A method and a device (20) for decorating an injection-molded part (40), and an injection-molded part (40). The method for decorating an injection-molded part (40) includes the following steps, which are in particular carried out in the following order: a) providing a transfer film in the form of a roll (10) b) cutting the transfer film to size to form at least one label (30, 11) c) laying the at least one label (30) in an injection-molding apparatus (21) by means of a robot arm (24, 12) d) closing the injection-molding apparatus (21, 13) e) back-injection molding the at least one label (30) by means of an injection-molding compound (14) f) opening the injection-molding apparatus (21) and removing the injection-molded part (40, 15).

A switch structure includes a light-emitting part configured to receive power from a vehicle and to radiate light, a moving block located so as to surround the light-emitting part, a light-transmissive part configured to allow light radiated from the light-emitting part to pass through an opening in the moving block, and a film-printing layer located on a top surface of the light-transmissive part and including a symbol.

Methods for producing a transfer film (1), in particular IMD transfer film (1), wherein the following steps are carried out, in particular in the specified order: preparing a carrier ply (3), preparing a transfer ply (2) having a decorative ply (21), wherein the transfer ply (2) has been or is arranged on the carrier ply (3), applying one or more forming elements (40) to the carrier ply (3), wherein the one or more forming elements (40) have a three-dimensional shape and are applied register-accurately with respect to the decorative ply (21).

A method for coating a plastic injection-molded article with the transfer film, as well as the transfer film and the plastic injection-molded article.

A switch structure includes a light-emitting part configured to receive power from a vehicle and to radiate light, a moving block located so as to surround the light-emitting part, a light-transmissive part configured to allow light radiated from the light-emitting part to pass through an opening in the moving block, and a film-printing layer located on a top surface of the light-transmissive part and including a symbol.

A switch structure includes a light-emitting part configured to receive power from a vehicle and to radiate light, a moving block located so as to surround the light-emitting part, a light-transmissive part configured to allow light radiated from the light-emitting part to pass through an opening in the moving block, and a film-printing layer located on a top surface of the light-transmissive part and including a symbol.

Provided is a molding support apparatus that supports production of a molded product of a composite material, and the apparatus includes: a hardware processor that calculates a Talbot feature of the molded product, based on a Talbot image acquired from an X-ray Talbot imaging apparatus that images the molded product, and identifies, using the calculated Talbot feature, an item that allows adjustment of the Talbot feature from among a plurality of types of items constituting a production process for producing the molded product.

This invention relates to the manufacturing of durable thermoset in-mold finishing films (TIMFFs) combining in-mold decorating and in-mold durable exterior grade coating capabilities, to molded articles having TIMFFs adhering to their surfaces and both showing a decoration and providing protection, and to thermosetting resin formulations used in the manufacturing of TIMFFs. In some embodiments, the thermoset is prepared via polyurethane chemistry; the manufacturing process comprises reaction injection molding (RIM) with a specially designed mold; and articles having TIMFFs adhering to their surfaces include graphic panels for durable signage, structural graphics, molded flooring, prefabricated housing, aerospace structures and body panels, automotive structures and body panels, and marine structures and body panels. In addition to RIM, the TIMFF technology is also compatible with other processes, such as injection molding, compression molding, resin transfer molding, spin casting, rotational molding, thermoforming, roll lamination, use of a platen/laminate press, and blow molding.

This invention relates to the manufacturing of durable thermoset in-mold finishing films (TIMFFs) combining in-mold decorating and in-mold durable exterior grade coating capabilities, to molded articles having TIMFFs adhering to their surfaces and both showing a decoration and providing protection, and to thermosetting resin formulations used in the manufacturing of TIMFFs. In some embodiments, the thermoset is prepared via polyurethane chemistry; the manufacturing process comprises reaction injection molding (RIM) with a specially designed mold; and articles having TIMFFs adhering to their surfaces include graphic panels for durable signage, structural graphics, molded flooring, prefabricated housing, aerospace structures and body panels, automotive structures and body panels, and marine structures and body panels. In addition to RIM, the TIMFF technology is also compatible with other processes, such as injection molding, compression molding, resin transfer molding, spin casting, rotational molding, thermoforming, roll lamination, use of a platen/laminate press, and blow molding.

A fishing lure component and system is provided for soft baits which is highly strain resistant and tear resistant in the major stress longitudinally while placid in the vertical axis. The component employs a textile comprised of synthetic or natural fibers of dimension and configuration to dissipate penetration damage from hooking, or fish biting over the adjacent fibers providing protection of stresses up to 100 times that of soft bait lures. Component allows for the forming and movement in use to replicate living bait creatures. System includes features for hook installation, 3 dimensional color appearance thru polymer, infinite variation coloration, over-molding, and coating.

A method for manufacturing a strain gauge device and a strain gauge device are presented. The method includes obtaining a first substrate, preferably a first formable substrate film for accommodating electronic components, printing by a printed electronics method, such as by screen printing or inkjet printing, a strain gauge on the first substrate, and molding, preferably by utilizing injection molding, a molded material layer embedding the strain gauge. The strain gauge device may comprise two, preferably formable, substrate films between which the strain gauge and the molded material layer may be arranged.