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Unusual Glycosaminoglycans from a Deep Sea Hydrothermal Bacterium Improve Fibrillar Collagen Structuring and Fibroblast Activities in Engineered Connective Tissues

Biopolymers produced by marine organisms can offer useful tools for regenerative medicine. Particularly, HE800 exopolysaccharide (HE800 EPS) secreted by a deep-sea hydrothermal bacterium displays an interesting glycosaminoglycan-like feature resembling hyaluronan. Previous studies demonstrated its e...

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Autores principales: Senni, Karim, Gueniche, Farida, Changotade, Sylvie, Septier, Dominique, Sinquin, Corinne, Ratiskol, Jacqueline, Lutomski, Didier, Godeau, Gaston, Guezennec, Jean, Colliec-Jouault, Sylvia
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2013
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3705409/
https://www.ncbi.nlm.nih.gov/pubmed/23612369
http://dx.doi.org/10.3390/md11041351
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author Senni, Karim
Gueniche, Farida
Changotade, Sylvie
Septier, Dominique
Sinquin, Corinne
Ratiskol, Jacqueline
Lutomski, Didier
Godeau, Gaston
Guezennec, Jean
Colliec-Jouault, Sylvia
author_facet Senni, Karim
Gueniche, Farida
Changotade, Sylvie
Septier, Dominique
Sinquin, Corinne
Ratiskol, Jacqueline
Lutomski, Didier
Godeau, Gaston
Guezennec, Jean
Colliec-Jouault, Sylvia
author_sort Senni, Karim
collection PubMed
description Biopolymers produced by marine organisms can offer useful tools for regenerative medicine. Particularly, HE800 exopolysaccharide (HE800 EPS) secreted by a deep-sea hydrothermal bacterium displays an interesting glycosaminoglycan-like feature resembling hyaluronan. Previous studies demonstrated its effectiveness to enhance in vivo bone regeneration and to support osteoblastic cell metabolism in culture. Thus, in order to assess the usefulness of this high-molecular weight polymer in tissue engineering and tissue repair, in vitro reconstructed connective tissues containing HE800 EPS were performed. We showed that this polysaccharide promotes both collagen structuring and extracellular matrix settle by dermal fibroblasts. Furthermore, from the native HE800 EPS, a low-molecular weight sulfated derivative (HE800 DROS) displaying chemical analogy with heparan-sulfate, was designed. Thus, it was demonstrated that HE800 DROS mimics some properties of heparan-sulfate, such as promotion of fibroblast proliferation and inhibition of matrix metalloproteinase (MMP) secretion. Therefore, we suggest that the HE800EPS family can be considered as an innovative biotechnological source of glycosaminoglycan-like compounds useful to design biomaterials and drugs for tissue engineering and repair.
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spelling pubmed-37054092013-07-09 Unusual Glycosaminoglycans from a Deep Sea Hydrothermal Bacterium Improve Fibrillar Collagen Structuring and Fibroblast Activities in Engineered Connective Tissues Senni, Karim Gueniche, Farida Changotade, Sylvie Septier, Dominique Sinquin, Corinne Ratiskol, Jacqueline Lutomski, Didier Godeau, Gaston Guezennec, Jean Colliec-Jouault, Sylvia Mar Drugs Article Biopolymers produced by marine organisms can offer useful tools for regenerative medicine. Particularly, HE800 exopolysaccharide (HE800 EPS) secreted by a deep-sea hydrothermal bacterium displays an interesting glycosaminoglycan-like feature resembling hyaluronan. Previous studies demonstrated its effectiveness to enhance in vivo bone regeneration and to support osteoblastic cell metabolism in culture. Thus, in order to assess the usefulness of this high-molecular weight polymer in tissue engineering and tissue repair, in vitro reconstructed connective tissues containing HE800 EPS were performed. We showed that this polysaccharide promotes both collagen structuring and extracellular matrix settle by dermal fibroblasts. Furthermore, from the native HE800 EPS, a low-molecular weight sulfated derivative (HE800 DROS) displaying chemical analogy with heparan-sulfate, was designed. Thus, it was demonstrated that HE800 DROS mimics some properties of heparan-sulfate, such as promotion of fibroblast proliferation and inhibition of matrix metalloproteinase (MMP) secretion. Therefore, we suggest that the HE800EPS family can be considered as an innovative biotechnological source of glycosaminoglycan-like compounds useful to design biomaterials and drugs for tissue engineering and repair. MDPI 2013-04-23 /pmc/articles/PMC3705409/ /pubmed/23612369 http://dx.doi.org/10.3390/md11041351 Text en © 2013 by the authors; licensee MDPI, Basel, Switzerland. http://creativecommons.org/licenses/by/3.0/ This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution license (http://creativecommons.org/licenses/by/3.0/).
spellingShingle Article
Senni, Karim
Gueniche, Farida
Changotade, Sylvie
Septier, Dominique
Sinquin, Corinne
Ratiskol, Jacqueline
Lutomski, Didier
Godeau, Gaston
Guezennec, Jean
Colliec-Jouault, Sylvia
Unusual Glycosaminoglycans from a Deep Sea Hydrothermal Bacterium Improve Fibrillar Collagen Structuring and Fibroblast Activities in Engineered Connective Tissues
title Unusual Glycosaminoglycans from a Deep Sea Hydrothermal Bacterium Improve Fibrillar Collagen Structuring and Fibroblast Activities in Engineered Connective Tissues
title_full Unusual Glycosaminoglycans from a Deep Sea Hydrothermal Bacterium Improve Fibrillar Collagen Structuring and Fibroblast Activities in Engineered Connective Tissues
title_fullStr Unusual Glycosaminoglycans from a Deep Sea Hydrothermal Bacterium Improve Fibrillar Collagen Structuring and Fibroblast Activities in Engineered Connective Tissues
title_full_unstemmed Unusual Glycosaminoglycans from a Deep Sea Hydrothermal Bacterium Improve Fibrillar Collagen Structuring and Fibroblast Activities in Engineered Connective Tissues
title_short Unusual Glycosaminoglycans from a Deep Sea Hydrothermal Bacterium Improve Fibrillar Collagen Structuring and Fibroblast Activities in Engineered Connective Tissues
title_sort unusual glycosaminoglycans from a deep sea hydrothermal bacterium improve fibrillar collagen structuring and fibroblast activities in engineered connective tissues
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3705409/
https://www.ncbi.nlm.nih.gov/pubmed/23612369
http://dx.doi.org/10.3390/md11041351
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