mhurhangee/ep-ind-claims huggingface dataset:
A method for analyzing hemoglobin in a blood sample by liquid chromatography comprising subjecting the flow path (40,50) of the liquid chromatography to a surface treatment with a liquid in which is dissolved a surface treating agent having a molecular weight of 200 or less and having two or more chemical structures in each of which a hydroxy group (-OH) and an oxo group (=O) are respectively bonded directly to one phosphorus atom, wherein the surface treatment is carried out before, or simultaneously with, hemoglobin analysis of the blood sample and wherein the surface treatment agent is bound to metallic portions of the flow path.
A biodegradable shotgun cartridge comprising a rim, a case and at least one base wad and at least one container wad, wherein said case, said at least one base wad and said at least one container wad are each made of a material made from (i) a biodegradable bioplastic and (ii) an inert and non-toxic mineral filler, wherein said biodegradable bioplastic consists of PLA and a biodegradable polymer with elastomeric properties, and wherein said mineral filler comprises no more than 70% by weight with respect to the total weight of said material.
A light emitting device comprising: a substrate; a first phosphor converted LED comprising a first semiconductor LED disposed on the substrate, a first wavelength converting structure disposed on a surface of the first semiconductor LED opposite from the substrate, a light emitting external surface located opposite from the substrate, and side walls extending from the substrate to the light emitting surface; a second phosphor converted LED comprising a second semiconductor LED disposed on the substrate, a second wavelength converting structure disposed on a surface of the second semiconductor LED opposite from the substrate, a light emitting external surface opposite from the substrate, and side walls extending from the substrate to the light emitting surface, the second phosphor converted LED being spaced apart from the first phosphor converted LED by a street defined by the substrate, a side wall of the first phosphor converted LED, and an adjacent side wall of the second phosphor converted LED; wherein the first phosphor converted LED emits blue light, green light or red light; characterized by the street being less than 0.10 millimeters wide; a side reflector disposed in the street on a side wall of the first phosphor converted LED and including one or more pigments that absorb light in at least a portion of the spectrum of light emitted by the first phosphor converted LED; and wherein one or more of the pigments (i) absorb green and blue light and reflect red light, (ii) absorb red light and reflect green light, or (iii) reflect blue light and absorb green light, red light, or both. a substrate; a first phosphor converted LED comprising a first semiconductor LED disposed on the substrate, a first wavelength converting structure disposed on a surface of the first semiconductor LED opposite from the substrate, a light emitting external surface located opposite from the substrate, and side walls extending from the substrate to the light emitting surface; a second phosphor converted LED comprising a second semiconductor LED disposed on the substrate, a second wavelength converting structure disposed on a surface of the second semiconductor LED opposite from the substrate, a light emitting external surface opposite from the substrate, and side walls extending from the substrate to the light emitting surface, the second phosphor converted LED being spaced apart from the first phosphor converted LED by a street defined by the substrate, a side wall of the first phosphor converted LED, and an adjacent side wall of the second phosphor converted LED; wherein the first phosphor converted LED emits blue light, green light or red light; characterized by the street being less than 0.10 millimeters wide; a side reflector disposed in the street on a side wall of the first phosphor converted LED and including one or more pigments that absorb light in at least a portion of the spectrum of light emitted by the first phosphor converted LED; and wherein one or more of the pigments (i) absorb green and blue light and reflect red light, (ii) absorb red light and reflect green light, or (iii) reflect blue light and absorb green light, red light, or both.
A method for determining one or more defects of an aircraft rotating machine, the method comprising: • a step of measuring at least one acoustic signal (Ai) and at least one vibratory signal (Vk) during the same operating phase of the rotating machine, • a step of converting each acoustic signal (Ai) and each vibratory signal (Vk) into an acoustic frequency spectrum (SAi) and a vibratory frequency spectrum (SVk) respectively, so as to obtain all the frequency spectra (SAi, SVk), • a step of determining a set of frequencies of interest in all the frequency spectra (SAi, SVk), each frequency of interest (fg) belonging to a predetermined frequency range (PFg), • a step of forming a defect spectra base (DB_DEF), each defect spectrum (S_DEFm) comprising at least one frequency line (R1, R2), each frequency line (R1, R2) being obtained by linear combination of frequencies of interest (fg) the weighting coefficients (α, β) of which are predetermined, • a step of comparing each frequency spectrum (SAi, SVk) with each defect spectrum (S_DEFm) to obtain a score (SCORE) and • a step of determining the defect(s) of the rotating machine by analyzing the scores obtained (SCORE). • a step of measuring at least one acoustic signal (Ai) and at least one vibratory signal (Vk) during the same operating phase of the rotating machine, • a step of converting each acoustic signal (Ai) and each vibratory signal (Vk) into an acoustic frequency spectrum (SAi) and a vibratory frequency spectrum (SVk) respectively, so as to obtain all the frequency spectra (SAi, SVk), • a step of determining a set of frequencies of interest in all the frequency spectra (SAi, SVk), each frequency of interest (fg) belonging to a predetermined frequency range (PFg), • a step of forming a defect spectra base (DB_DEF), each defect spectrum (S_DEFm) comprising at least one frequency line (R1, R2), each frequency line (R1, R2) being obtained by linear combination of frequencies of interest (fg) the weighting coefficients (α, β) of which are predetermined, • a step of comparing each frequency spectrum (SAi, SVk) with each defect spectrum (S_DEFm) to obtain a score (SCORE) and • a step of determining the defect(s) of the rotating machine by analyzing the scores obtained (SCORE).
