mhurhangee/patent-ind-claim-en huggingface dataset:
A backrest for a chair or seat to stimulate subtle movements in the back muscles, wherein the backrest consists of a central phoronomic element of two column straps , which are intended to extend upwards from the center of the rear end of the sitting surface , and which can be fastened to the chair or seat for this purpose, and of a number of phoronomic elements , which protrude laterally like ribs on both sides from the central phoronomic element , in each case of two transverse straps to support the back muscles of the sitting person by means of the front transverse straps on both sides of the person's spine, characterized in that the backrest consists of a central phoronomic element , which extends upwards from the center of the rear end of the sitting surface , wherein it is embodied so as to be capable of being tilted backwards with adjustable resistance, and wherein its front column strap can be bent so as to follow the course of a spine, in that connecting webs are embodied so as to be longitudinally changeable to the rear column strap , or to be adjustable in an articulated manner or that their articulation on the opposite insides of the column straps on the column straps are embodied in a longitudinally displaceable manner, so that they define the distance of the column straps in relaxed position and said front column strap changes in shape and length in accordance with the arrangement and embodiment of the connecting webs in response to local pressure thereon, and wherein, starting at the front column strap on both sides, a plurality of transverse strips , are integrally molded like ribs on both sides of the spine of the sitting person to support the back sections, are in each case connected via webs to rear transverse strips , which, in turn, are integrally molded on the front or rear column strap , and wherein these connecting webs are also embodied so as to be longitudinally changeable or adjustable in an articulated manner or that their articulations to the transverse strips thereon are embodied in a longitudinally displaceable manner, so that these webs define the distance of the transverse strips in relaxed position and the front transverse straps change in shape and length in accordance with the arrangement and embodiment of the connecting webs in response to local pressure thereon.
A method of providing access to digital resources using multiple user identities, the method comprising: receiving, by an application connector, from a client application, a first set of authentication tokens that authorize a user of the client application to acquire target data provided by a server application; receiving, by the application connector, from the client application, a second set of authentication tokens that authorize the user to access a connected application; sending, from the application connector, to the server application, a first request to acquire the target data provided by the server application, the first request including the first set of authentication tokens and an identifier of the target data; receiving, by the application connector, from the server application, the target data; and sending the target data from the application connector to the connected application in a second request that also includes the second set of authentication tokens; characterized in that the first and second sets of authentication tokens are received in a single communication sent from the client application to the application connector. receiving, by an application connector, from a client application, a first set of authentication tokens that authorize a user of the client application to acquire target data provided by a server application; receiving, by the application connector, from the client application, a second set of authentication tokens that authorize the user to access a connected application; sending, from the application connector, to the server application, a first request to acquire the target data provided by the server application, the first request including the first set of authentication tokens and an identifier of the target data; receiving, by the application connector, from the server application, the target data; and sending the target data from the application connector to the connected application in a second request that also includes the second set of authentication tokens; characterized in that the first and second sets of authentication tokens are received in a single communication sent from the client application to the application connector.
