When an exterior portion is provided on an exterior surface of an extrusion-molded portion of a sealing member having the extrusion-molded portion and a mold-formed portion, while appearance is made favorable, the exterior portion is inhibited from being damaged. A glass run 20 includes an upper glass run edge 20a which is extrusion-molded, a rear connecting part 20f which is molded integrally with one end portion of the upper glass run edge 20a, and an exterior portion 29 provided on an exterior surface of the upper glass run edge 20a. A surface Si of the rear connecting part 20g on an outside of a passenger compartment is located further outside than a surface of the exterior portion.

Provided is a method for manufacturing a laminated film that can be molded into a complicated shape. A method for manufacturing a laminated film comprising: a step of forming an uncured hard coat layer by applying an active energy-ray curable composition for forming a hard coat layer to one side of a first support substrate having a thickness of 50 μm or more and 600 μm or less, and then drying the composition; a step of forming an uncured optical interference layer by applying an active energy-ray curable composition for forming a optical interference layer on one surface of a second support substrate so that the thickness of the uncured optical interference layer is between 15 nm or more and 200 nm or less, and then drying the composition; and a lamination step of laminating a surface of the uncured hard coat layer opposite the first support substrate and a surface of the uncured optical interference layer opposite the second support substrate to obtain a laminated film, wherein a stretch ratio of the laminated film at 160° C. is 50% or more.

A connecting element is configured to position a stabilizing member during the production of a component from a composite material, the connecting element having openings into which a melt composition in a molten state can flow, and the connecting element having at least one positioning device configured to position the stabilizing member on the connecting element. A component of a composite material has a cohesive, hardened melt composition, the connecting element described above, and at least one stabilizing member, the connecting element and the at least one stabilizing member being embedded in the melt composition, the melt composition reaching into the connecting element through the openings of the connecting element, and the at least one stabilizing member being positioned on the at least one positioning device of the connecting element.

A laminated body in which a thermoplastic resin layer, a thermosetting resin layer, and a protective film are layered one on another in this order, in which the thermosetting resin layer contains a thermosetting resin composition containing two or more kinds of organometallic complex, a surface of the protective film at an opposite side of the thermosetting resin layer has a surface roughness Ra of 30 nm or less, and an amount of nitrogen atoms present at the surface of the protective film at the side of the thermosetting resin layer is less than 1 atm %.

A molded article includes a light transmission portion disposed in superposition with a display portion of a display device, the light transmission portion transmitting light from the display portion. Recesses and protrusions are formed on a surface of the light transmission portion opposite to the display portion, and thus the surface has anti-glare properties.

Polyamide resins including the reaction product of an intimate mixture of at least two monomers selected from HMDA and a diamine; and an organic diacid, wherein sebacic acid is present in the organic diacid in an amount of less than or equal to about 50 mol. %, and associated articles and methods are provided herein.

A molded article includes a first plateable region spaced apart from a second plateable region the first plateable region by a barrier of electrically insulating material. Each of the plateable regions include an associated plateable layer of electrically conductive material for being electroplated with a different plateable finish. Several different geometries and configurations of the barrier and/or the plateable regions are provided to prevent migration of plating material from one of the plateable regions acting as bipolar electrode while another one of the plateable regions is being electroplated. A non-plateable insert may be disposed between the plateable regions to prevent migration of plating material from one of the plateable regions onto the other one of the plateable regions. A conducive robber in electrical communication with one of the one of the plateable regions, and which may be removable, may also be used to prevent migration of plating material.

Provided is a method for manufacturing a laminated film that can be molded into a complicated shape. A method for manufacturing a laminated film comprising: a step of forming an uncured hard coat layer by applying an active energy-ray curable composition for forming a hard coat layer to one side of a first support substrate having a thickness of 50 μm or more and 600 μm or less, and then drying the composition; a step of forming an uncured optical interference layer by applying an active energy-ray curable composition for forming a optical interference layer on one surface of a second support substrate so that the thickness of the uncured optical interference layer is between 15 nm or more and 200 nm or less, and then drying the composition; and a lamination step of laminating a surface of the uncured hard coat layer opposite the first support substrate and a surface of the uncured optical interference layer opposite the second support substrate to obtain a laminated film, wherein a stretch ratio of the laminated film at 160° C. is 50% or more.

This rotor core manufacturing method includes a step of retracting a resin injection portion of a resin injection apparatus relative to a stacked core that remains pressed by a jig, while maintaining a resin material stored in the resin injection portion in a molten state.

A method for producing a vehicle interior decorative part comprises providing a substrate film, forming a composite layer by applying a decorative ply to a first side of the substrate film, micro-perforating the decorative ply in one or more regions, inserting the composite layer made of substrate film and micro-perforated decorative ply into a cavity of an injection mold wherein, when plastics material is injected into the cavity, the decorative ply of the composite layer is back-injected and a second side of the substrate film opposite the first side is pressed against a wall of the cavity, closing the cavity and injecting plastics material into the cavity to form the decorative part substrate, the decorative ply being back-injected and the decorative ply being applied to a surface of the substrate facing the decorative ply during substrate formation in the cavity, and opening the cavity and removing the decorative part.