Fastwave Medical Inc.

Covidien LP

Mayo Foundation for Medical Education and Research

Neochord, Inc.

480 Biomedical Inc.

Crossfire Medical Inc

Lightningcath, Inc.

Verge Medical Inc.

Brady Hatcher

Randy Beyreis

Edward J Anderson

Dannah Dean

JiChao Sun

Scott Nelson

Tristan Tieso

Curtis Goreham-Voss

Parker Hagen

Lauren Eno

Ae-Suk Pauling

Daryl Kiefer

Bryan Goh

Randall James Beyreis

Joe Duerr

Daryl Edmiston

Charles Anthony Plowe

David F Kallmes

Waleed Brinjikji

Tyler Nordmann

Dean Irwin

Adam Tschida

Laura Elyn Ortega

Marc Simmon

Doug Krone

Laura Ortega

Lee A Core

Travis M White

Max Bock-Aronson

Brett Allyn Williams

Emily E Rusk

Graham Garvin

Dan Johnson

Joe Lesser

Andy Freeman

Ryan Um

Sukanya Iyer

Dan Johnston

A medical device may include an elongated body having a distal elongated body portion and a central longitudinal axis. The medical device may include a balloon positioned along the distal elongated body portion. The balloon may be configured to receive a fluid to inflate the balloon such that an exterior balloon surface contacts a calcified lesion within a patient's vasculature. The medical device may include one or more pressure wave emitters positioned along the central longitudinal axis of the elongated body. The one or more pressure wave emitters may be configured to propagate at least one pressure wave through the fluid to fragment the calcified lesion. At least one pressure wave emitter may include an optical fiber configured to transmit laser energy into the balloon. The laser energy may be configured to create a cavitation bubble in the fluid.

Intravascular lithotripsy

The disclosure includes a balloon guiding sheath including an elongated sheath having a proximal end, a distal end, an inner tube and an outer tube both extending between the proximal end and the distal end, an access port located adjacent the proximal end, a distal port located adjacent the distal end, and a working lumen extending through the elongated sheath between the access port and the distal port. The balloon guiding sheath may include an inflatable balloon located on an outer surface of the elongated sheath adjacent the distal end, and at least one vent hole located between an outer surface of the elongated sheath and an inner surface of the inflatable balloon. The at least one vent hole may be configured to allow media to flow from the inflatable balloon to an external portion outside the balloon guiding sheath.

Internal carotid artery thrombectomy devices and methods

A medical device may include an elongated body, a balloon positioned at a distal portion of the elongated body, and one or more pressure-wave emitters positioned along a central longitudinal axis of the elongated body within the balloon. The one or more pressure-wave emitters may be configured to propagate pressure waves radially outward through the fluid to fragment a calcified lesion at the target treatment site. The at least one of the one or more pressure-wave emitters may comprise an electronic emitter including a first electrode and a second electrode. The first electrode and the second electrode may be arranged to define a spark gap between the first electrode and the second electrode, and the second electrode may comprise a portion of a hypotube.

The disclosure includes a vein ablation system, comprising a catheter having an elongated body. In some embodiments, the vein ablation system comprises an ablation device at a distal portion of the elongated body. According to some embodiments, the vein ablation system comprises a control device at a proximal portion of the elongated body. The control device may comprise an input mechanism configured to simultaneously control at least two of a longitudinal translation of the ablation device through a target vessel, a rotation of the ablation device about a central longitudinal axis, and an infusion of a chemical agent into the target vessel.

Vascular ablation

A balloon guiding sheath may include an elongated sheath comprising a proximal end, a distal end, an inner tube, an outer tube surrounding the inner tube, an access port located adjacent the proximal end, a distal port located adjacent the distal end, and a working lumen extending between the access port and the distal port. The balloon guiding sheath may also include an inflatable balloon located on an outer surface of the elongated sheath adjacent the distal end. The balloon guiding sheath may also include a textured surface located along an outer portion of the outer tube and located beneath the inflatable balloon. The elongated sheath may be sized and configured to enable direct insertion into vasculature of a patient through an arteriotomy in at least one of a carotid artery or a vertebral artery to position the inflatable balloon at a target site.

Balloon guiding sheath having a textured surface

An anchor assembly is configured to implant a cardiac anchor into a heart wall of a patient to anchor a suture configured to extend from a valve leaflet of the heart as an artificial chordae. The anchor assembly can include an anchor hub defining an open interior and a helical coil extending distally from the anchor hub and having a sharpened tip configured to embed the helical coil into the heart wall upon rotation of the helical coil. A spring can be disposed within the open interior of the anchor hub. Compressing the spring distally can create an open space within the open interior of the anchor hub for a suture extending through the anchor hub to slide freely and releasing compression on the spring can cause the spring to expand in a proximal direction to clamp the suture within the open interior of the anchor hub.

Helical cardiac anchors for minimally invasive heart valve repair

Disclosed herein are various embodiments of cardiac anchors configured to be inserted into a heart wall of a patient to anchor a suture as an artificial chordae under an appropriate tension for proper valve function. Such cardiac anchors are particularly suitable for use in intravascular, transcatheter procedures.

Transverse helical cardiac anchor for minimally invasive heart valve repair

The disclosure describes a reinforced catheter system, such as a wire, that includes an inner layer having an inner lumen configured to allow an object to slideably move within the inner lumen. The catheter system may include a reinforcement structure, having an outer coating, such as a polymer. The reinforcement structure may be coupled over the inner layer to thereby at least partially encapsulate the inner layer. The catheter system may include an outer surface coupled over the reinforcement structure and the inner layer to thereby encapsulate both the inner layer and the reinforcement structure. The outer coating of the reinforcement structure may be re-flowed to thereby bond the inner layer to the outer surface to thereby create a reinforced homogeneous structure.

Polymer coated wires for reinforced catheter systems

A balloon guiding sheath may include an elongated sheath comprising a proximal end, a distal end, an inner tube, an outer tube surrounding the inner tube, an access port, a distal port, and a working lumen extending through an interior portion of the elongated sheath between the access port and the distal port. The balloon guiding sheath may also include an inflatable balloon located on an outer surface of the elongated sheath adjacent the distal end. The balloon guiding sheath may include a plurality of inflation holes extending through a side wall of the elongated sheath. The elongated sheath may be sized and configured to enable direct insertion into a patient's vasculature through an arteriotomy in at least one of a femoral artery and vertebral artery to position the inflatable balloon at a target site.

Balloon guiding sheath having an inflation trough

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Rogers, MN, United States of America

Brady Hatcher