mhurhangee/patent-ind-claim-en huggingface dataset:
A battery lock-up device for new energy vehicle, the battery lock-up device comprises: a connection bracket adapted to be connected to the new energy vehicle, the connection bracket having a first connection hole and a dual limited position structure located at the first connection hole , the dual-stop structure comprising a first limited position and a second limited position ; a housing structure adapted to be fixed to a power battery of the new energy vehicle, the housing structure having a second connection hole thereon; a press plate and a nut , the press plate comprising a head portion and a pillar portion extending from the head portion and adapted to pass through the first connection hole and the second connection hole , the pillar portion being formed with a threaded portion for engaging with the nut , and the pillar portion having a distal end adapted to mate with a rotational operation tool; and a detachable anti-rotation locking member , which locks the nut against the housing structure ; wherein when the press plate is at the first limited position , the press plate and the nut which is engaged on the threaded portion lock-up the connection bracket and the housing structure ; and when the press plate reaches the second limited position , the head portion of the press plate can exit from the connection bracket via the first connection hole so that the connection bracket and the housing structure are unlocked. a connection bracket adapted to be connected to the new energy vehicle, the connection bracket having a first connection hole and a dual limited position structure located at the first connection hole , the dual-stop structure comprising a first limited position and a second limited position ; a housing structure adapted to be fixed to a power battery of the new energy vehicle, the housing structure having a second connection hole thereon; a press plate and a nut , the press plate comprising a head portion and a pillar portion extending from the head portion and adapted to pass through the first connection hole and the second connection hole , the pillar portion being formed with a threaded portion for engaging with the nut , and the pillar portion having a distal end adapted to mate with a rotational operation tool; and a detachable anti-rotation locking member , which locks the nut against the housing structure ; wherein when the press plate is at the first limited position , the press plate and the nut which is engaged on the threaded portion lock-up the connection bracket and the housing structure ; and when the press plate reaches the second limited position , the head portion of the press plate can exit from the connection bracket via the first connection hole so that the connection bracket and the housing structure are unlocked.
A visible light signal transmitting processing method, comprising: performing, by a transmitting terminal, an operation between a data to be sent and a pseudocode signal of the transmitting terminal to output a scrambled code signal (S102); combining, by the transmitting terminal, the scrambled code signal with a signal of guiding light to obtain a signal to be sent, wherein the signal of guiding light comprises identity information of the transmitting terminal (S104); and transmitting, by the transmitting terminal, the signal to be sent in light form (S106); wherein signals of guiding light of different transmitting terminals are different from each other, and a receiving terminal is capable to determine different transmitting terminals according to identity information of the transmitting terminals in the signals of guiding light; wherein the performing, by a transmitting terminal, an operation between a data to be sent and a pseudocode signal of the transmitting terminal to output a scrambled code signal comprises: outputting, by the transmitting terminal, a time-varying pseudocode signal according to a status of a state machine; and performing, by the transmitting terminal, an operation between the time-varying pseudocode signal and the data to be sent to output the scrambled code signal. performing, by a transmitting terminal, an operation between a data to be sent and a pseudocode signal of the transmitting terminal to output a scrambled code signal (S102); combining, by the transmitting terminal, the scrambled code signal with a signal of guiding light to obtain a signal to be sent, wherein the signal of guiding light comprises identity information of the transmitting terminal (S104); and transmitting, by the transmitting terminal, the signal to be sent in light form (S106); wherein signals of guiding light of different transmitting terminals are different from each other, and a receiving terminal is capable to determine different transmitting terminals according to identity information of the transmitting terminals in the signals of guiding light; wherein the performing, by a transmitting terminal, an operation between a data to be sent and a pseudocode signal of the transmitting terminal to output a scrambled code signal comprises: outputting, by the transmitting terminal, a time-varying pseudocode signal according to a status of a state machine; and performing, by the transmitting terminal, an operation between the time-varying pseudocode signal and the data to be sent to output the scrambled code signal. outputting, by the transmitting terminal, a time-varying pseudocode signal according to a status of a state machine; and performing, by the transmitting terminal, an operation between the time-varying pseudocode signal and the data to be sent to output the scrambled code signal.