A blasting system, comprising: a blasting machine wired to an array of detonators; a switch connected to the blasting machine; a router connected to the switch; an Ethernet controller configured to: communicate with the blasting machine via the switch and the router using an Ethernet communications protocol to control operation of the blasting machine remotely, and display at least one function, message, or status of the blasting machine on a display associated with the controller; and a protected Ethernet connection box operatively coupled in one or more connection paths between the Ethernet controller and the blasting machine, including clamping elements to protect network elements against electrical after effects associated with a blast or detonation, the clamping elements including Zeners, transient voltage suppressors or silicon-controlled rectifiers to protect the network elements against electrical after effects including plasma or high voltage electromagnetic fields associated with the blast or detonation. a blasting machine wired to an array of detonators; a switch connected to the blasting machine; a router connected to the switch; an Ethernet controller configured to: communicate with the blasting machine via the switch and the router using an Ethernet communications protocol to control operation of the blasting machine remotely, and display at least one function, message, or status of the blasting machine on a display associated with the controller; and communicate with the blasting machine via the switch and the router using an Ethernet communications protocol to control operation of the blasting machine remotely, and display at least one function, message, or status of the blasting machine on a display associated with the controller; and a protected Ethernet connection box operatively coupled in one or more connection paths between the Ethernet controller and the blasting machine, including clamping elements to protect network elements against electrical after effects associated with a blast or detonation, the clamping elements including Zeners, transient voltage suppressors or silicon-controlled rectifiers to protect the network elements against electrical after effects including plasma or high voltage electromagnetic fields associated with the blast or detonation.
Catalyst system comprising: i. a first layer of a hydrocarbon conversion catalyst, the hydrocarbon conversion catalyst comprising: a first composition comprising a dehydrogenation active metal on a solid support; and a second composition comprising a transition metal on an inorganic support; and ii. a second layer comprising a cracking catalyst; wherein the cracking catalyst comprises a molecular sieve; wherein the molecular sieve is zeolite and/or silicalite; the zeolite is ZSM-5 having a silica to alumina ratio in the range of 20 to 1500; the dehydrogenation active metal is selected from platinum, palladium, iridium, chromium, and mixtures thereof; and the transition metal is selected from molybdenum, tungsten, rhenium, and mixtures thereof. i. a first layer of a hydrocarbon conversion catalyst, the hydrocarbon conversion catalyst comprising: a first composition comprising a dehydrogenation active metal on a solid support; and a second composition comprising a transition metal on an inorganic support; and a first composition comprising a dehydrogenation active metal on a solid support; and a second composition comprising a transition metal on an inorganic support; and ii. a second layer comprising a cracking catalyst;
A method for thermal protection of the components of the exhaust line of an internal combustion engine, according to which the temperatures of the exhaust gases and of the walls of the exhaust line are determined and according to which the component of the exhaust line having reached its maximum temperature limit is detected, and in which: - a setpoint temperature T3 consigne of the exhaust gases is determined at the outlet of said engine so as not to exceed its maximum temperature limit, and - a setpoint richness φ consigne is developed, permitting said setpoint temperature T3 consigne of the exhaust gases to be ensured, said method being characterized in that, so as to develop said setpoint richness φ consigne, a temperature of the exhaust gases at the outlet of the engine T3 estim is determined for a richness φ, said temperature T3 estim being determined from a temperature T3 estimφ=1 as a function of the different engine parameters and for a richness φ=1, said temperature T3 estimφ=1 being corrected by means of a correction function f(Q ech, φ) determined by flow mapping Q ech of the exhaust gases - setpoint richness φ, T3 estim being determined from the relationship: T 3 estim = T 3 estimφ = 1 × f Q ech φ and said setpoint richness for protection of the component is determined from the relationship: φ consigne = f − 1 Q ech T 3 Consigne T 3 estim φ = 1 f -1 () being the inverse function of f() with respect to the richness. - a setpoint temperature T3 consigne of the exhaust gases is determined at the outlet of said engine so as not to exceed its maximum temperature limit, and - a setpoint richness φ consigne is developed, permitting said setpoint temperature T3 consigne of the exhaust gases to be ensured,
