mhurhangee/patent-ind-claim-en huggingface dataset:
A radio-frequency identification RFID-based system for collecting information from a telecommunications network , comprising: an optical transceiver having a transceiver circuitry configured to perform at least one of storing, receiving and communicating information, including transceiver information; electronics equipment that contains electronics-equipment information and that is operably connected to the transceiver the electronics equipment adapted to communicate the electronics-equipment information to the transceiver ; a transceiver RFID tag operably supported by and electrically connected to the transceiver circuitry and adapted to generate a transceiver RFID-tag signal (ST2) that includes the transceiver information rand the electronics-equipment information; and ran RF reader adapted to generate a reader signal that elicits said transceiver RFID-tag signal (ST2) and that is configured to store information contained in the transceiver RFID-tag signal (ST2). an optical transceiver having a transceiver circuitry configured to perform at least one of storing, receiving and communicating information, including transceiver information; electronics equipment that contains electronics-equipment information and that is operably connected to the transceiver the electronics equipment adapted to communicate the electronics-equipment information to the transceiver ; a transceiver RFID tag operably supported by and electrically connected to the transceiver circuitry and adapted to generate a transceiver RFID-tag signal (ST2) that includes the transceiver information rand the electronics-equipment information; and ran RF reader adapted to generate a reader signal that elicits said transceiver RFID-tag signal (ST2) and that is configured to store information contained in the transceiver RFID-tag signal (ST2).
A storage cell system in which outputs of N storage cell units (U1-U3) are linked in parallel and supplied to a load (161-166), where N is a natural number greater than or equal to two, each of the storage cell units (U1-U3) is formed by connecting M storage cell modules (111-114, 121-124, 131-134) in parallel, where M is a natural number greater than or equal to two, and L cell lines, each formed by connecting K storage cells (B11-B13, B21-B23, B31-B33) in series, are connected in parallel to form each of the storage cell modules (111-114, 121-124, 131-134), where L is a natural number greater than or equal to two, and K is a natural number greater than or equal to one, the storage cell system comprising: a fuse (H1-H3) interposed in each of the L cell lines, and disconnecting a cell line from the other cell lines connected in parallel when current flowing in the cell line is an overcurrent; an air circuit breaker interposed in an output line of each of the N storage cell units (U1-U3), and interrupting an output line when current flowing in the output line is an overcurrent; and a current-limiting resistor (R) interposed in an output line of each of the M storage cell modules (111-114, 121-124, 131-134), and limiting load capacity of the output line, wherein when one of the storage cells (B11-B13, B21-B23, B31-B33) has failure, and a backward current occurs in the output line of the storage cell module (111-114, 121-124, 131-134), the current-limiting resistor (R) performs protective coordination for the backward current by limiting load capacity of the backward current and avoiding the disconnection of the other storage cell modules (111-114, 121-124, 131-134) by the fuse (H1-H3) and the interruption of the other storage cell units (U1-U3) by the air circuit breaker . a fuse (H1-H3) interposed in each of the L cell lines, and disconnecting a cell line from the other cell lines connected in parallel when current flowing in the cell line is an overcurrent; an air circuit breaker interposed in an output line of each of the N storage cell units (U1-U3), and interrupting an output line when current flowing in the output line is an overcurrent; and a current-limiting resistor (R) interposed in an output line of each of the M storage cell modules (111-114, 121-124, 131-134), and limiting load capacity of the output line, wherein when one of the storage cells (B11-B13, B21-B23, B31-B33) has failure, and a backward current occurs in the output line of the storage cell module (111-114, 121-124, 131-134), the current-limiting resistor (R) performs protective coordination for the backward current by limiting load capacity of the backward current and avoiding the disconnection of the other storage cell modules (111-114, 121-124, 131-134) by the fuse (H1-H3) and the interruption of the other storage cell units (U1-U3) by the air circuit breaker .
A reaction tube for nucleic acid amplification, comprising a tube body with one end closed, said tube body comprises a reservoir region and a nucleic acid amplification region located below the reservoir region; wherein an insert is disposed in said nucleic acid amplification region with an upper space remained above the insert and a lower space remained below the insert , wherein when a reagent is injected into the reaction tube, the reagent is capable of moving along a circulation path through the upper space and the lower space in the reaction tube under an internal force or external force, due to a physical barrier effect of the insert .
