mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving , by an application executing on a processor, a request from a first account to grant a second account access to a computing resource; receiving , by the application, a cryptogram and a permissions vector of the first account from a contactless card associated with the first account; transmitting , by the application, the cryptogram and the permissions vector to an authentication server; and receiving , by the application from the authentication server, based on the permissions vector of the first account indicating that the first account has permissions to grant the second account access to the computing resource, a result indicating that the authentication server decrypted the cryptogram and a permissions vector of the second account, the permissions vector of the second account reflecting grant of access to the computing resource to the second account. receiving , by an application executing on a processor, a request from a first account to grant a second account access to a computing resource; receiving , by the application, a cryptogram and a permissions vector of the first account from a contactless card associated with the first account; transmitting , by the application, the cryptogram and the permissions vector to an authentication server; and receiving , by the application from the authentication server, based on the permissions vector of the first account indicating that the first account has permissions to grant the second account access to the computing resource, a result indicating that the authentication server decrypted the cryptogram and a permissions vector of the second account, the permissions vector of the second account reflecting grant of access to the computing resource to the second account.
A vehicle having an integrated connector system, comprising: an accessory comprising one or more attachment plugs ; a vehicle body comprising an outer surface; a plurality of attachment ports arranged on the outer surface each configured to receive a respective attachment plug of the accessory , each of the plurality of attachment ports comprising: a recess that extends below the surrounding outer surface configured to receive a respective attachment plug , the recess having opposing sides and a depth; and a pin extending between two opposing sides of the recess , the pin being arranged within the recess at a depth less than the depth of the recess ; wherein the one or more attachment plugs each includes a body configured to extend into the recess , characterized in that a notch formed in the body is configured to accommodate the pin when the plug is inserted into the recess , and a latching mechanism configured to engage the pin when the pin is received in the notch to constrain relative motion of the attachment plug away from the attachment port . an accessory comprising one or more attachment plugs ; a vehicle body comprising an outer surface; a plurality of attachment ports arranged on the outer surface each configured to receive a respective attachment plug of the accessory , each of the plurality of attachment ports comprising: a recess that extends below the surrounding outer surface configured to receive a respective attachment plug , the recess having opposing sides and a depth; and a pin extending between two opposing sides of the recess , the pin being arranged within the recess at a depth less than the depth of the recess ; wherein the one or more attachment plugs each includes a body configured to extend into the recess , characterized in that a notch formed in the body is configured to accommodate the pin when the plug is inserted into the recess , and a latching mechanism configured to engage the pin when the pin is received in the notch to constrain relative motion of the attachment plug away from the attachment port . a recess that extends below the surrounding outer surface configured to receive a respective attachment plug , the recess having opposing sides and a depth; and a pin extending between two opposing sides of the recess , the pin being arranged within the recess at a depth less than the depth of the recess ; wherein the one or more attachment plugs each includes a body configured to extend into the recess , characterized in that a notch formed in the body is configured to accommodate the pin when the plug is inserted into the recess , and a latching mechanism configured to engage the pin when the pin is received in the notch to constrain relative motion of the attachment plug away from the attachment port .
A refrigerator, comprising: a body having a storage compartment ; a door to open/close the storage compartment ; an ice making device disposed at a ceiling of the storage compartment to generate ice; an ice storage compartment provided at the door ; an ice bucket mounted at the ice storage compartment to store the ice generated at the ice making device ; and an ice detecting sensor , including an emitter to radiate optical signals and a receiver to receive optical signals, and configured to detect an ice level status at the ice bucket , the ice detecting sensor provided at the ice storage compartment and positioned at an outside of the ice bucket , wherein the ice storage compartment comprises an ice storage compartment body and an ice bucket mounting space formed inside the ice storage compartment body, and characterized in that one of the emitter and the receiver is installed at a left side wall or a right side wall of the ice storage compartment body, and the remaining one of the emitter and the receiver is installed at a rear wall of the ice storage compartment body, so that an optical path in between the emitter and the receiver is diagonally formed. a body having a storage compartment ; a door to open/close the storage compartment ; an ice making device disposed at a ceiling of the storage compartment to generate ice; an ice storage compartment provided at the door ; an ice bucket mounted at the ice storage compartment to store the ice generated at the ice making device ; and an ice detecting sensor , including an emitter to radiate optical signals and a receiver to receive optical signals, and configured to detect an ice level status at the ice bucket , the ice detecting sensor provided at the ice storage compartment and positioned at an outside of the ice bucket , wherein the ice storage compartment comprises an ice storage compartment body and an ice bucket mounting space formed inside the ice storage compartment body, and characterized in that one of the emitter and the receiver is installed at a left side wall or a right side wall of the ice storage compartment body, and the remaining one of the emitter and the receiver is installed at a rear wall of the ice storage compartment body, so that an optical path in between the emitter and the receiver is diagonally formed.
