mhurhangee/ep-ind-claims huggingface dataset:
Antenna, comprising a plurality of first radiating elements configured to radiate in a first frequency band, wherein the first radiating elements are arranged in a sparse massive Multiple Input Multiple Output, mMIMO, array, and a plurality of second radiating elements configured to radiate in a second frequency band lower than the first frequency band, wherein the second radiating elements are arranged in an array at least partially overlapping with the sparse array so that at least some of the second radiating elements are disposed in an area covered by the sparse array, wherein the plurality of the second radiating elements includes first-type and second-type second radiating elements, and wherein the first-type second radiating elements are vertical horizontal dipoles and are arranged in the area covered by the sparse array, wherein the vertical horizontal dipoles do not fill the space directly above the first radiating elements, and wherein the second-type second radiating elements are arranged outside of the area covered by the sparse array and are dipoles larger in size and profile than the vertical horizontal dipoles. a plurality of first radiating elements configured to radiate in a first frequency band, wherein the first radiating elements are arranged in a sparse massive Multiple Input Multiple Output, mMIMO, array, and a plurality of second radiating elements configured to radiate in a second frequency band lower than the first frequency band, wherein the second radiating elements are arranged in an array at least partially overlapping with the sparse array so that at least some of the second radiating elements are disposed in an area covered by the sparse array, wherein the plurality of the second radiating elements includes first-type and second-type second radiating elements, and wherein the first-type second radiating elements are vertical horizontal dipoles and are arranged in the area covered by the sparse array, wherein the vertical horizontal dipoles do not fill the space directly above the first radiating elements, and wherein the second-type second radiating elements are arranged outside of the area covered by the sparse array and are dipoles larger in size and profile than the vertical horizontal dipoles.
A method for manufacturing a part, comprising the steps of: a) chemical attack, in a wet acid medium, of at least a portion of a surface of a substrate made of a monocrystalline superalloy, comprising at least one element chosen from rhenium and ruthenium, the substrate having a γ-γ' phase, the substrate having an average mass fraction of rhenium and/or ruthenium greater than or equal to 3%, preferably greater than or equal to 4%, the chemical attack being carried out in such a way that the average mass fraction of rhenium and/or ruthenium over the portion of the surface of the substrate is less than 2%, b) depositing on the portion of the substrate a protective coating having a γ-γ' phase and an average mass fraction of rhenium and/or ruthenium of less than 1%. a) chemical attack, in a wet acid medium, of at least a portion of a surface of a substrate made of a monocrystalline superalloy, comprising at least one element chosen from rhenium and ruthenium, the substrate having a γ-γ' phase, the substrate having an average mass fraction of rhenium and/or ruthenium greater than or equal to 3%, preferably greater than or equal to 4%, the chemical attack being carried out in such a way that the average mass fraction of rhenium and/or ruthenium over the portion of the surface of the substrate is less than 2%, b) depositing on the portion of the substrate a protective coating having a γ-γ' phase and an average mass fraction of rhenium and/or ruthenium of less than 1%.
A coating composition comprising: a 3- to 6-functional acrylate-based binder; a 7- to 20-functional urethane acrylate-based binder; a photoinitiator; and inorganic fine particles having a bimodal particle size distribution including a first inorganic fine particle group having d 50 of 20 to 35nm and a second inorganic fine particle group having d 50 of 40 to 130 nm, wherein the particles size distribution by number is determined in the state of a dispersed solution by using dynamic laser light diffraction scattering method using Malvern Zetasizer Nano-ZS 90. a 3- to 6-functional acrylate-based binder; a 7- to 20-functional urethane acrylate-based binder; a photoinitiator; and inorganic fine particles having a bimodal particle size distribution including a first inorganic fine particle group having d 50 of 20 to 35nm and a second inorganic fine particle group having d 50 of 40 to 130 nm, wherein the particles size distribution by number is determined in the state of a dispersed solution by using dynamic laser light diffraction scattering method using Malvern Zetasizer Nano-ZS 90.
A method performed by a wireless device for handling communication in a wireless communication network, the method comprising - transmitting to a radio network node, a first preamble associated with a selected downlink beam, the method characterized by: - monitoring for a random access response, RAR, in a first RAR reception window and when the RAR is not received in the first RAR reception window - monitoring for the RAR in a second RAR reception window of a different beam, wherein the different beam is wider than the selected downlink beam such that it covers a larger area. - transmitting to a radio network node, a first preamble associated with a selected downlink beam, the method characterized by: - monitoring for a random access response, RAR, in a first RAR reception window and when the RAR is not received in the first RAR reception window - monitoring for the RAR in a second RAR reception window of a different beam, wherein the different beam is wider than the selected downlink beam such that it covers a larger area.
