mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting and/or discriminating between variants of an antibody in a sample by a physical parameter, comprising: separating protein components of a sample comprising an antibody of interest by molecular weight or charge in one or more capillaries using capillary electrophoresis; immobilizing the protein components of the sample within the one or more capillaries; contacting the protein components within the one or more capillaries with two or more primary antibodies that specifically bind to the antibody of interest; and detecting the binding of the two or more primary antibodies, characterized by the detection of and/or discrimination between size variants or charge variants of the antibody of interest in the sample. separating protein components of a sample comprising an antibody of interest by molecular weight or charge in one or more capillaries using capillary electrophoresis; immobilizing the protein components of the sample within the one or more capillaries; contacting the protein components within the one or more capillaries with two or more primary antibodies that specifically bind to the antibody of interest; and detecting the binding of the two or more primary antibodies, characterized by the detection of and/or discrimination between size variants or charge variants of the antibody of interest in the sample.
An acoustic multiple-input multiple-output system with M microphones and K loudspeakers comprising: K ≥ 1 equalizing filter modules that are arranged in signal paths downstream of an input signal path, the input signal path being supplied with an input signal, wherein the equalizing filter modules have controllable transfer functions, and K filter control modules that are configured to control the transfer functions of the equalizing filter modules according to an adaptive control algorithm based on M>1 error signals and the input signal on the input signal path, characterized in that the adaptive control algorithm comprises a windowed magnitude constraint with an integrated post-ringing constraint, the magnitude constraint and post-ringing constraint being psychoacoustic constraints that are configured to model psychoacoustic properties of a human ear, wherein the filter control modules are configured to iteratively adapt the transfer functions of each of the K equalizing filter modules ; further characterized in that the windowed magnitude constraint with the integrated post-ringing constraint is configured to input a set of cosine signals with equidistant frequencies and equal amplitudes into the K equalizing filter modules upon adaption, weight a signal output by the filter modules with a frequency-dependent windowing function, sum up the filtered and windowed cosine signals to provide a sum signal, and scale the sum signal to provide an updated impulse response of the K equalizing filter modules for controlling the transfer function of the K equalizing filter modules . K ≥ 1 equalizing filter modules that are arranged in signal paths downstream of an input signal path, the input signal path being supplied with an input signal, wherein the equalizing filter modules have controllable transfer functions, and K filter control modules that are configured to control the transfer functions of the equalizing filter modules according to an adaptive control algorithm based on M>1 error signals and the input signal on the input signal path, characterized in that the adaptive control algorithm comprises a windowed magnitude constraint with an integrated post-ringing constraint, the magnitude constraint and post-ringing constraint being psychoacoustic constraints that are configured to model psychoacoustic properties of a human ear, wherein the filter control modules are configured to iteratively adapt the transfer functions of each of the K equalizing filter modules ; further characterized in that the windowed magnitude constraint with the integrated post-ringing constraint is configured to input a set of cosine signals with equidistant frequencies and equal amplitudes into the K equalizing filter modules upon adaption, weight a signal output by the filter modules with a frequency-dependent windowing function, sum up the filtered and windowed cosine signals to provide a sum signal, and scale the sum signal to provide an updated impulse response of the K equalizing filter modules for controlling the transfer function of the K equalizing filter modules .
A T cell activating bispecific antigen binding molecule for use in a method for treating cancer, wherein the T cell activating bispecific antigen binding molecule is used in combination with a PD-1 axis binding antagonist, wherein the T cell activating bispecific antigen binding molecule comprises at least two antigen binding moieties, one of which is a crossover Fab molecule and one of which is a conventional Fab molecule, wherein the T cell activating bispecific antigen binding molecule further comprises an Fc domain composed of a first and second subunit capable of stable association, wherein the first antigen binding molecule comprises a first antigen binding moiety capable of binding to CD3 comprising at least one heavy chain complementarity determining region (CDR) amino acid sequence selected from the group consisting of SEQ ID NO: 37, SEQ ID NO: 38 and SEQ ID NO:39 and at least one light chain CDR selected from the group of SEQ ID NO: 32, SEQ ID NO: 33, SEQ ID NO: 34, wherein the first antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the first or the second subunit of the Fc domain and the second antigen binding moiety is fused at the C-terminus of the Fab heavy chain to the N-terminus of the Fab heavy chain of the first antigen binding moiety, wherein the PD-1 axis binding antagonist inhibits the binding of PD-1 to its ligand binding partners, wherein the PD-1 axis binding antagonist is selected from the group consisting of an anti-PD-1 antibody, an anti-PD-L1 antibody and an anti-PD-L2 antibody.