A code reader for reading an optical code , comprising a line-shaped image sensor having a plurality of line arrangements (20a-d) of light receiving pixels for acquiring image data including the code , and a control and evaluation unit configured to find the code in the image data and to read out the code , wherein the light receiving pixels have a different spectral sensitivity, wherein at least one line arrangement (20a-d) is a white line whose receiving pixels are sensitive to white light for acquiring a gray scale image, and the other line arrangements (20a-d) are color lines whose receiving pixels are sensitive to light of only one respective color for acquiring a color image, wherein at least one color line is provided, characterized in that the at least one color line comprises light-receiving pixels that are each sensitive to one of two primary colors, and no light-receiving pixels that are sensitive to the third primary color.
A method for reporting channel state information, CSI, by a user equipment, UE, in a wireless access system supporting an unlicensed band, the method comprising: receiving a predetermined number of subframes of a downlink burst configured in an unlicensed band cell, UCell, supporting the unlicensed band, wherein the downlink burst includes a partial subframe, pSF, configured in a size smaller than a normal subframe; measuring CSI for the downlink burst; and reporting the measured CSI to a base station, BS, the method characterised in that measuring the CSI comprises measuring the CSI in a subframe except the pSF among the predetermined number of subframes of the downlink. receiving a predetermined number of subframes of a downlink burst configured in an unlicensed band cell, UCell, supporting the unlicensed band, wherein the downlink burst includes a partial subframe, pSF, configured in a size smaller than a normal subframe; measuring CSI for the downlink burst; and reporting the measured CSI to a base station, BS, the method characterised in that measuring the CSI comprises measuring the CSI in a subframe except the pSF among the predetermined number of subframes of the downlink.
A solid catalyst component for the polymerization of olefins comprising Mg, Ti, Cl and at least an electron donor compound which is the reaction product obtained by bringing into contact a Mg compound and a Ti compound having at least a Ti-halogen bond with an electron donor selected from diphenol derivatives of formula (I) in which X is a chlorine substituted phenyl group, and Y is selected from hydrogen or R 1 ; the R groups, equal to or different from each other, are selected from hydrogen, halogen and C 1 -C 15 hydrocarbon groups, optionally containing an heteroatom selected from halogen, P, S, N, O and Si, which can be fused together to form one or more cycles, and R 1 is a C 1 -C 5 aliphatic group.
A microscope apparatus comprising a stage on which a vessel in which an object to be observed is stored is installed: an image forming optical system that includes an objective lens forming an image of the object to be observed stored in the vessel; a stage drive unit that moves the stage between an initial set position (P1) where the vessel is to be installed on the stage and a scanning measurement position (P2) where observation positions in the vessel are to be scanned by the image forming optical system: a scanning control unit that moves at least one of the stage or the image forming optical system at the scanning measurement position to scan the respective observation positions in the vessel by the image forming optical system; an auto-focus control unit that performs auto-focus control at every observation position; characterized in that it further comprises a focus information-detection unit that detects a position of a bottom surface of the vessel as focus information of the vessel while the stage is moved to the scanning measurement position from the initial set position, the focus information-detection unit comprising a displacement sensor , wherein the auto-focus control unit performs the auto-focus control at every observation position on the basis of the focus information in a case where the stage has been moved to the scanning measurement position. an image forming optical system that includes an objective lens forming an image of the object to be observed stored in the vessel; a stage drive unit that moves the stage between an initial set position (P1) where the vessel is to be installed on the stage and a scanning measurement position (P2) where observation positions in the vessel are to be scanned by the image forming optical system: a scanning control unit that moves at least one of the stage or the image forming optical system at the scanning measurement position to scan the respective observation positions in the vessel by the image forming optical system; an auto-focus control unit that performs auto-focus control at every observation position; characterized in that it further comprises a focus information-detection unit that detects a position of a bottom surface of the vessel as focus information of the vessel while the stage is moved to the scanning measurement position from the initial set position, the focus information-detection unit comprising a displacement sensor , wherein the auto-focus control unit performs the auto-focus control at every observation position on the basis of the focus information in a case where the stage has been moved to the scanning measurement position.
