mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: selecting, at a local client device , a first plurality of raw data from a second plurality of raw data, the second plurality of raw data being stored remote from the local client device , wherein the first plurality of raw data is a subset of the second plurality of raw data; receiving the first plurality of raw data at the local client device ; selecting, at the local client device , a plurality of data wrangling operations to perform on the first plurality of raw data ; applying, at the local client device , the plurality of data wrangling operations to the first plurality of raw data to obtain a first plurality of structured data ; and sending the selection of the plurality of data wrangling operations to a remote device, the remote device being configured to apply the selected plurality of data wrangling operations to the second plurality of raw data to obtain a second plurality of structured data, the second plurality of structured data having an expected organization based on the first plurality of structured data . selecting, at a local client device , a first plurality of raw data from a second plurality of raw data, the second plurality of raw data being stored remote from the local client device , wherein the first plurality of raw data is a subset of the second plurality of raw data; receiving the first plurality of raw data at the local client device ; selecting, at the local client device , a plurality of data wrangling operations to perform on the first plurality of raw data ; applying, at the local client device , the plurality of data wrangling operations to the first plurality of raw data to obtain a first plurality of structured data ; and sending the selection of the plurality of data wrangling operations to a remote device, the remote device being configured to apply the selected plurality of data wrangling operations to the second plurality of raw data to obtain a second plurality of structured data, the second plurality of structured data having an expected organization based on the first plurality of structured data .
An apparatus of a user equipment comprising: a baseband processing unit configured to: decode an information element, IE, received from a radio access network, RAN, node describing subcarrier spacing of neighboring carriers; perform radio resource management, RRM, measurements of a set of the neighboring carriers using the subcarrier spacing of neighboring subcarriers described in the IE decoded by the UE; and generate a measurement report describing results of the RRM measurements for transmission to the RAN node. decode an information element, IE, received from a radio access network, RAN, node describing subcarrier spacing of neighboring carriers; perform radio resource management, RRM, measurements of a set of the neighboring carriers using the subcarrier spacing of neighboring subcarriers described in the IE decoded by the UE; and generate a measurement report describing results of the RRM measurements for transmission to the RAN node.
A multipack comprising a plurality of beverage containers , the multipack comprising: a substantially rigid primary container comprising a top open housing holding the plurality of beverage containers , the housing comprising a bottom surface and a plurality of sidewalls extending upwardly from the bottom surface to define an inner space there between; a closing wrap for closing the top open housing , the wrap comprising a plurality of panels defining a first end panel connected to a second end panel through a bottom panel at one end and extending towards a top panel at another end; wherein the closing wrap is wrapped around the housing in a vertical direction, the top panel of the wrap sealingly closing the housing from the top, and wherein each of the sidewalls of the housing has a height substantially greater than the height of the beverage containers stored there within
A sweep gas system for an additive manufacturing machine, comprising: a gas manifold having an outlet configured to effuse gas into a build area of the additive manufacturing machine, wherein the gas manifold is moveable across at least a portion of the build area, and wherein the sweep gas system includes a controller configured to control a position of the gas manifold, and wherein the controller is configured to position the outlet of the gas manifold relative to a laser spot position and/or a melt pool location a predetermined distance from the laser spot position and/or melt pool, and wherein the controller is configured to maintain the predetermined distance from the laser spot position and/or melt pool as a laser scans over the build area such that the sweep gas manifold moves to follow the laser spot position and/or melt pool, and characterized in that the controller is configured to determine the predetermined distance in real time as a function of a laser power, a scan speed, a melt pool size, and/or a sweep gas pressure. a gas manifold having an outlet configured to effuse gas into a build area of the additive manufacturing machine, wherein the gas manifold is moveable across at least a portion of the build area, and wherein the sweep gas system includes a controller configured to control a position of the gas manifold, and wherein the controller is configured to position the outlet of the gas manifold relative to a laser spot position and/or a melt pool location a predetermined distance from the laser spot position and/or melt pool, and wherein the controller is configured to maintain the predetermined distance from the laser spot position and/or melt pool as a laser scans over the build area such that the sweep gas manifold moves to follow the laser spot position and/or melt pool, and characterized in that the controller is configured to determine the predetermined distance in real time as a function of a laser power, a scan speed, a melt pool size, and/or a sweep gas pressure.
