Medtronic, Inc.

Anteris Technologies Corporation

Christopher P Olig

Mark T Stewart

James R Keogh

Paul A Pignato

Paul T Rothstein

Douglas A Hettrick

Eduardo N Warman

Douglas H Gubbin

Thomas Daigle

Karen Pilney Montpetit

Michael J Hobday

Gary W Guenst

Steven C Christian

Robert Reetz

Katherine S Jolly

William Steinberg

Tuan Minh Doan

William Morris Leonard Neethling

Scott Bliss

Tom P Daigle

Christopher Plott

Andrew Olson

Gerard C Forest

Matthew David Bonner

David E Francischelli

Philip Jon Haarstad

Scott Eric Jahns

Cynthia T Clague

Raymond W Usher

Alex Alden Peterson

David J S Kim

Roderick E Briscoe

Brian Ross

Ann Margaret Thomas

David M Blaeser

William G O'Neill

Michael A Colson

Patrick Cloutier

Adam Podbelski

Andrew E Reed

Jeffrey D Sandstrom

Alison Lutterman

Wayne Paterson

Dave Mathieu

Eric Meyer

Leonard H Leuer

Marie T Steinbrink

Ana R Buhr

Brian J Ross

Robert H Reetz

Tomas P Daigle

Daniel C Haeg

Philip C Falkner

William A Steinberg

Jams R Keogh

A packaging system for storing a deployable medical device within a sterilized environment includes a sealed container; a tray disposed within the sealed container; a catheter assembly comprising at least one sheath; a deployable medical device engaged with the catheter assembly; and a sterilizing fluid. The tray comprises a first chamber; a second chamber in fluid communication therewith; and at least a third chamber between the first and second chambers, and in fluid communication with at least the first chamber. The deployable medical device is disposed within the tray in a storage configuration, in which the deployable medical device is disposed within the first chamber in a partially deployed state distally from a distal end of the catheter and the catheter assembly spans between the first chamber and the second chamber. The sterilizing fluid contacts at least a part of the deployable medical device in the storage configuration.

Sterilized packaging system for catheter

A replacement heart valve assembly where the valve is loaded into the catheter distally, and separately from the stent. The valve has a locking member and the stent has a locking channel. Once in the expanded position, the valve is pulled towards the stent until the locking member is engaged with the locking channel.

Replacement heart valve assembly with a valve loaded distally from a stent

A valve for endovascular heart valve repair that provides improved sealing of the valve against the native wall. The valve assembly has a sealing region at a distal end of the valve. The sealing region having a delivery position and a sealing position, wherein in the delivery position, the sealing region has a first length, and in the sealing position, the sealing region has a second length less than the first length and a thickness in the sealing position is greater in the sealing position than in the delivery position.

Inverted heart valve for transcatheter valve replacement

A sterilized packaging system for a deployable medical device comprises a sealed container with a tray disposed within the sealed container. The tray comprises a first chamber at a proximal end of the tray and at least a deployable medical device is disposed within the first chamber in a storage configuration, wherein the deployable medical device is engaged with the catheter and positioned in a partially deployed state distally from the distal end of a catheter. A sterilizing fluid is disposed within at least the first chamber.

A device for temporarily sealing an opening in a blood vessel is provided. The device comprises a cutting mechanism for creating an opening in a blood vessel and a seal for sealing the opening in the blood vessel. The seal is delivered through an inner lumen of a tool body coupled to the cutting mechanism. Methods for using the device to construct an anastomosis between two vessels are also provided.

Vessel sealing devices

Suction-assisted tissue-engaging devices, systems, and methods are disclosed that can be employed through minimal surgical incisions to engage tissue during a medical procedure through application of suction to the tissue through a suction member applied to the tissue. A shaft is introduced into a body cavity through a first incision, and a suction head is attached to the shaft via a second incision. The suction head is applied against the tissue by manipulation of the shaft and suction is applied to engage the tissue while the medical procedure is performed through the second incision. A system coupled to the shaft and a fixed reference point stabilizes the shaft and suction head. When the medical procedure is completed, suction is discontinued, the suction head is detached from the shaft and withdrawn from the body cavity through the second incision, and the shaft is retracted through the first incision.

Methods and apparatus providing suction-assisted tissue engagement through a minimally invasive incision

The invention provides a system and method for harvesting a vessel section. The system comprises a vessel support member, a handle, and a tubular cutting device. The vessel support member is introduced into the vessel section to be harvested. The tubular cutting device may comprise an outer tubular member or an outer and an inner tubular member. The outer tubular member carries at least one cutting element. The tubular member or members are advanced over the vessel section and vessel support member to core out the vessel section and tissue adjoining the vessel section.

Minimally invasive coring vein harvester

Tissue stabilizers including a clamp assembly, a turret assembly, an articulating arm having a tension element extending therethrough, a collet assembly and a head-link assembly are disclosed. Methods of stabilizing tissue are also disclosed.

Methods and devices for stabilizing tissue

Methods and apparatus employed in surgery involving making precise incisions in vessels of the body, particularly cardiac blood vessels in coronary revascularization procedures conducted on the stopped or beating heart are disclosed. Such incisions are created by applying an elongated electrosurgical cutting electrode to the outer surface of the vessel wall in substantially parallel alignment with the body vessel axis, the elongated electrosurgical cutting electrode having a predetermined cutting electrode length exceeding the cutting electrode width. RF energy is applied between the electrosurgical cutting electrode and the ground electrode at an energy level and for a duration sufficient to cut an elongated slit through the vessel wall where the elongated electrosurgical cutting electrode is applied to the surface of the vessel wall.

Electrosurgical methods and apparatus for making precise incisions in body vessels

This invention provides a system and method for positioning, manipulating, holding, grasping, immobilizing and/or stabilizing a heart including one or more tissue-engaging devices, one or more suction sources, one or more fluid sources, one or more energy sources, one or more sensors and one or more processors. The system and method may include an indifferent electrode, a drug delivery device and an illumination device. The system's tissue-engaging device may comprise a tissue-engaging head, a support apparatus and a clamping mechanism for attaching the tissue-engaging device to a stable object. The system may be used during various medical procedures including the deployment of an anastomotic device, intermittently stopping and starting of the heart, ablation of cardiac tissues and the placement of cardiac leads.

Method and system for organ positioning and stabilization

This invention provides an organ positioning device and method that employs suction to hold organ tissue to the device. The device allows the organ, for example, heart to be positioned in a desired orientation but otherwise allowing movement of the heart as the heart beats. The device is designed to be relatively atraumatic to heart tissue. Generally, the device comprises a resiliently flexible suction head having a plurality of legs that flex to conform to the surface of the heart. The suction head has vacuum passageways in fluid communication with the legs to apply suction between the legs and the surface of the heart.

Method and device for organ positioning

Growing community of inventors

Eden Prairie, MN, United States of America

Christopher P Olig