mhurhangee/patent-ind-claim-en huggingface dataset:
A verification method, comprising: performing Bluetooth authentication with a terminal based on Bluetooth authentication information; after the Bluetooth authentication with the terminal succeeds, obtaining radio frequency identification RFID authentication information, wherein the RFID authentication information comprises label information and authorization information of an RFID label, and the authorization information is used to indicate an association relationship between the RFID label and the terminal; and performing RFID authentication based on the RFID authentication information, and being in a controllable state after the RFID authentication succeeds. performing Bluetooth authentication with a terminal based on Bluetooth authentication information; after the Bluetooth authentication with the terminal succeeds, obtaining radio frequency identification RFID authentication information, wherein the RFID authentication information comprises label information and authorization information of an RFID label, and the authorization information is used to indicate an association relationship between the RFID label and the terminal; and performing RFID authentication based on the RFID authentication information, and being in a controllable state after the RFID authentication succeeds.
A decanter centrifuge with a rotating bowl with a shaft provided with at least one solids discharge port and at least one clarified liquid discharge port and a screw conveyor , disposed coaxially within said rotating bowl , rotated in the same direction with a differential rotational speed, where a feed suspension to be separated is introduced into a ring shaped space formed between said rotating bowl and said screw conveyor through a central feed pipe fixed to the end of the screw conveyor , which is supported in at least one bearing , the feed suspension can be separated by centrifugal force into a solid and a liquid phase so that said solid phase is discharged from said solid discharge port and said liquid phase is discharged from said clarified liquid discharging apparatus , wherein a liquid phase conduit is arranged in the shaft guiding the liquid phase outside of the bowl bearings , a liquid phase discharge valve is provided outside the bowl bearings on the side facing away from the bowl and screw conveyor , whereby the liquid phase discharge valve being varied during operation of the decanter centrifuge by a hand wheel via a transmission or by a motor, a sealing at the end of the feed pipe is provided, characterized in that the sealing at the end of the feed pipe is provided as a double axial sealing wherein between axial sealing and axial sealing there is a space into which cooling or lubrication water is introduced under pressure, wherein the cooling or lubrication water is provided to flow through lubrication water channel to the screw conveyor bearing .
A method performed by a terminal in a wireless communication system, the method comprising: identifying first information for indicating a slot length of a first serving cell; identifying second information for indicating a slot length of a second serving cell, wherein the slot length of the first serving cell is longer than the slot length of the second serving cell; identifying a first slot of multiple slots of the second serving cell that fully overlaps with a slot of the first serving cell, based on the first information and the second information; and transmitting, in the slot of the first serving cell, a power headroom report, PHR, for the first slot of the second serving cell to a base station, wherein the slot of the first serving cell overlaps with the multiple slots of the second serving cell. identifying first information for indicating a slot length of a first serving cell; identifying second information for indicating a slot length of a second serving cell, wherein the slot length of the first serving cell is longer than the slot length of the second serving cell; identifying a first slot of multiple slots of the second serving cell that fully overlaps with a slot of the first serving cell, based on the first information and the second information; and transmitting, in the slot of the first serving cell, a power headroom report, PHR, for the first slot of the second serving cell to a base station, wherein the slot of the first serving cell overlaps with the multiple slots of the second serving cell.
A dispenser device for dispensing a fluid or powder composition, the dispenser device comprising: a dispenser head that is provided with a dispenser outlet that is formed at the end of a hollow sleeve , an air expeller for generating a flow of air while the device is being actuated, said air expeller including a piston that slides in an air chamber between a rest position and a dispensing position, said air chamber including a cylindrical body in which said piston slides in airtight manner, and a reservoir that contains a single dose of composition, said reservoir including an air inlet that is connected to said air expeller and a composition outlet that is connected to said dispenser outlet , said air inlet including a composition retainer member for retaining the composition in the reservoir until the composition is dispensed, and said composition outlet being closed by a closure element that is force fitted in the composition outlet of the reservoir , said device further comprising a mechanical opening system co-operating with said closure element so as to expel it mechanically from its closed position while the device is being actuated, said device comprising an indicator that in the rest position before actuation is in a first state, and that after actuation passes into a second state, the passage from the first to the second state informing the user that the device has been actuated, said first state being a visible state and said second state being a non-visible state, said device including a pusher element , that is secured to said piston , on which the user presses during actuation, said dispenser head including a skirt that is arranged around said air chamber , said pusher element in its rest position before actuation, projecting axially out from said skirt characterized in that said pusher element is arranged after actuation entirely inside said skirt , said pusher element including said indicator that is visible before actuation and that is not visible after actuation.
