mhurhangee/ep-ind-claims huggingface dataset:
A test device comprising: a communication unit to sequentially receive messages partially including a test target signal of a plurality of bits transmitted from a test target device; and a judgment unit to check a value of the test target signal included in a message received by the communication unit in a first duration against a first expected value, to check a value of the test target signal included in a message received by the communication unit in a second duration different from the first duration against a second expected value acquired by inverting each bit of the first expected value, and to judge a test on the test target device as pass or fail based on both of the check results, wherein the judgment unit is further configured to check a value of a signal adjacent to the test target signal in the message received by the communication unit against a third expected value, and judge the test on the test target device as pass or fail based on the check result of the value of the test target signal and the check result of the value of the signal adjacent to the test target signal. a communication unit to sequentially receive messages partially including a test target signal of a plurality of bits transmitted from a test target device; and a judgment unit to check a value of the test target signal included in a message received by the communication unit in a first duration against a first expected value, to check a value of the test target signal included in a message received by the communication unit in a second duration different from the first duration against a second expected value acquired by inverting each bit of the first expected value, and to judge a test on the test target device as pass or fail based on both of the check results, wherein the judgment unit is further configured to check a value of a signal adjacent to the test target signal in the message received by the communication unit against a third expected value, and judge the test on the test target device as pass or fail based on the check result of the value of the test target signal and the check result of the value of the signal adjacent to the test target signal.
A compound of formula I, or a pharmaceutically acceptable salt thereof for use in preventing and/or treating a disease caused by transient receptor potential channel protein, wherein the disease is selected from the group consisting of pain, epilepsy, inflammation, respiratory disorder, pruritus, urinary tract disorder and inflammatory bowel disease; wherein, A is benzofuranyl or indanyl; R 1 and R 2 are each independently hydrogen, substituted or unsubstituted C 1 -C 6 alkyl; X is oxygen atom, or sulfur atom; Y is CH or nitrogen atom; R 3 is hydrogen, halogen, substituted or unsubstituted C 1 -C 6 alkyl; n is 1; "*" represents a chiral carbon atom, and the absolute configuration of the chiral carbon atom is S type; wherein, the "substituted" means that 1-4 hydrogen atoms on the group are substituted by a substituent selected from the group consisting of C 1 -C 6 alkyl, C 3 -C 7 cycloalkyl, C 1 -C 3 haloalkyl, halogen, nitro, cyano, hydroxyl, C 1 -C 4 carboxyl, C 2 -C 4 ester group, C 2 -C 4 amide group, C 1 -C 6 alkoxyl, C 1 -C 6 haloalkoxy, benzyl, 5- or 6- membered aryl or heteroaryl. A is benzofuranyl or indanyl; R 1 and R 2 are each independently hydrogen, substituted or unsubstituted C 1 -C 6 alkyl; X is oxygen atom, or sulfur atom; Y is CH or nitrogen atom; R 3 is hydrogen, halogen, substituted or unsubstituted C 1 -C 6 alkyl; n is 1; "*" represents a chiral carbon atom, and the absolute configuration of the chiral carbon atom is S type; wherein, the "substituted" means that 1-4 hydrogen atoms on the group are substituted by a substituent selected from the group consisting of C 1 -C 6 alkyl, C 3 -C 7 cycloalkyl, C 1 -C 3 haloalkyl, halogen, nitro, cyano, hydroxyl, C 1 -C 4 carboxyl, C 2 -C 4 ester group, C 2 -C 4 amide group, C 1 -C 6 alkoxyl, C 1 -C 6 haloalkoxy, benzyl, 5- or 6- membered aryl or heteroaryl.
Process for producing silicon by magnesiothermic reduction of silicon dioxide, characterized in that to achieve magnesiothermic reduction a reactant mixture is employed which comprises silicon dioxide, magnesium and, as moderators, magnesium oxide and silicon and optionally one or more further moderators.
A vehicle distributed network subsystem for providing feedback to a user, the subsystem comprising: a plurality of electronic control units (ECUs); and a data transmission means over which said ECUs are configured to communicate with one another, the data transmission means being configured to receive data relating to at least one parameter from at least one data source; wherein the subsystem is configured to define a nominated ECU for generating processed data from the data received by said data transmission means, and wherein the subsystem is configured to broadcast and deliver said processed data to two or more terminals for providing feedback to the user, to cause communication of the same parameter to the user by the different terminals. a plurality of electronic control units (ECUs); and a data transmission means over which said ECUs are configured to communicate with one another, the data transmission means being configured to receive data relating to at least one parameter from at least one data source; wherein the subsystem is configured to define a nominated ECU for generating processed data from the data received by said data transmission means, and wherein the subsystem is configured to broadcast and deliver said processed data to two or more terminals for providing feedback to the user, to cause communication of the same parameter to the user by the different terminals.
