TY - JOUR
T1 - Mesenchymal stem cell mechanobiology
AU - Castillo, Alesha B.
AU - Jacobs, Christopher R.
N1 - Funding Information:
Acknowledgments We thank Kris Morrow for his assistance with illustrations. This work was supported by a Department of Veterans Affairs Career Development Award (to Dr. Alesha B. Castillo) and a New York State Stem Cell Research Grant N08G-210 (to Dr. Christopher R. Jacobs).
PY - 2010/6
Y1 - 2010/6
N2 - Bone marrow-derived multipotent stem and stromal cells (MSCs) are likely candidates for cell-based therapies for various conditions including skeletal disease. Advancement of these therapies will rely on an ability to identify, isolate, manipulate, and deliver stem cells in a safe and effective manner. Although it is clear that physical signals affect tissue morphogenesis, stem cell differentiation, and healing processes, integration of mechanically induced signaling events remain obscure. Mechanisms underlying sensation and interpretation of mechanical signals by stem cells are the focus of intense study. External mechanical signals have the ability to activate osteogenic signaling pathways in MSCs including Wnt, Ror2, and Runx2. It is also clear that intracellular tensile forces resulting from cell-extracellular matrix interactions play a critical role in MSC regulation. Further work is required to determine the precise role that mechanical forces play in stem cell function.
AB - Bone marrow-derived multipotent stem and stromal cells (MSCs) are likely candidates for cell-based therapies for various conditions including skeletal disease. Advancement of these therapies will rely on an ability to identify, isolate, manipulate, and deliver stem cells in a safe and effective manner. Although it is clear that physical signals affect tissue morphogenesis, stem cell differentiation, and healing processes, integration of mechanically induced signaling events remain obscure. Mechanisms underlying sensation and interpretation of mechanical signals by stem cells are the focus of intense study. External mechanical signals have the ability to activate osteogenic signaling pathways in MSCs including Wnt, Ror2, and Runx2. It is also clear that intracellular tensile forces resulting from cell-extracellular matrix interactions play a critical role in MSC regulation. Further work is required to determine the precise role that mechanical forces play in stem cell function.
KW - Mechanotransduction
KW - Mesenchymal stem cell
KW - Osteogenic differentiation
KW - Tissue regeneration
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U2 - 10.1007/s11914-010-0015-2
DO - 10.1007/s11914-010-0015-2
M3 - Review article
C2 - 20425617
AN - SCOPUS:77955981722
SN - 1544-1873
VL - 8
SP - 98
EP - 104
JO - Current Osteoporosis Reports
JF - Current Osteoporosis Reports
IS - 2
ER -