mhurhangee/ep-ind-claims huggingface dataset:
Steering wheel unit for a motor vehicle with a steering wheel body, an airbag module, which is accommodated in the hub region of the steering wheel body, can preferably be pressed down against the steering wheel body against the force of a spring element, and has a housing, an inflator connected to the housing and an airbag folded into the housing, at least three axial positioning units, which define the axial position of the non-pressed-down housing with respect to the steering wheel body, wherein each of the at least three axial positioning units has a module-side axial positioning element connected to the housing, or a steering-wheel-body-side axial positioning element connected to the steering wheel body, which element has a support part consisting of metal, characterised in that the at least three support parts are separate elements that are not connected to one another in one piece.
An explosive cartridge for receiving an explosive material when being arranged in a borehole, the explosive cartridge comprising: a supply body having a supply channel through which the explosive material is supplyable from outside of the borehole; a flexible tube being slid over an outer surface of the supply body in a longitudinally compressed manner and being configured so that, when the explosive material is supplied under pressure from outside of the borehole through the supply channel and fills an inner volume of the flexible tube, the flexible tube is longitudinally decompressed and slides off from the supply body to proceed towards an interior of the borehole; and a plurality of ring-shaped spacer elements slid over an outer surface of the flexible tube at a first distance from one another when the flexible tube is in the longitudinally compressed state and being spaced by a second distance from one another when the flexible tube is transferred into the decompressed state, wherein the second distance is larger than the first distance, wherein the ring-shaped spacer elements have a circular outer perimeter. a supply body having a supply channel through which the explosive material is supplyable from outside of the borehole; a flexible tube being slid over an outer surface of the supply body in a longitudinally compressed manner and being configured so that, when the explosive material is supplied under pressure from outside of the borehole through the supply channel and fills an inner volume of the flexible tube, the flexible tube is longitudinally decompressed and slides off from the supply body to proceed towards an interior of the borehole; and a plurality of ring-shaped spacer elements slid over an outer surface of the flexible tube at a first distance from one another when the flexible tube is in the longitudinally compressed state and being spaced by a second distance from one another when the flexible tube is transferred into the decompressed state, wherein the second distance is larger than the first distance, wherein the ring-shaped spacer elements have a circular outer perimeter.
A method of scheduling instructions within a parallel processing unit comprising: decoding, in an instruction decoder, an instruction in a scheduled task that is scheduled and in an active state; checking, by an instruction controller, if a targeted ALU, that is capable of executing the decoded instruction, is denoted as a primary instruction pipeline of a plurality of instruction pipelines; in response to determining that the targeted ALU is denoted as the primary instruction pipeline, checking a list associated with the primary instruction pipeline to determine whether the scheduled task is already included in the list, wherein the list associated with the primary instruction pipeline identifies scheduled tasks currently active on the primary instruction pipeline; and in response to determining that the scheduled task is already included in the list, sending the decoded instruction to the primary instruction pipeline. decoding, in an instruction decoder, an instruction in a scheduled task that is scheduled and in an active state; checking, by an instruction controller, if a targeted ALU, that is capable of executing the decoded instruction, is denoted as a primary instruction pipeline of a plurality of instruction pipelines; in response to determining that the targeted ALU is denoted as the primary instruction pipeline, checking a list associated with the primary instruction pipeline to determine whether the scheduled task is already included in the list, wherein the list associated with the primary instruction pipeline identifies scheduled tasks currently active on the primary instruction pipeline; and in response to determining that the scheduled task is already included in the list, sending the decoded instruction to the primary instruction pipeline.
