mhurhangee/ep-ind-claims huggingface dataset:
A turbine assembly comprising a basically hollow aerofoil, at least a wall segment (14, 14') arranged at a side (16, 16') of the hollow aerofoil oriented basically perpendicular to a span wise direction of the hollow aerofoil and with at least an insertion aperture in said at least one wall segment (14, 14') providing access to the hollow aerofoil and at least an impingement tube (22, 22a) to be inserted via the insertion aperture into the hollow aerofoil to be located within the hollow aerofoil and extending in at least the span wise direction of the hollow aerofoil, wherein in an assembled state of the impingement tube (22, 22a) in the hollow aerofoil at least a protrusion section (24, 24a) of the impingement tube (22, 22a) extends in a direction oriented basically perpendicular to the span wise direction over an edge of the insertion aperture in the wall segment (14, 14') within the hollow aerofoil, wherein the protrusion section (24, 24a) is overlapped by at least a part of the wall segment (14, 14') and wherein adjacent to the protrusion section (24, 24a) an overlap section of the impingement tube (22, 22a) is arranged which abuts the edge of the insertion aperture in the wall segment (14, 14') and wherein the protrusion section (24, 24a) and the overlap section are formed integrally with each other in one piece.
Method for mixing a plurality of coded audio streams according to a coding by frequency subbands, comprising the following steps: - decoding of a part of the coded streams over at least a first frequency sub-band; - summing of the streams thus decoded so as to form at least a first mixed stream; the method being characterized in that it comprises the steps for: - detection, over at least a second frequency sub-band different from the at least first sub-band, of the presence of a predetermined frequency band within the plurality of coded audio streams; - summing of the decoded audio streams for which the presence of the predetermined frequency band has been detected, over said at least second sub-band, so as to form at least a second mixed stream. - decoding of a part of the coded streams over at least a first frequency sub-band; - summing of the streams thus decoded so as to form at least a first mixed stream; - detection, over at least a second frequency sub-band different from the at least first sub-band, of the presence of a predetermined frequency band within the plurality of coded audio streams; - summing of the decoded audio streams for which the presence of the predetermined frequency band has been detected, over said at least second sub-band, so as to form at least a second mixed stream.
Wheel angle sensor assembly for measuring a relative rotation between a front axle of a work vehicle with respect to a knuckle configured to be coupled to a wheel of said work vehicle, said wheel angle sensor assembly comprising a steering pin configured to be carried and coupled at rotation via a mechanical shape coupling with one (2,3) between said front axle and said knuckle, said wheel angle sensor assembly further comprising an angle sensor configured to be carried and coupled at rotation with the other (2,3) between said front axle and said knuckle, wherein said mechanical shape coupling is realized between a protrusion carried by one between said steering pin and said front axle and configured to cooperate with a slot carried by the other between said steering pin and said front axle and characterized in that said sensor is carried by said knuckle, one (7,8) between said sensor and said pin comprises a further protrusion configured to cooperate with a housing realized in the other (7,8) between said sensor and said pin.
