mhurhangee/ep-ind-claims huggingface dataset:
Method for expanding a gas flow of a gas or gas mixture such as steam or similar, between an inlet for the supply of the gas to be expanded at certain inlet conditions of inlet pressure (p A) and inlet temperature (T A) and an outlet for the delivery of expanded gas at certain desired outlet conditions of outlet pressure (p B) and outlet temperature (T B), whereby the method at least comprises the step of at least partly expanding the gas flow between the inlet and the outlet through a pressure reducing valve and at least partly expanding it through a pressure reducing unit with a rotor driven by the gas with an outgoing shaft for converting the energy contained in the gas into mechanical energy on this shaft, wherein the gas flow to be expanded is driven through the pressure reducing valve and through the pressure reducing unit in parallel, with a subflow (Q 1) of the gas flow to be expanded that flows through the pressure reducing valve and a subflow (Q 2) that flows through the pressure reducing unit, whereby both subflows (Q 1 and Q 2) are expanded to the desired outlet pressure (p B), after which both subflows (Q 1 and Q 2) are combined at the same desired outlet pressure (p B) for the supply of the expanded gas flow at the desired outlet conditions of outlet pressure (p B) and outlet temperature (T B) at the outlet and, whereby when starting up a controller to a desired operating point (p B and T B) at the outlet, the gas flow to be expanded is split into the aforementioned subflows (Q 1 and Q 2) according to a fixed ratio, and is preferably split into two equal subflows (Q 1 and Q 2).
A method for feeding fine-grained matter such as concentrate or matte from a bin into a reaction shaft of a suspension smelting furnace comprising a concentrate or matte burner having reaction gas feeding means and fine-grained matter feeding means, wherein the fine-grained matter feeding means of the concentrate or matte burner comprises a fine-grained matter feed pipe having a perimeter and having a discharge opening that opens into the reaction shaft of the suspension smelting furnace, wherein the method comprises a first providing step for providing a feed material feeding arrangement for feeding fine-grained matter from the bin into the fine-grained matter feeding means of the concentrate or matte burner, a feeding step for feeding fine-grained matter from the bin into the fine-grained matter feeding means of the concentrate or matte burner and for feeding fine-grained matter by means of the fine-grained matter feeding means of the concentrate or matte burner into the reaction shaft of the suspension smelting furnace, a second providing step for providing at least one sensor for measuring flow of fine-grained matter at a position between the bin and the discharge opening of the fine-grained matter feed pipe of the fine-grained matter feeding means of the concentrate or matte burner, and a measuring step for measuring flow of feed material by means of said at least one sensor at said position between the bin and the discharge opening of the fine-grained matter feed pipe of the fine-grained matter feeding means of the concentrate or matte burner, characterized by the feed pipe of the fine-grained matter feeding means divided into sectors, by the second providing step includes providing each sector of the feed pipe with at least one sensor for independently measuring flow of fine-grained matter within each sector of the feed pipe, and by the measuring step includes independently measuring flow of fine-grained matter within each sector of the feed pipe by means of said at least one sensor.
Method for conditioning an alkaline, NaOH-containing pickling bath and an acidic, preferably sulphuric acid-containing anodising bath having the steps: - removing a partial quantity of the bath enriched with aluminium compounds; - nanofiltering the partial quantity in order to separate it into an aluminium-rich phase and an aluminium-poor phase; - precipitating an acidic or alkaline aluminium hydroxide-rich phase out of the aluminium-rich phase, wherein the precipitation is carried out preferably by means of seeding; - separating-off alkaline or acidic aluminium hydroxide out of the aluminium hydroxide-rich phase by means of solid-liquid-separation; - neutralising the aluminium hydroxide, wherein the solids generated from the acidic and the alkaline bath after a neutral rinsing are combined; - shared drying to form an aluminium hydroxide solid and - returning the aluminium-poor phase generated in the nanofiltration and/a liquid phase generated in the precipitation/seeding and/or in the solid-liquid separation to the partial quantity or into the respective bath, wherein the returned phase includes acid, preferably sulphuric acid or NaOH. - removing a partial quantity of the bath enriched with aluminium compounds; - nanofiltering the partial quantity in order to separate it into an aluminium-rich phase and an aluminium-poor phase; - precipitating an acidic or alkaline aluminium hydroxide-rich phase out of the aluminium-rich phase, wherein the precipitation is carried out preferably by means of seeding; - separating-off alkaline or acidic aluminium hydroxide out of the aluminium hydroxide-rich phase by means of solid-liquid-separation; - neutralising the aluminium hydroxide, wherein the solids generated from the acidic and the alkaline bath after a neutral rinsing are combined; - shared drying to form an aluminium hydroxide solid and - returning the aluminium-poor phase generated in the nanofiltration and/a liquid phase generated in the precipitation/seeding and/or in the solid-liquid separation to the partial quantity or into the respective bath, wherein the returned phase includes acid, preferably sulphuric acid or NaOH.