A method of manufacturing a liquid crystalline polymer film where diffraction optical noise is removed, comprising: a step (a) of forming a transparent lens structure having a reverse lens shape; a step (b) of forming a first liquid crystalline polymer film by coating an inner portion of the lens structure with a first photocurable monomer material, forming a groove structure on an upper surface thereof, and after that, performing photocuring at a predetermined first temperature; and a step (c) of forming a second liquid crystalline polymer film of which refractive index is matched with a refractive index of the first liquid crystalline polymer film by coating an upper portion of the first liquid crystalline polymer film with a second photocurable monomer material and performing photocuring at a predetermined second temperature, wherein the first temperature and the second temperature are determined as temperatures satisfying refractive index matching conditions of the first liquid crystalline polymer film and the second liquid crystalline polymer film. a step (a) of forming a transparent lens structure having a reverse lens shape; a step (b) of forming a first liquid crystalline polymer film by coating an inner portion of the lens structure with a first photocurable monomer material, forming a groove structure on an upper surface thereof, and after that, performing photocuring at a predetermined first temperature; and a step (c) of forming a second liquid crystalline polymer film of which refractive index is matched with a refractive index of the first liquid crystalline polymer film by coating an upper portion of the first liquid crystalline polymer film with a second photocurable monomer material and performing photocuring at a predetermined second temperature, wherein the first temperature and the second temperature are determined as temperatures satisfying refractive index matching conditions of the first liquid crystalline polymer film and the second liquid crystalline polymer film.
A sound dampening device comprising a frame , a rear layer and a front layer arranged on opposite sides of the frame , such that the frame , the rear layer and the front layer form an enclosed space, wherein a first sound absorbing layer is arranged between the rear layer and the front layer , wherein a cavity is formed between the rear layer and the first sound absorbing layer , and an air purifying device is arranged in fluid communication with said cavity , such that purified air from the air purifying device is supplied to the cavity via an inlet and is discharged through at least one opening in the first sound absorbing layer and at least one output zone in the front layer , wherein an air permeable distribution layer is arranged in the at least one opening in the first sound absorbing layer , such that the purified air is discharged through the front layer via the distribution layer , characterized in that the material of the first sound absorbing layer and the material of the distribution layer are configured such that the permeability is higher and the flow resistance is lower in the distribution layer than in the first sound absorbing layer .
A method for presenting a stage performance, comprising: i) animating an image of a water well on a stage backdrop , at the time an actor is standing on raised stairs that are positioned on a stage platform , in front of the stage backdrop to create a space between the raised stairs and the stage backdrop , leaps into the space, is hidden from an audience by the raised stairs and appears to enter the image of the water well and to exit the stage platform , wherein animating the image of a water well includes an image of water splashing out of the water well ; or ii) animating an image of a water well on a stage backdrop , at the time an actor hidden from an audience and located in a space between raised stairs positioned on a stage platform , in front of the stage backdrop to create the space between the raised stairs and the stage backdrop , leaps up from the space onto the raised stairs and enters onto the stage platform and appears to the audience as exiting the image of the water well , wherein animating the image of a water well includes an image of water splashing out of the water well . i) animating an image of a water well on a stage backdrop , at the time an actor is standing on raised stairs that are positioned on a stage platform , in front of the stage backdrop to create a space between the raised stairs and the stage backdrop , leaps into the space, is hidden from an audience by the raised stairs and appears to enter the image of the water well and to exit the stage platform , wherein animating the image of a water well includes an image of water splashing out of the water well ; or ii) animating an image of a water well on a stage backdrop , at the time an actor hidden from an audience and located in a space between raised stairs positioned on a stage platform , in front of the stage backdrop to create the space between the raised stairs and the stage backdrop , leaps up from the space onto the raised stairs and enters onto the stage platform and appears to the audience as exiting the image of the water well , wherein animating the image of a water well includes an image of water splashing out of the water well .
