Hlt, Inc.

Minnesota Mining and Manufacturing Company

St. Jude Medical, Cardiology Division, Inc.

Tyco Healthcare Group LP

Ev3 Inc.

Aga Medical Corporation

Microvena Corporation

Edwards Lifesciences Corporation

Gary A Thill

John P Gainor

Robert Foster Wilson

Christopher M Banick

Kurt Amplatz

Xiaoping Gu

Brett A Behnke

Jana Santer

Pat Russo

Jerome E Strand

John C Oslund

Richard S Kusleika

Timothy G Curran

Kent D Anderson

Kent R Struble

Chad Volk

Jennifer Lynn Pavlovic

Jon M Nornberg

Mark A Toycen

Jeannine B Baden

Implantable occlusion devices that include one or more flanges extending from a tubular body are disclosed. The flange or flanges may assist in retention of the device within a vessel, cavity, appendage, etc. At least one flange on the occlusion device may include a concave surface proximate one end of a body. Because of the shape of the flange, e.g., its concavity, the occlusion device may resist dislocation due to e.g., the forces generated within the left atrial appendage during atrial fibrillation.

Flanged occlusion devices and methods

A stentless support structure capable of being at least partly assembled in situ. The support structure comprises a braided tube that is very flexible and, when elongated, becomes very long and very small in diameter, thereby being capable of placement within a small diameter catheter. The support structure is preferably constructed of one or more thin strands of a super-elastic or shape memory material such as Nitinol. When released from the catheter, the support structure folds itself into a longitudinally compact configuration. The support structure thus gains significant strength as the number of folds increase. This radial strength obviates the need for a support stent. The support structure may include attachment points for a prosthetic valve.

Stentless support structure

Described herein are a collapsible medical device and associated methods of occluding an abnormal opening in a body organ, wherein the medical device is shaped from plural layers of a heat-treatable metal fabric. Each of the fabric layers is formed from a plurality of metal strands and the assembly is heat-treated within a mold in order to substantially set a desired shape of the device. By incorporating plural layers in the thus-formed medical device, the ability of the device to rapidly occlude an abnormal opening in a body organ is significantly improved.

Multi-layer braided structures for occluding vascular defects and for occluding fluid flow through portions of the vasculature of the body

Implantable occlusion devices that include one or more flanges extending from a tubular body are disclosed. The flange or flanges may assist in retention of the device within a vessel, cavity, appendage, etc. At least one flange on the occlusion device may include a concave surface proximate one end of a body. Because of the shape of the flange, e.g., its concavity, the occlusion device may resist dislocation due to e.g., the forces generated within the left atrial appendage during atrial filbrillation.

A collapsible medical device and associated methods of occluding an abnormal opening in, for example, a body organ, wherein the medical device is shaped from plural layers of a heat-treatable metal fabric. Each of the fabric layers is formed from a plurality of metal strands and the assembly is heat-treated within a mold in order to substantially set a desired shape of the device. By incorporating plural layers in the thus-formed medical device, the ability of the device to rapidly occlude an abnormal opening in a body organ is significantly improved.

Growing community of inventors

Vadnais Heights, MN, United States of America

Gary A Thill