Eastman-kodak Company

Other

Eastman Rodack Company

Thomas B Brust

Catherine A Falkner

Mark Edward Irving

Grace Ann Bennett

Anne Troxell Wyand

Yongcai Wang

Paul D Yacobucci

Gary L House

Mark R Mis

Donald L Black

Kurt Michael Schroeder

John Leonard Muehlbauer

Peter John Ghyzel

James T Kofron

Richard P Szajewski

Allan Francis Sowinski

Karin Topfer

Michael J Carmody

Brent Andrew Keller

Valerie Lynn Kuykendall

Debra L Hartsell

Elaine W Jin

George F Wu

Philip J Dale

Thanhchau T Nguyen

David Howard Levy

Hwei-Ling Yau

Roger L Lok

Joseph F Bringley

Douglas Robert Robello

Terrence Robert O'Toole

James A Friday

Joseph Jech, Jr

James West Blease

Jerzy A Budz

Allen K Tsaur

Anne E Bohan

Yun C Chang

James Edward Sutton

James P Merrill

Robert C Daly

Brian P Cleary

Michael G Antoniades

Philip J Zola

Sherrill A Puckett

William C McColgin

Dale E DeCann

Paul J Madigan

Robert J Newmiller

Robert H Fehnel

Bernard D Stich

Robert D Lindholm

Sharon Gould

Michael John Carmody

Catherine Ann Falkner

Gary Lawrence House

Paul Daniel Yacobucci

A water-soluble composition includes reducible copper ions or copper nanoparticles complexed with a reactive polymer. The reactive polymer can be crosslinked using suitable irradiation to provide copper-containing water-insoluble complexes. The water-soluble composition can be used to provide various articles and electrically-conductive materials that can be assembled in electronic devices. The reactive polymer has greater than 1 mol % of recurring units comprising sulfonic acid or sulfonate groups, at least 5 mol % of recurring units comprising a pendant group capable of crosslinking via [2+2] photocycloaddition, and optionally at least 1 mol % of recurring units comprising a pendant amide, amine, hydroxyl, lactam, phosphonic acid, or carboxylic acid group.

Copper-containing articles

Individual aqueous inks or inks in ink sets haves a non-crosslinked, crosslinkable polyurethane having an acid number of 20-40 and is derived from an aromatic diisocyanate; and a diol mixture of Dand Ddiols, and optionally including Ddiol, Ddiol, or both Dand Ddiols. Dhas a Cto Caliphatic group and a pendant carboxy group or neutralized carboxy group. Dhas a chain of repeating Cto Calkylene oxide groups. Dis an alkoxylated bisphenol A or an aliphatic cyclic diol, present at least 5 mol %. Dis a hydroxy-terminated polybutadiene having a molecular weight of at least 1000 and is present in an amount of 0.1-5 mol %. The ink also contains a dispersed pigment colorant; a humectant or organic co-solvent, and optionally, a crosslinking agent.

Aqueous inkjet ink compositions and ink sets

An inkjet printing method uses an aqueous inkjet ink composition having a non-crosslinked, crosslinkable polyurethane having an acid number of 20-40 and is derived from an aromatic diisocyanate; and a diol mixture of Dand Ddiols, and optionally including Ddiol, Ddiol, or both Dand Ddiols. Dhas a Cto Caliphatic group and a pendant carboxy group or neutralized carboxy group. Dhas a chain of repeating Cto Calkylene oxide groups. Dis an alkoxylated bisphenol A or aliphatic cyclic diol, present at least 5 mol %. Dis a hydroxy-terminated polybutadiene having a molecular weight of at least 1000 and is present in an amount of 0.1-5 mol %. The ink composition also contains a dispersed pigment colorant; a humectant or organic co-solvent, and optionally, a crosslinking agent.

Method of inkjet printing

A non-crosslinked, crosslinkable polyurethane has an acid number of 20-40 and a glass transition temperature of up to and including 40&#xb0; C. It can be derived from an aromatic diisocyanate; and a diol mixture of at least D, D, D, and Ddiols. Dhas a Cto Caliphatic group and at least one pendant carboxy group or pendant neutralized carboxy group. Dhas a chain of repeating Cto Calkylene oxide groups and a molecular weight of 250-3000. Dis an alkoxylated bisphenol A or aliphatic cyclic diol present in an amount of at least 5 mol %. Dis a hydroxy-terminated polybutadiene having a molecular weight of at least 1000, and is present in an amount of at least 0.1-5 mol %.

