mhurhangee/ep-ind-claims huggingface dataset:
A device configuration method based on Network Configuration Protocol, NETCONF, wherein the method is applied to a network management device, the network management device is connected to a managed device, the managed device is connected to one or more lower-level devices, and the network management device and the managed device support NETCONF; and the method comprises: establishing (602, 801), by the network management device, a model of configuration data by using a predefined YANG model, wherein the predefined YANG model comprises n reference fields and one or more object fields separately corresponding to each reference field, the reference field is used to indicate a YANG model referenced in the predefined YANG model, an object field corresponding to an i th reference field is used to indicate a target lower-level device or a target lower-level device group of target configuration data modeled by using a YANG model referenced in the i th reference field, the target lower-level device group is a group comprising one or more lower-level devices, 1 ≤ i ≤ n, and i and n are positive integers; and sending (604, 802), by the network management device, the configuration data to the managed device based on NETCONF. establishing (602, 801), by the network management device, a model of configuration data by using a predefined YANG model, wherein the predefined YANG model comprises n reference fields and one or more object fields separately corresponding to each reference field, the reference field is used to indicate a YANG model referenced in the predefined YANG model, an object field corresponding to an i th reference field is used to indicate a target lower-level device or a target lower-level device group of target configuration data modeled by using a YANG model referenced in the i th reference field, the target lower-level device group is a group comprising one or more lower-level devices, 1 ≤ i ≤ n, and i and n are positive integers; and sending (604, 802), by the network management device, the configuration data to the managed device based on NETCONF.
Apparatus for use in performing impedance measurements on a subject comprising - respective pairs of drive and sensing electrodes for placement on upper and lower limbs of the subject; and -a, a processing system configured for: a) causing voltage drive signals to be applied to the subject, via drive electrodes; b) sensing via sensing electrodes current signals through the subject caused by the voltage drive signals; c) determining an indication of a second signal across the subject, said indication of said second signal being a body centre voltage at the centre of the subject's torso derived from voltages sensed via sensing electrodes; d) using the indication of the second signal to determine if an unacceptable imbalance exists; and, e) if an unacceptable imbalance exists: i) determining modified voltage drive signals in accordance with the determined imbalance by: determining upper and lower impedances for the subject using the sensed current signals, the voltage drive signals and the body centre voltage; and, determining modified voltage drive signals using said upper and lower impedances and an ideal current signal indication; and, ii) causing the modified voltage drive signals to be applied to the subject to thereby allow at least one impedance measurement to be performed. a) causing voltage drive signals to be applied to the subject, via drive electrodes; b) sensing via sensing electrodes current signals through the subject caused by the voltage drive signals; c) determining an indication of a second signal across the subject, said indication of said second signal being a body centre voltage at the centre of the subject's torso derived from voltages sensed via sensing electrodes; d) using the indication of the second signal to determine if an unacceptable imbalance exists; and, e) if an unacceptable imbalance exists: i) determining modified voltage drive signals in accordance with the determined imbalance by: determining upper and lower impedances for the subject using the sensed current signals, the voltage drive signals and the body centre voltage; and, determining modified voltage drive signals using said upper and lower impedances and an ideal current signal indication; and, ii) causing the modified voltage drive signals to be applied to the subject to thereby allow at least one impedance measurement to be performed. i) determining modified voltage drive signals in accordance with the determined imbalance by: determining upper and lower impedances for the subject using the sensed current signals, the voltage drive signals and the body centre voltage; and, determining modified voltage drive signals using said upper and lower impedances and an ideal current signal indication; and, determining upper and lower impedances for the subject using the sensed current signals, the voltage drive signals and the body centre voltage; and, determining modified voltage drive signals using said upper and lower impedances and an ideal current signal indication; and, ii) causing the modified voltage drive signals to be applied to the subject to thereby allow at least one impedance measurement to be performed.
