Cargando…

Preventing White Adipocyte Browning during Differentiation In Vitro: The Effect of Differentiation Protocols on Metabolic and Mitochondrial Phenotypes

Mitochondrial dysfunction in white adipose tissue is strongly associated with obesity and its metabolic complications, which are important health challenges worldwide. Human adipose-derived stromal/stem cells (hASCs) are a promising tool to investigate the underlying mechanisms of such mitochondrial...

Descripción completa

Detalles Bibliográficos
Autores principales: Herbers, Elena, Patrikoski, Mimmi, Wagner, Anita, Jokinen, Riikka, Hassinen, Antti, Heinonen, Sini, Miettinen, Susanna, Peltoniemi, Hilkka, Pirinen, Eija, Pietiläinen, Kirsi H.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Hindawi 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9005291/
https://www.ncbi.nlm.nih.gov/pubmed/35422865
http://dx.doi.org/10.1155/2022/3308194
_version_ 1784686426706673664
author Herbers, Elena
Patrikoski, Mimmi
Wagner, Anita
Jokinen, Riikka
Hassinen, Antti
Heinonen, Sini
Miettinen, Susanna
Peltoniemi, Hilkka
Pirinen, Eija
Pietiläinen, Kirsi H.
author_facet Herbers, Elena
Patrikoski, Mimmi
Wagner, Anita
Jokinen, Riikka
Hassinen, Antti
Heinonen, Sini
Miettinen, Susanna
Peltoniemi, Hilkka
Pirinen, Eija
Pietiläinen, Kirsi H.
author_sort Herbers, Elena
collection PubMed
description Mitochondrial dysfunction in white adipose tissue is strongly associated with obesity and its metabolic complications, which are important health challenges worldwide. Human adipose-derived stromal/stem cells (hASCs) are a promising tool to investigate the underlying mechanisms of such mitochondrial dysfunction and to subsequently provide knowledge for the development of treatments for obesity-related pathologies. A substantial obstacle in using hASCs is that the key compounds for adipogenic differentiation in vitro increase mitochondrial uncoupling, biogenesis, and activity, which are the signature features of brown adipocytes, thus altering the white adipocyte phenotype towards brown-like cells. Additionally, commonly used protocols for hASC adipogenic differentiation exhibit high variation in their composition of media, and a systematic comparison of their effect on mitochondria is missing. Here, we compared the five widely used adipogenic differentiation protocols for their effect on metabolic and mitochondrial phenotypes to identify a protocol that enables in vitro differentiation of white adipocytes and can more faithfully recapitulate the white adipocyte phenotype observed in human adipose tissue. We developed a workflow that included functional assays and morphological analysis of mitochondria and lipid droplets. We observed that triiodothyronine- or indomethacin-containing media and commercially available adipogenic media induced browning during in vitro differentiation of white adipocytes. However, the differentiation protocol containing 1 μM of the peroxisome proliferator-activated receptor gamma (PPARγ) agonist rosiglitazone prevented the browning effect and would be proposed for adipogenic differentiation protocol for hASCs to induce a white adipocyte phenotype. Preserving the white adipocyte phenotype in vitro is a crucial step for the study of obesity and associated metabolic diseases, adipose tissue pathologies, such as lipodystrophies, possible therapeutic compounds, and basic adipose tissue physiology.
format Online
Article
Text
id pubmed-9005291
institution National Center for Biotechnology Information
language English
publishDate 2022
publisher Hindawi
record_format MEDLINE/PubMed
spelling pubmed-90052912022-04-13 Preventing White Adipocyte Browning during Differentiation In Vitro: The Effect of Differentiation Protocols on Metabolic and Mitochondrial Phenotypes Herbers, Elena Patrikoski, Mimmi Wagner, Anita Jokinen, Riikka Hassinen, Antti Heinonen, Sini Miettinen, Susanna Peltoniemi, Hilkka Pirinen, Eija Pietiläinen, Kirsi H. Stem Cells Int Research Article Mitochondrial dysfunction in white adipose tissue is strongly associated with obesity and its metabolic complications, which are important health challenges worldwide. Human adipose-derived stromal/stem cells (hASCs) are a promising tool to investigate the underlying mechanisms of such mitochondrial dysfunction and to subsequently