Embossed fibrous structures containing a plurality of filaments and methods for making same are provided.

A nonpolar III-nitride film grown on a miscut angle of a substrate, in order to suppress the surface undulations, is provided. The surface morphology of the film is improved with a miscut angle towards an a-axis direction comprising a 0.15° or greater miscut angle towards the a-axis direction and a less than 30° miscut angle towards the a-axis direction.

This disclosure relates to an article (e.g., a vapor-permeable, substantially water-impermeable multilayer article) that includes a nonwoven substrate and a film supported by the nonwoven substrate. The film includes a polyolefin, a nanoclay, and a pore-forming filler.

This disclosure relates to an article that includes a nonwoven substrate, a first film supported by the nonwoven substrate, and a second film such that the first film is between the nonwoven substrate and the second film. The first film includes a first polymer and a pore-forming filler. The difference between a surface energy of the first film and a surface energy of the nonwoven substrate is at most about 10 mN/m. The second film includes a second polymer capable of absorbing and desorbing moisture and providing a barrier to aqueous fluids.

A circuit board includes a main portion and at least one uneven portion. The main portion is obtained by stacking a plurality of base sheets made of a flexible material in a predetermined direction and subjecting the stacked base sheets to compression bonding. The at least one uneven portion is provided on one of the base sheets. The uneven portion includes a concave portion and a convex portion extending in a direction perpendicular or substantially perpendicular to the predetermined direction. The concave portion is sunken in the predetermined direction. The convex portion protrudes in an opposite direction to the predetermined direction.

Roll-to-roll fabrication of predetermined or ordered three-dimensional nanostructure arrays is described. Provided methods can comprise imprinting a substrate with a two-dimensional (2-D) pattern by rolling a cylindrical pattern comprising a 2-D array of structures against a substrate. In addition, control or determination of nanostructure parameters via control of process parameters is provided.

A cover window includes a light-transmitting substrate, a metal layer pattern on the light-transmitting substrate, the metal layer pattern being in a peripheral region of the light-transmitting substrate, a first light-blocking layer pattern on the metal layer pattern, a second light-blocking layer pattern extending from the light-transmitting substrate to the first light-blocking layer pattern, the second light-blocking layer pattern covering inner side surfaces of the metal layer pattern and the first light-blocking layer pattern, and a light-transmitting area on the light-transmitting substrate, the light-transmitting area being surrounded by the second light-blocking layer pattern.

A cover window includes a light-transmitting substrate, a metal layer pattern on the light-transmitting substrate, the metal layer pattern being in a peripheral region of the light-transmitting substrate, a first light-blocking layer pattern on the metal layer pattern, a second light-blocking layer pattern extending from the light-transmitting substrate to the first light-blocking layer pattern, the second light-blocking layer pattern covering inner side surfaces of the metal layer pattern and the first light-blocking layer pattern, and a light-transmitting area on the light-transmitting substrate, the light-transmitting area being surrounded by the second light-blocking layer pattern.

Disclosed are a lamination film and a method for preparing the same. The lamination film includes a printed or coated color layer, an aluminum-coated layer, a reinforced aluminum-coated resin layer, a molded resin layer, a film layer, a base coat layer and a hot melt adhesive layer which are sequentially arranged.

A light extraction substrate for an organic light-emitting device (OLED) which can improve the brightness of a display or an illumination system to which an OLED is applied by improving light extraction efficiency and a method of manufacturing the same. The light extraction substrate for an OLED includes an oxide or nitride thin film formed on a substrate body. The oxide or nitride thin film includes a base layer formed on the substrate body, a first texture formed on the base layer, the first texture having a plurality of first protrusions which protrude continuously or discontinuously from the base layer, and a second texture having a plurality of second protrusions which protrude continuously or discontinuously from each outer surface of the first protrusions.