mhurhangee/ep-ind-claims huggingface dataset:
A photographic stage comprising: at least one camera; a scanner; and a computer configured to: capture a plurality of images of a user from the at least one camera; detect a tagged item worn by the user based on data from the scanner; and identify the tagged item in at least one of the images. at least one camera; a scanner; and a computer configured to: capture a plurality of images of a user from the at least one camera; detect a tagged item worn by the user based on data from the scanner; and identify the tagged item in at least one of the images. capture a plurality of images of a user from the at least one camera; detect a tagged item worn by the user based on data from the scanner; and identify the tagged item in at least one of the images.
An information processing method comprising: acquiring, from a device mounted on a vehicle, manual driving information indicating vehicle control when performing manual driving through a driving route section of the vehicle and indicating an operation on the vehicle by a driver of the vehicle; acquiring, from the device mounted on the vehicle, sensor information acquired via sensing on the vehicle when performing manual driving through the driving route section; generating, by estimating in simulation, automated driving information indicating vehicle control for automated driving through the driving route section, based on the sensor information; and generating automated driving possibility information indicating whether the automated driving through the driving route section is possible or not, based on comparison results of the manual driving information and the automated driving information. acquiring, from a device mounted on a vehicle, manual driving information indicating vehicle control when performing manual driving through a driving route section of the vehicle and indicating an operation on the vehicle by a driver of the vehicle; acquiring, from the device mounted on the vehicle, sensor information acquired via sensing on the vehicle when performing manual driving through the driving route section; generating, by estimating in simulation, automated driving information indicating vehicle control for automated driving through the driving route section, based on the sensor information; and generating automated driving possibility information indicating whether the automated driving through the driving route section is possible or not, based on comparison results of the manual driving information and the automated driving information.
A hybrid parallel power supply, comprising: a first power supply connected to a power rail and configured to supply current to a load device via the power rail, the first power supply being further configured to regulate the power rail to a first target voltage level; a coupling capacitor having a first terminal coupled to the power rail; and a voltage regulator comprising an operational amplifier having a first input coupled to the power rail by a high-pass filter, a second input arranged to receive a reference voltage at a second target voltage level, and an output coupled to a second terminal of the coupling capacitor. a first power supply connected to a power rail and configured to supply current to a load device via the power rail, the first power supply being further configured to regulate the power rail to a first target voltage level; a coupling capacitor having a first terminal coupled to the power rail; and a voltage regulator comprising an operational amplifier having a first input coupled to the power rail by a high-pass filter, a second input arranged to receive a reference voltage at a second target voltage level, and an output coupled to a second terminal of the coupling capacitor.
A strapping apparatus for strapping articles for packing with a strapping band, which strapping apparatus has a tensioning device for imparting a band tension to a loop of a strapping band, wherein the tensioning device is equipped with a tensioning element which can be driven in rotation about a tensioning axis, which tensioning element is provided for engaging into the strapping band in order to impart a band tension, the tensioning device furthermore has a tensioning plate, wherein, during a tensioning process performed by the tensioning device, it is provided that a single-layer or multilayer section of the strapping band is situated between the tensioning element and the tensioning plate and is in contact both with the tensioning element and with the tensioning plate, and a connecting device for producing a permanent connection, in particular a welded connection, at two regions of the loop, situated one above the other, by way of a connecting element, such as a welding element, which is provided for locally heating the strapping band, the strapping apparatus being characterized in that it further comprises a freewheel which is equipped with a wrap spring and which serves for releasing the tensioning element from the strapping band, which freewheel is equipped with means for actuating the wrap spring in order to eliminate or generate frictional engagement of the wrap spring with at least two mutually separate contact partners, each in the form of a cylindrical element, wherein the tensioning element comprises a tensioning wheel, and wherein one of the contact partners is connected rotationally conjointly to the tensioning wheel, whereas the other contact partner is connected rotationally conjointly to a positionally fixed component of the strapping apparatus, and wherein the means for actuating, during an actuation, eliminate an operative connection between a drive of the tensioning element and the tensioning element, and wherein the means for actuating are adapted to pass out of operative connection with the one wrap spring after an actuation, upon which the operative connection between the drive of the tensioning element and the tensioning element is regenerated again.