Wearable device adapted to be worn by a user, the wearable device comprising - a fixation element for fixing the wearable device to the user; - a lower side for contacting a skin of the user when worn; and - a processing unit adapted to determine a sweat level measure indicative of an amount of sweat accumulated between the lower side of the wearable device and the skin of the user and indicative of an exposure to sweat over time; and to determine a moment in time for ventilating said lower side of the wearable device based on a said sweat level measure. - a fixation element for fixing the wearable device to the user; - a lower side for contacting a skin of the user when worn; and - a processing unit adapted to determine a sweat level measure
A multi-core optical fiber comprising: a central core formed at the center of cladding; and at least one outer core helically wound around the central core, wherein when an average of a distance d between the central core and the outer core is d ave, and the number of helical turns of the outer core per unit length is f w, an effective refractive index n e1 of the central core and an average n e2ave of effective refractive indices n e2 of the outer cores satisfy the following Formula: n e 1 × 1 ƒ w − B < n e 2 ave × 1 ƒ w + A < n e 1 × 1 ƒ w + B A = 1 ƒ w 2 + 2 πd ave 2 − 1 ƒ w B = A 1 + A ⋅ ƒ w a central core formed at the center of cladding; and at least one outer core helically wound around the central core, wherein when an average of a distance d between the central core and the outer core is d ave, and the number of helical turns of the outer core per unit length is f w, an effective refractive index n e1 of the central core and an average n e2ave of effective refractive indices n e2 of the outer cores satisfy the following Formula: n e 1 × 1 ƒ w − B < n e 2 ave × 1 ƒ w + A < n e 1 × 1 ƒ w + B A = 1 ƒ w 2 + 2 πd ave 2 − 1 ƒ w B = A 1 + A ⋅ ƒ w
Electrical/electronic installation device comprising a motion detector microprocessor, which, on the output side, actuates a switching element for a lighting device, and which, on the input side, receives signals from an IR detector/lens array, a daylight sensor, a time-setting system for presetting a switch-off delay, a dusk setting system for presetting a light value below which the device is intended to operate and a manual switching device which switches the lighting device, characterized - in that the time-setting system can be set to an infinitely large switch-off delay, i.e. the duration of the switch-off delay corresponds to an infinitely large time span and the lighting device, once switched on, accordingly also always remains in the switched-on state without any retriggering, and - in that the dusk setting system can be set to an infinitely small light value, i.e. the light value at which the device is intended to begin the detection of the infrared radiation corresponds to absolute darkness that can never be achieved in a natural environment and the lighting device, once switched off, accordingly also always remains in the switched-off state in the case where it is very dark despite detection of a "moving" heat source. - in that the time-setting system can be set to an infinitely large switch-off delay, i.e. the duration of the switch-off delay corresponds to an infinitely large time span and the lighting device, once switched on, accordingly also always remains in the switched-on state without any retriggering, and - in that the dusk setting system can be set to an infinitely small light value, i.e. the light value at which the device is intended to begin the detection of the infrared radiation corresponds to absolute darkness that can never be achieved in a natural environment and the lighting device, once switched off, accordingly also always remains in the switched-off state in the case where it is very dark despite detection of a "moving" heat source.
A Base Station, comprising: a Baseband Unit, BBU, configured to receive uplink signals of a User Equipment, UE, from at least one Radio Frequency, RF, group of multiple RF groups through at least one data channel of multiple data channels, to determine information about the at least one RF group which the uplink signals of the UE are received from and to allocate power of downlink signals of the UE in the multiple RF groups, the power of downlink signals of the UE is determined according to the information about the at least one RF group which the uplink signals of the UE are received from; wherein, the BBU is configured to connect with the multiple RF groups through the multiple data channels, the multiple RF groups belong to a same cell, an area which each of the multiple RF groups corresponds to in the cell is different from each other and one of the multiple RF groups which each of the multiple data channels corresponds to is different from each other. a Baseband Unit, BBU, configured to receive uplink signals of a User Equipment, UE, from at least one Radio Frequency, RF, group of multiple RF groups through at least one data channel of multiple data channels, to determine information about the at least one RF group which the uplink signals of the UE are received from and to allocate power of downlink signals of the UE in the multiple RF groups, the power of downlink signals of the UE is determined according to the information about the at least one RF group which the uplink signals of the UE are received from; wherein, the BBU is configured to connect with the multiple RF groups through the multiple data channels, the multiple RF groups belong to a same cell, an area which each of the multiple RF groups corresponds to in the cell is different from each other and one of the multiple RF groups which each of the multiple data channels corresponds to is different from each other.
