mhurhangee/patent-ind-claim-en huggingface dataset:
A method for verifying vehicle information, comprising: ranking a plurality of pieces of information included in a target data packet based on a preset ranking order of pieces of information; selecting a target piece of information from the plurality of pieces of information as the target key information based on the ranked pieces of information; determining (S110) a target coding precision and a target coding mode for the target data packet to be transmitted, wherein the target coding precision is used for limiting the precision of data used in coding, and the target coding mode is used for stipulating a coding algorithm used in coding; coding (S120) the target data packet based on the target coding precision and the target coding mode, to generate target verification information of the target data packet, wherein the coding (S120) comprises: extracting (S240), from the target key information of the target data packet, to-be-coded data with the target coding precision based on the target coding precision; and coding (S250) the to-be-coded data using the target coding mode, to generate the target verification information; and transmitting (S130) the target data packet and the target verification information, to instruct a receiving-end vehicle receiving the target data packet to verify received target data packet based on the target verification information. ranking a plurality of pieces of information included in a target data packet based on a preset ranking order of pieces of information; selecting a target piece of information from the plurality of pieces of information as the target key information based on the ranked pieces of information; determining (S110) a target coding precision and a target coding mode for the target data packet to be transmitted, wherein the target coding precision is used for limiting the precision of data used in coding, and the target coding mode is used for stipulating a coding algorithm used in coding; coding (S120) the target data packet based on the target coding precision and the target coding mode, to generate target verification information of the target data packet, wherein the coding (S120) comprises: extracting (S240), from the target key information of the target data packet, to-be-coded data with the target coding precision based on the target coding precision; and coding (S250) the to-be-coded data using the target coding mode, to generate the target verification information; and extracting (S240), from the target key information of the target data packet, to-be-coded data with the target coding precision based on the target coding precision; and coding (S250) the to-be-coded data using the target coding mode, to generate the target verification information; and transmitting (S130) the target data packet and the target verification information, to instruct a receiving-end vehicle receiving the target data packet to verify received target data packet based on the target verification information.
A computer-implemented method comprising: receiving a request for information associated with one or more available operating system interfaces; obtaining the information associated with the one or more available operating system interfaces, the operating system interfaces being described using an abstract type system, wherein the abstract type system is mapped to a type system of a specific programming language to interpret and/or access a respective operating system interface, to describe operating system interfaces independent of specific programming languages; determining one or more abstract types associated with the one or more available operating system interfaces, further comprising programmatically determining behavior associated with the one or more abstract types through at least one binary contract, wherein, at a machine-level, the binary contract includes definitions for calling the one or more operating system interfaces and at least one behavior definition associated with the one or more abstract types of the abstract type system; and mapping individual determined abstract types to individual respective types associated with at least one specific programming language by emulating at least one type of the abstract type system in a manner native to the at least one specific programming language by means of a proxy. receiving a request for information associated with one or more available operating system interfaces; obtaining the information associated with the one or more available operating system interfaces, the operating system interfaces being described using an abstract type system, wherein the abstract type system is mapped to a type system of a specific programming language to interpret and/or access a respective operating system interface, to describe operating system interfaces independent of specific programming languages; determining one or more abstract types associated with the one or more available operating system interfaces, further comprising programmatically determining behavior associated with the one or more abstract types through at least one binary contract, wherein, at a machine-level, the binary contract includes definitions for calling the one or more operating system interfaces and at least one behavior definition associated with the one or more abstract types of the abstract type system; and mapping individual determined abstract types to individual respective types associated with at least one specific programming language by emulating at least one type of the abstract type system in a manner native to the at least one specific programming language by means of a proxy.
An electrode which comprises a single layer of a conductive substrate coated on at least one side with a coating comprising an iron active material and a binder, wherein the binder comprises polyvinyl alcohol and elemental sulfur, and wherein the amount of polyvinyl alcohol in the electrode is in the range of from 2.5 to 5 wt %.
A composite wiring comprising a plurality of pieces of wiring accommodated and gathered together within an elastic sheath , wherein at least one of the pieces of wiring is elastic wiring comprising an elastic tube , a conductor wire arranged within the tube, and fixing portions for fixing the conductor wire and the tube at both ends of the tube in the lengthwise direction thereof, the length (L1) of the conductor wire between the fixing portions when the tube is in an unextended state being longer than the length (L2) of the tube between the fixing portions, wherein the pieces of wiring are connected to each other via a notifying means or a measuring means in the sheath.
