mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal selection method based on a self-organizing network, SON, comprising: determining , by a SON algorithm entity, a terminal selection criterion according to a requirement of implementing different SON algorithms, characterized in that the requirement of implementing different SON algorithms comprises at least one of the following: an objective fulfillment time limit of a SON algorithm, a cell type which includes macrocell or picocell, a cell service type categorized into multiple service types according to quality requirements of the cell services, a cell load condition, and an interference-received-by-cell condition; and performing , by the SON algorithm entity, selection of a target terminal to be implemented in a SON algorithm from managed terminals according to the terminal selection criterion, wherein the terminal selection criterion is for selecting a number of target terminals, or a percentage value of the target terminals in all terminals in a cell. determining , by a SON algorithm entity, a terminal selection criterion according to a requirement of implementing different SON algorithms, characterized in that the requirement of implementing different SON algorithms comprises at least one of the following: an objective fulfillment time limit of a SON algorithm, a cell type which includes macrocell or picocell, a cell service type categorized into multiple service types according to quality requirements of the cell services, a cell load condition, and an interference-received-by-cell condition; and performing , by the SON algorithm entity, selection of a target terminal to be implemented in a SON algorithm from managed terminals according to the terminal selection criterion, wherein the terminal selection criterion is for selecting a number of target terminals, or a percentage value of the target terminals in all terminals in a cell.
A cup holder, configured to be mounted on a dishwasher bowl basket , comprising a cup bracket and a goblet bayonet , the cup bracket is configured to place a cup, the goblet bayonet is provided on a first side of the cup bracket and is configured to accommodate a foot of a goblet, a second side of the cup bracket is provided with a mounting portion for mounting the cup holder on the dishwasher bowl basket , and the first side and the second side are opposite sides of the cup bracket in a width direction, and, in a mounting state, the mounting portion is rotatably connected to the dishwasher bowl basket , so that the cup holder is switched between an accommodation position and a working position, the mounting portion comprises a mounting buckle for buckling on a first rib of the dishwasher bowl basket so that the cup holder is rotated around the first rib, wherein the mounting buckle comprises a first hook portion , the first hook portion is configured to hook the first rib, characterised in that the mounting buckle further comprises a second hook portion , wherein the second hook portion is disposed at a free end of the first hook portion and extends toward an inner side of the first hook portion , and, in a mounting state, a free end of the second hook portion points toward the first rib to prevent the first rib from being separated from the first hook portion. wherein the mounting buckle comprises a first hook portion , the first hook portion is configured to hook the first rib, characterised in that the mounting buckle further comprises a second hook portion , wherein the second hook portion is disposed at a free end of the first hook portion and extends toward an inner side of the first hook portion , and, in a mounting state, a free end of the second hook portion points toward the first rib to prevent the first rib from being separated from the first hook portion.
A vacuum system for securing substrates , comprising a suction line , a conveyor belt configured to receive and transport at least one substrate , wherein the conveyor belt is provided with a plurality of perforations , wherein the vacuum system is configured to produce fluid suction through the perforations towards the interior of the suction line , generating a securing force of the at least one substrate to the conveyor belt , wherein each perforation is equipped with a valve which allows the opening and closing of said perforation , allowing and impeding, respectively, the passage of a fluid flow through said perforation , wherein in an area of the conveyor belt where the suction is applied, the valve comprises a mechanism configured to allow the closing of the valve when there is no substrate over the corresponding perforation , wherein the vacuum system further comprises at least one support partition to guide and support the conveyor belt in its displacement, the support partition being arranged to form at least one suction chamber which connects the suction of the fluid between the conveyor belt and the suction line , and a perforated plate arranged for the passage of the suction fluid therethrough between the suction chambers and the suction line to support the conveyor belt in its displacement via the support partitions ,wherein the mechanism is an auto-close mechanism or a commanded close mechanism. a conveyor belt configured to receive and transport at least one substrate , wherein the conveyor belt is provided with a plurality of perforations , wherein the vacuum system is configured to produce fluid suction through the perforations towards the interior of the suction line , generating a securing force of the at least one substrate to the conveyor belt , wherein each perforation is equipped with a valve which allows the opening and closing of said perforation , allowing and impeding, respectively, the passage of a fluid flow through said perforation , wherein in an area of the conveyor belt where the suction is applied, the valve comprises a mechanism configured to allow the closing of the valve when there is no substrate over the corresponding perforation , wherein the vacuum system further comprises at least one support partition to guide and support the conveyor belt in its displacement, the support partition being arranged to form at least one suction chamber which connects the suction of the fluid between the conveyor belt and the suction line , and a perforated plate arranged for the passage of the suction fluid therethrough between the suction chambers and the suction line to support the conveyor belt in its displacement via the support partitions ,wherein the mechanism is an auto-close mechanism or a commanded close mechanism.
