mhurhangee/patent-ind-claim-en huggingface dataset:
Computer comprising: a processor ; a display coupled to the processor; a camera coupled to the processor; an infrared sensor coupled to the processor; a computer readable storage medium accessible to the processor and bearing instructions embodying logic executable by the processor to: present in the display a sequence of user inputs permitting a user to select at least first input mode with associated first input parameter, the first input parameter being both face recognition and infrared (IR) sensing, the IR sensing comprising an IR level sensed by the infrared sensor that meets a threshold established to indicate the presence of a live person; and execute a behavior of the computer only when at least one subsequent input of the first input parameter is received from the camera and the infrared sensor as authentication. a processor ; a display coupled to the processor; a camera coupled to the processor; an infrared sensor coupled to the processor; a computer readable storage medium accessible to the processor and bearing instructions embodying logic executable by the processor to: present in the display a sequence of user inputs permitting a user to select at least first input mode with associated first input parameter, the first input parameter being both face recognition and infrared (IR) sensing, the IR sensing comprising an IR level sensed by the infrared sensor that meets a threshold established to indicate the presence of a live person; and execute a behavior of the computer only when at least one subsequent input of the first input parameter is received from the camera and the infrared sensor as authentication. present in the display a sequence of user inputs permitting a user to select at least first input mode with associated first input parameter, the first input parameter being both face recognition and infrared (IR) sensing, the IR sensing comprising an IR level sensed by the infrared sensor that meets a threshold established to indicate the presence of a live person; and execute a behavior of the computer only when at least one subsequent input of the first input parameter is received from the camera and the infrared sensor as authentication.
A computer-implemented method for generating a movement of a 3D part (PAR) of a 3D assembly (ASM) in a 3D scene, the movement of the 3D part comprising at least a rotation at the most by a predetermined angle, the method comprising the steps of: a) displaying a 3D assembly (ASM) of 3D parts in the 3D scene; b) upon user action, selecting a 3D part (PAR) of the 3D assembly (ASM); c) displaying in the 3D scene a 3D manipulator (MAN) comprising three axes (AX1, AX2, AX3), said 3D manipulator (MAN) being anchored to the 3D part (PAR) in an anchor point (ANP); d) upon user action, dragging the 3D manipulator (MAN) along one axis (AX1, AX2, AX3) of the 3D manipulator (MAN) by a current distance (CD) from the anchor point (ANP) on said one axis (AX1, AX2, AX3), the predetermined angle being associated to a maximum distance (MD) from the anchor point (ANP) such that the movement stops at the predetermined angle once the 3D manipulator (MAN) has been dragged beyond the maximum distance (MD); e) while dragging the 3D manipulator (MAN), computing a ratio of the current distance (CD) to the maximum distance (MD), and f) generating the movement of the 3D part by applying said ratio to the predetermined angle wherein the rotation around said one axis along which the 3D manipulator (MAN) is dragged is combined with a translation along said one axis along which the 3D manipulator (MAN) is dragged, said rotation combined with said translation representing a screwing or an unscrewing according to a predetermined thread pitch. a) displaying a 3D assembly (ASM) of 3D parts in the 3D scene; b) upon user action, selecting a 3D part (PAR) of the 3D assembly (ASM); c) displaying in the 3D scene a 3D manipulator (MAN) comprising three axes (AX1, AX2, AX3), said 3D manipulator (MAN) being anchored to the 3D part (PAR) in an anchor point (ANP); d) upon user action, dragging the 3D manipulator (MAN) along one axis (AX1, AX2, AX3) of the 3D manipulator (MAN) by a current distance (CD) from the anchor point (ANP) on said one axis (AX1, AX2, AX3), the predetermined angle being associated to a maximum distance (MD) from the anchor point (ANP) such that the movement stops at the predetermined angle once the 3D manipulator (MAN) has been dragged beyond the maximum distance (MD); e) while dragging the 3D manipulator (MAN), computing a ratio of the current distance (CD) to the maximum distance (MD), and f) generating the movement of the 3D part by applying said ratio to the predetermined angle
A method for hydrolytic cleavage of zearalenone and/or at least one zearalenone derivative by means of a hydrolytically cleaving polypeptide, characterized in that the zearalenone and/or at least one zearalenone derivative is hydrolysed by the polypeptide, which is a hydrolase having an amino acid sequence selected from the group of sequence ID numbers 2 to 6, in particular the sequence ID No. 6 or a functional variant thereof, wherein a sequence identity of at least 70 % exists between the functional variant and the amino acid sequence.
