mhurhangee/ep-ind-claims huggingface dataset:
A dielectric resonator (20; 30), comprising a solid dielectric resonator body (201; 301), a blind hole (202; 302) located on one side of the solid dielectric resonator body (201; 301), a metallized layer (203; 303) covering both a surface of the solid dielectric resonator body (201; 301) and a surface of the blind hole (202; 302), a demetallized notch (204; 304) located at the metallized layer (203; 303) on the surface of the blind hole (202; 302), characterized in that it further comprises a metallized sealing part that is configured to seal the demetallized notch (204; 304) and that keeps away from the demetallized notch (204; 304) at a certain spacing, wherein the metallized sealing part is located inside the blind hole (202; 302) and connected to the surface of the blind hole (202; 302), and a surface, in a same direction as an opening of the blind hole (202; 302), of the metallized sealing part is a metallized surface.
A communication method, comprising: sending, by a first base station, first data to a user equipment, UE, according to first data allocation information that is determined according to a UE category of the UE; and instructing, by the first base station, a second base station to send, according to second data allocation information that is determined according to the UE category, second data to the UE, wherein the second base station performs carrier aggregation with the first base station; wherein a total amount of the first data sent by the first base station and the second data sent by the second base station to the UE in a same transmission time interval, TTI, does not exceed a total amount of data that can be received by the UE according to the UE category. sending, by a first base station, first data to a user equipment, UE, according to first data allocation information that is determined according to a UE category of the UE; and instructing, by the first base station, a second base station to send, according to second data allocation information that is determined according to the UE category, second data to the UE, wherein the second base station performs carrier aggregation with the first base station; wherein a total amount of the first data sent by the first base station and the second data sent by the second base station to the UE in a same transmission time interval, TTI, does not exceed a total amount of data that can be received by the UE according to the UE category.
A method for producing at least one fluorine-containing halogenated hydrocarbon selected from 1,1,1,2,2-pentafluoropropane (HFC-245cb), 1,1,1,3,3-pentafluoropropane (HFC-245fa), E,Z-1,3,3,3-tetrafluoropropene (E,Z-HFO-1234ze), 2,3,3,3-tetrafluoropropene (HFO-1234yf), 2-chloro-3,3,3-trifluoropropene (HCFO-1233xf) and 1-chloro-3,3,3-trifluoropropene (HCFO-1233zd), comprising - a step of reacting a chlorine-containing compound and HF in a vapor phase, and - a step of separating a reaction product containing HF, HCl and organic matter containing the fluorine-containing halogenated hydrocarbon into multiple components, comprising the steps of separating the reaction product into a gas phase and a liquid phase, increasing the pressure of the liquid phase and supplying the liquid phase into a distillation column A, compressing the gas phase in series in two or more stages using a compressor and heating it by a heater to maintain a fraction of compressed gas of 1 at each stage, and supplying the gas phase into distillation column A, and separating a first stream containing the HCl from the top of distillation column A, and separating a second stream containing the organic matter and the HF from the bottom of distillation column A. - a step of reacting a chlorine-containing compound and HF in a vapor phase, and - a step of separating a reaction product containing HF, HCl and organic matter containing the fluorine-containing halogenated hydrocarbon into multiple components, comprising the steps of separating the reaction product into a gas phase and a liquid phase, increasing the pressure of the liquid phase and supplying the liquid phase into a distillation column A, compressing the gas phase in series in two or more stages using a compressor and heating it by a heater to maintain a fraction of compressed gas of 1 at each stage, and supplying the gas phase into distillation column A, and separating a first stream containing the HCl from the top of distillation column A, and separating a second stream containing the organic matter and the HF from the bottom of distillation column A. separating the reaction product into a gas phase and a liquid phase, increasing the pressure of the liquid phase and supplying the liquid phase into a distillation column A, compressing the gas phase in series in two or more stages using a compressor and heating it by a heater to maintain a fraction of compressed gas of 1 at each stage, and supplying the gas phase into distillation column A, and separating a first stream containing the HCl from the top of distillation column A, and separating a second stream containing the organic matter and the HF from the bottom of distillation column A.
