mhurhangee/ep-ind-claims huggingface dataset:
Fuel tank for a commercial vehicle, having a main tank and an auxiliary tank, characterized in that the auxiliary tank extends from an aperture, which is provided in an outside wall of the main tank and is closed by means of a tank cap lying liquid-tightly along a fixing area formed on the outside wall, in the form of a pocket as a continuation of the outside wall into a first tank volume bounded by the outside wall, so as to form a second tank volume which is separated from the first tank volume, wherein a filler neck, which runs inside the first tank volume and emerges on the outside wall of the main tank, opens into the auxiliary tank.
A medical device comprising: a central tube comprising an outer surface, a plurality of grooves positioned in the outer surface and extending along the longitudinal axis of the central tube, wherein the central tube comprises at least one lumen; and an outer jacket surrounding the tube, wherein the grooves and the jacket form a plurality of channels extending along at least a portion of the longitudinal axis of the central tube, and wherein said jacket comprises porous and/or permeable material such that therapeutic agent can be delivered from the channels through the porous and/or permeable material of the outer jacket. a central tube comprising an outer surface, a plurality of grooves positioned in the outer surface and extending along the longitudinal axis of the central tube, wherein the central tube comprises at least one lumen; and an outer jacket surrounding the tube, wherein the grooves and the jacket form a plurality of channels extending along at least a portion of the longitudinal axis of the central tube, and wherein said jacket comprises porous and/or permeable material such that therapeutic agent can be delivered from the channels through the porous and/or permeable material of the outer jacket.
A staple cartridge assembly for use with a surgical stapler, comprising: a cartridge body having a plurality of staple cavities on a tissue-facing surface thereof, each staple cavity having a staple disposed therein that is configured to be deployed into tissue, and the cartridge body having a plurality of connection cavities on the tissue-facing surface; an adjunct disposed on the tissue-facing surface of the cartridge body; and a plurality of drivers (200; 300) disposed within the cartridge body, each driver (200; 300) having at least one adjunct releasing mechanism (203; 304) located thereon such that the plurality of drivers (200; 300) are configured to cause the adjunct to detach from the cartridge body when the plurality of drivers (200; 300) are advanced into the staple cavities staples to deploy the staples, wherein each connection cavity is configured to receive a portion of the adjunct therein, and characterized in that the at least one adjunct releasing mechanism (203; 304) comprises a post (206; 306) configured to extend into one of the plurality of connection cavities. a cartridge body having a plurality of staple cavities on a tissue-facing surface thereof, each staple cavity having a staple disposed therein that is configured to be deployed into tissue, and the cartridge body having a plurality of connection cavities on the tissue-facing surface; an adjunct disposed on the tissue-facing surface of the cartridge body; and a plurality of drivers (200; 300) disposed within the cartridge body, each driver (200; 300) having at least one adjunct releasing mechanism (203; 304) located thereon such that the plurality of drivers (200; 300) are configured to cause the adjunct to detach from the cartridge body when the plurality of drivers (200; 300) are advanced into the staple cavities staples to deploy the staples, wherein each connection cavity is configured to receive a portion of the adjunct therein, and characterized in that the at least one adjunct releasing mechanism (203; 304) comprises a post (206; 306) configured to extend into one of the plurality of connection cavities.
A pharmaceutical composition for use in preventing or treating a metabolic disease, comprising Akkermansia muciniphila-derived extracellular vesicles as an active ingredient wherein the metabolic disease is obesity or diabetes.
A method for spin welding a coaxial connector to a coaxial cable, comprising the steps of: rotationally interlocking the coaxial cable with a cable clamp; enclosing the coaxial connector within a drive collet; inserting the drive collet within a spindle socket of an interlocking portion of a spin welder; longitudinally advancing the interlocking portion until the coaxial connector within the drive collet is positioned upon a prepared end of the coaxial cable; rotating the interlocking portion; ceasing the rotation for a cooling period; longitudinally retracting the spin welder from the drive collet; removing the drive collet from the coaxial connector; and removing the coaxial cable with the coaxial connector spin welded thereon from the cable clamp. rotationally interlocking the coaxial cable with a cable clamp; enclosing the coaxial connector within a drive collet; inserting the drive collet within a spindle socket of an interlocking portion of a spin welder; longitudinally advancing the interlocking portion until the coaxial connector within the drive collet is positioned upon a prepared end of the coaxial cable; rotating the interlocking portion; ceasing the rotation for a cooling period; longitudinally retracting the spin welder from the drive collet; removing the drive collet from the coaxial connector; and removing the coaxial cable with the coaxial connector spin welded thereon from the cable clamp.
