The present disclosure relates to a method of molding a motor vehicle part, the motor vehicle part being made from thermosetting plastic material and including at least one metal insert having a shape allowing it to extend substantially through the entire thickness of the motor vehicle part, the method being characterized in that it includes the following steps placing the metal insert and the thermosetting plastic material in a mold, and molding the motor vehicle part comprising the overmolded metal insert, the metal insert being deformed at least at one mechanical weakening zone by closing the mold for molding the motor vehicle part.

An encapsulated polymeric article is disclosed. The encapsulated polymeric article may include a polymer substrate and a metallic outer shell at least partially encapsulating the polymer substrate. The encapsulated polymeric article may be fabricated by a method comprising: 1) providing a mandrel in a shape of the encapsulated polymeric article, 2) shaping the metallic outer shell on the mandrel, 3) removing the mandrel from the metallic outer shell, and 4) molding the polymeric substrate into the metallic outer shell through a port formed in the metallic outer shell to provide the encapsulated polymeric article.

A method for manufacturing a laminated molded body includes a cutting-out step for cutting out a cushion layer to form a cut-out part; a base material laminating step for forming a first laminated body; an insulating material placing step of attaching an insulating material to the cut-out part; a first thermocompression bonding step for bonding the first laminated body by thermocompression; a removing step for removing the cut-out part to form an opening; a skin laminating step for forming a second laminated body; and a second thermocompression bonding step for bonding the skin at the opening part to the lower layer material by bonding the second laminated body by thermocompression, the lower layer material being arranged below the cushion layer having the opening part.

Provided is a method for manufacturing a fiber reinforced resin molded article capable of effectively reducing the occurrence of a preform with poor resin impregnation, and such a manufacturing device thereof. After it is detected that a predetermined amount (the same amount) of resin has been individually poured into a plurality of cavities provided in a mold, the fiber layers of preforms are impregnated (compressively filled) with resin. Pressure sensors for detecting a resin injection amount are used. When closing runners, a small gap is formed in the runners.

The present invention relates to a method for manufacturing a laminate, including: a laminating step of laminating a side of a thermal transfer layer of a thermal transfer sheet having a release sheet and the thermal transfer layer on at least a part of a surface of a resin member by heat bonding, in which the release sheet has no yield points, and has an elongation at break of 100% to 600% in a stress-strain curve measured by a tensile test at a molding temperature Tβ° C. in the laminating step.

A device for producing a composite molded part from planar and support structures includes a matrix, a punch, and a matrix slider, arranged to be movable relative to one another and in a closed state to define a cavity corresponding to the shape of the part to be produced. By and/or on at least one component, an edge folding arrangement is formed having a region fixing and/or pinching off and/or fully severing the decorative structure border. Also, a method for producing a composite molded part includes: providing a device, inserting a planar structure, transferring the device into a closed position and creating a cavity, introducing an uncured support structure, severing a strip of the structure protruding beyond the folded edge border, curing and demolding the composite molded part. Before and/or while introducing the uncured support structure, the planar structure is fixed in the folded edge outer border region.

The present invention is directed to a method of forming plurality of golf balls comprising steps of: providing plurality of inner cores; forming sheet of uncured rubber; forming plurality of preps in the sheet of uncured rubber such that each prep contains a concave top surface and is detachably connected to coupling material; loading the preps and coupling material into a core mold; loading plurality of inner cores into mold such that the inner cores are aligned with the concave surface of each prep; molding the preps about the inner cores to form outer core layers; and forming covers about outer core layers.

A thermally insulated VIP sandwich shipper for a temperature sensitive payload is provided. The shipper comprises an outer shell, an inner shell and vacuum insulated panels sandwiched therebetween. The outer shell and the inner shell may be unitary rigid structures made of an expanded foam material and comprising a bottom having a perimeter and sides extending from the bottom perimeter and terminating in a rim. The inner shell rim may be spaced from the outer shell rim to define a gap, the gap being sealed to create an enclosed space within which the vacuum insulated panels are located. Each vacuum insulated panel may be oriented substantially orthogonally to at least one adjacent vacuum insulated panel and have an edge that abuts the adjacent vacuum insulated panels.

A provided heat-resistant cushioning sheet is a sheet configured to be disposed between a thermocompression face of a thermocompression apparatus and a target in a thermocompression treatment of the target, and includes: a substrate including a fluorine resin; and a coating layer including a heat-resistant resin and disposed on a one principal surface side of the substrate. One exposed surface of the heat-resistant cushioning sheet is formed by the coating layer. The heat-resistant resin is a resin other than a fluorine resin and has a melting point of 280° C. or higher and/or a glass transition temperature of 210° C. or higher. The provided heat-resistant cushioning sheet is well adapted to expected further increases in treatment temperature and pressure.

An insulation compaction device includes an insulating structure of an appliance and has an insulating media disposed within an insulating cavity. An operable piston selectively engages the insulating structure and operates to define a selected cavity volume of the insulating cavity and a selected insulation density of the insulating media. A valve is attached to the insulating structure and in a passive state releases gas from the insulating cavity to the exterior during operation of the operable piston. Selective operation of a pump mechanism places the valve in an active state to extract gas from the insulating cavity and define a cavity pressure of the insulating cavity that is less than an equalized pressure. The operable piston and the pump mechanism are at least one of sequentially and simultaneously operable to define a selected piston chamber environment defined by the selected cavity volume and the cavity pressure.