Patent classifications
A61L27/48
Pixel array medical systems, devices and methods
Systems, instruments, methods, and compositions are described involving removing a portion of the epidermis within a donor site on a subject, and harvesting dermal plugs within the donor site. An injectable filler is formed by mincing the dermal plugs. The injectable filler is configured for injecting into a recipient site on the subject.
Pixel array medical systems, devices and methods
Systems, instruments, methods, and compositions are described involving removing a portion of the epidermis within a donor site on a subject, and harvesting dermal plugs within the donor site. An injectable filler is formed by mincing the dermal plugs. The injectable filler is configured for injecting into a recipient site on the subject.
Pixel array medical systems, devices and methods
Systems, instruments, methods, and compositions are described involving removing a portion of the epidermis within a donor site on a subject, and harvesting dermal plugs within the donor site. An injectable filler is formed by mincing the dermal plugs. The injectable filler is configured for injecting into a recipient site on the subject.
Liver Tissue Model Constructs and Methods for Providing the Same
The present invention provides for a liver tissue model construct composed of biomaterials and cells, to be used for scientific research within in the 3D liver tissue modelling field. The applications of said tissue model construct can be specific for pharmaceutical evaluations and/or discoveries, regenerative medicine investigations, tissue engineering developments, and liver physiology and/or pathology.
Liver Tissue Model Constructs and Methods for Providing the Same
The present invention provides for a liver tissue model construct composed of biomaterials and cells, to be used for scientific research within in the 3D liver tissue modelling field. The applications of said tissue model construct can be specific for pharmaceutical evaluations and/or discoveries, regenerative medicine investigations, tissue engineering developments, and liver physiology and/or pathology.
REINFORCED BIOCOMPATIBLE SCAFFOLD
A reinforced biocompatible scaffold facilitates integration of biological tissue. The reinforced scaffold comprises a porous biocompatible scaffold and an arrangement of at least one biocompatible filament embedded within and fixed to the biocompatible scaffold, and/or at least one biocompatible conduit embedded within and fixed to the biocompatible scaffold.
REINFORCED BIOCOMPATIBLE SCAFFOLD
A reinforced biocompatible scaffold facilitates integration of biological tissue. The reinforced scaffold comprises a porous biocompatible scaffold and an arrangement of at least one biocompatible filament embedded within and fixed to the biocompatible scaffold, and/or at least one biocompatible conduit embedded within and fixed to the biocompatible scaffold.
IMPLANT SURFACES FOR PAIN CONTROL
The invention related to therapeutic polymeric materials and medical implants containing additives and/or analgesic agents. The invention also relates to methods of making therapeutic polymeric materials and medical implants containing additives and/or analgesic agents. Methods of spatially controlling additive concentrations and release as well as polymeric material morphology are also provided.
IMPLANT SURFACES FOR PAIN CONTROL
The invention related to therapeutic polymeric materials and medical implants containing additives and/or analgesic agents. The invention also relates to methods of making therapeutic polymeric materials and medical implants containing additives and/or analgesic agents. Methods of spatially controlling additive concentrations and release as well as polymeric material morphology are also provided.
ANTIMICROBIAL SILK NANOPARTICLES AND METHODS FOR MAKING AND USING THE SAME
Described herein are biocompatible materials that include a nitric oxide (NO) donor embedded in silk fibroin nanoparticles. In one aspect, the nitric oxide donor is present in the hydrophobic core of the silk fibroin nanoparticles such that the nitric oxide donor is encapsulated. The biocompatible materials described herein serve as a biocompatible and inexpensive nitric oxide delivery platform that provide sustained release of nitric oxide. The biocompatible materials are non-toxic and can be used in biomedical applications such as wound healing, where a combination of therapeutic and antibacterial properties of silk and nitric oxide are desired. Additionally, described herein are methods of making the biocompatible materials.