mhurhangee/ep-ind-claims huggingface dataset:
Asynchronous machine with a stator and a squirrel-cage rotor, the squirrel-cage rotor having a shaft and a laminate stack, and rotor bars being located in the laminate stack, which rotor bars are guided at both ends of the laminate stack through the openings of in each case one end plate and are terminated with a short-circuiting ring, which electrically conductively connects the ends of the rotor bars of one side of the squirrel-cage rotor, each end plate containing part of the rotor bars and part of a short-circuiting ring, and each end plate having a peripheral projection, which bears at least partially against the outer side of the short-circuiting ring, characterized in that the end plates are designed to be solid and have a higher-strength material than the rotor bars and the short-circuiting rings, in that the rotor bars have a thickened portion with an enlarged bar cross section at their ends, at least part of the thickened portion of the rotor bars lying in the openings of the end plate, and in that the transition between the thickened portion and the short-circuiting ring is in the form of a rounded portion with a transition radius.
A hardware testing device for conducting a test of hardware, comprising: a test list which describes a plurality of test cases to be executed in the hardware; a fault list which describes primary faults that may occur in the hardware and a fault rate of each of the primary faults, wherein a primary fault is a fault that exists in the hardware to be tested; a simulation test result table which describes test results of simulation tests conducted by injecting the respective primary faults stored in the fault list into the respective test cases described on the test list in a simulated environment configured to simulate the hardware, and existence of any secondary faults, wherein a secondary fault is a fault generated when a primary fault exists and a test operation is performed; a real machine testing unit configured to execute a real machine test to the hardware based on the test cases; and a test selection unit configured to determine a test case to be subsequently executed by the real machine testing unit among unexecuted test cases which are described in the test list and in which the real machine test has not yet been executed by the real machine testing unit, wherein the test selection unit comprises: a secondary fault calculation unit configured to calculate a parameter related to a secondary fault for each of the unexecuted test cases based on contents of the simulation test result table and the fault list; and a priority determination unit configured to determine a priority of the unexecuted test cases based on the parameter related to the secondary fault calculated by the secondary fault calculation unit. a test list which describes a plurality of test cases to be executed in the hardware; a fault list which describes primary faults that may occur in the hardware and a fault rate of each of the primary faults, wherein a primary fault is a fault that exists in the hardware to be tested; a simulation test result table which describes test results of simulation tests conducted by injecting the respective primary faults stored in the fault list into the respective test cases described on the test list in a simulated environment configured to simulate the hardware, and existence of any secondary faults, wherein a secondary fault is a fault generated when a primary fault exists and a test operation is performed; a real machine testing unit configured to execute a real machine test to the hardware based on the test cases; and a test selection unit configured to determine a test case to be subsequently executed by the real machine testing unit among unexecuted test cases which are described in the test list and in which the real machine test has not yet been executed by the real machine testing unit, a secondary fault calculation unit configured to calculate a parameter related to a secondary fault for each of the unexecuted test cases based on contents of the simulation test result table and the fault list; and a priority determination unit configured to determine a priority of the unexecuted test cases based on the parameter related to the secondary fault calculated by the secondary fault calculation unit.
A device asset management apparatus comprising: an operating asset state storage configured to store an operating asset state representing an asset state of a field device as an operating state; an inventory asset state storage configured to store an inventory asset state representing the asset state as an inventory state; an asset state changer which is implemented by a processor, and configured to change the operating asset state and the inventory asset state; and an asset state display configured to display the operating asset state and the inventory asset state, characterized in that the operating asset state comprises an asset ID for identifying the field device, a first state-change-date indicating a date on which the operating asset state changed, and a first state indicating a state of the field device, the inventory asset state comprises the asset ID, a second state-change-date indicating a date on which the inventory asset state changed, and a second state indicating a state of the field device, the asset state changer is further configured to store, into the operating asset state storage, a history of the first state-change-date and the first state included in the operating asset state based on information on a maintenance operation performed to the field device, and the asset state changer is further configured to store, into the inventory asset state storage, a history of the second state-change-date and the second state included in the inventory asset state based on information on warehousing and releasing of the field device. an operating asset state storage configured to store an operating asset state representing an asset state of a field device as an operating state; an inventory asset state storage configured to store an inventory asset state representing the asset state as an inventory state; an asset state changer which is implemented by a processor, and configured to change the operating asset state and the inventory asset state; and an asset state display configured to display the operating asset state and the inventory asset state, characterized in that the operating asset state comprises an asset ID for identifying the field device, a first state-change-date indicating a date on which the operating asset state changed, and a first state indicating a state of the field device, the inventory asset state comprises the asset ID, a second state-change-date indicating a date on which the inventory asset state changed, and a second state indicating a state of the field device, the asset state changer is further configured to store, into the operating asset state storage, a history of the first state-change-date and the first state included in the operating asset state based on information on a maintenance operation performed to the field device, and the asset state changer is further configured to store, into the inventory asset state storage, a history of the second state-change-date and the second state included in the inventory asset state based on information on warehousing and releasing of the field device.
