mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a device for providing a liquid additive, the device comprising a structural unit with a housing that is inserted in a tank for liquid additive, comprising a feeding path along which the liquid additive is fed, the feeding path extending from an intake port on the housing with a feeding direction towards an exhaust treatment device and having at least one first portion, which forms a heat conducting section from a heater of the device into the tank for the liquid additive, and the feeding path also having at least one second portion, in which a component susceptible to freezing is arranged, comprising at least the following steps: a) feeding liquid additive along the feeding path of the device; b) stopping the feeding of liquid additive; c) partially draining the feeding path, liquid additive remaining in the at least one first portion of the feeding path while the at least one second portion is being drained, characterized in that: the first portion forms an enclosing area around the heater. a) feeding liquid additive along the feeding path of the device; b) stopping the feeding of liquid additive; c) partially draining the feeding path, liquid additive remaining in the at least one first portion of the feeding path while the at least one second portion is being drained, the first portion forms an enclosing area around the heater.
A method for diagnosing Down's syndrome in a human fetus comprising determining the amount of plasma protease C1 inhibitor (C1 inhibitor) in a sample from the pregnant female carrying the fetus.
A system for establishing a secure vehicle network comprising a plurality of nodes (301, 302, 303, 304, 305, 306, 307), the plurality of nodes (301, 302, 303, 304, 305, 306, 307) including a memory storing a leader/follower field: means for establishing a communication path from a first node with a value corresponding to "leader" in the leader/follower field to a second node with a value corresponding to "leader" in the leader/follower field, the first node having first information corresponding to an identifier of the first node; and means for communicating from the first node to the second node over the communication path to establish the secure vehicle network by (i) receiving second information from the second node corresponding to an identifier of the second node, and (ii) maintain the value corresponding to "leader" in the leader/follower field in response to the first node being elected leader based on the second information received from the second node, and assigning a value corresponding to "follower" in the leader/follower field of the first node in response to the first node not being elected leader based on the second information received from the second node. means for establishing a communication path from a first node with a value corresponding to "leader" in the leader/follower field to a second node with a value corresponding to "leader" in the leader/follower field, the first node having first information corresponding to an identifier of the first node; and means for communicating from the first node to the second node over the communication path to establish the secure vehicle network by (i) receiving second information from the second node corresponding to an identifier of the second node, and (ii) maintain the value corresponding to "leader" in the leader/follower field in response to the first node being elected leader based on the second information received from the second node, and assigning a value corresponding to "follower" in the leader/follower field of the first node in response to the first node not being elected leader based on the second information received from the second node.
A dust collector for a vacuum cleaner, the dust collector comprising: a first cyclone comprising a housing provided in a first case, and configured to separate dust from air introduced from a lower portion thereof containing foreign materials and discharge the separated dust into a first dust storing unit defined by the first case, the first cyclone is separated from the first dust storing unit by the housing, a second cyclone provided at at least one side of the first cyclone, and configured to separate fine dust from the air, from which the dust has been separated by the first cyclone, and discharge the separated fine dust into a second dust storing unit defined in a second case; wherein the second cyclone extends substantially in parallel to an extending direction of the first cyclone, characterized in that the second case contacts an outer circumferential surface of the first cyclone and an inner circumferential surface of the first case. a first cyclone comprising a housing provided in a first case, and configured to separate dust from air introduced from a lower portion thereof containing foreign materials and discharge the separated dust into a first dust storing unit defined by the first case, the first cyclone is separated from the first dust storing unit by the housing, a second cyclone provided at at least one side of the first cyclone, and configured to separate fine dust from the air, from which the dust has been separated by the first cyclone, and discharge the separated fine dust into a second dust storing unit defined in a second case; wherein the second cyclone extends substantially in parallel to an extending direction of the first cyclone, characterized in that the second case contacts an outer circumferential surface of the first cyclone and an inner circumferential surface of the first case.
