Abstract: Stents are disclosed herein. In some embodiments stents within the scope of this disclosure may comprise a first flared end and second flared end. In some embodiments, a profile of each of the first flared end and the second flared end may circumscribe a portion of separate elliptical arcs. In some embodiments, the stents are formed from braided or woven wires having a constant pitch along a middle region and continuously varying pitches along the first flared end and the second flared end. Methods of manufacturing stents are disclosed herein. Methods of using stents are also disclosed herein.

Abstract: Prosthesis deployment devices are disclosed herein. In some embodiments, the prosthesis deployment device comprises an elongate delivery catheter assembly configured for electrosurgery and also configured to retain and deploy a prosthesis. Kits comprising the prosthesis deployment devices with a prosthesis loaded into a prosthesis pod of the device are disclosed herein as well as methods of using the prosthesis deployment devices.

Abstract: Stents are disclosed herein. In some embodiments stents within the scope of this disclosure may comprise a first flared end and second flared end. In some embodiments, a profile of each of the first flared end and the second flared end may circumscribe a portion of separate elliptical arcs. In some embodiments, the stents are formed from braided or woven wires having a constant pitch along a middle region and continuously varying pitches along the first flared end and the second flared end. Methods of manufacturing stents are disclosed herein. Methods of using stents are also disclosed herein.

Abstract: Prosthesis deployment devices are disclosed herein. In some embodiments, the prosthesis deployment device comprises an elongate delivery catheter assembly configured for electrosurgery and also configured to retain and deploy a prosthesis. Kits comprising the prosthesis deployment devices with a prosthesis loaded into a prosthesis pod of the device are disclosed herein as well as methods of using the prosthesis deployment devices.

Abstract: An extracorporeal blood processing system comprises a plastic molded compact manifold that supports a plurality of molded blood and dialysate fluidic pathways along with a plurality of relevant sensors, valves and pumps. A disposable dialyzer is connected to the molded manifold to complete the blood circuit of the system. The compact manifold is also disposable in one embodiment and can be detachably installed in the dialysis machine.

Abstract: Delivery systems and methods for deploying an implantable device are disclosed, which can include a delivery device having an outer tubular member and an inner assembly. The inner assembly is disposed within and is slidably movable relative to the outer tubular member. The inner assembly can include a pusher at a distal portion. The pusher abuts and restricts proximal movement, relative to the inner assembly, of a crimped implantable device within the outer tubular member. The pusher can include a slot to accommodate a suture binding mechanism of the implantable device. The delivery device can include a tip disposed at a distal end. The tip includes a tip transition zone. The inner sheath and outer tubular member can each have sections of distinct rigidity along their lengths with transition zones between the sections. A transition zone of the outer tubular member and a transition zone of the inner sheath can be longitudinally offset.

Abstract: An extracorporeal blood processing system comprises a plastic molded compact manifold that supports a plurality of molded blood and dialysate fluidic pathways along with a plurality of relevant sensors, valves and pumps. A disposable dialyzer is connected to the molded manifold to complete the blood circuit of the system. The compact manifold is also disposable in one embodiment and can be detachably installed in the dialysis machine.

Abstract: Stents are disclosed herein. In some embodiments stents within the scope of this disclosure may comprise a first flared end and second flared end. In some embodiments, a profile of each of the first flared end and the second flared end may circumscribe a portion of separate elliptical arcs. In some embodiments, the stents are formed from braided or woven wires having a constant pitch along a middle region and continuously varying pitches along the first flared end and the second flared end. Methods of manufacturing stents are disclosed herein. Methods of using stents are also disclosed herein.

Abstract: An extracorporeal blood processing system comprises a plastic molded compact manifold that supports a plurality of molded blood and dialysate fluidic pathways along with a plurality of relevant sensors, valves and pumps. A disposable dialyzer is connected to the molded manifold to complete the blood circuit of the system. The compact manifold is also disposable in one embodiment and can be detachably installed in the dialysis machine.

Abstract: Transluminal stents are disclosed herein. In some embodiments stents within the scope of this disclosure may comprise a first flared end and second flared end. In some embodiments, a profile of each of the first flared end and the second flared end may circumscribe a portion of separate elliptical arcs. In some embodiments, the stents are formed from braided or woven wires having a constant pitch along a middle region and continuously varying pitches along the first flared end and the second flared end. Methods of manufacturing stents are disclosed herein. Methods of using stents are also disclosed herein.

Abstract: Delivery systems and methods for deploying an implantable device are disclosed, which can include a delivery device having an outer tubular member and an inner assembly. The inner assembly is disposed within and is slidably movable relative to the outer tubular member. The inner assembly can include a pusher at a distal portion. The pusher abuts and restricts proximal movement, relative to the inner assembly, of a crimped implantable device within the outer tubular member. The pusher can include a slot to accommodate a suture binding mechanism of the implantable device. The delivery device can include a tip disposed at a distal end. The tip includes a tip transition zone. The inner sheath and outer tubular member can each have sections of distinct rigidity along their lengths with transition zones between the sections. A transition zone of the outer tubular member and a transition zone of the inner sheath can be longitudinally offset.

