mhurhangee/ep-ind-claims huggingface dataset:
A dispensing device for pressing out a content of a container by applying a compressed gas, said device comprising a housing (2, 32, 62), at least one compressed gas container (16, 46, 76), an operating facility (10, 11) for adjusting a gas flow from the compressed gas container (16, 46, 76), and an opening means (12, 42, 72) for opening the compressed gas container (16, 46, 76), wherein the opening means (12, 42, 72) is movable relative to the compressed gas container (16, 46, 76) and the dispensing device comprises a holder (3, 33, 63) for attaching a container to the dispensing device, characterised in that the holder (3, 33, 63) and the opening means (12, 42, 72) are in operative connection such that attaching a container to the holder (3, 33, 63) moves the opening means (12, 42, 72) relative to the compressed gas container (16, 46, 76), thus opening the compressed gas container (16, 46, 76).
A system (100, 200) for decoding data stored on an identification card comprising: an image capture device configured to capture an image of a passive data source on the identification card and transmit an image signal associated with the passive data source; a processor coupled to the image capture device, the processor configured to: receive the image signal; and, process the image signal; a server having a server processor; wherein the processor is configured to transmit the processed image signal to the server using a network interface; the system (100, 200) being characterised in that processing the image signal comprises cropping the the image comprising the passive data source; the server processor is configured to: determine information, from the received processed image signal, about the passive data source, the determined information associated with a jurisdiction that issued the identification card; and, access an algorithm, based on the determined information to determine further data associated with the passive data source. an image capture device configured to capture an image of a passive data source on the identification card and transmit an image signal associated with the passive data source; a processor coupled to the image capture device, the processor configured to: receive the image signal; and, process the image signal; a server having a server processor; wherein the processor is configured to transmit the processed image signal to the server using a network interface; the system (100, 200) being characterised in that processing the image signal comprises cropping the the image comprising the passive data source; the server processor is configured to: determine information, from the received processed image signal, about the passive data source, the determined information associated with a jurisdiction that issued the identification card; and, access an algorithm, based on the determined information to determine further data associated with the passive data source. receive the image signal; and, process the image signal; determine information, from the received processed image signal, about the passive data source, the determined information associated with a jurisdiction that issued the identification card; and, access an algorithm, based on the determined information to determine further data associated with the passive data source.
A method for enhancing at least one of fidelity and yield of a copied or amplified product by repairing a damaged polynucleotide, characterized in that it comprises: incubating the polynucleotide in the absence of endonuclease (Endo) VI in a reaction mixture comprising an NAD-dependent ligase, an NAD + cofactor, a polymerase and at least one AP endonuclease; so as to enhance at least one of fidelity and yield of the copied or amplified product. incubating the polynucleotide in the absence of endonuclease (Endo) VI in a reaction mixture comprising an NAD-dependent ligase, an NAD + cofactor, a polymerase and at least one AP endonuclease;
Overload protection device to protect an electric load, especially an induction motor, in a load circuit made up by an electric supply line providing a load current and the electric load, the device comprising - first means configured to derive a measurement signal corresponding to the load current, - an overload control circuit configured to determine an overload situation, the overload control circuit comprising - second means configured to derive an indicator signal for an overload situation based on the measurement signal, wherein said overload protection device further comprises - a load diagnostic circuit, the load diagnostic circuit comprising - fifth means configured to derive an analysis signal from the measurement signal, - third means configured to generate a frequency spectrum of the analysis signal derived from the measurement signal, - fourth means configured to analyse said frequency spectrum and configured to derive diagnostic information concerning the condition of the load from the frequency spectrum, wherein the third means is configured to perform a Discrete Fourier Transformation, DFT, or a Fast Fourier Transformation, FFT, of the measurement signal or of an analysis signal derived from the measurement signal, wherein the fourth means is configured to determine the appearance of a frequency peak of increased magnitude in a predetermined frequency region of the frequency spectrum of the analysis signal derived from the measurement signal, which depends on the type of feature to be detected. - first means configured to derive a measurement signal corresponding to the load current, - an overload control circuit configured to determine an overload situation, the overload control circuit comprising - second means configured to derive an indicator signal for an overload situation based on the measurement signal, - a load diagnostic circuit, the load diagnostic circuit comprising - fifth means configured to derive an analysis signal from the measurement signal, - third means configured to generate a frequency spectrum of the analysis signal derived from the measurement signal, - fourth means configured to analyse said frequency spectrum and configured to derive diagnostic information concerning the condition of the load from the frequency spectrum,
A feces sampling and detecting device, comprising: a detector, detecting strips provided in the detector, a collector accommodated in the detector detachably, a feces sampler for sealing the collector detachably; and at least one puncturing part arranged at a bottom of the detector facing the collector, characterized in that, the feces sampling and detecting device further comprises a notch provided at a top of a sidewall of the detector, the notch extending downwardly from the top of the sidewall; wherein the notch has a length extending downwardly from the top of the sidewall and the puncturing part has a height extending upwardly from the bottom of the detector, the length being substantially equal to the height; and wherein the notch has a width substantially perpendicular to the length, the width allowing a user to place a finger for pressing the collector or allowing an automatic machine to press the collector to puncture the collector by the puncturing part.
