mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a substrate including a through-hole, a peripheral area surrounding the through-hole, a wiring area surrounding the peripheral area, and a display area surrounding the wiring area; a gate insulating layer disposed on the substrate; a gate wire disposed in the wiring area and on the gate insulating layer; an interlayer insulating layer disposed on the gate wire; a data wire disposed in the wiring area and on the interlayer insulating layer; a middle insulating layer disposed on the data wire, a first main insulating dam disposed in the wiring area and on the middle insulating layer, an emission layer disposed on the substrate; and a cathode disposed on the emission layer, wherein the first main insulating dam includes an organic material, characterized in that a width of a lower surface of the first main insulating dam is narrower than a width of an upper surface of the first main insulating dam, the emission layer and the cathode are disposed in the peripheral area and the wiring area, and the first main insulating dam disconnects the cathode and the emission layer. a substrate including a through-hole, a peripheral area surrounding the through-hole, a wiring area surrounding the peripheral area, and a display area surrounding the wiring area; a gate insulating layer disposed on the substrate; a gate wire disposed in the wiring area and on the gate insulating layer; an interlayer insulating layer disposed on the gate wire; a data wire disposed in the wiring area and on the interlayer insulating layer; a middle insulating layer disposed on the data wire, a first main insulating dam disposed in the wiring area and on the middle insulating layer, an emission layer disposed on the substrate; and a cathode disposed on the emission layer, wherein the first main insulating dam includes an organic material, characterized in that a width of a lower surface of the first main insulating dam is narrower than a width of an upper surface of the first main insulating dam, the emission layer and the cathode are disposed in the peripheral area and the wiring area, and the first main insulating dam disconnects the cathode and the emission layer.
A pharmaceutical composition comprising valproic acid, or a pharmaceutically acceptable salt thereof, for use in treating or preventing a pathological condition associated with excess fibrin deposition and/or thrombus formation, wherein said treatment comprises administering the composition to a patient such that the maximum plasma concentration (Cmax) of valproic acid, or a salt and/or metabolite thereof, in the patient occurs during a time period that is from 02:00 to 07:00 hours, wherein the treatment comprises administering the composition to a patient during a time period determined based on the release profile of the composition in order to provide the required plasma concentration of valproic acid, or a salt and/or metabolite thereof.
Surgical microscope having an illumination device for setting different illumination variants, comprising an illumination light source (2, 50) having mutually independently controllable individual light sources (3a, 3b, 3c) arranged in a first plane in a two-dimensional array (3, 100), and an illumination beam path having an illumination optical unit and an optical axis, wherein a plane conjugate with respect to the first plane is formed by the illumination optical unit, wherein an aperture device (14, 200) is arranged in the plane conjugate with respect to the first plane, wherein the aperture device (14, 200) has a number of aperture openings, wherein each aperture opening is assigned to an individual light source (3a, 3b, 3c), wherein size and shape of the aperture openings are adapted to images of the individual light sources in the conjugate plane, wherein a first principal plane and a second principal plane (H') are defined by the illumination optical unit, wherein a first distance s is formed as distance between the first principal plane and the first plane and a second distance s' is formed as distance between the second principal plane (H') and the plane conjugate with respect to the first plane, wherein the following relationship is fulfilled for a magnification scale: 1 ≤ | s ′ s | ≤ 4,. an illumination light source (2, 50) having mutually independently controllable individual light sources (3a, 3b, 3c) arranged in a first plane in a two-dimensional array (3, 100), and an illumination beam path having an illumination optical unit and an optical axis, wherein a plane conjugate with respect to the first plane is formed by the illumination optical unit, wherein an aperture device (14, 200) is arranged in the plane conjugate with respect to the first plane, wherein the aperture device (14, 200) has a number of aperture openings, wherein each aperture opening is assigned to an individual light source (3a, 3b, 3c), wherein size and shape of the aperture openings are adapted to images of the individual light sources in the conjugate plane, wherein a first principal plane and a second principal plane (H') are defined by the illumination optical unit, wherein a first distance s is formed as distance between the first principal plane and the first plane and a second distance s' is formed as distance between the second principal plane (H') and the plane conjugate with respect to the first plane, wherein the following relationship is fulfilled for a magnification scale: 1 ≤ | s ′ s | ≤ 4,.
