A tissue fixation device includes an elongated body extending between a distal portion including a barbed loop, and a proximal portion including a blunt tip. The elongated body, proximal portion, and distal portion are provided in a variety of configurations depending upon the performance requirements desired of the tissue fixation device for the envisaged application of use.

A percutaneous device for closing blood vessels has a main body in which a distal clip and a proximal clip connected to each other by a tie rod are accommodated, an abutment element, and a handle for maneuvering the distal and proximal clips, the abutment element and the tie rod. The distal clip has a proximal housing, and the proximal clip has a distal housing and a proximal housing. The tie rod is positioned inside the housings when the distal and proximal clips are inserted inside the main body, so as to not interfere with correct sliding thereof.

Meniscal repair devices, systems, and methods are provided.

The present teachings provide methods for resizing, reducing, and closing left atrial appendage. Specifically, a percutaneous trans-septal access is first established from outside the body to a patient's LAA. At least two tissue anchors are then implanted inside the LAA chamber and along the tissue wall. At least one anchor is implanted near the opening of the LAA camber. Both tissue anchors are pulled together so that the wall of the LAA chamber collapse. The LAA chamber is therefore resized, reduced, and/or closed off completely. This closure method and system could be used alone in closing LAA chamber. This closure method and system could also be used in addition to other treatment mechanisms, such as filling the LAA chamber with space-filling material, then closing off its opening.

A suture anchor for fixation within an anatomical structure includes an actuation member in contact with an anchor body at a first location thereof. The anchor body is elongate along a direction of elongation and defines a central axis. In a neutral configuration, the anchor body is flat and defines a thickness along a transverse direction and a width along a lateral direction, the width being greater than the thickness. The anchor body has first and second tails that are braided together along a portion of the actuation member from the first location to a second location of the anchor body. The actuation member is configured to apply a force to the braided anchor body so as to actuate the anchor body in a manner increasing its maximum thickness along a second direction that is angularly offset from the direction of elongation.

Methods and devices for transvascular prosthetic chordae tendineae implantation are disclosed. A catheter is advanced into the left atrium. From an atrium side, a leaflet anchor having a leaflet suture is secured to the mitral valve leaflet. A ventricular anchor is anchored to the wall of the ventricle to secure the ventricular wall to a ventricle suture. The leaflet suture and the ventricle suture may be tensioned and connected by a suture lock to form an artificial chordae. The suture lock has a body with a suture path extending therethrough. A wall in the housing is movable to reduce the cross section of the suture path. A drive mechanism advances the movable wall to clamp sutures extending through the suture path, in response to rotation of a coupling on the housing.

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.

The present disclosure involves a system and method of use for delivering an interventional instrument, such as an artificial chordae tendineae (ACT) delivery instrument, into a beating heart. By delivering interventional instruments in a beating heart via the system described here, complex and invasive open heart procedures as well as cardiopulmonary bypass can be avoided, significantly reducing patient trauma and recovery time as well as operation time and complexity. The system disclosed includes an optical imaging system to provide the practitioner with visual imagery from the end of the system, and allow for real-time or near real-time imaging of tissue inside the beating heart (e.g., leaflet tissue). This provides for accurate verification of placement of the interventional instrument. In addition, the system includes a grasping mechanism, which allows the practitioner to hold tissue in position prior to placing the interventional instrument.

A soft suture anchor construct is provided for placement in or against tissue or bone. The anchor includes an all-suture anchor having two ends positioned in a first direction in a pre-deployment configuration. In a deployed configuration, the two ends are positioned in a second direction different from the first direction. The suture anchor construct also includes a filament passing through the anchor at a plurality of passing locations, where the filament changes direction at least once along the direction of the longitudinal axis of the anchor and forms at least one slack line. In the pre-deployment configuration, the filament extends a first length between adjacent passing locations, and in the deployed configuration, the filament extends a second length between adjacent passing locations. The second length is shorter than the first length. The suture anchor construct may be deployed in a bone hole with an inserter, anchor driver, or other deployment device.

A method and apparatus for coupling a soft tissue implant into a locking cavity formed within a bone is disclosed. The apparatus includes a member to pull the soft tissue implant into a femoral tunnel. The member includes a suture having first and second ends which are passed through first and second openings associated with the longitudinal passage to form a pair of loops. A collapsible tube is positioned about the suture. Application of tension onto the suture construction causes retraction of the soft tissue implant into the femoral tunnel and the collapse of the tube to form an anchor.