mhurhangee/ep-ind-claims huggingface dataset:
A steam turbine plant comprising: a boiler configured to change water into steam; a high pressure turbine including a turbine or turbines connected to each other in series, and having a first inlet to supply the steam from the boiler, an extraction port which is configured to extract a portion of the steam from the boiler and located at a downstream of the first inlet, a second inlet to supply the steam extracted from the extraction port and located at a downstream of the extraction port, and an exhaust port located at a downstream of the second inlet, the high pressure turbine being configured to be driven by the steam supplied from the first and second inlets; an extraction steam heater configured to heat the steam extracted from the extraction port and to supply the heated steam to the second inlet; a reheater configured to heat the steam exhausted from the exhaust port of the high pressure turbine; and a reheat turbine configured to be driven by the steam from the reheater, characterized in that the steam from the first inlet and the steam from the second inlet are merged in the high pressure turbine and exhausted from the exhaust port. a boiler configured to change water into steam; a high pressure turbine including a turbine or turbines connected to each other in series, and having a first inlet to supply the steam from the boiler, an extraction port which is configured to extract a portion of the steam from the boiler and located at a downstream of the first inlet, a second inlet to supply the steam extracted from the extraction port and located at a downstream of the extraction port, and an exhaust port located at a downstream of the second inlet, the high pressure turbine being configured to be driven by the steam supplied from the first and second inlets; an extraction steam heater configured to heat the steam extracted from the extraction port and to supply the heated steam to the second inlet; a reheater configured to heat the steam exhausted from the exhaust port of the high pressure turbine; and a reheat turbine configured to be driven by the steam from the reheater, characterized in that the steam from the first inlet and the steam from the second inlet are merged in the high pressure turbine and exhausted from the exhaust port.
A method of converting a stream of samples at a first sampling rate to a stream of samples at a second sampling rate, the first sampling rate being subject to deviation from a nominal value and the second sampling rate being within a predetermined resynchronisation error factor from a target value, the method being characterised in that it comprises in combination: measuring (S9.1) the first sampling rate; determining (S9.2) a first upsampling factor based on the measured first sampling rate, the target value of the second sampling rate, and a resynchronisation error factor, the first upsampling factor being constrained to be a first integer power of a predetermined integer value; deriving (S9.3), from a reference set of filter coefficients and from a ratio of the first upsampling factor to a reference upsampling factor, a first set of filter coefficients for use in a first interpolation filter, the reference set of filter coefficients being for a reference upsampling factor that is a second integer power of the predetermined integer value, determining (S10.2) a first downsampling factor based on the measured first sampling rate, the target value of the second sampling rate, and the predetermined resynchronisation error factor, the first downsampling factor being an integer; and converting (S10.4) the stream of samples at the first sampling rate to the stream of samples at the second sampling rate by a processes comprising upsampling by the first up-sampling factor, filtering using the first set of filter coefficients for the first interpolation filter and downsampling by the first downsampling factor, wherein the predetermined integer value is 2. measuring (S9.1) the first sampling rate; determining (S9.2) a first upsampling factor based on the measured first sampling rate, the target value of the second sampling rate, and a resynchronisation error factor, the first upsampling factor being constrained to be a first integer power of a predetermined integer value; deriving (S9.3), from a reference set of filter coefficients and from a ratio of the first upsampling factor to a reference upsampling factor, a first set of filter coefficients for use in a first interpolation filter, the reference set of filter coefficients being for a reference upsampling factor that is a second integer power of the predetermined integer value, determining (S10.2) a first downsampling factor based on the measured first sampling rate, the target value of the second sampling rate, and the predetermined resynchronisation error factor, the first downsampling factor being an integer; and converting (S10.4) the stream of samples at the first sampling rate to the stream of samples at the second sampling rate by a processes comprising upsampling by the first up-sampling factor, filtering using the first set of filter coefficients for the first interpolation filter and downsampling by the first downsampling factor, wherein the predetermined integer value is 2.
Gas turbine with a compressor, a turbine and with at least one combustion chamber concentric to a centre axis for the flameless oxidation of fuel, which encloses an inside space encompassed overall by a developing circulatory flow, and which has an inlet (6, 15) that defines an air entry direction (24, 25) and is connected to the compressor, an outlet (7, 14) connected to the turbine and a fuel supply device, which defines a fuel feed direction (24, 25), characterised in that the inlet (6, 15) comprises multiple air nozzles, wherein the fuel supply device comprises multiple fuel nozzles and wherein the fuel nozzles define the fuel feed direction (24, 25) and the air nozzles define the air entry direction (24, 25) in a substantially consistent manner and are arranged with a radius to the centre axis of the combustion chamber, which is larger than the radius of the opening that forms the outlet.
