mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: a light source to generate an optical signal, the optical signal including a set of pulses at a first repetition rate; an optical multiplexer circuit to receive the optical signal and to generate a multiplexed optical signal including a set of pulses at a second repetition rate, wherein the second repetition rate is an n-multiple of the first repetition rate, wherein the set of pulses at the second repetition rate includes n sets of pulses, each set of pulses of the n set of pulses having a different polarization state than each other of the n set of pulses and being at the first repetition rate; a focusing unit to receive the multiplexed optical signal and to split the multiplexed optical signal into a set of n excitation signals to excite a sample, each excitation signal of the set of n excitation signals corresponding to a set of pulses of the n set of pulses; an objective to receive the set of n excitation signals and to illuminate the sample , wherein the objective and the focusing unit collectively focus each excitation signal of the set of n excitation signals on a different focal plane of the sample than each other excitation signal of the set of n excitation signals to generate a response signal in response to the set of n excitation signals; and an electronic demultiplexer circuit to demultiplex emission from the different focal planes and to generate a set of n emission signals based on the response signal, each emission signal of the set of n emission signals corresponding to an excitation signal of the set of n excitation signals. a light source to generate an optical signal, the optical signal including a set of pulses at a first repetition rate; an optical multiplexer circuit to receive the optical signal and to generate a multiplexed optical signal including a set of pulses at a second repetition rate, wherein the second repetition rate is an n-multiple of the first repetition rate, wherein the set of pulses at the second repetition rate includes n sets of pulses, each set of pulses of the n set of pulses having a different polarization state than each other of the n set of pulses and being at the first repetition rate; a focusing unit to receive the multiplexed optical signal and to split the multiplexed optical signal into a set of n excitation signals to excite a sample, each excitation signal of the set of n excitation signals corresponding to a set of pulses of the n set of pulses; an objective to receive the set of n excitation signals and to illuminate the sample , wherein the objective and the focusing unit collectively focus each excitation signal of the set of n excitation signals on a different focal plane of the sample than each other excitation signal of the set of n excitation signals to generate a response signal in response to the set of n excitation signals; and an electronic demultiplexer circuit to demultiplex emission from the different focal planes and to generate a set of n emission signals based on the response signal, each emission signal of the set of n emission signals corresponding to an excitation signal of the set of n excitation signals.
A method for preparing an electrode for an electrochemical device comprising the steps of: delaminating a layered structure of black phosphorous to prepare a two-dimensional semiconductor material; forming a coating layer comprising the two-dimensional semiconductor material on the surface of a metal electrode; and converting a part of the two-dimensional semiconductor material in the coating layer into metal phosphide, wherein the two-dimensional semiconductor material is phosphorene in the form of a monolayer thin film, or a multilayer thin film in which two or more layers of phosphorene are stacked. delaminating a layered structure of black phosphorous to prepare a two-dimensional semiconductor material; forming a coating layer comprising the two-dimensional semiconductor material on the surface of a metal electrode; and converting a part of the two-dimensional semiconductor material in the coating layer into metal phosphide, wherein the two-dimensional semiconductor material is phosphorene in the form of a monolayer thin film, or a multilayer thin film in which two or more layers of phosphorene are stacked.
An aircraft storage bin comprising: an upper housing , and a bucket pivotally connected to the upper housing that cooperates with the upper housing to define a bin interior, wherein the bucket includes a bottom , a front edge and first and second opposing side walls extending upwardly from the bottom , wherein the bucket pivots about a pivot axis with respect to the upper housing between an open position and a closed position, wherein when the storage bin is installed in an aircraft, a first horizontal distance (D5) is defined between a first vertical line that extends through the pivot axis (A1) and the front edge of the bucket when the bucket is in the closed position, wherein a second horizontal distance (D6) is defined between the first vertical line and the front edge of the bucket when the bucket is in the open position, and wherein the first horizontal distance (D5) is greater than the second horizontal distance (D6), the aircraft storage bin further comprising a first pivot mechanism operatively associated with the first side wall of the bucket and a second pivot mechanism operatively associated with the second side wall of the bucket, characterised in that the first side wall of the bucket defines a first arcuate slot therein and the second side wall of the bucket defines a second arcuate slot therein, and wherein the first arcuate slot receives the first pivot mechanism and the second arcuate slot receives the second pivot mechanism , wherein the first and second arcuate slots are open to a top edge of the first and second side walls of the bucket . an upper housing , and a bucket pivotally connected to the upper housing that cooperates with the upper housing to define a bin interior, wherein the bucket includes a bottom , a front edge and first and second opposing side walls extending upwardly from the bottom , wherein the bucket pivots about a pivot axis with respect to the upper housing between an open position and a closed position, wherein when the storage bin is installed in an aircraft, a first horizontal distance (D5) is defined between a first vertical line that extends through the pivot axis (A1) and the front edge of the bucket when the bucket is in the closed position, wherein a second horizontal distance (D6) is defined between the first vertical line and the front edge of the bucket when the bucket is in the open position, and wherein the first horizontal distance (D5) is greater than the second horizontal distance (D6), the aircraft storage bin further comprising a first pivot mechanism operatively associated with the first side wall of the bucket and a second pivot mechanism operatively associated with the second side wall of the bucket, characterised in that the first side wall of the bucket defines a first arcuate slot therein and the second side wall of the bucket defines a second arcuate slot therein, and wherein the first arcuate slot receives the first pivot mechanism and the second arcuate slot receives the second pivot mechanism , wherein the first and second arcuate slots are open to a top edge of the first and second side walls of the bucket .
