mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: obtaining a description of attributes of a computing device, the attributes including information describing programs running on the computing device, the information comprising a list of software publishers that are running software on the computing device; receiving, from the computing device, an indication of content to be accessed at the computing device; determining, based on the attributes of the computing device, a risk factor for the computing device, wherein the risk factor for the computing device is computed by taking into account the list of software publishers that are running software on the computing device; determining whether the content is malware on the computing device using the risk factor for the computing device as well as the indication of the content; and communicating to the computing device an indication of whether the content on the computing device is determined to be malware. obtaining a description of attributes of a computing device, the attributes including information describing programs running on the computing device, the information comprising a list of software publishers that are running software on the computing device; receiving, from the computing device, an indication of content to be accessed at the computing device; determining, based on the attributes of the computing device, a risk factor for the computing device, wherein the risk factor for the computing device is computed by taking into account the list of software publishers that are running software on the computing device; determining whether the content is malware on the computing device using the risk factor for the computing device as well as the indication of the content; and communicating to the computing device an indication of whether the content on the computing device is determined to be malware.
An apparatus for use with a wearable cuff in determining blood pressure and/or pulse rate, wherein the wearable cuff is inflatable to pressurize a measurement site of a subject and the apparatus is configured to: acquire a pressure signal indicative of pressure in the wearable cuff during inflation of the wearable cuff to pressurize the measurement site of the subject; analyze the acquired pressure signal to detect an artifact corresponding to a decrease in pressure during inflation of the wearable cuff due to cuff slippage; characterised in that the apparatus is further configured to determine the blood pressure and/or pulse rate of the subject by analyzing oscillations in the acquired pressure signal, wherein determining comprises compensating for the detected artifact. acquire a pressure signal indicative of pressure in the wearable cuff during inflation of the wearable cuff to pressurize the measurement site of the subject; analyze the acquired pressure signal to detect an artifact corresponding to a decrease in pressure during inflation of the wearable cuff due to cuff slippage; characterised in that the apparatus is further configured to determine the blood pressure and/or pulse rate of the subject by analyzing oscillations in the acquired pressure signal, wherein determining comprises compensating for the detected artifact.
A method for assessing a temperature in an opening in a subsurface formation, comprising: assessing one or more dielectric properties along a length of an insulated conductor located in the opening; assessing one or more temperatures along the length of the insulated conductor based on the one or more assessed dielectric properties; the method is characterized in further comprising: providing electrical power to at least a portion of the insulated conductor, and providing at least some heat to the subsurface formation from the portion of the insulated conductor. assessing one or more dielectric properties along a length of an insulated conductor located in the opening; assessing one or more temperatures along the length of the insulated conductor based on the one or more assessed dielectric properties; the method is characterized in further comprising: providing electrical power to at least a portion of the insulated conductor, and providing at least some heat to the subsurface formation from the portion of the insulated conductor.
A rimfire ammunition cartridge comprising a case having a steel composition, the steel composition comprising: from 0.05 to 0.13 weight percent of carbon; from 0.15 to 0.50 weight percent of silicon; from 0.70 to 2.50 weight percent of manganese; 0.025 weight percent of phosphorus; 0.025 weight percent of sulfur; from 0.02 to 0.08 weight percent of aluminum; less than 0.22 weight percent of one or more metal elements selected from the group consisting of cobalt, niobium, chromium, copper, molybdenum, nickel, titanium, vanadium, zirconium and mixtures and alloys thereof; and a balance of iron, based on total weight of the composition. from 0.05 to 0.13 weight percent of carbon; from 0.15 to 0.50 weight percent of silicon; from 0.70 to 2.50 weight percent of manganese; 0.025 weight percent of phosphorus; 0.025 weight percent of sulfur; from 0.02 to 0.08 weight percent of aluminum; less than 0.22 weight percent of one or more metal elements selected from the group consisting of cobalt, niobium, chromium, copper, molybdenum, nickel, titanium, vanadium, zirconium and mixtures and alloys thereof; and a balance of iron, based on total weight of the composition.
A rotor assembly for a wind turbine, comprising a blade provided with a blade root portion, and a strengthener (30, 40) for the blade root portion, characterized in that the strengthener comprises an annular supporting part (30; 40) that strengthens the blade root portion and remains attached to the blade root portion, when the wind turbine is in operation, said supporting part comprising a supporting portion (31; 41, 42) to anchor the blade to the hoisting means to temporarily support the blade, and said supporting portion being one piece with the supporting part.