Non-crosslinked, crosslinkable polyurethane

A method is used to provide an electrically-conductive polyaniline pattern by providing a uniform layer of a photocurable composition on a substrate. The photocurable composition comprises a water-soluble reactive polymer comprising (a) greater than 40 mol % of recurring units comprising sulfonic acid or sulfonate groups, and (b) at least 5 mol % of recurring units comprising a pendant group capable of crosslinking via [2+2] photocycloaddition. The photocurable composition is exposed to cause crosslinking via [2+2] photocycloaddition of the (b) recurring units, thereby forming a crosslinked polymer. Any remaining water-soluble reactive polymer is removed. The crosslinked polymer is contacted with an aniline reactive composition having aniline monomer and up to 0.5 molar of an aniline oxidizing agent, thereby forming an electrically-conductive polyaniline disposed either within, on top of, or both within and on top of, the crosslinked polymer.

Method of preparing article with polyaniline coating

Ink jettable and UV-curable compositions include a reactive polymer comprising: (a1) at least 20 mol % of recurring units comprising pendant metal complexing water-solubilizing groups, and (b) at least 5 mol % of recurring units comprising a pendant group capable of crosslinking via [2+2] photocycloaddition. The compositions can optionally have a humectant, a dye or pigment colorant, an anionic or nonionic surfactant, a water-soluble or water-dispersible acrylic polymer, or a water-soluble or water-dispersible polyurethane. Such ink jettable and UV-curable compositions can include a complex of reducible metal ions or metal nanoparticles with the reactive polymer.

Ink jettable, UV-curable compositions

Copper-containing articles and methods for providing same

A method for forming an ink jet image on a substrate includes ink jetting an ink jettable and UV-curable composition onto the substrate in an imagewise fashion to form an ink jetted image on the substrate. The ink jettable and UV-curable composition includes: a reactive polymer having: (a1) or (a2) recurring units having pendant metal complexing water-solubilizing groups, (b) at least 5 mol % of recurring units having a pendant group capable of crosslinking via [2+2] photocycloaddition, and optionally (c) at least 1 mol % of recurring units including a pendant amide, hydroxyl, or lactam group, or a pendant precursor moiety for the pendant amide, hydroxyl, or lactam group. The ink jetted image is cured to form a UV-cured ink jet image on the substrate. The ink jettable and UV-curable composition can also include metal nanoparticles or reducible metal ions that can serve as catalytic sites for electroless plating.

UV-curing methods for forming ink jet images

A method for forming an ink jet image on a substrate includes ink jetting an ink jettable and UV-curable composition onto the substrate in an imagewise fashion to form an ink jetted image on the substrate. The ink jettable and UV-curable composition includes: a reactive polymer comprising: (a1) or (a2) recurring units comprising pendant metal complexing water-solubilizing groups, (b) at least 5 mol % of recurring units having a pendant group capable of crosslinking via [2+2] photocycloaddition, and optionally (c) at least 1 mol % of recurring units comprising a pendant amide, hydroxyl, or lactam group, or a pendant precursor moiety for the pendant amide, hydroxyl, or lactam group. The ink jetted image is cured to form a UV-cured ink jet image on the substrate. The ink jettable and UV-curable composition can also include metal nanoparticles or reducible metal ions that can serve as catalytic sites for electroless plating.

Methods for using ink jettable, UV-curable compositions

A method is used to provide an electrically-conductive polyaniline patterns on a substrate. A photocurable composition is applied as a pattern, comprising a water-soluble reactive polymer comprising (a) greater than 40 mol % of recurring units comprising sulfonic acid or sulfonate groups, (b) at least 5 mol % of recurring units comprising a pendant group capable of crosslinking via [2+2] photocycloaddition. The pattern is exposed to radiation sufficient to cause crosslinking via [2+2] photocycloaddition of the (b) recurring units to form a pattern of crosslinked polymer. The crosslinked polymer is contacted with an aniline reactive composition comprising an aniline monomer and up to 0.5 molar of an aniline oxidizing agent, in a molar ratio of from 1:0.5 to 1:1.5 of the aniline monomer to the aniline oxidizing agent. A pattern of electrically-conductive polyaniline disposed within, on top of, or both within and on top of, the crosslinked polymer only.

