mhurhangee/patent-ind-claim-en huggingface dataset:
A system for halting a flight of an aircraft , comprising: a first capture pole rotatably coupled to a first base ; a second capture pole rotatably coupled to a second base and spaced apart from the first base to define a fixed space, wherein the first and second capture poles are separated by the fixed space; a capture line suspended between the first and second capture poles ; a motor configured to move the first and second capture poles to cause the capture line to travel through a capture window ; a spooling system configured to extend or retract the capture line from the first and second capture poles ; and a recovery control system configured to: in response to detecting a condition, activate the motor to rotate the first and second capture poles , thereby moving the capture line through the capture window and engaging an engagement member on the aircraft with the capture line in the capture window ; determine a tension of the capture line ; and cause the spooling system to extend the capture line to maintain the tension of the capture line under a threshold. a first capture pole rotatably coupled to a first base ; a second capture pole rotatably coupled to a second base and spaced apart from the first base to define a fixed space, wherein the first and second capture poles are separated by the fixed space; a capture line suspended between the first and second capture poles ; a motor configured to move the first and second capture poles to cause the capture line to travel through a capture window ; a spooling system configured to extend or retract the capture line from the first and second capture poles ; and a recovery control system configured to: in response to detecting a condition, activate the motor to rotate the first and second capture poles , thereby moving the capture line through the capture window and engaging an engagement member on the aircraft with the capture line in the capture window ; determine a tension of the capture line ; and cause the spooling system to extend the capture line to maintain the tension of the capture line under a threshold. in response to detecting a condition, activate the motor to rotate the first and second capture poles , thereby moving the capture line through the capture window and engaging an engagement member on the aircraft with the capture line in the capture window ; determine a tension of the capture line ; and cause the spooling system to extend the capture line to maintain the tension of the capture line under a threshold.
A method for processing a radio bearer for transmitting a data flow, the method comprising: determining , by an access network node, a quality of service parameter passed by a core network control entity to the access network node; and processing , by the access network node, a radio bearer according to the quality of service parameter to transmit a data flow to be transmitted between a core network and a User Equipment, UE; wherein the data flow transmitted from the core network to an access network side is not mapped to the radio bearer in a one-to-one manner; wherein the quality of service parameter is passed to the access network node in a signaling-plane message; wherein processing the radio bearer according to the quality of service parameter comprises: searching existing radio bearers between an access network and the UE for a radio bearer satisfying the quality of service parameter requirement, and after no radio bearer satisfying the quality of service parameter requirement is found as a result of the search, determining whether a radio bearer satisfying the quality of service parameter can be set up, according to whether the resource of the access network can satisfy a bit rate requirement for the data flow, and if so, setting up a radio bearer satisfying the quality of service parameter requirement, and transmitting the data flow to be transmitted by the core network control entity to the UE , on the set radio bearer. determining , by an access network node, a quality of service parameter passed by a core network control entity to the access network node; and processing , by the access network node, a radio bearer according to the quality of service parameter to transmit a data flow to be transmitted between a core network and a User Equipment, UE; wherein the data flow transmitted from the core network to an access network side is not mapped to the radio bearer in a one-to-one manner; wherein the quality of service parameter is passed to the access network node in a signaling-plane message; wherein processing the radio bearer according to the quality of service parameter comprises: searching existing radio bearers between an access network and the UE for a radio bearer satisfying the quality of service parameter requirement, and after no radio bearer satisfying the quality of service parameter requirement is found as a result of the search, determining whether a radio bearer satisfying the quality of service parameter can be set up, according to whether the resource of the access network can satisfy a bit rate requirement for the data flow, and if so, setting up a radio bearer satisfying the quality of service parameter requirement, and transmitting the data flow to be transmitted by the core network control entity to the UE , on the set radio bearer.
