mhurhangee/ep-ind-claims huggingface dataset:
An aircraft autobraking system comprising: an autobrake controller configured to send an initial single autobrake pedal command based on an aircraft acceleration target, wherein the initial single autobrake pedal command is generated by the autobrake controller; a pedal balance controller configured to send an autobrake pedal correction factor to assist in maintaining a desired course of the aircraft; an autobrake pedal executive controller configured to receive at least one of the autobrake pedal correction factor from the pedal balance controller or the initial autobrake pedal command from the autobrake controller, the autobrake pedal executive controller being configured to send an autobrake left pedal command and an autobrake right pedal command to a pedal executive controller, the pedal executive controller being configured to generate a pedal command in response thereto; and wherein the pedal executive controller further receives a pilot left pedal input and a pilot right pedal input transmitted by a pilot depressing brake pedals; and a pedal braking controller configured to calculate a braking command from the pedal command received from the pedal executive controller and from the pilot left and right pedal inputs, and to send said braking command to a braking system. an autobrake controller configured to send an initial single autobrake pedal command based on an aircraft acceleration target, wherein the initial single autobrake pedal command is generated by the autobrake controller; a pedal balance controller configured to send an autobrake pedal correction factor to assist in maintaining a desired course of the aircraft; an autobrake pedal executive controller configured to receive at least one of the autobrake pedal correction factor from the pedal balance controller or the initial autobrake pedal command from the autobrake controller, the autobrake pedal executive controller being configured to send an autobrake left pedal command and an autobrake right pedal command to a pedal executive controller, the pedal executive controller being configured to generate a pedal command in response thereto; and wherein the pedal executive controller further receives a pilot left pedal input and a pilot right pedal input transmitted by a pilot depressing brake pedals; and a pedal braking controller configured to calculate a braking command from the pedal command received from the pedal executive controller and from the pilot left and right pedal inputs, and to send said braking command to a braking system.
Mechanical seal for sealing at least one fluid-conducting channel and/or space extending in a stationary component and/or a rotating component with respect to the environment, having a sliding ring and a mating ring, wherein the sliding ring is supported in a sealing manner in the axial direction against the mating ring and, in order to compensate for wear on its end sealing surface or on a mating surface, is supported elastically and movably in the axial direction with this sealing surface against the mating ring; having a position sensor for detecting the position of the sliding ring in the axial direction; wherein the position sensor comprises at least one transducer fixed to the sliding ring or supported against the sliding ring in the axial direction and moving in the axial direction with the sliding ring, and a stationary sensor positioned radially outside the sliding ring and detecting the position of the transducer in the axial direction; characterized in that the stationary sensor is connected to and/or supported by a housing which movably receives the sliding ring in the axial direction and with respect to which the sliding ring protrudes in the axial direction with its end sealing surface. having a sliding ring and a mating ring, wherein the sliding ring is supported in a sealing manner in the axial direction against the mating ring and, in order to compensate for wear on its end sealing surface or on a mating surface, is supported elastically and movably in the axial direction with this sealing surface against the mating ring; having a position sensor for detecting the position of the sliding ring in the axial direction; wherein the position sensor comprises at least one transducer fixed to the sliding ring or supported against the sliding ring in the axial direction and moving in the axial direction with the sliding ring, and a stationary sensor positioned radially outside the sliding ring and detecting the position of the transducer in the axial direction; characterized in that the stationary sensor is connected to and/or supported by a housing which movably receives the sliding ring in the axial direction and with respect to which the sliding ring protrudes in the axial direction with its end sealing surface.
An information processing apparatus comprising: a defective pixel map data acquisition unit that acquires defective pixel map data indicating positional information of a defective pixel which is defective among a plurality of pixels forming a radiography unit; and a failure condition estimation unit that estimates a failure probability of the radiography unit or a usage state of the radiography unit at the time of failure, using a learned model that receives the defective pixel map data and outputs the failure probability of the radiography unit or the usage state of the radiography unit at the time of failure. a defective pixel map data acquisition unit that acquires defective pixel map data indicating positional information of a defective pixel which is defective among a plurality of pixels forming a radiography unit; and a failure condition estimation unit that estimates a failure probability of the radiography unit or a usage state of the radiography unit at the time of failure, using a learned model that receives the defective pixel map data and outputs the failure probability of the radiography unit or the usage state of the radiography unit at the time of failure.
