mhurhangee/ep-ind-claims huggingface dataset:
Method for determining if at least one interferer generated by cross polarization interference is present in a received frame composed of time and frequency planes, characterized in that the method comprises the steps of: - analysing the received frame using a sliding window that takes a plurality of positions in the first and second planes of the received frame, - determining a factor of merit for each position of the sliding window, - comparing each factor of merit to a threshold in order to determine if at least one interfered zone is present in the received frame, - analysing the factors of merit in order to determine the number of interferers which are present in each interfered zone, - determining the start/end positions of each interferer in the first and second planes of the received frame. - analysing the received frame using a sliding window that takes a plurality of positions in the first and second planes of the received frame, - determining a factor of merit for each position of the sliding window, - comparing each factor of merit to a threshold in order to determine if at least one interfered zone is present in the received frame, - analysing the factors of merit in order to determine the number of interferers which are present in each interfered zone, - determining the start/end positions of each interferer in the first and second planes of the received frame.
A discharge device (10, 35) for discharging electrostatic charges from a shaft, the discharge device comprising a brush head (22, 38) which is disposed on a contact end (21, 37) of a lever rocker (19, 36) and which serves to come into contact with the shaft, and a connection device which is disposed on a connection end of the lever rocker and which serves to connect to a grounding conductor, and a bearing seat which is formed between the contact end and the connection end and which serves to connect the lever rocker to a rocker bearing, the brush head having a fiber support (28, 39) comprising a fiber assembly (32, 40) composed of a plurality of unidirectional contact fibers which are provided with contact ends serving to come into contact with a contact surface of the shaft, the contact fibers being carbon fibers (33, 41), characterized in that the fiber support has a clamping jaw assembly which holds the fiber assembly under preload between clamping jaws (29, 30), the fiber ends of the carbon fibers of the fiber assembly forming a contact protrusion protruding from the clamping jaw assembly.
A method for acquiring an opening time and/or a closing time of a circuit breaker device in a high-voltage AC power transmission network, wherein a point-on-wave controller is assigned to the circuit breaker device, the point-on-wave controller is permanently connected to a drive of the circuit breaker device, and the point-on-wave controller has dedicated measurement inputs, that are adapted for acquiring a timing information for a mechanical switching operation of the circuit breaker device, the method comprising: establishing a temporary electrical connection between primary contacts, which primary contacts are used for high-voltage switching during live operation, of said circuit breaker device and the dedicated measurement inputs, a mechanical switching operation of said circuit breaker device is initiated by said point-on-wave controller, measuring, by means of said point-on-wave controller, a time required for the mechanical switching operation of said circuit breaker device, wherein the measuring of the time required for the mechanical switching operation of the circuit breaker device is done with the circuit breaker device not being connected to high voltage, deriving, by means of said point-on-wave controller, the opening time and/or closing time based on said measured time, calculating, by means of said point-on-wave controller, improved operation strategies for the circuit breaker device during the live operation, and removing the temporary electrical connection after having derived the opening time and/or closing time, such that the circuit breaker device is used for the high-voltage switching, and additionally comprising a step of storing the derived opening time and/or closing time in a memory of said point-on-wave controller for being used for later live operation. establishing a temporary electrical connection between primary contacts, which primary contacts are used for high-voltage switching during live operation, of said circuit breaker device and the dedicated measurement inputs, a mechanical switching operation of said circuit breaker device is initiated by said point-on-wave controller, measuring, by means of said point-on-wave controller, a time required for the mechanical switching operation of said circuit breaker device, wherein the measuring of the time required for the mechanical switching operation of the circuit breaker device is done with the circuit breaker device not being connected to high voltage, deriving, by means of said point-on-wave controller, the opening time and/or closing time based on said measured time, calculating, by means of said point-on-wave controller, improved operation strategies for the circuit breaker device during the live operation, and removing the temporary electrical connection after having derived the opening time and/or closing time, such that the circuit breaker device is used for the high-voltage switching, and additionally comprising a step of storing the derived opening time and/or closing time in a memory of said point-on-wave controller for being used for later live operation.
