mhurhangee/patent-ind-claim-en huggingface dataset:
A crimp structure, comprising an inner member and an outer member that is arranged outside the inner member , wherein the inner member and the outer member are joined to each other, wherein the inner member includes: an insertion portion that has a columnar surface-like outer circumferential surface , a recessed portion that is provided in the outer circumferential surface , and an annular groove provided in the outer circumferential surface , the recessed portion being formed inside the annular groove , wherein the outer member includes: a cylindrical portion that forms an opening into which the insertion portion of said inner member is inserted; a reduced-diameter portion that is formed on the cylindrical portion , and has a plastically deformed shape such that a diameter of the cylindrical portion is reduced annularly inward in a radial direction; and a protruding portion that has a plastically deformed shape such that a part, in a circumferential direction, of the reduced-diameter portion has entered the recessed portion of said inner member . an insertion portion that has a columnar surface-like outer circumferential surface , a recessed portion that is provided in the outer circumferential surface , and an annular groove provided in the outer circumferential surface , the recessed portion being formed inside the annular groove , wherein the outer member includes: a cylindrical portion that forms an opening into which the insertion portion of said inner member is inserted; a reduced-diameter portion that is formed on the cylindrical portion , and has a plastically deformed shape such that a diameter of the cylindrical portion is reduced annularly inward in a radial direction; and a protruding portion that has a plastically deformed shape such that a part, in a circumferential direction, of the reduced-diameter portion has entered the recessed portion of said inner member . a cylindrical portion that forms an opening into which the insertion portion of said inner member is inserted; a reduced-diameter portion that is formed on the cylindrical portion , and has a plastically deformed shape such that a diameter of the cylindrical portion is reduced annularly inward in a radial direction; and a protruding portion that has a plastically deformed shape such that a part, in a circumferential direction, of the reduced-diameter portion has entered the recessed portion of said inner member .
A fingerprint sensor assembly comprising: a fingerprint sensor module comprising contact pads for contacting an antenna, wherein the contact pads are located on a side of the fingerprint sensor module opposite a sensing surface of the module; and an antenna film comprising a conductive antenna embedded in an insulating coating arranged on an antenna carrier , wherein: the antenna film is attached to the fingerprint sensor module , the antenna carrier comprises openings corresponding to and aligned with corresponding contact pads of the fingerprint sensor module so that the antenna is accessible through the openings when the antenna film is attached to the fingerprint sensor module, and wherein there is no insulating coating of the antenna at locations of the contact pads such that a mechanical and electrical connection is formed between the conductive antenna and the contact pads . a fingerprint sensor module comprising contact pads for contacting an antenna, wherein the contact pads are located on a side of the fingerprint sensor module opposite a sensing surface of the module; and an antenna film comprising a conductive antenna embedded in an insulating coating arranged on an antenna carrier , wherein: the antenna film is attached to the fingerprint sensor module , the antenna carrier comprises openings corresponding to and aligned with corresponding contact pads of the fingerprint sensor module so that the antenna is accessible through the openings when the antenna film is attached to the fingerprint sensor module, and wherein there is no insulating coating of the antenna at locations of the contact pads such that a mechanical and electrical connection is formed between the conductive antenna and the contact pads . the antenna film is attached to the fingerprint sensor module , the antenna carrier comprises openings corresponding to and aligned with corresponding contact pads of the fingerprint sensor module so that the antenna is accessible through the openings when the antenna film is attached to the fingerprint sensor module, and wherein there is no insulating coating of the antenna at locations of the contact pads such that a mechanical and electrical connection is formed between the conductive antenna and the contact pads .
A communication method, wherein the method comprises: receiving, by a terminal device , uplink grant of a random access response from a network device , wherein the uplink grant of the random access response includes a modulation and coding scheme MCS field; obtaining, by the terminal device, first indication information based on two highest bits of the MCS field, wherein the first indication information indicates a quantity of repeated transmissions of a third message Msg 3, the third message Msg 3 is a radio resource control RRC connection request in a random access procedure; and determining, by the terminal device, the quantity of repeated transmissions of the third message based on the first indication information. receiving, by a terminal device , uplink grant of a random access response from a network device , wherein the uplink grant of the random access response includes a modulation and coding scheme MCS field; obtaining, by the terminal device, first indication information based on two highest bits of the MCS field, wherein the first indication information indicates a quantity of repeated transmissions of a third message Msg 3, the third message Msg 3 is a radio resource control RRC connection request in a random access procedure; and determining, by the terminal device, the quantity of repeated transmissions of the third message based on the first indication information.
