Avery Dennison Corporation

Avery International Corporation

Other

Ghanshyam H Popat

Thomas Mammen

Shiaonung J Su

Tien-Tsung Chen

Anahit Tataryan

Andre M Saint

Frederick N Miekka

Gustav Allen Ray

Robert Valadez

K Fou Tsai

Raymond G Kubit

Christopher H Binkley

Omar S Attia

Fred N Miekka

Brett Ulrich

H Paul Barker

Stephen M Sharp

Frank H Gavrilos

Michael E Hannington

Pradeep S Iyer

Jay Raghunandan Akhave

Mark Anthony Licon

Paul B Germeraad

Willis E Bishop

David Robertson

Susan C Manfreda

Jessie C Reaves

Stephanie A Streeter

Russell D Pollman

Timothy Ryan Eckhardt

Manuel W Ruiz

Chen Tien-Tsung

Greg Zebrowski

Two pairs of parallel substantial-cutor scoredlines extend the length of a card stock sheet and short through-cut lines extend between each of the pairs to define two columns of business card blanks on the sheet. The sheet is passed through a laser or ink jet printer or copier, printing the desired identifying or other indicia on the blanks. The blanks are then separated along the substantial-cut and through-cut lines and the waste sheet portions at the ends, sides, and between the columns are disposed of. The business cards separate cleanly along the substantial-cut lines, superior to the microperforated business card separation lines. Even with the substantial-cut and full-cut lines, the card stock sheets have enough integrity to reliably pass through the printer without breaking apart. To make for a cleaner break (or business card edge) along the substantial-cut lines, the substantial-cut lines can be made byscoringcuttingpart way into the sheet on both opposing sheet faces. Also, cleaner break lines can be provided by first subjecting the sheet to a process, such as supercalendering, which makes the sheet more brittle and/or densifies the paper fibers.

Assembly for passing through a printer or copier and separating out into individual printed media

Two pairs of parallel substantial-cutor scoredlines extend the length of a card stock sheet and short through-cut lines extend between each of the pairs to define two columns of business card blanks on the sheet. The sheet is passed through a laser or ink jet printer, printing the desired identifying or other indicia on the blanks. The blanks are then separated along the substantial-cut and through-cut lines and the waste sheet portions at the ends, sides, and between the columns are disposed of. The business cards separate cleanly along the substantial-cut lines, superior to the microperforated business card separation lines. Even with the substantial-cut and full-cut lines, the card stock sheets have enough integrity to reliably pass through the printer without breaking apart.

Laser or ink jet printable business card system

A laminate, comprising a substrate and at least two controlled droplet-formed layers further comprising an array of discrete placed material volumes having a thickness extent, each material volume having a selected magnitude and a selected position relative to adjacent material volumes, said array being formed by deposition of droplets of selected volume at selected locations with respect to one another.

Controlled droplet formed layered structures

An image transfer assembly ( ) receives an image printed from an ink jet printer. The assembly ( ) provides a device to transfer the printed image onto an image-receiving surface. The assembly ( ) has a flexible substrate ( ) on one side, and an upper surface ( ) on the other side that is substantially permeable to ink jet printer ink and that is non-tacky prior to printing. The assembly ( ) has an adhesive or polymer layer ( ) in between the upper surface ( ) and the flexible substrate ( ). After printing with a water-based ink jet printer ink, the user may apply the assembly ( ) to a substrate, such as a window or other surface, and remove the flexible substrate ( ), thereby leaving the layer ( ) that bears the image on the substrate. In one of several alternative embodiments, the layer ( ) is divided into discrete zones that are separated from one another along boundaries.

Water-activated polymers and adhesive image transfer technique

A versatile method for the manufacturing of image transfer sheets which provide users with cold transferring images without using supplemental heat in the course of image transfer to a wide variety of substrates includes printing an image with water-based ink onto an image transfer sheet that has a coating of water-accepting adhesive. A method of manufacturing image transfer sheets includes first applying a water impermeable layer onto a flexible substrate. A layer of water-activatable adhesive is applied upon the water impermeable layer. The adhesive is then dried in a dryer with dehumidified air. A water permeable detack layer is then applied upon the layer of adhesive. In a particular embodiment, the sheet further includes a water-accepting image holding layer in between the water-accepting adhesive layer and the water impermeable layer. The image holding layer becomes water-resisting when heated to within a range of activation temperatures.