provide knowledge for the development of treatments for obesity-related pathologies. A substantial obstacle in using hASCs is that the key compounds for adipogenic differentiation in vitro increase mitochondrial uncoupling, biogenesis, and activity, which are the signature features of brown adipocytes, thus altering the white adipocyte phenotype towards brown-like cells. Additionally, commonly used protocols for hASC adipogenic differentiation exhibit high variation in their composition of media, and a systematic comparison of their effect on mitochondria is missing. Here, we compared the five widely used adipogenic differentiation protocols for their effect on metabolic and mitochondrial phenotypes to identify a protocol that enables in vitro differentiation of white adipocytes and can more faithfully recapitulate the white adipocyte phenotype observed in human adipose tissue. We developed a workflow that included functional assays and morphological analysis of mitochondria and lipid droplets. We observed that triiodothyronine- or indomethacin-containing media and commercially available adipogenic media induced browning during in vitro differentiation of white adipocytes. However, the differentiation protocol containing 1 μM of the peroxisome proliferator-activated receptor gamma (PPARγ) agonist rosiglitazone prevented the browning effect and would be proposed for adipogenic differentiation protocol for hASCs to induce a white adipocyte phenotype. Preserving the white adipocyte phenotype in vitro is a crucial step for the study of obesity and associated metabolic diseases, adipose tissue pathologies, such as lipodystrophies, possible therapeutic compounds, and basic adipose tissue physiology. Hindawi 2022-04-05 /pmc/articles/PMC9005291/ /pubmed/35422865 http://dx.doi.org/10.1155/2022/3308194 Text en Copyright © 2022 Elena Herbers et al. https://creativecommons.org/licenses/by/4.0/This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.
spellingShingle Research Article
Herbers, Elena
Patrikoski, Mimmi
Wagner, Anita
Jokinen, Riikka
Hassinen, Antti
Heinonen, Sini
Miettinen, Susanna
Peltoniemi, Hilkka
Pirinen, Eija
Pietiläinen, Kirsi H.
Preventing White Adipocyte Browning during Differentiation In Vitro: The Effect of Differentiation Protocols on Metabolic and Mitochondrial Phenotypes
title Preventing White Adipocyte Browning during Differentiation In Vitro: The Effect of Differentiation Protocols on Metabolic and Mitochondrial Phenotypes
title_full Preventing White Adipocyte Browning during Differentiation In Vitro: The Effect of Differentiation Protocols on Metabolic and Mitochondrial Phenotypes
title_fullStr Preventing White Adipocyte Browning during Differentiation In Vitro: The Effect of Differentiation Protocols on Metabolic and Mitochondrial Phenotypes
title_full_unstemmed Preventing White Adipocyte Browning during Differentiation In Vitro: The Effect of Differentiation Protocols on Metabolic and Mitochondrial Phenotypes
title_short Preventing White Adipocyte Browning during Differentiation In Vitro: The Effect of Differentiation Protocols on Metabolic and Mitochondrial Phenotypes
title_sort preventing white adipocyte browning during differentiation in vitro: the effect of differentiation protocols on metabolic and mitochondrial phenotypes
topic Research Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9005291/
https://www.ncbi.nlm.nih.gov/pubmed/35422865
http://dx.doi.org/10.1155/2022/3308194
work_keys_str_mv AT herberselena preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes
AT patrikoskimimmi preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes
AT wagneranita preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes
AT jokinenriikka preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes
AT hassinenantti preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes
AT heinonensini preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes
AT miettinensusanna preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes
AT peltoniemihilkka preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes
AT pirineneija preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes
AT pietilainenkirsih preventingwhiteadipocytebrowningduringdifferentiationinvitrotheeffectofdifferentiationprotocolsonmetabolicandmitochondrialphenotypes