Abstract: A system for manufacturing assembly units. The system includes a component platform that is movably situated in a conveying direction, at least one layering unit for applying a layer, and at least one irradiation unit, which is situated downstream from the layering unit in the conveying direction of the component platform for selectively irradiating the layer for generatively assembling the layer.

Abstract: A method is described for producing a component, having a first constructive step in which a support material is applied onto a bearer using a photoelectric print method in the first constructive step to form at least one auxiliary structure, the auxiliary structure having and/or forming intermediate spaces, and having a second constructive step, in which a component material is filled into the intermediate spaces using a further photoelectric print method to form a component structure, the auxiliary structure and the component structure forming a blank segment of the component, the component material being a powder, the powder including composite particles, the composite particles being formed by ceramic and/or metallic core particles that include a polymer 23.

Abstract: A control device for controlling a manufacturing plant. The manufacturing plant includes at least one process station (for carrying out a manufacturing process. The manufacturing plant and/or the process station includes at least one process parameter for the purpose of regulation and/or control. The manufacturing plant and/or the process station including at least one detection device for detecting at least one process feature with the aid of a first control module and a second control module, the first control module and the second control module being designed to determine a control value and/or a model for the process parameter to regulate the manufacturing plant and/or the process station, based in each case on a machine learning algorithm and the process feature.

Abstract: A method integrates an electrical circuit into a device. The device has an integration surface consisting of a first material. The method includes processing the integration surface in order to form connection elements in order to increase an adhesion of a second material to the integration surface. The second material differs from the first material. The method also includes arranging the electrical circuit adjacent to the processed integration surface. The method furthermore includes applying a volume of the second material at least over the integration surface in order to enclose the electrical circuit in a fluid-tight manner.

Abstract: A method is described for manufacturing a three-dimensional product, in particular a hydraulic element, the method encompassing at least the following method steps: Providing a first section of the product to be manufactured, which includes at least one first connection point for a second section of the product to be manufactured; and producing the second section by an additive manufacture in which the at least one first connection point of the first section is used as a substrate for the additive manufacture of the second section.

Abstract: A method integrates an electrical circuit into a device. The device has an integration surface consisting of a first material. The method includes processing the integration surface in order to form connection elements in order to increase an adhesion of a second material to the integration surface. The second material differs from the first material. The method also includes arranging the electrical circuit adjacent to the processed integration surface. The method furthermore includes applying a volume of the second material at least over the integration surface in order to enclose the electrical circuit in a fluid-tight manner.

Abstract: A method is described for producing a component, having a first constructive step in which a support material is applied onto a bearer using a photoelectric print method in the first constructive step to form at least one auxiliary structure, the auxiliary structure having and/or forming intermediate spaces, and having a second constructive step, in which a component material is filled into the intermediate spaces using a further photoelectric print method to form a component structure, the auxiliary structure and the component structure forming a blank segment of the component, the component material being a powder, the powder including composite particles, the composite particles being formed by ceramic and/or metallic core particles that include a polymer 23.

Abstract: A method is described for manufacturing a three-dimensional product, in particular a hydraulic element, the method encompassing at least the following method steps: Providing a first section of the product to be manufactured, which includes at least one first connection point for a second section of the product to be manufactured; and producing the second section by an additive manufacture in which the at least one first connection point of the first section is used as a substrate for the additive manufacture of the second section.

Abstract: Production plant (1) for producing at least one end product (3) from at least one primary starting material (2), comprising at least one processing station (41-43) which processes at least one starting material (21-23) to form at least one product (31, 32, 33), and a process controller (51-53) which can control at least one variable (71-73), which is a measure of a quality feature of the product (31-33) and/or is correlated with a quality feature of the product (31-33), by influencing at least one manipulated variable (61-63) acting on the processing station (41-43), wherein the process controller (51-53) is additionally designed to control the production rate (31a-33a) of the processing station (41-43) for the product (31-33) and/or the consumption rate (21a-23a) of the processing station (41-43) with regard to starting material (21-23) by acting on the manipulated variable (61-63).

Abstract: A method is used to treat a surface of a brake disc to increase the adhesive power of a coating to the surface. The method includes roughening the surface by introducing at least one depression in the surface. The width of the depression is widened with increasing depth of the depression. A positive connection is formed between the brake disc and the coating via an undercut.

Abstract: A turbine wheel includes, a hub body, a plurality of turbine blades integrally formed with the hub body, and a shroud. The shroud encompasses the hub body, is integrally formed with the turbine blades, and interconnects the respective radial outer edges of the turbine blades. A method of producing the turbine wheel in one piece via primary forming includes applying a layer of powdered material having a predetermined layer thickness to a construction platform, selectively melting the layer of powdered material with reference to a current layer form of the turbine wheel, moving the construction platform by a predetermined amount, and repeating applying, selective melting, and moving until a last layer of the turbine wheel is formed.

Abstract: A method is used to treat a surface of a brake disc to increase the adhesive power of a coating to the surface. The method includes roughening the surface by introducing at least one depression in the surface. The width of the depression is widened with increasing depth of the depression. A positive connection is formed between the brake disc and the coating via an undercut.

Abstract: A method for machining a workpiece which includes a conductor which carries a time-variable current along its longitudinal axis and is guided by an upper guide and a lower guide. A magnetic field is produced between the guides, the upper guide being located at a distance above the magnetic field and the lower guide at a distance below the magnetic field.

Abstract: A method for machining a workpiece which includes a conductor which carries a time-variable current along its longitudinal axis and is guided by an upper guide and a lower guide. A magnetic field is produced between the guides, the upper guide being located at a distance above the magnetic field and the lower guide at a distance below the magnetic field.