mhurhangee/ep-ind-claims huggingface dataset:
Method for tolerance compensation between two fibre composite components (1, 3) for aircraft, comprising the following steps: a) producing the first fibre composite component, wherein a mounting surface can have tolerance deviations, b) producing a mould insert for insertion into a mould on the basis of a surface geometry of the mounting surface, wherein the mounting surface is scanned by means of a measuring device to determine measurement data of the surface geometry of the mounting surface and the mould insert is produced on the basis of the measurement data, c) inserting the mould insert into a mould and producing the second fibre composite component with the mould insert in the mould, wherein a surface geometry of a contact surface of the second fibre composite component substantially corresponds to the surface geometry of the mounting surface, and d) joining together the first fibre composite component with the second fibre composite component in the region of the mounting surface and the contact surface. a) producing the first fibre composite component, wherein a mounting surface can have tolerance deviations, b) producing a mould insert for insertion into a mould on the basis of a surface geometry of the mounting surface, wherein the mounting surface is scanned by means of a measuring device to determine measurement data of the surface geometry of the mounting surface and the mould insert is produced on the basis of the measurement data, c) inserting the mould insert into a mould and producing the second fibre composite component with the mould insert in the mould, wherein a surface geometry of a contact surface of the second fibre composite component substantially corresponds to the surface geometry of the mounting surface, and d) joining together the first fibre composite component with the second fibre composite component in the region of the mounting surface and the contact surface.
Air purifying apparatus with attachment in a vehicle, wherein the air purifying apparatus consists of a fan in a portable housing (2, 4, 5), which has at least one air intake region for drawing air into the housing (2, 4, 5) and at least one air discharge region for blowing the air out of the housing (2, 4, 5), wherein a purified discharge air stream flows out into the vehicle interior, wherein the attachment consists of an adapter plate which is releasably fixable at different positions in the interior of the motor vehicle and the air purifying apparatus is mounted rotatably on the adapter plate, characterised in that the adapter plate has a coupling sleeve, which is lockable in a recess in the interior of the air purifying apparatus, for mounting the air purifying apparatus.
Device for perforating an acoustic annular panel for a turbine engine, characterised in that it comprises: - a ring support of perforation needle, said ring having an axis A of revolution and being intended to be inserted substantially coaxially inside said panel, said ring being sectored and comprising ring sectors (24a, 24b) regularly distributed around said axis and each one radially mobile opposite to the axis from a rest position radially inner up to a perforation position of the panel radially outer, and - at least one rotating actuator of rotation axis A and mechanically connected to said ring sectors such that a rotation of the actuator leads to a radial movement of the ring sectors. - a ring support of perforation needle, said ring having an axis A of revolution and being intended to be inserted substantially coaxially inside said panel, said ring being sectored and comprising ring sectors (24a, 24b) regularly distributed around said axis and each one radially mobile opposite to the axis from a rest position radially inner up to a perforation position of the panel radially outer, and - at least one rotating actuator of rotation axis A and mechanically connected to said ring sectors such that a rotation of the actuator leads to a radial movement of the ring sectors.
A spring member used for a fuel cell stack in which are stacked a plurality of fuel cell units, each of the fuel cell units having a power generation cell that is formed by sandwiching an electrolyte from both sides with a pair of electrodes (101T, 101U) and that generates power by means of supplied gas, and a separator that defines a flow path portion, which is a flow passage for the gas between the separator and the power generation cell, and that is in conductive contact with the power generation cell, comprising: a first spring member that generates elastic force for pressing the separator toward the power generation cell; and a second spring member that generates the elastic force independently of the first spring member, the first spring member having a spring constant that decreases upon the spring member being heated, characterized in that the spring constant of the first spring member is larger than a spring constant of the second spring member before being heated such that the spring member functions as a high reaction force spring, the high reaction force spring being a spring that generates a reaction force necessary for supporting components to be assembled when the fuel cell units are stacked, and the spring constant of the first spring member being smaller after being heated as compared to before being heated such that the spring member functions as a low reaction force spring, the low reaction force spring being a spring that generates a reaction force necessary for absorbing displacement and deformation of the separator and the power generation cell in a stacking direction. a first spring member that generates elastic force for pressing the separator toward the power generation cell; and a second spring member that generates the elastic force independently of the first spring member, the first spring member having a spring constant that decreases upon the spring member being heated, characterized in that the spring constant of the first spring member is larger than a spring constant of the second spring member before being heated such that the spring member functions as a high reaction force spring, the high reaction force spring being a spring that generates a reaction force necessary for supporting components to be assembled when the fuel cell units are stacked, and the spring constant of the first spring member being smaller after being heated as compared to before being heated such that the spring member functions as a low reaction force spring, the low reaction force spring being a spring that generates a reaction force necessary for absorbing displacement and deformation of the separator and the power generation cell in a stacking direction.
