mhurhangee/patent-ind-claim-en huggingface dataset:
Motor vehicle body part intended to be painted, comprising at least one elongate slot and at least one element for maintaining the gap of the opening of the slot , characterized in that : • said gap maintaining element is positioned outside the opening of the slot; • the body part is produced by plastic molding and comprises at least one gap maintaining element inserted during molding; • the elongate slot has longitudinal edges having at least two opposing faces , said faces being interconnected at a point by the gap maintaining element ; and • the gap maintaining element comprises a first wall of which a surface is flush with said face of a longitudinal edge at least at a first junction , a second wall of which a surface is flush with said face of the other longitudinal edge at least at a second junction , and a third wall which connects the first and the second wall . • said gap maintaining element is positioned outside the opening of the slot; • the body part is produced by plastic molding and comprises at least one gap maintaining element inserted during molding; • the elongate slot has longitudinal edges having at least two opposing faces , said faces being interconnected at a point by the gap maintaining element ; and • the gap maintaining element comprises a first wall of which a surface is flush with said face of a longitudinal edge at least at a first junction , a second wall of which a surface is flush with said face of the other longitudinal edge at least at a second junction , and a third wall which connects the first and the second wall .
A corrosion inhibition package for use with an aqueous acid composition, said package comprising: - 2% to 25% by volume of the total volume of the corrosion inhibition package of a terpene selected from the group consisting of citral, ionone, ocimene, and cymene; - 20% to 55% by volume of the total volume of the corrosion inhibition package of a propargyl alcohol or derivative thereof; - at least one amphoteric surfactant selected from the group consisting of a sultaine surfactant, a betaine surfactant, and combinations thereof; - an anionic surfactant selected from the group consisting of a carboxylic surfactant and a sulfonic surfactant; and - 10% to 45% by volume of the total volume of the corrosion inhibition package of a solvent selected from the group consisting of: isopropanol; methanol; ethanol; 2-butoxyethanol; diethylene glycol; Di-n-hexyl-ether; and combinations thereof. - 2% to 25% by volume of the total volume of the corrosion inhibition package of a terpene selected from the group consisting of citral, ionone, ocimene, and cymene; - 20% to 55% by volume of the total volume of the corrosion inhibition package of a propargyl alcohol or derivative thereof; - at least one amphoteric surfactant selected from the group consisting of a sultaine surfactant, a betaine surfactant, and combinations thereof; - an anionic surfactant selected from the group consisting of a carboxylic surfactant and a sulfonic surfactant; and - 10% to 45% by volume of the total volume of the corrosion inhibition package of a solvent selected from the group consisting of: isopropanol; methanol; ethanol; 2-butoxyethanol; diethylene glycol; Di-n-hexyl-ether; and combinations thereof.
A method of production of a nitrile group-containing copolymer rubber comprising a metathesis reaction of a nitrile group-containing copolymer rubber in the presence of a chain transfer agent which has at least one double bond and at least one carboxyl group or in the presence of a chain transfer agent which has two or more double bonds.
A method for operating a base station of a wireless communication network, the base station comprising an antenna array having a plurality of antennas configured to communicate wirelessly with terminal devices (20; 41-44) positioned within a coverage area (30; 50) of the base station , a spatial transmission characteristic of the antenna array being configurable by applying precoding information, the method comprising: - determining the precoding information for concentrating a radio frequency power of a transmitted radio frequency signal to a group of terminal devices (41-44) arranged in a sub area (31-39; 51-55) of the coverage area (30; 50) of the base station , - applying the determined precoding information to the antenna array , - transmitting, from the base station to the group of terminal devices (41-44), a synchronization signal using the precoding information, - receiving time interval information from at least one terminal device of the group of terminal devices (41-44), the time interval information indicating a required maximum time interval for synchronizing the at least one terminal device, and - determining, based on the time interval information, schedule information indicating a schedule for transmitting the synchronization signal using the precoding information. - determining the precoding information for concentrating a radio frequency power of a transmitted radio frequency signal to a group of terminal devices (41-44) arranged in a sub area (31-39; 51-55) of the coverage area (30; 50) of the base station , - applying the determined precoding information to the antenna array , - transmitting, from the base station to the group of terminal devices (41-44), a synchronization signal using the precoding information, - receiving time interval information from at least one terminal device of the group of terminal devices (41-44), the time interval information indicating a required maximum time interval for synchronizing the at least one terminal device, and - determining, based on the time interval information, schedule information indicating a schedule for transmitting the synchronization signal using the precoding information.
