mhurhangee/patent-ind-claim-en huggingface dataset:
A supercritical drying method for silica wet gel blanket rolls using first and second supercritical extractors in a single system, the method comprising: placing a first silica wet gel blanket roll inside the first supercritical extractor and placing a second silica wet gel blanket roll inside the second supercritical extractor; (a) supplying carbon dioxide to the first supercritical extractor and not supplying carbon dioxide to the second supercritical extractor; and (b) not supplying carbon dioxide to the first supercritical extractor and supplying carbon dioxide to the second supercritical extractor, wherein the steps (a) and (b) are performed alternately at least two times each. placing a first silica wet gel blanket roll inside the first supercritical extractor and placing a second silica wet gel blanket roll inside the second supercritical extractor; (a) supplying carbon dioxide to the first supercritical extractor and not supplying carbon dioxide to the second supercritical extractor; and (b) not supplying carbon dioxide to the first supercritical extractor and supplying carbon dioxide to the second supercritical extractor, (a) supplying carbon dioxide to the first supercritical extractor and not supplying carbon dioxide to the second supercritical extractor; and (b) not supplying carbon dioxide to the first supercritical extractor and supplying carbon dioxide to the second supercritical extractor, wherein the steps (a) and (b) are performed alternately at least two times each.
A black partition wall pattern film comprising: a transparent substrate ; an electrode layer provided on the transparent substrate ; a black partition wall pattern provided on the electrode layer ; and a black UV-cured resin layer obtained from curing a black UV-curable resin layer , the black UV-cured resin layer provided in a region on the electrode layer where no black partition wall pattern is provided, wherein the black partition wall pattern and the black UV-cured resin layer are both formed from a black UV-curable resin composition , characterized in that a thickness of the black UV-cured resin layer is 1 μm or less and transmittance of the black UV-cured resin layer in the region between 400nm and 700nm is 80% or more. a transparent substrate ; an electrode layer provided on the transparent substrate ; a black partition wall pattern provided on the electrode layer ; and a black UV-cured resin layer obtained from curing a black UV-curable resin layer , the black UV-cured resin layer provided in a region on the electrode layer where no black partition wall pattern is provided, wherein the black partition wall pattern and the black UV-cured resin layer are both formed from a black UV-curable resin composition , characterized in that a thickness of the black UV-cured resin layer is 1 μm or less and transmittance of the black UV-cured resin layer in the region between 400nm and 700nm is 80% or more.
An insulated tarpaulin comprising a first sheet , a second sheet , barriers located between and defining compartments between the first and second sheets, and insulation elements located in the compartments, and -apertures through the barriers ; - characterized in that it further comprises - attachment means that are extending through the apertures and that are connecting insulation elements to insulation elements located in other compartments. -apertures through the barriers ; - characterized in that it further comprises - attachment means that are extending through the apertures and that are connecting insulation elements to insulation elements located in other compartments.
An air purge unit , comprising: a housing ; an air supply port for supplying air into the housing ; and a plurality of air blow-out ports arranged on a side wall of the housing for blowing the air to a lens surface of a photoelectric sensor , wherein the photoelectric sensor comprises a first side surface and a second side surface opposite to the first side surface , wherein the first side surface and the second side surface are positioned to sandwich the lens surface , and the housing of the air purge unit is adapted to be attached to only one of the first side surface and the second side surface of the photoelectric sensor . a housing ; an air supply port for supplying air into the housing ; and a plurality of air blow-out ports arranged on a side wall of the housing for blowing the air to a lens surface of a photoelectric sensor , wherein the photoelectric sensor comprises a first side surface and a second side surface opposite to the first side surface , wherein the first side surface and the second side surface are positioned to sandwich the lens surface , and the housing of the air purge unit is adapted to be attached to only one of the first side surface and the second side surface of the photoelectric sensor .
