Abstract: Described are three-dimensional, engineered, biological breast tissues, adipose tissues, and tumor models, including breast cancer models.

Abstract: Engineered, living, three-dimensional liver tissue constructs comprising: one or more layers, wherein each layer contains one or more liver cell types, the one or more layers cohered to form a living, three-dimensional liver tissue construct. In some embodiments, the constructs are characterized by having at least one of: at least one layer comprising a plurality of cell types, the cell types spatially arranged relative to each other to create a planar geometry; and a plurality of layers, at least one layer compositionally or architecturally distinct from at least one other layer to create a laminar geometry. Also disclosed are arrays and methods of making the same. Also disclosed are engineered, living, three-dimensional liver tissue constructs for use in the augmentation or restoration of one or more liver functions, by in vivo delivery of tissue or utilization of tissue in an extracorporeal device.

Abstract: Engineered, living, three-dimensional liver tissue constructs including: one or more layers, wherein each layer contains one or more liver cell types, the one or more layers cohered to form a living, three-dimensional liver tissue construct free of pre-formed scaffold. Also disclosed are arrays and methods of making the same.

Abstract: Engineered, living, three-dimensional liver tissue constructs comprising: one or more layers, wherein each layer contains one or more liver cell types, the one or more layers cohered to form a living, three-dimensional liver tissue construct. In some embodiments, the constructs are characterized by having at least one of: at least one layer comprising a plurality of cell types, the cell types spatially arranged relative to each other to create a planar geometry; and a plurality of layers, at least one layer compositionally or architecturally distinct from at least one other layer to create a laminar geometry. Also disclosed are arrays and methods of making the same. Also disclosed are engineered, living, three-dimensional liver tissue constructs for use in the augmentation or restoration of one or more liver functions, by in vivo delivery of tissue or utilization of tissue in an extracorporeal device.

Abstract: Described are three-dimensional, engineered, biological breast tissues, adipose tissues, and tumor models, including breast cancer models.

Abstract: Engineered, living, three-dimensional liver tissue constructs including: one or more layers, wherein each layer contains one or more liver cell types, the one or more layers cohered to form a living, three-dimensional liver tissue construct free of pre-formed scaffold. Also disclosed are arrays and methods of making the same.

Abstract: Disclosed are engineered, living, three-dimensional connective tissue constructs comprising connective tissue cells. In some embodiments, the connective tissue cells are derived from multi-potent cells such as mesenchymal stem/stromal cells. In some embodiments, the cells are cohered to one another. In some embodiments, the multi-potent cells have been exposed to one or more differentiation signals to provide a living, three-dimensional connective tissue construct. In some embodiments, the constructs are substantially free of pre-formed scaffold at the time of use. Also disclosed are implants for engraftment, arrays of connective tissue constructs for in vitro experimentation, as well as methods of making the same.

Abstract: Described are three-dimensional, engineered, biological breast tissues, adipose tissues, and tumor models, including breast cancer models.

Abstract: Described are three-dimensional, engineered, biological breast tissues, adipose tissues, and tumor models, including breast cancer models.

Abstract: Described are three-dimensional, engineered, biological breast tissues, adipose tissues, and tumor models, including breast cancer models.

Abstract: This application discloses methods and materials for preparing functional microvascular beds in the laboratory. These prevascularized constructs can be used to vascularize engineered tissue constructs or to revascularize damaged or diseased tissues or organs following implantation. The prevascularized constructs may also deliver genetically engineered gene products to the bloodstream.

Abstract: Engineered, living, three-dimensional liver tissue constructs comprising: one or more layers, wherein each layer contains one or more liver cell types, the one or more layers cohered to form a living, three-dimensional liver tissue construct. In some embodiments, the constructs are characterized by having at least one of: at least one layer comprising a plurality of cell types, the cell types spatially arranged relative to each other to create a planar geometry; and a plurality of layers, at least one layer compositionally or architecturally distinct from at least one other layer to create a laminar geometry. Also disclosed are arrays and methods of making the same. Also disclosed are engineered, living, three-dimensional liver tissue constructs for use in the augmentation or restoration of one or more liver functions, by in vivo delivery of tissue or utilization of tissue in an extracorporeal device.