A method of measuring the activity or specificity of an enzyme, wherein the enzyme is a protease, comprising: (a) expressing in a plurality of eukaryotic cells: (i) a first fusion protein comprising the protease, a first endoplasmic reticulum (ER) targeting sequence, and optionally a first endoplasmic reticulum (ER) retention sequence; and (ii) a second fusion protein comprising a second endoplasmic reticulum (ER) targeting sequence, a surface expression sequence, a first epitope tag sequence, a first peptide sequence, and a second epitope tag sequence, optionally a second endoplasmic reticulum (ER) retention sequence; (b) purifying or separating the cells based on the presence or absence of a first antibody that selectively binds the first epitope tag sequence and a second antibody that selectively binds the second epitope tag sequence; (c) sequencing the first peptide sequences after step (b) to produce a dataset; and (d) subtracting or eliminating endogenous cleavage events (cleaveOme) in the eukaryotic cells from the dataset, wherein the first and second fusion protein is encoded by the same vector or different vector. (a) expressing in a plurality of eukaryotic cells: (i) a first fusion protein comprising the protease, a first endoplasmic reticulum (ER) targeting sequence, and optionally a first endoplasmic reticulum (ER) retention sequence; and (ii) a second fusion protein comprising a second endoplasmic reticulum (ER) targeting sequence, a surface expression sequence, a first epitope tag sequence, a first peptide sequence, and a second epitope tag sequence, optionally a second endoplasmic reticulum (ER) retention sequence; (i) a first fusion protein comprising the protease, a first endoplasmic reticulum (ER) targeting sequence, and optionally a first endoplasmic reticulum (ER) retention sequence; and (ii) a second fusion protein comprising a second endoplasmic reticulum (ER) targeting sequence, a surface expression sequence, a first epitope tag sequence, a first peptide sequence, and a second epitope tag sequence, optionally a second endoplasmic reticulum (ER) retention sequence; (b) purifying or separating the cells based on the presence or absence of a first antibody that selectively binds the first epitope tag sequence and a second antibody that selectively binds the second epitope tag sequence; (c) sequencing the first peptide sequences after step (b) to produce a dataset; and (d) subtracting or eliminating endogenous cleavage events (cleaveOme) in the eukaryotic cells from the dataset,
A method for packing absorbent articles, the method comprising: a forming process in which a plurality of folded absorbent articles are inserted into a packaging member to form a package ; a loading process in which the package is compressed in a compression direction and a package bundle configured by a plurality of the packages is loaded into a cardboard box , the package bundle being loaded into the cardboard box in a state in which a length of the package bundle in the compression direction is shorter than an internal dimension of the cardboard box in the compression direction due to compression of the packages; and a contacting process in which the loaded package bundle is allowed to expand in an opposite direction to the compression direction so as to cause two ends of the package bundle in the opposite direction to contact an inner face of the cardboard box, the loading process separately including: a compressing stage in which the packages are compressed; and a loading stage in which the package bundle is loaded into the cardboard box , the loading stage being provided after the compression stage, characterized in that in the compressing stage, the packages are compressed one at a time and in the loading stage, a plurality of the packages that have been individually compressed are collected together and loaded into the cardboard box all at once. a forming process in which a plurality of folded absorbent articles are inserted into a packaging member to form a package ; a loading process in which the package is compressed in a compression direction and a package bundle configured by a plurality of the packages is loaded into a cardboard box , the package bundle being loaded into the cardboard box in a state in which a length of the package bundle in the compression direction is shorter than an internal dimension of the cardboard box in the compression direction due to compression of the packages; and a contacting process in which the loaded package bundle is allowed to expand in an opposite direction to the compression direction so as to cause two ends of the package bundle in the opposite direction to contact an inner face of the cardboard box, the loading process separately including: a compressing stage in which the packages are compressed; and a loading stage in which the package bundle is loaded into the cardboard box , the loading stage being provided after the compression stage, characterized in that in the compressing stage, the packages are compressed one at a time and in the loading stage, a plurality of the packages that have been individually compressed are collected together and loaded into the cardboard box all at once. a compressing stage in which the packages are compressed; and a loading stage in which the package bundle is loaded into the cardboard box , the loading stage being provided after the compression stage, characterized in that in the compressing stage, the packages are compressed one at a time and in the loading stage, a plurality of the packages that have been individually compressed are collected together and loaded into the cardboard box all at once.