An IL-22 dimer for use in a method of treating a disease in a human individual, wherein the method comprises intravenously administering to the human individual an effective amount of the IL-22 dimer, wherein the amount of the IL-22 dimer is 2 μg/kg to 45 μg/kg.
A method of preparing anti-odor, antimicrobial nanofibres derived from alginate nanofibres, the method comprising: a) contacting the alginate nanofibres with a first organic solution comprising calcium ions to generate calcium-alginate nanofibres; b) contacting the calcium-alginate nanofibres with a second organic solution comprising an antimicrobial agent to generate antimicrobial-alginate nanofibres; and c) combining or coating the antimicrobial-alginate nanofibres with a malodor absorbing agent to generate anti-odor, antimicrobial nanofibres.
A method for calculating aircraft total air temperature from bypass flow temperature in a turbofan gas turbine engine (10, 100) having a bypass flow duct, the method comprising the steps of: sensing aircraft speed, M; sensing engine fan speed, N 1; sensing core engine speed, N 2; sensing bypass air flow temperature, T 15, in the bypass flow duct; and calculating total air temperature, TAT, as a function of the sensed aircraft speed, the sensed engine fan speed, the sensed core engine speed, and the sensed bypass air flow temperature, wherein TAT is calculated according to: TAT = T 15 − k 0 − k 1 M n − k 3 N 1 − k 4 N 2 − k 5 N 1 2 k 2, where: k 0, k 1, k 2, k 3, k 4, and k 5 are each experimentally determined coefficients, M n is aircraft speed in Mach number, N 1 is fan speed expressed in units of percent, and N 2 is core engine speed expressed in units of percent. sensing aircraft speed, M; sensing engine fan speed, N 1; sensing core engine speed, N 2; sensing bypass air flow temperature, T 15, in the bypass flow duct; and calculating total air temperature, TAT, as a function of the sensed aircraft speed, the sensed engine fan speed, the sensed core engine speed, and the sensed bypass air flow temperature, wherein TAT is calculated according to: TAT = T 15 − k 0 − k 1 M n − k 3 N 1 − k 4 N 2 − k 5 N 1 2 k 2, where: k 0, k 1, k 2, k 3, k 4, and k 5 are each experimentally determined coefficients, M n is aircraft speed in Mach number, N 1 is fan speed expressed in units of percent, and N 2 is core engine speed expressed in units of percent. k 0, k 1, k 2, k 3, k 4, and k 5 are each experimentally determined coefficients, M n is aircraft speed in Mach number, N 1 is fan speed expressed in units of percent, and N 2 is core engine speed expressed in units of percent.
A waterborne ink, latex composition or rubber composition comprising a metallic pigment preparation comprising a metallic pigment, and a passivating agent, wherein the passivating agent is a dimer or trimer fatty acid with >1 carboxylic acid groups.
