mhurhangee/patent-ind-claim-en huggingface dataset:
Method for updating personal data of a user of an online service, between at least one data supplier and a supplier of the online service , wherein, beforehand, at least one item of data relevant to the user of the online service is supplied to the supplier of the online service, the method being characterized in that , subsequently, the following steps are implemented: - the item of data relevant to the user of the online service and supplied beforehand is accessed from the online service provider ; - at least one item of reference data for the user is accessed from the data provider ; and - the item of data relevant to the user and supplied beforehand is compared with the reference data ; - if the item of data relevant to the user and supplied beforehand is identical to the item of reference data , at least one additional data item of the user, taken from the data supplier , is automatically supplied to the online service provider . - the item of data relevant to the user of the online service and supplied beforehand is accessed from the online service provider ; - at least one item of reference data for the user is accessed from the data provider ; and - the item of data relevant to the user and supplied beforehand is compared with the reference data ; - if the item of data relevant to the user and supplied beforehand is identical to the item of reference data , at least one additional data item of the user, taken from the data supplier , is automatically supplied to the online service provider .
A display apparatus comprising: a display unit including a display panel configured to display an image; a curvature variation unit disposed on a rear surface of the display unit and configured to vary a curvature of the display unit ; and a vibration unit disposed on the rear surface of the display unit and configured to vibrate the display panel , wherein the display unit comprises a back cover disposed on a rear surface of the display panel and supporting the vibration unit , wherein the back cover comprises a slit overlapping the vibration unit , and wherein the slit is formed to vertically pass through the back cover in a thickness direction (Z) of the display unit and allow an air gap (AG) between the display panel and the back cover to communicate with a rear outer portion of the back cover . a display unit including a display panel configured to display an image; a curvature variation unit disposed on a rear surface of the display unit and configured to vary a curvature of the display unit ; and a vibration unit disposed on the rear surface of the display unit and configured to vibrate the display panel , wherein the display unit comprises a back cover disposed on a rear surface of the display panel and supporting the vibration unit , wherein the back cover comprises a slit overlapping the vibration unit , and wherein the slit is formed to vertically pass through the back cover in a thickness direction (Z) of the display unit and allow an air gap (AG) between the display panel and the back cover to communicate with a rear outer portion of the back cover .
Sliding components formed in an annular shape and disposed at a relatively rotating part of a rotating machine, one of an inner diameter side space and an outer diameter side space of the sliding components being a sealed fluid side space in which a sealed fluid exists, remaining one of the inner diameter side space and the outer diameter side space being a leakage side space into which the sealed fluid is prevented from leaking, wherein one of the inner diameter side space and the outer diameter side space on the side of the sealed fluid is a high-pressure side space and remaining one of the inner diameter side space and the outer diameter side space is a low-pressure side space, characterized in that a sliding surface (S) of one of the sliding components is provided with a communication groove having a start point communicating with the sealed fluid side space in a radial direction, a storage groove communicating with the communication groove , and a plurality of dynamic pressure generation grooves configured for generating a dynamic pressure at end points thereof upon a run of the rotating machine, wherein the dynamic pressure generation grooves are located on a side of the sealed fluid side space with respect to the storage groove in the radial direction, wherein the storage groove is formed in an endless annular shape in a circumferential direction of the sliding surface (S). wherein one of the inner diameter side space and the outer diameter side space on the side of the sealed fluid is a high-pressure side space and remaining one of the inner diameter side space and the outer diameter side space is a low-pressure side space, characterized in that a sliding surface (S) of one of the sliding components is provided with a communication groove having a start point communicating with the sealed fluid side space in a radial direction, a storage groove communicating with the communication groove , and a plurality of dynamic pressure generation grooves configured for generating a dynamic pressure at end points thereof upon a run of the rotating machine, wherein the dynamic pressure generation grooves are located on a side of the sealed fluid side space with respect to the storage groove in the radial direction, wherein the storage groove is formed in an endless annular shape in a circumferential direction of the sliding surface (S).
