Abstract: A gas sensor comprises a set of one or more sensor cells (SC) and a substrate (1). Each sensor cell (SC) of the set comprises a sensitive film (42) built from a sensitive material (4) covering an area of the substrate (1). One or more elevated structures (2) are manufactured in or around said area for preventing the sensitive material (4) to expand when being applied thereto.

Abstract: The invention relates to a method for introducing a balancing mark into the compressor wheel of a turbocharger. According to the method, a milling tool is firstly moved in a first direction in order to introduce a recess into the compressor wheel, and the milling tool located in the recess then runs out in a second direction in order to convert the recess into a pear segment-shaped balancing mark. The invention furthermore relates to a turbocharger which comprises a compressor wheel that has one or more pear segment-shaped balancing marks.

Abstract: An electronic component comprises a carrier (3), a sensor device (2) mounted on the carrier (3), which sensor device (2) comprises a sensor chip (21), and an electrostatic discharge protection element (1) for protecting the sensor chip (21) from an electrostatic discharge, which protection element (1) is mounted on the carrier (3).

Abstract: The invention relates to a sensor module (1), comprising: at least a first sensor (10) that is designed to measure relative humidity and/or temperature, wherein the sensor module (1) is configured to be mounted in an automotive seat (2), which automotive seat (2) comprises a seat cover region (200) forming an outer surface (200a) of the seat that faces a passenger (P) sitting on the automotive seat (2), wherein the sensor module (1) is configured to be mounted such in said automotive seat (2) that it is spaced apart from said seat cover region (200). Further, the invention relates to an automotive seat (2) comprising such a sensor module (1).

Abstract: The present disclosure relates to a method for operating a medical system, comprising: providing a first threshold value for the physiological parameter in the control device, the first threshold value being assigned to a first receiving device configured to notify a user of the first receiving device in response to receiving signaling data from the control device; providing a second threshold value for the physiological parameter in the control device, the second threshold value being different from the first threshold value and assigned to a second receiving device which is different from the first receiving device and configured to notify a user of the second receiving device in response to receiving the signaling data from the control device; receiving a stream of monitoring data indicating a physiological parameter continuously monitored by the sensor device in the control device; determining a present value for the physiological parameter from the stream of monitoring data; and transmitting, in response

Abstract: The present disclosure relates to a method for operating a medical system, comprising: providing a first threshold value for the physiological parameter in the control device, the first threshold value being assigned to a first receiving device configured to notify a user of the first receiving device in response to receiving signaling data from the control device; providing a second threshold value for the physiological parameter in the control device, the second threshold value being different from the first threshold value and assigned to a second receiving device which is different from the first receiving device and configured to notify a user of the second receiving device in response to receiving the signaling data from the control device; receiving a stream of monitoring data indicating a physiological parameter continuously monitored by the sensor device in the control device; determining a present value for the physiological parameter from the stream of monitoring data; and transmitting, in response

Abstract: This disclosure relates to laser disk mounting systems and methods. The laser disk mounting systems comprise a disk module with a round disk-shaped heat sink having a front side, a rear side, and an edge surface connecting the front side and the rear side, and a laser disk arranged on the front side of the heat sink, and a radial mounting device with an opening for receiving the disk module, wherein the disk module is mounted in the radial mounting device such that a force action is applied in radial direction on the edge surface.

Abstract: Beam adaptation devices are disclosed for variable-astigmatic adjustment of electromagnetic radiation propagating along a beam axis of the beam adaptation device. The devices include a first astigmatism lens unit, which provides at least one first lens tiltable with respect to the beam axis for astigmatism adjustment, a divergence matching lens unit with a second lens for adjusting the divergence, wherein the distance between the second lens and the first lens along the beam axis is adjustable, and a second astigmatism lens unit with at least one third lens tiltable with respect to the beam axis for astigmatism adjustment. To adjust the magnitude of the electromagnetic radiation on the third lens, the distance between the second lens and the third lens along the beam axis is adjustable. The beam adaptation device can be used, for example, for astigmatic pre-compensation in frequency conversion.

Abstract: The present disclosure relates to a control system for controlling a medical system. The control system comprising: a portable device, a transmitter placed in a location of a local use environment of the portable device, and a data handling system comprising a detection module, a data interface, and a device controller functionally connected to the detection module and the data interface. The data handling system is configured to detect local vicinity of the portable device to the at least one transmitter by the detection module, receive input data from the at least one transmitter via the data interface, generate device control data for a medical device, comprising processing of the input data, and transmitting the device control data to a control device. Furthermore, a portable device, a method for controlling a medical system, and a computer program product for controlling a medical system by a control system are disclosed.

Abstract: Beam adaptation devices are disclosed for variable-astigmatic adjustment of electromagnetic radiation propagating along a beam axis of the beam adaptation device. The devices include a first astigmatism lens unit, which provides at least one first lens tiltable with respect to the beam axis for astigmatism adjustment, a divergence matching lens unit with a second lens for adjusting the divergence, wherein the distance between the second lens and the first lens along the beam axis is adjustable, and a second astigmatism lens unit with at least one third lens tiltable with respect to the beam axis for astigmatism adjustment. To adjust the magnitude of the electromagnetic radiation on the third lens, the distance between the second lens and the third lens along the beam axis is adjustable. The beam adaptation device can be used, for example, for astigmatic pre-compensation in frequency conversion.

Abstract: An electronic component comprises a carrier (3), a sensor device (2) mounted on the carrier (3), which sensor device (2) comprises a sensor chip (21), and an electrostatic discharge protection element (1) for protecting the sensor chip (21) from an electrostatic discharge, which protection element (1) is mounted on the carrier (3).

Abstract: The invention relates to a sensor module (1), comprising: at least a first sensor (10) that is designed to measure relative humidity and/or temperature, wherein the sensor module (1) is configured to be mounted in an automotive seat (2), which automotive seat (2) comprises a seat cover region (200) forming an outer surface (200a) of the seat that faces a passenger (P) sitting on the automotive seat (2), wherein the sensor module (1) is configured to be mounted such in said automotive seat (2) that it is spaced apart from said seat cover region (200). Further, the invention relates to an automotive seat (2) comprising such a sensor module (1).

Abstract: The invention relates to a method for introducing a balancing mark into the compressor wheel of a turbocharger. According to the method, a milling tool is firstly moved in a first direction in order to introduce a recess into the compressor wheel, and the milling tool located in the recess then runs out in a second direction in order to convert the recess into a pear segment-shaped balancing mark. The invention furthermore relates to a turbocharger which comprises a compressor wheel that has one or more pear segment-shaped balancing marks.