A lighting control device for controlling light output from at least one luminaire (120-k, 220-k), the lighting control device (110, 210-k) comprising: a lighting control logic for defining the manner of controlling light output from the at least one luminaire (120-k, 220-k), the lighting control device characterized by : an adaptation means for adjusting the lighting control logic at least in part based on occupancy information received from an occupancy sensor (132, 232-k) configured to sense motion and/or presence of a person in a certain area, wherein the adaptation means is configured to: - receive time information, - determine an average switch-on time for a day based on luminaire data collected from multiple days by taking into account the collected data about a time the occupancy sensor starts to sense motion on an area of a specific luminaire or a group of luminaires, and - determine an average duration of a day based on a duration between the time of day the occupancy information starts to indicate presence of a person and the time of day on which the occupancy information no longer indicates presence of a person on that day and wherein the lighting control device is configured to select between a first lighting mode and a second lighting mode to be used at a certain time interval wherein the selection is based at least in part on the determined average duration of the day and/or the determined average switch-on time, wherein at least one of the following is different in the first lighting mode than in the second lighting mode: the light intensity level produced by the luminaire (120-k, 220-k), color of the light output by the luminaire (120-k, 220-k), color temperature of the light output by the luminaire (120-k, 220-k). - receive time information, - determine an average switch-on time for a day based on luminaire data collected from multiple days by taking into account the collected data about a time the occupancy sensor starts to sense motion on an area of a specific luminaire or a group of luminaires, and - determine an average duration of a day based on a duration between the time of day the occupancy information starts to indicate presence of a person and the time of day on which the occupancy information no longer indicates presence of a person on that day and wherein the lighting control device is configured to select between a first lighting mode and a second lighting mode to be used at a certain time interval wherein the selection is based at least in part on the determined average duration of the day and/or the determined average switch-on time, wherein at least one of the following is different in the first lighting mode than in the second lighting mode: the light intensity level produced by the luminaire (120-k, 220-k), color of the light output by the luminaire (120-k, 220-k), color temperature of the light output by the luminaire (120-k, 220-k).
Method for providing an image representation of at least part of an environment of a vehicle on a display device , comprising the steps: - capturing at least partly the environment of the vehicle by means of at least one vehicle sensor ; - providing an image representation of at least one first part of the captured environment within a defined viewport from a defined perspective , wherein the image representation includes a vehicle representation representing the vehicle ; and - displaying the image representation on the display device ; characterized in that when providing the image representation at least one second part of the captured environment is represented in form of a mirrored image of the at least one second part of the environment on a defined region of the vehicle representation while the defined region of the vehicle representation constitutes a part of the vehicle representation that relates to a window of the vehicle , especially a windscreen and/or a rear window and/or a roof window and/or a side window . - capturing at least partly the environment of the vehicle by means of at least one vehicle sensor ; - providing an image representation of at least one first part of the captured environment within a defined viewport from a defined perspective , wherein the image representation includes a vehicle representation representing the vehicle ; and - displaying the image representation on the display device ; when providing the image representation at least one second part of the captured environment is represented in form of a mirrored image of the at least one second part of the environment on a defined region of the vehicle representation while the defined region of the vehicle representation constitutes a part of the vehicle representation that relates to a window of the vehicle , especially a windscreen and/or a rear window and/or a roof window and/or a side window .
Cleaning appliance comprising a main body , a suction device with a suction opening and a suction channel , and a brush arrangement with a rotatable brush roller , wherein the suction opening and the brush roller are arranged in the main body in such a way that they face towards the floor to be cleaned, wherein the suction opening has a first wall , which faces towards the front edge of the main body , and a second wall , which faces towards the brush roller , wherein the brush roller is designed to detach dirt from the floor to be cleaned, wherein furthermore provision is made of a device for wetting the floor to be cleaned with liquid, which device is assigned to the brush roller , wherein a lip is pivotably assigned to the suction opening , which lip bears against the first wall or the second wall in an alternating manner, characterized in that the lip is provided with at least one aperture .
