mhurhangee/ep-ind-claims huggingface dataset:
A method for identification of a stolen account on a device of a network platform, comprising: collecting device information of the device of the network platform, wherein a user is requesting to log-in to a user account on the device of the network platform; acquiring user identity information of users who performed operations on the device within a preset time period prior to the log-in, wherein the user identity information for each of the users comprises corresponding user registration information provided by each of the users during a real-name authentication, wherein each piece of the user identity information comprises a credential type and a credential number associated with a respective identification card of each of the users; analyzing user identity locations of the users based on the credential type and the credential number in each piece of the user registration information; counting a number of different user identity locations of the users on the device in the preset time period; and identifying the user account as stolen based on a determination that an account theft risk level of the device exceeds a specified threshold, wherein the account theft risk level of the device is calculated according to the number of different user identity locations of the users on the device in the preset time period. collecting device information of the device of the network platform, wherein a user is requesting to log-in to a user account on the device of the network platform; acquiring user identity information of users who performed operations on the device within a preset time period prior to the log-in, wherein the user identity information for each of the users comprises corresponding user registration information provided by each of the users during a real-name authentication, wherein each piece of the user identity information comprises a credential type and a credential number associated with a respective identification card of each of the users; analyzing user identity locations of the users based on the credential type and the credential number in each piece of the user registration information; counting a number of different user identity locations of the users on the device in the preset time period; and identifying the user account as stolen based on a determination that an account theft risk level of the device exceeds a specified threshold, wherein the account theft risk level of the device is calculated according to the number of different user identity locations of the users on the device in the preset time period.
Assembly for a front bumper of a motor vehicle, the assembly for a front bumper comprising an air intake grille and a shock absorber with a transverse body having a positioning face; the air intake grille comprising a positioning lug with a positioning portion against the positioning face, and the positioning face comprises a positioning relief; positioning relief and the positioning portion interpenetrating in order to position the positioning tab by report with the transverse body, the positioning relief comprising a positioning groove with a depth, the positioning tab comprising a maximum thickness less than said depth; preferably the positioning portion comprising at least two positioning surfaces cooperating with the positioning relief, wherein the transverse body has a transverse management (66 Z T) and in that a Z 7 the positioning groove is inclined by report to the transverse management by a first angle comprised between 20° and 80°; preferably comprised between 30° and 60°.
A build material for use in a three-dimensional printing system, comprising an oligomeric curable material wherein the oligomeric curable material is a urethane (meth)acrylate having viscosity ranging from 10,000 cP(mPas) to 300,000 cP(mPas), a reactive component that is solid at 50°C, which comprises 5 to 10 percent by weight of the build material and is present in the build material as crystalline regions, wherein said reactive component is selected from the group consisting of: (i) an isocyanurate tri(meth)acrylate; (ii) a species defined by the formula R1-NHCOO-R2-R3, wherein R1 is CnH(2n+1) (wherein n = 4 - 36), R2 is CnH(2n+1) (wherein n = 2 - 36), and R3 is -OCOCH=CH2 or -OCOC =CH2; (iii) a species defined by the formula R1-R2-NHCOO-R3-OOC-NH-R2-R1, wherein R1 is -OCOCH=CH2 or -OCOC =CH2, R2 is CnH(2n+1) (wherein n = 2 - 36), and R3 is CnH(2n+1) (wherein n = 2 - 36); (iv) a species defined by the formula R1-NHCONH-R2-R3, wherein R1 is CnH(2n+1) (wherein n = 4 - 36), R2 is CnH(2n+1) (wherein n = 2 - 36), and R3 is -OCOCH=CH2 or -OCOC =CH2; and (v) a species defined by the formula R1-R2-NHCONH-R3-OOC-NH-R2-R1, wherein R1 is -OCOCH=CH2 or -OCOC =CH2, R2 is CnH(2n+1) (wherein