mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a network node , the method comprising: broadcasting a location of a time and/or frequency resource of a first Physical Random Access Channel, PRACH, the first PRACH having a static location; determining a location of a time and/or frequency resource for a second PRACH, wherein the location of the second PRACH is determined dynamically; communicating downlink control information to a wireless device , the downlink control information indicating the location of the second PRACH; receiving a random access attempt from the wireless device, the random access attempt received via the first PRACH or the second PRACH; and communicating a random access response to the wireless device, characterized in that : a preamble of the second PRACH is shorter than a preamble of the first PRACH, which is a legacy preamble which occupies fourteen symbols; and a single subframe comprises both: the downlink control information that indicates the location of the second PRACH, and the second PRACH. broadcasting a location of a time and/or frequency resource of a first Physical Random Access Channel, PRACH, the first PRACH having a static location; determining a location of a time and/or frequency resource for a second PRACH, wherein the location of the second PRACH is determined dynamically; communicating downlink control information to a wireless device , the downlink control information indicating the location of the second PRACH; receiving a random access attempt from the wireless device, the random access attempt received via the first PRACH or the second PRACH; and communicating a random access response to the wireless device, characterized in that : a preamble of the second PRACH is shorter than a preamble of the first PRACH, which is a legacy preamble which occupies fourteen symbols; and a single subframe comprises both: the downlink control information that indicates the location of the second PRACH, and the second PRACH.
A method for performing a drilling operation in a wellbore using a drill string , the method comprising: measuring at least one first formation characteristic with at least one sensor ; generating a model to represent a formation around the wellbore based on the measured at least one first formation characteristic; measuring at least one second formation characteristic by means of a hydraulic test, wherein the hydraulic test comprises at least one of producing fluid from or injecting fluid into the wellbore, the at least one second formation characteristic being different from the at least one first formation characteristic; automatically updating the model based on the measured at least one second formation characteristic; and performing a drilling operation based on the updated model; wherein the hydraulic test is conducted with a hydraulic testing tool, wherein a configuration of the hydraulic testing tool is selected based on information related to at least one of the at least one first formation characteristic or the model; wherein the drill string has a bottomhole assembly , and the hydraulic testing tool is configured on the bottomhole assembly . measuring at least one first formation characteristic with at least one sensor ; generating a model to represent a formation around the wellbore based on the measured at least one first formation characteristic; measuring at least one second formation characteristic by means of a hydraulic test, wherein the hydraulic test comprises at least one of producing fluid from or injecting fluid into the wellbore, the at least one second formation characteristic being different from the at least one first formation characteristic; automatically updating the model based on the measured at least one second formation characteristic; and performing a drilling operation based on the updated model; wherein the hydraulic test is conducted with a hydraulic testing tool, wherein a configuration of the hydraulic testing tool is selected based on information related to at least one of the at least one first formation characteristic or the model; wherein the drill string has a bottomhole assembly , and the hydraulic testing tool is configured on the bottomhole assembly .
A sheet type conductive member that is configured to be attached to a connector mounted on a mounting object and that is configured to electrically connect a wiring portion of the mounting object to a contact of the connector, the sheet type conductive member comprising: a sheet body having an insulating property; and a flexible conductor formed of a conductive thread embroidered on or woven into the sheet body so as to be exposed on a surface of the sheet body, the flexible conductor extending along the surface of the sheet body, wherein the flexible conductor includes a first end portion electrically connected to the wiring portion, a second end portion electrically connected to the contact, and a j oint portion joining the first end portion and the second end portion together, characterized in that a density of embroidery of conductive thread indicated by a degree of packing of exposed portions of conductive thread is not uniform but varies and an exposure area of conductive thread per unit area is used as an index representing the density of embroidery of conductive thread or the degree of packing of exposed portions of conductive thread, and the exposure area of the conductive thread per unit area in the first end portion and the second end portion is larger than the exposure area of the conductive thread per unit area in the joint portion. a sheet body having an insulating property; and a flexible conductor formed of a conductive thread embroidered on or woven into the sheet body so as to be exposed on a surface of the sheet body, the flexible conductor extending along the surface of the sheet body, wherein the flexible conductor includes a first end portion electrically connected to the wiring portion, a second end portion electrically connected to the contact, and a j oint portion joining the first end portion and the second end portion together, a density of embroidery of conductive thread indicated by a degree of packing of exposed portions of conductive thread is not uniform but varies and an exposure area of conductive thread per unit area is used as an index representing the density of embroidery of conductive thread or the degree of packing of exposed portions of conductive thread, and the exposure area of the conductive thread per unit area in the first end portion and the second end portion is larger than the exposure area of the conductive thread per unit area in the joint portion.