A transition duct for communicating gas between low and high pressure compressors in a multi-stage compressor of a gas turbine engine , said duct arranged in use to communicate gas between a first and second compressor coaxially located with respect to a central axis of the gas turbine engine, wherein the duct is in the form of a ring or annulus configured to be coaxially located with respect to a central axis of the compressor and the duct tapers from a first maximum radius measured from the central axis of the compressor to a second smaller radius measured from the central axis of the compressor and the duct defines a channel for a gas flow , wherein in use, the gas flow (A, B) enters and leaves the transition duct having a flow direction parallel with the central axis of the gas turbine engine, wherein the duct comprises an inner gas facing wall and an opposing outer gas facing wall defining inner surfaces of the channel, and wherein regions (C, D, E, F) of the inner surfaces of the channel have a predetermined and dissimilar surface roughness, characterized in that at least one region (C, D) of the inner surface of the channel against which flowing gas impinges is provided with a surface roughness which is lower than that of regions (E, F) of the inner surfaces against which flowing gas does not impinge.
A tape measure for determining the position of an elevator car in an elevator shaft , the tape measure being disposable vertically in the elevator shaft and preferably so as to extend across at least two floors , the tape measure having a tape-shaped base body and optical coding , characterized in that the tape-shaped base body is made of a textile material and in that the optical coding is inserted in the base body or is applied on a surface of the base body.
Pneumatic vehicle tire, in particular utility vehicle tire, having a tread with profile positives which are separated from one another in a circumferential direction by transverse channels which extend continuously from the central region (Z) of the tread in each case as far as the lateral tread edges and which are main channels of the tread and which, at least over the major part of the course thereof, have the maximum provided profile depth, wherein transverse channels are provided, on the channel base of which a row of base elevations is formed so as to extend over the entire course of the transverse channels , which base elevations are attached to the channel flanks of the transverse channels , characterized in that the base elevations are designed such that their rubber volume becomes smaller the closer to the tread edge they are positioned.
A stacker crane , comprising: a mast including an elevation surface forming portion having an elevation surface extending in a first direction in which an elevation portion moves up and down and in a second direction orthogonal to the first direction and a pair of side surface portions extending in a third direction orthogonal to the first direction and the second direction from both edges of the elevation surface forming portion in the second direction toward an opposite side to a side at which the elevation portion is arranged, the pair of side surface portions is arranged such that a covering member covering an elevation area of the elevation portion can be attached integrally to said pair of side surface portions, and wherein the stacker crane is characterized in that the mast includes: a reinforcement portion arranged between the pair of side surface portions in the second direction, extending in the third direction from the elevation surface forming portion toward the opposite side to the side at which the elevation portion is arranged, and having a higher stiffness than that of the pair of side surface portions; and an adjusting member arranged so as to leave clearance with the elevation surface forming portion in the third direction, the adjusting member being capable of extending in the second direction, and provided so that both edges thereof contact with the reinforcement portion and the pair of side surface portions. the pair of side surface portions is arranged such that a covering member covering an elevation area of the elevation portion can be attached integrally to said pair of side surface portions, and wherein the stacker crane is characterized in that the mast includes: a reinforcement portion arranged between the pair of side surface portions in the second direction, extending in the third direction from the elevation surface forming portion toward the opposite side to the side at which the elevation portion is arranged, and having a higher stiffness than that of the pair of side surface portions; and an adjusting member arranged so as to leave clearance with the elevation surface forming portion in the third direction, the adjusting member being capable of extending in the second direction, and provided so that both edges thereof contact with the reinforcement portion and the pair of side surface portions. a reinforcement portion arranged between the pair of side surface portions in the second direction, extending in the third direction from the elevation surface forming portion toward the opposite side to the side at which the elevation portion is arranged, and having a higher stiffness than that of the pair of side surface portions; and an adjusting member arranged so as to leave clearance with the elevation surface forming portion in the third direction, the adjusting member being capable of extending in the second direction, and provided so that both edges thereof contact with the reinforcement portion and the pair of side surface portions.
A combination of an effective amount of mature allogenic double negative (DN) T cells (DNTs) and a chemotherapeutic agent for use in treating leukemia or lymphoma in a subject in need thereof, wherein the DNTs have been expanded in vitro or ex vivo and the chemotherapeutic agent is a cell cycle inhibitor.
Working machine for carrying out drilling operations with at least one drilling device including at least one drill table adjustable by means of a cabling , at least one telescopable Kelly bar adjustable by means of a Kelly rope , which bar includes at least two Kelly bar elements , at least one Kelly shock absorber , via which the Kelly bar can be coupled with the drill table , characterized in that the working machine includes at least one vibration sensor , which is configured to detect vibration signals of a vibration of the drilling device, and in that a regulator/controller is provided, which is configured to generate an output signal depending upon the detected vibration signals.