A method for manufacturing a fuel cell separator, comprising: a press molding step for press-molding a composition containing a graphite powder, an epoxy resin, and a phenol resin under heat in a mold to obtain a molded article having a groove serving as a gas channel on one or both surfaces; a roughening step for roughening the entire both surfaces of the molded article obtained in step; a gasket formation step for forming a gasket on a peripheral edge part of a gas channel surface having the groove serving as a gas channel in the roughened molded article obtained in step; a laser irradiation step for irradiating a portion of the gas channel surface, where the gasket is not formed, in the molded article with a gasket obtained in step, with infrared laser light; wherein in step irradiation is performed over an entire part of the gas channel surface where the gasket is not formed; and a hydrophilization step for hydrophilizing the entire gas channel surface of the molded article irradiated with the infrared laser light in step. a press molding step for press-molding a composition containing a graphite powder, an epoxy resin, and a phenol resin under heat in a mold to obtain a molded article having a groove serving as a gas channel on one or both surfaces; a roughening step for roughening the entire both surfaces of the molded article obtained in step; a gasket formation step for forming a gasket on a peripheral edge part of a gas channel surface having the groove serving as a gas channel in the roughened molded article obtained in step; a laser irradiation step for irradiating a portion of the gas channel surface, where the gasket is not formed, in the molded article with a gasket obtained in step, with infrared laser light; wherein in step irradiation is performed over an entire part of the gas channel surface where the gasket is not formed; and a hydrophilization step for hydrophilizing the entire gas channel surface of the molded article irradiated with the infrared laser light in step.
A vacuum assisted suspension system, comprising: a prosthetic foot; a prosthetic socket; an elongate compression transfer element connected to the prosthetic foot; and a vacuum pump (2, 44) connected to the prosthetic socket and the compression transfer element, the vacuum pump (2, 44) including a housing defining an enclosed space to receive a fluid, at least one wall of the housing and at least one movable wall (10, 48) defining a fluid compartment (12, 54) in the housing, the at least one movable wall (10, 48) being connected to the compression transfer element, wherein the compression transfer element causes the at least one movable wall (10, 48) of the fluid compartment (12, 54) to move and increase the volume of the fluid compartment (12, 54) in response to a compressive force on the prosthetic foot thereby drawing in fluid from the prosthetic socket, wherein in the absence of a compressive force, the movable wall (10, 48) is arranged to shift in a direction decreasing the volume of the fluid compartment (12, 54), wherein the compression transfer element comprises a wire (16, 34) connected to the movable wall and connected to the prosthetic foot, characterized in that the system is configured such that a compressive force applied at a first end of the wire (16, 34) connected to the prosthetic foot shifts the movable wall connected to a second end of the wire (16, 34) to expand the volume of the fluid compartment. a prosthetic foot; a prosthetic socket; an elongate compression transfer element connected to the prosthetic foot; and a vacuum pump (2, 44) connected to the prosthetic socket and the compression transfer element, the vacuum pump (2, 44) including a housing defining an enclosed space to receive a fluid, at least one wall of the housing and at least one movable wall (10, 48) defining a fluid compartment (12, 54) in the housing, the at least one movable wall (10, 48) being connected to the compression transfer element, wherein the compression transfer element causes the at least one movable wall (10, 48) of the fluid compartment (12, 54) to move and increase the volume of the fluid compartment (12, 54) in response to a compressive force on the prosthetic foot thereby drawing in fluid from the prosthetic socket, wherein in the absence of a compressive force, the movable wall (10, 48) is arranged to shift in a direction decreasing the volume of the fluid compartment (12, 54), wherein the compression transfer element comprises a wire (16, 34) connected to the movable wall and connected to the prosthetic foot,
A robot comprising: a flange that is capable of attaching a welding torch and configured to rotate about a first axis; a wrist arm configured to rotate about a second axis perpendicular to the first axis and configured to support the flange; a forearm configured to rotate about a third axis perpendicular to the second axis configured and to support the wrist arm; and a feeder attached to a position between a base end and a tip end of the forearm and configured to feed a welding wire, characterized in that the forearm is formed in a shape with bifurcated portions, and in that the feeder is disposed at an area between the bifurcated portions and closer to a base of the bifurcated portions. a flange that is capable of attaching a welding torch and configured to rotate about a first axis; a wrist arm configured to rotate about a second axis perpendicular to the first axis and configured to support the flange; a forearm configured to rotate about a third axis perpendicular to the second axis configured and to support the wrist arm; and a feeder attached to a position between a base end and a tip end of the forearm and configured to feed a welding wire, characterized in that the forearm is formed in a shape with bifurcated portions, and in that the feeder is disposed at an area between the bifurcated portions and closer to a base of the bifurcated portions.
