The Procter Gamble Company

Case Western Reserve University

Noxsano Inc.

Other

The Procter & Gamble Plaza

Toa Research, Inc.

Alan David Willey

Michael E Burns

Kevin Lee Kott

Randy Purnell Washington

Jamie Angel Reed

Gregory Scot Miracle

Mark Robert Sivik

Philip Andrew Sawin

Vladimir Gartstein

Lucille F Taylor

Eugene Paul Gosselink

Randall Alan Watson

Richard Timothy Hartshorn

Frederick E Hardy

Chanchal Kumar Ghosh

James C Burckett-St Laurent

Jerome Howard Collins

Stefano Scialla

Frederick Anthony Hartman

Vanessa Marie Melendez

Frank Beerwerth

Robb Richard Gardner

Donn N Rubingh

William Michael Scheper

Phillip Kyle Vinson

Stephen Wayne Heinzman

Alfred Busch

Ellen Schmidt Baker

Andreas Flohr

Yonas Gizaw

James P Johnston

James Charles Theophile Roger Burckett-St Laurent

Peter Robert Foley

John Geoffrey Chan

David Johnathan Kitko

John August Wos

Patti Jean Kellett

Gerard Marcel Baillely

Robert Scott Youngquist

Aleksey Mikhailovich Pinyayev

Christiaan A Thoen

Satyanarayana Majeti

Stevan Samuel

Jacob Robert Adams

Brian Jeffreys

Chinto Benjamin Gaw

David William Ingram

William Richard Mueller

Anthony M Harriman

David Salloum Salloum

Edward Eugene Getty

Krista Beth Comstock

Bobby Lee Barnett

Michael Kloeppel-Riech

David Neil DiGiulio

Claire Rebecca Yates

Daniel E Machenheimer

Gary Joseph Foose

Marta Lea Verhoff

Sandra Smith

Earl Osborne

Philip F Brode

Shuichi Tsunetsugu

Kady Lynn Willison

John Todd Dipre

Jean Angela Jefferson

Robin Gibson Hall

Ioannis Constantine Constantinides

James Henry Saunders

Neil James Gordon

Rafael Ortiz

Ronald Anthony Masters

Mario Elmen Tremblay

Michael Stephen Maile

James C Horney

Abdennaceur Fredj

Larry E Miller

Alexander Franz Doll

Raffaele Scoccianti

Mehmet Suha Yazici

Francis Cornelio Ford

Kenneth Edward Yelm

Nour-Eddine Guedira

Valentina Masotti

Valerie Jean Bradford

Luisa Navarro Cerda

Stephanie Lee Davis

Gregory Mark Bunke

James C St Laurent

Amber Joy Yeary

Vladimir Garstein

Andrea Soddu

Vincent Reniers

Trace Wendell De Guzman Trajano

Ronak V Rughani

James Charles Burckett-St Laurent

Geoffrey William Rowland

Finlay MacCorquodale

John Rolland Shaw

A composition comprising an organic photoactivator, a gasotransmitter salt which converts into a gasotransmitter via electron transfer, and an electron donor which donates an electron to the photoactivator when the photoactivator is in a photo-excited state.

Light activated gasotransmitter generating compositions

Method for shaping keratin fibres comprising: providing a crosslinking composition, wherein the crosslinking composition comprises: an active agent, wherein the active agent is a sugar; a photocatalyst; a cosmetically acceptable carrier; and applying the crosslinking composition to keratin fibres, mechanically shaping the keratin fibres with an appliance or implement, and exposing the composition to electromagnetic radiation having a wavelength of from about 300 nm to about 750 nm. Also a related composition, use, kit and process.

