mhurhangee/ep-ind-claims huggingface dataset:
A user information processing method applied to a first application server, the first application server being configured to provide background services for a first application, and the method comprising: creating a target graphic code and a first group corresponding to the target graphic code in the first application in response to a group user migration request, the group user migration request being used for requesting to migrate a user account of a user of any group in a second application to the first group in the first application; sending the target graphic code to a target group in the second application in response to a sharing request for the target graphic code, and binding the target graphic code to the target group; determining a group to which the user belongs in the second application in response to a request of any user in the second application for joining the first group; and adding a user account of the user to the first group of the first application in response to determining that the user account of the user belongs to the target group bound to the target graphic code. creating a target graphic code and a first group corresponding to the target graphic code in the first application in response to a group user migration request, the group user migration request being used for requesting to migrate a user account of a user of any group in a second application to the first group in the first application; sending the target graphic code to a target group in the second application in response to a sharing request for the target graphic code, and binding the target graphic code to the target group; determining a group to which the user belongs in the second application in response to a request of any user in the second application for joining the first group; and adding a user account of the user to the first group of the first application in response to determining that the user account of the user belongs to the target group bound to the target graphic code.
A method for testing a measuring instrument for gravimetric moisture determination, wherein the measuring instrument has a test chamber, a weighing device with a sample holder for determining the mass of the sample that is located in the test chamber in the measuring position, and at least one means for heating the sample that is placeable on the sample holder, wherein the method includes the following steps: - Placing a test sample on the sample holder, - Determining starting mass m 0 of the test sample, - Heating test chamber using a predefined temperature profile, - Measuring mass m 1 of the test sample using the weighing device after the test sample has been heated according to the predefined temperature profile, - Comparing measured mass m 1 to a reference value of mass m * and - Outputting a signal corresponding to the result of a comparison wherein. the predefined temperature profile includes heating to a predefined target temperature T 1 and maintaining this target temperature T 1 either for a predefined time interval Δ t or until the change in mass per unit of time falls below a predefined value, that is to say ṁ≤a and the test sample includes a material and the material of the test sample is showing the characteristic that in a temperature range about the target temperature T 1 the amount of the derivative dm * ( T 1)/ dT 1 of the mass reference value m * ( T 1) is greater after the target temperature T 1 than the quotient from the mass tolerance G m of the weighing device and the temperature tolerance G T of the target temperature T 1. - Placing a test sample on the sample holder, - Determining starting mass m 0 of the test sample, - Heating test chamber using a predefined temperature profile, - Measuring mass m 1 of the test sample using the weighing device after the test sample has been heated according to the predefined temperature profile, - Comparing measured mass m 1 to a reference value of mass m * and - Outputting a signal corresponding to the result of a comparison
A control system for controlling an output of a plurality of compressors, said control system comprising: a controller configured to receive a first value from a first sensor and configured to generate a first output based on the first value, the controller being configured to receive a second value from a second sensor and being configured to generate a final output from the first output and the second value, wherein the first value is a temperature and wherein the first sensor is a temperature sensor; and a plurality of compressors configured to receive control commands from the controller based on one of the first output and the final output, wherein the controller is configured to stage the plurality of compressors based on the one of the first output and the final output, characterized in that: the second value is a relative humidity and the second sensor is a humidity sensor. a controller configured to receive a first value from a first sensor and configured to generate a first output based on the first value, the controller being configured to receive a second value from a second sensor and being configured to generate a final output from the first output and the second value, wherein the first value is a temperature and wherein the first sensor is a temperature sensor; and a plurality of compressors configured to receive control commands from the controller based on one of the first output and the final output, wherein the controller is configured to stage the plurality of compressors based on the one of the first output and the final output, characterized in that: the second value is a relative humidity and the second sensor is a humidity sensor.
A method for reducing the amount of fluoromethyl-1,1,3,3,3-pentafluoroisopropenyl ether (compound A) in a composition, comprising the following step: step 1 of bringing compound A into contact with a composition containing hydrogen fluoride and water at a mass ratio of 1:1 to 1:30.
A composite forming apparatus comprising: a base; a plate; a number of movement systems that moves one of the base and the plate relative to the other; and a number of sheets connected to the plate; wherein: said number of sheets are arranged for interleaving with a number of composite plies which are to be formed by the apparatus; and for pulling said number of sheets from between each of the number of composite plies when one of the base and plate are moved. a base; a plate; a number of movement systems that moves one of the base and the plate relative to the other; and a number of sheets connected to the plate; wherein: said number of sheets are arranged for interleaving with a number of composite plies which are to be formed by the apparatus; and for pulling said number of sheets from between each of the number of composite plies when one of the base and plate are moved. said number of sheets are arranged for interleaving with a number of composite plies which are to be formed by the apparatus; and for pulling said number of sheets from between each of the number of composite plies when one of the base and plate are moved.
