mhurhangee/ep-ind-claims huggingface dataset:
Hand-held power tool having a switchable mechanism that has at least two operating positions, which can be engaged by way of an operating element that can be adjusted between two switching positions, wherein the operating element is coupled by way of a coupling element to an adjustable switching member, which acts on at least one mechanical component of the switchable mechanism, and in a positioning movement of the operating element the mechanism can be adjusted between the first operating position and the second operating position, characterized in that the coupling element is formed as a bistable coupling spring, which assumes a stable position in the two switching positions of the operating element and assumes an unstable position in an intermediate position between the switching positions.
Machine tool, in particular multi-spindle turning machine, comprising: - a machine frame, - a turret body being rotatably supported by the machine frame, - a plurality of workpiece spindles being arranged on the turret body, each of the workpiece spindles having a workpiece receiving portion for receiving a respective workpiece on one side of the turret body facing a working space of the machine tool, - a torque motor for driving a rotation of the turret body, characterized in that the torque motor is arranged at a back end portion of the turret body opposite to the side of the turret body facing the working space of the machine tool, and a position locking mechanism for locking a rotational position of the turret body is arranged at a front end portion of the turret body on the side of the turret body facing the working space of the machine tool. - a machine frame, - a turret body being rotatably supported by the machine frame, - a plurality of workpiece spindles being arranged on the turret body, each of the workpiece spindles having a workpiece receiving portion for receiving a respective workpiece on one side of the turret body facing a working space of the machine tool, - a torque motor for driving a rotation of the turret body, characterized in that the torque motor is arranged at a back end portion of the turret body opposite to the side of the turret body facing the working space of the machine tool, and a position locking mechanism for locking a rotational position of the turret body is arranged at a front end portion of the turret body on the side of the turret body facing the working space of the machine tool.
A method of decoding video data in accordance with a High Efficiency Video Coding (HEVC) standard, a multiview extension thereof, or a scalable extension thereof, wherein the video data includes a video bitstream, the video bitstream comprising layers and wherein layers of the video bitstream are divided into more than one bitstream partition, the method comprising: decoding a plurality of sets of HRD parameters; decoding, for each sub-layer of each output layer set and of each bitstream partition, an index which represents a set of HRD parameters of the plurality of sets of HRD parameters, wherein each of the playback frame rates which can be rendered from the video bitstream corresponds to a set of one or more sub-layers, with each progressively higher sub-layer including all frames of the video data at that sub-layer and below that sub-layer; and processing the video bitstream using the HRD parameters by: decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer; and removing the decoded pictures from the DPB according to the HRD parameters. decoding a plurality of sets of HRD parameters; decoding, for each sub-layer of each output layer set and of each bitstream partition, an index which represents a set of HRD parameters of the plurality of sets of HRD parameters, wherein each of the playback frame rates which can be rendered from the video bitstream corresponds to a set of one or more sub-layers, with each progressively higher sub-layer including all frames of the video data at that sub-layer and below that sub-layer; and processing the video bitstream using the HRD parameters by: decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer; and removing the decoded pictures from the DPB according to the HRD parameters. decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer; and removing the decoded pictures from the DPB according to the HRD parameters.
A control method for heat and electric power production in a system comprising: a) a cogenerator comprising: - an engine; - an electric machine operated by said engine for producing electric power; - a converter for transforming and supplying the electric power produced by said electric machine; b) a heat pump electrically supplied by said cogenerator; c) control means which control said cogenerator and said heat pump; the method comprising the steps of: • determining an operating point of the engine corresponding to a desired operating condition for the system; • reaching said operating point by adjusting the supply of air/fuel to said engine and by controlling said converter so as to vary the resistant torque exerted by said electric machine on said engine. a) a cogenerator comprising: - an engine; - an electric machine operated by said engine for producing electric power; - a converter for transforming and supplying the electric power produced by said electric machine; - an engine; - an electric machine operated by said engine for producing electric power; - a converter for transforming and supplying the electric power produced by said electric machine; b) a heat pump electrically supplied by said cogenerator; c) control means which control said cogenerator and said heat pump; • determining an operating point of the engine corresponding to a desired operating condition for the system; • reaching said operating point by adjusting the supply of air/fuel to said engine and by controlling said converter so as to vary the resistant torque exerted by said electric machine on said engine.