Separate connection device (30, 40, 60, 70, 80) for grounding electrical equipment comprising a plurality of separate electrical components, in particular photovoltaic panels, each electrical component being delimited by a metal frame arranged so as to be fastened on a metal supporting structure (10, 20, 50), said separate connection device (30, 40, 60, 70, 80) being intended to be inserted between said metal frame of each electrical component and said metal supporting structure (10, 20, 50) for electrically and separately connecting said metal frame of said electrical component to said metal supporting structure (10, 20, 50), said separate connection device (30, 40, 60, 70, 80) comprising a metal blade comprising at least one closed fold (31, 41) arranged so as to form a plug-on assembly area (34, 44), characterized in that said metal blade is an elastic metal blade such as out of stainless spring steel and in that said connection device comprises at least two self-connecting end areas (35, 36; 45, 46; 35, 61; 35, 71; 35, 81), arranged in separate planes and designed to create an electrical contact between said metal frame and said metal supporting structure (10, 20, 50), said self-connecting end areas comprising a set of sharp teeth (37, 47) arranged in order to be embedded in the metal material of said frame and of said supporting structure (10, 20, 50) and being formed on a folded section of said metal blade so that the teeth (37, 47) extend in opposite directions and in said separate planes intended to intersect the plane of said frame and the plane of said supporting structure (10, 20, 50) when the connection device is mounted, in order to ensure an anchorage in the frame and in the supporting structure (10, 20, 50) like a harpoon, with a constant pressure thanks to the spring effect of the material of said metal blade, opposing to its removal from the frame and from the supporting structure, and thus achieving a self locking of the metal blade once it is inserted between the frame and the supporting structure.
A process comprising the steps of: (a) providing a prefractionation column feed stream comprising toluene, C8 aromatics, and C9+ aromatics to a reboiled prefractionation column to produce a prefractionation column top stream and a prefractionation column bottom stream; and (b) providing the prefractionation column top stream and the prefractionation column bottom stream to a sidedraw column to produce a sidedraw column top stream comprising toluene, and a sidedraw column first side stream comprising C8 aromatics. (a) providing a prefractionation column feed stream comprising toluene, C8 aromatics, and C9+ aromatics to a reboiled prefractionation column to produce a prefractionation column top stream and a prefractionation column bottom stream; and (b) providing the prefractionation column top stream and the prefractionation column bottom stream to a sidedraw column to produce a sidedraw column top stream comprising toluene, and a sidedraw column first side stream comprising C8 aromatics.
Riboflavin, or a pharmaceutically acceptable salt thereof or riboflavin sodium phosphate for use in the treatment of cerebral ischaemia or traumatic brain injury in a subject, in combination with oxaloacetate, or a pharmaceutically acceptable salt thereof or disodium salt of diethyl oxaloacetate and/or diethyloxaloacetate, wherein said treatment is a prophylactic treatment before the clinical onset of the disease or a therapeutic treatment after the clinical onset of the disease; and wherein combination is herein understood as the simultaneous or sequential administration of a) riboflavin, or a pharmaceutically acceptable salt thereof or riboflavin sodium phosphate and b) oxaloacetate, or a pharmaceutically acceptable salt thereof or disodium salt of diethyl oxaloacetate and/or diethyloxaloacetate to said subject.
A process for wet press process manufacturing of cementitious units, comprising: introducing, into a concrete mold having a plurality of corners to define transverse edges of a molded unit, a concrete mixture comprising a hydratable cement binder, aggregates, and water in an amount sufficient (i) to hydrate the cement binder and (ii) to enable the mixture to flow into corners within the mold; wet-pressing the concrete mixture within the mold, using hydraulic pressure of 2758 to 20684 kPa (400 to 3000 pounds per square inch), to consolidate the mixture into a shape having at least two edges defining therebetween a width dimension and at least two edges defining therebetween a thickness dimension, wherein the width dimension is at least five times greater than the thickness dimension, and removing excess water from the concrete mixture while in the mold; removing the wet-pressed concrete from the mold while in a green state; standing the pressed, green state concrete unit, upon removal from the mold, onto the at least two edges which define the thickness dimension of the concrete unit; and repeating the foregoing steps such that at least three standing pressed, green state concrete units removed from molds are standing, during a curing period, adjacent to each other at a distance apart which is less than their individual width dimension; wherein the blended concrete mix being introduced into and removed from the mold further comprises: (a) colloidal silica having silica particles with an average particle size of 1 nm to 100 nm; (b) at least one alkanolamine; and (c) optionally, a rheology modifying agent. introducing, into a concrete mold having a plurality of corners to define transverse edges of a molded unit, a concrete mixture comprising a hydratable cement binder, aggregates, and water in an amount sufficient (i) to hydrate the cement binder and (ii) to enable the mixture to flow into corners within the mold; wet-pressing the concrete mixture within the mold, using hydraulic pressure of 2758 to 20684 kPa (400 to 3000 pounds per square inch), to consolidate the mixture into a shape having at least two edges defining therebetween a width dimension and at least two edges defining therebetween a thickness dimension, wherein the width dimension is at least five times greater than the thickness dimension, and removing excess water from the concrete mixture while in the mold; removing the wet-pressed concrete from the mold while in a green state; standing the pressed, green state concrete unit, upon removal from the mold, onto the at least two edges which define the thickness dimension of the concrete unit; and repeating the foregoing steps such that at least three standing pressed, green state concrete units removed from molds are standing, during a curing period, adjacent to each other at a distance apart which is less than their individual width dimension; wherein the blended concrete mix being introduced into and removed from the mold further comprises: (a) colloidal silica having silica particles with an average particle size of 1 nm to 100 nm; (b) at least one alkanolamine; and (c) optionally, a rheology modifying agent.
