mhurhangee/patent-ind-claim-en huggingface dataset:
A scheduling method, executed by a processor of a scheduling apparatus, comprising: acquiring (S101) an authentication request that indicates to-be-authenticated information; determining (S 102) at least two authentication strategy groups required by an authentication processing procedure of the to-be-authenticated information, wherein the at least two authentication strategy groups are determined based on an authentication dependency relationship between authentication strategies, wherein the authentication strategies having the authentication dependency relationship are classified into different authentication strategy groups, and the authentication strategies in the different authentication strategy groups have the authentication dependency relationship; each of the at least two authentication strategy groups comprises at least two authentication strategies; and for each authentication strategy group, authentication procedures of the authentication strategies in the authentication strategy group are independent from each other, so as to ensure that the authentication strategies in the authentication strategy group are able to be executed in parallel; and for each authentication strategy group, calling (S103) the authentication strategies in the authentication strategy group in parallel, and performing, by the authentication strategies in the authentication strategy group, authentication processing on the to-be-authenticated information in parallel, to obtain an authentication processing result corresponding to the authentication strategy group by parsing. acquiring (S101) an authentication request that indicates to-be-authenticated information; determining (S 102) at least two authentication strategy groups required by an authentication processing procedure of the to-be-authenticated information, wherein the at least two authentication strategy groups are determined based on an authentication dependency relationship between authentication strategies, wherein the authentication strategies having the authentication dependency relationship are classified into different authentication strategy groups, and the authentication strategies in the different authentication strategy groups have the authentication dependency relationship; each of the at least two authentication strategy groups comprises at least two authentication strategies; and for each authentication strategy group, authentication procedures of the authentication strategies in the authentication strategy group are independent from each other, so as to ensure that the authentication strategies in the authentication strategy group are able to be executed in parallel; and for each authentication strategy group, calling (S103) the authentication strategies in the authentication strategy group in parallel, and performing, by the authentication strategies in the authentication strategy group, authentication processing on the to-be-authenticated information in parallel, to obtain an authentication processing result corresponding to the authentication strategy group by parsing.
A method for transmitting, by a user equipment, data units in wireless communication system, the method comprising: receiving (S1101), from a base station by the user equipment, configuration information related to a packet duplication function for a packet data convergence protocol, PDCP, entity for a radio bearer, RB, wherein the PDCP entity for the RB is associated with M radio link control, RLC, entities, where M is an integer larger than 1, and wherein the configuration information includes path information regarding a single RLC entity, transmitting (S1102), by the user equipment, a first PDCP protocol data unit, PDU, of the PDCP entity for the RB via the single RLC entity, based on i) not receiving a layer-2 activation command to activate the packet duplication function and ii) the path information; receiving (S1104), from the base station by the user equipment, the layer-2 activation command to activate the packet duplication function for the M RLC entities; and transmitting (S1105), by the user equipment, a second PDCP PDU via each of the M RLC entities based on receiving the layer-2 activation command. receiving (S1101), from a base station by the user equipment, configuration information related to a packet duplication function for a packet data convergence protocol, PDCP, entity for a radio bearer, RB, wherein the PDCP entity for the RB is associated with M radio link control, RLC, entities, where M is an integer larger than 1, and wherein the configuration information includes path information regarding a single RLC entity, transmitting (S1102), by the user equipment, a first PDCP protocol data unit, PDU, of the PDCP entity for the RB via the single RLC entity, based on i) not receiving a layer-2 activation command to activate the packet duplication function and ii) the path information; receiving (S1104), from the base station by the user equipment, the layer-2 activation command to activate the packet duplication function for the M RLC entities; and transmitting (S1105), by the user equipment, a second PDCP PDU via each of the M RLC entities based on receiving the layer-2 activation command.
