The Procter Gamble Company

Eldorado Brasil Celulose S.a.

Dale Gary Kavalew

Osman Polat

Edward Dewey Smith, Iii

Kenneth Douglas Vinson

Shawn David McConaughy

Fernando Henrique-Pescatori Silva

Shawn David Mcconaughy

Iii Smith Edward Dewey

John Allen Manifold

Robert Stanley Ampulski

Eric James Watkins

Diego Antonio Hernandez-Munoa

Patrick Kip Edwards

Edward Dewey Iii Smith

A process for manufacturing a web material is disclosed. The process generally provides the steps of: a. providing a pulp material comprising fibers and vessels; b. separating said vessels from said fibers to form an accepts stream and a rejects stream; c. forming plies with the rejects and accepts streams; and d. joining the plies.

Process for producing strong and soft tissue and towel products

A compliant personal care composition can include i) from about 20% to about 80%, by weight of the composition, of a surfactant; and ii) from about 3% to about 40%, by weight of the composition, of a water insoluble hygroscopic fiber, fine, or filament; wherein the composition has a compliance value of about 0.01 kg/mm to about 1.5 kg/mm or before a simulated use. The composition may also be at least partially surrounded by a substrate and in the form of an article.

Personal care compositions and articles

A process for manufacturing a web material is disclosed. The process generally provides the steps of: a. providing a pulp material comprising fibers and vessels; b. separating said vessels from said fibers in said pulp material to form a slurry having at least about 7 percent less vessels per meter than said pulp material; and c. processing said slurry to form said web material.

A process having the steps of producing the web material with the papermaking machine; measuring a molar amount of a monovalent inorganic ionizable cation species (MIICS) in the web material; measuring a molar amount of a divalent inorganic ionizable cation species (DIICS) in the web material; calculating a molar ratio of the measured molar amount of the MIICS to the measured molar amount of the DIICS in the web material; determining if the molar ratio of MIICS to DIICS is about less than or equal to 10; and, if the molar ratio of MIICS to DIICS is greater than about 10, adding an amount of DIICS to the papermaking machine to adjust the molar ratio of MIICS to DIICS so the web material adhering to the Yankee drum drying system has a molar ratio of MIICS to DIICS of about less than or equal to 10, is disclosed.

Process for manufacturing an improved web material by the in-situ measurement and adjustment of ion concentration

A process for manufacturing a web material is disclosed. The process generally comprises the steps of providing a papermaking machine with a monovalent inorganic ionizable cation species (MIICS) and a divalent inorganic ionizable cation species (DIICS) measuring devices, measuring molar concentrations of MIICS and DIICS in the web material with the MIICS and DIICS measuring devices and calculating a molar ratio of the measured molar concentration of the MIICS to the measured molar concentration of the DIICS, and subsequently determining if the calculated molar ratio is about less than or equal to 10. If the molar ratio is greater than 10, adding an amount of DIICS to the papermaking machine and manufacturing the web material with the papermaking machine with the added amount of DIICS.

Process for the in-situ adjustmen of ion concentrations during the manufacturing of web materials

A compliant personal care composition can include a granular personal care composition, including i) from about 20% to about 80%, by weight of the composition, of a surfactant; and ii) from about 3% to about 40%, by weight of the composition, a water insoluble hygroscopic fiber, fine, or filament; wherein the composition is granular before a first simulated use and has a compliance value of about 0.01 kg/mm to about 1.5 kg/mm after 2 simulated uses. The composition may also be at least partially surrounded by a substrate and in the form of an article.

Fibrous structures, especially fibrous structures that exhibit softness and strength, sanitary tissue products employing such fibrous structures and methods for making such fibrous structures are provided. More particularly, fibrous structures that have a long fiber furnish that comprises less than 10% by weight of fibers having a coarseness of less than 20 mg/100 m, sanitary tissue products employing such fibrous structures and methods for making such fibrous structures are provided.

Soft and strong fibrous structures

Differentially densified fibrous structures, methods for making same, and processes for treating fibers used in the fibrous structures are provided. More particularly, fibrous structures comprising two or more regions, at least one of which exhibits a density that is at least 1.6 times greater than another region within the fibrous structure, methods for making such fibrous structures and non-naturally occurring fibers useful in such fibrous structures are provided.

Densified fibrous structures and methods for making same

Fibrous structures, especially fibrous structures incorporated into facial tissue, toilet tissue and paper towel and napkin products, that comprise a fiber having a length of from about 0.4 mm to about 1.2 mm and a coarseness of from about 3.0 mg/100 m to about 7.5 mg/100 m, wherein the fibrous structures exhibit a lint value of greater than about 3.5 to about 15, and processes for making such fibrous structures are provided.

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Evendale, OH, United States of America

Dale Gary Kavalew