A method of decoding video data, the method comprising: determining whether a first transform coefficient of a first transform block is a DC transform coefficient; when the transform coefficient is determined to be the DC transform coefficient of the transform block, determining a first context for decoding the first transform coefficient based on the first transform coefficient being the DC transform coefficient without regard for a first size of the first transform block by mapping the DC transform coefficient to the same context data for a plurality of different sizes of transform blocks; determining whether a second transform coefficient of a second transform block is a DC transform coefficient, wherein the second transform block has a second size different from the first size of the first transform block; when the second transform coefficient is determined to be the DC transform coefficient of the second transform block, determining for all possible sizes of second video transform blocks the same context as for the first transform coefficient for decoding the second transform coefficient based on the transform coefficient being the DC transform coefficient of the second transform block without regard for the second size; entropy decoding the transform coefficient using the first context; and entropy decoding the second transform coefficient using the first context. determining whether a first transform coefficient of a first transform block is a DC transform coefficient; when the transform coefficient is determined to be the DC transform coefficient of the transform block, determining a first context for decoding the first transform coefficient based on the first transform coefficient being the DC transform coefficient without regard for a first size of the first transform block by mapping the DC transform coefficient to the same context data for a plurality of different sizes of transform blocks; determining whether a second transform coefficient of a second transform block is a DC transform coefficient, wherein the second transform block has a second size different from the first size of the first transform block; when the second transform coefficient is determined to be the DC transform coefficient of the second transform block, determining for all possible sizes of second video transform blocks the same context as for the first transform coefficient for decoding the second transform coefficient based on the transform coefficient being the DC transform coefficient of the second transform block without regard for the second size; entropy decoding the transform coefficient using the first context; and entropy decoding the second transform coefficient using the first context.
A compressor device, with a compressor apparatus that comprises a compressor chamber with a defined volume and in which an elastic, gas-tight and liquid-tight membrane divides the compressor chamber into a gas volume with a working gas and the liquid volume with a working liquid, a working gas connection (20, 22; 40) that empties into the gas volume, and a pump device that periodically pumps the working liquid into the liquid volume and as a result periodically compresses the working gas in the gas volume, wherein the membrane is constructed as a balloon or as a bellows, and wherein the balloon or the bellows surrounds the gas volume, characterized in that the gas volume in the compressor chamber is connected via a third working gas connection to a working gas reservoir.
An arithmetic operation method executed by a computer for performing arithmetic operations of a plurality of subtasks by using an arithmetic operation system equipped with an inexpensive execution unit for which a usage fee is inexpensive, but which may possibly be forcibly stopped, and an expensive execution unit for which a usage fee is expensive, but which will never be forcibly stopped, the arithmetic operation method characterized by: a simultaneous execution quantity calculation step of calculating a simultaneous execution quantity of the subtasks at each time of day on the basis of resources used by each of the subtasks and available resources at each time of day; an inexpensive remaining quantity calculation step of creating an inexpensive executability table indicating an inexpensive remaining quantity that is a quantity of tasks which may be executed by the inexpensive execution unit at each time of day on the basis of a completion date and time when the arithmetic operations of the plurality of subtasks should be completed, and the simultaneous execution quantity; and an execution instruction step of causing each of the subtasks to be executed by either the inexpensive execution unit or the expensive execution unit with reference to the inexpensive executability table. a simultaneous execution quantity calculation step of calculating a simultaneous execution quantity of the subtasks at each time of day on the basis of resources used by each of the subtasks and available resources at each time of day; an inexpensive remaining quantity calculation step of creating an inexpensive executability table indicating an inexpensive remaining quantity that is a quantity of tasks which may be executed by the inexpensive execution unit at each time of day on the basis of a completion date and time when the arithmetic operations of the plurality of subtasks should be completed, and the simultaneous execution quantity; and an execution instruction step of causing each of the subtasks to be executed by either the inexpensive execution unit or the expensive execution unit with reference to the inexpensive executability table.
