An apparatus for irrigating the vas deferens in connection with a vasectomy reversal is described. The apparatus comprises a fluid delivery device having a first portion that connects to the vas deferens, the fluid delivery device connecting such that a catheter tip inserts into the vas deferens and is held in stable position relative thereto and such that fluid enters the vas deferens through the catheter tip.

An apparatus includes an interface, and an elongate body coupled to the interface. An end effector is coupled to a distal end the elongate body and includes a first end effector element defining a first receptacle structured to hold a first coupler element of a coupler that receives an axial end of a first vessel, and a second end effector element defining a second receptacle structured to hold a second coupler element of the coupler that receives an axial end of a second vessel. The end effector is configured to move between a first configuration in which the first and second end effector elements are separate, and a second configuration in which first end effector element is proximate to the second end effector element such that the first coupler element is coupled to the second coupler element so as to couple the first vessel to the second vessel.

Various embodiments of a device for deep surgical corridor microvascular anastomosis are described herein. A device, comprising: an elongated body; a rod disposed at least partially within the channel of the elongated body; an actuator in association with the elongated body and the rod, wherein the actuator is operable to actuate the rod in a first axial direction; and a pair of coupling arms in association with the distal portion of the rod, wherein the actuator is operable to actuate the rod in a first axial direction such that the pivotable end of each coupling arm of the pair of coupling arms is consequently actuated in the first axial direction such that the pair of coupling arms are parallel with one another in a closed configuration.

Disclosed embodiments include apparatuses, systems, and methods for facilitating surgical anastomosis between bodily passages. In an illustrative embodiment, an eversion mechanism is configured to partially evert a distal portion of an opening of a receiving passage and further configured to leave a proximal portion of the opening of the receiving passage in a non-everted position. A donor support mechanism is configured to partially evert a distal portion of an opening at an end of a donor passage and further configured to leave a first proximal portion of the end of the donor passage in a non-everted position. The donor support mechanism is further configured to form a passage juncture at the end of the donor passage and the opening of the receiving passage. A suturing mechanism is configured to motivate a filament through a generally helical path around the passage juncture to suture the donor passage to the receiving passage.

Disclosed embodiments include apparatuses, systems, and methods for facilitating anastomosis between bodily passages. In an illustrative embodiment, an eversion mechanism is configured to engage a first external surface of a receiving passage adjacent a first opening in the receiving passage in order to create a receiving flange presenting a first interior face. A donor support mechanism is configured to support a donor passage with an opening in an end in an everted position that forms a donor flange presenting a second interior face. The donor support mechanism is further configured to present the second interior face of the donor flange against the first interior face of the receiving flange to present a passage juncture. A suturing mechanism is configured to motivate a filament through a helical path around the passage juncture to suture the second interior face of the donor passage to the first interior face of the receiving passage.

A surgical instrument comprising an elongate shaft assembly operably supporting a circular surgical staple cartridge in a distal end thereof and a plurality of arcuate tissue acquisition members pivotally attached to the elongate shaft assembly and configured to be selectively radially deployable from a first position wherein the plurality of arcuate tissue acquisition members cooperate to form a continuous ring defining a continuous outer ring diameter and a second deployed position wherein each arcuate tissue acquisition member extends radially outward from the elongate shaft assembly is disclosed. The surgical instrument further comprises means for selectively deploying the plurality of arcuate tissue acquisition members between the first position and the second deployed position, a tissue cutting member comprising two diametrically opposed ends forming a plurality of tissue cutting edges, and means for selectively rotating the tissue cutting member relative to the plurality of arcuate tissue acquisition members.

A method of creating an AV fistula between adjacent first and second vessels includes inserting a guidewire from the first vessel into the second vessel. Inserting a catheter including a proximal member and a distal member over the guidewire such that a distal tip of the distal member comes into contact with a selected anastomosis site. Moving the distal member and the proximal member together to clamp tissue surrounding the aperture between the distal face of the proximal member and a proximal face on the distal member. Applying energy to an active heating member on the proximal member to cut and form the aperture, and to weld the edges thereof in order to create a desired fistula between the two vessels. Using a passive heating member disposed on the distal member to create a heating gradient across a tissue contacting surface of the distal member.

According to exemplary embodiments of the present disclosure, devices, systems, and methods for endoscopic procedures may include an end effector of a grasping system having a first arm and a second arm. The first and second arms may extend from a common proximal joint. The first and second arms may be formed of a self-expanding material and may have a spring force to set the arms in an unconstrained open position. The first and second arms may have an arc shape such that a distal tip of each first and second arm are configured to close as the first and second arms are actuated to a constrained closed position. A catheter may include a locating element at a distal end of a flexible tube. The locating element may be configured for locating the grasping system.

According to exemplary embodiments of the present disclosure, devices, systems, and methods for pyloric occlusion in an endoscopic procedure may include a first flange and a second flange connected to the first flange by a saddle region having a lumen. The second flange may be proximal to the first flange. The pyloric occlusion device may further include a closure element. The closure element may be configured to occlude a flow of material through the lumen, including across the pylorus when deployed. The closure element may be a closure of the lumen by rotation of one of the first or second flanges about the saddle region relative to the other of the first or second flange.

The present disclosure relates to a device for assisting in communicably coupling a first organ body with a second organ body by employing a plurality of arc-shaped tissue connector devices comprising a tissue connector body with a proximal and distal end, and a method for manufacturing such a device. The device comprises a curved frame having a principle axis and configured to embrace, at least partially, the first organ body, the curved frame configured to receive a plurality of tissue connector devices which extend from a proximal end thereof coupled to the curved frame and terminate in a free distal end. The disclosure further relates to a tissue connector device, a holder for tissue connector devices and a tissue-collar manipulating device, and a method of coupling a first and a second organ body using such device.