mhurhangee/ep-ind-claims huggingface dataset:
A braiding machine with at least two impellers for displacing at least one clapper, wherein the clapper has a circular cross-section and is at least partially made of a ferromagnetic material and each of the impellers comprises at least one clapper receiver, wherein the clapper receiver is designed in such a manner that it can enclose a partial circumference of the clapper of 50° to 120°, characterized in that the clapper receiver is associated with a plurality of electromagnets.
A two-part foam hair dye comprising a first agent comprising an alkali agent, a second agent comprising hydrogen peroxide, and a non-aerosol foamer container for discharging a mixture of the first agent and the second agent in foams, wherein the first agent comprises components,, and and optionally component; a total concentration of components and in the first agent is from 0.16 to 0.50 mol/kg; the mixture has a viscosity at 25°C of from 1 to 300 mPa.s, viscosity value obtained by rotating the mixture at 60 rpm at 25 degrees centigrade for one minute by using a B-type rotational viscometer, Model TV-10 by Tokimec Inc. and a rotor No. 1 or No. 2; a water-soluble cationic polymer; from 0.20 to 2.00 mol/kg of an alkali metal ion; 0.05 mol/kg or greater of an oxidation dye having a phenolic hydroxyl group; and an anionic surfactant. a water-soluble cationic polymer; from 0.20 to 2.00 mol/kg of an alkali metal ion; 0.05 mol/kg or greater of an oxidation dye having a phenolic hydroxyl group; and an anionic surfactant.
A method, comprising: determining a minimum link setup level and a maximum link setup level for a terminal; and communicating the minimum link setup level and the maximum link setup level to the terminal, wherein the minimum link setup level defines operations that the terminal needs to execute successfully before the terminal is allowed to report a network or a radio access technology as available to a base station that communicated the minimum link setup level and the maximum link setup level to the terminal, and the maximum link setup level defines the operations that the terminal is allowed to execute before reporting a network or a radio access technology as available to a base station that communicated the minimum link setup level and the maximum link setup level to the terminal. determining a minimum link setup level and a maximum link setup level for a terminal; and communicating the minimum link setup level and the maximum link setup level to the terminal, wherein the minimum link setup level defines operations that the terminal needs to execute successfully before the terminal is allowed to report a network or a radio access technology as available to a base station that communicated the minimum link setup level and the maximum link setup level to the terminal, and the maximum link setup level defines the operations that the terminal is allowed to execute before reporting a network or a radio access technology as available to a base station that communicated the minimum link setup level and the maximum link setup level to the terminal.
A method of synthesizing molecular sieve SSZ-98, comprising: (a) preparing a reaction mixture comprising: a source of silicon oxide; a source of aluminum oxide; a source of a Group 1 or 2 metal; a structure directing agent selected from one or more of 1,1-diethylpyrrolidinium cations, 1-butyl-1-methylpiperidinium cations, 1,1-diethyl-4-methylpiperidinium cations, and 8-(pyridin-2-yl)-5,8-diazaspiro[4.5]decan-5-ium cations; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve, wherein the source of silicon oxide and the source of aluminum oxide is zeolite Y. (a) preparing a reaction mixture comprising: a source of silicon oxide; a source of aluminum oxide; a source of a Group 1 or 2 metal; a structure directing agent selected from one or more of 1,1-diethylpyrrolidinium cations, 1-butyl-1-methylpiperidinium cations, 1,1-diethyl-4-methylpiperidinium cations, and 8-(pyridin-2-yl)-5,8-diazaspiro[4.5]decan-5-ium cations; hydroxide ions; and water; and a source of silicon oxide; a source of aluminum oxide; a source of a Group 1 or 2 metal; a structure directing agent selected from one or more of 1,1-diethylpyrrolidinium cations, 1-butyl-1-methylpiperidinium cations, 1,1-diethyl-4-methylpiperidinium cations, and 8-(pyridin-2-yl)-5,8-diazaspiro[4.5]decan-5-ium cations; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the molecular sieve, wherein the source of silicon oxide and the source of aluminum oxide is zeolite Y.