Compounds of the formula I in which X 1, X 2, X 3, X 4, X 5 each, independently of one another, denote CH or N, R 1 denotes H, Hal, A, S m A, Ar, Het, O[C(R 5) 2] n Ar, O[C(R 5) 2] n Het or OR 5, R 7 denotes H or Hal, R 2 denotes A, Hal, [C(R 5) 2] n N(R 5) 2, [C(R 5) 2] n Het, O[C(R 5) 2] p N(R 5) 2, O[C(R 5) 2] n Het, [C(R 5) 2] n OR 5, O[C(R 5) 2] p OR 5, O-[C(R 5) 2] n -cycloalkylene-[C(R 5) 2] n -N(R 5) 2, [C(R 5) 2] n NR 5 COOA or CH=CH-COOR 5, R 3, R 3 ' each, independently of one another, denote H or R 8, R 4, R 6 denote H, R 5 denotes H or R 8, R 8 denotes unbranched or branched alkyl having 1-6 C atoms, A denotes unbranched or branched alkyl having 1-10 C atoms, in which 1-7 H atoms may be replaced by OH, F, Cl and/or Br, or cyclic alkyl having 3-7 C atoms, which may be mono-substituted by OH, Ar denotes phenyl which is unsubstituted or mono-, di- or trisubstituted by Hal, A and/or CN, Het denotes piperidinyl, pyrrolidinyl, morpholinyl, piperazinyl, oxazolidinyl, pyrazolyl, pyridinyl, pyrimidinyl, furyl, thienyl, oxazolyl, oxadiazolyl, imidazolyl, pyrrolyl, isoxa-zolyl or imidazolidinyl, where the radicals may also be mono- or disubstituted by Hal, A, COOR 5, O[C(R 5) 2] p -OR 5, [C(R 5) 2] n Het 1, O[C(R 5) 2] n Het 1 and/or =O, Het 1 denotes piperidinyl, pyrrolidinyl, morpholinyl, piperazinyl, oxazolidinyl or imidazolidinyl, where the radicals may also be mono- or disubstituted by COOA, =O and/or A, Hal denotes F, Cl, Br or I, m denotes 0, 1 or 2, n denotes 0, 1, 2, 3 or 4, p denotes 1, 2, 3 or 4, and pharmaceutically usable salts, tautomers and stereoisomers thereof, including mixtures thereof in all ratios. X 1, X 2, X 3, X 4, X 5 each, independently of one another, denote CH or N, R 1 denotes H, Hal, A, S m A, Ar, Het, O[C(R 5) 2] n Ar, O[C(R 5) 2] n Het or OR 5, R 7 denotes H or Hal, R 2 denotes A, Hal, [C(R 5) 2] n N(R 5) 2, [C(R 5) 2] n Het, O[C(R 5) 2] p N(R 5) 2, O[C(R 5) 2] n Het, [C(R 5) 2] n OR 5, O[C(R 5) 2] p OR 5, O-[C(R 5) 2] n -cycloalkylene-[C(R 5) 2] n -N(R 5) 2, [C(R 5) 2] n NR 5 COOA or CH=CH-COOR 5, R 3, R 3 ' each, independently of one another, denote H or R 8, R 4, R 6 denote H, R 5 denotes H or R 8, R 8 denotes unbranched or branched alkyl having 1-6 C atoms, A denotes unbranched or branched alkyl having 1-10 C atoms, in which 1-7 H atoms may be replaced by OH, F, Cl and/or Br, or cyclic alkyl having 3-7 C atoms, which may be mono-substituted by OH, Ar denotes phenyl which is unsubstituted or mono-, di- or trisubstituted by Hal, A and/or CN, Het denotes piperidinyl, pyrrolidinyl, morpholinyl, piperazinyl, oxazolidinyl, pyrazolyl, pyridinyl, pyrimidinyl, furyl, thienyl, oxazolyl, oxadiazolyl, imidazolyl, pyrrolyl, isoxa-zolyl or imidazolidinyl, where the radicals may also be mono- or disubstituted by Hal, A, COOR 5, O[C(R 5) 2] p -OR 5, [C(R 5) 2] n Het 1, O[C(R 5) 2] n Het 1 and/or =O, Het 1 denotes piperidinyl, pyrrolidinyl, morpholinyl, piperazinyl, oxazolidinyl or imidazolidinyl, where the radicals may also be mono- or disubstituted by COOA, =O and/or A, Hal denotes F, Cl, Br or I, m denotes 0, 1 or 2, n denotes 0, 1, 2, 3 or 4, p denotes 1, 2, 3 or 4,
A method for quantifying at least a first and a second peptide in a sample containing varying concentrations of said first and second peptides, wherein the concentrations of said first and said second peptides differ by a factor of at least 10, wherein the first peptide is present in higher concentration than said second peptide, comprising the steps of: (a) adding known quantities of labeled versions of said first and second peptides to the sample; (b) contacting the resulting sample with a support having a first antibody specific for said first peptide and a second antibody specific for said second peptide, wherein said second antibody is different from said first antibody, wherein said first antibody is (i) present at higher concentrations than said second antibody, (ii) has an affinity for said first peptide that is higher than the affinity of said second antibody for said second peptide, or (iii) is present in higher concentration than said second antibody and has an affinity for said first peptide that is higher than the affinity of said second antibody for said second peptide; (c) separating