mhurhangee/ep-ind-claims huggingface dataset:
A measurement device comprising: a first acquisition unit configured to acquire positional information of a measurement object stored in a storage unit; a second acquisition unit configured to acquire point group information of points indicating a surrounding feature acquired by an external sensor; characterized in that the measurement device further comprises: an output unit configured to output a reliability that the positional information indicates that a center position of the measurement object exists in a predetermined range, wherein the reliability is calculated based on a number of points or a number of sets of points of the point group information existing in the predetermined range, the predetermined range being determined based on a position of a movable body comprising the external sensor; and an estimation unit configured to estimate an own vehicle position of the movable body based on the positional information of the measurement object acquired by the first acquisition unit and the center position of the measurement object, wherein the estimation unit estimates the own vehicle position of the movable body by weighting the center position by the reliability. a first acquisition unit configured to acquire positional information of a measurement object stored in a storage unit; a second acquisition unit configured to acquire point group information of points indicating a surrounding feature acquired by an external sensor; an output unit configured to output a reliability that the positional information indicates that a center position of the measurement object exists in a predetermined range, wherein the reliability is calculated based on a number of points or a number of sets of points of the point group information existing in the predetermined range, the predetermined range being determined based on a position of a movable body comprising the external sensor; and an estimation unit configured to estimate an own vehicle position of the movable body based on the positional information of the measurement object acquired by the first acquisition unit and the center position of the measurement object, wherein the estimation unit estimates the own vehicle position of the movable body by weighting the center position by the reliability.
A plastic bottle manufacturing device comprising: a preform heating part that heats a preform and that includes a plurality of heating bodies disposed in a longitudinal direction of the preform; a blow-molding part that molds a plastic bottle by blow-molding the preform heated by the preform heating part; a preform temperature measuring part that is provided between the preform heating part and the blow-molding part and that measures temperatures of the preform at a plurality of measurement points in the longitudinal direction of the preform; and a control unit that is connected to the preform temperature measuring part and that controls the preform heating part, wherein the plurality of measurement points are provided in correspondence with the plurality of heating bodies, wherein the control unit controls an output of each heating body of the preform heating part based on an optimal temperature distribution at each measurement point of the preform that has been predetermined and an actually measured temperature distribution at each measurement point of the preform measured by the preform temperature measuring part, and wherein the control unit divides the preform into a plurality of zones in the longitudinal direction and sets each measurement point at a location at which a temperature is highest in a corresponding one of the zones. a preform heating part that heats a preform and that includes a plurality of heating bodies disposed in a longitudinal direction of the preform; a blow-molding part that molds a plastic bottle by blow-molding the preform heated by the preform heating part; a preform temperature measuring part that is provided between the preform heating part and the blow-molding part and that measures temperatures of the preform at a plurality of measurement points in the longitudinal direction of the preform; and a control unit that is connected to the preform temperature measuring part and that controls the preform heating part, wherein the plurality of measurement points are provided in correspondence with the plurality of heating bodies, wherein the control unit controls an output of each heating body of the preform heating part based on an optimal temperature distribution at each measurement point of the preform that has been predetermined and an actually measured temperature distribution at each measurement point of the preform measured by the preform temperature measuring part, and wherein the control unit divides the preform into a plurality of zones in the longitudinal direction and sets each measurement point at a location at which a temperature is highest in a corresponding one of the zones.
An electronic device for user equipment side, comprising: a processing circuit configured to: control the user equipment to acquire, from a base station, reference information of a signal intensity over a specific spectrum resource in a predetermined area; control the user equipment to sense the signal intensity over the specific spectrum resource in a case that the user equipment is located in the predetermined area; and control the user equipment to adjust, based on the reference information and the sensed signal intensity, a parameter for performing proximity-based service communication in the predetermined area, to achieve a desired communication performance of the proximity-based service communication in the predetermined area, wherein the parameter affects an admission rate and/or a transmission reliability of the proximity-based service communication. control the user equipment to acquire, from a base station, reference information of a signal intensity over a specific spectrum resource in a predetermined area; control the user equipment to sense the signal intensity over the specific spectrum resource in a case that the user equipment is located in the predetermined area; and control the user equipment to adjust, based on the reference information and the sensed signal intensity, a parameter for performing proximity-based service communication in the predetermined area, to achieve a desired communication performance of the proximity-based service communication in the predetermined area, wherein the parameter affects an admission rate and/or a transmission reliability of the proximity-based service communication.
