mhurhangee/ep-ind-claims huggingface dataset:
An air conditioning apparatus, comprising: a unit main body; a heat exchanger (104, 204, 304, 404); and at least one blower fan (107, 207), wherein the heat exchanger (104, 204, 304, 404) is arranged on an upstream side of the blower fan (107, 207), wherein the blower fan (107, 207) comprises an impeller, a motor, and a fan casing (110, 210), wherein the impeller comprises a turbofan that sucks air from an upper portion thereof and blows out the air radially outward, wherein a rotation axis of the impeller is directed to a unit height direction, wherein the fan casing (110, 210) has a fan air inlet formed in an upper surface thereof, and has a fan air outlet formed in a lower surface thereof, and wherein an impeller air outlet of the impeller is covered by side surfaces of the fan casing (110, 210), wherein the impeller comprises a plurality of blades, a side plate having a ring shape, and a main plate, wherein the side plate is positioned on the fan air inlet side, and the main plate is positioned on the fan air outlet side, characterized in that an outer diameter (φDs) of the side plate is larger than an outer diameter (φDm) of the main plate, wherein the side surfaces of the fan casing (110, 210) comprise at least one flat surface, the fan casing comprises at least one chamfered portion, with reference to a rectangular shape of the fan casing in plane view, at a portion corresponding to a corner of the rectangular shape, and a space penetrating in a vertical direction is formed on the outside of the chamfered portion. a unit main body; a heat exchanger (104, 204, 304, 404); and at least one blower fan (107, 207), wherein the heat exchanger (104, 204, 304, 404) is arranged on an upstream side of the blower fan (107, 207), wherein the blower fan (107, 207) comprises an impeller, a motor, and a fan casing (110, 210), wherein the impeller comprises a turbofan that sucks air from an upper portion thereof and blows out the air radially outward, wherein a rotation axis of the impeller is directed to a unit height direction, wherein the fan casing (110, 210) has a fan air inlet formed in an upper surface thereof, and has a fan air outlet formed in a lower surface thereof, and wherein an impeller air outlet of the impeller is covered by side surfaces of the fan casing (110, 210), wherein the impeller comprises a plurality of blades, a side plate having a ring shape, and a main plate, wherein the side plate is positioned on the fan air inlet side, and the main plate is positioned on the fan air outlet side, characterized in that an outer diameter (φDs) of the side plate is larger than an outer diameter (φDm) of the main plate, wherein the side surfaces of the fan casing (110, 210) comprise at least one flat surface, the fan casing comprises at least one chamfered portion, with reference to a rectangular shape of the fan casing in plane view, at a portion corresponding to a corner of the rectangular shape, and a space penetrating in a vertical direction is formed on the outside of the chamfered portion.
A handheld infrared imager, comprising a battery module; wherein the battery module comprises a cell and a battery cover; a circumferential positioning hole or a circumferential positioning protrusion is provided at an end of the cell adjacent to the battery cover, a circumferential positioning protrusion or a circumferential positioning hole is correspondingly provided at a bottom of the battery cover, and the circumferential positioning protrusion and the circumferential positioning hole are engaged with each other to achieve relative circumferential positioning between the cell and the battery cover; and a longitudinal positioning protrusion or a longitudinal positioning groove is provided on an outer peripheral sidewall of the cell, a longitudinal positioning groove or a longitudinal positioning protrusion is correspondingly provided on a sidewall of the battery cover, and the longitudinal positioning protrusion and the longitudinal positioning groove are engaged with each other to achieve relative longitudinal positioning between the cell and the battery cover.
A gasket for formfitting the bottom part of a transition piece of a wind turbine, the gasket primarily manufactured in an elastomeric material and shaped as a hollow elongated body for surrounding at least a part of the pile structure, such as a pile for a monopile, a tripod, or a tetrapod, when mounted between the transition piece and the pile structure, such that the gasket stabilizes the position of the transition piece relative to the pile structure.
