Medtronic, Inc.

Medtronic Vascular Galway Limited

Anteris Technologies Corporation

Medtronic Vascular, Inc.

Atricure, Inc.

Medtronic Cv Luxembourg S.a.r.l.

Jason L Quill

Paul T Rothstein

Igor Kovalsky

Ana Menk

Cynthia T Clague

Niall F Duffy

Alexander J Hill

Daniel Glozman

Joshua J Dwork

Marian Patricia Lally

Timothy R Ryan

Jeffrey D Sandstrom

Darren A Janzig

Philip Jon Haarstad

Yossi Tuval

Nadav Yellin

Jerald Lamont Redmond

Shyam Gokaldas

Frank Harewood

Daniel M Gelfman

Marian Creaven

Ilia Hariton

Patrick Griffin

Declan P Costello

John Gallagher

Marc A Anderson

Kshitija P Garde

Padraig Savage

Georg Börtlein

Damian A Jelich

Gavin Kenny

Stephen T Kuehn

Edmond Sheahan

Frank White

Kate Corish

Eugene Grossi

Aubrey Galloway

Kenneth Dale Warnock, Jr

John Milroy

Hugo Vanermen

Herinaina Rabarimanantsoa Jamous

Byron Johnson

Rudiger Lange

Thomas Secord

Gilbert Tang

James R Keogh

Ramji Iyer

Sarah E Ahlberg

Deirdre Bridget McGowan Smyth

Michael M Green

Christopher B Brodeur

William Leon Neethling

Kaitlyn Roth

Cameron James Albin Murto

Tamer Ibrahim

Guy P Vanney

Joel R Racchini

Jeremy David Dando

Robert Garryl Hudgins

Michael Gloss

Daniel Joe Potter

Dannah Dean

Elizabeth A Schotzko

Pham Lo

Laura Elyn Ortega

Ram Kumar

Dean Christiansen

Edward James Anderson

Payton Kristine Parmett

John Albert Adler

Alexa Mae Hanneman

Madhulika Srikanth

Joanna Emmanuel Fakhoury

Christopher William Hummel

Aaron Owens

Kenneth Warnock

Al Mclevish

Michael Green

Brad James Traeger

Joseph Allen Duerr

Illia Hariton

Nicholas Weldon Pensa

Deirdre Mcgowan Smyth

Marian Lally

Georg Bortlein

Ram Balachandran

Delivery systems are used for medical devices. For example, this document describes delivery systems for implantable medical devices such as, but not limited to, prosthetic heart valves that are deliverable in a minimally invasive manner using a system of catheters. The delivery systems may include a valve stop member that establishes the longitudinal position of the prosthetic heart valve on a balloon member. Such a valve stop member can be constructed as a braided wire body or cellular body to provide multiple advantages.

Medical device delivery systems

A delivery system for delivery of a radially expandable device to an implantation site in a patient, the delivery system including an elongated tubular member comprising a distal tip and an outer surface, first and second balloon portions spaced proximally from each other and the distal tip along a length of the tubular member, an annular space between the first and second balloon portions, a plurality of clip deployment tubes extendably moveable relative to the outer surface of the tubular member, and a plurality of clips, wherein each clip is moveable within a length of one of the clip deployment tubes between a retracted position and a deployed position.

Method and device for percutaneous valve annuloplasty

A heart valve therapy system including a delivery device and a stented valve. The delivery device includes an outer sheath, an inner shaft, an optional hub assembly, and a plurality of tethers. In a delivery state, a stent frame of the prosthesis is crimped over the inner shaft and maintained in a compressed condition by the outer sheath. The tethers are connected to the stent frame. In a partial deployment state, the outer sheath is at least partially withdrawn, allowing the stent frame to self-expand. Tension in the tethers prevents the stent frame from rapidly expanding and optionally allowing recapture. Upon completion of the stent frame expansion, the tethers are withdrawn.

Systems, devices and methods for transcatheter valve delivery

Devices, systems, and methods for therapeutically treating tissue. The devices and methods are suitable for minimally invasive surgery or open surgical procedures. More particularly, methods and devices described herein permit accessing and/or treating areas of tissue with a therapeutic device.

Device and accessories for a percutaneous endoscopic access and ablation systems

Devices, systems, and methods for crimping a medical device are disclosed. More specifically, the present disclosure relates to devices, systems, and methods for reducing the diameter of a collapsible heart valve prosthesis to be loaded onto a delivery device. The devices, systems, and methods using at least one funnel to crimp the heart valve prosthesis and load it onto the delivery system.