A catheter comprising: an elongated catheter body ; a distal section having a single flexible elongated member with shape memory of a predetermined 2D configuration of an infinity symbol, which when deployed, or otherwise released from a guiding sheath through which it is advanced in a generally straightened configuration, assumes the 2D configuration of an infinity symbol; and at least one electrode mounted on the member. an elongated catheter body ; a distal section having a single flexible elongated member with shape memory of a predetermined 2D configuration of an infinity symbol, which when deployed, or otherwise released from a guiding sheath through which it is advanced in a generally straightened configuration, assumes the 2D configuration of an infinity symbol; and at least one electrode mounted on the member.
A compound represented by the structure of Formulae 5, 6 or 8: including salts, solvates, polymorphs, and mixtures thereof.
A computer-implemented method comprising: selecting an initial set of electrocardiograph (ECG) signals taken over a single heartbeat of a human subject, the set having respective morphologies to be used as a template for an arrhythmia of the subject; receiving a subsequent set of ECG signals taken over a subsequent heartbeat of the human subject; applying a phase shift between the initial set and the subsequent set prior to performing a cross-correlation; performing the cross-correlation between the initial set and the subsequent set using a processor , so as to generate a correlation coefficient that is a measure of a goodness of fit between geometries of the initial set and the subsequent set , wherein the correlation coefficient comprises a weighted sum of signal correlation coefficients which provide a measure of goodness of fit between the geometry of each signal of the subsequent set and a corresponding signal of the initial set , wherein each signal correlation coefficient is weighted by the sum of the absolute maximum amplitude of the signal of the subsequent set and the absolute maximum amplitude of the corresponding signal of the initial set ; iteratively altering the phase shift to determine a maximum correlation coefficient; and when the maximum correlation coefficient exceeds a threshold coefficient , accepting the subsequent heartbeat as having been caused by the arrhythmia. selecting an initial set of electrocardiograph (ECG) signals taken over a single heartbeat of a human subject, the set having respective morphologies to be used as a template for an arrhythmia of the subject; receiving a subsequent set of ECG signals taken over a subsequent heartbeat of the human subject; applying a phase shift between the initial set and the subsequent set prior to performing a cross-correlation; performing the cross-correlation between the initial set and the subsequent set using a processor , so as to generate a correlation coefficient that is a measure of a goodness of fit between geometries of the initial set and the subsequent set , wherein the correlation coefficient comprises a weighted sum of signal correlation coefficients which provide a measure of goodness of fit between the geometry of each signal of the subsequent set and a corresponding signal of the initial set , wherein each signal correlation coefficient is weighted by the sum of the absolute maximum amplitude of the signal of the subsequent set and the absolute maximum amplitude of the corresponding signal of the initial set ; iteratively altering the phase shift to determine a maximum correlation coefficient; and when the maximum correlation coefficient exceeds a threshold coefficient , accepting the subsequent heartbeat as having been caused by the arrhythmia.
A terminal comprising: a notification unit configured to transmit, to a base station apparatus , UE capability including information indicating a supported frequency band and information indicating a power class and spherical coverage in the frequency band; a receiving unit configured to receive, from the base station apparatus , information on power control; and a transmitting unit configured to transmit, to the base station apparatus , an uplink transmission signal to which transmit power control based on at least one of the information on power control or the power class is applied, wherein the spherical coverage is defined by an Equivalent Isotropic Radiated Power, EIRP, value at a given percentile value of a Cumulative Distribution Function, CDF, representing spherically radiated power. a notification unit configured to transmit, to a base station apparatus , UE capability including information indicating a supported frequency band and information indicating a power class and spherical coverage in the frequency band; a receiving unit configured to receive, from the base station apparatus , information on power control; and a transmitting unit configured to transmit, to the base station apparatus , an uplink transmission signal to which transmit power control based on at least one of the information on power control or the power class is applied, wherein the spherical coverage is defined by an Equivalent Isotropic Radiated Power, EIRP, value at a given percentile value of a Cumulative Distribution Function, CDF, representing spherically radiated power.
