mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of configuring data protection settings for data of an industrial system or an electric power system , the industrial system or the electric power system comprising at least one gateway via which the data are transmitted to a computing resource for processing and/or storing, the method comprising: automatically determining one or several privacy-preserving techniques to be applied to the data, the one or several privacy-preserving techniques being determined based on data privacy requirements for the data and processing operations to be performed on the data by the computing resource; automatically causing the determined one or several privacy-preserving techniques to be applied, wherein automatically causing the determined one or several privacy-preserving techniques to be applied comprises automatically configuring executable instruction code executed by the computing resource and automatically providing configuration files for the gateway or executable instruction code executed by the gateway. automatically determining one or several privacy-preserving techniques to be applied to the data, the one or several privacy-preserving techniques being determined based on data privacy requirements for the data and processing operations to be performed on the data by the computing resource; automatically causing the determined one or several privacy-preserving techniques to be applied, wherein automatically causing the determined one or several privacy-preserving techniques to be applied comprises automatically configuring executable instruction code executed by the computing resource and automatically providing configuration files for the gateway or executable instruction code executed by the gateway.
A transmission system selectively coupled to an engine crankshaft of an internal combustion engine arranged on a vehicle, the transmission system comprising: a transmission having an input shaft directly driven by the engine crankshaft through a master clutch , a mainshaft having a plurality of mainshaft gears, an output shaft and a countershaft offset from the input shaft, the countershaft having a plurality of countershaft gears that selectively connect with the plurality of mainshaft gears, the countershaft drivably connected to the input shaft and the mainshaft through the plurality of countershaft gears and plurality of mainshaft gears; a motor generator selectively coupled to the countershaft; an HVAC compressor selectively driven by the motor generator; and a controller that operates the transmission system in various modes based on operating conditions. a transmission having an input shaft directly driven by the engine crankshaft through a master clutch , a mainshaft having a plurality of mainshaft gears, an output shaft and a countershaft offset from the input shaft, the countershaft having a plurality of countershaft gears that selectively connect with the plurality of mainshaft gears, the countershaft drivably connected to the input shaft and the mainshaft through the plurality of countershaft gears and plurality of mainshaft gears; a motor generator selectively coupled to the countershaft; an HVAC compressor selectively driven by the motor generator; and a controller that operates the transmission system in various modes based on operating conditions.
An arbitration method used in active-active data centers, wherein the arbitration method comprises: determining, by a first data center according to a arbitration device flag bit, whether a arbitration device can perform arbitration; when the first data center determines that communication between the first data center and a second data center is interrupted, and an arbitration device cannot perform arbitration, viewing, by the first data center , a preset arbitration policy; and continuing providing, by the first data center , a service when the first data center determines, according to the arbitration policy, that the first data center is a preferred data center; or stopping providing, by the first data center , a service when the first data center determines, according to the arbitration policy, that the first data center is not a preferred data center; wherein the first data center and the second data center are the active-active data centers. determining, by a first data center according to a arbitration device flag bit, whether a arbitration device can perform arbitration; when the first data center determines that communication between the first data center and a second data center is interrupted, and an arbitration device cannot perform arbitration, viewing, by the first data center , a preset arbitration policy; and continuing providing, by the first data center , a service when the first data center determines, according to the arbitration policy, that the first data center is a preferred data center; or stopping providing, by the first data center , a service when the first data center determines, according to the arbitration policy, that the first data center is not a preferred data center; wherein the first data center and the second data center are the active-active data centers.
Lighting device of a motor vehicle, the lighting device having means for focusing light of the lighting device, and having dark-colored components which are made of plastics material and are arranged in the lighting device , characterized in that the dark-colored components comprise a cover frame and are produced, at least in regions, from a plastics material having thermally conductive additives, specifically carbon nanotubes (CNT), thermally conductive oxides (TCO), ceramic or metal fillers or combinations thereof, and are produced having a thermally conductive layer on their side exposed to radiation from the outside, the layer being, at least in regions, a dark layer comprising thermally conductive additives, specifically carbon nanotubes (CNT), thermally conductive oxides (TCO), ceramic fillers or combinations thereof, and/or being, at least in regions, a transparent layer comprising thermally conductive additives, specifically carbon nanotubes (CNT), thermally conductive oxides (TCO), ceramic or metal fillers or combinations thereof.