A gas barrier laminated film, comprising, on an inorganic thin film formed on at least one side of a base film, at least one constitutional unit layer containing a 0.1 to 5 nm thick anchor coat layer and an inorganic thin film formed on the anchor coat layer, wherein the anchor coat layer comprises a polyisocyanate curing agent and at least one resin selected from the group consisting of a polyester-based resin, an urethane-based resin, an acryl-based resin, a nitrocellulose-based resin, a silicon-based resin, and an isocyanate-based resin, or at least one member selected from the group consisting of chromium, a titanium oxide, and a silicon nitride, and wherein the inorganic thin film comprises a silicon oxide or an aluminum oxide.
A video encoding method of encoding a multi-viewpoint video image by using disparity compensation, the method comprising the steps of: generating, based on disparity information between a reference camera image, which is obtained by decoding an already-encoded camera image, and an encoding target camera image corresponding to the reference camera image, a disparity-compensated image for the encoding target camera image; setting reference target information, which indicates a reference target, for each of encoding processing sections on the encoding target camera image in accordance with presence or absence of the disparity-compensated image corresponding to said each of the encoding processing sections; selecting, for each of the encoding processing sections on the encoding target camera image, one of a decoded differential image, which is obtained by decoding a differential image between the already-encoded camera image and the disparity-compensated image, and a decoded camera image, which is obtained by decoding the already-encoded camera image, as the reference target based on the set reference target information; predictive-encoding a differential image between the encoding target camera image and the disparity-compensated image by referring to the image selected as the reference target; storing a decoded differential image, which is obtained by decoding the predictive-encoded differential image, and storing a decoded camera image, which is obtained by decoding the already-encoded camera image based on the decoded differential image obtained by decoding the predictive-encoded differential image. generating, based on disparity information between a reference camera image, which is obtained by decoding an already-encoded camera image, and an encoding target camera image corresponding to the reference camera image, a disparity-compensated image for the encoding target camera image; setting reference target information, which indicates a reference target, for each of encoding processing sections on the encoding target camera image in accordance with presence or absence of the disparity-compensated image corresponding to said each of the encoding processing sections; selecting, for each of the encoding processing sections on the encoding target camera image, one of a decoded differential image, which is obtained by decoding a differential image between the already-encoded camera image and the disparity-compensated image, and a decoded camera image, which is obtained by decoding the already-encoded camera image, as the reference target based on the set reference target information; predictive-encoding a differential image between the encoding target camera image and the disparity-compensated image by referring to the image selected as the reference target; storing a decoded differential image, which is obtained by decoding the predictive-encoded differential image, and storing a decoded camera image, which is obtained by decoding the already-encoded camera image based on the decoded differential image obtained by decoding the predictive-encoded differential image.
A method for determining a direct current (i(t)) flowing in a conductor and having an amplitude greater than 500 A, which direct current (i(t)) is composed of a number of time-dependent partial currents (i i (t)) flowing in individual conductors having switching elements, characterized in that at least one induced partial voltage (u i (t)) is created by the partial current (i i (t)) flowing in at least one individual conductor by arranging at least one Rogowski coil around at least one individual conductor, wherein the individual conductor is formed by a path of a rectifier on a secondary side of a transformer with central tapping, and this induced partial voltage (u i (t)) is integrated in at least one integrator and the direct current (i(t)) is determined with an evaluation unit connected to the at least one integrator.
A heating coil, comprising: at least a pair of heating conductors (23, 24) arranged facing each other with a predetermined gap therebetween for receiving a work to be heated such that one of the heating conductors is arrangeable at one side of the work and the other one is arrangeable at an opposite side of the work; and a plurality of connecting conductors (29, 29a, 29b) connecting an end of one of the heating conductors (23, 24) with an end of the other heating conductor (23, 24); wherein each of the heating conductors (23, 24) is connected with at least two connecting conductors (29, 29a, 29b), and the connecting conductors (29, 29a, 29b) extend from an end of each of the heating conductor (23, 24) in a different direction from each other; the heating coil being characterised in that the heating conductors (23, 24) each comprise a narrow width heating conductor and a wide width heating conductor connected to each other in the axis direction, the wide width heating conductor having a wider width than the narrow width heating conductor in a direction substantially perpendicular to the axis direction and being connected with the connecting conductors in its axis direction. at least a pair of heating conductors (23, 24) arranged facing each other with a predetermined gap therebetween for receiving a work to be heated such that one of the heating conductors is arrangeable at one side of the work and the other one is arrangeable at an opposite side of the work; and a plurality of connecting conductors (29, 29a, 29b) connecting an end of one of the heating conductors (23, 24) with an end of the other heating conductor (23, 24); wherein each of the heating conductors (23, 24) is connected with at least two connecting conductors (29, 29a, 29b), and the connecting conductors (29, 29a, 29b) extend from an end of each of the heating conductor (23, 24) in a different direction from each other; the heating coil being characterised in that the heating conductors (23, 24) each comprise a narrow width heating conductor and a wide width heating conductor connected to each other in the axis direction, the wide width heating conductor having a wider width than the narrow width heating conductor in a direction substantially perpendicular to the axis direction and being connected with the connecting conductors in its axis direction.
