mhurhangee/patent-ind-claim-en huggingface dataset:
An optical system comprising: a first sensor configured to generate a first image in a first wavelength range; a second sensor configured to generate a second image in a second wavelength range; an autofocus system configured to: receive a first signal corresponding to the first wavelength range; receive a second signal corresponding to the second wavelength range; receive information on an operation mode , the operation mode indicating a use of the first wavelength range or the second wavelength range; and use the information on the operation mode to determine an output signal comprising a focus setting information, the focus setting information using the first signal and the second signal ; a controller configured to control a focus system of the optical system using the output signal ; and characterized by an imaging system configured to combine the first image and the second image into an observable image. a first sensor configured to generate a first image in a first wavelength range; a second sensor configured to generate a second image in a second wavelength range; an autofocus system configured to: receive a first signal corresponding to the first wavelength range; receive a second signal corresponding to the second wavelength range; receive information on an operation mode , the operation mode indicating a use of the first wavelength range or the second wavelength range; and use the information on the operation mode to determine an output signal comprising a focus setting information, the focus setting information using the first signal and the second signal ; receive a first signal corresponding to the first wavelength range; receive a second signal corresponding to the second wavelength range; receive information on an operation mode , the operation mode indicating a use of the first wavelength range or the second wavelength range; and use the information on the operation mode to determine an output signal comprising a focus setting information, the focus setting information using the first signal and the second signal ; a controller configured to control a focus system of the optical system using the output signal ; and characterized by an imaging system configured to combine the first image and the second image into an observable image.
A frictional connection comprising a connecting element and two components , the two components being frictionally joined with the connecting element , wherein the connecting element comprises a metal substrate having a first joining surface on one side of the substrate and a second joining surface on an opposite side of the substrate , wherein each joining surface comprises hard particles fixed on the metal substrate by a metallic binder layer , and wherein each of the two components has a component joining surface , and wherein at least one part of the component joining surface of at least one component comprises a polymeric material , and wherein the polymeric material comprises at least one continuous layer, and wherein the hardness of the at least one continuous layer of the polymeric material is at least 3H, and wherein the hardness is measured according to DIN EN ISO 15184:2012.
A repositioning assembly for a compression-distraction apparatus with a support and threaded rods , said repositioning assembly comprising sleeves with threaded shanks brackets , a threaded strut , a slider , wherein said sleeves are hingedly connected via the threaded shanks to the brackets fixed on the threaded rods via fastening members, wherein the sleeves are arranged on the threaded strut with a possibility of moving linearly and pivoting, wherein the threaded strut is arranged with a possibility of moving linearly and pivoting in a hole of the slider and fixed via fastening members, wherein the slider is provided with a T-sectioned longitudinal slot on the side opposite to the hole , the end of the T-sectioned slot provided with a plug having a recess , wherein the slider comprises a guide having longitudinal slots on lateral sides of the slider for arranging the slider on ridges of the T-sectioned slot , a longitudinal threaded channel , and an external shank for fixing the guide in a hole provided in the support by means of a fastening member, a drive screw being arranged in the T-sectioned slot and in the longitudinal threaded channel and fixed by the plug with the recess .
A fluid shutoff valve assembly for a fluid filling line, the valve assembly having a fluid flow path defining a direction of fluid flow, the assembly comprising: a fluid inlet orifice in fluid communication with a source of a fluid, the fluid inlet orifice allowing the fluid to flow in the direction of fluid flow from the source of the fluid into the fluid flow path of the valve assembly ; a fluid outlet orifice in fluid communication with the fluid flow path of the valve assembly and through which the fluid may flow out of the valve assembly ; a first valve , the first valve being located upstream of a second valve and configured to shut off the source of fluid from the fluid flow path while the second valve is in at least a partially open configuration; and the second valve being in fluid communication with the fluid inlet and the fluid outlet , the second valve comprising a stopping structure having a fluid blocking portion and a fluid flow-through portion, the stopping structure being moveable from a filling position wherein the fluid flow-through portion is aligned with the fluid flow path such that fluid passes through the stopping structure to a closed position wherein the fluid blocking portion is aligned with the fluid flow path , characterised in that the second valve is a piston-type valve oriented such that the stopping structure moves in a direction that is up to about 45 degrees in any direction from exactly perpendicular to the fluid flow path and preferably at least about 60 degrees different from the direction of fluid flow at a location where the second valve intercepts the fluid flow path . a fluid inlet orifice in fluid communication with a source of a fluid, the fluid inlet orifice allowing the fluid to flow in the direction of fluid flow from the source of the fluid into the fluid flow path of the valve assembly ; a fluid outlet orifice in fluid communication with the fluid flow path of the valve assembly and through which the fluid may flow out of the valve assembly ; a first valve , the first valve being located upstream of a second valve and configured to shut off the source of fluid from the fluid flow path while the second valve is in at least a partially open configuration; and the second valve being in fluid communication with the fluid inlet and the fluid outlet , the second valve comprising a stopping structure having a fluid blocking portion and a fluid flow-through portion, the stopping structure being moveable from a filling position wherein the fluid flow-through portion is aligned with the fluid flow path such that fluid passes through the stopping structure to a closed position wherein the fluid blocking portion is aligned with the fluid flow path , characterised in that the second valve is a piston-type valve oriented such that the stopping structure moves in a direction that is up to about 45 degrees in any direction from exactly perpendicular to the fluid flow path and preferably at least about 60 degrees different from the direction of fluid flow at a location where the second valve intercepts the fluid flow path .