Abstract: Engineered, living, three-dimensional liver tissue constructs comprising: one or more layers, wherein each layer contains one or more liver cell types, the one or more layers cohered to form a living, three-dimensional liver tissue construct. In some embodiments, the constructs are characterized by having at least one of: at least one layer comprising a plurality of cell types, the cell types spatially arranged relative to each other to create a planar geometry; and a plurality of layers, at least one layer compositionally or architecturally distinct from at least one other layer to create a laminar geometry. Also disclosed are arrays and methods of making the same. Also disclosed are engineered, living, three-dimensional liver tissue constructs for use in the augmentation or restoration of one or more liver functions, by in vivo delivery of tissue or utilization of tissue in an extracorporeal device.

Abstract: Engineered, living, three-dimensional liver tissue constructs including: one or more layers, wherein each layer contains one or more liver cell types, the one or more layers cohered to form a living, three-dimensional liver tissue construct free of pre-formed scaffold. Also disclosed are arrays and methods of making the same.

Abstract: Described are three-dimensional, engineered, biological breast tissues, adipose tissues, and tumor models, including breast cancer models.

Abstract: Engineered, living, three-dimensional liver tissue constructs comprising: one or more layers, wherein each layer contains one or more liver cell types, the one or more layers cohered to form a living, three-dimensional liver tissue construct. In some embodiments, the constructs are characterized by having at least one of: at least one layer comprising a plurality of cell types, the cell types spatially arranged relative to each other to create a planar geometry; and a plurality of layers, at least one layer compositionally or architecturally distinct from at least one other layer to create a laminar geometry. Also disclosed are arrays and methods of making the same. Also disclosed are engineered, living, three-dimensional liver tissue constructs for use in the augmentation or restoration of one or more liver functions, by in vivo delivery of tissue or utilization of tissue in an extracorporeal device.

Abstract: Engineered, living, three-dimensional liver tissue constructs comprising: one or more layers, wherein each layer contains one or more liver cell types, the one or more layers cohered to form a living, three-dimensional liver tissue construct. In some embodiments, the constructs are characterized by having at least one of: at least one layer comprising a plurality of cell types, the cell types spatially arranged relative to each other to create a planar geometry; and a plurality of layers, at least one layer compositionally or architecturally distinct from at least one other layer to create a laminar geometry. Also disclosed are arrays and methods of making the same. Also disclosed are engineered, living, three-dimensional liver tissue constructs for use in the augmentation or restoration of one or more liver functions, by in vivo delivery of tissue or utilization of tissue in an extracorporeal device.

Abstract: Disclosed are engineered, living, three-dimensional connective tissue constructs comprising connective tissue cells. In some embodiments, the connective tissue cells are derived from multi-potent cells such as mesenchymal stem/stromal cells. In some embodiments, the cells are cohered to one another. In some embodiments, the multi-potent cells have been exposed to one or more differentiation signals to provide a living, three-dimensional connective tissue construct. In some embodiments, the constructs are substantially free of pre-formed scaffold at the time of use. Also disclosed are implants for engraftment, arrays of connective tissue constructs for in vitro experimentation, as well as methods of making the same.

Abstract: This application discloses methods and materials for preparing functional microvascular beds in the laboratory. These prevascularized constructs can be used to vascularize engineered tissue constructs or to revascularize damaged or diseased tissues or organs following implantation. The prevascularized constructs may also deliver genetically engineered gene products to the bloodstream.

Abstract: This application discloses methods and materials for preparing functional microvascular beds in the laboratory. These prevascularized constructs can be used to vascularize engineered tissue constructs or to revascularize damaged or diseased tissues or organs following implantation. The prevascularized constructs may also deliver genetically engineered gene products to the bloodstream.