A storage system, comprising at least two devices , wherein the at least two devices are connected together in series, the at least two devices comprise a first device and a second device , each of the first device and the second device comprises a programmable chip and an expander chip , the programmable chip is configured to perform baseboard management for the first device and the second device, and the expander chip is configured to process a storage service, a first programmable chip of the first device and a second programmable chip of the second device are connected together in series by a communication cable , the second device is configured to be in a sleep state, and the sleep state means that only the second programmable chip is in a power-on state; the first programmable chip is configured to send a wakeup instruction to the second programmable chip; and the second programmable chip is configured to: receive the wakeup instruction sent by the first programmable chip , and control, based on the wakeup instruction, the second device to enter a working state, wherein the working state means that all elements of the second device are in the power-on state.
A package for consumer goods formed of a single laminar blank of cardboard, paperboard or card, the package comprising a box , the box comprising: a front wall ; a rear wall opposed to the front wall ; a bottom wall ; opposed side walls ; a top wall having an opening therein for accessing the consumer goods in the package , the opening extends across the top wall from the front edge thereof and wherein the periphery of the access opening is spaced apart from the rear edge and the side edges of the top wall so that the top wall extends around the rear and sides of the opening ; and a flap hinged to the rear wall along the top edge of the rear wall moveable between a closed position in which the flap covers the opening and an open position in which the opening is uncovered, and wherein the top wall comprises an upper top wall panel extending from the front wall of the housing and including an integral rear portion and side portions and a pair of lower top wall panels extending from the top edges of the side walls of the housing and underlying and adhered to the side portions of the upper top wall panel. a front wall ; a rear wall opposed to the front wall ; a bottom wall ; opposed side walls ; a top wall having an opening therein for accessing the consumer goods in the package , the opening extends across the top wall from the front edge thereof and wherein the periphery of the access opening is spaced apart from the rear edge and the side edges of the top wall so that the top wall extends around the rear and sides of the opening ; and a flap hinged to the rear wall along the top edge of the rear wall moveable between a closed position in which the flap covers the opening and an open position in which the opening is uncovered, and wherein the top wall comprises an upper top wall panel extending from the front wall of the housing and including an integral rear portion and side portions and a pair of lower top wall panels extending from the top edges of the side walls of the housing and underlying and adhered to the side portions of the upper top wall panel.
A polynucleic acid molecule that mediates RNA interference against EGFR, comprising a sense strand and an antisense strand that hybridizes to a EGFR target sequence SEQ ID NO: 45, wherein: • the polynucleic acid molecule comprises at least one 2' modified nucleotide, at least five phosphorothioate internucleotide linkages, and at least one inverted abasic moiety; • the sense strand comprises at least one phosphorothioate internucleotide linkage; • the polynucleic acid molecule comprises from 90% to 100% modification; • each of the sense strand and the antisense strand is from 21 to 30 nucleotides in length; and • the sense strand comprises a sequence selected from SEQ ID NO: 465, 1217, 1881, 1885, 1887, and 1889. • the polynucleic acid molecule comprises at least one 2' modified nucleotide, at least five phosphorothioate internucleotide linkages, and at least one inverted abasic moiety; • the sense strand comprises at least one phosphorothioate internucleotide linkage; • the polynucleic acid molecule comprises from 90% to 100% modification; • each of the sense strand and the antisense strand is from 21 to 30 nucleotides in length; and • the sense strand comprises a sequence selected from SEQ ID NO: 465, 1217, 1881, 1885, 1887, and 1889.
A method, performed by a processor, for determining a heart-rate variability, HRV, measurement of a user , comprising: receiving, from a sensor of an electronic device of the user , heart sensor data, wherein the heart sensor data comprises data on a photoplethysmograph, PPG, signal over a noise-calculation time period; computing the HRV measurement of the user based on the received heart sensor data; calculating an error-noise estimation associated with the PPG signal; quantifying an amount of noise of the PPG signal based on the error-noise estimation associated with the PPG signal to determine a noise level of the received heart sensor data; and adjusting the HRV measurement by an amount calculated based on the determined noise level. receiving, from a sensor of an electronic device of the user , heart sensor data, wherein the heart sensor data comprises data on a photoplethysmograph, PPG, signal over a noise-calculation time period; computing the HRV measurement of the user based on the received heart sensor data; calculating an error-noise estimation associated with the PPG signal; quantifying an amount of noise of the PPG signal based on the error-noise estimation associated with the PPG signal to determine a noise level of the received heart sensor data; and adjusting the HRV measurement by an amount calculated based on the determined noise level.
