mhurhangee/ep-ind-claims huggingface dataset:
Method for generating power in a power generation plant comprising a gas turbine, in which method: in a first step, a gas containing air is compressed in a first compressor (2, 2a) of the gas turbine; in a second step, the compressed gas (3, 3a) is supplied to a combustion chamber with the addition of fuel for combustion; in a third step, the hot flue gas from the combustion chamber is expanded in an expansion part or a turbine of the gas turbine driving a generator to perform work; and in a fourth step, a partial flow of the expanded flue gas is returned to the inlet of the first compressor (2, 2a) and mixed with the gas containing air; in which method, before the second step, carbon dioxide (CO 2) is separated from the compressed gas (3a, 3b) in a CO 2 separator, characterised in that to allow increased CO 2 concentrations in the CO 2 separator, no more than around 70% of the carbon dioxide contained in the compressed gas (3a, 3b) is removed from the compressed gas (3a, 3b); the entire flow of the compressed gas (3a, 3b) is divided into a larger and a smaller partial flow (3a, 3b), and only the smaller partial flow is conducted through the CO 2 separator and there more than 50% of the carbon dioxide contained in the compressed gas is removed from the compressed gas; wherein the compressed gas leaving the CO 2 separator is conducted to the combustion chamber. in a first step, a gas containing air is compressed in a first compressor (2, 2a) of the gas turbine; in a second step, the compressed gas (3, 3a) is supplied to a combustion chamber with the addition of fuel for combustion; in a third step, the hot flue gas from the combustion chamber is expanded in an expansion part or a turbine of the gas turbine driving a generator to perform work; and in a fourth step, a partial flow of the expanded flue gas is returned to the inlet of the first compressor (2, 2a) and mixed with the gas containing air; in which method, before the second step, carbon dioxide (CO 2) is separated from the compressed gas (3a, 3b) in a CO 2 separator, characterised in that to allow increased CO 2 concentrations in the CO 2 separator, no more than around 70% of the carbon dioxide contained in the compressed gas (3a, 3b) is removed from the compressed gas (3a, 3b); the entire flow of the compressed gas (3a, 3b) is divided into a larger and a smaller partial flow (3a, 3b), and only the smaller partial flow is conducted through the CO 2 separator and there more than 50% of the carbon dioxide contained in the compressed gas is removed from the compressed gas; wherein the compressed gas leaving the CO 2 separator is conducted to the combustion chamber.
Exhaust system comprising an exhaust pipe which is designed for conducting an exhaust gas and comprising a dosing device for dosing a liquid or gaseous reagent into the exhaust pipe, wherein the exhaust pipe has a receiving section for receiving the dosing device, and an exhaust-gas-side surface of the receiving section and an exhaust-gas-side end surface of the dosing device terminate flush with one another, and wherein the dosing device has a spray hole disc, and the exhaust-gas-side end surface of the dosing device is formed at least partially by the spray hole disc, characterized in that an injection axis of the dosing device is oriented parallel to a main flow axis of the exhaust pipe.
A cobalt-nickel base alloy, consisting of, in weight percent: greater than 4% to 6% of Al, 10 to 20% of W, 10 to 35% Ni, 5 to 20% Cr and 0.01 to 1% of Si, less than 5 ppm by weight of S, and optionally 0.001 to 2.0%, by weight of an element selected from the group consisting of B, C, Y, Sc, a lanthanide, misch metal, and combinations thereof, up to 10% Mo, up to 10% Re or Ru or combination thereof, up to 10% Ti, up to 10% Nb, up to 3% Zr, up to 5% V, up to 15% Ta, up to 3% Hf, and the balance Co and incidental impurities, wherein the total amount of Ti, Nb, Zr, V, Ta and Hf is from 0% to 15%, the alloy having a microstructure that is free of a CoAl phase having a B2 crystal structure and configured to form a continuous, adherent aluminum oxide layer on an alloy surface upon exposure to a high-temperature oxidizing environment; wherein the alloy microstructure further comprises a solid-solution gamma phase matrix and a plurality of dispersed gamma prime precipitates, wherein the gamma prime phase precipitates comprise [(Co,Ni) 3 (Al,W)] and have an L1 2 crystal structure.