n = 2 - 36), and R3 is CnH(2n+1) (wherein n = 2 - 36), and at least one diluent wherein said diluent contains one or more (meth)acrylate moieties and has a viscosity less than 13 cP(mPas), a non-reactive component wherein said non-reactive component does not comprise a chemical moiety that is polymerizable with a chemical moiety contained in the oligomeric curable material or the at least one diluent, wherein the non-reactive component comprises one or more urethane waxes, and wherein the ratio of reactive component to non-reactive component is 1:1 by weight. (i) an isocyanurate tri(meth)acrylate; (ii) a species defined by the formula R1-NHCOO-R2-R3, wherein R1 is CnH(2n+1) (wherein n = 4 - 36), R2 is CnH(2n+1) (wherein n = 2 - 36), and R3 is -OCOCH=CH2 or -OCOC =CH2; (iii) a species defined by the formula R1-R2-NHCOO-R3-OOC-NH-R2-R1, wherein R1 is -OCOCH=CH2 or -OCOC =CH2, R2 is CnH(2n+1) (wherein n = 2 - 36), and R3 is CnH(2n+1) (wherein n = 2 - 36); (iv) a species defined by the formula R1-NHCONH-R2-R3, wherein R1 is CnH(2n+1) (wherein n = 4 - 36), R2 is CnH(2n+1) (wherein n = 2 - 36), and R3 is -OCOCH=CH2 or -OCOC =CH2; and (v) a species defined by the formula R1-R2-NHCONH-R3-OOC-NH-R2-R1, wherein R1 is -OCOCH=CH2 or -OCOC =CH2, R2 is CnH(2n+1) (wherein n = 2 - 36), and R3 is CnH(2n+1) (wherein n = 2 - 36), and
A method at an In Coverage wireless Device, ICD,, the method comprising: listening for a device presence signal, DPS, from a Not In Coverage wireless Device, NICD,, during a predetermined time period configured by a base station, and if the ICD does not detect the DPS transmission during the predetermined time period, delaying searching for the DPS for a subsequent period of time to conserve battery power and wherein the listening is performed on downlink resources complementary to predetermined uplink resources; and transmitting a network presence signal, NPS, in response to the DPS wherein the transmitting utilizes the predetermined uplink resources. listening for a device presence signal, DPS, from a Not In Coverage wireless Device, NICD,, during a predetermined time period configured by a base station, and if the ICD does not detect the DPS transmission during the predetermined time period, delaying searching for the DPS for a subsequent period of time to conserve battery power and wherein the listening is performed on downlink resources complementary to predetermined uplink resources; and transmitting a network presence signal, NPS, in response to the DPS wherein the transmitting utilizes the predetermined uplink resources.
A polishing composition comprising an abrasive grain, a basic inorganic compound, an anionic water-soluble polymer, and a dispersing medium, wherein zeta potential of the abrasive grain is negative, aspect ratio of the abrasive grain is larger than 1.1, and in a particle size distribution of the abrasive grain determined by laser diffraction/scattering method, ratio D90/D50, where D90 represents a particle diameter at which cumulative particle mass integrated from a small particle side accounts for 90% of the total particle mass, and D50 represents a particle diameter at which the cumulative particle mass integrated from the small particle side accounts for 50% of the total particle mass, is 1.6 or larger, wherein in the particle size distribution of the abrasive grain determined by laser diffraction/scattering method, diameter D50, representing a particle diameter at which the cumulative particle mass integrated from the small particle side accounts for 50% of the total particle mass, is 70 nm or larger, wherein a pH is 9 or larger. wherein zeta potential of the abrasive grain is negative, aspect ratio of the abrasive grain is larger than 1.1, and in a particle size distribution of the abrasive grain determined by laser diffraction/scattering method, ratio D90/D50, where D90 represents a particle diameter at which cumulative particle mass integrated from a small particle side accounts for 90% of the total particle mass, and D50 represents a particle diameter at which the cumulative particle mass integrated from the small particle side accounts for 50% of the total particle mass, is 1.6 or larger,