A lithotripter system for fragmenting urinary tract stones comprising: an ultrasonic driver configured to produce an ultrasonic waveform having an ultrasonic frequency; a sonic driver configured to produce a sonic waveform having a sonic frequency, the sonic driver being mechanically coupled to the ultrasonic driver; a stone size, mass or density detector for detecting a characteristic of the urinary tract stone, the detector coupled to at least one of the sonic driver or the ultrasonic driver to provide a control input based on the characteristic of the urinary tract stone; and a wave guide shaft for transmitting the ultrasonic and sonic waveforms to at least one urinary tract stone, the wave guide shaft being driven by at least one of the ultrasonic driver and the sonic driver. an ultrasonic driver configured to produce an ultrasonic waveform having an ultrasonic frequency; a sonic driver configured to produce a sonic waveform having a sonic frequency, the sonic driver being mechanically coupled to the ultrasonic driver; a stone size, mass or density detector for detecting a characteristic of the urinary tract stone, the detector coupled to at least one of the sonic driver or the ultrasonic driver to provide a control input based on the characteristic of the urinary tract stone; and a wave guide shaft for transmitting the ultrasonic and sonic waveforms to at least one urinary tract stone, the wave guide shaft being driven by at least one of the ultrasonic driver and the sonic driver.
Multi-stage rocket, comprising a recoverable rocket stage for propelling a rocket towards space, the recoverable rocket stage comprising: a rocket propellant tank assembly having a generally cylindrical outer shape, at least one engine, coupled to the rocket propellant tank assembly, and a plurality of drag enhancing elements, wherein the plurality of drag enhancing elements form longitudinal extensions of the generally cylindrical outer shape of the rocket propellant tank assembly, jointly forming a hollow cylinder or jointly forming a closed ring structure, in their launch positions, and are inclinable with respect to the generally cylindrical outer shape of the rocket propellant tank assembly for return of the recoverable rocket stage to earth, and the plurality of drag enhancing elements are structural connection elements between the recoverable rocket stage and a further rocket stage. a rocket propellant tank assembly having a generally cylindrical outer shape, at least one engine, coupled to the rocket propellant tank assembly, and a plurality of drag enhancing elements, wherein the plurality of drag enhancing elements form longitudinal extensions of the generally cylindrical outer shape of the rocket propellant tank assembly, jointly forming a hollow cylinder or jointly forming a closed ring structure, in their launch positions, and are inclinable with respect to the generally cylindrical outer shape of the rocket propellant tank assembly for return of the recoverable rocket stage to earth, and the plurality of drag enhancing elements are structural connection elements between the recoverable rocket stage and a further rocket stage.
A textile with elasticity, which is warp knitted, comprising a first weft unit, a plurality of elastic warp yarns and a plurality of twines, wherein the first weft unit comprises a plurality of first elastic weft yarns parallel to each other; wherein each of the first elastic weft yarns is adjacent to another first elastic weft yarn of the first weft unit with the first weft unit being formed by a first yarn running to and fro in a continuous S-shaped pattern; the textile with elasticity further comprises a second weft unit, a third weft unit and a fourth weft unit; wherein the second weft unit comprises a plurality of second elastic weft yarns parallel to each other, wherein each of the second elastic weft yarns is adjacent to another second elastic weft yarn of the second weft unit with the second weft unit being formed by a second yarn running to and fro in a continuous S-shaped pattern; wherein the first weft unit and the second weft unit are disposed on a same plane and are separated by a distance; the third weft unit comprises a plurality of third elastic weft yarns parallel to each other, wherein each of the third elastic weft yarns is adjacent to another third elastic weft yarn of the third weft unit with the third weft unit being formed by a third yarn running to and fro in a continuous S-shaped pattern; the fourth weft unit comprises a plurality of fourth elastic weft yarns parallel to each other, wherein each of the fourth elastic weft yarns is adjacent to another fourth elastic weft yarn of the fourth weft unit with the fourth weft unit being formed by the third yarn running to and fro in a continuous S-shaped pattern; wherein the third weft unit and the fourth weft unit are disposed on another same plane and are separated by the distance; wherein each of the first elastic weft yarns and each of the third elastic weft yarns are parallel to each other and separated by a gap between the planes; wherein each of the second elastic weft yarns and each of the fourth elastic weft yarns are parallel to each other and separated by the gap; wherein the elastic warp yarns are longitudinally disposed within the gap to form a warp yarn layer, wherein each of the elastic warp yarns combines with one of the twines tying one of the elastic warp yarns as a center for binding the first weft unit, the second weft unit, the third weft unit and the fourth weft unit to keep the distance.
