mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly for an aircraft turbomachine, comprising: - an epicyclic gear speed reducer , and - at least one oil sprinkler configured to spray an oil jet oriented in a direction comprising at least one component parallel to a longitudinal axis (A) of the turbomachine, said reducer comprising a planet carrier equipped with an impeller which is intended to be secured in rotation with said planet carrier and to be rotated about an axis A of said reducer, said impeller having an annular shape about said axis and comprising means for lubricating, in particular, planet gears bearings of said reducer, said lubrication means comprising an annular cavity located at the internal periphery of said impeller, the impeller comprising an internal peripheral wall for closing off said cavity in the radial direction, the impeller comprising an annular port which extends around said axis and which opens out in the axial direction into said cavity for the purpose of being supplied with lubricating oil by said oil jet which is intended to pass through this port , said cavity being axially delimited by two annular side walls , a first of these walls being connected at its internal periphery to said closure wall and the second of these walls comprising said port or having its internal periphery radially spaced from said closure wall in order to define said port , and said cavity comprising oil guiding fins , which are configured to guide the oil and limit its disturbance depending on the direction of rotation of the impeller. - an epicyclic gear speed reducer , and - at least one oil sprinkler configured to spray an oil jet oriented in a direction comprising at least one component parallel to a longitudinal axis (A) of the turbomachine, said reducer comprising a planet carrier equipped with an impeller which is intended to be secured in rotation with said planet carrier and to be rotated about an axis A of said reducer, said impeller having an annular shape about said axis and comprising means for lubricating, in particular, planet gears bearings of said reducer, said lubrication means comprising an annular cavity located at the internal periphery of said impeller, the impeller comprising an internal peripheral wall for closing off said cavity in the radial direction, the impeller comprising an annular port which extends around said axis and which opens out in the axial direction into said cavity for the purpose of being supplied with lubricating oil by said oil jet which is intended to pass through this port , said cavity being axially delimited by two annular side walls , a first of these walls being connected at its internal periphery to said closure wall and the second of these walls comprising said port or having its internal periphery radially spaced from said closure wall in order to define said port , and said cavity comprising oil guiding fins , which are configured to guide the oil and limit its disturbance depending on the direction of rotation of the impeller.
A gerbilling-proof monowheel vehicle comprising: a. a wheel felloe with a tire thereon; b. a frame rotatably mounted within said wheel felloe ; said frame carrying a passenger seat; c. moving means configured for propelling said gerbilling-proof monowheel vehicle; d. braking means configured for decelerating said gerbilling-proof monowheel vehicle; wherein said gerbilling-proof monowheel vehicle further comprises: e. at least two auxiliary wheels side-mounted on said frame vertically; f. a control unit configured for detecting an acceleration applied to said gerbilling-proof monowheel vehicle g. a servo mechanism attached to said auxiliary wheel; wherein said auxiliary wheels are stabilizing said passenger seat and preventing said gerbilling-proof monowheel vehicle from side tipover and maintaining said passenger seat in a horizontal position within said wheel felloe ; and wherein said auxiliary wheels are synchronically displaceable opposite to a direction of movement when said gerbilling-proof monowheel vehicle is accelerated and along said direction of movement when said gerbilling-proof monowheel vehicle is decelerated; and wherein said servo mechanism is controllable by said control unit and configured for synchronically displacing said auxiliary wheels according to a detected acceleration. a. a wheel felloe with a tire thereon; b. a frame rotatably mounted within said wheel felloe ; said frame carrying a passenger seat; c. moving means configured for propelling said gerbilling-proof monowheel vehicle; d. braking means configured for decelerating said gerbilling-proof monowheel vehicle; e. at least two auxiliary wheels side-mounted on said frame vertically; f. a control unit configured for detecting an acceleration applied to said gerbilling-proof monowheel vehicle g. a servo mechanism attached to said auxiliary wheel; wherein said auxiliary wheels are stabilizing said passenger seat and preventing said gerbilling-proof monowheel vehicle from side tipover and maintaining said passenger seat in a horizontal position within said wheel felloe ; and wherein said auxiliary wheels are synchronically displaceable opposite to a direction of movement when said gerbilling-proof monowheel vehicle is accelerated and along said direction of movement when said gerbilling-proof monowheel vehicle is decelerated; and wherein said servo mechanism is controllable by said control unit and configured for synchronically displacing said auxiliary wheels according to a detected acceleration.
