mhurhangee/ep-ind-claims huggingface dataset:
An auxiliary device for a fuel assembly of a pressurized water reactor, PWR, wherein the fuel assembly comprises fuel rods and a plurality of guide thimbles located among and in parallel with the fuel rods and configured to enable introduction of control rods and/or instrumentation devices, wherein the auxiliary device comprises a carrying structure, and a plurality of rods suspended in the carrying structure to extend in parallel with each other in a direction away from the carrying structure, wherein each of the rods comprises a cladding tube defining an inner space, wherein the rods are configured to be inserted into a respective one of at least some of the guide thimbles of the fuel assembly, wherein each of the rods comprises a major amount of a fissile material contained in the inner space of the cladding tube, wherein the fissile material comprises enriched uranium, characterized in that each of the rods comprises a minor amount of a neutron absorbing material comprising at least one of gadolinium, boron and erbium and being contained in the inner space of the cladding tube, and wherein each of the rods has an outer diameter that is smaller than an inner diameter of the respective guide thimble, such that there is in use a flow of coolant in an annular space between the rod and the guide thimble.
Process for baking foodstuff, especially cake, characterized by the following procedural steps: - Putting a baking mixture in a trough-shaped or pot-like baking mold made from aluminum foil that is coated with a baking-resistant sealing wax; - Baking the baking mixture in the baking mold between 40 and 60 min at a temperature depending on the baking mixture, i.e. between 180° C and 220° C, with the core temperature being maintained at more than 90° C after the baking procedure; - Placing a flexible lid made from aluminum foil onto the edge of the baking mold 3-8 min after the end of the baking procedure, with the edge of the foil being coated with baking-resistant sealing wax; - Sealing the baking mold with the lid in a sealing apparatus by applying pressure and heat, with the core temperature of the baking mixture having a temperature of more than 90° C after the baking procedure. - Putting a baking mixture in a trough-shaped or pot-like baking mold made from aluminum foil that is coated with a baking-resistant sealing wax; - Baking the baking mixture in the baking mold between 40 and 60 min at a temperature depending on the baking mixture, i.e. between 180° C and 220° C, with the core temperature being maintained at more than 90° C after the baking procedure; - Placing a flexible lid made from aluminum foil onto the edge of the baking mold 3-8 min after the end of the baking procedure, with the edge of the foil being coated with baking-resistant sealing wax; - Sealing the baking mold with the lid in a sealing apparatus by applying pressure and heat, with the core temperature of the baking mixture having a temperature of more than 90° C after the baking procedure.
An unsymmetrically meso -substituted tetrapyrrolic compound comprising two polar and two nonpolar meso-substituents based specifically on the formula: wherein the meso -substituents have an A' 2 B' 2 -substitution pattern; wherein B is selected from the group consisting of: wherein A' is a unsubstituted alkyl group or fluoroalkyl group consisting of 4-15 carbon atoms; and wherein B' is a phenyl group having the formula: wherein R 2 is a substituent either in the meta - or para - position of the phenyl ring selected from the group consisting of OH, -COOH, -COOCH 3, -NH 2, -COOX, -NHX, -OX, -NH-Y-COOH and CO-Y-NH 2; wherein: X is a polyethyleneglycol-residue with (CH 2 CH 2 O) n CH 3 with n = 1-30 or a carbohydrate moiety and Y is a peptide or oligopeptide wherein n = 1 - 30. wherein the meso -substituents have an A' 2 B' 2 -substitution pattern; wherein B is selected from the group consisting of: wherein A' is a unsubstituted alkyl group or fluoroalkyl group consisting of 4-15 carbon atoms; and wherein B' is a phenyl group having the formula: wherein R 2 is a substituent either in the meta - or para - position of the phenyl ring selected from the group consisting of OH, -COOH, -COOCH 3, -NH 2, -COOX, -NHX, -OX, -NH-Y-COOH and CO-Y-NH 2; wherein: X is a polyethyleneglycol-residue with (CH 2 CH 2 O) n CH 3 with n = 1-30 or a carbohydrate moiety and Y is a peptide or oligopeptide wherein n = 1 - 30. X is a polyethyleneglycol-residue with (CH 2 CH 2 O) n CH 3 with n = 1-30 or a carbohydrate moiety and Y is a peptide or oligopeptide wherein n = 1 - 30.
