
Control systems
Copy number
Curing
Disease Models, Animal
Displacement
DNA Copy Number Variations - genetics
DNA Primase - genetics
Drug resistance
Drug Resistance, Bacterial - genetics
Escherichia coli - genetics
Escherichia coli Proteins - genetics
Gastrointestinal Microbiome - drug effects
Gastrointestinal Microbiome - genetics
Host Specificity - genetics
Humans
Infections
Infectious diseases
Medical research
Medicine and Health Sciences
Mice
Microbiota
ParB gene
Physical Sciences
Plasmids
Plasmids - drug effects
Plasmids - genetics
Potentiation
Replication
Replication origins
Research and analysis methods
Vectors
title Potentiation of curing by a broad-host-range self-transmissible vector for displacing resistance plasmids to tackle AMR
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