mhurhangee/patent-ind-claim-en huggingface dataset:
A small volume prover apparatus , comprising: a bore cylinder having a flow inlet and a flow outlet ; a piston , having a poppet valve , maintained by and housed within said bore cylinder; a magnetized forcer, connected to and housed in said piston, comprising: a hub , with magnets configured therein, connected to the poppet valve ; and a magnetic drive chamber, comprising a hollow shaft with coils around which the hub is driven, configured to produce linear motion of said magnetized forcer. a bore cylinder having a flow inlet and a flow outlet ; a piston , having a poppet valve , maintained by and housed within said bore cylinder; a magnetized forcer, connected to and housed in said piston, comprising: a hub , with magnets configured therein, connected to the poppet valve ; and a magnetic drive chamber, comprising a hollow shaft with coils around which the hub is driven, configured to produce linear motion of said magnetized forcer.
A solid dosage form comprising two or more compounds selected from N , N- dimethyltryptamine and its deuterated analogues and pharmaceutically acceptable salts thereof, wherein the deuterated analogues are selected from: (a) α,α-dideutero- N,N -dimethyltryptamine compounds, wherein the α,α-dideutero-N,N-dimethyltryptamine compounds comprise 0 or 1 deuterium atoms at the β position, (b) α-protio, α-deutero- N,N -dimethyltryptamine compounds, wherein the α-protio, α-deutero- N,N -dimethyltryptamine compounds comprise 0, 1 or 2 deuterium atoms at the β position, and (c) compounds of Formula I: wherein: each R 1 is independently selected from H and D; R 2 is selected from CH 3 and CD 3 ; R 3 is selected from CH 3 and CD 3 ; both y H are D; and the ratio of deuterium:protium in a compound of Formula I is greater than that found naturally in hydrogen. (a) α,α-dideutero- N,N -dimethyltryptamine compounds, wherein the α,α-dideutero-N,N-dimethyltryptamine compounds comprise 0 or 1 deuterium atoms at the β position, (b) α-protio, α-deutero- N,N -dimethyltryptamine compounds, wherein the α-protio, α-deutero- N,N -dimethyltryptamine compounds comprise 0, 1 or 2 deuterium atoms at the β position, and (c) compounds of Formula I: wherein: each R 1 is independently selected from H and D; R 2 is selected from CH 3 and CD 3 ; R 3 is selected from CH 3 and CD 3 ; both y H are D; and the ratio of deuterium:protium in a compound of Formula I is greater than that found naturally in hydrogen. each R 1 is independently selected from H and D; R 2 is selected from CH 3 and CD 3 ; R 3 is selected from CH 3 and CD 3 ; both y H are D; and the ratio of deuterium:protium in a compound of Formula I is greater than that found naturally in hydrogen.
A fastener-installation system comprising: a driver operable to drive a fastener into a structure; a fastener feeder operable to load the fastener into a loaded position of the driver , wherein the fastener feeder comprises a fastener magazine to hold a plurality of fasteners ; and a driver head comprising a plurality of jaws (110A-C) moveable between a closed position and an expanded position , wherein in the closed position the plurality of jaws (110A-C) form a piercing tip to pierce material of the structure, and wherein the jaws (110A-C) spread apart the material of the structure when the jaws (110A-C) move from the closed position to the expanded position to create a path through the material through which the fastener is driven, wherein fastener-installation system is arranged such that the plurality of jaws (110A-C) move from the closed position to the expanded position as the fastener is driven through the plurality of jaws (110A-C), and characterised in that each jaw of the plurality of jaws (110A-C) includes threads (147A-C) located on an inner surface (148A-C) of the jaw to engage with a head of the fastener , wherein the threads (147A-C) are operable to act to self-center the fastener as the fastener is driven through the plurality of jaws (110A-C). a driver operable to drive a fastener into a structure; a fastener feeder operable to load the fastener into a loaded position of the driver , wherein the fastener feeder comprises a fastener magazine to hold a plurality of fasteners ; and a driver head comprising a plurality of jaws (110A-C) moveable between a closed position and an expanded position , wherein in the closed position the plurality of jaws (110A-C) form a piercing tip to pierce material of the structure, and wherein the jaws (110A-C) spread apart the material of the structure when the jaws (110A-C) move from the closed position to the expanded position to create a path through the material through which the fastener is driven, wherein fastener-installation system is arranged such that the plurality of jaws (110A-C) move from the closed position to the expanded position as the fastener is driven through the plurality of jaws (110A-C), and characterised in that each jaw of the plurality of jaws (110A-C) includes threads (147A-C) located on an inner surface (148A-C) of the jaw to engage with a head of the fastener , wherein the threads (147A-C) are operable to act to self-center the fastener as the fastener is driven through the plurality of jaws (110A-C).
