mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving at a user equipment, UE, a radio resource control, RRC, message from a master node, MN, the RRC message comprising a master cell group, MCG, configuration and an encapsulated secondary cell group, SCG, configuration , the RRC message comprising an indication of a packet data convergence protocol, PDCP, configuration ; configuring a layer stack of the UE with the RRC message comprising the MCG configuration , the encapsulated SCG configuration and the PDCP configuration ; and establishing, using the configured layer stack, communication with the MN in aMCG and a secondary node, SN, in a SCG, where data to or from the UE is split and communicated to or from the UE via either the MN or the SN , whereby the MCG configuration and the encapsulated SCG configuration each contain radio resource configuration information for respective MN or SN protocol stacks. receiving at a user equipment, UE, a radio resource control, RRC, message from a master node, MN, the RRC message comprising a master cell group, MCG, configuration and an encapsulated secondary cell group, SCG, configuration , the RRC message comprising an indication of a packet data convergence protocol, PDCP, configuration ; configuring a layer stack of the UE with the RRC message comprising the MCG configuration , the encapsulated SCG configuration and the PDCP configuration ; and establishing, using the configured layer stack, communication with the MN in aMCG and a secondary node, SN, in a SCG, where data to or from the UE is split and communicated to or from the UE via either the MN or the SN , whereby the MCG configuration and the encapsulated SCG configuration each contain radio resource configuration information for respective MN or SN protocol stacks.
A tread for a tire that comprises an undertread, the undertread formed from a rubber composition that is based upon a cross-linkable rubber composition, the cross-linkable composition comprising, per 100 parts by weight of rubber (phr): at least 20 phr of a functionalized polybutadiene rubber having a functional group that is capable of interacting with carbon black; between 0 phr and 80 phr of a second rubber component; a low-surface area, high structure carbon black having a nitrogen surface area of between 15 m 2 /g and 25 m 2 /g and a COAN of between 65 ml/100 g and 85 ml/100 g; and a curing system. at least 20 phr of a functionalized polybutadiene rubber having a functional group that is capable of interacting with carbon black; between 0 phr and 80 phr of a second rubber component; a low-surface area, high structure carbon black having a nitrogen surface area of between 15 m 2 /g and 25 m 2 /g and a COAN of between 65 ml/100 g and 85 ml/100 g; and a curing system.
A workpiece supply device comprising: a workpiece holder that holds a workpiece (W) to be supplied to a machine tool including a supplying area and a machining area of the workpiece, the workpiece holder entering and leaving both of the supplying area and the machining area through an opening part provided in a dividing member between the supplying area and the machining area to transfer the workpiece (W) with the machine tool; a movement mechanism that moves the workpiece holder between the supplying area and the machining area ; a cover member that moves integrally with the workpiece holder and closes the opening part when the workpiece holder moves in the supplying area ; and a biasing member that biases the cover member in a closing direction of the opening part , wherein the biasing member is configured to press the cover member to the dividing member to close the opening part by the cover member such that the workpiece holder holds the workpiece (W) in the supplying area while the workpiece (W) is machined in the machining area , characterized in that the workpiece holder is connected to the cover member to reciprocate relative to the cover member , and is biased by the biasing member in a direction adjacent to the cover member , and the workpiece holder moves in the supplying area against a biasing force of the biasing member, and holds the workpiece (W) disposed in the supplying area with the opening part being closed by the cover member . a workpiece holder that holds a workpiece (W) to be supplied to a machine tool including a supplying area and a machining area of the workpiece, the workpiece holder entering and leaving both of the supplying area and the machining area through an opening part provided in a dividing member between the supplying area and the machining area to transfer the workpiece (W) with the machine tool; a movement mechanism that moves the workpiece holder between the supplying area and the machining area ; a cover member that moves integrally with the workpiece holder and closes the opening part when the workpiece holder moves in the supplying area ; and a biasing member that biases the cover member in a closing direction of the opening part , wherein the biasing member is configured to press the cover member to the dividing member to close the opening part by the cover member such that the workpiece holder holds the workpiece (W) in the supplying area while the workpiece (W) is machined in the machining area , characterized in that the workpiece holder is connected to the cover member to reciprocate relative to the cover member , and is biased by the biasing member in a direction adjacent to the cover member , and the workpiece holder moves in the supplying area against a biasing force of the biasing member, and holds the workpiece (W) disposed in the supplying area with the opening part being closed by the cover member .
A gas turbine engine comprising: a spool ; and a windmill pump driven by said spool , characterised in that the engine further comprises: a first pump driven by said spool ; an air-oil cooler downstream of said first pump ; a second pump driven by said spool ; and an air-air precooler downstream of said second pump . a spool ; and a windmill pump driven by said spool , a first pump driven by said spool ; an air-oil cooler downstream of said first pump ; a second pump driven by said spool ; and an air-air precooler downstream of said second pump .