A polypeptide capable of binding human complement component 5 (C5), said polypeptide comprising the amino acid sequence: [ BM ]-[L2]-QSX 42 X 43 LLX 46 EAKKLX 52 X 53 X 54 Q wherein, independently of each other, [ BM ] is a C5 binding motif comprising the amino acid sequence EX 9 X 10 X 11 A X 13 X 14 EIDX 18 LPNLX 23 X 24 X 25 QWX 28 AFIX 32 X 33 LX 35 ; wherein, independently of each other, X 9 is selected from H, Q, S, T and V; X 10 is selected from I, L, M and V; X 11 is selected from A, D, E, H, K, L, N, Q, R, S, T and Y; X 13 is selected from N and W; X 14 is selected from A, D, E, H, N, Q, R, S and T; X 18 is selected from A, E, G, H, K, L, Q, R, S, T and Y; X 23 is selected from N and T; X 24 is selected from I, L and V; X 25 is selected from A, D, E, H, K, N, Q, R, S and T; X 28 is selected from I, L and V; X 32 is selected from D, E, G, H, N, S and T; X 33 is selected from K and S; and X 35 is selected from A, D, E, H, N, Q, S, T and Y; [L2] is selected from DDPS and RQPE; X 42 is selected from A and S; X 43 is selected from N and E; X 46 is selected from A, S and C; X 52 is selected from E, N and S; X 53 is selected from D, E and S, provided that X 53 is not D when X 52 is N; and X 54 is selected from A and S.
Method of printing comprising the steps of : a. providing a substrate, a reaction liquid comprising a coagulation agent and an ink set comprising a first ink composition comprising a first colorant and a second ink composition comprising a second colorant, different from the first colorant, wherein both the first colorant and the second colorant are dispersed as primary particles in the first ink composition and the second ink composition, respectively; b. applying the reaction liquid to a first surface of the substrate; c. printing a first layer of the first ink composition and a second ink layer of the second ink composition on the first surface of the substrate, wherein upon contact with the coagulation agent, the primary particles present in the first ink layer and in the second ink layer agglomerate such that secondary particles are formed in the first ink layer and in the second ink layer respectively, wherein the first ink layer obtains a first opacity and the second ink layer obtains a second opacity, wherein the ink layer obtaining the highest opacity is printed first. a. providing a substrate, a reaction liquid comprising a coagulation agent and an ink set comprising a first ink composition comprising a first colorant and a second ink composition comprising a second colorant, different from the first colorant, wherein both the first colorant and the second colorant are dispersed as primary particles in the first ink composition and the second ink composition, respectively; b. applying the reaction liquid to a first surface of the substrate; c. printing a first layer of the first ink composition and a second ink layer of the second ink composition on the first surface of the substrate, wherein upon contact with the coagulation agent, the primary particles present in the first ink layer and in the second ink layer agglomerate such that secondary particles are formed in the first ink layer and in the second ink layer respectively, wherein the first ink layer obtains a first opacity and the second ink layer obtains a second opacity, wherein the ink layer obtaining the highest opacity is printed first.
An internal combustion engine system (2, 2a-2g), comprising an internal combustion engine (ICE) , a control unit , an exhaust aftertreatment system (EATS) located downstream of said ICE and comprising one or more exhaust aftertreatment devices (14a-14d), an exhaust gas duct fluidly connecting said ICE and said EATS, an exhaust gas recirculation duct being in fluid communication with said exhaust gas duct and fluidly connecting a first point downstream of said ICE and a second point upstream thereof, and an exhaust gas recirculation (EGR) pump arranged in said exhaust gas recirculation duct, wherein the internal combustion engine system has a normal operation mode for transporting, by means of the EGR pump, at least a portion of said exhaust gas from said first point to said second point, characterized in that the internal combustion engine system further comprises a heating device arranged upstream of at least one of said exhaust aftertreatment devices of said EATS and in that the internal combustion engine system has a pre-heat operation mode for transporting, by means of the EGR pump, exhaust gas and/or air through said heating device and then to said at least one of said exhaust aftertreatment devices, wherein the internal combustion engine system comprises a diverter duct fluidly connecting said EGR pump and a recombination point at said exhaust gas duct upstream of said heating device .