A method for producing a beer-taste beverage, comprising: boiling a raw material juice; cooling the boiled juice; heating at 70 °C or more a hop suspension which is a mixture of hops and an aqueous solvent and recovering vapor as hop evaporated components; adding the heated hop suspension to the juice before the cooling; and adding the recovered hop evaporated components to the juice after the boiling. boiling a raw material juice; cooling the boiled juice; heating at 70 °C or more a hop suspension which is a mixture of hops and an aqueous solvent and recovering vapor as hop evaporated components; adding the heated hop suspension to the juice before the cooling; and adding the recovered hop evaporated components to the juice after the boiling.
Method for calibration of vectorial network analysers which have n measurement ports (16a, 16b), wherein a plurality of calibration measurements are carried out, wherein a plurality of different calibration standards (67, 87, 107, 146) are connected to the measurement ports (16a, 16b), wherein n is an arbitrary natural number, wherein the following measurements are carried out for calibration: - n calibration measurements, wherein a comb generator signal is fed in succession to all the n measurement ports (16a, 16b) by means of a connecting line, wherein the comb generator signal is a sum of a plurality of sinusoidal signals with equidistant frequency spacing, characterised in that in succession the phase of the individual signals of the comb generator signal is measured simultaneously at a measurement point on the comb generator (m 5) and at a measurement point of the respective measurement port, wherein a frequency-dependent phase offset of the individual signals is determined from the measured phases, - a calibration measurement, wherein all the n measurement ports (16a, 16b) are terminated by means of in each case known identical first input impedances of arbitrary transmission properties, wherein in succession all the n measurement ports are excited with all the frequencies of the comb generator signal in succession by means of a transmitting oscillator. - n calibration measurements, wherein a comb generator signal is fed in succession to all the n measurement ports (16a, 16b) by means of a connecting line, wherein the comb generator signal is a sum of a plurality of sinusoidal signals with equidistant frequency spacing, characterised in that in succession the phase of the individual signals of the comb generator signal is measured simultaneously at a measurement point on the comb generator (m 5) and at a measurement point of the respective measurement port, wherein a frequency-dependent phase offset of the individual signals is determined from the measured phases, - a calibration measurement, wherein all the n measurement ports (16a, 16b) are terminated by means of in each case known identical first input impedances of arbitrary transmission properties, wherein in succession all the n measurement ports are excited with all the frequencies of the comb generator signal in succession by means of a transmitting oscillator.
An antibody specifically binding an epitope comprised in the α-chain of c-Met, optionally human c-Met, wherein a) the heavy chain of the antibody comprises: CDR 1 comprising the sequence of SEQ ID NO: 2; and CDR 2 comprising the sequence of SEQ ID NO: 3; and CDR 3 comprising the sequence of SEQ ID NO: 4; and wherein b) the light chain of the antibody comprises: CDR 1 comprising the sequence of SEQ ID NO: 5; and CDR 2 comprising the sequence of SEQ ID NO: 6; and CDR 3 comprising the sequence of SEQ ID NO: 7. CDR 1 comprising the sequence of SEQ ID NO: 2; and CDR 2 comprising the sequence of SEQ ID NO: 3; and CDR 3 comprising the sequence of SEQ ID NO: 4; and CDR 1 comprising the sequence of SEQ ID NO: 5; and CDR 2 comprising the sequence of SEQ ID NO: 6; and CDR 3 comprising the sequence of SEQ ID NO: 7.
