mhurhangee/patent-ind-claim-en huggingface dataset:
Electronic heat cost allocator , comprising - a first temperature sensor (TS1) for recording a heating element temperature of a heating element arranged in a room , - a second temperature sensor (TS2) for recording a wall temperature of a wall of the room or at least one near-wall room air temperature of the room at a predefined distance from the wall of the room , and - a moisture sensor (FS), characterized in that - the first temperature sensor (TS1) is in the form of a remote sensor and is thermally couplable to the heating element arranged in the room , - the second temperature sensor (TS2) is arranged in the electronic heat cost allocator , and the electronic heat cost allocator is designed in such a way that the second temperature sensor (TS2) is positionable or positioned on the wall or at a predefined distance from the wall as a result of an arrangement of the electronic heat cost allocator on the wall of the room , and - the second temperature sensor (TS2) and the moisture sensor (FS) are arranged in and/or on a housing of a base unit of the electronic heat cost allocator . - a first temperature sensor (TS1) for recording a heating element temperature of a heating element arranged in a room , - a second temperature sensor (TS2) for recording a wall temperature of a wall of the room or at least one near-wall room air temperature of the room at a predefined distance from the wall of the room , and - a moisture sensor (FS), - the first temperature sensor (TS1) is in the form of a remote sensor and is thermally couplable to the heating element arranged in the room , - the second temperature sensor (TS2) is arranged in the electronic heat cost allocator , and the electronic heat cost allocator is designed in such a way that the second temperature sensor (TS2) is positionable or positioned on the wall or at a predefined distance from the wall as a result of an arrangement of the electronic heat cost allocator on the wall of the room , and - the second temperature sensor (TS2) and the moisture sensor (FS) are arranged in and/or on a housing of a base unit of the electronic heat cost allocator .
A method of operating a flue gas desulfurization apparatus, in which a gypsum slurry containing gypsum obtained by bringing sulfur oxides contained in a flue gas discharged from a combustion device including a boiler into contact with an absorbing solution containing a limestone slurry in an absorption tower , and oxidizing the same, is extracted from the absorption tower , and by using a pump , the gypsum slurry is supplied to a gypsum slurry tank for supplying the gypsum slurry to a dehydration equipment, or is circulated to the absorption tower , the method characterized in that it comprises: performing an operation of supplying the gypsum slurry only to the gypsum slurry tank and an operation of circulating the gypsum slurry only to the absorption tower by switching therebetween, wherein the switching is controlled depending on a solid content concentration of the gypsum slurry , and when switching to the operation of supplying the gypsum slurry only to the gypsum slurry tank , washing a circulation pipe configured to circulate the gypsum slurry to the absorption tower , wherein the gypsum slurry is supplied to the gypsum slurry tank via a gypsum slurry supply pipe having a gradient such that the gypsum slurry flows into the gypsum slurry tank by gravity. performing an operation of supplying the gypsum slurry only to the gypsum slurry tank and an operation of circulating the gypsum slurry only to the absorption tower by switching therebetween, wherein the switching is controlled depending on a solid content concentration of the gypsum slurry , and when switching to the operation of supplying the gypsum slurry only to the gypsum slurry tank , washing a circulation pipe configured to circulate the gypsum slurry to the absorption tower , wherein the gypsum slurry is supplied to the gypsum slurry tank via a gypsum slurry supply pipe having a gradient such that the gypsum slurry flows into the gypsum slurry tank by gravity.
Connection module for a wiper device of an outer surface of a window of a motor vehicle intended to be arranged between a windscreen wiper and a driving arm , the connection module comprising a hydraulic connector and an electrical connector , the electrical connector , called first connector, comprising an insulating body pierced by two longitudinal ducts and two male pins, each of the two longitudinal ducts of the electrical connector and the male pin which prolongs it, form together a longitudinal routing channel of the electrical connector, the hydraulic connector , called second connector, comprising two longitudinal hydraulic routing channels , the connection module being characterized in that the first connector is at least partially arranged laterally between the two longitudinal routing channels of the second connector, and in that the longitudinal electrical and hydraulic routing channels of the first and second connectors each extend longitudinally along a main extension axis .