A rechargeable lithium battery, comprising a negative electrode including a negative current collector, a negative active material layer disposed on the negative current collector, and a negative electrode functional layer disposed on the negative active material layer; and a positive electrode comprising a positive current collector and a positive active material layer disposed on the positive current collector, wherein the negative electrode functional layer comprises flake-shaped polyethylene particles, wherein a ratio of the long axis length relative to the short axis length of the flake-shaped polyethylene particles is 1.1 to 4.5, the positive active material layer comprises a first positive active material comprising lithium and at least one of a composite oxide of a metal selected from cobalt, manganese, and nickel, a second positive active material including a compound represented by Chemical Formula 1: [Chemical Formula 1] Li a Fe 1-x1 M x1 PO 4 wherein, in Chemical Formula 1, 0.90 ≤ a ≤ 1.8, 0 ≤ x1 ≤ 0.7, and M is at last one of Mg, Co, and Ni, and carbon nanotubes, the carbon nanotubes have an average length of 30 μm to 100 μm measured by field emission scanning electron microscope, wherein an aspect ratio (average length/average diameter) of the carbon nanotubes is 1000 to 5400. a negative electrode including a negative current collector, a negative active material layer disposed on the negative current collector, and a negative electrode functional layer disposed on the negative active material layer; and a positive electrode comprising a positive current collector and a positive active material layer disposed on the positive current collector, wherein the negative electrode functional layer comprises flake-shaped polyethylene particles, wherein a ratio of the long axis length relative to the short axis length of the flake-shaped polyethylene particles is 1.1 to 4.5, the positive active material layer comprises a first positive active material comprising lithium and at least one of a composite oxide of a metal selected from cobalt, manganese, and nickel, a second positive active material including a compound represented by Chemical Formula 1: [Chemical Formula 1] Li a Fe 1-x1 M x1 PO 4 wherein, in Chemical Formula 1, 0.90 ≤ a ≤ 1.8, 0 ≤ x1 ≤ 0.7, and M is at last one of Mg, Co, and Ni, and carbon nanotubes, the carbon nanotubes have an average length of 30 μm to 100 μm measured by field emission scanning electron microscope, wherein an aspect ratio (average length/average diameter) of the carbon nanotubes is 1000 to 5400.
A system for calibrating a phase of a transmit path in an optical system comprising: a) a transmitter source having an output port; b) a coupler having an input port coupled to the output port of said transmitter source and having a plurality of output ports (14b. 14c); c) a like plurality of optical paths each having a first end coupled to a respective one of the plurality of coupler output ports and a second end; d) a like plurality of phase modulators (28a, 28b), each of said phase modulators coupled to a corresponding one of said optical paths; e) a like plurality of optical apertures, each coupled to the second end of the respective optical paths; characterized by: f) a like plurality of phase samplers (21a, 21b), each coupled to a corresponding one of said optical apertures (18a, 18b) and arranged to intercept a portion of a transmitted signal as it exits the corresponding one of said optical apertures and to reflect or otherwise redirect the signal portions back into the respective apertures and redirect the signal portions through the transmit path; g) a transmitter sensor coupled to one of said plurality of coupler output ports; and h) a transmit control system coupled to receive a sensor signal from said transmit sensor and to provide a control signal to each of said plurality of phase modulators. a) a transmitter source having an output port; b) a coupler having an input port coupled to the output port of said transmitter source and having a plurality of output ports (14b. 14c); c) a like plurality of optical paths each having a first end coupled to a respective one of the plurality of coupler output ports and a second end; d) a like plurality of phase modulators (28a, 28b), each of said phase modulators coupled to a corresponding one of said optical paths; e) a like plurality of optical apertures, each coupled to the second end of the respective optical paths; characterized by: f) a like plurality of phase samplers (21a, 21b), each coupled to a corresponding one of said optical apertures (18a, 18b) and arranged to intercept a portion of a transmitted signal as it exits the corresponding one of said optical apertures and to reflect or otherwise redirect the signal portions back into the respective apertures and redirect the signal portions through the transmit path; g) a transmitter sensor coupled to one of said plurality of coupler output ports; and h) a transmit control system coupled to receive a sensor signal from said transmit sensor and to provide a control signal to each of said plurality of phase modulators.