A gear formed of sintered alloy comprising: spur teeth formed on a circumference of the gear ; a central hole on the center of the gear ; and a boss formed around the central hole , wherein a peripheral portion is formed radially inner side of the teeth , a thickness of a region between the boss and the peripheral portion being thinner than that of the boss ; characterized in: that the peripheral portion is formed on at least one side of the gear and has an axially larger thickness than the teeth , that a stepped portion is provided between an end face of the teeth and a side surface of the peripheral portion , that a clearance amount (δ) between the tooth and the peripheral portion of the gear is limited within a range of 0.1∼0.5 mm and that a width (W) of a stepped portion from the peripheral portion to the tooth tip is set to 1∼2 times the whole depth (H) of the tooth . spur teeth formed on a circumference of the gear ; a central hole on the center of the gear ; and a boss formed around the central hole , wherein a peripheral portion is formed radially inner side of the teeth , a thickness of a region between the boss and the peripheral portion being thinner than that of the boss ; characterized in: that the peripheral portion is formed on at least one side of the gear and has an axially larger thickness than the teeth , that a stepped portion is provided between an end face of the teeth and a side surface of the peripheral portion , that a clearance amount (δ) between the tooth and the peripheral portion of the gear is limited within a range of 0.1∼0.5 mm and that a width (W) of a stepped portion from the peripheral portion to the tooth tip is set to 1∼2 times the whole depth (H) of the tooth .
A virtualizable automated test equipment architecture comprising: a circuit assembly including: a front plane and a backplane ; a plurality of external device connections; a plurality of signal paths extending between the front plane and the back plane , characterised in that each of the plurality of signal paths is continuous between the front plane and the backplane and isolated from other signal paths of the plurality of signal paths ; an impedance disposed along, and being connected into, a signal path of the plurality of signal paths ; a software configurable physical disconnect configured to open or close at least one of the plurality of signal paths based on predetermined test requirements. a circuit assembly including: a front plane and a backplane ; a plurality of external device connections; a plurality of signal paths extending between the front plane and the back plane , characterised in that each of the plurality of signal paths is continuous between the front plane and the backplane and isolated from other signal paths of the plurality of signal paths ; an impedance disposed along, and being connected into, a signal path of the plurality of signal paths ; a software configurable physical disconnect configured to open or close at least one of the plurality of signal paths based on predetermined test requirements. a plurality of signal paths extending between the front plane and the back plane , characterised in that each of the plurality of signal paths is continuous between the front plane and the backplane and isolated from other signal paths of the plurality of signal paths ; an impedance disposed along, and being connected into, a signal path of the plurality of signal paths ; a software configurable physical disconnect configured to open or close at least one of the plurality of signal paths based on predetermined test requirements.
A movable gantry for delivery of a particle beam using beam scanning technique, for example for the cancer treatment in human tissue; comprising: a) an inlet section for an accelerated particle beam comprising a number of quadrupole magnets ; b) a first bending section and optionally a second bending section comprising a number of dipole and quadrupole magnets and optionally further magnets for beam correction; c) a transfer section comprising a number of quadrupole magnets and optionally further magnets for beam correction, wherein the transfer section further comprises a degrader (D) wherein the degrader (D) is placed at the end of the transfer section as seen in the direction of the particle beam only being followed by a collimator or a collimator system (Col2) in this transfer section; d) a last beam bending section comprising a number of separate and/or combined dipole/quadrupole/higher order multipole magnets forming an achromatic section, wherein all magnets of this achromatic last bending section are located downstream of the degrader (D); wherein any dispersion in this achromatic last bending section is suppressed so that it will have a momentum acceptance of more than ±5%; e) a scanning section comprising two separate or one combined fast deflection magnets (K1, K2) that deflect the beam at the iso-center in a direction perpendicular to the beam direction to perform lateral scanning; and f) a beam nozzle section comprising a beam nozzle and optionally beam handling equipment, such as further beam degrading or modifying elements and/or beam quality related beam verifying elements. a) an inlet section for an accelerated particle beam comprising a number of quadrupole magnets ; b) a first bending section and optionally a second bending section comprising a number of dipole and quadrupole magnets and optionally further magnets for beam correction; c) a transfer section comprising a number of quadrupole magnets and optionally further magnets for beam correction, wherein the transfer section further comprises a degrader (D) wherein the degrader (D) is placed at the end of the transfer section as seen in the direction of the particle beam only being followed by a collimator or a collimator system (Col2) in this transfer section; d) a last beam bending section comprising a number of separate and/or combined dipole/quadrupole/higher order multipole magnets forming an achromatic section, wherein all magnets of this achromatic last bending section are located downstream of the degrader (D); wherein any dispersion in this achromatic last bending section is suppressed so that it will have a momentum acceptance of more than ±5%; e) a scanning section comprising two separate or one combined fast deflection magnets (K1, K2) that deflect the beam at the iso-center in a direction perpendicular to the beam direction to perform lateral scanning; and f) a beam nozzle section comprising a beam nozzle and optionally beam handling equipment, such as further beam degrading or modifying elements and/or beam quality related beam verifying elements.