A process for preparing a salt of Formula, comprising: (a) preparing a compound of Formula, or a salt thereof, comprising: contacting a compound of Formula, or a salt thereof, with a compound of Formula, or a salt thereof, (b) preparing a compound of Formula, or a salt thereof, comprising: contacting the compound of Formula, or a salt thereof, with a catalyst, and (c) contacting the compound of Formula, or a salt thereof, with a metal hydroxide, wherein: R 1 is H or an amine protecting group; R 2 is H, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; each R 3 is independently H, halogen, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; and A is a cation. (a) preparing a compound of Formula, or a salt thereof, comprising: contacting a compound of Formula, or a salt thereof, with a compound of Formula, or a salt thereof, (b) preparing a compound of Formula, or a salt thereof, comprising: contacting the compound of Formula, or a salt thereof, with a catalyst, and (c) contacting the compound of Formula, or a salt thereof, with a metal hydroxide, wherein: R 1 is H or an amine protecting group; R 2 is H, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; each R 3 is independently H, halogen, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; and A is a cation. R 1 is H or an amine protecting group; R 2 is H, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; each R 3 is independently H, halogen, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; and A is a cation.
A no or low sodium DSR infusate for use in a method of treating a patient in heart failure with fluid overload, the patient having an estimated glomerular filtration rate greater than 15 ml/min/1.73 m 2, wherein the method comprises: introducing the DSR infusate into a peritoneal cavity of the patient, the DSR infusate having a sodium concentration less than 120 meq/L; inducing sodium and osmotic ultrafiltrate to accumulate with the DSR infusate in the peritoneal cavity during a dwell period; and removing the DSR infusate, sodium and osmotic ultrafiltrate from the peritoneal cavity of the patient to alleviate fluid overload while maintaining a stable serum sodium level, while preventing hyponatremia. introducing the DSR infusate into a peritoneal cavity of the patient, the DSR infusate having a sodium concentration less than 120 meq/L; inducing sodium and osmotic ultrafiltrate to accumulate with the DSR infusate in the peritoneal cavity during a dwell period; and removing the DSR infusate, sodium and osmotic ultrafiltrate from the peritoneal cavity of the patient to alleviate fluid overload while maintaining a stable serum sodium level, while preventing hyponatremia.
An imaging device comprising: a plurality of first pixels (MS1-MS7) each including a metallic thin film filter configured to transmit a light in a first frequency band; and a second pixel (G1-G8) including a color filter configured to transmit a light in a second frequency band wider than the first frequency band, characterized in that the imaging device is configured to generate a signal in a third frequency band by summing up respective signals of a plurality of first pixels (MS1-MS7), wherein each of the respective first frequency bands is different from the respective first frequency band of the other first pixels of the plurality of first pixels, and and in that the imaging device is further configured to generate a signal for a color image from a signal in the third frequency band and a signal of the second pixel. a plurality of first pixels (MS1-MS7) each including a metallic thin film filter configured to transmit a light in a first frequency band; and a second pixel (G1-G8) including a color filter configured to transmit a light in a second frequency band wider than the first frequency band, characterized in that the imaging device is configured to generate a signal in a third frequency band by summing up respective signals of a plurality of first pixels (MS1-MS7), wherein each of the respective first frequency bands is different from the respective first frequency band of the other first pixels of the plurality of first pixels, and and in that the imaging device is further configured to generate a signal for a color image from a signal in the third frequency band and a signal of the second pixel.
Emulation device for emulating an electric motor in order to mimic at least one property of the electric motor during a test of an electrical device, in particular a drive inverter, said emulation device comprising at least one emulation unit (61, 62, 63, 64) for providing an emulation function in order to carry out the emulation based on at least one motor parameter of the electric motor, wherein an identification unit for providing an identification function is integrated in the emulation device in order to carry out parameter identification of the at least one motor parameter at the electric motor.
System for controlling a foundation brake of a vehicle with at least one auxiliary brake device, whereby said system comprises an adaptive cruise control device, characterized in that it comprises means to detect or predict excessive use of the foundation brake and means to disengage the ACC device on detection or prediction of excessive use of the foundation brake.
