International Imaging Materials, Inc.

R.r. Donnelley and Sons Company

International Imagining Materials, Inc

Pamela Geddes

Daniel Jude Harrison

Barry Briggs

Kevin J Hook

Barry J Briggs

Theodore F Cyman, Jr

James West Blease

Daniel E Kanfoush

Alan R Murzynowski

Joel D Neri

Barry L Marginean

Stanley Litman

Jim Ibarra

Morgan Edwards

Michael Carson, Jr

Claire A Jalbert

James A Nellis

Rachael A Masin

John Richard Przybylo

Michael J Draper

Rick Wallace

Karen A Walsh-Clemens

Mike Tato

Robert P Wilbert

William C Froass

Jennifer Eskra

According to one aspect, an ink composition includes a colorant, one or more polymers such as a polyurethane siloxane, a surfactant, water, and a solvent. The ink composition has a total solids content of less than about 20% by weight. Further the ink has an initial surface tension of less than about 50 dynes per centimeter on application and the surface tension on drying should not increase by more than 20 percent.

Ink composition for use on non-absorbent surfaces

An electrical insulator material includes a polymer and a solvent, and has a viscosity in the range of from about 1.0 to about 20.0 cP such that the electrical insulator material can be applied to a surface using an ink jet print head.

Insulator material composition and method

A battery includes a first conductive substrate portion having a first face, and a second conductive substrate portion having a second face opposed to the first face. Each of the first and second faces has a perimeter portion and an interior portion inside the perimeter portion. A first electrode material of the battery is disposed in contact with the interior portion of at least one of the first and second faces, and a jettable electrolyte material disposed in contact with the first electrode material. A second electrode material is disposed in contact with the electrolyte material, and a conductive tab is disposed in contact with the second electrode material. The conductive tab extends outwardly from the interior region beyond the perimeter portion of at least one of the first and second faces.

Battery

The electrolyte material includes a polymer, a salt, and a solvent. The electrolyte material has a viscosity in the range from about 3.0 cP to about 20.0 cP such that the electrolyte material can be applied to a substrate using an ink jet print head.

Electrolyte material composition and method

A thermal transfer printing medium that contains a thermal transfer layer which contains a first taggant and colorant, wherein: the first taggant comprises a fluorescent compound with an excitation wavelength selected from the group consisting of wavelengths of less than 400 nanometers, wavelengths of greater than 700 nanometers. When the thermal transfer layer is printed onto a white polyester substrate with a gloss of at least about 84, a surface smoothness Rz value of 1.2, and a reflective color represented by a chromaticity (a) of 1.91 and (b) of &#x2212;6.79 and a lightness (L) of 95.63, when expressed by the CIE Lab color coordinate system, and when such printing utilizes a printing speed of 2.5 centimeters per second and a printing energy of 3.2 joules per square centimeter, a printed substrate with certain properties is produced. The printed substrate has a reflective color represented by a chromaticity (a) of from &#x2212;15 to 15 and (b) from &#x2212;18 to 18, and the printed substrate has a lightness (L) of less than about 35, when expressed by the CIE Lab color coordinate system. When the printed substrate is illuminated with light source that excites the first taggant with an excitation wavelength selected from the group consisting of wavelengths of less than 400 nanometers, wavelengths greater than 700 nanometers, the printed substrate produces a light fluorescence with a wavelength of from about 300 to about 700 nanometers.

Thermal transfer ribbon

Disclosed in this specification is a decal assembly comprising a decal support, a releasable covercoat, a heat activatable layer, and an ink layer. The ink layer forms a digital image. The heat activatable layer has a high adhesion to a ceramic substrate at high temperatures and a low adhesion to the substrate at lower temperatures. Thus the adhesive properties of the decal are activated by heat. The resulting image has excellent adhesion to the substrate and resists the effects of washing.

Digital decoration and marking of glass and ceramic substrates

A thermal transfer assembly that comprises a thermal transfer ribbon and a covercoated transfer sheet. The thermal transfer ribbon includes a support and a ceramic ink layer. The ceramic ink layer is present at a coating weight of from about 2 to about 15 grams per square meter, and it includes from about 15 to about 94.5 percent of a solid carbonaceous binder, and at least one of a film-forming glass frit, an opacifying agent and a colorant (at a combined level for the film forming glass frit, the opacifying agent and the colorant of at least 0.5 weight percent).

Thermal transfer assembly for ceramic imaging

A ceramic decal assembly containing a ceramic substrate, a layer of adhesive contiguous with the substrate, and a ceramic decal contiguous with the layer of adhesive.

Ceramic decal assembly

A thermal transfer ribbon with a flexible substrate and, disposed above the substrate, a frosting ink layer. The frosting ink layer is present at a coating weight of from about 0.25 to about 15 grams per square meter and it contains from about 15 to about 94.5 weight percent of a solid, volatilizable carbonaceous binder, from about 5 to about 75 weight percent of a film-forming glass flux, and at least about 0.1 weight percent of opacifying agent.

Thermal transfer ribbon with frosting ink layer

A covercoated transfer sheet for transferring images to a ceramic substrate. The covercoated transfer sheet contains a flat, flexible substrate and a transferable covercoat releaseably bound to the flat, flexible substrate. When the transferable covercoat is printed with an image to form an imaged covercoat, the image has a higher adhesion to the covercoat than the covercoat has to the flexible substrate. The imaged covercoat has an elongation to break of at least about 1 percent, and it can be separated from the flexible substrate with a peel force of less than about 30 grams per centimeter.

Growing community of inventors

Alden, NY, United States of America

Pamela Geddes