A hot press forming die includes a die main body (2) made of alloy tool steel, and a number of forming projections (3) projecting on the die main body and configured to form a forming surface (5) that comes into contact with a heated metal plate material that is an object to be formed and form a refrigerant passage through which a cooling medium flows. The die main body includes a first forming portion (14) in which the forming surface is formed to extend in a direction intersecting a forming direction of the metal plate material, a second forming portion (15) in which the forming surface is formed to extend in the forming direction, and a third forming portion (16) configured to connect the first forming portion and the second forming portion such that the forming surface becomes a convex surface. The forming projection provided on the third forming portion is formed to be a projecting strip extending between the first forming portion and the second forming portion.

It is possible to provide a hot press forming die for which forming convex portions with a high hardness can easily be formed.

A forming tool including an additive manufactured polymer shell defining a first side and an opposite second side. The forming tool includes a support structure mechanically connected to the second side of the shell. The support structure may be formed by pouring a molten backfill material into the shell, and solidifying the backfill material. The backfill material includes a low melting temperature metal, fusible alloy, or other element. The solidified backfill material has a strength and rigidity greater than the polymer used to make the shell. The first surface of the shell includes a complex surface for bringing into contact with a material in a stamping process to form a stamped part.

A forming tool including an additive manufactured polymer shell defining a first side and an opposite second side. The forming tool includes a support structure mechanically connected to the second side of the shell. The support structure may be formed by pouring a molten backfill material into the shell, and solidifying the backfill material. The backfill material includes a low melting temperature metal, fusible alloy, or other element. The solidified backfill material has a strength and rigidity greater than the polymer used to make the shell. The first surface of the shell includes a complex surface for bringing into contact with a material in a stamping process to form a stamped part.

The present invention relates specifically to moulds for cosmetic products, even more specifically to moulds for so-called “stick” products or cast products in general, to which category may belong, for example, lip glosses, lipsticks, foundations, concealers, etc. other products belonging to the same category.

In particular, the present invention relates to an innovative system and method for making moulds for cosmetic products such as moulds for lipsticks, for cast products in general, moulds for compacting powders, in practice any mould for cast products in which there is a request for customization in terms of shape, logo, design and workmanship.

A system for use in repairing a stamping press die. The system includes an imaging system configured to perform a scan on a pressing surface of the stamping press die, wherein a profile of the pressing surface is determined based on the scan. A computing device is configured to compare the determined profile to a desired profile of the pressing surface, and to generate a repair template based on dimensional variations between the determined profile and the desired profile. A projection system is configured to display the repair template on the pressing surface.

A mold used for blanking a metal plate to shape a blank to be drawn. The mold has a surface treatment film and a top face to be brought into contact with the metal plate and a peripheral end face communicated indirectly with the top face. At least the top face is coated with the surface treatment film.

In accordance with various embodiments, methods and systems are provided for designing a bead tool and a bead for sheet metal forming. In one embodiment, a method includes: storing, in a datastore, a library of bead tool data associated with a plurality of bead tools; receiving, by a processor, a plurality of parameters associated with at least one of a punch and a die of a desired bead tool; computing, by the processor, bead tool data for at least one of the punch and the die of the desired bead tool based on the plurality of parameters; providing, by the processor, a subset of bead tool data from the library of bead tool data; receiving, by the processor, a selection of bead tool data from the subset of bead tool data and the computed bead tool data; and generating, by the processor, bead geometry data based on the selection and the bead tool data associated with the selection.

In accordance with various embodiments, methods and systems are provided for designing a bead tool and a bead for sheet metal forming. In one embodiment, a method includes: storing, in a datastore, a library of bead tool data associated with a plurality of bead tools; receiving, by a processor, a plurality of parameters associated with at least one of a punch and a die of a desired bead tool; computing, by the processor, bead tool data for at least one of the punch and the die of the desired bead tool based on the plurality of parameters; providing, by the processor, a subset of bead tool data from the library of bead tool data; receiving, by the processor, a selection of bead tool data from the subset of bead tool data and the computed bead tool data; and generating, by the processor, bead geometry data based on the selection and the bead tool data associated with the selection.

A preformed shape capable of suppressing occurrence of cracks and wrinkles in a metal sheet can be determined by simple means. A metal sheet is press formed into a three-dimensionally shaped component. A method therefor includes a first step of press forming the metal sheet into an intermediate component having a preformed shape including a shape of the three-dimensionally shaped component crushed under a load applying condition for applying load in a direction in which at least a part of the three-dimensionally shaped component is straightened and a second step of press forming the intermediate component into the three-dimensionally shaped component.

A vanadium silicon nitride film formed as a hard film to a base material satisfies 0.30≤a/b≤1.7 and 0.24≤b≤0.36 when a=vanadium element concentration [at %]/(vanadium element concentration [at %]+silicon element concentration [at %]+nitrogen element concentration [at %]) and b=silicon element concentration [at %]/(vanadium element concentration [at %]+silicon element concentration [at %]+nitrogen element concentration [at %]), and has a hardness of 2300 HV or more.