Literature DB >> 33717892

In vitro chondrogenic differentiation of human articular cartilage derived chondroprogenitors using pulsed electromagnetic field.

Elizabeth Vinod1,2, Upasana Kachroo1, Grace Rebekah3, Sajo Thomas1, Boopalan Ramasamy4.   

Abstract

BACKGROUND: The ability to grow new cartilage remains the standard goal of any treatment strategy directed at cartilage repair. Chondroprogenitors have garnered interest due to their applicability in cell therapy. Pulsed electromagnetic field (PEMF) favors chondrogenesis by possible upregulation of genes belonging to TGFβ superfamily. Since TGFβ is implicated in chondrogenic signalling, the aim of the study was to evaluate the ability of PEMF to induce chondrogenesis via endogenous TGFβ production in chondroprogenitors vs differentiation using chondrogenic medium inclusive of TGFβ.
METHODS: Chondroprogenitors were harvested from three non-diseased human knee joints via fibronectin assay. Passage 3 pellets were subjected to four different culture conditions: a) negative control contained chondrogenic medium without TGFβ2, b) positive control contained medium with TGFβ2, c) PEMF 1 contained medium of negative control plus single exposure to PEMF and d) PEMF 2 contained medium of negative control plus multiple exposures to PEMF. Following differentiation (day 21), pellets were assessed for gene expression of ACAN, SOX9, COL2A1, TGFβ1, TGFβ2, and TGFβ3. Alcian blue staining to detect glycosaminoglycan deposition was also performed. Medium supernatant was used to detect endogenous latent TGF-β1 levels using ELISA.
RESULTS: All study arms exhibited comparable gene expression without any significant difference. Although positive control and PEMF study arms demonstrated notably better staining than negative control, the level of latent TGF-β1 was seen to be significantly high in supernatant from positive control (P < 0.05) when compared to other groups.
CONCLUSION: Our results indicate that PEMF induced chondrogenesis might involve other signalling molecules, which require further evaluation.
© 2020 Delhi Orthopedic Association. All rights reserved.

Entities:  

Keywords:  Chondrogenic differentiation; Chondroprogenitors; Pulsed electromagnetic field

Year:  2020        PMID: 33717892      PMCID: PMC7920151          DOI: 10.1016/j.jcot.2020.09.034

Source DB:  PubMed          Journal:  J Clin Orthop Trauma        ISSN: 0976-5662


  26 in total

1.  Current concepts in the articular cartilage repair and regeneration.

Authors:  Raju Karuppal
Journal:  J Orthop       Date:  2017-05-19

2.  Upregulation of basal TGFbeta1 levels by EMF coincident with chondrogenesis--implications for skeletal repair and tissue engineering.

Authors:  Roy K Aaron; Shuo Wang; Deborah M Ciombor
Journal:  J Orthop Res       Date:  2002-03       Impact factor: 3.494

3.  The comparison of equine articular cartilage progenitor cells and bone marrow-derived stromal cells as potential cell sources for cartilage repair in the horse.

Authors:  Helen E McCarthy; Jennifer J Bara; Karen Brakspear; Sim K Singhrao; Charles W Archer
Journal:  Vet J       Date:  2011-10-02       Impact factor: 2.688

4.  Low-frequency electromagnetic field exposure accelerates chondrocytic phenotype expression on chitosan substrate.

Authors:  Shih-Hsin Chang; Yi-Wei Hsiao; Hsin-Yi Lin
Journal:  Orthopedics       Date:  2011-01-03       Impact factor: 1.390

5.  The surface of articular cartilage contains a progenitor cell population.

Authors:  Gary P Dowthwaite; Joanna C Bishop; Samantha N Redman; Ilyas M Khan; Paul Rooney; Darrell J R Evans; Laura Haughton; Zubeyde Bayram; Sam Boyer; Brian Thomson; Michael S Wolfe; Charles W Archer
Journal:  J Cell Sci       Date:  2004-02-03       Impact factor: 5.285

6.  The basic science of articular cartilage: structure, composition, and function.

Authors:  Alice J Sophia Fox; Asheesh Bedi; Scott A Rodeo
Journal:  Sports Health       Date:  2009-11       Impact factor: 3.843

7.  Identification and clonal characterisation of a progenitor cell sub-population in normal human articular cartilage.

Authors:  Rebecca Williams; Ilyas M Khan; Kirsty Richardson; Larissa Nelson; Helen E McCarthy; Talal Analbelsi; Sim K Singhrao; Gary P Dowthwaite; Rhiannon E Jones; Duncan M Baird; Holly Lewis; Selwyn Roberts; Hannah M Shaw; Jayesh Dudhia; John Fairclough; Timothy Briggs; Charles W Archer
Journal:  PLoS One       Date:  2010-10-14       Impact factor: 3.240

8.  Evidence of a Viable Pool of Stem Cells within Human Osteoarthritic Cartilage.

Authors:  Larissa Nelson; Helen E McCarthy; John Fairclough; Rebecca Williams; Charles W Archer
Journal:  Cartilage       Date:  2014-10       Impact factor: 4.634

9.  Low dose short duration pulsed electromagnetic field effects on cultured human chondrocytes: An experimental study.

Authors:  Selvam Anbarasan; Ulaganathan Baraneedharan; Solomon Fd Paul; Harpreet Kaur; Subramoniam Rangaswami; Emmanuel Bhaskar
Journal:  Indian J Orthop       Date:  2016 Jan-Feb       Impact factor: 1.251

Review 10.  The Use of Pulsed Electromagnetic Fields to Promote Bone Responses to Biomaterials In Vitro and In Vivo.

Authors:  Carlo Galli; Giuseppe Pedrazzi; Monica Mattioli-Belmonte; Stefano Guizzardi
Journal:  Int J Biomater       Date:  2018-09-03
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  2 in total

1.  Enhancing cartilage repair with optimized supramolecular hydrogel-based scaffold and pulsed electromagnetic field.

Authors:  Yucong Li; Linlong Li; Ye Li; Lu Feng; Bin Wang; Ming Wang; Haixing Wang; Meiling Zhu; Yongkang Yang; Erik I Waldorff; Nianli Zhang; Ingmar Viohl; Sien Lin; Liming Bian; Wayne Yuk-Wai Lee; Gang Li
Journal:  Bioact Mater       Date:  2022-10-12

Review 2.  The clinical potential of articular cartilage-derived progenitor cells: a systematic review.

Authors:  Margot Rikkers; Jasmijn V Korpershoek; Riccardo Levato; Jos Malda; Lucienne A Vonk
Journal:  NPJ Regen Med       Date:  2022-01-10
  2 in total

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