Conveyor device with a first endless arrangement (12.1) of tread steps or tread plates (16.1), which is driven in a conveying direction by drive means in order to convey persons, wherein a first lateral balustrade (20.1) with a first handrail (22.1) driven in conveying direction is present adjacent to a first longitudinal side of the first endless arrangement (12.1) of tread steps, tread plates or pallets and a second lateral balustrade (20.2) with a second handrail (22.2) driven in conveying direction is present on the second longitudinal side of the first endless arrangement (12.1), wherein the conveying device comprises an additional endless arrangement (12.2) with tread steps, tread plates or pallets (16.2), which is arranged parallel and adjacent to the first endless arrangement (12.1), wherein - the additional endless arrangement (12.2) is driven by the common drive means in conveying direction simultaneously with the first endless arrangement (12.1) and - the second lateral balustrade (20.2) is constructed as a centre balustrade and is arranged at a first longitudinal side of the additional endless arrangement (12.2), so as to be used at the same time by persons on the first endless arrangement (12.1) and by persons on the second endless arrangement (12.2), characterised in that a third handrail (22.3) is driven simultaneously and synchronously with the second handrail (22.2), the two endless arrangements (12.1, 12.2) of tread steps, tread plates or pallets and the three handrails (22.1, 22.2, 22.3) are driven synchronously and the second handrail (22.2) is used by persons on both endless arrangements (12.1, 12.2). - the additional endless arrangement (12.2) is driven by the common drive means in conveying direction simultaneously with the first endless arrangement (12.1) and - the second lateral balustrade (20.2) is constructed as a centre balustrade and is arranged at a first longitudinal side of the additional endless arrangement (12.2), so as to be used at the same time by persons on the first endless arrangement (12.1) and by persons on the second endless arrangement (12.2), characterised in that a third handrail (22.3) is driven simultaneously and synchronously with the second handrail (22.2), the two endless arrangements (12.1, 12.2) of tread steps, tread plates or pallets and the three handrails (22.1, 22.2, 22.3) are driven synchronously and the second handrail (22.2) is used by persons on both endless arrangements (12.1, 12.2).
A lid for an ostomy implant, comprising: a ring-shaped base part adapted to engage with an open end of the ostomy implant; a cap part adapted to fit inside the ring-shaped base part, wherein the cap part is rotatable with respect to the ring-shaped base part to lock and unlock the lid to the ostomy implant, and wherein the cap part has a through-hole; and a slider configured to be radially slid into a recess of the cap part in a closed configuration, wherein the slider completely covers the through-hole of the cap part, and radially slid out from the recess in an open configuration, wherein the slider does not cover the through-hole of the cap part. a ring-shaped base part adapted to engage with an open end of the ostomy implant; a cap part adapted to fit inside the ring-shaped base part, wherein the cap part is rotatable with respect to the ring-shaped base part to lock and unlock the lid to the ostomy implant, and wherein the cap part has a through-hole; and a slider configured to be radially slid into a recess of the cap part in a closed configuration, wherein the slider completely covers the through-hole of the cap part, and radially slid out from the recess in an open configuration, wherein the slider does not cover the through-hole of the cap part.
A base station, characterized in comprising: multiple edge nodes, configured to perform communication with a user equipment, and execute baseband processing and mutual conversion between baseband data and radio data; and a central node, configured to perform communication with the multiple edge nodes, manage the multiple edge nodes, the central node is further configured to obtain a resource condition of each edge node of the base station, determine a resource shortage situation occuring on a first edge node when data go beyond a processing capability of the first edge node, and forward the data corresponding to the first edge node to another edge node having idle resources to process. multiple edge nodes, configured to perform communication with a user equipment, and execute baseband processing and mutual conversion between baseband data and radio data; and a central node, configured to perform communication with the multiple edge nodes, manage the multiple edge nodes, the central node is further configured to obtain a resource condition of each edge node of the base station, determine a resource shortage situation occuring on a first edge node when data go beyond a processing capability of the first edge node, and forward the data corresponding to the first edge node to another edge node having idle resources to process.