A frame structure of an electric bed, comprising a detachable upper frame and a detachable lower frame , wherein the upper frame comprises wheels , and the lower frame comprises rail slots , so that the upper frame is capable to move relative to the lower frame ; wherein the lower frame can be separated into a front lower frame and a rear lower frame ; wherein the front lower frame comprises a front lower frame main body and front lower frame mounting portions on both sides of the front lower frame main body , wherein the front lower frame main body includes a first crossbar and a second crossbar disposed between the two sides of the front lower frame mounting portions , and the first and the second crossbar are directly connected to the rail slots ; the rear lower frame comprises a rear lower frame main body and rear lower frame mounting portions on both sides of the rear lower frame main body , wherein the rear lower frame main body includes a third crossbar and a forth crossbar disposed between the two rear lower frame mounting portions , and the third and the fourth crossbar are directly connected to the rail slots ; and the front lower frame mounting portions of the front lower frame and the rear lower frame mounting portions of the rear lower frame are connected by screws, wherein the screws are connected to the front lower frame mounting portions of the front lower frame and the rear lower frame mounting portions of the rear lower frame along the longitudinal direction of the electric bed; and the front lower frame main body of the front lower frame and the rear lower frame main body of the rear lower frame together form an accommodating space for accommodating a driving structure of the electric bed. the front lower frame comprises a front lower frame main body and front lower frame mounting portions on both sides of the front lower frame main body , wherein the front lower frame main body includes a first crossbar and a second crossbar disposed between the two sides of the front lower frame mounting portions , and the first and the second crossbar are directly connected to the rail slots ; the rear lower frame comprises a rear lower frame main body and rear lower frame mounting portions on both sides of the rear lower frame main body , wherein the rear lower frame main body includes a third crossbar and a forth crossbar disposed between the two rear lower frame mounting portions , and the third and the fourth crossbar are directly connected to the rail slots ; and the front lower frame mounting portions of the front lower frame and the rear lower frame mounting portions of the rear lower frame are connected by screws, wherein the screws are connected to the front lower frame mounting portions of the front lower frame and the rear lower frame mounting portions of the rear lower frame along the longitudinal direction of the electric bed; and the front lower frame main body of the front lower frame and the rear lower frame main body of the rear lower frame together form an accommodating space for accommodating a driving structure of the electric bed.
A white ink, comprising: an aqueous ink vehicle; from 5 wt% to 60 wt% of a white flocculated colorant mass, comprising: white metal oxide pigment having an average particulate size from 100 nm to 2,000 nm, an alumina coating on the white metal oxide pigment forming an alumina-coated pigment, wherein the alumina coating is predominantly alumina, and wherein the white metal oxide pigment content to alumina content is from 99:1 to 9:1 by weight, and a polymeric dispersant associated with a surface of the alumina-coated pigment, wherein the polymeric dispersant includes a non-ionic or predominantly non-ionic dispersant having an anionic anchoring group and an acid number not higher than 100mg KOH/g based on dry polymer weight, and wherein the polymeric dispersant further includes an anionic dispersant having an acid number higher than 100mg KOH/g based on dry polymer weight. an aqueous ink vehicle; from 5 wt% to 60 wt% of a white flocculated colorant mass, comprising: white metal oxide pigment having an average particulate size from 100 nm to 2,000 nm, an alumina coating on the white metal oxide pigment forming an alumina-coated pigment, wherein the alumina coating is predominantly alumina, and wherein the white metal oxide pigment content to alumina content is from 99:1 to 9:1 by weight, and a polymeric dispersant associated with a surface of the alumina-coated pigment, wherein the polymeric dispersant includes a non-ionic or predominantly non-ionic dispersant having an anionic anchoring group and an acid number not higher than 100mg KOH/g based on dry polymer weight, and wherein the polymeric dispersant further includes an anionic dispersant having an acid number higher than 100mg KOH/g based on dry polymer weight. white metal oxide pigment having an average particulate size from 100 nm to 2,000 nm, an alumina coating on the white metal oxide pigment forming an alumina-coated pigment, wherein the alumina coating is predominantly alumina, and wherein the white metal oxide pigment content to alumina content is from 99:1 to 9:1 by weight, and a polymeric dispersant associated with a surface of the alumina-coated pigment, wherein the polymeric dispersant includes a non-ionic or predominantly non-ionic dispersant having an anionic anchoring group and an acid number not higher than 100mg KOH/g based on dry polymer weight, and wherein the polymeric dispersant further includes an anionic dispersant having an acid number higher than 100mg KOH/g based on dry polymer weight.