Gas control valve (7 - 10) for a hob, having a valve housing and a valve body accommodated in the valve housing, wherein the valve body can be rotated in a predetermined direction of rotation from a closed position, in which the gas control valve (7 - 10) is closed, into an open position, in which the gas control valve (7 - 10) is open, wherein the valve body can be rotated in the predetermined direction of rotation beyond the open position into a low-flame position, wherein when the valve body is rotated from the open position into the low-flame position, a flow volume of combustion gas that can flow through the gas control valve (7 - 10) can be controlled, in particular continuously, wherein the valve body can be rotated against the predetermined direction of rotation from the open position into a booster position and wherein the flow volume of combustion gas is greater in the booster position than in the open position, wherein the flow of combustion gas is constant in the booster position, and wherein viewed against the predetermined direction of rotation, the booster position is arranged between the open position and the closed position.
Massage device for the treatment of human limbs comprising a.) a frame, b.) at least two threaded rods, c.) two cross struts and d.) one or more massage elements, wherein - the threaded rods are arranged at a parallel distance in the frame, - the cross struts are detachably arranged between the threaded rods by means of holders, - the massage elements are arranged on or at the cross struts, - at least one adjusting screw is arranged on each of the threaded rods between the frame and the cross strut and the threaded rods have a thread for the adjusting screw at least in the region between the frame and a cross strut, - at least one spring is arranged on each of the threaded rods between the adjusting screw and the cross strut, and - the cross strut(s), which are attached to a spring, can be displaced along the threaded rods. a.) a frame, b.) at least two threaded rods, c.) two cross struts and d.) one or more massage elements, - the threaded rods are arranged at a parallel distance in the frame, - the cross struts are detachably arranged between the threaded rods by means of holders, - the massage elements are arranged on or at the cross struts, - at least one adjusting screw is arranged on each of the threaded rods between the frame and the cross strut and the threaded rods have a thread for the adjusting screw at least in the region between the frame and a cross strut, - at least one spring is arranged on each of the threaded rods between the adjusting screw and the cross strut, and - the cross strut(s), which are attached to a spring, can be displaced along the threaded rods.
A dispensable getter composition comprising an organic binder, a moisture sorber and a hydrogen sorber, wherein: - the hydrogen sorber is palladium oxide in an amount comprised between 5 wt% and 25 wt% of the weight of the dispensable getter composition, - the moisture sorber is a zeolite in an amount comprised between 35 wt% and 55 wt% of the weight of the dispensable getter composition - the organic binder is in an amount comprised between 30 wt% and 50 wt% of the weight of the dispensable getter composition, the dispensable getter composition further including up to 10 wt%, preferably up to 5 wt%, of additional materials such as thermal curing agents, pigments, stabilizers, the thermal curing agent being preferably no less than 1 wt%, characterized in that said organic binder is a bisphenol resin chosen from type F, type S or mixtures thereof. - the hydrogen sorber is palladium oxide in an amount comprised between 5 wt% and 25 wt% of the weight of the dispensable getter composition, - the moisture sorber is a zeolite in an amount comprised between 35 wt% and 55 wt% of the weight of the dispensable getter composition - the organic binder is in an amount comprised between 30 wt% and 50 wt% of the weight of the dispensable getter composition, the dispensable getter composition further including up to 10 wt%, preferably up to 5 wt%, of additional materials such as thermal curing agents, pigments, stabilizers, the thermal curing agent being preferably no less than 1 wt%, characterized in that said organic binder is a bisphenol resin chosen from type F, type S or mixtures thereof. the dispensable getter composition further including up to 10 wt%, preferably up to 5 wt%, of additional materials such as thermal curing agents, pigments, stabilizers, the thermal curing agent being preferably no less than 1 wt%, characterized in that said organic binder is a bisphenol resin chosen from type F, type S or mixtures thereof.
A steam turbine facility comprising a high-pressure turbine, an intermediate-pressure turbine, and a low-pressure turbine, the intermediate-pressure turbine is separated into a first intermediate-pressure turbine on a high-temperature and high-pressure side and a second intermediate-pressure turbine on a low-temperature and low-pressure side, and at least any one of the overall rotors and the overall casings of the turbines are constructed by joining together a plurality of rotor members or casing members by welding, characterized in that: at least any one of the rotors and casings of the steam-introduction-side turbines into which steam with a temperature of 650°C or higher is introduced is formed from Ni-based alloy, and the high-pressure turbine, the second intermediate-pressure turbine, and the low-pressure turbine are integrated to form an integrated structure, the high-pressure turbine, the second intermediate-pressure turbine, and the low-pressure turbine have a casing and a rotor in common.