A method, comprising: obtaining resource allocation, also referred to as RA, information by a station, also referred to as STA, in an OFDMA wireless network, wherein the RA information is indicated in a HE-SIG-B common field and user specific field, and wherein the HE-SIG-B common field for RA is with a fixed format; decoding an 8-bit RU allocation signal in the HE-SIG-B common field following a structured resource unit, also referred to as RU, allocation rule, wherein the structured RU allocation rule supports up to 8 users on RUs larger than or equal to 106-tone; and determining a RU for the STA based on the decoded 8-bit RU allocation signal and a position of the user specific field for the STA, characterized in that two bits of the 8-bit RU allocation signal are used as a first category identifier to determine a first category of the RU allocation, wherein categories of the RU allocation include a large RU size category indicating larger than or equal to 242-tone RUs exist, a two 106-tone category indicating two 106-tone RUs exist, and a no-large-RU category indicating only smaller-than-242-tone RUs exist and no more than one 106-tone RU exists. obtaining resource allocation, also referred to as RA, information by a station, also referred to as STA, in an OFDMA wireless network, wherein the RA information is indicated in a HE-SIG-B common field and user specific field, and wherein the HE-SIG-B common field for RA is with a fixed format; decoding an 8-bit RU allocation signal in the HE-SIG-B common field following a structured resource unit, also referred to as RU, allocation rule, wherein the structured RU allocation rule supports up to 8 users on RUs larger than or equal to 106-tone; and determining a RU for the STA based on the decoded 8-bit RU allocation signal and a position of the user specific field for the STA, characterized in that two bits of the 8-bit RU allocation signal are used as a first category identifier to determine a first category of the RU allocation, wherein categories of the RU allocation include a large RU size category indicating larger than or equal to 242-tone RUs exist, a two 106-tone category indicating two 106-tone RUs exist, and a no-large-RU category indicating only smaller-than-242-tone RUs exist and no more than one 106-tone RU exists.
Locating device, in particular a hand-held locating device for detecting objects enclosed in a medium, having a housing and at least one sensor apparatus arranged in the housing, and having an opening penetrating the housing, wherein the opening, which defines the measurement site, is able to be illuminated in a pulsed fashion by way of at least one light source arranged in the measurement device, wherein an inspected measurement location is directly visible to a user through the opening, characterized in that the repetition rate of the illumination is dependent on the detected object type, wherein object differentiation is effected by way of at least one quickly pulsing, one slowly pulsing and one constant illumination.
Method for manufacturing an interdental cleaner, wherein a rod-shaped carrier consisting of plastic is provided on at least one section of an axial length with a structuring with structural elements protruding radially from the carrier and wherein the carrier is twisted together with the structuring about its longitudinal axis in at least one part of the section having the structuring, wherein the carrier is grasped by means of holding devices (20, 21) in two areas located at axially spaced locations from one another, and the holding devices (20, 21) are then twisted relative to one another, characterized in that the mutual distance between the holding devices (20, 21) is changed during the twisting of the carrier.
Security document or document of value, or paper for the manufacture of such a security document or document of value, comprising a substrate and at least one self-healing material, said self-healing material being of the reversible type without formation of covalent bonds.
A method of communicating between a server and a distant secure element through a point-to-point link, said distant secure element comprising a reference value, said method comprises the following steps: - providing the server with a set comprising a plurality of data (D1, D2) and a plurality of identifiers (ID1, ID2), each of said data of the plurality of data (D1, D2) being associated with an identifier belonging to the plurality of identifiers (ID1, ID2), - sending the whole set from the server to the distant secure element through the point-to-point link, - at the distant secure element, performing a control operation with respect to the reference value for each identifier of the plurality of identifiers (ID1, ID2) and discarding the data associated with the identifiers for which the control operation failed, and in that said plurality of data (D1, D2) comprises a first data compatible with the distant secure element and a second data incompatible with the distant secure element. - providing the server with a set comprising a plurality of data (D1, D2) and a plurality of identifiers (ID1, ID2), each of said data of the plurality of data (D1, D2) being associated with an identifier belonging to the plurality of identifiers (ID1, ID2), - sending the whole set from the server to the distant secure element through the point-to-point link, - at the distant secure element, performing a control operation with respect to the reference value for each identifier of the plurality of identifiers (ID1, ID2) and discarding the data associated with the identifiers for which the control operation failed,
