mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid capacitor comprising: a positive electrode comprising a layer of a positive electrode active material having an electrical double-layer capacitance; and a negative electrode having a negative electrode active material layer comprising metal compound particles having a three-dimensional network structure which can occlude and release lithium ions and in which primary particles are bonded to each other with voids , characterised in that the metal compound particles have the three-dimensional network structure in which crystallites of lithium titanate are connected to each other; wherein a Magneli phase that is a titanium oxide represented by a general formula Ti n O 2n-1 (3≤n≤10) is formed on a part of the surfaces of the crystallites; and wherein ,by measuring a discharging capacity of 100% per unit mass of a negative electrode active material layer and a discharging capacity of 100% per unit mass of a positive electrode active material layer, amounts of the positive electrode active material layer and the negative electrode active material layer are adjusted so that a discharging capacity of 100% of the negative electrode active material layer is 1.25 times or more and 5.0 times or less than a discharging capacity of 100% of the positive electrode active material layer. a positive electrode comprising a layer of a positive electrode active material having an electrical double-layer capacitance; and a negative electrode having a negative electrode active material layer comprising metal compound particles having a three-dimensional network structure which can occlude and release lithium ions and in which primary particles are bonded to each other with voids , characterised in that the metal compound particles have the three-dimensional network structure in which crystallites of lithium titanate are connected to each other; wherein a Magneli phase that is a titanium oxide represented by a general formula Ti n O 2n-1 (3≤n≤10) is formed on a part of the surfaces of the crystallites; and wherein ,by measuring a discharging capacity of 100% per unit mass of a negative electrode active material layer and a discharging capacity of 100% per unit mass of a positive electrode active material layer, amounts of the positive electrode active material layer and the negative electrode active material layer are adjusted so that a discharging capacity of 100% of the negative electrode active material layer is 1.25 times or more and 5.0 times or less than a discharging capacity of 100% of the positive electrode active material layer.
Connector consisting of a plug and a socket , the connector having a first and a second position detecting element, which are designed for the contactless detection of a position of the plug, with respect to the socket and a position of a locking mechanism of the connector , the first position detecting element being arranged on the socket or the plug , the second position detecting element being arranged on or in the locking mechanism, characterized in that the first position detecting element is an RFID receiver and the second position detecting element is an RFID transponder , the connector comprising on the socket side evaluation electronics , which are designed to evaluate the first position detecting element and to calculate a distance between the first and the second position detecting element.
An aerosol delivery system comprising: a vessel comprising a first end, a second end, and a body , the body comprising a liquid reservoir and an air passage ; and a multi-lumen tubing comprising an upper portion and a tip end, and being attached to the vessel at the second end thereof; wherein the multi-lumen tubing includes multiple lumens with a central lumen and one or more peripheral lumens ; wherein in the multi-lumen tubing a liquid path from the liquid reservoir and through the central lumen and a gas path from the gas passage and through at least one peripheral lumen are defined; wherein an aerosol is generated at the tip end of the multi-lumen tubing ; characterized in that the at least one peripheral lumen is provided with a break to selectively block those lumens in the multi-lumen tubing just below the connection of the multi-lumen tubing to the liquid reservoir ) so that no liquid from the liquid reservoir passes further down the multi-lumen tubing through the blocked lumens. a vessel comprising a first end, a second end, and a body , the body comprising a liquid reservoir and an air passage ; and a multi-lumen tubing comprising an upper portion and a tip end, and being attached to the vessel at the second end thereof; wherein the multi-lumen tubing includes multiple lumens with a central lumen and one or more peripheral lumens ; wherein in the multi-lumen tubing a liquid path from the liquid reservoir and through the central lumen and a gas path from the gas passage and through at least one peripheral lumen are defined; wherein an aerosol is generated at the tip end of the multi-lumen tubing ; characterized in that the at least one peripheral lumen is provided with a break to selectively block those lumens in the multi-lumen tubing just below the connection of the multi-lumen tubing to the liquid reservoir ) so that no liquid from the liquid reservoir passes further down the multi-lumen tubing through the blocked lumens.
