mhurhangee/ep-ind-claims huggingface dataset:
A structure of driving member for variable valve of engine, wherein the engine comprises a crankcase, a cylinder block mounted on the crankcase, and a cylinder head mounted on the cylinder block, the cylinder head comprising an intake port, an intake valve, an exhaust port, and an exhaust valve, a camshaft base being arranged between the intake valve and the exhaust valve, the camshaft base comprising a camshaft that is driven by a timing chain, and an axle of an intake valve driving member and an axle of an exhaust valve driving member being mounted on the cylinder head, the camshaft comprising two intake cams (3361, 3362) and an exhaust cam that are respectively operable to push the intake valve driving member and the exhaust valve driving member, wherein the cams mounted on the camshaft are, in sequence, the first intake cam, the exhaust cam, and the second intake cam, the intake valve driving member comprising a first driving member in rolling engagement with the first intake cam and a second driving member in rolling engagement with the second intake cam and an interconnection member that is selectively in movement with the first driving member or the second driving member to have the intake valve opening and closing, characterized in that the first driving member comprises a positioning hole, a through hole, and a first push roller; the second driving member comprises a positioning hole, a through hole, and a second push roller; the interconnection member comprises a positioning hole, a through hole, and a depressing section in engagement with the intake valve, the positioning hole of the first driving member, the positioning hole of the second driving member, and the positioning hole of the interconnection member being mounted to the axle of the intake valve driving member, the through hole of the first driving member, the through hole of the second driving member, and the through hole of the interconnection member being connected and communicating with each other to form a hydraulic cylinder, the hydraulic cylinder receiving therein at least one piston.
A door assembly for selectively providing access to, or closing, an oven cavity of an oven appliance, the door assembly comprising: an outer pane element comprising an at least partially transparent region; an inner pane element spaced apart from the outer pane element comprising an at least partially transparent region; optionally one or more center pane elements (11, 12) located between the outer pane element and the inner pane element and comprising an at least partially transparent region; and a camera assembly comprising an optical sensor for obtaining image data from within the oven cavity; characterized in that the door assembly further comprises: an aperture which is provided in one of the pane elements (9, 10, 11, 12), wherein the camera assembly is mounted within the aperture so that the aperture accommodates the camera assembly within the door. an outer pane element comprising an at least partially transparent region; an inner pane element spaced apart from the outer pane element comprising an at least partially transparent region; optionally one or more center pane elements (11, 12) located between the outer pane element and the inner pane element and comprising an at least partially transparent region; and a camera assembly comprising an optical sensor for obtaining image data from within the oven cavity; characterized in that the door assembly further comprises: an aperture which is provided in one of the pane elements (9, 10, 11, 12), wherein the camera assembly is mounted within the aperture so that the aperture accommodates the camera assembly within the door.
An indoor unit for an air-conditioning apparatus, the indoor unit comprising: a centrifugal fan including a main plate fixed to a rotation shaft; a shroud opposed to the main plate and having an air inlet into which air can flow; and a plurality of blades arranged between the main plate and the shroud, and respectively connected to first portions of the main plate; and an air outlet formed at second portions of the main plate between the blades and through which air can be flowed out, wherein spaces of the blades sandwiched by the main plate and the shroud serve as the air outlet, the main plate having an extended portion formed at an outer peripheral edge thereof, the extended portion extending in a direction to extend an opening height of the air outlet, the extended portion being formed to have an arcuate shape in a sectional surface including the rotation shaft, the arcuate shape having a curvature ratio; characterized in that the curvature ratio of the arcuate shape of the extended portion is configured to be larger at the first portions than at the second portions. a centrifugal fan including a main plate fixed to a rotation shaft; a shroud opposed to the main plate and having an air inlet into which air can flow; and a plurality of blades arranged between the main plate and the shroud, and respectively connected to first portions of the main plate; and an air outlet formed at second portions of the main plate between the blades and through which air can be flowed out, wherein spaces of the blades sandwiched by the main plate and the shroud serve as the air outlet, the main plate having an extended portion formed at an outer peripheral edge thereof, the extended portion extending in a direction to extend an opening height of the air outlet, the extended portion being formed to have an arcuate shape in a sectional surface including the rotation shaft, the arcuate shape having a curvature ratio; characterized in that a main plate fixed to a rotation shaft; a shroud opposed to the main plate and having an air inlet into which air can flow; and a plurality of blades arranged between the main plate and the shroud, and respectively connected to first portions of the main plate; and an air outlet formed at second portions of the main plate between the blades and through which air can be flowed out, wherein spaces of the blades sandwiched by the main plate and the shroud serve as the air outlet, the main plate having an extended portion formed at an outer peripheral edge thereof, the extended portion extending in a direction to extend an opening height of the air outlet, the extended portion being formed to have an arcuate shape in a sectional surface including the rotation shaft, the arcuate shape having a curvature ratio; characterized in that the curvature ratio of the arcuate shape of the extended portion is configured to be larger at the first portions than at the second portions.
