Abstract: A security element for securities or security papers has at least one first region having first structures, which first structures reflect a first piece of information into different spatial regions, so that a movement image is created for a viewer with corresponding movement of a light source and/or a change in the viewing angle. When the light source and/or when the viewing angle is changed, a movement of the first piece of information is simultaneously created. The security element is thereby formed with at least one second region having second structures, which second structures reproduce a static and/or viewing angle-independent second piece of information. In addition, a process manufactures a security element.

Abstract: A security element has machine-readable magnetic security features in the form of at least two magnetic materials which have different magnitudes of coercive force and which are provided as a mixture in at least one printing ink that is applied onto a carrier substrate, wherein the at least one printing ink is provided in at least two regions on the security element with the same thickness and/or different thicknesses, and a defined mixture ratio of the at least two magnetic materials with different magnitudes of coercive force is provided in the at least one printing ink.

Abstract: A polymer substrate for producing polymer papers of value or polymer security papers is described. The polymer substrate may include a polymer carrier layer, at least one security element applied at least one of onto and into the polymer carrier layer, and a primer. The primer may be applied onto at least one of a first substrate side and a second substrate side of the polymer substrate. The primer may be arranged, at least in some sections, between the polymer carrier layer and the at least one security element. Additionally and/or alternatively, the primer may cover at least one of the at least one security element and the polymer carrier layer such that regions of the at least one security element covered by the primer are not as well visible as regions of the at least one security element and/or the polymer carrier layer not covered by the primer.

Abstract: A method for producing polymer papers of value or polymer security papers is described. The method may include providing a polymer substrate of at least one polymer. The polymer substrate may have a first substrate side and a second substrate side. The method may also include providing a security element that includes a transfer film. The transfer film may include at least one security feature and a detachable carrier film. The method may further include applying the transfer film at least one of onto the first substrate side and onto the second substrate side, connecting the at least one security feature to at least one of the first substrate side and the second substrate side, and removing the detachable carrier film.

Abstract: A substrate for producing papers of value or security papers is described. The substrate may include a carrier layer, at least one security element applied at least one of onto and into the carrier layer, and a primer. The primer may be applied onto at least one of a first substrate side and a second substrate side of the substrate. The primer may be arranged, at least in some sections, between the carrier layer and the at least one security element. Additionally and/or alternatively, the primer may cover the at least one security element and/or the carrier layer such that regions of the at least one security element covered by the primer are not as well visible as regions of the at least one security element and/or the carrier layer not covered by the primer. The at least one security element may include a partial, reflective layer forming an image.

Abstract: A flat security element with optical security features includes at least one first surface region with a first sub-wavelength structure. The structure elements that define the first sub-wavelength structure periodically repeat in the plane of the security element. In order to be able to convey a motif with increased forgery protection using at least two different color impressions, which motif is easy to produce, the first sub-wavelength structure of at least one partial region of the first surface region is additionally provided with an interference coating for producing a color-shifting effect.

Abstract: A security element for securities or security papers has an embossing with, in particular diffractive, embossed structures, wherein the embossed structures are at least partially coated with a partial, metallic layer forming a tessellated image. The embossed structures may be designed as achromatic embossed structures and may form a relief adapted to the tessellated image.

Abstract: The invention relates to a metallized film, in particular a metallized plastic film, which comprises a metallic layer on at least one surface, characterized in that it comprises the following layers in the indicated order: a) a carrier substrate of a plastic film b) a lacquer layer as an adhesion promoter layer c) a metallic layer applied, in particular directly, to the lacquer layer d) optionally a cover layer.

Abstract: A security element has machine-readable magnetic security features in the form of at least two magnetic materials which have different magnitudes of coercive force and which are provided as a mixture in at least one printing ink that is applied onto a carrier substrate, wherein the at least one printing ink is provided in at least two regions on the security element with the same thickness and/or different thicknesses, and a defined mixture ratio of the at least two magnetic materials with different magnitudes of coercive force is provided in the at least one printing ink.

Abstract: The invention relates to a method for producing a security feature (1) in the form of a colored image (2), a colorant being applied to a substrate (3) to produce the image, the image (2) being subdivided into grid areas, immediately adjacent grid areas (4, 5, 6, 9, 10, 11) of the image (2) partially overlapping, an overlapping area (7, 8) of immediately adjacent grid areas (4, 5, 6, 9, 10, 11) being smaller than one of the grid areas (4, 5, 6, 9, 10, 11), grid areas (4, 5, 6, 9, 10, 11) of the image (2) being each assigned at least one color, and at least the areas of the substrate (3) corresponding to the respective grid areas (4, 5, 6, 9, 10, 11) minus the corresponding overlapping areas (7, 8) being covered with at least one colorant of the respectively assigned color, the overlapping areas (7, 8) between adjacent grid areas (4, 5, 6, 9, 10, 11) being covered at least with the colorant having the color assigned to one of the grid areas (4, 5, 6, 9, 10, 11) overlapping in the respective overlapping areas (7

Abstract: A security element and a value document having such a security element in the form of a strip having a first and second polymer layer are shown, having a visually recognizable halftone printed image, which is luminescent under UV radiation, between the first and second layer, wherein the halftone printed image has an opacity and forms at least one imprint area having a boundary contour within the security element. To increase the forgery protection, it is proposed that at least one of the two polymer layers have an opacity at least in the region of the boundary contour of the imprint area and be adapted in its opacity to the opacity of the imprint area, in order to diminish the visual recognizability of the boundary contour of the imprint area of the luminescent halftone printed image on the security element.

