Methods and devices are provided for promoting wound healing. In general, surgical staplers and staple components are provided having an effective amount of at least matrix metalloproteinase (MMP) inhibitor being effective to prevent MMP-mediated extracellular matrix degeneration during wound healing in tissue.

Disclosed herein are compositions and methods useful for manufacturing SC- cell, and isolated populations of SC- cells for use in various applications, such as cell therapy.

The invention is directed to methods of inducing cell recruitment and tissue regeneration at a target site in a subject. It is also based, in part, on the discovery that a subject's own biologic resources and environmental conditions can be used for in situ tissue regeneration and thereby reduce or eliminate the need for donor cell procurement and ex vivo manipulation of such donor cells. Methods are disclosed for recruitment of a subject's own stem cells to a target region by inducing a sustained positive pressure at a target site, such as the kidney, thereby increasing the number of pluripotent cells capable of differentiating to regenerate the target tissue.

Methods for treating cardiovascular disorders that include administration of an ECM based composition to damaged cardiovascular tissue in conjunction with a treatment remedy, such as ventricular assistance and transmyocardial revascularization (TMR), which induces enhanced bioremodeling of the damaged cardiovascular tissue and regeneration of new cardiovascular tissue and associated structures with site-specific structural and functional properties.

The present disclosure relates to a polycaprolactone microsphere filler containing collagen peptide and a preparation method therefor. Provided is a polycaprolactone microsphere filler obtained by encapsulating collagen peptide in polycaprolactone microspheres, which, when injected into a living body, exhibits a rapid collagen formation effect as well as a high tissue restoration property and maintains the effects for a long period of time, thereby showing excellent restoration or volume expansion or wrinkle improvement properties of soft tissues such as cheeks, breasts, nose, lips, and buttocks.

System and methods for stimulating cartilage formation at a first tissue site through a second tissue site is presented. The system includes a fluid source for supplying a therapeutic solution, a reduced pressure source for supplying reduced pressure, a fluid delivery manifold for deploying adjacent the first tissue site, and a vacuum manifold for deploying within the second tissue site. The fluid delivery manifold extends between a proximal end fluidly coupled to the fluid supply and a distal end having at least one aperture for delivering the therapeutic solution to the defect adjacent the articulating surface of the first tissue site. The vacuum manifold extends between a proximal end fluidly coupled to the reduced pressure source and a distal end having at least one aperture for delivering the reduced pressure to the first tissue site adjacent the opposing surface of the first tissue site.

The disclosure provides drug delivery devices and methods of making and using the drug delivery devices. The devices include single and multi-layer polymer films made by a breath figure technique having therapeutic agents associated therewith. For example, the devices may be a dual layer polymer film wherein the first layer includes a therapeutic agent incorporated into it by spin coating the first agent with a polymer solution and the second agent is incorporated into the second layer by loading the agent into pores of the second layer after it is spin coated onto the first layer. In some cases one layer provides a burst release and the second layer provides a slow release drug delivery profile. The devices may take on the form of a surgical mesh with a slow release therapeutic drug.

Embodiments of the invention relate generally to electrospun fibers and, more particularly, to the controlled release of an active pharmaceutical ingredient (API) from electrospun fiber scaffolds (EFSs).

Diabetic wounds have elevated levels of cathepsin K, a protease enzyme, which degrades proteins, such as collagen, causing delayed wound healing. By targeting cathepsin K, diabetic wound healing is ameliorated. Methods and devices for treatment include topical application of pharmacological inhibitors of cathepsin K, for example, in the form of gel, powder, or bandage. Other methods and systems include localized genetic knock out of the cathepsin K gene by topical application of a small interfering RNA (siRNA) or antisense oligonucleotide to aid in wound healing.

ECM based compositions including acellular ECM and antibiotics, and methods for employing same to treat damaged cardiovascular tissue and, thereby, disorders.