A method for screening a compound useful for treating or preventing a viral infection or a virus-related condition in an individual, comprising at least the steps of: a) determining the ability of a candidate compound to promote the interaction between CBP20 and CBP80 in a sample, and b) selecting the candidate compound that is determined to promote said interaction at step a). a) determining the ability of a candidate compound to promote the interaction between CBP20 and CBP80 in a sample, and b) selecting the candidate compound that is determined to promote said interaction at step a).
Polynucleotide coding for a variant of the cytidine deaminase protein chosen from the group consisting of: SEQ.ID.NO. 2 SEQ.ID.NO.3 SEQ.ID.NO.4 SEQ.ID.NO. 2 SEQ.ID.NO.3 SEQ.ID.NO.4
Transfer apparatus for a line end of a folder-gluer for cardboard boxes, comprising a transfer bed with a double, opposite array of transmission belts (C1a, C1b, C2a, C2b) which define a transfer track for the displacement of flattened folded boxes, wherein said transfer bed is oscillatingly mounted about a horizontal axis (a-a') on a structure (21, 22, 24) which is in turn rotatingly mounted according to a vertical axis (b-b') on a base frame, the rotation according to the horizontal axis (a-a') and according to the vertical axis (b-b') occurring through a first and a second (M2, M2') motor, respectively, characterized in that said structure is a U-shaped support structure (21, 22, 24), and said horizontal axis (a-a') is transversal to a progress direction of said transfer track.
Microcapsules comprising a core of fragrance and a shell of aminoplast polymer, the composition of the shell being from 75-100% of a thermoset resin comprising 50-90%, preferably from 60-85%, of a terpolymer and from 10-50%, preferably from 10-25%, of a polymeric stabilizer; the terpolymer comprising: (a) from 20-60%, preferably 30-50% of moieties derived from at least one polyamine; (b) from 3-50%, preferably 5-25% of moieties derived from at least one polyol; and (c) from 20-70%, preferably 40-60% of substituted methylene moieties, the microcapsules additionally optionally comprising up to 25%, preferably up to 10% of a cationic polymer; the substituted methylene moieties have the general formula in which R is either a hydrogen atom or an alkyl group and Y 1 and Y 2 are substituents selected from sigma acceptor groups, alkyne groups and metal sulphonates. (a) from 20-60%, preferably 30-50% of moieties derived from at least one polyamine; (b) from 3-50%, preferably 5-25% of moieties derived from at least one polyol; and (c) from 20-70%, preferably 40-60% of substituted methylene moieties,
Granules of microalgal biomass flour, characterized in that they are obtained from a biomass of microalgae of the genus Chlorella comprising at least 50% by dry weight of proteins, preferably between 50 and 70% by dry weight of proteins, and in that they have: ∘ a particle size distribution, measured on an LS laser particle size analyzer of the COULTER® brand, having a Dmode of between 60 and 300 μm and a D4,3 between 70 and 420 μm, ∘ a bulk density, measured on a HOSOKAWA Powder Characteristics Tester, of between 0.60% and 0.70 g/ml, ∘ a compressibility, measured on a HOSOKAWA Powder Characteristics Tester, of between 15% and 25%, preferably between 18% and 21%. ∘ a particle size distribution, measured on an LS laser particle size analyzer of the COULTER® brand, having a Dmode of between 60 and 300 μm and a D4,3 between 70 and 420 μm, ∘ a bulk density, measured on a HOSOKAWA Powder Characteristics Tester, of between 0.60% and 0.70 g/ml, ∘ a compressibility, measured on a HOSOKAWA Powder Characteristics Tester, of between 15% and 25%, preferably between 18% and 21%.
A knitted component for an upper of an article of footwear, the knitted component comprising: a first layer, a second layer, a raised structure formed by the second layer, the raised structure extending away from the first layer, the raised structure including a length extending along a heel-to-toe direction when the knitted component is incorporated into the article of footwear, the raised structure including a width along a lateral-to-medial direction when the knitted component is incorporated into the article of footwear, wherein the length is greater than the width, wherein the first layer is at least partially formed from a first yarn having a first shrinkage rate and wherein the second layer is at least partially formed by a second yarn having a second shrinkage rate, and wherein the shrinkage rate of the first yarn is greater than the shrinkage rate of the second yarn when subjected to heat. a first layer, a second layer, a raised structure formed by the second layer, the raised structure extending away from the first layer, the raised structure including a length extending along a heel-to-toe direction when the knitted component is incorporated into the article of footwear, the raised structure including a width along a lateral-to-medial direction when the knitted component is incorporated into the article of footwear, wherein the length is greater than the width, wherein the first layer is at least partially formed from a first yarn having a first shrinkage rate and wherein the second layer is at least partially formed by a second yarn having a second shrinkage rate, and wherein the shrinkage rate of the first yarn is greater than the shrinkage rate of the second yarn when subjected to heat.