Use of -13-oxo-9,11-octadecadienoic acid or a salt or ester thereof as a plant activator.
A composition comprising: an umami agent; and a taste modulator composition consisting essentially of a first taste modulator component consisting essentially of a first salt having a first cation Mg 2+ and a first anion; a second taste modulator component consisting essentially of a second salt having a second cation Ca 2+ and a second anion; and optionally a third taste modulator component consisting essentially of a third salt having a third cation selected from K + and Na + and a third anion; wherein the first taste modulator component is at a concentration of from 0.1 mM to 10 mM; wherein the second taste modulator component is at a concentration of from 0.1 mM to 10 mM; wherein the third taste modulator component, when present, is at a concentration of from 0.1 mM to 25 mM; wherein the umami agent is present in an amount of from about 0.01 wt% to about 5 wt%; wherein the first anion is selected from citrate, chloride, phosphate, carbonate, sulfate, and combinations thereof; and wherein the second anion is selected from citrate, chloride, phosphate, carbonate, sulfate, and combinations thereof an umami agent; and a taste modulator composition consisting essentially of a first taste modulator component consisting essentially of a first salt having a first cation Mg 2+ and a first anion; a second taste modulator component consisting essentially of a second salt having a second cation Ca 2+ and a second anion; and optionally a third taste modulator component consisting essentially of a third salt having a third cation selected from K + and Na + and a third anion; a first taste modulator component consisting essentially of a first salt having a first cation Mg 2+ and a first anion; a second taste modulator component consisting essentially of a second salt having a second cation Ca 2+ and a second anion; and optionally a third taste modulator component consisting essentially of a third salt having a third cation selected from K + and Na + and a third anion; wherein the first taste modulator component is at a concentration of from 0.1 mM to 10 mM; wherein the second taste modulator component is at a concentration of from 0.1 mM to 10 mM; wherein the third taste modulator component, when present, is at a concentration of from 0.1 mM to 25 mM; wherein the umami agent is present in an amount of from about 0.01 wt% to about 5 wt%; wherein the first anion is selected from citrate, chloride, phosphate, carbonate, sulfate, and combinations thereof; and wherein the second anion is selected from citrate, chloride, phosphate, carbonate, sulfate, and combinations thereof
A high-strength seamless stainless steel pipe having a composition comprising, by mass%, 0.012% or more and 0.05% or less C, 1.0% or less Si, 0.1 to 0.5% Mn, 0.05% or less P, 0.005% or less S, more than 16.0% to 18.0% or less Cr, more than 2.0% to 3.0% or less Mo, 0.5 to 3.5% Cu, 3.0% or more and less than 5.0% Ni, 0.01 to 3.0% W, 0.01 to 0.1% Nb, 0.001 to 0.01% Ti, 0.02 to 0.1% Al, less than 0.07% N, 0.01% or less O, optionally one kind or two or more kinds selected from a group consisting of 0.5% or less V, 0.2% or less Zr, 1.4% or less Co, 0.1% or less Ta, 0.0050% or less B , 0.0005 to 0.0050% Ca and 0.001 to 0.01% REM, and Fe and unavoidable impurities as a balance, wherein the steel pipe has a microstructure comprising of a tempered martensite phase forming a main phase, 20 to 40% of a ferrite phase in terms of volume ratio, and 25% or less of a residual austenite phase in terms of volume ratio, an average grain size of the ferrite phase measured in accordance with JIS G 0551 is 40pm or less, and a sum of amounts of Ti and Nb which are precipitated as precipitates having a grain size of 2μm or less is 0.06 mass% or more, wherein the sum of amounts of Ti and Nb are determined as indicated in the description, whereby the steel pipe has high strength where yield strength YS is 758MPa or more measured in accordance with API standard 5CT and high toughness where an absorbing energy value vE -10 in a Charpy impact test according to JIS Z 2242 at a test temperature of -10°C is 40J or more.
