Edwards Lifesciences Corporation

Baxter International Inc.

Best Vascular, Inc.

Other

Vernay Laboratories, Inc.

Novoste Corporation

Edwards Lifesciences Pvt, Inc.

Mark M Dehdashtian

Teodoro S Jimenez

Walter Lee

Geoffrey Hamilton White

Weiyun Yu

Kristopher J Yee

Raffaele Mazzei

Michael G Valdez

Bryan A Janish

Tram Ngoc Nguyen

Teodoro S Jimenez, Jr

Timothy C Ulrich

Jane M Olin

Gilbert S Leung

Richard A Hillstead

Jack C Griffis, Iii

Marvin A Guiles

Adam J Yestrepsky

Fabian Daniel Schroeder

Byron Lee Boylston

Douglas Layland Armstrong

James David Hughett

Andrew L Lerohl

Gregg T Juett

Norma A Garcia

Nathan Satter

Maria Lilian Saravia

Jeff Kosmoski

Robert Michael Webster

Maria Lillian Saravia

Shahram Zamani

Thomas Walther

Blair D Walker

Netanel Benichou

Benjamin Spenser

Assaf Bash

Henry Nita

Yoon Hee Kwon

Gordon E Atkinson

Manouchehr Miraki

Brett A Trauthen

Sheryl W Higgins

Kambiz Ghaerzadeh

William Rice

Greg Welsh

Shawn O'Leary

Jens Allenberg

Misuzu Sakata

Hey Lee

Shaun Zamani

Nora Pham

L'Emir Ahmad El-Ayoubi

Fabian D Schroeder

Adam Yestrepsky

A delivery system and method for delivering a prosthetic heart valve to the aortic valve annulus via a transaortic approach. The system includes a balloon catheter for delivering a balloon-expandable prosthetic heart valve through an introducer from an approach from outside the patient, through a minimally-invasive opening in the chest cavity through an incision in the aorta, and into the aorta and aortic annulus. The balloon catheter includes a flexible, tapered tip just distal of the balloon to facilitate positioning of the prosthetic heart valve in the proper orientation within the aortic annulus. The prosthetic heart valve may be installed over the existing calcified leaflets, and a pre-dilation valvuloplasty procedure may also be utilized.

System and method for transaortic delivery of a prosthetic heart valve

A delivery system and method for delivering a prosthetic heart valve to the aortic valve. The system includes a delivery catheter having a steering mechanism thereon for delivering a balloon-expandable prosthetic heart valve to the aortic valve through an introducer passing into the left ventricle through its apex. The introducer may have a more floppy distal section than a proximal section to reduce trauma to the heart wall while preserving good operating field stability. The delivery catheter includes a deflecting segment just proximal to a distal balloon to facilitate positioning of the prosthetic heart valve in the proper orientation. A trigger in a catheter handle may be coupled to a deflection wire that actuates the deflecting segment, while a slider in the handle controls retraction of a valve pusher. The prosthetic heart valve may be installed over the existing calcified leaflets, and a pre-dilation valvuloplasty procedure may also be utilized.

Systems of heart valve delivery

A method of delivering a prosthetic heart valve to the aortic valve annulus while a patient's heart is beating is disclosed. The method includes accessing the left ventricle through an intercostal incision and forming a puncture in the left ventricle. A guidewire is advanced into the left ventricle and through the native aortic valve. An introducer is passed over the guidewire and into the left ventricle. A valve delivery device is advanced over the guidewire and through the introducer until a prosthetic heart valve positioned thereon is located within the native aortic valve. The prosthetic heart valve is then radially expanded within the aortic valve annulus for replacing the function of the native aortic valve.

Transapical heart valve delivery system

Described herein are systems and methods from delivering prosthetic devices, such as prosthetic heart valves, through the body and into the heart for implantation therein. The prosthetic devices delivered with the delivery systems disclosed herein are, for example, radially expandable from a radially compressed state mounted on the delivery system to a radially expanded state for implantation using an inflatable balloon of the delivery system. Exemplary delivery routes through the body and into the heart include transfemoral routes, transapical routes, and transaortic routes, among others.

Delivery systems for prosthetic heart valve

Aortic occlusion and embolic protection devices include radially expandable and collapsible proximal and distal end portions, such as annular self-expanding stents or frames, that are configured to radially expand within an aorta to secure the device within the aorta. The devices can also include a catheter extending axially between the distal end portion and the proximal end portion and a porous covering, or filter, positioned around the catheter and between the proximal end portion and the distal end portion and configured to filter emboli from blood flowing into upper-body arteries. The device can further include a one-way valve positioned at or adjacent to the distal end portion of the device and configured to restrict retrograde blood flow through the device toward the heart.

Aortic occlusion device

Methods of heart valve delivery on a beating heart

A collapsible device, such as an annuloplasty ring or prosthetic heart valve, is configured to be collapsed prior to being introduced into a patient via minimally-invasive access points such as port holes or intercostal incisions. A holder is configured to hold the collapsible device, and to selectively collapse the device for introduction into the patient and then re-enlarge the device at the desired deployment site. Collapsible devices include devices that can hingedly fold about hinge lines, and devices that can elongate to form substantially spiral forms with reduced diameters.

Collapsible cardiac implant and deployment system

A bi-directional cannula for perfusing blood in two directions. The cannula has a distal opening in fluid communication with a cannula first lumen. The cannula has a secondary opening proximal of the distal opening, and may include a movable tubular extension selectively extendable from the cannula via the secondary opening. The tubular extension may be in fluid connection with the cannula first lumen and/or a cannula second lumen. The tubular extension may have distal and/or side openings, with the openings providing antegrade fluid perfusion. The cannula second lumen may be separate from the first lumen, so that perfusion can be selectively provided to just the cannula distal opening, just the secondary opening/tubular extension, or simultaneously to both the distal opening and secondary opening/tubular extension.

Bi-directional cannula

Embodiments of aortic occlusion devices are described herein that include radially expandable and collapsible proximal and distal end portions, such as annular self-expanding stents or frames, that are configured to radially expand within an aorta to secure the device within the aorta. The devices can also include a catheter extending axially between the distal end portion and the proximal end portion and a porous covering, or filter, positioned around the catheter and between the proximal end portion and the distal end portion and configured to filter emboli from blood flowing into upper-body arteries. The device can further include a one-way valve positioned at or adjacent to the distal end portion of the device and configured to restrict retrograde blood flow through the device toward the heart.

Systems of heart valve delivery on a beating heart

Growing community of inventors

Irvine, CA, United States of America

Mark M Dehdashtian