Abstract: A method of making a beam-box crash management system comprises forming a first shell (100a) from a first sheet metal blank by a hot forming process. The first shell has a high tensile strength beam portion (102a) and integrally formed there-with a first low yield strength crash box portion (104a) proximate a first end of the beam portion and second low yield strength crash box portion proximate a second end of the beam portion. The first shell also has an open face extending continuously along the beam portion and each of the first and second crash box portions (104a, 106a). A closing element (100b) is formed from a second sheet metal blank, and is fixedly secured adjacent to the open face of the first shell.

Abstract: A method of making a beam-box crash management system comprises forming a first shell (100a) from a first sheet metal blank by a hot forming process. The first shell has a high tensile strength beam portion (102a) and integrally formed there-with a first low yield strength crash box portion (104a) proximate a first end of the beam portion and second low yield strength crash box portion proximate a second end of the beam portion. The first shell also has an open face extending continuously along the beam portion and each of the first and second crash box portions (104a, 106a). A closing element (100b) is formed from a second sheet metal blank, and is fixedly secured adjacent to the open face of the first shell.

Abstract: The present invention relates to an energy absorption apparatus having a first hollow longitudinal section (2) with a first cross-sectional width (5) and a second hollow longitudinal section (3) with a second cross-sectional width (6) and having an overlapping transition region (4) between the hollow longitudinal sections. The invention also relates to a method for producing an integral energy absorption apparatus. In order to provide an energy absorption apparatus having an easily determinable deformation response, the second hollow longitudinal section is designed to have a higher strength than the first hollow longitudinal section. In the method according to the invention for producing an energy absorption apparatus, a tube with a first cross-sectional width is narrowed, in sections, to the second cross sectional width so as to form the hollow longitudinal sections and the tube is compressed, as a result of which the overlapping transition region is formed.

Abstract: Anti-forgery security label comprising at least one lacquer coat which has been applied to a printed support film and then hardened.

Abstract: The invention relates to a method for producing a laser-printable film (1). According to the inventive method, an engraving layer (11) comprising a UV-cured coating is printed onto a support film (10). A base layer (14) that comprises an electron-beam cured coating is applied on top of the engraving layer (11). The film is then cured by electron irradiation.