A microcapsule comprising an oil soluble or dispersible benefit agent core material and a shell surrounding the benefit agent core material, the shell comprising a polyurea formed from a first component of an isocyanate and a second component of an amine, the amine comprising the reaction product of an alkylaminoalkyl(meth)acrylate and a multifunctional (meth)acrylate, together with a carboxyalkyl(meth)acrylate or quarternary ammonium acrylate.
A modified release pharmaceutical formulation, comprising one or more sustained release granules, each sustained release granule comprising: an agglomerated drug particle comprising: a plurality of overlubricated drug particles each comprising: a core particle comprising a drug; and a hydrophobic adherent layer comprising a hydrophobic adherent material posited over at least a portion of the core particle, wherein the hydrophobic adherent material is a compound of formula (III) or (IV): M + (OC(O)R) (III) D 2+ ( - OC(O)R) 2 (IV) ; wherein: M + is Li + , Na + , or K + ; D 2+ is Mg 2+ or Ca 2+ ; and R is C 11 -C 19 alkyl, C 11 -C 19 alkenyl, or C 11 -C 19 alkynyl; and a hydrophobic binding layer comprising a hydrophobic binding material that has been applied to the plurality of overlubricated drug particles in a molten state, wherein the plurality of overlubricated drug particles are suspended in the hydrophobic binding material, wherein the hydrophobic binding material is a compound of formula (I): wherein: R is C 11 -C 19 alkyl, C 11 -C 19 alkenyl, or C 11 -C 19 alkynyl; X is CH 2 or C(O); Z is H, or C 1 -C 3 alkyl; and a disintegrant layer comprising a disintegrant material posited over at least a portion of the hydrophobic binding layer of the agglomerated drug particle. a plurality of overlubricated drug particles each comprising: a core particle comprising a drug; and a hydrophobic adherent layer comprising a hydrophobic adherent material posited over at least a portion of the core particle, wherein the hydrophobic adherent material is a compound of formula (III) or (IV): M + (OC(O)R) (III) D 2+ ( - OC(O)R) 2 (IV) ; wherein: M + is Li + , Na + , or K + ; D 2+ is Mg 2+ or Ca 2+ ; and R is C 11 -C 19 alkyl, C 11 -C 19 alkenyl, or C 11 -C 19 alkynyl; and a core particle comprising a drug; and a hydrophobic adherent layer comprising a hydrophobic adherent material posited over at least a portion of the core particle, wherein the hydrophobic adherent material is a compound of formula (III) or (IV): M + (OC(O)R) (III) D 2+ ( - OC(O)R) 2 (IV) ; wherein: M + is Li + , Na + , or K + ; D 2+ is Mg 2+ or Ca 2+ ; and R is C 11 -C 19 alkyl, C 11 -C 19 alkenyl, or C 11 -C 19 alkynyl; and M + is Li + , Na + , or K + ; D 2+ is Mg 2+ or Ca 2+ ; and R is C 11 -C 19 alkyl, C 11 -C 19 alkenyl, or C 11 -C 19 alkynyl; and a hydrophobic binding layer comprising a hydrophobic binding material that has been applied to the plurality of overlubricated drug particles in a molten state, wherein the plurality of overlubricated drug particles are suspended in the hydrophobic binding material, wherein the hydrophobic binding material is a compound of formula (I): wherein: R is C 11 -C 19 alkyl, C 11 -C 19 alkenyl, or C 11 -C 19 alkynyl; X is CH 2 or C(O); Z is H, or C 1 -C 3 alkyl; and R is C 11 -C 19 alkyl, C 11 -C 19 alkenyl, or C 11 -C 19 alkynyl; X is CH 2 or C(O); Z is H, or C 1 -C 3 alkyl; and a disintegrant layer comprising a disintegrant material posited over at least a portion of the hydrophobic binding layer of the agglomerated drug particle.