A nitrogen-containing luminescent particle, characterized in that a structure of the nitrogen-containing luminescent particle is divided into an oxygen poor zone, a transition zone, and an oxygen rich zone from a core to an outer surface of the particle depending on an increasing oxygen content, the oxygen poor zone being a nitride luminescent crystal, the transition zone being a nitroxide material, the oxygen rich zone being an oxide material or oxynitride material; the nitride luminescent crystal is (Sr x Ca 1-x-y1 )AlSiN 3 :y1Eu, the nitroxide material is (Sr x Ca 1-x-y1 )AlSiN 3-z1 O 1.5z1 :y1Eu, and the oxide material or oxynitride material is (Sr x Ca 1-x-y1 )AlSiO 4.5-z2 N z2 :y1Eu, wherein 0≤x≤0.99, 0.001≤y1≤0.2, 0<z1<3, 0≤z2<0.5.
An actuator drive unit housing comprising: an integrally formed ring gear , wherein teeth of the integrally formed ring gear are formed in an interior surface of the actuator drive unit housing , wherein at least a portion of the actuator drive unit housing exterior surface comprises a thrust bearing race ; and characterised by an integrally formed load cell , wherein the integrally formed load cell is defined by a portion of the actuator drive unit housing and the integrally formed load cell comprises a plurality of columns defined by openings between adjacent columns . an integrally formed ring gear , wherein teeth of the integrally formed ring gear are formed in an interior surface of the actuator drive unit housing , wherein at least a portion of the actuator drive unit housing exterior surface comprises a thrust bearing race ; and characterised by an integrally formed load cell , wherein the integrally formed load cell is defined by a portion of the actuator drive unit housing and the integrally formed load cell comprises a plurality of columns defined by openings between adjacent columns .
A computer-implemented method of subsurface exploration, the method comprising generating a geophysical representation of a portion of the volume of the Earth from a seismic measurement of at least one physical parameter, and comprising the steps of: a) providing (100; 200; 300) an observed seismic data set comprising at least three distinct non-zero data values derived from at least three distinct non-zero seismic measured values of said portion of the volume of the Earth; b) generating (104; 204; 304), using a subsurface model of a portion of the Earth comprising a plurality of model coefficients, a predicted seismic data set comprising at least three distinct non-zero data values; c) utilising (106; 208; 308) one or more non-trivial convolutional filters, the or each convolutional filter comprising three or more non-zero filter coefficients and being operable, when convolved with the observed seismic data set, to maximise the similarity or minimise the mismatch between the convolved observed data set and the predicted data set; d) maximising and/or minimising (112; 214; 316) one or more objective functions operable to measure the similarity and/or mismatch between the filter coefficients for the or each non-trivial convolutional filter and at least three reference coefficients of one or more reference filters by modifying at least one model coefficient of said subsurface model of a portion of the Earth to produce an updated subsurface model of a portion of the Earth; and e) providing (114; 216; 318) an updated subsurface model of a portion of the Earth for subsurface exploration. a) providing (100; 200; 300) an observed seismic data set comprising at least three distinct non-zero data values derived from at least three distinct non-zero seismic measured values of said portion of the volume of the Earth; b) generating (104; 204; 304), using a subsurface model of a portion of the Earth comprising a plurality of model coefficients, a predicted seismic data set comprising at least three distinct non-zero data values; c) utilising (106; 208; 308) one or more non-trivial convolutional filters, the or each convolutional filter comprising three or more non-zero filter coefficients and being operable, when convolved with the observed seismic data set, to maximise the similarity or minimise the mismatch between the convolved observed data set and the predicted data set; d) maximising and/or minimising (112; 214; 316) one or more objective functions operable to measure the similarity and/or mismatch between the filter coefficients for the or each non-trivial convolutional filter and at least three reference coefficients of one or more reference filters by modifying at least one model coefficient of said subsurface model of a portion of the Earth to produce an updated subsurface model of a portion of the Earth; and e) providing (114; 216; 318) an updated subsurface model of a portion of the Earth for subsurface exploration.
