mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling wind turbine loading, the method comprising: determining a current wind speed; determining a tip speed ratio and a pitch angle that maximize a power coefficient under the following conditions: a thrust value is less than or equal to a pre-established maximum thrust; a generator speed value is less than or equal to a pre-established maximum generator speed; and a generator torque is less than or equal to a pre-established maximum generator torque; calculating a desired generator speed value based on the determined current wind speed and the determined tip speed ratio; and calculating a desired generator power value based on the desired generator speed value; the method further comprising: adjusting a torque of the generator such that a power output of the generator is adjusted towards the desired generator power value; and adjusting a pitch of at least one of a plurality of rotor blades of the wind turbine such that a speed of the generator is adjusted towards the desired generator speed value. determining a current wind speed; determining a tip speed ratio and a pitch angle that maximize a power coefficient under the following conditions: a thrust value is less than or equal to a pre-established maximum thrust; a generator speed value is less than or equal to a pre-established maximum generator speed; and a generator torque is less than or equal to a pre-established maximum generator torque; a thrust value is less than or equal to a pre-established maximum thrust; a generator speed value is less than or equal to a pre-established maximum generator speed; and a generator torque is less than or equal to a pre-established maximum generator torque; calculating a desired generator speed value based on the determined current wind speed and the determined tip speed ratio; and calculating a desired generator power value based on the desired generator speed value; the method further comprising: adjusting a torque of the generator such that a power output of the generator is adjusted towards the desired generator power value; and adjusting a pitch of at least one of a plurality of rotor blades of the wind turbine such that a speed of the generator is adjusted towards the desired generator speed value. adjusting a torque of the generator such that a power output of the generator is adjusted towards the desired generator power value; and adjusting a pitch of at least one of a plurality of rotor blades of the wind turbine such that a speed of the generator is adjusted towards the desired generator speed value.
A cleaning receptacle for cleaning a fueling nozzle used to transfer cryogenic fluid, the cleaning receptacle comprising: an outer body including: an outer wall that extends circumferentially around a center axis of the cleaning receptacle, wherein the outer wall has a first inner surface; and a plurality of locating members extending inwardly from the first inner surface toward the center axis, wherein the plurality of locating members are configured to engage an end of the fueling nozzle to facilitate alignment with and prevent rotation of the fueling nozzle relative to the cleaning receptacle; a flow body extending circumferentially around the center axis of the cleaning receptacle, wherein the flow body includes a second inner surface that defines a cavity and a lip at an outer end of the flow body, wherein the lip is configured to securely engage a locking mechanism of the fueling nozzle; and a spray body disposed at an inner end of the flow body, wherein the spray body includes a spray head that defines a plurality of spray holes configured to spray air through the cavity of the flow body and onto surfaces of the fueling nozzle when the fueling nozzle is securely coupled to the flow body. an outer body including: an outer wall that extends circumferentially around a center axis of the cleaning receptacle, wherein the outer wall has a first inner surface; and a plurality of locating members extending inwardly from the first inner surface toward the center axis, wherein the plurality of locating members are configured to engage an end of the fueling nozzle to facilitate alignment with and prevent rotation of the fueling nozzle relative to the cleaning receptacle; an outer wall that extends circumferentially around a center axis of the cleaning receptacle, wherein the outer wall has a first inner surface; and a plurality of locating members extending inwardly from the first inner surface toward the center axis, wherein the plurality of locating members are configured to engage an end of the fueling nozzle to facilitate alignment with and prevent rotation of the fueling nozzle relative to the cleaning receptacle; a flow body extending circumferentially around the center axis of the cleaning receptacle, wherein the flow body includes a second inner surface that defines a cavity and a lip at an outer end of the flow body, wherein the lip is configured to securely engage a locking mechanism of the fueling nozzle; and a spray body disposed at an inner end of the flow body, wherein the spray body includes a spray head that defines a plurality of spray holes configured to spray air through the cavity of the flow body and onto surfaces of the fueling nozzle when the fueling nozzle is securely coupled to the flow body.
