mhurhangee/ep-ind-claims huggingface dataset:
An immunoassay device comprising: a stage capable of accommodating a plurality of cartridges having a plurality of wells that are opened upward and capable of surrounding a circumference of the well disposed at the outermost side of the cartridges; a solution transfer unit comprising a plurality of tips that are movable relative to the stage, are disposed to correspond to positions of the cartridges, and suction a solution stored in the wells or discharge the suctioned solution from the wells; and a measurement unit disposed at one side of the stage configured to move in a direction in which the plurality of cartridges are arranged, provided with a detection unit for measuring a state within the well disposed at the outermost side of the cartridges, and characterized by comprising a shielding plate that is configured to move, by movement of the measurement unit, to cover an opened upper portion of the well disposed at the outermost side of the cartridges to block introduction of light into the well, wherein a first hole for measuring a state of the solution is provided in one side surface of the stage that surrounds the circumference of the well disposed at the outermost side of the cartridges, the detection unit is provided on one side surface of the measurement unit; and when the detection unit is disposed on the side surface of the well disposed at the outermost side of the cartridges to measure the state of the solution, the light incident into the well through the first hole is blocked. a stage capable of accommodating a plurality of cartridges having a plurality of wells that are opened upward and capable of surrounding a circumference of the well disposed at the outermost side of the cartridges; a solution transfer unit comprising a plurality of tips that are movable relative to the stage, are disposed to correspond to positions of the cartridges, and suction a solution stored in the wells or discharge the suctioned solution from the wells; and a measurement unit disposed at one side of the stage configured to move in a direction in which the plurality of cartridges are arranged, provided with a detection unit for measuring a state within the well disposed at the outermost side of the cartridges, and characterized by comprising a shielding plate that is configured to move, by movement of the measurement unit, to cover an opened upper portion of the well disposed at the outermost side of the cartridges to block introduction of light into the well, wherein a first hole for measuring a state of the solution is provided in one side surface of the stage that surrounds the circumference of the well disposed at the outermost side of the cartridges, the detection unit is provided on one side surface of the measurement unit; and when the detection unit is disposed on the side surface of the well disposed at the outermost side of the cartridges to measure the state of the solution, the light incident into the well through the first hole is blocked.
A nuclear fission reactor core comprising: a central core region including: a plurality of fissile nuclear fuel assemblies; ones of a plurality of fertile nuclear fuel assemblies; and a plurality of movable reactivity control assemblies; and a peripheral core region including: others of the plurality of fertile nuclear fuel assemblies; and a plurality of neutron absorber assemblies disposed among the others of the plurality of fertile nuclear fuel assemblies in the peripheral core region, an in-vessel handling system configured to shuffle ones of the plurality of fissile nuclear fuel assemblies and ones of the plurality of fertile nuclear fuel assemblies; the in-vessel handling system further being configured to move ones of the plurality of neutron absorber assemblies among a plurality of locations in the peripheral core region that are selected based upon a predetermined burnup level of nuclear fuel assemblies located in the peripheral core region. a central core region including: a plurality of fissile nuclear fuel assemblies; ones of a plurality of fertile nuclear fuel assemblies; and a plurality of movable reactivity control assemblies; and a plurality of fissile nuclear fuel assemblies; ones of a plurality of fertile nuclear fuel assemblies; and a plurality of movable reactivity control assemblies; and a peripheral core region including: others of the plurality of fertile nuclear fuel assemblies; and a plurality of neutron absorber assemblies disposed among the others of the plurality of fertile nuclear fuel assemblies in the peripheral core region, others of the plurality of fertile nuclear fuel assemblies; and a plurality of neutron absorber assemblies disposed among the others of the plurality of fertile nuclear fuel assemblies in the peripheral core region, an in-vessel handling system configured to shuffle ones of the plurality of fissile nuclear fuel assemblies and ones of the plurality of fertile nuclear fuel assemblies; the in-vessel handling system further being configured to move ones of the plurality of neutron absorber assemblies among a plurality of locations in the peripheral core region that are selected based upon a predetermined burnup level of nuclear fuel assemblies located in the peripheral core region.
