Kci Licensing, Inc.

Solventum Intellectual Properties Company

3m Innovative Properties Company

Other

Huntleigh Technology Limited

Kci Manufacturing Unlimited Company

Lifecell Corporation

Kci Usa, Inc.

Systagenix Wound Management, Limited

Infineum International Limited

Luckemeyer, James

Locke, Christopher, Brian

Christopher Brian Locke

Timothy Mark Robinson

Aidan Marcus Tout

Richard Daniel John Coulthard

Benjamin Andrew Pratt

James A Luckemeyer

Justin Alexander Long

Jonathan Paul Jaeb

Mark Stephen James Beard

David George Whyte

Colin John Hall

Thomas Alan Edwards

James Killingworth Seddon

David Robson Blandford

Keith Patrick Heaton

Shannon C Ingram

Paul S Slack

Larry Tab Randolph

Ian James Hardman

Christopher A Carroll

T Blane Sanders

Richard Marvin Kazala, Jr

Royce W Johnson

Kristine M Kieswetter

Kevin Higley

Justin R Rice

Kevin W Bendele

Li Yao

Michael E Manwaring

Robert Peyton Wilkes

Tyler H Simmons

Kenneth Mitchel Knowles

Kenneth R Smith

Randall Paul Kelch

Bruce L Phillips

Thomas Paul Lawhorn

Douglas A Cornet

Larry D Swain

David Richard Mercer

Tianning Xu

Eric Woodson Barta

Amy K McNulty

Antonio Gutierrez

Jacob I Emert

Jonathan Kagan

Aaron M Barere

Breda Mary Cullen

Evan J Friedman

Matthew Francis Cavanaugh, Ii

Brett L Moore

William Pigg

Gareth Stephenson

Richard Coulthard

Brian Andrews

Justin A Long

Benjamin Locke

James Joseph Sealy

Benjamin Stokes

Elliott James Rider

Daniel Evans

Marisa Schmidt

Terrie Lea McDaniel

Abhay Jaswal

Peter Arnold

Alexander Waite

John R Harper

Diwi L Allen

Tab Randolph

Daniel W Dekruif

Michael Bernard Beasley

Ben Stokes

Tim Robinson

Aldan Marcus Tout

Premnarayan Ganapathy

Blane Sanders

Loren Francis

Prathamesh Madhav Kharkar

Carrie Ann Kauffman

Robert Tuck

John Elwood

Lillian Ramos

Jessica Ann Rivas-Bosquez

Anissa Lloyd

Vinay K Singh

Matthew David Irving

James Courage

Glen P Fetterman

Jai G Bansal

Juan L Gonzalez

Malcolm G Thomson

Michael T Minotti

Chester R Edlund

Craig Delury

Chester Edlund

Mark Colin Batterbury

David Mercer

Aidan Tout

Richard Daniel John Coullhard

Kovin Higley

A wound dressing includes an elastic foam layer, a drape layer, and superabsorbent projections. The elastic foam layer is configured to engage a wound bed and has a first side and a second side, the second side configured to face the wound bed. The drape layer also has a first side and a second side, the second side configured to face the first side of the elastic foam layer. The elastic foam layer also has a plurality of superabsorbent projections (nodules, dots, bumps, lumps, islands, protuberances) fixed to and extending from the first side of the elastic foam layer towards the second side of the drape layer.

Flexible and conformable wound dressing with enhanced fluid absorption capability

This disclosure includes wound dressings and systems with remote oxygen generation for topical wound therapy and related methods. Some systems include a dressing for facilitating delivery of oxygen to the target tissue, the dressing having: a first manifold that defines a plurality of gas passageways and is configured to allow communication of oxygen to the target tissue; a gas-occlusive layer configured to be disposed over the first manifold and coupled to tissue surrounding the target tissue such that: an interior volume is defined between the gas-occlusive layer and the target tissue; and the gas-occlusive layer limits escape of oxygen from the interior volume between the gas-occlusive layer and the tissue surrounding the target tissue; a container outside the interior volume, the container having a sidewall that defines a chamber configured to be in fluid communication with the interior volume; and an oxygen-generating material disposed within the chamber of container and configured to release oxygen when exposed to water.

