Edwards Lifesciences Corporation

Edwards Lifesciences Pvt, Inc.

Percutaneous Valve Technologies Inc.

Assaf Bash

Benjamin Spenser

Netanel Benichou

Avraham Zakai

Stanton J Rowe

Henry Bourang

Yaron Keidar

Larry L Wood

George Bakis

Louis A Campbell

Donald E Bobo, Jr

John F Migliazza

Alison S Curtis

Netanel Benichu

David Maimon

Mark M Dehdashtian

Michael Bukin

Tak G Cheung

Ralph Schneider

Tomer Saar

Hengchu Cao

Dustin P Armer

Michael G Valdez

Liron Tayeb

Ofir Witzman

Eran Goldberg

Eason Michael Abbott

Michael D Franklin

Eitan Atias

John Joseph Desrosiers

Mohammad Jafari

Noa Axelrod

Sandip Vasant Pawar

Anatoly Dvorsky

Amir Blumenfeld

Adi Carmi

Arie Tylis

Daniel James Murray

Amit Tubishevitz

Larry Wood

Nadav Ben Zaken

Abdorruhman M Yousef

Stent structure for an implantable prosthetic heart valve

Devices and related methods of use are provided for improving heart function. In one embodiment of the present disclosure, a device includes a ring-like structure configured to be secured to a heart valve; at least one elongate member extending from the ring-like structure, wherein an end of the elongate member is configured to be secured to heart geometry other than a heart valve; and an adjustment mechanism for simultaneously altering a dimension of the ring-like structure and a length of the elongate member.

Devices for remodeling a valve annulus and ventricle

Docking stations for transcatheter valves are described. The docking stations can include an expandable frame, at least one sealing portion, and a valve seat. The expandable frame can be configured to conform to an interior shape of a portion of the circulatory system when expanded inside the circulatory system. The sealing portion can be configured to contact an interior surface of the circulatory system to create a seal. The valve seat can be connected to the expandable frame and can be configured to support an expandable transcatheter valve. The docking stations are adaptable to different anatomies/locations to allow implantation of a transcatheter valve in a variety of anatomies/locations.

Docking stations for transcatheter valves

A two-stage or component-based valve prosthesis that can be quickly and easily implanted during a surgical procedure is provided. The prosthetic valve comprises a support structure that is deployed at a treatment site. The prosthetic valve further comprises a valve member configured to be quickly connected to the support structure. The support structure may take the form of a stent that is expanded at the site of a native valve. If desired, the native leaflets may remain and the stent may be used to hold the native valve open. In this case, the stent may be balloon expandable and configured to resist the powerful recoil force of the native leaflets. The support structure is provided with a coupling means for attachment to the valve member, thereby fixing the position of the valve member in the body. The valve member may be a non-expandable type, or may be expandable from a compressed state to an expanded state. The system is particularly suited for rapid deployment of heart valves in a conventional open-heart surgical environment.

Surgical methods of replacing prosthetic heart valves

An implantable prosthetic valve includes an annular metallic frame and a valve assembly supported within the frame. The annular support frame is constructed with three longitudinal support beams of fixed length and web-like constructions that extend between and connect the support beams. The support beams are spaced apart in a substantially equidistant manner. The web-like constructions allow the annular support frame to be radially collapsible and expandable. Each support beam preferably has a column of pre-formed openings or bores extending along a length of the support beam. The valve assembly includes three valve leaflets, wherein each leaflet has opposing side portions and each side portion is paired with an adjacent side portion of an adjacent leaflet to form a commissure. The three commissures are secured to three respective support beams with stitching that extends through the leaflets and through the pre-formed openings or bores.

Implantable prosthetic valve

A system for replacing a deficient native aortic valve includes an implantable prosthetic valve having a self-expandable frame and a valve assembly formed with three valve leaflets. The self-expandable frame includes three angularly spaced longitudinal bars of fixed length defining respective slots and a plurality of web-like constructions extending between and connected to the longitudinal bars. The valve assembly includes commissures extending outwardly through the slots where they are supported on the outside of the frame. Each leaflet includes an inlet end portion secured to the inside of the frame with stitching extending through the leaflet and around adjacent frame portions. The system also includes a restriction tube adapted for insertion into a patient's body. The prosthetic valve is capable of being crimped for insertion into the restriction tube and capable of self-expansion upon release from the restriction tube for deployment in the deficient native aortic valve.

Prosthetic heart valve and method

Replacement prosthetic heart valves

A prosthetic heart valve comprises a radially crimpable and radially expandable, net-like, annular support frame and a valve assembly disposed therein, the valve assembly comprising a conduit tapering from an inlet towards an outlet thereof. Some embodiments or the support frame comprise a proximal portion and a distal portion, a diameter of the proximal portion smaller than a diameter of the distal portion. The proximal portion is dimensioned for deployment in an annulus of a native aortic valve and a distal portion for deployment in an ascending aorta. Some embodiments of the conduit comprise a support construction with a three-cusp, crown-shaped cut line, the support construction sutured to the support frame around a bottom portion thereof and around the cut line. A method for using the prosthetic heart valve to replace a defective native aortic valve uses a minimally invasive procedure.

A system for replacing a deficient native aortic valve includes an implantable prosthetic valve having a self-expandable frame and a valve assembly formed with three valve leaflets. The self-expandable frame includes a plurality of support beams, each support beam having a plurality of preformed bores for allowing the valve assembly to be anchored to the frame at least in part by stitching that extends through the leaflets and through the preformed bores of the support beams. The system also includes a restriction tube adapted for insertion into a patient's body. The prosthetic valve is capable of being crimped for insertion into the restriction tube and capable of self-expansion upon release from the restriction tube for deployment in the deficient native aortic valve.

A prosthetic heart valve assembly suitable for implantation in body ducts via a catheter. The prosthetic heart valve assembly includes a collapsible and expandable tubular frame having an inlet end and an outlet end. The frame is preferably made from a self-expanding material. Three pericardial leaflets form a tricuspid valve having a top portion, a middle portion, and a bottom portion. Three longitudinal support members are positioned along an internal surface of the frame, desirably proximate to the outlet end. Each support member includes a pair of longitudinal surfaces that extends radially inwardly. End portions of adjacent valve leaflets extend through a gap between the pairs of longitudinal surfaces of each support member. The end portions are sutured to the longitudinal support members. The bottom portion of the tricuspid valve is sutured to the inlet end of the frame.

A heart valve prosthesis that can be quickly and easily implanted during a surgical procedure is provided. The prosthetic valve comprises a support structure that is deployed at a treatment site. The prosthetic valve further comprises a valve member configured to be quickly connected to the support structure. The support structure may take the form of a stent that is expanded at the site of a native valve. If desired, the native leaflets may remain and the stent may be used to hold the native valve open. In this case, the stent may be balloon expandable and configured to resist the powerful recoil force of the native leaflets. The support structure is provided with a coupling means for attachment to the valve member, thereby fixing the position of the valve member in the body. The valve member may be expandable or a non-expandable type.

Rapid deployment prosthetic heart valve

Growing community of inventors

Benyamina-Givat Ada, Israel

Assaf Bash