Method for manufacturing a plastic fuel tank with improved creep strength, whereby: a) a plastic parison comprising two distinct parts (1, 2) is inserted into an open two-cavity mould; b) a core is inserted inside the parison, the said core bearing at least part of a reinforcing element capable of securing, meaning creating a link between, the two distinct parts of the parison (1, 2); c) the parison is pressed firmly against the mould cavities by blowing through the core and/or creating suction behind the cavities; d) the reinforcing element or a part of the reinforcing element is fixed to at least one of the distinct parts of the parison (1, 2) using the core; e) the core is withdrawn; f) the mould is closed again, bringing its two cavities together in such a way as to grip the two parts of the parison (1, 2) around their periphery in order to weld them together; g) a pressurized fluid is injected into the mould and/or a vacuum is created behind the mould cavities in order to press the parison firmly against the mould cavities; h) the mould is opened and the tank is extracted, wherein: - the mould cavities are closed on to the core - i.e. are brought into contact with it and delimit a sealed region on either side of the core - during steps c) and d); and - the two distinct parts of the parison of the tank are connected by the reinforcing element or by a part of the reinforcing element during step f) or after step h). a) a plastic parison comprising two distinct parts (1, 2) is inserted into an open two-cavity mould; b) a core is inserted inside the parison, the said core bearing at least part of a reinforcing element capable of securing, meaning creating a link between, the two distinct parts of the parison (1, 2); c) the parison is pressed firmly against the mould cavities by blowing through the core and/or creating suction behind the cavities; d) the reinforcing element or a part of the reinforcing element is fixed to at least one of the distinct parts of the parison (1, 2) using the core; e) the core is withdrawn; f) the mould is closed again, bringing its two cavities together in such a way as to grip the two parts of the parison (1, 2) around their periphery in order to weld them together; g) a pressurized fluid is injected into the mould and/or a vacuum is created behind the mould cavities in order to press the parison firmly against the mould cavities; h) the mould is opened and the tank is extracted, wherein: - the mould cavities are closed on to the core - i.e. are brought into contact with it and delimit a sealed region on either side of the core - during steps c) and d); and - the two distinct parts of the parison of the tank are connected by the reinforcing element or by a part of the reinforcing element during step f) or after step h). - the mould cavities are closed on to the core - i.e. are brought into contact with it and delimit a sealed region on either side of the core - during steps c) and d); and - the two distinct parts of the parison of the tank are connected by the reinforcing element or by a part of the reinforcing element during step f) or after step h).
A dust collector for a vacuum cleaner, the dust collector comprising: a first cyclone provided in a first case, and configured to separate dust from air introduced from a lower portion thereof containing foreign materials and discharge the separated dust into a first dust storing unit, the first cyclone comprising a housing located inside the first dust storing unit; a second cyclone provided above the first cyclone, and configured to separate fine dust from the air, from which the dust has been separated by the first cyclone, and discharge the separated fine dust; a second dust storing unit provided inside the first cyclone to collect therein the fine dust discharged from the second cyclone, wherein the first cyclone comprises: a mesh filter formed in a conic shape of getting narrower from top to bottom thereof, such that the dust filtered by the mesh filter and stuck on the mesh filter is separated from the mesh filter when a lower cover is open, and configured to filter out the dust from the air; and the housing that extends substantially in the same direction as an extending direction of the first case to define an appearance of the first cyclone, and configured to allow for orbiting of the air or dust therein. a first cyclone provided in a first case, and configured to separate dust from air introduced from a lower portion thereof containing foreign materials and discharge the separated dust into a first dust storing unit, the first cyclone comprising a housing located inside the first dust storing unit; a second cyclone provided above the first cyclone, and configured to separate fine dust from the air, from which the dust has been separated by the first cyclone, and discharge the separated fine dust; a second dust storing unit provided inside the first cyclone to collect therein the fine dust discharged from the second cyclone, wherein the first cyclone comprises: a mesh filter formed in a conic shape of getting narrower from top to bottom thereof, such that the dust filtered by the mesh filter and stuck on the mesh filter is separated from the mesh filter when a lower cover is open, and configured to filter out the dust from the air; and the housing that extends substantially in the same direction as an extending direction of the first case to define an appearance of the first cyclone, and configured to allow for orbiting of the air or dust therein. a mesh filter formed in a conic shape of getting narrower from top to bottom thereof, such that the dust filtered by the mesh filter and stuck on the mesh filter is separated from the mesh filter when a lower cover is open, and configured to filter out the dust from the air; and the housing that extends substantially in the same direction as an extending direction of the first case to define an appearance of the first cyclone, and configured to allow for orbiting of the air or dust therein.