An electronic device comprising: a communication module connected to an antenna capable of transmitting signals to and receiving signals from a network; a memory configured to store a database comprising a plurality of items of network identification information and country information corresponding to each item of network identification information; and a processor configured to control the communication module to: perform a power scan, involving ranking the candidate signals found through the power scan in descending order of signal intensity, perform a first network scan with respect to a specified frequency band of a specified radio access technology, RAT, wherein the specified frequency band of the RAT corresponds to the candidate signal ranked highest with respect to signal intensity, determine country information using network identification information obtained by the first network scan and the database, and perform a second network scan with respect to a RAT and a frequency band determined based at least on the determined country information. a communication module connected to an antenna capable of transmitting signals to and receiving signals from a network; a memory configured to store a database comprising a plurality of items of network identification information and country information corresponding to each item of network identification information; and a processor configured to control the communication module to: perform a power scan, involving ranking the candidate signals found through the power scan in descending order of signal intensity, perform a first network scan with respect to a specified frequency band of a specified radio access technology, RAT, wherein the specified frequency band of the RAT corresponds to the candidate signal ranked highest with respect to signal intensity, determine country information using network identification information obtained by the first network scan and the database, and perform a second network scan with respect to a RAT and a frequency band determined based at least on the determined country information. perform a power scan, involving ranking the candidate signals found through the power scan in descending order of signal intensity, perform a first network scan with respect to a specified frequency band of a specified radio access technology, RAT, wherein the specified frequency band of the RAT corresponds to the candidate signal ranked highest with respect to signal intensity, determine country information using network identification information obtained by the first network scan and the database, and perform a second network scan with respect to a RAT and a frequency band determined based at least on the determined country information.
Process for producing valve metal and/or valve metal oxide agglomerate powders suitable for producing capacitor anode sintered bodies, where the valve metal comprises Nb, Ta, Ti, Zr, Hf, V, Mo, W, Al and mixtures and alloys thereof, characterized in that precursor particles of the agglomerate powders are mixed with finely divided pore formers which have an average particle size of from 0.5 to 20 μm, a highly porous, adhesively bonded agglomerate of the precursor particles is produced by densification, the pore former is removed thermally, the adhesively bonded agglomerate is subjected to a heat treatment at a temperature and for a time sufficient for the formation of sinter bridges and the at least partially sintered agglomerate is processed further to give valve metal and/or valve metal suboxide agglomerate powders, where hydroxides or hydrated pentoxides are used as precursor particles.
A vaporization device comprising: a tubular housing; a liquid storage element, an e-liquid detection system, and an atomizer in the housing, with the e-liquid detection system including a light source positioned to emit light into the liquid storage element and a light detector positioned to detect light emitted from the light source into the liquid storage element; a controller in the housing electrically connected to the e-liquid detection system and to the atomizer, with the controller allowing activation of the atomizer based on a signal from the liquid detection system. a tubular housing; a liquid storage element, an e-liquid detection system, and an atomizer in the housing, with the e-liquid detection system including a light source positioned to emit light into the liquid storage element and a light detector positioned to detect light emitted from the light source into the liquid storage element; a controller in the housing electrically connected to the e-liquid detection system and to the atomizer, with the controller allowing activation of the atomizer based on a signal from the liquid detection system.
A light unit, comprising an array or grid of light sources, preferably LED-based light sources, disposed on a support structure, and wherein the support structure is provided with a protective cover over the light sources, and characterized in that the protective cover includes spaces such that the light sources are directly visible to a viewer without having light diffused through the cover. an array or grid of light sources, preferably LED-based light sources, disposed on a support structure, and wherein the support structure is provided with a protective cover over the light sources, and characterized in that the protective cover includes spaces such that the light sources are directly visible to a viewer without having light diffused through the cover.