A method of forming a cutting element that includes a polycrystalline diamond table having at least one surface, the at least one surface comprising a plurality of voids in the diamond polycrystalline table, the method comprising: disposing a coating on the at least one surface of the polycrystalline diamond table, wherein disposing the coating fills at least some of the plurality of voids on the at least one surface, and wherein the coating comprises a layer of diamond nanoparticles disposed in a matrix; wherein each diamond nanoparticle is from about 1nm to about 200nm in diameter; wherein the matrix comprises nickel, tungsten, silicon, molybdenum, chromium, and/or alloys thereof; and wherein forming the polycrystalline diamond table of the cutting element prior to disposing the coating comprises: disposing a polycrystalline diamond material and a catalyst on a tungsten carbide substrate; sintering the tungsten carbide substrate, the catalyst, and the polycrystalline diamond material to form the polycrystalline diamond table of the cutting element having at least one surface; leaching the cutting element to form the plurality of voids on the at least one surface of the polycrystalline diamond table. disposing a coating on the at least one surface of the polycrystalline diamond table, wherein disposing the coating fills at least some of the plurality of voids on the at least one surface, and wherein the coating comprises a layer of diamond nanoparticles disposed in a matrix; wherein each diamond nanoparticle is from about 1nm to about 200nm in diameter; wherein the matrix comprises nickel, tungsten, silicon, molybdenum, chromium, and/or alloys thereof; and wherein forming the polycrystalline diamond table of the cutting element prior to disposing the coating comprises: disposing a polycrystalline diamond material and a catalyst on a tungsten carbide substrate; sintering the tungsten carbide substrate, the catalyst, and the polycrystalline diamond material to form the polycrystalline diamond table of the cutting element having at least one surface; leaching the cutting element to form the plurality of voids on the at least one surface of the polycrystalline diamond table. disposing a polycrystalline diamond material and a catalyst on a tungsten carbide substrate; sintering the tungsten carbide substrate, the catalyst, and the polycrystalline diamond material to form the polycrystalline diamond table of the cutting element having at least one surface; leaching the cutting element to form the plurality of voids on the at least one surface of the polycrystalline diamond table.
A flow multiplier system for use in an aircraft, the flow multiplier system comprising: a turbo-compressor including a compressor, a turbine, and a drive shaft coupled between the compressor and the turbine, the turbine having a turbine inlet and a turbine outlet, the compressor having a compressor inlet and a compressor outlet, the compressor outlet fluidly coupled to an ejector disposed in a gas turbine engine; a supply line fluidly coupling a compressed air tank to the turbine inlet; a valve coupled to the supply line to control a flow of the pressurized air from the compressed air tank to the turbine inlet; and a controller configured to, based on an input signal requesting to increase output power of the gas turbine engine, send a command signal to open the valve to enable the flow of the pressurized air from the compressed air tank to the turbine inlet, the turbine to drive the compressor to create high pressure air at the compressor outlet, the ejector to provide the high pressure air into the gas turbine engine to increase the output power of the gas turbine engine. a turbo-compressor including a compressor, a turbine, and a drive shaft coupled between the compressor and the turbine, the turbine having a turbine inlet and a turbine outlet, the compressor having a compressor inlet and a compressor outlet, the compressor outlet fluidly coupled to an ejector disposed in a gas turbine engine; a supply line fluidly coupling a compressed air tank to the turbine inlet; a valve coupled to the supply line to control a flow of the pressurized air from the compressed air tank to the turbine inlet; and a controller configured to, based on an input signal requesting to increase output power of the gas turbine engine, send a command signal to open the valve to enable the flow of the pressurized air from the compressed air tank to the turbine inlet, the turbine to drive the compressor to create high pressure air at the compressor outlet, the ejector to provide the high pressure air into the gas turbine engine to increase the output power of the gas turbine engine.
