mhurhangee/ep-ind-claims huggingface dataset:
Communication method of a first device over a first radio communication link of a first communication network, on the one hand, and of a second device over a second radio communication link radio of a second communication network, on the other hand, the first and second communication networks (1, 2) using frequency bands that overlap at least partially, said method comprising: ∘ a step of transmitting a first signal by the first device over the first radio communication link, the first signal being intended for a third device and comprising a plurality of data packets; ∘ a step of transmitting a second signal intended for the second device by a fourth device over the second radio communication link, the second device being configured to receive the second signal; ∘ a step of suspending, during a predetermined suspension time interval, of the transmitting of the first signal by the first device over the first radio communication link; and ∘ a step of receiving the second signal by the second device over the second radio communication link during said suspension time interval; said method being characterised in that the transmission of the second signal takes place at the same time as the transmission of the first signal and in that the suspension of the transmitting of the first signal is caused by a storage, during said suspension time interval, of data packets belonging to the first signal. ∘ a step of transmitting a first signal by the first device over the first radio communication link, the first signal being intended for a third device and comprising a plurality of data packets; ∘ a step of transmitting a second signal intended for the second device by a fourth device over the second radio communication link, the second device being configured to receive the second signal; ∘ a step of suspending, during a predetermined suspension time interval, of the transmitting of the first signal by the first device over the first radio communication link; and ∘ a step of receiving the second signal by the second device over the second radio communication link during said suspension time interval;
Spray gun for a high-pressure cleaning appliance, with a gun casing, in which there is arranged a valve, wherein the valve has a through duct which extends from a valve inlet to a valve outlet, and wherein the valve has a closure body which, in a closed position, bears in a fluid-tight manner against a valve seat and which can be moved, with the aid of a hand lever mechanically coupled to the closure body, into an open position spaced apart from the valve seat, and with an electric apparatus (100; 202) which has an electric display device (140; 208) and at least one battery (114; 234), wherein the electric apparatus (100; 202) has an electric casing (102; 204) which is sealed against sprayed water and forms a sub-unit which can be handled independently, and wherein all of the current-carrying components of the spray gun (10; 200) are arranged in the electric casing (102; 204) and are separated galvanically from the remaining components of the spray gun (10; 200), characterized in that the spray gun has a pressure detecting device for detecting the fluid pressure prevailing downstream of the valve seat in the through duct, wherein the pressure detecting device is arranged outside the electric casing (102; 204) in the gun casing and is wirelessly coupled to a sensor element of the electric apparatus arranged in the electric casing (102; 204).
A wire rod for springs with excellent corrosion fatigue resistance, comprising: C: 0.40 to 0.70%, Si: 1.30 to 2.30%, Mn: 0.20 to 0.80%, Cr: 0.20 to 0.80%, Cu: 0.01 to 0.40%, Ni: 0.10 to 0.60%, Mo: 0.01 to 0.40%, P: 0.02% or less, S: 0.015% or less, N: 0.01% or less, optionally one or more elements selected from among V: 0.01 to 0.20%, Ti: 0.01 to 0.15%, and Nb: 0.01 to 0.10% and a balance of Fe and inevitable impurities by weight%, wherein the wire rod satisfies equation 1 below: -0.14 ≤ 0.70[Cr] - 0.76[Cu] - 0.24[Ni] ≤ 0.47 where each element symbol is a value of a content of each element measured by weight%, wherein a microstructure comprises 50 area% or less of ferrite and a balance of pearlite, and wherein the wire rod comprises 8.5×10 4 count/mm 2 or higher of Mo-based carbides, wherein the Mo-based carbides are carbides including 5wt% or higher of Mo, said Mo-based carbides measured using a transmission electron microscope and energy dispersive X-ray spectroscopy after extracting fine carbides from the cross-section of the wire rod by the replica method. C: 0.40 to 0.70%, Si: 1.30 to 2.30%, Mn: 0.20 to 0.80%, Cr: 0.20 to 0.80%, Cu: 0.01 to 0.40%, Ni: 0.10 to 0.60%, Mo: 0.01 to 0.40%, P: 0.02% or less, S: 0.015% or less, N: 0.01% or less, optionally one or more elements selected from among V: 0.01 to 0.20%, Ti: 0.01 to 0.15%, and Nb: 0.01 to 0.10% and a balance of Fe and inevitable impurities by weight%, wherein the wire rod satisfies equation 1 below: -0.14 ≤ 0.70[Cr] - 0.76[Cu] - 0.24[Ni] ≤ 0.47 where each element symbol is a value of a content of each element measured by weight%, wherein a microstructure comprises 50 area% or less of ferrite and a balance of pearlite, and wherein the wire rod comprises 8.5×10 4 count/mm 2 or higher of Mo-based carbides, wherein the Mo-based carbides are carbides including 5wt% or higher of Mo, said Mo-based carbides measured using a transmission electron microscope and energy dispersive X-ray spectroscopy after extracting fine carbides from the cross-section of the wire rod by the replica method. where each element symbol is a value of a content of each element measured by weight%, wherein a microstructure comprises 50 area% or less of ferrite and a balance of pearlite, and wherein the wire rod comprises 8.5×10 4 count/mm 2 or higher of Mo-based carbides, wherein the Mo-based carbides are carbides including 5wt% or higher of Mo, said Mo-based carbides measured using a transmission electron microscope and energy dispersive X-ray spectroscopy after extracting fine carbides from the cross-section of the wire rod by the replica method.
