Abstract: Please substitute the new Abstract submitted herewith for the original Abstract: A method and device for additively manufacturing components. In the method and device, a printing device is provided for additively manufacturing components, wherein the printing device comprises an extruder apparatus, a manifold apparatus connected to the extruder apparatus, and a plurality of spaced-apart nozzles. Furthermore, a plurality of components are manufactured by the printing device, wherein extrusion material is conveyed from the extruder apparatus via the manifold apparatus to the nozzles, and wherein the components are manufactured simultaneously.

Abstract: A tool for producing a lamp body includes a tool head having an optical waveguide exit opening, an optical waveguide provision device for providing an optical waveguide at the optical waveguide exit opening, and a positioning element which has an optical waveguide guide surface and is displaceable along an axis that extends at a distance from the optical waveguide exit opening.

Abstract: A vehicle component integrates an environment detection sensor into a vehicle. The vehicle component is in the form of a plastic component and has a main body with a recess for receiving the environment detection sensor. Towards a visible side of the vehicle component, the recess is delimited by a cover portion which has a signal passage surface or a signal passage opening.

Abstract: A method and a device are disclosed for heating carbon fiber strands. The method heats a carbon fiber strand by supplying an electric current to the carbon fiber strand. The device is designed to carry out the method.

Abstract: A method is provided for producing unidirectional carbon fiber cloth by providing a plurality of precursors, wherein each precursor has a plurality of individual filaments, carbonizing the plurality of precursors into a plurality of carbon fiber bundles, subsequently producing a unidirectional carbon fiber cloth from the plurality of carbon fiber bundles, and subsequently winding the unidirectional carbon fiber cloth produced. A device is provided for producing a unidirectional carbon fiber cloth having at least one heat treatment unit for carbonizing a plurality of precursors into a plurality of carbon fiber bundles, a connecting arrangement for producing the unidirectional carbon fiber cloth from the carbon fiber bundles created, and a back beam for winding the unidirectional carbon fiber cloth onto the back beam.

Abstract: A method and a device are disclosed for heating carbon fiber strands. The method heats a carbon fiber strand by supplying an electric current to the carbon fiber strand. The device is designed to carry out the method.

Abstract: A method for producing a carbon fiber bundle includes the acts of: providing at least one precursor, mechanically stabilizing the at least one precursor, and subsequently introducing the mechanically stabilized precursor into at least one thermal treatment device for converting the at least one precursor into at least one carbon fiber bundle. A device for producing a carbon fiber bundle has at least one oxidation furnace and a downstream carbonizing device for carbonizing a precursor to form the carbon fiber bundle, wherein a stabilizing device for mechanically stabilizing the precursor, which is introduced into the oxidation furnace, is connected upstream of the at least one oxidation furnace.

Abstract: A method is provided for producing unidirectional carbon fiber cloth by providing a plurality of precursors, wherein each precursor has a plurality of individual filaments, carbonizing the plurality of precursors into a plurality of carbon fiber bundles, subsequently producing a unidirectional carbon fiber cloth from the plurality of carbon fiber bundles, and subsequently winding the unidirectional carbon fiber cloth produced. A device is provided for producing a unidirectional carbon fiber cloth having at least one heat treatment unit for carbonizing a plurality of precursors into a plurality of carbon fiber bundles, a connecting arrangement for producing the unidirectional carbon fiber cloth from the carbon fiber bundles created, and a back beam for winding the unidirectional carbon fiber cloth onto the back beam.

Abstract: A method for production of fiber composite components, particularly suitable for the production of profiles of complicated shape with varying profile cross-section and/or with at least parts with curved lines, such as used for the production of aircraft, for example. The method (a) produces plural core components, (b) separates application of a first fiber material to each of the core components, (c) assembles the core components provided with the first fiber material to form a sequence of core components, (d) applies a second fiber material common to the core component sequence along at least one side of the core component sequence, provided with the first fiber material, (e) impregnates and hardens the first and second fiber materials to form a fiber-reinforced component body, and (f) separates the component body into plural sections as represented by the fiber composite components.