Arrangement having - a hazard alarm , in particular a smoke alarm, comprising an ultrasonic sensor device , in particular for monitoring an environment of the hazard alarm , and - a room in which the hazard alarm is arranged, characterized in that the ultrasonic sensor device is designed and configured to emit an ultrasonic signal (GS) which is designed such that at least signal components of the ultrasonic signal (GS) enter at least one wall of the room , in which the hazard alarm is arranged, and are reflected at at least one boundary layer caused by moisture if this at least one boundary layer caused by moisture is present in the wall , wherein an evaluation unit for evaluating the reflected ultrasonic signal (RS) received by the ultrasonic sensor device , in particular for evaluating a response time and an amplitude of the reflected ultrasonic signal (RS) received by the ultrasonic sensor device , is provided, wherein the reflected ultrasonic signal (RS) is the carrier of moisture information relating to the wall , and the evaluation unit evaluates the reflected ultrasonic signal in order to determine whether the wall has a moist region . - a hazard alarm , in particular a smoke alarm, comprising an ultrasonic sensor device , in particular for monitoring an environment of the hazard alarm , and - a room in which the hazard alarm is arranged,
Method for calibrating an environment sensor arranged on a rail vehicle , which is embodied to capture image data sets (c), which each represent an environment segment lying in the field of view thereof, - wherein, in the region of a track with a track section running in a straight line, a calibration marking is arranged at a defined lateral position in relation to a track centre of the track section , - wherein, during a calibration journey of the rail vehicle on the track section , a series of image data sets (c) containing the calibration marking is captured by the environment sensor , - wherein a series of positions of the environment sensor relative to the calibration marking is ascertained from the captured image data sets (c), - wherein the relative position of the environment sensor in relation to the track centre is ascertained by resolving an optimisation task, with the side condition that the ascertained series of positions of the environment sensor lies on a straight line (g) relative to the calibration marking . - wherein, in the region of a track with a track section running in a straight line, a calibration marking is arranged at a defined lateral position in relation to a track centre of the track section , - wherein, during a calibration journey of the rail vehicle on the track section , a series of image data sets (c) containing the calibration marking is captured by the environment sensor , - wherein a series of positions of the environment sensor relative to the calibration marking is ascertained from the captured image data sets (c), - wherein the relative position of the environment sensor in relation to the track centre is ascertained by resolving an optimisation task, with the side condition that the ascertained series of positions of the environment sensor lies on a straight line (g) relative to the calibration marking .
An acidic color material aqueous solution comprising phycocyanin (A), a polyvalent carboxylic acid (B) containing one or more hydroxy groups, and at least one kind of nonionic emulsifier (C) selected from the group consisting of sucrose esters and polyglycerol esters, the at least one kind of nonionic emulsifier (C) having an HLB of 15 or more.
A system configured to determine sleep stages of a subject during a sleep session, the system comprising: one or more sensors configured to generate output signals conveying information related to brain activity of the subject, the output signals including cardiac artifact information related to cardiac activity of the subject with the information related to brain activity; and one or more hardware processors operatively communicating with the one or more sensors configured, by machine-readable instructions, to: - demodulate the output signals to separate the information related to brain activity and the cardiac artifact information; - determine one or more brain activity parameters based on the separated information related to brain activity; determine one or more cardiac activity parameters based on the separated cardiac artifact information; and determine the sleep stages of the subject during the sleep session based on the one or more brain activity parameters and the one or more cardiac activity parameters. wherein determining the sleep stages of the subject during the sleep session includes determining NREM sleep stages based on the one or more brain activity parameters and determining REM sleep stages based on the one or more brain activity parameters and the one or more cardiac activity parameters. one or more sensors configured to generate output signals conveying information related to brain activity of the subject, the output signals including cardiac artifact information related to cardiac activity of the subject with the information related to brain activity; and one or more hardware processors operatively communicating with the one or more sensors configured, by machine-readable instructions, to: - demodulate the output signals to separate the information related to brain activity and the cardiac artifact information; - determine one or more brain activity parameters based on the separated information related to brain activity; - demodulate the output signals to separate the information related to brain activity and the cardiac artifact information; - determine one or more brain activity parameters based on the separated information related to brain activity; determine one or more cardiac activity parameters based on the separated cardiac artifact information; and determine the sleep stages of the subject during the sleep session based on the one or more brain activity parameters and the one or more cardiac activity parameters. wherein determining the sleep stages of the subject during the sleep session includes determining NREM sleep stages based on the one or more brain activity parameters and determining REM sleep stages based on the one or more brain activity parameters and the one or more cardiac activity parameters.