A process for preparing compound C and compound D silmutaneously, wherein the process is illustrated in equation, starting materials are compound A and compound B under conditions: wherein in the equation, R 1 and R 2 is independently selected from the group consisting of hydrogen, linear or branched aliphatic groups containing 1-24 carbons (C 1 -C 24); the said groups may be interrupted by 1-6 non-continuous O, N, S, Si, C=O, NH, C=C, triple bond, Si-O, or C 6 -C 24 aromatic rings; or, R 1 and R 2 is independently aromatic groups containing 6-24 carbons (C 6 -C 24); said groups may be substituted by 0-4 times of C 1 -C 24 alkyls, OC 1 -C 24 alkyls, SC 1 -C 24 alkyls, NHC 1 -C 24 alkyls, N(C 1 -C 24 alkyl) 2, or halogens; R 3 and R 4 is each independently having the same meaning as that of R 1 and R 2; R 1 and R 2, or/and R 3 and R 4, may form a ring structure; R 5 is selected from the group consisting of hydrogen, methyl (CH 3) and hydroxymethyl (CH 2 OH); R 6 is selected from the group consisting of OH, H, CHO, R 1, OR 1, NHR 1, NR 1 R 2 and OM, wherein M is a metal cation; the conditions are two or more factors selected from the group consisting of organic base, inorganic base, catalyst, promoter, inhibitor, heat, microwave, ultrasonic wave, vacuum, pressure and solvent. R 3 and R 4 is each independently having the same meaning as that of R 1 and R 2; R 1 and R 2, or/and R 3 and R 4, may form a ring structure; R 5 is selected from the group consisting of hydrogen, methyl (CH 3) and hydroxymethyl (CH 2 OH); R 6 is selected from the group consisting of OH, H, CHO, R 1, OR 1, NHR 1, NR 1 R 2 and OM, wherein M is a metal cation; the conditions are two or more factors selected from the group consisting of organic base, inorganic base, catalyst, promoter, inhibitor, heat, microwave, ultrasonic wave, vacuum, pressure and solvent.
An assembly for a turbine engine with an axial centerline, comprising: a blade outer air seal segment; a linkage attached to the blade outer air seal segment; a rocker arm including a first arm and a second arm engaged with the linkage; and an actuation device engaged with the first arm, the actuation device configured to pivot the rocker arm and thereby radially move the blade outer air seal segment, wherein the linkage includes a shaft that extends radially away from the blade outer air seal segment, through an aperture in the second arm characterised in that the linkage further includes a head that radially engages the second arm and in that the shaft extends to the head. a blade outer air seal segment; a linkage attached to the blade outer air seal segment; a rocker arm including a first arm and a second arm engaged with the linkage; and an actuation device engaged with the first arm, the actuation device configured to pivot the rocker arm and thereby radially move the blade outer air seal segment, wherein the linkage includes a shaft that extends radially away from the blade outer air seal segment, through an aperture in the second arm characterised in that the linkage further includes a head that radially engages the second arm and in that the shaft extends to the head.
Composite panel for creating a wall or ceiling area of a building together with structurally identical composite panels, said panels being butt-joined in a panel plane, wherein the composite panel has two opposing large surfaces (1 d, 1 e) and end sides (1 b, 1 c) connecting the latter, and having at least two complementary joining regions (F1, F2) which are arranged on opposing end sides and which have mutually complementary connection means (2a, 2b) for connecting abutting composite panels so as to form a joint therebetween, and wherein the composite panel has a core made of a heat-insulating material, such as preferably a cured foam material, and has cover layers made of a non-combustible material which are arranged on both sides of the panel core and respectively cover the opposing large surfaces, wherein a sealing tape is arranged on at least one end side of the composite panel, which sealing tape, when adjacent composite panels are joined, is arranged between the latter so as to seal the joint, wherein the sealing tape has one broad side (11 a) facing towards the composite panel core and one broad side (11 b) facing away from the latter and preferably has a lamination arranged on the broad side facing towards the composite panel core, wherein the composite panel core has on the end side facing towards the joint and at least partially covering said core an intermediate layer (Z, Z') made of a non-combustible material which is fixed in position on one of the cover layers of the panel and is arranged between the sealing tape and the composite panel core, characterized in that the sealing tape has a body made of compressible soft foam material, and in that the sealing tape has an intumescent strip (15, 15') which is arranged adjacent to the intermediate layer on the side of the intermediate layer facing away from the composite panel core.
