The invention relates to a device for use in the transcatheter treatment of mitral valve regurgitation, specifically a coaptation enhancement element for implantation across the valve; a system including the coaptation enhancement element and anchors for implantation; a system including the coaptation enhancement element, catheter and driver; and a method for transcatheter implantation of a coaptation element across a heart valve.

An absorbable iron-based device includes an iron-based matrix and degradable polyester in contact with the surface of the iron-based matrix. The mass fraction of a low-molecular-weight part of the degradable polyester is less than or equal to 5%, and the molecular weight of the low-molecular-weight part is less than 10,000; or the mass fraction of a residual monomer in the degradable polyester is less than or equal to 2%.

The invention provides medical devices comprising high-strength alloys which degrade over time in the body of a human or animal, at controlled degradation rates, without generating emboli and which have enhanced degradation due to the presence of a halogen component. In one embodiment the alloy is formed into a bone fixation device such as an anchor, screw, plate, support or rod. In another embodiment the alloy is formed into a tissue fastening device such as staple. In yet another embodiment, the alloy is formed into a dental implant or a stent.

The present application provides an orthopedic implant or a part thereof, comprising biodegradable magnesium alloy comprising magnesium and Ca in the range of 0.550-0.700 wt %, Zn in the range of 0.400-0.700 wt %, and Fe 50 ppm or less, the biodegradable magnesium alloy consisting of two phases comprising a first phase comprising magnesium and Zn and a second phase less noble than the first phase, the second phase comprising Mg.sub.2Ca precipitates larger than nano-sized. The present application also provides a method for preparing the biodegradable magnesium alloy, a method for preparing the orthopedic implant or the part thereof, and a method for treating a subject in need of therapy for a medical condition of a bone.

The present invention is directed to a shape memory alloy, particularly a Fe-based shape memory alloy, that is suitable for use in additive manufacturing methods, as well as methods of use and methods of altering the composition of the alloy during fabrication.

Magneto-responsive properties are traditionally imparted to scaffold systems via integration of iron oxide-based magnetic nanoparticles (MNPs), yet poor understanding of long-term MNP toxicity presents a significant translational challenge. Given the demonstrated iron-binding capacity of silk fibroin (SF), passive chelation of ferric iron ions is explored herein as an alternative, MNP-free approach for magnetic functionalization of silk fibroin (SF)-based biomaterials. SF microfibers treated with aqueous ferric chloride (FeCl.sub.3) exhibit significantly increased iron content relative to the nascent protein.

Compositions and methods for etching a nanoscale geometry on a metal or metal alloy surface are disclosed. Such surfaces, when included on an implantable medical device, enhance healing after surgery. When included on a bone contacting medical implant, the nanoscale geometry may enhance osseointegration. When included on a tissue contacting device, the nanoscale geometry may enhance endothelial cell attachment, proliferation, and restoration of a healthy endothelial surface.

The invention relates to an arrangement (1) comprising at least one structural element (2) made of an absorbable material with an antibacterial effect with a mount, which possesses an aspect ratio greater than 10 and whereat the material is a rapidly corroding magnesium alloy. The invention further relates to a mount (10) with an arrangement (1) carried by the mount (10) comprising at least one structural element (2) made of an absorbable material with an antibacterial effect.

A more versatile and anatomically correct breast implant is described. The breast implant comprises a container filled with a liquid or gel filling material and a support member coupled to the container, wherein the support member is an integral part of the container.

The device is intended for the noninvasive induction of dynamic deformation of body tissue to differentiate tissue cells. It comprises the following components: (i) a suspension of particles suspended in solution; and (ii) an external actuator which is capable of magnetically, electrically, vibrationally, or thermally stimulating the suspended particles.