An environmental control system comprising: a ram air duct; an air cycle machine having a compressor and a turbine; an air-to-air heat exchanger positioned at least partially in the ram air duct; a first flow path extending through the heat exchanger and communicating with the compressor; a second flow path configured to be selectively opened to allow air flow to bypass the first flow path and to communicate with the compressor; and characterised by a manifold mounted to the heat exchanger, wherein the second flow path is integrated into the manifold, a valve assembly disposed adjacent a junction between the first flow path and the second flow path, such that the valve assembly can be selectively actuated to regulate air flow along the first flow path and the second flow path, wherein the valve assembly is arranged to partially block or block substantially all air flow along the first flow path in a second position, and to block substantially all air flow along the second flow path in a first position. a ram air duct; an air cycle machine having a compressor and a turbine; an air-to-air heat exchanger positioned at least partially in the ram air duct; a first flow path extending through the heat exchanger and communicating with the compressor; a second flow path configured to be selectively opened to allow air flow to bypass the first flow path and to communicate with the compressor; and characterised by a manifold mounted to the heat exchanger, wherein the second flow path is integrated into the manifold, a valve assembly disposed adjacent a junction between the first flow path and the second flow path, such that the valve assembly can be selectively actuated to regulate air flow along the first flow path and the second flow path, wherein the valve assembly is arranged to partially block or block substantially all air flow along the first flow path in a second position, and to block substantially all air flow along the second flow path in a first position.
A metal-particle dispersion composition characterised by containing, based on the entire composition, 10 to 80 mass% of metal particles, 0.01 to 10 mass% of an organic titanate compound, 1 to 40 mass% of water, and 2 to 30 mass% of an organic solvent having a higher boiling point than water, wherein the organic titanate compound is an organic compound represented by Ti 4, provided that OR groups include at least one substituent based on a pyrophosphate ester, and wherein the organic solvent having a higher boiling point than water has 7 to 20 carbon atoms and has a plurality of ether bonds. wherein the organic titanate compound is an organic compound represented by Ti 4, provided that OR groups include at least one substituent based on a pyrophosphate ester, and wherein the organic solvent having a higher boiling point than water has 7 to 20 carbon atoms and has a plurality of ether bonds.
A power supply system for a vehicle, comprising: a power storage device; a plurality of charging paths (43, 53) for charging said power storage device with electric power from outside; the power supply system being characterized by further comprising: a plurality of relays (51-1, 51-2) individually provided on said plurality of charging paths respectively, each for switching between supply and cut-off of electric power; and a charge control unit for making selection as to through which charging path among said plurality of charging paths charging of said power storage device is permitted, based on a state of welding of said plurality of relays. a power storage device; a plurality of charging paths (43, 53) for charging said power storage device with electric power from outside; the power supply system being characterized by further comprising: a plurality of relays (51-1, 51-2) individually provided on said plurality of charging paths respectively, each for switching between supply and cut-off of electric power; and a charge control unit for making selection as to through which charging path among said plurality of charging paths charging of said power storage device is permitted, based on a state of welding of said plurality of relays. a plurality of relays (51-1, 51-2) individually provided on said plurality of charging paths respectively, each for switching between supply and cut-off of electric power; and a charge control unit for making selection as to through which charging path among said plurality of charging paths charging of said power storage device is permitted, based on a state of welding of said plurality of relays.
A three-dimensional tissue for the evaluation of safety of a substance, evaluation of efficacy of a substance, or screening of drugs, comprising: a first cellular region that comprises cells of a first type; and a second cellular region that comprises cells of a second type different from the first type, wherein the cells of the first type comprise a reporter gene linked downstream of a promoter of a target gene that can be monitored for its response to an external stimulus, such that the cells of the first type emit light by chemiluminescence, bioluminescence, or fluorescence in response to the external stimulus, wherein the cells of the first type are absent in the second cellular region, and wherein the cells of the first type are present abundantly in the first cellular region. and wherein at least one first cellular region is arranged in a predetermined position within the three-dimensional tissue, thereby enabling the evaluation of whether cells present in a specific region of the three-dimensional tissue respond differently in response to the external stimulus to cells in another region. a first cellular region that comprises cells of a first type; and a second cellular region that comprises cells of a second type different from the first type, wherein the cells of the first type comprise a reporter gene linked downstream of a promoter of a target gene that can be monitored for its response to an external stimulus, such that the cells of the first type emit light by chemiluminescence, bioluminescence, or fluorescence in response to the external stimulus, wherein the cells of the first type are absent in the second cellular region, and wherein the cells of the first type are present abundantly in the first cellular region. and wherein at least one first cellular region is arranged in a predetermined position within the three-dimensional tissue, thereby enabling the evaluation of whether cells present in a specific region of the three-dimensional tissue respond differently in response to the external stimulus to cells in another region.