A secondary battery , comprising a negative electrode plate , wherein the negative electrode plate comprises a negative electrode current collector and a negative electrode film , and the negative electrode film comprises a first negative electrode film and a second negative electrode film ; the first negative electrode film is disposed on at least one surface of the negative electrode current collector and comprises a first negative electrode active material; the second negative electrode film is disposed on the first negative electrode film and comprises a second negative electrode active material; the first negative electrode active material and the second negative electrode active material both comprise artificial graphite; the first negative electrode active material comprises primary particles, and a number percentage of the primary particles in the first negative electrode active material A satisfies A≥50%, and the second negative electrode active material comprises secondary particles, and a number percentage of the secondary particles in the second negative electrode active material B satisfies: B≥30%. the first negative electrode film is disposed on at least one surface of the negative electrode current collector and comprises a first negative electrode active material; the second negative electrode film is disposed on the first negative electrode film and comprises a second negative electrode active material; the first negative electrode active material and the second negative electrode active material both comprise artificial graphite; the first negative electrode active material comprises primary particles, and a number percentage of the primary particles in the first negative electrode active material A satisfies A≥50%, and the second negative electrode active material comprises secondary particles, and a number percentage of the secondary particles in the second negative electrode active material B satisfies: B≥30%.
An injection molded article comprising: i) 27% to 87% by weight based on the total weight of the components i to iv of a polyester constructed from aliphatic dicarboxylic acids and aliphatic diols; ii) 3% to 15% by weight based on the total weight of the components i to iv of an aliphatic-aromatic polyester comprising: ii-a) 30 to 70 mol% based on the components ii-a to ii-b of a C 6 -C1 8 -dicarboxylic acid; ii-b) 30 to 70 mol% based on the components ii-a to ii-b of terephthalic acid; ii-c) 99 to 100 mol% based on the components ii-a to ii-b of 1,3-propanediol or 1,4-butanediol; ii-d) 0% to 1% by weight based on the components ii-a to ii-c of a chain extender and/or branching agent; iii) 0% to 35% by weight based on the total weight of the components i to iv of polylactic acid; iv) 10% to 35% by weight based on the total weight of the components i to iv of at least one surface-modified kaolin. i) 27% to 87% by weight based on the total weight of the components i to iv of a polyester constructed from aliphatic dicarboxylic acids and aliphatic diols; ii) 3% to 15% by weight based on the total weight of the components i to iv of an aliphatic-aromatic polyester comprising: ii-a) 30 to 70 mol% based on the components ii-a to ii-b of a C 6 -C1 8 -dicarboxylic acid; ii-b) 30 to 70 mol% based on the components ii-a to ii-b of terephthalic acid; ii-c) 99 to 100 mol% based on the components ii-a to ii-b of 1,3-propanediol or 1,4-butanediol; ii-d) 0% to 1% by weight based on the components ii-a to ii-c of a chain extender and/or branching agent; ii-a) 30 to 70 mol% based on the components ii-a to ii-b of a C 6 -C1 8 -dicarboxylic acid; ii-b) 30 to 70 mol% based on the components ii-a to ii-b of terephthalic acid; ii-c) 99 to 100 mol% based on the components ii-a to ii-b of 1,3-propanediol or 1,4-butanediol; ii-d) 0% to 1% by weight based on the components ii-a to ii-c of a chain extender and/or branching agent; iii) 0% to 35% by weight based on the total weight of the components i to iv of polylactic acid; iv) 10% to 35% by weight based on the total weight of the components i to iv of at least one surface-modified kaolin.