Device for automated detection of orientation and/or location of a person, comprising: - an image data interface for obtaining image data of a person, said image data comprising a sequence of image frames over time, - a motion detector for detecting motion within said image data and for determining motion images representing motion detected within said image data from one image frame to another image frame, - a motion intensity detector for identifying motion hotspots by accumulating said motion images to obtain one or more accumulation images and by identifying image areas, which have a size above a size threshold or the largest sizes within one or more accumulation images and which show motion above a motion threshold or the most intensive motions in said one or more accumulation images, wherein said identified image areas represent motion hotspots, and - a person detector for detecting the orientation and/or location of at least part of the person based on the identified motion hotspots. - an image data interface for obtaining image data of a person, said image data comprising a sequence of image frames over time, - a motion detector for detecting motion within said image data and for determining motion images representing motion detected within said image data from one image frame to another image frame, - a motion intensity detector for identifying motion hotspots by accumulating said motion images to obtain one or more accumulation images and by identifying image areas, which have a size above a size threshold or the largest sizes within one or more accumulation images and which show motion above a motion threshold or the most intensive motions in said one or more accumulation images, wherein said identified image areas represent motion hotspots, and - a person detector for detecting the orientation and/or location of at least part of the person based on the identified motion hotspots.
An alkaline battery comprising a gasket, the gasket being formed by injection molding a resin composition and having a thin wall portion in part, wherein the resin composition is a polyamide 610 resin composition containing a polyamide 610 resin as a main component and a molding aid such as a crystal nucleating agent and a release agent, the polyamide 610 resin having a viscosity number in a range of 80 ml/g or more and 145 ml/g or less, wherein the polyamide 610 resin is a copolycondensation polymer of sebacic acid and hexamethylenediamine, wherein the polyamide 610 resin composition is one in which a regenerated material of the same kind of a polyamide 610 resin composition once used for injection molding is used partially or as a whole of the material, and wherein the viscosity number is a value obtained at 25 °C by measuring a solution obtained by dissolving the polyamide 610 resin to 96% sulfuric acid as a solvent so that the polyamide 610 resin concentration is 1%, and calculating the measurement value according to the ISO 307 standard (JIS K 6933). the resin composition is a polyamide 610 resin composition containing a polyamide 610 resin as a main component and a molding aid such as a crystal nucleating agent and a release agent, the polyamide 610 resin having a viscosity number in a range of 80 ml/g or more and 145 ml/g or less, wherein the polyamide 610 resin is a copolycondensation polymer of sebacic acid and hexamethylenediamine, wherein the polyamide 610 resin composition is one in which a regenerated material of the same kind of a polyamide 610 resin composition once used for injection molding is used partially or as a whole of the material, and wherein the viscosity number is a value obtained at 25 °C by measuring a solution obtained by dissolving the polyamide 610 resin to 96% sulfuric acid as a solvent so that the polyamide 610 resin concentration is 1%, and calculating the measurement value according to the ISO 307 standard (JIS K 6933).