A method for controlling a maximum allowed speed of an autonomous vehicle, wherein the autonomous vehicle comprises at least one object detection sensor which is configured to detect objects around the vehicle, such as ahead of the vehicle, when the vehicle is driving autonomously, and wherein the at least one object detection sensor is configured to utilize at least two different sensor performance levels, wherein each sensor performance level is associated with a maximum allowed speed for the autonomous vehicle, the method comprising: - utilizing a first sensor performance level during driving where the vehicle is allowed to drive with a first maximum allowed speed, - while utilizing the first sensor performance level, simultaneously evaluating at least a second sensor performance level which is associated with a second maximum allowed speed which is higher than the first maximum allowed speed and which is a less restrictive sensor performance level, wherein a less restrictive sensor performance level is a sensor performance level with a higher probability of false positive object detections, wherein evaluating the second sensor performance level comprises monitoring a rate of false positive object detections for the second sensor performance level, - when the rate of false positive object detections for the second sensor performance level is below a first false positive error threshold, utilizing a less restrictive sensor performance level which is associated with a higher maximum allowed speed, thereby increasing the maximum allowed speed from the first maximum allowed speed to a speed which is equal to or below the second maximum allowed speed. - utilizing a first sensor performance level during driving where the vehicle is allowed to drive with a first maximum allowed speed, - while utilizing the first sensor performance level, simultaneously evaluating at least a second sensor performance level which is associated with a second maximum allowed speed which is higher than the first maximum allowed speed and which is a less restrictive sensor performance level, wherein a less restrictive sensor performance level is a sensor performance level with a higher probability of false positive object detections, wherein evaluating the second sensor performance level comprises monitoring a rate of false positive object detections for the second sensor performance level, - when the rate of false positive object detections for the second sensor performance level is below a first false positive error threshold, utilizing a less restrictive sensor performance level which is associated with a higher maximum allowed speed, thereby increasing the maximum allowed speed from the first maximum allowed speed to a speed which is equal to or below the second maximum allowed speed.
A hanger (1206, 1208, 1210) configured to support a power bar (502A, 502B) of a lighting system, the power bar (502A, 502B) including two rails arranged and constructed to deliver power to pendants (402, 404, 406, 408, 410, 412, 414, 416, 418), said hanger (1206, 1208, 1210) comprising: a body (1230A, 1230B, 1210A, 1210B, 1250A, 1250B) having a base, a first arm that extends in a first direction directly from the base, and a second arm that is spaced from the first arm and extends in the first direction directly from the base; a top (1250, 1266) positioned above said body (1230A, 1230B, 1210A, 1210B, 1250A, 1250B); and a rod (1232A, 1232B, 1210C) attached to and extending upwardly from said top (1250, 1266); wherein said body (1230A, 1230B, 1210A, 1210B, 1250A, 1250B) further has a center piece that extends directly from the base in the first direction, is arranged between the first arm and the second arm, and forms with the first arm and the second arm two cavities, each of the cavities being configured to receive one of the respective rails of the power bar (502A, 502B) and being covered by said top (1250, 1262), characterized in that said rod (1232A, 1232B, 1210C) includes a first end connected to said top and a second end, said body (1230A, 1230B, 1210A, 1210B) being defined by a first cylindrical member (1230A, 1210A) and said hanger (1206, 1208, 1210) further comprising a second cylindrical member (1230B, 1210B) to which said second end is attached and that is configured to engage a second power bar being part of said lighting system. a body (1230A, 1230B, 1210A, 1210B, 1250A, 1250B) having a base, a first arm that extends in a first direction directly from the base, and a second arm that is spaced from the first arm and extends in the first direction directly from the base; a top (1250, 1266) positioned above said body (1230A, 1230B, 1210A, 1210B, 1250A, 1250B); and a rod (1232A, 1232B, 1210C) attached to and extending upwardly from said top (1250, 1266); wherein said body (1230A, 1230B, 1210A, 1210B, 1250A, 1250B) further has a center piece that extends directly from the base in the first direction, is arranged between the first arm and the second arm, and forms with the first arm and the second arm two cavities, each of the cavities being configured to receive one of the respective rails of the power bar (502A, 502B) and being covered by said top (1250, 1262), characterized in that said rod (1232A, 1232B, 1210C) includes a first end connected to said top and a second end, said body (1230A, 1230B, 1210A, 1210B) being defined by a first cylindrical member (1230A, 1210A) and said hanger (1206, 1208, 1210) further comprising a second cylindrical member (1230B, 1210B) to which said second end is attached and that is configured to engage a second power bar being part of said lighting system.