A device for controlling the flashback of a fluid through a catheter assembly , comprising: a catheter adapter coupled to an end of the catheter , the catheter adapter having a lumen wherein the lumen of the catheter adapter and the catheter are in fluid communication; a valve integrated into the catheter assembly , the valve preventing the fluid from flowing through the catheter adapter , the valve being opened by either applying force on at least one contact surface of the valve, or by inserting a probe into the lumen of the catheter adapter whereby the probe displaces a portion of the valve and opens the valve, characterized in that the valve comprises a crease , wherein the crease comprises a linear score on the outer surface of the valve such that the crease facilitates a middle portion of the valve to bend outward when opened. a catheter adapter coupled to an end of the catheter , the catheter adapter having a lumen wherein the lumen of the catheter adapter and the catheter are in fluid communication; a valve integrated into the catheter assembly , the valve preventing the fluid from flowing through the catheter adapter , the valve being opened by either applying force on at least one contact surface of the valve, or by inserting a probe into the lumen of the catheter adapter whereby the probe displaces a portion of the valve and opens the valve, characterized in that the valve comprises a crease , wherein the crease comprises a linear score on the outer surface of the valve such that the crease facilitates a middle portion of the valve to bend outward when opened.
A stator bar chamber engaging a stator bar in an electric machine, the chamber encompassing a number of hollow conductors in a first straight part of the chamber , a number of hollow conductors in a second tapered part , and a number of hollow conductors and adjacent solid conductors in a third straight part , whereas the first part of the chamber is closed with a ring mounted at the edge of the first part and a nipple adapted to the ring , the ring is made from copper and the nipple is made from stainless steel, and an essential part or the whole part of the first part is brazed in a first brazing zone to thereby electrically connect the hollow conductors , an essential part or the whole part of the third part is brazed in a second brazing zone to thereby create a watertight part, and the nipple is brazed to the copper ring .
Process for the production of iron ore fines agglomerate for metallic load replacement in reduction furnaces, characterized in that it is conducted without use of carbonaceous material as fuel by comprising the following steps: a) mixing a nanomaterial and a catalyst to sodium silicate for preparing the binder mixture; b) mixing 1-5% of the binder mixture from step a) with 70-100% iron ore fines, 0-30% fines of fluxes and 0-5% plasticizer in intensive mixer; c) adjusting the moisture in such a way as to obtain the amount of 0-30% of water weight in the mixture; d) performing agglomeration by pelletizing, briquetting or extrusion; e) keeping the agglomerates at room temperature for 2-10 days for curing; wherein the following dosages are used: 0.05 to 2% by weight of nanomaterial relative to sodium silicate; and 0.05 to 5% by weight of catalyst relative to sodium silicate, wherein the catalyst used in step a) is selected from the group consisting of sodium pyrophosphate, magnesium hydroxide, propylene carbonate, glycerin carbonate, calcium hydroxide, calcium oxide, glycerol triacetate, aluminum chloride, aluminum hydroxide, triacetin, diacetin, and metallic aluminum. a) mixing a nanomaterial and a catalyst to sodium silicate for preparing the binder mixture; b) mixing 1-5% of the binder mixture from step a) with 70-100% iron ore fines, 0-30% fines of fluxes and 0-5% plasticizer in intensive mixer; c) adjusting the moisture in such a way as to obtain the amount of 0-30% of water weight in the mixture; d) performing agglomeration by pelletizing, briquetting or extrusion; e) keeping the agglomerates at room temperature for 2-10 days for curing; wherein the following dosages are used: 0.05 to 2% by weight of nanomaterial relative to sodium silicate; and 0.05 to 5% by weight of catalyst relative to sodium silicate, 0.05 to 2% by weight of nanomaterial relative to sodium silicate; and 0.05 to 5% by weight of catalyst relative to sodium silicate, wherein the catalyst used in step a) is selected from the group consisting of sodium pyrophosphate, magnesium hydroxide, propylene carbonate, glycerin carbonate, calcium hydroxide, calcium oxide, glycerol triacetate, aluminum chloride, aluminum hydroxide, triacetin, diacetin, and metallic aluminum.