A valve for a dispenser, the valve comprising: a valve body extending about a longitudinal axis, the valve body defining an outer surface and an inner passageway, wherein the inner passageway comprises a first passageway opening and a second passageway opening and a passageway surface extending from the first passageway opening to the second passageway opening; and a valve stem extending through the inner passageway, wherein a first portion of the valve stem extends through the first passageway opening, a second portion of the valve stem is substantially surrounded by the passageway surface, and a third portion of the valve stem extends through the second passageway opening, wherein the valve stem comprises an outer stem surface and an inner stem surface opposite the outer stem surface; and a retaining member joined to the third portion of the valve stem, wherein the retaining member extends outward from the outer stem surface, wherein the retaining member comprises a first retaining member surface and a second retaining member surface, wherein the retaining member comprises a void (174, 176, 178, 180) formed by a slit, an aperture or notch extending from the first retaining member surface to the second retaining member surface or formed by a slot extending from a retaining member perimeter toward the valve stem. a valve body extending about a longitudinal axis, the valve body defining an outer surface and an inner passageway, wherein the inner passageway comprises a first passageway opening and a second passageway opening and a passageway surface extending from the first passageway opening to the second passageway opening; and a valve stem extending through the inner passageway, wherein a first portion of the valve stem extends through the first passageway opening, a second portion of the valve stem is substantially surrounded by the passageway surface, and a third portion of the valve stem extends through the second passageway opening, wherein the valve stem comprises an outer stem surface and an inner stem surface opposite the outer stem surface; and a retaining member joined to the third portion of the valve stem, wherein the retaining member extends outward from the outer stem surface, wherein the retaining member comprises a first retaining member surface and a second retaining member surface, wherein the retaining member comprises a void (174, 176, 178, 180) formed by a slit, an aperture or notch extending from the first retaining member surface to the second retaining member surface or formed by a slot extending from a retaining member perimeter toward the valve stem.
Method for providing reliable sensor data relating to a system, having the following steps of: (a) receiving sensor data from at least one sensor unit which monitors a system component of the system; and (b) processing the received sensor data using at least one stored ontology and a statistical data analysis model in order to generate the reliable sensor data, (c) the ontology having a system ontology (SYS-ONT) of the system and/or a sensor ontology (SEN-ONT) of the sensor units, characterized in that various sensor units, in particular sensor units which are adjacent and/or similar to one another inside the system, are grouped to form a sensor cluster on the basis of the system ontology (SYS-ONT) and/or the sensor ontology (SEN-ONT) of the system, and the sensor data received from sensor units in the same sensor cluster are evaluated by means of the statistical data analysis model in order to determine correlations between the sensor data from the sensor units in the sensor cluster, the reliable sensor data being within a defined range and unreliable sensor units inside the sensor cluster being detected on the basis of the determined correlations between sensor data from the various sensor units in the same sensor cluster and their sensor data being at least partially filtered out. (a) receiving sensor data from at least one sensor unit which monitors a system component of the system; and (b) processing the received sensor data using at least one stored ontology and a statistical data analysis model in order to generate the reliable sensor data, (c) the ontology having a system ontology (SYS-ONT) of the system and/or a sensor ontology (SEN-ONT) of the sensor units,
Drivetrain module (20; 30; 40) for a motor vehicle, comprising a flywheel (24; 34; 44) connected to the crankshaft; a crankshaft starter-generator which is operatively connected to the crankshaft and which has a rotor and a stator; a toothed ring (25; 35; 45), which is arranged on the flywheel (24; 34; 44), and an electric starter motor with a starter pinion which can be placed in engagement, and/or is in engagement, with the toothed ring (25; 35; 45) in order to rotate the latter, wherein the starter pinion is arranged offset with respect to the rotor and the stator of the crankshaft starter-generator in a radial direction which is perpendicular to the crankshaft axis, characterized in that the starter pinion is arranged closer than the rotor and closer than the stator to the crankshaft axis in the radial direction.
A mobile communication device for receiving data packets including confidential information, with: a transmit and receive entity for receiving a start signal from a server entity, wherein the start signal includes information for establishing a VPN tunnel between the server entity and the mobile communication device, a first antenna and a chip card for establishment of the VPN tunnel, and a second antenna for establishment of a WLAN connection, wherein the WLAN connection is separated from the VPN tunnel, wherein the transmit and receive entity is configured to establish the VPN tunnel between the server entity and the mobile communication device based on the received information, to receive data packets via the established VPN tunnel and to extract confidential information from the received data packets, wherein the transmit and receive entity is configured to send a response message to the server entity for confirming the reception of the confidential information. a transmit and receive entity for receiving a start signal from a server entity, wherein the start signal includes information for establishing a VPN tunnel between the server entity and the mobile communication device, a first antenna and a chip card for establishment of the VPN tunnel, and a second antenna for establishment of a WLAN connection, wherein the WLAN connection is separated from the VPN tunnel, wherein the transmit and receive entity is configured to establish the VPN tunnel between the server entity and the mobile communication device based on the received information, to receive data packets via the established VPN tunnel and to extract confidential information from the received data packets, wherein the transmit and receive entity is configured to send a response message to the server entity for confirming the reception of the confidential information.
