Cerevasc, LLC

C. R. Bard, Inc.

Edwards Lifesciences Ag

Solventum Intellectual Properties Company

J.w. Medical Systems Ltd.

Cornell University

Zeltiq Aesthetics, Inc.

Lumendi Ltd.

Circulite Gmbh

Neograft Technologies, Inc.

480 Biomedical Inc.

Xeltis Ag

3m Innovative Properties Company

Kci Licensing, Inc.

Kci Manufacturing Unlimited Company

Timothy Robinson

David A Rezac

Joseph Ting

J Christopher Flaherty

Justin Alexander Long

Adel M Malek

Carl Heilman

Michael F Weiser

Dennis Kujawski

Jeffrey Cerier

Stephen C Evans

Richard C Fortier

Jerry Brightbill

John Carey

Judith T Carpenter

David W Snow

Richard Stephen Wisdom

Christopher Brian Locke

Mohammed S El-Kurdi

Lorenzo Soletti

Jon McGrath

Tuan Anh Nguyen

Sameer Sharma

Nareak Douk

Robert C Farnan

Shannon C Ingram

James A Luckemeyer

Michael E Manwaring

Liem Vu

Lee A Core

Justin R Rice

Joshua P Wiesman

Christopher A Carroll

Jeffrey Milsom

Jeremy A Van Hill

Ashley Lauren Whitney

Matthew DeNardo

Rany Busold

Craig L Bonsignore

Kenneth R Smith

Jonathan O'Keefe

David Lowe

Kicherl Ho

Paul S Slack

Li Yao

Benedict Shia

Diwi L Allen

Marisa Schmidt

Prathamesh Madhav Kharkar

Jeffrey Carpenter

Clifford J Dwyer

Gabriel Greeley

Richard Yazbeck

Rahul Sathe

John Frederick Cornhill

Christopher Dillon

Anthony Z Assal

Audrey R Bell

Sarah Kostanski

Alan Fortunate

Stuart Lin

William Rebh

Brian David Chouinard

Phal Kun Chan

Samuel W Tolkoff

Dawn M Henderson

Bryan Patrick Fritz

Richard Abraham

Arielle Drummond

Benjamin Andrew Pratt

My Le

Richard Coulthard

Colin J Hall

Dawn M Davila

Nathan Maier

Thomas Edwards

James Seddon

Matthew Denardo

Phala Chan

Richard Daniel John Coulthard

James Killingworth Seddon

Colin John Hall

Ian James Hardman

James Joseph Sealy

Mark Stephan James Beard

David George Whyte

Peter Arnold

Benjamin Locke

Thomas A Edwards

Ashwatha Price

Dawn Henderson

There is disclosed a porous emboli deflector for preventing cerebral emboli while maintaining cerebral blood flow during an endovascular or open surgical procedure. The device prevents the entrance of emboli of a size able to cause stroke (such as greater than 100 microns) from entering either the right or left common carotid arteries, and/or the right or left vertebral arteries by deflecting emboli downstream of these vessels. The device can be placed prior to any manipulation of the heart or aorta allowing maximal protection of the brain during the index procedure. The deflector has a low profile within the aorta which allows sheaths, catheters, or wires used in the index procedure to pass. Also disclosed are methods for insertion and removal of the deflector.

Embolic deflection device

A releasable medical drape, and systems and methods having the same, includes at least a liquid-impermeable, vapor-permeable layer, a pressure-sensitive adhesive layer, and a soft-gel layer having a plurality of apertures. The soft-gel layer is configured to be disposed adjacent to a tissue site. A portion of the pressure-sensitive adhesive layer extends through the plurality of apertures in the soft-gel layer to contact the tissue site. The soft-gel layer forms a good seal with the tissue site and the pressure-sensitive adhesive layer extending through the plurality of apertures forms a firm—but releasable—coupling with the tissue site.

Releasable medical drapes

A negative pressure wound treatment (NPWT) system including a NWPT therapy unit and a wound dressing configured to overlay a wound bed. The NPWT system includes a first length of tubing comprising a first end and a second end, the first end of the first length of tubing coupled to the NWPT therapy unit and the second end of the first length of tubing having a first coupling half, as well as a second length of tubing having a first end and second end, the first end of the second length of tubing coupled to the wound dressing and the second end of the second length of tubing having a second coupling half. The NPWT system includes an inline filter comprising a sintered polymer and a superabsorbent material, and an inline coupling, wherein the inline coupling is configured to operably couple and de-couple the NPWT therapy unit and wound dressing.

Fluid ingress protection for NPWT device

A medical drape for use with a reduced pressure system for providing reduced pressure to a tissue site is described. In some embodiments, the drape may include a flexible film, and an adhesive layer coupled to the flexible film. The adhesive layer may include a first adhesive disposed on a first portion of the flexible film in a first pattern. The first adhesive can be configured to secure the flexible film proximate to the tissue site. The adhesive layer generally includes a second adhesive disposed on a second portion of the flexible film in a second pattern. The second adhesive can be configured to seal the flexible film proximate to the tissue site. The first pattern and the second pattern are preferably registered so that the first portion and the second portion are offset to cover substantially different portions of the flexible film.

Medical drape with pattern adhesive layers and method of manufacturing same

Methods for treating hydrocephalus using a shunt, the shunt having one or more CSF intake openings in a distal portion, a valve disposed in a proximal portion of the shunt, and a lumen extending between the one or more CSF intake openings and the valve, the method comprises deploying the shunt in a body of a patient so that the distal portion of the shunt is at least partially disposed within a CP angle cistern, a body of the shunt is at least partially disposed within an IPS of the patient, and the proximal portion of the shunt is at least partially disposed within or proximate to a JV of the patient, wherein, after deployment of the shunt, CSF flows from the CP angle cistern to the JV via the shunt lumen at a flow rate in a range of 5 ml per hour to 15 ml per hour.

Methods and systems for draining cerebrospinal fluid into the venous system

Apparatus comprising: a sleeve adapted to be slid over the exterior of an endoscope; an aft balloon secured to the sleeve; an inflation/deflation tube carried by the sleeve and in fluid communication with the interior of the aft balloon; a pair of hollow push tubes slidably mounted to the sleeve, the pair of hollow push tubes being connected to one another at their distal ends with a raised push tube bridge, the raised push tube bridge being configured to nest an endoscope therein; and a fore balloon secured to the distal ends of the pair of hollow push tubes, the interior of the fore balloon being in fluid communication with the interiors of the pair of hollow push tubes, wherein the fore balloon is capable of assuming a deflated condition and an inflated condition, and further wherein (i) when the fore balloon is in its deflated condition, an axial opening extends therethrough, the axial opening being sized to receive the endoscope therein, and (ii) when the fore balloon is in its inflated condition, the axial opening is closed down.

Method and apparatus for manipulating the side wall of a body lumen or body cavity so as to provide increased visualization of the same and/or increased access to the same, and/or for stabilizing instruments relative to the same

A system for applying a fiber matrix on a tubular member is provided. A mandrel, configured for atraumatic placement within the tubular member, is included. Methods for atraumatic placement of a mandrel into a tubular member are also provided.

System and mandrel for creating graft devices

Systems and methods for deploying an implant in the vasculature

Methods and systems for treating hydrocephalus

Growing community of inventors

Sandown, NH, United States of America

Timothy Robinson