Measuring system for determining a pose, in particular a position and an orientation, of an object (O) suspended from flexible tensile means (Z1 - Z3), comprising the object (O) which can be positioned in the room, at least two pulling means (Z1 - Z3) connected to the object (O) and positioning the object (O), at least two actuators (A1, A2) which move the pulling means (Z1 - Z3), a controller which controls the actuators (A1, A2), characterized by at least two angle sensors (WS1 - WS8), wherein one angle sensor (WS1 - WS8) each is arranged on a respective pulling means (Z1 - Z3), and each angle sensor (WS1 - WS8) determines an angle (α1, β1, γ1) between the respective pulling means (Z1 - Z3) and a reference axis (N1, N2, N3) assigned to the respective pulling means (Z1 - Z3) as an angle signal and communicates it to the controller, and wherein the reference axis (N1, N2, N3) comprises a gravitational normal or a horizontal or a vertical or horizontal edge of the object (O).
A method for forming a virtual multipoint transceiver for communication of a target user equipment, TUE, with a network, comprising: transmitting , by the TUE, first information to the network, the first information indicating user equipments, UEs, selected by the TUE to be members of a cooperation candidate set, CCS, for the TUE, wherein the CCS comprises a plurality of potential cooperating user equipment, CUEs, for selection to a cooperation active set, CAS; and receiving , by the TUE, second information from the network, the second information indicating the potential CUEs selected to be members of the CAS, wherein the TUE and a set of CUEs in the CAS form the virtual multipoint transceiver. transmitting , by the TUE, first information to the network, the first information indicating user equipments, UEs, selected by the TUE to be members of a cooperation candidate set, CCS, for the TUE, wherein the CCS comprises a plurality of potential cooperating user equipment, CUEs, for selection to a cooperation active set, CAS; and receiving , by the TUE, second information from the network, the second information indicating the potential CUEs selected to be members of the CAS, wherein the TUE and a set of CUEs in the CAS form the virtual multipoint transceiver.
Automatic connection system comprising an electrical vehicle and a charger for charging the electrical vehicle with electrical energy, whereby the charger or the electrical vehicle comprises a funnel extending in a horizontal plane and comprising a first connector arranged at the centre of the funnel , and the electrical vehicle or the charger , respectively, comprises an actuator with a second connector attached thereto, whereby the second connector is orthogonally displaceable in respect to the plane and the actuator is configured for moving the second connector in a horizontal direction for connecting with the first connector , characterized in that the charger or the electrical vehicle , respectively, comprises an additional funnel extending in the same plane and comprises an additional first connector arranged at the centre of the additional funnel and the additional funnel is arranged opposite to the funnel such that the second connector can be either connected to the first connector or to the additional first connector . the electrical vehicle or the charger , respectively, comprises an actuator with a second connector attached thereto, whereby the second connector is orthogonally displaceable in respect to the plane and the actuator is configured for moving the second connector in a horizontal direction for connecting with the first connector , characterized in that the charger or the electrical vehicle , respectively, comprises an additional funnel extending in the same plane and comprises an additional first connector arranged at the centre of the additional funnel and the additional funnel is arranged opposite to the funnel such that the second connector can be either connected to the first connector or to the additional first connector .