Shaping keratin fibres using a sugar

A method for shaping keratin fibres comprising: providing a crosslinking composition, wherein the crosslinking composition comprises: an active agent, wherein the active agent is selected from the group consisting of: oxoethanoic acid, 2,2-dihydroxyethanoic acid, 2,2'-oxybis(2-hydroxy)-ethanoic acid, a derivative thereof, and mixtures thereof; and wherein the active agent has a molecular weight of 500 g/mol or less; a photocatalyst; a cosmetically acceptable carrier; and applying the crosslinking composition to keratin fibres, mechanically shaping the keratin fibres with an appliance or implement, and exposing the composition to electromagnetic radiation having a wavelength of from about 300 nm to about 750 nm. Also a related composition, use, kit and process.

Shaping keratin fibres using oxoethanoic acid and/or derivatives thereof

A method for shaping keratin fibres comprising: providing a crosslinking composition, wherein the crosslinking composition comprises: an active agent, wherein the active agent is selected from the group consisting of: 2-hydroxypropane-1,2,3-tricarboxylic acid, 1,2,3,4-butanetetracarboxylic acid, a derivative thereof, and mixtures thereof; and wherein the active agent has a molecular weight of 500 g/mol or less; a photocatalyst; a cosmetically acceptable carrier; and applying the crosslinking composition to keratin fibres, mechanically shaping the keratin fibres with an appliance at a temperature of from about 80&#xb0; C. to about 180&#xb0; C. and exposing the composition to electromagnetic radiation having a wavelength of from about 300 nm to about 750 nm. Also a related composition, use, kit and process.

Shaping keratin fibres using 2-hydroxypropane-1,2,3-tricarboxylic acid and/or 1,2,3,4-butanetetracarboxylic acid

A method for shaping keratin fibres comprising: providing a crosslinking composition, wherein the crosslinking composition comprises: an active agent, wherein the active agent is a carbonate ester; and wherein the active agent has a molecular weight of 500 g/mol or less; a photocatalyst; a cosmetically acceptable carrier; and applying the crosslinking composition to keratin fibres, mechanically shaping the keratin fibres with an appliance at a temperature of from about 80&#xb0; C. to about 180&#xb0; C. and exposing the composition to electromagnetic radiation having a wavelength of from about 300 nm to about 750 nm. Also a related composition, use, kit and process.

Shaping keratin fibres using carbonate ester

A method for shaping keratin fibres comprising: providing a crosslinking composition, wherein the crosslinking composition comprises: an active agent, wherein the active agent comprises a functional group selected from the group consisting of: &#x2014;C(&#x2550;O)&#x2014;, &#x2014;C(&#x2550;O)&#x2014;H, and &#x2014;C(&#x2550;O)&#x2014;O&#x2014;; and wherein the active agent is not an acid; and wherein the active agent has a molecular weight of 500 g/mol or less; a photocatalyst; a cosmetically acceptable carrier; and applying the crosslinking composition to keratin fibres, mechanically shaping the keratin fibres with an appliance or implement, and exposing the composition to electromagnetic radiation having a wavelength of from about 300 nm to about 750 nm. Also a related composition, use, kit and process.

Shaping keratin fibres using an active agent comprising a functional group selected from the group consisting of: -C(=O)-, -C(=O)-H, and -C(=O)-O-

A method for shaping keratin fibres comprising: providing a crosslinking composition, wherein the crosslinking composition comprises: an active agent, wherein the active agent comprises at least two functional groups selected from: &#x2014;C(OH)&#x2014; and &#x2014;C(&#x2550;O)OH; and wherein if the active agent has three or more &#x2014;C(OH)&#x2014; groups, then the active agent has 4 or more carbon atoms; and wherein no 1 carbon atom is functionalized with more than one functional group; and wherein the active agent has a molecular weight of 500 g/mol or less; a photocatalyst; a cosmetically acceptable carrier; and applying the crosslinking composition to keratin fibres, mechanically shaping the keratin fibres with an appliance or implement, and exposing the composition to electromagnetic radiation having a wavelength of from about 300 nm to about 750 nm. Also a related composition, use, kit and process.