Laser operating machine for additive manufacturing of objects by laser sintering, comprising a transport structure , which is movable in a work space , operating according to a first system of movement axes comprising a plurality of axes (X, Y, Z) corresponding to the three Cartesian axes, and configured to support one or more nozzles for emitting sintering powder jets to be sintered on a work substrate and an optical laser assembly for conveying a laser beam (L) into a laser spot (S) focused on said work substrate to sinter said powders, characterized in that said optical laser assembly is integrally associated with the vertical movement axis or of said transport structure and a movable element is also integrally associated with said transport structure , said movable element operating according to a second system of movement axes comprising a plurality of translational or rotational movement axes (u, v), identifying a parallel kinematics, with respect to the transport structure that moves the movable element , said movable element comprising a tool-carrier frame , of a shape such as to internally define a perimeter, defining a passage area within it that allows the passage of a laser beam for sintering, on which one or more nozzles for emitting sintering powder jets are arranged, associated with said second system of movement axes comprising a plurality of axes (u, v) and movable with respect to said optical laser assembly , said tool-carrier frame being integrally associated with the axes of the movable element identifying said parallel kinematics, said laser operating machine further comprising a numeric control unit and a servo-control module configured to perform trajectories through respective axes to implement a sintering path (LP) and an emission path (PP), of commanding the actuators to move said tool-carrier frame in a movable manner with respect to the optical unit .
A computer-implemented method of configuring a parallel processing unit, the method comprising, by a processor: receiving a plurality of related instructions; identifying data hazards in the plurality of related instructions, each data hazard comprising a primary instruction and one or more secondary instructions; determining whether each identified data hazard is a high latency data hazard or a low latency data hazard; allocating each primary instruction a counter of a plurality of counters for tracking the identified data hazard, wherein the counter allocated to a primary instruction is from a first subset of the plurality of counters when the identified data hazard is a low latency data hazard and the counter allocated to a primary instruction is from a second subset of the plurality of counters when the identified data hazard is a high latency data hazard ; generating a computer executable instruction for each primary instruction that comprises information indicating that the computer executable instruction is a primary instruction and information identifying the counter allocated to the primary instruction; generating a computer executable instruction for each secondary instruction that comprises information indicating that the computer executable instruction is a secondary instruction and information identifying the counter allocated to the corresponding primary instruction; and loading the computer executable instructions into the parallel processing unit. receiving a plurality of related instructions; identifying data hazards in the plurality of related instructions, each data hazard comprising a primary instruction and one or more secondary instructions; determining whether each identified data hazard is a high latency data hazard or a low latency data hazard; allocating each primary instruction a counter of a plurality of counters for tracking the identified data hazard, wherein the counter allocated to a primary instruction is from a first subset of the plurality of counters when the identified data hazard is a low latency data hazard and the counter allocated to a primary instruction is from a second subset of the plurality of counters when the identified data hazard is a high latency data hazard ; generating a computer executable instruction for each primary instruction that comprises information indicating that the computer executable instruction is a primary instruction and information identifying the counter allocated to the primary instruction; generating a computer executable instruction for each secondary instruction that comprises information indicating that the computer executable instruction is a secondary instruction and information identifying the counter allocated to the corresponding primary instruction; and loading the computer executable instructions into the parallel processing unit.
A data processing method, comprising: (i), resetting a cumulative change of target data and a data detection period as 0 (S110); (ii), obtaining the target data (S120); (iii), obtaining the cumulative change of the target data, and comparing the obtained cumulative change with its preset threshold (S130); (iv), when the cumulative change of the target data is less than the preset threshold, adjusting the data detection period, and then returning to (ii); or when the cumulative change of the target data is not less than the preset threshold, comparing the current data detection period with a preset time threshold (S140); (v), when the data detection period is greater than the preset time threshold, determining the target data obtained in the data detection period as steady-state data; or when the data detection period is not greater than the preset time threshold, determining the target data obtained in the data detection period as unsteady-state data (S150). (i), resetting a cumulative change of target data and a data detection period as 0 (S110); (ii), obtaining the target data (S120); (iii), obtaining the cumulative change of the target data, and comparing the obtained cumulative change with its preset threshold (S130); (iv), when the cumulative change of the target data is less than the preset threshold, adjusting the data detection period, and then returning to (ii); or when the cumulative change of the target data is not less than the preset threshold, comparing the current data detection period with a preset time threshold (S140); (v), when the data detection period is greater than the preset time threshold, determining the target data obtained in the data detection period as steady-state data; or when the data detection period is not greater than the preset time threshold, determining the target data obtained in the data detection period as unsteady-state data (S150).