Reduction of bacterial biofilm formation using marine natural antimicrobial peptides

There is an important need for the development of new “environmentally-friendly” antifouling molecules to replace toxic chemicals actually used to fight against marine biofouling. Marine biomass is a promising source of non-toxic antifouling products such as natural antimicrobial peptides produced b...

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Published in:Colloids and Surfaces B: Biointerfaces
Main Authors: Doiron, Kim, Beaulieu, Lucie, St-Louis, Richard, Lemarchand, Karine
Format: Article in Journal/Newspaper
Language:French
Published: 2018
Subjects:
Online Access:https://semaphore.uqar.ca/id/eprint/1675/
https://semaphore.uqar.ca/id/eprint/1675/1/Kim_Doiron_et_al_avril2018.pdf
https://doi.org/10.1016/j.colsurfb.2018.04.051
id ftunivquebecar:oai:semaphore.uqar.ca:1675
record_format openpolar
spelling ftunivquebecar:oai:semaphore.uqar.ca:1675 2023-07-30T04:06:49+02:00 Reduction of bacterial biofilm formation using marine natural antimicrobial peptides Doiron, Kim Beaulieu, Lucie St-Louis, Richard Lemarchand, Karine 2018-07 application/pdf https://semaphore.uqar.ca/id/eprint/1675/ https://semaphore.uqar.ca/id/eprint/1675/1/Kim_Doiron_et_al_avril2018.pdf https://doi.org/10.1016/j.colsurfb.2018.04.051 fr fre https://semaphore.uqar.ca/id/eprint/1675/1/Kim_Doiron_et_al_avril2018.pdf Doiron, Kim et Beaulieu, Lucie et St-Louis, Richard et Lemarchand, Karine (2018). Reduction of bacterial biofilm formation using marine natural antimicrobial peptides. Colloids and surfaces B: Biointerfaces, 167 . p. 524-530. Peinture antisalissure Antisalissure Biofilms Bactéricides Antibactériens Peptides antimicrobiens biologiques Article Évalué par les pairs 2018 ftunivquebecar https://doi.org/10.1016/j.colsurfb.2018.04.051 2023-07-08T23:10:25Z There is an important need for the development of new “environmentally-friendly” antifouling molecules to replace toxic chemicals actually used to fight against marine biofouling. Marine biomass is a promising source of non-toxic antifouling products such as natural antimicrobial peptides produced by marine organisms. The aim of this study was to demonstrate the efficiency of antimicrobial peptides extracted from snow crab (SCAMPs) to reduce the formation of marine biofilms on immerged mild steel surfaces. Five antimicrobial peptides were found in the snow crab hydrolysate fraction used in this study. SCAMPs were demonstrated to interact with natural organic matter (NOM) during the formation of the conditioning film and to limit the marine biofilm development in terms of viability and bacterial structure. Natural SCAMPs could be considered as a potential alternative and non-toxic product to reduce biofouling, and as a consequence microbial induced corrosion on immerged surfaces. -- Keywords : Antimicrobial peptides Antifouling Bacterial diversity Conditioning film Marine biofilm. Article in Journal/Newspaper Snow crab Université du Québec à Rimouski (UQAR): Sémaphore Colloids and Surfaces B: Biointerfaces 167 524 530
institution Open Polar
collection Université du Québec à Rimouski (UQAR): Sémaphore
op_collection_id ftunivquebecar
language French
topic Peinture antisalissure
Antisalissure
Biofilms
Bactéricides
Antibactériens
Peptides antimicrobiens biologiques
spellingShingle Peinture antisalissure
Antisalissure
Biofilms
Bactéricides
Antibactériens
Peptides antimicrobiens biologiques
Doiron, Kim
Beaulieu, Lucie
St-Louis, Richard
Lemarchand, Karine
Reduction of bacterial biofilm formation using marine natural antimicrobial peptides
topic_facet Peinture antisalissure
Antisalissure
Biofilms
Bactéricides
Antibactériens
Peptides antimicrobiens biologiques
description There is an important need for the development of new “environmentally-friendly” antifouling molecules to replace toxic chemicals actually used to fight against marine biofouling. Marine biomass is a promising source of non-toxic antifouling products such as natural antimicrobial peptides produced by marine organisms. The aim of this study was to demonstrate the efficiency of antimicrobial peptides extracted from snow crab (SCAMPs) to reduce the formation of marine biofilms on immerged mild steel surfaces. Five antimicrobial peptides were found in the snow crab hydrolysate fraction used in this study. SCAMPs were demonstrated to interact with natural organic matter (NOM) during the formation of the conditioning film and to limit the marine biofilm development in terms of viability and bacterial structure. Natural SCAMPs could be considered as a potential alternative and non-toxic product to reduce biofouling, and as a consequence microbial induced corrosion on immerged surfaces. -- Keywords : Antimicrobial peptides Antifouling Bacterial diversity Conditioning film Marine biofilm.
format Article in Journal/Newspaper
author Doiron, Kim
Beaulieu, Lucie
St-Louis, Richard
Lemarchand, Karine
author_facet Doiron, Kim
Beaulieu, Lucie
St-Louis, Richard
Lemarchand, Karine
author_sort Doiron, Kim
title Reduction of bacterial biofilm formation using marine natural antimicrobial peptides
title_short Reduction of bacterial biofilm formation using marine natural antimicrobial peptides
title_full Reduction of bacterial biofilm formation using marine natural antimicrobial peptides
title_fullStr Reduction of bacterial biofilm formation using marine natural antimicrobial peptides
title_full_unstemmed Reduction of bacterial biofilm formation using marine natural antimicrobial peptides
title_sort reduction of bacterial biofilm formation using marine natural antimicrobial peptides
publishDate 2018
url https://semaphore.uqar.ca/id/eprint/1675/
https://semaphore.uqar.ca/id/eprint/1675/1/Kim_Doiron_et_al_avril2018.pdf
https://doi.org/10.1016/j.colsurfb.2018.04.051
genre Snow crab
genre_facet Snow crab
op_relation https://semaphore.uqar.ca/id/eprint/1675/1/Kim_Doiron_et_al_avril2018.pdf
Doiron, Kim et Beaulieu, Lucie et St-Louis, Richard et Lemarchand, Karine (2018). Reduction of bacterial biofilm formation using marine natural antimicrobial peptides. Colloids and surfaces B: Biointerfaces, 167 . p. 524-530.
op_doi https://doi.org/10.1016/j.colsurfb.2018.04.051
container_title Colloids and Surfaces B: Biointerfaces
container_volume 167
container_start_page 524
op_container_end_page 530
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