A composition for forming an organic film, comprising a condensate (A), which is a condensation product of dihydroxynaphthalene shown by the following formula and a condensation agent, or a derivative of the condensate (A), wherein a sulfur content among constituent elements contained in the condensate (A) or the derivative of the condensate (A) is 100 ppm or less in terms of mass, wherein R 1 and R 2 each independently represent a hydrogen atom or an optionally substituted, saturated or unsaturated monovalent organic group having 1 to 30 carbon atoms; 0≤m≤2, 0≤n≤2, and m+n=2.
Multi-donor human serum product comprising insulin-like growth factors (IGFs) bound in macromolecular complexes of a molecular size of 30 kDa or more, the product comprising 20 ng/ml IGF-1 or more, the product comprising less than 70 mg/dl monosaccharides, wherein the product is optionally an isotonic solution or an isotonic gel. the product comprising less than 70 mg/dl monosaccharides, wherein the product is optionally an isotonic solution or an isotonic gel.
A semiconductor, vertical, extended-cavity, surface-emitting laser array with intra-cavity nonlinear frequency doubling, comprising: an electrically pumped, surface-emitting semiconductor gain chip having an array of emitters formed in a common semiconductor substrate, each emitter generating light about a fundamental wavelength; a single end reflector spaced apart from said surface-emitting semiconductor gain chip to define an extended cavity for each of said array of emitters, said end reflector having a high reflectivity at the fundamental laser wavelength; a nonlinear crystal disposed within the extended cavity to provide frequency doubling of light for the entire array of emitters; a wavelength control element disposed within the extended cavity to provide wavelength control for the entire array of emitters; and a polarization control element disposed within the extended cavity to provide polarization control for the entire array of emitters; said surface-emitting laser array having an optical unit having the functionality of at least two of said gain chip, said end reflector, said nonlinear crystal, said wavelength control element, and said polarization control element to reduce the number of components that must be aligned during packaging. an electrically pumped, surface-emitting semiconductor gain chip having an array of emitters formed in a common semiconductor substrate, each emitter generating light about a fundamental wavelength; a single end reflector spaced apart from said surface-emitting semiconductor gain chip to define an extended cavity for each of said array of emitters, said end reflector having a high reflectivity at the fundamental laser wavelength; a nonlinear crystal disposed within the extended cavity to provide frequency doubling of light for the entire array of emitters; a wavelength control element disposed within the extended cavity to provide wavelength control for the entire array of emitters; and a polarization control element disposed within the extended cavity to provide polarization control for the entire array of emitters; said surface-emitting laser array having an optical unit having the functionality of at least two of said gain chip, said end reflector, said nonlinear crystal, said wavelength control element, and said polarization control element to reduce the number of components that must be aligned during packaging.
Burner component , particularly a swirler vane or a fuel lance for a burner of a gas turbine engine, comprising - a first fuel channel to guide a first fluid during operation, the first fluid being a first fuel or purge fluid; - a second fuel channel to guide a second fluid during operation, the second fluid being a second fuel or purge fluid, wherein the second fuel channel is free of passages to the first fuel channel ; - at least one first hole to provide a first passage from the first fuel channel through a wall of the burner component for supplying the first fluid into a burner space during operation; - at least one second hole to provide a second passage from the second fuel channel through the wall of the burner component for supplying the second fluid into the burner space during operation; wherein the burner component further comprises a helically shaped separating barrier between the first fuel channel and the second fuel channel ; characterized in that said barrier comprises at least two helicoid walls twisted around a common centre line being displaced to another along the common centre line ; wherein the helicoid walls are arranged between the first fuel channel and the second fuel channel , so that the first fuel channel and the second fuel channel define a double-start thread or are arranged with further fluid channels as intertwined multiple helices, wherein the helicoid walls are integrally formed within the burner component and produced via additive manufacturing. - a first fuel channel to guide a first fluid during operation, the first fluid being a first fuel or purge fluid; - a second fuel channel to guide a second fluid during operation, the second fluid being a second fuel or purge fluid, wherein the second fuel channel is free of passages to the first fuel channel ; - at least one first hole to provide a first passage from the first fuel channel through a wall of the burner component for supplying the first fluid into a burner space during operation; - at least one second hole to provide a second passage from the second fuel channel through the wall of the burner component for supplying the second fluid into the burner space during operation; wherein the burner component further comprises a helically shaped separating barrier between the first fuel channel and the second fuel channel ; characterized in that said barrier comprises at least two helicoid walls twisted around a common centre line being displaced to another along the common centre line ;