Method for the separate extraction of rice bran oil and rice bran wax with the following steps: a) an extraction step involving provision an extraction vessel containing rice bran and percolating supercritical CO 2 through the extraction vessel at an extraction pressure p1 within the range of 100 and 1000 bar and at an extraction temperature T1; b) a first separation step involving transferring the supercritical CO 2 and an extract comprising of oil and waxes from step a) to a first separation vessel and reducing the pressure to a first separation pressure p2 that is lower than the extraction pressure p1 to precipitate a first product comprising rice bran oil from supercritical CO 2; and c) a second separation step involving transferring supercritical CO 2 and remaining extract from step b) to a second separation vessel and reducing the pressure to a second separation pressure p3 that is lower than the first separation pressure p2 to precipitate a second product comprising rice bran wax from a gaseous CO 2, wherein the extraction temperature T1 for the extraction step a) is within the range of 55°C to 65°C, the first separation temperature T2 is within the range of 70°C to 80°C, and the second separation temperature T3 is within the range of 45°C to 55°C. a) an extraction step involving provision an extraction vessel containing rice bran and percolating supercritical CO 2 through the extraction vessel at an extraction pressure p1 within the range of 100 and 1000 bar and at an extraction temperature T1; b) a first separation step involving transferring the supercritical CO 2 and an extract comprising of oil and waxes from step a) to a first separation vessel and reducing the pressure to a first separation pressure p2 that is lower than the extraction pressure p1 to precipitate a first product comprising rice bran oil from supercritical CO 2; and c) a second separation step involving transferring supercritical CO 2 and remaining extract from step b) to a second separation vessel and reducing the pressure to a second separation pressure p3 that is lower than the first separation pressure p2 to precipitate a second product comprising rice bran wax from a gaseous CO 2, wherein the extraction temperature T1 for the extraction step a) is within the range of 55°C to 65°C, the first separation temperature T2 is within the range of 70°C to 80°C, and the second separation temperature T3 is within the range of 45°C to 55°C.
Integrated circuit (10, 80) comprising a plurality of N identical adjacent blocks which are indexed by an index j, a current block (Bj) being connected to a preceding block (Bj-1) and a subsequent block (Bj+1), each block comprising an identification circuit (Ij) comprising: - N ordered inputs indexed i (Ei(j)), connected to the N outputs of the preceding block (Bj-1) having the same index, and - N ordered outputs indexed i (Si(j)), connected to the N inputs of the following block (Bj+1) having the same index, and - wherein each input i (Ei(j)) for in≠N of the current block (Bj) is connected via an routing line indexed i (Li) to the output i+1 (Si+1 (j)) of the current block, - a last input N (EN(j)) of the current block (Bj) is not connected to any output of the current block, - a first output 1 (S1(j) of the current block (Bj) is not connected to any input of the current block, each block further comprising: - at least one connection pad and, - N logical ports indexed i (Pi), each logical port (Pi) comprising a first input (Pin1 (i)), a second input (Pin2(i)) and an output (Pout(i)), - N buses indexed i each comprising a line which extends over all of the N blocks, each bus being connected to the output (Pout(i)) of a single logical port (Pi), the coupling of the connection pad to the buses being carried out via the identification circuit and the logical ports so that: - all of the first inputs (Pin1(i)) of the logical ports (Pi) are connected to the connection pad, - each second input (Pin2(i)) of a logical port (Pi) is connected to a single routing line (Li) of the identification circuit. - N ordered inputs indexed i (Ei(j)), connected to the N outputs of the preceding block (Bj-1) having the same index, and - N ordered outputs indexed i (Si(j)), connected to the N inputs of the following block (Bj+1) having the same index, and - wherein each input i (Ei(j)) for in≠N of the current block (Bj) is connected via an routing line indexed i (Li) to the output i+1 (Si+1 (j)) of the current block, - a last input N (EN(j)) of the current block (Bj) is not connected to any output of the current block, - a first output 1 (S1(j) of the current block (Bj) is not connected to any input of the current block, - at least one connection pad and, - N logical ports indexed i (Pi), each logical port (Pi) comprising a first input (Pin1 (i)), a second input (Pin2(i)) and an output (Pout(i)), - N buses indexed i each comprising a line which extends over all of the N blocks, each bus being connected to the output (Pout(i)) of a single logical port (Pi), - all of the first inputs (Pin1(i)) of the logical ports (Pi) are connected to the connection pad, - each second input (Pin2(i)) of a logical port (Pi) is connected to a single routing line (Li) of the identification circuit.