Abstract: A value document having a security element in the form of a strip with a first polymer layer which comprises at least one embossed diffraction structure, having at least one reflection layer which visually interacts with the diffraction structure in order to form a reflection hologram as the first visually recognisable security feature, and having at least one imprint which is luminescent under UV radiation and which forms a second security feature that is visually recognisable under UV light, wherein the reflection hologram comprises at least one see-through region on the second security feature. In order to increase the level of protection against forgery of the security element, the luminescent imprint comprises a halftone print image, and the see-through region is formed by at least one recess in the reflection layer and by the polymer layer which is free in this region of the recess from the diffraction structure at least above the halftone print image of the imprint.

Abstract: A method for producing a security element with a metallized optical diffraction structure in an embossed coating layer in which a coating layer is applied onto a support, then embossed and cured; structural depressions, structural elevations, and an optical diffraction structure are produced by embossing the coating layer, then a reflective layer is provided on the structural depressions and structural elevations of the embossed coating layer by means of metallization, and after that, this reflective layer is selectively demetallized.

Abstract: A security element (100, 101) and a value document (200, 201) having such a security element (100, 101) in the form of a strip having a first (1) and second polymer layer (2) are shown, baying a visually recognizable grid primed image (3), which is luminescent under UV radiation, between the first (1) and second layer (2), wherein the grid printed image (3) has an opacity and forms at least one imprint area (5) having a boundary contour (4) within the security element (100, 101). To increase the forgery protection, it is proposed that at least one of the two polymer layers (1, 2) have an opacity at least in the region of the boundary contour (4) of the imprint area (5) and be adapted in its opacity to the opacity of the imprint area (5), in order to diminish the visual recognizability of the boundary contour (4) of the imprint area (5) of the luminescent grid printed image (3) on the security element (100, 101).

Abstract: A planar carrier, in particular a decorative strip, for applying to an object, having a polymeric carrier layer and a polymeric coating layer which is connected to the carrier layer and which has a surface at least partially imprinted by means of a reverse coating in particular on release paper. In order to provide advantageous construction conditions, the carrier layer, which takes the form of a carrier film, has a higher elastic property than the coating layer which consists of a radiation-curable duroplastic polymer, in particular UV coating, in order to at least partially reduce mechanical stresses.

Abstract: The invention relates to a security element comprising a carrier substrate comprising a transparent or translucent area carrying at least one digitised mark made of at least one set of dots appearing as a three dimensional mark when viewed in transmitted light. The invention relates to a security support or document or article comprising the said security element and to the method of identification and/or authentication of this security support or document or article.

Abstract: A device for the storage of at least one of solid, liquid or gaseous objects. The device including at least one compartment that is configured to contain at least one object. The filling or emptying of the compartment triggers an electrically-readable signal. In one embodiment, the compartment may be mechanically modified and an electrically-readable signal is generated based on a corresponding mechanical change to the compartment. An electrical data memory with at least one memory cell is integrated into the device. The memory cell is assigned to the compartment. The memory cell is configured to adopt a value corresponding to the mechanical change to the compartment. The device also includes an analytical circuit for reading the data memory.

Abstract: A vapor-deposited metallized film is disclosed including a metallized film that is vapor-deposited across the entire surface, and a metallized film that has been coated a number of times and also a method for producing a vapor-deposited metallized film, a metallized film that is vapor-deposited across the entire surface, and a metallized film that has been coated a number of times, wherein either a structure is printed onto a substrate or onto a supporting film with a soluble ink or the base materials are directly cleaned in a vacuum by means of plasma processing and are simultaneously initiated with target atoms, and wherein a metal or the like is vapor-deposited thereon followed by a production of the structured layer, for multiple uses, for example, in securities, as a radio frequency antenna for transponders and the like.

Abstract: A vapor-deposited metallized film is disclosed including a metallized film that is vapor-deposited across the entire surface, and a metallized film that has been coated a number of times and also a method for producing a vapor-deposited metallized film, a metallized film that is vapor-deposited across the entire surface, and a metallized film that has been coated a number of times, wherein either a structure is printed onto a substrate or onto a supporting film with a soluble ink or the base materials are directly cleaned in a vacuum by means of plasma processing and are simultaneously initiated with target atoms, and wherein a metal or the like is vapor-deposited thereon followed by a production of the structured layer, for multiple uses, for example, in securities, as a radio frequency antenna for transponders and the like.

Abstract: A partially vapor-deposited metallized film is disclosed including a metallized film that is vapor-deposited across the entire surface, and a metallized film that has been coated a number of times and also a method for producing a partially vapor-deposited metallized film, a metallized film that is vapor-deposited across the entire surface, and a metallized film that has been coated a number of times, wherein either a structure is printed onto a substrate or onto a supporting film with a soluble ink (washable ink) or the base materials are directly cleaned in a vacuum by means of plasma processing and are simultaneously initiated with target atoms, and wherein a metal or the like is vapor-deposited thereon followed by a production of the structured layer, for multiple uses, for example, in securities, as a radio frequency antenna for transponders and the like.