mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing an electrode assembly , the method comprising: manufacturing a stack (S) by stacking first electrodes , separators , and second electrodes on a stack table so that the first electrodes and the second electrodes are alternately disposed between the folded separators ; fixing the stack (S) on the stack table by gripping a first area of the stack (S) by means of a first gripper ; heating and pressing only a second area of the stack (S) fixed by the first gripper ; releasing the first area of the stack (S) by releasing the first gripper after the heating and pressing of the second area of the stack (S) are completed; fixing the stack (S) to the stack table by gripping the second area of the stack (S) by means of a second gripper ; and heating and pressing only the first area of the stack (S) fixed by the second gripper , wherein the first and second areas partially overlap each other or are different from each other. manufacturing a stack (S) by stacking first electrodes , separators , and second electrodes on a stack table so that the first electrodes and the second electrodes are alternately disposed between the folded separators ; fixing the stack (S) on the stack table by gripping a first area of the stack (S) by means of a first gripper ; heating and pressing only a second area of the stack (S) fixed by the first gripper ; releasing the first area of the stack (S) by releasing the first gripper after the heating and pressing of the second area of the stack (S) are completed; fixing the stack (S) to the stack table by gripping the second area of the stack (S) by means of a second gripper ; and heating and pressing only the first area of the stack (S) fixed by the second gripper , wherein the first and second areas partially overlap each other or are different from each other.
A down-fill pillow comprising a fabric pouch in which is captively retained in close fit therein one or more down feather sheet of predetermined density and substantially constant thickness and wherein down feathers are bound together throughout by a binding agent wherein said down feather sheet is a mat of down feathers sandwiched and bonded between a top and bottom elastomeric sheet formed from an elastic adhesive stretchable fabric, said down feather sheet having a memory exhibiting rebounding properties, and a shaped core body in said fabric pouch, said shaped core body being fabricated of flexible foam material having a shape restoring memory, said down feather sheet being disposed in said pouch to encapsulate said shaped core body. therein one or more down feather sheet of predetermined density and substantially constant thickness and wherein down feathers are bound together throughout by a binding agent wherein said down feather sheet is a mat of down feathers sandwiched and bonded between a top and bottom elastomeric sheet formed from an elastic adhesive stretchable fabric, said down feather sheet having a memory exhibiting rebounding properties, and a shaped core body in said fabric pouch, said shaped core body being fabricated of flexible foam material having a shape restoring memory, said down feather sheet being disposed in said pouch to encapsulate said shaped core body.
A sliding component characterized in that a sealing face (S) of one of a pair of sliding parts that slide relative to each other is provided with a first pumping groove that is open to a high-pressure fluid side but isolated from a low-pressure fluid side by a seal area, as well as a second pumping groove that is open to the low-pressure fluid side but isolated from the high-pressure fluid side by a seal area, wherein a low-pressure fluid-side end of the first pumping groove is arranged adjacent to a high-pressure fluid-side end of the second pumping groove , wherein the first pumping groove and second pumping groove are formed in spiral shapes and angled to discharge a fluid toward the high-pressure fluid side by sliding relative to a mating sealing face, and wherein the first pumping groove and second pumping groove are arranged in such a way that the low-pressure fluid-side end of the first pumping groove is separated from the high-pressure fluid-side end of the second pumping groove in a radial direction, characterised in that the first pumping groove and second pumping groove are respectively provided in plurality in a circumferential direction and the first pumping grooves and the respective second pumping grooves are arranged as pairs, wherein each pair of pumping grooves comprising the first pumping groove and second pumping groove is arranged in such a way that the first pumping groove is positioned on an upstream side of the second pumping groove in the circumferential direction.
An electronic device comprising: a sensor configured to acquire a pulse wave; and a controller configured to calculate an index based on the acquired pulse wave, wherein the controller is configured to estimate a state of lipid metabolism of a subject using the calculated index, wherein the sensor is configured to acquire pulse waves at a plurality of times, and the controller is configured to calculate a plurality of indices corresponding to the pulse waves acquired at the plurality of times and to estimate the state of lipid metabolism of the subject in accordance with change over time of the calculated indices, wherein the plurality of times includes at least before a meal and after a meal, wherein the controller is configured to extract extreme values from the index for after the meal and to estimate the state of lipid metabolism of the subject in accordance with a second extreme value occurring after a predetermined length of time elapses after the meal and an occurrence time of the second extreme value. a sensor configured to acquire a pulse wave; and a controller configured to calculate an index based on the acquired pulse wave, wherein the controller is configured to estimate a state of lipid metabolism of a subject using the calculated index, wherein the sensor is configured to acquire pulse waves at a plurality of times, and the controller is configured to calculate a plurality of indices corresponding to the pulse waves acquired at the plurality of times and to estimate the state of lipid metabolism of the subject in accordance with change over time of the calculated indices, wherein the plurality of times includes at least before a meal and after a meal, wherein the controller is configured to extract extreme values from the index for after the meal and to estimate the state of lipid metabolism of the subject in accordance with a second extreme value occurring after a predetermined length of time elapses after the meal and an occurrence time of the second extreme value.
