Boston Scientific Scimed, Inc.

Gary John Pederson, Jr

Nicholas Lee Tassoni

Patrick A Haverkost

Martin R Willard

Mary-Claire Anderson

John Robert Moberg

Joel N Groff

Joel R Munsinger

Anthony F Tassoni, Jr

Joseph Connolly

Ken Xiao Kang Zhang

Katherine Stryker Brodeen Routh

James M Anderson

Hong Cao

John Jianhua Chen

Daniel J Gregorich

Derek C Sutermeister

Richard Charles Gunderson

Andrzej M Malewicz

Brett Ryan Johnson

Cass Alexander Hanson

Steven Paul Mertens

Michael D Gerdts

Jaydeep Yeshwant Kokate

Daniel T Quillin

David Raab

Ajay Gupta

Stanley A Nordin

Jan D Seppala

Derek Kenneth Larson

Jeffry Johnson

James D Vetsch

David D Groneberg

Brian Benson

Jordan Pollack

Joseph Michael Connolly

David Kent Harrison

A clip for reducing a dimension of an opening in tissue may include a continuous member having a plurality of legs and a plurality of preformed bends connecting adjacent legs, wherein the plurality of legs form: a first group having two protrusions; a second group having two protrusions; and a third group having two protrusions, wherein each protrusion of each group includes two legs of the continuous member and a corresponding preformed bend connecting the two legs, and each protrusion of each group extends from a region adjacent a first end of the clip to a region adjacent a second end of the clip.

Devices and methods for reducing a dimension of openings in tissue

Embolic material delivery devices and methods of using them are disclosed. An example embolic material delivery assembly includes an outer member having a lumen extending therein and a distal end region, an inner member disposed within the lumen of the outer member, wherein the inner member includes a first lumen extending therein. The embolic material delivery assembly also includes a first embolic material extending within the first lumen of the inner member, the embolic material having a first distal end region. The embolic material delivery assembly also includes an anchor disposed within the lumen of the outer member, the anchor having a first attachment region. Further, the first distal end region of the first embolic material is coupled to the first attachment region of the anchor.

Delivery device for use with an embolic material

Loading tools for use with medical devices are disclosed. An example loading tool may be suitable for use with a drug-coated expandable medical device. The loading tool may include a tubular sleeve having a distal end region, a proximal end region, and a lumen extending therethrough. The distal end region may include a reduced distal tip designed to interact with a hemostasis valve having a resilient seal member.

Loading tools for use with medical devices

A medical device system may include an elongate shaft having a lumen extending from a proximal end of the elongate shaft to a distal end of the elongate shaft, a medical device disposed proximate the distal end of the elongate shaft, a release wire disposed within the lumen of the elongate shaft, wherein the release wire releasably secures the medical device to the distal end of the elongate shaft, a securement member fixedly attached to the proximal end of the elongate shaft and to a proximal end of the release wire, and a microcatheter configured to deliver the medical device to a treatment site, the elongate shaft and the medical device being slidably disposed within a lumen of the microcatheter. A proximal portion of the securement member may be configured to disengage from a distal portion of the securement member.

Medical device release system

A movable protection and/or rewrapping device for a balloon catheter may include a tubular member with a bore extending along a length thereof. The tubular member may have at least one rib disposed on an inner surface of the bore. The tubular member may be flared away from the bore at one end and inwardly tapered at the other end. The rewrapping device may include an actuator configured to open a longitudinal slit in the tubular member.

Balloon protection and rewrapping devices and related methods of use

An embolic coil delivery assembly is disclosed. The delivery system may include a tubular member having a distal portion, a proximal portion and a lumen extending therein. The system may further include a tip member secured to the tubular member. The tip member may include a distal portion and a bonding portion. The bonding portion may include a bonding surface. The system may also include an embolic coil releasably disposed within the distal portion of the tip member. The distal portion of the tubular member may extend over the bonding portion of the tip member. The bonding surface may be configured to mechanically interlock with the tubular member.

Delivery device for use with an embolic coil device and methods for making and using the same

The disclosure describes stent delivery systems and its related methods of use. A stent delivery system including an inner shaft with a stent disposed about the distal region, a deployment sheath slidably disposed about the inner shaft, a handle coupled to the deployment sheath, and an intermediate shaft disposed about the inner shaft, positioned proximally of the stent. Further, proximal portion of the intermediate shaft is disposed within the handle and includes a support member.

Stent delivery systems and methods for use

A medical device for renal denervation may include a catheter shaft including an outer shaft having a lumen formed therein and an inner shaft extending within the lumen of the outer shaft. The catheter may further include an expandable member having a proximal region coupled to a distal region of the outer shaft, and a distal region of the expandable member may be coupled to a distal region of the inner shaft. In some embodiments, one or more active electrodes may be disposed on an exterior surface of the expandable member and capable of providing the renal denervation treatment. In some embodiments, the inner shaft may be rotatable in relation to the outer shaft and/or the outer shaft may be rotatable in relation to the inner shaft.

Medical devices for renal nerve ablation having rotatable shafts

Medical devices and methods for making and using the same are disclosed. An example medical device may include a medical device for renal nerve ablation. The medical device may include an elongate shaft having a distal region. An expandable member may be coupled to the distal region. A plurality of electrodes may be coupled to the expandable member and a single conductive member may be coupled to each electrode. Where one of the plurality of electrodes is active, the remaining electrodes may be inactive and act as ground or return electrodes. The electrode of the plurality of electrodes that is active may change over time.

Medical devices for renal nerve ablation

A handle for delivering a medical device comprises a housing having therein a wheel, a rack, and a catheter member. The wheel comprises a pinion gear that selectively engages gear teeth on the rack. The rack is selectively engaged and disengaged from the pinion gear in order to reduce the force necessary to manually pull the rack.

Handle for delivering medical device

A balloon catheter may comprise a primary inflation balloon and a secondary inflation balloon located to one side of the primary inflation balloon. The secondary balloon comprises a first portion and a second portion, the first portion located closer to the primary balloon. The second portion has a greater size than the first portion, and a portion of the second portion extends outwardly beyond the first portion and overhangs the first portion. In some embodiments, a cross-sectional shape of the secondary balloon in an inflated state comprises a mushroom shape.

Auxiliary balloon catheter

Medical device delivery systems, as well as related methods and components, are disclosed.

Medical device delivery system

The present invention provides a catheter balloon having an advantageous cone design. In particular, the catheter balloon has at least one cone section with a volume in mmsuch that, when the ratio of one cone volume to the transverse cross-sectional area in mmof the inflated median section is at least about 2.1 mm. In certain applications, the advantageous cone design can assist in the preferential expansion of the cone sections prior to any significant expansion of the median section. The balloon can thus advantageously be utilized as a component of a balloon catheter or prosthesis delivery system, also provided via the present invention. When so utilized, the inventive balloon can assist in reducing any shifting of the balloon and/or prosthesis during inflation or delivery, respectively. Methods of utilizing the balloon catheters in dilation procedures, as well as the prosthesis delivery systems to deliver prosthesis, are also provided.

Growing community of inventors

Albertville, MN, United States of America

Gary John Pederson, Jr