Clamping arrangement having two spring-force terminals , wherein the two spring-force terminals each comprise a clamping cage and a spring , and wherein an electrical conductor can be inserted into each of the two clamping cages in an insertion direction , and can be clamped between said clamping cage and the spring , wherein the first insertion direction of the first of the two spring-force terminals and the second insertion direction of the second of the two spring-force terminals are arranged at an angle larger than 0° to one another, wherein the two spring-force terminals are arranged one behind the other in one of the insertion directions of the electrical conductor , and in that the first insertion direction of the first of the two spring-force terminals and the second insertion direction of the second of the two spring-force terminals are arranged at a right angle to one another or counter to one another, wherein the two spring-force terminals comprise an operating element for opening the spring , wherein the operating elements are each actuatable in the insertion direction associated with the spring-force terminal thereof, characterised in that at least one of the operating elements is also actuatable at a right angle to the insertion direction associated with the spring-force terminal thereof.
An electrode material for an aluminum electrolytic capacitor, comprising, as constituent elements, a sintered body of a powder of at least one member selected from the group consisting of aluminum and aluminum alloys, and an aluminum foil substrate supporting the sintered body thereon, wherein the content of silicon in the aluminium alloy is 50 weight ppm or less, the powder has an average particle size D 50 of 0.5 to 100 μm, the sintered body is formed on one surface or both surfaces of the aluminum foil substrate and has a total thickness of 10 to 1,000 μm, the sintered body is obtained by applying a rolling process to a film made from a composition comprising a powder of at least one member selected from the group consisting of aluminum and aluminum alloys, in such a manner that the film has a reduction within a range that exceeds 0% but is 15% or less with respect to the thickness of the film, and subsequently sintering the film wherein the porosity of the sintered body is 35 to 49% by volume. the content of silicon in the aluminium alloy is 50 weight ppm or less, the powder has an average particle size D 50 of 0.5 to 100 μm, the sintered body is formed on one surface or both surfaces of the aluminum foil substrate and has a total thickness of 10 to 1,000 μm, the sintered body is obtained by applying a rolling process to a film made from a composition comprising a powder of at least one member selected from the group consisting of aluminum and aluminum alloys, in such a manner that the film has a reduction within a range that exceeds 0% but is 15% or less with respect to the thickness of the film,
A method for producing a γ-glutamyl-valyl-glycine crystal, comprising the steps of: reacting valyl-glycine or a salt thereof with a γ-glutamyl group donor in the presence of γ-glutamyl transferase or a microorganism containing the enzyme to prepare a mixed solution of valyl-glycine or the salt thereof and γ-glutamyl-valyl-glycine, in which the mixed solution contains valyl-glycine in an amount of 20 mass% or more relative to the mass of γ-glutamyl-valyl-glycine; adjusting the amount of valyl-glycine or the salt thereof in the prepared mixed solution to 0.1 mass% or more and less than 20 mass% relative to the mass of γ-glutamyl-valyl-glycine in the solution to prepare a γ-glutamyl-valyl-glycine solution; and subjecting the γ-glutamyl-valyl-glycine solution to a crystallization procedure to produce the γ-glutamyl-valyl-glycine crystal. reacting valyl-glycine or a salt thereof with a γ-glutamyl group donor in the presence of γ-glutamyl transferase or a microorganism containing the enzyme to prepare a mixed solution of valyl-glycine or the salt thereof and γ-glutamyl-valyl-glycine, in which the mixed solution contains valyl-glycine in an amount of 20 mass% or more relative to the mass of γ-glutamyl-valyl-glycine; adjusting the amount of valyl-glycine or the salt thereof in the prepared mixed solution to 0.1 mass% or more and less than 20 mass% relative to the mass of γ-glutamyl-valyl-glycine in the solution to prepare a γ-glutamyl-valyl-glycine solution; and subjecting the γ-glutamyl-valyl-glycine solution to a crystallization procedure to produce the γ-glutamyl-valyl-glycine crystal.