An immersible solenoid valve comprising: an electromagnetic motor including a slideable ferromagnetic armature within said electromagnetic motor, said armature being moveable in a linear fashion; a sealing member providing a generally flat sealing surface ; a valve member adapted to be moved as a result of movement of said armature ; and a hydraulic body encompassing said valve member positioned adjacent said sealing surface, said hydraulic body having an engagement surface engaged with said sealing surface, and further comprising: a ferromagnetic casing ; a magnetically connecting flux washer ; a ferromagnetic annular flux tube ; a ferromagnetic annular pole piece ; a coil and bobbin assembly characterised in, that said engagement surface has a spiral like undulated expansion artery connecting an interior of said hydraulic body with a peripheral exterior of said solenoid valve, said expansion artery having lateral sealing surfaces formed by the engagement surface , said lateral sealing surfaces having a width at least as great as a half of a transverse width of said expansion artery. an electromagnetic motor including a slideable ferromagnetic armature within said electromagnetic motor, said armature being moveable in a linear fashion; a sealing member providing a generally flat sealing surface ; a valve member adapted to be moved as a result of movement of said armature ; and a hydraulic body encompassing said valve member positioned adjacent said sealing surface, said hydraulic body having an engagement surface engaged with said sealing surface, and further comprising: a ferromagnetic casing ; a magnetically connecting flux washer ; a ferromagnetic annular flux tube ; a ferromagnetic annular pole piece ; a coil and bobbin assembly characterised in, that said engagement surface has a spiral like undulated expansion artery connecting an interior of said hydraulic body with a peripheral exterior of said solenoid valve, said expansion artery having lateral sealing surfaces formed by the engagement surface , said lateral sealing surfaces having a width at least as great as a half of a transverse width of said expansion artery.
A conjugate having factor VIII procoagulant activity comprising a B-domain deleted functional factor VIII polypeptide which is mutated such that the lysine residue at amino acid position 1804 is replaced with a cysteine residue such that a mutant cysteine residue exists, wherein the B-domain deleted factor VIII polypeptide is covalently attached to a biocompatible polymer at the mutant cysteine residue at the amino acid position 1804.
A hydraulic machine of the Pelton type comprising a runner with a plurality of cups , at least two nozzles and a guide wall for diverting spray water which encloses the runner , and wherein the nozzles project from the outside into the space enclosed by the guide wall and wherein the hydraulic machine comprises a deflector for each nozzle , which can deflect the water jets emerging from the nozzles during operation, and wherein each deflector comprises a holm , two wings and a deflector body and wherein the two wings form a fork with a branch point, and the holm is connected to the branch point of the fork, and wherein the deflector body extends between the two ends of the wings facing away from the holm , and wherein each deflector is designed to be rotatable about an axis of rotation, and wherein the axis of rotation penetrates the deflector in the region of the holm , and in each intended rotational position of the deflector the fork and the deflector body are arranged completely within the guide wall , and wherein the holm penetrates the guide wall .