A lipid composition comprising from 25 wt.% to 40 wt.% of n-3 DHA, from 6 wt. % to 10 wt. % n-6 DPA, and from 0 wt. % to 3 wt. % of n-3 EPA, further comprising: (i) 11 wt.% to 15 wt.% of myristic acid; or (ii) 3 wt.% to 7 wt.% of palmitoleic acid; or (iii) at least 1 wt.% carotenoid material. (i) 11 wt.% to 15 wt.% of myristic acid; or (ii) 3 wt.% to 7 wt.% of palmitoleic acid; or (iii) at least 1 wt.% carotenoid material.
Container that delimits a container interior from the surroundings and is formed at least in part from a sheet-like composite, wherein the sheet-like composite at least comprises as component parts of the composite as composite layers: - a polymer outer layer (4_1) facing the surroundings; - a carrier layer (4_2) following the polymer outer layer (4_1) in the direction of the container interior; - an oxygen barrier layer (4_3) following the carrier layer (4_2) in the direction of the container interior; - an adhesive layer (4_4) following the oxygen barrier layer (4_3) in the direction of the container interior; - a polymer inner layer (4_5) following the adhesive layer (4_4) in the direction of the container interior; wherein the layer thickness of the adhesive layer (4_4) SD HS is greater than the layer thickness of the polymer inner layer (4_5) SD PIS; wherein the carrier layer (4_2) has a hole, which is covered at least by the oxygen barrier layer (4_3), the adhesive layer (4_4) and the polymer inner layer (4_5) as hole-covering layers. - a polymer outer layer (4_1) facing the surroundings; - a carrier layer (4_2) following the polymer outer layer (4_1) in the direction of the container interior; - an oxygen barrier layer (4_3) following the carrier layer (4_2) in the direction of the container interior; - an adhesive layer (4_4) following the oxygen barrier layer (4_3) in the direction of the container interior; - a polymer inner layer (4_5) following the adhesive layer (4_4) in the direction of the container interior;
A culture of L. acidophilus NCFM for use in: (a) treating or preventing a respiratory tract infection in a child; and/or (b) treating or preventing the flu-like symptoms of a respiratory tract infection in a child. (a) treating or preventing a respiratory tract infection in a child; and/or (b) treating or preventing the flu-like symptoms of a respiratory tract infection in a child.
A system for the crystallization of a material dissolved and to be crystallized in a solvent, having a crystallization apparatus flowed through by a solution to be concentrated, which comprises the solvent with the material dissolved and to be crystallized therein, and by a liquid that has a lower temperature than the solution to be concentrated, wherein the crystallization apparatus has at least one flow passage conducting the solution to be concentrated and has at least one flow passage conducting the liquid, wherein the internal space of a respective flow passage conducting the solution to be concentrated is bound at least partly by a membrane wall permeable for the vaporous solvent but not for the liquid solvent, and a respective flow passage conducting the liquid is adjacent to at least one respective flow passage conducting the solution to be concentrated, whereby a vapor pressure difference is set via the membrane wall in such a way that the solvent passes from the solution to be concentrated through the membrane wall, characterized in that the crystallization apparatus has a plurality of frame elements (100, 120, 130, 140) that can be combined with one another for the formation of different functional units, such as in particular of the at least one flow passage conducting the solution to be concentrated and of the at least one flow passage conducting the liquid, to form stacks comprising at least two, in particular at least ten frame elements (100, 120, 130, 140), wherein the frame elements (100, 120, 130, 140) respectively have an outer frame provided with passages (102, 104), a central internal region bound by an outer frame and a sediment collection region arranged beneath the central internal region, the crystallization apparatus has at least two different types of frame elements (100, 120, 130, 140) that are alternatingly combined to form a stack, wherein the central internal region of the one type of frame elements (100, 130) forms a part of the at least one flow passage conducting the solution to be concentrated and the central internal region of the other type of frame element (120, 140) forms a part of the at least one flow passage conducting the liquid, a respective membrane wall is arranged at both sides of the central internal region of one type of frame elements (120, 130), in particular is welded thereto, the membrane wall being permeable for the vaporous solvent but not for the liquid solvent, a vapor-tight and liquid-tight film is respectively arranged at both sides of the central internal region of the other type of frame elements, in particular is welded thereto, and an intermediate space between respectively one membrane wall and an adjacent film forms a part of the flow passage provided for the conducting away of the solvent which has passed through the membrane wall.