Image transfer sheets and a method of manufacturing the same

An assembly for creating free form laminated objects, such as a throwing toys or napkin ring that can be printed or decorated by the use of printer or copier without jamming. The assembly includes a sheet of cardstock or thin printable sheet material, a sheet of transparent laminated plastic and intermediate adhesive layer that adheres the cardstock sheet and laminated sheet together. The cardstock sheet has a die cut outline configured to the desired shape of an object. The laminated sheet has a die cut outline substantially extending outside of the outline on the cardstock sheet, to allow laminated sheet to fold over and entirely cover the cardstock area within the cardstock die cut outline. The assembly has a substantially constant thickness and substantially flat upper and lower surfaces so that the assembly can pass through a printer or copier without jamming. Once a printer or copier has printed on the cardstock area, the cardstock area may be push through the assembly carrying the die cut plastic area, and the plastic sheet material may be folded over and bonded to the cardstock area. The final printed laminated configuration may either be flat or further configured to a three-dimensional format. For the three-dimensional configuration, the cardstock area may have a plurality of notches extending transversely across, where it may be curved along the cardstock area, and held in this configuration by the overlying transparent plastic laminate.

Free form laminated cardstock assembly

A versatile method of cold transferring images without using supplemental heat in the course of image transfer to a wide variety of substrates includes printing an image with water-based ink onto an image transfer sheet that has a coating of water-accepting adhesive. The sheet is then applied to the substrate to transfer only the portions of the adhesive that bear the image onto the substrate, with the remainder of the adhesive remaining attached to the sheet. A method of manufacturing image transfer sheets includes first applying a water impermeable layer onto a flexible substrate. A layer of water-activatable adhesive is applied upon the water impermeable layer. The adhesive is then dried in a dryer with dehumidified air. A water permeable detack layer is then applied upon the layer of adhesive. A sheet for transferring an image that has been printed onto the sheet with a water-based ink has a flexible backing layer and one or more water-accepting layers with water activatable adhesive that are printed with a printing press and/or coated onto the flexible backing layer. A water-impermeable layer is disposed in between the adhesive and the backing layer. A detack layer may be applied onto the layer of adhesive. A water permeable colored, tinted, or reflective water-permeable layer may be between the detack layer and the water-accepting layer, or a colorant may be added to the detack layer. One embodiment includes a water-permeable layer of cross-linker in between the detack layer the water-accepting layer, wherein said water-accepting layer becomes water-resisting when water-based ink flows through said layer of cross-linker and into said water-accepting layer. In another embodiment, the water-accepting layer includes both adhesive and cross-linker, wherein the water-accepting layer is adapted to become water-resisting when the adhesive and the cross-linker react when the water-accepting layer is heated. In another embodiment, the sheet further includes a water-accepting image holding layer in between the water-accepting adhesive layer and the water impermeable layer. The image holding layer becomes water-resisting when heated to within a range of activation temperatures.

Generally speaking, a method for forming custom-printed, three dimensional structures using a computer and a computer-controlled printer, has several steps. A flexible rectangular sheet is perforated to form a removable portion. Lines of weakness are formed on the removable portion, to serve as fold lines that ultimately folding the two-dimensional removable portion into a three-dimensional structure. A user instructs a computer program to command a computer-controlled printer to print particular information onto the printing surface of said removable portion. After printing, the user removes the removable portion from the sheet along the perforations and then folds the removable portion along the lines of weakness and secures the folded sheet into a three dimensional structure. The removable portion may be provided with a pressure-sensitive, water-activated, cohesive or other type of adhesive for adhering securing the folded sheet into the three-dimensional structure. The computer program enables the user to design the custom-printing for the structure, and optionally to preview the ultimate appearance of the three-dimensional structure.

Method for custom printing and forming three-dimensional structures

An ink jet printer image transfer sheet having a non-porous flexible base layer, an ink absorbing adhesive layer coated onto said base layer and an ink jet printing ink porous detackifying outer layer. A method for transferring an ink jet printed image to a substrate.