A cell division membrane protein variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein isoleucine, which is an amino acid corresponding to position 307 of SEQ ID NO: 3, is substituted with valine.
An analgesic compound of formula (I): wherein R comprises NH 2 , N(CH 3 ) 2 , NHCH 3 , N(CH 2 CH 3 ) 2 , N(CH 2 CH 2 ) 2 NCH 2 C 6 H 5 , NH(CH 2 ) 2 C 6 H 5 , NHCH 2 C 6 H 5 , N(CH 2 CH 2 ) 2 O, NHCH 2 CH 2 CH 2 CH 3 , NHCH 2 C 6 H 4 CH 3 , NHCH 2 C 6 H 3 Cl 2 , NHCH 2 C 6 H 5 CH 3 , NHCH 2 C 6 H 5 Cl, NHCH 2 C 6 H 5 NO 2 , NHC 5 H 9 , NHCH 2 C(CH 3 ) 2 , NHC(CH 3 ) 2 , NHCH 2 CH 2 C 6 H 3 (OH) 2 , NHCH 2 C 6 H 4 N, NHCH 2 C 6 H3NCH 3 ,NHCH 2 CH 2 C 4 H 4 N, N(CH 3 )CH 2 CH 2 OH, NHCH 2 CH(OH)CH 2 NH 2 ; or a pharmaceutically acceptable salt thereof.
A photographing method, comprising: receiving (S11) an instruction to perform photography alignment; displaying (S11) a user interface for selecting a reference picture, the reference picture comprising a photo or an image of a video; receiving a target to align with in the reference picture selected by a user, the target comprising a primary target and a secondary target, each target comprising an object; marking (S12) a contour of the target to align with in the reference picture by displaying a contour of the primary target to align with using at least one of a first color or a line of a first type, and displaying a contour of the secondary target to align with using at least one of a second color or a line of a second type; and displaying (S13) the reference picture with the contour of the primary target and the secondary target marked in a screen, wherein a part of the reference picture other than the line of the contour is displayed with transparency ranging from 0% to 100%. receiving (S11) an instruction to perform photography alignment; displaying (S11) a user interface for selecting a reference picture, the reference picture comprising a photo or an image of a video; receiving a target to align with in the reference picture selected by a user, the target comprising a primary target and a secondary target, each target comprising an object; marking (S12) a contour of the target to align with in the reference picture by displaying a contour of the primary target to align with using at least one of a first color or a line of a first type, and displaying a contour of the secondary target to align with using at least one of a second color or a line of a second type; and displaying (S13) the reference picture with the contour of the primary target and the secondary target marked in a screen, wherein a part of the reference picture other than the line of the contour is displayed with transparency ranging from 0% to 100%.
A method for assembling a rigid pipe intended to be placed in a body of water , the rigid pipe comprising a metallic inner tube , a thermally insulating insulation jacket formed from an assembly of insulating parts and an outer layer , the method comprising the following steps: - providing the metallic inner tube , - forming the insulation jacket , and - forming the outer layer around the insulation jacket , characterized in that the method comprises a step for providing a plurality of helical insulating parts and a step of mounting the helical insulating parts around the inner tube in order to form the insulation jacket , and in that the method comprises a prior step for cutting an insulating tube into helical insulating parts before the mounting step . - providing the metallic inner tube , - forming the insulation jacket , and - forming the outer layer around the insulation jacket ,
A modulating system comprising: a substrate; a waveguide supported by the substrate and configured to guide light; an active region disposed near a portion of the waveguide ; a plurality of electrical contacts configured to produce an electric field in the active region , the electric field being dependent on a selectable voltage; a heater positioned proximate the active region and configured to selectively heat the active region, wherein operatively the electric field and heater vary at least one of: a refractive index in the active region , so that variations in the refractive index modulate a phase of the light in the waveguide, and an absorption in the active region , so that variations in the absorption modulate an intensity of the light in the waveguide ; a thermal isolation region comprising a low thermal conductivity to thermally isolate the active region and the heater from the substrate; the modulating system being characterised in that it comprises a heat sink supported by the substrate, wherein the thermal isolation region is further configured to thermally isolate the active region and the heater from the heat sink, wherein the thermal conductivity of the modulation system between the modulation system and the heat sink is highest on an input side of the active region of the modulation system, and in that the active region is disposed on a portion of the waveguide. a substrate; a waveguide supported by the substrate and configured to guide light; an active region disposed near a portion of the waveguide ; a plurality of electrical contacts configured to produce an electric field in the active region , the electric field being dependent on a selectable voltage; a heater positioned proximate the active region and configured to selectively heat the active region, wherein operatively the electric field and heater vary at least one of: a refractive index in the active region , so that variations in the refractive index modulate a phase of the light in the waveguide, and an absorption in the active region , so that variations in the absorption modulate an intensity of the light in the waveguide ; a refractive index in the active region , so that variations in the refractive index modulate a phase of the light in the waveguide, and an absorption in the active region , so that variations in the absorption modulate an intensity of the light in the waveguide ; a thermal isolation region comprising a low thermal conductivity to thermally isolate the active region and the heater from the substrate; the modulating system being characterised in that it comprises a heat sink supported by the substrate, wherein the thermal isolation region is further configured to thermally isolate the active region and the heater from the heat sink, wherein the thermal conductivity of the modulation system between the modulation system and the heat sink is highest on an input side of the active region of the modulation system, and in that the active region is disposed on a portion of the waveguide.