A surveillance system comprising: a remote-control unit operatively connectable over a communication link to an aerial control unit mountable on an aircraft having autonomous flight capabilities; the aerial control unit comprising an electro-optic (EO) data acquisition device and a radar; the EO data acquisition device is configured, while the aircraft is airborne, to capture one or more images of a surveyed area and transmit the images to the remote control unit ; the remote-control unit is configured to enable interaction of an operator with the one or more images captured by the EO data acquisition device for providing data identifying an area of interest in the one or more images, the area of interest selected to be scanned by the radar; the surveillance system further comprising a processing circuitry configured, in response to the data identifying an area of interest, to: register the one or more images to a respective map of the area displayed in the one or more images; identify a sub-area in the respective map corresponding to the area of interest identified in the images; and automatically generate a flight route for navigating the aircraft over the area of interest while enabling operating the radar; the aerial control unit is configured to: execute flight instructions for autonomously controlling the aircraft along the flight route and activate the radar for acquiring radar data output over the area of interest. the EO data acquisition device is configured, while the aircraft is airborne, to capture one or more images of a surveyed area and transmit the images to the remote control unit ; the remote-control unit is configured to enable interaction of an operator with the one or more images captured by the EO data acquisition device for providing data identifying an area of interest in the one or more images, the area of interest selected to be scanned by the radar; the surveillance system further comprising a processing circuitry configured, in response to the data identifying an area of interest, to: register the one or more images to a respective map of the area displayed in the one or more images; identify a sub-area in the respective map corresponding to the area of interest identified in the images; and automatically generate a flight route for navigating the aircraft over the area of interest while enabling operating the radar; the aerial control unit is configured to: execute flight instructions for autonomously controlling the aircraft along the flight route and activate the radar for acquiring radar data output over the area of interest. register the one or more images to a respective map of the area displayed in the one or more images; identify a sub-area in the respective map corresponding to the area of interest identified in the images; and automatically generate a flight route for navigating the aircraft over the area of interest while enabling operating the radar; the aerial control unit is configured to: execute flight instructions for autonomously controlling the aircraft along the flight route and activate the radar for acquiring radar data output over the area of interest.
A method of detecting drowsiness and/or sleep of a subject, comprising using a processor to: receive a detected external ear pressure, between the ear drum and an in-ear speaker, from a pressure sensor forming part of the in-ear speaker during the delivery of audio to the in-ear speaker; receive audio data for the delivered audio and process (i) the frequency and amplitude characteristics of the delivered audio using the audio data and (ii) the external ear pressure, thereby to remove the pressure effect of the audio being listened to from the detected external ear pressure, thereby to derive a baseline ear pressure over time; and (86; 92) detecting drowsiness and/or sleep from the derived baseline ear pressure. receive a detected external ear pressure, between the ear drum and an in-ear speaker, from a pressure sensor forming part of the in-ear speaker during the delivery of audio to the in-ear speaker; receive audio data for the delivered audio and process (i) the frequency and amplitude characteristics of the delivered audio using the audio data and (ii) the external ear pressure, thereby to remove the pressure effect of the audio being listened to from the detected external ear pressure, thereby to derive a baseline ear pressure over time; and (86; 92) detecting drowsiness and/or sleep from the derived baseline ear pressure.
A method for capturing a sequence of image frames in a thermal camera having a microbolometer detector , comprising: capturing (S102) a first sequence (S1) of image frames (I1, I2, I3, I4) with a shutter of the thermal camera being in a closed state and while switching an integration time of the microbolometer detector between a plurality of integration times (T1, T2) according to one or more first repetitions (R1, R2) of a temporal pattern of integration times, capturing (S104) a second sequence (S2) of image frames (I5, I6, I7, I8, I9, I10, I11, I12, I13, I14) with the shutter of the thermal camera being in an open state and while switching the integration time of the microbolometer detector between the plurality of integration times (T1, T2) according to one or more second repetitions (R3, R4, R5, R6, R7) of the same temporal pattern of integration times, and correcting (S106), by subtraction, image frames (I5, I7, I9, I11, I13) in the second sequence (S2) that are captured when the integration time is switched to a particular position within the temporal pattern of integration times using image frames (11, I3) in the first sequence (S1) that are captured when the integration time is switched to the same particular position within the temporal pattern of integration times. capturing (S102) a first sequence (S1) of image frames (I1, I2, I3, I4) with a shutter of the thermal camera being in a closed state and while switching an integration time of the microbolometer detector between a plurality of integration times (T1, T2) according to one or more first repetitions (R1, R2) of a temporal pattern of integration times, capturing (S104) a second sequence (S2) of image frames (I5, I6, I7, I8, I9, I10, I11, I12, I13, I14) with the shutter of the thermal camera being in an open state and while switching the integration time of the microbolometer detector between the plurality of integration times (T1, T2) according to one or more second repetitions (R3, R4, R5, R6, R7) of the same temporal pattern of integration times, and correcting (S106), by subtraction, image frames (I5, I7, I9, I11, I13) in the second sequence (S2) that are captured when the integration time is switched to a particular position within the temporal pattern of integration times using image frames (11, I3) in the first sequence (S1) that are captured when the integration time is switched to the same particular position within the temporal pattern of integration times.