peptides bound by said first and said second antibodies from unbound peptides; (d) eluting said peptides bound by said first and said second antibodies from said support; (e) measuring the amount of said peptides bound by said first and second antibodies eluted from said support using a mass spectrometer, and (f) calculating the amounts of said first and second peptides in the biological sample; wherein said biological sample is a proteolytic digest of a bodily fluid sample. (a) adding known quantities of labeled versions of said first and second peptides to the sample; (b) contacting the resulting sample with a support having a first antibody specific for said first peptide and a second antibody specific for said second peptide, wherein said second antibody is different from said first antibody, wherein said first antibody is (i) present at higher concentrations than said second antibody, (ii) has an affinity for said first peptide that is higher than the affinity of said second antibody for said second peptide, or (iii) is present in higher concentration than said second antibody and has an affinity for said first peptide that is higher than the affinity of said second antibody for said second peptide; (c) separating peptides bound by said first and said second antibodies from unbound peptides; (d) eluting said peptides bound by said first and said second antibodies from said support; (e) measuring the amount of said peptides bound by said first and second antibodies eluted from said support using a mass spectrometer, and (f) calculating the amounts of said first and second peptides in the biological sample;
A method for determining safety speed information of a road, comprising: a) acquiring first speed limit information of a current road from a navigation map; b) acquiring second speed limit information of the current road from a high-precision map; c) capturing an image of at least one indication sign on the current road by means of an image capturing device, and identifying the image to determine third speed limit information of the current road; d) determining a curvature of a current lane based on a first input from the navigation map, a second input from the high-precision map, and a third input from the image capturing device; and e) determining a safety speed associated with a corresponding road segment of the current lane on the basis of the first speed limit information, the second speed limit information, the third speed limit information, and the curvature of the current lane, wherein the high-precision map provides the second speed limit information for each lane in a highway, wherein the high-precision map includes data for slope, curvature, heading, elevation, and roll of each lane, wherein the second speed limit information comprises speed limit information of each lane on the current road, and wherein the third speed limit information comprises at least speed limit information of a lane where a vehicle is located. a) acquiring first speed limit information of a current road from a navigation map; b) acquiring second speed limit information of the current road from a high-precision map; c) capturing an image of at least one indication sign on the current road by means of an image capturing device, and identifying the image to determine third speed limit information of the current road; d) determining a curvature of a current lane based on a first input from the navigation map, a second input from the high-precision map, and a third input from the image capturing device; and e) determining a safety speed associated with a corresponding road segment of the current lane on the basis of the first speed limit information, the second speed limit information, the third speed limit information, and the curvature of the current lane, wherein the high-precision map provides the second speed limit information for each lane in a highway, wherein the high-precision map includes data for slope, curvature, heading, elevation, and roll of each lane, wherein the second speed limit information comprises speed limit information of each lane on the current road, and wherein the third speed limit information comprises at least speed limit information of a lane where a vehicle is located.
