mhurhangee/ep-ind-claims huggingface dataset:
A reassortant influenza virus comprising a first genome segment encoding an HA polypeptide comprising the amino acid sequence of SEQ ID NO:2 and a second genome segment encoding an NA polypeptide comprising the amino acid sequence of SEQ ID NO:4.
A bearing for sliding structures comprising: - an inner ring with an outer surface and an inner threaded surface configured to be fastened to a sliding structure, - a rolling system formed by an annular cage and a plurality of metal balls, wherein the cage is mounted on the outer surface of the inner ring and is provided with a plurality of through cavities arranged in radial positions around the same, and wherein the balls are housed in the cavities in a radially mobile way, wherein each ball has a greater diameter than the transverse cross section of the cage in order to enable the bearing to roll, - an outer metal ring, mounted on the rolling system and provided with an outer surface, an inner surface, and a pair of side surfaces arranged between both, wherein the inner surface has a groove configured to allow the balls to roll, - a metal stamped bushing mounted and fixed to the outer surface of the outer ring, and, - an injected thermoplastic strip with an external outer surface, an inner surface in contact with the stamped bushing, and a pair of side surfaces arranged between the two, characterized in that - the stamped bushing has an omega profile formed by compressible central part in order to retain the stamped bushing between the outer ring and the thermoplastic strip, a first foot (8") sized to make contact with the side surface of the thermoplastic strip, and a second foot sized to make contact with the side surface of the outer ring. - an inner ring with an outer surface and an inner threaded surface configured to be fastened to a sliding structure, - a rolling system formed by an annular cage and a plurality of metal balls, wherein the cage is mounted on the outer surface of the inner ring and is provided with a plurality of through cavities arranged in radial positions around the same, and wherein the balls are housed in the cavities in a radially mobile way, wherein each ball has a greater diameter than the transverse cross section of the cage in order to enable the bearing to roll, - an outer metal ring, mounted on the rolling system and provided with an outer surface, an inner surface, and a pair of side surfaces arranged between both, wherein the inner surface has a groove configured to allow the balls to roll, - a metal stamped bushing mounted and fixed to the outer surface of the outer ring, and, - an injected thermoplastic strip with an external outer surface, an inner surface in contact with the stamped bushing, and a pair of side surfaces arranged between the two, - the stamped bushing has an omega profile formed by compressible central part in order to retain the stamped bushing between the outer ring and the thermoplastic strip, a first foot (8") sized to make contact with the side surface of the thermoplastic strip, and a second foot sized to make contact with the side surface of the outer ring.
A replication defective adenovirus vector comprising: (a) the deletion of the E1 region and the deletion of the DNA polymerase gene and preterminal protein (pTP) gene of the E2b region; and (b) a nucleic acid sequence encoding carcinoembryonic antigen, for use in a method of treating cancer by generating an immune response against the cancer in an individual in need thereof, wherein the replication defective adenovirus vector is readministered at least once to the individual, thereby generating an immune response against the cancer, and wherein the replication defective adenovirus vector is not a gutted vector.
A system, comprising: a fluid seal having an annular seal body, comprising: an inner seal interface having one or more engagement portions on the innermost diameter of the seal body; an outer seal interface having one or more engagement portions on the outermost diameter of the seal body; a first elastomer portion extending between the inner and the outer seal interfaces (56, 58) and being disposed along both the inner and the outer seal interfaces (56, 58); and a second elastomer portion comprising an inner second elastomer disposed along the inner seal interface and an outer second elastomer disposed along the outer seal interface; and wherein the inner and outer second elastomers (66, 68) are separated by the first elastomer portion and characterized in that the inner and outer second elastomers (66,68) are nested within the first elastomer portion such that the second elastomer portions (54, 104) are recessed into the first elastomer portion along the inner and outer seal interfaces with the first elastomer enclosing each second elastomer portion, and wherein the first and second elastomer portions (52, 54) have material properties that are different from one another, and the first and second elastomer portions (52, 54) being formed into a homogeneous body. a fluid seal having an annular seal body, comprising: an inner seal interface having one or more engagement portions on the innermost diameter of the seal body; an outer seal interface having one or more engagement portions on the outermost diameter of the seal body; a first elastomer portion extending between the inner and the outer seal interfaces (56, 58) and being disposed along both the inner and the outer seal interfaces (56, 58); and a second elastomer portion comprising an inner second elastomer disposed along the inner seal interface and an outer second elastomer disposed along the outer seal interface; and an inner seal interface having one or more engagement portions on the innermost diameter of the seal body; an outer seal interface having one or more engagement portions on the outermost diameter of the seal body; a first elastomer portion extending between the inner and the outer seal interfaces (56, 58) and being disposed along both the inner and the outer seal interfaces (56, 58); and a second elastomer portion comprising an inner second elastomer disposed along the inner seal interface and an outer second elastomer disposed along the outer seal interface; and wherein the inner and outer second elastomers (66, 68) are separated by the first elastomer portion and characterized in that the inner and outer second elastomers (66,68) are nested within the first elastomer portion such that the second elastomer portions (54, 104) are recessed into the first elastomer portion along the inner and outer seal interfaces with the first elastomer enclosing each second elastomer portion, and wherein the first and second elastomer portions (52, 54) have material properties that are different from one another, and the first and second elastomer portions (52, 54) being formed into a homogeneous body.
