Rapid adaptation drives invasion of airway donor microbiota by Pseudomonas after lung transplantation

In cystic fibrosis (CF) patients, chronic airway infection by Pseudomonas leads to progressive lung destruction ultimately requiring lung transplantation (LT). Following LT, CF-adapted Pseudomonas strains, potentially originating from the sinuses, may seed the allograft leading to infections and red...

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Veröffentlicht in:Scientific reports 2017-01, Vol.7 (1), p.40309-40309, Article 40309
Hauptverfasser: Beaume, M., Köhler, T., Greub, G., Manuel, O., Aubert, J-D., Baerlocher, L., Farinelli, L., Buckling, A., van Delden, C.
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container_title Scientific reports
container_volume 7
creator Beaume, M.
Köhler, T.
Greub, G.
Manuel, O.
Aubert, J-D.
Baerlocher, L.
Farinelli, L.
Buckling, A.
van Delden, C.
description In cystic fibrosis (CF) patients, chronic airway infection by Pseudomonas leads to progressive lung destruction ultimately requiring lung transplantation (LT). Following LT, CF-adapted Pseudomonas strains, potentially originating from the sinuses, may seed the allograft leading to infections and reduced allograft survival. We investigated whether CF-adapted Pseudomonas populations invade the donor microbiota and adapt to the non-CF allograft. We collected sequential Pseudomonas isolates and airway samples from a CF-lung transplant recipient during two years, and followed the dynamics of the microbiota and Pseudomonas populations. We show that Pseudomonas invaded the host microbiota within three days post-LT, in association with a reduction in richness and diversity. A dominant mucoid and hypermutator mutL lineage was replaced after 11 days by non-mucoid strains. Despite antibiotic therapy, Pseudomonas dominated the allograft microbiota until day 95. We observed positive selection of pre-LT variants and the appearance of novel mutations. Phenotypic adaptation resulted in increased biofilm formation and swimming motility capacities. Pseudomonas was replaced after 95 days by a microbiota dominated by Actinobacillus . In conclusion, mucoid Pseudomonas adapted to the CF-lung remained able to invade the allograft. Selection of both pre-existing non-mucoid subpopulations and of novel phenotypic traits suggests rapid adaptation of Pseudomonas to the non-CF allograft.
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Pseudomonas was replaced after 95 days by a microbiota dominated by Actinobacillus . In conclusion, mucoid Pseudomonas adapted to the CF-lung remained able to invade the allograft. 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Following LT, CF-adapted Pseudomonas strains, potentially originating from the sinuses, may seed the allograft leading to infections and reduced allograft survival. We investigated whether CF-adapted Pseudomonas populations invade the donor microbiota and adapt to the non-CF allograft. We collected sequential Pseudomonas isolates and airway samples from a CF-lung transplant recipient during two years, and followed the dynamics of the microbiota and Pseudomonas populations. We show that Pseudomonas invaded the host microbiota within three days post-LT, in association with a reduction in richness and diversity. A dominant mucoid and hypermutator mutL lineage was replaced after 11 days by non-mucoid strains. Despite antibiotic therapy, Pseudomonas dominated the allograft microbiota until day 95. We observed positive selection of pre-LT variants and the appearance of novel mutations. Phenotypic adaptation resulted in increased biofilm formation and swimming motility capacities. 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subjects 45/22
45/23
45/29
45/77
631/326/107
631/326/421
Adaptation
Adaptation, Physiological
Adult
Allografts
Biofilms
Chronic infection
Colony Count, Microbial
Cystic fibrosis
Cystic Fibrosis - microbiology
Female
Genome, Bacterial
Humanities and Social Sciences
Humans
Lung - microbiology
Lung Transplantation
Microbiota
multidisciplinary
Phenotype
Positive selection
Pseudomonas - isolation & purification
Pseudomonas - physiology
Respiratory tract
Science
Science (multidisciplinary)
Sinus
Subpopulations
Swimming
Tissue Donors
Transplantation
Transplants & implants
Xenografts
title Rapid adaptation drives invasion of airway donor microbiota by Pseudomonas after lung transplantation
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