Stator for an electric machine , comprising - a large number of pins which are arranged in at least two concentric circles; - an interface having at least one contact area which is connected to two electrically conductive legs and is supported by the legs - in order to allow a fixed point for connection of the phase conductors of an inverter, - wherein the legs are each connected to at least one pin in different concentric circles, - wherein each leg has a bend in the direction of the other leg, wherein each bend is substantially 90 degrees and the contact area is located between the bends , - characterized in that at least one leg has a twist between the pin and the contact area . - a large number of pins which are arranged in at least two concentric circles; - an interface having at least one contact area which is connected to two electrically conductive legs and is supported by the legs - in order to allow a fixed point for connection of the phase conductors of an inverter, - wherein the legs are each connected to at least one pin in different concentric circles, - wherein each leg has a bend in the direction of the other leg, wherein each bend is substantially 90 degrees and the contact area is located between the bends , - characterized in that at least one leg has a twist between the pin and the contact area .
A damping device for a wind turbine tower, comprising: a damping member ; a structural bracket , wherein the structural bracket connects the damping member to a mass block arranged on an object to be damped , wherein the structural bracket comprises a gear, and the gear is rotatably arranged on the structural bracket ; a guide rail having a predetermined curvature, wherein a first end of the guide rail is configured to be rotatably connected to the object to be damped , and a second end of the guide rail is supported on the structural bracket , wherein a side portion of the guide rail is formed with a tooth portion that meshes with the gear, wherein, when the mass block swings, the swing of the mass block is converted into rotation through meshing transmission between the guide rail and the gear, and the rotation is transmitted to the damping member . a damping member ; a structural bracket , wherein the structural bracket connects the damping member to a mass block arranged on an object to be damped , wherein the structural bracket comprises a gear, and the gear is rotatably arranged on the structural bracket ; a guide rail having a predetermined curvature, wherein a first end of the guide rail is configured to be rotatably connected to the object to be damped , and a second end of the guide rail is supported on the structural bracket , wherein a side portion of the guide rail is formed with a tooth portion that meshes with the gear, wherein, when the mass block swings, the swing of the mass block is converted into rotation through meshing transmission between the guide rail and the gear, and the rotation is transmitted to the damping member .
A biaxially-oriented polyester film satisfying the following requirements to : a content of antimony in the film is 10 ppm or less; a content of phosphorus in the film is 25 ppm or more and 75 ppm or less; an intrinsic viscosity of the film is 0.51 dl/g or more and 0.70 dl/g or less; and a number of defects with a size of 1 mm or more is 1.0 or less per 1000 square meters of the film, wherein the polyester film is formed with a polyester resin as a polyester raw material containing at least one selected from aluminum compounds and at least one selected from phosphorus compounds as polymerization catalysts, and not containing a titanium compound as a metal-containing polycondensation catalyst. a content of antimony in the film is 10 ppm or less; a content of phosphorus in the film is 25 ppm or more and 75 ppm or less; an intrinsic viscosity of the film is 0.51 dl/g or more and 0.70 dl/g or less; and a number of defects with a size of 1 mm or more is 1.0 or less per 1000 square meters of the film,
A method for controlling a valve of an instillation therapy system, the method comprising: fluidly coupling the instillation therapy system to a sealed volume; monitoring a pressure supplied by a reduced-pressure source in the sealed volume with the instillation therapy system for a time period; and opening a valve of the instillation therapy system in response to the pressure at the sealed volume during the time period. fluidly coupling the instillation therapy system to a sealed volume; monitoring a pressure supplied by a reduced-pressure source in the sealed volume with the instillation therapy system for a time period; and opening a valve of the instillation therapy system in response to the pressure at the sealed volume during the time period.