A controller for use in an additive manufacturing system, the manufacturing system including a consolidation device, the consolidation device configured to consolidate material, said controller comprising a processing device and a memory device coupled to said processing device, said controller configured to: receive a build file for a component (104, 200) including a plurality of build layers, wherein each build layer of the plurality of build layers includes a component (104, 200) outer perimeter, at least one build layer generating function, at least one generating function variable, and at least one generating function constant; generate at least one control signal to control a power output throughout at least one scan path of the consolidation device across the material for each build layer of the plurality of build layers, the at least one scan path generated based at least partially on the component (104, 200) outer perimeter, the at least one generating function, the at least one generating function variable, and the at least one generating function constant for each build layer; and transmit the control signal to the consolidation device to consolidate the material throughout the at least one scan path. receive a build file for a component (104, 200) including a plurality of build layers, wherein each build layer of the plurality of build layers includes a component (104, 200) outer perimeter, at least one build layer generating function, at least one generating function variable, and at least one generating function constant; generate at least one control signal to control a power output throughout at least one scan path of the consolidation device across the material for each build layer of the plurality of build layers, the at least one scan path generated based at least partially on the component (104, 200) outer perimeter, the at least one generating function, the at least one generating function variable, and the at least one generating function constant for each build layer; and transmit the control signal to the consolidation device to consolidate the material throughout the at least one scan path.
A process for the preparation of solifenacin and/or the pharmaceutically acceptable salts thereof of high pharmaceutical purity, characterized in that a) -1-phenyl-1,2,3,4-tetrahydroisoquinoline is reacted with triphosgene in a presence of tertiary aromatic amine in aromatic hydrocarbon, b) the post-reaction mixture is evaporated and treated with non-polar aprotic solvent at reflux, and left at 5-15°C for crystallization, c) the resulting -1-phenyl-1,2,3,4-tetrahydroisoquinolinecarbonyl chloride is isolated as crystalline solid of at least 98% purity, d) the product obtained in step c) is dissolved in polar aprotic solvent and added to a suspension of -3-quinuclidinoloxy anion generated in situ from 3- -quinuclidinol in a presence of strong base in the same solvent, e) the acylation reaction of -3-quinuclidinoloxy anion with -1-phenyl-1,2,3,4-tetrahydroisoquinolinecarbonyl chloride is carried out in polar aprotic solvent, optionally in a mixture with non-polar solvent, while maintaining constant anion excess in the reaction mixture, f) after reaction completion, solifenacin base is optionally transformed into solifenacin salt according to standard procedures. a) -1-phenyl-1,2,3,4-tetrahydroisoquinoline is reacted with triphosgene in a presence of tertiary aromatic amine in aromatic hydrocarbon, b) the post-reaction mixture is evaporated and treated with non-polar aprotic solvent at reflux, and left at 5-15°C for crystallization, c) the resulting -1-phenyl-1,2,3,4-tetrahydroisoquinolinecarbonyl chloride is isolated as crystalline solid of at least 98% purity, d) the product obtained in step c) is dissolved in polar aprotic solvent and added to a suspension of -3-quinuclidinoloxy anion generated in situ from 3- -quinuclidinol in a presence of strong base in the same solvent, e) the acylation reaction of -3-quinuclidinoloxy anion with -1-phenyl-1,2,3,4-tetrahydroisoquinolinecarbonyl chloride is carried out in polar aprotic solvent, optionally in a mixture with non-polar solvent, while maintaining constant anion excess in the reaction mixture, f) after reaction completion, solifenacin base is optionally transformed into solifenacin salt according to standard procedures.