A pressure plate assembly for holding at least one glazing unit to a frame member , comprising: (A) an elongated metal plate ; and (B) an elongated composite plate formed from a material having a thermal conductivity less than the metal plate, the composite plate and the metal plate aligned and coupled together to form the pressure plate assembly, the pressure plate assembly configured to be fastened to the frame member with the composite plate proximate the frame member and the metal plate distal to the frame member, the pressure plate assembly configured to press at least one glazing unit toward the frame member, wherein the composite plate has a pair of gaskets , wherein the composite plate has a pair of ledges extending along opposing side edges of the composite plate, the ledges embracing the metal plate therebetween, wherein each ledge has a land at a tip thereof extending toward the metal plate, the pressure plate assembly being characterized in that each of the gaskets: covers an outside surface of a corresponding one of the ledges; surmounts an upper edge of the ledge; and returns in a downward direction on an inside surface of the ledge, wherein the gaskets form a seal between the metal plate and the lands. (A) an elongated metal plate ; and (B) an elongated composite plate formed from a material having a thermal conductivity less than the metal plate, the composite plate and the metal plate aligned and coupled together to form the pressure plate assembly, the pressure plate assembly configured to be fastened to the frame member with the composite plate proximate the frame member and the metal plate distal to the frame member, the pressure plate assembly configured to press at least one glazing unit toward the frame member, wherein the composite plate has a pair of gaskets , wherein the composite plate has a pair of ledges extending along opposing side edges of the composite plate, the ledges embracing the metal plate therebetween, wherein each ledge has a land at a tip thereof extending toward the metal plate, the pressure plate assembly being characterized in that each of the gaskets: covers an outside surface of a corresponding one of the ledges; surmounts an upper edge of the ledge; and returns in a downward direction on an inside surface of the ledge, wherein the gaskets form a seal between the metal plate and the lands. covers an outside surface of a corresponding one of the ledges; surmounts an upper edge of the ledge; and returns in a downward direction on an inside surface of the ledge, wherein the gaskets form a seal between the metal plate and the lands.
A system for determining one or more properties of one or more samples, the system comprising: at least one thermal conductivity sensor configured to measure a response of the at least one thermal conductivity sensor to exposure to a sample while the at least one thermal conductivity sensor is at a first temperature and while the at least one thermal conductivity sensor is at at least a second temperature; and a subsystem configured to: determine a first difference between the response of the at least one thermal conductivity sensor to exposure to the sample while the at least one thermal conductivity sensor is at the first temperature and a first baseline thermal conductivity response at the first temperature; determine a second difference between the response of the at least one thermal conductivity sensor to exposure to the sample while the at least one thermal conductivity sensor is at the at least a second temperature and a second baseline thermal conductivity response at the at least a second temperature; and determine a presence of at least one component of the sample based, at least in part, on a ratio of the first difference to the second difference. at least one thermal conductivity sensor configured to measure a response of the at least one thermal conductivity sensor to exposure to a sample while the at least one thermal conductivity sensor is at a first temperature and while the at least one thermal conductivity sensor is at at least a second temperature; and a subsystem configured to: determine a first difference between the response of the at least one thermal conductivity sensor to exposure to the sample while the at least one thermal conductivity sensor is at the first temperature and a first baseline thermal conductivity response at the first temperature; determine a second difference between the response of the at least one thermal conductivity sensor to exposure to the sample while the at least one thermal conductivity sensor is at the at least a second temperature and a second baseline thermal conductivity response at the at least a second temperature; and determine a presence of at least one component of the sample based, at least in part, on a ratio of the first difference to the second difference. determine a first difference between the response of the at least one thermal conductivity sensor to exposure to the sample while the at least one thermal conductivity sensor is at the first temperature and a first baseline thermal conductivity response at the first temperature; determine a second difference between the response of the at least one thermal conductivity sensor to exposure to the sample while the at least one thermal conductivity sensor is at the at least a second temperature and a second baseline thermal conductivity response at the at least a second temperature; and determine a presence of at least one component of the sample based, at least in part, on a ratio of the first difference to the second difference.