An oxide particle dispersion-strengthened Ni-base superalloy consisting of 0.1%by weight to 14.0% by weight of Ru, 0.1%by weight to 14.0% by weight of Al, and optionally at least one of 0.1% by weight to 14.0% by weight of Re, 0.1% by weight to 20.0% by weight of Co, 0.1% by weight to 20.0% by weight of Cr, 0.1% by weight to 15.0% by weight of Mo, 0.1% by weight to 20.0% by weight of W, 0.1% by weight to 10.0% by weight of Ti, 0.1% by weight to 10.0% by weight of Nb, 0.1% by weight to 15.0% by weight of Ta, 0.01% by weight to 10.0% by weight of Hf, 0.01% by weight to 10.0% by weight of Zr, 0.1% by weight to 5.0% by weight of V, 0.1% by weight to 10.0% by weight of Pt, 0.1% by weight to 10.0% by weight of Pd, 0.1% by weight to 10.0% by weight of Ir, 0.001% by weight to 1.0% by weight of B, or 0.001% by weight to 1.0% by weight of C, with the balance being Ni and inevitable impurities, wherein the superalloy has a crystal structure containing 0.01% by weight to 3.0% by weight of dispersed oxide particles based on the total amount of the superalloy.
A method for producing 5-bromomethyl-1-benzothiophene, comprising the steps of: introducing 5-methyl-1-benzothiophene, a brominating agent and a solvent into a reactor; irradiating the interior of the reactor with light having a wavelength range of 200 to 780 nm; and recovering 5-bromomethyl-1-benzothiophene from the reactor, wherein the reactor is a flow-type photochemical reactor, and the solvent is one or two or more selected from esters and halogenated hydrocarbons. introducing 5-methyl-1-benzothiophene, a brominating agent and a solvent into a reactor; irradiating the interior of the reactor with light having a wavelength range of 200 to 780 nm; and recovering 5-bromomethyl-1-benzothiophene from the reactor,
A pharmaceutical composition comprising: a calcineurin inhibitor or an mTOR inhibitor; vitamin E TPGS; and octoxynol-40, wherein the calcineurin inhibitor includes one of voclosporin, cyclosporine A, pimecrolimus, tacrolimus, pharmaceutically acceptable salts thereof, or combinations thereof; wherein the mTOR inhibitor includes one of sirolimus, temsirolimus, everolimus, pharmaceutically acceptable salts thereof, or combinations thereof; wherein the composition forms mixed micelles and is suitable for topical application to ocular tissue. a calcineurin inhibitor or an mTOR inhibitor; vitamin E TPGS; and octoxynol-40,
System for managing reference signal interference in a wireless communication system allowing device-to-device, D2D, communication, the system comprising a base station, BS, (600, 700) and one or more wireless devices (800, 900); wherein the BS comprises processing means configured to: - determine, for a cell associated with the BS, downlink transmission resources that are to be associated with D2D communication during at least a time period T; and to - indicate the determined downlink transmission resources to the one or more wireless devices, thus informing the wireless devices of which downlink reference signals that may be subjected to interference caused by D2D communication and should be excluded from any wireless device measurements; and wherein the one or more wireless devices comprise processing means configured to: - receive an indication from the BS, of downlink transmission resources that are to be associated with D2D communication in a cell associated with the BS during at least a time period T; and further to - determine, based on the received indication, downlink reference signals that may be subjected to interference from D2D communication when performing reference signal measurements during at least the time period T - excluding or reducing the influence of said downlink reference signals when performing reference signal measurements during at least the time period T. - determine, for a cell associated with the BS, downlink transmission resources that are to be associated with D2D communication during at least a time period T; and to - indicate the determined downlink transmission resources to the one or more wireless devices, thus informing the wireless devices of which downlink reference signals that may be subjected to interference caused by D2D communication and should be excluded from any wireless device measurements; - receive an indication from the BS, of downlink transmission resources that are to be associated with D2D communication in a cell associated with the BS during at least a time period T; and further to - determine, based on the received indication, downlink reference signals that may be subjected to interference from D2D communication when performing reference signal measurements during at least the time period T - excluding or reducing the influence of said downlink reference signals when performing reference signal measurements during at least the time period T.