A slim-type air processing device , comprising: a housing ; a centrifugal fan provided inside the housing; an air suction part formed in the housing, and provided in a radial direction of the centrifugal fan; and an air processing part mounted in the housing, disposed on a flow path of air flowing from the air suction part to the centrifugal fan, and processing air, passing therethrough, in a manner of at least one of dehumidification, humidification, and purification; wherein the centrifugal fan is provided with a shaft parallel to a front-rear direction of the housing, and the air suction part and the air processing part are provided on both sides of the housing, characterized in that the centrifugal fan includes a first inlet disposed toward a front surface of the housing and a second inlet disposed toward a rear surface of the housing, the air suction part includes a first air suction part formed in one side of the housing, and a second air suction part formed in the other side of the housing, and an interior of the housing is provided with a first flow path connected between the first air suction part and the first inlet, a second flow path connected between the first air suction part and the second inlet, a third flow path connected between the second air suction part and the first inlet, and a fourth flow path connected between the second air suction part and the second inlet and in that the slim-type air processing device further comprising: - a first opening and closing part provided in the housing so as to open and close the first flow path; - a second opening and closing part provided in the housing so as to open and close the second flow path; - a third opening and closing part provided in the housing so as to open and close the third flow path; and - a fourth opening and closing part provided in the housing so as to open and close the fourth flow path. a housing ; a centrifugal fan provided inside the housing; an air suction part formed in the housing, and provided in a radial direction of the centrifugal fan; and an air processing part mounted in the housing, disposed on a flow path of air flowing from the air suction part to the centrifugal fan, and processing air, passing therethrough, in a manner of at least one of dehumidification, humidification, and purification; - a first opening and closing part provided in the housing so as to open and close the first flow path; - a second opening and closing part provided in the housing so as to open and close the second flow path; - a third opening and closing part provided in the housing so as to open and close the third flow path; and - a fourth opening and closing part provided in the housing so as to open and close the fourth flow path.
A battery pack case, comprising: a bottom plate and a side plate connected to the bottom plate , wherein the bottom plate and the side plate surround to form an accommodating portion configured to accommodate a unit cell; a plurality of first grooves and a plurality of second grooves opening toward the accommodating portion are provided on the bottom plate , wherein the plurality of first grooves are spaced apart from each other, the plurality of second grooves are spaced apart from each other, and the first grooves and the second grooves are arranged to cross each other, wherein the battery pack case further comprises a strip plate , the strip plate is disposed at a connection between a long side of the bottom plate along a length direction of the bottom plate and the side plate , the strip plate comprises a first long side along the length direction of the bottom plate and a second long side along the length direction of the bottom plate opposite to each other, the first long side is connected and fixed to the side plate , and the second long side is connected and fixed to the long side of the bottom plate . a bottom plate and a side plate connected to the bottom plate , wherein the bottom plate and the side plate surround to form an accommodating portion configured to accommodate a unit cell; a plurality of first grooves and a plurality of second grooves opening toward the accommodating portion are provided on the bottom plate , wherein the plurality of first grooves are spaced apart from each other, the plurality of second grooves are spaced apart from each other, and the first grooves and the second grooves are arranged to cross each other, wherein the battery pack case further comprises a strip plate , the strip plate is disposed at a connection between a long side of the bottom plate along a length direction of the bottom plate and the side plate , the strip plate comprises a first long side along the length direction of the bottom plate and a second long side along the length direction of the bottom plate opposite to each other, the first long side is connected and fixed to the side plate , and the second long side is connected and fixed to the long side of the bottom plate .
A pharmaceutical composition for use in preventing or treating allergic disease comprising, as an active ingredient, an extract of gardenia fruit from which pigment is removed, wherein the extract of gardenia fruit from which pigment is removed is produced by a method including the followings: carrying out first extraction by adding an extraction solvent to gardenia fruit followed by filtration to obtain a first filtrate; adding an extraction solvent to residues remained after obtaining the first filtrate in above step to obtain a second filtrate; mixing the first filtrate with the second filtrate, which are obtained from the above step and step , respectively, followed by adding activated carbon for allowing pigment of gardenia fruit extract to get adsorbed onto the activated carbon; and removing the activated carbon after the above step followed by filtration, concentration, and drying to obtain an extract of gardenia fruit from which pigment is removed. carrying out first extraction by adding an extraction solvent to gardenia fruit followed by filtration to obtain a first filtrate; adding an extraction solvent to residues remained after obtaining the first filtrate in above step to obtain a second filtrate; mixing the first filtrate with the second filtrate, which are obtained from the above step and step , respectively, followed by adding activated carbon for allowing pigment of gardenia fruit extract to get adsorbed onto the activated carbon; and removing the activated carbon after the above step followed by filtration, concentration, and drying to obtain an extract of gardenia fruit from which pigment is removed.
High-pressure cleaning apparatus, comprising an electric motor and a pump driven by the electric motor for transporting a cleaning liquid, and comprising a main switching device for manually switching the electric motor on and off, and comprising a motor protection switching device for switching the electric motor off in the event of unacceptable current consumption of the electric motor , wherein the motor protection switching device is automatically triggerable and then manually resettable, characterized in that the motor protection switching device is resettable by manually actuating the main switching device .