An auto exposure method for a spatially-multiplexed-exposure high-dynamic-range image sensor (110, 810), comprising: retrieving raw image data from an exposure of the spatially-multiplexed-exposure high-dynamic-range image sensor, the raw image data including long-exposure pixel values from pixels of the spatially-multiplexed-exposure high-dynamic-range image sensor characterized by a long exposure time and short-exposure pixel values from pixels of the spatially-multiplexed-exposure high-dynamic-range image sensor characterized by a short exposure time; preprocessing the long-exposure pixel values and the short-exposure pixel values to remove therefrom long-exposure pixel values and short-exposure pixel values failing to meet one or more image quality requirements, wherein the step of preprocessing comprises scaling the long-exposure pixel values and the short-exposure pixel values to compensate for presence of an optical gradient filter between the spatially-multiplexed-exposure high-dynamic-range image sensor and a scene represented by the raw image data; synthesizing, into an high-dynamic-range histogram, the long-exposure pixel values remaining after the step of preprocessing and the short-exposure pixel values remaining after the step of preprocessing; deriving a goodness metric from the high-dynamic-range histogram; adjusting at least one of the long exposure time and the short exposure time, based at least in part upon the goodness metric; and outputting the at least one of the long exposure time and the short exposure time, as adjusted, to the spatially-multiplexed-exposure high-dynamic-range image sensor. retrieving raw image data from an exposure of the spatially-multiplexed-exposure high-dynamic-range image sensor, the raw image data including long-exposure pixel values from pixels of the spatially-multiplexed-exposure high-dynamic-range image sensor characterized by a long exposure time and short-exposure pixel values from pixels of the spatially-multiplexed-exposure high-dynamic-range image sensor characterized by a short exposure time; preprocessing the long-exposure pixel values and the short-exposure pixel values to remove therefrom long-exposure pixel values and short-exposure pixel values failing to meet one or more image quality requirements, wherein the step of preprocessing comprises scaling the long-exposure pixel values and the short-exposure pixel values to compensate for presence of an optical gradient filter between the spatially-multiplexed-exposure high-dynamic-range image sensor and a scene represented by the raw image data; synthesizing, into an high-dynamic-range histogram, the long-exposure pixel values remaining after the step of preprocessing and the short-exposure pixel values remaining after the step of preprocessing; deriving a goodness metric from the high-dynamic-range histogram; adjusting at least one of the long exposure time and the short exposure time, based at least in part upon the goodness metric; and outputting the at least one of the long exposure time and the short exposure time, as adjusted, to the spatially-multiplexed-exposure high-dynamic-range image sensor.
Device for selecting a resistive non-volatile memory cell, the device comprising a first electrode, a second electrode and an oxide layer arranged between the first electrode and the second electrode, the device being characterised in that the oxide layer is doped with silicon.
A voltage source converter (10; 70; 80; 90; 110), for use in high voltage direct current power transmission and reactive power compensation, comprising a plurality of converter limbs (12 1, 12 2, 12 3) connected in series between first and second DC terminals (16, 18) connectable in use to a DC network, each converter limb (12 1, 12 2, 12 3) including first and second series connection points (22, 24) between which extends a longitudinal chain-link converter operable to provide a stepped variable voltage (V 1 arm, V 2 arm, V 3 arm), each first series connection point being electrically connected with a corresponding first AC connection terminal via a first transverse branch, each second series connection point being electrically connected with a corresponding second AC connection terminal via a second transverse branch, the first and second AC connection terminals (42, 46) together defining an AC connection connectable in use to a respective phase of an AC network, and at least one transverse branch of the first and second transverse branches (142, 146) in each converter limb (12 1, 12 2, 12 3) including a transverse circuit (44; 72; 82; 92) having therein a transverse chain-link converter operable to provide a stepped variable voltage (V 1 armT, V 2 armT, V 3 armT), and characterized in that the transverse circuit (82; 92) additionally includes an inductive or capacitive element (74, 84).