A nozzle guide vane assembly for a gas turbine, the nozzle guide vane assembly having a platform segment comprising: - a gas passage surface (117, 119) arranged to be in contact with a streaming gas exhausted from a combustor, wherein the streaming gas streams along the gas passage surface in a streaming direction; - a cooling surface (131, 149) opposite to and thermally connected to the gas passage surface and arranged to be in contact with a cooling fluid; - a wall (133, 151) protruding from the cooling surface and extending at least partially in the streaming direction, wherein the wall is arranged circumferentially between positions, at which adjacent guide vanes are to be provided, such that cooling fluid is channelled by the wall for cooling a downstream portion of the cooling surface; and - a further wall (133, 151) protruding from the cooling surface and extending at least partially in the streaming direction, wherein a nozzle guide vane having a pressure surface and a suction surface is connected at the platform segment such that the pressure surface and the platform segment form a first edge along a first curved line where the pressure surface and the platform segment join, the first curved line resembling a part of an airfoil profile of the guide vane and such that the suction surface and the platform segment form a second edge along a second curved line where the suction surface and the platform segment join, the second line resembling another part of the airfoil profile of the guide vane, wherein an upstream portion of the cooling surface has a similar axial position as an upstream edge of the nozzle guide vane and a downstream portion of the cooling surface has a similar axial position as a downstream edge of the nozzle guide vane, characterised in that a circumferential distance between the wall and the further wall decreases along the streaming direction, the wall and the further wall extend approximately parallel to the first edge and the second edge respectively, and a width of a channel limited by the wall and the further wall decreases from the upstream portion of the cooling surface to the downstream portion of the cooling surface. - a gas passage surface (117, 119) arranged to be in contact with a streaming gas exhausted from a combustor, wherein the streaming gas streams along the gas passage surface in a streaming direction; - a cooling surface (131, 149) opposite to and thermally connected to the gas passage surface and arranged to be in contact with a cooling fluid; - a wall (133, 151) protruding from the cooling surface and extending at least partially in the streaming direction, wherein the wall is arranged circumferentially between positions, at which adjacent guide vanes are to be provided, such that cooling fluid is channelled by the wall for cooling a downstream portion of the cooling surface; and - a further wall (133, 151) protruding from the cooling surface and extending at least partially in the streaming direction,
Method for extracting rock material underground by forming a preparatory or exploratory path by means of a full face boring machine with a rotatably driven cutting head, the drill diameter of which predefines the diameter of the preparatory or exploratory path, whereby - by means of the full face boring machine a first preparatory or exploratory path is advanced and formed in a first advance direction emanating from a first main path to a second main path, - the full face boring machine is turned around in the second main path, and - emanating from the second main path by means of the full face boring machine in a second advance direction, which is substantially opposite to the first advance direction, a second preparatory or exploratory path is advanced and formed to the first main path, which second path extends alongside the first main path at a distance, characterized in that - the full face boring machine is disassembled in at least two longitudinal modules (20, 30, 50) when turned around, which comprise a first longitudinal module with a cutting head and a second longitudinal module with a tensioning and tunnelling unit, - a disassembly is carried out through quickly separable connections as well as easily detachable coupling elements of the power lines, and - that the at least two longitudinal modules (20, 30, 50) are turned around and reassembled in the opposite advance direction. - by means of the full face boring machine a first preparatory or exploratory path is advanced and formed in a first advance direction emanating from a first main path to a second main path, - the full face boring machine is turned around in the second main path, and - emanating from the second main path by means of the full face boring machine in a second advance direction, which is substantially opposite to the first advance direction, a second preparatory or exploratory path is advanced and formed to the first main path, which second path extends alongside the first main path at a distance, - the full face boring machine is disassembled in at least two longitudinal modules (20, 30, 50) when turned around, which comprise a first longitudinal module with a cutting head and a second longitudinal module with a tensioning and tunnelling unit, - a disassembly is carried out through quickly separable connections as well as easily detachable coupling elements of the power lines, and - that the at least two longitudinal modules (20, 30, 50) are turned around and reassembled in the opposite advance direction.