Method for producing a partial oxidation product of a light alcohol, in the form of a dialkoxyalkane, in which a light alcohol comprising from 1 to 4 carbon atoms is subjected to oxidation by contact in the gas phase with oxygen or a gas containing molecular oxygen in the presence of a catalyst corresponding to the following composition: Mo 12 Fe a X 1 b X 2 c X 3 d X 4 e X 5 f O x in which Mo = molybdenum; 0 = oxygen; Fe = iron; X 1 = at least one element chosen from chromium, nickel, cobalt, manganese, tin and copper; X 2 = at least one element chosen from bismuth, antimony, tellurium, indium, aluminium and silicon, X 3 = at least one element chosen from phosphorus, tungsten, titanium, vanadium, tantalum and niobium; X 4 = at least one element chosen from alkaline-earth metals, lanthanum and cerium; X 5 is at least one element chosen from alkali metals; and a, b, c, d and e are indices whose values are 1.5 ≤ a ≤ 8; 0 ≤ b ≤ 4; 0 ≤ c ≤ 5; 0 ≤ d ≤ 2; 0 ≤ e ≤ 2; 0 ≤ f ≤ 2 and x is a numerical value determined by the degree of oxidation of the other elements, and characterized in that, within the reaction medium, the partial pressure of alcohol is between 15 and 80% and preferably between 20 and 50% and that of oxygen is between 2 and 20%, the ratio of the O 2 /alcohol partial pressures being less than or equal to 1 and preferably between 0.5/6 and 1, the remainder of the medium being composed of a gas that is inert towards the reaction.
Method of producing a composite shell structure in form of a wind turbine blade shell part comprising a reinforced fibre material embedded in a cured resin and comprising the following steps: A providing a first mould part having a preferably substantially concave mould part moulding surface with a contour defining an outer surface of the composite shell structure; B providing a perform forming part having a preferably substantially convex and substantially upwardly facing preform forming surface being shaped essentially complementary to at least a part of the first mould part moulding surface; C forming a preform by arranging a dry fibre material comprising a number of dry fibre layers on the preform forming surface; D bringing the first mould part and the preform forming part together to an assembled position so that the first mould part moulding surface faces the preform forming surface and a cavity is defined between said surfaces and substantially accommodates the fibre material arranged on the preform forming surface of the preform forming part; E transferring the preform to the first mould part by releasing the fibre material from the preform forming surface so that it is received on the moulding surface of the first mould part; F removing the preform forming part from the first mould part; G forming a mould cavity by means of a second mould part arranged on top of the fibre material; H curing and/or allowing the resin to cure; and wherein resin is supplied to the mould cavity following step G, wherein the second mould part is a flexible mould part formed of a flexible material, preferably a polymer film, and wherein - prior to step C - the flexible mould part is arranged on the preform forming surface A providing a first mould part having a preferably substantially concave mould part moulding surface with a contour defining an outer surface of the composite shell structure; B providing a perform forming part having a preferably substantially convex and substantially upwardly facing preform forming surface being shaped essentially complementary to at least a part of the first mould part moulding surface; C forming a preform by arranging a dry fibre material comprising a number of dry fibre layers on the preform forming surface; D bringing the first mould part and the preform forming part together to an assembled position so that the first mould part moulding surface faces the preform forming surface and a cavity is defined between said surfaces and substantially accommodates the fibre material arranged on the preform forming surface of the preform forming part; E transferring the preform to the first mould part by releasing the fibre material from the preform forming surface so that it is received on the moulding surface of the first mould part; F removing the preform forming part from the first mould part; G forming a mould cavity by means of a second mould part arranged on top of the fibre material; H curing and/or allowing the resin to cure; and
A method of preparing an additive concentrate for a marine engine lubricating oil composition: comprising the steps of providing as separate additive components: at least one overbased metal detergent, and an oil-soluble alkoxylated alcohol, having a hydrophile-lipophile balance in the range 7-9.5, such as 9-9.5, represented by the formula R-[O-(CH 2) x] y -OH where R is a linear alkyl group having from 12 to 20 carbon atoms, wherein HLB is calculated by multiplying by 20, the ratio of molecular weight of polyethylene oxide content of the oil-soluble alkoxylated alcohol to the total molecular weight of the oil-soluble alkoxylated alcohol, x is 2, and y is an integer from 2 to 10, such as 2-8, 2-6, or 2-4, the ratio of x to y being such as to provide an HLB in the above range, and admixing an oil of lubricating viscosity in a concentrate-forming amount with additive compound comprising