Tool-fitting apparatus for a power tool , in particular a chipping hammer, comprising a holding device for receiving and holding a tool shank , a retaining element which runs at least sectionally around the holding device , and a dust-protection device for preventing ingress of dust into the tool-fitting apparatus , wherein the dust-protection device comprises at least one first dust-stripping element , at least one fixing bead , and at least one sealing-lip element , wherein the sealing-lip element is positioned in front of the retaining element in an axial direction (F), characterized in that the sealing-lip element bears against a surface of the holding device .
A product for use in treatment of muscular degenerative disorders in a subject in need thereof, the treatment comprising administering to the subject in need thereof a composition comprising a compound, or a pharmaceutically acceptable salt thereof, having the structure of Formula (I):
A composition comprising (a) an oil of lubricating viscosity and (b) 0.0001 to 10 weight percent based on the weight of the composition of a condensation product of (i) pyromellitic anhydride; with (ii) an aliphatic primary amine, containing 6 to 80 carbon atoms, wherein the aliphatic primary amine is an N,N-dialkyl-1,3-propanediamine, said condensation product comprising an imide. (a) an oil of lubricating viscosity and (b) 0.0001 to 10 weight percent based on the weight of the composition of a condensation product of (i) pyromellitic anhydride; with (ii) an aliphatic primary amine, containing 6 to 80 carbon atoms, wherein the aliphatic primary amine is an N,N-dialkyl-1,3-propanediamine, said condensation product comprising an imide. (i) pyromellitic anhydride; with (ii) an aliphatic primary amine, containing 6 to 80 carbon atoms, wherein the aliphatic primary amine is an N,N-dialkyl-1,3-propanediamine, said condensation product comprising an imide.
An aza-polysilane precursor comprising at least two Si-N bonds, at least one Si-Si bond, and at least two SiH 2 groups represented by one of the following Formulae IA, IB and IC: wherein R 1 and R 2 are independently selected from a linear or branched C 1 to C 10 alkyl group, a linear or branched C 3 to C 10 alkenyl group, a linear or branched C 3 to C 10 alkynyl group, a C 3 to C 10 cyclic alkyl group, a C 3 to C 10 hetero-cyclic alkyl group, a C 5 to C 10 aryl group, a C 3 to C 10 hetero-aryl group, a C 2 to C 10 dialkylamino group and a C 3 to C 10 cyclic alkylamino group; R 3 and R 4 are independently selected from hydrogen, a linear or branched C 1 to C 10 alkyl group, a linear or branched C 2 to C 10 alkenyl group, a linear or branched C 2 to C 10 alkynyl group, a C 3 to C 10 cyclic alkyl group, a C 3 to C 10 hetero-cyclic alkyl group, a C 5 to C 10 aryl group, a C 3 to C 10 hetero-aryl group, a C 2 to C 10 dialkylamino group and a C 3 to C 10 cyclic alkylamino group; wherein R 1 in Formula IA cannot be methyl, R 1 and R 2 in Formula IB cannot both be iso-propyl, both be tert-butyl, or both be benzyl and R 3 and R 4 cannot both be methyl or both be phenyl.
Trehalose or a pharmaceutical formulation comprising same, for use in a method for treating or alleviating oculopharyngeal muscular dystrophy (OPMD) in a human subject in need thereof, said method comprising intravenously administering to said subject a therapeutically effective amount of trehalose or a pharmaceutical formulation comprising the same.