A method for indicating a channel in a wireless local area network, WLAN, said method being performed by a sending station and comprising: generating (101, 201) a physical protocol data unit, PPDU, wherein the PPDU includes a preamble field and a data field, a high efficiency signal field, HE-SIG-A, of the preamble field includes a bandwidth identifier, and the bandwidth identifier indicates a data transmission channel of the PPDU; sending (102, 202) the PPDU; characterized in that, the bandwidth identifier includes three bits; and when the bandwidth identifier is a first value, the first value indicates a first mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the first mode, a primary 20 MHz channel and a secondary 40 MHz channel are included in the data transmission channel; and when the bandwidth identifier is a second value, the second value indicates a second mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the second mode, the primary 20 MHz channel, the secondary 20 MHz channel, and one 20 MHz channel of the secondary 40 MHz channel are included in the data transmission channel. generating (101, 201) a physical protocol data unit, PPDU, wherein the PPDU includes a preamble field and a data field, a high efficiency signal field, HE-SIG-A, of the preamble field includes a bandwidth identifier, and the bandwidth identifier indicates a data transmission channel of the PPDU; sending (102, 202) the PPDU; characterized in that, the bandwidth identifier includes three bits; and when the bandwidth identifier is a first value, the first value indicates a first mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the first mode, a primary 20 MHz channel and a secondary 40 MHz channel are included in the data transmission channel; and when the bandwidth identifier is a second value, the second value indicates a second mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the second mode, the primary 20 MHz channel, the secondary 20 MHz channel, and one 20 MHz channel of the secondary 40 MHz channel are included in the data transmission channel.
Method of cleaning a filter comprising the steps of: A) providing a cross flow filter, wherein the cross flow filter comprises a filter membrane and is adapted to extract a liquid permeate flow from a feed flow flowing past the filter membrane, wherein the filter membrane has a first side facing the permeate flow and a second side opposite to the first side and facing the feed flow, and wherein on the second side of the filter membrane deposits are located which are at least partially to be removed; B) supplying a backflushing liquid flow through the filter membrane; characterized in that - before supplying the backflushing liquid flow in step B) permeate located on the first side of the filter membrane is at least partially displaced by a gas from the first side of the filter membrane, wherein the gas in contact with the backflushing liquid flow at least during step B) has a pressure of > 1 bar, and the supply of the backflushing liquid flow in step B) takes place in such a way that the pressure of the backflushing liquid flow varies more than once between a minimum pressure and a maximum pressure. A) providing a cross flow filter, wherein the cross flow filter comprises a filter membrane and is adapted to extract a liquid permeate flow from a feed flow flowing past the filter membrane, wherein the filter membrane has a first side facing the permeate flow and a second side opposite to the first side and facing the feed flow, and wherein on the second side of the filter membrane deposits are located which are at least partially to be removed; B) supplying a backflushing liquid flow through the filter membrane; characterized in that - before supplying the backflushing liquid flow in step B) permeate located on the first side of the filter membrane is at least partially displaced by a gas from the first side of the filter membrane, wherein the gas in contact with the backflushing liquid flow at least during step B) has a pressure of > 1 bar, and the supply of the backflushing liquid flow in step B) takes place in such a way that the pressure of the backflushing liquid flow varies more than once between a minimum pressure and a maximum pressure. - before supplying the backflushing liquid flow in step B) permeate located on the first side of the filter membrane is at least partially displaced by a gas from the first side of the filter membrane, wherein
A cycle piston engine power system comprising: i) a compression ignition or spark ignition reciprocating piston engine for generating power and exhaust gas; ii) a water cooling and separation unit which receives the exhaust gas and cools and removes water from the exhaust gas to create CO 2 gas supply; iii) a mixing pressure vessel which receives at least a portion of the CO 2 gas supply from the water cooling and separation unit and mixes the CO 2 gas supply with oxygen to create a working fluid to be provided to the piston engine; iv) an oxygen generator for providing oxygen to the mixing pressure vessel; characterized in that the cycle engine power system further comprises: v) a molecular sieve approach CO 2 capture and cleanup subsystem for producing pressurized CO 2 from at least a portion of the exhaust gas; and vi) a heat recovery unit which receives at least a portion of the exhaust gas produced by operation of the piston engine, wherein the heat recovery unit comprises a turbine having a turbine inlet; wherein the heat recovery unit generates additional power via the super critical Brayton CO 2 cycle and provides turbine inlet bleed CO 2 to regenerate adsorption beds (37, 38) used in the CO 2 capture and cleanup subsystem whereby turbine inlet bleed CO 2 is ported to ports (41, 42) of adsorption beds (37, 38) and is vented from valves (42, 44) of said adsorption beds. i) a compression ignition or spark ignition reciprocating piston engine for generating power and exhaust gas; ii) a water cooling and separation unit which receives the exhaust gas and cools and removes water from the exhaust gas to create CO 2 gas supply; iii) a mixing pressure vessel which receives at least a portion of the CO 2 gas supply from the water cooling and separation unit and mixes the CO 2 gas supply with oxygen to create a working fluid to be provided to the piston engine; iv) an oxygen generator for providing oxygen to the mixing pressure vessel; v) a molecular sieve approach CO 2 capture and cleanup subsystem for producing pressurized CO 2 from at least a portion of the exhaust gas; and vi) a heat recovery unit which receives at least a portion of the exhaust gas produced by operation of the piston engine, wherein the heat recovery unit comprises a turbine having a turbine inlet; wherein the heat recovery unit generates additional power via the super critical Brayton CO 2 cycle and provides turbine inlet bleed CO 2 to regenerate adsorption beds (37, 38) used in the CO 2 capture and cleanup subsystem whereby turbine inlet bleed CO 2 is ported to ports (41, 42) of adsorption beds (37, 38) and is vented from valves (42, 44) of said adsorption beds.