A method for modifying a carbon region on a boron-doped diamond electrode surface, comprising: placing a boron-doped diamond electrode surface in an aqueous solution, wherein the aqueous solution comprises an ionic treatment solution comprising ions selected from the group consisting of: sulfuric acid, nitric acid, hydrochloric acid, citric acid, acetic acid, potassium hydroxide, sodium hydroxide, ammonia, methylamine, potassium nitrate, potassium sulfate, and potassium chloride; applying a voltage difference across the boron-doped diamond electrode surface, whereby radical species are generated; and modifying a pH sensitive sp2 carbon region on an area of the boron-doped diamond electrode surface, thereby modifying quinone-like density of oxidized carbon structures having quinone or quinone-like groups which are present on the boron-doped diamond surface of the electrode, wherein the modifying is responsive to application of the voltage while the boron-doped diamond electrode surface is in the aqueous solution, wherein the modification continues until a predetermined density of quinone-like structures remains on the boron-doped diamond electrode. placing a boron-doped diamond electrode surface in an aqueous solution, wherein the aqueous solution comprises an ionic treatment solution comprising ions selected from the group consisting of: sulfuric acid, nitric acid, hydrochloric acid, citric acid, acetic acid, potassium hydroxide, sodium hydroxide, ammonia, methylamine, potassium nitrate, potassium sulfate, and potassium chloride; applying a voltage difference across the boron-doped diamond electrode surface, whereby radical species are generated; and modifying a pH sensitive sp2 carbon region on an area of the boron-doped diamond electrode surface, thereby modifying quinone-like density of oxidized carbon structures having quinone or quinone-like groups which are present on the boron-doped diamond surface of the electrode, wherein the modifying is responsive to application of the voltage while the boron-doped diamond electrode surface is in the aqueous solution, wherein the modification continues until a predetermined density of quinone-like structures remains on the boron-doped diamond electrode.
A low power driving method comprising: receiving (810, 910, 1010, 1110) a signal for a sub control module from a main control module when an electronic device enters a low power mode; transmitting (820, 920, 1020, 1130), by the sub control module, display data to a display driving module in response to the signal; characterized by: displaying the display data in only a partial area of a display screen through control of the display driving module by the sub control module; and deactivating at least one touch key on the electronic device and displaying an icon representing the at least one touch key on the display screen. receiving (810, 910, 1010, 1110) a signal for a sub control module from a main control module when an electronic device enters a low power mode; transmitting (820, 920, 1020, 1130), by the sub control module, display data to a display driving module in response to the signal; characterized by: displaying the display data in only a partial area of a display screen through control of the display driving module by the sub control module; and deactivating at least one touch key on the electronic device and displaying an icon representing the at least one touch key on the display screen. displaying the display data in only a partial area of a display screen through control of the display driving module by the sub control module; and deactivating at least one touch key on the electronic device and displaying an icon representing the at least one touch key on the display screen.
An antiperspirant/deodorant composition comprising: an oil-in-water emulsion base comprising: an emulsifier, a plant-based oil, a polyol, and water; an antiperspirant active dispersed in the oil-in-water emulsion base, wherein the antiperspirant active consists essentially of a zinc-based antiperspirant active; and a substantivity enhancer of the zinc-based antiperspirant active; wherein the substantivity enhancer is a film-forming polymer composition; wherein the emulsifier comprises a mixture of steareth-2 and steareth-20 or a mixture of steareth-2 and steareth-21; and wherein the composition is aluminum-free. an oil-in-water emulsion base comprising: an emulsifier, a plant-based oil, a polyol, and water; an antiperspirant active dispersed in the oil-in-water emulsion base, wherein the antiperspirant active consists essentially of a zinc-based antiperspirant active; and a substantivity enhancer of the zinc-based antiperspirant active; wherein the substantivity enhancer is a film-forming polymer composition; wherein the emulsifier comprises a mixture of steareth-2 and steareth-20 or a mixture of steareth-2 and steareth-21; and wherein the composition is aluminum-free.
Use of a compound selected from the list of compounds (a) to (f) as a Terahertz tag and a metal or plastic substrate absorbing Terahertz Radar frequencies in the authentication of a product by detecting the compound's resonance in the range of 0.1-10 THz using a THz spectrometer/THz detector, wherein the compound is selected from: a) N-(6-aminopyridin-2-yl)propionamide (mono-PrDAP); b) 4-fluoro-N-(pyridin-2-yl) benzamide (4-FPh-2AP); c) 4-iodo-N-(pyridin-2-yl) benzamide (4-1Ph-2AP); d) 1-phenyl-3-(pyridin-2-yl) urea (Ph-2U P); e) 1-phenyl-3-(pyridin-3-yl) urea (Ph-3UP); and f) 1-hexyl-3-phenylurea (C6-UPh). a) N-(6-aminopyridin-2-yl)propionamide (mono-PrDAP); b) 4-fluoro-N-(pyridin-2-yl) benzamide (4-FPh-2AP); c) 4-iodo-N-(pyridin-2-yl) benzamide (4-1Ph-2AP); d) 1-phenyl-3-(pyridin-2-yl) urea (Ph-2U P); e) 1-phenyl-3-(pyridin-3-yl) urea (Ph-3UP); and f) 1-hexyl-3-phenylurea (C6-UPh).