Method for determining a carrier lifetime in at least one point of a surface of a sample , with the method comprising the following steps: - in the absence of illumination, measuring, at the point, a parameter P representing the charge carriers in the sample via an atomic force microscopy technique in such a way as to obtain a value P dark ; - illuminating the point with a continuous light beam; - measuring, at the point, the parameter P representing the charge carriers in the sample via the atomic force microscopy technique in such a way as to obtain a value P sat ; - successively illuminating the point with continuous modulated light beams each having a different frequency ƒ i , the frequency f i varying from one modulated light beam to the next, with the frequencies f i being between a minimum frequency f min and a maximum frequency f max, with the modulated light beams having a duty cycle D being defined the ratio between the duration of illumination and the sum of the duration of illumination and of extinction during a cycle; - for each modulated light beam, measuring, at the point, the parameter P representing the charge carriers in the sample via the atomic force microscopy technique in such a way as to obtain a value P trans i for each frequency f i ; - calculating using a quadrature formula an interpolation S, at the point, of a curve representing P trans i according to the frequencies f i ; - calculating the carrier lifetime, at the point, by using the following formula: τ = x 0 2 2 + x 0 D − 1 − K S P sat − P dark − 1 + D f max Wherein X o and K are constants. - in the absence of illumination, measuring, at the point, a parameter P representing the charge carriers in the sample via an atomic force microscopy technique in such a way as to obtain a value P dark ; - illuminating the point with a continuous light beam; - measuring, at the point, the parameter P representing the charge carriers in the sample via the atomic force microscopy technique in such a way as to obtain a value P sat ; - successively illuminating the point with continuous modulated light beams each having a different frequency ƒ i , the frequency f i varying from one modulated light beam to the next, with the frequencies f i being between a minimum frequency f min and a maximum frequency f max, with the modulated light beams having a duty cycle D being defined the ratio between the duration of illumination and the sum of the duration of illumination and of extinction during a cycle; - for each modulated light beam, measuring, at the point, the parameter P representing the charge carriers in the sample via the atomic force microscopy technique in such a way as to obtain a value P trans i for each frequency f i ; - calculating using a quadrature formula an interpolation S, at the point, of a curve representing P trans i according to the frequencies f i ; - calculating the carrier lifetime, at the point, by using the following formula: τ = x 0 2 2 + x 0 D − 1 − K S P sat − P dark − 1 + D f max Wherein X o and K are constants.
Method for operating a communication network , wherein the communication network comprises a plurality of subscribers , wherein data are interchanged in the communication network between the subscribers in the form of telegrams , wherein the telegrams have a plurality of data sections , wherein the subscribers interpret an end region of the telegrams as a check value for checking that preceding data sections of the telegrams do not have any errors, wherein the telegrams are processed on-the-fly by the subscribers , with the result that the telegrams are received by the subscribers and are forwarded to a next subscriber in each case during reception, wherein, if an error in a telegram is determined when receiving the telegram , the subscribers transmit the telegram to a next subscriber with a characterizing data section of the telegram at its end, with the result that the telegram transmitted to the next subscriber has an end region which represents an invalid check value, and wherein, with the aid of the characterizing data section , the telegram for the next subscriber is characterized such that the telegram should be taken into account as a subsequent error rather than an initial error, characterized in that the characterizing data section is part of that end region of the telegram which is interpreted as a check value. wherein data are interchanged in the communication network between the subscribers in the form of telegrams , wherein the telegrams have a plurality of data sections , wherein the subscribers interpret an end region of the telegrams as a check value for checking that preceding data sections of the telegrams do not have any errors, wherein the telegrams are processed on-the-fly by the subscribers , with the result that the telegrams are received by the subscribers and are forwarded to a next subscriber in each case during reception, wherein, if an error in a telegram is determined when receiving the telegram , the subscribers transmit the telegram to a next subscriber with a characterizing data section of the telegram at its end, with the result that the telegram transmitted to the next subscriber has an end region which represents an invalid check value, and wherein, with the aid of the characterizing data section , the telegram for the next subscriber is characterized such that the telegram should be taken into account as a subsequent error rather than an initial error, characterized in that the characterizing data section is part of that end region of the telegram which is interpreted as a check value.