Method for locating an automated motor vehicle, comprising the steps of: - predefining a locating accuracy to be attained for the automated motor vehicle during operation, the automated motor vehicle requesting locating reference data for a defined location having the defined locating accuracy that is to be attained; - capturing surroundings data of the automated motor vehicle by means of a sensor device of the automated motor vehicle and combining the captured surroundings data with location information from a positioning device of the automated motor vehicle; - locating the automated motor vehicle by means of the locating reference data and the captured surroundings data, wherein an achieved locating accuracy is ascertained; characterized in that - the achieved locating accuracy is signalled to an external server device for the purpose of optimized transmission of the locating reference data; and - only such locating reference data as are required on the basis of the achieved locating accuracy in order to achieve the locating accuracy that is to be attained are transferred from the external server device to the automated motor vehicle. - predefining a locating accuracy to be attained for the automated motor vehicle during operation, the automated motor vehicle requesting locating reference data for a defined location having the defined locating accuracy that is to be attained; - capturing surroundings data of the automated motor vehicle by means of a sensor device of the automated motor vehicle and combining the captured surroundings data with location information from a positioning device of the automated motor vehicle; - locating the automated motor vehicle by means of the locating reference data and the captured surroundings data, wherein an achieved locating accuracy is ascertained; - the achieved locating accuracy is signalled to an external server device for the purpose of optimized transmission of the locating reference data; and - only such locating reference data as are required on the basis of the achieved locating accuracy in order to achieve the locating accuracy that is to be attained are transferred from the external server device to the automated motor vehicle.
A method of receiving, by a terminal, a phase noise compensation reference signal in a wireless communication system, the method comprising: determining, by the terminal, a time location of a demodulation reference signal, DM-RS, that is received from a base station for demodulating downlink data; and receiving, from the base station and based on the determined time location of the DM-RS, the phase noise compensation reference signal on at least one symbol after a symbol of the DM-RS, wherein the phase noise compensation reference signal is received from the base station using at least one antenna port, such that for a first antenna port, the phase noise compensation reference signal is received on a first frequency, and for a second antenna port, the phase noise compensation reference signal is received on a second frequency different from the first frequency, characterized in that , the DM-RS is defined by a DM-RS sequence, and the phase noise compensation reference signal is received on an identical frequency as the DM-RS and the phase noise compensation reference signal is defined by the DM-RS sequence. determining, by the terminal, a time location of a demodulation reference signal, DM-RS, that is received from a base station for demodulating downlink data; and receiving, from the base station and based on the determined time location of the DM-RS, the phase noise compensation reference signal on at least one symbol after a symbol of the DM-RS, wherein the phase noise compensation reference signal is received from the base station using at least one antenna port, such that for a first antenna port, the phase noise compensation reference signal is received on a first frequency, and for a second antenna port, the phase noise compensation reference signal is received on a second frequency different from the first frequency, characterized in that , the DM-RS is defined by a DM-RS sequence, and the phase noise compensation reference signal is received on an identical frequency as the DM-RS and the phase noise compensation reference signal is defined by the DM-RS sequence.
Method for determining a motion path for an agricultural machine for the cultivation of an area of agricultural land , comprising the step: - receiving, by means of a data processing device , setting information regarding variable setting parameters on the agricultural machine and their influence on the cultivation result, characterized in that the received setting information comprises predetermined agricultural machine-specific setting ranges of the variable setting parameters and in that the method further comprises the following steps: - receiving, by means of the data processing device , topography information on the area of agricultural land to be cultivated; and - calculating, by means of the data processing device , in particular prior to the cultivation of the area of agricultural land , a topography-optimized motion path for the agricultural machine for the cultivation of the area of agricultural land , taking into account the received setting information and the received topography information , the topography-optimized motion path having already been taken into account when creating a drive aisle system on the area of agricultural land, the drive aisle system being created during a sowing procedure which uses a sowing machine, and the drive aisle system being created in advance for another agricultural machine, by means of which subsequent cultivation of the agricultural area is planned. - receiving, by means of a data processing device , setting information regarding variable setting parameters on the agricultural machine and their influence on the cultivation result, characterized in that the received setting information comprises predetermined agricultural machine-specific setting ranges of the variable setting parameters and in that the method further comprises the following steps: - receiving, by means of the data processing device , topography information on the area of agricultural land to be cultivated; and - calculating, by means of the data processing device , in particular prior to the cultivation of the area of agricultural land , a topography-optimized motion path for the agricultural machine for the cultivation of the area of agricultural land , taking into account the received setting information and the received topography information , - receiving, by means of the data processing device , topography information on the area of agricultural land to be cultivated; and - calculating, by means of the data processing device , in particular prior to the cultivation of the area of agricultural land , a topography-optimized motion path for the agricultural machine for the cultivation of the area of agricultural land , taking into account the received setting information and the received topography information , the topography-optimized motion path having already been taken into account when creating a drive aisle system on the area of agricultural land, the drive aisle system being created during a sowing procedure which uses a sowing machine, and the drive aisle system being created in advance for another agricultural machine, by means of which subsequent cultivation of the agricultural area is planned.