A method of enzymatic hydrolysis of a lignocellulosic material, comprising the steps of: a) pretreating the lignocellulosic material to obtain a slurry having a pH of less than 6; b) adding NaOH, Ca 2 and/or CaO to the slurry to increase its pH to at least 8, said addition being carried out at a slurry temperature of at least 60 °C; c) reducing the pH of the slurry to below 7 and optionally cooling the slurry from step b) to a temperature below 60 °C; and d) adding hydrolytic enzymes to the slurry from step c) and allowing the slurry to hydrolyze, wherein no washing of the slurry is performed prior to step d). a) pretreating the lignocellulosic material to obtain a slurry having a pH of less than 6; b) adding NaOH, Ca 2 and/or CaO to the slurry to increase its pH to at least 8, said addition being carried out at a slurry temperature of at least 60 °C; c) reducing the pH of the slurry to below 7 and optionally cooling the slurry from step b) to a temperature below 60 °C; and d) adding hydrolytic enzymes to the slurry from step c) and allowing the slurry to hydrolyze,
Machine for packaging products in respective packages or casings, comprising at least one central control unit and a plurality of functional groups (2,3,4,5) suitable to operate synergistically and in synchronism so as to obtain the desired product packaging result, said functional groups (2,3,4,5) comprising at least one product feeding group, at least one feeding and/or forming group of the packages in which the products are to be inserted, at least one insertion group of the products in the respective packages, at least one outlet group of the packages containing the respective products, each of said groups (2,3,4,5) comprising respective operating stations (7,8,9,10) each suitable to carry out a specific operation on the products, on the packages or on the combination thereof, so as to obtain a specific result in terms of product packaging, said central control unit comprising means for the identification of at least one malfunctioning or faulty operating station (7,8,9,10), and first deactivation means of said malfunctioning or faulty operating station (7,8,9,10), said central control unit comprising means for increasing the production speed of the functional group (2,3,4,5) comprising said malfunctioning or faulty operating station (7,8,9,10), so as to bring it into operating synchronism with the other functional groups (2,3,4,5) and to compensate, within the production flow, the deactivation of said malfunctioning or faulty operating station (7,8,9,10), characterized in that said increasing means are suitable to increase the nominal production speed of the functional group (2,3,4,5), comprising said malfunctioning or faulty operating station (7,8,9,10), of a factor exactly constituted by the ratio between the total number of operating stations (7,8,9,10) provided in said functional group (2,3,4,5) and the number of operating stations (7,8,9,10) which, within said functional group (2,3,4,5), actually operate in a normal way without faults or malfunctions.
A child safety seat comprising a seat base assembly, a sled assembly coupled to the seat base assembly, and a seat body assembly slidably coupled to the sled assembly, wherein the sled assembly is configured to reduce impact forces on an occupant of the seat body assembly, characterized by the sled assembly including a pair of sled side walls and a modular energy absorber configured to reduce impact forces on an occupant of the seat body assembly, wherein the sled side walls include elongate slide channels (46, 47) disposed therein, and the seat body assembly is secured to the sled assembly via slide rods (42, 44) extending through the elongate slide channels (46, 47), wherein the slide rods (42, 44) are slidably retained within the elongate slide channels (46, 47), and the sled assembly is configured to allow the seat body assembly to move relative to the sled assembly via the slide rods (42, 44) and the elongate slide channels (46, 47) when the seat is exposed to the impact forces, and wherein the modular energy absorber comprises a monolithic energy absorbing member and an impactor piston configured to translate linearly along the elongate slide channels (46,47) towards the energy absorbing member as the seat body assembly moves relative to the sled assembly. the sled assembly including a pair of sled side walls and a modular energy absorber configured to reduce impact forces on an occupant of the seat body assembly, wherein the sled side walls include elongate slide channels (46, 47) disposed therein, and the seat body assembly is secured to the sled assembly via slide rods (42, 44) extending through the elongate slide channels (46, 47), wherein the slide rods (42, 44) are slidably retained within the elongate slide channels (46, 47), and the sled assembly is configured to allow the seat body assembly to move relative to the sled assembly via the slide rods (42, 44) and the elongate slide channels (46, 47) when the seat is exposed to the impact forces, and wherein the modular energy absorber comprises a monolithic energy absorbing member and an impactor piston configured to translate linearly along the elongate slide channels (46,47) towards the energy absorbing member as the seat body assembly moves relative to the sled assembly.