A method to form a multilayer stack with enhanced conductivity and stability, wherein the multilayer stack is for de-icing of a component of an aircraft, rotorcraft or windturbine, the method comprising: depositing an insulating layer on a substrate ; forming a conductive polymer layer on the insulating layer ; and repeating deposition of a respective insulating layer , and formation of a respective conductive polymer layer to form the multilayer stack of respective conductive polymer layers interposed between respective insulating layers, wherein each respective conductive polymer layer has a respective electrical resistance, the method further comprising electrically connecting the respective conductive polymer layers in parallel, such that a resultant electrical resistance of the respective conductive polymer layers is less than each respective electrical resi stance, wherein repeating deposition of a respective insulating layer, and formation of a respective conductive polymer layer to form a multilayer stack comprises forming the multilayer stack to modify electrical resistivity over the substrate when the conductive polymer layers are connected in parallel to a power source , wherein forming the multilayer stack to modify the electrical resistivity over the substrate comprises depositing conductive polymer layers having a different conductive polymer at different locations on the substrate , wherein forming the conductive polymer layer comprises forming the conductive polymer layer to include an intrinsic conductive polymer. depositing an insulating layer on a substrate ; forming a conductive polymer layer on the insulating layer ; and repeating deposition of a respective insulating layer , and formation of a respective conductive polymer layer to form the multilayer stack of respective conductive polymer layers interposed between respective insulating layers, wherein each respective conductive polymer layer has a respective electrical resistance, the method further comprising electrically connecting the respective conductive polymer layers in parallel, such that a resultant electrical resistance of the respective conductive polymer layers is less than each respective electrical resi stance, wherein repeating deposition of a respective insulating layer, and formation of a respective conductive polymer layer to form a multilayer stack comprises forming the multilayer stack to modify electrical resistivity over the substrate when the conductive polymer layers are connected in parallel to a power source , wherein forming the multilayer stack to modify the electrical resistivity over the substrate comprises depositing conductive polymer layers having a different conductive polymer at different locations on the substrate , wherein forming the conductive polymer layer comprises forming the conductive polymer layer to include an intrinsic conductive polymer.
A method for verifying the authenticity of a message, performed by a verification server, wherein the verification server can access a delivery message record, the delivery message record comprising identifiers of receiver users and feature information of multiple delivery messages, the method comprising: receiving , from a terminal device, a request to verify a message, wherein the request comprises an identifier of a receiver user and verification information of the message to be verified, wherein the verification information of the message to be verified comprises i) an anti-forgery code in the message to be verified and ii) message content of the message to be verified, wherein the anti-forgery code comprises the last 4 digits of a hash value obtained by applying a predetermined hash algorithm to i) an identifier of the message and ii) a time at which the message to be verified was generated by a message server; generating a content feature value of the message to be verified based on the message content of the message to be verified using a predetermined algorithm; and returning a verification success response to the terminal device when the delivery message record has a delivery message that has i) the same identifier of the receiver user as the message to be verified and ii) feature information comprising an anti-forgery code and a content feature value that match the anti-forgery code and generated content feature value of the message to be verified. receiving , from a terminal device, a request to verify a message, wherein the request comprises an identifier of a receiver user and verification information of the message to be verified, wherein the verification information of the message to be verified comprises i) an anti-forgery code in the message to be verified and ii) message content of the message to be verified, wherein the anti-forgery code comprises the last 4 digits of a hash value obtained by applying a predetermined hash algorithm to i) an identifier of the message and ii) a time at which the message to be verified was generated by a message server; generating a content feature value of the message to be verified based on the message content of the message to be verified using a predetermined algorithm; and returning a verification success response to the terminal device when the delivery message record has a delivery message that has i) the same identifier of the receiver user as the message to be verified and ii) feature information comprising an anti-forgery code and a content feature value that match the anti-forgery code and generated content feature value of the message to be verified.