A gas sensor package, comprising: a first substrate including a gas inflow hole ; a gas sensing element mounted to the first substrate, the gas sensing element comprising a body having a lower surface and in which a cavity portion is formed such that an upper part of the body is open, and a gas sensing portion on an opposite surface of the lower surface , under the cavity portion , to correspond to the gas inflow hole ; and a protective portion bonded to the gas sensing element to cover the gas sensing element , wherein the protective portion is formed from a molding material, and at least a part of the side of the protective portion is open so that gas can freely move and pass through the cavity portion of the gas sensing element , and multiple communicating holes are formed in the lower surface of the cavity portion so that the gas passing through the gas inflow hole remains in the cavity portion . a first substrate including a gas inflow hole ; a gas sensing element mounted to the first substrate, the gas sensing element comprising a body having a lower surface and in which a cavity portion is formed such that an upper part of the body is open, and a gas sensing portion on an opposite surface of the lower surface , under the cavity portion , to correspond to the gas inflow hole ; and a protective portion bonded to the gas sensing element to cover the gas sensing element , wherein the protective portion is formed from a molding material, and at least a part of the side of the protective portion is open so that gas can freely move and pass through the cavity portion of the gas sensing element , and multiple communicating holes are formed in the lower surface of the cavity portion so that the gas passing through the gas inflow hole remains in the cavity portion .
An apparatus configured to: store a mobile context of user equipment , the mobile context comprising information, on Home NodeBs , identifying which closed subscriber groups the user equipment belongs to, and wherein the apparatus is further configured to store a mobile context of user equipment , the mobile context comprising information of a Home NodeB configured to act as a replica server of the user equipment by storing shared data stored in the user equipment. store a mobile context of user equipment , the mobile context comprising information, on Home NodeBs , identifying which closed subscriber groups the user equipment belongs to, and wherein the apparatus is further configured to store a mobile context of user equipment , the mobile context comprising information of a Home NodeB configured to act as a replica server of the user equipment by storing shared data stored in the user equipment.
An intelligent controller (402; 802) comprising: a processor (502; 702); a memory (504-507); a control schedule (416; 706) stored in the memory (504-507); a schedule interface (410; 714); a control interface (411-413; 712); and instructions stored within the memory (504-507) that, when executed by the processor , cause the processor to: receive immediate-control inputs (1602-1607) through the control interface (411-413; 712) during a monitoring period and record the immediate-control inputs (1602-1607) in the memory; receive schedule changes (1904-1908) through the schedule interface (410; 714) during the monitoring period and record the schedule changes (1904-1908) in the memory; generate an updated monitoring-period schedule , after the monitoring period, based on the immediate-control inputs (1602-1607), the schedule changes (1904-1908), and the control schedule (416; 706); substitute the updated monitoring-period schedule for a portion of the control schedule (416; 706) corresponding to the monitoring period; and propagate the updated monitoring-period schedule to additional time periods within the control schedule (416; 706). a processor (502; 702); a memory (504-507); a control schedule (416; 706) stored in the memory (504-507); a schedule interface (410; 714); a control interface (411-413; 712); and instructions stored within the memory (504-507) that, when executed by the processor , cause the processor to: receive immediate-control inputs (1602-1607) through the control interface (411-413; 712) during a monitoring period and record the immediate-control inputs (1602-1607) in the memory; receive schedule changes (1904-1908) through the schedule interface (410; 714) during the monitoring period and record the schedule changes (1904-1908) in the memory; generate an updated monitoring-period schedule , after the monitoring period, based on the immediate-control inputs (1602-1607), the schedule changes (1904-1908), and the control schedule (416; 706); substitute the updated monitoring-period schedule for a portion of the control schedule (416; 706) corresponding to the monitoring period; and propagate the updated monitoring-period schedule to additional time periods within the control schedule (416; 706). receive immediate-control inputs (1602-1607) through the control interface (411-413; 712) during a monitoring period and record the immediate-control inputs (1602-1607) in the memory; receive schedule changes (1904-1908) through the schedule interface (410; 714) during the monitoring period and record the schedule changes (1904-1908) in the memory; generate an updated monitoring-period schedule , after the monitoring period, based on the immediate-control inputs (1602-1607), the schedule changes (1904-1908), and the control schedule (416; 706); substitute the updated monitoring-period schedule for a portion of the control schedule (416; 706) corresponding to the monitoring period; and propagate the updated monitoring-period schedule to additional time periods within the control schedule (416; 706).
