mhurhangee/ep-ind-claims huggingface dataset:
A knot-tying head adapted to form a knot with a filament around a part, which part having an essentially cylindrical or prismatic portion, and wherein the knot-tying head comprises: at least one first body, and at least one second body, complementary with the at least one first body, wherein the at least one first body and the at least one second body are configured such that when they are attached they form a hollow space between both bodies (1, 2) configured for receiving the part; wherein the first body and the second body comprise: at least one conduit made in the first body and the second body, the at least one conduit forming a path substantially around the hollow space, and the at least one conduit being adapted to receive the filament, and at least one groove communicating the at least one conduit with the hollow space along all or part of its path, the width of the groove being - less than the width of the conduit, and - greater than the width of the filament used to form the knot; characterized in that the at least one first body and the at least one second body comprise at least one opening configured for the filament to enter or exit the conduit. at least one first body, and at least one second body, complementary with the at least one first body, wherein the at least one first body and the at least one second body are configured such that when they are attached they form a hollow space between both bodies (1, 2) configured for receiving the part; wherein the first body and the second body comprise: at least one conduit made in the first body and the second body, the at least one conduit forming a path substantially around the hollow space, and the at least one conduit being adapted to receive the filament, and at least one groove communicating the at least one conduit with the hollow space along all or part of its path, the width of the groove being - less than the width of the conduit, and - greater than the width of the filament used to form the knot; characterized in that the at least one first body and the at least one second body comprise at least one opening configured for the filament to enter or exit the conduit. at least one conduit made in the first body and the second body, the at least one conduit forming a path substantially around the hollow space, and the at least one conduit being adapted to receive the filament, and at least one groove communicating the at least one conduit with the hollow space along all or part of its path, the width of the groove being - less than the width of the conduit, and - greater than the width of the filament used to form the knot; characterized in that the at least one first body and the at least one second body comprise at least one opening configured for the filament to enter or exit the conduit. - less than the width of the conduit, and - greater than the width of the filament used to form the knot; characterized in that the at least one first body and the at least one second body comprise at least one opening configured for the filament to enter or exit the conduit.
A method for producing methionine which comprises the following steps to: a reaction step: a step of hydrolyzing 5-[2-(methylthio)ethyl]imidazolidine-2,4-dione in the presence of an alkali compound to obtain a reaction solution containing an alkali salt of methionine wherein the alkali compound is selected from the group consisting of potassium hydroxide, sodium hydroxide, potassium carbonate, potassium hydrogen carbonate, and two or more of them, a crystallization step: a step of precipitating methionine by introducing carbon dioxide into the reaction solution to obtain a first slurry containing the methionine, a solid-liquid separation step: a step of allowing the first slurry to flow into a pressurized filter and obtaining the solid methionine and mother liquor from the first slurry, and a carbon dioxide recovery step: a step of recovering carbon dioxide from the mother liquor wherein the mother liquor is transferred to a recovery tank kept at a pressure lower than the pressure in the pressurized filter, the carbon dioxide dissolved in the mother liquor is released as a gas in the recovery tank, and recovered. a reaction step: a step of hydrolyzing 5-[2-(methylthio)ethyl]imidazolidine-2,4-dione in the presence of an alkali compound to obtain a reaction solution containing an alkali salt of methionine wherein the alkali compound is selected from the group consisting of potassium hydroxide, sodium hydroxide, potassium carbonate, potassium hydrogen carbonate, and two or more of them, a crystallization step: a step of precipitating methionine by introducing carbon dioxide into the reaction solution to obtain a first slurry containing the methionine, a solid-liquid separation step: a step of allowing the first slurry to flow into a pressurized filter and obtaining the solid methionine and mother liquor from the first slurry, and a carbon dioxide recovery step: a step of recovering carbon dioxide from the mother liquor wherein the mother liquor is transferred to a recovery tank kept at a pressure lower than the pressure in the pressurized filter, the carbon dioxide dissolved in the mother liquor is released as a gas in the recovery tank, and recovered.