A method for generating steam comprising: providing a continuous supply of a carbonaceous material; combusting the carbonaceous material in a first processing chamber having a first at least one plasma arc torch in the presence of oxygen, a first treatment gas and water to provide a first product gas stream; recovering heat from the first product gas stream in a first heat recovery steam generator to produce a first steam output; processing the first product gas stream in a second processing chamber having a second at least one plasma arc torch in the presence of oxygen, a second treatment gas and water to provide a second product gas stream substantially free of carbon monoxide and hydrogen; and recovering heat from the second product gas stream in a second heat recovery steam generator to produce a second steam output; and using the first steam output and the second steam output wherein each of the first plasma torch and the second plasma torch generates heat from 5540° C to 11,080° C. providing a continuous supply of a carbonaceous material; combusting the carbonaceous material in a first processing chamber having a first at least one plasma arc torch in the presence of oxygen, a first treatment gas and water to provide a first product gas stream; recovering heat from the first product gas stream in a first heat recovery steam generator to produce a first steam output; processing the first product gas stream in a second processing chamber having a second at least one plasma arc torch in the presence of oxygen, a second treatment gas and water to provide a second product gas stream substantially free of carbon monoxide and hydrogen; and recovering heat from the second product gas stream in a second heat recovery steam generator to produce a second steam output; and using the first steam output and the second steam output wherein each of the first plasma torch and the second plasma torch generates heat from 5540° C to 11,080° C.
An x-ray image sensor assembly comprising: a semiconductor substrate comprising a top side and a bottom side; a plurality of photodetectors, having photodiode contacts, disposed on the top side of the semiconductor substrate, the plurality of photodetectors in electrical communication with data acquisition and signal processing electronic components disposed on the top side of the semiconductor substrate, wherein the contacts of the photodetectors, data acquisition and signal processing electronic components are co-located on the top side of the semiconductor substrate; a structured scintillator assembly disposed over the plurality of photodetectors; and a collimator assembly positioned above the structured scintillator assembly (52,54) with respect to the plurality of photodetectors and the data acquisition and signal processing electronic components, wherein at least a portion of the collimator assembly is positioned over at least a portion of the data acquisition and signal processing electronic components to shield at least a portion of the electronic components from radiation. a semiconductor substrate comprising a top side and a bottom side; a plurality of photodetectors, having photodiode contacts, disposed on the top side of the semiconductor substrate, the plurality of photodetectors in electrical communication with data acquisition and signal processing electronic components disposed on the top side of the semiconductor substrate, wherein the contacts of the photodetectors, data acquisition and signal processing electronic components are co-located on the top side of the semiconductor substrate; a structured scintillator assembly disposed over the plurality of photodetectors; and a collimator assembly positioned above the structured scintillator assembly (52,54) with respect to the plurality of photodetectors and the data acquisition and signal processing electronic components, wherein at least a portion of the collimator assembly is positioned over at least a portion of the data acquisition and signal processing electronic components to shield at least a portion of the electronic components from radiation.
A data processing method performed by a computer for supporting a medical brain mapping procedure, comprising the steps of receiving a microscope image of a patient's cortex and superimposing stimulation response marks onto the microscope image, wherein a stimulation response mark indicates the patient's response to an electrical stimulation of the cortex by a stimulation probe at a position associated with the stimulation response mark; characterized by the step of determining the probed stimulation response mark from the position of the stimulation probe in the microscope image.