A resin coated metal sheet comprising: resin coating layers on both sides of a metal sheet, wherein one of the resin coating layers that is positioned outside a container after forming is formed of a resin material whose difference between a heat quantity of crystallization and a heat quantity of fusion after being laminated to the metal sheet is within a range of 0 J/g or more and 20 J/g or less on a unit weight basis, wherein the heat quantity of crystallization and heat quantity of fusion are determined by removing the resin coating layer from the resin coated metal sheet with diluted hydrochloric acid, washing sufficiently with distilled water to dry; measuring an exothermic peak and an endothermic peak when the temperature of the resin coating layer is raised from - 50°C to 290°C at a rate of temperature rise of 10°C/min using a differential scanning calorimetry apparatus; calculating the heat quantity of crystallization from the area of the exothermic peak measured in a range of 100 to 200°C, and calculating the heat quantity of fusion from the area of the endothermic peak measured in a range of 200 to 280°C, and wherein the resin coated metal sheet is a resin coated steel sheet; and wherein the resin coating layers are formed of a resin material containing 90 mol% or more ethylene terephthalate unit, and a melting point of the resin coating layer positioned outside the container after forming is within a range of 240°C or more and 254°C or less. resin coating layers on both sides of a metal sheet, wherein one of the resin coating layers that is positioned outside a container after forming is formed of a resin material whose difference between a heat quantity of crystallization and a heat quantity of fusion after being laminated to the metal sheet is within a range of 0 J/g or more and 20 J/g or less on a unit weight basis, wherein the heat quantity of crystallization and heat quantity of fusion are determined by removing the resin coating layer from the resin coated metal sheet with diluted hydrochloric acid, washing sufficiently with distilled water to dry; measuring an exothermic peak and an endothermic peak when the temperature of the resin coating layer is raised from - 50°C to 290°C at a rate of temperature rise of 10°C/min using a differential scanning calorimetry apparatus; calculating the heat quantity of crystallization from the area of the exothermic peak measured in a range of 100 to 200°C, and calculating the heat quantity of fusion from the area of the endothermic peak measured in a range of 200 to 280°C, and wherein the resin coated metal sheet is a resin coated steel sheet; and wherein the resin coating layers are formed of a resin material containing 90 mol% or more ethylene terephthalate unit, and a melting point of the resin coating layer positioned outside the container after forming is within a range of 240°C or more and 254°C or less.
A pharmaceutical composition for use as a single dose oral solution comprising iron polymaltose complex, calcium folinate and vitamin C, wherein the iron polymaltose complex is stored as a solution in a cylindrical bottle and calcium folinate and vitamin C are stored separate from said solution, in solid form, in a storage space in the closure cap of the bottle.
Method for generating and further using a digital map for a motor vehicle, the method having the following steps: - providing a digital map and at least one first confidence indicator for the digital map by means of at least one device of the motor vehicle, - providing an electronic horizon for the motor vehicle in at least one arithmetic unit of the motor vehicle, - determining a first instantaneous position of the motor vehicle in a first environment of the motor vehicle, - providing information about a second environment of the motor vehicle, lying within the area of the determined first instantaneous position of the motor vehicle and storing the information in the electronic horizon, - determining at least one second confidence indicator for the electronic horizon, characterized in that the following steps are run through: - comparing the information provided in the electronic horizon with the generated digital map in the area of the second environment of the motor vehicle, - changing the at least one first confidence indicator and the at least one second confidence indicator in dependence on the comparison of the provided information with the generated digital map, - determining at least one third confidence indicator from the at least one first confidence indicator and the at least one second confidence indicator, - using the generated digital map and/or the information provided in the electronic horizon in at least one driver assistance system of the motor vehicle in dependence on the at least one third confidence indicator. - providing a digital map and at least one first confidence indicator for the digital map by means of at least one device of the motor vehicle, - providing an electronic horizon for the motor vehicle in at least one arithmetic unit of the motor vehicle, - determining a first instantaneous position of the motor vehicle in a first environment of the motor vehicle, - providing information about a second environment of the motor vehicle, lying within the area of the determined first instantaneous position of the motor vehicle and storing the information in the electronic horizon, - determining at least one second confidence indicator for the electronic horizon, - comparing the information provided in the electronic horizon with the generated digital map in the area of the second environment of the motor vehicle, - changing the at least one first confidence indicator and the at least one second confidence indicator in dependence on the comparison of the provided information with the generated digital map, - determining at least one third confidence indicator from the at least one first confidence indicator and the at least one second confidence indicator, - using the generated digital map and/or the information provided in the electronic horizon in at least one driver assistance system of the motor vehicle in dependence on the at least one third confidence indicator.
Insulating paint, comprising: a resin that can form an insulating film by application and baking; and a reducing agent having a boiling point of 160°C or higher; wherein the reducing agent is selected from the group consisting of a primary alcohol, a secondary alcohol, a polyol, a primary thiol, a secondary thiol and saccharides, and wherein the reducing agent is a compound having 10 or more carbon atoms in one molecule. a resin that can form an insulating film by application and baking; and a reducing agent having a boiling point of 160°C or higher; wherein the reducing agent is selected from the group consisting of a primary alcohol, a secondary alcohol, a polyol, a primary thiol, a secondary thiol and saccharides, and wherein the reducing agent is a compound having 10 or more carbon atoms in one molecule. the reducing agent is selected from the group consisting of a primary alcohol, a secondary alcohol, a polyol, a primary thiol, a secondary thiol and saccharides, and wherein the reducing agent is a compound having 10 or more carbon atoms in one molecule.