Device for uncapping wax-sealed honeycombs of a honeycomb frame before extracting the honeycomb frame, the device including a mechanism for feeding the honeycomb frame into the device, characterised in that the device also comprises: - perforating elements that are pressed against both sides of the honeycomb frame and that are independently rotatably mounted, and - supporting elements , on which the rotating perforating elements are mounted, said device being characterized in that the perforating elements are rotating blades mounted on separate sets of blades per side of the honeycomb frame , so that each set is individually pivoted and pressed against the wax capping . - perforating elements that are pressed against both sides of the honeycomb frame and that are independently rotatably mounted, and - supporting elements , on which the rotating perforating elements are mounted,
An aircraft comprising a fuselage , a wing connected to the fuselage and a landing gear , the landing gear comprising a main strut , an inboard stay assembly , a first end of the inboard stay assembly being attached to the main strut and a second end of the inboard stay assembly being connected to the fuselage such that landing gear loads can be transferred from the inboard stay assembly into the fuselage; a sidestay , a first end of the sidestay being connected to the main strut and a second end of the sidestay being connected to the wing such that landing gear loads can be transferred from the sidestay into the wing; and a link assembly , a first end of the link assembly being attached to the main strut and a second end of the link assembly being connected to the aircraft such that landing gear loads can be transferred via the link assembly into the aircraft, and wherein the landing gear is arranged such that, in use, when the landing gear is extended, substantially all the landing gear loads are transferred from the landing gear to the aircraft via one or more of the inboard stay assembly , the sidestay and the link assembly , characterised in that the link assembly is configured such that the length of the link assembly can vary as the landing gear retracts. a main strut , an inboard stay assembly , a first end of the inboard stay assembly being attached to the main strut and a second end of the inboard stay assembly being connected to the fuselage such that landing gear loads can be transferred from the inboard stay assembly into the fuselage; a sidestay , a first end of the sidestay being connected to the main strut and a second end of the sidestay being connected to the wing such that landing gear loads can be transferred from the sidestay into the wing; and a link assembly , a first end of the link assembly being attached to the main strut and a second end of the link assembly being connected to the aircraft such that landing gear loads can be transferred via the link assembly into the aircraft, and wherein the landing gear is arranged such that, in use, when the landing gear is extended, substantially all the landing gear loads are transferred from the landing gear to the aircraft via one or more of the inboard stay assembly , the sidestay and the link assembly , characterised in that the link assembly is configured such that the length of the link assembly can vary as the landing gear retracts.
A method comprising generating a halftone screen by arranging a plurality of amplitude-modulated dot clusters in correspondence with a grid , wherein each of the amplitude-modulated dot clusters comprises a plurality of frequency-modulated dots , characterised in that the plurality of amplitude-modulated dot clusters comprises an amplitude-modulated dot cluster having a plurality of overlapping frequency-modulated dots.
A method of scanning a target object in three dimensions , the method comprising: projecting a color dashed line pattern onto a target object; scanning the target object with the color dashed line pattern projected thereto; and producing a 3D data of the target object by processing the scanning result, wherein the color dashed line pattern includes multiple dashed line patterns each of which is individually used to calculate the 3D data of the target object, characterized in that each one of the multiple dashed line patterns has a unique color different from the other; each dashed line pattern is formed of a plurality of dashed lines ; each dashed line is formed of a plurality of dashes, and dashed lines included in each dashed line patterns are arranged to have a line gap (LG) greater than a dash gap (DG), wherein the line gap (LG) is a gap between two adjacent dashed lines , and wherein the dash gap (DG) is a gap between two adjacent dashes. projecting a color dashed line pattern onto a target object; scanning the target object with the color dashed line pattern projected thereto; and producing a 3D data of the target object by processing the scanning result, wherein the color dashed line pattern includes multiple dashed line patterns each of which is individually used to calculate the 3D data of the target object, characterized in that each one of the multiple dashed line patterns has a unique color different from the other; each dashed line pattern is formed of a plurality of dashed lines ; each dashed line is formed of a plurality of dashes, and dashed lines included in each dashed line patterns are arranged to have a line gap (LG) greater than a dash gap (DG), wherein the line gap (LG) is a gap between two adjacent dashed lines , and wherein the dash gap (DG) is a gap between two adjacent dashes.