A solar cell comprising: an n-type crystalline silicon wafer ; in the entire wafer surface (S1, S2, S3) and in the vicinity of the entire wafer surface (S1, S2, S3) an n layer having a higher concentration of an n-type dopant than other regions of the n-type crystalline silicon wafer ; a silicon oxide layer formed on a light receiving surface (S1) of the n-type crystalline silicon wafer ; an n-type crystalline silicon layer formed on the silicon oxide layer; and a p-type amorphous silicon layer formed on a rear surface side of the n-type crystalline silicon wafer , wherein the silicon oxide layer contains an n-type dopant, and a concentration of the n-type dopant in the silicon oxide layer is lower than a concentration of n-type dopants in the n + layer and in the n-type crystalline silicon layer . an n-type crystalline silicon wafer ; in the entire wafer surface (S1, S2, S3) and in the vicinity of the entire wafer surface (S1, S2, S3) an n layer having a higher concentration of an n-type dopant than other regions of the n-type crystalline silicon wafer ; a silicon oxide layer formed on a light receiving surface (S1) of the n-type crystalline silicon wafer ; an n-type crystalline silicon layer formed on the silicon oxide layer; and a p-type amorphous silicon layer formed on a rear surface side of the n-type crystalline silicon wafer , wherein the silicon oxide layer contains an n-type dopant, and a concentration of the n-type dopant in the silicon oxide layer is lower than a concentration of n-type dopants in the n + layer and in the n-type crystalline silicon layer .
A blade for oscillating tools comprising: lateral edges (114a-b); a mounting portion that includes a first mounting configuration that comprises a first central aperture and defines a first center and a second mounting configuration that comprises a second central aperture and defines a second center , wherein: the first and second mounting configurations are configured to mount the blade to different respective power tools for driving a same working edge; the first center is spaced a distance away from the second center in a first direction that is orthogonal to a second direction in which the working edge extends or in which a tangent of a center of curvature of the working edge extends; and a first edge defining the first central aperture transitions to a second edge defining the second central aperture ; and the working edge. lateral edges (114a-b); a mounting portion that includes a first mounting configuration that comprises a first central aperture and defines a first center and a second mounting configuration that comprises a second central aperture and defines a second center , wherein: the first and second mounting configurations are configured to mount the blade to different respective power tools for driving a same working edge; the first center is spaced a distance away from the second center in a first direction that is orthogonal to a second direction in which the working edge extends or in which a tangent of a center of curvature of the working edge extends; and a first edge defining the first central aperture transitions to a second edge defining the second central aperture ; and the first and second mounting configurations are configured to mount the blade to different respective power tools for driving a same working edge; the first center is spaced a distance away from the second center in a first direction that is orthogonal to a second direction in which the working edge extends or in which a tangent of a center of curvature of the working edge extends; and a first edge defining the first central aperture transitions to a second edge defining the second central aperture ; and the working edge.
A heat recovery steam generator , comprising a plurality of generation tubes for having water passing therethrough to generate steam and water by exchanging heat with a gas flow passing through the heat recovery steam generator , a first steam drum , the first steam drum defining at least one first inlet and at least one first outlet , the first inlet positioned in a bottom portion of the first steam drum and the first outlet disposed in a top portion of the first steam drum, and a second steam drum , the second steam drum defining at least one second inlet in a bottom portion of the second steam drum and a steam flow outlet positioned in a top portion of the second steam drum to release a separated steam from the second steam drum , a connecting line , the connecting line fluidly connecting the first outlet with the second inlet , wherein the heat recovery steam generator further comprises a riser , which riser is fluidly connected to the plurality of generation tubes , the riser being arranged to group the plurality of generation tubes and to connect the plurality of generation tubes to the first steam drum , wherein the riser is coupled to the first inlet of the first steam drum , whereby the first inlet is configured to allow a flow of water and steam to enter the first steam drum , the connecting line being arranged to provide a flow of water and steam from the first steam drum to the second steam drum through the second inlet of the second steam drum , wherein a steam separator is provided in fluid communication with the second inlet , the steam separator being arranged inside the second steam drum , whereby the steam separator is provided to separate steam from the flow of water and steam provided to the second steam drum, such that the steam separator forms the separated steam to be released via the steam flow outlet , characterized in that the first steam drum has a feedwater nozzle fluidly connecting the first steam drum to a water source.