A light emitting module comprising: a light emitting device; and a lens disposed above the light emitting device and dispersing light emitted from the light emitting device, wherein the lens comprises a light incident portion through which light emitted from the light emitting device enters the lens and a light exit portion through which the light exits the lens, each of the light incident portion and the light exit portion having a major axis and a minor axis in plan view, the major axis of the light incident portion being disposed at a right angle with respect to the major axis of the light exit portion; and a lower surface of the lens comprises a slanted surface downwardly slanted with respect to a horizontal surface thereof in an outward direction of the lens, characterized in that: the lens has a protruding surface around the inlet of the light incident portion, protruding from the lower surface thereof to have a predetermined radius of curvature, and wherein a boundary between the slanted surface and the lower surface of the lens is a straight line. a light emitting device; and a lens disposed above the light emitting device and dispersing light emitted from the light emitting device, wherein the lens comprises a light incident portion through which light emitted from the light emitting device enters the lens and a light exit portion through which the light exits the lens, each of the light incident portion and the light exit portion having a major axis and a minor axis in plan view, the major axis of the light incident portion being disposed at a right angle with respect to the major axis of the light exit portion; and a lower surface of the lens comprises a slanted surface downwardly slanted with respect to a horizontal surface thereof in an outward direction of the lens, characterized in that: the lens has a protruding surface around the inlet of the light incident portion, protruding from the lower surface thereof to have a predetermined radius of curvature, and wherein a boundary between the slanted surface and the lower surface of the lens is a straight line.
Whey protein micelles for use in the treatment and/or prevention of a disorder linked to an increase in insulin secretion and/or plasma IGF-1 concentration in an infant at risk of developing obesity or diabetes.
A method comprising: recording a plurality of images corresponding to a time period covering an intended moment; recording an audio signal associated with the plurality of images using audio receiving means; analysing the recorded audio signal in order to determine an auditory event associated with a desired output image; estimating the direction of arrival of the audio signal in order to determine when an object producing the audio signal is in a desired part of at least one recorded image; and selecting the at least one recorded image of the plurality of images on the basis of the analysis of the recorded audio signal for further processing in order to obtain the desired output image. recording a plurality of images corresponding to a time period covering an intended moment; recording an audio signal associated with the plurality of images using audio receiving means; analysing the recorded audio signal in order to determine an auditory event associated with a desired output image; estimating the direction of arrival of the audio signal in order to determine when an object producing the audio signal is in a desired part of at least one recorded image; and selecting the at least one recorded image of the plurality of images on the basis of the analysis of the recorded audio signal for further processing in order to obtain the desired output image.
An apparatus for feeding a tubular object inside a drill hole comprising: a support device for supporting an elongated tube element blank having capacity for several successive tube inserts; and a feeding device for moving a front end portion of the tube element blank longitudinally inside a drill hole for providing the drill hole with a protective section extending a limited longitudinal dimension towards a bottom of the drill hole; characterized in that the apparatus further comprises: a separation device for detaching the mentioned tube inserts one by one from the tube element blank. a support device for supporting an elongated tube element blank having capacity for several successive tube inserts; and a feeding device for moving a front end portion of the tube element blank longitudinally inside a drill hole for providing the drill hole with a protective section extending a limited longitudinal dimension towards a bottom of the drill hole; characterized in that the apparatus further comprises: a separation device for detaching the mentioned tube inserts one by one from the tube element blank.
A cylinder liner of a heavy fuel oil or high ash fuel operated reciprocating engine, the cylinder liner having an inner surface acting as a running surface for piston rings, which running surface comprises an upper portion and a lower portion, wherein the upper portion includes at least a top dead center region of a topmost piston ring, and the inner surface above the running surface is provided with a groove for accommodating an anti-polishing ring, characterized in that only the upper portion of the running surface of the cylinder liner is provided with a coating of metal matrix composite reinforced with ceramic particles, the lower portion of the running surface is gray cast iron and uncoated, the metal matrix of the coating is low alloyed carbon steel or ferritic stainless steel, and the coating comprises 15 - 40 weight % of alumina and/or zirconia particles.
A load transport system for the transportation of a load in a working space, wherein the load transport system has a load carrier and at least one load receiving device, secured to the load carrier, for receiving the load and has at least three positioning lines and at least three suspension devices which are arranged at a distance from one another, wherein each suspension device has at least one positioning winch for the winding up and unwinding of one of the positioning lines and the load carrier hangs on the suspension devices by means of the positioning lines, wherein the load carrier and the load receiving device secured thereto are movable, by actuation of the positioning winches, in and/or above the working space, wherein the load carrier has at least one multiple line suspension means by means of which at least two of the positioning lines are connected to the load carrier via a respective line connector, wherein each of the line connectors is pivotably mounted on the multiple line suspension means about at least two pivot axes (22, 23, 24, 25) oriented orthogonally to one another, characterised in that all pivot axes (22, 23, 24, 25) of the line connectors intersect at a shared point of intersection of this multiple line suspension means.