A flat-shaped battery comprising: a power generation element including a positive electrode, a negative electrode, a separator, and an electrolyte; a cylindrical case formed of a conductor and housing the power generation element, the case having a circular bottom and a circular opening; a sealing plate formed of a conductor and closing the opening; an insulating member interposed between the case and the sealing plate; and a plate-shaped current collector disposed between the case and the positive electrode, the current collector being welded to the case and in contact with the positive electrode, wherein a welding point where the current collector is welded to the bottom is set so as to allow contact between the positive electrode and a center portion of the current collector to be maintained when the case is deformed such that a center portion of the bottom is displaced outward of the case, the center portion of the bottom corresponds to a region where a distance from an axial center of the bottom is 0% or more and less than 45% of a radius of the bottom, and the welding point comprises two or more welding points set in an outside region where the distance from the axial center of the bottom is 45% or more and 100% or less of the radius of the bottom; characterized in that the current collector is disposed such that the center portion thereof is in contact with the positive electrode, and the current collector is disposed so as to face the center portion of the bottom of the case. a power generation element including a positive electrode, a negative electrode, a separator, and an electrolyte; a cylindrical case formed of a conductor and housing the power generation element, the case having a circular bottom and a circular opening; a sealing plate formed of a conductor and closing the opening; an insulating member interposed between the case and the sealing plate; and a plate-shaped current collector disposed between the case and the positive electrode, the current collector being welded to the case and in contact with the positive electrode, wherein a welding point where the current collector is welded to the bottom is set so as to allow contact between the positive electrode and a center portion of the current collector to be maintained when the case is deformed such that a center portion of the bottom is displaced outward of the case, the center portion of the bottom corresponds to a region where a distance from an axial center of the bottom is 0% or more and less than 45% of a radius of the bottom, and the welding point comprises two or more welding points set in an outside region where the distance from the axial center of the bottom is 45% or more and 100% or less of the radius of the bottom; characterized in that the current collector is disposed such that the center portion thereof is in contact with the positive electrode, and the current collector is disposed so as to face the center portion of the bottom of the case.
A method to recover an ethylene stream from a feed stream, comprising the following steps: - treating a feed stream to obtain a treated gas stream (60; 70); - at least partly cooling and condensing the treated gas stream (60; 70) in at least one heat exchanger (34, 42; 34, 142, 146, 42) to form at least one column feed fraction; - feeding the or each column feed fraction into a distillation column to recover an ethylene stream at the foot of the distillation column and, at the head, a head stream (98; 104) depleted of ethylene; - heating at least one downstream flow derived from the head stream in the heat exchanger (34, 42; 34, 142, 146, 42); characterized in that the treatment step comprises the forming of an intermediate stream containing at least 20 mole % ethylene and at least 20 mole % carbon monoxide, the method comprising a step to remove the carbon monoxide contained in the intermediate stream, and in that the ethylene stream contains more than 99 weight % of the ethylene contained in the feed stream, the ethylene stream being obtained at the foot of the distillation column without passing through another distillation column. - treating a feed stream to obtain a treated gas stream (60; 70); - at least partly cooling and condensing the treated gas stream (60; 70) in at least one heat exchanger (34, 42; 34, 142, 146, 42) to form at least one column feed fraction; - feeding the or each column feed fraction into a distillation column to recover an ethylene stream at the foot of the distillation column and, at the head, a head stream (98; 104) depleted of ethylene; - heating at least one downstream flow derived from the head stream in the heat exchanger (34, 42; 34, 142, 146, 42);
A cleaning composition comprising - 25-45 weight-% of one or more alkylene carbonates, preferably propylene carbonate; - 25-45 weight-% of one or more fatty acid methyl esters, preferably vegetable oil methyl esters, more preferably soybean oil methyl ester; - 10-45 weight-% of one or more glycol ether and/or dibasic ester containing solvents; and - 5-27 weight-% of one or more surfactants, preferably nonionic surfactants, wherein the cleaning composition has a flash point above 110 °C. - 25-45 weight-% of one or more alkylene carbonates, preferably propylene carbonate; - 25-45 weight-% of one or more fatty acid methyl esters, preferably vegetable oil methyl esters, more preferably soybean oil methyl ester; - 10-45 weight-% of one or more glycol ether and/or dibasic ester containing solvents; and - 5-27 weight-% of one or more surfactants, preferably nonionic surfactants,
A power management system for a sensor network comprising: a plurality of sensing nodes forming at least part of a sensor network, each sensing node capable of communicating with other sensing nodes, and each of the plurality of sensing nodes having one or more associated power management devices, and each power management device associated with a powered node of one of a plurality of other networks other than the sensor network, and each sensing node being interconnected through the one or more associated power management devices for receiving power via the one or more associated power management devices from the powered nodes of the other network; wherein each of the one or more associated power management devices is responsive to one of: (i) network conditions detected by the sensor network, to regulate power to associated sensing nodes of the sensing network; or power conditions and network conditions detected by the sensor network, to regulate power to the sensing node depending on said conditions. a plurality of sensing nodes forming at least part of a sensor network, each sensing node capable of communicating with other sensing nodes, and each of the plurality of sensing nodes having one or more associated power management devices, and each power management device associated with a powered node of one of a plurality of other networks other than the sensor network, and each sensing node being interconnected through the one or more associated power management devices for receiving power via the one or more associated power management devices from the powered nodes of the other network; wherein each of the one or more associated power management devices is responsive to one of: (i) network conditions detected by the sensor network, to regulate power to associated sensing nodes of the sensing network; or power conditions and network conditions detected by the sensor network, to regulate power to the sensing node depending on said conditions.