Method for adapting the resolution of an imager Fourier transform spectrometer for satellite meteorological observation, the method comprising the following steps: - acquisition of data in interferogram mode and in image mode on survey points for an observed scene, each survey point being associated a matrix of macro-pixels and defined by a plurality of zones; - for each survey point: - analysis on the basis of the data of the image mode of the content of each zone; - classification (506, 508, 510, 512) according to the result of the analysis, of each zone into a clear zone class or into a non-clear zone class; - for each survey point having clear zones and non-clear zones: - summing the data of the macro-pixels of the clear zone class to generate a "clear pixel" data stream and summing the data of all the macro-pixels of the said matrix of macro-pixels associated with the said survey point to generate a "survey point" data stream; and - transmitting the two data streams. - acquisition of data in interferogram mode and in image mode on survey points for an observed scene, each survey point being associated a matrix of macro-pixels and defined by a plurality of zones; - for each survey point: - analysis on the basis of the data of the image mode of the content of each zone; - classification (506, 508, 510, 512) according to the result of the analysis, of each zone into a clear zone class or into a non-clear zone class; - for each survey point having clear zones and non-clear zones: - summing the data of the macro-pixels of the clear zone class to generate a "clear pixel" data stream and summing the data of all the macro-pixels of the said matrix of macro-pixels associated with the said survey point to generate a "survey point" data stream; and - transmitting the two data streams. - analysis on the basis of the data of the image mode of the content of each zone; - classification (506, 508, 510, 512) according to the result of the analysis, of each zone into a clear zone class or into a non-clear zone class; - for each survey point having clear zones and non-clear zones: - summing the data of the macro-pixels of the clear zone class to generate a "clear pixel" data stream and summing the data of all the macro-pixels of the said matrix of macro-pixels associated with the said survey point to generate a "survey point" data stream; and - transmitting the two data streams. - summing the data of the macro-pixels of the clear zone class to generate a "clear pixel" data stream and summing the data of all the macro-pixels of the said matrix of macro-pixels associated with the said survey point to generate a "survey point" data stream; and - transmitting the two data streams.
Device for removing air from, or supplying air to, a space, wherein the space is surrounded by walls, having a ventilation system for generating an air flow and an opening in at least one of the walls, at which the air flow begins or ends, wherein the device has at least three perforated plates (1, 2, 3) which are suitable for covering the opening, wherein the perforated plates (1, 2, 3) are arranged in layers relative to one another, and the perforated plates (1, 2, 3) exhibit two different hardnesses, characterized in that the two outer perforated plates (1, 3) exhibit the greater hardness by comparison with the at least one perforated plate located therebetween.
A positioning assembly comprising a position sensor and a magnetic actuator, with said actuator comprising a stator assembly consisting of at least one ferromagnetic stator carrying at least one electric power supply coil, and a yoke able to move relative to the stator assembly, with said yoke having an inner recess comprising a main axis of the actuator, with said sensor having at least one permanent magnet positioned inside said recess integral with said yoke and at least one magneto-sensitive probe positioned in the vicinity of the main axis inside the recess, with at least one detection axis oriented perpendicularly to said main axis, stationary relative to the magnet and able to measure the amplitude or the direction of the magnetic field emitted by said magnet, characterized in that said actuator has a geometry that is of revolution or periodic about said main axis passing through said yoke.
A light-responsive Natronomonas pharaonis halorhodopsin (NpHR) protein which comprises at its C-terminus an endoplasmic reticulum export signal having the amino acid sequence FCYENEV and a membrane trafficking signal having the amino acid sequence KSRITSEGEYIPLDQIDINV.