A system for debundling fiber tow into chopped fibers comprising: a cutting element configured to receive fiber tows , preferably of glass, carbon, polyimides, polyesters, or polyamides, and combinations thereof, fed from one or more reels of fiber tow, said cutting element preferably comprising a series of blades to form chopped fibers from the fiber tows ; a cylindrical tube configured to receive the chopped fibers and provided with means for directing into the tube an upward pressurized gas flow with both rotary and vertical flow components to create a debundling vortex in the tube for debundling the chopped fibers; a moving belt positioned under the tube, the moving belt being configured to collect the chopped fibers exiting the tube under gravity and to move in a direction into a treatment chamber ; a dispenser positioned above the moving belt, the dispenser being configured to dispense a binder and optionally an additive onto the chopped fibers collected on the moving belt, and thus forming chemically treated chopped fibers; and the treatment chamber is configured to receive the chemically treated chopped fibers and to form therewith a preformed mat . a cutting element configured to receive fiber tows , preferably of glass, carbon, polyimides, polyesters, or polyamides, and combinations thereof, fed from one or more reels of fiber tow, said cutting element preferably comprising a series of blades to form chopped fibers from the fiber tows ; a cylindrical tube configured to receive the chopped fibers and provided with means for directing into the tube an upward pressurized gas flow with both rotary and vertical flow components to create a debundling vortex in the tube for debundling the chopped fibers; a moving belt positioned under the tube, the moving belt being configured to collect the chopped fibers exiting the tube under gravity and to move in a direction into a treatment chamber ; a dispenser positioned above the moving belt, the dispenser being configured to dispense a binder and optionally an additive onto the chopped fibers collected on the moving belt, and thus forming chemically treated chopped fibers; and the treatment chamber is configured to receive the chemically treated chopped fibers and to form therewith a preformed mat .
A method of forming an electrode which is movable in an out-of-plane direction, comprising: forming an oxide layer above an upper surface of a device layer ; etching an etch stop perimeter defining trench extending through the oxide layer ; forming a first cap layer portion on an upper surface of the oxide layer and within the etch stop perimeter defining trench to form a etch stop ring portion in the trench ; etching a first electrode perimeter defining trench extending through the first cap layer portion and stopping at the oxide layer ; depositing a first material insulating portion within the first electrode perimeter defining trench ; depositing a second cap layer portion above the deposited first material portion ; etching vent holes through the first and second cap layer portion (228; 272); vapor releasing a portion of the oxide layer through the vent holes with the etch stop ring portion providing a lateral etch stop; depositing a third cap layer portion above the second cap layer portion after vapor releasing the portion of the oxide layer ; etching a second electrode perimeter defining trench extending through the second cap layer portion and the third cap layer portion ; and depositing a second insulating material portion within the second electrode perimeter defining trench , such that an insulating spacer including the first insulating material portion and the second insulating material portion define a perimeter of the electrode which is movable in an out-of-plane direction. forming an oxide layer above an upper surface of a device layer ; etching an etch stop perimeter defining trench extending through the oxide layer ; forming a first cap layer portion on an upper surface of the oxide layer and within the etch stop perimeter defining trench to form a etch stop ring portion in the trench ; etching a first electrode perimeter defining trench extending through the first cap layer portion and stopping at the oxide layer ; depositing a first material insulating portion within the first electrode perimeter defining trench ; depositing a second cap layer portion above the deposited first material portion ; etching vent holes through the first and second cap layer portion (228; 272); vapor releasing a portion of the oxide layer through the vent holes with the etch stop ring portion providing a lateral etch stop; depositing a third cap layer portion above the second cap layer portion after vapor releasing the portion of the oxide layer ; etching a second electrode perimeter defining trench extending through the second cap layer portion and the third cap layer portion ; and depositing a second insulating material portion within the second electrode perimeter defining trench , such that an insulating spacer including the first insulating material portion and the second insulating material portion define a perimeter of the electrode which is movable in an out-of-plane direction.
A cover for magnetizing a tissue-penetrating medical device comprising: a sleeve member having a hollow body 20 with an exterior surface 261, an interior surface, a proximal end and a distal end to form a protective closure over a shaft of a tissue-penetrating medical device having a longitudinal axis, the proximal end of the hollow body 20 providing a receiving space for receiving at least a shaft ; of the tissue-penetrating medical device ; one or more magnets disposed along the sleeve member effective to magnetize the shaft ; and a magnetic shield ; characterized in that the magnetic shield is composed of one or more shielding materials spray-coated onto the interior surface of the sleeve member , a first face of the one or more magnets being exposed to the receiving space and an opposite face of the one of one or more magnets being exposed to the interior surface of the sleeve with the spray-coated magnetic shield. a sleeve member having a hollow body 20 with an exterior surface 261, an interior surface, a proximal end and a distal end to form a protective closure over a shaft of a tissue-penetrating medical device having a longitudinal axis, the proximal end of the hollow body 20 providing a receiving space for receiving at least a shaft ; of the tissue-penetrating medical device ; one or more magnets disposed along the sleeve member effective to magnetize the shaft ; and a magnetic shield ; characterized in that the magnetic shield is composed of one or more shielding materials spray-coated onto the interior surface of the sleeve member , a first face of the one or more magnets being exposed to the receiving space and an opposite face of the one of one or more magnets being exposed to the interior surface of the sleeve with the spray-coated magnetic shield.