A method of producing an L-amino acid by a fermentation method, the method comprising: culturing a bacterium modified to have an ability to produce the L-amino acid and an ability to assimilate alginic acid in a culture medium containing alginic acid as a carbon source obtained from seaweed-derived biomass, or containing alginic acid as a carbon source obtained from seaweed-derived biomass which alginic acid is subjected to an enzymatic degradation reaction by an alginate lyase or an acid hydrolysis reaction, to produce and accumulate the L-amino acid in the culture medium in an amount of not less than 1.0 g/l; and collecting the L-amino acid from the culture medium.
A method for braking a motor in a high lift system of an aircraft, the high lift system comprising a central power drive unit for moving high lift surfaces arranged at a wing through providing rotational power by means of a transmission shaft to a plurality of drive stations operably coupled with the high lift surfaces ; which power drive unit is operatively coupled to a controller and comprises at least one electric motor coupled therewith; the method comprising: determining a braking requirement for the at least one electric motor ; measuring a magnitude of a current of a motor command signal and a direction of the at least one electric motor ; based on the braking requirement, applying a braking command to the at least one electric motor , the braking command comprising a command of substantially equivalent magnitude of the motor command signal that will drive the at least one electric motor in an opposite direction; and reducing the braking command as the at least one electric motor comes to rest. determining a braking requirement for the at least one electric motor ; measuring a magnitude of a current of a motor command signal and a direction of the at least one electric motor ; based on the braking requirement, applying a braking command to the at least one electric motor , the braking command comprising a command of substantially equivalent magnitude of the motor command signal that will drive the at least one electric motor in an opposite direction; and reducing the braking command as the at least one electric motor comes to rest.
A retrieval device , comprising: a sheath having a distal end ; a plurality of support members extending distal of the distal end , the support members each having a distal loop ; a hollow member extending distal of the distal end ; and a movable member extending distally from the hollow member and slidably extending through the distal loops of the support members ; wherein the support members , the hollow member , and the movable member together form a basket , the retrieval device further comprising: at least one biasing coil extending between the support members and around the movable member . a sheath having a distal end ; a plurality of support members extending distal of the distal end , the support members each having a distal loop ; a hollow member extending distal of the distal end ; and a movable member extending distally from the hollow member and slidably extending through the distal loops of the support members ; wherein the support members , the hollow member , and the movable member together form a basket , the retrieval device further comprising: at least one biasing coil extending between the support members and around the movable member .
An information sending method, comprising: receiving , by an access and management function, AMF, network element, a request message sent by an access network element, wherein the request message comprises indication information, and the indication information is used to indicate whether the AMF network element needs to send a necessary parameter to the access network element and is used to trigger an access stratum security mode command, AS SMC, procedure; determining , by the AMF network element based on the indication information carried in the request message, whether the necessary parameter needs to be sent to the access network element, comprising determining based on a type of a terminal device, whether the AS SMC procedure needs to be performed, wherein the AMF network element determines that the AS SMC procedure needs to be performed if the terminal device is of an enhanced mobile broadband, eMBB, type, and that the AS SMC procedure does not need to be performed if the terminal device is one of a massive machine type of communication, mMTC, type or an ultra reliable low latency communication, URLLC, type; and if determining that the necessary parameter needs to be sent, sending , by the AMF network element, an initial context setup request message to the access network element, wherein the initial context setup request message carries the necessary parameter to the access network element, wherein the necessary parameter is a security context. receiving , by an access and management function, AMF, network element, a request message sent by an access network element, wherein the request message comprises indication information, and the indication information is used to indicate whether the AMF network element needs to send a necessary parameter to the access network element and is used to trigger an access stratum security mode command, AS SMC, procedure; determining , by the AMF network element based on the indication information carried in the request message, whether the necessary parameter needs to be sent to the access network element, comprising determining based on a type of a terminal device, whether the AS SMC procedure needs to be performed, wherein the AMF network element determines that the AS SMC procedure needs to be performed if the terminal device is of an enhanced mobile broadband, eMBB, type, and that the AS SMC procedure does not need to be performed if the terminal device is one of a massive machine type of communication, mMTC, type or an ultra reliable low latency communication, URLLC, type; and if determining that the necessary parameter needs to be sent, sending , by the AMF network element, an initial context setup request message to the access network element, wherein the initial context setup request message carries the necessary parameter to the access network element, wherein the necessary parameter is a security context.
