mhurhangee/patent-ind-claim-en huggingface dataset:
A tower section for a wind turbine tower , said tower section comprising a tubular tower wall , upper and lower flanges and at least one damper module (400, 500, 600, 803, 904-908, 1001, 1002, 1105-1108, 1202) adapted to be secured to a wind turbine tower section, the damper module (400, 500, 600, 803, 904-908, 1001, 1002, 1105-1108, 1202) comprising at least one liquid damper (401-404, 501-506, 604, 701) secured to a frame structure (406-409, 508-511, 607, 608, 702), wherein each liquid damper (401-404, 501-506, 604, 701) comprises - a container comprising an interior volume containing an amount of liquid, wherein the amount of liquid in the interior volume of the container sets a natural frequency of the liquid damper (401-404, 501-506, 604, 701) characterized in that the frame structure (406-409, 508-511, 607, 608, 702) comprises - an interface arrangement (412, 413, 514, 515, 601-603, 703, 704, 804, 805, 909, 910) configured for, in cooperation with a damper module suspension arrangement (410, 411, 512, 513, 606, 806-808, 1003-1008, 1203, 1206) in a tower section, securing the damper module (400, 500, 600, 803, 904-908, 1001, 1002, 1105-1108, 1202) to an inner tower structure wall of said tower section, and - a liquid damper fastening arrangement configured for securing said at least one liquid damper to the frame structure (406-409, 508-511, 607, 608, 702), and wherein said at least one damper module (400, 500, 600, 803, 904-908, 1001, 1002, 1105-1108, 1202) is positioned adjacent the tower wall on an inside of the tower section. - a container comprising an interior volume containing an amount of liquid, wherein the amount of liquid in the interior volume of the container sets a natural frequency of the liquid damper (401-404, 501-506, 604, 701) characterized in that the frame structure (406-409, 508-511, 607, 608, 702) comprises - an interface arrangement (412, 413, 514, 515, 601-603, 703, 704, 804, 805, 909, 910) configured for, in cooperation with a damper module suspension arrangement (410, 411, 512, 513, 606, 806-808, 1003-1008, 1203, 1206) in a tower section, securing the damper module (400, 500, 600, 803, 904-908, 1001, 1002, 1105-1108, 1202) to an inner tower structure wall of said tower section, and - a liquid damper fastening arrangement configured for securing said at least one liquid damper to the frame structure (406-409, 508-511, 607, 608, 702), and wherein said at least one damper module (400, 500, 600, 803, 904-908, 1001, 1002, 1105-1108, 1202) is positioned adjacent the tower wall on an inside of the tower section.
A mass spectrometer comprising a Gas Electron Multiplier ion detector, where said ion detector comprises a first gas electron multiplier stage and one or more counter electrodes arranged in a drift or input region of said ion detector and facing or opposed to said first gas electron multiplier stage, characterized by that said ion detector is arranged and adapted to detect ions having an energy of ≤ 200 eV.
A method for head image capturing, comprising: providing to a mobile device a first image of at least an eye portion of a head , providing to the mobile device a plurality of second images of the head from a plurality of directions, searching, by the mobile device , for predefined landmarks (51-510) in each of the second images, wherein landmarks are specific points or areas on the head, and characterized by stopping providing to the mobile device the plurality of second images in response to identifying, by the mobile device, at least a predefined subset of the predefined landmarks (51-510) in a second image of the plurality of second images. providing to a mobile device a first image of at least an eye portion of a head , providing to the mobile device a plurality of second images of the head from a plurality of directions, searching, by the mobile device , for predefined landmarks (51-510) in each of the second images, wherein landmarks are specific points or areas on the head, and characterized by stopping providing to the mobile device the plurality of second images in response to identifying, by the mobile device, at least a predefined subset of the predefined landmarks (51-510) in a second image of the plurality of second images.
A computer-implemented method for determining an effect of a simulated obstacle on a main rotor induced velocity of a simulated rotorcraft in a simulation, comprising: receiving an aircraft airspeed of the simulated rotorcraft and a height above ground for the simulated rotorcraft ; generating a line of sight vector having a source position located on the simulated rotorcraft, a direction and a given length ; determining a distance between the simulated obstacle and the simulated rotorcraft using the line of sight vector , the distance being at most equal to the given length of the line of sight vector; determining a recirculation induced airflow velocity using the distance between the simulated obstacle and the simulated rotorcraft, the aircraft airspeed and the height above ground , the recirculation induced airflow velocity being caused by a downwash recirculation flow generated by the simulated obstacle; and outputting the recirculation induced airflow velocity . receiving an aircraft airspeed of the simulated rotorcraft and a height above ground for the simulated rotorcraft ; generating a line of sight vector having a source position located on the simulated rotorcraft, a direction and a given length ; determining a distance between the simulated obstacle and the simulated rotorcraft using the line of sight vector , the distance being at most equal to the given length of the line of sight vector; determining a recirculation induced airflow velocity using the distance between the simulated obstacle and the simulated rotorcraft, the aircraft airspeed and the height above ground , the recirculation induced airflow velocity being caused by a downwash recirculation flow generated by the simulated obstacle; and outputting the recirculation induced airflow velocity .