An exoskeleton structure configured to be fastened to the body of a wearer, wherein said exoskeleton structure comprises a) an upper physical interface with adjustable attachment means configured to be connected to the trunk of the wearer; b) at least a first pivot joint assimilated to the hip abduction/adduction of the wearer, a first pivot element assimilated to the hip flexion/extension motion of a user and a second pivot element assimilated to the knee flexion/extension motion of the wearer; c) at least a first segment linking the first pivot joint with a first hip segment, a first upper leg segment connecting the first pivot element with the second pivot element and a second segment connecting the second pivot element with a foot element; and d) a set of backdrivable motor units (205,241,321) located in correspondence of the physical interface and/or of the first segment to actuate a helical joint for the first pivot joint, as well as the first pivot element and the second pivot element wherein - each pivot joint and pivot element is modularily let free, or constrained by a visco-elastic mechanism or actuated by a corresponding of said backdrivable motor unit; - the backdrivable motor units (241,321) are cable transmission motors using a cable-pulleys mechanism. a) an upper physical interface with adjustable attachment means configured to be connected to the trunk of the wearer; b) at least a first pivot joint assimilated to the hip abduction/adduction of the wearer, a first pivot element assimilated to the hip flexion/extension motion of a user and a second pivot element assimilated to the knee flexion/extension motion of the wearer; c) at least a first segment linking the first pivot joint with a first hip segment, a first upper leg segment connecting the first pivot element with the second pivot element and a second segment connecting the second pivot element with a foot element; and d) a set of backdrivable motor units (205,241,321) located in correspondence of the physical interface and/or of the first segment to actuate a helical joint for the first pivot joint, as well as the first pivot element and the second pivot element wherein - each pivot joint and pivot element is modularily let free, or constrained by a visco-elastic mechanism or actuated by a corresponding of said backdrivable motor unit; - the backdrivable motor units (241,321) are cable transmission motors using a cable-pulleys mechanism. - each pivot joint and pivot element is modularily let free, or constrained by a visco-elastic mechanism or actuated by a corresponding of said backdrivable motor unit; - the backdrivable motor units (241,321) are cable transmission motors using a cable-pulleys mechanism.
A system for enhancing a person's hand hygiene after a visit to a user area, wherein the user area is separate from a sanitary area, which system comprises: one or more motion sensors (106, 106a, 106b, 306a, 306b) configured to detect whether a person is in the user area, and to detect whether a person is in the sanitary area; and processing circuitry configured to determine when a person enters and leaves the user area and when a person enters and leaves the sanitary area based on detection signals from the one or more motion sensors (106, 106a, 106b, 306a, 306b); wherein the processing circuitry is further configured to determine a first detection time period based on a first point in time of detection of a person entering the user area and a second point in time of a successive detection of a person leaving the user area while at the same time a person enters the sanitary area; determine whether the first detection time period is equal to or larger than a predetermined minimum use-period; and issue a first sanitary remind signal when the first detection time period is equal to or larger than the predetermined minimum use-period. one or more motion sensors (106, 106a, 106b, 306a, 306b) configured to detect whether a person is in the user area, and to detect whether a person is in the sanitary area; and processing circuitry configured to determine when a person enters and leaves the user area and when a person enters and leaves the sanitary area based on detection signals from the one or more motion sensors (106, 106a, 106b, 306a, 306b); wherein the processing circuitry is further configured to determine a first detection time period based on a first point in time of detection of a person entering the user area and a second point in time of a successive detection of a person leaving the user area while at the same time a person enters the sanitary area; determine whether the first detection time period is equal to or larger than a predetermined minimum use-period; and issue a first sanitary remind signal when the first detection time period is equal to or larger than the predetermined minimum use-period.
A sensing instrument for detecting a substance to be detected, based on the variation of a natural frequency of a sensor oscillator, using the sensor oscillator, on a surface of which an adsorbing layer to adsorb a substance to be detected is formed, and of which the natural frequency is varied by adsorption of the substance to be detected, said sensing apparatus comprising: a sensor oscillator circuit to oscillate said sensor oscillator; a reference clock generating part to generate a clock signal for sampling a frequency signal from said sensor oscillator; characterized by an analog/digital converting part for sampling the frequency signal from said sensor oscillator by the clock signal from said reference clock generating part, and outputting the sampling value as a digital signal; a means for obtaining a rotational vector to obtain a real part and an imaginary part when performing a quadrature detection with the digital signal for a frequency signal corresponding to the output signal from the analog/digital converting part, and performing complex notation of the rotational vector rotating at an angular velocity corresponding to a difference of frequency between the frequency of the frequency signal and the frequency identified by the digital signal used for the quadrature detection; and a means for calculating a velocity of the rotational vector to determine an angular velocity of the rotational vector based on respective time series data of said real part and the imaginary part obtained by the means for obtaining the rotational vector. a sensor oscillator circuit to oscillate said sensor oscillator; a reference clock generating part to generate a clock signal for sampling a frequency signal from said sensor oscillator; characterized by an analog/digital converting part for sampling the frequency signal from said sensor oscillator by the clock signal from said reference clock generating part, and outputting the sampling value as a digital signal; a means for obtaining a rotational vector to obtain a real part and an imaginary part when performing a quadrature detection with the digital signal for a frequency signal corresponding to the output signal from the analog/digital converting part, and performing complex notation of the rotational vector rotating at an angular velocity corresponding to a difference of frequency between the frequency of the frequency signal and the frequency identified by the digital signal used for the quadrature detection; and a means for calculating a velocity of the rotational vector to determine an angular velocity of the rotational vector based on respective time series data of said real part and the imaginary part obtained by the means for obtaining the rotational vector.