Vehicle chassis for a land vehicle, in particular for a motor home or leisure vehicle, wherein the vehicle chassis comprises a front chassis module , in particular a traction unit, and a rear chassis module , wherein the front chassis module is connected to the rear chassis module via at least one flange means to form the vehicle chassis, and wherein the rear chassis module or a sub-module comprises supporting components made of lightweight material, characterized in that the supporting components take the form of longitudinal profiles and of Z profiles, in that four longitudinal profiles are formed and the arrangement of the Z profiles is mirrored on a vertical plane of symmetry in the centre of the vehicle.
Three-dimensional cleaning textile comprising a textile cleaning base made from a woven plush fabric, having a front face and a rear face , and also at least one pile composed of at least one pile yarn which is permanently connected to the cleaning base and is raised, projecting above the front side , wherein the plush comprises at least a first pile height and a second pile height , with the second pile height being greater than the first pile height and wherein the pile yarn forms looplike pile tufts on the front face or projects above the front face with a cut pile , characterized in that the pile yarn passes through the cleaning base between the front face and the rear face and on the rear face is connected to the cleaning base by an interlock and in that the pile tufts or the cut pile have a third pile height , which is greater than the second pile height .
A UV or electron beam (EB) curable composition for priming, printing on, or varnishing a substrate comprising: a zinc or magnesium salt of acrylic acid or methacrylic acid at a solids concentration between 10 and 60 wt%; and between 10 and 50 wt% water, wherein the composition further comprises a co-monomer selected from the group consisting of acrylic acid, methacrylic acid, sodium acrylate, sodium methacrylate, ammonium acrylate and ammonium methacrylate, or a combination of any two or more of these; wherein the composition is free of organic solvent. a zinc or magnesium salt of acrylic acid or methacrylic acid at a solids concentration between 10 and 60 wt%; and between 10 and 50 wt% water, wherein the composition further comprises a co-monomer selected from the group consisting of acrylic acid, methacrylic acid, sodium acrylate, sodium methacrylate, ammonium acrylate and ammonium methacrylate, or a combination of any two or more of these;
An agricultural machine , comprising: a plurality of different subsystems , each arranged to perform a function of the agricultural machine ; a plurality of different sensors that are adapted to sense variables and generate sensor signals indicative of the sensed variables; a deadband identification system that is adapted to identify a deadband corresponding to each of the sensor signals; and a control system that is operable to generate action signals for controlling the plurality of different subsystems , based on the sensor signals and the deadbands; characterized in that the deadband identification system comprises a signal characteristic capture component that is adapted to capture a signal characteristic of a given one of the sensor signals over a given time period and a deadband identifier that is adapted to identify a given deadband corresponding to the given sensor signal based on the captured signal characteristic of the given sensor signal. a plurality of different subsystems , each arranged to perform a function of the agricultural machine ; a plurality of different sensors that are adapted to sense variables and generate sensor signals indicative of the sensed variables; a deadband identification system that is adapted to identify a deadband corresponding to each of the sensor signals; and a control system that is operable to generate action signals for controlling the plurality of different subsystems , based on the sensor signals and the deadbands; characterized in that the deadband identification system comprises a signal characteristic capture component that is adapted to capture a signal characteristic of a given one of the sensor signals over a given time period and a deadband identifier that is adapted to identify a given deadband corresponding to the given sensor signal based on the captured signal characteristic of the given sensor signal.
A stud assembly capable of attaching a first panel and a second panel together, the stud assembly comprising: a fastener ; a first clip having a fastener portion and a retaining portion , the retaining portion having at least one aperture , wherein the first clip is attached to the fastener at the fastener portion ; and a second clip attached to the fastener and spaced from the fastener portion of the first clip , the second clip having at least one tab , wherein the tab engages the aperture to secure the first clip to the second clip , characterized in that the second clip is parallel to the fastener portion and the second clip is parallel to the retaining portion . a fastener ; a first clip having a fastener portion and a retaining portion , the retaining portion having at least one aperture , wherein the first clip is attached to the fastener at the fastener portion ; and a second clip attached to the fastener and spaced from the fastener portion of the first clip , the second clip having at least one tab , wherein the tab engages the aperture to secure the first clip to the second clip , characterized in that the second clip is parallel to the fastener portion and the second clip is parallel to the retaining portion .