Method for processing data within a portable electronic entity comprising a microcircuit configured to implement a cryptographic operation called the sensitive operation (E314), comprising the following steps: - determining (E304) a value (COMPT) indicative of a number of implementations of the sensitive operation (E314); - determining (E306) a number NB depending on said value; - implementing a number, equal to NB, of other iterations (E316) of the sensitive operation with a datum (K') obtained by random draw and implementing once the sensitive operation (E314) with a secret key (K), the implementation of the sensitive operation using the secret key being carried out among the other iterations at a time dependent on a second datum (a) obtained by random draw, the number NB of other iterations being limited in number provided that said value is low and the number NB of other iterations being increased when said value is high. - determining (E304) a value (COMPT) indicative of a number of implementations of the sensitive operation (E314); - determining (E306) a number NB depending on said value; - implementing a number, equal to NB, of other iterations (E316) of the sensitive operation with a datum (K') obtained by random draw and implementing once the sensitive operation (E314) with a secret key (K), the implementation of the sensitive operation using the secret key being carried out among the other iterations at a time dependent on a second datum (a) obtained by random draw,
Disc brake for commercial vehicles with a brake calliper , a brake disc , an actuating lever which is arranged axially with respect to a disc brake axis (A) of the brake disc , an adjusting device comprising an adjusting spindle , a thrust collar and an adjusting spindle head , the adjusting device being arranged at least partially within an interior space of the brake calliper , a primary seal for sealing the interior space of the brake calliper , an annular space which is delimited by an inner wall of a through opening of the brake calliper and the adjusting device, and a secondary seal for at least partially sealing the interior space of the brake calliper , the primary seal and the secondary seal being configured as a piston protective cap , characterized in that the piston protective cap has an undercut radially in the direction of the closure cover of the brake calliper , as an additional captive securing means against a release of the piston protective cap from the closure cover of the brake calliper , and the piston protective cap being a component that comprises the primary seal and the secondary seal .
A system of a motor-driven trailer and a towbar for coupling the trailer to a vehicle , in particular to a bicycle, wherein the towbar comprises a vehicle side end for connection with the vehicle and a trailer side end connected with a trailer coupling of the trailer , wherein the towbar is coupled to the trailer such that the towbar is pivotable along a pivoting path (P) between a lowered position (L) and a raised position (R) with respect to the trailer , characterized in that the system comprises at least one first sensor element for detecting a position of the towbar along the pivoting path (P) and a control unit (TCU) communicating with the at least one first sensor element , wherein the control unit (TCU) is adapted to, dependent on the position of the towbar along the pivoting path (P), put the system in an operating mode where the motor of the trailer supports the movement of the trailer and in a parking mode where brakes of the trailer are applied to impede movement of the trailer , wherein the system is put into the parking mode when the towbar is in the raised position (R) and into the operating mode when the towbar is in the lowered position (L).
A method to non-intrusively determine thrust in a gas turbine engine having a partially bounded exhaust plume in real time comprising: transmitting an acoustic wave from a transmitter (T1) across the bounded exhaust plume ; receiving the transmitted wave at a plurality of acoustic receivers (M1, M2) each axially displaced from one another and positioned downstream of the transmitter (T1); determining a measurement parameter of the exhaust plume based on a time of arrival of the received wave, wherein the measurement parameter is a function of the velocity of the exhaust plume; comparing the measurement parameter to a reference parameter, wherein the reference parameter is a function of inlet flow velocity and inlet temperature; and determining the thrust based on the comparison. transmitting an acoustic wave from a transmitter (T1) across the bounded exhaust plume ; receiving the transmitted wave at a plurality of acoustic receivers (M1, M2) each axially displaced from one another and positioned downstream of the transmitter (T1); determining a measurement parameter of the exhaust plume based on a time of arrival of the received wave, wherein the measurement parameter is a function of the velocity of the exhaust plume; comparing the measurement parameter to a reference parameter, wherein the reference parameter is a function of inlet flow velocity and inlet temperature; and determining the thrust based on the comparison.
A wheel for a toy vehicle, the wheel comprising an axle hub defining a wheel axis of rotation, a rim with an inboard flange and an outboard flange each having an outer diameter, and where the wheel further comprises a primary tire forming the tread of the wheel with a tread diameter and a tread width, and being attached to the axle hub between the inboard and the outboard flange such that it rotates with the axle hub and characterised in that the wheel further comprises an outboard slip ring tatably mounted between the primary tire and the outboard flange so that the outboard slip ring can rotate with respect to the primary tire about the wheel axis of rotation, and where the outboard slip ring have an outer diameter being smaller than the tread diameter and larger than the outer diameter of the outboard flange.