A conformal heat shield for a gas turbine engine, the conformal heat shield being configured to be uniformly spaced over an exterior compressor case of the gas turbine engine and comprising: a first section including a first arcuate segment and a second arcuate segment circumferentially adjacent to the first arcuate segment, wherein the first arcuate segment of the first section and the second arcuate segment of the first section each comprises: a first distal metal layer; a first proximal metal layer located radially inward of the first distal metal layer; and an insulating material located between the first distal metal layer and the first proximal metal layer; and characterised in that the first distal metal layer of the first arcuate segment and of the second arcuate segment includes a plurality of loops extending radially outward from the first distal metal layer; and in that the conformal heat shield further comprises a first strap located through the plurality of loops of the first arcuate segment and through the plurality of loops of the second arcuate segment. a first section including a first arcuate segment and a second arcuate segment circumferentially adjacent to the first arcuate segment, wherein the first arcuate segment of the first section and the second arcuate segment of the first section each comprises: a first distal metal layer; a first proximal metal layer located radially inward of the first distal metal layer; and an insulating material located between the first distal metal layer and the first proximal metal layer; and characterised in that a first distal metal layer; a first proximal metal layer located radially inward of the first distal metal layer; and an insulating material located between the first distal metal layer and the first proximal metal layer; and characterised in that the first distal metal layer of the first arcuate segment and of the second arcuate segment includes a plurality of loops extending radially outward from the first distal metal layer; and in that the conformal heat shield further comprises a first strap located through the plurality of loops of the first arcuate segment and through the plurality of loops of the second arcuate segment.
A lifting control device, comprising: a boom configured to be freely luffed up and down; a winch that hoists and lowers a suspended load via a wire rope; a load measurement section that measures a load acting on the boom; and a control section that controls the boom and the winch, characterized in that, when lifting of the suspended load is performed by hoisting the winch, the control section is configured to retain a maximum load value from a time series of load data as a variable, to determine a variation in a luffing angle of the boom based on a temporal change in the maximum load value, and to cause the boom to be luffed up so as to compensate for the variation. a boom configured to be freely luffed up and down; a winch that hoists and lowers a suspended load via a wire rope; a load measurement section that measures a load acting on the boom; and a control section that controls the boom and the winch, characterized in that, when lifting of the suspended load is performed by hoisting the winch, the control section is configured to retain a maximum load value from a time series of load data as a variable, to determine a variation in a luffing angle of the boom based on a temporal change in the maximum load value, and to cause the boom to be luffed up so as to compensate for the variation.
Composition for dyeing hair characterized in that it comprises at least one hair dye, at least one oxidizing agent, a gluconic acid and/or its salts of monovalent cations selected from sodium, potassium and ammonium as a chelating agent at a concentration in the range of 0.01 to 10% by weight, calculated to the total of the composition, and at least 70% by weight of water, calculated to the total of the composition.
A pickup device for picking up a knitted tubular manufacture from a circular knitting machine for hosiery or the like and for transferring it to a unit adapted to perform additional operations on the manufacture, comprising an annular pickup body that supports a plurality of pickup elements, which are arranged radially around the axis of said pickup body and can slide with respect to said pickup body along radial directions, said pickup body being arrangeable coaxially around the needle cylinder of a circular knitting machine for hosiery or the like, with each one of said pickup elements laterally facing a needle of the machine; actuation means being provided which act on said pickup elements for their movement along said radial directions at least from a first position, in which said pickup elements are closer to the axis of said pickup body, to a second position, in which said pickup elements are spaced further from the axis of said pickup body with respect to said first position, and vice versa; an end of each one of said pickup elements that is directed toward the axis of said pickup body being hook-shaped and forming a compartment that is adapted to receive at least one loop of knitting, characterized in that it comprises safety means which are associated with said pickup body and can be engaged by said end of the pickup elements in their transition from said first position to said second position for the closure of said compartment.