A method performed by a terminal configured with a coverage enhancement, CE, mode in a wireless communication system, the method comprising: receiving , from a base station, downlink control information, DCI, comprising uplink subcarrier allocation information; determining allocated three subcarriers according to the uplink subcarrier allocation information; wherein the received DCI comprises information for indicating whether to use 2 or 3 subcarriers within the allocated three subcarriers for transmitting uplink data; in case that said information in the received DCI indicates to use two subcarriers within the allocated three subcarriers, selecting two consecutive subcarriers within the allocated three consecutive subcarriers for transmitting an uplink data based on a value of a cell identity mod 2; and transmitting , to the base station, the uplink data using the selected two consecutive subcarriers. receiving , from a base station, downlink control information, DCI, comprising uplink subcarrier allocation information; determining allocated three subcarriers according to the uplink subcarrier allocation information; wherein the received DCI comprises information for indicating whether to use 2 or 3 subcarriers within the allocated three subcarriers for transmitting uplink data; in case that said information in the received DCI indicates to use two subcarriers within the allocated three subcarriers, selecting two consecutive subcarriers within the allocated three consecutive subcarriers for transmitting an uplink data based on a value of a cell identity mod 2; and transmitting , to the base station, the uplink data using the selected two consecutive subcarriers.
A Centella asiatica extract for use in preventing, ameliorating, or treating a retinal nerve cell damage syndrome caused by oxidative stress, characterized in that the Centella asiatica extract is a 40%-60% aqueous ethanol extract.
Context-based entropy decoder for decoding sample values of a spectral envelope of an audio signal, configured to sequentially decode the sample values using a decoding order which traverses the sample values time instant by instant with, in each time instant, leading from lowest to highest frequency, by spectrotemporally predicting a current sample value of the spectral envelope to obtain an estimated value of the current sample value; determining a context for the current sample value dependent on a measure for a deviation between a pair of already decoded sample values of the spectral envelope in a spectrotemporal neighborhood of the current sample value by using a signed difference between the pair of already decoded sample values of the spectral envelope in the spectrotemporal neighborhood of the current sample value as to measure the deviation; entropy decoding , using context-based entropy decoding, a prediction residual value of the current sample value using the context determined; and combining the estimated value and the prediction residual value to obtain the current sample value. spectrotemporally predicting a current sample value of the spectral envelope to obtain an estimated value of the current sample value; determining a context for the current sample value dependent on a measure for a deviation between a pair of already decoded sample values of the spectral envelope in a spectrotemporal neighborhood of the current sample value by using a signed difference between the pair of already decoded sample values of the spectral envelope in the spectrotemporal neighborhood of the current sample value as to measure the deviation; entropy decoding , using context-based entropy decoding, a prediction residual value of the current sample value using the context determined; and combining the estimated value and the prediction residual value to obtain the current sample value.