Central storage device comprising a plurality of electrical energy storage units and an energy flow controller, wherein the central storage device is connected to an electrical transmission grid and is designed to receive and to output electrical energy from and to the transmission grid in a controlled manner, wherein • the energy flow controller is designed, in order to produce control power for the transmission grid, to feed a control power energy flow into the electrical transmission grid or to draw same from the transmission grid, wherein the control power is produced within a minimum reaction time after a specific deviation of a measured grid frequency from a setpoint grid frequency has been identified, and • wherein the central storage device has a separately controlled storage device section to which multiple energy storage units of the plurality of electrical energy storage units are assigned, and has an externally controllable storage device section to which multiple energy storage units of the plurality of energy storage units are likewise assigned, wherein the separately controlled storage device section has a storage device capacity that corresponds at least to a compensation amount of energy that is exchanged with the transmission grid during a process of producing control power, and the externally controllable storage device section has a further storage device capacity, and • wherein a charge transfer takes place between the separately controlled storage device section and the externally controllable storage device section between or during processes of producing control power, characterized in that the charge transfer takes place by way of a change of assignment of one or more energy storage units to the storage device sections (23, 24). • the energy flow controller is designed, in order to produce control power for the transmission grid, to feed a control power energy flow into the electrical transmission grid or to draw same from the transmission grid, wherein the control power is produced within a minimum reaction time after a specific deviation of a measured grid frequency from a setpoint grid frequency has been identified, and • wherein the central storage device has a separately controlled storage device section to which multiple energy storage units of the plurality of electrical energy storage units are assigned, and has an externally controllable storage device section to which multiple energy storage units of the plurality of energy storage units are likewise assigned, wherein the separately controlled storage device section has a storage device capacity that corresponds at least to a compensation amount of energy that is exchanged with the transmission grid during a process of producing control power, and the externally controllable storage device section has a further storage device capacity, and • wherein a charge transfer takes place between the separately controlled storage device section and the externally controllable storage device section between or during processes of producing control power,
An access controller for motor vehicles, comprised of a boom designed as a pipe section, whose two sides (3, 4) facing the oncoming motor vehicles in the lane are translucent or transparent in design, and a drive for pivoting the boom between a locked and open position, which can be illuminated on both sides facing the oncoming motor vehicles in the lane, characterized in that the lamps allocated to each side can be actuated independently of the lamps on the other side, that the pipe section has a rectangular cross section, and that the boom incorporates a translucent partition wall that reflects light in both directions, which extends between two diagonally opposing edges (6, 7) of the pipe section, and wherein the sides (8, 9) of the boom arranged parallel to the lane plane in the locked position of the boom have actuatable LED's, which illuminate inwardly toward the partition wall, wherein the LED's of each side (8, 9) can be actuated independently of the LED's of the other side, and wherein the illumination of each side can only be perceived by people facing this side.
A tire tread depth measuring system for measuring tread depth across a profile of a tire, comprising a hand-held tread depth scanner (18, 146) having a start/stop button (24, 154, 172), characterised by: (a) the hand-held tread depth scanner having two laser distance sensors (80, 84), each laser distance sensor of said two laser distance sensors arranged to sequentially measure distances to said tire across a profile of said tire, said tread depth scanner recording distance measurements as a function of time for said each laser distance sensor, said each laser distance sensor producing data related to tread depth across a profile of said tire; (b) a user interface (20, 150) carried by said tread depth scanner, said user interface including said start/stop button, and wherein, when said start/stop button is pressed and said user moves said tread depth scanner over a tire profile, said tread depth scanner being held in the hand of said user scans said tire tread to measure said tread depth and to produce said data related to said tread depth for said tire profile; and (c) a camera carried by said tread depth scanner, said user interface enabling said user to capture an image with said camera of a license plate or a vehicle identification number of a vehicle in order to associate said image with said data. (a) the hand-held tread depth scanner having two laser distance sensors (80, 84), each laser distance sensor of said two laser distance sensors arranged to sequentially measure distances to said tire across a profile of said tire, said tread depth scanner recording distance measurements as a function of time for said each laser distance sensor, said each laser distance sensor producing data related to tread depth across a profile of said tire; (b) a user interface (20, 150) carried by said tread depth scanner, said user interface including said start/stop button, and wherein, when said start/stop button is pressed and said user moves said tread depth scanner over a tire profile, said tread depth scanner being held in the hand of said user scans said tire tread to measure said tread depth and to produce said data related to said tread depth for said tire profile; and (c) a camera carried by said tread depth scanner, said user interface enabling said user to capture an image with said camera of a license plate or a vehicle identification number of a vehicle in order to associate said image with said data.