A system for providing dynamic vacuum control to an end effector of an articulated arm, said system comprising: a compressor ; a blower ; and a multi-stage ejector coupled to an end effector of an articulated arm, wherein the multi-stage ejector defines a plurality of different sized apertures, and the multi-stage ejector is further coupled to the compressor and the blower such that the compressor is capable of generating a first vacuum having a first vacuum pressure and a first maximum air flow rate through the plurality of different sized apertures, and the blower is capable of generating a second vacuum having a second vacuum pressure with a second maximum air flow rate through the plurality of different sized apertures of the multi-stage ejector, wherein the second vacuum pressure is higher than the first vacuum pressure and wherein the second maximum air flow rate is greater than the first maximum air flow rate, wherein the multi-stage ejector automatically provides the end effector with a dynamic vacuum such that one of the first vacuum and the second vacuum dominates through the plurality of different sized apertures responsive to a change in air pressure at the end effector. a compressor ; a blower ; and a multi-stage ejector coupled to an end effector of an articulated arm, wherein the multi-stage ejector defines a plurality of different sized apertures, and the multi-stage ejector is further coupled to the compressor and the blower such that the compressor is capable of generating a first vacuum having a first vacuum pressure and a first maximum air flow rate through the plurality of different sized apertures, and the blower is capable of generating a second vacuum having a second vacuum pressure with a second maximum air flow rate through the plurality of different sized apertures of the multi-stage ejector, wherein the second vacuum pressure is higher than the first vacuum pressure and wherein the second maximum air flow rate is greater than the first maximum air flow rate, wherein the multi-stage ejector automatically provides the end effector with a dynamic vacuum such that one of the first vacuum and the second vacuum dominates through the plurality of different sized apertures responsive to a change in air pressure at the end effector.
Method for topology determination in a mobile communications site , wherein: - the mobile communications site comprises n nodes (15 1 , ..., 15 n ), where n ≥ 3, or n ≥ 4; and - each node (15 1 , ..., 15 n ) has m ports (16 1 , ..., 16 m ), where m ≥ 1 and wherein every node (15 1 , ..., 15 n ) is an electrical functional unit; - each one of the n nodes (15 1 , .., 15 n ) is connected electrically and/or electromagnetically via at least one of its m ports (16 1 , ..., 16 m ) to at least one other of the n nodes (15 1 , ..., 15 n ) via at least one of its m ports (16 1 , ..., 16 m ) for communications purposes; characterized in that the method comprises the following method steps: - determining (S 1 ) the number of existing nodes (15 1 , ..., 15 n ); - designating (S 2 ) from one of the determined n nodes (15 1 , ..., 15 n ) a master node and the other node as the slave node; - selecting (S 3 ) a slave node as a test slave node and preventing a communication of the other slave nodes; - testing (S 4 ) via which of the m ports (16 1 , ..., 16 m ) of the master node and via which of the m ports (16 1 , ..., 16 m ) of the test slave node a communication between the master node and the test slave node is possible, and storing these ports (16 1 , ..., 16 m ); - repeating (S 5 ) the method steps of selecting (S 3 ) and testing (S 4 ) for each of the other slave nodes, wherein in the method step selecting (S 3 ) a different slave node is selected in each case as the test slave node; - generating (S 6 ) a connection topology for the master node. - the mobile communications site comprises n nodes (15 1 , ..., 15 n ), where n ≥ 3, or n ≥ 4; and - each node (15 1 , ..., 15 n ) has m ports (16 1 , ..., 16 m ), where m ≥ 1 and wherein every node (15 1 , ..., 15 n ) is an electrical functional unit; - each one of the n nodes (15 1 , .., 15 n ) is connected electrically and/or electromagnetically via at least one of its m ports (16 1 , ..., 16 m ) to at least one other of the n nodes (15 1 , ..., 15 n ) via at least one of its m ports (16 1 , ..., 16 m ) for communications purposes; - determining (S 1 ) the number of existing nodes (15 1 , ..., 15 n ); - designating (S 2 ) from one of the determined n nodes (15 1 , ..., 15 n ) a master node and the other node as the slave node; - selecting (S 3 ) a slave node as a test slave node and preventing a communication of the other slave nodes; - testing (S 4 ) via which of the m ports (16 1 , ..., 16 m ) of the master node and via which of the m ports (16 1 , ..., 16 m ) of the test slave node a communication between the master node and the test slave node is possible, and storing these ports (16 1 , ..., 16 m ); - repeating (S 5 ) the method steps of selecting (S 3 ) and testing (S 4 ) for each of the other slave nodes, wherein in the method step selecting (S 3 ) a different slave node is selected in each case as the test slave node; - generating (S 6 ) a connection topology for the master node.