A method for enabling common charging of network connectivity and cloud resource utilization for a user equipment, UE, the method being performed in the UE, the method comprising: - sending (S52, S220, S320), to a packet core system, an attach request message; - receiving (S54, S222, S336, S434), from the packet core system, one or more service definitions of common network connectivity and cloud service classes, as a consequence to said sending of the attach request message, wherein the service definitions of each one of the common network connectivity and cloud service classes comprise a service-identifier, a quality of service, QoS, class identifier value and a reference to cloud services; - sending (S56, S226), to the packet core system, a request for a network connectivity and cloud resource service, wherein the requested service is class-based, and wherein the request comprises the QoS class identifier value of one of the common network connectivity and cloud service classes; and - receiving (S58, S236), from the packet core system, a response being an acceptance of the requested network connectivity and cloud resource service, enabling the packet core system to utilize common charging of network connectivity and cloud resource utilization. - sending (S52, S220, S320), to a packet core system, an attach request message; - receiving (S54, S222, S336, S434), from the packet core system, one or more service definitions of common network connectivity and cloud service classes, as a consequence to said sending of the attach request message, wherein the service definitions of each one of the common network connectivity and cloud service classes comprise a service-identifier, a quality of service, QoS, class identifier value and a reference to cloud services; - sending (S56, S226), to the packet core system, a request for a network connectivity and cloud resource service, wherein the requested service is class-based, and wherein the request comprises the QoS class identifier value of one of the common network connectivity and cloud service classes; and - receiving (S58, S236), from the packet core system, a response being an acceptance of the requested network connectivity and cloud resource service,
A communication method applied to user equipment or a chip for a user equipment , wherein the method comprises: determining (S201, S303), a modulation and coding scheme, MCS, table, wherein the MCS table comprises a first plurality of correspondences, and wherein in each of the first plurality of correspondences, an index value is corresponding to a π/2 binary phase shift keying, π/2-BPSK, modulation and a quadrature phase shift keying, QPSK, modulation; determining, based on the MCS table, a modulation scheme corresponding to a received index number; wherein determining the modulation scheme corresponding to the received index number comprises: in case the received index number is corresponding to the π/2-BPSK modulation and the QPSK modulation in the MCS table, determining, based on a configuration from a network device , which one of the π/2-BPSK modulation and the QPSK modulation is the modulation scheme corresponding to the received index number; performing (S202, S304), communication based on the modulation scheme corresponding to the received index number. determining (S201, S303), a modulation and coding scheme, MCS, table, wherein the MCS table comprises a first plurality of correspondences, and wherein in each of the first plurality of correspondences, an index value is corresponding to a π/2 binary phase shift keying, π/2-BPSK, modulation and a quadrature phase shift keying, QPSK, modulation; determining, based on the MCS table, a modulation scheme corresponding to a received index number; wherein determining the modulation scheme corresponding to the received index number comprises: in case the received index number is corresponding to the π/2-BPSK modulation and the QPSK modulation in the MCS table, determining, based on a configuration from a network device , which one of the π/2-BPSK modulation and the QPSK modulation is the modulation scheme corresponding to the received index number; performing (S202, S304), communication based on the modulation scheme corresponding to the received index number. in case the received index number is corresponding to the π/2-BPSK modulation and the QPSK modulation in the MCS table, determining, based on a configuration from a network device , which one of the π/2-BPSK modulation and the QPSK modulation is the modulation scheme corresponding to the received index number; performing (S202, S304), communication based on the modulation scheme corresponding to the received index number.
A ceramic femoral resurfacing head prosthesis comprising: a ceramic convex outer contact surface engagable with an acetabulum of a patient or an acetabular cup prosthesis; and a concave inner fixation surface , the ceramic convex outer contact surface and the concave inner fixation surface extending to intersect each other at a rim ; characterised in that the ceramic femoral resurfacing head prosthesis further comprises a ceramic stem projecting from the concave inner fixation surface and adapted to be received by a stem bore, wherein a free distal end of the stem is at, or spaced inwardly of, a plane defined by the said rim , wherein the ceramic stem includes at least a two-part angular transition in a longitudinal direction of the stem to meet the concave inner fixation surface such that an inner-land portion of the concave inner fixation surface at or adjacent to the ceramic stem is increased, the at least a two-part angular transition defining a curve in a longitudinal direction of the stem having a non-uniform radius. a ceramic convex outer contact surface engagable with an acetabulum of a patient or an acetabular cup prosthesis; and a concave inner fixation surface , the ceramic convex outer contact surface and the concave inner fixation surface extending to intersect each other at a rim ; characterised in that the ceramic femoral resurfacing head prosthesis further comprises a ceramic stem projecting from the concave inner fixation surface and adapted to be received by a stem bore, wherein a free distal end of the stem is at, or spaced inwardly of, a plane defined by the said rim , wherein
A method performed by a User Equipment, UE, for handling a Secondary Cell Group, SCG, configuration in a wireless communications network , the method being characterized by : receiving from a network node , while the UE 120 is in RRC_CONNECTED state, an RRC reconfiguration message including a list of conditional SCG configurations comprising trigger conditions based on signal quality measurements to trigger application of a SCG configuration, wherein different trigger conditions are configured for different SCG configurations, upon reception of said RRC reconfiguration message while the UE 120 is in RRC_CONNECTED state, initiating monitoring of the trigger conditions of cells associated with the SCG configurations, when the trigger condition for a cell is fulfilled according to the received conditional SCG configurations, applying the SCG configuration associated to the cell fulfilling the trigger condition. receiving from a network node , while the UE 120 is in RRC_CONNECTED state, an RRC reconfiguration message including a list of conditional SCG configurations comprising trigger conditions based on signal quality measurements to trigger application of a SCG configuration, wherein different trigger conditions are configured for different SCG configurations, upon reception of said RRC reconfiguration message while the UE 120 is in RRC_CONNECTED state, initiating monitoring of the trigger conditions of cells associated with the SCG configurations, when the trigger condition for a cell is fulfilled according to the received conditional SCG configurations, applying the SCG configuration associated to the cell fulfilling the trigger condition.