Controller for a converter receiving an input power and providing an output power by a switching operation, the controller comprising: - an input for receiving a feedback signal depending on the output power of the converter; and - an output for providing a control signal to the converter to thereby control the switching operation of the converter, the control signal corresponding to a switching pattern that is updated in response to the feedback signal; - the control signal including a harmonic compensation signal for reducing higher harmonics in the output power, the higher harmonics originating from a time delay between taking the feedback signal and the updating of the switching pattern; - the controller further comprising - a modulation signal generator for providing a modulation signal; caracterised by - a compensation generator for generating a harmonic compensation component based on said time delay; and - the controller being configured for providing the control signal depending on the modulation signal and the harmonic compensation component. - an input for receiving a feedback signal depending on the output power of the converter; and - an output for providing a control signal to the converter to thereby control the switching operation of the converter, the control signal corresponding to a switching pattern that is updated in response to the feedback signal; - the control signal including a harmonic compensation signal for reducing higher harmonics in the output power, the higher harmonics originating from a time delay between taking the feedback signal and the updating of the switching pattern; - the controller further comprising - a modulation signal generator for providing a modulation signal; - a compensation generator for generating a harmonic compensation component based on said time delay; and - the controller being configured for providing the control signal depending on the modulation signal and the harmonic compensation component.
Metallic body comprising a channel arrangement for controlling the temperature of the injection mold or casting mold formed by the metallic body, in which at least one channel, which is flown-through by a fluid, is arranged in a temperature-controlled section of the metallic body, wherein the channel comprises, between a fluid inlet region and a fluid outlet region, a multitude of branch channels of reduced cross-section, connected in parallel and generated therein during a generative SLS building process of the body, which branch channels extend behind a shaping surface to be temperature-controlled or to a cooling/heating surface of the body, wherein the branch channels open from an main inlet channel into a collecting outlet channel, and wherein the cross-sections of the main inlet channel and the collecting outlet channel are considerably larger than the cross-section of the branch channels, characterized in that multiple branch channels are, multiple times, cross-connected between their inlet/outlet mouth from the main inlet channel or into the collecting outlet channel, and multiple branch channels form a planar network of branch channels, which extends equidistantly to the shaping surface to be cooled or the cooling/heating surface, the flow resistance in the network of branch channels transversely to the main flow direction is smaller than in the main flow direction, and wherein, in a curved or convex shaping surface, the planar structure of the branch channels extends in a curved or convex manner in parallel to the correspondingly-curved or convex shaping surface of the body.
A wrapping apparatus for containers, particularly bottles, in bundles comprising rows of adjacent containers, comprising a wrapping station wherein a film of stretching plastic material is continuously spirally wound on adjacent rows of containers moving according to a displacement axis, said film being delivered by reels rotating around said displacement axis, wherein downstream of said wrapping station a cutting and spacing-apart unit is provided, provided with at least a bridge carriage (202,203), alternately movable according to a translation axis parallel to the displacement direction of said containers, whereon a cutting device is mounted, movable crosswise to said translation axis, the wrapping apparatus further being capable of synchronising the progress movement of said bridge carriage (202,203) with the movement of said rows of containers based on a control determined by a counting sensor for said containers.
An organic light emitting display apparatus comprising: a bottom substrate having a display area and a peripheral area surrounding the display area; a plurality of organic light emitting devices in the display area of the bottom substrate; a top substrate corresponding to the bottom substrate; a sealing member in the peripheral area of the bottom substrate and configured to attach the bottom substrate to the top substrate; and an anti-impact member in the peripheral area of the bottom substrate and apart from the sealing member, the anti-impact member protruding from the bottom substrate toward the top substrate; wherein: the plurality of organic light emitting devices comprise: a plurality of pixel electrodes, a counter electrode corresponding to the plurality of pixel electrodes, and an intermediate layer between the plurality of pixel electrodes and the counter electrode and comprises an emission layer; characterized in that a space corresponding to a thickness of the counter electrode is formed between the top substrate and an end surface of the anti-impact member toward the top substrate, in order to reduce oscillations of the top substrate due to external impact. a bottom substrate having a display area and a peripheral area surrounding the display area; a plurality of organic light emitting devices in the display area of the bottom substrate; a top substrate corresponding to the bottom substrate; a sealing member in the peripheral area of the bottom substrate and configured to attach the bottom substrate to the top substrate; and an anti-impact member in the peripheral area of the bottom substrate and apart from the sealing member, the anti-impact member protruding from the bottom substrate toward the top substrate; wherein: the plurality of organic light emitting devices comprise: a plurality of pixel electrodes, a counter electrode corresponding to the plurality of pixel electrodes, and an intermediate layer between the plurality of pixel electrodes and the counter electrode and comprises an emission layer; characterized in that a space corresponding to a thickness of the counter electrode is formed between the top substrate and an end surface of the anti-impact member toward the top substrate, in order to reduce oscillations of the top substrate due to external impact. a plurality of pixel electrodes, a counter electrode corresponding to the plurality of pixel electrodes, and an intermediate layer between the plurality of pixel electrodes and the counter electrode and comprises an emission layer; characterized in that a space corresponding to a thickness of the counter electrode is formed between the top substrate and an end surface of the anti-impact member toward the top substrate, in order to reduce oscillations of the top substrate due to external impact.
