mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a multiphase electromagnetic machine, the method comprising: determining, using processing equipment, a desired electromagnetic force between a translator (120, 220, 360, 460) and a stator (110, 210, 302, 450) of the electromagnetic machine, wherein the translator is configured to translate relative to a stator, and wherein the stator comprises a plurality of windings (311, 313, 315, 317, 319, 321, 323, 325, 327, 329) forming a plurality of phases (310, 320, 330, 420, 422, 424, 426, 428, 430, 432, 434, 436, 438, 440, 442, 444, 446, 448, 610, 620, 630); characterized by: determining, using the processing equipment, a least norm solution for a set of current values applied to each of the phases, respectively, based at least in part on: the desired electromagnetic force; at least one objective function, including an objective function comprising a sum of ohmic losses for the set of current values; and at least one constraint, including a constraint that a sum of electromotive forces for the set of current values is equal to the desired electromagnetic force. determining, using processing equipment, a desired electromagnetic force between a translator (120, 220, 360, 460) and a stator (110, 210, 302, 450) of the electromagnetic machine, wherein the translator is configured to translate relative to a stator, and wherein the stator comprises a plurality of windings (311, 313, 315, 317, 319, 321, 323, 325, 327, 329) forming a plurality of phases (310, 320, 330, 420, 422, 424, 426, 428, 430, 432, 434, 436, 438, 440, 442, 444, 446, 448, 610, 620, 630); characterized by: determining, using the processing equipment, a least norm solution for a set of current values applied to each of the phases, respectively, based at least in part on: the desired electromagnetic force; at least one objective function, including an objective function comprising a sum of ohmic losses for the set of current values; and at least one constraint, including a constraint that a sum of electromotive forces for the set of current values is equal to the desired electromagnetic force. the desired electromagnetic force; at least one objective function, including an objective function comprising a sum of ohmic losses for the set of current values; and at least one constraint, including a constraint that a sum of electromotive forces for the set of current values is equal to the desired electromagnetic force.
A sealing arrangement for a pump shaft, comprising a restrictor section arranged along the shaft, a seal arranged on the shaft between a sealing chamber and a low-pressure chamber, a restrictor leakage line leading from the sealing chamber to the exterior, and a seal leakage line leading from the low-pressure chamber to the exterior, characterized in that the restrictor section separates a high-pressure chamber of the pump from the sealing chamber, and in that a section of the seal leakage line runs through the interior of the restrictor leakage line.
A method, performed by a source node, for beam-level mobility load balancing, MLB, in a radio access network, RAN, the method comprising: exchanging beam-level load information with one or more target nodes in the RAN; based on the beam-level load information, selecting one or more particular target beams, associated with a particular target node, for MLB operations with a particular source beam associated with the source node; and transmitting, to the particular target node, a request including one or more first handover offsets to be applied during MLB operations between: a group of one or more source beams associated with the source node, including the particular source beam; and a group of one or more target beams associated with the particular target node, including the selected target beams. exchanging beam-level load information with one or more target nodes in the RAN; based on the beam-level load information, selecting one or more particular target beams, associated with a particular target node, for MLB operations with a particular source beam associated with the source node; and transmitting, to the particular target node, a request including one or more first handover offsets to be applied during MLB operations between: a group of one or more source beams associated with the source node, including the particular source beam; and a group of one or more target beams associated with the particular target node, including the selected target beams. a group of one or more source beams associated with the source node, including the particular source beam; and a group of one or more target beams associated with the particular target node, including the selected target beams.