A handheld personal care device, comprising: a housing; at least one light source arranged within the housing, the at least one light source configured to emit light in at least a first direction; an optical element comprising an inside surface facing the at least one light source and an outside surface opposite the inside surface, the optical element configured to transmit light from the light source; and a plurality of laser-induced modifications formed on the inside surface or inside the optical element and configured to alter a transmission of light through the optical element; wherein the plurality of laser-induced modifications is configured to provide a uniform distribution of light on the outside of the optical element. a housing; at least one light source arranged within the housing, the at least one light source configured to emit light in at least a first direction; an optical element comprising an inside surface facing the at least one light source and an outside surface opposite the inside surface, the optical element configured to transmit light from the light source; and a plurality of laser-induced modifications formed on the inside surface or inside the optical element and configured to alter a transmission of light through the optical element; wherein the plurality of laser-induced modifications is configured to provide a uniform distribution of light on the outside of the optical element.
A phenotyping system for phenotyping of plants, comprising: at least one plant unit having one or more plants, a growing area, a measurement area separated from the growing area, a sensor located in the measurement area configured to acquire phene-data related to phenes of the one or more plants of the at least one plant unit, and a main controller for receiving and processing data, wherein the phenotyping system is adapted to transport the plant unit to the measurement area, characterized by at least one weighing vehicle comprising a weighing unit for acquiring weight-data related to a weight of the at least one plant unit; wherein the weighing vehicle is configured to transport the plant unit to the measurement area. at least one plant unit having one or more plants, a growing area, a measurement area separated from the growing area, a sensor located in the measurement area configured to acquire phene-data related to phenes of the one or more plants of the at least one plant unit, and a main controller for receiving and processing data, wherein the phenotyping system is adapted to transport the plant unit to the measurement area, characterized by at least one weighing vehicle comprising a weighing unit for acquiring weight-data related to a weight of the at least one plant unit; wherein the weighing vehicle is configured to transport the plant unit to the measurement area.
A combination of a soldering iron, a soldering iron control device that allows electrical connection to the soldering iron and controls a temperature of a tip of the soldering iron, and a temperature measurement device for measuring the temperature of the tip, the soldering iron including: a handle part; and a cartridge that is attachable to and detachable from the handle part and includes the tip and a temperature sensor to be used for measuring the temperature of the tip, a storage unit (112b, 224) being included either in the soldering iron control device or in the cartridge and being characterised by: the soldering iron control device comprising: a control unit configured to control the temperature of the tip at a set temperature based on the temperature measured by the temperature sensor; and a storage processing unit configured to perform a process of causing the storage unit (112b, 224) to store whether the temperature measurement device different from the temperature sensor has succeeded in calibration of the temperature of the tip as a calibration result in a state where the temperature of the tip is controlled at the set temperature. a soldering iron control device that allows electrical connection to the soldering iron and controls a temperature of a tip of the soldering iron, and a temperature measurement device for measuring the temperature of the tip, the soldering iron including: a handle part; and a cartridge that is attachable to and detachable from the handle part and includes the tip and a temperature sensor to be used for measuring the temperature of the tip, a storage unit (112b, 224) being included either in the soldering iron control device or in the cartridge and being characterised by: the soldering iron control device comprising: a control unit configured to control the temperature of the tip at a set temperature based on the temperature measured by the temperature sensor; and a storage processing unit configured to perform a process of causing the storage unit (112b, 224) to store whether the temperature measurement device different from the temperature sensor has succeeded in calibration of the temperature of the tip as a calibration result in a state where the temperature of the tip is controlled at the set temperature. a control unit configured to control the temperature of the tip at a set temperature based on the temperature measured by the temperature sensor; and a storage processing unit configured to perform a process of causing the storage unit (112b, 224) to store whether the temperature measurement device different from the temperature sensor has succeeded in calibration of the temperature of the tip as a calibration result in a state where the temperature of the tip is controlled at the set temperature.