A biological substance detection method for specifically detecting a biological substance from a pathological specimen, said method comprising the steps of: immunostaining said specimen with a fluorescent label; immobilizing the immunostained specimen using an immobilization solution; and mounting the immobilized specimen using a mounting medium comprising an organic solvent not freely miscible with water to prepare a section slide; characterized by that the mounting medium further comprises at least one discoloration inhibitor selected from the group consisting of rutin, 2,6-di-tert-butyl-4-hydroxymethylphenol, bis(2,2,6,6-tetramethyl-4-piperidyl)sebacate, phenothiazine, 2-mercaptobenzimidazole triphenyl phosphite, dibenzyl disulfide, didodecyl-3,3'-thiodipropionate, DL-α-lipoic acid and retinoic acid, and the prepared section slide is transparent. immunostaining said specimen with a fluorescent label; immobilizing the immunostained specimen using an immobilization solution; and mounting the immobilized specimen using a mounting medium comprising an organic solvent not freely miscible with water to prepare a section slide; characterized by that the mounting medium further comprises at least one discoloration inhibitor selected from the group consisting of rutin, 2,6-di-tert-butyl-4-hydroxymethylphenol, bis(2,2,6,6-tetramethyl-4-piperidyl)sebacate, phenothiazine, 2-mercaptobenzimidazole triphenyl phosphite, dibenzyl disulfide, didodecyl-3,3'-thiodipropionate, DL-α-lipoic acid and retinoic acid, and the prepared section slide is transparent.
One-way valve device (1, 1'; 1 "; 1'''), in particular low-pressure check valve, for use in infusion equipment, with a housing (2, 3; 2', 3'; 2", 3") having an inlet line (5; 5') and an outlet line (14; 14'), the inlet and outlet lines (5; 5', 14; 14') being connected to a pressure space in the housing (2, 3; 2', 3'; 2", 3"), the inlet line (5; 5') being arranged on a first side of the housing (2, 3; 2', 3'; 2", 3"), and the outlet line (14; 14') being arranged on a second side of the housing (2, 3; 2', 3'; 2", 3") opposite the first side, the pressure space being constructed from two interconnected pressure chambers (12a, 12b) connected to outside air by means of an air duct, and the one-way valve device (1, 1'; 1"; 1"') being designed such that the through-flow is interrupted by a static underpressure prevailing on the inlet line (5; 5') and/or the outlet line (14; 14') or by an overpressure on the outlet line (14; 14'), characterized in that at least two seals or membranes (61, 62; 61', 62'; 61", 62") separating the inlet line (5; 5') from the outlet line (14; 14') are provided in the pressure space, and the two pressure chambers (12a, 12b) are arranged lying one above the other in the housing (2, 3; 2', 3'; 2", 3") with respect to the flow direction between the first and the second sides, and the two seals or membranes (61, 62; 61', 62'; 61", 62") are arranged lying one above the other in the housing (2, 3; 2', 3'; 2", 3") with respect to the flow direction between the first and second sides, the housing (2, 3; 2', 3'; 2", 3") having a main part (2; 2'; 2") and a housing attachment (3; 3'; 3"), the one-way valve device (1, 1'; 1"; 1''') having a first valve disk and second valve disk, which each comprise at least one of the seals or membranes (61, 62; 61', 62'; 61", 62"), and has an inner valve part (53; 53'; 53"), said valve disks (51, 52) and inner valve part (53; 53'; 53") being received in a recess between the main part (2; 2'; 2") and the housing attachment (3; 3'; 3"), and the inner valve part (53; 53'; 53") being arranged between the valve disks (51, 52), the first valve disk being clamped between the inner valve part (53; 53'; 53") and the housing attachment in such a way that the seal or membrane (61; 61'; 61") bears with pretensioning against the housing attachment, and the second valve disk being clamped between the inner housing part and the main part in such a way that the seal or membrane (62; 62'; 62") bears with pretensioning against the main part.
A method for updating a plurality of original disk images, in an environment concerning system virtual machines each of the plurality of original disk images derived from a common base disk image and a delta disk comprising a plurality of delta files, each of the delta files representing at least one difference between one of the plurality of original disk images and the base disk image, the method comprising, for each one of said plurality of original disk images: applying (308, 352) a delta file from one of a plurality of delta disks to the base disk image to generate a virtual disk image comprising a portion of the base disk image modified by the delta file and an unmodified portion of the base disk image; copying the base disk image to generate a second disk image comprising a copy of the base disk image; applying (304, 354) a patch to the second disk image to create a modified disk image; determining that the patch is applied to a portion of the second disk image corresponding to the unmodified portion of the base disk image; and applying the delta file to the modified disk image by: selectively copying delta files from one of the plurality of delta disks into a second delta disk; creating a final disk image by merging the base disk image, the modified disk image and the virtual disk image; and replacing the original disk image with the final disk image. applying (308, 352) a delta file from one of a plurality of delta disks to the base disk image to generate a virtual disk image comprising a portion of the base disk image modified by the delta file and an unmodified portion of the base disk image; copying the base disk image to generate a second disk image comprising a copy of the base disk image; applying (304, 354) a patch to the second disk image to create a modified disk image; determining that the patch is applied to a portion of the second disk image corresponding to the unmodified portion of the base disk image; and applying the delta file to the modified disk image by: selectively copying delta files from one of the plurality of delta disks into a second delta disk; creating a final disk image by merging the base disk image, the modified disk image and the virtual disk image; and replacing the original disk image with the final disk image. selectively copying delta files from one of the plurality of delta disks into a second delta disk; creating a final disk image by merging the base disk image, the modified disk image and the virtual disk image; and replacing the original disk image with the final disk image.
