Abstract: Pressurized non-dairy compositions that can be expelled from a pressurized container, typically through an actuator, into a beverage are described. Upon combining the non-dairy composition with the beverage, a portion of the non-dairy composition provides a stable foam on top of the beverage (“foaming”) and a portion of the non-dairy composition is mixed into and remains in the beverage (“creaming”).

Abstract: A weather-resistant-and-insulated apparel, including a torso portion to cover at least a portion of at least one of a chest, a torso, and a back of a user, a collar to cover at least a portion of at least one of a neck and a chin of the user, the collar including a hood connected to the collar to cover at least a portion of a head of the user, and a face shield removably connected to at least a portion of the hood to prevent at least one of air and precipitation from entering the hood, a plurality of arm portions to cover at least a portion of at least one of an arm and a shoulder of the user, a pelvic portion to cover at least a portion of at least one of a waist, a hip, a crotch and buttocks of the user, and a plurality of leg portions to cover at least a portion at least one of a leg and a knee of the user.

Abstract: A computer receives at least one requirement for a new VM. The computer identifies an existing VM to be modified during the generation of the new VM. The computer determines at least one step necessary to create the new VM configuration from the existing VM. The computer presents at least one pathway to the new VM from the existing VM. The computer receives a selection of a presented pathway to create the new VM.

Abstract: Pressurized non-dairy compositions that can be expelled from a pressurized container, typically through an actuator, into a beverage are described. Upon combining the non-dairy composition with the beverage, a portion of the non-dairy composition provides a stable foam on top of the beverage (“foaming”) and a portion of the non-dairy composition is mixed into and remains in the beverage (“creaming”).

Abstract: Pressurized non-dairy compositions that can be expelled from a pressurized container, typically through an actuator, into a beverage are described. Upon combining the non-dairy composition with the beverage, a portion of the non-dairy composition provides a stable foam on top of the beverage (“foaming”) and a portion of the non-dairy composition is mixed into and remains in the beverage (“creaming”).

Abstract: Pressurized non-dairy compositions that can be expelled from a pressurized container, typically through an actuator, into a beverage are described. Upon combining the non-dairy composition with the beverage, a portion of the non-dairy composition provides a stable foam on top of the beverage (“foaming”) and a portion of the non-dairy composition is mixed into and remains in the beverage “creaming”).

Abstract: A computer receives at least one requirement for a new VM. The computer identifies an existing VM to be modified during the generation of the new VM. The computer determines at least one step necessary to create the new VM configuration from the existing VM. The computer presents at least one pathway to the new VM from the existing VM. The computer receives a selection of a presented pathway to create the new VM.

Abstract: A method of performing and preserving a bioremodelable, biopolymer scaffold material by subjecting animal tissue to chemical and mechanical processing. In addition to skin tissue, another source of EBM is a blood vessel. EBM may be used for hernia repair, colon, rectal, vaginal and or urethral prolapse treatment; pelvic floor reconstruction; muscle flap reinforcement; lung tissue support; rotator cuff repair or replacement; periosteum replacement; dura repair; pericardial membrane repair; soft tissue augmentation; intervertebral disk repair; and periodontal repair. EBM may also be used as a urethral sling, laminectomy barrier or spinal fusion device.

Abstract: A computer receives at least one requirement for a new VM. The computer identifies an existing VM to be modified during the generation of the new VM. The computer determines at least one step necessary to create the new VM configuration from the existing VM. The computer presents at least one pathway to the new VM from the existing VM. The computer receives a selection of a presented pathway to create the new VM.

Abstract: A computer receives at least one requirement for a new VM. The computer identifies an existing VM to be modified during the generation of the new VM. The computer determines at least one step necessary to create the new VM configuration from the existing VM. The computer presents at least one pathway to the new VM from the existing VM. The computer receives a selection of a presented pathway to create the new VM.

Abstract: A method of forming and preserving a bioremodelable, biopolymer scaffold material by subjecting animal tissue to chemical and mechanical processing. In addition to skin tissue, another source of EBM is a blood vessel. EBM may be used for hernia repair, colon, rectal, vaginal and or urethral prolapse treatment; pelvic floor reconstruction; muscle flap reinforcement; lung tissue support; rotator cuff repair or replacement; periosteum replacement; dura repair; pericardial membrane repair; soft tissue augmentation; intervertebral disk repair; and periodontal repair. EBM may also be used as a urethral sling, laminectomy barrier or spinal fusion device.