Double seat valve for aseptic lines for product with - a valve housing , - two line ports arranged on said valve housing for connecting said aseptic lines for product to said valve housing , - two valve seats which are formed between said line ports on said valve housing and define a safety chamber formed therebetween for leaks against said line ports , - a first closure element which is actuatable by a first valve stem and acts against one of said two valve seats , and - a second closure element which is actuatable by a second valve stem and acts against the other of said two valve seats , where said first valve stem at least in sections surrounds said second valve stem so that both are movable independently along a valve axis (A), and where said first valve stem is connected via a diaphragm seal , which is formed to have a ring shape around said valve axis (A), to said second valve stem for sealing against said safety chamber , characterized in that an outer fastening portion of said ring-shaped diaphragm seal is bent inwardly toward said valve axis (A) by a bending angle (W) of more than 90°, so that it abuts against a tapered surface of a first fastening element . - a valve housing , - two line ports arranged on said valve housing for connecting said aseptic lines for product to said valve housing , - two valve seats which are formed between said line ports on said valve housing and define a safety chamber formed therebetween for leaks against said line ports , - a first closure element which is actuatable by a first valve stem and acts against one of said two valve seats , and - a second closure element which is actuatable by a second valve stem and acts against the other of said two valve seats ,
A method for preparing alkali metal hexafluorophosphate, the method comprising: obtaining an alkali metal fluoride dispersion by dispersing the alkali metal fluoride in a solid state in the haloformate solvent represented by Formula 1 below; and obtaining the alkali metal hexafluorophosphate by reacting phosphorus pentafluoride with the alkali metal fluoride in the haloformate solvent, wherein the reaction of the phosphorus pentafluoride with the alkali metal fluoride is performed by supplying the phosphorus pentafluoride in a gaseous state into the alkali metal fluoride dispersion: in Formula 1, X is F, Cl, Br, or I, R is an alkyl group having 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, or an aryl group having 5 to 6 ring atoms. obtaining an alkali metal fluoride dispersion by dispersing the alkali metal fluoride in a solid state in the haloformate solvent represented by Formula 1 below; and obtaining the alkali metal hexafluorophosphate by reacting phosphorus pentafluoride with the alkali metal fluoride in the haloformate solvent, wherein the reaction of the phosphorus pentafluoride with the alkali metal fluoride is performed by supplying the phosphorus pentafluoride in a gaseous state into the alkali metal fluoride dispersion: X is F, Cl, Br, or I, R is an alkyl group having 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, or an aryl group having 5 to 6 ring atoms.
A common path interferometer arranged to divide an input beam into first and second beam portions directed in opposite directions around a cyclic path to form an interference pattern between the first and second portions at a detector surface, the cyclic path being defined by at least two mirror regions curved in the plane of the cyclic path, such that the interference pattern represents path difference variations between the first and second beam portions across the detector surface in the plane of the cyclic path, wherein the interferometer further comprises an input optic , the interferometer characterised in that the input optic is arranged in the beam path before division of the input beam into the first and second beam portions, the input optic configured to expand the extent, or to provide convergence to reduce the extent, transversely to the plane of the cyclic path of the interference pattern at the detector surface, wherein the input optic is arranged to provide expansion or convergence across the beam substantially only in a direction transverse to the plane of the cyclic path, whereas the two mirror regions curved in the plane of the cyclic path provide convergence substantially only in a direction parallel to the plane of the cyclic path.