A transmission, in particular for use in a powertrain of a rail vehicle, comprising a part which is rotatable about a rotation axis, at least one duct extending within the rotatable part and having an inlet opening to allow lubricant to enter the duct and an outlet opening to allow lubricant to exit the duct , as viewed in a longitudinal sectional view through the rotatable part which contains the rotation axis, at least one longitudinal section of the duct including an inner edge , which extends closer to the rotation axis in the radial direction with respect to the rotation axis, and an outer edge , which extends at a greater distance from the rotation axis, and the outer edge extending further away from the rotation axis in the course of the at least one longitudinal section in the direction of the outlet opening , the transmission comprising a pivot bearing for supporting the rotatable part and a clearance , the clearance extending from the outlet opening to the pivot bearing , the duct extending from a first radial end face to a second radial end face of the rotatable part which is located opposite the first end face in the axial direction, the inlet opening being situated at the first end face , and the outlet opening being situated at the second end face , characterized in that the transmission includes a stationary lubricant feed , which leads to a cavity , the cavity being arranged directly upstream of the inlet opening of the duct in the flow direction of the lubricant, the transmission comprises a housing including a housing cover , and at least one section of the lubricant feed extending inside the housing cover or along an inner surface pointing into the transmission interior. the transmission comprising a pivot bearing for supporting the rotatable part and a clearance , the clearance extending from the outlet opening to the pivot bearing , the duct extending from a first radial end face to a second radial end face of the rotatable part which is located opposite the first end face in the axial direction, the inlet opening being situated at the first end face , and the outlet opening being situated at the second end face , characterized in that the transmission includes a stationary lubricant feed , which leads to a cavity , the cavity being arranged directly upstream of the inlet opening of the duct in the flow direction of the lubricant, the transmission comprises a housing including a housing cover , and at least one section of the lubricant feed extending inside the housing cover or along an inner surface pointing into the transmission interior.
A shaped detergent product comprising 10 to 100 wt. % of a first solid phase and 0 to 90 wt. % of one or more other phases, said first solid phase comprising: a) non-crystalline chiral aminopolycarboxylate; b) non-crystalline organic acid other than component a); c) at most 30 wt. % water; d) at most 50 wt. % of non-crystalline water-soluble component other than component a) or component b); e) at most 20 wt. % of homogeneously dispersed crystalline material; wherein the combination of the components a), b) and c) is present in the first solid phase in a concentration of at least 35 wt. % of the total weight of said solid phase; and wherein components a), b) and c) are present in the solid phase in a ratio of from 25 to 88 parts by weight of free acid equivalent of component a) : from 10 to 60 parts by weight of free acid equivalent of component b) : from 2 to 30 parts by weight of component c); and wherein the shaped detergent product comprises at least 0.5 wt. % surfactant. a) non-crystalline chiral aminopolycarboxylate; b) non-crystalline organic acid other than component a); c) at most 30 wt. % water; d) at most 50 wt. % of non-crystalline water-soluble component other than component a) or component b); e) at most 20 wt. % of homogeneously dispersed crystalline material; wherein the combination of the components a), b) and c) is present in the first solid phase in a concentration of at least 35 wt. % of the total weight of said solid phase; and wherein components a), b) and c) are present in the solid phase in a ratio of from 25 to 88 parts by weight of free acid equivalent of component a) : from 10 to 60 parts by weight of free acid equivalent of component b) : from 2 to 30 parts by weight of component c); and wherein the shaped detergent product comprises at least 0.5 wt. % surfactant.