A propulsion system comprising: a magnetic screw having a first magnetic element having a first polarity, the first magnetic element arranged along a first non-linear path along a longitudinal axis of the magnetic screw and a second magnetic element having a second polarity, the second magnetic element arranged along a second non-linear path along the longitudinal axis of the magnetic screw; a motor for rotating the magnetic screw about the longitudinal axis; a stator made from a ferrous material, the stator having a body with an internal cavity, the body including a plurality of poles extending into the cavity, the poles arranged along a pole non-linear path along a longitudinal axis of the stator; and characterized by a backup propulsion system having a mechanical screw, wherein the mechanical screw can engage the stator. a magnetic screw having a first magnetic element having a first polarity, the first magnetic element arranged along a first non-linear path along a longitudinal axis of the magnetic screw and a second magnetic element having a second polarity, the second magnetic element arranged along a second non-linear path along the longitudinal axis of the magnetic screw; a motor for rotating the magnetic screw about the longitudinal axis; a stator made from a ferrous material, the stator having a body with an internal cavity, the body including a plurality of poles extending into the cavity, the poles arranged along a pole non-linear path along a longitudinal axis of the stator; and characterized by a backup propulsion system having a mechanical screw, wherein the mechanical screw can engage the stator.
Hydraulic controller for a marine gear unit, having at least one electrically actuated pilot valve, which comprises an emergency-actuation device for the manual actuation of the pilot valve, wherein the emergency-actuation device can be actuated only by means of a tool, characterized in that the emergency-actuation device provided on the pilot valve is an actuating screw.
A process for recovering ethanol, comprising: hydrogenating acetic acid in an acetic acid feed stream in the presence of a catalyst to form a crude ethanol product comprising from 5 to 70 wt.% ethanol and from 5 to 35 wt.% water; separating at least a portion of the crude ethanol product in a first column into a first distillate comprising ethanol, water and ethyl acetate, and a first residue comprising acetic acid; separating at least a portion of the first distillate in a second column into a second distillate comprising ethyl acetate and a second residue comprising ethanol and water; and separating at least a portion of the second residue in a third column into a third distillate comprising ethanol and a third residue comprising water. hydrogenating acetic acid in an acetic acid feed stream in the presence of a catalyst to form a crude ethanol product comprising from 5 to 70 wt.% ethanol and from 5 to 35 wt.% water; separating at least a portion of the crude ethanol product in a first column into a first distillate comprising ethanol, water and ethyl acetate, and a first residue comprising acetic acid; separating at least a portion of the first distillate in a second column into a second distillate comprising ethyl acetate and a second residue comprising ethanol and water; and separating at least a portion of the second residue in a third column into a third distillate comprising ethanol and a third residue comprising water.
A lubricant composition comprising: (a) an oil of lubricating viscosity; (b) a molybdenum salt; (c) a monoester of (i) a polyol and (ii) an aliphatic carboxylic acid containing 12 to 24 carbon atoms; and (d) a borate ester of a vicinal diol containing 12 to 24 carbon atoms represented by the structures wherein at least one of R 1, R 2, R 3, and R 4 is an alkyl group containing at least 8 carbon atoms and the remaining group(s) is/are hydrogen, wherein the amount of the molybdenum (b) salt is an amount suitable to provide 50 to 4000 parts per million by weight Mo to the composition; wherein the amount of the monoester (c) is 0.03 to 2.0 parts by weight per 100 parts of the oil of lubricating viscosity; and wherein the borate ester of (d) is present in an amount to provide 30 to 2000 parts per million by weight of boron to the composition. (a) an oil of lubricating viscosity; (b) a molybdenum salt; (c) a monoester of (i) a polyol and (ii) an aliphatic carboxylic acid containing 12 to 24 carbon atoms; and (d) a borate ester of a vicinal diol containing 12 to 24 carbon atoms represented by the structures wherein at least one of R 1, R 2, R 3, and R 4 is an alkyl group containing at least 8 carbon atoms and the remaining group(s) is/are hydrogen, wherein the amount of the molybdenum (b) salt is an amount suitable to provide 50 to 4000 parts per million by weight Mo to the composition; wherein the amount of the monoester (c) is 0.03 to 2.0 parts by weight per 100 parts of the oil of lubricating viscosity; and wherein the borate ester of (d) is present in an amount to provide 30 to 2000 parts per million by weight of boron to the composition.