Abstract: The present invention relates to a biologically active medical device, which includes a matrix seeded with progenitor cells, and then covered by ciliated tissue. The matrix is capable of enabling cellular migration. The ciliated tissue is ependymal cells that express at least one of tight junctional complexes, zonula adherens, and gap junctions. The progenitor cells include subpendymal progenitor cells. In some cases the progenitor cells include stem cells, and the ciliated tissue includes at least one of Choroid cells, tanacytes, and circumventricular organs. In some embodiments, the medical device is oriented into a tubular structure in order to form a cerebrospinal shunt. Additional cells and structures may be imbedded within the matrix, such as glia, endothelial cells, stem cells, and blood vessels. The medical device may also be incorporated into a bioreactor including a flexible inner tube defining an anthropomorphically shaped lumen.

Abstract: The present invention relates to a biologically active medical device, which includes a matrix seeded with progenitor cells, and then covered by ciliated tissue. The matrix is capable of enabling cellular migration. The ciliated tissue is ependymal cells that express at least one of tight junctional complexes, zonula adherens, and gap junctions. The progenitor cells include subpendymal progenitor cells. In some cases the progenitor cells include stem cells, and the ciliated tissue includes at least one of Choroid cells, tanacytes, and circumventricular organs. In some embodiments, the medical device is oriented into a tubular structure in order to form a cerebrospinal shunt. Additional cells and structures may be imbedded within the matrix, such as glia, endothelial cells, stem cells, and blood vessels. The medical device may also be incorporated into a bioreactor including a flexible inner tube defining an anthropomorphically shaped lumen.