Abstract: A protective cover for an electronic device for instance a measuring cell including a ceramic pressure measuring cell, that includes at least one connecting element that provides a data connection, the protective cover having an electrical circuit for instance an application-specific integrated circuit.

Abstract: The present invention relates to a measuring arrangement for determining a pressure of a fluid comprising a pressure measuring cell, which has a measuring chamber, which is formed by means of a base body and a membrane, which is arranged on the front side of the base body so as to be spaced apart circumferentially, wherein the membrane can be deformed by means of the pressure of the fluid, at least one membrane electrode arranged on the membrane, and at least one base body electrode arranged opposite thereto on the base body, wherein a distance between the membrane electrode and the base body electrode changes due to a pressure change of the fluid acting on the membrane, so that a change in capacitance can be detected, characterized in that the measuring arrangement has a measuring device for determining a current flowing between the at least one membrane electrode and the at least one base body electrode.

Abstract: The present invention relates to methods for treating patients with compensated cirrhosis, comprising administering to a patient in need thereof a therapeutically effective amount of a soluble guanylate cyclase (sGC) activator, or a pharmaceutically acceptable salt thereof.

Abstract: The present invention relates to compounds of formula (I) and pharmaceutically acceptable salts thereof, wherein R1, R2, R3, R4, R5, R6 and R7 are as defined herein, for use in the treatment of diseases or disorders that can be alleviated by sGC activation or potentiation, selected from chronic liver diseases, Non-Alcoholic Steatohepatitis (NASH), cirrhosis and portal hypertension.

Abstract: An apparatus for in-situ calibration of a photoacoustic sensor includes a measurement device configured to measure an electric signal at an IR emitter of the photoacoustic sensor, wherein the IR emitter generates an electromagnetic spectrum based on the electric signal; and a calibration unit including processing circuitry, configured to compare the electric signal with a comparison value to generate a comparison result used as calibration information. When performing the in-situ calibration, the calibration unit is configured to adjust the electric signal based on the calibration information, or the calibration unit is configured to process an output signal of the photoacoustic sensor based on the calibration information to obtain an adjusted output signal of the photoacoustic sensor.

Abstract: A metallic pressure measuring cell having a base body, a metallic membrane situated and a pressure sensor situated in a sensor chamber of the base body, wherein the pressure on the membrane is transmitted to the pressure sensor by a connecting channel formed between a membrane chamber and a sensor chamber, wherein the chambers and connecting channel are filled with a pressure transmitting medium.

Abstract: A gas sensor includes a multi-wafer stack of a plurality of layers and a measurement chamber. The plurality of layers includes a first layer comprising a sensor element that has a microelectromechanical system (MEMS) membrane; and a second layer comprising an emitter element configured to emit electromagnetic radiation. The measurement chamber is interposed between the first layer and the second layer. The measurement chamber is configured to receive a measurement gas and further receive the electromagnetic radiation emitted by the emitter element as the electromagnetic radiation travels along a radiation path from a first end of the measurement chamber to a second end of the measurement chamber that is opposite to the first end.

Abstract: A method for manufacturing a webbing (20) for a seat belt system in a vehicle comprises the following steps of: weaving the webbing (20) using a first yarn (30) and a second yarn (32), the first yarn (30) and the second yarn (32) reflecting light in the spectrum invisible to humans with different intensity, wherein the first and second yarns (30, 32) form a pattern (36), and overdying the webbing (20) so that the webbing (20) reflects light in the spectral range visible to humans in such a way that it has a homogenous appearance for humans. Moreover, such a webbing (20) and a vehicle comprising such a webbing (20) are provided.

Abstract: An apparatus for in-situ calibration of a photoacoustic sensor includes a measurement device configured to measure an electric signal at an IR emitter of the photoacoustic sensor, wherein the IR emitter generates an electromagnetic spectrum based on the electric signal; and a calibration unit including processing circuitry, configured to compare the electric signal with a comparison value to generate a comparison result used as calibration information. When performing the in-situ calibration, the calibration unit is configured to adjust the electric signal based on the calibration information, or the calibration unit is configured to process an output signal of the photoacoustic sensor based on the calibration information to obtain an adjusted output signal of the photoacoustic sensor.

Abstract: An apparatus for in-situ calibration of a photoacoustic sensor is provided. The apparatus includes a calibration unit that includes at least one processor configured to calculate calibration information. A light emitter of the photoacoustic sensor is configured to emit an electromagnetic spectrum and the photoacoustic sensor is configured to provide at least two measurement signals based on at least two electromagnetic spectra. The calibration unit is configured to compare the at least two measurement signals to obtain the calibration information and apply the calibration information to the photoacoustic sensor to perform the in-situ calibration.