A metal bellows in an annular shape comprising a structure repeated axially in which a first valley, a first belly, a first peak, a second belly, a second valley, a third belly, a second peak, and a fourth belly are integrally formed in series in this order, in a free length state of the bellows in an early stage of incorporation without extension and contraction, the valleys (10c, 10g, 10k, 10o, 10s) each turning around in a U shape in cross section, the peaks (10e, 10i, 10m, 10q, 10u) each turning around in an arc shape in cross section, the peaks (10e, 10i, 10m, 10q, 10u) each being provided in a position offset with respect to a center of a pitch between the valleys adjacent to the peaks (10e, 10i, 10m, 10q, 10u) on both sides, characterized in that of the bellies (10d, 10f, 10h, 10j, 10l, 10n, 10p, 10r, 10t, 10v) connected to the peaks (10e, 10i, 10m, 10q, 10u) on both sides, at least the bellies (10d, 10f, 10h, 10j, 10l, 10n, 10p, 10r, 10t, 10v) located on the offset side are provided with a constriction protruding inward of the metal bellows.
A carbon dioxide gas sensor comprising an insulating substrate, electrodes and a gas sensing layer formed on one major surface of the insulating substrate so as to cover the electrodes, wherein the gas sensing layer comprises one or more compounds selected from rare earth oxides represented by Ln 2 O 3, and at least 80 % of the rare earth oxide has a cubic crystal structure, wherein the rare earth oxide represented by Ln 2 O 3 is at least one of Sm 2 O 3, Eu 2 O 3, Tb 2 O 3, Dy 2 O 3, Er 2 O 3 and Yb 2 O 3. an insulating substrate, electrodes and a gas sensing layer formed on one major surface of the insulating substrate so as to cover the electrodes, wherein the gas sensing layer comprises one or more compounds selected from rare earth oxides represented by Ln 2 O 3, and at least 80 % of the rare earth oxide has a cubic crystal structure,
A multi-carrier transmitter assembly, comprising: a digital exciter that provides a digital multi-carrier signal from baseband data; a digital-to-analog converter that converts the digital multi-carrier signal into an analog multi-carrier signal; a signal distributor that distributes the analog multi-carrier signal into a plurality of analog carrier signals; and a plurality of antennas (38, 40, 42), each of the plurality of antennas transmitting at least one of the plurality of analog carrier signals, characterized by the signal distributor comprising a plurality of filters, each filter of the plurality of filters corresponding to a respective antenna of the plurality of antennas and being electrically adjustable via a control signal from the exciter to change at least one frequency characteristic associated with filter. a digital exciter that provides a digital multi-carrier signal from baseband data; a digital-to-analog converter that converts the digital multi-carrier signal into an analog multi-carrier signal; a signal distributor that distributes the analog multi-carrier signal into a plurality of analog carrier signals; and a plurality of antennas (38, 40, 42), each of the plurality of antennas transmitting at least one of the plurality of analog carrier signals, characterized by the signal distributor comprising a plurality of filters, each filter of the plurality of filters corresponding to a respective antenna of the plurality of antennas and being electrically adjustable via a control signal from the exciter to change at least one frequency characteristic associated with filter.
A method for measuring an inter-frequency neighboring cell by a user equipment, UE, the method comprising: identifying a time requirement of a cell identification of a first carrier indicating a time length within which the UE performs identification of any cell on the first carrier; identifying a time requirement of a cell measurement of the first carrier; identifying a cell on the first carrier based on the time requirement of the cell identification of the first carrier; performing measurement on the identified cell based on the time requirement of the cell measurement of the first carrier; and reporting a result of the measurement on the identified cell according to a configured measurement event, wherein the result of the measurement on the identified cell includes at least one of Reference Signal Receiving Power, RSRP, and Reference Signal Receiving Quality, RSRQ, of the identified cell, wherein the time requirement of the cell measurement of the first carrier related to a first frequency range is no shorter than a minimum of a time requirement of a cell measurement of a second carrier related to a second frequency range, and wherein the time requirement of the cell identification of the first carrier is different from a time requirement of a cell identification of the second carrier indicating a time length within which the UE performs identification of any cell on the second carrier. identifying a time requirement of a cell identification of a first carrier indicating a time length within which the UE performs identification of any cell on the first carrier; identifying a time requirement of a cell measurement of the first carrier; identifying a cell on the first carrier based on the time requirement of the cell identification of the first carrier; performing measurement on the identified cell based on the time requirement of the cell measurement of the first carrier; and reporting a result of the measurement on the identified cell according to a configured measurement event, wherein the result of the measurement on the identified cell includes at least one of Reference Signal Receiving Power, RSRP, and Reference Signal Receiving Quality, RSRQ, of the identified cell, wherein the time requirement of the cell measurement of the first carrier related to a first frequency range is no shorter than a minimum of a time requirement of a cell measurement of a second carrier related to a second frequency range, and wherein the time requirement of the cell identification of the first carrier is different from a time requirement of a cell identification of the second carrier indicating a time length within which the UE performs identification of any cell on the second carrier.