A process for unloading a bed of particulate material from a vessel, which comprises inserting an extraction pipe into the lower part of said bed, injecting a fluidization gas upwardly into the extraction pipe from the bottom part thereof, using injection means consisting of means for injecting a multiplicity of small jets of gas upwardly along the bottom length of the extraction pipe from its inlet located inside the vessel to its outlet located outside the vessel, and applying a positive pressure differential between the inlet and the outlet of said extraction pipe.
An antennas-in-package, AiP, verification board, comprising: a carrier board (11, 11') configured for disposing an antenna array or an electronic circuit; and a plurality of push-on connectors arranged in an array on the carrier board (11, 11'), wherein the plurality of push-on connectors are configured to be electrically connected with the antenna array or the electronic circuit on the carrier board (11, 11') for testing characteristics of the antenna array on the carrier board or characteristics of the electronic circuit on the carrier board (11, 11'), wherein the plurality of push-on connectors are configured to be connected with a test equipment, characterised in that the plurality of push-on connectors are sub-miniature push-on micro, SMPM, connectors. a carrier board (11, 11') configured for disposing an antenna array or an electronic circuit; and a plurality of push-on connectors arranged in an array on the carrier board (11, 11'), wherein the plurality of push-on connectors are configured to be electrically connected with the antenna array or the electronic circuit on the carrier board (11, 11') for testing characteristics of the antenna array on the carrier board or characteristics of the electronic circuit on the carrier board (11, 11'), wherein the plurality of push-on connectors are configured to be connected with a test equipment, characterised in that the plurality of push-on connectors are sub-miniature push-on micro, SMPM, connectors.
Device for digitising a detection signal from an ionising electromagnetic radiation detector comprising: - a comparator for receiving, on a first of the inputs thereof, a first detection signal (S A) from said detector in the form of at least one pulse, and for delivering, based on a comparison with a second signal (S F) applied to a second of the inputs thereof, a two-state output signal (S B), - control means (120, 130) forming a feedback loop controlling said second signal (S F) based on the output signal (S B) of said comparator, such that the direction of variation of said second signal (S F) is dependent on the state of said output signal (S B) of said comparator, the control means comprising a smoothing filter having given parameters (R 1, R 2, C), characterised in that said device for digitising further comprises: - estimation means for estimating the second signal (S F), producing an estimate of the second signal as a discrete digital signal (S F '), using switching times of said output signal (S B) of the comparator, of the propagation times of the various components of the feedback loop and of said given parameters (R 1, R 2, C) of said smoothing filter, - means for storing said comparator switching times, - means for storing values of the discrete signal (S F '), at the comparator switching times, the discrete signal (S F '), stored at the comparator switching times forming a digital signal (S G). - a comparator for receiving, on a first of the inputs thereof, a first detection signal (S A) from said detector in the form of at least one pulse, and for delivering, based on a comparison with a second signal (S F) applied to a second of the inputs thereof, a two-state output signal (S B), - control means (120, 130) forming a feedback loop controlling said second signal (S F) based on the output signal (S B) of said comparator, such that the direction of variation of said second signal (S F) is dependent on the state of said output signal (S B) of said comparator, the control means comprising a smoothing filter having given parameters (R 1, R 2, C), - estimation means for estimating the second signal (S F), producing an estimate of the second signal as a discrete digital signal (S F '), using switching times of said output signal (S B) of the comparator, of the propagation times of the various components of the feedback loop and of said given parameters (R 1, R 2, C) of said smoothing filter, - means for storing said comparator switching times, - means for storing values of the discrete signal (S F '), at the comparator switching times, the discrete signal (S F '), stored at the comparator switching times forming a digital signal (S G).