A cathode for secondary batteries comprising a compound having a transition metal layer containing lithium which is at least one compound selected from the following formula 1: (1-x)Li(Li y M 1-y-z Ma z)O 2-w A w ∗ xLi 3 PO 4 wherein M has a composition of the following formula 2: M = Ni a Mn b Co c wherein 0.10<a<0.85, 0.10<b<0.85, and 0≤c<0.5; Ma is a metal or non-metal element at least one selected from the group consisting of Al, Mg and B; A is at least one selected from the group consisting of halogen, sulfur, chalcogenide compounds and nitrogen; 0<x<0.1; 0<y<0.3; 0≤z<0.2; and 0≤w<0.1. wherein 0.10<a<0.85, 0.10<b<0.85, and 0≤c<0.5; Ma is a metal or non-metal element at least one selected from the group consisting of Al, Mg and B; A is at least one selected from the group consisting of halogen, sulfur, chalcogenide compounds and nitrogen; 0<x<0.1; 0<y<0.3; 0≤z<0.2; and 0≤w<0.1.
Biomass stove comprising a combustion chamber, an unburned gas storage chamber, a flue gas extractor fan device for extracting unburned gas from the storage chamber and for sending it to an exhaust flue, at least one air intake for feeding air from the outside to the inside of the combustion chamber, wherein the combustion chamber comprises a cup-like or bowl-like brazier area adapted to receive the biomass and to generate combustible gas and a flame area intended for the combustion of the combustible gas coming from the brazier area, wherein the combustion chamber comprises a first series of apertures at the bottom area of said brazier, optionally in the bottom wall or in the side walls directly adjacent to said bottom wall, for supplying primary gas, in particular ambient air, and a second series of apertures at said flame area, i.e. of the upper end of said brazier, which is open towards an upper part of the combustion chamber, for supplying secondary gas, whereby the biomass stove comprises a branch intercepting the flue gases directed to the exhaust flue such to at least partially direct said flue gases to the primary gas inlet apertures, wherein there is a mixing chamber, which mixing chamber is in fluid dynamic communication with at least the primary gas inlet apertures of the bottom area of the brazier and the flue gas intercepting branch to introduce unburned gas, pure or mixed with ambient air coming from outside in the brazier area, characterized in that the mixing chamber has an inlet for flue gases coming from the branch and an external air inlet, the flue gas inlet being provided at the apertures of the brazier area and the air inlet being provided at the apertures of the flame area such that the flue gases/air mixture reaching the apertures of the brazier area has a stoichiometric content different from that of the flue gases/air mixture reaching the apertures of the flame area and wherein the mixing chamber is divided in two parts (210, 310) not in direct communication with each other, i.e. whose shared separation walls do not have apertures flowing directly into one or the other chamber, wherein the first part of the mixing chamber is in direct fluid dynamic communication with the apertures of the brazier area and the flue gas branch and the second part of the mixing chamber is in direct fluid dynamic communication with the apertures of the flame part and the external ambient air.
Supporting structure for weather protection canopies, in particular for plant crop arranged in the form of rows, having spaced-apart support posts (16, 16') which are supported on the ground side preferably via a ground anchoring, and having tension cables braced over the support posts (16, 16'), characterized in that the support posts (16, 16'), as a three-dimensional wire structure, are each composed of a plurality of flexurally rigid support wires, wherein the support wires are kept at a distance from one another via connecting means, and in that the support wires and/or the connecting means, which are formed by connecting wires, form an attachment means for attaching the plant crop.