A pressure regulator valve comprising: a housing including a base including a valve passage through which a working gas flows, a tubular body attached to the base, and a cover attached to the base so as to cover the body; a valve element configured to open and close the valve passage by moving between a closed position where the valve element closes the valve passage and an open position where the valve element opens the valve passage, the valve element being further configured to reduce a primary pressure to a secondary pressure and receive the secondary pressure by which the valve element moves toward the closed position; a biasing unit accommodated in an accommodating space formed between the body and the cover, the biasing unit being configured to bias the valve element such that the valve element moves toward the open position; and a first sealing member provided at a gap between the base and the body to seal the valve passage; characterised by a second sealing member provided at a seal accommodating space between the base and the cover and made of synthetic rubber, wherein the second sealing member is arranged away from the body. a housing including a base including a valve passage through which a working gas flows, a tubular body attached to the base, and a cover attached to the base so as to cover the body; a base including a valve passage through which a working gas flows, a tubular body attached to the base, and a cover attached to the base so as to cover the body; a valve element configured to open and close the valve passage by moving between a closed position where the valve element closes the valve passage and an open position where the valve element opens the valve passage, the valve element being further configured to reduce a primary pressure to a secondary pressure and receive the secondary pressure by which the valve element moves toward the closed position; a biasing unit accommodated in an accommodating space formed between the body and the cover, the biasing unit being configured to bias the valve element such that the valve element moves toward the open position; and a first sealing member provided at a gap between the base and the body to seal the valve passage; characterised by a second sealing member provided at a seal accommodating space between the base and the cover and made of synthetic rubber, wherein the second sealing member is arranged away from the body.
A throttle valve, intended to be used in a piping for transporting a fluid under high pressure called HP or under extreme pressure called EP, comprising at least one valve body having a cylindrical shape provided with a cylindrical central recess in which a substantially circular shutter plate extends, said shutter plate being pivotally mounted around an axis extending vertically and parallel to a diameter of the valve body, said axis protruding from the upper end of said valve body to form a so-called actuating axis, said throttle valve further comprising a metallic part having the form of a frame, said part forming a neck of the valve, comprising a lower branch provided with a passage for the actuating axis, an upper branch forming a fastening flange for an actuating member and provided with an aperture from which said actuating axis protrudes, and two lateral branches connecting the lower and upper branches, the upper end of the valve body comprising a flat surface extending perpendicular to the axis, said throttle valve being characterized in that said metallic part is in the shape of a substantially parallelepipedic frame and in that the lower branch of said part having the form of a frame is secured to said flat surface. the upper end of the valve body comprising a flat surface extending perpendicular to the axis, said throttle valve being characterized in that said metallic part is in the shape of a substantially parallelepipedic frame and in that the lower branch of said part having the form of a frame is secured to said flat surface.
A lighting device for determining and conveying an intelligibility of an audio signal, wherein the audio signal comprises a plurality of occurrences of a repeating audio feature, wherein each occurrence of the repeating audio feature comprises a respective value of an acoustic characteristic, wherein the lighting device comprises: - a light source; - a microphone for detecting the audio signal; - a processor configured to: receive the audio signal from the microphone, determine a baseline value based on said audio signal, determine a positive intelligibility of the audio signal if the last occurrence of the repeating audio feature comprises a respective value of the acoustic characteristic being at least equal to the baseline value, or determine a negative intelligibility of the audio signal if the last occurrence of the repeating audio feature comprises a respective value of the acoustic characteristic being less than the baseline value, and control the light source to convey the determined positive and/or negative intelligibility of the audio signal via a lighting characteristic. - a light source; - a microphone for detecting the audio signal; - a processor configured to: receive the audio signal from the microphone, determine a baseline value based on said audio signal, determine a positive intelligibility of the audio signal if the last occurrence of the repeating audio feature comprises a respective value of the acoustic characteristic being at least equal to the baseline value, or determine a negative intelligibility of the audio signal if the last occurrence of the repeating audio feature comprises a respective value of the acoustic characteristic being less than the baseline value, and control the light source to convey the determined positive and/or negative intelligibility of the audio signal via a lighting characteristic. receive the audio signal from the microphone, determine a baseline value based on said audio signal, determine a positive intelligibility of the audio signal if the last occurrence of the repeating audio feature comprises a respective value of the acoustic characteristic being at least equal to the baseline value, or determine a negative intelligibility of the audio signal if the last occurrence of the repeating audio feature comprises a respective value of the acoustic characteristic being less than the baseline value, and control the light source to convey the determined positive and/or negative intelligibility of the audio signal via a lighting characteristic.
A method of lubricating a limited slip differential comprising supplying to the limited slip differential a lubricating composition comprising (a) an N-substituted malimide, and (b) an oil of lubricating viscosity, wherein the N-substituted malimide is present in an amount in the range of 0.1 wt% to 5 wt % of the lubricating composition.