Abstract: A metallic pressure measuring cell having a base body, a metallic membrane situated on the base body, wherein a membrane chamber is formed between the membrane and the base body, a pressure sensor situated in a sensor chamber of the base body, wherein a connecting channel is formed between the membrane chamber and the sensor chamber and the chambers are filled with a pressure transmitting medium for transmitting a pressure acting on the membrane, characterized in that the membrane comprises a surface structure, which, in a plan view, at least overlaps an outer contour of an inlet area of the connecting channel into the membrane chamber.

Abstract: A voice-interaction device includes a plurality of input and output components configured to facilitate interaction between the voice-interaction device and a target user. The plurality of input and output components may include a microphone configured to sense sound and generate an audio input signal, a speaker configured to output an audio signal to the target user, and an input component configured to sense at least one non-audible interaction from the target user. A context controller monitors the plurality of input and output components and determines a current use context. A virtual assistant module facilitates voice communications between the voice-interaction device and the target user and configures one or more of the input and output components in response to the current use context. The current use context may include whisper detection, target user proximity, gaze direction tracking and other use contexts.

Abstract: A gas sensor includes a multi-wafer stack of a plurality of layers and a measurement chamber. The plurality of layers includes a first layer comprising a sensor element that has a microelectromechanical system (MEMS) membrane; and a second layer comprising an emitter element configured to emit electromagnetic radiation. The measurement chamber is interposed between the first layer and the second layer. The measurement chamber is configured to receive a measurement gas and further receive the electromagnetic radiation emitted by the emitter element as the electromagnetic radiation travels along a radiation path from a first end of the measurement chamber to a second end of the measurement chamber that is opposite to the first end.

Abstract: A gas sensor includes a multi-wafer stack of a plurality of layers and a measurement chamber. The plurality of layers includes a first layer comprising a sensor element that has a microelectromechanical system (MEMS) membrane; and a second layer comprising an emitter element configured to emit electromagnetic radiation. The measurement chamber is interposed between the first layer and the second layer. The measurement chamber is configured to receive a measurement gas and further receive the electromagnetic radiation emitted by the emitter element as the electromagnetic radiation travels along a radiation path from a first end of the measurement chamber to a second end of the measurement chamber that is opposite to the first end.

Abstract: A gas sensor includes a multi-wafer stack of a plurality of layers and a measurement chamber. The plurality of layers includes a first layer comprising a sensor element that has a microelectromechanical system (MEMS) membrane; and a second layer comprising an emitter element configured to emit electromagnetic radiation. The measurement chamber is interposed between the first layer and the second layer. The measurement chamber is configured to receive a measurement gas and further receive the electromagnetic radiation emitted by the emitter element as the electromagnetic radiation travels along a radiation path from a first end of the measurement chamber to a second end of the measurement chamber that is opposite to the first end.

Abstract: Shown is a wafer arrangement for a gas sensor including a first substrate and a sescond substrate. The first substrate includes a MEMS membrane associated with a sensor element and an emitter element configured to emit electromagnetic radiation. The second substrate is arranged on top of the first substrate and defines at least a portion of a chamber disposed adjacent to the MEMS membrane.

Abstract: A method for operating a control unit of a motor vehicle including a function unit and a monitoring unit which have a communication connection to one another. In a first check, the function unit is checked for errors, an error of the function unit being inferred if an error counter reaches a threshold value, and the monitoring unit and the function unit exchange first data with one another. In the event of a correct exchange of the first data, a positive change of the error counter is carried out. Otherwise, a negative change of the error counter is carried out. In a second check, the monitoring unit and the function unit exchange second data with one another. In the event of an incorrect exchange of the second data, a negative change of the error counter and a negative change of the threshold value are carried out.

Abstract: An apparatus for in-situ calibration of a photoacoustic sensor is provided. The apparatus includes a light emitter to emit light along a transmission path to a gas and an acoustic sensor element configured to detect an acoustic signal emitted from the gas based on the received light. Furthermore, the apparatus includes a sensing unit configured to detect the light transmitted along the transmission path and to provide an output signal, and a calibration unit to receive the output signal from the sensing unit and to provide a calibration information based on the output signal received from the sensing unit.

Abstract: An apparatus for in-situ calibration of a photoacoustic sensor is provided. The apparatus includes a light emitter to emit light along a transmission path to a gas and an acoustic sensor element configured to detect an acoustic signal emitted from the gas based on the received light. Furthermore, the apparatus includes a sensing unit configured to detect the light transmitted along the transmission path and to provide an output signal, and a calibration unit to receive the output signal from the sensing unit and to provide a calibration information based on the output signal received from the sensing unit.

Abstract: Shown is a wafer arrangement for a gas sensor including a first substrate and a sescond substrate. The first substrate includes a MEMS membrane associated with a sensor element and an emitter element configured to emit electromagnetic radiation. The second substrate is arranged on top of the first substrate and defines at least a portion of a chamber disposed adjacent to the MEMS membrane.