An electron multiplier comprising a dynode unit, in which a plurality of dynodes (5A, 5B) are positioned in a layered state in multiple stages, characterized in that: in the dynode unit, the dynode of the first stage is arranged as a venetian blind dynode, and the venetian blind dynode comprises a plurality of louver-like electrode elements (5A3) that are cut and raised at a certain angle from a substrate (5A2), and the dynodes of the second stage onward are arranged as metal channel dynodes, each metal channel dynodes comprises a plurality of through holes (5B3) opened in a substrate (5B2), each through hole (5B3) has an inner wall surface of inclined cross-sectional shape such that an opening width at an emitting side is wider than an opening width at a secondary electron collecting side. in the dynode unit, the dynode of the first stage is arranged as a venetian blind dynode, and the venetian blind dynode comprises a plurality of louver-like electrode elements (5A3) that are cut and raised at a certain angle from a substrate (5A2), and the dynodes of the second stage onward are arranged as metal channel dynodes, each metal channel dynodes comprises a plurality of through holes (5B3) opened in a substrate (5B2), each through hole (5B3) has an inner wall surface of inclined cross-sectional shape such that an opening width at an emitting side is wider than an opening width at a secondary electron collecting side.
A use of a material for producing hydrogen or electricity, wherein the material comprises at least 50% by mass of a reagent intended to the hydrolyze upon contact with an aqueous solution in order to obtain hydrogen, wherein the reagent comprises: - a first compound chosen from magnesium metal, magnesium hydride, and mixtures thereof, and - a second compound alloyed with the first compound, wherein the second compound is chosen from graphite, carbon fibers, and mixtures thereof, wherein the first compound represents at least 75% by weight of the reagent, and the second compound represents between 1% and 25%, preferably between 3% and 10% by weight of the reagent. - a first compound chosen from magnesium metal, magnesium hydride, and mixtures thereof, and - a second compound alloyed with the first compound, wherein the second compound is chosen from graphite, carbon fibers, and mixtures thereof,
A battery temperature estimation apparatus for estimating temperature of a secondary battery included in a battery pack, the battery pack further includes the battery temperature estimation apparatus, a plurality of sensing busbars and an integrated circuit board electrically connected to respective electrode lead of the secondary battery through the plurality of sensing busbars, the battery temperature estimation apparatus comprising: a board temperature measuring unit mounted on the integrated circuit board to measure a board temperature of the integrated circuit board; an ambient temperature measuring unit configured to measure an ambient temperature of the battery pack; and a calculating unit configured to calculate a temperature of the secondary battery using the board temperature of the integrated circuit board measured by the board temperature measuring unit and the ambient temperature of the battery pack, characterized in that the calculating unit calculate the temperature of the secondary battery by reflecting a correction factor corresponding to the ambient temperature of the battery pack on a difference between the temperature of the integrated circuit board and the ambient temperature of the battery pack a board temperature measuring unit mounted on the integrated circuit board to measure a board temperature of the integrated circuit board; an ambient temperature measuring unit configured to measure an ambient temperature of the battery pack; and a calculating unit configured to calculate a temperature of the secondary battery using the board temperature of the integrated circuit board measured by the board temperature measuring unit and the ambient temperature of the battery pack, characterized in that the calculating unit calculate the temperature of the secondary battery by reflecting a correction factor corresponding to the ambient temperature of the battery pack on a difference between the temperature of the integrated circuit board and the ambient temperature of the battery pack
A processor comprising: decoding circuitry to decode an instruction, wherein the instruction specifies locations of a plurality of operands, values of which being in a floating-point format; and execution circuitry to execute the decoded instruction, wherein the execution includes to: convert the values for each operand, each value being converted into a plurality of lower precision values, wherein an exponent is to be stored for each operand, perform arithmetic operations among lower precision values converted from values for the plurality of the operands, and generate a floating-point value by converting a resulting value from the arithmetic operations into the floating-point format and store the floating-point value, characterized in that the instruction further specifies one or more operands specifying quality of service, QoS, requirements, and in that the processor is to determine a format of the lower precision values to be used, a number of the lower precision values and/or a number of terms to run the arithmetic operations with, based on the one or more operands specifying the QoS requirements. decoding circuitry to decode an instruction, wherein the instruction specifies locations of a plurality of operands, values of which being in a floating-point format; and execution circuitry to execute the decoded instruction, wherein the execution includes to: convert the values for each operand, each value being converted into a plurality of lower precision values, wherein an exponent is to be stored for each operand, perform arithmetic operations among lower precision values converted from values for the plurality of the operands, and generate a floating-point value by converting a resulting value from the arithmetic operations into the floating-point format and store the floating-point value, convert the values for each operand, each value being converted into a plurality of lower precision values, wherein an exponent is to be stored for each operand, perform arithmetic operations among lower precision values converted from values for the plurality of the operands, and generate a floating-point value by converting a resulting value from the arithmetic operations into the floating-point format and store the floating-point value, characterized in that the instruction further specifies one or more operands specifying quality of service, QoS, requirements, and in that the processor is to determine a format of the lower precision values to be used, a number of the lower precision values and/or a number of terms to run the arithmetic operations with, based on the one or more operands specifying the QoS requirements.