An emergency lighting device for controlling a lighting means, having: - an energy store - a charging circuit for the energy store with connections for a mains voltage, wherein the charging circuit has a first potential separation element, - a potentially separated clocked converter supplied from the energy store, having at least one switch, - a control circuit (23, 123) which is configured to detect the mains voltage directly or indirectly, wherein the control circuit (23, 123) is also configured to operate the converter in a clocked manner by controlling the switch, if a failure of the mains voltage is detected by the control circuit (23, 123), and - a supply path from a secondary side of the converter to connections for the lighting means, characterized in that - the control circuit (23, 123) can be supplied with energy via a secondary- side auxiliary winding on the first potential separation element or via a primary-side auxiliary winding (L2u) on the converter, wherein the secondary-side auxiliary winding is adapted to the first potential separation element so that the control circuit (23, 123) can be supplied with energy until the converter is operated in a clocked manner by the control circuit (23, 123), wherein the primary-side auxiliary winding (L2u) is adapted to the converter so that the control circuit (23, 123) can be supplied with energy, if the converter is operated in a clocked manner by the control circuit (23, 123). - an energy store - a charging circuit for the energy store with connections for a mains voltage, wherein the charging circuit has a first potential separation element, - a potentially separated clocked converter supplied from the energy store, having at least one switch, - a control circuit (23, 123) which is configured to detect the mains voltage directly or indirectly, wherein the control circuit (23, 123) is also configured to operate the converter in a clocked manner by controlling the switch, if a failure of the mains voltage is detected by the control circuit (23, 123), and - a supply path from a secondary side of the converter to connections for the lighting means, characterized in that - the control circuit (23, 123) can be supplied with energy via a secondary- side auxiliary winding on the first potential separation element or via a primary-side auxiliary winding (L2u) on the converter, wherein the secondary-side auxiliary winding is adapted to the first potential separation element so that the control circuit (23, 123) can be supplied with energy until the converter is operated in a clocked manner by the control circuit (23, 123), wherein the primary-side auxiliary winding (L2u) is adapted to the converter so that the control circuit (23, 123) can be supplied with energy, if the converter is operated in a clocked manner by the control circuit (23, 123).
A lower structure for a hybrid automobile in which a high-voltage battery unit is disposed in a lower surface of a floor panel, the lower structure comprising: an engine exhaust system component which is disposed in front of the high-voltage battery unit in the lower surface of the floor panel and on one vehicle-width-direction side of a center in a vehicle width direction; and a high-voltage device (30, 31) which is disposed in front of the high-voltage battery unit in the lower surface of the floor panel and on another vehicle-width-direction side of the center in the vehicle width direction, the lower structure being characterized in that an in-vehicle equipment is disposed between the high-voltage battery unit and the high-voltage device (30, 31), and the in-vehicle equipment is in an inclined state where an upper surface of the in-vehicle equipment is inclined in a front-rear direction such that the in-vehicle equipment has a shorter dimension in the front-rear direction than a dimension in a horizontal state where the upper surface becomes horizontal. an engine exhaust system component which is disposed in front of the high-voltage battery unit in the lower surface of the floor panel and on one vehicle-width-direction side of a center in a vehicle width direction; and a high-voltage device (30, 31) which is disposed in front of the high-voltage battery unit in the lower surface of the floor panel and on another vehicle-width-direction side of the center in the vehicle width direction, the lower structure being characterized in that an in-vehicle equipment is disposed between the high-voltage battery unit and the high-voltage device (30, 31), and the in-vehicle equipment is in an inclined state where an upper surface of the in-vehicle equipment is inclined in a front-rear direction such that the in-vehicle equipment has a shorter dimension in the front-rear direction than a dimension in a horizontal state where the upper surface becomes horizontal.
A cell culture apparatus comprising: a housing; a first bag disposed in the housing, the first bag having an exterior surface and an interior surface, wherein a first chamber for culturing ceJJs is defined by the interior surface ofthe first bag; a first inflatable bladder disposed within the housing and external to the first bag; wherein the first bladder is sufficiently inflatable and expandable to exert pressure on the first bag when the first chamber is substantially free of fluid: a first spacer disposed in the housing and exterior to the first bag, wherein the first spacer provides a first passageway for air flow along the exterior surface ofthe first bag, and wherein the first spacer is disposed between the first bladder and the first bag. a housing; a first bag disposed in the housing, the first bag having an exterior surface and an interior surface, wherein a first chamber for culturing ceJJs is defined by the interior surface ofthe first bag; a first inflatable bladder disposed within the housing and external to the first bag; wherein the first bladder is sufficiently inflatable and expandable to exert pressure on the first bag when the first chamber is substantially free of fluid: a first spacer disposed in the housing and exterior to the first bag, wherein the first spacer provides a first passageway for air flow along the exterior surface ofthe first bag, and wherein the first spacer is disposed between the first bladder and the first bag.
