Abstract: An actuator-sensor system for controlled diverting or deflecting of electromagnetic radiation in at least one axis (9), with an actuator (5) for mechanically moving a deflecting element (10) and with a measuring element (2) for sensing the position of the deflecting element (10), where the measuring element (2) includes a flat substrate (3) having at least one sensor element (4). Furthermore, the present disclosure relates to a fast steering mirror (FSM).

Abstract: 1. A device for the contactless distance and/or position determination of a measurement object (1), with an electrically conductive measurement object (1) and with a sensor (3) operating in particular according to the inductive, capacitive or the eddy current principle, wherein the sensor (3) comprises a measurement device (4), characterized in that the measurement device (4) is formed by at least two measurement elements (5, 5?, 5?) which are spatially separated from each other. Moreover, a corresponding sensor (3) is indicated.

Abstract: With regard to reliable measurements in the high temperature range with constructionally simple means, the invention relates to a displacement sensor operating without contact having a sensor element (1) suitable for high temperatures and electronics comprising drive and/or evaluation electronics that are coupled electrically to the sensor element (1), which displacement sensor is characterized in that the electronics are designed for a temperature range above 125° C. and are connected directly to the sensor element (1) or integrated in the sensor element (1).

Abstract: An inductively operating sensor, particularly for measuring distances and positions of a metallic object, comprising at least a coil, a ferromagnetic or ferritic core and perhaps a housing comprising a sensor element, with the core being embedded in a single or multi-layered ceramic and jointly with the ceramic forming a coil body and with the coil body and the core being connected to each other in a form-fitting fashion. Furthermore, a method is suggested for producing such a sensor.

Abstract: 1. A device for the contactless distance and/or position determination of a measurement object (1), with an electrically conductive measurement object (1) and with a sensor (3) operating in particular according to the inductive, capacitive or the eddy current principle, wherein the sensor (3) comprises a measurement device (4), characterized in that the measurement device (4) is formed by at least two measurement elements (5, 5?, 5?) which are spatially separated from each other. Moreover, a corresponding sensor (3) is indicated.

Abstract: A temperature sensor comprising a sensor element that is arranged in a housing, is characterized in that the sensor element is totally enclosed with a thermally conductive material, preferably with a thermally conductive paste, inside the housing.

Abstract: A bushing of an electrical conductor through a wall which separates two regions from one another, wherein the conductor extends through a passage in the wall, at a distance from said wall, characterized in that a sleeve, which is electrically insulated from the passage and is hermetically sealed, preferably extends approximately coaxially through the passage, and in that the electrical conductor extends through the sleeve and is incorporated in the sleeve in a hermetically sealed, preferably integral, manner.

Abstract: A sensor comprises a preferably multi-layer ceramic substrate (2) and at least one sensor element (1) arranged in, at, or on the ceramic substrate (2). The sensor element (1) can be contacted via a metallic contact (6), with the metallic contact (6) being produced via a soldering connection, which electrically connects the contact (6) with the sensor element (1) and here generates a fixed mechanic connection of the contact (6) in reference to the ceramic substrate (2). Furthermore, a method is claimed for producing the sensor according to the invention.

Abstract: A sensor comprises a housing which defines a measuring side and a connection side, a coil (6) which is arranged in the housing (1) on the measuring side, and a cover (14) for closing the housing on the measuring side. The housing (1) consists of ferromagnetic material, in particular ferromagnetic steel. The coil (6) is positioned and fixed in the housing close to the cover (14) or directly on the cover (14).

Abstract: The invention relates to a sensor, comprising a sensor element (1) that operates without contact, an electronic component (5), and a housing (2) having an electrical/electronic connection. The sensor element (1) is part of the housing (2) and is used to close and seal the housing (2) with respect to the measurement side (3).

Abstract: An eddy current sensor that works in contact-free manner, for temperature measurement on an electrically conductive measurement object or component, wherein the measurement is independent of the distance between the sensor and the measurement object/component, characterized by determination of the inherent temperature of the sensor, preferably at the location of the measurement coil of the sensor, wherein the influence of the inherent temperature of the sensor or of a temperature gradient at the sensor on the result of the temperature measurement on the measurement object or component is compensated. A system comprises a corresponding sensor and an electrically conductive measurement object. A method serves for temperature measurement on a measurement object or component, by means of a corresponding sensor.

Abstract: A sensor comprises a preferably multi-layer ceramic substrate (2) and at least one sensor element (1) arranged in, at, or on the ceramic substrate (2). The sensor element (1) can be contacted via a metallic contact (6), with the metallic contact (6) being produced via a soldering connection, which electrically connects the contact (6) with the sensor element (1) and here generates a fixed mechanic connection of the contact (6) in reference to the ceramic substrate (2). Furthermore, a method is claimed for producing the sensor according to the invention.

Abstract: The invention relates to a sensor, comprising a sensor element (1) that operates without contact, an electronic component (5), and a housing (2) having an electrical/electronic connection. The sensor element (1) is part of the housing (2) and is used to close and seal the housing (2) with respect to the measurement side (3).

Abstract: A bushing of an electrical conductor through a wall which separates two regions from one another, wherein the conductor extends through a passage in the wall, at a distance from said wall, characterized in that a sleeve, which is electrically insulated from the passage and is hermetically sealed, preferably extends approximately coaxially through the passage, and in that the electrical conductor extends through the sleeve and is incorporated in the sleeve in a hermetically sealed, preferably integral, manner.

Abstract: A sensor comprises a housing which defines a measuring side and a connection side, a coil (6) which is arranged in the housing (1) on the measuring side, and a cover (14) for closing the housing on the measuring side. The housing (1) consists of ferromagnetic material, in particular ferromagnetic steel. The coil (6) is positioned and fixed in the housing close to the cover (14) or directly on the cover (14).

Abstract: An inductively operating sensor, particularly for measuring distances and positions of a metallic object, comprising at least a coil, a ferromagnetic or ferritic core and perhaps a housing comprising a sensor element, with the core being embedded in a single or multi-layered ceramic and jointly with the ceramic forming a coil body and with the coil body and the core being connected to each other in a form-fitting fashion. Furthermore, a method is suggested for producing such a sensor.

Abstract: According to the invention, a method for compensating for temperature related measurement errors in an optical arrangement, comprising at least one lens is designed with a view to an economical and reliable as possible compensation for temperature related measurement errors without significant increased production expense, wherein a multicolored beam is passed through the optical arrangement, which is focused at points at varying distances from the lens as a result of the chromatic aberration of the lens, at least a part of the spectrum of the light beam being at least partly reflected within the optical arrangement and directed to a detector device by means of which a determination of a spectrum is carried out, the temperature of the arrangement is determined from the spectrum recorded by the detection device and a compensation for temperature related measurement errors is carried out based on the temperature determined thus. A corresponding optical arrangement in disclosed.

Abstract: According to the invention, a method for compensating for temperature related measurement errors in an optical arrangement, comprising at least one lens (2) is designed with a view to an economical and reliable as possible compensation for temperature related measurement errors without significant increased production expense, wherein a multicoloured beam (5) is passed through the optical arrangement (1, 1?), which is focussed at points at varying distances from the lens (2) as a result of the chromatic aberration of the lens (2), at least a part of the spectrum of the light beam (5) being at least partly reflected within the optical arrangement (1, 1?) and directed to a detector device (12) by means of which a determination of a spectrum is carried out, the temperature of the arrangement (1, 1?) is determined from the spectrum recorded by the detection device (12) and a compensation for temperature related measurement errors is carried out based on the temperature determined thus.