mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry dryer comprising a body , a drum provided in the body , in which the laundry items are loaded, a motor enabling rotating the drum , and a motor mount provided in the body , on which the motor is placed so as to enable supporting the motor from two sides, having a first bearer and a second bearer bearing the motor and a supporting portion extending in between the first bearer and the second bearer , characterized by at least one seat provided on the supporting portion , and an insulation member placed in the seat , enabling damping the vibrations emitted by the motor .
A track roller assembly , comprising: a wheel body having a thread ; a bearing disposed on the wheel body ; a wheel axle disposed through the bearing ; a cap element having a screw corresponding to the thread , and the screw correspondingly locked and engaged in the thread ; a rotating oil seal , one side of the rotating oil seal connected to the cap element , and another side of the rotating oil seal rotatably abutting the wheel axle ; an end cover connected to the wheel axle ; and an oil body limited to an accommodating space formed by the wheel body , the wheel axle , the cap element and the rotating oil seal . a wheel body having a thread ; a bearing disposed on the wheel body ; a wheel axle disposed through the bearing ; a cap element having a screw corresponding to the thread , and the screw correspondingly locked and engaged in the thread ; a rotating oil seal , one side of the rotating oil seal connected to the cap element , and another side of the rotating oil seal rotatably abutting the wheel axle ; an end cover connected to the wheel axle ; and an oil body limited to an accommodating space formed by the wheel body , the wheel axle , the cap element and the rotating oil seal .
A gas turbine (A) denitrifying combustion gas by using a denitrification catalyst and ammonia as a reducing agent, the gas turbine (A) comprising: a turbine provided with an intake port , a scroll flow path , a plurality of stator vanes , and a plurality of branch flow paths each arranged to supply cooling air to a respective one of the stator vanes , a compressor configured to supply the branch flow paths with a cooling air, and a denitrification chamber filled with a denitrification catalyst and discharged with a post-power recovery combustion gas from the turbine , characterized in that the gas turbine (A) is configured to improve the cooling capacity of part of the stator vanes compared with the cooling capacity of the other stator vanes by supplying part of the branch flow paths communicated with the part of the stator vanes positioned in the inside of the scroll flow path and in the vicinity of an inlet of the scroll flow path exposed to the combustion gas that has a temperature higher than the average value in a temperature distribution of the combustion gas in accordance with the measured temperature distribution of the combustion gas at the intake port in advance with the liquid ammonia in addition to the cooling air. a turbine provided with an intake port , a scroll flow path , a plurality of stator vanes , and a plurality of branch flow paths each arranged to supply cooling air to a respective one of the stator vanes , a compressor configured to supply the branch flow paths with a cooling air, and a denitrification chamber filled with a denitrification catalyst and discharged with a post-power recovery combustion gas from the turbine , characterized in that the gas turbine (A) is configured to improve the cooling capacity of part of the stator vanes compared with the cooling capacity of the other stator vanes by supplying part of the branch flow paths communicated with the part of the stator vanes positioned in the inside of the scroll flow path and in the vicinity of an inlet of the scroll flow path exposed to the combustion gas that has a temperature higher than the average value in a temperature distribution of the combustion gas in accordance with the measured temperature distribution of the combustion gas at the intake port in advance with the liquid ammonia in addition to the cooling air.
A controller unit for controlling an ultraviolet (UV) sensor , wherein the UV sensor is excited by an excitation voltage that enables the UV sensor to detect incoming UV light, the UV sensor providing a plurality of UV detection events, a rate of the number of UV detection events being related to the intensity of the incoming UV light, the control unit comprising: an excitation voltage generator configured to selectively produce the excitation voltage; an event detector for detecting UV detection events when the excitation voltage generator _is producing the excitation voltage; a controller operatively coupled to the excitation voltage generator and the event detector, the controller configured to: cause the excitation voltage generator to produce an excitation voltage for a cumulative excitation time that is less than 50% of the total time of a measurement period over at least 1 second; determine a measure related to the intensity of the incoming UV light based on the UV detection events detected by the event detector when the excitation voltage is producing the excitation voltage,wherein the cumulative excitation time that the excitation voltage is applied to the UV sensor is dynamically changed based on the intensity of the incoming UV light; and output the measure related to the intensity of the incoming UV light. an excitation voltage generator configured to selectively produce the excitation voltage; an event detector for detecting UV detection events when the excitation voltage generator _is producing the excitation voltage; a controller operatively coupled to the excitation voltage generator and the event detector, the controller configured to: cause the excitation voltage generator to produce an excitation voltage for a cumulative excitation time that is less than 50% of the total time of a measurement period over at least 1 second; determine a measure related to the intensity of the incoming UV light based on the UV detection events detected by the event detector when the excitation voltage is producing the excitation voltage,wherein the cumulative excitation time that the excitation voltage is applied to the UV sensor is dynamically changed based on the intensity of the incoming UV light; and output the measure related to the intensity of the incoming UV light. cause the excitation voltage generator to produce an excitation voltage for a cumulative excitation time that is less than 50% of the total time of a measurement period over at least 1 second; determine a measure related to the intensity of the incoming UV light based on the UV detection events detected by the event detector when the excitation voltage is producing the excitation voltage,wherein the cumulative excitation time that the excitation voltage is applied to the UV sensor is dynamically changed based on the intensity of the incoming UV light; and output the measure related to the intensity of the incoming UV light.