A lead, cadmium, and phthalate free conductive paste comprising 60-90 wt% conductive material including silver particles, and 10-30 wt% of a binder system, wherein 100 wt% of the binder system includes: 10-20 wt% thermoplastic polymer resin comprising polyvinyl butyral, 5-20 wt% plasticizer comprising triethylene glycol bis(2-ethylhexanoate), and 60-85 wt% solvent, wherein the thermoplastic polymer resin is dissolved in the solvent, wherein the weight ratio of the amount of thermoplastic polymer resin to the amount of plasticizer is 1.25 to 1.75, and wherein when the conductive paste is applied to a substrate, 0.5-1 wt% of the solvent evaporates from the conductive paste at ambient temperature of 15 to 30 °C within 5 minutes. wherein 100 wt% of the binder system includes: 10-20 wt% thermoplastic polymer resin comprising polyvinyl butyral, 5-20 wt% plasticizer comprising triethylene glycol bis(2-ethylhexanoate), and 60-85 wt% solvent, 10-20 wt% thermoplastic polymer resin comprising polyvinyl butyral, 5-20 wt% plasticizer comprising triethylene glycol bis(2-ethylhexanoate), and 60-85 wt% solvent, wherein the thermoplastic polymer resin is dissolved in the solvent, wherein the weight ratio of the amount of thermoplastic polymer resin to the amount of plasticizer is 1.25 to 1.75, and wherein when the conductive paste is applied to a substrate, 0.5-1 wt% of the solvent evaporates from the conductive paste at ambient temperature of 15 to 30 °C within 5 minutes.
A method of amplifying a linear, double-stranded nucleic acid of unknown sequence, comprising the steps of: (a) providing the linear, double-stranded nucleic acid of unknown sequence; (b) adding one adenine nucleotide (A) to the 3'-tails of the linear, double-stranded nucleic acid of unknown sequence to obtain a target nucleic acid of unknown sequence with 3'-adenine nucleotide (3'-A) overhangs; (c) providing a first strand oligonucleotide (oligo) with a 5'-phosphate (5'-p); (d) providing a second strand oligonucleotide (oligo) with a 3'-thymine nucleotide (3'-T) and without a 5'-phosphate (5'-p), wherein the second strand oligo with a 3'-T is complementary to the first stand oligo with a 5'-p except at its 3'-T, and is shorter than or equal to the first strand oligo with the 5'-p in length; (e) annealing the first and the second strand oligos to generate a homogeneous adaptor with one 3'-T-overhang; (f) ligating the homogeneous adaptor to the target nucleic acid of unknown sequence with 3'-A overhangs to form an adaptor-ligated target nucleic acid of unknown sequence with the adaptor attached at each end thereof; and (g) performing a polymerase chain reaction (PCR) with the adaptor-ligated target nucleic acid of unknown sequence as a template and the second strand oligo with a 3'-T as a single primer to obtain a PCR product, wherein the full length of the nucleic acid of unknown sequence is amplified. (a) providing the linear, double-stranded nucleic acid of unknown sequence; (b) adding one adenine nucleotide (A) to the 3'-tails of the linear, double-stranded nucleic acid of unknown sequence to obtain a target nucleic acid of unknown sequence with 3'-adenine nucleotide (3'-A) overhangs; (c) providing a first strand oligonucleotide (oligo) with a 5'-phosphate (5'-p); (d) providing a second strand oligonucleotide (oligo) with a 3'-thymine nucleotide (3'-T) and without a 5'-phosphate (5'-p), wherein the second strand oligo with a 3'-T is complementary to the first stand oligo with a 5'-p except at its 3'-T, and is shorter than or equal to the first strand oligo with the 5'-p in length; (e) annealing the first and the second strand oligos to generate a homogeneous adaptor with one 3'-T-overhang; (f) ligating the homogeneous adaptor to the target nucleic acid of unknown sequence with 3'-A overhangs to form an adaptor-ligated target nucleic acid of unknown sequence with the adaptor attached at each end thereof; and (g) performing a polymerase chain reaction (PCR) with the adaptor-ligated target nucleic acid of unknown sequence as a template and the second strand oligo with a 3'-T as a single primer to obtain a PCR product, wherein the full length of the nucleic acid of unknown sequence is amplified.
Tray for a storage lift, with a base for placing storage goods, wherein the tray is provided on at least one longitudinal side with at least one folded edge delimiting the base , and wherein the folded edge extends substantially transversely to the base in a vertical section connected to the base , wherein the folded edge has at least one reinforcement section extending away from the vertical section , and wherein the vertical section and the at least one reinforcement section form an obtuse angle therebetween, characterized in that the folded edge has at its distal end at least one traction section on which at least one traction element of a storage lift can engage.
