Regenerative Medicine Program

Regenerative Medicine (RM) is directed at the regeneration of mulfunctioning tissues and organs. This program is actively involved in the introduction of novel research lines  investigating the therapeutic potential of mesenchymal stem cells (MSC). Pluripotent mesenchymal stem cells (MSCs) are present in a variety of tissues during human development, and in adults they are prevalent in the bone marrow where they have been isolated, expanded in culture and differentiated. They are thought to be the critical in the production of progenitors with the potential to generate a spectrum of tissues including bone, cartilage, fat and the marrow stroma itself.

Our knowledge about the complex, multistep and multifactorial molecular mechanisms underlying MSC differentiation is currently insufficient to generate “tailor-made MSC” for disease-specific application. The potential for the therapeutic use of MSC has been recently investigated in several diverse settings (i) osteogenesis imperfecta; (ii) Hurler syndrome and (iii) graft-versus-host disease.  

However, current problems in the use of MSC for regenerative medicine include (a) lack of multipotency after in vitro culture, (b) poor survival of cells when transplanted in vivo, (c) optimal age of donors and source of isolated MSC and (d) poor proliferation of MSC in vitro resulting in minimal expansion.

This program aims at understanding the molecular and cellular mechanisms underlying the survival, proliferation and differentiation of MSC. By ex-vivo manipulation of these cells it should be possible to increase their therapeutic potential and eventually generate “tailor-made MSCs” for application to specific pediatric diseases.


General Aims

1. To understand the molecular mechanisms regulating the expansion and differentiation of MSC. This involves analysis of the intracellular signaling pathways and epigenetic regulatory mechanisms with the aim of improving the survival, expansion and differentiation of MSC in vivo.

2. To evaluate the functional consequences of “aged” versus “young” MSC, as well as stem cell sources (bone marrow, fat, Wharton’s jelly) for therapeutic use.

3. To develop novel (molecular) therapies enabling functional modulation of MSC ex-vivo and allowing novel, tailor-made therapeutic strategies for orthopedic, metabolic and immune diseases.

4. Participate in state-of-the-art clinical trials utilizing MSC for treatment of pediatric disease.


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