An aqueous heat-curable binder composition comprising: one or more reducing sugars, one or more amino acids, and one or more aldehyde compounds selected from the group consisting of glutaraldehyde, formaldehyde, glyoxal and combinations thereof, wherein the amount of reducing sugars is 40-95 parts by weight based on a total of 100 parts by weight of the reducing sugars and amino acids, wherein the amount of amino acids is 5-60 parts by weight, based on a total of 100 parts by weight of the reducing sugars and amino acids, and wherein the amount of the aldehyde compounds is 0.1-5 parts by weight based on the total of 100 parts by weight of the reducing sugars and amino acids. one or more reducing sugars, one or more amino acids, and one or more aldehyde compounds selected from the group consisting of glutaraldehyde, formaldehyde, glyoxal and combinations thereof, wherein the amount of reducing sugars is 40-95 parts by weight based on a total of 100 parts by weight of the reducing sugars and amino acids, wherein the amount of amino acids is 5-60 parts by weight, based on a total of 100 parts by weight of the reducing sugars and amino acids, and wherein the amount of the aldehyde compounds is 0.1-5 parts by weight based on the total of 100 parts by weight of the reducing sugars and amino acids.
A method of adjusting a load setting of an elevator car, comprising: Receiving one or more load measurements associated with the elevator car during a predefined period; Determining a maximum load of the elevator car during the predefined period from the one or more load measurements; generating a modified load setting for the elevator car based on the maximum load, such that the modified load setting equals the greatest load measurement received by the elevator car during the predefined period; and replacing the load setting of the elevator car with the modified load setting during the predefined period. Receiving one or more load measurements associated with the elevator car during a predefined period; Determining a maximum load of the elevator car during the predefined period from the one or more load measurements; generating a modified load setting for the elevator car based on the maximum load, such that the modified load setting equals the greatest load measurement received by the elevator car during the predefined period; and Determining a maximum load of the elevator car during the predefined period from the one or more load measurements; generating a modified load setting for the elevator car based on the maximum load, such that the modified load setting equals the greatest load measurement received by the elevator car during the predefined period; and replacing the load setting of the elevator car with the modified load setting during the predefined period.
A multi-inductor comprising: an outer core and at least two inner cores comprising a ferrite material; the outer core having at least two through holes being formed therein in a horizontal direction; the at least two inner cores respectively provided in the at least two through holes; at least two windings respectively wound around a respective core of the at least two inner cores; a plurality of electrode leads which project from a bottom surface of the outer core perpendicular to central axes of the at least two through holes, wherein the plurality of electrode leads are electrically connected with opposite ends of each of the at least two windings; and a sealing member which fixes each of the at least two inner cores to a respective through hole of the at least two through holes of the outer core. an outer core and at least two inner cores comprising a ferrite material; the outer core having at least two through holes being formed therein in a horizontal direction; the at least two inner cores respectively provided in the at least two through holes; at least two windings respectively wound around a respective core of the at least two inner cores; a plurality of electrode leads which project from a bottom surface of the outer core perpendicular to central axes of the at least two through holes, wherein the plurality of electrode leads are electrically connected with opposite ends of each of the at least two windings; and a sealing member which fixes each of the at least two inner cores to a respective through hole of the at least two through holes of the outer core.
A fusion method for touch messages, comprising: pushing touch messages of all touch fingers from at least two different touch screens into different buffer queues for buffering; intercepting head data of each buffer queue to generate a reported data array; acquiring states of the touch fingers according to the reported data array and packaging the states into multi-finger touch protocol data; and reporting the multi-finger touch protocol data to a system, characterized in that method further comprises: controlling a speed of reporting the multi-finger touch protocol data according to a preset time interval, wherein the preset time interval is calculated according to the following equation: t = 1 / f ∗ 1000 ∗ 1000 − Tc − Tr, wherein f is a sampling frequency of a touch panel, Tc is consumption time of obtaining the touch messages of the touch fingers, and Tr is consumption time of packaging and reporting the multi-finger touch protocol data. pushing touch messages of all touch fingers from at least two different touch screens into different buffer queues for buffering; intercepting head data of each buffer queue to generate a reported data array; acquiring states of the touch fingers according to the reported data array and packaging the states into multi-finger touch protocol data; and reporting the multi-finger touch protocol data to a system, controlling a speed of reporting the multi-finger touch protocol data according to a preset time interval, wherein the preset time interval is calculated according to the following equation: t = 1 / f ∗ 1000 ∗ 1000 − Tc − Tr, wherein f is a sampling frequency of a touch panel, Tc is consumption time of obtaining the touch messages of the touch fingers, and Tr is consumption time of packaging and reporting the multi-finger touch protocol data.