A composition comprising a plurality of conjugates each conjugate having one to three poly(ethylene glycol) moieties covalently attached to a Factor VIII moiety, wherein each poly(ethylene glycol) moiety has a nominal average molecular weight in the range of about 20,000 Daltons to about 85,000 Daltons.
A system for assisting a driver using an electroencephalogram, the system comprising: an electroencephalogram measurer configured to measure an electroencephalogram signal of the driver; a mobile terminal configured to receive the measured electroencephalogram signal and to output a careless state of the driver determined based on the received electroencephalogram signal via an app; and a controller configured to control a vehicle based on the determined careless state of the driver and to provide an alarm to the driver, wherein the mobile terminal includes a processor configured to analyze frequency components in the received electroencephalogram signal and to quantify the careless state of the driver using the analyzed frequency components, wherein the processor is configured to analyze the frequency components by classifying the frequency components by performing Fourier transform on the received electroencephalogram signal, wherein the classified frequency components include theta, θ, beta, β, and SMR frequencies, wherein the processor is configured to use the classified frequency components to quantify the careless state of the driver into a numerical value and is configured to determine the careless state of the driver by comparing the numerical value with a preset alertness value, and wherein the numerical value is calculated by 50.5 + 21.498 × ln β + SMR θ. an electroencephalogram measurer configured to measure an electroencephalogram signal of the driver; a mobile terminal configured to receive the measured electroencephalogram signal and to output a careless state of the driver determined based on the received electroencephalogram signal via an app; and a controller configured to control a vehicle based on the determined careless state of the driver and to provide an alarm to the driver, wherein the mobile terminal includes a processor configured to analyze frequency components in the received electroencephalogram signal and to quantify the careless state of the driver using the analyzed frequency components, wherein the processor is configured to analyze the frequency components by classifying the frequency components by performing Fourier transform on the received electroencephalogram signal, wherein the classified frequency components include theta, θ, beta, β, and SMR frequencies, wherein the processor is configured to use the classified frequency components to quantify the careless state of the driver into a numerical value and is configured to determine the careless state of the driver by comparing the numerical value with a preset alertness value, and wherein the numerical value is calculated by 50.5 + 21.498 × ln β + SMR θ.
A structure comprising: a first conductor that extends in a second direction; a second conductor that faces the first conductor in a first direction and that extends along the second direction; a third conductor that extends along a first plane, and that is configured to capacitively connect the first conductor and the second conductor; and a fourth conductor that is configured to be electrically connected to the first conductor and the second conductor, and that extends parallel to the first plane, wherein the first, second and third directions are perpendicular to each other, and the first plane is a plane parallel to the first and third directions, and wherein each of the first conductor and the second conductor includes a portion that extends along the second direction and that is exposed to an exterior space, the structure further comprising a dielectric body that is configured to support the first conductor, the second conductor, the third conductor, and the fourth conductor, characterized in that the dielectric body has a recess that extends in the second direction and that is recessed toward a center of the dielectric body in the first direction, and the first conductor and the second conductor expand along the recess, and in that the dielectric body includes a fiber component that partially comes in contact with the first conductor or the second conductor, and of the first conductor or the second conductor, a portion coming in contact with the fiber component is more protruded than a surrounding portion thereof. a first conductor that extends in a second direction; a second conductor that faces the first conductor in a first direction and that extends along the second direction; a third conductor that extends along a first plane, and that is configured to capacitively connect the first conductor and the second conductor; and a fourth conductor that is configured to be electrically connected to the first conductor and the second conductor, and that extends parallel to the first plane, wherein the first, second and third directions are perpendicular to each other, and the first plane is a plane parallel to the first and third directions, and wherein each of the first conductor and the second conductor includes a portion that extends along the second direction and that is exposed to an exterior space, the structure further comprising a dielectric body that is configured to support the first conductor, the second conductor, the third conductor, and the fourth conductor, characterized in that the dielectric body has a recess that extends in the second direction and that is recessed toward a center of the dielectric body in the first direction, and the first conductor and the second conductor expand along the recess, and in that the dielectric body includes a fiber component that partially comes in contact with the first conductor or the second conductor, and of the first conductor or the second conductor, a portion coming in contact with the fiber component is more protruded than a surrounding portion thereof.