A method for implementing a surface code on a system of qubits , the method comprising: operating the system of qubits, wherein the system of qubits is an apparatus comprising: a plurality of data qubits , a plurality of measurement qubits , a plurality of qubit couplers defining nearest neighbor interactions between the data qubits and measurement qubits, wherein the system of qubits is arranged as a two dimensional grid and each data qubit is coupled to multiple measurement qubits through respective qubit couplers, characterised in that operating the system of qubits comprises: pairing multiple data qubits with respective neighboring measurement qubits such that each paired data and measurement qubit is neither coupled nor diagonally adjacent to other paired data and measurement qubits; performing an entangling operation on each paired data and measurement qubit in parallel, the entangling operation comprising detuning each measurement qubit in the paired data and measurement qubits in parallel. a plurality of data qubits , a plurality of measurement qubits , a plurality of qubit couplers defining nearest neighbor interactions between the data qubits and measurement qubits, wherein the system of qubits is arranged as a two dimensional grid and each data qubit is coupled to multiple measurement qubits through respective qubit couplers, characterised in that operating the system of qubits comprises: pairing multiple data qubits with respective neighboring measurement qubits such that each paired data and measurement qubit is neither coupled nor diagonally adjacent to other paired data and measurement qubits; performing an entangling operation on each paired data and measurement qubit in parallel, the entangling operation comprising detuning each measurement qubit in the paired data and measurement qubits in parallel. pairing multiple data qubits with respective neighboring measurement qubits such that each paired data and measurement qubit is neither coupled nor diagonally adjacent to other paired data and measurement qubits; performing an entangling operation on each paired data and measurement qubit in parallel, the entangling operation comprising detuning each measurement qubit in the paired data and measurement qubits in parallel.
An esterification reaction apparatus comprising: a reaction tank having an accommodation part, in which a raw material containing carboxylic acid and alcohol to be supplied is accommodated, therein; a heating unit configured to individually heat partition regions that are partitioned into N (N is an integer of 2 or more) regions in a vertical direction of the accommodation part; and a controller configured to control the heating unit so that only the partition regions, in which a liquid is accommodated, among the N partition regions are heated by controlling the heating unit, thereby performing an esterification reaction of the raw material; wherein the heating unit comprises N heat source supply parts, which are respectively provided in the N partition regions; each of the heat source supply parts comprises a heat source supply tube, which has the form of a coil through which a high-temperature fluid that is a heat source passes, therein; and wherein a coil pitch of each of the heat source supply tubes disposed in the partition region, which is disposed at the lowermost portion, among the N partition regions is less than a coil pitch of each of the heat source supply tubes, which are disposed in the remaining regions. a reaction tank having an accommodation part, in which a raw material containing carboxylic acid and alcohol to be supplied is accommodated, therein; a heating unit configured to individually heat partition regions that are partitioned into N (N is an integer of 2 or more) regions in a vertical direction of the accommodation part; and a controller configured to control the heating unit so that only the partition regions, in which a liquid is accommodated, among the N partition regions are heated by controlling the heating unit, thereby performing an esterification reaction of the raw material; wherein the heating unit comprises N heat source supply parts, which are respectively provided in the N partition regions; each of the heat source supply parts comprises a heat source supply tube, which has the form of a coil through which a high-temperature fluid that is a heat source passes, therein; and wherein a coil pitch of each of the heat source supply tubes disposed in the partition region, which is disposed at the lowermost portion, among the N partition regions is less than a coil pitch of each of the heat source supply tubes, which are disposed in the remaining regions.
