A61L27/54

HISTATIN-1 FORMULATION FOR THE TREATMENT, REPAIR OR REGENERATION OF BONE TISSUE IN A SUBJECT

The present invention relates to a formulation or composition for the treatment, repair, formation or regeneration of bone tissue in a subject, comprising Histatin-1 or its derivatives. The present invention also relates to a biomaterial comprising Histatin-1 or its derivatives in a biocompatible material, and a method for the treatment, repair, formation or regeneration of bone tissues in a subject comprising administering to the subject a therapeutically effective amount of Histatin-1 or its derivatives.

HISTATIN-1 FORMULATION FOR THE TREATMENT, REPAIR OR REGENERATION OF BONE TISSUE IN A SUBJECT

The present invention relates to a formulation or composition for the treatment, repair, formation or regeneration of bone tissue in a subject, comprising Histatin-1 or its derivatives. The present invention also relates to a biomaterial comprising Histatin-1 or its derivatives in a biocompatible material, and a method for the treatment, repair, formation or regeneration of bone tissues in a subject comprising administering to the subject a therapeutically effective amount of Histatin-1 or its derivatives.

Medical Device That Includes a Rhenium Metal Alloy
20230040416 · 2023-02-09 ·

A medical device that is at least partially formed of a rhenium metal alloy.

Medical Device That Includes a Rhenium Metal Alloy
20230040416 · 2023-02-09 ·

A medical device that is at least partially formed of a rhenium metal alloy.

GRAPHENE BIOSCAFFOLDS AND THEIR USE IN CELLULAR THERAPY
20230040370 · 2023-02-09 ·

A bioscaffold comprising a graphene matrix for use in cellular therapy is disclosed. In particular, a bioscaffold having a coating of dexamethasone on a three-dimensional graphene matrix is provided, wherein the bioscaffold elutes dexamethasone to reduce inflammatory responses following implantation of the bioscaffold in a subject. Having the dexamethasone released locally in the vicinity of the bioscaffold avoids the systemic side effects from conventional intravenous delivery while allowing the dexamethasone to modulate the inflammatory milieu within the transplantation microenvironment.

GRAPHENE BIOSCAFFOLDS AND THEIR USE IN CELLULAR THERAPY
20230040370 · 2023-02-09 ·

A bioscaffold comprising a graphene matrix for use in cellular therapy is disclosed. In particular, a bioscaffold having a coating of dexamethasone on a three-dimensional graphene matrix is provided, wherein the bioscaffold elutes dexamethasone to reduce inflammatory responses following implantation of the bioscaffold in a subject. Having the dexamethasone released locally in the vicinity of the bioscaffold avoids the systemic side effects from conventional intravenous delivery while allowing the dexamethasone to modulate the inflammatory milieu within the transplantation microenvironment.

METHOD FOR FABRICATING COLLAGEN BIO-INK, COLLAGEN BIO-INK AND 3D BIO-PRINTING METHOD
20230040223 · 2023-02-09 ·

A method for fabricating a collagen bio-ink includes steps as follows. A first component is provided, wherein the first component is to fill a collagen powder to a first syringe. A second component is provided, wherein the second component is to fill a neutral solution or an acid solution to a second syringe. A mixing step is performed, wherein the first syringe is connected to the second syringe with a Lure lock connector and pushing back and forth to mix the first component and the second component to form a hydrogel and become a collagen bio-ink.

Orthopaedic trauma devices with porous regions and therapeutic agent delivery
11589908 · 2023-02-28 · ·

A device for treating orthopaedic trauma includes a device body having an exterior surface and a cannulation formed therein that extends from one longitudinal end of the device body to an opposite longitudinal end of the device body and at least one porous ingrowth material region associated with the exterior surface of the device body and fluidly coupled to the cannulation. The at least one porous ingrowth material region is configured to deliver a therapeutic agent from the cannulation to a region outside the device body.

Orthopaedic trauma devices with porous regions and therapeutic agent delivery
11589908 · 2023-02-28 · ·

A device for treating orthopaedic trauma includes a device body having an exterior surface and a cannulation formed therein that extends from one longitudinal end of the device body to an opposite longitudinal end of the device body and at least one porous ingrowth material region associated with the exterior surface of the device body and fluidly coupled to the cannulation. The at least one porous ingrowth material region is configured to deliver a therapeutic agent from the cannulation to a region outside the device body.

Hyperbranched polymers and polyplexes and DNA or RNA delivery systems including the same

A hyperbranched polymer includes a hyperbranched, hydrophobic molecular core, respective low molecular weight polyethyleneimine chains attached to at least three branches of the hyperbranched, hydrophobic molecular core, and respective polyethylene glycol chains attached to at least two other branches of the hyperbranched, hydrophobic molecular core. Examples of the hyperbranched polymer may be used to form hyperbranched polyplexes, and may be included in DNA or RNA delivery systems.