A process for removing divalent metals from a rich mono-ethylene glycol ("MEG") stream, the process comprising the steps of: increasing a divalent metal salts concentration of a rich MEG stream flowing into a precipitator so that the divalent metal salts concentration of the resulting MEG stream is above 2,000 ppm; treating the resulting MEG feed stream with a precipitating agent so that insoluble salts are formed at precipitator operating conditions; removing an insoluble salts stream and a divalent metal salts-saturated MEG stream from the precipitator ;, routing the removed divalent metal salts-saturated MEG stream into a flash separator , wherein the precipitating agent is prevented from entering the flash separator by using it as a limiting reactant; wherein the increasing step includes the sub-steps of: removing a slipstream from a liquid inventory of the flash separator ; and routing the removed slipstream to the precipitator . increasing a divalent metal salts concentration of a rich MEG stream flowing into a precipitator so that the divalent metal salts concentration of the resulting MEG stream is above 2,000 ppm; treating the resulting MEG feed stream with a precipitating agent so that insoluble salts are formed at precipitator operating conditions; removing an insoluble salts stream and a divalent metal salts-saturated MEG stream from the precipitator ;, routing the removed divalent metal salts-saturated MEG stream into a flash separator , wherein the precipitating agent is prevented from entering the flash separator by using it as a limiting reactant; removing a slipstream from a liquid inventory of the flash separator ; and routing the removed slipstream to the precipitator .
A power conversion equipment for converting a DC voltage of a DC power supply , the power conversion equipment comprising: a DC-DC converter circuit comprising a semiconductor device; and a first LC filter composed of a first reactor and a first capacitor connected to an input side of the DC-DC converter circuit ; wherein the power conversion equipment is configured to generate an electrical vibration suppression command for suppressing an electrical vibration caused by the first LC filter based on a first voltage detection value (Ecf) detected from the first capacitor ; and the power conversion equipment is configured to add the electrical vibration suppression command to a switching command (Sp) applied to the DC-DC converter circuit ; characterized in that the electrical vibration suppression command is also based on a second voltage detection value (Es) detected from the DC power supply , wherein the electrical vibration suppression command is generated by using a calculation result having subtracted the second voltage detection value (ES) from the first voltage detection value (Ecf) and by passing the calculation result obtained by the subtraction through a high-pass filter . a DC-DC converter circuit comprising a semiconductor device; and a first LC filter composed of a first reactor and a first capacitor connected to an input side of the DC-DC converter circuit ; wherein the power conversion equipment is configured to generate an electrical vibration suppression command for suppressing an electrical vibration caused by the first LC filter based on a first voltage detection value (Ecf) detected from the first capacitor ; and the power conversion equipment is configured to add the electrical vibration suppression command to a switching command (Sp) applied to the DC-DC converter circuit ; characterized in that the electrical vibration suppression command is also based on a second voltage detection value (Es) detected from the DC power supply , wherein the electrical vibration suppression command is generated by using a calculation result having subtracted the second voltage detection value (ES) from the first voltage detection value (Ecf) and by passing the calculation result obtained by the subtraction through a high-pass filter .
A device for controlling an electric vehicle that is configured to set a motor torque instruction value based on vehicle information and control a torque of a motor connected to a drive wheel, the device comprises: a feedforward computation unit that is configured to input the motor torque instruction value set on the basis of an accelerator opening and vehicle speed, and compute a first torque target value by feedforward computation; and a motor torque control unit that is configured to control the motor torque on the basis of the first torque target value, wherein the feedforward computation unit is characterised by : a vehicle model which is configured to input the motor torque instruction value without inputting a detection value of a sensor provided in the electric vehicle independently from the motor torque instruction value to model a characteristic from the motor torque to a drive shaft torsional angular velocity; and a drive shaft torsional angular velocity feedback model which is configured to feed back the drive shaft torsional angular velocity output from the vehicle model to the motor torque instruction value to compute the first torque target value. a feedforward computation unit that is configured to input the motor torque instruction value set on the basis of an accelerator opening and vehicle speed, and compute a first torque target value by feedforward computation; and a motor torque control unit that is configured to control the motor torque on the basis of the first torque target value, wherein the feedforward computation unit is characterised by : a vehicle model which is configured to input the motor torque instruction value without inputting a detection value of a sensor provided in the electric vehicle independently from the motor torque instruction value to model a characteristic from the motor torque to a drive shaft torsional angular velocity; and a drive shaft torsional angular velocity feedback model which is configured to feed back the drive shaft torsional angular velocity output from the vehicle model to the motor torque instruction value to compute the first torque target value.
Method of clock synchronization in a computer network , the method comprising a first grandmaster sending a first synchronization information for a first network segment of the computer network , a second grandmaster sending a second synchronization information for a second network segment of the computer network , wherein the first grandmaster and the second grandmaster exchange third synchronization information, wherein the first grandmaster and the second grandmaster transmit the third synchronization information on the physical layer and/or data link layer according to a first protocol, and wherein the first synchronization information and/or the second synchronization information is sent on the physical layer and/or data link layer according to a second protocol, different from the first protocol.