An ice making unit of a flow-down type ice making machine, comprising an ice making portion having: an ice making plate provided, horizontally at every predetermined interval, with a plurality of projected rims projecting out on a front side and also extending vertically; and an evaporation tube disposed on a back face of the ice making plate and meandering to have horizontally extending horizontal extensions vertically apart,from each other, to generate an ice block by supplying ice making water to an ice making surface portion positioned between the projected rims (18, 18) in the ice making plate, wherein the ice making surface portion is provided with vertically multi steps of inclined portions, inclined from a back side to a front side as directed downwardly from above, an lower inclination end of each inclined portion is configured to be positioned closer to the front side than an upper inclination end of the inclined portion positioned below, and the horizontal extensions of the evaporation tube are disposed to make contact with a back face of each inclined portion, the inclined portion is inclined to displace the ice making water towards the front side as directed downwardly, and the ice making water spreads out on the entire surface of the inclined portion, and characterized in that the ice making portion is configured to dispose a pair of the ice making plates (14, 14) having the back faces facing each other sandwiching the evaporation tube, and a channel for deicing water having a width narrower than a diameter of the evaporation tube is formed between the upper inclination ends in the back faces of the inclined portions facing each other sandwiching the horizontal extensions of the evaporation tube.
A communication control system including a plurality of control devices configured to communicate via a fifth-generation mobile communication system, 5G, network and a plurality of controlled devices respectively controlled by the plurality of control devices, wherein each control device of the plurality of control devices comprises an information creation unit configured to calculate a total number of emergency stop groups based on emergency stop group information in which each emergency stop group number assigned to each emergency stop group that is determined based on a range to be affected by an anomaly in each controlled device of the plurality of controlled devices is associated with each corresponding control device of the plurality of control devices, and create slice information for connecting to the same number of user plane functions, UPFs, as the total number of emergency stop groups; a 5G connection unit configured to register the control device of the 5G connection unit itself with the 5G network, and acquire UPF destination information, which is destination information of the UPFs; and a destination information acquisition unit configured to, based on the UPF destination information, associate each emergency stop group number with a destination UPF without duplication of a destination UPF between the emergency stop groups, and store information in which each emergency stop group number is associated with a destination UPF in a destination conversion table. network and a plurality of controlled devices respectively controlled by the plurality of control devices, wherein each control device of the plurality of control devices comprises an information creation unit configured to calculate a total number of emergency stop groups based on emergency stop group information in which each emergency stop group number assigned to each emergency stop group that is determined based on a range to be affected by an anomaly in each controlled device of the plurality of controlled devices is associated with each corresponding control device of the plurality of control devices, and create slice information for connecting to the same number of user plane functions, UPFs, as the total number of emergency stop groups; a 5G connection unit configured to register the control device of the 5G connection unit itself with the 5G network, and acquire UPF destination information, which is destination information of the UPFs; and a destination information acquisition unit configured to, based on the UPF destination information, associate each emergency stop group number with a destination UPF without duplication of a destination UPF between the emergency stop groups, and store information in which each emergency stop group number is associated with a destination UPF in a destination conversion table.
Method for producing turbine blades with a blade geometry that is defined in a coordinate system and with at least one outwardly open cavity (9, 15) having a blade inner surface (10, 18, 19), in which the turbine blades are cast, wherein the at least one outwardly open cavity (9, 15) is formed by means of at least one casting core (21, 23) which has a casting core outer surface (25, 27) that forms the blade inner surface (10, 18, 19) and which is removed from the cavity (9, 15) after the casting process, wherein the casting core outer surface (25, 27) has at least one planar reference surface (29, 31) with a defined setpoint position and/or a defined setpoint orientation in relation to the coordinate system in which the blade geometry is defined, characterized in that the planar reference surface (29, 31) is arranged in the casting core surface (25, 27) such that it forms, in the blade inner surface (10, 18, 19), at least one planar scanning surface (33, 35) that is accessible for a measuring head of a coordinate measuring device.