A surface analysis method for a three-dimensional measurement target surface comprising a base point setting and correcting method for the three-dimensional measurement surface on a three-dimensional coordinate system which specifies one measured value Z (x, y) for a position (x, y) by using a mapping analysis processing apparatus, the base point setting method and the three-dimensional measurement surface correcting method comprising the steps of: setting parameters d and e such that the bottom of a hemisphere or semi-spheroid figure C [z ≥ 0, f(x, y) = c{1 - (x - d) 2 /a 2 - (y - e) 2 /b 2} 1/2] contains a position (x i, y i) where a base point should be specified, when a peak of the measurement surface occurs in the positive Z-axis direction; subtracting the height of the figure C from a measured value Z at each position of the bottom of the figure C, and expressing the minimum value of the differences as l min; obtaining the height of the figure C at the position (x i, y i) where the minimum value l min is obtained and adding the minimum value l min and the height of the figure C at the position (x i, y i); shifting the figure C throughout in a range in which the bottom of the figure C contains the position (x i, y i) and adding the minimum value l min and the height of the figure C at the position (x i, y i), in the shifted positions; and expressing the maximum value of the sums as L (xi, yi) and specifying the base point at the position (x i, y i) as (x i, y i, L (xi, yi)) and correcting the three-dimensional measurement surface based on the base point. setting parameters d and e such that the bottom of a hemisphere or semi-spheroid figure C [z ≥ 0, f(x, y) = c{1 - (x - d) 2 /a 2 - (y - e) 2 /b 2} 1/2] contains a position (x i, y i) where a base point should be specified, when a peak of the measurement surface occurs in the positive Z-axis direction; subtracting the height of the figure C from a measured value Z at each position of the bottom of the figure C, and expressing the minimum value of the differences as l min; obtaining the height of the figure C at the position (x i, y i) where the minimum value l min is obtained and adding the minimum value l min and the height of the figure C at the position (x i, y i); shifting the figure C throughout in a range in which the bottom of the figure C contains the position (x i, y i) and adding the minimum value l min and the height of the figure C at the position (x i, y i), in the shifted positions; and expressing the maximum value of the sums as L (xi, yi) and specifying the base point at the position (x i, y i) as (x i, y i, L (xi, yi)) and correcting the three-dimensional measurement surface based on the base point.
Process for producing a membrane particulate filter comprising the steps of selecting a honeycomb monolith with a network of channels separated by porous channel walls and the deposition on these walls of a membrane adhering to the wall, obtained by a so-called coating operation during which part of the walls of the monolith are placed in contact with an aqueous suspension of a sinterable powder of a material constituting the monolith, then by drying and finally by calcining the monolith coated with a temperature below 800°C, characterized in that the aqueous suspension also comprises glass powder and a plasticizer, the membrane being obtained by repeating the coating operation, the mass concentration of sinterable powder and glass powder in the aqueous suspension being reduced with each new operation, the mass concentration of sinterable powder being between 20 and 30%, the mass concentration of glass powder between 3 and 5%, the concentration of plasticizer in the order of 1% by mass, the water making up 100%, for the first coating operation.
Process for producing amorphous polyesters, where, in a first step, in a tank, di- and/or polycarboxylic acids are reacted with mono- or polyhydric alcohols, and/or lactones are reacted and, in a second step, a polycondensation is carried out, where the second step takes place in a kneader, characterized in that the di- and/or polycarboxylic acids are those selected from adipic acid, dimethyl adipate, sebacic acid, dimethyl sebacate, phthalic acid, isophthalic acid, terephthalic acid, 2,6-naphthalenedicarboxylic acid, trimellitic acid, ester derivatives thereof and anhydrides thereof, and the mono- or polyhydric alcohols are those selected from ethylene glycol, 1,2-propanediol, 1,3-propanediol, 1,4-butanediol, 1,5-pentanediol, 1,6-hexanediol, neopentyl glycol, butylethyl-1,3-propanediol, methyl-1,3-propanediol, methylpentanediols, cyclohexanedimethanols, tricyclo[2.2.1]decanedimethanol, isomers of limonenedimethanol, trimethylolpropane and mixtures thereof, the number-average molar mass (M N) of the polyesters is in the range from 9000 to 35 000 g/mol, determined by gel permeation chromatography, and the mass-average molar mass (M W) of the polyesters is in the range from 30 000 to 100 000 g/mol, determined by gel permeation chromatography, where kneaders used comprise single- or twin-shaft kneaders, rotating-disc reactors, or single- or twinscrew extruders, and where, in the second step, the temperatures of the polymer melts are 220°C-245°C.
Electrofusion tape for welding together with plastics pipes in particular for use in a fixed-point fastening, consisting of a jacket element preferably of an electrically insulating plastics material, at least one heating element of electrically conductive plastics material and at least two contact elements for supplying electricity to the heating element, wherein the jacket element and the heating element take the form of tapes, wherein the jacket element surrounds the heating element at least in part, wherein the contact elements are arranged in the mutually opposing marginal regions of the heating element and extend parallel to one another along the heating element, characterized in that the heating element is displaceable neither sideways nor transversely to the longitudinal direction of the tape, the heating element being arranged so as to be displaceable in the jacket element solely in the longitudinal direction of the tape.