A water-based metal fine particle dispersion, comprising metal fine particles (a) dispersed with a dispersant B, in which: the dispersant B comprises a vinyl-based polymer (b) comprising a constitutional unit derived from a hydrophobic monomer (b-1), a constitutional unit derived from a carboxy group-containing monomer (b-2) and a constitutional unit derived from a polyalkylene glycol segment-containing monomer (b-3), in an amount of not less than 85% by mass; the metal fine particles (a) have a cumulant average particle size of not less than 2 nm and not more than 50 nm wherein cumulant average particle size is measured using a laser particle analyzing system, where the measurement is conducted at 25°C using an angle between incident light and detector of 90° and a cumulative number of 100 times, wherein the refractive index of water (1.333) is input to the analyzing system as the refractive index of the dispersing medium, and wherein the concentration of the sample to be measured is controlled to be 5 x 10 -3 % by mass in terms of a solid content thereof; a concentration of metal in the water-based metal fine particle dispersion is not less than 30% by mass and not more than 80% by mass; and a mass ratio of the dispersant B to a sum of the dispersant B and the metal [dispersant B/(dispersant B + metal)] is not less than 0.01 and not more than 0.3. the dispersant B comprises a vinyl-based polymer (b) comprising a constitutional unit derived from a hydrophobic monomer (b-1), a constitutional unit derived from a carboxy group-containing monomer (b-2) and a constitutional unit derived from a polyalkylene glycol segment-containing monomer (b-3), in an amount of not less than 85% by mass; the metal fine particles (a) have a cumulant average particle size of not less than 2 nm and not more than 50 nm wherein cumulant average particle size is measured using a laser particle analyzing system, where the measurement is conducted at 25°C using an angle between incident light and detector of 90° and a cumulative number of 100 times, wherein the refractive index of water (1.333) is input to the analyzing system as the refractive index of the dispersing medium, and wherein the concentration of the sample to be measured is controlled to be 5 x 10 -3 % by mass in terms of a solid content thereof; a concentration of metal in the water-based metal fine particle dispersion is not less than 30% by mass and not more than 80% by mass; and a mass ratio of the dispersant B to a sum of the dispersant B and the metal [dispersant B/(dispersant B + metal)] is not less than 0.01 and not more than 0.3.
A fungicidal composition having synergistic effect, comprising active components A and B, wherein the active component A is a compound having a structure of Formula (I) below, and the active component B is mancozeb; and the weight ratio between the two components is 1:3-300, wherein in Formula (I), R is selected from H or C 1 -C 8 alkyl.
A hearing assistance device comprising - a housing component including a transceiver and processing circuitry arranged in a compact block structure ; and - an antenna element embedded into walls of the housing component ; - a small loop element mounted on the compact block structure for feeding the antenna element via an electromagnetic coupling, wherein the small loop element extends along the periphery of the compact block structure substantially orthogonal to a longitudinal axis of the compact block structure , and the antenna element encloses the small loop element along at least half of the periphery and wherein the small loop element is a small feed loop with a circumference being between 5% and 20% of a wavelength of operation of the antenna element, preferably approximately one tenth of the wavelength of operation of the antenna element. - a housing component including a transceiver and processing circuitry arranged in a compact block structure ; and - an antenna element embedded into walls of the housing component ; - a small loop element mounted on the compact block structure for feeding the antenna element via an electromagnetic coupling, wherein the small loop element extends along the periphery of the compact block structure substantially orthogonal to a longitudinal axis of the compact block structure , and the antenna element encloses the small loop element along at least half of the periphery and wherein the small loop element is a small feed loop with a circumference being between 5% and 20% of a wavelength of operation of the antenna element, preferably approximately one tenth of the wavelength of operation of the antenna element.
Method for disinfecting a user space (BR) in a vehicle (FZ), in which a disinfection process (CLN) is carried out in the user space (BR), wherein • the disinfection process (CLN) is carried out automatically, • prior to the disinfection process (CLN) being carried out automatically, an assessment is made in a computer-assisted manner as to whether the user space (BR) is unoccupied by users, wherein the disinfection process (CLN) is only started if the assessment produces the result that the user space (BR) is unoccupied by users • the disinfection process (CLN) is carried out by a mobile unit configured as a robot (RB) being guided through the user space (BR) by way of a control system integrated in the robot (RB), characterised in that the robot (RB) communicates with the automatic train control system (ATC) of the vehicle (FZ) via an interface (S1 ... S10). • the disinfection process (CLN) is carried out automatically, • prior to the disinfection process (CLN) being carried out automatically, an assessment is made in a computer-assisted manner as to whether the user space (BR) is unoccupied by users, wherein the disinfection process (CLN) is only started if the assessment produces the result that the user space (BR) is unoccupied by users • the disinfection process (CLN) is carried out by a mobile unit configured as a robot (RB) being guided through the user space (BR) by way of a control system integrated in the robot (RB),
Optical device for a vehicle comprising: a circuit board on which at least one optoelectronic device (210 to 220) and at least one recess are arranged, an optical element that is arranged on the at least one optoelectronic device (210 to 220), and at least one aligning device , each aligning device comprising at least two aligning elements , wherein the at least one aligning device aligns the optical device with regard to the at least one optoelectronic device by engagement within a first recess , wherein a first aligning element of a first aligning device of the at least one aligning device is arranged on the optical element and is formed as a first flexible element that exerts a pressure force onto the first recess , and wherein a second aligning element of the first aligning device is arranged on the optical element and formed as a rigid element within the first recess . a circuit board on which at least one optoelectronic device (210 to 220) and at least one recess are arranged, an optical element that is arranged on the at least one optoelectronic device (210 to 220), and at least one aligning device , each aligning device comprising at least two aligning elements , wherein the at least one aligning device aligns the optical device with regard to the at least one optoelectronic device by engagement within a first recess , wherein a first aligning element of a first aligning device of the at least one aligning device is arranged on the optical element and is formed as a first flexible element that exerts a pressure force onto the first recess , and wherein a second aligning element of the first aligning device is arranged on the optical element and formed as a rigid element within the first recess .