An automatic dishwashing detergent, comprising: a builder; a surfactant; a polymer having sulfonic acid moieties and comprising polymerized units derived from at least one carboxylic acid monomer and at least one sulfonic acid monomer; and a polymer having chelating moieties and comprising polymerized units derived from: (i) at least one carboxylic acid monomer; (ii) a glycidyl monomer selected from allyl glycidyl ether or glycidyl (meth)acrylate (GA or GMA); and (iii) an aminocarboxylate selected from iminodiacetic acid, ethylenediamine triacetic acid (ED3A), their salts, or mixtures thereof, wherein the polymer is different from the polymer. a builder; a surfactant; a polymer having sulfonic acid moieties and comprising polymerized units derived from at least one carboxylic acid monomer and at least one sulfonic acid monomer; and a polymer having chelating moieties and comprising polymerized units derived from: (i) at least one carboxylic acid monomer; (ii) a glycidyl monomer selected from allyl glycidyl ether or glycidyl (meth)acrylate (GA or GMA); and (iii) an aminocarboxylate selected from iminodiacetic acid, ethylenediamine triacetic acid (ED3A), their salts, or mixtures thereof, (i) at least one carboxylic acid monomer; (ii) a glycidyl monomer selected from allyl glycidyl ether or glycidyl (meth)acrylate (GA or GMA); and (iii) an aminocarboxylate selected from iminodiacetic acid, ethylenediamine triacetic acid (ED3A), their salts, or mixtures thereof,
A method for providing or using effluent from a wastewater treatment plant ( WWTP; 100; 400), comprising: providing the effluent by the wastewater treatment plant (WWTP; 100; 400); distributing the provided effluent from the wastewater treatment plant (WWTP; 100; 400) to at least one building (110; 410) for providing thermal energy to the at least one building (110; 410); providing the distributed effluent from the at least one building (110; 410) to a delivery arrangement (115, 210; 420, 425); and providing the provided effluent from the delivery arrangement (115, 210; 420, 425) to a fertilization system (130; 430a, 430b) which is separate from the wastewater treatment plant (WWTP; 100; 400). providing the effluent by the wastewater treatment plant (WWTP; 100; 400); distributing the provided effluent from the wastewater treatment plant (WWTP; 100; 400) to at least one building (110; 410) for providing thermal energy to the at least one building (110; 410); providing the distributed effluent from the at least one building (110; 410) to a delivery arrangement (115, 210; 420, 425); and providing the provided effluent from the delivery arrangement (115, 210; 420, 425) to a fertilization system (130; 430a, 430b) which is separate from the wastewater treatment plant (WWTP; 100; 400).
A gas flow member (10, 110, 210), comprising: a metal base (20, 120, 220) having a gas flow surface (21, 121, 221); and a surface coat layer (30, 130, 230) containing an amorphous inorganic material and a crystalline inorganic material, the gas flow surface (21, 121, 221) of the base being coated with the surface coat layer (30, 130, 230), wherein the crystalline inorganic material comprises at least one selected from the group consisting of calcia, magnesia, ceria, alumina, and zirconia, and wherein the surface coat layer (30, 130, 230) has an average thickness of more than 50 μm, characterized in that the gas flow surface (21, 121, 221) of the base is a surface having a ten-point average roughness RzJIS of a roughness curve of 10 to 50 μm and having a maximum waviness height Wz of a waviness curve of 15 to 100 μm, the roughness and waviness of the gas flow surface (21, 121, 221) of the base are covered with the surface coat layer (30, 130, 230), and a coated gas flow surface (21, 121, 221) which is a surface formed by covering the gas flow surface (21, 121, 221) of the base with the surface coat layer (30, 130, 230) is a smooth surface having a ten-point average roughness RzJIS of a roughness curve of 5 μm or less and is also a flat surface having a maximum waviness height Wz of a waviness curve of 10 μm or less, wherein the ten-point average roughness RzJIS and the maximum waviness height Wz are specified in JIS B0601:2001 and measured with a cutoff value λs = no setting, λc = 0.8 mm, and a measurement distance = 4 mm. a metal base (20, 120, 220) having a gas flow surface (21, 121, 221); and a surface coat layer (30, 130, 230) containing an amorphous inorganic material and a crystalline inorganic material, the gas flow surface (21, 121, 221) of the base being coated with the surface coat layer (30, 130, 230), wherein the crystalline inorganic material comprises at least one selected from the group consisting of calcia, magnesia, ceria, alumina, and zirconia, and wherein the surface coat layer (30, 130, 230) has an average thickness of more than 50 μm, characterized in that the gas flow surface (21, 121, 221) of the base is a surface having a ten-point average roughness RzJIS of a roughness curve of 10 to 50 μm and having a maximum waviness height Wz of a waviness curve of 15 to 100 μm, the roughness and waviness of the gas flow surface (21, 121, 221) of the base are covered with the surface coat layer (30, 130, 230), and a coated gas flow surface (21, 121, 221) which is a surface formed by covering the gas flow surface (21, 121, 221) of the base with the surface coat layer (30, 130, 230) is a smooth surface having a ten-point average roughness RzJIS of a roughness curve of 5 μm or less and is also a flat surface having a maximum waviness height Wz of a waviness curve of 10 μm or less, wherein the ten-point average roughness RzJIS and the maximum waviness height Wz are specified in JIS B0601:2001 and measured with a cutoff value λs = no setting, λc = 0.8 mm, and a measurement distance = 4 mm.