Installation for producing a number of band-like material strips from textile strengthening members which are embedded into a rubber mixture and which run parallel to one another and in a longitudinal direction of the material strips , having - a creel with a multiplicity of bobbins with wound-up textile strengthening members, - an extruder for plasticizing a rubber mixture, - a moulding head for groupwise pre-arrangement and embedment of the strengthening members into the rubber mixture, wherein the moulding head has a modular construction for producing at least two different types of material strips , the material strips of each type being identical, - a cooling apparatus arranged after the moulding head and having in each case one cooling section for the respectively identical material strips , wherein each cooling section comprises driven rolls , and comprises cooling rolls mounted so as to be freely rotatable, and - a winding station for winding up the cooled material strips , characterized in that each cooling section has in each case one cooled or uncooled driven roll as first roll and as last roll, wherein the rotational speed of the driven rolls is settable in a variable manner. - a creel with a multiplicity of bobbins with wound-up textile strengthening members, - an extruder for plasticizing a rubber mixture, - a moulding head for groupwise pre-arrangement and embedment of the strengthening members into the rubber mixture, wherein the moulding head has a modular construction for producing at least two different types of material strips , the material strips of each type being identical, - a cooling apparatus arranged after the moulding head and having in each case one cooling section for the respectively identical material strips , wherein each cooling section comprises driven rolls , and comprises cooling rolls mounted so as to be freely rotatable, and - a winding station for winding up the cooled material strips ,
A cooling system for an agricultural vehicle, comprising: a housing configured to support one or more cooling components ; a cooling fan positioned proximate to the housing ; a debris conduit extending from the housing; a valve configured to move between an open position in which the debris conduit is fluidly coupled to a suction fan and a closed position in which the debris conduit is isolated from the suction fan; and an electronic controller configured to generate control signals to coordinate rotation of the cooling fan and movement of the valve , characterised in that the control signals cause : - the cooling fan to reverse rotation from a first direction in which the cooling fan draws air from an inlet to an outlet of the housing to a second direction in which the cooling fan pushes air from the outlet to the inlet of the housing, and : - the valve to move from the closed position to the open position to fluidly couple the suction fan to the debris conduit to facilitate removal of debris from the housing . a housing configured to support one or more cooling components ; a cooling fan positioned proximate to the housing ; a debris conduit extending from the housing; a valve configured to move between an open position in which the debris conduit is fluidly coupled to a suction fan and a closed position in which the debris conduit is isolated from the suction fan; and an electronic controller configured to generate control signals to coordinate rotation of the cooling fan and movement of the valve , - the cooling fan to reverse rotation from a first direction in which the cooling fan draws air from an inlet to an outlet of the housing to a second direction in which the cooling fan pushes air from the outlet to the inlet of the housing, and : - the valve to move from the closed position to the open position to fluidly couple the suction fan to the debris conduit to facilitate removal of debris from the housing .
A light emitting device package comprising: a light source (130; 230; 330; 430); a lead frame to mount the light source thereon and being electrically connected to the light source, the lead frame comprising first and second electrically conductive lead frames being spaced from each other; and a mold member disposed over the light source and over the lead frame, and including a sealing material (160; 260; 360; 460) and organic particles (161; 261; 361; 461), wherein a proportion of the organic particles to the sealing material is in a range of 1 wt% to 20 wt%, wherein each of the organic particles (161; 261; 361; 461) comprises a coating layer to coat the organic particle, characterized in that the coating layer has an index of refraction different from that of the organic particle, and wherein the coating layer has an index of refraction larger than that of the organic particle. a light source (130; 230; 330; 430); a lead frame to mount the light source thereon and being electrically connected to the light source, the lead frame comprising first and second electrically conductive lead frames being spaced from each other; and a mold member disposed over the light source and over the lead frame, and including a sealing material (160; 260; 360; 460) and organic particles (161; 261; 361; 461), wherein a proportion of the organic particles to the sealing material is in a range of 1 wt% to 20 wt%, wherein each of the organic particles (161; 261; 361; 461) comprises a coating layer to coat the organic particle, characterized in that the coating layer has an index of refraction different from that of the organic particle, and wherein the coating layer has an index of refraction larger than that of the organic particle.
A system, comprising: a first cluster of transmission points connected to a first base station ; a second cluster of transmission points connected to a second base station ; wherein transmission points in an overlap area where the first cluster overlaps the second cluster share a same physical cell identifier, PCI, which is different from PCIs of transmission points in areas of the first and second clusters which do not overlap with other clusters, and wherein a transmission point from the transmission points in the overlap area is configured to: receive, from the first base station , a first signal for a first user equipment, UE, to transmit over the air; receive, from the second base station , a second signal for a second UE to transmit over the air; and combine the first and the second signals from the first and second base stations (1004 and 1006) and transmit the combined signal to the first and second UE. a first cluster of transmission points connected to a first base station ; a second cluster of transmission points connected to a second base station ; wherein transmission points in an overlap area where the first cluster overlaps the second cluster share a same physical cell identifier, PCI, which is different from PCIs of transmission points in areas of the first and second clusters which do not overlap with other clusters, and wherein a transmission point from the transmission points in the overlap area is configured to: receive, from the first base station , a first signal for a first user equipment, UE, to transmit over the air; receive, from the second base station , a second signal for a second UE to transmit over the air; and combine the first and the second signals from the first and second base stations (1004 and 1006) and transmit the combined signal to the first and second UE. receive, from the first base station , a first signal for a first user equipment, UE, to transmit over the air; receive, from the second base station , a second signal for a second UE to transmit over the air; and combine the first and the second signals from the first and second base stations (1004 and 1006) and transmit the combined signal to the first and second UE.