A polar encoding method, executed by a polar code encoder, comprising: mapping q bits to q positions of q sub-channels, q is a positive integer; wherein the q bits are used to indicate a version of encoded codeword; mapping 1 to a special frozen bit corresponding to the q bits; mapping K-q information bits to K-q positions for the K-q information bits, K is an integer, K>q; and performing polar encoding over an input vector u 0 N − 1, comprising the q bits, the special frozen bit and the K-q information bits, with the length of N, N is an integer, N>=K; wherein a version of encoded codeword is generated from the input vector u 0 N − 1 by applying T u before polar encoding and the q bits to the q positions in output vectors u 0 N − 1 ⋅ G 2 ⊗ m, u 0 N − 1 ⋅ T u ⋅ G 2 ⊗ m, u 0 N − 1 ⋅ T u 2 ⋅ G 2 ⊗ m,... after polar encoding are different and indicate different versions of encoded codeword; or a version of encoded codeword is generated from the input vector u 0 N − 1 by applying P x after polar encoding, c 0 N − 1 is an output vector after polar encoding, c 0 N − 1 = u 0 N − 1 · G 2 ⊗ m, P x is a permutation matrix indicating permutation in code-domain, and the q bits to the q positions in output vectors c 0 N − 1, c 0 N − 1 ⋅ P x, c 0 N − 1 ⋅ P x 2,... after permutation are different and indicate different versions of encoded codeword; connection between P x and T u is expressed by following: c 0 N − 1 ⋅ P x = u 0 N − 1 ⋅ T u ⋅ G 2 ⊗ m, and G 2 ⊗ m is m-th Kronecker power of G 2 matrix 1 0 1 1. mapping q bits to q positions of q sub-channels, q is a positive integer; wherein the q bits are used to indicate a version of encoded codeword; mapping 1 to a special frozen bit corresponding to the q bits; mapping K-q information bits to K-q positions for the K-q information bits, K is an integer, K>q; and performing polar encoding over an input vector u 0 N − 1, comprising the q bits, the special frozen bit and the K-q information bits, with the length of N, N is an integer, N>=K; wherein a version of encoded codeword is generated from the input vector u 0 N − 1 by applying T u before polar encoding and the q bits to the q positions in output vectors u 0 N − 1 ⋅ G 2 ⊗ m, u 0 N − 1 ⋅ T u ⋅ G 2 ⊗ m, u 0 N − 1 ⋅ T u 2 ⋅ G 2 ⊗ m,... after polar encoding are different and indicate different versions of encoded codeword; or a version of encoded codeword is generated from the input vector u 0 N − 1 by applying P x after polar encoding, c 0 N − 1 is an output vector after polar encoding, c 0 N − 1 = u 0 N − 1 · G 2 ⊗ m, P x is a permutation matrix indicating permutation in code-domain, and the q bits to the q positions in output vectors c 0 N − 1, c 0 N − 1 ⋅ P x, c 0 N − 1 ⋅ P x 2,... after permutation are different and indicate different versions of encoded codeword; connection between P x and T u is expressed by following: c 0 N − 1 ⋅ P x = u 0 N − 1 ⋅ T u ⋅ G 2 ⊗ m, and G 2 ⊗ m is m-th Kronecker power of G 2 matrix 1 0 1 1.
A position detection device, comprising: a light emitting means; a light sending means (110, 200, 300) for sending out emitted light, which comes from the light emitting means, to a target object; a two-dimensional light receiving means for receiving reflected light coming from the target object to convert the reflected light into an electric charge; and an arithmetic processing means configured to determine a position of the target object on the basis of a light receiving signal from the two-dimensional light receiving means; wherein: the two-dimensional light receiving means has a function of an electronic shutter; the electronic shutter is configured to be operated during a first period of time for discharging an accumulated electric charge in order to adjust the quantity of received light; and the arithmetic processing means is configured to drive the light emitting means within a second period of time during which the electronic shutter is stopped so that the two-dimensional light receiving means is accumulating an electric charge. a light emitting means; a light sending means (110, 200, 300) for sending out emitted light, which comes from the light emitting means, to a target object; a two-dimensional light receiving means for receiving reflected light coming from the target object to convert the reflected light into an electric charge; and an arithmetic processing means configured to determine a position of the target object on the basis of a light receiving signal from the two-dimensional light receiving means; the two-dimensional light receiving means has a function of an electronic shutter; the electronic shutter is configured to be operated during a first period of time for discharging an accumulated electric charge in order to adjust the quantity of received light; and the arithmetic processing means is configured to drive the light emitting means within a second period of time during which the electronic shutter is stopped so that the two-dimensional light receiving means is accumulating an electric charge.
An antagonistic antibody, or active antigen binding fragment thereof, that binds and inhibits the activity of a protein encoded by the osteoprotegerin gene for use in the treatment and reversal of the pathological symptoms of pulmonary hypertension.
A sputtering target having a component composition that contains 10 to 40 at% of Ga and 1.0 to 15 at% of Na as metal element components other than S and Se with the remainder composed of Cu and unavoidable impurities, characterized in that the Na is contained in the form of at least one Na compound selected from sodium sulfide and sodium selenide, the sputtering target has a theoretical density ratio of 90% or higher, a flexural strength of 100 N/mm 2 or higher, a bulk resistivity of 1 mΩ·cm or less and a content of oxygen of 200 to 2000 ppm, the number of 0.05 mm 2 or larger aggregates of the Na compound present per cm 2 area of the target surface is 1 or less on average, and the average particle diameter of a metal phase in the target material is 20 μm or less.