A signal processing apparatus comprising: a characteristics difference calculating unit configured to calculate a difference between reproduction target characteristics (M1) of a first sound signal and characteristics (M2) of a second sound signal obtained by collecting, at a microphone provided inside a headphone, sound output from a driver based on a third sound signal obtained by performing signal processing on the first sound signal ; and a sound signal processing unit configured to select a first parameter for a first filter configured to adjust sound quality of the first sound signal and a second parameter for a second filter configured to execute noise reduction processing of the second sound signal based on the difference calculated by the characteristics difference calculating unit , wherein the characteristics difference calculating unit is configured to calculate the difference between the reproduction target characteristics (M1) and the characteristics (M2) of the second sound signal by comparing frequency characteristics of the first sound signal with frequency characteristics of the second sound signal. a characteristics difference calculating unit configured to calculate a difference between reproduction target characteristics (M1) of a first sound signal and characteristics (M2) of a second sound signal obtained by collecting, at a microphone provided inside a headphone, sound output from a driver based on a third sound signal obtained by performing signal processing on the first sound signal ; and a sound signal processing unit configured to select a first parameter for a first filter configured to adjust sound quality of the first sound signal and a second parameter for a second filter configured to execute noise reduction processing of the second sound signal based on the difference calculated by the characteristics difference calculating unit , wherein the characteristics difference calculating unit is configured to calculate the difference between the reproduction target characteristics (M1) and the characteristics (M2) of the second sound signal by comparing frequency characteristics of the first sound signal with frequency characteristics of the second sound signal.
A copolymer of a vinyl chloride-based monomer, a dicarboxylic acid ester monomer having a linear, branched, or cyclic alkyl group having 10 to 30 carbon atoms, and a hydroxyl-based monomer, wherein the dicarboxylic acid ester monomer having a linear, branched, or cyclic alkyl group having 10 to 30 carbon atoms is one or more compounds selected from the group consisting of dipentyl maleate, dihexyl maleate, dioctyl maleate, and dinonyl maleate, and wherein the weight ratio of the dicarboxylic acid ester monomer having a linear, branched, or cyclic alkyl group having 10 to 30 carbon atoms, and the hydroxyl-based monomer is 1.5:1 to 2:1. wherein the dicarboxylic acid ester monomer having a linear, branched, or cyclic alkyl group having 10 to 30 carbon atoms is one or more compounds selected from the group consisting of dipentyl maleate, dihexyl maleate, dioctyl maleate, and dinonyl maleate, and wherein the weight ratio of the dicarboxylic acid ester monomer having a linear, branched, or cyclic alkyl group having 10 to 30 carbon atoms, and the hydroxyl-based monomer is 1.5:1 to 2:1.
A composition for preparing a patch for transdermal delivery of donepezil, comprising: an adhesive matrix comprising (a) 5-50 wt% donepezil free base; (b) 5-50 wt% of at least one adhesive polymer; (c) 5-40 wt% of at least one solubility enhancer that is an ester of a dicarboxylic acid; and (d) 1-20 wt% of at least one lipophilic permeation enhancer that is selected from a fatty acid, an α-hydroxy acid, a β-hydroxy acid, and a keto carboxylic acid. (a) 5-50 wt% donepezil free base; (b) 5-50 wt% of at least one adhesive polymer; (c) 5-40 wt% of at least one solubility enhancer that is an ester of a dicarboxylic acid; and (d) 1-20 wt% of at least one lipophilic permeation enhancer that is selected from a fatty acid, an α-hydroxy acid, a β-hydroxy acid, and a keto carboxylic acid.