Patent classifications
B32B2264/30
High salt gypsum wallboard containing salt absorbents and methods of making same
A gypsum wallboard having a core with a central core layer and one or more densified layers is disclosed. At least one densified layer contains salt absorbent particles of zeolite and/or hydrotalcite to improve adhesion of the gypsum core to a cover sheet. Also, methods of making the gypsum wallboard and a wall system for employing the gypsum wallboard are disclosed.
METHOD FOR PRODUCING ILLUMINATED LAMINATED GLAZING, WHICH IS TRANSPARENT IN A NON-ILLUMINATED STATE
A method of making a laminated glazing including at least two glass sheets bonded to each other by an adhesive interlayer, the method including, prior to assembling the laminated glazing, digital printing of one face, intended to be inside the laminated glazing, of at least one of the two glass sheets after their possible forming/bending, and/or of at least one face of the adhesive interlayer, by a homogeneous organic ink with a viscosity between 1 and 50 mPa.Math.s including 50 to 99% by weight of ultraviolet-curable resin and 0.05 to 20% by weight of scattering particles, and then curing the organic ink under illumination with ultraviolet radiation.
MULTILAYERED ARTICLES
The invention provides highly stable and versatile multilayered structure or articles, based on cellulose nanomaterials, tailored and processed for a variety of applications, as superior materials in the food packaging industry.
MULTI-LAYERED PIPE
A multi-layered pipe including a first polyethylene layer including raised temperature (PE-RT) resistance forming a longitudinal axis of the pipe, an ultra-high-molecular-weight polyethylene (UHMWPE) layer disposed around the first PE-RT layer, a second PE-RT layer disposed around the UHMWPE layer, and, optionally, at least one bonding layer disposed between at least one of the respective first or second PE-RT layers and the UHMWPE layer. At least one of the layers includes a nanoclay material for reducing gas transport through the layers.
COATED PACKAGING MATERIAL HAVING ENHANCED WATER VAPOR TRANSMISSION RATE
A coated substrate for packaging material that reduces material to the landfill, is compliant for recycling and compostability, and/or enhances Water Vapor Transmission Rate (WVTR). The coated substrate includes a substrate, a barrier coating and an ink layer disposed on the barrier coating. The barrier coating includes a polymeric matrix material and nanoparticles. The barrier coating provides a water vapor transmission rate through the coated substrate lower than the water vapor transmission rate of a substrate having no barrier coating.
Thermal stabilizer material, method of obtaining and uses thereof
The present disclosure relates to the use of eggshell particles as a polymer thermal stabilizer, preferably as a poly(vinyl chloride) (PVC) thermal stabilizer; also to a flexible material comprising a multi-layered PVC-based material, method of obtaining and uses thereof. An aspect of the present disclosure relates to a material comprising a poly(vinyl chloride), PVC, layer comprising eggshell particles, wherein the eggshell particle size is up to 200 m, an intermediate layer or a plurality of intermediate layers; a support layer selected from the following list: fabric, knitted fabric, nonwoven, foam, or mixtures thereof; wherein the layers are bounded. Preferably a material solution free of azodicarbonamide, for automotive InteriorsEco-friendlier, preferably sustainable artificial leather for automotive upholsteries.
Composite display cover
Implementations for composite display cover are described and provide improved protection and durability to device displays as compared with conventional display protection technologies. The described composite display cover, for instance, utilizes an ultra-thin glass layer with a polymer film applied directly to the glass layer and a hard coat applied to the polymer film. The polymer film, for instance, is applied to the glass layer without an adhesive. Further, the composite display cover can be attached to a display, such as via an adhesive layer that adheres the glass layer to a surface of the display.
Resin composition for semiconductor package, resin coated copper, and circuit board comprising same
A resin composition for a semiconductor package according to an embodiment includes a resin composition that is a composite of a resin and a filler disposed in the resin, wherein the filler has a content in a range of 68 wt % to 76 wt % in the resin composition, wherein the filler includes a first filler group composed of fillers having a first diameter; a second filler group composed of fillers having a second diameter smaller than the first diameter; and a third filler group composed of fillers having a third diameter smaller than the second diameter, and contents of each of the first filler group, the second filler group, and the third filler group in the filler are different from each other.
Metallized breathable composite fabric
A fabric includes an inner layer, a metallized membrane disposed on the inner layer, and an outer layer disposed on the metallized membrane. The metallized membrane includes a base layer containing a polymer and a metal layer deposited on a first surface of the base layer. The inner layer is coupled to the metallized membrane via first point contacts, and the outer layer is coupled to the metallized membrane via second point contacts.
MULTIFUNCTIONAL FABRIC FOR GARMENTS
The multifunctional fabric for garments is a fabric for making protective garments. The multifunctional fabric includes first, second and third layers. The first layer is an outer layer and is formed from a superhydrophobic polymer, such as polylactic acid, with ultraviolet-reflective nanoparticles embedded therein. The second layer is a middle layer and is formed from a first superhydrophilic polymer with silver nanoparticles embedded therein. The third layer, which is an inner layer, is formed from a second superhydrophilic polymer with silver nanoparticles embedded therein. The second layer is sandwiched between the first and third layers, and each of the first, second and third layers is porous to make the fabric breathable. The first and second superhydrophilic polymers allow for absorption of perspiration and the silver nanoparticles embedded therein provide antimicrobial neutralization of any odors caused by the absorbed perspiration, and further serve to reflect infrared radiation from the external environment.