An R-Fe-B-type sintered magnet having a composition which consists of from 12.5 to 14.5 at% of R, from 5.0 to 6.5 at% of B, from 0.15 to 5.0 at% of M, from 0.02 to 0.5 at% of X and from 0.1 to 1.6 at% of C, with the balance being Fe, O and inadvertent impurities, and which contains a main phase that is an R 2 Fe 14 B intermetallic compound and a grain boundary phase, wherein R is one or more element selected from the rare-earth elements, with Nd being essential; M is one or more element selected from Si, Al, Mn, Ni, Co, Cu, Zn, Ga, Ge, Pd, Ag, Cd, In, Sn, Sb, Pt, Au, Hg, Pb and Bi; X is one or more element selected from Ti, Zr, Hf, Nb, V and Ta; the content of O is from 0.1 to 0.8 at%; characterized in that the sintered magnet has, in the grain boundary phase, an R-C phase with higher R and C concentrations than the main phase, the areal ratio of the R-C phase in a cross-section of the R-Fe-B-type sintered magnet being greater than 0 and up to 0.5% as measured by the method in the description.
An internal combustion engine control device controlling an internal combustion engine equipped with an exhaust recirculation passage allowing intake of an exhaust gas of the internal combustion engine to the internal combustion engine, the internal combustion engine control device comprising a control unit configured to advance an ignition timing of an ignition plug performing ignition of the internal combustion engine again and to increase an exhaust recirculation amount in a case where a combustion stability limit of the internal combustion engine has not been reached in a state where the ignition timing is retarded after the ignition timing of the ignition plug is advanced, wherein the ignition timing is retarded after the ignition timing is advanced to a set knock limit, wherein, in a case where a combustion instability is detected, the control unit is configured to stop increasing the exhaust recirculation amount, wherein, in a case where the set knock limit is detected, the ignition timing is retarded for a set amount to detect the combustion instability, and in a case where the combustion stability limit of the internal combustion engine has been reached in a state where the ignition timing is retarded after the ignition timing is advanced to a set ignition advance limit, the control unit is configured to advance the ignition timing again and to decrease the exhaust recirculation amount. the internal combustion engine control device comprising a control unit configured to advance an ignition timing of an ignition plug performing ignition of the internal combustion engine again and to increase an exhaust recirculation amount in a case where a combustion stability limit of the internal combustion engine has not been reached in a state where the ignition timing is retarded after the ignition timing of the ignition plug is advanced, wherein the ignition timing is retarded after the ignition timing is advanced to a set knock limit, wherein, in a case where a combustion instability is detected, the control unit is configured to stop increasing the exhaust recirculation amount, wherein, in a case where the set knock limit is detected, the ignition timing is retarded for a set amount to detect the combustion instability, and in a case where the combustion stability limit of the internal combustion engine has been reached in a state where the ignition timing is retarded after the ignition timing is advanced to a set ignition advance limit, the control unit is configured to advance the ignition timing again and to decrease the exhaust recirculation amount.
Voltage transformer comprising: a first parallel circuit comprising a first capacitor with a number of N: > 1 parallel-connected converters with N input voltages (U 1...U n) and N input currents (I 1...I n), wherein the converters operate as input converters, characterized in that a second capacitor is connected in series with the first parallel circuit, wherein a capacitor voltage (U C2) applied to the second capacitor is less than or equal to the lowest input voltage (U 1...U n) of the converters, and at least one converter is in the form of a two-quadrant converter in such a manner that the current is reversible and at least one input converter operates as an output converter. a first parallel circuit comprising a first capacitor with a number of N: > 1 parallel-connected converters with N input voltages (U 1...U n) and N input currents (I 1...I n), wherein the converters operate as input converters, characterized in that a second capacitor is connected in series with the first parallel circuit, wherein a capacitor voltage (U C2) applied to the second capacitor is less than or equal to the lowest input voltage (U 1...U n) of the converters, and at least one converter is in the form of a two-quadrant converter in such a manner that the current is reversible and at least one input converter operates as an output converter.