A method performed by a wireless device for performing sounding reference signal, SRS, transmission, the method comprising: receiving in a radio resource control, RRC, message a definition of one or more SRS resource sets to be configured, comprising at least one SRS transmission setting; receiving in a downlink control information, DCI, an indication of a selected SRS resource set to use for a SRS transmission, from the one or more configured SRS resource sets; determining a precoding configuration for the SRS transmission based on the selected SRS resource set and the at least one SRS transmission setting wherein the determining a precoding configuration for the SRS transmission comprises determining whether codebook based precoding or non-codebook based precoding is to be applied; and transmitting a SRS according to the determined precoding configuration wherein the SRS transmission comprises precoding the SRS transmission based on the determined precoding configuration. receiving in a radio resource control, RRC, message a definition of one or more SRS resource sets to be configured, comprising at least one SRS transmission setting; receiving in a downlink control information, DCI, an indication of a selected SRS resource set to use for a SRS transmission, from the one or more configured SRS resource sets; determining a precoding configuration for the SRS transmission based on the selected SRS resource set and the at least one SRS transmission setting wherein the determining a precoding configuration for the SRS transmission comprises determining whether codebook based precoding or non-codebook based precoding is to be applied; and transmitting a SRS according to the determined precoding configuration wherein the SRS transmission comprises precoding the SRS transmission based on the determined precoding configuration.
A device for detecting an obstacle for a railway vehicle, including: - a detection bar intended to extend transversely to the vehicle and able to receive an impact with an obstacle, - at least one assembly for detecting an impact, supporting the detection bar and comprising: • a casing intended to be added onto the vehicle, • a lever secured to the detection bar and movable in rotation relatively to the casing around a first axis parallel to the detection bar, between a rest position and an actuation position, and • an elastic return member of the lever towards its rest position, and - a triggering device which may be actuated by the lever in the actuation position, and wherein the detection assembly comprises adjustment means, able to apply a pre-stress on the elastic member, characterized in that: - the elastic member is a helical compression spring extending in the direction of a second axis perpendicular to the first direction, between a first seat borne by the casing and a second seat borne by the lever, - the triggering device includes a contactor borne by one from among the lever or the casing and a triggering finger attached to the other one from among the lever or the casing, so that the contactor will come into contact with the triggering finger when the lever is in an actuation position. - a detection bar intended to extend transversely to the vehicle and able to receive an impact with an obstacle, - at least one assembly for detecting an impact, supporting the detection bar and comprising: • a casing intended to be added onto the vehicle, • a lever secured to the detection bar and movable in rotation relatively to the casing around a first axis parallel to the detection bar, between a rest position and an actuation position, and • an elastic return member of the lever towards its rest position, and • a casing intended to be added onto the vehicle, • a lever secured to the detection bar and movable in rotation relatively to the casing around a first axis parallel to the detection bar, between a rest position and an actuation position, and • an elastic return member of the lever towards its rest position, and - a triggering device which may be actuated by the lever in the actuation position, - the elastic member is a helical compression spring extending in the direction of a second axis perpendicular to the first direction, between a first seat borne by the casing and a second seat borne by the lever, - the triggering device includes a contactor borne by one from among the lever or the casing and a triggering finger attached to the other one from among the lever or the casing, so that the contactor will come into contact with the triggering finger when the lever is in an actuation position.