Method for operating a vehicle system of a motor vehicle (1, 2, 3) designed for the fully automatic guiding of a motor vehicle (1, 2, 3) in different driving situation classes, wherein - a calculating structure comprising a plurality of evaluation units is used in order to determine control data to be used from environmental data describing the environment of the motor vehicle (1, 2, 3) and ego data describing the state of the motor vehicle (1, 2, 3) as driving situation data for the fully automatic guiding of the motor vehicle (1, 2, 3) and use it for guiding the motor vehicle (1, 2, 3), - each evaluation unit determines output data from at least one additional evaluation unit and/or driving situation, and - at least one portion of the evaluation units are designed as a neural network at least partly on the basis of software, characterised in that, at least one portion of the evaluation units designed as a neural network is formed dynamically during the running time from a configuration object which can be configured by configuration parameter sets, in that - by using at least a portion of the driving situation data a current driving situation class is determined from a plurality of predefined driving situation classes, wherein at least one evaluation function is assigned to each driving situation class, - configuration parameter sets assigned to the evaluation functions of the current driving situation class are retrieved from a database and - not yet available evaluation units performing the evaluation function are formed by the configuration of configuration objects with the retrieved configuration parameter sets. - a calculating structure comprising a plurality of evaluation units is used in order to determine control data to be used from environmental data describing the environment of the motor vehicle (1, 2, 3) and ego data describing the state of the motor vehicle (1, 2, 3) as driving situation data for the fully automatic guiding of the motor vehicle (1, 2, 3) and use it for guiding the motor vehicle (1, 2, 3), - each evaluation unit determines output data from at least one additional evaluation unit and/or driving situation, and - at least one portion of the evaluation units are designed as a neural network at least partly on the basis of software, - by using at least a portion of the driving situation data a current driving situation class is determined from a plurality of predefined driving situation classes, wherein at least one evaluation function is assigned to each driving situation class, - configuration parameter sets assigned to the evaluation functions of the current driving situation class are retrieved from a database and - not yet available evaluation units performing the evaluation function are formed by the configuration of configuration objects with the retrieved configuration parameter sets.
Device for generating gas bubbles in a liquid in a container, comprising - at least one rotatable hollow shaft arranged horizontally in at least one container, wherein the at least one hollow shaft comprises at least one first hollow shaft with a diameter d 3a and a second hollow shaft with a diameter d 3b, wherein d 3a < d 3b, such that the first hollow shaft is arranged inside the second hollow shaft; and - at least one feed line for at least one compressed gas to the interior of the at least one rotatable hollow shaft, more particularly the first rotatable hollow shaft, wherein the compressed gas can be directly introduced into the feed line and the hollow shaft without a liquid carrier, characterized by - at least one ceramic gassing disc arranged vertically on the at least one hollow shaft and with an average pore size of between 0.05 μm and 10 μm. - at least one rotatable hollow shaft arranged horizontally in at least one container, wherein the at least one hollow shaft comprises at least one first hollow shaft with a diameter d 3a and a second hollow shaft with a diameter d 3b, wherein d 3a < d 3b, such that the first hollow shaft is arranged inside the second hollow shaft; and - at least one feed line for at least one compressed gas to the interior of the at least one rotatable hollow shaft, more particularly the first rotatable hollow shaft, wherein the compressed gas can be directly introduced into the feed line and the hollow shaft without a liquid carrier, characterized by - at least one ceramic gassing disc arranged vertically on the at least one hollow shaft and with an average pore size of between 0.05 μm and 10 μm.
A method comprising: transmitting, from a user equipment, information about: sidelink synchronization of the user equipment, and reduced reception of sidelink synchronization signals at the user equipment, wherein the information about reduced reception of sidelink synchronization signals at the user equipment comprises a sidelink discontinuous reception configuration of the user equipment.
A coating composition, comprising: (a) a phosphate functional polyester polyol which is the reaction product of a monomer blend comprising: at least one phosphorus containing monomer which is phosphonosuccinic acid, and at least one other non-phosphorus containing monomer selected from di- or higher polyols, diacids, and anhydrides; and (b) a curing agent. (a) a phosphate functional polyester polyol which is the reaction product of a monomer blend comprising: at least one phosphorus containing monomer which is phosphonosuccinic acid, and at least one other non-phosphorus containing monomer selected from di- or higher polyols, diacids, and anhydrides; and at least one phosphorus containing monomer which is phosphonosuccinic acid, and at least one other non-phosphorus containing monomer selected from di- or higher polyols, diacids, and anhydrides; and (b) a curing agent.