A system for printing an image on a surface , comprising: a robot having at least one arm ; a printhead mounted to the arm and being movable by the arm over a surface along a rastering path while printing an image slice on the surface , wherein the printhead preferably is an inkjet printhead; and the printhead being configured to print the image slice with an image gradient band along at least one of opposing side edges of the image gradient band wherein an image intensity within the image gradient band decreases from an inner portion of the image gradient band toward the side edge , wherein the robot is configured to electronically offset groups of nozzles actively ejecting droplets in a manner such that a side edge of the new image slice is aligned with the side edge of the existing image slice . a robot having at least one arm ; a printhead mounted to the arm and being movable by the arm over a surface along a rastering path while printing an image slice on the surface , wherein the printhead preferably is an inkjet printhead; and the printhead being configured to print the image slice with an image gradient band along at least one of opposing side edges of the image gradient band wherein an image intensity within the image gradient band decreases from an inner portion of the image gradient band toward the side edge , wherein the robot is configured to electronically offset groups of nozzles actively ejecting droplets in a manner such that a side edge of the new image slice is aligned with the side edge of the existing image slice .
A display device comprising: a display module including a display panel ; a front cover including a front horizontal part , which covers an edge of a front surface of the display module and extends in a horizontal direction (DR1, DR2), and a front vertical part , which extends from the front horizontal part in a vertical direction (DR3) and is positioned on the side of the display module ; and a back cover including a back horizontal part , which is positioned in the rear of the display module and extends in the horizontal direction (DR1, DR2), and a back vertical part , which extends from the back horizontal part in the vertical direction (DR3) and is parallel with the front vertical part of the front cover , characterized in that the display module further includes a frame positioned behind the display panel , wherein the frame includes a horizontal frame extending in the horizontal direction (DR1, DR2) and a vertical frame extending from the horizontal frame in the vertical direction (DR3), wherein a frame hole (FH) is formed at the frame ; and the front cover further includes a protrusion part (PT2) extending from an inner surface (S1) of the front vertical part of the front cover and inserted into the frame hole (FH). a display module including a display panel ; a front cover including a front horizontal part , which covers an edge of a front surface of the display module and extends in a horizontal direction (DR1, DR2), and a front vertical part , which extends from the front horizontal part in a vertical direction (DR3) and is positioned on the side of the display module ; and a back cover including a back horizontal part , which is positioned in the rear of the display module and extends in the horizontal direction (DR1, DR2), and a back vertical part , which extends from the back horizontal part in the vertical direction (DR3) and is parallel with the front vertical part of the front cover , characterized in that the display module further includes a frame positioned behind the display panel , wherein the frame includes a horizontal frame extending in the horizontal direction (DR1, DR2) and a vertical frame extending from the horizontal frame in the vertical direction (DR3), wherein a frame hole (FH) is formed at the frame ; and the front cover further includes a protrusion part (PT2) extending from an inner surface (S1) of the front vertical part of the front cover and inserted into the frame hole (FH).
A wireless power supply device comprising: a resonance circuit including a coil and a capacitor ; a power supply portion configured to supply AC power to the resonance circuit based on a drive signal (S1) having a prescribed drive frequency; and a controller configured to match a phase of the drive signal (S1) and a phase of oscillation of the resonance circuit , based on a phase difference between the phase of the drive signal and the phase of the oscillation of the resonance circuit, characterized in that the controller is configured to match the phase of the drive signal (S1) and the phase of oscillation of the resonance circuit by switching a direction of a current that flows into the coil of the resonance circuit at a point in time when the phase is deviated by 90 degrees with respect to a phase corresponding to a drive timing of the drive signal (S1). a resonance circuit including a coil and a capacitor ; a power supply portion configured to supply AC power to the resonance circuit based on a drive signal (S1) having a prescribed drive frequency; and a controller configured to match a phase of the drive signal (S1) and a phase of oscillation of the resonance circuit , based on a phase difference between the phase of the drive signal and the phase of the oscillation of the resonance circuit, characterized in that the controller is configured to match the phase of the drive signal (S1) and the phase of oscillation of the resonance circuit by switching a direction of a current that flows into the coil of the resonance circuit at a point in time when the phase is deviated by 90 degrees with respect to a phase corresponding to a drive timing of the drive signal (S1).
Method for supervising a robot , said robot having a robot arm and a tool center point (TCP), whereby it is possible to move the TCP to each point within a predefined working range of the robot, whereby it is forbidden for the TCP to enter a safety zone within the working range of the robot, said robot having a robot controller which is foreseen to control a movement of the robot according to data of a predefined movement program, comprising the following steps: • providing a movement program defining at least a given movement path for the tool center point (TCP) of the robot , • moving the robot with its TCP running along the movement path according to the movement program, • continuously determining the actual position of the TCP, • defining a tolerance zone with limits along and around the movement path , whereby the tolerance zone is outside the said safety zone, and whereby the tolerance zone is extending in a hose-like manner along the movement path , the method being characterized in that : the tolerance zone is widened and/or narrowed at least in sections along the movement path compared to the average width of the tolerance zone , and wherein the width of the tolerance zone is anti-proportional to a desired movement speed within certain limits, • continuously verifying whether the actual TCP position is within the tolerance zone , • stopping of the robot movement in the case that the movement of the TCP of the robot exceeds the limits of the tolerance zone . • providing a movement program defining at least a given movement path for the tool center point (TCP) of the robot , • moving the robot with its TCP running along the movement path according to the movement program, • continuously determining the actual position of the TCP, • defining a tolerance zone with limits along and around the movement path , whereby the tolerance zone is outside the said safety zone, and whereby the tolerance zone is extending in a hose-like manner along the movement path , • continuously verifying whether the actual TCP position is within the tolerance zone , • stopping of the robot movement in the case that the movement of the TCP of the robot exceeds the limits of the tolerance zone .