A control system comprising: a first device including: a first imaging unit, a first light source configured to emit infrared light, a first control unit configured to control an imaging timing of the first imaging unit and an emission timing of the first light source; a second device including: a second imaging unit, a second light source configured to emit infrared light, a second control unit configured to control an imaging timing of the second imaging unit and an emission timing of the second light source; wherein the first imaging unit is configured to sequentially output captured images in time series; wherein the first control unit is configured to perform image analysis on the images acquired in time series and thus to calculate a luminance distribution of the images; wherein the first control unit is configured to estimate a light emission state of the second light source based on information indicating luminance distributions of the images acquired in time series; and wherein the first control unit controls the emission timing of the first light source according to the estimated light emission state of the second light source. a first device including: a first imaging unit, a first light source configured to emit infrared light, a first control unit configured to control an imaging timing of the first imaging unit and an emission timing of the first light source; a first imaging unit, a first light source configured to emit infrared light, a first control unit configured to control an imaging timing of the first imaging unit and an emission timing of the first light source; a second device including: a second imaging unit, a second light source configured to emit infrared light, a second control unit configured to control an imaging timing of the second imaging unit and an emission timing of the second light source; a second imaging unit, a second light source configured to emit infrared light, a second control unit configured to control an imaging timing of the second imaging unit and an emission timing of the second light source; wherein the first imaging unit is configured to sequentially output captured images in time series; wherein the first control unit is configured to perform image analysis on the images acquired in time series and thus to calculate a luminance distribution of the images; wherein the first control unit is configured to estimate a light emission state of the second light source based on information indicating luminance distributions of the images acquired in time series; and wherein the first control unit controls the emission timing of the first light source according to the estimated light emission state of the second light source.
A method for regenerating spent electrolyte solution, said method comprising: • providing a membrane electrolysis cell comprising: o an anode; o a cathode consuming gaseous oxygen; o a cation exchange membrane placed in the space between said anode and said cathode, said membrane defining an anode compartment and cathode compartment. • filling said spent electrolyte into said anode compartment to form an anolyte solution; • filling alkaline solution into said cathode compartment to form a catholyte solution; • passing an electric current, and monitoring a voltage, through said membrane electrolysis cell thus reducing the concentration of alkali hydroxide in said anolyte solution and increasing the concentration of alkali hydroxide in said catholyte solution. • providing a membrane electrolysis cell comprising: o an anode; o a cathode consuming gaseous oxygen; o a cation exchange membrane placed in the space between said anode and said cathode, said membrane defining an anode compartment and cathode compartment. o an anode; o a cathode consuming gaseous oxygen; o a cation exchange membrane placed in the space between said anode and said cathode, said membrane defining an anode compartment and cathode compartment. • filling said spent electrolyte into said anode compartment to form an anolyte solution; • filling alkaline solution into said cathode compartment to form a catholyte solution; • passing an electric current, and monitoring a voltage, through said membrane electrolysis cell thus reducing the concentration of alkali hydroxide in said anolyte solution and increasing the concentration of alkali hydroxide in said catholyte solution.
A grease composition comprising base oil, a thickener, and an additive, wherein said additive contains molybdenum dithiocarbamate and sodium dithiocarbamate, wherein the sodium dithiocarbamate is sodium dimethyldithiocarbamate, sodium diethyldithiocarbamate or sodium dibutyldithiocarbamate; a content of said sodium dithiocarbamate is set to one to seven parts by weight for 100 parts by weight which is a total of a weight of said base oil and that said thickener; and a content of molybdenum for a whole weight of said grease composition is set to not more than 0.06 wt% wherein said molybdenum dithiocarbamate is oil-soluble, such that in a test insoluble matter is not deposited when after 0.5 wt% of the molybdenum dithiocarbamate is added to the base oil to be used to compose the grease composition for the total of the weight of the molybdenum dithiocarbamate which has dissolved in the base oil and that of the base oil, the solution is stirred, thereafter the solution set to 70°C is left for 24 hours and the solution is visually observed, a content of said oil-soluble molybdenum dithiocarbamate is set to 0.2 to 1 part by weight for 100 parts by weight which is a total of a weight of said base oil and that of said thickener, wherein said thickener is a urea compound prepared by a reaction between a polyisocyanate component and a monoamine component, and wherein the blending proportion of the thickener to be contained in 100 parts by weight of said base oil and said thickener is set to 1 to 40 parts by weight.