mhurhangee/ep-ind-claims huggingface dataset:
An oxide superconducting bulk magnet comprising an oxide superconducting bulk body wherein RE 2 BaCuO 5 is dispersed in a monocrystalline RE 1 Ba 2 Cu 3 O y in which RE is one or more elements selected from Y or a rare earth element, and 6.8 ≤ y ≤ 7.1; and an outer peripheral reinforcing ring fitted to the outer periphery of the oxide superconducting bulk body, wherein the outer peripheral reinforcing ring is made of a plurality of metal rings (130, 140) having a multiple ring structure in the radial direction, at least one of the plurality of metal rings (130, 140) has a thermal conductivity of 20 W/(m·K) or more at a temperature of 20 to 70 K and at least one of the plurality of metal rings (130, 140) has a higher strength than the metal ring having a thermal conductivity of 20 W/(m·K) or more, characterized in that the metal ring at the innermost periphery among the plurality of metal rings (130, 140) and the oxide superconducting bulk body are bonded with Sn based solder. an oxide superconducting bulk body wherein RE 2 BaCuO 5 is dispersed in a monocrystalline RE 1 Ba 2 Cu 3 O y in which RE is one or more elements selected from Y or a rare earth element, and 6.8 ≤ y ≤ 7.1; and an outer peripheral reinforcing ring fitted to the outer periphery of the oxide superconducting bulk body, wherein the outer peripheral reinforcing ring is made of a plurality of metal rings (130, 140) having a multiple ring structure in the radial direction, at least one of the plurality of metal rings (130, 140) has a thermal conductivity of 20 W/(m·K) or more at a temperature of 20 to 70 K and at least one of the plurality of metal rings (130, 140) has a higher strength than the metal ring having a thermal conductivity of 20 W/(m·K) or more, characterized in that the metal ring at the innermost periphery among the plurality of metal rings (130, 140) and the oxide superconducting bulk body are bonded with Sn based solder.
A print head module for delivering ink to a print head comprising: a module venting system comprising: a one-time vent built into the interior of the print head module; in which, when an amount of ink comes in contact with the one-time vent, air is prevented from passing through the one-time vent characterized by a vent entrance defined on the body of the print head module that allows an amount of air and ink to leave the interior of the print head module; and a vent channel (Fig. 2, 115) and a module bypass hole defined on the body of the print head module that allows the amount of air and ink to bypass the interior of the module and reenter the module at a vent cavity within the module. a module venting system comprising: a one-time vent built into the interior of the print head module; in which, when an amount of ink comes in contact with the one-time vent, air is prevented from passing through the one-time vent characterized by a vent entrance defined on the body of the print head module that allows an amount of air and ink to leave the interior of the print head module; and a vent channel (Fig. 2, 115) and a module bypass hole defined on the body of the print head module that allows the amount of air and ink to bypass the interior of the module and reenter the module at a vent cavity within the module.
Hemostatic fibers and/or aggregates composition obtainable by supplementing fine cellulose-based fibers with long cellulose-based fibers, wherein the long and the fine fibers are at a ratio in the range of 5%-25% w/w and 95%-75% w/w of the entire weight composition, respectively, wherein the size distribution of the long fibers is: D90 of more than 177 μm and D50 of more than 95 μm, and wherein the size distribution of the fine fibers is: D90 of less than 177 μm, and D50 of less than 95 μm.
Hydraulic axial piston unit with a rotating group whose displacement volume is set by means of a displacement element, the rotating group comprising a rotatable cylinder block with cylinder bores in which working pistons are mounted reciprocally moveable, and with a valve segment comprising a kidney-shaped first pressure port and a kidney-shaped second pressure port, wherein a cylinder bore can be fluidly connected to an IDC control port or an ODC control port when the associated working piston is at or close to its inner dead center or at or close to its outer dead center, respectively, wherein the IDC control port and the ODC control port are located in circumferential direction between the respective circumferential ends of the first pressure port and the second pressure port, wherein the circumferential distance from the IDC control port to the first and second pressure ports (21, 22) and the circumferential distance from the ODC control port to the first and second pressure ports (21, 22) is smaller than the circumferential extension of the cylinder bores, and wherein a first bypass line and a second bypass line are provided, each connecting one of the control ports (23, 24), with an adjustable orifice arranged in the first bypass line, capable of continuously variably opening and closing the first bypass line in order to enable an variably adjustable fluid flow connection between the connected control port (23, 24) and a connected pressure port (21, 22), characterized in that, the first bypass line and the second bypass line each connects the next pressure port (21, 22) after the connected control port (23, 24) in rotational direction of the cylinder block.