An inkjet composition comprising two fluids, a first fluid having an anionic dye and at least one self-dispersible anionic pigment; and a second fluid having an acidic fluid fixer; wherein the acidic fluid fixer comprises at least one cationic polymer, the fixer being at a pH of 2 to 6, and wherein the wherein the acid fluid fixer includes succinic acid, glycolic acid and/or citric acid.
A copolymer, containing at least two cyclodextrin monomers and at least one linker; for use in the treatment of diseases of the urogenital system, characterized in that the water solubility of the copolymer is ≥5.0 gL -1 at 23°C.
A portable terminal, comprising: a terminal body having a display unit; a cover detachably mounted on a surface of the terminal body; a first solar cell mounted on a surface of the cover, and adapted to generate electrical energy when the cover is mounted on the terminal body; characterized by a second solar cell mounted at a different location from the first solar cell, and connected to a battery mounted on the terminal body; a switching unit operable to open or close power supply lines connected to the first and the second solar cells and the battery; and a comparator connected to the first and the second solar cells and configured to compare voltages generated from the first and the second solar cells with a reference voltage, a controller configured to control the switching unit based on the comparison result of the comparator. a terminal body having a display unit; a cover detachably mounted on a surface of the terminal body; a first solar cell mounted on a surface of the cover, and adapted to generate electrical energy when the cover is mounted on the terminal body; a second solar cell mounted at a different location from the first solar cell, and connected to a battery mounted on the terminal body; a switching unit operable to open or close power supply lines connected to the first and the second solar cells and the battery; and a comparator connected to the first and the second solar cells and configured to compare voltages generated from the first and the second solar cells with a reference voltage, a controller configured to control the switching unit based on the comparison result of the comparator.
A method of manufacturing an endless belt, comprising the steps of: reacting a diamine monomer with a dianhydride monomer in a reactor filled with a conductive filler-dispersed liquid to obtain a reaction product, aging the reaction product and then discharging the aged reaction product from the reactor to prepare a semiconductive polyamic acid solution having a molecular weight distribution (Mw/Mn) of 1.3 ∼ 3.0 and a weight average molecular weight (Mw) of 30,000 ∼ 300,000; and applying the semiconductive polyamic acid solution to a seamless mold and completing an imidization reaction to obtain a polyimide film, wherein the aging of the reaction product is performed at a temperature of 25 ∼ 55°C for 3 ∼ 72 hours. reacting a diamine monomer with a dianhydride monomer in a reactor filled with a conductive filler-dispersed liquid to obtain a reaction product, aging the reaction product and then discharging the aged reaction product from the reactor to prepare a semiconductive polyamic acid solution having a molecular weight distribution (Mw/Mn) of 1.3 ∼ 3.0 and a weight average molecular weight (Mw) of 30,000 ∼ 300,000; and applying the semiconductive polyamic acid solution to a seamless mold and completing an imidization reaction to obtain a polyimide film, wherein the aging of the reaction product is performed at a temperature of 25 ∼ 55°C for 3 ∼ 72 hours.
A method of constructing a cascade classifier comprising the steps of: receiving a trained cascade classifier; receiving a training data set with positive examples; using the trained cascade classifier on the training data set to obtain s k (t), the confidence level of weak classifier t for positive example k; and for each weak classifier t of the trained cascade classifier setting its rejection threshold to θ t = min k ⁢ s k t where k∈{ k | s k > θ,y k =1}, s k is the final detection score of the trained cascade classifier for positive example k, θ is the cascade classifier detection threshold, and y k =1 indicates that example k is positive. receiving a trained cascade classifier; receiving a training data set with positive examples; using the trained cascade classifier on the training data set to obtain s k (t), the confidence level of weak classifier t for positive example k; and for each weak classifier t of the trained cascade classifier setting its rejection threshold to θ t = min k ⁢ s k t where k∈{ k | s k > θ,y k =1}, s k is the final detection score of the trained cascade classifier for positive example k, θ is the cascade classifier detection threshold, and y k =1 indicates that example k is positive.