Wound dressings and systems with remote oxygen generation for topical wound therapy and related methods

A method and apparatus for disrupting material at a tissue site is described. A contact layer may be selected for use on the tissue site and positioned adjacent to the tissue site. The contact layer may include walls defining a plurality of through-holes. A sealing member may be positioned over the contact layer and sealed to tissue surrounding the tissue site to form a sealed space enclosing the contact layer. A negative-pressure source may be fluidly coupled to the sealed space. The negative-pressure source may supply negative pressure to the sealed space and the contact layer to draw tissue into the through-holes to form nodules. The negative pressure may be vented from the sealed space to release the nodules.

Disruptive dressing for use with negative pressure and fluid instillation

In one example embodiment, an apparatus for treating a tissue site may include a contact layer formed from a compressible material. The contact layer may include a plurality of apertures extending at least partially through the contact layer. The contact layer may be configurable such that at least a portion of the apertures include a first plurality of orifices having a diameter in a first diameter range and such that at least a portion of the apertures include a second plurality of orifices having a diameter in a second diameter range. The first diameter range may be from about 2 mm to about 6 mm. The second diameter range may be from about 8 mm to about 15 mm. The apparatus may include a cover configured to form a sealed space including the contact layer and the tissue site.

Dressing providing apertures with multiple orifice sizes for negative-pressure therapy

Systems, apparatuses, and methods for closing an opening through a surface of a tissue site are described. The system includes a sealing member adapted to cover the opening to form a sealed space and a negative-pressure source adapted to be fluidly coupled to the sealed space to provide negative pressure to the sealed space. The system also includes a contracting layer adapted to be positioned adjacent the opening and formed from a material having a firmness factor and a plurality of holes extending through the contracting layer to form a void space. The holes have a perforation shape factor and a strut angle causing the plurality of holes to collapse in a direction substantially perpendicular to the opening. The contracting layer generates a closing force substantially parallel to the surface of the tissue site to close the opening in response to application of the negative pressure.

Dressing with contracting layer for linear tissue sites

A dressing for treating tissue may be a composite of dressing layers, including a contact layer, a manifold layer, and an adhesive drape. The manifold layer may include one or more layers of felted open-cell foam in some examples. The manifold layer may be relatively thin to reduce the dressing profile and increase flexibility, which can enable it to conform to difficult geometry and other tissue sites under negative pressure. The dressing may have a length and a width less than the length. The manifold layer may include a population of holes extending at least partially therethrough, wherein the holes may be configured to promote anisotropic contraction of the dressing parallel to its width. The population of holes may have a circular, ovoid, triangular, square, hexagonal, irregular, or morphous shape. The dressing may be a bolster that may anisotropically contract to provide a closing force to a linear wound.

Multi-layer negative pressure incisional wound therapy dressing

Systems, methods, and apparatuses for providing instillation therapy with a negative-pressure source are described. The apparatus can include a housing having a dosing chamber and a negative-pressure chamber fluidly isolated from each other. The apparatus can also include a moveable barrier disposed in the housing between the dosing chamber and the negative-pressure chamber. The housing includes a fluid inlet in fluid communication with the dosing chamber and a fluid outlet in fluid communication with the dosing chamber. The housing can also include a negative-pressure inlet in fluid communication with the negative-pressure chamber and a biasing element coupled to the moveable barrier. The biasing element is operable to move the moveable barrier between a charge position and a discharge position.

Disposable cartridge for vacuum actuated fluid delivery

A system for applying negative pressure to a joint positioned in a treatment area. The system includes a negative pressure dressing. The negative pressure dressing includes a compressive layer and a sealing layer. The compressive layer includes a first surface and a second, treatment area-facing. The compressive layer further includes a first elongated portion configured to be positioned proximate the joint. The first elongated portion includes a first end and a second end. The compressive layer further includes a second elongated portion spaced from the first elongated portion and configured to be positioned proximate the joint. The second elongated portion includes a first end and a second end. The compressive layer further includes an interconnecting portion extending between the first elongated portion and the second elongated portion. The interconnecting portion is configured to overlie at least a portion of the joint. The compressive layer further includes a plurality of channels formed in the first surface and extending proximate the second surface. The plurality of channels is formed in at least one of the first end and the second end of the first elongated portion and at least one of the first end and the second end of the second elongated portion. The sealing layer is configured to form a seal around a perimeter of the negative pressure dressing.