Crushing device for crushing material to be crushed such as valuable materials, waste and production residues comprising a crushing rotor rotatably positioned on a machine frame with crushing tools placed thereon, a receiving area for receiving material to be crushed as well as a feeding device that has a stamping device movable by means of a driving device in direction of the crushing rotor, this stamping device being configured to feed material to be crushed to the crushing rotor, characterized in that the driving device of the feeding device has at least two spaced electric actuators (6a, b) driven by means of a control device that are linked on the driven side by means of a crossbar, wherein the crossbar is operatively connected to the stamping device by a spring-elastic damping device (7a, b).
A display apparatus adapted to be used for a transport machine equipped with a variable compression ratio mechanism which is capable of modifying an engine compression ratio of an internal combustion engine, characterized by: a display displaying a degree of a saving of energy which varies in accordance with a state of the engine compression ratio.
A compound of any one of Formulas I 3, I 12, and I 15: or a solvate thereof, wherein R 1 is independently at each occurence tert-butyl-dimethylsilyl; R 2 is independently at each occurence triphenylsilyl; n is 2; and wherein the compound is a crystalline solid. R 1 is independently at each occurence tert-butyl-dimethylsilyl; R 2 is independently at each occurence triphenylsilyl; n is 2; and wherein the compound is a crystalline solid.
A stent (30; 60; 72; 88; 90) comprising: one or more elongated wires braided to form a tubular stent having a retrieval and/or repositioning member (42; 68) and an opposed first open end and a second open end with each open end having a circumference and a tubular body therebetween, the first open end defined by a series of closed-end loops, the retrieval and/or repositioning member (42; 68) having a first section (44; 54; 76; 92; 100) including at least one elongated closed-end loop extending from the first open end and a second section (46; 82; 98) emerging from the braided tubular body, the second section (46; 82; 98) interwoven with at least one closed-end loop of the series of closed-end loops and integrally extending into the first section (44; 54; 76; 92; 100) whereby force exerted on the elongated closed-end loop causes radial contraction of the tubular stent, wherein the retrieval and/or repositioning member (42; 68) is integral with the braided tubular body, and wherein the retrieval and/or repositioning member (42; 68) includes a single wire which extends about the first open end and characterized in that: said single wire crosses over itself prior to being incorporated into the braided tubular body. one or more elongated wires braided to form a tubular stent having a retrieval and/or repositioning member (42; 68) and an opposed first open end and a second open end with each open end having a circumference and a tubular body therebetween, the first open end defined by a series of closed-end loops, the retrieval and/or repositioning member (42; 68) having a first section (44; 54; 76; 92; 100) including at least one elongated closed-end loop extending from the first open end and a second section (46; 82; 98) emerging from the braided tubular body, the second section (46; 82; 98) interwoven with at least one closed-end loop of the series of closed-end loops and integrally extending into the first section (44; 54; 76; 92; 100) whereby force exerted on the elongated closed-end loop causes radial contraction of the tubular stent, wherein the retrieval and/or repositioning member (42; 68) is integral with the braided tubular body, and wherein the retrieval and/or repositioning member (42; 68) includes a single wire which extends about the first open end and characterized in that: said single wire crosses over itself prior to being incorporated into the braided tubular body. said single wire crosses over itself prior to being incorporated into the braided tubular body.
Method for operating a gas turbine with sequential combustion, which comprises at least one compressor (12, 13), a first combustion chamber with a first turbine which is connected downstream, and a second combustion chamber with a second turbine which is connected downstream, wherein the at least one compressor (12, 13) draws in and compresses air and feeds the compressed air to the first combustion chamber for combusting a first fuel, and the gas which issues from the first turbine is fed to the second combustion chamber for combusting a second fuel, wherein different fuels are used as first and second fuel, characterized in that the first combustion chamber and/or the second combustion chamber comprises a plurality of groups of burners (14a, b; 16a, b), and in that different burner groups (14a, b; 16a, b) inside a combustion chamber (14, 16) are operated with different fuels.
Purified bilirubin oxidase of Bacillus pumilus of SEQ ID No. 2, characterized in that it catalyses the reaction for oxidation of bilirubin to biliverdin and in that it is bound to four copper atoms.