A communications method, comprising: initiating, by a mobile device, a first communication through a first path between the mobile device and a network domain node; generating, by the mobile device, a first sequence information; initiating, by the mobile device, a second communication through a second path between the mobile device and the network domain node; generating, by the mobile device, a second sequence information, wherein the second sequence information is different than the first sequence information; and employing, by the mobile device, the first sequence information for further communications of the mobile device with the network domain node through the first path and employing the second sequence information for further communications of the mobile device with the network domain node through the second path, for ordering messages sent on the first path and the second path. initiating, by a mobile device, a first communication through a first path between the mobile device and a network domain node; generating, by the mobile device, a first sequence information; initiating, by the mobile device, a second communication through a second path between the mobile device and the network domain node; generating, by the mobile device, a second sequence information, wherein the second sequence information is different than the first sequence information; and employing, by the mobile device, the first sequence information for further communications of the mobile device with the network domain node through the first path and employing the second sequence information for further communications of the mobile device with the network domain node through the second path, for ordering messages sent on the first path and the second path.
A shaft diameter enlarging method for enlarging an intermediate portion of a shaft, the shaft diameter enlarging method comprising: holding the shaft by a pair of holders (2, 3) with a gap between the pair of holders (2, 3) in an axial direction of the shaft; applying compression force in the axial direction to the intermediate portion arranged between the pair of holders (2, 3); and applying alternating load in a direction intersecting the axial direction to the intermediate portion to enlarge the intermediate portion, wherein the method further comprises: heating at least a portion of the shaft including the intermediate portion before the enlarging of the intermediate portion; and/or heating the intermediate portion during the enlarging of the intermediate portion, and wherein, when enlarging the intermediate portion, a temperature of the intermediate portion is set to be above a blue brittleness temperature range of the shaft, and a temperature of the holders (2, 3) is set to be below a tempering temperature range of the holders (2, 3). holding the shaft by a pair of holders (2, 3) with a gap between the pair of holders (2, 3) in an axial direction of the shaft; applying compression force in the axial direction to the intermediate portion arranged between the pair of holders (2, 3); and applying alternating load in a direction intersecting the axial direction to the intermediate portion to enlarge the intermediate portion, wherein the method further comprises: heating at least a portion of the shaft including the intermediate portion before the enlarging of the intermediate portion; and/or heating the intermediate portion during the enlarging of the intermediate portion, and heating at least a portion of the shaft including the intermediate portion before the enlarging of the intermediate portion; and/or heating the intermediate portion during the enlarging of the intermediate portion, and wherein, when enlarging the intermediate portion, a temperature of the intermediate portion is set to be above a blue brittleness temperature range of the shaft, and a temperature of the holders (2, 3) is set to be below a tempering temperature range of the holders (2, 3).
A method for producing carbamate, the method comprising the steps of: a urea production step of producing urea by reaction between ammonia and carbon dioxide gas, a carbamate-forming step of producing carbamate by carbamate-forming reaction between amine, the urea, and alcohol, and by-producing a gas containing alcohol, ammonia, and carbon dioxide, an ammonia separation step of absorbing the gas with water to produce a gas absorption water, and separating ammonia, an aqueous alcohol solution separation step of separating an aqueous alcohol solution from the gas absorption water, an ammonia/carbon dioxide separation step of separating carbon dioxide gas from the aqueous ammonia solution in the gas absorption water from which the aqueous alcohol solution is separated, and an aqueous ammonia solution reusing step of using the aqueous ammonia solution along with the water for production of the gas absorption water. a urea production step of producing urea by reaction between ammonia and carbon dioxide gas, a carbamate-forming step of producing carbamate by carbamate-forming reaction between amine, the urea, and alcohol, and by-producing a gas containing alcohol, ammonia, and carbon dioxide, an ammonia separation step of absorbing the gas with water to produce a gas absorption water, and separating ammonia, an aqueous alcohol solution separation step of separating an aqueous alcohol solution from the gas absorption water, an ammonia/carbon dioxide separation step of separating carbon dioxide gas from the aqueous ammonia solution in the gas absorption water from which the aqueous alcohol solution is separated, and an aqueous ammonia solution reusing step of using the aqueous ammonia solution along with the water for production of the gas absorption water.