A powdery pharmaceutical composition used to constitute, after compression, a dosage form which breaks down quickly in the mouth, said composition comprising solid particles based on a mixture of excipients which comprises at least one diluent chosen from a dextrin, a maltodextrin, lactose, saccharose, trehalose, mannitol, sorbitol, erythritol, maltitol, lactitol and fructose, said particles being coated with a film based on an aqueous colloidal solution provided to prehydrate said composition, such that said particles thus coated are free from one another in said composition, said colloidal solution comprising a self-emulsifiable system comprising in combination at least one hydrophilic film-forming compound, at least one lubricating amphiphilic compound, and at least one moistening amphiphilic compound, wherein: - said at least one hydrophilic film-forming compound is a carbohydrate chosen from the group constituted by maltodextrins, dextrins, sorbitol, mannitol and xylitol or a polyethylene glycol with a weight average molecular mass Mw ranging from 1000 g/mol to 6000 g/mol, - said at least one lubricating amphiphilic compound is chosen from the group constituted by sodium lauryl ether sulfate, sodium lauryl sulfate, and magnesium stearate, and - said at least one moistening amphiphilic compound is chosen from a lauroyl macrogolglyceride, such as a lauroyl macrogol-32 glyceride (Gelucire ® 44/14), and a stearoyl macrogolglyceride, such as a stearoyl macrogol-32 glyceride (Gelucire ® 50/13) and wherein the mass ratio of colloidal solution/particles intended to receive said colloidal solution is less than or equal to 10%. - said at least one hydrophilic film-forming compound is a carbohydrate chosen from the group constituted by maltodextrins, dextrins, sorbitol, mannitol and xylitol or a polyethylene glycol with a weight average molecular mass Mw ranging from 1000 g/mol to 6000 g/mol, - said at least one lubricating amphiphilic compound is chosen from the group constituted by sodium lauryl ether sulfate, sodium lauryl sulfate, and magnesium stearate, and - said at least one moistening amphiphilic compound is chosen from a lauroyl macrogolglyceride, such as a lauroyl macrogol-32 glyceride (Gelucire ® 44/14), and a stearoyl macrogolglyceride, such as a stearoyl macrogol-32 glyceride (Gelucire ® 50/13)
A resin for an offset printing ink, comprising a resin whose monomer unit is a monomer ingredient comprising phenols having an unsaturated hydrocarbon group having carbon atoms of 10 to 20 which is located at least at a meta position, and cyclopentadienes. phenols having an unsaturated hydrocarbon group having carbon atoms of 10 to 20 which is located at least at a meta position, and cyclopentadienes.
A vehicle body structure for an automobile comprising: a suspension member arranged horizontally on a lower side of a front or a rear of a vehicle body and supporting a wheel, wherein the suspension member is formed in a rectangular frame shape in a plan view by including a pair of left and right side members (24, 24) extending in a vehicle front-rear direction and a pair of front and rear cross members (25, 26) joining the pair of side members (24, 24) to each other, characterised in that at least the cross member on an end side of the vehicle body includes arm sections extending obliquely outward in a vehicle width direction toward the end side of the vehicle body from portions of the cross member on the end side of the vehicle body linked to the side members, and fastened at end portions thereof to vehicle-body-side members (11, 12), wherein the strength of the arm sections is set lower than strength of the remaining part of the suspension member, and a vehicle-body strength distribution in an area where the suspension member is arranged is set such that a low-strength region and a high-strength region sequentially appear from the end side of the vehicle body, and a high voltage component is mounted on the suspension member on a center side of the vehicle body relative to a base portion of the arm section in an extending direction thereof and in the high-strength region in the vehicle-body strength distribution. a suspension member arranged horizontally on a lower side of a front or a rear of a vehicle body and supporting a wheel, wherein the suspension member is formed in a rectangular frame shape in a plan view by including a pair of left and right side members (24, 24) extending in a vehicle front-rear direction and a pair of front and rear cross members (25, 26) joining the pair of side members (24, 24) to each other, characterised in that at least the cross member on an end side of the vehicle body includes arm sections extending obliquely outward in a vehicle width direction toward the end side of the vehicle body from portions of the cross member on the end side of the vehicle body linked to the side members, and fastened at end portions thereof to vehicle-body-side members (11, 12), wherein the strength of the arm sections is set lower than strength of the remaining part of the suspension member, and a vehicle-body strength distribution in an area where the suspension member is arranged is set such that a low-strength region and a high-strength region sequentially appear from the end side of the vehicle body, and a high voltage component is mounted on the suspension member on a center side of the vehicle body relative to a base portion of the arm section in an extending direction thereof and in the high-strength region in the vehicle-body strength distribution.
