Embodiments of the invention are related to an apparatus for suturing a tissue. The apparatus includes an outer tube, a thread threaded in the outer tube and at least one anchoring element located inside the outer tube and configured to be inserted into the tissue from an outlet end of the outer tube. The outer tube is configured to freely accommodate the thread and the at least one anchoring element, and the anchoring element includes a body adapted to be threaded on the thread and having at least locking element for locking the thread to the anchoring element.

A catheter device for heart repair comprises a leaflet anchor for placement in a leaflet of a heart valve, wherein the leaflet anchor is coupled to the artificial chord; a mechanical gripper device for grasping the leaflet of the heart valve, wherein the gripper device comprises a leaflet anchor channel for housing the leaflet anchor in a folded configuration; and a U-rod wire with a U-shaped rod at one end of the wire, with the free end of the U-shape abutting the end of the leaflet anchor; the gripper device and leaflet anchor being arranged such that when the gripper device grasps the leaflet, the U-rod wire can be used to push the leaflet anchor out of the leaflet anchor channel to pierce the leaflet and form the leaflet anchor into an unfolded configuration permitting hooked formations of the leaflet anchor to secure the leaflet anchor in the leaflet.

A system for repairing tears in soft tissue, e.g., meniscal tissue, by employing cinch stitching. More specifically, the present invention provides an apparatus for meniscal repair using a suture implant construct. The suture implant construct includes a first and second implant which are connected to each other via a length of suture. The implants are designed to be loaded on external surfaces of the first and second trocars.

A novel catheter-based system which ligates the left atrial appendage (LAA) on the outside of the heart, preferably using a combination of catheters and/or instruments, e.g., a guide catheter positioned inside the left atrial appendage which may assist in locating the left atrial appendage and/or assist in the optimal placement of a ligature on the outside of the appendage, and a ligating catheter and/or instrument outside the heart in the pericardial space to set a ligating element at the neck of the left atrial appendage.

Described here are devices, systems and methods for closing the left atrial appendage. Some of the methods described here utilize one or more guide members having alignment members to aid in positioning of a closure device. In general, these methods include advancing a first guide having a first alignment member into the left atrial appendage, advancing a second guide, having a second alignment member, into the pericardial space, aligning the first and second alignment members, advancing a left atrial appendage closure device into the pericardial space and adjacent to the left atrial appendage, and closing the left atrial appendage with the closure device. In these variations, the closure device typically has an elongate body having a proximal end and a distal end, and a closure element at least partially housed within the elongate body. The closure element comprises a loop defining a continuous aperture therethrough.

The present disclosure provides a cutting assembly for cutting an object, such as a suture, within the body of a patient. The cutting assembly includes a housing, a proximal cutting element, a distal cutting element, and an actuating member. Both the proximal and distal cutting elements have a cutting surface or blade. The blades face each other within the housing and actuate towards each other to cut the suture. The housing further includes a plurality of slots that house the blades and maintain them in the orientation desired for cutting. The housing further includes openings to guide the suture through the cutting assembly. The cutting assembly provides sufficient flexibility to be oriented at the suture location, but maintains its rigidity to effectuate a sufficient, clean cut.

A surgical kit includes an instrument and two or more cartridges. The instrument includes a body, a shaft assembly, and a cartridge receiving assembly. The cartridge receiving assembly has a movable output feature, which is configured to move in response to activation of the actuation input feature. The cartridges may include a first suturing cartridge and a second suturing cartridge, with first and second suture needles, respectively. The second suture needle may extend along an arc that has a larger radius of curvature than an arc associated with the first suture needle. The cartridges may also include a drive assembly that is operable to drive the needle along an orbital path in response to movement of the actuation input feature. The cartridges may also include features that are operable to apply clips or staples. The cartridges may also include features that are operable to grasp or cut.

A knotter, including: a driving structure; a punching and shearing clip, a clip mouth of the punching and shearing clip having a first position in an open state, and a second position in a punching state when driven by the driving structure; and scissor having a first position in an open state when driven by the driving structure, and a second position in a shearing state when driven by the driving structure. The second position of the scissor is synchronized with the second position of the punching and shearing clip. The disclosure effectively solves the problem that the shearing knife of the knotter in the related art is unstable when cutting the suture line.

A catheter device (2) is provided for implanting an anchor (9) into body tissue to attach a line (14) to the body tissue. The catheter device (2) comprises: a housing section (4), (8) extending from a distal end of the catheter device (2) along the length of the catheter device (2) toward the proximal end of the catheter device, the housing section (4), (8) comprising a distal part (8) at the distal end of the catheter device (2) and a proximal part 4 located on the proximal side of the distal part (8). An anchor deployment mechanism (106), (110) is provided at the distal part (8) of the housing section (4), (8) for deployment of the anchor (9) for attachment of the anchor (9) to the body tissue. The anchor (9) is held in its stowed position by the anchor deployment mechanism (106, 110) in the distal part (8) prior to deployment, and the anchor (9) comprises a number of hooks (62) for engagement with the body tissue and having a folded position and an unfolded position, wherein the anchor (9) is made of an elastic material such that the hooks (62) can be elastically deformed into the folded position by application of a constraining force, and will return to the unfolded position when no constraining force is applied, and wherein the hooks (62) are held in the folded position whilst the anchor (9) is in the stowed position within the distal part (8). The distal part (8) of the housing (4), (8) has a non-circular shape (118), (117) for engagement with a corresponding non-circular form (28), (108) of the anchor (9) and/or the anchor deployment mechanism (106), (110), such that when the anchor (9) is held in the distal part (8) movement of the anchor (9) is restrained with respect to rotation of the anchor (9) about a longitudinal axis of the distal part (8) due to engagement between the non-circular shape (118), (117) and the non-circular form (28), (108).

Devices, systems, and methods for treating a heart of a patient may make use of one or more implant structures which limit a size of a chamber of the heart, such as by deploying a tensile member to bring a wall of the heart toward (optionally into contact with) a septum of the heart.