A method for ultrasonic double-wave measurement of a pre-tightening force and temperature of a solid material, characterized by comprising the following steps: S01: obtaining a temperature T 0 and pre-tightening force F 0 of a solid material in a first state, and a first mode wave time-of-flight T S0 and a second mode wave time-of-flight T L0 of an ultrasonic double-wave in this state; S02: measuring a first mode wave time T S and a second mode wave time T L of the ultrasonic double-wave of the solid material in an unknown state; S03: obtaining a first mode wave temperature influence coefficient K TS and a second mode wave temperature influence coefficient K TL of the solid material, and a first mode wave pre-tightening force influence coefficient K FS and a second mode wave pre-tightening force influence coefficient K FL in the solid material to be measured having the same specification and geometric shape; and S04: obtaining a relative change relationship of ultrasonic double-wave time-of-flight according to the first-order Taylor approximation as: T S − T S 0 / T S 0 = K TS ⋅ T − T 0 + K FS ⋅ F − F 0 T L − T L 0 / T L 0 = K TL ⋅ T − T 0 + K TL ⋅ F − F 0 wherein, F is the measured pre-tightening force, and T is the measured temperature; jointly solving the measured pre-tightening force F by means of formulas (I) and (II) : F = K TL T S − T S 0 / T S 0 − K TS T L − T L 0 / T L 0 K TL K FS − K TS K FL + F 0 ; and solving the measured temperature T: T = K FL T S − T S 0 / T S 0 − K FS T L − T L 0 / T L 0 K TS K FL − K TL K FS + T 0 . S01: obtaining a temperature T 0 and pre-tightening force F 0 of a solid material in a first state, and a first mode wave time-of-flight T S0 and a second mode wave time-of-flight T L0 of an ultrasonic double-wave in this state; S02: measuring a first mode wave time T S and a second mode wave time T L of the ultrasonic double-wave of the solid material in an unknown state; S03: obtaining a first mode wave temperature influence coefficient K TS and a second mode wave temperature influence coefficient K TL of the solid material, and a first mode wave pre-tightening force influence coefficient K FS and a second mode wave pre-tightening force influence coefficient K FL in the solid material to be measured having the same specification and geometric shape; and S04: obtaining a relative change relationship of ultrasonic double-wave time-of-flight according to the first-order Taylor approximation as: T S − T S 0 / T S 0 = K TS ⋅ T − T 0 + K FS ⋅ F − F 0 T L − T L 0 / T L 0 = K TL ⋅ T − T 0 + K TL ⋅ F − F 0 wherein, F is the measured pre-tightening force, and T is the measured temperature; jointly solving the measured pre-tightening force F by means of formulas (I) and (II) : F = K TL T S − T S 0 / T S 0 − K TS T L − T L 0 / T L 0 K TL K FS − K TS K FL + F 0 ; and solving the measured temperature T: T = K FL T S − T S 0 / T S 0 − K FS T L − T L 0 / T L 0 K TS K FL − K TL K FS + T 0 .
A combination comprising zidovudine or a pharmaceutically acceptable salt and/or solvate thereof and an antimicrobial compound selected from nitrofurantoin, mecillinam, pivmecillinam, fosfomycin, faropenem, and faropenem medoxomil, or a pharmaceutically acceptable salt and/or solvate thereof.
A flow cell for reducing one or more pathogens in a fluid, the flow cell comprising: a plurality of channels , each of the plurality of channels comprising: a depth of less than 0.150 mm; a first wall transparent to ultraviolet light; a second wall transparent to ultraviolet light; an inlet port , wherein fluid enters the flow cell through the inlet port ; at least one inlet manifold in fluid communication with the inlet port and the plurality of channels , wherein a cross section of the at least one inlet manifold tapers from a proximal end of the at least one inlet manifold to a distal end of the at least one inlet manifold ; an outlet port wherein fluid exits the flow cell through the outlet port ; at least one outlet manifold in fluid communication with the outlet port and the plurality of channels, wherein a cross section of the at least one outlet manifold tapers from a proximal end of the at least one outlet manifold to a distal end of the at least one outlet manifold . a plurality of channels , each of the plurality of channels comprising: a depth of less than 0.150 mm; a first wall transparent to ultraviolet light; a second wall transparent to ultraviolet light; a depth of less than 0.150 mm; a first wall transparent to ultraviolet light; a second wall transparent to ultraviolet light; an inlet port , wherein fluid enters the flow cell through the inlet port ; at least one inlet manifold in fluid communication with the inlet port and the plurality of channels , wherein a cross section of the at least one inlet manifold tapers from a proximal end of the at least one inlet manifold to a distal end of the at least one inlet manifold ; an outlet port wherein fluid exits the flow cell through the outlet port ; at least one outlet manifold in fluid communication with the outlet port and the plurality of channels, wherein a cross section of the at least one outlet manifold tapers from a proximal end of the at least one outlet manifold to a distal end of the at least one outlet manifold .