A composition for amplifying three different target sequences in the SARS-CoV-2 genome, comprising: (a) a first forward primer and a first reverse primer configured to amplify a first target sequence present within the N gene of the SARS-CoV-2 genome, wherein the first forward primer and the first reverse primer are SEQ ID NOs: 211 and 501; (b) a second forward primer and a second reverse primer configured to amplify a second target sequence present within the S gene of the SARS-CoV-2 genome, wherein the second forward primer and the second reverse primer are SEQ ID NOs: 100 and 337; and (c) a third forward primer and a third reverse primer configured to amplify a third target sequence present within the ORF1ab gene of the SARS-CoV-2 genome, wherein the third forward primer and the third reverse primer are SEQ ID NOs: 160 and 468. (a) a first forward primer and a first reverse primer configured to amplify a first target sequence present within the N gene of the SARS-CoV-2 genome, wherein the first forward primer and the first reverse primer are SEQ ID NOs: 211 and 501; (b) a second forward primer and a second reverse primer configured to amplify a second target sequence present within the S gene of the SARS-CoV-2 genome, wherein the second forward primer and the second reverse primer are SEQ ID NOs: 100 and 337; and (c) a third forward primer and a third reverse primer configured to amplify a third target sequence present within the ORF1ab gene of the SARS-CoV-2 genome, wherein the third forward primer and the third reverse primer are SEQ ID NOs: 160 and 468.
A pitch link comprising: a link assembly having an overall adjustable length, the link assembly comprising: a first link; a second link coupled to a first end of the first link by a thread; and a third link coupled to a second end of the first link by a thread opposite the first end; a first jam nut coupling the first link to the second link; and a second jam nut coupling the first link to the third link; a first bearing housing having a first bearing; a second bearing housing having a second bearing, characterized in that the first bearing housing is removably coupled to the second link, the second link separating the first bearing housing from the first link; and in that the second bearing housing is removably coupled to the third link, the third link separating the second bearing housing from the first link; wherein the length of the link assembly is adjustable by rotating the first link so as to adjust the overall length of the first, second and third links (240, 250a, 250b). a link assembly having an overall adjustable length, the link assembly comprising: a first link; a second link coupled to a first end of the first link by a thread; and a third link coupled to a second end of the first link by a thread opposite the first end; a first jam nut coupling the first link to the second link; and a second jam nut coupling the first link to the third link; a first link; a second link coupled to a first end of the first link by a thread; and a third link coupled to a second end of the first link by a thread opposite the first end; a first jam nut coupling the first link to the second link; and a second jam nut coupling the first link to the third link; a first bearing housing having a first bearing; a second bearing housing having a second bearing, characterized in that the first bearing housing is removably coupled to the second link, the second link separating the first bearing housing from the first link; and in that the second bearing housing is removably coupled to the third link, the third link separating the second bearing housing from the first link; wherein the length of the link assembly is adjustable by rotating the first link so as to adjust the overall length of the first, second and third links (240, 250a, 250b).
A motor housing for housing a motor and a blower of a cleaning device, the motor housing comprising an external wall for enclosing the blower arranged to rotate around an axis (x), the motor for driving the blower, and a flow passage between an externally accessible flow inlet (E_I) and an externally accessible flow outlet (S_O1, S_O2, S_O3, S_O4), wherein the flow passage comprises, seen in a view parallel with said axis (x): - a blower chamber for housing the blower, wherein the blower chamber has an opening fluidically connected to the externally accessible flow inlet (E_I), wherein the blower chamber further has separate first and second outlet openings (O1, O2) characterized in that the flow passage further comprises, seen in a view parallel with said axis (x): - a first silencer duct fluidically connected to the first outlet opening of the blower chamber, wherein the first silencer duct is arranged in a first area limited by a first angle of less than 90° from the axis (x), wherein at least one wall between the blower chamber and the external wall of the motor housing serves to cause at least one flow direction bend, and wherein the first silencer duct has a first outlet opening (S_O1), and - a second silencer duct fluidically connected to the second outlet opening of the blower chamber, wherein the second silencer duct is arranged in a second area limited by a second angle of less than 90° from the axis, wherein at least one wall between the blower chamber and the external wall of the motor housing serves to cause at least one flow direction bend, and wherein the second silencer duct has a second outlet opening (S_O2), wherein the first and second areas are non-overlapping. - a blower chamber for housing the blower, wherein the blower chamber has an opening fluidically connected to the externally accessible flow inlet (E_I), wherein the blower chamber further has