Shaping keratin fibres using an active agent comprising at least two functional groups selected from: &#x2014;C(OH)- and &#x2014;C(=O)OH

Disclosed are compositions that comprise an organic electrochemical mediator and a gasotransmitter salt which converts into a gasotransmitter via electron transfer. Also disclosed are bandages and wound dressings comprising the subject gasotransmitters, and methods of making a gasotransmitters, comprising exposing the compositions to a voltage sufficient to reduce the water soluble organic mediator. Further disclosed are methods of treating a variety of trauma and disease states by applying a therapeutically effective amount of at least one gasotransmitter thereto, and methods of generating an effective dose of the gasotransmitter generated from electrolytic reaction involving the gasotransmitter-generating compositions.

Electrochemical gasotransmitter generating compositions and methods of using same and dressings and treatment systems incorporating same

A method for shaping keratin fibers including providing a crosslinking composition, wherein the crosslinking composition includes ethylene carbonate, arabinose, a photocatalyst being a hydroxy-substituted aromatic compound, and a cosmetically acceptable carrier; applying the crosslinking composition to keratin fibers; and mechanically shaping the keratin fibers with an appliance at a temperature of from 80&#xb0; C. to 180&#xb0; C. while exposing the crosslinking composition to electromagnetic radiation having a wavelength of from 300 nm to 750 nm.

Shaping keratin fibers using arabinose and ethylene carbonate

Method and apparatus for treating dishware, in which the method comprises the steps of providing a treatment composition comprising a photoactive component, contacting in an appliance the treatment composition with the dishware, and irradiating the treatment composition with visible light. The step of irradiating the treatment composition with visible light is performed with a source of light that is tool free insertable into and removable from the appliance.

Method for treating dishware

A lighted dispenser having a light housing comprising a power source and source of light conductively connected to the power source and a treatment composition reservoir operatively connected to the light housing, the reservoir having a dispensing outlet wherein the lighted dispenser is sized and dimensioned to fit within an interior portion of a washing appliance.

Lighted dispenser

A method for shaping keratin fibers comprising: providing a crosslinking composition, wherein the crosslinking composition comprises: an active agent, wherein the active agent is a amine or diamine; a photocatalyst; a cosmetically acceptable carrier; and applying the crosslinking composition to keratin fibers, mechanically shaping the keratin fibers with an appliance or implement, and exposing the composition to electromagnetic radiation having a wavelength of from about 300 nm to about 750 nm. Also a related composition, use, kit and process.

Shaping keratin fibres using an amine or a diamine

The present invention relates to a method of shaping a fibrous material and treatment compositions therefor. The method comprises providing a treatment composition comprising an active agent and a photocatalyst, applying the treatment composition to the fibrous material to form a treated fibrous material, mechanically shaping the treated fibrous material, and exposing the treated fibrous material to electromagnetic radiation. The treatment composition comprises an active agent, wherein the active agent comprises a sugar; and a photocatalyst.

Methods for shaping fibrous material and treatment compositions therefor

The present invention relates to a method of shaping a fibrous material and treatment compositions therefor. The method comprises providing a treatment composition comprising an active agent and a photocatalyst, applying the treatment composition to the fibrous material to form a treated fibrous material, mechanically shaping the treated fibrous material, and exposing the treated fibrous material to electromagnetic radiation. The treatment composition comprises an active agent, wherein the active agent comprises a high-polarity functional group, preferably selected from the group consisting of hydroxyl groups, carboxylic acid groups, and combinations thereof; and a photocatalyst.

Photoactivators comprise a photoactive moiety and a hydrophilic moiety. The photoactivators preferably comprise less than about 35%, by weight of the photoactivator, of the photoactive moiety. The photoactivators can be activated to a photo-excited state by excitation with incident radiation of a wavelength between about 350 nm and 750 nm, preferably between about 350 nm and about 420 nm. The photoactivators further encompass those having certain chemical formulations.

Photoactivators

Growing community of inventors

Cincinnati, OH, United States of America

Alan David Willey