TY - JOUR
T1 - The potential of mesothelial cells in tissue engineering and regenerative medicine applications
AU - Herrick, S.E.
AU - Mutsaers, Steve
PY - 2007/6
Y1 - 2007/6
N2 - Injury to the serosa through injurious agents such as radiation, surgery, infection and disease results in the loss of the protective surface mesothelium and often leads to fibrous adhesion formation. Mechanisms that increase the rate of mesothialisation are therefore actively being investigated in order to reduce the formation of adhesions. These include intraperitoneal delivery of cultured mesothelial cells as well as administration of factors that are known to increase mesothelial proliferation and migration. An exciting alternative that has only recently received attention, is the possible role of mesothelial progenitor cells in the repair and regeneration of denuded serosal areas. Accumulating evidence suggests that such a population exists and under certain conditions is able to form a number of defined cell types indicating a degree of plasticity. Such properties may explain the extensive use of mesothelial cells in various tissue engineering applications including the development of vascular conduits and peripheral nerve replacements. It is likely that with the rapid explosion in the fields of tissue engineering and regenerative medicine, a greater understanding of the potential of mesothelial progenitor cells to repair, replace and possibly regenerate damaged or defective tissue will be uncovered.
AB - Injury to the serosa through injurious agents such as radiation, surgery, infection and disease results in the loss of the protective surface mesothelium and often leads to fibrous adhesion formation. Mechanisms that increase the rate of mesothialisation are therefore actively being investigated in order to reduce the formation of adhesions. These include intraperitoneal delivery of cultured mesothelial cells as well as administration of factors that are known to increase mesothelial proliferation and migration. An exciting alternative that has only recently received attention, is the possible role of mesothelial progenitor cells in the repair and regeneration of denuded serosal areas. Accumulating evidence suggests that such a population exists and under certain conditions is able to form a number of defined cell types indicating a degree of plasticity. Such properties may explain the extensive use of mesothelial cells in various tissue engineering applications including the development of vascular conduits and peripheral nerve replacements. It is likely that with the rapid explosion in the fields of tissue engineering and regenerative medicine, a greater understanding of the potential of mesothelial progenitor cells to repair, replace and possibly regenerate damaged or defective tissue will be uncovered.
KW - Animals
KW - Cell Adhesion
KW - Epithelial Cells/cytology
KW - Epithelium/embryology
KW - Humans
KW - Omentum/cytology
KW - Peritoneum/cytology
KW - Regeneration/physiology
KW - Regenerative Medicine/trends
KW - Serous Membrane/injuries
KW - Stem Cell Transplantation
KW - Stem Cells/physiology
KW - Tissue Adhesions/prevention & control
KW - Tissue Engineering/trends
KW - Wound Healing/physiology
U2 - 10.1177/039139880703000611
DO - 10.1177/039139880703000611
M3 - Review article
C2 - 17628854
SN - 0391-3988
VL - 30
SP - 527
EP - 540
JO - The International Journal of Artificial Organs
JF - The International Journal of Artificial Organs
IS - 6
ER -