Adhesive image transfer technique

Minisheet label assembly

A method for preparing and printing adhesively-backed notes includes several steps. A divisible note assembly for printing in a laser or ink-jet printer or photocopier is first prepared. The note assembly has a divisible backing sheet and a divisible note paper sheet having a pressure sensitive adhesive coating thereon. The assembly is divided into at least two subsections by perforations extending through both the note paper sheet and the backing sheet. The user prints onto one or more notes with a laser or ink-jet printer or a photocopier. The user may separate one or more subsections from the assembly either before or after printing. If separated before printing, the user may print on less than the full assembly and may save the remainder of the assembly for later use. After printing, the user removes the backing sheet from the subsection and applies the note paper to a substrate. Each note may have an adhesive stripe on the back thereof, with the backing sheet being a strip that covers the adhesive stripe but which is not fully coextensive with the note paper sheet.

Divisible laser note sheet

A versatile label preparation method includes preparing double thickness label sheet assemblies. Each sheet assembly has a divisible backing sheet and a divisible label sheet. The label sheet is coated with a pressure sensitive adhesive and is mounted on the backing sheet. The label sheet assembly is divided into a plurality of sections by lines of microperforations extending through both the label sheet and the backing sheet. Each of the sections has a plurality of die cut labels thereon. The die cuts extend through the label sheet but not through the backing sheet. Each of said sections of the label sheet assembly have a line of flexibility along one edge thereof for facilitating feeding through a laser printer. A user divides the sheet into sections, with each section including at least one label on the backing sheet. The user adjusts the feeding mechanism on a laser printer to the width of the section sheets of labels and prints the labels on the sections of the label sheet assembly. A method for printing cards includes forming and printing a sheet of card stock which is divided into subsections by lines of microperforations. Each subsection includes a closed pattern of microperforations defining a removable card.

Method of printing a divisible laser label sheet

Two pairs of parallel substantial-cut or scored lines extend the length of a card stock sheet and short through-cut lines extend between each of the pairs to define two columns of business card blanks on the sheet. The sheet is passed through a laser or ink jet printer, printing the desired identifying or other indicia on the blanks. The blanks are then separated along the substantial-cut and through-cut lines and the waste sheet portions at the ends, sides, and between the columns are disposed of. The business cards separate cleanly along the substantial-cut lines, superior to the microperforated business card separation lines. Even with the substantial-cut and full-cut lines, the card stock sheets have enough integrity to reliably pass through the printer without breaking apart.

Method of producing printed media

Two pairs of parallel substantial-cut or scored lines extend the length of a card stock sheet and short through-cut lines extend between each of the pairs to define two columns of business card blanks on the sheet. The sheet is passed through a laser or ink jet printer or copier, printing the desired identifying or other indicia on the blanks. The blanks are then separated along the substantial-cut and through-cut lines and the waste sheet portions at the ends, sides, and between the columns are disposed of. The business cards separate cleanly along the substantial-cut lines, superior to the microperforated business card separation lines. Even with the substantial-cut and full-cut lines, the card stock sheets have enough integrity to reliably pass through the printer without breaking apart. To make for a cleaner break (or business card edge) along the substantial-cut lines, the substantial-cut lines can be made by scoring part way into the sheet on both opposing sheet faces. Also, cleaner break lines can be provided by first subjecting the sheet to a process, such as supercalendering, which makes the sheet more brittle and/or densifies the paper fibers.

Assembly for passing through a printer or copier and separating out into

Water dispersible, hydrophilic, repulpable, water-activatable, acrylic polymers are provided. The polymers are non-tacky when dry, but become tacky when wet, and exhibit high peel strength on a variety of substrates. The polymers comprise an acrylic-based polymer prepared by emulsion polymerization of 40 to 70% by weight of one or more alkyl acrylates, the alkyl group of which has from 4 to 8 carbon atoms; 10 to 20% by weight of methacrylate; 2 to 15% by weight of vinyl acetate; and 10 to 25 percent by weight of methacrylic acid and/or acrylic acid; and a positive amount up to about 30% by weight of methyl methacrylate. Some embodiments also include a short chain hydroxyalkyl methacrylate. Also provided are ink jet-imprintable, water-activatable constructions comprising a layer of water-activatable polymer, coated on a release liner or other surface. Optionally, a water-resistant transparent film layer is disposed between the polymer and release liner or used in place of the release liner. The constructions are suitable for use in ink jet printers and can be used to transfer an image to a substrate.

Growing community of inventors

Alta Loma, CA, United States of America

Ghanshyam H Popat