A system for adjusting an angle of a paravane (205, 305, 405, 505, 605) relative to a marine survey vessel (218, 318, 418), wherein the angle defines a "bridle bite" and the survey vessel is configured to tow objects (220, 320, 420) that are coupled to a spreader line (207, 307, 407), the system comprising: a paravane (205, 305, 405, 505, 605); a lever arm (219, 319, 419, 519, 619) coupled to the paravane (205, 305, 405, 505, 605) and having first and second ends; a tow rope (201, 301, 401, 501, 601) coupled to the first end of the lever arm (219, 319, 419, 519, 619); a spur line (211, 311, 411, 511, 611) coupled to the second end of the lever arm (219, 319, 419, 519, 619) and also arranged to be coupled to the spreader line (207, 307, 407); and a winch onboard the survey vessel (218, 318, 418) and coupled to the tow rope (201, 301, 401, 501, 601) and configured to adjust a deployed length of the tow rope (201, 301, 401, 501, 601), wherein the tow rope (201, 301, 401, 501, 601) and the lever arm (219, 319, 419, 519, 619) are configured to adjust the bridle bite of the paravane (205, 305, 405, 505, 605) when the deployed length of the tow rope (201, 301, 401, 501, 601) is adjusted by the winch. a paravane (205, 305, 405, 505, 605); a lever arm (219, 319, 419, 519, 619) coupled to the paravane (205, 305, 405, 505, 605) and having first and second ends; a tow rope (201, 301, 401, 501, 601) coupled to the first end of the lever arm (219, 319, 419, 519, 619); a spur line (211, 311, 411, 511, 611) coupled to the second end of the lever arm (219, 319, 419, 519, 619) and also arranged to be coupled to the spreader line (207, 307, 407); and a winch onboard the survey vessel (218, 318, 418) and coupled to the tow rope (201, 301, 401, 501, 601) and configured to adjust a deployed length of the tow rope (201, 301, 401, 501, 601), wherein the tow rope (201, 301, 401, 501, 601) and the lever arm (219, 319, 419, 519, 619) are configured to adjust the bridle bite of the paravane (205, 305, 405, 505, 605) when the deployed length of the tow rope (201, 301, 401, 501, 601) is adjusted by the winch.
A test strip fixation device - being configured to be used in a method for determining a concentration of an analyte in a bodily fluid by using a mobile device having a camera, said method comprising capturing by the camera at least one image containing at least a part of an optical test strip and at least a part of said test strip fixation device, the optical test strip having a sample of the bodily fluid applied onto a reagent test region of the optical test strip, wherein the image comprises at least a part of the reagent test region having the sample of the bodily fluid applied thereto, and wherein the image comprises at least a part of a top surface of the test strip fixation device; said test strip fixation device comprising a) an essentially planar shape; b) a cut-out portion; c) a top surface comprising a plurality of color reference fields (112, 114, 148, 150, 152, 154) having known reference color values, including grey reference fields (114, 150) which are locally, and in particular symmetrically, arranged around the cut-out portion and around at least some of the non-grey color reference fields (112, 148, 152, 154); and comprising position detection code elements; d) a bottom surface comprising a fixation element (170, 172, 174) for detachable connection of the optical test strip relative to said test strip fixation device, and adapted to facilitate alignment of the reagent test region with the cut-out portion. - being configured to be used in a method for determining a concentration of an analyte in a bodily fluid by using a mobile device having a camera, said method comprising capturing by the camera at least one image containing at least a part of an optical test strip and at least a part of said test strip fixation device, the optical test strip having a sample of the bodily fluid applied onto a reagent test region of the optical test strip, wherein the image comprises at least a part of the reagent test region having the sample of the bodily fluid applied thereto, and wherein the image comprises at least a part of a top surface of the test strip fixation device; a) an essentially planar shape; b) a cut-out portion; c) a top surface comprising a plurality of color reference fields (112, 114, 148, 150, 152, 154) having known reference color values, including grey reference fields (114, 150) which are locally, and in particular symmetrically, arranged around the cut-out portion and around at least some of the non-grey color reference fields (112, 148, 152, 154); and comprising position detection code elements; d) a bottom surface comprising a fixation element (170, 172, 174) for detachable connection of the optical test strip relative to said test strip fixation device, and adapted to facilitate alignment of the reagent test region with the cut-out portion.
A salt of a compound of the formula in which R 1 stands for methyl, ethyl, butyl or cyclopropylmethyl, R 2 stands for phenyl, where phenyl is substituted with a substituent selected from the group consisting of trifluoromethoxy and difluoromethoxy, and R 3 stands for hydrogen, methyl, chlorine, methoxy or trifluoromethyl, with methanesulfonic acid. R 1 stands for methyl, ethyl, butyl or cyclopropylmethyl, R 2 stands for phenyl, where phenyl is substituted with a substituent selected from the group consisting of trifluoromethoxy and difluoromethoxy, and R 3 stands for hydrogen, methyl, chlorine, methoxy or trifluoromethyl,
A separator for an electric current producing cell, wherein said separator comprises a microporous layer comprising: (a) at least 50% by weight of an aluminum oxide; and (b) an organic polymer, wherein said aluminum oxide is surface modified by treatment with a sulfonic acid to form a modified aluminum oxide. (a) at least 50% by weight of an aluminum oxide; and (b) an organic polymer,
An automatic milking arrangement comprising apparatus for use in milking an animal, and a self-driven device with a remote controlled guidance system for taking the apparatus to a milking location where an animal to be milked is located, the apparatus comprising milking equipment including one or more teat cups, a connecting means for connecting the teat cup(s) to the udder of the animal, and a first coupling arrangement which is automatically engageable with a complementary second coupling arrangement provided at the milking location thereby to connect the apparatus to at least one line used by the apparatus in the course of milking the animal.