Device for the overlapping splicing of cord tape, the device comprising a first conveying installation for inwardly conveying a cord-tape strip, a second conveying device for outwardly conveying the spliced cord tape, and a splicing unit having a vertically movable splicing bar for the overlapping splicing of the leading edge of the inwardly conveyed cord-tape strip to the trailing edge of the outwardly conveyed cord tape, characterized in that the splicing unit has a plurality of splicing segments (15a, 15b, 15c, 15d) which are disposed in one row, each having one splicing-bar segment (16a, 16b, 16c, 16d) which is configured for fixing one edge, the splicing segments (15a, 15b, 15c, 15d) being pivotable in relation to one another about pivot axes which are perpendicular to the cord-tape plane, and being variable in the mutual position thereof by means of assigned actuator elements.
Mixture containing an alkali-activated aluminosilicate binder, characterized in that, after hardening, it contains at least 25% by weight of solid glass spheres having a diameter between 0.01 and 5 mm, based on the total mass.
Process for the production of a layered composite structure comprising a semi-permeable membrane made of a polymer composition comprising a polyetherester elastomer and at least one web layer bonded to the membrane, wherein the process comprises a step wherein a melt layer of the polymer composition is applied onto the at least one web layer, and wherein the polyetherester elastomer comprises - polyether soft segments formed from poly(alkylene-ether)glycols comprising at least 50 wt.% alkylene-ether segments formed from ethylene oxide and - polyester hard segments consisting of ester units derivable from short chain diols and dicarboxylic acid consisting of 98-65 mole % terephthalic acid, 2-35 mole% isophthalic acid and optionally 0-20 mole% other dicarboxylic acids, wherein the mole % is relative to the total molar amount of dicarboxylic acid. - polyether soft segments formed from poly(alkylene-ether)glycols comprising at least 50 wt.% alkylene-ether segments formed from ethylene oxide and - polyester hard segments consisting of ester units derivable from short chain diols and dicarboxylic acid consisting of 98-65 mole % terephthalic acid, 2-35 mole% isophthalic acid and optionally 0-20 mole% other dicarboxylic acids, wherein the mole % is relative to the total molar amount of dicarboxylic acid.
A multi-directional optical sensor module for testing an object, comprising: a substrate; a light source disposed on the substrate, configured for emitting a light to an object surface; a first encapsulant formed over the light source, the first encapsulant having a predetermined shape for splitting light from the light source into two beams of light in different directions and guiding them to a surface of the object; two photodetectors disposed on the substrate, configured for detecting the light reflected from the object; two second encapsulants correspondingly located on two sides of the light source, each of the two second encapsulants having a predetermined shape for collecting the light reflected from the object; wherein each of the photodetectors are covered with one of the second encapsulants, and the first encapsulant is formed over the at least two second encapsulants. a substrate; a light source disposed on the substrate, configured for emitting a light to an object surface; a first encapsulant formed over the light source, the first encapsulant having a predetermined shape for splitting light from the light source into two beams of light in different directions and guiding them to a surface of the object; two photodetectors disposed on the substrate, configured for detecting the light reflected from the object; two second encapsulants correspondingly located on two sides of the light source, each of the two second encapsulants having a predetermined shape for collecting the light reflected from the object; two photodetectors disposed on the substrate, configured for detecting the light reflected from the object; two second encapsulants correspondingly located on two sides of the light source, each of the two second encapsulants having a predetermined shape for collecting the light reflected from the object; wherein each of the photodetectors are covered with one of the second encapsulants, and the first encapsulant is formed over the at least two second encapsulants.
Device for printing on at least one region of the surface of an object, the device comprising a manipulator with a print head and the device comprising a system for vibration compensation for the print head, the system comprising an active component (10, 10', 10") and a passive component, characterized in that the active component (10, 10', 10") compensates for low-frequency vibration, i.e. vibration with a frequency below a frequency threshold, and the passive component compensates for high-frequency vibration, i.e. vibration with a frequency above a frequency threshold, and in that the active component (10, 10', 10") comprises an active vibration damper with a mass element and an actuator for moving the mass element.