Method of preparing article with polyaniline pattern

A precursor article has a substrate and a polymeric layer having a reactive composition that contains a non-crosslinked thiosulfate copolymer comprising: (a) recurring units comprising pendant thiosulfate groups, and (b) recurring units comprising pendant carboxy, carboxylate, phospho, phosphonate, phosphate, sulfo, sulfonate, or sulfite groups. The (a) recurring units are present in an amount of 1 to 30 mol %, and the (b) recurring units are present in an amount of 70 to 99 mol %. This precursor article can be used to provide a product article comprising a substrate in which the polymeric layer has both exposed regions and non-exposed regions. The exposed regions contain a pattern of electrolessly plated metal within or deposited on the surface of an at least partially crosslinked polymer that has been derived from the non-crosslinked thiosulfate copolymer. The non-exposed regions have none of the electrolessly plated metal or the non-crosslinked thiosulfate polymer.

Forming conductive metal patterns using thiosulfate copolymers

Articles are prepared with a substrate and an ink jetted and UV-curable image some of which also include metal nanoparticles or reducible metal ions. The in jetted and UV-curable image can be obtained from an ink jettable and UV-curable composition comprising: a reactive polymer comprising: (a1) or (a2) recurring units comprising pendant metal complexing water-solubilizing groups, (b) at least 5 mol % of recurring units comprising a pendant group capable of crosslinking via [2+2] photocycloaddition, and optionally (c) at least 1 mol % of recurring units comprising a pendant amide, hydroxyl, or lactam group, or a pendant precursor moiety for the pendant amide, hydroxyl, or lactam group. Such articles can be used to provide electrically-conductive articles and devices after electrolessly plating a complex of the metal nanoparticles and the UV-cured reactive polymer.

Articles prepared using ink jettable, UV-curable compositions

Articles are designed with a substrate and have either a uniform layer or pattern of electrically-conductive polyaniline on one or both supporting sides of the substrate. The electrically-conductive polyaniline is disposed either within, on top of, or both within and on top of, a uniform or pattern of a crosslinked polymer that is derived from a photocurable composition comprising water-soluble reactive polymer comprising (a) greater than 40 mol % of recurring units comprising sulfonic acid or sulfonate groups, (b) at least 5 mol % of recurring units comprising a pendant group capable of crosslinking via [2+2] photocycloaddition, and optionally (c) at least 1 mol % of recurring units comprising a pendant amide, hydroxyl, lactam, phosphonic acid, phosphonate, carboxylic acid, or carboxylate group, all amounts based on the total recurring units in the water-soluble reactive polymer.

Articles having electrically-conductive layer or pattern

A conductive pattern can be formed using a polymeric layer that contains a reactive composition that comprises a reactive polymer that is metal ion-complexing, water-soluble, and crosslinkable. This reactive polymer comprises photosensitive non-aromatic heterocyclic groups each of these groups comprising a carbon-carbon double bond in conjugation with an electron withdrawing group, as well as metal ion-complexing and water solubilizing groups. The reactive composition can be patternwise exposed to suitable radiation to induce crosslinking within the reactive polymer. The reactive composition and reactive polymer in the non-exposed regions can be removed due to their aqueous solubility, but the exposed regions of the polymeric layer are contacted with electroless seed metal ions, which are then reduced. The resulting electroless seed metal nuclei are electrolessly plated with a suitable metal to form the desired conductive pattern. Various articles can be prepared during this process, and the product article can be incorporated into various electronic devices.

Forming conductive metal patterns using water-soluble polymers

Articles are prepared to have a substrate and a silver-containing composition on either or both supporting sides of the substrate. The silver-containing composition can comprise either reducible silver ions or silver nanoparticles, complexed with a reactive polymer. The reactive polymer comprises: (a) greater than 1 mol % of recurring units comprising sulfonic acid or sulfonate groups, (b) at least 5 mol % of recurring units comprising a pendant group capable of crosslinking via [2+2] photocycloaddition, and optionally (c) at least 1 mol % of recurring units comprising a pendant amide, hydroxyl, lactam, phosphonic acid, or carboxylic acid group. Some other articles have a water-insoluble complex of reacted (crosslinked) polymer with reducible silver ions or silver nanoparticles on either or both supportive sides of the substrate. Such reacted polymer is derived from the noted reactive polymer.

Articles with silver-containing polymeric complexes

Growing community of inventors

Webster, NY, United States of America

Thomas B Brust