Method for operating a resonance measuring system in the form of a Coriolis mass flowmeter, wherein the resonance measuring system comprises at least one controller, at least one electric setting device, at least one electromagnetic drive as oscillation generator, at least one oscillation element, and at least one oscillation sensor, wherein the controller generates a controller output signal (u 1) for driving the electric setting device, the electric setting device provides an electric excitation signal (u 2) for exciting the electromagnetic drive, the electromagnetic drive excites the oscillation element to oscillation in at least one eigenform, and wherein the excited oscillation of the oscillation element is detected by the oscillation sensor and output as at least one output signal (y), characterized in that in a control loop, the controller-oscillation sensor phase difference (Δφ(y, u 1)) between the output signal (y) of the oscillation sensor and the controller output signal (u 1) is detected, a control deviation (e) is calculated from a predetermined phase difference (Δφ S1) and the controller-oscillation sensor phase difference (Δφ(y, u 1)) and the control deviation (e) is provided as an input signal to the controller, wherein a controller-drive phase difference (Δφ(i S, u 1)) between a state variable (is) of the electromagnetic drive and the controller output signal (u 1) is determined and either the controller-drive phase difference (Δφ(i S, u 1)) is used as a predetermined phase difference (Δφ S1) or the predetermined phase difference (Δφ S1) is calculated from the controller-drive phase difference (Δφ(i S, u 1)) and from a further predetermined phase difference (Δφ S2), wherein the current of a drive coil is detected as a state variable (is) of the electromagnetic drive.
A catalytic reactor employing a moving bed catalyst, in which the catalyst is enclosed in baskets and in which said baskets are movable along a substantially vertical axis and provided with flaps which are themselves substantially vertical, installed in the lower portion of said baskets, and in which, during an interruption to the circulation of catalyst, a storage space for catalyst located in the lower portion of the reactor is opened up by lifting the assembly of the basket and the attached flaps upwards.
A magnetic bearing, comprising: a stator having a plurality of protrusions (104a-104h) extending radially-inward therefrom and electrical windings wound about each protrusion to form a corresponding plurality of bearing coils (110a-110h), the plurality of bearing coils being disposed within an insulative coating adapted to protect against the ingress of liquids; a controller communicable with the electrical windings and configured to control an electrical current in each bearing coil to maintain a rotor centered within the stator; a sensing wire coupled to at least one of the plurality of bearing coils and also disposed within the insulative coating; and a sensing device communicably coupled to the sensing wire and configured to monitor a resistance to ground of the sensing wire, wherein the resistance to ground of the sensing wire is indicative of a resistance to ground of the at least one of the plurality of bearing coils. a stator having a plurality of protrusions (104a-104h) extending radially-inward therefrom and electrical windings wound about each protrusion to form a corresponding plurality of bearing coils (110a-110h), the plurality of bearing coils being disposed within an insulative coating adapted to protect against the ingress of liquids; a controller communicable with the electrical windings and configured to control an electrical current in each bearing coil to maintain a rotor centered within the stator; a sensing wire coupled to at least one of the plurality of bearing coils and also disposed within the insulative coating; and a sensing device communicably coupled to the sensing wire and configured to monitor a resistance to ground of the sensing wire, wherein the resistance to ground of the sensing wire is indicative of a resistance to ground of the at least one of the plurality of bearing coils.
A method for forming a hard coating layer which comprises: washing a substrate; installing the washed substrate in a vacuum equipment, and evacuating the chamber of the vacuum equipment; cleaning the substrate; forming an oblique coating layer on the substrate; and forming a vertical coating layer, vertically to the substrate, on the oblique coating layer by applying bias-voltage to the substrate after forming the oblique coating layer, wherein the oblique coating layer and the vertical coating layer are comprised of titanium-nitride (TiN). washing a substrate; installing the washed substrate in a vacuum equipment, and evacuating the chamber of the vacuum equipment; cleaning the substrate; forming an oblique coating layer on the substrate; and forming a vertical coating layer, vertically to the substrate, on the oblique coating layer by applying bias-voltage to the substrate after forming the oblique coating layer, wherein the oblique coating layer and the vertical coating layer are comprised of titanium-nitride (TiN).