Decoder for iteratively decoding a received signal generated by encoding an LDPC code word with a differential code, the decoder comprising: a differential decoder operable to provide extrinsic probability information on the LDPC code word based on the received signal and a-priori probability information on the received signal; a column-layered LDPC decoder operable to process columns of the LDPC code's parity check matrix based on the extrinsic probability information from the differential decoder to obtain updated a-priori probability information for the differential decoder; wherein the column-layered LDPC decoder is operable to process S columns of the LDPC code's parity check matrix in parallel, wherein the LDPC code's parity check matrix is constructed from a lifting matrix A by replacing each entry of the lifting matrix with either an all-zero matrix of size SxS or a permutation matrix of size SxS or a superposition of multiple permutation matrices of size SxS, depending on the entry of A, and wherein an entry A ¡',j of the i'-th column and the j-th row of the lifting matrix is x if an entry A i,j of the i-th column and the j-th row of the lifting matrix A is x, wherein x denotes a predetermined value leading to void entries in the corresponding LDPC code's parity check matrix, and wherein i = 1,1 + L,1 + 2L,... and i'= i + 1,i + 2,...,i + L-1, with L being an integer.. a differential decoder operable to provide extrinsic probability information on the LDPC code word based on the received signal and a-priori probability information on the received signal; a column-layered LDPC decoder operable to process columns of the LDPC code's parity check matrix based on the extrinsic probability information from the differential decoder to obtain updated a-priori probability information for the differential decoder; wherein the column-layered LDPC decoder is operable to process S columns of the LDPC code's parity check matrix in parallel, wherein the LDPC code's parity check matrix is constructed from a lifting matrix A by replacing each entry of the lifting matrix with either an all-zero matrix of size SxS or a permutation matrix of size SxS or a superposition of multiple permutation matrices of size SxS, depending on the entry of A, and wherein an entry A ¡',j of the i'-th column and the j-th row of the lifting matrix is x if an entry A i,j of the i-th column and the j-th row of the lifting matrix A is x, wherein x denotes a predetermined value leading to void entries in the corresponding LDPC code's parity check matrix, and wherein i = 1,1 + L,1 + 2L,... and i'= i + 1,i + 2,...,i + L-1, with L being an integer..
A method for producing a structural component, in particular for an aircraft, ground vehicle, or watercraft, or for a rotor blade of a wind turbine, in which method an arrangement of fibers and plastic material is laid in a mold and subjected to an increased pressure and an increased temperature, wherein a mold is used which comprises at least one recess in which a reinforcing element is arranged, characterized in that the reinforcing element which, when subjected to increased temperature, assumes a viscous state, is laid in the recess together with a core, wherein a differential volume between the recess and core, at least in a predetermined region, is chosen such that it is smaller by a predetermined amount than a segment of the reinforcing element arranged in said region and wherein the pressure is applied through a membrane which delimits an oil pressure chamber.
A compound of formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is a C 1-6 aliphatic group, wherein R 1 is optionally substituted with up to 2 groups independently selected from -OR or -C 1-3 haloalkyl; each R is independently hydrogen or C 1-4 aliphatic; R 2 is hydrogen, C 1-3 aliphatic, or chloro; m is 0, 1, or 2; and R 3 is hydrogen, C 1-3 aliphatic, fluoro, or chloro. R 1 is a C 1-6 aliphatic group, wherein R 1 is optionally substituted with up to 2 groups independently selected from -OR or -C 1-3 haloalkyl; each R is independently hydrogen or C 1-4 aliphatic; R 2 is hydrogen, C 1-3 aliphatic, or chloro; m is 0, 1, or 2; and R 3 is hydrogen, C 1-3 aliphatic, fluoro, or chloro.
