Awi Licensing Company

Armstrong World Industries, Inc.

Afi Licensing LLC

Other

Ahf, LLC

Ahf, LLC D/b/a Ahf Products

Dong Tian

Jeffrey S Ross

Rebecca L Winey

Gary A Sigel

Larry W Leininger

Fang Qiao

Mary Kate Davies

Ronald S Lenox

Ralph W Wright, Jr

Bennett E Wallick

Keith Thomas Quisenberry

Daniel P Baker

Jeff S Ross

Scott Whalen

Mary Kate Boggiano

Burton L Wilson

Susan Monroe

Courtney R Price

Scott A Whalen

An abrasion resistant coating is disclosed. The coating includes diamond particles and may be used in one or more coating layers of a coating stack for a wood substrate. Wood substrates include hardwood and engineered hardwood flooring.

Wood substrate including an abrasion resistant coating

An abrasion resistant flooring covering formed from a UV curable coating composition having binder and diamond particles&#x2014;the abrasion resistant flooring covering used to overcoat the surface of flooring products or various abrasion heavy surfaces to protect such a products or surfaces from damage by abrasion or scratch.

Scratch resistant coating

Described herein is a flooring product comprising a base layer, the base layer comprising: a filler and a polymeric binder, the polymeric binder comprising: an amorphous thermoplastic polyester and a semi-crystalline thermoplastic polyester, wherein the thermoplastic amorphous polyester has a Tless than 30&#xb0; C.

Polyester binder for flooring products

A product is provided having a biobased component where the biobased component includes recycle polyester resin and the recycle polyester resin includes polyethylene terephthalate, polybutylene, or polypropylene terephthalate. The biobased component includes a polyester resin where the polyester resin is the co-reaction product of an aliphatic polyester having renewable components and a recycle polyester resin. Included is a composition having a filler and a polymeric binder. The filler includes inorganic biobased filler or recycle thermoset resin based filler.

PVC/polyester binder for products

Disclosed is an energy curable coating composition for roll coating, a product, and continuous process of applying the energy curable coating composition to a substrate. The energy curable coating composition has a substantially constant viscosity and includes an energy curable resin having plurality of texturing particles suspended therein. The substantially constant viscosity of the energy curable coating composition remains at least less than about 1500 centipoise at approximately 15&#xb0; C. to approximately 40&#xb0; C., during recirculation, in a coating pan, and prior to application using a roll coating apparatus. The plurality of texturing particles provide a predetermined texture to a cured energy coating composition. The continuous process of applying the energy curable coating to a substrate allows the process to continuously operate until the energy curable coating composition is depleted from the container.

Energy cured coating composition and process of applying same to substrate

A linoleum flooring product in one embodiment includes a linoleum substrate and a printed wear layer comprising a decorative indicia. The printed wear layer includes a wear layer and an ink print layer. The linoleum substrate may include a base linoleum layer applied on a backing material, and in some embodiments further includes a visual linoleum layer formed on top of the base linoleum layer. The printed wear layer may be adhesively bonded onto the linoleum substrate. In one embodiment, an ultraviolet curable adhesive may be used. A related method for forming the linoleum flooring product is also provided.

Linoleum flooring

A flooring product is provided comprising at least one layer including a polymeric binder comprising at least one thermoplastic polyester resin, wherein the polyester resin comprises at least one renewable component. A flooring product is also provided that includes at least one layer comprising filler and at least one thermoplastic, high molecular weight polyester resin. The flooring product may also qualify for at least one point under the LEED System. A composition is also provided that can be melt mixed in low intensity mixers and processed into flooring layers.

Described herein are biobased plasticizer compositions comprising a compound having the structure of Formula I: wherein R is C-Calkyl; along with methods of making and using same.

Biobased plasticizer and surface covering employing same

A process for producing higher molecular weight polyester includes heating a polyester to form a melt, and applying and maintaining a vacuum of between about 5 mm and about 85 mm of mercury to the melt while passing bubbles of gas through the melt until molecular weight has increased. The process may involve esterification of a diacid component and a diol component at elevated temperature. After the acid functional groups have essentially reacted, a vacuum of about 5 mm of mercury or less was applied and excess diol stripped off during transesterification, thereby increasing molecular weight.

Process for preparing high molecular weight polyesters

A biobased plasticizer and a surface covering are disclosed. The biobased plasticizer includes an ester formed as a reaction product of a furan derivative selected from the group consisting of furoic acid, furfural and furfuryl alcohol reacted with a carboxylic acid or an alcohol, or includes an ester formed as a reaction product of a biobased aromatic compound and a biobased aliphatic compound. The surface covering is plasticized with a composition comprising an ester formed as a reaction product of a functionalized aromatic heterocyclic compound reacted with a carboxylic acid or an alcohol.

A flooring product comprises a heterogeneous design layer having multiple regions wherein two regions comprise compositions having different recycle content or renewable content. The thickness of the design layer may be greater than the dimensions of the regions or the regions may extending from the top surface of the layer to the bottom surface of the design layer. The heterogeneous layer may be composed of consolidated particles/chips which may contain a polyester binder system with a renewable component. Additionally, a method for making a heterogeneous layer having a target wt % recycle content or renewable content is also disclosed.

Flooring product having regions of different recycle or renewable content

A flooring product is provided which has at least one layer including a polymeric binder comprising homo-polymer PVC resin and thermoplastic, high molecular weight polyester resin or highly viscous polyester resin. The polyester resin comprises renewable components, and can be amorphous or crystalline in nature. A flooring product is described that comprises a renewable or recycle content that classifies the product for points under the LEED system for commercial products.

PVC/polyester binder for flooring

A floor covering has an exposed surface with substantially the same gloss level and at least two portions having different tactile surface characteristics. The difference in the tactile surface characteristics between the two portions is at least an average RPc of 4. The floor covering includes a substrate and a high performance coating overlying the substrate. The high performance coating comprises texture particles, which may be organic polymer particles. The floor covering is made by forming a high performance coating including the texture particles on a substrate, at least partially curing the high performance coating, and then while controlling the temperature of the high performance coating below the melting point temperature or softening point temperature of the texture particles and above the temperature at which the texture particles deform under the applied mechanical embossing pressure, subjecting the first and second portions to different mechanical embossing conditions.

Variable texture floor covering

A radiation curable biobased coating, such as a UV/EB curable biobased coating, for flooring applications includes a biobased component comprising renewable and/or biobased materials. The biobased component is selected from the group consisting of a biobased resin, a biobased polyol acrylate, or a biobased polyol. The biobased component is blended with a coating formula. The coating formula includes at least one initiator. The radiation curable biobased coating contains at least about 5% weight of renewable materials or biobased content.

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Lancaster, PA, United States of America

Dong Tian