Blade cascade for a turbomachine, in particular a gas turbine, the blade cascade comprising a plurality of identical blade groups which are arranged next to one another in the circumferential direction and each comprise a first individual blade having an airfoil with a blade profile and a first lateral wall , and an adjacent second individual blade which is different from the first individual blade, having an airfoil with a blade profile and a second lateral wall , a lateral wall being an inner surface of a blade platform that faces the working fluid flow channel or a radially outer surface of a blade shroud that faces the working fluid flow channel, characterized in that the first and the second lateral wall have different contourings, contouring being understood to mean the course of a radial extension along a circumferential direction coordinate at at least one axial position and/or along an axial coordinate at at least one circumferential position, the circumferential direction coordinate in each case starting at a circumferential end face of a blade group, and different contourings being understood to mean different courses of the radial extension, the contour of the second lateral wall at at least one circumferential position in the radial direction deviating by at least 1% of a blade height of the blade cascade and/or by at least 0.1 mm from the contour of the first lateral wall at a position which is offset in the circumferential direction by one blade pitch. a first individual blade having an airfoil with a blade profile and a first lateral wall , and an airfoil with a blade profile and a first lateral wall , and an adjacent second individual blade which is different from the first individual blade, having an airfoil with a blade profile and a second lateral wall , an airfoil with a blade profile and a second lateral wall , a lateral wall being an inner surface of a blade platform that faces the working fluid flow channel or a radially outer surface of a blade shroud that faces the working fluid flow channel, characterized in that the first and the second lateral wall have different contourings, contouring being understood to mean the course of a radial extension along a circumferential direction coordinate at at least one axial position and/or along an axial coordinate at at least one circumferential position, the circumferential direction coordinate in each case starting at a circumferential end face of a blade group, and different contourings being understood to mean different courses of the radial extension, the contour of the second lateral wall at at least one circumferential position in the radial direction deviating by at least 1% of a blade height of the blade cascade and/or by at least 0.1 mm from the contour of the first lateral wall at a position which is offset in the circumferential direction by one blade pitch.
Processing installation for aircraft structural components having a processing station comprising a clamping frame for receiving the aircraft structural component which is intended to be processed, wherein the clamping frame extends along a station longitudinal axis which extends in a longitudinal direction (X), and a processing unit for processing the aircraft structural component which has a first upper tool unit having an upper tool which is orientated along a first tool axis and a lower tool unit having a lower tool which is orientated along a second tool axis , wherein the first tool axis and the second tool axis are orientated and/or can be orientated parallel with a vertical direction (Z) which is angled, in particular orthogonal, with respect to the longitudinal direction (X), and wherein in at least one processing position of the upper tool of the first upper tool unit and in at least one processing position of the lower tool of the lower tool unit the first tool axis and the second tool axis are orientated coaxially relative to each other, wherein the processing unit has a second upper tool unit having an upper tool which is orientated along a third tool axis , wherein the third tool axis is orientated or can be orientated parallel with the vertical direction (Z), and wherein in at least one processing position of the upper tool of the second upper tool unit and in at least one processing position of the lower tool of the lower tool unit the second tool axis and the third tool axis are orientated coaxially relative to each other, characterized in that the two upper tool units can cooperate with one and the same lower tool unit , and the upper tool units can replace each other where necessary during the processing of the aircraft structural component .
A household appliance for preparing food, which has at least one heating unit, by means of which heat can be generated and can be applied to the food during a preparation procedure, wherein the household appliance comprises at least one detector device , with which chemical substances which develop during a preparation procedure on account of a medium being heated can be detected, wherein the detector device has at least one optical sensor which is embodied to detect an optical property of a chemical substance and as a function of this optical property the type of substance can be defined by the detector device , in particular the sensor is embodied to emit electromagnetic radiation in a specific wavelength interval and as a function of the received radiation the optical property can be determined, characterized in that the household appliance has a display which indicates the detected substances, wherein the optical property is the absorption behavior of a chemical substance of a further medium generated during the preparation procedure, wherein the medium is steam and/or vapor.
