Patent classifications
B32B2260/044
Gypsum panels, systems, and methods
Gypsum panels, methods for their manufacture, and systems and methods for monitoring environmental conditions with such panels are provided herein. The panels include a gypsum core having a first surface and an opposed second surface, a first facer material associated with the first surface of the gypsum core, and an environmental sensor assembly associated with the gypsum panel and configured to detect an environmental condition of the gypsum panel and wirelessly communicate data on the environmental condition to a reader.
FLAME RETARDANT CLEAR COATINGS FOR BUILDING PANELS
Described herein is a barrier coating composition comprising an organic blend comprising a first component and a second component, the first component comprising latex polymer and the second component being selected from polyurethane emulsion, wax emulsion, and alkyd emulsion, wherein the first component and the second component are present in a weight ratio ranging from about 2:1 to about 20:1, and the latex polymer has a glass transition temperature of less than about 18 C.
FLOORING SYSTEM INCLUDING A MATERIAL DISPLAYING DILATANT PROPERTIES, AND METHODS FOR INSTALLATION OF AN ATHLETIC FLOORING SYSTEM
A flooring system includes at least two discrete layers, the at least two discrete layers including at least a first discrete layer, wherein at least a portion of the least a first discrete layer includes a first material displaying dilatant properties, at least a second discrete layer. A method for assembly of an athletic flooring system includes installing at least a first discrete layer, wherein at least a portion of the least a first discrete layer includes a first material displaying dilatant properties and installing at least a second discrete layer.
Air and Water Barrier Building Panels
A method for improving the air and/or water barrier performance of a building panel is disclosed. The building panel may be a gypsum board or cement board. In particular, the board may have improved resistance to bulk water penetration or permeation while maintaining breathability with respect to water vapor.
Solid-Phase Composite Structure and Related Methods
A composite structure having a solid-phase concrete base-substrate component; a mesh component having non-woven solid-phase polymeric strands that are fused together to form a three-dimensional structure having a thickness of at least three millimeters, the thickness being defined as the greatest normal distance between the mesh-component first side and second opposing side, at least a portion of the polymeric strands that make up the mesh-component first side are embedded into and thereby attached to the solid-phase concrete base-substrate component; a substantially planar component having first and second sides, wherein the substantially planar-component first side is attached to the mesh-component second side; and an adhesive-layer component having a first and second surface, wherein the adhesive-layer component first surface is in contact with and attached to the second side of the substantially planar component, and wherein the adhesive-layer second surface is in contact with and attached to a first surface of a polyvinylchloride or polyvinylchloride-containing exterior sheet.
INSULATING SPHERES AND METHOD OF MANUFACTURING SAME
The present invention is a thermal and acoustic insulating sphere that has an evacuated hollow interior. The spheres are constructed of insulating materials, and the inner and outer surfaces of each sphere have highly reflective coatings evenly applied to them. The coatings applied to the inner and outer surfaces reduce the transmission of heat by conduction, convection, and radiation. Additionally, the spheres provide superior acoustic insulation due to the inability of sound to travel through the interior vacuum. The spheres can be used to produce insulating materials, for example, by embedding or positioning them within or between other materials, to provide thermal and acoustic insulation.
Missile impact resistant exterior sheathing building panel
An impact resistant exterior sheathing gypsum building panel with an integrated impact resistant woven mesh which protects against impact from projectiles such as those conveyed by hurricane force winds is provided. Methods for manufacturing these exterior sheathing gypsum building panels with an integrated impact resistant woven mesh are also provided. An exterior sheathing system employing the exterior sheathing cementitious building panel is provided.
WALL PANEL
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 optionally applying to the first side of the rigid layer a veneer layer.
Gypsum panels, systems, and methods
Gypsum panels, sheathing systems, and methods of making and using the same are provided. A gypsum panel includes a gypsum core associated with a first fiberglass mat having a continuous barrier coating, the coating penetrating a portion of the first fiberglass mat opposite the gypsum core, wherein gypsum penetrates a remaining fibrous portion of the first fiberglass mat such that voids in the first fiberglass mat are substantially eliminated. A building sheathing system includes at least two gypsum panels and a seaming component to provide a seam at an interface between the gypsum panels.
WALL PANEL
A wall panel may have a layer made from magnesium oxide, a first insulation layer made from a two-part rigid urethane pour foam, and a second insulation layer made from a phase change material. The first insulation layer maybe chemically bonded to the magnesium oxide layer and may also be bonded to the phase change layer. The first insulation layer may be positioned between the second insulation layer and the magnesium oxide layer. The magnesium oxide layer may be a finished surface or a veneer layer may be applied to the magnesium oxide layer.