A method of purifying black liquor soap (BLS) from sulfur compounds , the method comprising: subjecting the BLS to one or more extractions with an aqueous alkaline solution containing less than 5% by weight of brine, sulfate salts and carbonate salts as well as comprising 1-15 mol/L of an inorganic base, wherein the inorganic base is selected from the group consisting of NaOH, LiOH, KOH and any combination thereof, the weight ratio of the applied aqueous alkaline solution/BLS is greater than 1/10 and less than 20/1, wherein after each extraction, the resulting BLS phase is separated from the aqueous phase; and subsequently collected as purified BLS; wherein the purified BLS has a total solids sulfur content which is reduced by at least 30 %, and a chloride content of less than 1000 ppm. subjecting the BLS to one or more extractions with an aqueous alkaline solution containing less than 5% by weight of brine, sulfate salts and carbonate salts as well as comprising 1-15 mol/L of an inorganic base, wherein the inorganic base is selected from the group consisting of NaOH, LiOH, KOH and any combination thereof, the weight ratio of the applied aqueous alkaline solution/BLS is greater than 1/10 and less than 20/1, wherein after each extraction, the resulting BLS phase is separated from the aqueous phase; and subsequently collected as purified BLS; wherein the purified BLS has a total solids sulfur content which is reduced by at least 30 %, and a chloride content of less than 1000 ppm.
A piercer plug comprising: a tip portion ; and a trunk portion made of the same material as the tip portion and continuous to the tip portion , wherein the trunk portion includes a cylindrical portion having a hole used for attaching a bar, characterized in that the tip portion is harder than the cylindrical portion . a tip portion ; and a trunk portion made of the same material as the tip portion and continuous to the tip portion , wherein the trunk portion includes a cylindrical portion having a hole used for attaching a bar, characterized in that the tip portion is harder than the cylindrical portion .
Wave energy recovery apparatus with an energy transfer arrangement comprising at least a base , a reciprocating panel , a pivot shaft for the reciprocating panel , a control system, and a driving and power-take-off (PTO) arrangement equipped with an actuating mechanism equipped with one or more actuating rods , and one or more power-take-off (PTO) units to convert kinetic energy of waves or tidal currents to another type of energy, each PTO unit comprising a hydraulic power transmission mechanism having hydraulic cylinders with pistons inside the hydraulic cylinders , which pistons are fastened with their free ends to a common connecting plate that is arranged to move all the pistons simultaneously inwards into the hydraulic cylinders and to draw all the pistons simultaneously outwards from the hydraulic cylinders , and which arrangement comprises at least two or more pairs of hydraulic cylinders with pistons which all are fastened to the same common connecting plate and arranged to work in pairs, each pair comprising two similar cylinders and two similar pistons , characterized in that the power transmission mechanism of the PTO unit comprises a group of hydraulic cylinders that are fastened to a common end plate with their open ends, a cylinder layout being substantially symmetrical in relation to the horizontal and vertical centerlines and the center axis of the end plate .
A data carrier for a book-like document which consists of at least two layers forming a film composite and having at least one outside the end face of which is delimited by two front edges extending along the outside , with a burr formed by a cutting process at the front edge on the outside of the film composite being smoothed.
A wind turbine , comprising: a tower ; a nacelle disposed atop said tower; a mainframe stationarily mounted within said nacelle; individual rotor blades connected to a rotor hub ; a drive train disposed within said nacelle , said drive train comprising: a gearbox mounted directly to said rotor hub, said gearbox comprising an output shaft ; said gearbox further comprising a stationary gear carrier mounted to said mainframe, wherein said gearbox substantially supports the weight of said rotor hub; a generator , said generator comprising a generator rotor and stationary generator stator , said stationary gear carrier being disposed axially forward of said stationary generator stator , said stationary generator stator being mounted to said mainframe, said output shaft being coupled to said generator rotor and wherein said gearbox substantially supports the weight of said generator rotor ; a spline hub mounted to said generator rotor , said output shaft coupled to said spline hub for rotationally driving said generator rotor ; and a spline hub bearing mounted to said gear carrier concentric to said spline hub . a tower ; a nacelle disposed atop said tower; a mainframe stationarily mounted within said nacelle; individual rotor blades connected to a rotor hub ; a drive train disposed within said nacelle , said drive train comprising: a gearbox mounted directly to said rotor hub, said gearbox comprising an output shaft ; said gearbox further comprising a stationary gear carrier mounted to said mainframe, wherein said gearbox substantially supports the weight of said rotor hub; a generator , said generator comprising a generator rotor and stationary generator stator , said stationary gear carrier being disposed axially forward of said stationary generator stator , said stationary generator stator being mounted to said mainframe, said output shaft being coupled to said generator rotor and wherein said gearbox substantially supports the weight of said generator rotor ; a spline hub mounted to said generator rotor , said output shaft coupled to said spline hub for rotationally driving said generator rotor ; and a spline hub bearing mounted to said gear carrier concentric to said spline hub . a gearbox mounted directly to said rotor hub, said gearbox comprising an output shaft ; said gearbox further comprising a stationary gear carrier mounted to said mainframe, wherein said gearbox substantially supports the weight of said rotor hub; a generator , said generator comprising a generator rotor and stationary generator stator , said stationary gear carrier being disposed axially forward of said stationary generator stator , said stationary generator stator being mounted to said mainframe, said output shaft being coupled to said generator rotor and wherein said gearbox substantially supports the weight of said generator rotor ; a spline hub mounted to said generator rotor , said output shaft coupled to said spline hub for rotationally driving said generator rotor ; and a spline hub bearing mounted to said gear carrier concentric to said spline hub .
