Honeywell International Inc.

Michael Jablon

Rakesh Vig

George Leotsakos

Mark Richard Wheeler

Stephen Armstrong

Wen Chiao

Gerald Smith

Marc Dekerf

Cristina Najemian

Manfried Braun

Natalie Ann Merrill

Thomas H Quinn

Scott Martin Hacker

Eric J Rainal

Wen B Chiao

Yuan-Ping Robert Ting

Richard Einhorn

Karl J Smith

Richard B Heath

Gerald A Smith

Maria Anatolyevna Azimova

Lee R Mores

Arthur Knobloch

Steve Rotz

Milton E McDonnell

Maria M Higuera

John D Clay

George S Leotsakos

Richard A Einhorn

Scott Hacker

A matte finish coating for application to a substrate includes in a mixture a coating substance and a micronized polymer matting agent. The matte finish coating comprises the micronized polymer matting agent in an amount, by overall weight of the matte finish coating, of about 0.5% to about 15%.

Coatings containing micronized polymers as matting agents

Anti-blocking compositions are disclosed that include a wax or mixture of waxes effective to reduce, retard or prevent blocking of a viscoelastic solid when applied to the surface of such a solid. Also disclosed are methods of reducing, retarding or preventing blocking of a viscoelastic solid, and the products of those methods which are viscoelastic solids resistant to blocking.

High performance anti-block treatments for viscoelastic solids

An adhesion composition comprising a) a first polymer that is selected from the group consisting of acrylic polymers, acrylonitrile butadiene, butyl rubber, cellulose acetate, cellulose butyrate, epoxy resins, ethylene vinyl acetate, natural rubber, neoprene, phenolic polymers, polyurethanes, polyvinyl acetate, polyvinyl alcohol, styrene butadiene rubber, casein, dextrin, starch, copolymers thereof and combinations thereof; b) a second polymer selected from the group consisting of ethylene-acrylic acid copolymer, oxidized polyethylene, oxidized ethylene-vinyl acetate copolymer, maleated polyolefin and combinations thereof; and c) a surfactant; where the composition is water-based, having a solids content of greater than about 30% based on the total weight of the composition, with a particle size of about 10 nm to about 2000 nm, and is adapted for adhesion to substrates; and where the first and second polymers are different. The adhesion composition can also comprise a tackifier resin selected from the group consisting of rosin ester resin, rosin acid resin, synthetic hydrocarbon resin, synthetic terpenic resin and combinations thereof. Applications of the composition are also disclosed.

High performance water-based adhesion compositions and applications

Disclosed is a hydrophobic coating material that includes a wax-based material and a polyethylene- or polypropylene-based polymer material. Also disclosed is a coated fertilizer composition that includes a fertilizer granule and the hydrophobic coating material coated on the fertilizer granule. Further disclosed is a method of manufacturing a coated fertilizer composition that includes the steps of providing a fertilizer granule and coating the fertilizer granule with the hydrophobic coating material.

Wax-based fertilizer coatings with polyethylene- or polypropylene-based polymers

Hot melt adhesive compositions which have enhanced adhesion to difficult substrates, particularly at refrigerator/freezer temperatures or at elevated temperatures. The inventive compositions require a base polymer comprising an ethylene vinyl acetate-containing polymer; a tackifier; an adhesion promoting additive comprising at least one semi-crystalline polymer having a weight average molecular weight of about 30,000 daltons or less; and optional wax; and an optional antioxidant. It has been found that the adhesion promoting additive of this invention enhances the adhesion properties of a hot melt adhesive composition having ethylene vinyl acetate-containing polymer, particularly at elevated temperatures or at low refrigerator and freezer temperatures where other conventional adhesives have been unsuccessful.

Adhesion promotion to difficult substrates for hot melt adhesives

Hot melt adhesive compositions which have enhanced adhesion to difficult substrates, particularly at refrigerator/freezer temperatures or at elevated temperatures. The inventive compositions require a base polymer comprising at least one metallocene ethylene-containing polymer or at least one non-metallocene, amorphous, propylene containing polymer; a tackifier; an optional wax; and an adhesion promoting additive comprising at least one semi-crystalline polymer having a weight average molecular weight of about 30,000 daltons or less. It has been found that the adhesion promoting additive of this invention enhances the adhesion properties of a hot melt adhesive composition having a metallocene ethylene-containing base polymer or non-metallocene, amorphous, propylene containing base polymer, particularly at elevated temperatures or at low refrigerator and freezer temperatures where other conventional adhesives have been unsuccessful.

The invention relates to zeolite particles which are at least partially coated with a coating that is capable of delaying the release of heat from the zeolite particles upon contact with water over time. The coating effectively at least partially blocks the pore structure of the zeolite particle from contact with water, thereby delaying contact between water and the zeolite, and prolonging the warming effect caused by such contact.

Time-delayed activation of zeolite heating

Security films that are useful for pharmaceutical packaging. In particular, anti-counterfeiting security films having a luminescent composition on or in a fluoropolymer layer, which luminescent composition luminesces upon the application of ultraviolet radiation in the 200 nm to 300 nm range, in which the luminescent component is optionally and preferably not viewable to the unaided eye. The films are particularly useful for the formation of anti-counterfeiting blister packaging in compliance with FDA regulations.

Security taggants in adhesive plastic film laminate for pharmaceutical packaging

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Ramsey, NJ, United States of America

Michael Jablon