A method for receiving an enhanced physical downlink control channel, E-PDCCH, wherein the E-PDCCH comprises at least one E-PDCCH unit, and the method comprises: obtaining , by a terminal, a pre-determined position to which an E-PDCCH unit of the E-PDCCH used for scheduling the terminal is mapped in a resource block pair and which is notified by a network side; and detecting , by the terminal according to the pre-determined position, the E-PDCCH unit in the resource block pair, and obtaining the E-PDCCH used for scheduling the terminal, wherein a size of resources of the resource block pair is greater than or equal to a size of resources occupied by two E-PDCCH units, and resources occupied by the E-PDCCH unit in a resource block pair comprise a part of resources of each resource block in the resource block pair, wherein when the E-PDCCH comprises multiple E-PDCCH units, the multiple E-PDCCH units belonging to a same E-PDCCH are mapped to different resource block pairs. obtaining , by a terminal, a pre-determined position to which an E-PDCCH unit of the E-PDCCH used for scheduling the terminal is mapped in a resource block pair and which is notified by a network side; and detecting , by the terminal according to the pre-determined position, the E-PDCCH unit in the resource block pair, and obtaining the E-PDCCH used for scheduling the terminal, wherein a size of resources of the resource block pair is greater than or equal to a size of resources occupied by two E-PDCCH units, and resources occupied by the E-PDCCH unit in a resource block pair comprise a part of resources of each resource block in the resource block pair, wherein when the E-PDCCH comprises multiple E-PDCCH units, the multiple E-PDCCH units belonging to a same E-PDCCH are mapped to different resource block pairs.
A method for a device, comprising receiving a first broadcast from a broadcasting device, the first broadcast advertising information identifying the broadcasting device, sending information identifying the device, obtaining security information associated with the broadcasting device received from the broadcast device, authenticating the broadcasting device based on the security information, receiving a second broadcast from the broadcasting device to confirm completion of the association with the device, determining on the basis of the second broadcast that the broadcasting device is an associated device capable of non-connected communications between the devices, and communicating at least one data packet with the broadcasting device subsequent to the second broadcast without establishing a persistent connection between the devices.
A driving aid system for motor vehicles comprising an optical sensor additionally comprising a device for protecting the optical sensor , the protective device of the optical sensor comprises: - a transparent optical element having a symmetry of revolution and mounted rotatably around an axis of rotation, the optical element being configured to be arranged upstream of the optical sensor so that the axis of rotation of the optical element coincides with the optical axis of the optical sensor , and - an actuator coupled to the optical element for making the optical element rotate, to enable soiling to be removed by a centrifugal effect, characterized in that the driving aid system comprises an electronic control unit configured to activate the actuator in order to make the optical element rotate, the electronic control unit being configured to control the actuator so as to adapt the rotation speed of the optical element according to the speed of movement of the motor vehicle. - a transparent optical element having a symmetry of revolution and mounted rotatably around an axis of rotation, the optical element being configured to be arranged upstream of the optical sensor so that the axis of rotation of the optical element coincides with the optical axis of the optical sensor , and - an actuator coupled to the optical element for making the optical element rotate, to enable soiling to be removed by a centrifugal effect,
Plug-in piece comprising a sleeve-shaped support part which is made of a tough material and has in the axial direction a first sealing bead on a first end face and a second sealing bead on a second end face , wherein the first sealing bead and the second sealing bead are formed from a rubber-elastic material, characterized in that the support part is formed in two parts and comprises a first sub-support part and a second sub-support part , each being sleeve-shaped and disposed so as to be mutually adjacent and axially spaced apart, in that the first sub-support part is connected to the first sealing bead and the second sub-support part is connected to the second sealing bead and in that a rubber-elastic intermediate piece which connects the two sub-support parts to one another in an elastically resilient manner is disposed in the gap formed by the axial spacing of the first sub-support part and the second sub-support part , wherein the first sub-support part and the second sub-support part each have on their axially facing end faces a collar which extends outwards in the radial direction and has a radial height , wherein the intermediate piece completely covers the respective collar of the sub-support parts in the radial direction and comprises a substantially U-shaped constriction which is open radially towards the outside, wherein a support ring is disposed in the constriction .
A hydraulic mat having a longitudinal direction (A) and including: a plurality of primary flexible hydraulic hoses extending parallel to one another; at least one first carrier hose which extends parallel to the primary flexible hydraulic hoses; the hydraulic mat also comprising: a first secondary flexible hydraulic hose parallel to the primary flexible hydraulic hoses, a first series (S1) of links extending parallel to the primary flexible hydraulic hoses , the links of the first series (S1) being fastened to the first secondary flexible hydraulic hose , and characterized in that the links of the first series (S1) include housings in which the first secondary flexible hydraulic hose is engaged. a plurality of primary flexible hydraulic hoses extending parallel to one another; at least one first carrier hose which extends parallel to the primary flexible hydraulic hoses; the hydraulic mat also comprising: a first secondary flexible hydraulic hose parallel to the primary flexible hydraulic hoses, a first series (S1) of links extending parallel to the primary flexible hydraulic hoses , the links of the first series (S1) being fastened to the first secondary flexible hydraulic hose , and characterized in that the links of the first series (S1) include housings in which the first secondary flexible hydraulic hose is engaged.
