Retraction of DNA-bound type IV competence pili initiates DNA uptake during natural transformation in Vibrio cholerae

Natural transformation is a broadly conserved mechanism of horizontal gene transfer in bacterial species that can shape evolution and foster the spread of antibiotic resistance determinants, promote antigenic variation and lead to the acquisition of novel virulence factors. Surface appendages called...

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Veröffentlicht in:Nature microbiology 2018-07, Vol.3 (7), p.773-780
Hauptverfasser: Ellison, Courtney K., Dalia, Triana N., Vidal Ceballos, Alfredo, Wang, Joseph Che-Yen, Biais, Nicolas, Brun, Yves V., Dalia, Ankur B.
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container_end_page 780
container_issue 7
container_start_page 773
container_title Nature microbiology
container_volume 3
creator Ellison, Courtney K.
Dalia, Triana N.
Vidal Ceballos, Alfredo
Wang, Joseph Che-Yen
Biais, Nicolas
Brun, Yves V.
Dalia, Ankur B.
description Natural transformation is a broadly conserved mechanism of horizontal gene transfer in bacterial species that can shape evolution and foster the spread of antibiotic resistance determinants, promote antigenic variation and lead to the acquisition of novel virulence factors. Surface appendages called competence pili promote DNA uptake during the first step of natural transformation 1 ; however, their mechanism of action has remained unclear owing to an absence of methods to visualize these structures in live cells. Here, using the model naturally transformable species Vibrio cholerae and a pilus-labelling method, we define the mechanism for type IV competence pilus-mediated DNA uptake during natural transformation. First, we show that type IV competence pili bind to extracellular double-stranded DNA via their tip and demonstrate that this binding is critical for DNA uptake. Next, we show that type IV competence pili are dynamic structures and that pilus retraction brings tip-bound DNA to the cell surface. Finally, we show that pilus retraction is spatiotemporally coupled to DNA internalization and that sterically obstructing pilus retraction prevents DNA uptake. Together, these results indicate that type IV competence pili directly bind to DNA via their tip and mediate DNA internalization through retraction during this conserved mechanism of horizontal gene transfer. Live-cell imaging reveals that type IV competence pili from naturally competent Vibrio cholerae are dynamic structures that bind to exogenous DNA via their tips. Pilus retraction pulls DNA to the cell surface and across the outer membrane to initiate DNA uptake.
doi_str_mv 10.1038/s41564-018-0174-y
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Surface appendages called competence pili promote DNA uptake during the first step of natural transformation 1 ; however, their mechanism of action has remained unclear owing to an absence of methods to visualize these structures in live cells. Here, using the model naturally transformable species Vibrio cholerae and a pilus-labelling method, we define the mechanism for type IV competence pilus-mediated DNA uptake during natural transformation. First, we show that type IV competence pili bind to extracellular double-stranded DNA via their tip and demonstrate that this binding is critical for DNA uptake. Next, we show that type IV competence pili are dynamic structures and that pilus retraction brings tip-bound DNA to the cell surface. Finally, we show that pilus retraction is spatiotemporally coupled to DNA internalization and that sterically obstructing pilus retraction prevents DNA uptake. Together, these results indicate that type IV competence pili directly bind to DNA via their tip and mediate DNA internalization through retraction during this conserved mechanism of horizontal gene transfer. Live-cell imaging reveals that type IV competence pili from naturally competent Vibrio cholerae are dynamic structures that bind to exogenous DNA via their tips. 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subjects 14/28
14/34
14/35
14/63
631/326/1320
631/326/41/1969/1852
631/326/421
Antibiotic resistance
Antigenic determinants
Biomedical and Life Sciences
Cell surface
Deoxyribonucleic acid
DNA
Gene transfer
Genetic transformation
Infectious Diseases
Internalization
Labeling
Letter
Life Sciences
Medical Microbiology
Microbiology
Parasitology
Pathogens
Pili
Vibrio cholerae
Virology
Virulence factors
title Retraction of DNA-bound type IV competence pili initiates DNA uptake during natural transformation in Vibrio cholerae
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