Process for preparing a polymer for medical purposes, in particular for wound treatment, comprising the steps of i. providing an isocyanate-terminated prepolymer containing polyalkylene oxide units, ii. dissolving a cellulose derivative in an aqueous liquid in order to obtain an aqueous, cellulose derivative-containing preparation, iii. mixing the prepolymer, the aqueous, cellulose derivative-containing preparation and optionally one or more further components in order to obtain a reaction mixture, iv. converting the prepolymer in the reaction mixture in order to obtain the polymer, wherein the aqueous liquid is water and wherein - the proportion of the prepolymer based on the total weight of the reaction mixture is 5% to 30% by weight and the proportion of the aqueous liquid based on the total weight of the reaction mixture is 68% to 90% by weight, or - the proportion of the prepolymer based on the total weight of the reaction mixture is 32% to 45% by weight and the proportion of the aqueous liquid based on the total weight of the reaction mixture is 55% to 65% by weight. i. providing an isocyanate-terminated prepolymer containing polyalkylene oxide units, ii. dissolving a cellulose derivative in an aqueous liquid in order to obtain an aqueous, cellulose derivative-containing preparation, iii. mixing the prepolymer, the aqueous, cellulose derivative-containing preparation and optionally one or more further components in order to obtain a reaction mixture, iv. converting the prepolymer in the reaction mixture in order to obtain the polymer, - the proportion of the prepolymer based on the total weight of the reaction mixture is 5% to 30% by weight and the proportion of the aqueous liquid based on the total weight of the reaction mixture is 68% to 90% by weight, or - the proportion of the prepolymer based on the total weight of the reaction mixture is 32% to 45% by weight and the proportion of the aqueous liquid based on the total weight of the reaction mixture is 55% to 65% by weight.
A platelet lysate composition comprising a filtrate from a lysed platelet preparation passed through a 0.45 μm and/or 0.2 μm filter for use in wound healing, wherein said filtrate comprises greater than 200 pg of VEGF polypeptide per ml.
A method for producing a seasoning, comprising the steps of: a) adding an oil to a mixture containing: 6% by weight to 21% by weight of a yeast extract having a high glutamic acid content in which the glutamic acid content thereof is 10% by weight or more, and 8% by weight to 25% by weight of a yeast extract having a high glutathione content in which the glutathione content thereof is 5% by weight or more, and water; and b) heating the mixture at 90°C to 130°C, for 1 minute to 4 hours, and at a pH of 3 to 8, and c) fractionating the oil layer from the product obtained following thermal reaction of step b) so as to obtain a seasoning in the form of a flavoring oil. a) adding an oil to a mixture containing: 6% by weight to 21% by weight of a yeast extract having a high glutamic acid content in which the glutamic acid content thereof is 10% by weight or more, and 8% by weight to 25% by weight of a yeast extract having a high glutathione content in which the glutathione content thereof is 5% by weight or more, and water; and 6% by weight to 21% by weight of a yeast extract having a high glutamic acid content in which the glutamic acid content thereof is 10% by weight or more, and 8% by weight to 25% by weight of a yeast extract having a high glutathione content in which the glutathione content thereof is 5% by weight or more, and water; and b) heating the mixture at 90°C to 130°C, for 1 minute to 4 hours, and at a pH of 3 to 8, and c) fractionating the oil layer from the product obtained following thermal reaction of step b) so as to obtain a seasoning in the form of a flavoring oil.