A suture guide comprising: first suture guide part having a first base piece and a plurality of first needle portions joined to the first base piece , each first needle portion having a respective first needle portion sidewall ; and a second suture guide part having a second base piece and a plurality of second needle portions joined to the second base piece , each second needle portion having a respective second needle portion sidewall ; wherein the first suture guide part and second suture guide part are moveable between a separated configuration and a joined configuration; wherein in the separated configuration, the first needle portions are spaced away from the second needle portions ; and wherein in the joined configuration, each one of the first needle portions is positioned adjacent and cooperates with a respective one of the second needle portions to form a needle , each needle having a respective needle sidewall formed by one of the first needle portion sidewalls and one of the second needle portion sidewalls , and each needle sidewall defining, respectively, a lumen and a pointed tip . first suture guide part having a first base piece and a plurality of first needle portions joined to the first base piece , each first needle portion having a respective first needle portion sidewall ; and a second suture guide part having a second base piece and a plurality of second needle portions joined to the second base piece , each second needle portion having a respective second needle portion sidewall ; wherein the first suture guide part and second suture guide part are moveable between a separated configuration and a joined configuration; wherein in the separated configuration, the first needle portions are spaced away from the second needle portions ; and wherein in the joined configuration, each one of the first needle portions is positioned adjacent and cooperates with a respective one of the second needle portions to form a needle , each needle having a respective needle sidewall formed by one of the first needle portion sidewalls and one of the second needle portion sidewalls , and each needle sidewall defining, respectively, a lumen and a pointed tip .
A method for producing rare earth magnets by coating sintered magnet bodies of an R 1 -Fe-B composition with a slurry in which a powder of one or more compounds selected from oxides, fluorides, oxyfluorides, hydroxides and hydrides of R 2 is dispersed in a solvent, drying the resulting sintered magnet bodies to remove the solvent from the slurry and to deposit the powder on surfaces of the sintered magnet bodies, and subjecting the resulting sintered magnet bodies to heat treatment to cause absorption of R 2 into the sintered magnet bodies, wherein R 1 and R 2 are each independently one or more elements selected from rare earth elements including Y and Sc, the method characterized by comprising: warming or heating the sintered magnet bodies before applying the coating of the slurry for a first time.
A water-based digital printing ink comprising: a) 0.5-60 wt% of an acrylamide material or blends thereof; b) 15-50 wt% of an acrylated polyurethane dispersion; c) 0-80 wt% of a monofunctional acrylate monomer or blends thereof; d) 0-10 wt% of a difunctional acrylate monomer or blends thereof; e) 0-5 wt% of a trifunctional or higher acrylate monomer or blends thereof; f) 0.1-25 wt% of a photoinitiator or blends thereof; g) 0-18 wt% of an amine synergist; h) 0-5 wt% of N-vinyl compounds; i) 1-80 wt% water; and j) 0-30 wt% of a water-compatible organic solvent; wherein the composition contains no N-vinyl caprolactam, N-vinyl pyrrolidone, or N-acryloyl morpholine; and wherein the acrylamide material is selected from the group consisting of diacetone acrylamide, N-isobutoxymethyl acrylamide, N-isopropyl acrylamide, N,N' -methylene bisacrylamide, or 2-(prop-2-enamido)ethylacetate, or a combination thereof. a) 0.5-60 wt% of an acrylamide material or blends thereof; b) 15-50 wt% of an acrylated polyurethane dispersion; c) 0-80 wt% of a monofunctional acrylate monomer or blends thereof; d) 0-10 wt% of a difunctional acrylate monomer or blends thereof; e) 0-5 wt% of a trifunctional or higher acrylate monomer or blends thereof; f) 0.1-25 wt% of a photoinitiator or blends thereof; g) 0-18 wt% of an amine synergist; h) 0-5 wt% of N-vinyl compounds; i) 1-80 wt% water; and j) 0-30 wt% of a water-compatible organic solvent;
A melt polymerization process for the manufacture of a polycarbonate composition comprising, in the following order: melt polymerizing a dihydroxy reactant and a carbonate compound to produce a molten reaction product; quenching the molten reaction product upstream of all extruders; filtering the molten reaction product in a melt filter; introducing an additive to form a mixture; and extruding the mixture to form a polycarbonate composition. melt polymerizing a dihydroxy reactant and a carbonate compound to produce a molten reaction product; quenching the molten reaction product upstream of all extruders; filtering the molten reaction product in a melt filter; introducing an additive to form a mixture; and extruding the mixture to form a polycarbonate composition.