A person lift system, comprising: a lift assembly, and a sling support assembly configured to be moved by the lift assembly, the sling support assembly including a frame and a plurality of sling coupling mechanisms configured to removably couple a sling to the sling support assembly, wherein at least a portion of the frame is movable to selectively change the spatial relationship of the plurality of sling coupling mechanisms, characterised in that, the frame includes a first frame member, a second frame member coupled to the first frame member, and a third frame member coupled to the first frame member, the second frame member and the third frame member each include a first portion and a second portion, at least one of the first portion and the second portion of at least one of the second frame member and the third frame member being configured to rotate with respect to the first frame member about a rotational joint located at the distal end of the first frame member and substantially in the lengthwise center of at least one of the second frame member and the third frame member, wherein a rotational axis of the rotational joint is substantially parallel to a lifting direction of the lift assembly defined by the raising and lowering of the sling support assembly. a lift assembly, and a sling support assembly configured to be moved by the lift assembly, the sling support assembly including a frame and a plurality of sling coupling mechanisms configured to removably couple a sling to the sling support assembly, wherein at least a portion of the frame is movable to selectively change the spatial relationship of the plurality of sling coupling mechanisms, characterised in that, the frame includes a first frame member, a second frame member coupled to the first frame member, and a third frame member coupled to the first frame member, the second frame member and the third frame member each include a first portion and a second portion, at least one of the first portion and the second portion of at least one of the second frame member and the third frame member being configured to rotate with respect to the first frame member about a rotational joint located at the distal end of the first frame member and substantially in the lengthwise center of at least one of the second frame member and the third frame member, wherein a rotational axis of the rotational joint is substantially parallel to a lifting direction of the lift assembly defined by the raising and lowering of the sling support assembly.
Insertable tube system for a vacuum cleaner, with at least one first tube, a second tube and a coupling for detachable connection of the first tube to the second tube, wherein the coupling has a guide element and a lever button, wherein the guide element is located on an outer side of a wall of the first tube, the lever button is supported in the guide element to be able to move around a pivot axis, the lever button is movable by the force of at least a first spring element into a catch position, and the bottom of the lever button has a catch projection, wherein the wall of the first tube is penetrated by an opening for the catch projection of the lever button, and wherein a mechanical connection between the first tube and the second tube can be produced by engagement of the catch projection with a catch recess of the second tube, characterized in that an electrically conductive connection between the first tube and the second tube can be produced with the first spring element in at least a catch position of the lever button.
A beta-glucosidase 1 variant which is derived from a parent BGL1 having at least 80% amino acid sequence identity to SEQ ID NO: 3 by substitution of an amino acid in the parent BGL1 at a position that corresponds to position 1567 in SEQ ID NO: 3 with Q, V, E, K, R, S, Y or F, the BGL1 variant having at least two improved activities over wild type BGL1 having the amino acid sequence of SEQ ID NO: 3, wherein the activities are selected from the group consisting of: (a) pre-treated corn stover hydrolysis activity, (b) cellobiase activity, (c) protein expression, (d) beta-glucosidase activity measured by a cellobiase activity in the presence of ammonia pretreated corncob or by a CC hydrolysis activity, (e) thermo stability, (f) phosphoric acid swollen cellulose (PASC) hydrolysis activity, and (g) hydrolytic activity in the presence of glucose. (a) pre-treated corn stover hydrolysis activity, (b) cellobiase activity, (c) protein expression, (d) beta-glucosidase activity measured by a cellobiase activity in the presence of ammonia pretreated corncob or by a CC hydrolysis activity, (e) thermo stability, (f) phosphoric acid swollen cellulose (PASC) hydrolysis activity, and (g) hydrolytic activity in the presence of glucose.
Fraction of edible Pistacia lentiscus oil enriched in polyphenols obtainable by ultracentrifugation followed by winterisation of the supernatant, solubilisation in water-alcohol mixtures, preferably water-ethanol mixtures, sonication and removal of the water-alcohol solvent.