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Development of new 3D human ex vivo models to study sebaceous gland lipid metabolism and modulations

OBJECTIVES: Sebaceous glands maintain skin homeostasis by producing sebum. Low production can induce hair loss and fragile skin. Overproduction provokes seborrhoea and may lead to acne and inflammatory events. To better study sebaceous gland maintenance, sebocyte maturation, lipid production and age...

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Autores principales: de Bengy, Anne‐France, Forraz, Nico, Danoux, Louis, Berthelemy, Nicolas, Cadau, Sébastien, Degoul, Olivier, Andre, Valérie, Pain, Sabine, McGuckin, Colin
Formato: Online Artículo Texto
Lenguaje:English
Publicado: John Wiley and Sons Inc. 2018
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6430446/
https://www.ncbi.nlm.nih.gov/pubmed/30402911
http://dx.doi.org/10.1111/cpr.12524
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author de Bengy, Anne‐France
Forraz, Nico
Danoux, Louis
Berthelemy, Nicolas
Cadau, Sébastien
Degoul, Olivier
Andre, Valérie
Pain, Sabine
McGuckin, Colin
author_facet de Bengy, Anne‐France
Forraz, Nico
Danoux, Louis
Berthelemy, Nicolas
Cadau, Sébastien
Degoul, Olivier
Andre, Valérie
Pain, Sabine
McGuckin, Colin
author_sort de Bengy, Anne‐France
collection PubMed
description OBJECTIVES: Sebaceous glands maintain skin homeostasis by producing sebum. Low production can induce hair loss and fragile skin. Overproduction provokes seborrhoea and may lead to acne and inflammatory events. To better study sebaceous gland maintenance, sebocyte maturation, lipid production and ageing or inflammatory processes, we developed innovative 3D ex vivo models for human sebaceous glands. MATERIALS AND METHODS: Culture conditions and analytical methods optimized on sebocyte monolayers were validated on extracted sebaceous glands and allowed the development of two 3D models: (a) “air‐liquid” interface and (b) human fibronectin‐coated “sandwich” method. Lipid production was assessed with microscopy, fluorometry or flow cytometry analysis after Nile Red staining. Specific lipids (particularly squalene and peroxidized squalene) were measured by Gas or liquid Chromatography and Mass spectrometry. RESULTS: This study allowed us to select appropriate conditions and design Seb4Gln culture medium inducing sebocyte proliferation and neutral lipid production. The “air‐liquid” model was appropriate to induce sebocyte isolation. The “sandwich” model enabled sebaceous gland maintenance up to 42 days. A treatment with Insulin Growth Factor‐1 allowed validation of the model as we succeeded in mimicking dynamic lipid overproduction. CONCLUSION: Functional sebocyte maturation and physiological maintenance were preserved up to 6 weeks in our models. Associated with functional assays, they provide a powerful platform to mimic physiological skin lipid metabolism and to screen for active ingredients modulating sebum production.
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spelling pubmed-64304462020-03-13 Development of new 3D human ex vivo models to study sebaceous gland lipid metabolism and modulations de Bengy, Anne‐France Forraz, Nico Danoux, Louis Berthelemy, Nicolas Cadau, Sébastien Degoul, Olivier Andre, Valérie Pain, Sabine McGuckin, Colin Cell Prolif Original Articles OBJECTIVES: Sebaceous glands maintain skin homeostasis by producing sebum. Low production can induce hair loss and fragile skin. Overproduction provokes seborrhoea and may lead to acne and inflammatory events. To better study sebaceous gland maintenance, sebocyte maturation, lipid production and ageing or inflammatory processes, we developed innovative 3D ex vivo models for human sebaceous glands. MATERIALS AND METHODS: Culture conditions and analytical methods optimized on sebocyte monolayers were validated on extracted sebaceous glands and allowed the development of two 3D models: (a) “air‐liquid” interface and (b) human fibronectin‐coated “sandwich” method. Lipid production was assessed with microscopy, fluorometry or flow cytometry analysis after Nile Red staining. Specific lipids (particularly squalene and peroxidized squalene) were measured by Gas or liquid Chromatography and Mass spectrometry. RESULTS: This study allowed us to select appropriate conditions and design Seb4Gln culture medium inducing sebocyte proliferation and neutral lipid production. The “air‐liquid” model was appropriate to induce sebocyte isolation. The “sandwich” model enabled sebaceous gland maintenance up to 42 days. A treatment with Insulin Growth Factor‐1 allowed validation of the model as we succeeded in mimicking dynamic lipid overproduction. CONCLUSION: Functional sebocyte maturation and physiological maintenance were preserved up to 6 weeks in our models. Associated with functional assays, they provide a powerful platform to mimic physiological skin lipid metabolism and to screen for active ingredients modulating sebum production. John Wiley and Sons Inc. 2018-11-06 /pmc/articles/PMC6430446/ /pubmed/30402911 http://dx.doi.org/10.1111/cpr.12524 Text en © 2018 The Authors. Cell Proliferation Published by John Wiley & Sons Ltd This is an open access article under the terms of the http://creativecommons.org/licenses/by/4.0/ License, which permits use, distribution and reproduction in any medium, provided the original work is properly cited.
spellingShingle Original Articles
de Bengy, Anne‐France
Forraz, Nico
Danoux, Louis
Berthelemy, Nicolas
Cadau, Sébastien
Degoul, Olivier
Andre, Valérie
Pain, Sabine
McGuckin, Colin
Development of new 3D human ex vivo models to study sebaceous gland lipid metabolism and modulations
title Development of new 3D human ex vivo models to study sebaceous gland lipid metabolism and modulations
title_full Development of new 3D human ex vivo models to study sebaceous gland lipid metabolism and modulations
title_fullStr Development of new 3D human ex vivo models to study sebaceous gland lipid metabolism and modulations
title_full_unstemmed Development of new 3D human ex vivo models to study sebaceous gland lipid metabolism and modulations
title_short Development of new 3D human ex vivo models to study sebaceous gland lipid metabolism and modulations
title_sort development of new 3d human ex vivo models to study sebaceous gland lipid metabolism and modulations
topic Original Articles
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6430446/
https://www.ncbi.nlm.nih.gov/pubmed/30402911
http://dx.doi.org/10.1111/cpr.12524
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