Merit Medical Systems, Inc.

Fresenius Medical Care Holdings, Inc.

Mission Medical, Inc.

Medtronic Advanced Energy LLC

Terumo Medical Corporation

Osmetech Technology, Inc.

Thomas Patrick Robinson

Charles E Clemens

James Roswell Braig

Barry Neil Fulkerson

David Jacob Mishelevich

Daniele Ghidoli

Russell Thomas Joseph

Clark Berg Foster

Zeke Eller

Richard D'Elia

Thomas C Robinson

Thomas Sahines

Bryan K Elwood

Paul Eibe

Victor Gura

Mark Smith

Milan Trcka

Jan Brian Zwierstra

Martin Hering

Frank Isackson

Robert C Mucic

Roger D Greeley

Brian M Conley

Aaron James Gifford

Darla R Gill

Rudolph A Montalvo

David J Flanagan

Steven G Miller

Gary T Olsen

Barton P Gill

Gary R Gust

Blaine T Murakami

Mark Forrest Smith

John R Twomey

Christopher N Cindrich

John Hall

Wayne Mower

Richard A Brotherton

Michelle Chatterton

Christopher Noel Cindrich

John William Hall

T Joseph Russell

The invention provides a cartridge assembly to couple a tissue treatment device with an electrosurgical unit, with the cartridge assembly operable with a power delivery apparatus and a fluid delivery apparatus of the electrosurgical unit. The invention also provides an electrosurgical unit comprising a power delivery apparatus and a fluid delivery apparatus operable with the cartridge assembly and a system thereof.

Surgical device

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.

Stents and related methods

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.

Transluminal delivery devices and related kits and methods

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.

Methods and Systems for fluid balancing in a dialysis system

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.

Implantable device delivery system

The specification discloses a portable dialysis machine having a detachable controller unit and base unit. The controller unit includes a door having an interior face, a housing with a panel, where the housing and panel define a recessed region configured to receive the interior face of the door, and a manifold receiver fixedly attached to the panel. The base unit has a planar surface for receiving a container of fluid, a scale integrated with the planar surface, a heater in thermal communication with the planar surface, and a sodium sensor in electromagnetic communication with the planar surface. Embodiments of the disclosed portable dialysis system have improved structural and functional features, including improved modularity, ease of use, and safety features.

Portable dialysis machine

Disposable apparatus and kit for conducting dialysis

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.

Transluminal stents and related methods

A vascular prosthesis deployment device and related methods are disclosed. In some embodiments the deployment device may provide audible, tactile, or visual feedback to a practitioner as to the degree of deployment of a prosthesis. The deployment device may also provide mechanical advantage when deploying a prosthesis. The deployment device may be configured to incrementally deploy a prosthesis.

Vascular prosthesis deployment device and method of use

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.

Delivery systems and methods for sheathing and deploying an implantable device

Safety mechanism for an implantable device deployment apparatus

Growing community of inventors

Addison, TX, United States of America

Thomas Patrick Robinson