A translucent hair care composition comprising: a) a cationic surfactant selected from stearamidopropyl dimethylamine, behentrimonium chloride, stearyl trimethyl ammonium chloride or mixtures thereof; b) from 15 to 30% by weight of glycerin; and c) from 0.1 to 2.0% by weight of fatty alcohol based on the total weight of the composition; wherein the composition comprises an antidandruff agent. a) a cationic surfactant selected from stearamidopropyl dimethylamine, behentrimonium chloride, stearyl trimethyl ammonium chloride or mixtures thereof; b) from 15 to 30% by weight of glycerin; and c) from 0.1 to 2.0% by weight of fatty alcohol based on the total weight of the composition; wherein the composition comprises an antidandruff agent.
A shovel comprising: a traveling lower body ; a revolving upper body mounted on the traveling lower body ; an attachment attached to the revolving upper body ; and a control device mounted on the revolving upper body and configured to drive the attachment, characterised in that the control device controls an angle (α) of a teeth end of a bucket with respect to a target excavation ground, in accordance with information on hardness of the target excavation ground. a traveling lower body ; a revolving upper body mounted on the traveling lower body ; an attachment attached to the revolving upper body ; and a control device mounted on the revolving upper body and configured to drive the attachment, characterised in that the control device controls an angle (α) of a teeth end of a bucket with respect to a target excavation ground, in accordance with information on hardness of the target excavation ground.
An apparatus for generating at least one audio signal associated with a sound scene, the apparatus comprising means configured to: receive at least one audio signal; analyse the at least one audio signal to determine at least one attribute parameter, wherein the at least one attribute parameter is at least one of: a detection of voice activity within the at least one audio signal; a determination of peakiness within the at least one audio signal in the time domain; and a determination of impulsiveness within the at least one audio signal by comparing energy values of different time windows; determine at least one control signal based on the at least one attribute parameter; generate a spatially extended audio signal from the at least one audio signal based on the at least one control signal; and combine , based on the at least one control signal, the at least one audio signal and the spatially extended audio signal to generate the at least one audio signal associated with the sound scene. receive at least one audio signal; analyse the at least one audio signal to determine at least one attribute parameter, wherein the at least one attribute parameter is at least one of: a detection of voice activity within the at least one audio signal; a determination of peakiness within the at least one audio signal in the time domain; and a determination of impulsiveness within the at least one audio signal by comparing energy values of different time windows; determine at least one control signal based on the at least one attribute parameter; generate a spatially extended audio signal from the at least one audio signal based on the at least one control signal; and combine , based on the at least one control signal, the at least one audio signal and the spatially extended audio signal to generate the at least one audio signal associated with the sound scene.
A composition for use in treating a patient suffering from a neurodegenerative disease and in need of a composition that is able to traverse the blood-brain barrier, said composition comprising a functionalized nanoconjugate comprising a nanoparticle, the nanoconjugate comprising a surface-attached polynucleotide having a sequence that is 75% complementary or greater to a target polynucleotide to hybridize to and inhibit expression of the target polynucleotide, wherein the nanoconjugate comprises 10 or more polynucleotides on its surface and has a mass of at least 1 kilodalton.
Electronic circuit comprising at least one radiation-emitting element , characterized by : - a current regulator with a regulation terminal (Reg) and a current-producing terminal (O) connected to the radiation-emitting element ; - a measuring element producing a signal (V mes ) representative of the current flowing through it; - a switch controlled by a modulation signal (M) so as to successively open and close an electrical path passing through the current-producing terminal (O), the radiation-emitting element and the measuring element , and - a conversion circuit interposed between the measuring element and the current regulator , and designed to convert the representative signal (V mes ) into a smoothed signal (S) intended for the regulation terminal (Reg), the switch controlled by the modulation signal (M) being connected in series with the radiation-emitting element and ground of the electronic circuit. - a current regulator with a regulation terminal (Reg) and a current-producing terminal (O) connected to the radiation-emitting element ; - a measuring element producing a signal (V mes ) representative of the current flowing through it; - a switch controlled by a modulation signal (M) so as to successively open and close an electrical path passing through the current-producing terminal (O), the radiation-emitting element and the measuring element , and - a conversion circuit interposed between the measuring element and the current regulator , and designed to convert the representative signal (V mes ) into a smoothed signal (S) intended for the regulation terminal (Reg),