Component carrier , wherein the component carrier comprises: a stack comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure ; a component embedded in the stack , wherein the component comprises a redistribution structure having a dielectric material and at least one vertically protruding electrically conductive pad , and electrically conductive material on at least part of the at least one electrically conductive pad ; characterized in that the at least one electrically conductive pad vertically protrudes beyond an end surface of dielectric material of the redistribution structure ; and further characterized by an underfill on the end surface of the dielectric material and between adjacent electrically conductive pads of the component , wherein material of the underfill also surrounds at least part of sidewalls and/or at least part of an upper main surface of the embedded component for mechanically connecting the component with the stack ; and electrically conductive material also on the underfill . a stack comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure ; a component embedded in the stack , wherein the component comprises a redistribution structure having a dielectric material and at least one vertically protruding electrically conductive pad , and electrically conductive material on at least part of the at least one electrically conductive pad ; characterized in that the at least one electrically conductive pad vertically protrudes beyond an end surface of dielectric material of the redistribution structure ; and further characterized by an underfill on the end surface of the dielectric material and between adjacent electrically conductive pads of the component , wherein material of the underfill also surrounds at least part of sidewalls and/or at least part of an upper main surface of the embedded component for mechanically connecting the component with the stack ; and electrically conductive material also on the underfill .
A positive electrode active material for a lithium secondary battery, the positive electrode active material comprising a lithium composite transition metal oxide including nickel (Ni), cobalt (Co), and manganese (Mn), wherein a portion of nickel (Ni) sites of the lithium composite transition metal oxide is substituted with tungsten (W), and wherein the lithium composite transition metal oxide contains tungsten (W) in an amount of 2,000 ppm to 3,000 ppm in a crystal structure, and an amount of a lithium tungsten oxide remaining on surfaces of lithium composite transition metal oxide particles is 1,000 ppm or less. wherein a portion of nickel (Ni) sites of the lithium composite transition metal oxide is substituted with tungsten (W), and wherein the lithium composite transition metal oxide contains tungsten (W) in an amount of 2,000 ppm to 3,000 ppm in a crystal structure, and an amount of a lithium tungsten oxide remaining on surfaces of lithium composite transition metal oxide particles is 1,000 ppm or less.
A cap and a container which accommodates a formula, the cap being capable of plugging an opening of a nozzle for discharging the formula to the outside that is provided on the container , wherein the cap comprises an applicator for applying the formula, wherein the applicator is placed in a state in which it is isolated from the formula so that it does not contact the formula within the container when the cap is attached to the container characterised in that the container includes a collar surrounding the nozzle , and when the cap is attached to the container , at least a portion of the applicator is accommodated within a space defined by the collar .
An active form of transforming growth factor TGFβ1 or TGFβ2 or TGFβ3 for use in the treatment of patients with neoplastic lesions, for which at least part of the cancer cells is EGFRvIII-positive.
A partition member which has two surfaces in a thickness direction, and which separates single cells that make up an assembled battery , wherein when the average temperature of one of the two surfaces exceeds 180°C, a thermal resistance per unit area (θ 1 ) in the thickness direction satisfies Expression 1 below; and when the average temperatures of both of the two surfaces do not exceed 80°C, a thermal resistance per unit area (θ 2 ) in the thickness direction satisfies Expression 2 below, θ 1 ≥ 5.0 × 10 − 3 m 2 ⋅ K / W and θ 2 ≤ 4.0 × 10 − 3 m 2 ⋅ K / W wherein when the average temperature of one of the two surfaces exceeds 180°C, a thermal resistance per unit area (θ 1 ) in the thickness direction satisfies Expression 1 below; and when the average temperatures of both of the two surfaces do not exceed 80°C, a thermal resistance per unit area (θ 2 ) in the thickness direction satisfies Expression 2 below, θ 1 ≥ 5.0 × 10 − 3 m 2 ⋅ K / W and θ 2 ≤ 4.0 × 10 − 3 m 2 ⋅ K / W
Simulation chamber having two lateral walls , a bottom wall , a top wall , an outer wall and an inner space with a back wall arranged at a distance (d1) to the outer wall and with at least one ventilator disposed between the back wall and the outer wall , wherein the back wall has ventilation openings for extracting air out of the inner space by means of the ventilator , characterized in that the back wall has at least one opening and that on these, between the back wall and the outer wall , at least one first orifice plate is abutting disposed such that the air drawn in through the ventilation openings in the back wall by the ventilator can be conducted through the opening in the inner space after passing through the orifice plate .