The Procter Gamble Company

The Proctor 'gamble Company

Charles Allen Redd

Kathryn Christian Kien

Osman Polat

Anthony Paul Bankemper

Steven Lee Barnholtz

Matthew Todd Hupp

Robert Joseph Mcchain

Kevin Benson McNeil

Jeffrey Glen Sheehan

Steven Daryl Smith

Charles William Neal

Robert Joseph McChain

Lois Jean Forde-Kohler

Gregory William Duritsch

Belts and fibrous structures may include discrete cells including one or more legs and/or one or more concavities in certain patterns or Cell Groups. The cells may be discrete knuckles or pillows and the fibrous structures may further include an emboss.

Discrete cells comprising a leg and/or a concavity

A fibrous structure may include a plurality of wetformed knuckles or pillows, where the wet-formed knuckles or pillows of the pattern may form a plurality of rows oriented in an X-direction and/or a Y-direction, and the plurality of rows may be curved in a repeating wave pattern, where the repeating wave pattern may have an amplitude and a wavelength, and wherein the amplitude may be between about 0.75 mm and about 3.0 mm, and the wavelength may be between about 25.0 mm and about 125.0 mm.

Fibrous structures

Belts and fibrous structures of the present disclosure may comprise discrete cells comprising one or more legs and/or one or more concavities in certain patterns or Cell Groups. The cells may be discrete knuckles or pillows and the fibrous structures may further comprise an emboss.

Discrete cell arrangements

Belts and fibrous structures of the present disclosure may comprise discrete cells comprising one or more legs and/or one or more concavities in certain patterns or Cell Groups. The Cell Group(s) may comprise pillows having different densities.

Discrete cells forming distinct pillow regions

A fibrous structure may include a plurality of wetformed knuckles or pillows, where the plurality of wet-formed knuckles or pillows may be arranged in a pattern organized in an X-Y coordinate plane, where the wet-formed knuckles or pillows of the pattern may form a plurality of rows oriented in an X-direction and a plurality of rows oriented in a Y-direction, and the plurality of rows in the X-direction may be curved in a repeating wave pattern, where the repeating wave pattern may have an amplitude and a wavelength, and wherein the amplitude may be between about 0.75 mm and about 3.0 mm, and the wavelength may be between about 25.0 mm and about 125.0 mm.

A fibrous structure includes a plurality of discrete wet-formed knuckles extending from a pillow surface of the fibrous structure, wherein the plurality of discrete wet-formed knuckles are arranged in a pattern organized in an X-Y coordinate plane, each of the wet-formed knuckles of the pattern is included within a plurality of rows oriented in an X-direction and a plurality of rows oriented in a Y-direction, and each row in the X-direction is curved in a repeating wave pattern, wherein the repeating wave pattern has an amplitude and a wavelength, and wherein the amplitude is between about 0.75 mm and about 3.0 mm, and the wavelength is between about 25.0 mm and about 125.0 mm.

Polymer-containing articles of manufacture that provide one or more superior properties, such as soil adsorption properties, mirror cleaning properties, and/or absorption properties, compared to known polymer-containing articles of manufacture, are provided.

Polymer-containing articles of manufacture and methods for making same

Methods for perforating web products are disclosed that include forming selected perforation designs and patterns. The perforation designs and patterns can be formed in linear or nonlinear fashion, can extend in the cross direction or the machine direction and can be formed to complement or match an embossed or printed design on the web. The perforation designs and patterns can be formed utilizing various mechanical perforating techniques.

Process for perforating a web

Apparatuses are disclosed that include forming selected perforation designs and patterns. The perforation designs and patterns can be formed in linear or nonlinear fashion, can extend in the cross direction or the machine direction and can be formed to complement or match an embossed or printed design on the web. The perforation designs and patterns can be formed utilizing various mechanical perforating techniques.

Apparatus for perforating a web material

Fibrous structures, more particularly non-woven fibrous structures that exhibit properties that consumers associate with cloths, sanitary tissue products incorporating such fibrous structures and processes for making such fibrous structures are provided.

Clothlike non-woven fibrous structures and processes for making same

Fibrous structures comprising a tuft. More particularly, the present invention relates to fibrous structures comprising at least two chemically different compositions wherein less than all of the chemically different compositions present in the fibrous structures forms a tuft, and processes for making such fibrous structures are provided.

Growing community of inventors

Harrison, OH, United States of America

Charles Allen Redd