Abstract: Delivery systems and methods for deploying an implantable device are disclosed, which can include a delivery device having an outer tubular member and an inner assembly. The inner assembly is disposed within and is slidably movable relative to the outer tubular member. The inner assembly can include a pusher at a distal portion. The pusher abuts and restricts proximal movement, relative to the inner assembly, of a crimped implantable device within the outer tubular member. The pusher can include a slot to accommodate a suture binding mechanism of the implantable device. The delivery device can include a tip disposed at a distal end. The tip includes a tip transition zone. The inner sheath and outer tubular member can each have sections of distinct rigidity along their lengths with transition zones between the sections. A transition zone of the outer tubular member and a transition zone of the inner sheath can be longitudinally offset.

Abstract: An extracorporeal blood processing system comprises a plastic molded compact manifold that supports a plurality of molded blood and dialysate fluidic pathways along with a plurality of relevant sensors, valves and pumps. A disposable dialyzer is connected to the molded manifold to complete the blood circuit of the system. The compact manifold is also disposable in one embodiment and can be detachably installed in the dialysis machine.

Abstract: Stents may be deployed within a patient, such as in a lung of a patient, by inserting a stent deployment device through a channel (such as a channel of a bronchoscope) and then deploying the stent via manipulation of the stent deployment device. The stents may include one or more features that facilitate or enable positioning of the stent at a location that is distal of the right bronchus or the left bronchus. Related devices, systems, and methods are also disclosed.

Abstract: Transluminal stents are disclosed herein. In some embodiments stents within the scope of this disclosure may comprise a first flared end and second flared end. In some embodiments, a profile of each of the first flared end and the second flared end may circumscribe a portion of separate elliptical arcs. In some embodiments, the stents are formed from braided or woven wires having a constant pitch along a middle region and continuously varying pitches along the first flared end and the second flared end. Methods of manufacturing stents are disclosed herein. Methods of using stents are also disclosed herein.

Abstract: Prosthesis deployment devices are disclosed herein. In some embodiments, the prosthesis deployment device comprises an elongate delivery catheter assembly configured for electrosurgery and also configured to retain and deploy a prosthesis. Kits comprising the prosthesis deployment devices with a prosthesis loaded into a prosthesis pod of the device are disclosed herein as well as methods of using the prosthesis deployment devices.

Abstract: An extracorporeal blood processing system comprises a plastic molded compact manifold that supports a plurality of molded blood and dialysate fluidic pathways along with a plurality of relevant sensors, valves and pumps. A disposable dialyzer is connected to the molded manifold to complete the blood circuit of the system. The compact manifold is also disposable in one embodiment and can be detachably installed in the dialysis machine.

Abstract: Systems and methods are disclosed for delivering a stent to a lumen internal to a body of a patient and for sheathing a stent just prior to an insertion procedure. One embodiment comprises a delivery device having a partially sheathed configuration, a fully sheathed delivery configuration, and a deployed configuration. A panchor (combination pusher and anchor) is configured to engage and limit proximal and distal movement of the implantable device. An outer sheath surrounds a distal portion of an inner member and retains the implantable device near the distal end. The outer sheath is slidably moveable relative to the inner member to deploy the implantable device. Proximal movement of a trigger results in movement of the outer sheath to deploy the implantable device. A sheathing mechanism is configured to crimp and fully sheathe the implantable device prior to a deployment procedure.

Abstract: Delivery systems and methods for deploying an implantable device are disclosed, which can include a delivery device having an outer tubular member and an inner assembly. The inner assembly is disposed within and is slidably movable relative to the outer tubular member. The inner assembly can include a pusher at a distal portion. The pusher abuts and restricts proximal movement, relative to the inner assembly, of a crimped implantable device within the outer tubular member. The pusher can include a slot to accommodate a suture binding mechanism of the implantable device. The delivery device can include a tip disposed at a distal end. The tip includes a tip transition zone. The inner sheath and outer tubular member can each have sections of distinct rigidity along their lengths with transition zones between the sections. A transition zone of the outer tubular member and a transition zone of the inner sheath can be longitudinally offset.

Abstract: An extracorporeal blood processing system comprises a plastic molded compact manifold that supports a plurality of molded blood and dialysate fluidic pathways along with a plurality of relevant sensors, valves and pumps. A disposable dialyzer is connected to the molded manifold to complete the blood circuit of the system. The compact manifold is also disposable in one embodiment and can be detachably installed in the dialysis machine.