A particle analysis method for determining whether a blood specimen collected from a subject is a specimen collected from a patient with bacterial infection or a specimen collected from a patient with viral infection, comprising: step A of irradiating light on a measurement sample prepared by mixing a test blood specimen comprising particles, collected from a subject, a fluorescent dye that stains a nucleic acid, and a hemolytic agent, thereby acquiring scattered light and fluorescence from each particle comprised in the measurement sample, step A-1 of determining total neutrophil population and a first population, from the scattered light and the fluorescence acquired in the step A, wherein the first population is a particle population in the measurement sample determined to correspond to a neutrophil population comprised in a blood of a control subject not suffering from infection, step B of acquiring particle number information on the particles that are substantially not comprised in the blood of the control subject not suffering from infection, that are determined to be neutrophils comprised in a blood of a patient with infection, based on the scattered light and the fluorescence, and that are particles comprised in the total neutrophil population and not comprised in the first population, step C of determining whether the test blood specimen is a specimen collected from a patient with bacterial infection or a specimen collected from a patient with viral infection, based on the particle number information. step A of irradiating light on a measurement sample prepared by mixing a test blood specimen comprising particles, collected from a subject, a fluorescent dye that stains a nucleic acid, and a hemolytic agent, thereby acquiring scattered light and fluorescence from each particle comprised in the measurement sample, step A-1 of determining total neutrophil population and a first population, from the scattered light and the fluorescence acquired in the step A, wherein the first population is a particle population in the measurement sample determined to correspond to a neutrophil population comprised in a blood of a control subject not suffering from infection, step B of acquiring particle number information on the particles that are substantially not comprised in the blood of the control subject not suffering from infection, that are determined to be neutrophils comprised in a blood of a patient with infection, based on the scattered light and the fluorescence, and that are particles comprised in the total neutrophil population and not comprised in the first population, step C of determining whether the test blood specimen is a specimen collected from a patient with bacterial infection or a specimen collected from a patient with viral infection, based on the particle number information.
A compound represented by formula [wherein: R 2 represents an ethyl group; n represents 0, 1, or 2; G 1 represents CH; G 2 represents CR 3b; G 3 represents CR 3c; G 4 represents CH; R 3b and R 3c are identical to or different from each other, and each represent a C1-C3 alkyl group optionally substituted with one or more halogen atom(s), a cyclopropyl group, a phenyl group optionally substituted with one or more halogen atom(s), OR 12, a hydrogen atom, or a halogen atom; R 12 represents a C1-C3 alkyl group optionally substituted with one or more halogen atom(s); Q represents a group represented by Q1 or a group represented by Q2; Z represents an oxygen atom; A 2 and A 3 each represent CH; B 1 represents a nitrogen atom or CH; B 2 represents CR 1; B 3 represents a nitrogen atom or CH; and R 1 represents a C1-C3 fluoroalkyl group] or an N-oxide thereof. R 2 represents an ethyl group; n represents 0, 1, or 2; G 1 represents CH; G 2 represents CR 3b; G 3 represents CR 3c; G 4 represents CH; R 3b and R 3c are identical to or different from each other, and each represent a C1-C3 alkyl group optionally substituted with one or more halogen atom(s), a cyclopropyl group, a phenyl group optionally substituted with one or more halogen atom(s), OR 12, a hydrogen atom, or a halogen atom; R 12 represents a C1-C3 alkyl group optionally substituted with one or more halogen atom(s); Q represents a group represented by Q1 or a group represented by Q2; Z represents an oxygen atom; A 2 and A 3 each represent CH; B 1 represents a nitrogen atom or CH; B 2 represents CR 1; B 3 represents a nitrogen atom or CH; and R 1 represents a C1-C3 fluoroalkyl group] or an N-oxide thereof.