A terminal device comprising: a downlink subframe processing unit configured to detect a physical downlink control channel, PDCCH, with a downlink control information, DCI, transmitted by a base station device , wherein upon detecting the PDCCH in a subframe of a secondary cell in which a frame structure type 3 is used, the terminal device recognizes a configuration of mapped OFDM symbols in the subframe of the secondary cell according to the DCI in the detected PDCCH in the subframe, and receive, on the mapped OFDM symbols, a downlink channel and/or a downlink signal transmitted by the base station device . a downlink subframe processing unit configured to detect a physical downlink control channel, PDCCH, with a downlink control information, DCI, transmitted by a base station device , wherein upon detecting the PDCCH in a subframe of a secondary cell in which a frame structure type 3 is used, the terminal device recognizes a configuration of mapped OFDM symbols in the subframe of the secondary cell according to the DCI in the detected PDCCH in the subframe, and receive, on the mapped OFDM symbols, a downlink channel and/or a downlink signal transmitted by the base station device .
Process for reducing thermally induced discoloration of fluoropolymer resin, said fluoropolymer resin produced by polymerizing fluoromonomer in an aqueous medium to form aqueous fluoropolymer dispersion and isolating said fluoropolymer from said aqueous medium to obtain said fluoropolymer resin, said process comprising: heating the fluoropolymer resin to a temperature of 160°C to 400°C; and exposing the heated fluoropolymer resin to an oxygen source; wherein said aqueous fluoropolymer dispersion contains hydrocarbon surfactant which causes said thermally induced discoloration; and wherein oxygen source means any chemical source of oxygen capable of reacting as an oxidizing agent. heating the fluoropolymer resin to a temperature of 160°C to 400°C; and exposing the heated fluoropolymer resin to an oxygen source; wherein said aqueous fluoropolymer dispersion contains hydrocarbon surfactant which causes said thermally induced discoloration; and wherein oxygen source means any chemical source of oxygen capable of reacting as an oxidizing agent.
A method for preparing emulsions, wherein in a first step, at least one pre-emulsion is prepared from at least two non-intermixable liquids, and then in a second step, in a microjet reactor, at least two liquid streams of the at least one pre-emulsion are pumped through separate nozzles with defined diameters, characterized in that the pressure of the liquid jets is between 5 and 500 bar, in order to achieve flow velocity of the liquid streams of more than 10 m/sec., and in that the liquid streams collide at a collision point in a space, wherein the space is filled or pressurized with gas and the gas pressure in the space is 0.05 to 30 bar.
A cell access resource indication method performed by a base station or a processor of the base station, comprising: sending a synchronization signal of a current cell on an actual access resource; and sending a broadcast channel on a broadcast channel resource corresponding to the actual access resource, wherein the broadcast channel carries resource indication information, and the resource indication information indicates a location relationship between the actual access resource and a preset resource of the current cell; wherein the location relationship is a frequency interval between a resource location of the actual access resource and a location of the preset resource of the current cell. sending a synchronization signal of a current cell on an actual access resource; and sending a broadcast channel on a broadcast channel resource corresponding to the actual access resource, wherein the broadcast channel carries resource indication information, and the resource indication information indicates a location relationship between the actual access resource and a preset resource of the current cell; wherein the location relationship is a frequency interval between a resource location of the actual access resource and a location of the preset resource of the current cell.