Abstract: A web substrate having at least one embossed ply having a surface thereof is disclosed. The surface has surface area comprising at least about 0.2 percent line embossments and a ratio of line embossment area to dot embossment area greater than 1.5.

Abstract: A method of manufacturing an absorbent sanitary paper product is disclosed. The method comprises the steps of: forming a nonwoven structure by spinning filaments; applying a plurality of fibers to the nonwoven structure to form a first network of fibers having a first and a second side and wherein the fibers and the filaments comprising the first network of fibers have a longitudinal axis generally disposed within the plane comprising the machine- and cross-machine-directions; applying a first bonding layer in a first pattern to one of the first and second sides of the first network of fibers; and, applying a first second network of fibers to the first bonding layer, the first second network of fibers comprising a combination of a first plurality of fibers and a second plurality of fibers, the first and second pluralities of fibers being different.

Abstract: A package of absorbent sanitary paper products is disclosed. Each of the absorbent sanitary paper product comprises a through air dried first network of fibers having a basis weight of less than about 95 g/m2, a density of less than 0.30 g/cm3, a total dry tensile strength of less than 8000 gf/in, and a second network of fibers comprising individual fibers adhesively attached with an adhesive thereto. Each fiber of the first network of fibers having a longitudinal axis generally disposed within the plane comprising the machine and cross-machine directions, and each individual fiber of the second network of fibers having a longitudinal axis having a component thereof generally disposed in the Z-direction and an average length at least about 20% greater than fibers comprising the first network of fibers.

Abstract: A package of absorbent sanitary paper products where at least one of the absorbent sanitary paper products comprises a first network of fibers comprising cellulose fibers, a bonding layer comprising a water soluble adhesive applied to a first surface thereof in a pattern, and a second network of fibers comprising individual fibers having an average length at least about 20% greater than fibers comprising said first network of fibers adhesively attached to said bonding layer and conforming with said pattern is disclosed.

Abstract: A method for delivering a High Internal Phase Emulsion to a substrate. The method includes providing a rotating roll, The rotating roll has a central longitudinal axis, wherein the rotating roll rotates about the central longitudinal axis, an exterior surface defining an interior region and substantially surrounding the central longitudinal axis, and a vascular network configured for transporting the one or more fluids in a predetermined path from the interior region to the exterior surface of the rotating roll. The method further includes providing a High Internal Phase Emulsion to the rotating roll vascular network. The method further includes contacting a substrate with the rotating roll and contacting the substrate with the High Internal Phase Emulsion.

Abstract: A method of manufacturing an absorbent sanitary paper product having a machine direction, a cross-machine direction orthogonal and co-planar thereto, and a Z-direction orthogonal to both the machine- and cross-machine directions is disclosed. The method comprises the steps of: a. providing a first network of fibers having a first and a second side, each fiber of the first network of fibers having a longitudinal axis generally disposed within the plane comprising the machine- and cross-machine-directions; b. applying a first bonding layer in a first pattern to one of the first and second sides of the first network of fibers; and, c. applying a first second network of fibers to the first bonding layer, the first second network of fibers comprising a combination of a first plurality of fibers and a second plurality of fibers. The first and second pluralities of fibers are different.

Abstract: A fibrous structure having a density (measured at 95 g/in2) of less than about 0.60 g/cm3 and at least one embossed ply having a surface thereof is disclosed. The surface has a surface area comprising from about 10.0 percent to about 20.0 percent line embossments. Also, a fibrous structure having at least two plies is disclosed. One of the two plies has a density (measured at 95 g/in2) of less than about 0.60 g/cm3 and at least one embossed ply having a surface thereof. The surface has a surface area comprising from about 10.0 percent to about 20.0 percent line embossments.

Abstract: A fibrous structure having a basis weight ranging from between about 15 g/m2 and about 120 g/m2 and at least one embossed ply having a surface thereof is disclosed. The surface has a surface area comprising from about 10.0 percent to about 20.0 percent line embossments. Also, a fibrous structure having at least two plies is disclosed. One of the two plies has a basis weight ranging from between about 15 g/m2 and about 120 g/m2 and at least one embossed ply having a surface thereof. The surface has a surface area comprising from about 10.0 percent to about 20.0 percent line embossments.

Abstract: A system for dosing one or more fluids on a substrate, the system comprising a rotating roll. The rotating roll has a central longitudinal axis, wherein the rotating roll rotates about the central longitudinal axis; an exterior surface defining an interior region and substantially surrounding the central longitudinal axis; and a vascular network configured for transporting the one or more fluids in a predetermined path from the interior region to the exterior surface of the rotating roll.

Abstract: A gravure printing system comprising a gravure cylinder having a first plurality of discrete cells disposed upon an outer surface thereof is disclosed. Each cell of said first plurality of discrete cells has a nominal diameter and is capable of receiving a fluid that is a first combination of at least two primary fluids. The fluid is fluidically displaceable through a discrete channel having a single entry point at said first position and a single exit point into a first cell of said first plurality of discrete cells. The outer surface has a metal plating disposed thereon. The metal plating reduces the nominal diameter of each cell of the first plurality of discrete cells.