A refrigerant compressor comprising: an electric component; and a compression component driven by the electric component to compress a refrigerant, wherein: at least one sliding member constituting the compression component is made of a base material that is an iron-based material; an abrasion resistance film including a surface layer constituted by at least fine crystals is formed on a sliding surface of the sliding member ; the surface layer includes an A portion in which a component contained most is diiron trioxide (Fe 2 O 3 ); and the A portion exists within a range of 0.3 μm or less from an outermost surface of the sliding surface, characterized in that the surface layer is constituted by at least a surface-a layer and a surface-b layer which are different in crystal density from each other. an electric component; and a compression component driven by the electric component to compress a refrigerant, wherein: at least one sliding member constituting the compression component is made of a base material that is an iron-based material; an abrasion resistance film including a surface layer constituted by at least fine crystals is formed on a sliding surface of the sliding member ; the surface layer includes an A portion in which a component contained most is diiron trioxide (Fe 2 O 3 ); and the A portion exists within a range of 0.3 μm or less from an outermost surface of the sliding surface, characterized in that the surface layer is constituted by at least a surface-a layer and a surface-b layer which are different in crystal density from each other. at least one sliding member constituting the compression component is made of a base material that is an iron-based material; an abrasion resistance film including a surface layer constituted by at least fine crystals is formed on a sliding surface of the sliding member ; the surface layer includes an A portion in which a component contained most is diiron trioxide (Fe 2 O 3 ); and the A portion exists within a range of 0.3 μm or less from an outermost surface of the sliding surface, characterized in that the surface layer is constituted by at least a surface-a layer and a surface-b layer which are different in crystal density from each other.
A brush module for a rotating electric machine, in particular for a current-excited synchronous machine, the brush module having at least two brushes for establishing electrical contact with slip rings of the electric machine, the brush module having a housing device and brush holders for accommodating and supporting the brushes , the housing device having a collecting device for collecting brush dust of the brushes , characterized in that the collecting device has pockets for collecting brush dust, the pockets being disposed downstream of the brush in a direction of rotation of a slip ring , the pockets being formed by ribs extending in the direction of rotation , the ribs being formed by the housing device or being inserted in the housing device , each brush being provided with its own collecting device .
A heating element for use with an apparatus for heating smokable material to volatilise at least one component of the smokable material, the heating element being formed as a single body and formed from heating material that is heatable by penetration with a varying magnetic field, wherein first and second portions of the heating element have different respective thermal masses, wherein the first portion is heatable at a first rate when penetrated with a varying magnetic field, and the second portion is heatable at a second rate when penetrated with a varying magnetic field, the first rate being different from the second rate.
A device for producing a workpiece from at least one sheet-like material, wherein the device comprises a mold corresponding to the workpiece for the sheet-like material, wherein the device comprises at least one pressing head for the sheet-like material cooperating with the mold , wherein the device comprises at least two grippers with at least one first clamping element and at least one second clamping element , wherein the at least one first clamping element is arranged on a first side of a clamping gap and the at least second clamping element is arranged on a second side of the clamping gap located opposite the first side, wherein at least one of the clamping elements is divided into segments which are separated from one another at least in one direction parallel to a longitudinal extension of the clamping gap , wherein both the at least one first clamping element and the at least one second clamping element are divided into segments which are separated from one another at least in one direction parallel to a longitudinal extension of the clamping gap , wherein a segment of the at least one second clamping element opposes each segment of the at least one first clamping element , wherein a segment of the at least one first clamping element and a segment of the at least one second clamping element opposing said segment form a pair of gripping jaws, wherein the segments forming a pair of gripping jaws are mounted so as to be displaceable in a direction extending perpendicularly or transversely to the longitudinal extension of the clamping gap , wherein the at least two grippers are each arranged on at least one robot arm ; or the device comprises at least two opposing portals , wherein each of the at least two grippers is linearly displaceable along one of the at least two portals , wherein between the two portals , a cross member connecting longitudinal members of the two portals can be arranged, wherein the cross member is mounted on the longitudinal members so as to be displaceable in a longitudinal extension thereof, and wherein the at least two grippers are mounted so as to be displaceable along the cross member and transversely to the longitudinal extension of the longitudinal members .