A sensor element for temperature measurement, comprising - a ceramic carrier , - at least one electrode , wherein the carrier comprises a top side and an underside, wherein an NTC layer is arranged on each of the top side and the underside of the carrier , and wherein a resistance of the respective NTC layer is determined by a thickness and/or geometry of the respective NTC layer . - a ceramic carrier , - at least one electrode ,
A method for providing a virtual base station in a mobile network, wherein the mobile network comprising one or more virtual base stations, 'VBS' , wherein a VBS comprises at least one radio access point, 'RAP' and a set of virtual radio access functions, 'VRAF' , said set of VRAFs forming a virtual radio access point 'VRAP', wherein the VBS is configured by providing a description of radio access functionalities, which are executed by the RAP and by the VRAFs and wherein the VBS is executed jointly at the location of said at least one RAP and on a cloud computing platform by the VRAFs , wherein said VBS forming a logical functional network entity, and wherein the VRAFs being executed on said cloud computing platform and wherein said VBS providing a service and a radio access technology and wherein said description is dependent on at least one of service, radio access technology, a location of the RAP and/or a configuration of an operator of the mobile network and wherein a self-test of the VBS including a connectivity test is performed prior to its regular operation by sending an initial setup message from the RAP to the VRAP or vice versa.
Device for changing the temperature of a metal strip , in particular of a metal strip made of aluminium or an aluminium alloy, having means for changing the temperature of the metal strip by heating or cooling, in which apparatus, using means for conveying the metal strip , the metal strip is moved in the strip direction relative to the means for changing the temperature of the metal strip , characterised in that the means for changing the temperature of the metal strip have a plurality of individual temperature-control means which each heat or cool the metal strip only in some regions, and a plurality of the temperature-control means can be positioned in a translator variable manner individually in their position relative to the metal strip , wherein the position of at least one temperature-control means can be individually changed translationally in the longitudinal direction of the metal strip , in the transverse direction of the metal strip and/or at a distance from the metal strip .
A method for spatial localization comprising: acquiring from a sensor supported by a vehicle an image of a portion of a physical surface configuration from a position spaced away from the physical surface configuration by a known distance; identifying features in the acquired image; associating identified features in the acquired image with identified features in a reference representation of the portion of the physical surface configuration ; selecting a plurality of pairs of features in the acquired image having corresponding identified pairs of features in the reference representation ; for each selected feature pair in the acquired image , determining an angle of view between the pair of features from the sensor, generating a three-dimensional geoarc associating the determined angle of view and the selected feature pair in the reference representation , and determining a selected portion of the geoarc disposed the known distance away from the portion of the physical surface configuration ; and identifying locations where the selected portions of the geoarcs for the selected feature pairs overlap. acquiring from a sensor supported by a vehicle an image of a portion of a physical surface configuration from a position spaced away from the physical surface configuration by a known distance; identifying features in the acquired image; associating identified features in the acquired image with identified features in a reference representation of the portion of the physical surface configuration ; selecting a plurality of pairs of features in the acquired image having corresponding identified pairs of features in the reference representation ; for each selected feature pair in the acquired image , determining an angle of view between the pair of features from the sensor, generating a three-dimensional geoarc associating the determined angle of view and the selected feature pair in the reference representation , and determining a selected portion of the geoarc disposed the known distance away from the portion of the physical surface configuration ; and determining an angle of view between the pair of features from the sensor, generating a three-dimensional geoarc associating the determined angle of view and the selected feature pair in the reference representation , and determining a selected portion of the geoarc disposed the known distance away from the portion of the physical surface configuration ; and identifying locations where the selected portions of the geoarcs for the selected feature pairs overlap.