A method of manufacturing a liquid crystal cell comprising two substrates disposed opposite to each other and a liquid crystal layer present between the two substrates , wherein the method comprises: adjusting the liquid crystal cell such that an average electric current density of 30 μA/cm 2 to 60 μA/cm 2 in the liquid crystal layer is measured within 0 ms to 8 ms of a fifth cycle after applying an alternating-current voltage at a voltage of 40 V and a frequency of 60 Hz to the liquid crystal cell, wherein the liquid crystal cell is manufactured by injecting a heated liquid crystal composition between the two substrates to form the liquid crystal layer and sealing edges of the substrates , wherein the liquid crystal composition comprises: non-reactive liquid crystals; and an anisotropic dye, reactive liquid crystals and an ionic compound as a conductivity control agent, wherein: - when the reactive liquid crystals are comprised in an amount of 8 wt% to 12 wt% in the liquid crystal composition, the liquid crystal composition is heated at a temperature of 90°C to 110 °C for 20 hours to 30 hours; or - when the reactive liquid crystals are comprised in an amount of 1 wt% to 5 wt% in the liquid crystal composition, the liquid crystal composition is heated at a temperature of 110 °C to 130 °C for 1 hour to 7 hours. non-reactive liquid crystals; and an anisotropic dye, reactive liquid crystals and an ionic compound as a conductivity control agent, wherein: - when the reactive liquid crystals are comprised in an amount of 8 wt% to 12 wt% in the liquid crystal composition, the liquid crystal composition is heated at a temperature of 90°C to 110 °C for 20 hours to 30 hours; or - when the reactive liquid crystals are comprised in an amount of 1 wt% to 5 wt% in the liquid crystal composition, the liquid crystal composition is heated at a temperature of 110 °C to 130 °C for 1 hour to 7 hours. - when the reactive liquid crystals are comprised in an amount of 8 wt% to 12 wt% in the liquid crystal composition, the liquid crystal composition is heated at a temperature of 90°C to 110 °C for 20 hours to 30 hours; or - when the reactive liquid crystals are comprised in an amount of 1 wt% to 5 wt% in the liquid crystal composition, the liquid crystal composition is heated at a temperature of 110 °C to 130 °C for 1 hour to 7 hours.
Air vent with at least one friction element and at least one slat , which is mounted in an air channel in a housing by way of bearing pins to be pivotable and wherein - at least one bearing pin has a friction body and - the friction element is so arranged in a housing of the air vent that a friction surface of the friction body bears against a surface of the friction element , characterised in that the friction body extends at a spacing from a side wall , by way of which the bearing pin is pivotably mounted in the housing , of the housing . - at least one bearing pin has a friction body and - the friction element is so arranged in a housing of the air vent that a friction surface of the friction body bears against a surface of the friction element ,
Sealing element for sealing the end face of a liquid-storing chamber, in particular a doctor chamber, with respect to a rotating role, in particular an anilox role, having a sealing body of cuboidal basic shape having two mutually opposite side faces and two mutually opposite end faces, the sealing body defining a longitudinal direction and having, on its upper side, a sealing surface which has a sealing surface portion , which extends between the side faces, is curved inwards concavely along the longitudinal direction and is designed, in particular, in the form of a segment of a cylinder, for baring against the rotating role, characterized in that a channel-shaped recess is formed in the sealing surface, which recess extends in the sealing body in the longitudinal direction thereof at least over the entire length of the concave sealing surface portion and divides the concave sealing surface portion into two web-shaped partial faces , which extend along the recess on opposite sides thereof.
A medical device for modifying a left atrial appendage ("LAA") of a heart, comprising: an occluder portion coupled to a hub ; and an anchor portion operably coupled to the occluder portion , the anchor portion including multiple anchor segments , at least one anchor segment including a longitudinal length, a width and a depth, the longitudinal length extending along a curved portion between a first end and a second end of the at least one anchor segment , the depth being substantially constant along the longitudinal length, the width varying along at least a portion of the longitudinal length; wherein the at least one anchor segment comprises a wire wrapped around a portion of the at least one anchor segment in a coiled configuration. an occluder portion coupled to a hub ; and an anchor portion operably coupled to the occluder portion , the anchor portion including multiple anchor segments , at least one anchor segment including a longitudinal length, a width and a depth, the longitudinal length extending along a curved portion between a first end and a second end of the at least one anchor segment , the depth being substantially constant along the longitudinal length, the width varying along at least a portion of the longitudinal length; wherein the at least one anchor segment comprises a wire wrapped around a portion of the at least one anchor segment in a coiled configuration.
A centering device for a spare tyre of a vehicle, in particular for a lifting mechanism for the spare tyre of a vehicle, the device including: - an orifice with a periphery intended to surround a cable ; - two movable portions each including a part of the periphery of the orifice , the portions being adapted to be spread apart from one another, separating the parts of the periphery so as to place the cable in the orifice ; characterized in that one of the portions includes means for guiding the cable towards its part of the periphery so as to be able to guide the cable there when the portions are spread apart from one another. - an orifice with a periphery intended to surround a cable ; - two movable portions each including a part of the periphery of the orifice , the portions being adapted to be spread apart from one another, separating the parts of the periphery so as to place the cable in the orifice ;