A polyarylene sulfide copolymer having a glass transition temperature of 95°C or higher and 190°C or lower, and having a melting point of 300°C or lower, or not having melting point, as measured by differential scanning calorimetry, wherein the copolymer comprises as a structural unit arylene sulfide units having a number average molecular weight (Mn) of 1,000 or more and 10,000 or less, wherein the copolymer comprises the arylene sulfide units represented as repeating units -(Ar-S)- and copolymeric component; the copolymer contains 80 mol% or more of the repeating unit represented by -(Ar-S)-; the copolymeric component comprises as a structural unit at least one structure selected from the following formulae (a) to (j): wherein R, R 1 and R 2, which are the same or different, each represents a substituent selected from hydrogen, a C 1-12 alkyl group, a C 6-24 arylene group, and a halogen group; and wherein the arylene sulfide unit and the copolymeric component are linked by an imide group. wherein the copolymer comprises as a structural unit arylene sulfide units having a number average molecular weight (Mn) of 1,000 or more and 10,000 or less, wherein the copolymer comprises the arylene sulfide units represented as repeating units -(Ar-S)- and copolymeric component; the copolymer contains 80 mol% or more of the repeating unit represented by -(Ar-S)-; the copolymeric component comprises as a structural unit at least one structure selected from the following formulae (a) to (j): wherein R, R 1 and R 2, which are the same or different, each represents a substituent selected from hydrogen, a C 1-12 alkyl group, a C 6-24 arylene group, and a halogen group; and wherein the arylene sulfide unit and the copolymeric component are linked by an imide group.
Percussive hand-held machine tool with a tool holder for supporting a percussive tool on a working axis, an electric motor, a striking mechanism, which has an an exciter, a striker which is coupled to the exciter via a pneumatic chamber arranged between the exciter and the striker, and a ram arranged in the direction of percussion of the striker, wherein the ram, in the working position, rests against a stop against the direction of percussion, of a radial opening of the pneumatic chamber, characterised in that a stationary shutoff valve (28, 42), which has a valve seat (34, 43) and an elastic barrier body (35, 44), wherein the elastic barrier body (35, 44), in a relaxed state, has basic shape projecting in whole or in part from the valve seat (34, 43), and wherein the elastic barrier body (35, 44), in the working position, is forced by the ram into a clamped form that rests fully against the valve (34, 43), a non-return valve, which is connected on the inlet side to the stationary shutoff valve (28, 42) and on the outlet side to the radial opening, and a throttle opening of the pneumatic chamber for exchanging air between the pneumatic chamber and the area surrounding the handheld power tool.
A method for generating output data based on a computational graph, the method performed by a representational state transfer, REST, server of a REST based distributed IoT network, the method comprising: the REST server storing information related to the computational graph, the computational graph defining a set of operations, wherein the set of operations comprises a first subset of one or more operations and a second subset of one or more operations, and further wherein the information related to the computational graph comprises information representing the first subset of operations; the REST server receiving input data; the REST server performing the first subset of operations using the received input data, thereby producing first output data corresponding to the first subset of operations; and the REST server exposing the first output data as a discoverable resource by generating a link and storing the link in a resource directory, so that the first output data is discoverable using RESTful operations by other devices. the REST server storing information related to the computational graph, the computational graph defining a set of operations, wherein the set of operations comprises a first subset of one or more operations and a second subset of one or more operations, and further wherein the information related to the computational graph comprises information representing the first subset of operations; the REST server receiving input data; the REST server performing the first subset of operations using the received input data, thereby producing first output data corresponding to the first subset of operations; and
A flux feeding apparatus for delivering flux to a mold during a continuous casting process, the apparatus comprising: a plurality of silos each containing a different flux or flux component; a receiver for receiving process parameters of the casting process; and a controller which is configured to: analyse the process parameters received by the receiver; determine whether a current flux composition is appropriate for the received process parameters; and if the current flux composition is not appropriate for the received process parameters, change the delivery of flux or flux components from the plurality of silos to provide a required flux composition to the mold for the received process parameters; wherein the receiver is for receiving data including flux consumption rate and/or heat transfer rate, wherein heat transfer rate is determined by measuring a temperature increase of cooling water used to cool the mold. a plurality of silos each containing a different flux or flux component; a receiver for receiving process parameters of the casting process; and a controller which is configured to: analyse the process parameters received by the receiver; determine whether a current flux composition is appropriate for the received process parameters; and if the current flux composition is not appropriate for the received process parameters, change the delivery of flux or flux components from the plurality of silos to provide a required flux composition to the mold for the received process parameters; analyse the process parameters received by the receiver; determine whether a current flux composition is appropriate for the received process parameters; and if the current flux composition is not appropriate for the received process parameters, change the delivery of flux or flux components from the plurality of silos to provide a required flux composition to the mold for the received process parameters; wherein the receiver is for receiving data including flux consumption rate and/or heat transfer rate, wherein heat transfer rate is determined by measuring a temperature increase of cooling water used to cool the mold.