A carbon powder for fuel cell comprising carbon as a main component, which has a ratio (B/A) of an area B of peak 1 to an area A of peak 0 of more than 0 and 0.15 or less, wherein the area A represents an area of peak 0 at a position of 2θ = 22.5° to 25° as observed by XRD analysis using CuKa ray as radiation source after the carbon powder for fuel cell has been subjected to heat treatment at 1800°C for 1 hour in an inert atmosphere, and the area B represents an area of peak 1 at a position of 2θ = 26° as observed by XRD analysis using CuKa ray as radiation source after the carbon powder for fuel cell has been subjected to heat treatment at 1800°C for 1 hour in an inert atmosphere; wherein the carbon powder has a BET specific surface area per weight of more than 610 m 2 /g and less than 900 m 2 /g; and wherein the carbon powder has a mesopore and a pore volume of the mesopore is 0.9 cm 3 /g carrier or more, the pore volume of the mesopore meaning a total volume of mesopore having a diameter of from 2 to 50 nm in the carbon powder, represented by a volume per 1 g of carbon powder, which is calculated as an area (integrated value) of a lower portion of differential pore distribution curve determined by a nitrogen adsorption method (DH method).
A process for manufacturing an oligonucleotide which comprises removing β-cyanoethyl protective groups from a protected oligonucleotide attached to a solid support, wherein said removing comprises contacting the protected oligonucleotide in a column having inlet and outlet openings with from 2 to 60 column volumes of a solution of 1,8-Diazabicyclo[5.4.0]undec-7-ene in a solvent which comprises or consists essentially of a halogenated compound or a cyanoalkyl compound, and wherein the concentration of the DBU in the solution is less than 0.5 mole/liter.
An axial force measurement method for measuring an axial force of a bolt fastened to an object to be fastened, the method characterized in that it comprises: acquiring a distance image with a height as a pixel value by measuring a height of a head of the bolt with a distance sensor; calculating a gravity center position of the head of the bolt by subjecting the distance image to binarization processing to acquire a binarized image and extracting an image of the head of the bolt from the binarized image; calculating an average value of a height of pixels positioned inside a minimum circle as a minimum point by subjecting the distance image to mask processing and extracting only pixels positioned inside the minimum circle centered on the gravity center position of the head of the bolt; calculating an average value of the height of extracted pixels with a large height as a maximum point by extracting pixels with the large height from the pixels of the distance image on the basis of the pixel value of the pixel; calculating a displacement amount of the head of the bolt on the basis of a difference between a calculation result on the minimum point and a calculation result on the maximum point; and calculating an axial force by substituting the calculation result on the displacement amount of the head of the bolt into a pre-calculated relational expression of an axial force and the displacement amount of the head of the bolt. acquiring a distance image with a height as a pixel value by measuring a height of a head of the bolt with a distance sensor; calculating a gravity center position of the head of the bolt by subjecting the distance image to binarization processing to acquire a binarized image and extracting an image of the head of the bolt from the binarized image; calculating an average value of a height of pixels positioned inside a minimum circle as a minimum point by subjecting the distance image to mask processing and extracting only pixels positioned inside the minimum circle centered on the gravity center position of the head of the bolt; calculating an average value of the height of extracted pixels with a large height as a maximum point by extracting pixels with the large height from the pixels of the distance image on the basis of the pixel value of the pixel; calculating a displacement amount of the head of the bolt on the basis of a difference between a calculation result on the minimum point and a calculation result on the maximum point; and calculating an axial force by substituting the calculation result on the displacement amount of the head of the bolt into a pre-calculated relational expression of an axial force and the displacement amount of the head of the bolt.
A method of manufacturing a woven multi-layer fabric prepreg for use in constructing a composite laminate, comprising the steps of: providing two sheets (600, 900) of woven fabric having tows of fibres in a satin weave, such that said tows create long floats (621, 622) on each side of each sheet (600, 900), being elongate and having a longitudinal direction; impregnating each sheet (600, 900) of fabric with a polymer matrix (802, 803); placing the sheets (600, 900) together face-to-face or back-to-back with the long floats (621, 622) parallel, such that the tows pack together and enclosed free space between the sheets is minimised, and so that the longitudinal directions are aligned; and adhering said sheets together to form the woven multi-layer fabric prepreg., characterized in that the fabric prepreg has a fabric weight of over 1000 g/m 2 and in that each sheet (600, 900) has a weight of over 500 g/m 2. providing two sheets (600, 900) of woven fabric having tows of fibres in a satin weave, such that said tows create long floats (621, 622) on each side of each sheet (600, 900), being elongate and having a longitudinal direction; impregnating each sheet (600, 900) of fabric with a polymer matrix (802, 803); placing the sheets (600, 900) together face-to-face or back-to-back with the long floats (621, 622) parallel, such that the tows pack together and enclosed free space between the sheets is minimised, and so that the longitudinal directions are aligned; and adhering said sheets together to form the woven multi-layer fabric prepreg., characterized in that the fabric prepreg has a fabric weight of over 1000 g/m 2 and in that each sheet (600, 900) has a weight of over 500 g/m 2.