Devices and methods for crimping a medical device

Systems and methods for modifying a heart valve annulus in a minimally invasive surgical procedure. A helical anchor is provided, having a memory set to a coiled shape or state. The helical anchor is further configured to self-revert from a substantially straight state to the coiled state. The helical anchor is loaded within a needle that constrains the helical anchor to the substantially straight state. The needle is delivered to the valve annulus and inserted into tissue of the annulus. The helical anchor is then deployed from the needle (e.g., the needle is retracted from over the helical anchor). Once deployed, the helical anchor self-transitions toward the coiled shape, cinching engaged tissue of the valve annulus.

Mitral valve annuloplasty systems and methods

This document provides devices and methods for the treatment of heart conditions. For example, this document provides prosthetic heart valves and transcatheter heart valve replacement methods. The prosthetic heart valves can be configured into a low-profile configuration for containment within a small diameter delivery sheath. The prosthetic heart valves include can include a valve member attached to a stent frame. In some embodiments, the valve member is a molded biomaterial with a novel shape and resulting performance characteristics. Localized protective covering members can be attached to the stent frame to prevent the valve member from contacting the stent frame as the valve member cycles between its open and closed configurations.

Prosthetic heart valves

A replacement heart valve prosthesis is loaded onto a balloon mounted onto a balloon shaft of a catheter system. The balloon shaft is rotatably engaged with an actuator on the handle of the catheter system. Rotation of the actuator by a first amount in a first direction permits rotation of the heart valve prosthesis by a known amount during the procedure so that alignment of the commissures of the replacement valve with the commissures of the existing valve can be predictably achieved.

Systems and methods for predictable commissural alignment of a replacement heart valve

A delivery system for percutaneously delivering a heart valve prosthesis to a site of a native heart valve includes a delivery catheter and a heart valve prosthesis. The delivery catheter includes an outer sheath, an inner shaft, and an orifice restriction mechanism. The heart valve prosthesis has a valve member and a docking member. When the orifice restriction mechanism is positioned within the docking member within an annulus of the native heart valve, the orifice restriction mechanism temporarily replicates the operation of the native heart valve until the valve member is positioned within the docking member.

Delivery systems having a temporary valve and methods of use

Described is a prosthetic valve, comprising: an expandable stent including an inner lumen and having a first and a second end; and a spring attached to the first end of the expandable stent; wherein the expandable stent and the spring can expand radially to a desired diametric configuration in order to anchor the prosthetic valve at an implantation position in a body lumen. Related systems and methods.

Transcatheter valve with torsion spring fixation and related systems and methods

In some embodiments, a valve prosthesis includes an inlet portion that is substantially s-shaped and configured to engage the floor of the outflow tract of the native heart atrium. In some embodiments, a valve prosthesis includes a chordae guiding element configured to reduce bending of the chordae to reduce stress on the chordae during the cardiac cycle. In some embodiments, a valve prosthesis includes a central portion having an hourglass shape configured to pinch a native annulus in order to provide axial fixation of the valve prosthesis within a valve site. In some embodiments, a valve prosthesis includes a frame having an outflow end that is flared to provide a gap between an outflow end of the frame and an outflow end of prosthetic leaflets when the prosthetic leaflets are fully opened.

Valve prosthesis and method for delivery

A delivery system for percutaneously deploying a valve prosthesis. The system includes a catheter assembly including a delivery sheath capsule and a handle having an oscillating device. The capsule is configured to compressively retain the valve prosthesis during implantation. After the valve prosthesis is partially exposed during implantation, the oscillating device can create a vibratory motion to reduce the friction between the valve prosthesis and the delivery sheath capsule in order to recapture the valve prosthesis.

Transcatheter valve prosthesis delivery system with recapturing feature and method

A delivery device includes an inner shaft, an outer sheath, a nosecone, and a tether component. The outer sheath is slidably disposed over the inner shaft. The nosecone is removably coupled to the inner shaft. The nosecone includes a delivery configuration for delivery to a treatment site, a radially compressed configuration in which a portion of the nosecone is configured to traverse through a heart wall, and a radially expanded configuration in which an outer surface of the nosecone contacts an outer surface of the heart wall. The tether component includes a first end coupled to the nosecone. The nosecone is configured to plug a piercing in the heart wall when in the radially expanded configuration.

Delivery system with anchoring nosecone and method of delivery

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Minneapolis, MN, United States of America

Jason L Quill