and; and wherein the additive concentrate contains from 0.25 to 5 mass % of additive. comprising the steps of providing as separate additive components: at least one overbased metal detergent, and an oil-soluble alkoxylated alcohol, having a hydrophile-lipophile balance in the range 7-9.5, such as 9-9.5, represented by the formula R-[O-(CH 2) x] y -OH where R is a linear alkyl group having from 12 to 20 carbon atoms, wherein HLB is calculated by multiplying by 20, the ratio of molecular weight of polyethylene oxide content of the oil-soluble alkoxylated alcohol to the total molecular weight of the oil-soluble alkoxylated alcohol, x is 2, and y is an integer from 2 to 10, such as 2-8, 2-6, or 2-4, the ratio of x to y being such as to provide an HLB in the above range, and at least one overbased metal detergent, and an oil-soluble alkoxylated alcohol, having a hydrophile-lipophile balance in the range 7-9.5, such as 9-9.5, represented by the formula R-[O-(CH 2) x] y -OH where R is a linear alkyl group having from 12 to 20 carbon atoms, wherein HLB is calculated by multiplying by 20, the ratio of molecular weight of polyethylene oxide content of the oil-soluble alkoxylated alcohol to the total molecular weight of the oil-soluble alkoxylated alcohol, x is 2, and y is an integer from 2 to 10, such as 2-8, 2-6, or 2-4, the ratio of x to y being such as to provide an HLB in the above range, and where R is a linear alkyl group having from 12 to 20 carbon atoms, wherein HLB is calculated by multiplying by 20, the ratio of molecular weight of polyethylene oxide content of the oil-soluble alkoxylated alcohol to the total molecular weight of the oil-soluble alkoxylated alcohol, x is 2, and y is an integer from 2 to 10, such as 2-8, 2-6, or 2-4, the ratio of x to y being such as to provide an HLB in the above range, and admixing an oil of lubricating viscosity in a concentrate-forming amount with additive compound comprising and; and wherein the additive concentrate contains from 0.25 to 5 mass % of additive.
A method of monitoring power consumption of an electrical device, the method comprising: identifying an electrical device using a power load signature unique to that device and using a neural network or other artificial intelligence tool to determine the likelihood of a specific signature being attributable to a particular device, the power load signature being derived from power consumption measurements and including usage patterns of the power consumption measurements over time across three phases; and monitoring power consumption of such an identified device. identifying an electrical device using a power load signature unique to that device and using a neural network or other artificial intelligence tool to determine the likelihood of a specific signature being attributable to a particular device, the power load signature being derived from power consumption measurements and including usage patterns of the power consumption measurements over time across three phases; and monitoring power consumption of such an identified device.
Process for producing a solid rubber tyre for mobile machinery composed of a main body having a radially inner base part contacting a wheel rim and a radially outer elastic part as well as a profiled tread part and two lateral tyre flanks which laterally cover at least the elastic part, wherein the base part and the elastic part are each constructed by multilayered winding of a calendered rubber mixture and wherein the tread part and the two lateral tyre flanks are likewise formed from rubber mixtures, characterized in that the unvulcanized tread part is separately produced, wherein this tread part comprises a base plate and a preformed profile projecting from the surface of the base plate, in that this separately produced tread part is inserted in the oppositely shaped mould surfaces of the vulcanization mould, in that the unvulcanized main body is then introduced into the vulcanization mould and in that the vulcanization mould is then closed, the main body is brought into contact with the tread part and the solid tyre is vulcanized. the unvulcanized tread part is separately produced, wherein this tread part comprises a base plate and a preformed profile projecting from the surface of the base plate, in that this separately produced tread part is inserted in the oppositely shaped mould surfaces of the vulcanization mould, in that the unvulcanized main body is then introduced into the vulcanization mould and in that the vulcanization mould is then closed, the main body is brought into contact with the tread part and the solid tyre is vulcanized.
A capsule comprising: an ejection pin having a functional water solution impregnated therein; a sealing member for sealing the ejection pin; and characterized by a pressing member for pushing the ejection pin with external force to move the ejection pin such that a portion of the ejection pin penetrates the sealing member and is projected to an outside of the capsule. an ejection pin having a functional water solution impregnated therein; a sealing member for sealing the ejection pin; and characterized by a pressing member for pushing the ejection pin with external force to move the ejection pin such that a portion of the ejection pin penetrates the sealing member and is projected to an outside of the capsule.