First Quality Tissue, LLC

Structured I, LLC

First Quality Tissue Se, LLC

First Quailty Tissue, LLC

International Paper Company

James E Sealey, Ii

Byrd Tyler Miller, Iv

Justin S Pence

Taras Z Andrukh

B Tyler Miller

Taryn S Seitzinger

Deborah D Richardson-Schubach

Karthik Ramaratnam

Shane Ervin Hayes

Phillip MacDonald

Marc Paul Begin

Justin C Pence

Kevin Brennan

Chris B Anklam

James E Bradbury

Bryd Tyler Miller, Iv

Zachary Korkowski

Theodore D Kennedy

Ashley Harris

Jeffrey Grunwald

Hongjian Zhou

Chi Zhang

Robbie Edmonds

Allan Manninen

Chad Martin

Randy H Elgin

Courtney E Kessling

Shannon Gahan

Amiel Sam Sabbagh

Guy Menchik

Michael Hevenor

Dustin Ziegelman

Matthew John Walkiewicz

Louis LeBrun

Deborah D Richardson-Scubach

Taryn S Setzinger

A method of forming a fibrous web on a papermaking machine including the steps of depositing a dilute fiber slurry out of a headbox to a forming area comprising a forming surface made up of a structured fabric, wherein the structured fabric is supported by a breast roll and a forming roll, and the forming area is devoid of any additional fabrics or belts other than the structured fabric, draining the dilute fiber slurry through the structured fabric, and drying the fiber slurry.

Papermaking machine that utilizes only a structured fabric in the forming of paper

A papermaking belt including zones of material laid down successively using a 3D printing process. The zones include at least a pocket zone configured to form three dimensional structures in a paper web by applying vacuum to pull the paper web against the pocket zone. In at least one exemplary embodiment, the zone also include at least one vacuum breaking zone configured to limit an amount of paper fibers pulled through the pocket zone by the applied vacuum.

Manufacturing process for papermaking belts using 3D printing technology

A tissue product including a laminate of at least two plies of a multi-layer tissue web, the tissue product having a softness value (HF) of 92.0 or greater, a lint value of 4.5 or less, and an Sdr of greater than 3.0.

Tissue product made using laser engraved structuring belt

A method of making an absorbent structure including mixing ultra-high molecular weight ('UHMW') glyoxalated polyvinylamide adducts (“GPVM”) and/or high molecular weight (“HMW”), glyoxalated polyacrylamide and/or high cationic charge glyoxalated polyacrylamide (“GPAM”) copolymers and high molecular weight (“HMW”) anionic polyacrylamide (“APAM”) with the furnish during stock preparation of a wet laid papermaking process.

Wet laid disposable absorbent structures with high wet strength and method of making the same

Paper product with surface pattern

A method for cleaning a belt of a through air drying papermaking machine in which a high pressure shower is configured to traverse across a width of the belt of the papermaking machine while ejecting water onto the belt, and a vacuum box is operatively connected to the high pressure shower. The high pressure shower has a width that is less than a full width of the belt.

System and method for cleaning of belts and/or fabrics used on through air drying papermaking machines

A direct-to-consumer heat shrunk bundled product made up of a plurality of paper product rolls each individually packaged by a first package material and arranged relative to one another so as to form a bundle, the bundle being packaged by a second package material, wherein a substantial portion of the inner surface of the second package material is in contact with the first package material of the plurality of paper product rolls and is nonstick relative to the first package material. The bundle includes fused end seals so that the bundle does not include open gussets that might otherwise catch on machinery during sorting and shipping. The packaging material and/or wrapper may include laser energy absorbing material or adhesive.

Bundled product and system and method for forming the same

A method of producing wet laid disposable bath tissue, facial tissue, and paper towel with enhanced properties through application of surface additives using a piezoelectrical apparatus or application device.

Systems and methods for application of surface chemistry to bath tissue, facial tissue, and paper towel

A structured tissue belt assembly including a supporting layer, a non-woven web contacting layer, and one or more laser welds that attach the bottom surface of the web contacting layer to the top surface of the supporting layer. The structured tissue belt assembly allows for air flow in x, y and z directions. In exemplary embodiments, the structured tissue belt assembly has an embedment distance between the supporting layer and the web contacting layer of 0.05 mm to 0.60 mm and a peel force between the web contacting layer and the supporting layer of at least 650 gf/inch.

Woven base fabric with laser energy absorbent MD and CD yarns and tissue product made using the same

A multi-ply flushable wipe includes a ply having first and second exterior layers and a middle layer disposed therebetween. Each of the exterior layers includes at least 50% by weight natural fibers. When foam-formed, the middle layer includes at least 25% by weight natural fibers. In embodiments, the middle layer may include at least 75% by weight natural fibers. The middle layer also includes synthetic fibers that have a length within the range of 1 mm and 20 mm. The wipe may have a length weight weighted average fiber length of less than 4 mm and a wet CD strength of greater than 20 N/m. Each ply of the wipe may be formed by wetlaying the first and second exterior layers and a foam formed middle layer to form a web, imprinting the web with a structured fabric, and drying the web. The plies are then attached using a binder.

Flushable wipe and method of forming the same

A structured tissue belt assembly including a supporting layer and a nonwoven web contacting layer. The supporting layer has a top surface and a bottom surface and is formed of monofilaments including one or more layers of warp yarns interwoven with weft yarns in a repeating pattern. At least one of: a) at least some of the warp yarns; or b) at least some of the weft yarns, include laser energy absorbent material, and at least one of: a) at least some of the warp yarns; or b) at least some of the weft yarns include laser energy scattering material. Laser welds attach the bottom surface of the web contacting layer to the top surface of the supporting layer at points where the web contacting layer contacts the at least one of: a) the at least some of the warp yarns; or b) the at least some of the weft yarns that include laser energy absorbent material.

Composite laminated papermaking fabrics and methods of making the same

Absorbent product including a laminate of at least two plies, wherein the absorbent product has a measured Valley Volume parameter greater than 11 microns and a Pit Density of greater than 25 pockets per sq·cm.

Method of making absorbent structures with high absorbency and low basis weight

A fabric or belt for a papermaking machine including a first layer that defines a web contacting surface and a second layer that supports the first layer. The first layer is made of extruded polymer and includes a plurality of first elements aligned in a first direction, a plurality of second elements aligned in a second direction and extending over the plurality of first elements, and a plurality of open portions defined by the plurality of first and second elements. The second layer is made of woven fabric. The first layer is bonded to the second layer so that the first layer extends only partially through the second layer and an interface formed between the first and second layers includes bonded and unbonded portions and airflow channels that extend in a plane parallel to the first and second layers.

Belt or fabric including polymeric layer for papermaking machine

A machine or apparatus for producing structured tissue or towel using a press section.

Papermaking machine with press section

Growing community of inventors

Belton, SC, United States of America

James E Sealey, Ii