Abstract: A computer receives at least one requirement for a new VM. The computer identifies an existing VM to be modified during the generation of the new VM. The computer determines at least one step necessary to create the new VM configuration from the existing VM. The computer presents at least one pathway to the new VM from the existing VM. The computer receives a selection of a presented pathway to create the new VM.

Abstract: A computer receives at least one requirement for a new VM. The computer identifies an existing VM to be modified during the generation of the new VM. The computer determines at least one step necessary to create the new VM configuration from the existing VM. The computer presents at least one pathway to the new VM from the existing VM. The computer receives a selection of a presented pathway to create the new VM.

Abstract: A method of forming and preserving a bioremodelable, biopolymer scaffold material by subjecting animal tissue to chemical and mechanical processing. In addition to skin tissue, another source of EBM is a blood vessel. EBM may be used for hernia repair, colon, rectal, vaginal and or urethral prolapse treatment; pelvic floor reconstruction; muscle flap reinforcement; lung tissue support; rotator cuff repair or replacement; periosteum replacement; dura repair; pericardial membrane repair; soft tissue augmentation; intervertebral disk repair; and periodontal repair. EBM may also be used as a urethral sling, laminectomy barrier or spinal fusion device.

Abstract: This application discloses Dermal Derived Human Stem Cells (DDhSCs) and methods of making and using thereof. More specifically, the invention relates to DDhSCs derived from subsets of dedifferentiated dermal fibroblasts that can give rise to a series of cell lineages. The DDhSCs may be used, for example, in cell therapy and in the search for and development of novel medicaments.

Abstract: A method of forming and preserving a bioremodelable, biopolymer scaffold material by subjecting animal tissue, particularly fetal or neo-natal tissue, to chemical and mechanical processing. The process includes, but is not limited to, harvesting the tissue, optionally extracting growth and differentiation factors from the tissue, inactivating infective agents of the tissue, mechanically expressing undesirable components from the tissue, delipidizing the tissue, washing the tissue, optionally drying the tissue, optionally cross-linking the tissue not necessarily in the order described. The resulting product, EBM, is characterized by its microbial, fungal, viral and prion inactivated state. EBM is strong, bioremodelable, drapable and does not undergo calcification. EBM supplants previous inventions because of its unique method of preparation and broad applicability in tissue reengineering.

Abstract: A vascular prosthesis having one or more inner layers formed of an air-dried collagen-containing matrix and one or more outer layers formed of a freeze-dried collagen-containing matrix is described.

Abstract: Methods and compositions for repairing tissue. Certain embodiments of the invention involve transdifferentiation of cells in a manner not heretofore provided for. One embodiment of the invention features methods for producing stem cells. These methods can involve exposing cells (e.g., human fibroblasts) to a processed or activated egg extract (e.g., activated egg extract); and culturing the cells for a period of time to become stem cells. A cell culture can be performed in two or three dimensions, so that organ tissue or whole organs may be produced, e.g., for transplantation. Another embodiment of the invention features methods for promoting wound healing by using signaling complexes.

Abstract: The applications of this invention, the use of stem cells derived from the dermis, include but are not limited to cell differentiation, histiogenesis, organogenesis, cell therapy, tissue engineering, and tissue and organ regeneration.

Abstract: A method of forming and preserving a bioremodelable, biopolymer scaffold material by subjecting animal tissue, particularly fetal or neo-natal tissue, to chemical and mechanical processing. The process includes, but is not limited to, harvesting the tissue, optionally extracting growth and differentiation factors from the tissue, inactivating infective agents of the tissue, mechanically expressing undesirable components from the tissue, delipidizing the tissue, washing the tissue, optionally drying the tissue, optionally cross-linking the tissue not necessarily in the order described. The resulting product, EBM, is characterized by its microbial, fungal, viral and prion inactivated state. EBM is strong, bioremodelable, drapable and does not undergo calcification. EBM supplants previous inventions because of its unique method of preparation and broad applicability in tissue reengineering.