A system for a combustion turbine engine, comprising: a fuel gas supply (140, 210); a plurality of fuel gas circuits (202, 204, 206, 208) operable to deliver fuel gas from the fuel gas supply (140, 210) to a combustor; a plurality of gas control valves (165, 170, 236, 238, 240, 242), each coupled to one of the plurality of fuel gas circuits (202, 204, 206, 208) that control flow of fuel gas thereto from the fuel gas supply (140, 210); and a fuel purge system (175, 200) including: a gas purge valve for controlling an amount of fuel gas delivered to one of the plurality of fuel gas circuits (202, 204, 206, 208), and a controller operatively connected to the gas purge valve and operable to selectively purge residual fuel gas from at least one dormant fuel gas circuit (202, 204, 206, 208) of the plurality of fuel gas circuits (202, 204, 206, 208) with fuel gas from the fuel gas supply, wherein the selective purging includes adjusting the gas purge valve to deliver a predetermined amount of fuel gas into the at least one dormant fuel gas circuit (202, 204, 206, 208). a fuel gas supply (140, 210); a plurality of fuel gas circuits (202, 204, 206, 208) operable to deliver fuel gas from the fuel gas supply (140, 210) to a combustor; a plurality of gas control valves (165, 170, 236, 238, 240, 242), each coupled to one of the plurality of fuel gas circuits (202, 204, 206, 208) that control flow of fuel gas thereto from the fuel gas supply (140, 210); and a fuel purge system (175, 200) including: a gas purge valve for controlling an amount of fuel gas delivered to one of the plurality of fuel gas circuits (202, 204, 206, 208), and a controller operatively connected to the gas purge valve and operable to selectively purge residual fuel gas from at least one dormant fuel gas circuit (202, 204, 206, 208) of the plurality of fuel gas circuits (202, 204, 206, 208) with fuel gas from the fuel gas supply, wherein the selective purging includes adjusting the gas purge valve to deliver a predetermined amount of fuel gas into the at least one dormant fuel gas circuit (202, 204, 206, 208). a gas purge valve for controlling an amount of fuel gas delivered to one of the plurality of fuel gas circuits (202, 204, 206, 208), and a controller operatively connected to the gas purge valve and operable to selectively purge residual fuel gas from at least one dormant fuel gas circuit (202, 204, 206, 208) of the plurality of fuel gas circuits (202, 204, 206, 208) with fuel gas from the fuel gas supply, wherein the selective purging includes adjusting the gas purge valve to deliver a predetermined amount of fuel gas into the at least one dormant fuel gas circuit (202, 204, 206, 208).
A method of purifying a biological sample comprising circulating tumour cells, comprising the steps of: providing a sample to a sample input in fluid communication with a first side of a filter; applying suction to a second side of a filter to draw fluid from the sample input through the filter until a pre-determined pressure of approximately 130-150 mm H 2 O when measured using a water column is measured with a pressure measurer in fluid communication with the second side of the filter, said pressure measurer having a flow stop ability; stopping the flow using the flow stop ability once the predetermined pressure is attained placing the second side of the filter in exclusive fluid communication with a reservoir containing a liquid; applying suction to the first side of the filter to draw fluid from the reservoir through the filter; and collecting the fluid drawn from the reservoir through the filter in a container; wherein the filter is subject to agitation during filtration, wherein the purified sample is collected in the container. providing a sample to a sample input in fluid communication with a first side of a filter; applying suction to a second side of a filter to draw fluid from the sample input through the filter until a pre-determined pressure of approximately 130-150 mm H 2 O when measured using a water column is measured with a pressure measurer in fluid communication with the second side of the filter, said pressure measurer having a flow stop ability; stopping the flow using the flow stop ability once the predetermined pressure is attained placing the second side of the filter in exclusive fluid communication with a reservoir containing a liquid; applying suction to the first side of the filter to draw fluid from the reservoir through the filter; and collecting the fluid drawn from the reservoir through the filter in a container;
A method for producing a powder for a magnetic core by coating a surface of a pure iron powder with an insulating film, the method being characterized by carrying out a phosphate type film formation step to form a phosphate type film on the surface of the pure iron powder and, after the phosphate type film formation step, an alkoxide film formation step and a silicone resin film formation step to form an insulation film composed of an alkoxide film as a first layer and a silicone resin film as a second layer on the surface of the pure iron powder, wherein the alkoxide film formation step comprises immersing a pure iron powder in an alkoxide-containing solution which is prepared by mixing a Si alkoxide selected from 3-(2-imidazolin-1-yl)propyltriethoxysilane and 3-aminopropyltriethoxysilane, and the Al alkoxide aluminum tri-sec-butoxide with a dehydrated organic solvent, and drying to remove the dehydrated organic solvent, thereby forming an alkoxide film comprising an Al-Si-O type composite oxide on the surface of the pure iron powder; and the silicone resin film formation step comprises immersing the pure iron powder having the alkoxide film formed thereon in a silicone resin-containing solution which is prepared by mixing a silicone resin with an organic solvent, and drying to remove the organic solvent, thereby forming a silicone resin film on the alkoxide film.