A biological information measurement apparatus comprising: a light emitting unit configured to irradiate a living body with light; a plurality of light receiving units configured to receive light scattered at a plurality of measurement sites in the living body, wherein the biological information measurement apparatus includes a mechanism in which the light scattered at the plurality of measurement sites is individually detected by a plurality of the light receiving units; said mechanism comprising a lens through which the light emitted from the light emitting unit is transmitted, wherein the lens is disposed between the light emitting unit and the measurement site, characterised in that the lens includes a lens light shielding unit at a lens center part on a side where the light emitted from the light emitting unit is incident or emitted. a light emitting unit configured to irradiate a living body with light; a plurality of light receiving units configured to receive light scattered at a plurality of measurement sites in the living body, wherein the biological information measurement apparatus includes a mechanism in which the light scattered at the plurality of measurement sites is individually detected by a plurality of the light receiving units; said mechanism comprising a lens through which the light emitted from the light emitting unit is transmitted, wherein the lens is disposed between the light emitting unit and the measurement site, characterised in that the lens includes a lens light shielding unit at a lens center part on a side where the light emitted from the light emitting unit is incident or emitted.
A wrappable textile sleeve (10, 110) for protecting an elongate member (12, 112), comprising: an inner layer (14, 114) having opposite inner edges (16, 18, 116, 118) extending lengthwise between opposite inner ends (20, 22, 120, 122), said opposite inner edges being laterally spaced from one another by an inner width of said inner layer (14, 114); an outer layer (24, 124) having opposite outer edges (26, 28, 126, 128) extending lengthwise between opposite outer ends (30, 32, 130, 132), said opposite outer edges being laterally spaced from one another by an outer width of said outer layer, the wrappable textile sleeve (10, 110)further comprising an adhesive intermediate layer (34, 134) sandwiched between said inner layer (14, 114) and said outer layer (24, 124) and bonding said inner layer to said outer layer, said adhesive intermediate layer extending beyond at least one of said inner edges (16, 18, 116, 118) to provide an exposed region (36, 136) of said adhesive intermediate layer, characterized in that said adhesive intermediate layer is a hot melt adhese and said exposed region is meltable to bond to said outer layer and maintain said outer layer in a wrapped, tubular configuration. an inner layer (14, 114) having opposite inner edges (16, 18, 116, 118) extending lengthwise between opposite inner ends (20, 22, 120, 122), said opposite inner edges being laterally spaced from one another by an inner width of said inner layer (14, 114); an outer layer (24, 124) having opposite outer edges (26, 28, 126, 128) extending lengthwise between opposite outer ends (30, 32, 130, 132), said opposite outer edges being laterally spaced from one another by an outer width of said outer layer, the wrappable textile sleeve (10, 110)further comprising an adhesive intermediate layer (34, 134) sandwiched between said inner layer (14, 114) and said outer layer (24, 124) and bonding said inner layer to said outer layer, said adhesive intermediate layer extending beyond at least one of said inner edges (16, 18, 116, 118) to provide an exposed region (36, 136) of said adhesive intermediate layer, characterized in that said adhesive intermediate layer is a hot melt adhese and said exposed region is meltable to bond to said outer layer and maintain said outer layer in a wrapped, tubular configuration.