A grain oriented electrical steel sheet comprising: a base steel sheet; a lower layer which is arranged in contact with the base steel sheet; and an insulation coating which is arranged in contact with the lower layer and which includes a phosphate and a colloidal silica as main components, wherein the base steel sheet includes: as a chemical composition, by mass%, 0.085% or less of C; 0.80 to 7.00% of Si; 0.05 to 1.00% of Mn; 0.010 to 0.065% of Al; 0.0040% or less of N; 0.015% or less of Seq = S + 0.406·Se; 0.0005 to 0.0080% of B; optionally at least one selected from the group consisting of 0.30% or less of Cr, 0.40% or less of Cu, 0.50% or less of P, 1.00% or less of Ni, 0.30% or less of Sn, 0.30% or less of Sb, and 0.010 or less of Bi; a balance consisting of Fe and impurities, wherein the base steel sheet includes a B compound whose major axis length is 1 to 20 μm and whose number density is 1×10 to 1×10 6 pieces/mm 3 , the number density of the B compound and the major axis are determined according to the method described in the description, wherein the lower layer is a glass film which includes a forsterite as main component or an intermediate layer includes a silicon oxide as main component, and wherein the B compound is at least one selected from group consisting of Fe 2 B and Fe 3 B. a base steel sheet; a lower layer which is arranged in contact with the base steel sheet; and an insulation coating which is arranged in contact with the lower layer and which includes a phosphate and a colloidal silica as main components, wherein the base steel sheet includes: as a chemical composition, by mass%, 0.085% or less of C; 0.80 to 7.00% of Si; 0.05 to 1.00% of Mn; 0.010 to 0.065% of Al; 0.0040% or less of N; 0.015% or less of Seq = S + 0.406·Se; 0.0005 to 0.0080% of B; optionally at least one selected from the group consisting of 0.30% or less of Cr, 0.40% or less of Cu, 0.50% or less of P, 1.00% or less of Ni, 0.30% or less of Sn, 0.30% or less of Sb, and 0.010 or less of Bi; 0.085% or less of C; 0.80 to 7.00% of Si; 0.05 to 1.00% of Mn; 0.010 to 0.065% of Al; 0.0040% or less of N; 0.015% or less of Seq = S + 0.406·Se; 0.0005 to 0.0080% of B; optionally at least one selected from the group consisting of 0.30% or less of Cr, 0.40% or less of Cu, 0.50% or less of P, 1.00% or less of Ni, 0.30% or less of Sn, 0.30% or less of Sb, and 0.010 or less of Bi; a balance consisting of Fe and impurities, wherein the base steel sheet includes a B compound whose major axis length is 1 to 20 μm and whose number density is 1×10 to 1×10 6 pieces/mm 3 , the number density of the B compound and the major axis are determined according to the method described in the description, wherein the lower layer is a glass film which includes a forsterite as main component or an intermediate layer includes a silicon oxide as main component, and wherein the B compound is at least one selected from group consisting of Fe 2 B and Fe 3 B.
A manufacturing method of a grain oriented electrical steel sheet, comprising: heating a slab consisting of C: 0.02 mass% to 0.10 mass%, Si: 2.5 mass% to 4.5 mass%, Mn: 0.01 mass% to 0.15 mass%, S: 0.001 mass% to 0.050 mass%, acid-soluble Al: 0.01 mass% to 0.05 mass%, N: 0.002 mass% to 0.015 mass%, Te: 0.0005 mass% to 0.1000 mass%, optionally Se: a total content of S and Se being 0.001 mass% to 0.050 mass%, optionally Bi: 0.0005 mass% to 0.1000 mass%, and a balance of Fe and inevitable impurities, to 1280°C or more; performing a hot-rolling of the slab to obtain a hot-rolled steel sheet; performing an annealing of the hot-rolled steel sheet to obtain an annealed steel sheet; performing a cold-rolling of the annealed steel sheet to obtain a cold-rolled steel sheet; performing a decarburization annealing of the cold-rolled steel sheet to obtain a decarburization annealed steel sheet; coiling the decarburization annealed steel sheet in a coil state; and performing a finish annealing of the coil-state decarburization annealed steel sheet, wherein the cold-rolled steel sheet is heated to a temperature of 800°C or more at a rate of 30°C/sec or more and 100°C/sec or less during increasing temperature of the cold-rolled steel sheet in the decarburization annealing or before the decarburization annealing, and the decarburization annealed steel sheet is heated at a rate of 20°C/h or less within a temperature range of 750°C or more and 1150°C or less during increasing temperature of the decarburization annealed steel sheet in the finish annealing. heating a slab consisting of C: 0.02 mass% to 0.10 mass%, Si: 2.5 mass% to 4.5 mass%, Mn: 0.01 mass% to 0.15 mass%, S: 0.001 mass% to 0.050 mass%, acid-soluble Al: 0.01 mass% to 0.05 mass%, N: 0.002 mass% to 0.015 mass%, Te: 0.0005 mass% to 0.1000 mass%, optionally Se: a total content of S and Se being 0.001 mass% to 0.050 mass%, optionally Bi: 0.0005 mass% to 0.1000 mass%, and a balance of Fe and inevitable impurities, to 1280°C or more; performing a hot-rolling of the slab to obtain a hot-rolled steel sheet; performing an annealing of the hot-rolled steel sheet to obtain an annealed steel sheet; performing a cold-rolling of the annealed steel sheet to obtain a cold-rolled steel sheet; performing a decarburization annealing of the cold-rolled steel sheet to obtain a decarburization annealed steel sheet; coiling the decarburization annealed steel sheet in a coil state; and performing a finish annealing of the coil-state decarburization annealed steel sheet, wherein the cold-rolled steel sheet is heated to a temperature of 800°C or more at a rate of 30°C/sec or more and 100°C/sec or less during increasing temperature of the cold-rolled steel sheet in the decarburization annealing or before the decarburization annealing, and the decarburization annealed steel sheet is heated at a rate of 20°C/h or less within a temperature range of 750°C or more and 1150°C or less during increasing temperature of the decarburization annealed steel sheet in the finish annealing.