A cooking fumes collector for kitchens and distribution facilities for collecting air laden with at least odours or fumes at a workplace, particularly a workplace equipped with thermal devices, comprising a duct system leading from a suction opening to at least one air outlet opening, wherein return air is guided into the room as circulating air; a suction fan disposed in the duct system; and a filter arrangement disposed in the duct system and including at least one pre-filter and at least one odour filter, wherein the suction opening can be or is positioned at the level of the workplace, wherein the duct system is formed as a cuboidal return air box downstream of the fan , characterised in that the value of the mean air velocity downstream of the air outlet opening is set to a low value of a maximum of 0.6 m/s by the cuboidal return air box having side surfaces, wherein one of the side surfaces has an air inflow opening to which the downstream side of the fan is connected, wherein the remaining side surfaces are optionally formed as an air outlet opening (56; 56a -56d; 92) covered by an odour filter (62; 62a -62d; 94), respectively, and wherein the desired value of the mean air velocity is set by the odour filter having the appropriate air resistance being selected for covering the or each air outlet opening.
Cosmetic use of a composition comprising (i) calcium phosphate fine particles as effective ingredients, wherein - the average particle diameter of the calcium phosphate fine particles is 20-250 nm, - the calcium phosphate fine particles are a sintered body wherein the half width at d = 2.814, as measured by X ray diffraction (XRD), is ≤ 0.8, and (ii) at least one material selected from alcohols, sugars, proteins, amino acids, water soluble vitamins, fat soluble vitamins, lipids, mucosaccharides, and an surface active agent, for enhancing collagen production. (i) calcium phosphate fine particles as effective ingredients, wherein - the average particle diameter of the calcium phosphate fine particles is 20-250 nm, - the calcium phosphate fine particles are a sintered body wherein the half width at d = 2.814, as measured by X ray diffraction (XRD), is ≤ 0.8, and - the average particle diameter of the calcium phosphate fine particles is 20-250 nm, - the calcium phosphate fine particles are a sintered body wherein the half width at d = 2.814, as measured by X ray diffraction (XRD), is ≤ 0.8, and (ii) at least one material selected from alcohols, sugars, proteins, amino acids, water soluble vitamins, fat soluble vitamins, lipids, mucosaccharides, and an surface active agent,
A surgical circular fastener apparatus , which comprises: an elongated body defining a longitudinal axis and having proximal and distal ends; a fastener cartridge disposed adjacent the distal end of the body; an anvil retainer releasably mounted relative to the fastener cartridge; and a manually operable release ; wherein the release includes at least one cylindrical pivot or hinge , a manual engagement segment extending from the pivot and being accessible through a window in the elongated body for manual operation of the release and at least one lock , the release being configured to move between a first position corresponding to a secured condition of the anvil retainer relative to the fastener cartridge in which the at least one lock is engaged with the anvil retainer to prevent removal of the anvil retainer relative to the fastener cartridge and a second position in which the at least one lock is disengaged with the anvil retainer to permit removal or mounting of the anvil retainer relative to the fastener cartridge. an elongated body defining a longitudinal axis and having proximal and distal ends; a fastener cartridge disposed adjacent the distal end of the body; an anvil retainer releasably mounted relative to the fastener cartridge; and a manually operable release ; wherein the release includes at least one cylindrical pivot or hinge , a manual engagement segment extending from the pivot and being accessible through a window in the elongated body for manual operation of the release and at least one lock , the release being configured to move between a first position corresponding to a secured condition of the anvil retainer relative to the fastener cartridge in which the at least one lock is engaged with the anvil retainer to prevent removal of the anvil retainer relative to the fastener cartridge and a second position in which the at least one lock is disengaged with the anvil retainer to permit removal or mounting of the anvil retainer relative to the fastener cartridge.
A lighting system having at least one control unit , and a plurality of operating devices associated with the control unit , and at least one sensor , wherein the control unit is connected to the operating devices associated therewith via a data line and is designed to transmit control commands to the operating devices individually at a respective operating address, wherein the control commands are generated on the basis of control information supplied by the control unit , wherein the control unit wirelessly receives the control information, wherein the control information supplied to the control unit originates at least partially from the sensor , in particular in the form of a presence or brightness sensor, characterized in that the control commands correspond to the DALI and/or DSI standard, and in that the sensor has an independent power supply in the form of a battery or a solar cell, wherein the lighting system has a plurality of operating elements (42-44), wherein at least some of the operating elements (42-44) are designed to wirelessly exchange information regarding the control information transmitted to the control unit , and wherein the operating elements (42-44) are designed to display the current state of the lighting system.