A circuit board assembly soldering apparatus , comprising a base plate , a pressing plate assembly , at least two bearing seats and at least two lasers , wherein the pressing plate assembly is oppositely provided above the base plate , the at least two bearing seats are mounted on the base plate , and the at least two bearing seats are located between the pressing plate assembly and the base plate ; the at least two bearing seats each comprise a workbench , the workbench is located on a side of the bearing seat that faces the pressing plate assembly , the workbench is provided with a positioning region, and the pressing plate assembly is configured to be pressed on a circuit board assembly placed in the positioning region on the workbench ; and the circuit board assembly comprises a first circuit board and a second circuit board that are stacked on the workbench , and the second circuit board is located on a side of the first circuit board that faces away from the workbench ; wherein the at least two bearing seats comprise at least one adjustable bearing seat , and a spacing between the workbench of the adjustable bearing seat and the base plate is adjustable; the at least two lasers comprise at least one first laser and at least one second laser ; the at least one first laser is provided on a side of the pressing plate assembly that faces away from the base plate , and laser light emitted by the at least one first laser penetrates the pressing plate assembly and is irradiated onto the circuit board assemblies on the workbenches to melt solder paste on the circuit board assemblies ; and the at least one second laser is provided on a side of the pressing plate assembly that faces the base plate , is located in a gap between adjacent bearing seats of the at least two bearing seats and is configured to perform laser cutting on the first circuit board . the at least two bearing seats comprise at least one adjustable bearing seat , and a spacing between the workbench of the adjustable bearing seat and the base plate is adjustable; the at least two lasers comprise at least one first laser and at least one second laser ; the at least one first laser is provided on a side of the pressing plate assembly that faces away from the base plate , and laser light emitted by the at least one first laser penetrates the pressing plate assembly and is irradiated onto the circuit board assemblies on the workbenches to melt solder paste on the circuit board assemblies ; and the at least one second laser is provided on a side of the pressing plate assembly that faces the base plate , is located in a gap between adjacent bearing seats of the at least two bearing seats and is configured to perform laser cutting on the first circuit board .
Method for using a cruise control system in a motor vehicle, with a speed setpoint that is able to be set by a driver on a setpoint generator, wherein, during the driving operation with an activated cruise control system (GRA) set to a speed setpoint (S1) on the setpoint generator, a first permissible maximum speed is additionally automatically detected, wherein this first permissible maximum speed is communicated to the driver as a recommendation for immediate adoption as new speed setpoint (S2), wherein an actuatable switching element is additionally activated for such immediate adoption as new speed setpoint (S2), and wherein, after the switching element has been actuated, the new speed setpoint (S2), which corresponds to the first, that is to say currently permissible maximum speed, is set and specified by the driver immediately on the cruise control system (GRA), characterized in that the first permissible maximum speed is communicated to the driver for adoption as new speed setpoint (S2) and the actuatable switching element is activated only if the value of the first permissible maximum speed is below the speed setpoint (S1) currently set by the driver, unless a second permissible maximum speed, which is lower than the first permissible maximum speed, had been detected and adopted previously. with a speed setpoint that is able to be set by a driver on a setpoint generator, wherein, during the driving operation with an activated cruise control system (GRA) set to a speed setpoint (S1) on the setpoint generator, a first permissible maximum speed is additionally automatically detected, wherein this first permissible maximum speed is communicated to the driver as a recommendation for immediate adoption as new speed setpoint (S2), wherein an actuatable switching element is additionally activated for such immediate adoption as new speed setpoint (S2), and wherein, after the switching element has been actuated, the new speed setpoint (S2), which corresponds to the first, that is to say currently permissible maximum speed, is set and specified by the driver immediately on the cruise control system (GRA), characterized in that the first permissible maximum speed is communicated to the driver for adoption as new speed setpoint (S2) and the actuatable switching element is activated only if the value of the first permissible maximum speed is below the speed setpoint (S1) currently set by the driver, unless a second permissible maximum speed, which is lower than the first permissible maximum speed, had been detected and adopted previously.