A neutralising antibody which binds human IL-17A and human IL-17F having a light chain and a heavy chain wherein the variable domain of the light chain comprises the sequence given in SEQ ID NO:7 and the variable domain of the heavy chain comprises the sequence given in SEQ ID NO:9.
A system for evaluating at least one operating condition of a heat exchanger, comprising: - at least two double temperature probes (1, 2) each comprising a stack of two single temperature probes (11, 12, 21, 22) thermally and electrically isolated from one another, and - a wall of a heat exchanger through which a heat transfer is intended to take place between two fluids f and f ' circulating on either side of the wall and on which a fouling (50, 50') is capable of being deposited, each single probe (11, 12, 21, 22) of each double probe (1, 2) being intended to be functionally connected to: - a power supply device for each single probe (11, 12, 21, 22), - an electric current measuring device in each single probe (11, 12, 21, 22), and - a device for monitoring the power supply device and the measuring device, each double probe (1, 2) being disposed on one of a first side and a second side of the wall of the heat exchanger, a first double probe being located at a first height h 1 of circulation of fluids f and f' and a second double probe being located at a second height h 2 of circulation of fluids f and f', the first height h 1 being different from the second height h 2, each double probe (1, 2) having a known thermal resistance Rs 1, R s2, the wall having a known thermal resistance R p and the heat exchanger having known geometric parameters. - at least two double temperature probes (1, 2) each comprising a stack of two single temperature probes (11, 12, 21, 22) thermally and electrically isolated from one another, and - a wall of a heat exchanger through which a heat transfer is intended to take place between two fluids f and f ' circulating on either side of the wall and on which a fouling (50, 50') is capable of being deposited, - a power supply device for each single probe (11, 12, 21, 22), - an electric current measuring device in each single probe (11, 12, 21, 22), and - a device for monitoring the power supply device and the measuring device,
A material for hole injection transport layers, which is a reaction product of a molybdenum complex with a compound represented by the following chemical formula: wherein R 1 and R 2 each independently represent a hydrocarbon group which can have a substituent or contain a heteroatom; X 1 and X 2 each independently represent an oxygen atom, sulfur atom or direct bond; and a total of carbon numbers of R 1 and R 2 is 5 or more, wherein the reaction product is an organic-inorganic composite oxide containing a Mo=O bond and having a structure in which the compound represented by the chemical formula is coordinated therewith.
An offshore wind energy system (2, 2.1, 2.2) with - a first offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3') and - at least one further offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3'), wherein for the transmission of an electrical signal at least one electrical connection (8, 8.1, 8.1', 8.2, 8.2', 8.3, 8.3') is provided between the first offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3') and the further offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3'), - the first offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3') comprises at least a first parameter determining device for determining at least a first parameter value of at least one parameter of the electrical signal, characterized in that - the further offshore wind energy device (4, 4. 6.1, 6.1', 6.2, 6.2', 6.3, 6.3') comprises at least one further parameter determining device for determining at least one further parameter value of the at least one parameter of the electrical signal, and - at least one of the parameter determining devices is configured to determine a difference between the first parameter value and the further parameter value. - a first offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3') and - at least one further offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3'), wherein for the transmission of an electrical signal at least one electrical connection (8, 8.1, 8.1', 8.2, 8.2', 8.3, 8.3') is provided between the first offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3') and the further offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3'), - the first offshore wind energy device (4, 4.1, 6, 6.1, 6.1', 6.2, 6.2', 6.3, 6.3') comprises at least a first parameter determining device for determining at least a first parameter value of at least one parameter of the electrical signal, - the further offshore wind energy device (4, 4. 6.1, 6.1', 6.2, 6.2', 6.3, 6.3') comprises at least one further parameter determining device for determining at least one further parameter value of the at least one parameter of the electrical signal, and - at least one of the parameter determining devices is configured to determine a difference between the first parameter value and the further parameter value.