A combination of: i) at least one oxazolidinone-quinolone hybrid with ii) at least one further antibacterial compound which is different from compound (i); wherein the at least one oxazolidinone-quinolone hybrid is selected from the following compounds: 7-(4-{4-[ -5-(acetylamino-methyl)-2-oxo-oxazolidin-3-yl]-2-fluoro-phenoxymethyl}-4-hydroxy-piperidin-1-yl)-1-cyclopropyl-6-fluoro-4-oxo-1,4-dihydro-quinoline-3-carboxylic acid: and 7-(4-{4-[ -5-(acetylamino-methyl)-2-oxo-oxazolidin-3-yl]-2-fluoro-phenoxymethyl}-4-phosphonooxy-piperidin-1-yl)-1-cyclopropyl-6-fluoro-4-oxo-1,4-dihydro-quinoline-3-carboxylic acid: or a salt, solvate or hydrate thereof; and wherein the at least one further antibacterial compound (ii) is selected from the following compounds: cephalosporines; ampicillin; fosfomycin; colistin; linezolid; and fluoroquinolones. i) at least one oxazolidinone-quinolone hybrid with ii) at least one further antibacterial compound which is different from compound (i); 7-(4-{4-[ -5-(acetylamino-methyl)-2-oxo-oxazolidin-3-yl]-2-fluoro-phenoxymethyl}-4-hydroxy-piperidin-1-yl)-1-cyclopropyl-6-fluoro-4-oxo-1,4-dihydro-quinoline-3-carboxylic acid: and 7-(4-{4-[ -5-(acetylamino-methyl)-2-oxo-oxazolidin-3-yl]-2-fluoro-phenoxymethyl}-4-phosphonooxy-piperidin-1-yl)-1-cyclopropyl-6-fluoro-4-oxo-1,4-dihydro-quinoline-3-carboxylic acid: or a salt, solvate or hydrate thereof; and wherein the at least one further antibacterial compound (ii) is selected from the following compounds: cephalosporines; ampicillin; fosfomycin; colistin; linezolid; and fluoroquinolones. cephalosporines; ampicillin; fosfomycin; colistin; linezolid; and fluoroquinolones.
A system for producing and delivering medical ice slurry, comprising: a. An airtight self-collapsible deformable container comprising a mouth opening configured to let ice slurry material pass into the internal cavity of said self-collapsible deformable container and containing slurry ingredients for use; b. a mixing device comprising an agitator and an outlet port ; c. a driver to drive the agitator ; wherein the outlet port is coupled by a flexible slurry delivery tubing and a pump to an injector tip ; wherein said pump is configured to move said ice slurry out from said self-collapsible deformable container through said outlet port and said flexible delivery tubing ; and wherein said self-collapsible deformable container is removably attached via the mouth opening to said mixing device to form an airtight seal so said agitator passes through said mouth opening into said self-collapsible deformable container to contact said slurry ingredient; and wherein said self-collapsible deformable container is collapsible due to air pressure when said pump moves said ice slurry out from said self-collapsible deformable container . a. An airtight self-collapsible deformable container comprising a mouth opening configured to let ice slurry material pass into the internal cavity of said self-collapsible deformable container and containing slurry ingredients for use; b. a mixing device comprising an agitator and an outlet port ; c. a driver to drive the agitator ;
An injectable emulsion comprising: aprepitant; 11 wt/wt% to 15 wt/wt% of an emulsifier; an oil; a co-emulsifier which is an alcohol; a tonicity modifier; a pH modifier; and water; wherein the ratio of emulsifier to aprepitant ranges from about 18:1 to 22:1 (wt/wt%), and wherein the pH of the emulsion ranges from about 7.5 to 9.0. aprepitant; 11 wt/wt% to 15 wt/wt% of an emulsifier; an oil; a co-emulsifier which is an alcohol; a tonicity modifier; a pH modifier; and water;
A method of simultaneously forming and filling a container (C) using a pressure source for applying pressure to a volume of fluid, the method comprising: accelerating the pressure source from an initial state to a velocity to apply pressure to the volume of fluid, the velocity corresponding to a predefined speed for the process of forming and filling the container; fluidly coupling the volume of fluid to a preform upon attaining the predefined speed, the pressure source directing at least a portion of the volume of fluid into the preform and stretching the preform to form the container, the container including at least the portion of the volume of fluid; fluidly decoupling the volume of fluid from the container; decelerating the pressure source from the predefined speed toward the initial state after fluidly decoupling the volume of fluid from the container. accelerating the pressure source from an initial state to a velocity to apply pressure to the volume of fluid, the velocity corresponding to a predefined speed for the process of forming and filling the container; fluidly coupling the volume of fluid to a preform upon attaining the predefined speed, the pressure source directing at least a portion of the volume of fluid into the preform and stretching the preform to form the container, the container including at least the portion of the volume of fluid; fluidly decoupling the volume of fluid from the container; decelerating the pressure source from the predefined speed toward the initial state after fluidly decoupling the volume of fluid from the container.