An impact wrench comprising: - an electric motor comprising a rotor and a stator; - a rebound type impact mechanism - means for controlling the power supply of said motor comprising means for regulating the power supply current of said motor; said rotor of said motor being directly linked to said impact mechanism, characterised in that said means for controlling the power supply of said motor are configured to output to said means for regulating, during a screwing or unscrewing operation, a setpoint of the power supply current of the motor inducing the generation of a predetermined electromagnetic torque by said motor, and in that said means for controlling the power supply of said motor are configured to power said motor in the working direction including during the rebound of the rebound type impact mechanism. - an electric motor comprising a rotor and a stator; - a rebound type impact mechanism - means for controlling the power supply of said motor comprising means for regulating the power supply current of said motor;
Metering device for anaesthetic in a respiratory gas flow, having a flow channel for the respiratory gas flow containing the anaesthetic, a control unit and a first temperature sensor , wherein the metering device has a feed device with an anaesthetic evaporation surface arranged in the flow channel , wherein the first temperature sensor detects the temperature of the evaporation surface and transmits a first temperature signal (T1) to the control unit , characterized in that the metering device has a second temperature sensor , which detects the temperature of the respiratory gas flow in the flow channel and transmits a second temperature signal (T2) to the control unit , and wherein the control unit is configured to control an anaesthetic concentration by means of the first temperature signal (T1) and second temperature signal (T2).
A method of grinding a skive-machining cutter having a plurality of cutting blade portions formed by forming a plurality of groove portions helically about a rotational axis (X) in an outer circumference of a material so that the plurality of cutting blade portions are arranged at positions between respective adjacent pairs of the groove portions and radially about the rotational axis (X), the method comprising: a first grinding step for grinding one of a pair of blade lateral faces facing the groove portion with using a disc-like first grindstone (W1) having a grinding face having a shape along the one blade lateral face and driven to rotate for the grinding operation; a second grinding step for grinding the other of the pair of blade lateral faces with using a disc-like second grindstone (W2) having a grinding face having a shape along the other blade lateral face and driven to rotate for the grinding operation; and a third grinding step for grinding a blade tip face in a region extending from the pair of blade lateral faces to a projecting side of the cutting blade portion ; wherein an order is set such that the third grinding step is effected after the first grinding step and the second grinding step; and wherein in the third grinding step, a grinding operation is effected such that the blade tip face formed by grinding is formed steplessly continuous with the one blade lateral face formed by the first grinding step and the other blade lateral face formed by the second grinding step. a first grinding step for grinding one of a pair of blade lateral faces facing the groove portion with using a disc-like first grindstone (W1) having a grinding face having a shape along the one blade lateral face and driven to rotate for the grinding operation; a second grinding step for grinding the other of the pair of blade lateral faces with using a disc-like second grindstone (W2) having a grinding face having a shape along the other blade lateral face and driven to rotate for the grinding operation; and a third grinding step for grinding a blade tip face in a region extending from the pair of blade lateral faces to a projecting side of the cutting blade portion ; wherein an order is set such that the third grinding step is effected after the first grinding step and the second grinding step; and wherein in the third grinding step, a grinding operation is effected such that the blade tip face formed by grinding is formed steplessly continuous with the one blade lateral face formed by the first grinding step and the other blade lateral face formed by the second grinding step.
A system comprising one or more media devices , two or more data collectors each including a sensor, and a media studio including a processor and a memory , the memory storing instructions executable by the processor such that the processor is programmed to: receive one or more media input items from one or more respective media devices ; receive data representing a value respectively for two or more excitement level parameters of a respective operator for each of the one or more media devices , wherein the value includes a sum of respective products of an associated correction coefficient and an associated sensor output for each of the two or more excitement level parameters, the correction coefficient accounting for a comparison between the associated sensor output for each of the two or more excitement level parameters of a respective operator under predetermined stimulation conditions and generic values for similar measurements of the general population; and generate a media output item based at least in part on the one or more received media input items, and further based at least in part on the data representing the respective value for the two or more excitement level parameters for the respective operators. receive one or more media input items from one or more respective media devices ; receive data representing a value respectively for two or more excitement level parameters of a respective operator for each of the one or more media devices , wherein the value includes a sum of respective products of an associated correction coefficient and an associated sensor output for each of the two or more excitement level parameters, the correction coefficient accounting for a comparison between the associated sensor output for each of the two or more excitement level parameters of a respective operator under predetermined stimulation conditions and generic values for similar measurements of the general population; and generate a media output item based at least in part on the one or more received media input items, and further based at least in part on the data representing the respective value for the two or more excitement level parameters for the respective operators.