A method of forming a surface covering includes supplying a surface covering raw material. The surface covering raw material includes a substrate and a foamable layer formed on the substrate. A foaming inhibiting composition is applied in a predetermined pattern to the foamable layer formed on the substrate. The foaming inhibiting composition is a non-aqueous composition.

Provided are an artificial leather and a method of manufacturing the same. The artificial leather includes: a base fabric; a polyvinyl chloride film bonded to a surface of the base fabric; bonding layer formed on a surface of the film; a first foam layer formed on the bonding layer in a patterned shape; a first color layer formed on a surface of the foam layer and having the same pattern as the first foam layer; and a surface treatment layer formed on a surface of the first color layer with the same pattern as the first color layer or formed on a surface of the bonding layer without the first foam layer and the surface of the first color layer. to the artificial leather of the present invention may have a light weight and implement various three-dimensional patterns and colors as compared with a conventional PVC foam artificial leather.

A tile, in particular a carpet tile, is disclosed. Further, the use of a tile as floor tile, wall tile, or ceiling tile is disclosed. A tile covering including a plurality of tiles according to the disclosure is disclosed. A carpet covering including at least one carpet tile according to the disclosure is disclosed.

The present application relates to an artificial leather and a manufacturing method therefor. The artificial leather comprises a substrate layer; a polyolefin elastomer composite layer, and a polyurethane resin solution layer, wherein the polyolefin elastomer composite layer is provided on a surface of the substrate layer, and the polyolefin elastomer composite layer comprises at least one foamed layer and at least one modification layer, and the polyurethane resin solution layer is provided on a surface of the polyolefin elastomer composite layer away from the substrate layer.

Disclosed is a sheet-like material which is produced by an environmentally friendly procedure and has an elegant appearance with piloerection, good wear resistance and good texture. Specifically disclosed is a sheet-like material containing a water-dispersed polyurethane within a fibrous base that contains extra-fine fibers having an average single fiber diameter of 0.3-7 um. The inside of the water-dispersed polyurethane is provided with pores each having a diameter of 10-200 um. Also specifically disclosed is a method for producing a sheet-like material by applying a polyurethane liquid to a fibrous base, wherein the polyurethane liquid is a water-dispersed polyurethane liquid that contains a foaming agent and a dry film of the polyurethane that constitutes the polyurethane liquid has a 100% modulus of 3-8 MPa.

Described herein are wound dressings, methods for their production and components for use therein. Described herein are a knitted structure including a blend of gelling fibres and non-gelling fibres wherein the yarn includes at least 50% w/w gelling fibres, a three-dimensional textile material including gelling fibres, and a yarn including a blend of gelling and non-gelling fibres which may be used in their production, the knitted structure and three-dimensional textile material being suitable for use as wound dressings or as components of composite wound dressings. The wound dressings may be adapted for use in negative pressure wound therapy (NPWT). It has been found that the incorporation of gel-forming fibres provides a material which has a high absorbency, enabling good transfer of exudates away from a wound, which retains structural integrity, and which is non-adherent and easily removed from the wound.

The use of particular silicon-containing compounds in the production of porous polyurethane layers for improving the flow properties of the reaction mixture which is reacting to form the polyurethane layer and/or for optimizing the cells of the resulting polyurethane layer, preferably for homogenizing the cell structure over the entire resulting polyurethane layer, especially in the context of artificial leather or foam film production, is described. The silicon-containing compounds have the following formula:

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Polyurethane floor covering products are formed from a web layer containing at least 30% by weight fibers. A cooled polyurethane foam formulation which includes at least one polyisocyanate, water and at least one polyol having an equivalent weight of at least 500 is applied to the web layer. The wetted web layer is then compressed to mechanically wet out the fibers, gauged and heated to cure the foam formulation.

A fabric having resilient prominences on at least one surface is described for improved thermal protection, drag reduction and quick drying. Resilient prominences are bulges that extend outward from a fabric surface and trap some volume of air or other material therein. For example, a resilient prominence may be dome shaped and extend outward from the fabric plane. A resilient prominence is resilient in shape, whereby the resilient prominence may be compressed and then popped back into substantially the original shape. Reflective and/or absorptive materials may be configured on the surface of the fabric to provide camouflage from IR cameras. Reflective material may be configured on the fabric to reflect heat back to the wearer of a garment made with the fabric described.

The synthetic leather according to an embodiment includes a fibrous substrate, a foam layer containing a vinyl chloride-based resin and a plasticizer, and a non-foam layer containing a vinyl chloride-based resin and a plasticizer. In each of the foam layer and the non-foam layer, a content of the plasticizer is from 60 to 100 parts by mass with respect to 100 parts by mass of the vinyl chloride-based resin, the plasticizer contains a phthalate ester-based plasticizer and a polyester-based plasticizer, and a mass ratio of the phthalate ester-based plasticizer to the polyester-based plasticizer is from 73:27 to 87:13.