Abstract: A method of depositing a fluid onto a substrate is disclosed. The method can include the steps of providing a substrate, a fluid; a sleeve and roll system comprising a sleeve having a sleeve exit and an inner region and a rotating roll disposed within the inner region and a vascular network to supply the fluid from the interior region of the rotating roll to the exterior surface of the rotating roll in a predetermined path. The vascular network comprises a main artery, a tree comprising a first capillary, and a fluid exit on the exterior surface. The method includes the steps of transporting the fluid to the vascular network; controlling the flow of the fluid to move the fluid at a predetermined flow rate to the fluid exit; and contacting the substrate with the fluid.

Abstract: An absorbent sanitary paper product having a machine direction, a cross-machine direction orthogonal and co-planar thereto, and a Z-direction orthogonal to both the machine- and cross-machine directions is disclosed. The absorbent sanitary paper product has a first network of fibers having a basis weight of less than about 95 g/m2 and a second network of fibers comprising individual fibers adhesively attached with an adhesive thereto. Each fiber of the first network of fibers has a longitudinal axis generally disposed within the plane comprising the machine and cross-machine directions. Each individual fiber of the second network of fibers has a longitudinal axis having a component thereof generally disposed in the Z-direction.

Abstract: An absorbent sanitary paper product having a first network of fibers having a basis weight of less than about 95 g/m2, or a total dry tensile strength of less than about 8000 g/in, or a density of less than about 0.30 g/cm3 measured at a pressure trap point (PTP) of 100 g/in2 is disclosed. A bonding layer is applied to a surface thereof in a pattern, and a second network of fibers comprising individual fibers adhesively attached to the bonding layer and conforming with the pattern.

Abstract: Packages of stacked fibrous structure sheets and methods of dispensing the same are described. The fibrous structure sheets can have a non-planar dispensing configuration that is manipulated to a second configuration for their intended use; for example, absorbing liquids and other messes. The stacked format is an alternative to typically rolled form, and can permit one-handed dispensing.

Abstract: A winder for winding continuous webs or interleaved web segments having a machine direction and a cross-machine direction coplanar and orthogonal thereto into rolls is disclosed. The winder provides a plurality of winding spindles orbiting about a winding turret axis and a plurality of surface contact rolls cooperatively associated with a respective winding spindle. Each surface contact roll is capable of cooperative engagement with the respective winding spindle when the web material is disposed therebetween. The longitudinal axis of each surface contact roll is adjustable relative to the axis generally parallel to the winding turret axis when the web material is received by the winding spindle cooperatively associated thereto.

Abstract: A method of manufacturing an absorbent sanitary paper product having a machine direction, a cross-machine direction orthogonal and co-planar thereto, and a Z-direction orthogonal to both the machine- and cross-machine directions is disclosed. The method comprises the steps of: a. providing a first network of fibers having a first and a second side, each fiber of the first network of fibers having a longitudinal axis generally disposed within the plane comprising the machine- and cross-machine-directions; b. applying a first bonding layer in a first pattern to one of the first and second sides of the first network of fibers; and, c. applying a first second network of fibers to the first bonding layer, the first second network of fibers comprising a combination of a first plurality of fibers and a second plurality of fibers. The first and second pluralities of fibers are different.

Abstract: A fibrous structure having a total dry tensile strength of greater than about 59 g/cm and at least one embossed ply having a surface thereof is disclosed. The surface has a surface area comprising from about 10.0 percent to about 20.0 percent line embossments. Also, a fibrous structure having at least two plies is disclosed. One of the two plies has a total dry tensile strength of greater than about 59 g/cm and at least one embossed ply having a surface thereof. The surface has a surface area comprising from about 10.0 percent to about 20.0 percent line embossments.

Abstract: A contact printing system comprising a gravure cylinder having first, second, and third pluralities of discrete cells disposed in a respective first, second, and third distribution upon the outer surface of the gravure cylinder is disclosed. The first, second, and third pluralities of discrete cells each receives a respective first, second, and third portion of a respective first, second, and third fluid from a respective first, second, and third at least one channel disposed internal to the gravure cylinder. The first, second, and third at least one channels each have a single entry point at the respective first, second, and third positions external to the gravure cylinder and a discrete exit point at the respective first, second, and third plurality of discrete cells. The first, second, and third plurality of discrete cells are disposed adjacent each other and are randomly distributed upon the outer surface of the gravure cylinder.

Abstract: A method of manufacturing an absorbent sanitary paper product having a machine direction, a cross-machine direction orthogonal and co-planar thereto, and a Z-direction orthogonal to both the machine- and cross-machine directions is disclosed. The method provides the steps of: providing a first and second network of fibers each having opposing first and second sides where each fiber of the first network of fibers has a longitudinal axis generally disposed within the plane comprising the machine- and cross-machine-directions; applying a first bonding layer to one of the first and second sides of the first network of fibers; applying a first and second second network of fibers to the first bonding layer; and, placing the first and second network of fibers into face-to-face contacting engagement.

Abstract: A system for depositing a fluid on a substrate is disclosed. The system can include a sleeve having a sleeve exit and an inner region and a rotating roll disposed within the inner region. A vascular network can be disposed within the rotating roll, the vascular network being configured for transporting the fluid in predetermined paths from the interior region to the exterior surface through a substantially radial path, the substantially radial path ending at an exit point of a fluid exit, wherein the exit point is associated with a sleeve exit.