A compound of formula or a pharmaceutically acceptable salt or solvate thereof; wherein R 1 is H, a straight or branched alkyl, or lower cycloalkyl; R 2 is a lower straight or branched alkyl or lower cycloalkyl; L is an alkylene chain of 4-7 members, an alkenylene chain of 4-7 members, a CH(OH)-alkylene chain (the alkylene comprising 4-6 members) or an alkylene-O-alkylene chain (the two alkylene chains together comprising a total of 4-6 members); Rb is H or F; m is an integer of 0 to 2; X is F, Cl, C1-3alkyl, C1-3 alkoxy, or hydroxyl; n is an integer of 0 to 2; and Ra is F, Cl, C1-3alkyl, C1-3 alkoxy, or hydroxyl; wherein "lower straight alkyl" is comprising 1 to 6 carbon atoms; "lower branched alkyl" is comprising 3 to 6 carbon atoms and "lower cycloalkyl" is comprising 3 to 6 carbon atoms. R 1 is H, a straight or branched alkyl, or lower cycloalkyl; R 2 is a lower straight or branched alkyl or lower cycloalkyl; L is an alkylene chain of 4-7 members, an alkenylene chain of 4-7 members, a CH(OH)-alkylene chain (the alkylene comprising 4-6 members) or an alkylene-O-alkylene chain (the two alkylene chains together comprising a total of 4-6 members); Rb is H or F; m is an integer of 0 to 2; X is F, Cl, C1-3alkyl, C1-3 alkoxy, or hydroxyl; n is an integer of 0 to 2; and Ra is F, Cl, C1-3alkyl, C1-3 alkoxy, or hydroxyl; wherein "lower straight alkyl" is comprising 1 to 6 carbon atoms; "lower branched alkyl" is comprising 3 to 6 carbon atoms and "lower cycloalkyl" is comprising 3 to 6 carbon atoms.
An electrochemical cell, comprising: a cathode shell, a cathode positioned inside the cathode shell, an anode shell , an anode and/or positioned inside the anode shell , and one or more ion exchange membranes, wherein the one or more ion exchange membranes are disposed between the anode shell and the cathode shell; and a plurality of V-shaped, U-shaped, or Z-shaped elements positioned outside the anode shell and in electrical contact with the anode and/or . a cathode shell, a cathode positioned inside the cathode shell, an anode shell , an anode and/or positioned inside the anode shell , and one or more ion exchange membranes, wherein the one or more ion exchange membranes are disposed between the anode shell and the cathode shell; and a plurality of V-shaped, U-shaped, or Z-shaped elements positioned outside the anode shell and in electrical contact with the anode and/or .
A method for transferring route information between material handling vehicles (100; 200), the method comprising: operating a first material handling vehicle along a route and collecting operation information including route information, the first material handling vehicle having a first geometry; transferring the operation information to a warehouse management system including a map , the warehouse management system including a transfer matrix ; characterized by processing the operation information including the route information with the transfer matrix to modify the operation information including the route information of the first material handling vehicle to compensate for geometric disparities between the first material handling vehicle and a second material handling vehicle ; and transferring processed operation information including the route information to the second material handling vehicle , the second material handling vehicle having a second geometry. operating a first material handling vehicle along a route and collecting operation information including route information, the first material handling vehicle having a first geometry; transferring the operation information to a warehouse management system including a map , the warehouse management system including a transfer matrix ; processing the operation information including the route information with the transfer matrix to modify the operation information including the route information of the first material handling vehicle to compensate for geometric disparities between the first material handling vehicle and a second material handling vehicle ; and transferring processed operation information including the route information to the second material handling vehicle , the second material handling vehicle having a second geometry.