A method performed by one or more data processing apparatus on-board a vehicle , the method comprising: processing (502-506) an input that characterizes a trajectory of the vehicle in an environment using an importance scoring model to generate an output that defines a respective importance score for each of a plurality of agents in the environment in a vicinity of the vehicle, wherein the importance score for an agent characterizes an estimated impact of the agent on planning decisions generated by a planning system of the vehicle which plans a future trajectory of the vehicle ; identifying , as high-priority agents, a proper subset of the plurality of agents with the highest importance scores; for only those agents of the plurality of agents that are identified as high-priority agents, generating data characterizing the agents using a first prediction model ; providing the data (108; 220) characterizing the high-priority agents generated using the first prediction model to the planning system of the vehicle to generate the planning decisions which plan the future trajectory of the vehicle ; and providing the generated planning decisions which plan the future trajectory of the vehicle to a control system of the vehicle for controlling operation of the vehicle . processing (502-506) an input that characterizes a trajectory of the vehicle in an environment using an importance scoring model to generate an output that defines a respective importance score for each of a plurality of agents in the environment in a vicinity of the vehicle, wherein the importance score for an agent characterizes an estimated impact of the agent on planning decisions generated by a planning system of the vehicle which plans a future trajectory of the vehicle ; identifying , as high-priority agents, a proper subset of the plurality of agents with the highest importance scores; for only those agents of the plurality of agents that are identified as high-priority agents, generating data characterizing the agents using a first prediction model ; providing the data (108; 220) characterizing the high-priority agents generated using the first prediction model to the planning system of the vehicle to generate the planning decisions which plan the future trajectory of the vehicle ; and providing the generated planning decisions which plan the future trajectory of the vehicle to a control system of the vehicle for controlling operation of the vehicle .
Metal sheet component, manufactured by hot forming a flat steel product which consists of in % by weight C: 0,02 - 0.5%, Si: 0.05 - 1%, Mn: 4 - 12 %, Cr: 0.1 - 4 %, Al: N: P: S: up to 3.5%, up to 0.05%, up to 0.05%, up to 0.01%, Cu, Ni: in total up to 2%, wherein the content of Cu and Ni is > 0,04%, Ti, Nb, V: in total up to 0.5%, Rare earth metals: up to 0.1%, and Fe as a remainder and unavoidable impurities , wherein the content %C of C and the content %Cr of Cr meet the following condition: 10 × %C + %Cr < 5 .5% , wherein the flat steel product after the hot forming into the metal sheet component has a bending angle determined according to VDA 238-100: 2010-12 of more than 60° and wherein the structure of the hot-formed metal sheet component consists of 5 - 50 % by volume austenite and as the remainder of martensite, tempered martensite or ferrite, wherein the ferrite proportion can also be "0" and wherein the average grain diameter of the grains of the structure is less than 5 μm.
A vehicle including an engine , the engine being selectably operably couplable to ground engaging motive means , the vehicle including a foot throttle for selectively controlling power delivery from the engine, a hand throttle for selectively controlling power delivery from the engine and an operator seat being moveable between a front facing position and a rear facing position, characterised in that : the vehicle includes an excavation mode in which:- the operator seat faces rearwards, the engine is decoupled from the ground engaging motive means and control of the engine will default to the hand throttle , wherein moving the operator seat to the rearwards position results in an engine speed automatically increasing to a predetermined speed setting of the hand throttle; and the vehicle further includes one of: a static operating mode and a transport operating mode; wherein in the static operating mode: the operator seat faces forwards, the engine is decoupled from the ground engaging motive means and/or a park brake is on, and control of the engine will default to the foot throttle; and wherein in the transport operating mode: the operator seat faces forwards, the engine is coupled to the ground engaging motive means and/or a park brake is off, and control of the engine will default to the foot throttle. the vehicle includes an excavation mode in which:- the operator seat faces rearwards, the engine is decoupled from the ground engaging motive means and control of the engine will default to the hand throttle , wherein moving the operator seat to the rearwards position results in an engine speed automatically increasing to a predetermined speed setting of the hand throttle; the operator seat faces rearwards, the engine is decoupled from the ground engaging motive means and control of the engine will default to the hand throttle , wherein moving the operator seat to the rearwards position results in an engine speed automatically increasing to a predetermined speed setting of the hand throttle; and the vehicle further includes one of: a static operating mode and a transport operating mode; wherein in the static operating mode: the operator seat faces forwards, the engine is decoupled from the ground engaging motive means and/or a park brake is on, and control of the engine will default to the foot throttle; and wherein in the transport operating mode: the operator seat faces forwards, the engine is coupled to the ground engaging motive means and/or a park brake is off, and control of the engine will default to the foot throttle. the operator seat faces forwards, the engine is decoupled from the ground engaging motive means and/or a park brake is on, and control of the engine will default to the foot throttle; and wherein in the transport operating mode: the operator seat faces forwards, the engine is coupled to the ground engaging motive means and/or a park brake is off, and control of the engine will default to the foot throttle. the operator seat faces forwards, the engine is coupled to the ground engaging motive means and/or a park brake is off, and control of the engine will default to the foot throttle.