A process for preparing fish bone powder comprising the following steps: a. removal of blood meat from the bone; b. pre-heating the bone at 80-120°C for 50-90 minutes; c. reducing the size of the bone obtained from step a or step b to 0.5-2 cm; d. washing the bone obtained from step c with water; e. removal of non-polar components from the bone obtained from step d with an alkali solution or with hexane, wherein the alkali concentration is in the range of 0.2-1% (w/v); f. removal of protein components from the bone obtained from step e with at least one enzyme, wherein the ratio between bone and water is in the range of 1:1-2; g. drying of the bone obtained from step f; and h. milling or pulverizing of the dried bone obtained from step g. a. removal of blood meat from the bone; b. pre-heating the bone at 80-120°C for 50-90 minutes; c. reducing the size of the bone obtained from step a or step b to 0.5-2 cm; d. washing the bone obtained from step c with water; e. removal of non-polar components from the bone obtained from step d with an alkali solution or with hexane, wherein the alkali concentration is in the range of 0.2-1% (w/v); f. removal of protein components from the bone obtained from step e with at least one enzyme, wherein the ratio between bone and water is in the range of 1:1-2; g. drying of the bone obtained from step f; and h. milling or pulverizing of the dried bone obtained from step g.
A medical apparatus comprising: an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate a fluoroscopic image; a corrector configured to correct an image of one or more predetermined regions used for identifying a target position of the object in the fluoroscopic image based on one or more correction values but does not correct an image of at least a part of a region out of the predetermined region in the fluoroscopic image; an identifier configured to identify the target position based on an image corrected by the corrector ; and an output controller configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam based on the target position identified by the identifier ; wherein the medical apparatus further comprises a search region setter configured to set a search region with respect to the fluoroscopic image acquired by the acquirer , and the corrector is configured to correct an image of the search region set by the search region setter but does not correct an image of a region out of the search region in the fluoroscopic image. an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate a fluoroscopic image; a corrector configured to correct an image of one or more predetermined regions used for identifying a target position of the object in the fluoroscopic image based on one or more correction values but does not correct an image of at least a part of a region out of the predetermined region in the fluoroscopic image; an identifier configured to identify the target position based on an image corrected by the corrector ; and an output controller configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam based on the target position identified by the identifier ; wherein the medical apparatus further comprises a search region setter configured to set a search region with respect to the fluoroscopic image acquired by the acquirer , and the corrector is configured to correct an image of the search region set by the search region setter but does not correct an image of a region out of the search region in the fluoroscopic image.
A garment comprising a molded fabric laminate, the molded fabric laminate comprising: a first fabric layer comprising at least 80% natural fibers; a second fabric layer comprising at least 80% natural fibers; and a patterned layer of cured shape memory elastomer molded between the first and second fabric layers, wherein the patterned layer of the cured shape memory elastomer is a continuous layer of the cured shape memory elastomer defining at least 24 openings per square centimeter of the patterned layer, wherein the openings are free of the cured shape memory elastomer, and wherein the openings define less than 50% of the surface area of the patterned layer. a first fabric layer comprising at least 80% natural fibers; a second fabric layer comprising at least 80% natural fibers; and a patterned layer of cured shape memory elastomer molded between the first and second fabric layers, wherein the patterned layer of the cured shape memory elastomer is a continuous layer of the cured shape memory elastomer defining at least 24 openings per square centimeter of the patterned layer, wherein the openings are free of the cured shape memory elastomer, and wherein the openings define less than 50% of the surface area of the patterned layer.
A system comprising: one or more server computers comprising memory and at least one processor, the memory storing: a data structure virtualizing at least one portion of a virtual or real world into a plurality of cells storing virtual objects forming a persistent virtual world system ; and a distributed 3D engine implemented in a distributed deployment , the distributed 3D engine comprising a resource manager and a plurality of individual distributed software engines; wherein resources are dynamically allocated via the distributed deployment to one or more of the plurality of cells based on a current load and a corresponding computed and ranked demand of the one or more cells , wherein said ranked demand is based on an amount of virtual objects within the one or more cells or a level of interactions within a portion of the persistent virtual world system visible to a user avatar within the one or more cells, characterized in that cells representing higher resource-intensive areas of interest from the at least one portion of the world are further partitioned into a greater number of cells , wherein smaller cells are allocated a greater amount of resources , wherein the resources are restored after ending an event associated with one or more requests, and wherein the at least one portion of the world is consolidated back into the original number of cells . a data structure virtualizing at least one portion of a virtual or real world into a plurality of cells storing virtual objects forming a persistent virtual world system ; and a distributed 3D engine implemented in a distributed deployment , the distributed 3D engine comprising a resource manager and a plurality of individual distributed software engines; wherein resources are dynamically allocated via the distributed deployment to one or more of the plurality of cells based on a current load and a corresponding computed and ranked demand of the one or more cells , wherein said ranked demand is based on an amount of virtual objects within the one or more cells or a level of interactions within a portion of the persistent virtual world system visible to a user avatar within the one or more cells,