A water-soluble alkoxylated polyalkylenimine or polyamine of the general formula I in which the variables are each defined as follows: R represents identical or different, linear or branched C 2 -C 12 -alkylene radicals or an etheralkyl unit of the following formula: in which the variables are each defined as follows: R 10, R 11, R 12 represent identical or different, linear or branched C 2 -C 6 -alkylene radicals and d is an integer having a value in the range of from 0 to 50; B represents a continuation of the alkoxylated polyalkylenimine by branching E is an alkylenoxy unit of the formula II in which the variables are each defined as follows: R 1 represents 1,2-propylene, 1,2-butylene and/or 1,2-pentene; R 2 represents hydrogen and/or C 1 -C 22 -alkyl and/or C 7 -C 22 aralkyl; y and z are each from 0 to 150, m is an integer having a value in the range of from 5 to 18; n is an integer having a value in the range of from 1 to 5; p is an integer having a value in the range of from 2 to 14, wherein the resulting alkoxylated polyalkylenimine or polyamine has a melting point lower than 25°C. R represents identical or different, linear or branched C 2 -C 12 -alkylene radicals or an etheralkyl unit of the following formula: in which the variables are each defined as follows: R 10, R 11, R 12 represent identical or different, linear or branched C 2 -C 6 -alkylene radicals and d is an integer having a value in the range of from 0 to 50; B represents a continuation of the alkoxylated polyalkylenimine by branching E is an alkylenoxy unit of the formula II R 1 represents 1,2-propylene, 1,2-butylene and/or 1,2-pentene; R 2 represents hydrogen and/or C 1 -C 22 -alkyl and/or C 7 -C 22 aralkyl; y and z are each from 0 to 150, m is an integer having a value in the range of from 5 to 18; n is an integer having a value in the range of from 1 to 5; p is an integer having a value in the range of from 2 to 14,
A method for picking goods stored on source pallets (G, Q), in a pallet storage according to customer orders, wherein the source pallets are stored on a goods arrival conveyor path from the goods arrival into the pallet storage, wherein the source pallets are conveyed via a feeding conveyor path from the pallet storage to at least one picking station (A1 - Ai) and are conveyed via a discharge conveyor path back to the pallet storage or to a further picking station (A1 - Ai), wherein each picking station (A1 - Ai) has packing stations (K1 - Kn), in which there are provided customer transport means for receiving the goods to be picked, wherein, when picking, there are placed at all those packing stations (K1 - Kn), which are to receive goods from the source pallet according to the customer orders, goods from the source pallet into the customer transport means, wherein the conveyance of the source pallets (G, Q, L) on the goods arrival conveyor path and/or on the feeding conveyor path and/or on the discharge conveyor path is realized by means of automatically guided vehicles (30, 60), wherein the goods arrival comprises several stations (1.1. - 1.m) and the pallet storage comprises several stations (3.1. - 3.n) and all automatically guided vehicles moved between the goods arrival and the pallet storage may drive to all stations of the goods arrival (1.1. - 1.m) and of the pallet storage (3.1. - 3.n) and that there are provided several picking stations (A1 - Ai), wherein all automatically vehicles moved between the pallet storage and the picking stations (A1 - Ai) may drive to all stations of the pallet storage (3.1 - 3.n) and all picking stations (A1 - Ai), characterized in that the goods required for handling the customer orders are retrieved on source pallets by a superior control system from the pallet storage in a path-optimized sequence and that the source pallets are fed, according to the calculated retrieval sequence, via the feeding conveyor path by means of the automatically guided vehicles to the picking stations (A1 - Ai.), wherein source pallets are guided on a conveyor path by means of automatically guided vehicles to a complete pallet storage.
A corrosive environment monitoring device, comprising a sensor part in which a box-shaped passage structure with one end closed, and wherein the passage structure has a plurality of openings as another end, and each of the openings has a metal thin film located on one face of a top, bottom or side face of the particular opening and the metal thin film is covered by a transparent substrate, wherein the corrosive environment monitoring device includes a plurality of corrosive environment monitoring parts located adjacent to the plurality of openings, characterized in that the openings are different in size such that corrosion detection conditions of the metal thin film in the plural corrosive environment monitoring parts are differentiated.