A method of reducing NO X emissions in a rotary preheater limestone kiln having a feed zone located directly above a preheat zone which communicates with an upper end of a calcining zone and a cooling and discharge zone, the method comprising the steps of: feeding a supply of limestone to the feed zone; moving the limestone through the preheat zone having a preheat temperature range, to the upper end of the calcining zone where the limestone is heated to a temperature and for a time sufficient to convert the limestone to quicklime; introducing a source of ammonia or an ammonia precursor at a point where the temperature in the kiln is within an optimum temperature range to obtain maximum NO x reduction with minimum NH 3 slip; said predetermined optimum temperature point being a point between the preheat zone and a primary region of the calcining zone where the combustion gases from the calcining zone go into the preheater zone to heat up the limestone feed, the predetermined optimum temperature at that point being in the range from about 871 to 1204°C(1600 to 2200°F); injecting turbulent air at preselected point or points downstream of the preheat zone to reduce stratification of kiln gases and improve the energy efficiency of the kiln; and; passing the calcined limestone from the calcining zone to the cooling and discharge zone and discharging the resulting quicklime from the kiln. feeding a supply of limestone to the feed zone; moving the limestone through the preheat zone having a preheat temperature range, to the upper end of the calcining zone where the limestone is heated to a temperature and for a time sufficient to convert the limestone to quicklime; introducing a source of ammonia or an ammonia precursor at a point where the temperature in the kiln is within an optimum temperature range to obtain maximum NO x reduction with minimum NH 3 slip; said predetermined optimum temperature point being a point between the preheat zone and a primary region of the calcining zone where the combustion gases from the calcining zone go into the preheater zone to heat up the limestone feed, the predetermined optimum temperature at that point being in the range from about 871 to 1204°C(1600 to 2200°F); injecting turbulent air at preselected point or points downstream of the preheat zone to reduce stratification of kiln gases and improve the energy efficiency of the kiln; and; passing the calcined limestone from the calcining zone to the cooling and discharge zone and discharging the resulting quicklime from the kiln.
A control panel assembly comprising: at least one LED, L, connected to a circuit board for selectively emitting light; a switch connected to the circuit board and provided adjacent to the LED, L, for controlling a home appliance; a control panel provided in front of the LED, L, and having at least one first hole; and at least one elastic member coupled with an edge of the first hole for selectively coming into contact with the switch in response to a user pressing a button, wherein the elastic member is a single piece elastic member, wherein the single piece elastic member is a button with a pressing member and an elastic supporting member, the pressing member including a first light-transmitting part for transmitting therethrough light emitted from the LED, L, and the elastic supporting member extended outwardly from the edge of the pressing member and coupled with the edge of the first hole, wherein a protrusion selectively for coming into contact with the switch is provided at a bottom surface of the elastic member. at least one LED, L, connected to a circuit board for selectively emitting light; a switch connected to the circuit board and provided adjacent to the LED, L, for controlling a home appliance; a control panel provided in front of the LED, L, and having at least one first hole; and at least one elastic member coupled with an edge of the first hole for selectively coming into contact with the switch in response to a user pressing a button, wherein the elastic member is a single piece elastic member, wherein the single piece elastic member is a button with a pressing member and an elastic supporting member, the pressing member including a first light-transmitting part for transmitting therethrough light emitted from the LED, L, and the elastic supporting member extended outwardly from the edge of the pressing member and coupled with the edge of the first hole, wherein a protrusion selectively for coming into contact with the switch is provided at a bottom surface of the elastic member.
