The present invention relates to a surgical clip, comprising a first clamping arm, a second clamping arm, and a biasing element, which first clamping arm defines a first clamping surface, which second clamping arm defines a second clamping surface, and which biasing element holds the first clamping surface and the second clamping surface against each other in a basic position, in particular under bias, wherein the first and the second clamping arm are pivotable against each other counter to the action of the biasing element, wherein the biasing element is configured in the form of a coil spring which defines a coil spring longitudinal axis and has a first coil spring end and a second coil spring end, wherein the coil spring comprises between the first coil spring end and the second coil spring end at least one winding extending over a circumferential angle of more than 360°.

A medical clip includes first and second clamping arms and a biasing element. The first clamping arm is connected to a first end of the biasing element, and the second clamping arm is connected to a second end of the biasing element. The first clamping arm and the second clamping arm are maximally proximate to one another in a basic position of the clip and are movable away from one another against the action of the biasing element from the basic position into an opening position. The medical clip is made partially by a generative manufacturing process, in which the medical clip has at least one first clip portion and at least one second clip portion. The at least one second clip portion is formed directly onto the at least one first clip portion by a generative manufacturing process.

A device for compressing body tissue includes a clip having a connection portion with first and second clip arms extending therefrom, the clip includes a recess formed on an inner surface of the connection portion, the recess being shaped and sized to slidably receive a mounting bar coupled to an outer surface of an endoscope on which the mounting bar is mounted with inner surfaces of the first and second clip arms maintained in an open position by contact between an endoscope on which the mounting bar is mounted and the inner surfaces of the first and second clip arms. The clip is slidable over the outer surface of an endoscope on which the mounting bar is mounted until the clip moves distally beyond the distal end of the endoscope so that the first and second clip arms spring closed to grip tissue therebetween.

A guide and remote traction system for mini-invasive surgery in a body cavity that is easily positioned and hooked and causes lower injury, comprising: at least one detachable surgical endoclamp (10) with hooking means (11, 12), assembled with an introduction guide (20) and at an initially open position; and at a naturally closed position when detached from said introduction guide (20) by a detachment mechanism; said endoclamp (10) comprising a portion of ferromagnetic material at the end opposed to said hooking means (11, 12); a cylindrically-shaped introduction guide (20) assembled with said detachable surgical endoclamp (10), said introduction guide (20) comprising a mechanism to detach said endoclamp (10); and at least one remote traction means (30) for said endoclamp (10), acting through the application of an electromagnetic field over the ferromagnetic portion of said endoclamp (10).

A transcatheter atrio-ventricular valve prosthesis for functional replacement of an atrio-ventricular valve in a connection channel, having a circumferential connection channel wall structure, between atrial and ventricular chambers of a heart, including an inner device to be disposed in the interior of the connection channel, the inner device having a circumferential support structure which is radially expandable and having a valve attached to the circumferential support structure, and an outer device to be disposed on the exterior of the connection channel, wherein the outer device at least partly extends around the inner device at a radial distance to the inner device, wherein the inner and outer devices form a securing mechanism for securing the circumferential connection channel wall structure therebetween.

Implantable devices formed of materials which are not readily imageable, and which may shift from a delivery configuration to a deployment configuration upon deployment, are delivered and deployed with a deployment/delivery device having sensors generating a signal indicating contact of the delivery/deployment device with tissue to guarantee purchase of the implantable device with tissue upon deployment. The implantable device may be a tissue anchor with talons which shift from a delivery configuration to a deployed configuration. The sensors may be positioned along a distal end of the delivery/deployment device to indicate purchase of the device with tissue, to ensure purchase of the talons with tissue upon deployment. The sensors may include at least three sensors, which may be spaced apart from one another, to indicate full contact of the distal end of the delivery/deployment device with tissue. The sensors may optionally be aligned with the talons.

An apparatus includes a plurality of beads and a plurality of interconnection elements. Each bead includes a housing and a magnet. Each interconnection element includes a main body extending between a pair of ends, and a pair of heads each positioned at a respective end and received within a bead. The beads and interconnection elements are sized and configured to form a loop configured to transition between constricted and expanded configurations. The apparatus is configured such that, when the loop is in the expanded configuration, a first head of a first interconnection element is received within a first bead and is spaced apart from a first centerline of the first bead by a first distance, and a second head of a second interconnection element is received within a second bead and is spaced apart from a second centerline of the second bead by a second distance.

A system for treating tissue includes an applicator having a bushing and a control member and a clip assembly having a capsule with a channel extending therethrough. The channel includes proximal and distal portions. The distal portion extends distally from the proximal portion and flaring outward in a single plane to form opposing flared sections. The assembly also includes clip aims include proximal ends slidably received within the channel to move the arms between tissue receiving and tissue clipping configurations. The assembly further includes a yoke including a distal portion connected to the arms and a proximal portion configured to be connected to the control member so that longitudinal movement of the control member relative to the capsule moves the arms between the tissue receiving and clipping configurations. The yoke is positioned in the capsule so that the yoke is deformable in the plane in which the capsule flares outward.

A heart valve anchor apparatus may include a body having a proximal portion and a distal portion. The body may include a first radially expandable portion at the proximal portion of the body, a second radially expandable portion at the distal portion of the body, and a root portion extending from the first radially expandable portion to the second radially expandable portion, the root portion having an outer extent. The first radially expandable portion may be configured to self-expand to an outer extent greater than the outer extent of the root portion when radially unconstrained. The second radially expandable portion may be configured to self-expand to an outer extent greater than the outer extent of the root portion when radially unconstrained. In an unstressed configuration, the body may define a longitudinal centerline that extends away from a plane tangent to the root portion.

A tissue clip application fitting or retrofitting set comprising a cap attachment configured to be mounted on the distal end portion of a shaft-type medical endoscope. The cap attachment has a proximal mounting or placement portion and a distal tissue clip holding portion, in the region of which a cavity open at least in the distal direction is formed inside a radially outward-pointing peripheral surface. A tissue clip is supported on the peripheral surface, and can be displaced in the distal direction by a pull-off device in the form of a pull-off ring mounted on the radial outer peripheral surface of the tissue clip holding portion so that it can axially slide and move the tissue clip. The pull-off ring is operated by a cable pull that is in direct contact with the pull-off ring for the transmission of sliding force in at least two coupling or engagement points.