David John Hauser

20140012373, Jan 9, 2014

Sep 12, 2013

14/025701

Marlowe E. Patterson - Orange CA, US
Stephen C. Geist - Costa Mesa CA, US
Travis Oba - Brea CA, US
David L. Hauser - Newport Beach CA, US

Edwards Lifesciences Corporation - Irvine CA

A61F 2/24

623 238

Embodiments of a method for implanting a prosthetic valve at the native mitral valve region of the heart, the prosthetic valve including a main body that is radially compressible to a radially compressed state and self-expandable from the compressed state to a radially expanded state. The prosthetic apparatus also comprises at least one ventricular anchor coupled to the main body and disposed outside of the main body with a leaflet-receiving space between the anchor and an outer surface of the main body to receive a native valve leaflet. Apparatus for delivering and implanting the prosthetic valve are also described.

20190209322, Jul 11, 2019

Mar 19, 2019

16/358480

- Irvine CA, US
Tri D. Tran - Fountain Valley CA, US
Sean Chow - Tustin CA, US
David L. Hauser - Newport Beach CA, US
Pui Tong Ho - Ladera Ranch CA, US
Alexander H. Cooper - Costa Mesa CA, US

A61F 2/24

Disclosed herein are devices for improving coaption of the mitral valve leaflets to reduce or eliminate mitral valve regurgitation. The devices may be used to perform mitral valve annuloplasty, or to serve as a docking station for a transcatheter prosthetic heart valve. The various embodiments of devices are configured for percutaneous and, in some cases, transvascular delivery. Delivery systems useful for routing the devices to the mitral valve are also disclosed, including catheters, balloons and/or mechanical expansion systems. The devices themselves include at least one tissue penetrating member. Methods of delivery include partially embedding the devices in the mitral valve annulus via at least one tissue penetrating member. Tissue penetrating members may be embedded into the tissue in a simultaneous or a nearly simultaneous fashion. Upon embedding, the devices employ various expansion and/or contraction features to adjust the mitral valve diameter. Adjustments may continue until the leaflets fully coapt and the problem of mitral regurgitation is reduced or eliminated.

20160346084, Dec 1, 2016

May 27, 2016

15/167760

- Irvine CA, US
Tri D. Tran - Fountain Valley CA, US
Sean Chow - Tustin CA, US
David L. Hauser - Newport Beach CA, US
Pui Tong Ho - Ladera Ranch CA, US
Alexander H. Cooper - Newport Beach CA, US

Edwards Lifesciences Corporation - Irvine CA

A61F 2/24

Disclosed herein are devices for improving coaption of the mitral valve leaflets to reduce or eliminate mitral valve regurgitation. The devices may be used to perform mitral valve annuloplasty, or to serve as a docking station for a transcatheter prosthetic heart valve. The various embodiments of devices are configured for percutaneous and, in some cases, transvascular delivery. Delivery systems useful for routing the devices to the mitral valve are also disclosed, including catheters, balloons and/or mechanical expansion systems. The devices themselves include at least one tissue penetrating member. Methods of delivery include partially embedding the devices in the mitral valve annulus via at least one tissue penetrating member. Tissue penetrating members may be embedded into the tissue in a simultaneous or a nearly simultaneous fashion. Upon embedding, the devices employ various expansion and/or contraction features to adjust the mitral valve diameter. Adjustments may continue until the leaflets fully coapt and the problem of mitral regurgitation is reduced or eliminated.