Arrangement with a structure fixed to a housing, a planet carrier mounted rotatably in the structure fixed to the housing, an oil bushing ring, a first means (119, 201) and a second means for contactless power transmission; wherein the oil bushing ring forms a lubricant-conducting connection between the structure fixed to the housing and the planet carrier; the structure fixed to the housing has the first means (119, 201); and characterized in that the oil bushing ring has the second means.
A sensor device comprising a piezoelectric transducer and a base member, wherein the piezoelectric transducer comprises a piezoelectric member with at least one excitation electrode (37, 38) connected to a first face thereof and having a thickness (h) between the first face and a second face, wherein the piezoelectric transducer is attached to a supporting face of the base member with the second face of the piezoelectric transducer adjacent the supporting face of the base member, characterized in that the base member comprises at least one acoustic wave reflecting tag distant from the piezo-electric member. wherein the piezoelectric transducer comprises a piezoelectric member with at least one excitation electrode (37, 38) connected to a first face thereof and having a thickness (h) between the first face and a second face, wherein the piezoelectric transducer is attached to a supporting face of the base member with the second face of the piezoelectric transducer adjacent the supporting face of the base member, characterized in that the base member comprises at least one acoustic wave reflecting tag distant from the piezo-electric member.
A mobile platform security apparatus, comprising: an authentication key creating module to create an individual authentication key for one of a plurality of functions of an application program; an authentication information storing module to store the authentication key of the function of the application program and an identifier of the application program; an authentication information registering module to register the authentication key of the function of the application program and the identifier of the application program as function parameters; and an authentication processing module to compare the identifier of a called application program and the authentication key of a called function of the called application program registered as the function parameters with the identifier of the called application program and the authentication key of the called function of the called application program stored in the authentication information storing module. an authentication key creating module to create an individual authentication key for one of a plurality of functions of an application program; an authentication information storing module to store the authentication key of the function of the application program and an identifier of the application program; an authentication information registering module to register the authentication key of the function of the application program and the identifier of the application program as function parameters; and an authentication processing module to compare the identifier of a called application program and the authentication key of a called function of the called application program registered as the function parameters with the identifier of the called application program and the authentication key of the called function of the called application program stored in the authentication information storing module.
A tetraalkylammonium tetra- or hexa-hydroxometallate of the formula (N(Alkyl) 4) y [M x], wherein M is a platinum; alkyl is an alkyl group selected from the group consisting of ethyl, propyl, isopropyl, n-butyl, isobutyl, tert.-butyl, n-pentyl, sec-pentyl, 3-pentyl, 2-methylbutyl, isopentyl, 3-methylbut-2-yl, 2-methyl-but-2-yl, neopentyl, n-hexyl, 3-methylpentyl, isohexyl, neohexyl, 2,3,-dimethylbutyl, or combinations thereof; Y is 2; and X is 4 or 6.
Diffusion grille for a jet of air, comprising: at least one insert which comprises lobes (108, 110; 110') for separating into two differently oriented streams (F2, F3) an air stream ejected through the grille, the lobes delimiting a thin and undulating trailing edge, characterised in that it further comprises two fins (8; 34, 322) arranged on either side of the insert (10; 10'), which fins define between them an orifice (O10; 30) for passage of the jet of air around the insert and which guide the jet of air in a predetermined direction (Δ).
An active compound combination comprising at least N-(5-chloro-2-isopropylbenzyl)-N-cyclopropyl-3-(difluoromethyl)-5-fluoro-1-methyl-1H-pyrazole-4-carboxamide or an agrochemically acceptable salt thereof, and at least one further active fungicidal compound B consisting of 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-3-methyl-1-(1H-1,2,4-triazol-1-yl)butan-2-ol. at least N-(5-chloro-2-isopropylbenzyl)-N-cyclopropyl-3-(difluoromethyl)-5-fluoro-1-methyl-1H-pyrazole-4-carboxamide or an agrochemically acceptable salt thereof, and at least one further active fungicidal compound B consisting of 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-3-methyl-1-(1H-1,2,4-triazol-1-yl)butan-2-ol.