Use of a resin film for obtaining a glass plate-containing laminate in which the resin film is bonded to a glass plate, wherein the resin film comprises a thermoplastic resin and a plasticizer, a tensile elongation of the resin film at 25°C under a stress load of 50 N, as measured according to the method in the description, is 120 mm or more in a tensile test in accordance with JIS K7113 the thermoplastic resin is a polyvinyl butyral resin, the plasticizer is triethylene glycol di-2-ethylhexanoate, the content of the plasticizer which is triethylene glycol di-2-ethylhexanoate in the resin film is 20 parts by weight or more and 40 parts by weight or less relative to 100 parts by weight of the thermoplastic resin which is the polyvinyl butyral resin in the resin film, the glass transition temperature of the resin film, as measured according to the method in the description, is 10°C or more and 40°C or less, and the polyvinyl butyral resin is obtained through a mixing step of mixing polyvinyl alcohol and an butyraldehyde and an aging step of aging a resin obtained by the mixing step, wherein the aging step includes a heating step of heating the resin obtained by the mixing step to an aging temperature and a cooling step of cooling the resin after the heating step, the cooling being started without holding the temperature of the contents after heating at a temperature of the aging temperature ±5°C for 60 minutes or more, the aging temperature being 50°C or more and 60°C or less. wherein the resin film comprises a thermoplastic resin and a plasticizer, a tensile elongation of the resin film at 25°C under a stress load of 50 N, as measured according to the method in the description, is 120 mm or more in a tensile test in accordance with JIS K7113 the thermoplastic resin is a polyvinyl butyral resin, the plasticizer is triethylene glycol di-2-ethylhexanoate, the content of the plasticizer which is triethylene glycol di-2-ethylhexanoate in the resin film is 20 parts by weight or more and 40 parts by weight or less relative to 100 parts by weight of the thermoplastic resin which is the polyvinyl butyral resin in the resin film, the glass transition temperature of the resin film, as measured according to the method in the description, is 10°C or more and 40°C or less, and the polyvinyl butyral resin is obtained through a mixing step of mixing polyvinyl alcohol and an butyraldehyde and an aging step of aging a resin obtained by the mixing step,
A process for preparing a granular ceramic mixture, wherein the process comprises the steps of: (a) contacting fluid bed combustion fly ash with an acidic aqueous solution to obtain an acidic fluid bed combustion fly ash slurry; (b) removing excess acid from the slurry obtained in step (a) to obtain solid acid treated fluid bed combustion fly ash; (c) contacting together: (i) the solid acid treated fluid bed combustion fly ash obtained in step (b); (ii) clay; (iii) optionally, feldspar; and (iv) optionally, other ingredients. to form the granular ceramic mixture. (a) contacting fluid bed combustion fly ash with an acidic aqueous solution to obtain an acidic fluid bed combustion fly ash slurry; (b) removing excess acid from the slurry obtained in step (a) to obtain solid acid treated fluid bed combustion fly ash; (c) contacting together: (i) the solid acid treated fluid bed combustion fly ash obtained in step (b); (ii) clay; (iii) optionally, feldspar; and (iv) optionally, other ingredients. (i) the solid acid treated fluid bed combustion fly ash obtained in step (b); (ii) clay; (iii) optionally, feldspar; and (iv) optionally, other ingredients.
A method for rinsing and/or for filling a blood treatment device, in particular for priming a blood treatment device, wherein the blood treatment device includes at least one membrane filter, in particular a hollow fiber membrane filter, at least one first partial circuit and at least one second partial circuit, wherein the first and the second partial circuit are separated by the membrane filter in a semipermeable manner, wherein the first partial circuit is the dialysis circuit and the second partial circuit is the extracorporeal blood circuit, wherein the first partial circuit is first filled, while the second partial circuit is still empty, characterized in that the second partial circuit is at least temporarily open towards the atmosphere or a vacuum is produced in the same, and wherein air is displaced from the first and into the second partial circuit via the membrane of the membrane filter.
A method for manufacturing an acoustic absorbent panel, comprising the following steps: - provision of a sheet of plastic material, - formation of a plurality of through-slots with a width of between 0.2 and 0.4 mm in the sheet by milling using a plurality of milling tools by: ∘ fixation of the sheet in plastic material to a means for holding, the means for holding being a panel provided with a plurality of slots at the corresponding points where slots have to be formed in the sheet, ∘ translation of the means for holding according to a first direction and a second direction, which are different. - provision of a sheet of plastic material, - formation of a plurality of through-slots with a width of between 0.2 and 0.4 mm in the sheet by milling using a plurality of milling tools by: ∘ fixation of the sheet in plastic material to a means for holding, the means for holding being a panel provided with a plurality of slots at the corresponding points where slots have to be formed in the sheet, ∘ translation of the means for holding according to a first direction and a second direction, which are different. ∘ fixation of the sheet in plastic material to a means for holding, the means for holding being a panel provided with a plurality of slots at the corresponding points where slots have to be formed in the sheet, ∘ translation of the means for holding according to a first direction and a second direction, which are different.