A method for configuring a power saving signal, performed by a user equipment device, UE,, the method comprising: receiving, from a base station, a configuration of a power saving signal, wherein the configuration indicates one or more functionalities of the power saving signal and wherein the power saving signal functions as a physical downlink control channel, PDCCH monitoring skipping signal; monitoring, before a discontinuous reception cycle, DRX, on-duration, the power saving signal from the base station; and interpreting the power saving signal based on the configuration. receiving, from a base station, a configuration of a power saving signal, wherein the configuration indicates one or more functionalities of the power saving signal and wherein the power saving signal functions as a physical downlink control channel, PDCCH monitoring skipping signal; monitoring, before a discontinuous reception cycle, DRX, on-duration, the power saving signal from the base station; and interpreting the power saving signal based on the configuration.
A device for the transdermal administration of rotigotine that comprises an adhesive matrix layer, a backing film and a release liner, characterized in that said adhesive matrix comprises: rotigotine; an adhesive polymer selected from the group consisting of silicone adhesives, acrylic adhesives, poly-isobutylene adhesives and styrene- isoprene-styrene or styrene- butadiene-styrene block copolymers or a mixture thereof; a copolymer of polyethylene glycol, polyvinyl caprolactam and polyvinyl acetate; and optionally levulinic acid. rotigotine; an adhesive polymer selected from the group consisting of silicone adhesives, acrylic adhesives, poly-isobutylene adhesives and styrene- isoprene-styrene or styrene- butadiene-styrene block copolymers or a mixture thereof; a copolymer of polyethylene glycol, polyvinyl caprolactam and polyvinyl acetate; and optionally levulinic acid.
Device for protecting an electrical installation against transient overvoltages, comprising: - a protective component against overvoltages; - two separate thermal disconnectors which can open successively, each of them comprising: ∘ a movable contact (44, 64) able to move from a closed to an open position to disconnect the protective component from the electrical installation, and ∘ a heat-sensitive element to cause the movable contact to move from the closed to the open position when the temperature of the protective component exceeds a predetermined threshold. - a protective component against overvoltages; - two separate thermal disconnectors which can open successively, each of them comprising: ∘ a movable contact (44, 64) able to move from a closed to an open position to disconnect the protective component from the electrical installation, and ∘ a heat-sensitive element to cause the movable contact to move from the closed to the open position when the temperature of the protective component exceeds a predetermined threshold. ∘ a movable contact (44, 64) able to move from a closed to an open position to disconnect the protective component from the electrical installation, and ∘ a heat-sensitive element to cause the movable contact to move from the closed to the open position when the temperature of the protective component exceeds a predetermined threshold.
An electrode catalyst material for solid oxide fuel cells comprising cobalt oxide particles dispersed on a partial or entire surface of nickel oxide particles, wherein the electrode catalyst material contains a cobalt metal component in an amount of 2 to 15 mass% with respect to the total mass of the nickel and cobalt metal components.
A device (100, 200) for supporting at least one vessel containing a target material to be lyophilized, the device comprising: a support panel (102, 202) having a support surface (102a, 202a); a central region (104, 204) defined by the support panel for supporting the at least one vessel; a perimeter region (106, 206) defined by the support panel and surrounding the central region; a thermal shield (108, 208) positioned about the perimeter region and extending transverse to the support surface of the support panel such that the thermal shield and the support panel define a storage space (111, 211) for accommodating the at least one vessel; and at least one shielding cavity (110, 212) defined by the thermal shield and containing a shielding material during a lyophilization process, the shielding material being distinct from the target material. a support panel (102, 202) having a support surface (102a, 202a); a central region (104, 204) defined by the support panel for supporting the at least one vessel; a perimeter region (106, 206) defined by the support panel and surrounding the central region; a thermal shield (108, 208) positioned about the perimeter region and extending transverse to the support surface of the support panel such that the thermal shield and the support panel define a storage space (111, 211) for accommodating the at least one vessel; and at least one shielding cavity (110, 212) defined by the thermal shield and containing a shielding material during a lyophilization process, the shielding material being distinct from the target material.
An apparatus comprising: a rocket engine; a rocket propellant tank associated with the rocket engine; a chill line of the rocket engine; an inlet valve configured to supply the rocket propellant tank with rocket propellant; a flow director (401, 503) configured to direct at least a portion of a flow of the rocket propellant to the chill line to thermally condition the rocket engine as the rocket propellant tank is being filled with the rocket propellant; and a bypass valve (404, 512) disposed between the chill line and the rocket propellant tank to drive flow toward the chill line. a rocket engine; a rocket propellant tank associated with the rocket engine; a chill line of the rocket engine; an inlet valve configured to supply the rocket propellant tank with rocket propellant; a flow director (401, 503) configured to direct at least a portion of a flow of the rocket propellant to the chill line to thermally condition the rocket engine as the rocket propellant tank is being filled with the rocket propellant; and a bypass valve (404, 512) disposed between the chill line and the rocket propellant tank to drive flow toward the chill line.