A mobility control apparatus configured in a user equipment, wherein the apparatus comprises a receiving unit , a processing unit , and a sending unit : wherein the receiving unit is configured to receive a first message sent by a network-side device, and transmit first information, which is comprised in the first message and used to indicate a measurement parameter, to the processing unit, wherein the measurement parameter comprises an extended-cell individual offset and/or a range extension, wherein the apparatus is configured to use the extended-cell individual offset for measurement reporting, the range of the extended-cell individual offset is greater than the range of a cell individual offset, and the range extension is used for a cell reselection and measurement reporting; the processing unit is configured to acquire the first information from the receiving unit, and determine the measurement parameter according to the first information, perform mobility control for the apparatus for a target cell according to measured quality of the target cell and the measurement parameter; and the sending unit is configured to send, before the first message is received, a second message to the network-side device, wherein the second message comprises second information used to indicate a measurement capability of a user equipment, so that the network-side device determines the measurement parameter according to the measurement capability of the user equipment. wherein the receiving unit is configured to receive a first message sent by a network-side device, and transmit first information, which is comprised in the first message and used to indicate a measurement parameter, to the processing unit, wherein the measurement parameter comprises an extended-cell individual offset and/or a range extension, wherein the apparatus is configured to use the extended-cell individual offset for measurement reporting, the range of the extended-cell individual offset is greater than the range of a cell individual offset, and the range extension is used for a cell reselection and measurement reporting; the processing unit is configured to acquire the first information from the receiving unit, and determine the measurement parameter according to the first information, perform mobility control for the apparatus for a target cell according to measured quality of the target cell and the measurement parameter; and the sending unit is configured to send, before the first message is received, a second message to the network-side device, wherein the second message comprises second information used to indicate a measurement capability of a user equipment, so that the network-side device determines the measurement parameter according to the measurement capability of the user equipment.
A hinge for a piece of furniture comprising at least one shoulder and at least one door , said hinge comprising a first hinge body and a second hinge body , wherein the first hinge body is connectable to the at least one shoulder of the piece of furniture and the second hinge body is connectable to the at least one door of the piece of furniture , wherein the first hinge body and the second hinge body are operatively connected to each other and relatively movable by means of adjustment means , wherein one of the first hinge body and the second hinge body comprises a cross element and the other of the first hinge body or the second hinge body defines a cross guide , wherein the cross element is housed in the cross guide , and wherein the cross element is slidable in the cross guide by means of the adjustment means , wherein the second hinge body defines a second axis of symmetry , wherein the cross element forms two cross arms extending in transverse direction with respect to the second axis of symmetry and opposite to each other with respect to the second axis of symmetry , characterised in that each cross arm forms two foils divided from each other by a slit extending from an end of the cross arm in direction of the second axis of symmetry , and wherein the adjustment means comprise a calibration member positioned at each slit and configured to adjust the spacing between the two foils of each cross arm . wherein the first hinge body and the second hinge body are operatively connected to each other and relatively movable by means of adjustment means , wherein one of the first hinge body and the second hinge body comprises a cross element and the other of the first hinge body or the second hinge body defines a cross guide , wherein the cross element is housed in the cross guide , and wherein the cross element is slidable in the cross guide by means of the adjustment means , wherein the second hinge body defines a second axis of symmetry , wherein the cross element forms two cross arms extending in transverse direction with respect to the second axis of symmetry and opposite to each other with respect to the second axis of symmetry , characterised in that each cross arm forms two foils divided from each other by a slit extending from an end of the cross arm in direction of the second axis of symmetry , and wherein the adjustment means comprise a calibration member positioned at each slit and configured to adjust the spacing between the two foils of each cross arm .