Method for full bleed printing using an inkjet printing apparatus, the inkjet printing apparatus comprising a carriage, the carriage comprising a print head (4a-4d), the method comprising: a) in a current swath, moving the carriage and a receiving medium relative to each other in a main scanning direction and printing a reference pattern on the receiving medium; b) moving the carriage and the receiving medium relative to each other in a sub-scanning direction; c) in a subsequent swath, determining a distance between the reference pattern and a side edge of the receiving medium; d) based on the determined distance between the reference pattern and the side edge of the receiving medium, determining dots to be printed in an area between the side edge of the receiving medium and the reference pattern. a) in a current swath, moving the carriage and a receiving medium relative to each other in a main scanning direction and printing a reference pattern on the receiving medium; b) moving the carriage and the receiving medium relative to each other in a sub-scanning direction; c) in a subsequent swath, determining a distance between the reference pattern and a side edge of the receiving medium; d) based on the determined distance between the reference pattern and the side edge of the receiving medium, determining dots to be printed in an area between the side edge of the receiving medium and the reference pattern.
A gas inerting system for an aircraft, the system comprising: a fuel tank configured to contain a liquid fuel; a fuel vaporization system in fluid communication with the fuel tank and configured to receive the liquid fuel from the fuel tank; a source of air in fluid communication with the fuel vaporization system and configured to deliver air into the liquid fuel to produce the fuel vapor; a heat exchanger in fluid communication with the source of air at a location upstream of the fuel vaporization system, wherein the heat exchanger is configured to cool the air from the air source; and a catalytic oxidation unit in fluid communication with the fuel vaporization system, wherein a fluid connection is configured to deliver the fuel vapor to the catalytic oxidation unit. a fuel tank configured to contain a liquid fuel; a fuel vaporization system in fluid communication with the fuel tank and configured to receive the liquid fuel from the fuel tank; a source of air in fluid communication with the fuel vaporization system and configured to deliver air into the liquid fuel to produce the fuel vapor; a heat exchanger in fluid communication with the source of air at a location upstream of the fuel vaporization system, wherein the heat exchanger is configured to cool the air from the air source; and a catalytic oxidation unit in fluid communication with the fuel vaporization system, wherein a fluid connection is configured to deliver the fuel vapor to the catalytic oxidation unit.
Transporting apparatus, comprising a track and at least one movable element movable along said track, said movable element comprising a supporting body, said track comprising a first guiding surface and a further first guiding surface facing towards said supporting body, a second guiding surface and a further second guiding surface facing away from said supporting body, and a third guiding surface arranged transversally to said first guiding surface and said second guiding surface and a further third guiding surface arranged transversally to said further first guiding surface and said further second guiding surface, wherein said movable element comprises a first couple of rollers slidably coupled to said first guiding surface, a further first couple of rollers slidably coupled to said further first guiding surface, a second couple of rollers slidably coupled to said second guiding surface, a further second couple of rollers slidably coupled to said further second guiding surface, a third couple of rollers slidably coupled to said third guiding surface and a further third couple of rollers slidably coupled to said further third guiding surface, characterized in that said transporting apparatus further comprises four rotation units each supporting a group of three rollers, each group of three rollers comprising a roller (41; 42) belonging to said first couple of rollers or to said further first couple of rollers, a further roller (42; 41) belonging to said second couple of rollers or, respectively, to said further second couple of rollers and a still further roller belonging to said third couple of rollers or, respectively, to said further third couple of rollers.
A computer-implemented method of generating zones with a telematics system (100, 200), wherein a zone is a virtual perimeter or a virtual fence around a real-world area of interest, the method comprising: obtaining telematics data from one or more telematics devices associated with one or more vehicles of a fleet, the telematics data including GPS data associated with one or more trips taken by the one or more vehicles; identifying vehicle stops in the telematics data; identifying a cluster of vehicle stops using a clustering algorithm, wherein identifying the cluster of vehicle stops includes assigning a geographical space having a geographical boundary for the clustering algorithm, wherein the geographical boundary divides the vehicle stops which are disposed on either side of the boundary; creating a first polygon (160, 162) containing the cluster of vehicle stops, on either side of the boundary; establishing a buffer extending a predetermined distance around the geographical boundary; identifying vehicle stops within the buffer; identifying a buffer cluster of vehicle stops within the buffer using the clustering algorithm; creating a buffer polygon containing the cluster of vehicle stops within the buffer; determining whether the buffer polygon and the first polygon (160, 162) overlap, based on the determination of whether the buffer polygon and the first polygon (160, 162) overlap, merging the buffer polygon and the first polygon (160, 162) into a merged polygon; and outputting the merged polygon as a merged zone to a user. obtaining telematics data from one or more telematics devices associated with one or more vehicles of a fleet, the telematics data including GPS data associated with one or more trips taken by the one or more vehicles; identifying vehicle stops in the telematics data; identifying a cluster of vehicle stops using a clustering algorithm, wherein identifying the cluster of vehicle stops includes assigning a geographical space having a geographical boundary for the clustering algorithm, wherein the geographical boundary divides the vehicle stops which are disposed on either side of the boundary; creating a first polygon (160, 162) containing the cluster of vehicle stops, on either side of the boundary; establishing a buffer extending a predetermined distance around the geographical boundary; identifying vehicle stops within the buffer; identifying a buffer cluster of vehicle stops within the buffer using the clustering algorithm; creating a buffer polygon containing the cluster of vehicle stops within the buffer; determining whether the buffer polygon and the first polygon (160, 162) overlap, based on the determination of whether the buffer polygon and the first polygon (160, 162) overlap, merging the buffer polygon and the first polygon (160, 162) into a merged polygon; and outputting the merged polygon as a merged zone to a user.