Machine tool comprising a carriage unit having an X, a Y and a Z carriage (2, 3, 4), the Z carriage of which comprises a horizontal work spindle which accommodates a processing tool, wherein the Z carriage is guided on the X carriage such that it can be moved in a first horizontal direction, the X carriage is guided on the Y carriage such that it can be moved in a second horizontal direction and the Y carriage is guided on a stationary vertical Y guide such that it can be moved in a vertical direction, characterized in that the Y carriage comprises at least one runner part which is movably guided in the Y guide, and at least one pivot part which is mounted to the runner part such that it can be pivoted about a pivot axis extending in the X direction, and that an actuating unit is provided for pivoting the pivot part with respect to the runner part in order to compensate for a tool sag caused by gravity or adjust a predetermined tool drop.
A method of making a coated article comprising a substrate supporting a carbon nanotube inclusive thin film, the method comprising: providing a CNT-inclusive ink; applying the ink to the substrate to form an intermediate coating; characterized in that the method further comprises: providing a material over the intermediate coating to improve adhesion to the substrate; preparing a solution of PdCl 2; exposing the intermediate coating to the solution of PdCl 2 so that the Pd nucleates at junctions within the intermediate coating, thereby reducing porosity in the intermediate coating in forming the CNT-inclusive thin film; and applying an overcoat or passivation layer over the intermediate coating following the exposing. providing a CNT-inclusive ink; applying the ink to the substrate to form an intermediate coating; characterized in that the method further comprises: providing a material over the intermediate coating to improve adhesion to the substrate; preparing a solution of PdCl 2; exposing the intermediate coating to the solution of PdCl 2 so that the Pd nucleates at junctions within the intermediate coating, thereby reducing porosity in the intermediate coating in forming the CNT-inclusive thin film; and applying an overcoat or passivation layer over the intermediate coating following the exposing. providing a material over the intermediate coating to improve adhesion to the substrate; preparing a solution of PdCl 2; exposing the intermediate coating to the solution of PdCl 2 so that the Pd nucleates at junctions within the intermediate coating, thereby reducing porosity in the intermediate coating in forming the CNT-inclusive thin film; and applying an overcoat or passivation layer over the intermediate coating following the exposing.
Radio resource management method for Device-to-Device, D2D, communication in a wireless network performed by a base station, the method comprising: • determining angle information with respect to the base station for at least one Cellular User Equipment, C-UE, and at least one D2D User Equipment pair, D-UE pair, within at least one cell of the wireless network, • assigning available radio resources to the at least one C-UE and the at least one D-UE pair, • dividing the at least one cell into a plurality of sectors, • determining, for each sector of the plurality of sectors, a reference angle based on the angle information of all C-UEs of the at least one C-UE and all DUE pairs of the at least one D-UE pair in the sector, • determining, for each sector, a peer sector for the sector, wherein the peer sector is the sector having a reference angle with a greatest angular difference compared to the other reference angles of the other sectors, • determining, for each sector, for at least one D-UE pair in the sector, as at least one peer UE, at least one C-UE (301, 302) located in the peer sector of the sector based on the angle information, • sharing at least a part of the radio resources assigned to the at least one peer UE with the at least one D-UE pair. • determining angle information with respect to the base station for at least one Cellular User Equipment, C-UE, and at least one D2D User Equipment pair, D-UE pair, within at least one cell of the wireless network, • assigning available radio resources to the at least one C-UE and the at least one D-UE pair, • dividing the at least one cell into a plurality of sectors, • determining, for each sector of the plurality of sectors, a reference angle based on the angle information of all C-UEs of the at least one C-UE and all DUE pairs of the at least one D-UE pair in the sector, • determining, for each sector, a peer sector for the sector, wherein the peer sector is the sector having a reference angle with a greatest angular difference compared to the other reference angles of the other sectors, • determining, for each sector, for at least one D-UE pair in the sector, as at least one peer UE, at least one C-UE (301, 302) located in the peer sector of the sector based on the angle information, • sharing at least a part of the radio resources assigned to the at least one peer UE with the at least one D-UE pair.