A modular seating system comprising: a first seat having an upper surface , a first side wall extending downward from the upper surface , a second side wall extending down from the upper surface , a front wall extending downward from the upper surface and a back side wall extending downward from the upper surface , the first side wall having a first set of first connector components and the back wall having a first set of first connector components ; said system further comprising: a first arm having a first set of second connector components for connecting the first arm to the first side wall of the first seat in a first position to provide a first selectable arm configuration for the system and a second set of second connector components for connecting the first arm to the first side wall of the first seat in a second position different than the first position to provide a second selectable arm configuration for the system different than the first selectable arm configuration; and, a first back having a first set of second connector components , the back connected to the back wall of the first seat . a first arm having a first set of second connector components for connecting the first arm to the first side wall of the first seat in a first position to provide a first selectable arm configuration for the system and a second set of second connector components for connecting the first arm to the first side wall of the first seat in a second position different than the first position to provide a second selectable arm configuration for the system different than the first selectable arm configuration; and, a first back having a first set of second connector components , the back connected to the back wall of the first seat .
A friction welding method, comprising: a heating step wherein, in relation to joining surfaces (S1, S2) defined by opposite end surfaces of a pair of materials (W 1 , W 2 ) that are held by a respective pair of opposite spindles , the pair of materials (W 1 , W 2 ) are moved from a state in which their axes are unaligned with each other, in a direction for aligning the respective axes with each other, to a prescribed position where the joining surfaces (S1, S2) are brought into contact with each other and friction heated, and a pressure contacting step wherein the pair of materials (W 1 , W 2 ) are brought into pressure contact with each other at the prescribed position, characterized in that the heating step and the pressure contacting step are carried out while rotating each of the materials (W 1 , W 2 ) at the same rotation speed in the same direction, as seen from one side in the axial direction. a heating step wherein, in relation to joining surfaces (S1, S2) defined by opposite end surfaces of a pair of materials (W 1 , W 2 ) that are held by a respective pair of opposite spindles , the pair of materials (W 1 , W 2 ) are moved from a state in which their axes are unaligned with each other, in a direction for aligning the respective axes with each other, to a prescribed position where the joining surfaces (S1, S2) are brought into contact with each other and friction heated, and a pressure contacting step wherein the pair of materials (W 1 , W 2 ) are brought into pressure contact with each other at the prescribed position, characterized in that the heating step and the pressure contacting step are carried out while rotating each of the materials (W 1 , W 2 ) at the same rotation speed in the same direction, as seen from one side in the axial direction.
A deployable element for localized treatment at a target site in a blood vessel of a subject, the deployable element comprising a hollow body configured to allow flow of blood therethrough, and a catheter tube ; wherein the hollow body extends from a substantially round first edge to a substantially round second edge , each of the first edge and the second edge has a diameter substantially equal to a diameter of a blood vessel within which the deployable element is intended to be mounted, an intermediate section of the hollow body has a diameter smaller than the diameters of the first edge and the second edge , the deployable element being thereby configured such that when properly mounted within the blood vessel, the hollow body and walls of the blood vessel define there between a pocket configured to allow trapping of a water-immiscible fluid therein; and characterized in that in a deployed position a distal tip portion of the catheter tube is attached to the hollow body at the substantially round first edge of the hollow body , so as to allow delivering the water-immiscible fluid directly into the pocket through the catheter .
Grinder having at least one first housing part , wherein the first housing part comprises a motor-housing part and a handle region , having at least one machining-tool holder which is configured to accommodate a machining tool , wherein the motor-housing part is connected to the machining-tool holder , having at least one illumination device which is configured to illuminate at least one surrounding area close to the tool, in particular an operating area, wherein the illumination device is arranged on the motor-housing part , on a side which faces towards the machining-tool holder , characterized in that the illumination device comprises at least one light source and at least one light guide , wherein the surface of the light guide is formed in such a way that a largely uniformly diffuse emergence of light is the result, wherein the surface of the light guide is regionally coated, so that the emergence of the light is inhibited.