A common rail fuel injection system for a multicylinder internal combustion piston engine, comprising a low-pressure pump configured to supply fuel to each one of high-pressure pumps in the system, characterized by at least two fuel injectors, wherein each one of the injectors is provided with a first accumulator space within the body of the injector, a fuel supply line arranged in flow communication with each one of the first accumulator spaces, at least two high-pressure pump units, wherein a. each one of the high-pressure pump units comprises a high-pressure pump and a second accumulator space, the high-pressure fuel pump having its high-pressure outlet connected to the second accumulator space, b. the second accumulator spaces being in direct flow connection with each other, forming an array of second accumulator spaces such that the first one of the second accumulator spaces is at a first end (38.1) of the array and a last one of the second accumulator spaces is at a second end (38.2) of the array, and wherein the array of second accumulator spaces is in flow communication with the fuel supply line. a low-pressure pump configured to supply fuel to each one of high-pressure pumps in the system, characterized by at least two fuel injectors, wherein each one of the injectors is provided with a first accumulator space within the body of the injector, a fuel supply line arranged in flow communication with each one of the first accumulator spaces, at least two high-pressure pump units, wherein a. each one of the high-pressure pump units comprises a high-pressure pump and a second accumulator space, the high-pressure fuel pump having its high-pressure outlet connected to the second accumulator space, b. the second accumulator spaces being in direct flow connection with each other, forming an array of second accumulator spaces such that the first one of the second accumulator spaces is at a first end (38.1) of the array and a last one of the second accumulator spaces is at a second end (38.2) of the array, and a. each one of the high-pressure pump units comprises a high-pressure pump and a second accumulator space, the high-pressure fuel pump having its high-pressure outlet connected to the second accumulator space, b. the second accumulator spaces being in direct flow connection with each other, forming an array of second accumulator spaces such that the first one of the second accumulator spaces is at a first end (38.1) of the array and a last one of the second accumulator spaces is at a second end (38.2) of the array, and wherein the array of second accumulator spaces is in flow communication with the fuel supply line.
A method of controlling an air conditioner, the method comprising: operating the air conditioner in a strong wind mode; comparing an indoor fan motor driving voltage with a reference driving voltage of a rated air flow rate when an indoor fan motor RPM reaches a reference value of the strong wind mode; storing a current count value of a current indoor fan motor RPM as a reference count value when the indoor fan motor driving voltage is different from the reference indoor fan motor driving voltage of the rated air flow rate; changing into a driving condition setting mode and operating the air conditioner in an indoor fan-only mode; comparing an average indoor fan motor RPM with a target indoor fan motor RPM; comparing a current indoor fan motor RPM with a minimum indoor fan motor RPM when the average indoor fan motor RPM is less than the target indoor fan motor RPM based on the comparing of the average indoor fan motor RPM with the target indoor fan motor RPM; and setting the current state as the reference value of the rated air flow rate when the current indoor fan motor RPM is equal to the minimum indoor fan motor RPM based on the comparing of the current indoor fan motor RPM with the minimum indoor fan motor RPM. operating the air conditioner in a strong wind mode; comparing an indoor fan motor driving voltage with a reference driving voltage of a rated air flow rate when an indoor fan motor RPM reaches a reference value of the strong wind mode; storing a current count value of a current indoor fan motor RPM as a reference count value when the indoor fan motor driving voltage is different from the reference indoor fan motor driving voltage of the rated air flow rate; changing into a driving condition setting mode and operating the air conditioner in an indoor fan-only mode; comparing an average indoor fan motor RPM with a target indoor fan motor RPM; comparing a current indoor fan motor RPM with a minimum indoor fan motor RPM when the average indoor fan motor RPM is less than the target indoor fan motor RPM based on the comparing of the average indoor fan motor RPM with the target indoor fan motor RPM; and setting the current state as the reference value of the rated air flow rate when the current indoor fan motor RPM is equal to the minimum indoor fan motor RPM based on the comparing of the current indoor fan motor RPM with the minimum indoor fan motor RPM.
A system comprising: a. a urinary tract catheter (112, 114) comprising a drainage lumen and being configured to be deployed into a patient such that flow of urine from the ureter and/or kidney is transported within the drainage lumen of the urinary tract catheter (1 12, 114); b. a negative pressure source, in particular a pump, being in fluid communication with the drainage lumen of the urinary catheter (112, 114) and being configured to induce a negative pressure in a ureter and/or kidney of the patient to draw fluid through the drainage lumen of the urinary tract catheter (1 12, 114); c. and a weight measuring device being configured to periodically measure the weight of a patient; wherein the application of the negative pressure is ceased if the measured weight of the patient is less than a predetermined threshold value. a. a urinary tract catheter (112, 114) comprising a drainage lumen and being configured to be deployed into a patient such that flow of urine from the ureter and/or kidney is transported within the drainage lumen of the urinary tract catheter (1 12, 114); b. a negative pressure source, in particular a pump, being in fluid communication with the drainage lumen of the urinary catheter (112, 114) and being configured to induce a negative pressure in a ureter and/or kidney of the patient to draw fluid through the drainage lumen of the urinary tract catheter (1 12, 114); c. and a weight measuring device being configured to periodically measure the weight of a patient; wherein the application of the negative pressure is ceased if the measured weight of the patient is less than a predetermined threshold value.