Abstract: A method for producing a component having a base body made of a carbon fiber reinforced ceramic and a protective layer which is applied on the base body includes the following steps: providing the base body: applying a first layer on the base body, the first layer comprising a slip with reactive carbon; applying a second layer on the first layer, the second layer comprising a slip with silicon. The application of the layers can be carried out by painting, brushing, filling or dipping techniques, or by fully automatable spraying devices. Finally, the silicon of the second layer is liquefied in a thermal treatment, so that the liquid silicon penetrates into the first layer and forms with the reactive carbon a reaction protective layer composed of a silicon carbide compound.

Abstract: A fiber composite component is at least partially produced by braiding. It comprises a core element which has at least one concavely constructed face that is adjoined by a passage opening. Respective opposite transverse or longitudinal sides of the core element and the side of the passage opening not bounded by the core element are enclosed by a braided fiber composite loop element.

Abstract: A fiber composite component is at least partially produced by braiding. It comprises a core element which has at least one concavely constructed face that is adjoined by a passage opening. Respective opposite transverse or longitudinal sides of the core element and the side of the passage opening not bounded by the core element are enclosed by a braided fiber composite loop element.

Abstract: A method for production of fiber composite components, particularly suitable for the production of profiles of complicated shape with varying profile cross-section and/or with at least parts with curved lines, such as used for the production of aircraft, for example. The method (a) produces plural core components, (b) separates application of a first fiber material to each of the core components, (c) assembles the core components provided with the first fiber material to form a sequence of core components, (d) applies a second fiber material common to the core component sequence along at least one side of the core component sequence, provided with the first fiber material, (e) impregnates and hardens the first and second fiber materials to form a fiber-reinforced component body, and (f) separates the component body into plural sections as represented by the fiber composite components.

Abstract: A fiber composite component is at least partially produced by braiding. It comprises a core element which has at least one concavely constructed face that is adjoined by a passage opening. Respective opposite transverse or longitudinal sides of the core element and the side of the passage opening not bounded by the core element are enclosed by a braided fiber composite loop element.

Abstract: Method of producing fiber composite semifinished products by means of a circular braiding technique, a braiding core being braided with braiding threads which are unwound by means of bobbins circling concentrically about the braiding core in different directions, characterized in that the bobbins of one circling direction are fitted with reinforcing threads and the bobbins of the opposite circling direction are at least partially fitted with supporting threads, the supporting threads at least partially consisting of thermoplastic threads.

Abstract: Method of producing fiber composite semifinished products by means of a circular braiding technique, a braiding core being braided with braiding threads which are unwound by means of bobbins circling concentrically about the braiding core in different directions, characterized in that the bobbins of one circling direction are fitted with reinforcing threads and the bobbins of the opposite circling direction are at least partially fitted with supporting threads, the supporting threads at least partially consisting of thermoplastic threads.

Abstract: A fiber composite component is at least partially produced by braiding. It comprises a core element which has at least one concavely constructed face that is adjoined by a passage opening. Respective opposite transverse or longitudinal sides of the core element and the side of the passage opening not bounded by the core element are enclosed by a braided fiber composite loop element.

Abstract: A fiber composite crash structure has a hollow body which is produced entirely or partially from fiber composite material. Within the hollow body a web element is arranged running essentially in the longitudinal direction thereof. The web element is connected to the hollow body essentially in the contact region of web element and hollow body such that the structure is reinforced by reinforcing elements.

Abstract: A fiber composite crash structure has a hollow body which is produced entirely or partially from fiber composite material. Within the hollow body a web element is arranged running essentially in the longitudinal direction thereof. The web element is connected to the hollow body essentially in the contact region of web element and hollow body such that the structure is reinforced by reinforcing elements.