A method for converting a metal in the liquid state into a fragmented metal in the solid state, on at least two tables which are mutually successive, comprising pouring the metal in the liquid state on an upstream portion which is inclined in a downstream direction of a first receiving surface of a first cooled table , vibrating the first table so that the metal moves toward a downstream end of the receiving surface of that first table, causing the metal to fall from the downstream end of the first table on an upstream portion of a second receiving surface of a second cooled table , vibrating the second table so that the metal moves toward a downstream end of the receiving surface of that second table, passing the metal below at least one rotary transverse fragmentation roller which is positioned above a downstream table which is located downstream of the first table , vibrating the last table so that the metal moves toward a downstream end of the receiving surface of that downstream table, and discharging the fragmented and solidified metal at the downstream end of the receiving surface of that downstream table.
An installation having a rail, a stationary unit, rail-guided mobile parts and a slotted hollow waveguide, characterised in that either a first of the mobile parts or the stationary unit acts as a transmitter, wherein a second of the mobile parts acts as a receiver, wherein the transmitter is configured to be able to simultaneously transmit an electromagnetic signal SE and an acoustic signal SA, in particular at the point in time t0, wherein the receiver spaced apart from the transmitter is configured to be able to detect the arrival of the electromagnetic signal SE at the point in time t1 and to detect the arrival of the acoustic signal SA at the point in time t2, wherein the second mobile part has an evaluation unit which is configured or constructed to be able to determine the spacing between transmitter and receiver from the acquired points in time t1 and t2. characterised in that either a first of the mobile parts or the stationary unit acts as a transmitter, wherein a second of the mobile parts acts as a receiver, wherein the transmitter is configured to be able to simultaneously transmit an electromagnetic signal SE and an acoustic signal SA, in particular at the point in time t0, wherein the receiver spaced apart from the transmitter is configured to be able to detect the arrival of the electromagnetic signal SE at the point in time t1 and to detect the arrival of the acoustic signal SA at the point in time t2, wherein the second mobile part has an evaluation unit which is configured or constructed to be able to determine the spacing between transmitter and receiver from the acquired points in time t1 and t2.
A structure modelling system comprising: a measurement tool configured to survey a structure having a plurality of adjoining rooms, at least a plurality of the adjoining rooms having shared openings, the measurement tool having a spatial sensor that maps room boundaries and is arranged to generate measurements of individual rooms; the system comprising a modelling tool that is configured to receive the generated measurements of individual rooms, and then generate a computer model of the structure from the received measurements of individual rooms, the modelling tool being configured to , after the plurality of measurements have been received, enable a user to allocate a unique identifier to each of the openings that are shared by adjoining rooms, the unique identifiers thereby defining room associations within the structure, the modelling tool being configured to use the room associations to determine the layout of rooms within the structure model . a measurement tool configured to survey a structure having a plurality of adjoining rooms, at least a plurality of the adjoining rooms having shared openings, the measurement tool having a spatial sensor that maps room boundaries and is arranged to generate measurements of individual rooms; the system comprising a modelling tool that is configured to receive the generated measurements of individual rooms, and then generate a computer model of the structure from the received measurements of individual rooms, the modelling tool being configured to , after the plurality of measurements have been received, enable a user to allocate a unique identifier to each of the openings that are shared by adjoining rooms, the unique identifiers thereby defining room associations within the structure, the modelling tool being configured to use the room associations to determine the layout of rooms within the structure model .
A poly(ether-carbonate)-based polymer comprising urethane, urea, or urethane-urea groups, hard segments, and soft segments, wherein the soft segments comprise poly(ether-carbonate) residues and at least one of polyisobutylene residues and hydrogenated polybutadiene residues, and the hard segments comprise diisocyanate residues and optionally chain extender residues.