Method for managing and controlling production resources organized in one or several work cells (2 to 4), whereby each of the work cells consists of at least one processing machine of the plastics-processing industry, a work cell controller, and at least one peripheral device, whereby the peripheral devices are temperature control devices, robots or removal robots, respectively, metering devices for granules, granule dryers, granule conveyors, camera systems for quality control, metering devices for granules, granule dryers, granule conveyors, camera systems for quality control, automatic flow controllers, etc., wherein the work cell controllers are connected to one another via a network, wherein the production resources within a work cell are connected to the work cell controller (16,27,28) via a production resources network, characterized in that upon connection of a production resource to the production resources network (page 16, line 13), the production resource is automatically detected by the work cell controller (16,27,28) and is assigned an address by the work cell controller, and corresponding software applications and/or setting options or functions, respectively, relating to the detected production resource are loaded and/or activated and transmitted to the detected production resources or to already existing production resources for the necessary operation of the work cell (2 to 4), whereupon the work cell controller (16,27,28), on the one hand, performs communication and/or data exchange with the network and, on the other hand, communicates with the production resources in the work cell (2 to 4) via the production resources network, and furthermore the work cell controller (16, 27, 28) mediates direct communication among the production resources in the work cell (2 to 4) wherein the work cell controller (16,27,28) maintains a list or a work cell directory, respectively, with at least the addresses of the functions and production resources detected in the work cell (2 to 4) and distributes this list to the production resources, or the production resources query this list at preferably regular intervals from the work cell controller (16,27,28), whereby the distribution of the list enables each production resource to detect the production resources present in its work cell (2 to 4) and to carry out data exchange via the production resources network.
An apparatus for monitoring physical parameters in an oil and/or gas well, the apparatus being connectable to a wellhead of the oil and/or gas well, the apparatus comprising a flange assembly configured with a through bore and an end termination, in which through bore a sensor and associated electronics are arranged, and wherein a first electronic circuitry includes a first electronic printed circuit board, characterized in that the sensor, including the first electronic circuitry, is connected to a second electronic circuitry which includes a second printed circuit board arranged in the through bore via transmission devices that are passed through a pressure-tight element arranged in the through bore in such a way that it separates two longitudinal portions of the through bore, the transmission devices including wires connected between the first electronic printed circuit board and the second printed circuit board, and wherein the pressure-tight element is engaged by a sleeve, which sleeve is along a part of its length configured with a threaded portion which engages a corresponding threaded portion internally in the through bore and connects the sleeve with the pressure-tight element to the apparatus.
A microcapsule for latent heat storage materials, the microcapsule comprising a metal core containing Zn and Al and a shell covering the metal core, wherein the shell of the microcapsule comprises an oxide film containing Zn and O, and an oxide film containing Al and O adjacent to an inner side of the oxide film containing Zn and O; and wherein, when the microcapsule is analyzed by an XRD (X-ray diffractometer) and results are subjected to quantitative analysis using a RIR (Reference Integrity Ratio) method, a mass ratio of ZnAl 2 O 4 is 4% or less. wherein the shell of the microcapsule comprises an oxide film containing Zn and O, and an oxide film containing Al and O adjacent to an inner side of the oxide film containing Zn and O; and wherein, when the microcapsule is analyzed by an XRD (X-ray diffractometer) and results are subjected to quantitative analysis using a RIR (Reference Integrity Ratio) method, a mass ratio of ZnAl 2 O 4 is 4% or less.
An antenna for wireless communication which includes: - a first planar conductor, which is adapted to resonate at frequencies of a first frequency range; - a second planar conductor, which is adapted to resonate at frequencies of a second frequency range that spans lower frequencies than the first frequency range; - a substrate; - a grounding leg which couples the antenna to ground; - a coil which is conductively coupled to the planar conductors, wherein the coil is arranged on a first surface of the substrate - a feeding leg which couples the antenna to an electric circuit, wherein the feeding leg is arranged on a second surface of the substrate; characterized in that the coil is configured to act as a capacitor for the frequencies of the first frequency range; and wherein the coil is configured to act as an inductor for the frequencies of the second frequency range. - a first planar conductor, which is adapted to resonate at frequencies of a first frequency range; - a second planar conductor, which is adapted to resonate at frequencies of a second frequency range that spans lower frequencies than the first frequency range; - a substrate; - a grounding leg which couples the antenna to ground; - a coil which is conductively coupled to the planar conductors, wherein the coil is arranged on a first surface of the substrate - a feeding leg which couples the antenna to an electric circuit, wherein the feeding leg is arranged on a second surface of the substrate; the coil is configured to act as a capacitor for the frequencies of the first frequency range; and wherein the coil is configured to act as an inductor for the frequencies of the second frequency range.