A core drilling machine comprising: an axially extending hollow drilling shaft which is supported rotatably in a housing of the core drilling machine and which can be rotated by a driving unit; a coaxial tool holder for holding a drill bit which can be supported axially displaceable, wherein the tool holder comprises a locking mechanism securing the drill bit, if inserted into the tool holder, in a radial direction against axially falling out, wherein the locking mechanism connects the drill bit in a rotationally fixed manner to the hollow drilling shaft and allows an axially limited movement of the drill bit relative to the hollow drilling shaft; wherein the hollow drilling shaft is configured to receive, in an interior thereof, a shaft of an exchangeable centering drill at the front, wherein the centering drill can be coupled rotationally fixed to the hollow drilling shaft, can be moved in an axially limited manner within the hollow shaft, and is axially supported against a first spring element; and an axial stopping element of the centering drill, which axial stopping element prevents, in a first position, a complete displacement of the centering drill into the interior of the hollow drilling shaft and allows, in a second position, a complete displacement of the centering drill into the interior of the hollow drilling shaft; and an activating device (76, 70, 72) for activating the first position or the second position of the stopping element dependent on an axial position of the drill bit relative to the hollow drilling shaft. an axially extending hollow drilling shaft which is supported rotatably in a housing of the core drilling machine and which can be rotated by a driving unit; a coaxial tool holder for holding a drill bit which can be supported axially displaceable, wherein the tool holder comprises a locking mechanism securing the drill bit, if inserted into the tool holder, in a radial direction against axially falling out, wherein the locking mechanism connects the drill bit in a rotationally fixed manner to the hollow drilling shaft and allows an axially limited movement of the drill bit relative to the hollow drilling shaft; wherein the hollow drilling shaft is configured to receive, in an interior thereof, a shaft of an exchangeable centering drill at the front, wherein the centering drill can be coupled rotationally fixed to the hollow drilling shaft, can be moved in an axially limited manner within the hollow shaft, and is axially supported against a first spring element; and an axial stopping element of the centering drill, which axial stopping element prevents, in a first position, a complete displacement of the centering drill into the interior of the hollow drilling shaft and allows, in a second position, a complete displacement of the centering drill into the interior of the hollow drilling shaft; and an activating device (76, 70, 72) for activating the first position or the second position of the stopping element dependent on an axial position of the drill bit relative to the hollow drilling shaft.
A system for obtaining a nuclear image of a moving object, the system comprising: - an input for receiving a nuclear image and morphological images of the object, - a processing unit being configured to: - process the morphological images to obtain sparse motion information of the object by tracing a number of distinct locations in successive images to acquire a detailed motion at said distinct locations, wherein the processing includes obtaining a reduced set of measurements by a fast acquisition of signals along a pencil beam, - parametrize and adapt a motion model to provide an estimated motion from the reduced set of measurements, - use the sparse motion information and the motion model for obtaining estimated motion information about the object, - generate a time-varying attenuation map based on the estimated motion information, - generate a motion-corrected nuclear image based on the acquired nuclear image and the time-varying attenuation map, and - an output for providing the corrected nuclear image. - an input for receiving a nuclear image and morphological images of the object, - a processing unit being configured to: - process the morphological images to obtain sparse motion information of the object by tracing a number of distinct locations in successive images to acquire a detailed motion at said distinct locations, wherein the processing includes obtaining a reduced set of measurements by a fast acquisition of signals along a pencil beam, - parametrize and adapt a motion model to provide an estimated motion from the reduced set of measurements, - use the sparse motion information and the motion model for obtaining estimated motion information about the object, - generate a time-varying attenuation map based on the estimated motion information, - generate a motion-corrected nuclear image based on the acquired nuclear image and the time-varying attenuation map, and - process the morphological images to obtain sparse motion information of the object by tracing a number of distinct locations in successive images to acquire a detailed motion at said distinct locations, wherein the processing includes obtaining a reduced set of measurements by a fast acquisition of signals along a pencil beam, - parametrize and adapt a motion model to provide an estimated motion from the reduced set of measurements, - use the sparse motion information and the motion model for obtaining estimated motion information about the object, - generate a time-varying attenuation map based on the estimated motion information, - generate a motion-corrected nuclear image based on the acquired nuclear image and the time-varying attenuation map, and - an output for providing the corrected nuclear image.