Tyre, wherein the tyre is rotatable in a direction of rotation about an axis of rotation, having a tread and a tyre inner layer and an overlapping region, wherein the overlapping region is such a region of the tyre in which the tyre inner layer overlaps, and wherein the overlapping region has a first geometrical centre line, and having a plane of symmetry, wherein the axis of rotation is aligned perpendicular to the plane of symmetry and intersects the plane of symmetry at a midpoint, and having an electromagnetic transmitting and receiving device, wherein the electromagnetic transmitting and receiving device is arranged in an attachment region of the tyre, wherein the attachment region has a second geometrical centre line, wherein the first geometrical centre line intersects the plane of symmetry at a first point of intersection and the second geometrical centre line intersects the plane of symmetry at a second point of intersection, wherein a first connecting line leads from the first point of intersection to the midpoint and a second connecting line leads from the second point of intersection to the midpoint, wherein the second geometrical centre line like the first geometrical centre line runs at right angles to the direction of rotation, characterized in that the first connecting line and the second connecting line include an angle of 160° to 200°.
A core material for vacuum insulator, comprising: an organic synthetic fiber; and at least one organic synthetic fiber bonded portion, wherein the at least one organic synthetic fiber bonded portion has an average diameter of 400 μm to 600 μm, and wherein a distance between a center of the organic synthetic fiber bonded portion and a center of another organic synthetic fiber bonded portion is from 750 μm to 1100 μm.
A respiratory therapy device with at least one fan device for generating a respiratory air flow for performing respiratory therapy, wherein the fan device comprises a housing and at least one fan wheel that is rotatably mounted in the housing, wherein the respiratory air is transported through a channel formed inside the housing, wherein the channel comprises an inlet channel, at least one flow channel, and at least one outlet channel, which are in communicative connection to each other, wherein the housing has at least one structural element (33, 60) that reduces sound emission, characterized in that the structural element (33, 60) is formed as at least one partition, wherein the partition is arranged at least in portions in the lumen of the flow channel and in the lumen of the outlet channel, wherein the partition divides the flow channel and the outlet channel at least in portions and at least partially into at least two channels (35, 36, 52, 54).
A nanocomposite comprising: a) a layered hydroxide based graphitized carbon matrix and b) nanoparticles of at least one metal in zero oxidation state embedded in said matrix, wherein the metal is selected from Ni, Fe, Co and any alloy thereof. a) a layered hydroxide based graphitized carbon matrix and b) nanoparticles of at least one metal in zero oxidation state embedded in said matrix, wherein the metal is selected from Ni, Fe, Co and any alloy thereof.
A thin-layer tape automated lamination method comprising: a supply step of supplying a plurality of thin-layer tapes (Tn) each having a thickness of 5 μm to 80 μm; and a lamination-shaping step of laminating and shaping the supplied thin-layer tapes (Tn) in a lamination region of a basal body surface, characterized in that the supply step includes a provisional formation step of forming a lamination tape by entirely or partially laminating the thin-layer tapes (Tn), and the lamination-shaping step laminates and shapes the formed lamination tape in the lamination region of the basal body surface. a supply step of supplying a plurality of thin-layer tapes (Tn) each having a thickness of 5 μm to 80 μm; and a lamination-shaping step of laminating and shaping the supplied thin-layer tapes (Tn) in a lamination region of a basal body surface, characterized in that the supply step includes a provisional formation step of forming a lamination tape by entirely or partially laminating the thin-layer tapes (Tn), and the lamination-shaping step laminates and shapes the formed lamination tape in the lamination region of the basal body surface.