A setting method for a conductive object of an electrochemical test strip, comprising: A. a step of molding a metal conductive rack (10, 10A) by a metal processing method, the metal conductive rack (10, 10A) including a holder (11, 11A) connected to a plurality of conductive objects (12, 12A); wherein the holder (11, 11A) and the plurality of conductive objects (12, 12A) are monolithic; wherein each of the conductive objects (12, 12A) comprises an information reception end (121, 121A) having an external contact surface (1211, 1211A), and each of the conductive objects (12, 12A) further comprises an information outputting end (122, 122A) having a transmission contact surface (1221, 1221A); B. a step of embedded injection of a conductive inspection body (20, 20A) by injection molding a polymer plastic material on the plurality of conductive objects (12, 12A) of the metal conductive rack (10, 10A), such that the external contact surface (1211, 1211A) of the information reception end (121, 121A) and the transmission contact surface (1221, 1221A) of the information outputting end (122, 122A) are not covered by the polymer plastic material; wherein a side of the inspection body (20, 20A) comprises an inspection portion (21, 21A), and each of the external contact surfaces (1211, 1211A) of the information reception end (121, 121A) is located in the inspection portion (21, 21A); and C. a step of taking out the inspection body by detaching the inspection body (20, 20A) from the holder (11, 11A) of the metal conductive rack (10, 10A). A. a step of molding a metal conductive rack (10, 10A) by a metal processing method, the metal conductive rack (10, 10A) including a holder (11, 11A) connected to a plurality of conductive objects (12, 12A); wherein the holder (11, 11A) and the plurality of conductive objects (12, 12A) are monolithic; wherein each of the conductive objects (12, 12A) comprises an information reception end (121, 121A) having an external contact surface (1211, 1211A), and each of the conductive objects (12, 12A) further comprises an information outputting end (122, 122A) having a transmission contact surface (1221, 1221A); B. a step of embedded injection of a conductive inspection body (20, 20A) by injection molding a polymer plastic material on the plurality of conductive objects (12, 12A) of the metal conductive rack (10, 10A), such that the external contact surface (1211, 1211A) of the information reception end (121, 121A) and the transmission contact surface (1221, 1221A) of the information outputting end (122, 122A) are not covered by the polymer plastic material; wherein a side of the inspection body (20, 20A) comprises an inspection portion (21, 21A), and each of the external contact surfaces (1211, 1211A) of the information reception end (121, 121A) is located in the inspection portion (21, 21A); and C. a step of taking out the inspection body by detaching the inspection body (20, 20A) from the holder (11, 11A) of the metal conductive rack (10, 10A).
A control device (100, 100-1, 100-2, 100-3) comprising: a processing unit configured to cyclically perform a control operation with a predetermined execution cycle, wherein the control operation includes collection of input data from a field device, calculation of output data based on the input data in accordance with a predetermined user program, and output of the calculated output data, wherein the control device (100, 100-1, 100-2, 100-3) is a programmable logic controller; characterized by a database (180, 180-1, 180-2, 180-3) disposed in a storage of the control device (100, 100-1, 100-2, 100-3) and configured to store designated data from data managed by the processing unit in a time series, wherein the data managed by the processing unit comprises values measured by the field device; and a data writing means configured to perform writing of the designated data to the database (180, 180-1, 180-2, 180-3) at the same cycle as the execution cycle with which the control operation is cyclically performed, wherein the control operation which is cyclically performed by the processing unit includes a process of issuing a data writing request to the database (180, 180-1, 180-2, 180-3), wherein, in the control operation, when the data writing request is issued by the processing unit, a next process is continuously performed by the processing unit without waiting for completion of the data writing. a processing unit configured to cyclically perform a control operation with a predetermined execution cycle, wherein the control operation includes collection of input data from a field device, calculation of output data based on the input data in accordance with a predetermined user program, and output of the calculated output data, wherein the control device (100, 100-1, 100-2, 100-3) is a programmable logic controller; characterized by a database (180, 180-1, 180-2, 180-3) disposed in a storage of the control device (100, 100-1, 100-2, 100-3) and configured to store designated data from data managed by the processing unit in a time series, wherein the data managed by the processing unit comprises values measured by the field device; and a data writing means configured to perform writing of the designated data to the database (180, 180-1, 180-2, 180-3) at the same cycle as the execution cycle with which the control operation is cyclically performed, wherein the control operation which is cyclically performed by the processing unit includes a process of issuing a data writing request to the database (180, 180-1, 180-2, 180-3), wherein, in the control operation, when the data writing request is issued by the processing unit, a next process is continuously performed by the processing unit without waiting for completion of the data writing.
An access method for a radio network, applied to a layered network architecture, comprising: receiving, by a distributed processing node, an Msg1 message from a User Equipment; and transmitting, by the distributed processing node, an Msg2 message configured to respond to the Msg1 message to the UE, characterized in that, the layered network architecture comprises a distributed processing node and a centralized processing node, and the distributed processing has only a function of a physical layer and a part of a layer-2 function, the Msg2 message comprises a temporary Radio Network Temporary Identifier (RNTI) which is a currently-unused RNTI in a set of RNTIs available for the distributed processing node. receiving, by a distributed processing node, an Msg1 message from a User Equipment; and transmitting, by the distributed processing node, an Msg2 message configured to respond to the Msg1 message to the UE, characterized in that, the layered network architecture comprises a distributed processing node and a centralized processing node, and the distributed processing has only a function of a physical layer and a part of a layer-2 function, the Msg2 message comprises a temporary Radio Network Temporary Identifier (RNTI) which is a currently-unused RNTI in a set of RNTIs available for the distributed processing node.