A back pack for an underwater breathing gas tank comprising: a tank mounting structure having a front surface facing away from an underwater breathing gas tank when an underwater breathing gas tank is operably mounted to the tank mounting structure, the tank mounting structure defining a recess, the front surface defining an opening of the recess, the tank mounting structure defining a bottom surface of the recess opposite the opening in the front surface; a strap; a buckle having a latched state for securing the strap in a fixed position for securing a underwater breathing gas tank to the tank mounting structure, the buckle, when in a latched state, positioned at least partially within the recess, characterized in that the tank mounting structure includes a first mounting plate defining, at least in part, the recess and a second mounting plate defining at least in part, the bottom of the recess opposite the opening in the front surface. a tank mounting structure having a front surface facing away from an underwater breathing gas tank when an underwater breathing gas tank is operably mounted to the tank mounting structure, the tank mounting structure defining a recess, the front surface defining an opening of the recess, the tank mounting structure defining a bottom surface of the recess opposite the opening in the front surface; a strap; a buckle having a latched state for securing the strap in a fixed position for securing a underwater breathing gas tank to the tank mounting structure, the buckle, when in a latched state, positioned at least partially within the recess,
Hair-cutting device having - a housing extending in a longitudinal direction (x); - a cutter head with a cutting device, said cutting device being aligned in a main direction of extension (y); - a light source arranged in the interior of the housing; and - a light guide having an input area and an output area respectively for light from the light source and set up to pass the light from the input area to the output area and direct it onto the cutter head, said light guide being arranged in the interior of the housing such that said output area is arrangeable in optical communication with the cutting device, wherein said output area has a convexity such that at least a certain proportion of the light is focusable onto the cutting device. - a housing extending in a longitudinal direction (x); - a cutter head with a cutting device, said cutting device being aligned in a main direction of extension (y); - a light source arranged in the interior of the housing; and - a light guide having an input area and an output area respectively for light from the light source and set up to pass the light from the input area to the output area and direct it onto the cutter head, said light guide being arranged in the interior of the housing such that said output area is arrangeable in optical communication with the cutting device, wherein said output area has a convexity such that at least a certain proportion of the light is focusable onto the cutting device.
A timepiece component designed to constitute a part of a timepiece, comprising: a base material (11a to 11d) formed using a nonconductive first material as a main component; an intermediate film (51a to 51d) provided on at least a portion of a surface of the base material (11a to 11d); and a buffer film (21a to 21d) stacked on the intermediate film (51a to 51d) and mainly composed of a second material having a tenacity higher than that of the first material, wherein said second material is a resin, and wherein the first material is silicon. a base material (11a to 11d) formed using a nonconductive first material as a main component; an intermediate film (51a to 51d) provided on at least a portion of a surface of the base material (11a to 11d); and a buffer film (21a to 21d) stacked on the intermediate film (51a to 51d) and mainly composed of a second material having a tenacity higher than that of the first material, wherein said second material is a resin, and wherein
An elevator, comprising at least an elevator car configured to move reciprocally in an elevator hoistway and at least one or more counterweights or compensating weights (2a, 2b), which are for their part connected to support the elevator car by the aid of at least one support member, such as by the aid of a rope or a belt, and also by the aid of diverting pulleys, and a hoisting machine provided with at least one traction sheave or corresponding, and also at least one or more traction members (7a, 7b), such as a belt, a rope or a chain, which are configured to transmit the rotational movement of the traction sheave into movement of the elevator car guided by the guide rails and of the one or more counterweights or compensating weights (2a, 2b) guided by the counterweight guide rails or compensating weight guide rails, wherein there is an apparatus for fixing the hoisting machine of the elevator, comprising a machine station, the latter comprising at least fixing points and means for disposing the traction sheave of the elevator, the motor and the diverting pulleys of the traction members (7a, 7b) into their position in relation to each other, wherein the apparatus comprises brackets for positioning the location of the guide rail of the elevator car and for fixing the machine station into its final position, thus being determined by the location position of the guide rails in the elevator hoistway, characterized in that for fixing the machine station to the brackets are fixing plates at both ends of the machine station, the outer end of which fixing plates has a first round fixing hole and a second elongated fixing hole, and in that when fixing the machine station to a bracket the round hole is configured to be situated at the point of the corresponding round hole in the bracket, which hole is disposed in such a way that the aforementioned hole in the bracket and the round hole function as a hinge point at the point of the center point of the cross-section of the traction member (7a, 7b) ascending to the compensating weight (2a, 2b).