A method for inhibiting bacterial attachment to a surface, the method comprising forming the surface from a polymer, or applying a polymer to the surface, wherein the polymer is a homopolymer formed from a (meth) acrylate monomer or a copolymer formed from one or more (meth) acrylate monomers, wherein the (meth) acrylate monomers are of formula: [H 2 C=CR'-C(=O)-O-] n R wherein n is 1 or 2, R' is independently H or CH 3, R is an organic group having a total of from 2 to 24 carbon atoms, wherein the organic group includes an aliphatic or aromatic hydrocarbon moiety and wherein the organic group does not include any hydroxyl groups, wherein the R group includes one or more hydrophobic moiety, and wherein the organic group R only includes moieties selected from: C 1 -C 12 alkyl, C 2 -C 12 alkenyl, carbonyl, ether, ester, phenyl, C 5 -C 12 cycloalkyl, C 5 -C 12 cycloalkenyl and C 5 -C 12 heterocycloalkyl moieties, each of which may optionally be halogenated with fluoro groups. n is 1 or 2, R' is independently H or CH 3, R is an organic group having a total of from 2 to 24 carbon atoms, wherein the organic group includes an aliphatic or aromatic hydrocarbon moiety and wherein the organic group does not include any hydroxyl groups,
Motor vehicle optical module for emitting at least two light-emitting segments that can be activated selectively, the module including: - a substrate; - at least two light sources mounted on the substrate each of which can be activated selectively to emit light rays; - primary optical means adapted to form primary light beams from the light rays emitted by each light source; - secondary optical means adapted to project each of the primary light beams to form said light-emitting segments, the module including: - a single support that carries the substrate, the primary optical means and the secondary optical means, - means (16-A, 48) for positioning the primary optical means relative to the substrate; characterized in that the primary optical means: - include position indexing means (16-A) that cooperate with complementary means of the substrate; - are fixed in their indexed position by clamping them between the support and the substrate. - a substrate; - at least two light sources mounted on the substrate each of which can be activated selectively to emit light rays; - primary optical means adapted to form primary light beams from the light rays emitted by each light source; - secondary optical means adapted to project each of the primary light beams to form said light-emitting segments, the module including: - a single support that carries the substrate, the primary optical means and the secondary optical means, - means (16-A, 48) for positioning the primary optical means relative to the substrate; characterized in that the primary optical means: - include position indexing means (16-A) that cooperate with complementary means of the substrate; - are fixed in their indexed position by clamping them between the support and the substrate. - a single support that carries the substrate, the primary optical means and the secondary optical means, - means (16-A, 48) for positioning the primary optical means relative to the substrate; - include position indexing means (16-A) that cooperate with complementary means of the substrate; - are fixed in their indexed position by clamping them between the support and the substrate.
A method comprising: presenting, to a user, an interface comprising a plurality of applications on a computing device; receiving, from the user, a selection for an application of the plurality of applications; determining a context for the selected application based on one or more operational parameters of a computing device executing the selected application of the plurality of applications, wherein determining the context comprises monitoring whether a predetermined application is running on the computing device; determining an operation mode of a plurality of operation modes for the selected application based on the context, wherein the plurality of operation modes comprises an unmanaged mode, a managed mode, and a partially managed mode, and wherein each of the operation modes in the plurality of operation modes provide different types of access, resources, and encryption; and running the selected application in the determined operation mode. presenting, to a user, an interface comprising a plurality of applications on a computing device; receiving, from the user, a selection for an application of the plurality of applications; determining a context for the selected application based on one or more operational parameters of a computing device executing the selected application of the plurality of applications, wherein determining the context comprises monitoring whether a predetermined application is running on the computing device; determining an operation mode of a plurality of operation modes for the selected application based on the context, wherein the plurality of operation modes comprises an unmanaged mode, a managed mode, and a partially managed mode, and wherein each of the operation modes in the plurality of operation modes provide different types of access, resources, and encryption; and running the selected application in the determined operation mode.