A media sheet conveyance system, comprising: a first transport assembly, including an endless first belt having a plurality of rows of holes, the plurality including a first and a second edge row (202, 204) separated by a distance "x"; a first drive roller operatively connected to the first belt; a first vacuum element set positioned adjacent to a surface of the first belt; a plurality of subject transport assemblies (104a-104n), each including an endless subject belt (118a-118e) having a subject edge row of holes (212a-212e); a subject drive roller (120a-120e) operatively connected to the subject belt; a subject vacuum element (122a-122e) positioned adjacent to a surface of the subject belt; and a controller to control the first drive roller and the subject drive rollers to move a media sheet, including controlling the first drive roller, to circulate the first belt over the first vacuum element set and controlling a subject drive roller to circulate a subject belt over a subject vacuum element; characterized by the subject edge row of holes having a distance to a nearest edge row of an adjacent transport assembly of less than or equal to the distance "x". a first transport assembly, including an endless first belt having a plurality of rows of holes, the plurality including a first and a second edge row (202, 204) separated by a distance "x"; a first drive roller operatively connected to the first belt; a first vacuum element set positioned adjacent to a surface of the first belt; a plurality of subject transport assemblies (104a-104n), each including an endless subject belt (118a-118e) having a subject edge row of holes (212a-212e); a subject drive roller (120a-120e) operatively connected to the subject belt; a subject vacuum element (122a-122e) positioned adjacent to a surface of the subject belt; and a controller to control the first drive roller and the subject drive rollers to move a media sheet, including controlling the first drive roller, to circulate the first belt over the first vacuum element set and controlling a subject drive roller to circulate a subject belt over a subject vacuum element; characterized by the subject edge row of holes having a distance to a nearest edge row of an adjacent transport assembly of less than or equal to the distance "x".
A capacity control valve comprising: a valve housing (10, 110) provided with a discharge port allowing a discharge fluid of a discharge pressure (Pd) to pass therethrough, a suction port (13, 15) allowing a suction fluid of a suction pressure (Ps) to pass therethrough, and a control port allowing a control fluid of a control pressure (Pc) to pass therethrough; a primary valve including a primary valve seat and a primary valve body driven by a solenoid and opening and closing a communication between the discharge port and the control port by a movement of the primary valve body; characterized in that the capacity control valve further comprises a CS valve including a CS valve body, a first spring configured to urge the CS valve body in a closing direction of the CS valve (57, 157), and a second spring configured to urge the CS valve body in an opening direction of the CS valve (57, 157), the control port and the suction port (13, 15) being opened at a valve closed position of the primary valve body, the control port and the suction port (13, 14) being closed at a valve opened position of the primary valve body. a valve housing (10, 110) provided with a discharge port allowing a discharge fluid of a discharge pressure (Pd) to pass therethrough, a suction port (13, 15) allowing a suction fluid of a suction pressure (Ps) to pass therethrough, and a control port allowing a control fluid of a control pressure (Pc) to pass therethrough; a primary valve including a primary valve seat and a primary valve body driven by a solenoid and opening and closing a communication between the discharge port and the control port by a movement of the primary valve body; characterized in that the capacity control valve further comprises a CS valve including a CS valve body, a first spring configured to urge the CS valve body in a closing direction of the CS valve (57, 157), and a second spring configured to urge the CS valve body in an opening direction of the CS valve (57, 157), the control port and the suction port (13, 15) being opened at a valve closed position of the primary valve body, the control port and the suction port (13, 14) being closed at a valve opened position of the primary valve body.