4.5 Article

Electrostimulated bone marrow human mesenchymal stem cells produce follistatin

Journal

CYTOTHERAPY
Volume 11, Issue 4, Pages 448-456

Publisher

TAYLOR & FRANCIS AS
DOI: 10.1080/14653240902960445

Keywords

Cell differentiation; cell therapy; electrostimulation; follistatin; mesenchymal stromal cells

Funding

  1. University of Pittsburgh Medical Center Heart, Lung and Esophageal Surgery Institute
  2. McGowan Institute for Regenerative Medicine
  3. Gamal and Cheryl Tawfik Foundation
  4. Association for the Progress of Scientific Research in the Gran Canaria Hospital Dr Negrin

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Background aims Follistatin (FST) and the related proteins FSTL1 and FSTL3 are crucial modulators of the transforming growth factor (TGF)-beta superfamily and function by neutralizing activins, a group of proteins implicated in many biologic processes, such as cell proliferation and differentiation, immune responses, various endocrine activities, wound repair, inflammation and fibrosis. Activins are increased in the serum of heart failure patients and in cardiomyocytes after experimental myocardial infarction, suggesting the involvement of activins in heart failure pathogenesis. FST is considered to be a key modulator in muscle development, differentiation and regeneration, and it has been implicated in the repair of mesodermal- and endodermal-derived tissues, promoting cell proliferation and hampering fibrogenesis. We have previously demonstrated that electrostimulation (ES) induces cardiomyocyte pre-commitment of both stem and non-stem cells in vitro. In this study, we evaluated whether applying ES to human mesenchymal stromal cells (hMSC) modulated FST production. Methods hMSC were electrostimulated with 10 and 40 V for 12 h. FST production was assessed by immunostaining, Western blot and flow cytometry. Results FST was up-regulated in hMSC after ES and was associated with cardiomyogenic differentiation of hMSC by short-term ES. Conclusions The possibility of stimulating the production of FST, a key regulator of mesodermal differentiation, in adult stem cells, while avoiding the drawbacks of conditioned media, dangerous drugs and gene delivery, has relevant potential therapeutic clinical applications. Additionally, this simple differentiation system could be useful for elucidating the molecular mechanisms driving the stem cell-differentiation process.

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