A method for generating a sequencing library, wherein the method comprises: a) hybridizing template nucleic acids to oligonucleotides bound to a solid surface via their 5' end and initially comprising at least two functional sequence elements, and removing unbound template nucleic acids, preferably by a washing step; b) extending the surface bound oligonucleotides hybridized to the template nucleic acids to form a double strand; c) optionally modifying the double-stranded nucleic acids generated in step b); d) 3' truncation of the surface bound oligonucleotides that have not been used in the template nucleic acid hybridization of step a); e) optionally modifying the single-stranded surface bound oligonucleotides generated in step d); and f) hybridizing further template nucleic acids to the surface bound oligonucleotides or using functional sequence elements within surface bound oligonucleotides for a downstream application, wherein steps a) to e) are repeated at least once with template nucleic acids from the same sample or from different samples, wherein after the first 3' truncation step of the surface bound oligonucleotides, the truncated oligonucleotide still contains at least one functional sequence element, and wherein the length of the surface bound oligonucleotides is 10-200 nucleotides. a) hybridizing template nucleic acids to oligonucleotides bound to a solid surface via their 5' end and initially comprising at least two functional sequence elements, and removing unbound template nucleic acids, preferably by a washing step; b) extending the surface bound oligonucleotides hybridized to the template nucleic acids to form a double strand; c) optionally modifying the double-stranded nucleic acids generated in step b); d) 3' truncation of the surface bound oligonucleotides that have not been used in the template nucleic acid hybridization of step a); e) optionally modifying the single-stranded surface bound oligonucleotides generated in step d); and f) hybridizing further template nucleic acids to the surface bound oligonucleotides or using functional sequence elements within surface bound oligonucleotides for a downstream application,
Windscreen wiper device, in particular for a motor vehicle, with a wiper motor which drives an output shaft which is pressed, in particular crimped, with a crank plate actuating a wiper lever, in order to form a connection thereto for rotation therewith, wherein a plurality of crimp pockets (11, 13, 14) are formed in an end section of the output shaft, characterized in that the crimp pockets (11, 13, 14) are formed by an external thread which is provided on the end section at least in the region of overlap with the crank plate and is screwable to an internal thread formed on the crank plate.
A benzoazepine compound represented by general formula or a salt thereof, wherein R represents a hydrogen atom, a hydroxy group optionally protected with a protecting group, a mercapto group optionally protected with a protecting group, or an amino group optionally protected with one or two protecting groups; R 1 represents a hydrogen atom or a hydroxy-protecting group; wherein the protecting group for the hydroxy group and the mercapto group and the hydroxy-protecting group is selected from C 1-6 -alkyl groups, phenyl-C 1-6 -alkyl groups, cyano-C 1-6 -alkyl groups, and C 1-6 -alkyloxycarbonyl-C 1-6 -alkyl groups; and the protecting group(s) of the amino group is/are selected from C 1-6 -alkyl groups optionally bearing hydroxy group(s); and X represents an oxygen atom or a sulfur atom.
A blade segment for a refiner (1, 18, 19) intended for refining fibrous material, the blade segment comprising a refining surface (4, 11) with blade bars and blade grooves therebetween and openings (14, 15) formed through the refining surface (4, 11), characterized in that the openings (14, 15) are formed through the blade bars or through both the blade bars and the blade grooves, and that the ratio of the surface area of the openings (14, 15) to the total area of the refining surface (4, 11) ranges from 10 to 40 %.
A method performed by an apparatus for configuring a set of image capturing settings of a camera (102, 302) for a first scene condition type currently viewed by the camera (102, 302), comprising: detecting the first scene condition type currently viewed by the camera (102, 302), instructing the camera to acquire a plurality of test images (408a-e) for the first scene condition type, wherein each of said plurality of test images (400a-e) corresponds to a set of image capturing settings (404a-e) to be used by the camera (102, 302), and wherein at least two test images correspond to different sets of image capturing settings (404a-e), storing each of said plurality of test images (408a-e) together with its corresponding sets of image capturing settings (404a-e) and data representing the first scene condition type, receiving input relating to one test image which has been selected from said plurality of test images (408a-e), and storing the set of image capturing settings corresponding to the selected test image as the configured set of image capturing settings for the first scene condition type to be used by the camera upon future detections of the first scene condition type, characterized in that the step of receiving input relating to one test image which has been selected from said plurality of test images (408a-e) is performed at a later point in time than the step of storing each of said plurality of test images (408a-e). detecting the first scene condition type currently viewed by the camera (102, 302), instructing the camera to acquire a plurality of test images (408a-e) for the first scene condition type, wherein each of said plurality of test images (400a-e) corresponds to a set of image capturing settings (404a-e) to be used by the camera (102, 302), and wherein at least two test images correspond to different sets of image capturing settings (404a-e), storing each of said plurality of test images (408a-e) together with its corresponding sets of image capturing settings (404a-e) and data representing the first scene condition type, receiving input relating to one test image which has been selected from said plurality of test images (408a-e), and storing the set of image capturing settings corresponding to the selected test image as the configured set of image capturing settings for the first scene condition type to be used by the camera upon future detections of the first scene condition type, characterized in that the step of receiving input relating to one test image which has been selected from said plurality of test images (408a-e) is performed at a later point in time than the step of storing each of said plurality of test images (408a-e).