A digital textile printing device comprising: a print head ; a printing surface configured to feed a medium for printing in a feed direction that passes said print head for printing; a measurement unit arranged downstream of said print head in said feed direction to measure a thickness of said medium for printing, the measurement unit configured to measure said thickness in said feed direction of said printing medium towards said print head as said medium is being fed towards said print head for printing, wherein said print head has an adjustable height and a controller for controlling said height and wherein said controller is responsive to said measurement unit to adjust said height according to a measured thickness of approaching print media, said adjustment being made when said measured thicknesses is within a predetermined range, said controller being configured to halt printing when said measured thickness is outside said predetermined range, characterized in that said measuring unit is configured to obtain said measurement over a finite length in said feed direction by taking a plurality of thickness measurements over said finite length, wherein said measurement unit comprises a laser curtain extending up to a predetermined thickness over said finite length to measure a height profile of said textile. a print head ; a printing surface configured to feed a medium for printing in a feed direction that passes said print head for printing; a measurement unit arranged downstream of said print head in said feed direction to measure a thickness of said medium for printing, the measurement unit configured to measure said thickness in said feed direction of said printing medium towards said print head as said medium is being fed towards said print head for printing, wherein said print head has an adjustable height and a controller for controlling said height and wherein said controller is responsive to said measurement unit to adjust said height according to a measured thickness of approaching print media, said adjustment being made when said measured thicknesses is within a predetermined range, said controller being configured to halt printing when said measured thickness is outside said predetermined range, characterized in that said measuring unit is configured to obtain said measurement over a finite length in said feed direction by taking a plurality of thickness measurements over said finite length, wherein said measurement unit comprises a laser curtain extending up to a predetermined thickness over said finite length to measure a height profile of said textile.
An analyzer comprising: a cell containing a reaction solution obtained by mixing of a sample with a reagent ; and a light source unit configured to irradiate the cell with a light beam with a first wavelength and a light beam with a second wavelength on the same optical path, the second wavelength being longer than the first wavelength, characterized by a scattered-light light receiving unit configured to receive a scattered light beam with the first wavelength and a scattered light beam with the second wavelength, the scattered light beams having been generated by interaction with the reaction solution in the cell ; a transmitted-light receiving unit configured to receive a transmitted light beam with the first wavelength and a transmitted light beam with the second wavelength, the transmitted light beams having passed through the cell ; and a data processing unit , wherein the data processing unit is configured to determine a signal by subtracting, from a signal representing a change in an amount of the scattered light beam with the first wavelength that has changed due to agglutination in the reaction solution , a signal that has been obtained by multiplying a change in an amount of the scattered light beam with the second wavelength by a reagent coefficient that depends on the reagent , and quantitatively determine an amount of a component in the sample on the basis of the determined signal, wherein a ratio between intensities of the transmitted light beam with the first wavelength and the transmitted light beam with the second wavelength is used as the reagent coefficient. a cell containing a reaction solution obtained by mixing of a sample with a reagent ; and a light source unit configured to irradiate the cell with a light beam with a first wavelength and a light beam with a second wavelength on the same optical path, the second wavelength being longer than the first wavelength, characterized by a scattered-light light receiving unit configured to receive a scattered light beam with the first wavelength and a scattered light beam with the second wavelength, the scattered light beams having been generated by interaction with the reaction solution in the cell ; a transmitted-light receiving unit configured to receive a transmitted light beam with the first wavelength and a transmitted light beam with the second wavelength, the transmitted light beams having passed through the cell ; and a data processing unit , wherein the data processing unit is configured to determine a signal by subtracting, from a signal representing a change in an amount of the scattered light beam with the first wavelength that has changed due to agglutination in the reaction solution , a signal that has been obtained by multiplying a change in an amount of the scattered light beam with the second wavelength by a reagent coefficient that depends on the reagent , and quantitatively determine an amount of a component in the sample on the basis of the determined signal, wherein a ratio between intensities of the transmitted light beam with the first wavelength and the transmitted light beam with the second wavelength is used as the reagent coefficient.
A pharmaceutical composition for use in a method of treating a renal disease in a human patient in need of such treatment, the composition administered to the human patient comprising at least 10 5 to 2×10 7 human stem cells per kilogram bodyweight of the patient in a pharmaceutically acceptable liquid medium capable of supporting the viability of the cells, wherein the human stem cells are enriched ex vivo with human exogenous mitochondria and have increased mitochondrial DNA content after incubation with mitochondria relative to the mitochondrial DNA content in the human stem cells prior to mitochondrial enrichment, wherein the renal disease is not a primary mitochondrial disease caused by a pathogenic mutation in mitochondrial DNA or by a pathogenic mutation in nuclear DNA encoding a mitochondrial protein, and wherein the disease is selected from the group consisting of nephropathy, nephritis, nephrosis, nephritic syndrome, nephrotic syndrome, Fanconi's syndrome and kidney failure. wherein the human stem cells are enriched ex vivo with human exogenous mitochondria and have increased mitochondrial DNA content after incubation with mitochondria relative to the mitochondrial DNA content in the human stem cells prior to mitochondrial enrichment, wherein the renal disease is not a primary mitochondrial disease caused by a pathogenic mutation in mitochondrial DNA or by a pathogenic mutation in nuclear DNA encoding a mitochondrial protein, and wherein the disease is selected from the group consisting of nephropathy, nephritis, nephrosis, nephritic syndrome, nephrotic syndrome, Fanconi's syndrome and kidney failure.