A sensor management unit (1; 10) for transmitting first sensing data obtained by a first sensor monitoring a target to an external device external to the sensor management unit (1; 10), the sensor management unit (1; 10) comprising: a processor; and a memory storing a program executable by the processor, wherein the memory is configured to store obtaining condition information that defines obtaining conditions for obtaining a plurality of candidate items of metadata to be associated with the first sensing data, and the program is configured to, when executed by the processor, cause the processor to implement: obtaining the first sensing data, obtaining at least one of the candidate items of metadata in accordance with the obtaining conditions, and transmitting, to the external device, the obtained first sensing data and the obtained metadata in a manner associated with each other. a processor; and a memory storing a program executable by the processor, wherein the memory is configured to store obtaining condition information that defines obtaining conditions for obtaining a plurality of candidate items of metadata to be associated with the first sensing data, and the program is configured to, when executed by the processor, cause the processor to implement: obtaining the first sensing data, obtaining at least one of the candidate items of metadata in accordance with the obtaining conditions, and transmitting, to the external device, the obtained first sensing data and the obtained metadata in a manner associated with each other. obtaining the first sensing data, obtaining at least one of the candidate items of metadata in accordance with the obtaining conditions, and transmitting, to the external device, the obtained first sensing data and the obtained metadata in a manner associated with each other.
A device for determining mechanical, particularly elastic, parameters of an examination object, comprising a) at least one arrangement for determining the spatial distribution of magnetic particles in at least one examination area of the examination object, comprising a means for generating a magnetic field with a spatial profile of the magnetic field strength such that there is produced in at least one examination area a first part-area having a low magnetic field strength where the magnetization of the magnetic particles is not saturated and a second part-area having a higher magnetic field strength where the magnetization of the magnetic particles is saturated, a means for detecting signals which depend on the magnetization in the examination object, particularly in the examination area, that is influenced by a spatial change in the particles, and a means for evaluating the signals so as to obtain information about the, in particular temporally changing, spatial distribution of the magnetic particles in the examination area; b) at least one means for generating mechanical displacements, in particular oscillations, at least in and/or adjacent to the examination area of the examination object; and c) at least one means for changing the spatial position of the two part-areas in the examination area so that the magnetization of the particles changes locally. a) at least one arrangement for determining the spatial distribution of magnetic particles in at least one examination area of the examination object, comprising a means for generating a magnetic field with a spatial profile of the magnetic field strength such that there is produced in at least one examination area a first part-area having a low magnetic field strength where the magnetization of the magnetic particles is not saturated and a second part-area having a higher magnetic field strength where the magnetization of the magnetic particles is saturated, a means for detecting signals which depend on the magnetization in the examination object, particularly in the examination area, that is influenced by a spatial change in the particles, and a means for evaluating the signals so as to obtain information about the, in particular temporally changing, spatial distribution of the magnetic particles in the examination area; b) at least one means for generating mechanical displacements, in particular oscillations, at least in and/or adjacent to the examination area of the examination object; and c) at least one means for changing the spatial position of the two part-areas in the examination area so that the magnetization of the particles changes locally.