A method for charging a battery of a first electronic device, the method in the first electronic device comprising: determining whether a current supply device is connected to a second electronic device connected to the first electronic device through a specified resistance recognized by the current supply device connected to a terminal of the second electronic device; recognizing at least one external device connected to the second electronic device when the current supply device is connected to the second electronic device; setting a charging current based on the recognized at least one external device; and receiving the set charging current from the current supply device connected to the second electronic device and charging the battery of the first electronic device, supplying, when the current supply device is not connected to the second electronic device, a predetermined voltage to the second electronic device, wherein each of the first electronic device, the second electronic device, the current supply device, and the at least one external device are different from each other. determining whether a current supply device is connected to a second electronic device connected to the first electronic device through a specified resistance recognized by the current supply device connected to a terminal of the second electronic device; recognizing at least one external device connected to the second electronic device when the current supply device is connected to the second electronic device; setting a charging current based on the recognized at least one external device; and receiving the set charging current from the current supply device connected to the second electronic device and charging the battery of the first electronic device, supplying, when the current supply device is not connected to the second electronic device, a predetermined voltage to the second electronic device, wherein each of the first electronic device, the second electronic device, the current supply device, and the at least one external device are different from each other.
Detergent composition comprising: (a) an amine oxide, (b) a nonionic surfactant, (c) an aminoalcohol solvent, and (d) an alkali metal salt selected from carbonate salt, silicate salt, phosphate salt, and sulphate salt, wherein the weight ratio of amine oxide to non-ionic surfactant is comprised between 3 and 10, and wherein the weight ratio of aminoalcohol solvent to alkali metal salt selected from carbonate salt, silicate salt, phosphate salt, and sulphate salt is comprised between 3 and 10. (a) an amine oxide, (b) a nonionic surfactant, (c) an aminoalcohol solvent, and (d) an alkali metal salt selected from carbonate salt, silicate salt, phosphate salt, and sulphate salt,
A wind turbine comprising an elevator system, the elevator system comprising: an elevator cabin configured to run along an elevator path, a drive for moving the elevator cabin along the elevator path, and a cable for supplying electrical power and/or control signals (3; 4) to the elevator cabin, the cable (3; 4) being connected at a first end to the elevator cabin, characterized in that the elevator system further comprises a cable protection system (6; 11), the cable protection system (6; 11) being attached to the elevator cabin and comprising a cable support for holding a portion of the cable (3; 4), an actuator (8; 141) operatively connected with the cable support; and a restraint (7; 12-13-14) configured to retain the actuator (8; 141) or the cable support up to a threshold force such that when the cable (3; 4) exerts a force on the cable support that is higher than the threshold force, the actuator (8; 141) pushes against a switch (9; 16) to stop the drive, wherein the restraint is configured to provide a magnetic force, or the restraint is formed by a cantilever mounted plate extending from a fixed end to a moveable end, the cable support being connected to the plate, at or near the moveable end. an elevator cabin configured to run along an elevator path, a drive for moving the elevator cabin along the elevator path, and a cable for supplying electrical power and/or control signals (3; 4) to the elevator cabin, the cable (3; 4) being connected at a first end to the elevator cabin, characterized in that the elevator system further comprises a cable protection system (6; 11), the cable protection system (6; 11) being attached to the elevator cabin and comprising a cable support for holding a portion of the cable (3; 4), an actuator (8; 141) operatively connected with the cable support; and a restraint (7; 12-13-14) configured to retain the actuator (8; 141) or the cable support up to a threshold force such that when the cable (3; 4) exerts a force on the cable support that is higher than the threshold force, the actuator (8; 141) pushes against a switch (9; 16) to stop the drive, wherein the restraint is configured to provide a magnetic force, or the restraint is formed by a cantilever mounted plate extending from a fixed end to a moveable end, the cable support being connected to the plate, at or near the moveable end. a cable support for holding a portion of the cable (3; 4), an actuator (8; 141) operatively connected with the cable support; and a restraint (7; 12-13-14) configured to retain the actuator (8; 141) or the cable support up to a threshold force such that when the cable (3; 4) exerts a force on the cable support that is higher than the threshold force, the actuator (8; 141) pushes against a switch (9; 16) to stop the drive, wherein the restraint is configured to provide a magnetic force, or the restraint is formed by a cantilever mounted plate extending from a fixed end to a moveable end, the cable support being connected to the plate, at or near the moveable end.
Use of a rubber composition comprising a liquid rubber and a radical initiator for an additive manufacturing apparatus for producing a three-dimensional structure, wherein the liquid rubber is selected from one or more of a group comprising liquid butadiene rubber, liquid styrene-butadiene copolymer rubber, liquid isoprene-butadiene copolymer rubber, liquid isoprene rubber, liquid hydrogenated isoprene rubber, and liquid isoprene-styrene copolymer rubber, wherein the liquid rubber has a crosslinkable (meth)acryloyl group, vinyl group, epoxy group or oxetane group; has a number average molecular weight of 5,000 to 60,000, and is present in an amount of 40 to 90 mass% of the rubber composition; and the radical initiator generates radicals upon light irradiation.
A method of thermal monitoring of a power device comprising an enclosure around a heat-generating component in contact with a circulating electrically insulating cooling fluid, the power device comprising a first sensor performing measurements relating to power losses of the power device and a second sensor performing measurements of a reference temperature of the power device, the method comprising: in a first computer processing environment, executing a first algorithm based on design information about the power device for at least two different operation states of the power device; from the first algorithm, deriving coefficients relating to heat transfer in the power device for the at least two different operation states; storing the derived coefficients in a database; connecting the database to a second computer processing environment; during operation of the power device, the second computer processing environment receiving information about the measurements performed by the first sensor and the second sensor; and in the second computer processing environment, executing a second algorithm based on the stored coefficients and on the received measurement information for estimating at least one temperature of the heat generating component in the power device in real time; wherein, in contrast to the execution of the first algorithm, the second algorithm is executed continuously and automatically during operation of the power device; the method being characterized by controlling the power device based on the estimated at least one temperature; wherein the different operation states are defined by different current loads which give different fluid flow rates unless there is forced circulation of the cooling fluid. in a first computer processing environment, executing a first algorithm based on design information about the power device for at least two different operation states of the power device; from the first algorithm, deriving coefficients relating to heat transfer in the power device for the at least two different operation states; storing the derived coefficients in a database; connecting the database to a second computer processing environment; during operation of the power device, the second computer processing environment receiving information about the measurements performed by the first sensor and the second sensor; and in the second computer processing environment, executing a second algorithm based on the stored coefficients and on the received measurement information for estimating at least one temperature of the heat generating component in the power device in real time; wherein, in contrast to the execution of the first algorithm, the second algorithm is executed continuously and automatically during operation of the power device; the method being characterized by controlling the power device based on the estimated at least one temperature; wherein the different operation states are defined by different current loads which give different fluid flow rates unless there is forced circulation of the cooling fluid.