Hot water storage appliance for domestic use, having a water tank for receiving water to be heated, and having a non-elastic compensation container for receiving a water quantity, which, during a tapping stoppage, is situated in a fitting connected to the outflow, and for receiving a water quantity which corresponds to an expansion quantity during heating of the cold water in the water tank, characterized in that the compensation container is hermetically sealed with respect to an external surroundings of the hot water storage appliance and is in fluid communication with an inflow-side water jet pump in such a way that the water jet pump allows the production of a negative pressure in the compensation container.
A structural tower for a wind turbine assembly, comprising, along at least a base section thereof: a central section; and a plurality of peripheral sections extending peripherally of the central section, each one of the peripheral sections including a convex-shaped wall having two longitudinal side edges, wherein each one of the peripheral sections comprises: an inner lattice framework connected to a respective one of the convex-shaped walls and extending inwardly therein and substantially along an entire length of the peripheral sections, the inner lattice framework comprising a plurality of transversal structural members connecting the two longitudinal side edges of the respective one of the convex-shaped walls together and a plurality of pairs of connecting structural members extending inwardly towards the central section, the transversal structural members being spaced-apart from one another along the longitudinal side edges, each connecting structural member of a pair having a peripheral end connected to a respective one of the longitudinal side edges and an inner end connected to an inner end of a respective one of the connecting structural members of an adjacent one of the peripheral sections to define a structural concavity in the structural tower between adjacent peripheral sections. an inner lattice framework connected to a respective one of the convex-shaped walls and extending inwardly therein and substantially along an entire length of the peripheral sections, the inner lattice framework comprising a plurality of transversal structural members connecting the two longitudinal side edges of the respective one of the convex-shaped walls together and a plurality of pairs of connecting structural members extending inwardly towards the central section, the transversal structural members being spaced-apart from one another along the longitudinal side edges, each connecting structural member of a pair having a peripheral end connected to a respective one of the longitudinal side edges and an inner end connected to an inner end of a respective one of the connecting structural members of an adjacent one of the peripheral sections to define a structural concavity in the structural tower between adjacent peripheral sections.
The use of compounds of general formula, in which R 1, R 2, R 3 and R 4, independently of one another, represent hydrogen or a cyclic or acyclic, straight-chain or branched-chain, aliphatic or aromatic hydrocarbon functional group having 1 to 20, preferably 1 to 10, carbon atoms, in washing or cleaning agents for improving the washing or cleaning performance against bleachable stains.
A method comprising: generating one or more oscillating electromagnetic fields within a plasma cell to excite particles within the cell, to produce a glow discharge plasma in the plasma cell, and controlling the operating conditions for the plasma cell while flowing a gas mixture through the plasma cell to maintain glow discharge optical emissions from the plasma within a desired operating range; and monitoring one or more glow discharge optical emissions from the plasma in the plasma cell; wherein said monitoring of the optical emissions comprises measuring the optical emissions, or measuring a signal that correlates with the optical emissions, at twice the plasma excitation frequency; and processing said measured optical emissions or said measured signal that correlates with said optical emissions during each excitation cycle of the electromagnetic excitation, to determine the concentration of a gas within a gas mixture flowing through the plasma cell. generating one or more oscillating electromagnetic fields within a plasma cell to excite particles within the cell, to produce a glow discharge plasma in the plasma cell, and controlling the operating conditions for the plasma cell while flowing a gas mixture through the plasma cell to maintain glow discharge optical emissions from the plasma within a desired operating range; and monitoring one or more glow discharge optical emissions from the plasma in the plasma cell; wherein said monitoring of the optical emissions comprises measuring the optical emissions, or measuring a signal that correlates with the optical emissions, at twice the plasma excitation frequency; and processing said measured optical emissions or said measured signal that correlates with said optical emissions during each excitation cycle of the electromagnetic excitation, to determine the concentration of a gas within a gas mixture flowing through the plasma cell.
A method of characterizing the immune repertoire of a subject in response to vaccine administration comprising: a) producing cDNA from B cell mRNA obtained from the subject at a first time point; b) producing cDNA from B cell mRNA obtained from the subject at a second time point, wherein the subject has been administered a vaccine between the first time point and the second time point; c) amplifying immunoglobulin constant regions segments from the cDNA produced in step (a) and (b) to obtain amplified immunoglobulin constant region segments; d) determining sequences of the amplified constant region segments; e) using the sequence data from step (d) to compare RNA expression levels of at least two different antibody isotypes prior to and after administration of the vaccine to the subject, thereby characterizing the immune repertoire of the subject in response to vaccine administration. a) producing cDNA from B cell mRNA obtained from the subject at a first time point; b) producing cDNA from B cell mRNA obtained from the subject at a second time point, wherein the subject has been administered a vaccine between the first time point and the second time point; c) amplifying immunoglobulin constant regions segments from the cDNA produced in step (a) and (b) to obtain amplified immunoglobulin constant region segments; d) determining sequences of the amplified constant region segments; e) using the sequence data from step (d) to compare RNA expression levels of at least two different antibody isotypes prior to and after administration of the vaccine to the subject, thereby characterizing the immune repertoire of the subject in response to vaccine administration.