A wireless power transmission device comprising: at least one antenna for wireless power transmission disposed on one surface of a magnetic field shielding sheet; a support plate having at least one accommodation groove for accommodating the antenna for wireless power transmission; and an antenna for wireless communication disposed along a side surface of the support plate, wherein the support plate includes an arrangement groove which is formed inwardly into the side surface thereof so as to accommodate the antenna for wireless communication, and wherein the antenna for wireless communication is a conductive member wound a predetermined number of turns around the arrangement groove, wherein the support plate includes two through-holes formed to allow both ends of the antenna for wireless communication to pass therethrough, and wherein the two through-holes are respectively formed at positions staggered from each other with respect to a straight line parallel to a longitudinal direction of the support plate so that one of the through-holes is positioned inside of the support plate relative to the other one of the through-holes, wherein the other one of the through-holes is located at an edge side of the support plate. at least one antenna for wireless power transmission disposed on one surface of a magnetic field shielding sheet; a support plate having at least one accommodation groove for accommodating the antenna for wireless power transmission; and an antenna for wireless communication disposed along a side surface of the support plate, wherein the support plate includes an arrangement groove which is formed inwardly into the side surface thereof so as to accommodate the antenna for wireless communication, and wherein the antenna for wireless communication is a conductive member wound a predetermined number of turns around the arrangement groove, wherein the support plate includes two through-holes formed to allow both ends of the antenna for wireless communication to pass therethrough, and wherein the two through-holes are respectively formed at positions staggered from each other with respect to a straight line parallel to a longitudinal direction of the support plate so that one of the through-holes is positioned inside of the support plate relative to the other one of the through-holes, wherein the other one of the through-holes is located at an edge side of the support plate.
Device for isolating an electric accumulator, designed to isolate an electric accumulator from an electrical circuit while ensuring the continuity of this electrical circuit, characterized in that it comprises: - a first terminal (B1) for connecting the isolating device to an electric accumulator; - a second terminal (B2) for connecting the isolating device to an electric accumulator and to an electrical circuit; - a third terminal (B3) for connecting the isolating device to an electrical circuit; - a bridging chamber in which is arranged a bridging device which comprises two bridging conductors separated by a gap , one of the bridging conductors being attached to the second terminal (B2) and the other bridging conductor being attached to the third terminal (B3); - a fuse comprising a circuit-breaker conductor connected between the first terminal (B1) and the third terminal (B3), this circuit-breaker conductor being arranged in the bridging chamber , the fuse being calibrated to ensure that the circuit-breaker conductor melts when the intensity of the current passing through it exceeds a predetermined threshold value; - a reserve of fusible conductive material the melting temperature of which is lower than the melting temperature of the circuit-breaker conductor , the reserve of fusible conductive material being arranged in the bridging chamber and being designed to be transferred in the liquid state to the bridging device . - a first terminal (B1) for connecting the isolating device to an electric accumulator; - a second terminal (B2) for connecting the isolating device to an electric accumulator and to an electrical circuit; - a third terminal (B3) for connecting the isolating device to an electrical circuit; - a bridging chamber in which is arranged a bridging device which comprises two bridging conductors separated by a gap , one of the bridging conductors being attached to the second terminal (B2) and the other bridging conductor being attached to the third terminal (B3); - a fuse comprising a circuit-breaker conductor connected between the first terminal (B1) and the third terminal (B3), this circuit-breaker conductor being arranged in the bridging chamber , the fuse being calibrated to ensure that the circuit-breaker conductor melts when the intensity of the current passing through it exceeds a predetermined threshold value; - a reserve of fusible conductive material the melting temperature of which is lower than the melting temperature of the circuit-breaker conductor , the reserve of fusible conductive material being arranged in the bridging chamber and being designed to be transferred in the liquid state to the bridging device .