Cosmetic composition, in liquid form at room temperature, preferably for making up and/or caring for the skin and/or the lips, comprising, in a physiologically acceptable medium, at least one fatty phase comprising: - at least one non-volatile oil; - at least hydrophobic silica aerogel particles, present in an active material content ranging from 0.2% to 4% by weight, relative to the total weight of the composition, - at least one hydrocarbon-based indene resin, preferably having a number-average molecular weight of less than or equal to 10 000 g/mol; - at least one dyestuff preferably chosen from pigments and/or nacres, and mixtures thereof; - the said composition comprising less than 5% by weight of water relative to the total weight of the composition, and preferably being anhydrous. - at least one non-volatile oil; - at least hydrophobic silica aerogel particles, present in an active material content ranging from 0.2% to 4% by weight, relative to the total weight of the composition, - at least one hydrocarbon-based indene resin, preferably having a number-average molecular weight of less than or equal to 10 000 g/mol; - at least one dyestuff preferably chosen from pigments and/or nacres, and mixtures thereof; - the said composition comprising less than 5% by weight of water relative to the total weight of the composition, and preferably being anhydrous.
A PTC heating element with a heating element casing , which fits as a structural unit at least one PTC element and contact plates that energize said PTC element and form contact strips for an electrical plug connection in order to electrically connect electrodes that are electrically connected to said PTC element , where said PTC element is covered with an insulation layer on its two main side surfaces , wherein said heating element casing comprises an injection-molded plastic frame which encloses said insulation layers only at the edges thereof and defines oppositely disposed frame openings , behind which said PTC element with its main side surfaces is located, and wherein the two insulation layers are exposed within the oppositely disposed frame openings , , characterized in that said plastic frame is connected in a material-fit and/or positive-fit manner to the insulation plate and the at least one PTC element between the two insulation plates .
Method for preparing C-H acidic (meth)acrylates of formula (I) CH 2 =CR 1 -CO-NH-R 2 -NH-CO-CH 2 -CN (I) (P) wherein R 1 : H or methyl R 2 : C n H m O x N y where n= 2-15 m= 4-30 x= 0-4 and y= 0-4 characterized in that a) an ester of cyanoacetic acid (A) is reacted with a diamine (B) in excess, b) unreacted diamine (B) is removed from the reaction solution, c) the intermediate product (IP) obtained in b), an amino-functionalized cyanoacetamide, c1) is reacted with (meth)acrylic acid esters (MAD), or c2) is reacted with (meth)acrylic anhydride (MAD) or (meth)acryloyl halide (MAD), d) the product (P) obtained in c) is optionally isolated by means of extraction or crystallization. R 1 : H or methyl R 2 : C n H m O x N y where n= 2-15 m= 4-30 x= 0-4 and y= 0-4 n= 2-15 m= 4-30 x= 0-4 and y= 0-4 a) an ester of cyanoacetic acid (A) is reacted with a diamine (B) in excess, b) unreacted diamine (B) is removed from the reaction solution, c) the intermediate product (IP) obtained in b), an amino-functionalized cyanoacetamide, c1) is reacted with (meth)acrylic acid esters (MAD), or c2) is reacted with (meth)acrylic anhydride (MAD) or (meth)acryloyl halide (MAD), d) the product (P) obtained in c) is optionally isolated by means of extraction or crystallization. c1) is reacted with (meth)acrylic acid esters (MAD), or c2) is reacted with (meth)acrylic anhydride (MAD) or (meth)acryloyl halide (MAD), d) the product (P) obtained in c) is optionally isolated by means of extraction or crystallization.
Open-pored catalyst support consisting of a material which comprises a natural sheet silicate and also ZrO 2 in the tetragonal modification, characterized in that the catalyst support is in the form of a shaped body, liberates less than 0.06% by weight of Zr, calculated as ZrO 2 and based on the weight of the ZrO 2 present in the catalyst support, in boiling acetic acid, the ZrO 2 is present in particulate form and is statistically distributed uniformly in the support.