An elevator counterweight assembly , comprising: a counterweight structure ; at least one safety brake mounted on the counterweight structure a safety actuation mechanism , comprising a connection for a suspension member , wherein the safety actuation mechanism is configured to move, relative to the counterweight structure , between a normal position, and a safety position, wherein in the safety position the safety actuation mechanism is arranged to actuate the at least one safety brake and thereby brake the counterweight structure ; characterized by further comprising: a mechanical actuator , configured, when actuated, to apply a force to the safety actuation mechanism and thereby move the safety actuation mechanism from the normal position to the safety position. a counterweight structure ; at least one safety brake mounted on the counterweight structure a safety actuation mechanism , comprising a connection for a suspension member , wherein the safety actuation mechanism is configured to move, relative to the counterweight structure , between a normal position, and a safety position, wherein in the safety position the safety actuation mechanism is arranged to actuate the at least one safety brake and thereby brake the counterweight structure ; characterized by further comprising: a mechanical actuator , configured, when actuated, to apply a force to the safety actuation mechanism and thereby move the safety actuation mechanism from the normal position to the safety position.
An electrolyte comprising a lithium salt, a non-aqueous organic solvent and an additive, the lithium salt comprises lithium bis(fluorosulfonyl)imide, a content of the lithium bis(fluorosulfonyl)imide is 5%∼15% of a total weight of the electrolyte; characterized in that the additive comprises methylene methanedisulfonate or the additive comprises two of methylene methanedisulfonate and ethylene sulfate. characterized in that the additive comprises methylene methanedisulfonate or the additive comprises two of methylene methanedisulfonate and ethylene sulfate.
A server device that provides services to a terminal, the server device comprising: a storage configured to store information indicating a measurement device and information indicating a relay device in association with identification information of the terminal, the measurement device performing measurement to obtain measurement data that is used in the terminal, the relay device being able to relay the measurement data to the server device; a generator configured to generate a report packet destined for a relay device, the report packet reporting a list of a measurement device that is a transmission source of measurement data to be relayed by the relay device; and a transceiver configured to transmit the report packet, wherein when the transceiver receives a request that the use of the services in the terminal be stopped, the generator generates a report packet destined for a relay device associated with the identification information of the terminal, the report packet including the list including a request that measurement data obtained by a measurement device associated with the identification information of the terminal is not relayed to the server by the relay device. a storage configured to store information indicating a measurement device and information indicating a relay device in association with identification information of the terminal, the measurement device performing measurement to obtain measurement data that is used in the terminal, the relay device being able to relay the measurement data to the server device; a generator configured to generate a report packet destined for a relay device, the report packet reporting a list of a measurement device that is a transmission source of measurement data to be relayed by the relay device; and a transceiver configured to transmit the report packet, wherein when the transceiver receives a request that the use of the services in the terminal be stopped, the generator generates a report packet destined for a relay device associated with the identification information of the terminal, the report packet including the list including a request that measurement data obtained by a measurement device associated with the identification information of the terminal is not relayed to the server by the relay device.
A head unit that ejects a liquid, wherein the head unit includes a drive signal output circuit that outputs a drive signal, a first substrate on which the drive signal output circuit is provided, and a first ejection head including a first drive element driven by the drive signal, a first switching circuit that switches whether to supply the drive signal to the first drive element, and a first nozzle plate including a first nozzle from which a liquid is ejected by driving the first drive element, wherein the first substrate includes a first face and a second face , wherein the drive signal output circuit is provided on the first face , wherein a shortest distance between the first nozzle plate and the second face is shorter than a shortest distance between the first nozzle plate and the first face , wherein the head unit includes an integrated circuit that is electrically coupled to the drive signal output circuit , and a second substrate that has a third face and a fourth face and on which the integrated circuit is provided, wherein the second substrate is electrically coupled to the first substrate , wherein the integrated circuit is provided on the third face , and wherein at least part of the integrated circuit does not overlap the first substrate in a direction from the third face toward the fourth face . a drive signal output circuit that outputs a drive signal, a first substrate on which the drive signal output circuit is provided, and a first ejection head including a first drive element driven by the drive signal, a first switching circuit that switches whether to supply the drive signal to the first drive element, and a first nozzle plate including a first nozzle from which a liquid is ejected by driving the first drive element, wherein the first substrate includes a first face and a second face , wherein the drive signal output circuit is provided on the first face , wherein a shortest distance between the first nozzle plate and the second face is shorter than a shortest distance between the first nozzle plate and the first face , wherein the head unit includes an integrated circuit that is electrically coupled to the drive signal output circuit , and a second substrate that has a third face and a fourth face and on which the integrated circuit is provided, wherein the second substrate is electrically coupled to the first substrate , wherein the integrated circuit is provided on the third face , and wherein at least part of the integrated circuit does not overlap the first substrate in a direction from the third face toward the fourth face .