A radio transmitting device that uses a channel interleaver with turbo codes serving as error-correcting codes to convert burst errors into random errors, the radio transmitting device being arranged to segment a transport block into a plurality of Code Blocks, to perform turbo coding and rate matching on the Code Blocks, and to perform code block concatenation after turbo coding and rate matching, so that burst errors that occur during transmission are distributed throughout the Code Blocks of the transport block, wherein the radio transmitting device is arranged to perform a process of combining the sequence of bits of the concatenated Code Blocks into symbols of Qm bits, where Qm is a modulation multi-level number, defined by way of examples Qm=2 for QPSK and Qm=4 for 16QAM, wherein the radio transmitting device comprises a channel interleaver which is a matrix interleaver with a number of rows, R mux, and a number of columns, C mux, and wherein concatenating is such that the symbol sequence of each of the Code Blocks appears for a respective interval of the number of columns, C mux, of the channel interleaver so that the Code Block changes at this interval and, at the output of the interleaver, a Code Block to which the modulation symbol belongs changes in the time axis for each modulation symbol.
A connection arrangement for connecting a busbar (40 to a housing for electrical components, comprising the busbar and at least one wall of the housing, and at least one electrically insulating element, wherein the connection arrangement has at least one fastening element (60; 61A; 62) for connection to the wall of the housing, and the at least one electrically insulating element is made of a material that has good thermal conductivity, of more than 1,5 W/(m·K) characterized in that the connection arrangement has at least two fastening elements (60; 61A; 62), wherein a first fastening element connects the busbar and the electrically insulating element to one another, and a second fastening element connects the electrically insulating element to the wall of the housing.
Cathode for an energy storage device or for an electrolysis device, the cathode comprising the following features: a substrate; a granular conductive surface layer on the substrate, wherein the granular conductive surface layer comprises a mixture of LiCoPO 4 -LiCo 2 P 3 O 10 (LCP-LCPO); and a molybdenum coating or doping of the LCP-LCPO. a substrate; a granular conductive surface layer on the substrate, wherein the granular conductive surface layer comprises a mixture of LiCoPO 4 -LiCo 2 P 3 O 10 (LCP-LCPO); and a molybdenum coating or doping of the LCP-LCPO.
A dust collecting attachment (150; 250; 350), which is used on a power tool (101; 201; 301) having a slidable operating member (145; 245; 333) for removal and/or bit angle adjustment of a tool bit (119; 219; 319) coupled to a front end region of a tool body (103; 203; 303), comprising: a dust collecting member (151; 251; 351) attachable to the front end region of the tool body (103; 203; 303) including the slidable operating member (145; 245; 333) in such a manner as to surround the front end region around a longitudinal axis of the front end region, wherein the dust collecting member (151; 251; 351) has an opening (169; 269) formed in a region which faces the slidable operating member (145; 245; 333) in the state in which the dust collecting member (151; 251; 351) is attached to the tool body (103; 203; 303), characterized in that two openings (169; 269) are formed oppositely on both sides of the axial center line of the dust collecting member and the slidable operating member (145; 245; 333) is operable by user's finger through the openings (169; 269). a dust collecting member (151; 251; 351) attachable to the front end region of the tool body (103; 203; 303) including the slidable operating member (145; 245; 333) in such a manner as to surround the front end region around a longitudinal axis of the front end region, wherein the dust collecting member (151; 251; 351) has an opening (169; 269) formed in a region which faces the slidable operating member (145; 245; 333) in the state in which the dust collecting member (151; 251; 351) is attached to the tool body (103; 203; 303), characterized in that two openings (169; 269) are formed oppositely on both sides of the axial center line of the dust collecting member and the slidable operating member (145; 245; 333) is operable by user's finger through the openings (169; 269).