A control apparatus configured to control at least one of a first driver that drives an image sensor for a first image stabilization and a second driver that drives a lens for a second image stabilization, characterized in that the control apparatus comprises: at least one processor or circuit configured to execute a plurality of tasks including a determination task configured to determine a ratio between the first image stabilization by the first driver and the second image stabilization by the second driver, using information on a changing amount of an imageable area of an optical system including the lens relative to a unit correcting angle of the second image stabilization, and information on a correcting angle of the first image stabilization relative to a unit driving amount of the image sensor.
A transport trolley for transporting material rolls , in particular in a corrugated board plant, comprising a) a frame , b) at least three running units connected to the frame for running on a surface, c) at least one movement drive connected to the frame for driving at least one of the running units , d) a material roll receiving means supported by the frame for receiving a material roll to be transported, and e) a communication device connected to the frame and comprising a receiver unit for receiving external information, wherein the communication device i. is in signal connection with the at least one movement drive for actuating the latter, characterized in that f) the material roll receiving means i. is supported with respect to the frame by means of at least one spring unit , and ii. has, at the bottom, at least one supporting element for support with respect to a ground in case of compression of the at least one spring unit . a) a frame , b) at least three running units connected to the frame for running on a surface, c) at least one movement drive connected to the frame for driving at least one of the running units , d) a material roll receiving means supported by the frame for receiving a material roll to be transported, and e) a communication device connected to the frame and comprising a receiver unit for receiving external information, wherein the communication device i. is in signal connection with the at least one movement drive for actuating the latter, i. is in signal connection with the at least one movement drive for actuating the latter, i. is supported with respect to the frame by means of at least one spring unit , and ii. has, at the bottom, at least one supporting element for support with respect to a ground in case of compression of the at least one spring unit .
A seal assembly for a gas turbine engine, comprising: a seal comprising a carbon material; and a seal seat positioned for rotation relative to the seal , wherein the seal and the seal seat each have a sealing surface which together define a sliding seal, and wherein at least the sealing surface of the seal seat is made of the same carbon material as the sealing surface of the seal , characterized in that : only the seal seat has a receptacle and a carbon-based block mounted in the receptacle , the carbon-based block defining the sealing surface of the seal seat . a seal comprising a carbon material; and a seal seat positioned for rotation relative to the seal , wherein the seal and the seal seat each have a sealing surface which together define a sliding seal, and wherein at least the sealing surface of the seal seat is made of the same carbon material as the sealing surface of the seal , characterized in that : only the seal seat has a receptacle and a carbon-based block mounted in the receptacle , the carbon-based block defining the sealing surface of the seal seat .
A computer-implemented method, comprising: receiving a first set of imaging data including a plurality of annihilation events detected during an imaging period, the first set of imaging data comprising a listmode data set; generating a plurality of four-dimensional volumetric images from the first set of imaging data for the imaging period, wherein each four-dimensional volumetric image includes a target tissue ; determining at least one motion correction for each of the plurality of four-dimensional volumetric images , wherein the at least one motion correction is determined using target tracking data generated for the target tissue over a time period associated with the four-dimensional volumetric image ; generating corrected imaging data from the first set of imaging data and the at least one motion correction; and generating at least one static reconstruction image including the target tissue during the imaging period from the corrected imaging data. receiving a first set of imaging data including a plurality of annihilation events detected during an imaging period, the first set of imaging data comprising a listmode data set; generating a plurality of four-dimensional volumetric images from the first set of imaging data for the imaging period, wherein each four-dimensional volumetric image includes a target tissue ; determining at least one motion correction for each of the plurality of four-dimensional volumetric images , wherein the at least one motion correction is determined using target tracking data generated for the target tissue over a time period associated with the four-dimensional volumetric image ; generating corrected imaging data from the first set of imaging data and the at least one motion correction; and generating at least one static reconstruction image including the target tissue during the imaging period from the corrected imaging data.
Method for electronic communication between a mobile device and an elevator , comprising the steps: - optically (S101) scanning a visual code comprising a fixed hardware address (MAC1) of the elevator by the mobile device ; - transmitting (S102) the fixed hardware address (MAC1) from the mobile device to a network node ; - determining (S1 03) an internet address (IP1) of the elevator based on the fixed hardware address (MAC1) by the network node ; and - communicating (S104) with the elevator based on the internet address (IP1). - optically (S101) scanning a visual code comprising a fixed hardware address (MAC1) of the elevator by the mobile device ; - transmitting (S102) the fixed hardware address (MAC1) from the mobile device to a network node ; - determining (S1 03) an internet address (IP1) of the elevator based on the fixed hardware address (MAC1) by the network node ; and - communicating (S104) with the elevator based on the internet address (IP1).