Telescopic vehicle surface cleaning device comprising a washing unit , the washing unit comprising a nozzle carrier housing , a nozzle carrier and at least one fluid nozzle with at least one nozzle aperture , the nozzle carrier being movable relative to the nozzle carrier housing between first and second positions, the first position being a rest position and the second position being an extended position, the device further comprising a heating unit , the heating unit being configured as a heating sub assembly of the device and the heating unit comprising a heating element carrier with an electrically resistive heating element , and comprising a heat radiation body providing a heating surface, the heating element carrier being fixed relative to the nozzle carrier housing and being configured such that the heating element and the heat radiation body are arranged in front of and adjacent to the nozzle aperture in the rest position of the nozzle carrier such that an air gap remains between the heating surface and the nozzle aperture .
A communication device (104, 106, 110, 112; 204) in a wireless local area network, the communication device comprising: a plurality of receiving antennas (206.1, 206.a, ..., 206.n) configured to receive a communication signal provided by a second communication device over a plurality of signal pathways; and a processing module configured to estimate the location of the second communication device, wherein the processing module is configured to: select a first group of antennas from among the plurality of receiving antennas; estimate a coarse location of the second communication device based upon a first plurality of communication signals as observed by the first group of antennas; select a second group of antennas from among the plurality of receiving antennas; estimate a plurality of fine locations of the second communication device based upon a second plurality of communication signals as observed by the second group of antennas; and select a fine location for the second communication device from among the plurality of fine locations based upon the coarse location such that the selected fine location corresponds to the estimated coarse location. a plurality of receiving antennas (206.1, 206.a, ..., 206.n) configured to receive a communication signal provided by a second communication device over a plurality of signal pathways; and a processing module configured to estimate the location of the second communication device, wherein the processing module is configured to: select a first group of antennas from among the plurality of receiving antennas; estimate a coarse location of the second communication device based upon a first plurality of communication signals as observed by the first group of antennas; select a second group of antennas from among the plurality of receiving antennas; estimate a plurality of fine locations of the second communication device based upon a second plurality of communication signals as observed by the second group of antennas; and select a fine location for the second communication device from among the plurality of fine locations based upon the coarse location such that the selected fine location corresponds to the estimated coarse location. select a first group of antennas from among the plurality of receiving antennas; estimate a coarse location of the second communication device based upon a first plurality of communication signals as observed by the first group of antennas; select a second group of antennas from among the plurality of receiving antennas; estimate a plurality of fine locations of the second communication device based upon a second plurality of communication signals as observed by the second group of antennas; and select a fine location for the second communication device from among the plurality of fine locations based upon the coarse location such that the selected fine location corresponds to the estimated coarse location.
A high flow nasal therapy system comprising: a gas supply , a humidifier , a nebulizer , a flow line comprising at least two branches , a nasal interface or a coupler for connection to an external interface, and a controller configured to control the system in real time to vary aerosol delivery to the nasal interface or the coupler on a temporal basis, characterized in that , the system comprises a sensor to detect patient inhalation and exhalation, the branches include: a first branch including the nebulizer , and a line configured for delivery of aerosol carried in the humidified gas, a second branch configured for delivery of non-aerosolized gas, wherein the flow in said branches is unidirectional, the system comprises a valve configured to perform splitting of inlet gas flow between the branches, said valve being linked with the controller, the controller is configured to control delivery of inlet gas into said first and second branches, from the gas supply towards the nasal interface or the coupler with a desired proportional split between the branches to provide increased aerosol delivery during patient inhalation and reduced aerosol delivery during patient exhalation, and the line is configured to store a bolus of aerosol during flow through the second branch whilst the patient is exhaling. a gas supply , a humidifier , a nebulizer , a flow line comprising at least two branches , a nasal interface or a coupler for connection to an external interface, and a controller configured to control the system in real time to vary aerosol delivery to the nasal interface or the coupler on a temporal basis, characterized in that , the system comprises a sensor to detect patient inhalation and exhalation, the branches include: a first branch including the nebulizer , and a line configured for delivery of aerosol carried in the humidified gas, a second branch configured for delivery of non-aerosolized gas, wherein the flow in said branches is unidirectional, a first branch including the nebulizer , and a line configured for delivery of aerosol carried in the humidified gas, a second branch configured for delivery of non-aerosolized gas, wherein the flow in said branches is unidirectional, the system comprises a valve configured to perform splitting of inlet gas flow between the branches, said valve being linked with the controller, the controller is configured to control delivery of inlet gas into said first and second branches, from the gas supply towards the nasal interface or the coupler with a desired proportional split between the branches to provide increased aerosol delivery during patient inhalation and reduced aerosol delivery during patient exhalation, and the line is configured to store a bolus of aerosol during flow through the second branch whilst the patient is exhaling.