A transducer baseplate comprising: a base with a protrusion extending from the base along a longitudinal axis of the transducer baseplate, wherein the base has a cross-sectional perimeter in a plane perpendicular to the longitudinal axis; and a pair of pressure plena, each plenum being in fluid connection with an area external to the protrusion through a respective pressure line; characterised in that the transducer baseplate further comprises a pair of transducer receptacles defined within the protrusion and opposed across the longitudinal axis, wherein the receptacles each have a cross-sectional shape in a plane parallel to the longitudinal axis; wherein the pressure plena are separated by a plenum wall, one plenum in fluid communication with each receptacle, respectively; and wherein the pressure lines provide a direct fluid path to their respective receptacles. a base with a protrusion extending from the base along a longitudinal axis of the transducer baseplate, wherein the base has a cross-sectional perimeter in a plane perpendicular to the longitudinal axis; and a pair of pressure plena, each plenum being in fluid connection with an area external to the protrusion through a respective pressure line; characterised in that the transducer baseplate further comprises a pair of transducer receptacles defined within the protrusion and opposed across the longitudinal axis, wherein the receptacles each have a cross-sectional shape in a plane parallel to the longitudinal axis; wherein the pressure plena are separated by a plenum wall, one plenum in fluid communication with each receptacle, respectively; and wherein the pressure lines provide a direct fluid path to their respective receptacles.
An atomizer/liquid reservoir portion comprising: a refillable liquid reservoir adapted for storing liquid, and an atomizer operable when connected to a power supply for an electronic smoking device to atomize liquid stored in the liquid reservoir, wherein the atomizer/liquid reservoir portion comprises a docking valve for docking a source of liquid to be stored in the liquid reservoir, wherein the docking valve is adapted to form a snap-fit connection with a counter docking valve of a source of liquid, characterized in that the atomizer/liquid reservoir portion comprises a mouthpiece cap in communication with an air inhalation port for providing atomized liquid to a user, wherein the mouthpiece cap comprises a refill position and a vaping position, wherein in the refill position, the mouthpiece cap 140 is captively or undetachably connected to the atomizer/liquid reservoir portion, wherein in the vaping position, the mouthpiece cap is closer to an opposite end of the electronic smoking device than in the refill position, and wherein in the vaping position, the mouthpiece cap is rotated around a longitudinal axis of the electronic smoking device by a predetermined angle compared to the refill position. a refillable liquid reservoir adapted for storing liquid, and an atomizer operable when connected to a power supply for an electronic smoking device to atomize liquid stored in the liquid reservoir, wherein the atomizer/liquid reservoir portion comprises a docking valve for docking a source of liquid to be stored in the liquid reservoir, wherein the docking valve is adapted to form a snap-fit connection with a counter docking valve of a source of liquid, a docking valve for docking a source of liquid to be stored in the liquid reservoir, wherein the docking valve is adapted to form a snap-fit connection with a counter docking valve of a source of liquid, characterized in that the atomizer/liquid reservoir portion comprises a mouthpiece cap in communication with an air inhalation port for providing atomized liquid to a user, wherein the mouthpiece cap comprises a refill position and a vaping position, wherein in the refill position, the mouthpiece cap 140 is captively or undetachably connected to the atomizer/liquid reservoir portion, wherein in the vaping position, the mouthpiece cap is closer to an opposite end of the electronic smoking device than in the refill position, and wherein in the vaping position, the mouthpiece cap is rotated around a longitudinal axis of the electronic smoking device by a predetermined angle compared to the refill position. wherein the mouthpiece cap comprises a refill position and a vaping position, wherein in the refill position, the mouthpiece cap 140 is captively or undetachably connected to the atomizer/liquid reservoir portion, wherein in the vaping position, the mouthpiece cap is closer to an opposite end of the electronic smoking device than in the refill position, and wherein in the vaping position, the mouthpiece cap is rotated around a longitudinal axis of the electronic smoking device by a predetermined angle compared to the refill position.