Abstract: A multi-layer device is provided that is useful in tissue regeneration, for example, for vascular regeneration, e.g., for use in treatment of a coronary vascular disease, such as for treatment of myocardial infarction. A method of making the device also is provided.

Abstract: An atrioventricular prosthesis device is provided. The device includes a frame at least partially defining and enclosing a central cavity, the frame having a distal portion, a proximal portion, and a middle portion connected therebetween. The device further includes a valve construct formed, at least in part, from a cell growth scaffold, at least partially disposed within the central cavity defined by the frame. The valve construct includes: an annular portion defining an aperture and being connected to the frame for positioning the valve construct within the central cavity of the frame, and a plurality of leaflets extending longitudinally and radially inward from the annular portion. The frame and valve construct are transitionable to a deployed state, in which a diameter of at least a portion of the frame and the valve construct substantially conform to a diameter of a tricuspid and/or mitral valve opening.

Abstract: A method of making a valve structure includes a step of rotating a mandrel and an electrodeposition target attached to the mandrel about a rotational axis of the mandrel. The target includes an exterior surface having at least one conductive surface portion and at least one non-conductive surface portion. The method also includes a step of electrodepositing a polymer matrix of a biodegradable, biocompatible polymer composition onto the at least one conductive surface portion and the at least one non-conductive surface portion of the exterior surface of the rotating electrodeposition target to form the valve structure.

Abstract: Provided herein is a percutaneous expandable venous cannula device, and related methods. The device is easily inserted, for example, using standard Seldinger technique via the right internal jugular. The device includes multiple, multi-holed limbs that softly fill, e.g., the right atrium to facilitate complete drainage, enable retraction of the chamber in surgery, and mitigate suction occlusion, filling the entire atrium and allowing for efficient and rapid emptying of the chamber. In aspects, the device facilitates minimally-invasive aortic or mitral valve surgery with single placement via the right internal jugular as the sole cannula needed for full support.

Abstract: The present invention provides microparticles that induce the migration of multipotent stem cells to the anatomical site of the microparticles. Various release profiles are demonstrated that depend upon the relative concentration of alginate in the chemokine-loaded microparticle. Local administration and/or intraarticular injection of the microparticles are useful in conditions such as osteoarthritis. Targeted systemic delivery of the alginate chemokine microparticles to distant anatomical sites subjected to autoimmune disease symptomology can be performed by encapsulation within liposomes having targeting ligands. Consequently, upon the creation of the appropriate chemokine gradient, multipotent stem cells will migrate to the distant anatomical site where the liposomes are attached.

Abstract: Provided herein is an electrodeposition apparatus for producing long polymeric threads, yarns, or ropes. A method of preparing long polymeric threads, yarns or ropes also is provided.

Abstract: Provided herein is a ligament ECM soluble fraction useful for the growth and regrowth of ligament tissue. Methods of preparation of the soluble fractions and use of the soluble fractions in growth or regrowth of ligament tissue also are provided.

Abstract: Methods for inhibiting tissue ossification or calcification in a subject, comprising administering a therapeutically effective amount of BMP I inhibitor-loaded microparticles to a subject in need thereof, wherein the administration provides local and sustained release of the BMP I inhibitor thereby inhibiting tissue ossification or calcification.

Abstract: The present invention provides microparticles that induce the migration of multipotent stem cells to the anatomical site of the microparticles. Various release profiles are demonstrated that depend upon the relative concentration of alginate in the chemokine-loaded microparticle. Local administration and/or intraarticular injection of the microparticles are useful in conditions such as osteoarthritis. Targeted systemic delivery of the alginate chemokine microparticles to distant anatomical sites subjected to autoimmune disease symptomology can be performed by encapsulation within liposomes having targeting ligands. Consequently, upon the creation of the appropriate chemokine gradient, multipotent stem cells will migrate to the distant anatomical site where the liposomes are attached.

Abstract: The present invention provides microparticles that induce the migration of multipotent stem cells to the anatomical site of the microparticles. Various release profiles are demonstrated that depend upon the relative concentration of alginate in the chemokine-loaded microparticle. Local administration and/or intraarticular injection of the microparticles are useful in conditions such as osteoarthritis. Targeted systemic delivery of the alginate chemokine microparticles to distant anatomical sites subjected to autoimmune disease symptomology can be performed by encapsulation within liposomes having targeting ligands. Consequently, upon the creation of the appropriate chemokine gradient, multipotent stem cells will migrate to the distant anatomical site where the liposomes are attached.