A polypeptide-based shuttle agent comprising an endosome leakage domain (ELD) operably linked to a cell penetrating domain (CPD), or an ELD operably linked to a histidine-rich domain and a CPD, for use in a clinical or therapeutic in vivo method for increasing the transduction efficiency of an independent polypeptide cargo to the cytosol of target eukaryotic cells, wherein the cargo is a biologically active polypeptide, and wherein the polypeptide-based shuttle agent has a predicted net charge of at least +6 at physiological pH and is used at a concentration sufficient to increase the transduction efficiency of the independent polypeptide cargo to the cytosol of target eukaryotic cell.
A composition for use in the simultaneous treatment of acne and photoaging, said composition comprising: a) a first anti-acne compound; b) a second anti-acne compound, wherein each of the first and second anti-acne compounds are selected from the group consisting of azelaic acid, clindamycin, niacinamide, tretinoin, and zinc pyrithione, or a pharmaceutically acceptable salt thereof; and c) an anti-photoaging compound, wherein the anti-photoaging compound is selected from the group consisting of azelaic acid, niacinamide, and ascorbyl phosphate, or a pharmaceutically acceptable salt thereof, wherein the first anti-acne compound, the second anti-acne compound, and the anti-photoaging compound are three different compounds. a) a first anti-acne compound; b) a second anti-acne compound, wherein each of the first and second anti-acne compounds are selected from the group consisting of azelaic acid, clindamycin, niacinamide, tretinoin, and zinc pyrithione, or a pharmaceutically acceptable salt thereof; and c) an anti-photoaging compound, wherein the anti-photoaging compound is selected from the group consisting of azelaic acid, niacinamide, and ascorbyl phosphate, or a pharmaceutically acceptable salt thereof, wherein the first anti-acne compound, the second anti-acne compound, and the anti-photoaging compound are three different compounds.
A method for balancing device-to-device, D2D, traffic in a communications network (10a-10g), the method being performed by a network device in the communications network (10a-10g), the method comprising: acquiring (S102) information indicating that a first set of D2D capable wireless devices is present in the communications network; acquiring (S104) D2D traffic information of the first set of D2D capable wireless devices; and adapting (S108) D2D traffic within the communications network (10a-10g), between a first cell on a first carrier and served by a first network node and a second cell on a second carrier and served by a second network node in the communications network (10a-10g), based on the D2D traffic information, thereby balancing D2D traffic in the communications network (10a-10g), wherein the method is characterized by determining how to adapt the D2D traffic based on an outcome of a comparison of the D2D traffic information to a threshold, and wherein the threshold is based on at least one of: number of wireless devices in the first set, number of other wireless devices in the cell, fraction of resources configured for D2D operation on sidelinks of each of the first carrier and the second carrier. acquiring (S102) information indicating that a first set of D2D capable wireless devices is present in the communications network; acquiring (S104) D2D traffic information of the first set of D2D capable wireless devices; and adapting (S108) D2D traffic within the communications network (10a-10g), between a first cell on a first carrier and served by a first network node and a second cell on a second carrier and served by a second network node in the communications network (10a-10g), based on the D2D traffic information, thereby balancing D2D traffic in the communications network (10a-10g), wherein the method is characterized by determining how to adapt the D2D traffic based on an outcome of a comparison of the D2D traffic information to a threshold, and wherein the threshold is based on at least one of: number of wireless devices in the first set, number of other wireless devices in the cell, fraction of resources configured for D2D operation on sidelinks of each of the first carrier and the second carrier. number of wireless devices in the first set, number of other wireless devices in the cell, fraction of resources configured for D2D operation on sidelinks of each of the first carrier and the second carrier.