A method of processing a single crystal silicon ingot, the method comprising: grinding the single crystal silicon ingot, wherein the single crystal silicon ingot comprises a seed end, a tail end opposite the seed end, and a main body between the seed end and the tail end, wherein the main body is ground to a constant diameter; annealing the ground single crystal silicon ingot at a temperature of between 600°C and 900°C for a duration of at least 1 hour in an ambient atmosphere comprising argon, nitrogen, or a combination of argon and nitrogen; and slicing the annealed single crystal silicon ingot into at least two single crystal silicon wafers. grinding the single crystal silicon ingot, wherein the single crystal silicon ingot comprises a seed end, a tail end opposite the seed end, and a main body between the seed end and the tail end, wherein the main body is ground to a constant diameter; annealing the ground single crystal silicon ingot at a temperature of between 600°C and 900°C for a duration of at least 1 hour in an ambient atmosphere comprising argon, nitrogen, or a combination of argon and nitrogen; and slicing the annealed single crystal silicon ingot into at least two single crystal silicon wafers.
Method for producing a cable assembly, having a cable connector and an electrical cable which is connected to the cable connector, which electrical cable comprises at least one insulation layer and a cable sheath which encloses the insulation layer, wherein the cable sheath is at least in portions removed on at least one conductor end portion, said method comprising the following steps: - positioning the cable connector on the conductor end portion so that a portion of the insulation layer is at least partially enclosed by the cable connector; - disposing the conductor end portion within a fastening tube so that a first tubular portion of the fastening tube at least in portions encloses the cable connector, and a second tubular portion of the fastening tube at least in portions encloses the cable sheath; - compressing the fastening tube between a plurality of stripe-shaped pressing faces which are disposed about a central axis at a constant spacing from the central axis, and the pressing faces in a synchronized manner impinging the fastening tube with a force, characterized in that the first tubular portion is crimped to the cable connector, and the second tubular portion is crimped to the cable sheath; the first tubular portion being compressed to a first internal diameter, and the second tubular portion being compressed to a second internal diameter, and the first internal diameter being smaller than the second internal diameter. - positioning the cable connector on the conductor end portion so that a portion of the insulation layer is at least partially enclosed by the cable connector; - disposing the conductor end portion within a fastening tube so that a first tubular portion of the fastening tube at least in portions encloses the cable connector, and a second tubular portion of the fastening tube at least in portions encloses the cable sheath; - compressing the fastening tube between a plurality of stripe-shaped pressing faces which are disposed about a central axis at a constant spacing from the central axis, and the pressing faces in a synchronized manner impinging the fastening tube with a force,
A barrier structure for thermal seaming (100, 200, 300) comprising: a fluoropolymer layer (102, 202, 302), having a major surface (104, 204, 206, 306), wherein the major surface is C-treated; and a polymeric layer (106, 208, 210, 312) overlying the major surface of the fluoropolymer layer; characterized in that the fluoropolymer layer has a thickness of 0.02 millimeters to 0.3 millimeters, the barrier structure is thermally seamable, and the barrier structure has a chemical permeation breakthrough detection time greater than about one hour for hazardous chemicals as measured by ASTM F739. a fluoropolymer layer (102, 202, 302), having a major surface (104, 204, 206, 306), wherein the major surface is C-treated; and a polymeric layer (106, 208, 210, 312) overlying the major surface of the fluoropolymer layer; characterized in that the fluoropolymer layer has a thickness of 0.02 millimeters to 0.3 millimeters, the barrier structure is thermally seamable, and the barrier structure has a chemical permeation breakthrough detection time greater than about one hour for hazardous chemicals as measured by ASTM F739.