Method of limiting noise in a plurality of signals emitted by an emitted and received (r 1, r 2) in a receiver with multiple receptions, said method comprising a step of decorrelating noise (n 1, n 2) present in the signals received, said method being further characterized in that said decorrelating step comprises a multiplication of the noise (n 1, n 2) by first coefficients varying with time or with frequency, or else with time and with frequency, depending on a phase varying according to a predefined sequence; and a step of preprocessing, performed in the emitter, comprising a multiplication of said signals before their emission (t 1, t 2) by second coefficients determined as a function of the first coefficients in such a way as to pre-compensate the effect of the first coefficients on the useful part of the signals received (r 1, r 2).
A system comprising: a) a tag, said tag comprising a radio-frequency identification (RFID) chip and an antenna, wherein said tag emits a sideband at a defined frequency, upon activation by a magnetic field; b) a remote activating device (50, 250) that generates a magnetic field within a region of the tag; characterized in that said system further comprises c) a plurality of witness stations, each said witness station comprising an antenna configured to detect said sideband; and d) a component that is attachable to a medical device, wherein said component comprises: i) one or more medical device location emitters that generate signals upon exposure to the magnetic field generated by said remote activating device (50, 250), said signals detectable by the plurality of witness stations, and ii) an indicator comprising a visual display that presents distance to tag information, and spatial orientation, for said medical device accomplished geometrically by a procedure comprising measuring the quasi-simultaneous power detected at multiple witness stations. a) a tag, said tag comprising a radio-frequency identification (RFID) chip and an antenna, wherein said tag emits a sideband at a defined frequency, upon activation by a magnetic field; b) a remote activating device (50, 250) that generates a magnetic field within a region of the tag; characterized in that said system further comprises c) a plurality of witness stations, each said witness station comprising an antenna configured to detect said sideband; and d) a component that is attachable to a medical device, wherein said component comprises: i) one or more medical device location emitters that generate signals upon exposure to the magnetic field generated by said remote activating device (50, 250), said signals detectable by the plurality of witness stations, and ii) an indicator comprising a visual display that presents distance to tag information, and spatial orientation, for said medical device accomplished geometrically by a procedure comprising measuring the quasi-simultaneous power detected at multiple witness stations. i) one or more medical device location emitters that generate signals upon exposure to the magnetic field generated by said remote activating device (50, 250), said signals detectable by the plurality of witness stations, and ii) an indicator comprising a visual display that presents distance to tag information, and spatial orientation, for said medical device accomplished geometrically by a procedure comprising measuring the quasi-simultaneous power detected at multiple witness stations.
A computer implemented method, comprising: storing, by at least one processing device, an artifact received from a system monitored for a threat, the artifact including program code, binaries, user information, authorization data, reports, data entries in a database, configuration data from the system monitored for the threat, selected business data or metadata; generating, by the at least one processing device, a change log by comparing a snapshot of the artifact to an earlier snapshot of the artifact; transmitting, by the at least one processing device, the change log to a threat detection system (108, 308) configured to analyze the change log for evidence of the threat; receiving, by the threat detection system (108, 308), a log file from the system monitored for the threat, the log file including information on system events, application logs, and/or other information reflecting a running environment on the system monitored for the threat; and analyzing, by the threat detection system (108, 308), the log file together with the change log for the evidence of the threat, wherein the analyzing comprises: determining whether the log file includes an entry corresponding to a change indicated in the change log; detecting a threat based on the determination that there is no corresponding entry in the log file for the change indicated in the change log; and issuing an alarm based on the detection of the threat that there is no corresponding entry in the log file for the change indicated in the change log. storing, by at least one processing device, an artifact received from a system monitored for a threat, the artifact including program code, binaries, user information, authorization data, reports, data entries in a database, configuration data from the system monitored for the threat, selected business data or metadata; generating, by the at least one processing device, a change log by comparing a snapshot of the artifact to an earlier snapshot of the artifact; transmitting, by the at least one processing device, the change log to a threat detection system (108, 308) configured to analyze the change log for evidence of the threat; receiving, by the threat detection system (108, 308), a log file from the system monitored for the threat, the log file including information on system events, application logs, and/or other information reflecting a running environment on the system monitored for the threat; and analyzing, by the threat detection system (108, 308), the log file together with the change log for the evidence of the threat, wherein the analyzing comprises: determining whether the log file includes an entry corresponding to a change indicated in the change log; detecting a threat based on the determination that there is no corresponding entry in the log file for the change indicated in the change log; and issuing an alarm based on the detection of the threat that there is no corresponding entry in the log file for the change indicated in the change log.