A method for utilizing optical feedback to maintain minimum optical transmission in an OFF state of a Mach-Zehnder electro-optic switch having an RF input port and a DC port, which exhibits first and second ON states upon respective application of positive and negative RF voltage pulses of substantially equal magnitude, by adjusting a DC bias voltage of the electro-optic switch, the method comprising the steps of: selecting an initial DC voltage level and an initial RF port voltage by measuring visibility over a range of predetermined DC voltages and a range of predetermined RF port voltages, then selecting the initial DC voltage associated with minimum measured visibility; determining visibility over a range of DC voltages proximate the initial DC voltage level in accordance with the relation: VIS V V P: = I 1 V V P − I 2 V V P I 1 V V P + I 2 V V P where: V is applied DC voltage; V P is applied RF voltage pulse magnitude; I 1 is the normalized output of the electro-optic switch corresponding to its first ON state; and I 2 is the normalized output of the electro-optic switch corresponding to its second ON state; computing visibility slope in accordance with the relation: SLOPE = Δ VIS / Δ V, where: ΔVIS is change in visibility value; and ΔV is change in applied DC voltage; and applying a correction voltage to the initial DC voltage level, where the correction voltage is ΔV CORR = − VIS M SLOPE where: ΔV CORR is the correction voltage; VIS M is the measured visibility; and SLOPE is the visibility slope. selecting an initial DC voltage level and an initial RF port voltage by measuring visibility over a range of predetermined DC voltages and a range of predetermined RF port voltages, then selecting the initial DC voltage associated with minimum measured visibility; determining visibility over a range of DC voltages proximate the initial DC voltage level in accordance with the relation: VIS V V P: = I 1 V V P − I 2 V V P I 1 V V P + I 2 V V P where: V is applied DC voltage; V P is applied RF voltage pulse magnitude; I 1 is the normalized output of the electro-optic switch corresponding to its first ON state; and I 2 is the normalized output of the electro-optic switch corresponding to its second ON state; V is applied DC voltage; V P is applied RF voltage pulse magnitude; I 1 is the normalized output of the electro-optic switch corresponding to its first ON state; and I 2 is the normalized output of the electro-optic switch corresponding to its second ON state; computing visibility slope in accordance with the relation: SLOPE = Δ VIS / Δ V, where: ΔVIS is change in visibility value; and ΔV is change in applied DC voltage; and ΔVIS is change in visibility value; and ΔV is change in applied DC voltage; and applying a correction voltage to the initial DC voltage level, where the correction voltage is ΔV CORR = − VIS M SLOPE where: ΔV CORR is the correction voltage; VIS M is the measured visibility; and SLOPE is the visibility slope. ΔV CORR is the correction voltage; VIS M is the measured visibility; and SLOPE is the visibility slope.
A connector for receiving a ribbon cable, the connector comprising: a housing including an open top and a first latch extension along a first end thereof, extending in a first direction between two first notches; a cable organizer including a second latch extension along a first end thereof, extending in a second direction, perpendicular to the first direction, between two second notches, the cable organizer configured to be positioned within an interior of the housing in a preassembled position so that an outer edge of the first latch extension is adjacent to an outer edge of the second latch extension and the two first notches and the two second notches are aligned; and a cover configured to selectively cover the open top of the housing to enclose the cable organizer within the interior of the housing, the cover including a latch configured to engage the first latch extension and the second latch extension to both translate in a vertical direction relative to the housing and rotate relative the housing, wherein the latch includes spaced-apart extensions that extend downward from an end of the cover and a bar connected between lower ends of the extensions to define an open slot between the end of the cover, the extensions, and the bar. a housing including an open top and a first latch extension along a first end thereof, extending in a first direction between two first notches; a cable organizer including a second latch extension along a first end thereof, extending in a second direction, perpendicular to the first direction, between two second notches, the cable organizer configured to be positioned within an interior of the housing in a preassembled position so that an outer edge of the first latch extension is adjacent to an outer edge of the second latch extension and the two first notches and the two second notches are aligned; and a cover configured to selectively cover the open top of the housing to enclose the cable organizer within the interior of the housing, the cover including a latch configured to engage the first latch extension and the second latch extension to both translate in a vertical direction relative to the housing and rotate relative the housing, wherein the latch includes spaced-apart extensions that extend downward from an end of the cover and a bar connected between lower ends of the extensions to define an open slot between the end of the cover, the extensions, and the bar.
Cosmetic or pharmaceutical composition for topical application comprising, in a cosmetically or pharmaceutically acceptable carrier, at least one pectin in an amount varying from 0.05 to 0.5 weight % relative to the total weight of the composition and at least one extract of Centella asiatica in an amount varying from 0.1 to 1 weight % relative to the total weight of the composition.