Anti-shock bearing for a timepiece comprising : - a cup defining an internal cavity comprising an opening suitable for receiving a pivot of a timepiece wheel, - an elastic member mounted coaxially in the cup , comprising a rigid ring and a plurality of elastic arms extending from the ring towards the inside, deformable in the radial and axial directions with reference to the axis of the bearing, said bearing comprising, extending towards the outside of the ring, a plurality of supporting zones cooperating with a corresponding housing provided in the cup and intended to bear in said housing , said ring further comprising, for each supporting zone , gripping tabs extending towards the outside of the ring and defining, in pairs and between themselves, a working zone with which an assembly tool can cooperate, said retaining zones each having an elastic finger extending adjacent to the ring from a respective gripping lug , the end of each elastic finger having a pad on its outer face for bearing on the wall of the cup . - a cup defining an internal cavity comprising an opening suitable for receiving a pivot of a timepiece wheel, - an elastic member mounted coaxially in the cup , comprising a rigid ring and a plurality of elastic arms extending from the ring towards the inside, deformable in the radial and axial directions with reference to the axis of the bearing, said bearing comprising, extending towards the outside of the ring, a plurality of supporting zones cooperating with a corresponding housing provided in the cup and intended to bear in said housing , said ring further comprising, for each supporting zone , gripping tabs extending towards the outside of the ring and defining, in pairs and between themselves, a working zone with which an assembly tool can cooperate, said retaining zones each having an elastic finger extending adjacent to the ring from a respective gripping lug , the end of each elastic finger having a pad on its outer face for bearing on the wall of the cup .
A method for collecting energy in a well, comprising providing an energy collecting arrangement in a well, and characterised in using the energy collecting arrangement to collect energy from variations in fluid pressure in the well due to variations in lithostatic pressure.
Method for carrying out a zero-point calibration of a measuring arrangement according to the differential pressure principle for flow measurement of fluids, which has a measuring transducer comprising a measurement cell which is connected by means of signal technology to at least one evaluation unit and at least one communication unit , wherein a1) the measuring transducer delivers a signal proportional to the differential pressure, a2) a temperature of the measurement cell and/or a process pressure are measured and a corresponding signal is provided, a3) the signals are converted into digital signals, a4) the digital signals are provided to the communication unit , b) at least one characteristic quantity relevant to the zero-point calibration is determined from the digital signals, wherein the at least one characteristic quantity is the temperature of the measurement cell or the process pressure, c) the at least one relevant characteristic quantity is stored at a first time as a reference characteristic quantity; d) the at least one relevant characteristic quantity is determined at a second time (current characteristic quantity), which lies after the first time; e) a comparison between the reference characteristic quantity and the current characteristic quantity is carried out; f) a zero-point calibration of the measuring arrangement is carried out when the result of the comparison lies outside a predetermined tolerance. a1) the measuring transducer delivers a signal proportional to the differential pressure, a2) a temperature of the measurement cell and/or a process pressure are measured and a corresponding signal is provided, a3) the signals are converted into digital signals, a4) the digital signals are provided to the communication unit , b) at least one characteristic quantity relevant to the zero-point calibration is determined from the digital signals, wherein the at least one characteristic quantity is the temperature of the measurement cell or the process pressure, c) the at least one relevant characteristic quantity is stored at a first time as a reference characteristic quantity; d) the at least one relevant characteristic quantity is determined at a second time (current characteristic quantity), which lies after the first time; e) a comparison between the reference characteristic quantity and the current characteristic quantity is carried out; f) a zero-point calibration of the measuring arrangement is carried out when the result of the comparison lies outside a predetermined tolerance.