separate first and second outlet openings (O1, O2) characterized in that the flow passage further comprises, seen in a view parallel with said axis (x): - a first silencer duct fluidically connected to the first outlet opening of the blower chamber, wherein the first silencer duct is arranged in a first area limited by a first angle of less than 90° from the axis (x), wherein at least one wall between the blower chamber and the external wall of the motor housing serves to cause at least one flow direction bend, and wherein the first silencer duct has a first outlet opening (S_O1), and - a second silencer duct fluidically connected to the second outlet opening of the blower chamber, wherein the second silencer duct is arranged in a second area limited by a second angle of less than 90° from the axis, wherein at least one wall between the blower chamber and the external wall of the motor housing serves to cause at least one flow direction bend, and wherein the second silencer duct has a second outlet opening (S_O2),
A personal cleansing composition comprising: (a) 0.01 to 15 % by weight of a nourishing oil component which is a vegetable oil or mixture of vegetable oils having an oleic acid content of at least 38 % by weight (based on the total amount of esterified fatty acids in the vegetable oil) and which is tamanu oil or its mixture with one or more of marula oil, apricot kernel oil, and argan oil; (b) 0.01 to 20 % by weight of a compatibilizing oil component which is a vegetable oil or mixture of vegetable oils being selected from soybean oil, olive oil, coconut oil, and sunflower oil; wherein the total amount of nourishing oil component and compatibilizing oil component does not exceed 25 % by weight; (c) 5 to 50 % by weight of a surfactant system comprising: (i) an anionic surfactant or mixture of anionic surfactants and (ii) an amphoteric and/or zwitterionic surfactant or mixtures thereof; (d) 0.01 to 5.0 % by weight of hydrophobically modified crosslinked acrylic copolymer; and (e) water, wherein all weight percentages of the components are based on the total weight of the cleansing composition and water is present in an amount adding up to 100 % by weight. (a) 0.01 to 15 % by weight of a nourishing oil component which is a vegetable oil or mixture of vegetable oils having an oleic acid content of at least 38 % by weight (based on the total amount of esterified fatty acids in the vegetable oil) and which is tamanu oil or its mixture with one or more of marula oil, apricot kernel oil, and argan oil; (b) 0.01 to 20 % by weight of a compatibilizing oil component which is a vegetable oil or mixture of vegetable oils being selected from soybean oil, olive oil, coconut oil, and sunflower oil; (c) 5 to 50 % by weight of a surfactant system comprising: (i) an anionic surfactant or mixture of anionic surfactants and (ii) an amphoteric and/or zwitterionic surfactant or mixtures thereof; (i) an anionic surfactant or mixture of anionic surfactants and (ii) an amphoteric and/or zwitterionic surfactant or mixtures thereof; (d) 0.01 to 5.0 % by weight of hydrophobically modified crosslinked acrylic copolymer; and (e) water,
A method in a dual band radio receiver for handling an analog dual band radio signal comprising a first frequency band component and a second frequency band component, the method comprising the steps of: sampling the analog dual band radio signal through the use of interleaving analog-to-digital converters, ADCs, to obtain four sampled signals including a first I component, Iin+, a first Q component, Qin+, a second I component, Iin-, and a second Q component, Qin-, wherein phases of Qin+, Iin-, and Qin- are respectively offset with respect to phases of Iin+, Qin+, and Iin- by π/2; filtering the four sampled signals through the use of polyphase filters to obtain a first set of filtered signals (a1, a2, a3, a4), each of which has a same power as the first frequency band component and a second set of filtered signals (b1, b2, b3, b4), each of which has a same power as the second frequency band component; estimating a power of the first frequency band component, a power of the second frequency band component, and a total power of the first frequency band component and the second frequency band component, based on the four sampled signals, the first set of filtered signals (a1, a2, a3, a4), and the second set of filtered signals (b1, b2, b3, b4); and selectively attenuating the first frequency band component and the second frequency band component based on the estimated powers. sampling the analog dual band radio signal through the use of interleaving analog-to-digital converters, ADCs, to obtain four sampled signals including a first I component, Iin+, a first Q component, Qin+, a second I component, Iin-, and a second Q component, Qin-, wherein phases of Qin+, Iin-, and Qin- are respectively offset with respect to phases of Iin+, Qin+, and Iin- by π/2; filtering the four sampled signals through the use of polyphase filters to obtain a first set of filtered signals (a1, a2, a3, a4), each of which has a same power as the first frequency band component and a second set of filtered signals (b1, b2, b3, b4), each of which has a same power as the second frequency band component; estimating a power of the first frequency band component, a power of the second frequency band component, and a total power of the first frequency band component and the second frequency band component, based on the four sampled signals, the first set of filtered signals (a1, a2, a3, a4), and the second set of filtered signals (b1, b2, b3, b4); and selectively attenuating the first frequency band component and the second frequency band component based on the estimated powers.