A method of manufacturing a flexible circuit incorporating at least one solid-state light emitting component , the method comprising: - providing an insulating layer , - producing at least one through hole in the insulating layer , - providing a conductive layer , - bonding a main surface of the conductive layer to the insulating layer , - positioning said at least one solid-state light emitting component in the through hole of the insulating layer and connecting two contact pads of this component to the conductive layer ; characterized in that said at least one solid-state light emitting component has a thermal pad connected to the conductive layer , and in that a portion of the flexible circuit comprises two contact pads and one thermal pad patterned in the conductive layer and partially covering said at least one through hole , the two contact pads being spaced apart and separate from the thermal pad , and said thermal pad of said at least one solid-state light emitting component being connected to said one thermal pad patterned in the conductive layer . - providing an insulating layer , - producing at least one through hole in the insulating layer , - providing a conductive layer , - bonding a main surface of the conductive layer to the insulating layer , - positioning said at least one solid-state light emitting component in the through hole of the insulating layer and connecting two contact pads of this component to the conductive layer ; in that said at least one solid-state light emitting component has a thermal pad connected to the conductive layer , and in that a portion of the flexible circuit comprises two contact pads and one thermal pad patterned in the conductive layer and partially covering said at least one through hole , the two contact pads being spaced apart and separate from the thermal pad , and said thermal pad of said at least one solid-state light emitting component being connected to said one thermal pad patterned in the conductive layer .
Sewage-pipe inspection system comprising a feed element for advancing an inspection device and comprising a clamping unit which is designed to be clamped as a counter-bearing for the feed element inside a sewage pipe , wherein the clamping unit comprises a central body which comprises a guide for the feed element and at least one inflatable cushion arranged on the circumference of the central body , which extends, at least in an uninflated state, across a first circumferential region of less than 360° around the central body , characterized in that the guide comprises a recess facing the outer circumference of the clamping unit and extending across the entire axial length of the guide , through which the feed element can be inserted into the guide from the outer circumference. the clamping unit comprises a central body which comprises a guide for the feed element and at least one inflatable cushion arranged on the circumference of the central body , which extends, at least in an uninflated state, across a first circumferential region of less than 360° around the central body , characterized in that the guide comprises a recess facing the outer circumference of the clamping unit and extending across the entire axial length of the guide , through which the feed element can be inserted into the guide from the outer circumference.
An aerosol generating system for heating a liquid aerosol-forming substrate, the system comprising: a liquid storage portion for storing the liquid aerosol-forming substrate ; a capillary wick for conveying the liquid aerosol-forming substrate from the liquid storage portion; characterised in that the system further comprises leakage prevention means comprising sealing means between the liquid storage portion and the capillary wick configured to prevent or reduce leakage of the liquid aerosol-forming substrate from the liquid storage portion, wherein the sealing means comprises a sealing ring . a liquid storage portion for storing the liquid aerosol-forming substrate ; a capillary wick for conveying the liquid aerosol-forming substrate from the liquid storage portion; characterised in that the system further comprises leakage prevention means comprising sealing means between the liquid storage portion and the capillary wick configured to prevent or reduce leakage of the liquid aerosol-forming substrate from the liquid storage portion, wherein the sealing means comprises a sealing ring .
A selective catalytic reduction (SCR) system for treating exhaust gas from a diesel engine, the system comprising: a frame ; a SCR catalyst contained within a SCR canister ; a hydrolysis catalyst contained within a hydrolysis catalyst canister upstream of the SCR catalyst; and an ammonia oxidation catalyst contained within an ammonia oxidation canister ; wherein each of the SCR, hydrolysis catalyst and ammonia oxidation canisters is removably attached to the frame . a frame ; a SCR catalyst contained within a SCR canister ; a hydrolysis catalyst contained within a hydrolysis catalyst canister upstream of the SCR catalyst; and an ammonia oxidation catalyst contained within an ammonia oxidation canister ; wherein each of the SCR, hydrolysis catalyst and ammonia oxidation canisters is removably attached to the frame .