A drug-eluting stent having a net-like main body which is made of a metal or a polymeric material, the surface of which is coated with a mixture comprising cilostazol and a bioabsorbable polymer, wherein the bioabsorbable polymer comprises a polymer comprising L lactide and DL lactide in a weight ratio of 6 : 4 - 8 : 2, whose molecular weight is 300,000 - 600,000.
A method for managing a queue by a router in a broadcasting system, the method comprising: receiving a moving picture experts group, MPEG, media transport, MMT, packet; obtaining a header of the MMT packet; identifying whether a type value of a bit rate included in the header corresponds to a constant bit rate ,CBR, or a non-constant bit rate, nCBR; and queuing the MMT packet according to the type value of the bit rate, wherein the queuing the MMT packet comprises: if the type value of the bit rate is a value indicating that the bit rate corresponds to the CBR, assigning a first queue according to a priority of the MMT packet, recording the MMT packet in the first queue, and outputting the MMT packet recorded in the first queue to a port corresponding to the first queue, wherein the first queue records one or more MMT packets having a same priority, and if the type value of the bit rate is a value indicating that the bit rate corresponds to the nCBR, assigning a second queue according to a reception order of the MMT packet, recording the MMT packet in the second queue, and outputting the MMT packet recorded in the second queue to a port corresponding to the second queue. receiving a moving picture experts group, MPEG, media transport, MMT, packet; obtaining a header of the MMT packet; identifying whether a type value of a bit rate included in the header corresponds to a constant bit rate ,CBR, or a non-constant bit rate, nCBR; and queuing the MMT packet according to the type value of the bit rate, wherein the queuing the MMT packet comprises: if the type value of the bit rate is a value indicating that the bit rate corresponds to the CBR, assigning a first queue according to a priority of the MMT packet, recording the MMT packet in the first queue, and outputting the MMT packet recorded in the first queue to a port corresponding to the first queue, wherein the first queue records one or more MMT packets having a same priority, and if the type value of the bit rate is a value indicating that the bit rate corresponds to the nCBR, assigning a second queue according to a reception order of the MMT packet, recording the MMT packet in the second queue, and outputting the MMT packet recorded in the second queue to a port corresponding to the second queue. if the type value of the bit rate is a value indicating that the bit rate corresponds to the CBR, assigning a first queue according to a priority of the MMT packet, recording the MMT packet in the first queue, and outputting the MMT packet recorded in the first queue to a port corresponding to the first queue, wherein the first queue records one or more MMT packets having a same priority, and if the type value of the bit rate is a value indicating that the bit rate corresponds to the nCBR, assigning a second queue according to a reception order of the MMT packet, recording the MMT packet in the second queue, and outputting the MMT packet recorded in the second queue to a port corresponding to the second queue.
Cryptoprocessor, comprising - a processor core for receiving and executing instructions of a program code which is based on a program flow chart; - a program storage unit, which stores the program code with instructions in individually encrypted form, wherein - the instructions contain in each case at least one instruction data word and one instruction data key assigned to the respective instruction, - a respective instruction is encrypted using a program data key which is identical for all instructions and the instruction data key of the respective preceding instruction, which is to be executed immediately beforehand according to the program flow chart, and wherein - only in the case that a relevant instruction in the program flow chart has a plurality of possible preceding instructions, the same instruction data key is assigned to the relevant possible preceding instructions, the respective instruction data keys being otherwise unique to the instruction, however; and - a decrypting unit which is configured to receive from the program storage unit the encrypted instructions and to decrypt a respective received encrypted instruction by using the program data key and the instruction data key of the relevant preceding instruction, to supply the at least one currently thus decrypted instruction data word to the processor core for executing the instruction, as well as to retain the currently thus decrypted instruction data key for use in the decryption of the immediately next received encrypted instruction. - a processor core for receiving and executing instructions of a program code which is based on a program flow chart; - a program storage unit, which stores the program code with instructions in individually encrypted form, wherein - the instructions contain in each case at least one instruction data word and one instruction data key assigned to the respective instruction, - a respective instruction is encrypted using a program data key which is identical for all instructions and the instruction data key of the respective preceding instruction, which is to be executed immediately beforehand according to the program flow chart, and wherein - only in the case that a relevant instruction in the program flow chart has a plurality of possible preceding instructions, the same instruction data key is assigned to the relevant possible preceding instructions, the respective instruction data keys being otherwise unique to the instruction, however; and - a decrypting unit which is configured to receive from the program storage unit the encrypted instructions and to decrypt a respective received encrypted instruction by using the program data key and the instruction data key of the relevant preceding instruction, to supply the at least one currently thus decrypted instruction data word to the processor core for executing the instruction, as well as to retain the currently thus decrypted instruction data key for use in the decryption of the immediately next received encrypted instruction.