Dressing design incorporating formed 3D textile for the delivery of therapeutic negative pressure and compressive forces to a treatment site

Systems, apparatuses, and methods for providing negative pressure to a tissue site are disclosed. Illustrative embodiments may include an apparatus or system for delivering negative-pressure to a tissue site, which can be used in conjunction with low-profile distribution components for wound therapy. Such apparatus may include a low-profile dressing interface or connector comprising at least two side-by-side fluid pathways fluidly coupled to a recessed space of the connector, one for providing negative pressure to a tissue interface or manifold and the other for sensing the negative pressure within the recessed space adjacent the tissue interface. In some embodiments, for example, the apparatus may comprise a first layer of polymeric film having an outer surface, an inner surface, and a plurality of features extending from the inner surface, and a second layer of polymeric film coupled to the first layer. The second layer may have an outer, tissue-facing surface and an inner surface coupled to the first layer and covering the plurality of features to form an enclosed space with the inner surface of the first layer and a plurality of flow channels within the enclosed space. The second layer also includes an aperture defining the recessed space adapted to fluidly coupling the enclosed space to the tissue interface.

Low profile distribution components for wound therapy

A selectively transparent wound therapy dressing, system, and method of use are provided. The dressing may include conformable foam and drape layers, wherein the drape layer has a refractive index substantially within a range of a disclosing liquid. When the disclosing liquid is applied to the drape layer, the drape layer may switch from opaque to transparent. Subsequent evaporation of the disclosing liquid may return the drape layer to an opaque state. Some embodiments provide for paired use with a negative pressure source input device. The method of use provides selective visibility of a treatment site, and reduces the amount of time in which a patient views an acute or traumatic wound or injury.

Wound dressing with selective and dynamic transparency

Sealing members and methods of manufacturing the same are described. A first film layer and a second film layer each having a first side and a second side can be provided. A first adhesive can be coupled to the second side of the first film layer to form a first adhesive layer. A second adhesive can be coupled to the second side of the second film layer to form a second adhesive layer, and a third adhesive can be coupled to the first side of the second film layer to form a third adhesive layer. One or more perforations can be formed through the third adhesive layer, the second film layer, and the second adhesive layer. A first side of the third adhesive layer can be coupled to a second side of the first adhesive layer.

Hybrid silicone and acrylic adhesive cover for use with wound treatment

A system for wirelessly controlling a dressing interface that performs negative pressure wound therapy and fluid instillation therapy at a wound site. The system comprises a core module comprising: i) a plurality of sensors configured to determine a plurality of physical parameter data associated with the wound site; ii) a processor coupled to the plurality of sensors and configured to read the physical parameter data from the plurality of sensors; iii) a wireless transceiver coupled to the processor and configured to communicate with an external therapy controller; and iv) at least a first internal peripheral device coupled to the processor. The system further comprises at least a first external peripheral interface coupled to the core module and configured to communicate with the processor, wherein the core module and the at least a first external peripheral interface are disposed within a housing of the dressing interface.

Wireless system to enable auto-determination of application specific therapy device screens and setting options

A dressing includes a barrier film layer, a wound contact layer coupled to the barrier film layer, and a plurality of felted foam strips positioned between the barrier film layer and the wound contact layer. Each strip provides a manifolding pathway. The barrier film layer and the wound contact layer include a central region and a plurality of peninsular projections extending therefrom in the shape of a hand.

Hand dressing for use with negative pressure wound therapy

A dressing for treating a tissue site with negative pressure may comprise a manifold layer having a first surface configured to face the tissue site, a second surface opposite the first surface, and a thickness extending between the first surface and the second surface. The manifold layer may comprise a tissue portion and a bridge portion. The bridge portion may be coupled to the tissue portion and may comprise a distal end configured to be extended away from the tissue portion. The dressing may also comprise a flexible drape configured to form a sealed space including the manifold layer at the tissue site.

Customizable dressing with integrated bridge

A dressing or wound filler comprising a laminate structure of materials. In one example embodiment, a dressing may include a first layer comprising a first film, a second layer adjacent to the first layer and comprising a foam, and a third layer comprising a second film. The first layer and the second layer may further include a plurality of perforations or fenestrations. The third layer may include a plurality of raised features. The perforations or fenestrations of the first and second layers may be positioned or aligned with the raised features of the third layer so as to facilitate tearing of the dressing for sizing and application purposes. In some embodiments, the first layer may comprise a polyurethane film, the second layer may comprise a polyurethane foam, and the third layer may comprise an additional polyurethane film.

Tearable dressing structure

Growing community of inventors

Bournemouth, United Kingdom

Christopher Brian Locke