An isolated RNA polymerase variant, wherein the variant: (i) comprises an amino acid sequence that has at least 90% sequence identity to SEQ ID NO: 1; and (ii) comprises an amino acid substitution at one or more positions corresponding to positions selected from 388 and 567 of SEQ ID NO: 1; wherein the isolated RNA polymerase variant has increased stability at 45°C or greater as compared to the wild type T7 RNA polymerase represented by SEQ ID NO: 1. (i) comprises an amino acid sequence that has at least 90% sequence identity to SEQ ID NO: 1; and (ii) comprises an amino acid substitution at one or more positions corresponding to positions selected from 388 and 567 of SEQ ID NO: 1;
A method for data compression in a motion sensing device having an inertial measurement unit with a strap down integration unit and an application processing unit , the method comprising: generating a first velocity increment and a first orientation increment at the inertial measurement unit ; rounding the first velocity increment and first orientation increment at the inertial measurement unit , thereby producing a first rounded velocity increment, a first orientation increment, a first remainder velocity value and a first remainder orientation value; transmitting the first rounded velocity increment and first orientation increment to the application processing unit ; adding the first remainder velocity value and the first remainder orientation value to a subsequent velocity increment and orientation increment respectively at the inertial measurement unit , prior to rounding of the subsequent velocity and orientation increments; and repeating the rounding, transmitting and adding steps for the subsequent velocity and orientation increments at the inertial measurement unit . generating a first velocity increment and a first orientation increment at the inertial measurement unit ; rounding the first velocity increment and first orientation increment at the inertial measurement unit , thereby producing a first rounded velocity increment, a first orientation increment, a first remainder velocity value and a first remainder orientation value; transmitting the first rounded velocity increment and first orientation increment to the application processing unit ; adding the first remainder velocity value and the first remainder orientation value to a subsequent velocity increment and orientation increment respectively at the inertial measurement unit , prior to rounding of the subsequent velocity and orientation increments; and repeating the rounding, transmitting and adding steps for the subsequent velocity and orientation increments at the inertial measurement unit .
An inspection unit for direct application to the skin of a patient, the inspection unit having a plurality of optical elements in an optical path having an optical axis, the optical elements comprising: a first ring of a plurality light sources arranged around the optical axis and a second ring of a plurality of light sources arranged around the optical axis, the first ring of light sources projecting light substantially parallel to the optical axis onto a target object and the second ring of light sources projecting light substantially perpendicular to the optical axis onto the target object, a digital image capturing device having a field of view and being located on the optical axis, and a viewing surface for direct application to the skin of a patient through which the target object can be imaged, a controller configured to capture a series of different digital images of the target object on the skin of the patient with the digital image capturing device when the target object is illuminated with different ones of the light sources of the first and second ring of light sources to generate shadows. a first ring of a plurality light sources arranged around the optical axis and a second ring of a plurality of light sources arranged around the optical axis, the first ring of light sources projecting light substantially parallel to the optical axis onto a target object and the second ring of light sources projecting light substantially perpendicular to the optical axis onto the target object, a digital image capturing device having a field of view and being located on the optical axis, and a viewing surface for direct application to the skin of a patient through which the target object can be imaged,
Procedure to determine at least a pipe wall resonance frequency of a pipe in the area of a measuring point using a field device used in process measuring technology with at least a first ultrasonic transducer, wherein said transducer is fixed on the pipe at the measuring point, wherein said procedure comprises the following steps: - Determination of a reception spectrum U rec (f) from a reception signal u rec ( t ) following the emission of an ultrasonic signal; - Determination of a second transmission function U Measuring point (f) from a first transmission function U transducer (f) at least of the first or several of the ultrasonic transducers situated in the area of the measuring point and the reception spectrum U rec (f), wherein the second transmission function U Measuring point (f) is characteristic for the measuring point; and - Determination of the at least one pipe wall resonance frequency f res , particularly of multiple resonance frequencies, in the area of the measuring point by evaluating the second transmission function U Measuring point (f). - Determination of a reception spectrum U rec (f) from a reception signal u rec ( t ) following the emission of an ultrasonic signal; - Determination of a second transmission function U Measuring point (f) from a first transmission function U transducer (f) at least of the first or several of the ultrasonic transducers situated in the area of the measuring point and the reception spectrum U rec (f), wherein the second transmission function U Measuring point (f) is characteristic for the measuring point; and - Determination of the at least one pipe wall resonance frequency f res , particularly of multiple resonance frequencies, in the area of the measuring point by evaluating the second transmission function U Measuring point (f).