A method for producing absorbent sanitary articles, comprising: - forming extension bands (40', 40") having respective proximal edges , respective distal edges to which respective closing elements are fixed, and respective band flaps (60', 60"), - overlapping said extension bands (40', 40") on a continuous web in spaced apart positions in a longitudinal direction and fixing the proximal edges of said extension bands (40', 40") to said continuous web , - connecting said band flaps (60', 60") to said continuous web by first temporary joining zones , - cutting said continuous web so as to form side panels (30', 30") having respective proximal edges and respective distal edges , each with a respective extension band (40', 40") fixed to its distal edge , - fixing the proximal edges of said side panels (30', 30") alongside edges of a continuous composite structure including a continuous topsheet , a continuous backsheet and a plurality of absorbent cores enclosed between the continuous topsheet and the continuous backsheet , and - cutting said continuous composite structure so as to form individual absorbent sanitary articles . - forming extension bands (40', 40") having respective proximal edges , respective distal edges to which respective closing elements are fixed, and respective band flaps (60', 60"), - overlapping said extension bands (40', 40") on a continuous web in spaced apart positions in a longitudinal direction and fixing the proximal edges of said extension bands (40', 40") to said continuous web , - connecting said band flaps (60', 60") to said continuous web by first temporary joining zones , - cutting said continuous web so as to form side panels (30', 30") having respective proximal edges and respective distal edges , each with a respective extension band (40', 40") fixed to its distal edge , - fixing the proximal edges of said side panels (30', 30") alongside edges of a continuous composite structure including a continuous topsheet , a continuous backsheet and a plurality of absorbent cores enclosed between the continuous topsheet and the continuous backsheet , and - cutting said continuous composite structure so as to form individual absorbent sanitary articles .
An apparatus for identifying a position of an abnormality having occurred in a secondary battery system including a plurality of modules each formed by accommodating one or more blocks in a casing, the blocks each being formed by connecting two or more secondary battery cells , the apparatus comprising: a voltage measurement unit configured to detect voltage of the secondary battery cells of each block in accordance with a predetermined monitoring cycle, and output the detected voltages as respective block voltage (V) for each block; an information acquisition unit configured to receive the respective block voltages (V) for each block, determine, for each block voltage, whether a difference (ΔV) between the respective block voltage (V) and a corresponding block voltage with a first order lag (Vr) exceeds a predetermined voltage threshold value (Vth), and acquire information about a module among the modules that accommodates the block of which the difference has been determined as exceeding the voltage threshold value (Vth); a notification reception unit configured to receive a notification of an abnormality having occurred in the secondary battery cells; and a module identification unit configured to identify, at the time of receiving a notification of an abnormality having occurred in the secondary battery cells by the notification reception unit , a module corresponding to the information about the module, as a module having the abnormality. a voltage measurement unit configured to detect voltage of the secondary battery cells of each block in accordance with a predetermined monitoring cycle, and output the detected voltages as respective block voltage (V) for each block; an information acquisition unit configured to receive the respective block voltages (V) for each block, determine, for each block voltage, whether a difference (ΔV) between the respective block voltage (V) and a corresponding block voltage with a first order lag (Vr) exceeds a predetermined voltage threshold value (Vth), and acquire information about a module among the modules that accommodates the block of which the difference has been determined as exceeding the voltage threshold value (Vth); receive the respective block voltages (V) for each block, determine, for each block voltage, whether a difference (ΔV) between the respective block voltage (V) and a corresponding block voltage with a first order lag (Vr) exceeds a predetermined voltage threshold value (Vth), and acquire information about a module among the modules that accommodates the block of which the difference has been determined as exceeding the voltage threshold value (Vth); a notification reception unit configured to receive a notification of an abnormality having occurred in the secondary battery cells; and a module identification unit configured to identify, at the time of receiving a notification of an abnormality having occurred in the secondary battery cells by the notification reception unit , a module corresponding to the information about the module, as a module having the abnormality.