A system for producing fluid from a subterranean wellbore comprising: an electrical submersible pump ("ESP") system comprising a pump, a motor 30 mechanically coupled with the pump, a monitoring sub, and a stinger projecting axially away from the pump; a receptacle comprising an annular member mounted to a tubular disposed in the wellbore; a first proximity sensor coupled with the stinger; and a second proximity sensor coupled with the receptacle; wherein monitoring signals from the first and second proximity sensors (54, 56) provides a distance between the first proximity sensor and the receptacle and/or a distance between the second proximity sensor and the stinger. an electrical submersible pump ("ESP") system comprising a pump, a motor 30 mechanically coupled with the pump, a monitoring sub, and a stinger projecting axially away from the pump; a receptacle comprising an annular member mounted to a tubular disposed in the wellbore; a first proximity sensor coupled with the stinger; and a second proximity sensor coupled with the receptacle; wherein monitoring signals from the first and second proximity sensors (54, 56) provides a distance between the first proximity sensor and the receptacle and/or a distance between the second proximity sensor and the stinger.
A system for outer space applications comprising: an outer wall defining an interior chamber to be cooled; electronic equipment mounted within said outer wall in the chamber; and a thermoelectric cooler, said thermoelectric cooler having a cool node positioned within said outer wall in the chamber, and a hot node positioned outwardly of said outer wall, characterised by a fuel cell providing electricity to said thermoelectric cooler, said fuel cell being mounted outwardly of said outer wall, and a fan pulling air over said electronic equipment, and passing the air to said cool node of said thermoelectric cooler. an outer wall defining an interior chamber to be cooled; electronic equipment mounted within said outer wall in the chamber; and a thermoelectric cooler, said thermoelectric cooler having a cool node positioned within said outer wall in the chamber, and a hot node positioned outwardly of said outer wall, characterised by a fuel cell providing electricity to said thermoelectric cooler, said fuel cell being mounted outwardly of said outer wall, and a fan pulling air over said electronic equipment, and passing the air to said cool node of said thermoelectric cooler.
System for cleaning a plurality of heat exchangers the cleaning system comprising: - a vat, suitable for containing a fluid for external cleaning of the exchangers, the vat defining a plurality of locations for receiving one of the exchangers, each location comprising at least one member for fixing the exchanger on the location, and circulation ports provided to communicate fluidically with an internal space of the exchanger received on the location, the internal space being isolated in a sealed manner from the external cleaning fluid; - a hydraulic circuit connecting fluidically the circulation ports of the locations to each other; - a pump connected fluidically to the hydraulic circuit, suitable for making an internal cleaning fluid circulate through the hydraulic circuit and the exchangers received by the locations; and - at least one transducer disposed in the vat, suitable for emitting ultrasound, the at least one transducer being disposed opposite at least one of the locations, the external cleaning fluid and the internal cleaning fluid being different from each other. - a vat, suitable for containing a fluid for external cleaning of the exchangers, the vat defining a plurality of locations for receiving one of the exchangers, each location comprising at least one member for fixing the exchanger on the location, and circulation ports provided to communicate fluidically with an internal space of the exchanger received on the location, the internal space being isolated in a sealed manner from the external cleaning fluid; - a hydraulic circuit connecting fluidically the circulation ports of the locations to each other; - a pump connected fluidically to the hydraulic circuit, suitable for making an internal cleaning fluid circulate through the hydraulic circuit and the exchangers received by the locations; and - at least one transducer disposed in the vat, suitable for emitting ultrasound, the at least one transducer being disposed opposite at least one of the locations,
Method for masking surfaces to be matted, having the following steps: providing a workpiece having a surface to be matted; masking at least one region, not to be matted, of the surface with a first layer of a first coating material which is a water-based coating, masking the same region, not to be matted, with a second layer of a second coating material which is a solvent-based coating, wherein the first coating material is designed such that the first layer can be easily detached from the surface, wherein the second coating material is selected and applied such that high resistance of the second layer to a jet of abrasive material is achieved, said resistance being higher than the resistance of the first layer, wherein in at least one masking application a high second layer thickness of the second layer is achieved which is higher than a first layer thickness of the first layer. providing a workpiece having a surface to be matted; masking at least one region, not to be matted, of the surface with a first layer of a first coating material which is a water-based coating, masking the same region, not to be matted, with a second layer of a second coating material which is a solvent-based coating, wherein the first coating material is designed such that the first layer can be easily detached from the surface, wherein the second coating material is selected and applied such that high resistance of the second layer to a jet of abrasive material is achieved, said resistance being higher than the resistance of the first layer, wherein in at least one masking application a high second layer thickness of the second layer is achieved which is higher than a first layer thickness of the first layer.