A paper sheet handling apparatus comprising: an upper assembly having at least one of a receiving unit configured to receive a paper sheet and an ejecting unit configured to eject the paper sheet; and a transporting unit configured to transport the paper sheet; and a lower assembly having a storage unit configured to store the paper sheet and an inside which is accessible, wherein a plurality of first communication parts is arranged in a bottom part of the upper assembly and a plurality of second communication parts is arranged in an upper part of the lower assembly for exchanging the paper sheet between the upper assembly and the lower assembly , the number of the first communication parts and the number of the second communication parts are the same, the positions of the first communication parts and the positions of the second communication parts match when the lower assembly is reversed in a front-back direction against the upper assembly , and when the lower assembly is not reversed in the front-back direction against the upper assembly , characterized in that the paper sheet sent from the first communication parts of the upper assembly to the second communication parts of the lower assembly is stored in the storage unit of the lower assembly without being diverted. an upper assembly having at least one of a receiving unit configured to receive a paper sheet and an ejecting unit configured to eject the paper sheet; and a transporting unit configured to transport the paper sheet; and at least one of a receiving unit configured to receive a paper sheet and an ejecting unit configured to eject the paper sheet; and a transporting unit configured to transport the paper sheet; and a lower assembly having a storage unit configured to store the paper sheet and an inside which is accessible, wherein a plurality of first communication parts is arranged in a bottom part of the upper assembly and a plurality of second communication parts is arranged in an upper part of the lower assembly for exchanging the paper sheet between the upper assembly and the lower assembly , the number of the first communication parts and the number of the second communication parts are the same, the positions of the first communication parts and the positions of the second communication parts match when the lower assembly is reversed in a front-back direction against the upper assembly , and when the lower assembly is not reversed in the front-back direction against the upper assembly , characterized in that the paper sheet sent from the first communication parts of the upper assembly to the second communication parts of the lower assembly is stored in the storage unit of the lower assembly without being diverted.
A system for nucleic acid, NA, amplification, the system comprising: a light source configured to emit a first excitation light based on a control signal; a reaction chamber configured to house a solution comprising a plurality of first nucleic acids, NAs , the plurality of first NAs being configured to amplify in response to the first excitation light, the solution being configured to emit a second light in response to heating by the first excitation light and to emit a third light in response to amplification of the plurality of first NAs ; a detector configured to detect the second and third lights and to generate a temperature signal corresponding to the second light and a first fluorescence signal corresponding to the third light; a lens module configured to focus the second and third lights onto the detector ; and a mirror configured to pass-through the first excitation light and to direct the second and third lights toward the lens module . a light source configured to emit a first excitation light based on a control signal; a reaction chamber configured to house a solution comprising a plurality of first nucleic acids, NAs , the plurality of first NAs being configured to amplify in response to the first excitation light, the solution being configured to emit a second light in response to heating by the first excitation light and to emit a third light in response to amplification of the plurality of first NAs ; a detector configured to detect the second and third lights and to generate a temperature signal corresponding to the second light and a first fluorescence signal corresponding to the third light; a lens module configured to focus the second and third lights onto the detector ; and a mirror configured to pass-through the first excitation light and to direct the second and third lights toward the lens module .
A secondary lithium battery, comprising: a positive electrode plate that is a lithium complex oxide sintered plate; a negative electrode containing carbon and styrene butadiene rubber (SBR); and an electrolytic solution containing lithium borofluoride (LiBF 4 ) in a non-aqueous solvent composed of γ-butyrolactone (GBL), or composed of γ-butyrolactone (GBL) and ethylene carbonate (EC). a positive electrode plate that is a lithium complex oxide sintered plate; a negative electrode containing carbon and styrene butadiene rubber (SBR); and an electrolytic solution containing lithium borofluoride (LiBF 4 ) in a non-aqueous solvent composed of γ-butyrolactone (GBL), or composed of γ-butyrolactone (GBL) and ethylene carbonate (EC).
A blockchain-implemented security method involving a first party and a second party, the method comprising: combining encrypted versions of a first plurality of n secrets generated by the first party and encrypted versions of a second plurality of n secrets generated by the second party to generate, by the second party, a plurality of n cryptographic locks , wherein said first plurality of n secrets and said second plurality of n secrets correspond respectively to n blockchain transaction outputs; receiving , by the second party, one secret randomly selected by the first party and belonging to the first plurality of n secrets generated by the first party; and generating, by the second party, a cryptographic key that unlocks a particular cryptographic lock of the plurality of n cryptographic locks, wherein the particular cryptographic lock corresponds to the randomly selected one secret belonging to the first plurality of n secrets generated by the first party. combining encrypted versions of a first plurality of n secrets generated by the first party and encrypted versions of a second plurality of n secrets generated by the second party to generate, by the second party, a plurality of n cryptographic locks , wherein said first plurality of n secrets and said second plurality of n secrets correspond respectively to n blockchain transaction outputs; receiving , by the second party, one secret randomly selected by the first party and belonging to the first plurality of n secrets generated by the first party; and generating, by the second party, a cryptographic key that unlocks a particular cryptographic lock of the plurality of n cryptographic locks, wherein the particular cryptographic lock corresponds to the randomly selected one secret belonging to the first plurality of n secrets generated by the first party.