A method of compressing data values using four spatial decorrelation modules which are arranged to process 8-bit data values and four entropy encoding modules which are arranged to process 8-bit data values, the method comprising: reformatting data values having three input data channels in a 10:10:10 format into four 8-bit output channels by: placing the eight most significant bits of data values of a first input channel in a first output channel, placing the eight most significant bits of data values of a second input in a second output channel, placing the eight most significant bits of data values of a third input channel in a third output channel, placing the two least significant bits from data values of each of the three input channels in a fourth output channel to form 6-bit data values, and appending 2 bits to the least significant end of the 6-bit data values, thereby forming 8-bit data values; and for each of the output channels: using one of the spatial decorrelation modules to perform a spatial decorrelation process on the 8-bit data values involving using a modulo-256 function; and using one of the entropy encoding modules to perform entropy encoding on the data values subsequent to said spatial decorrelation. reformatting data values having three input data channels in a 10:10:10 format into four 8-bit output channels by: placing the eight most significant bits of data values of a first input channel in a first output channel, placing the eight most significant bits of data values of a second input in a second output channel, placing the eight most significant bits of data values of a third input channel in a third output channel, placing the two least significant bits from data values of each of the three input channels in a fourth output channel to form 6-bit data values, and appending 2 bits to the least significant end of the 6-bit data values, thereby forming 8-bit data values; and placing the eight most significant bits of data values of a first input channel in a first output channel, placing the eight most significant bits of data values of a second input in a second output channel, placing the eight most significant bits of data values of a third input channel in a third output channel, placing the two least significant bits from data values of each of the three input channels in a fourth output channel to form 6-bit data values, and appending 2 bits to the least significant end of the 6-bit data values, thereby forming 8-bit data values; and for each of the output channels: using one of the spatial decorrelation modules to perform a spatial decorrelation process on the 8-bit data values involving using a modulo-256 function; and using one of the entropy encoding modules to perform entropy encoding on the data values subsequent to said spatial decorrelation. using one of the spatial decorrelation modules to perform a spatial decorrelation process on the 8-bit data values involving using a modulo-256 function; and using one of the entropy encoding modules to perform entropy encoding on the data values subsequent to said spatial decorrelation.
An implant comprising: a frame including an end member and an intermediate member pivotally coupled to the end member about a first pivot axis (P1); a first vertebral contact member pivotally coupled to the frame about a second pivot axis (P2) that is substantially perpendicular to the first pivot axis (P1), the first vertebral contact member defining a face configured to engage a first vertebra; and a second vertebral contact member coupled to the frame , the second vertebral contact member defining a face configured to engage a second vertebra, characterized in that the frame is configured such that both: 1) pivoting the intermediate member with respect to the end member about the first pivot axis (P1) changes a width (W2) between the first vertebral contact member and the second vertebral contact member with respect to a direction that is substantially parallel to the second pivot axis (P2), and 2) pivoting the first vertebral contact member with respect to the frame about the second pivot axis (P2) changes a height (H2) between the first vertebral contact member and the second vertebral contact member with respect to a direction that is substantially parallel to the first pivot axis (P1). a frame including an end member and an intermediate member pivotally coupled to the end member about a first pivot axis (P1); a first vertebral contact member pivotally coupled to the frame about a second pivot axis (P2) that is substantially perpendicular to the first pivot axis (P1), the first vertebral contact member defining a face configured to engage a first vertebra; and a second vertebral contact member coupled to the frame , the second vertebral contact member defining a face configured to engage a second vertebra, characterized in that the frame is configured such that both: 1) pivoting the intermediate member with respect to the end member about the first pivot axis (P1) changes a width (W2) between the first vertebral contact member and the second vertebral contact member with respect to a direction that is substantially parallel to the second pivot axis (P2), and 2) pivoting the first vertebral contact member with respect to the frame about the second pivot axis (P2) changes a height (H2) between the first vertebral contact member and the second vertebral contact member with respect to a direction that is substantially parallel to the first pivot axis (P1).