An article comprising: (a) one or more lofted fibrous material layers comprising a lofted fibrous material; and (b) one or more nonwoven layers having a fibrous matrix; wherein the article is configured for thermoacoustic applications to thermally insulate an item or compartment; and wherein the article absorbs external heat to substantially prevent amplitude of temperature of the item or within the compartment and also substantially prevents noise fluctuation radiated by the item or out of the compartment. The article may also include one or more metallic layers disposed on one or more exterior surfaces of the article, wherein the one or more metallic layers are aluminum laminated glass cloth, aluminum foil, stainless steel, or a combination thereof. Additionally, the one or more metallic layers may also be embossed, micro-perforated, or a combination thereof.

A resin composition is provided, which includes 1 part by weight of a thermally conductive resin, 0.001 to 0.05 parts by weight of radical initiator, and 0.05 to 0.30 parts by weight of crosslinking agent. The chemical structure of the thermally conductive resin is

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in which R.sup.1 is CH.sub.2, C(O), or (CH.sub.2)(C.sub.6H.sub.5), and R.sup.2 is H or CH.sub.3.

A reinforcing layer for a cementitious board includes an alkali-resistant fabric and a non-porous membrane. The cementitious board includes (a) a cementitious core; and (b) the reinforcing layer disposed on at least one face of the cementitious core, the reinforcing layer including the alkali-resistant fabric and the non-porous membrane.

A composite structure having a solid-phase concrete base-substrate component; a fibrous component that is a plurality of polypropylene fibers embedded into and thereby mechanically attached to the solid-phase concrete base-substrate component, wherein the fibers extend from within the concrete base-substrate component and out of the concrete base-substrate component through an exterior surface of the concrete base-substrate component; a polyvinylchloride-adhesive layer component having a first and second surface, wherein the polyvinylchloride-adhesive layer component first surface is in contact with and adhesively attached to the fibrous component, and wherein the polyvinylchloride-adhesive layer second surface is in contact with and adhesively attached to a first surface of a polyvinylchloride or polyvinylchloride-alloy interior sheet; and a polyester reinforcing component having a first and second surface, wherein the polyester reinforcing component first surface is in contact with a second surface of the polyvinylchloride or polyvinylchloride-alloy interior sheet, and wherein the polyester reinforcing component second surface is in contact with a first surface of a polyvinylchloride or polyvinylchloride-alloy exterior sheet.

A cementitious composite includes a first layer, a second layer spaced from the first layer, a cementitious mixture disposed between the first layer and the second layer, and a structure layer disposed between the first layer and the second layer. The cementitious mixture is disposed within the structure layer. The cementitious mixture includes cementitious materials. The cementitious mixture is configured to absorb a mass of water that provides a maximum 28 day compressive strength of the cementitious composite upon curing which is represented by M.sub.w=x.Math.M.sub.c. M.sub.w is the mass of water per unit area of the cementitious composite. M.sub.c is a mass of cementitious materials of the cementitious mixture per unit area of the cementitious composite. x is a ratio of the mass of water relative to the mass of cementitious materials of the cementitious mixture per unit area of the cementitious composite. x is between 0.25 and 0.55.

A sizing composition including water, a polyvinylpyrrolidone film former, a silane coupling agent, a lubricant, and a surfactant is provided. The polyvinylpyrrolidone film former constitutes from 30 wt. % to 50 wt. % of the dry solids of the sizing composition. Wet use chopped strand glass fibers for use in reinforcing gypsum board are also provided. The wet use chopped strand glass fibers include chopped glass fibers having the sizing composition applied thereto. The sizing composition improves fiber bundle integrity, fiber flow rate, fiber flow rate consistency, and dispersibility of the wet use chopped strand glass fibers in a gypsum matrix or slurry.

A fireproof heat insulating board including a foamed resin molded body filled with a slurry, the foamed resin molded body having continuous voids, wherein the filled slurry forms a hydrate containing water of crystallization in an amount of 50 kg/m.sup.3 or more through hydration reaction after the filling, and at least a part of the surface of the board is reinforced with one or more inorganic fibers selected from the group consisting of a basalt fiber and a ceramic fiber.

A geopolymer cement and a method of producing the same are provided. A geopolymer cement binder may be provided including a geopolymer precursor and magnesium oxide as an alkali activator. The geopolymer cement binder may be mixed with water using high shear mixing.

The invention is related to a method of manufacturing a wall panel and a wall panel system. The method includes: forming a glass-fiber reinforced rigid magnesium oxide layer including the steps of: pouring or injecting a slurry of uncured magnesium oxide into a mold, embedding glass fiber reinforcing material therein, and curing the magnesium oxide to obtain the glass-fiber reinforced rigid magnesium oxide layer having a first side and a second side; applying, to the second side of the rigid magnesium oxide layer, an insulation layer, the insulation layer comprising a foam; and applying to the first side of the rigid layer a veneer layer.

The present disclosure relates generally to roofing products, for example, shingles suitable for covering and protecting the roofs of houses, buildings, and other structures. The present disclosure relates more particularly to a roofing shingle including an upper edge, a lower edge, a first end, a second end, a headlap section, and an exposed section. A nail zone extends across the roofing shingle from the first end to the second end within the headlap section. The roofing shingle includes a top shingle layer including a top surface and a bottom surface. A reinforcement strip is secured to the bottom surface of the top shingle layer and overlaps with the nail zone. Further, a self-sealing material is disposed within the nail zone and is configured to form a seal around a mechanical fastener that punctures the roofing shingle in order to secure the roofing shingle to an underlying roof structure.