Abstract: The present invention provides methods and compositions for establishing and maintaining growth of cells and embryonic tissue on a synthetic polymer matrix. For example, the present invention provides synthetic growth matrices for stem cells, gametes, mature differentiated cells, and embryonic tissue (e.g., blastomeres, embryos, and embryoid bodies). In certain embodiments, the cells are capable of going through multiple passages while remaining in an undifferentiated state as a result of the synthetic polymer matrix.

Abstract: The present invention discloses protein fragment including a cell binding region of fibronectin and methods of using the same for cell culture. Additionally, surfaces modified with such protein fragment and compositions including the same are provided. Desirably, such surfaces allow various cells to adhere thereto yet avoid issues associated with animal-derived products.

Abstract: The present invention provides methods and compositions for establishing and maintaining growth of undifferentiated stem cells. In particular, the present invention provides synthetic growth matrices for stem cells, wherein said cells are capable of going through multiple passages while remaining in an undifferentiated state.

Abstract: The present invention provides methods and compositions for establishing and maintaining growth of cells and embryonic tissue on a synthetic polymer matrix. For example, the present invention provides synthetic growth matrices for stem cells, gametes, mature differentiated cells, and embryonic tissue (e.g., blastomeres, embryos, and embryoid bodies). In certain embodiments, the cells are capable of going through multiple passages while remaining in an undifferentiated state as a result of the synthetic polymer matrix.

Abstract: The present invention discloses protein fragment including a cell binding region of fibronectin and methods of using the same for cell culture. Additionally, surfaces modified with such protein fragment and compositions including the same are provided. Desirably, such surfaces allow various cells to adhere thereto yet avoid issues associated with animal-derived products.

Abstract: Reactive polymer coatings that undergo regioselective reactions with target biomolecules are provided. The polymers of the coatings are deposited via chemical vapor deposition and comprise one or more functional groups that exhibit regioselective bonding with a functional group or a target molecule. Such polymers include poly-xylylenes having functional groups such as alkynes or azides. The regioselective bonding of the reactive polymers provide stable immobilization of target molecules and/or ligands and can create biofunctional surfaces having a wide range of applications.

Abstract: The present invention provides methods and compositions for establishing and maintaining growth of cells and embryonic tissue on a synthetic polymer matrix. For example, the present invention provides synthetic growth matrices for stem cells, gametes, mature differentiated cells, and embryonic tissue (e.g., blastomeres, embryos, and embryoid bodies). In certain embodiments, the cells are capable of going through multiple passages while remaining in an undifferentiated state as a result of the synthetic polymer matrix.

Abstract: The present invention provides methods and compositions for establishing and maintaining growth of undifferentiated stem cells. In particular, the present invention provides synthetic growth matrices for stem cells, wherein said cells are capable of going through multiple passages while remaining in an undifferentiated state.

Abstract: The disclosure provides for devices and coatings that are substantially free of organic solvent sand suitable for insertion into a patient, and that comprise a metal layer and a coating with a thickness of about 20 nm to about 2000 nm wherein the coating comprises a biocompatible polymer comprising at least one residue covalently bonded to a nitric oxide generating compound.

Abstract: Reactive polymer coatings that undergo regioselective reactions with target biomolecules are provided. The polymers of the coatings are deposited via chemical vapor deposition and comprise one or more functional groups that exhibit regioselective bonding with a functional group or a target molecule. Such polymers include poly-xylylenes having functional groups such as alkynes or azides. The regioselective bonding of the reactive polymers provide stable immobilization of target molecules and/or ligands and can create biofunctional surfaces having a wide range of applications.