Method for dispensing material to be spread using a spreading device having two centrifugal discs (12a, 12b) that are able to be driven in rotation and are arranged alongside one another, having the steps of: - sensing a field-internal spreading limit extending in front of the spreading device in the direction of movement of the spreading device, said spreading limit requiring an adaptation of the distribution characteristics of the spreading device while travelling along at least one tramline; and - reducing the amount of material to be spread that is discharged onto that centrifugal disc of the spreading device that faces the field-internal spreading limit, while travelling through a first local area of the field-internal spreading limit; and - increasing the amount of material to be spread that is discharged onto that centrifugal disc of the spreading device that faces away from the field-internal spreading limit, while travelling through the first local area of the field-internal spreading limit, characterized by the step of: - reducing the amount of material to be spread that is discharged onto that centrifugal disc of the spreading device that faces away from the field-internal spreading limit, while travelling through a second local area of the field-internal spreading limit, which adjoins the first local area of the field-internal spreading limit; wherein the proportion by which the amount of material to be spread that is discharged onto that centrifugal disc of the spreading device that faces away from the field-internal spreading limit is reduced while travelling through the second local area of the field-internal spreading limit corresponds to the proportion by which the amount of material to be spread that was discharged onto that centrifugal disc of the spreading device that faces away from the field-internal spreading limit was increased while travelling through the first local area of the field-internal spreading limit. - sensing a field-internal spreading limit extending in front of the spreading device in the direction of movement of the spreading device, said spreading limit requiring an adaptation of the distribution characteristics of the spreading device while travelling along at least one tramline; and - reducing the amount of material to be spread that is discharged onto that centrifugal disc of the spreading device that faces the field-internal spreading limit, while travelling through a first local area of the field-internal spreading limit; and - increasing the amount of material to be spread that is discharged onto that centrifugal disc of the spreading device that faces away from the field-internal spreading limit, while travelling through the first local area of the field-internal spreading limit, - reducing the amount of material to be spread that is discharged onto that centrifugal disc of the spreading device that faces away from the field-internal spreading limit, while travelling through a second local area of the field-internal spreading limit, which adjoins the first local area of the field-internal spreading limit;
Movable floating moorage including at least a set of n parallel floating booms, n being an integer larger than 1 and each floating boom comprising a main floating pontoon extending along a first horizontal direction which is common to all main pontoons of the set of floating booms; said movable floating moorage further including an actuating system (14,13; 14,13'; 14,13"c,13"d) including at least one flexible line which extends in a second direction substantially perpendicular to said first direction and adapted to selectively move each floating boom in both ways in said second direction; wherein the floating booms are connected together and to any fixed support by the lines in a way enabling free movements in all directions perpendicular to the second direction, and wherein said floating booms comprise spacing members which are adapted to form an abutment in the second direction for said floating booms, for maintaining the respective main pontoons of said floating booms at a predetermined minimum distance from one another and from adjacent fixed structures.
A turbomolecular pump, comprising: a rotor on which rotary vanes in multiple stages are formed; fixed vanes in multiple stages; and a pump casing in which a pump inlet opening is defined, and that houses the rotor and the fixed vanes in multiple stages; a surface of the rotor facing the inlet opening has a first emissivity; characterized in that the entire surfaces of all vane stages that are visible from the inlet opening have the first emissivity; and the entire surfaces of all vane stages that are not visible from the inlet opening has a second emissivity that is greater than the first emissivity. a rotor on which rotary vanes in multiple stages are formed; fixed vanes in multiple stages; and a pump casing in which a pump inlet opening is defined, and that houses the rotor and the fixed vanes in multiple stages; a surface of the rotor facing the inlet opening has a first emissivity;
A method for wireless signal transmission, the method comprising: storing, in a first base station, a subframe partition configuration including an interlace allocation of a first downlink, DL, resource to be one of a semi-static resource or dynamic resource, wherein the first DL resource is time-division orthogonal to a second DL resource allocated to a second base station, the second DL resource being allocated by the subframe partition configuration to be one of a semi-static resource or dynamic resource, wherein the type of power class of the first base station is different than the type of power class of the second base station; and transmitting, from the first base station, a first signal consistent with the first DL resource allocation. storing, in a first base station, a subframe partition configuration including an interlace allocation of a first downlink, DL, resource to be one of a semi-static resource or dynamic resource, wherein the first DL resource is time-division orthogonal to a second DL resource allocated to a second base station, the second DL resource being allocated by the subframe partition configuration to be one of a semi-static resource or dynamic resource, wherein the type of power class of the first base station is different than the type of power class of the second base station; and transmitting, from the first base station, a first signal consistent with the first DL resource allocation.
An ultraviolet light irradiation device comprising: a cylindrical portion forming a cylindrical processing flow path extending in a longitudinal direction; a case portion in which the cylindrical portion is accommodated; a member of an annular shape, provided in close contact between an outer circumferential surface of the cylindrical portion and an inner circumferential surface the case portion, and including an elastic member at least in a portion in contact with the inner circumferential surface of the case portion; a first chamber located in a region on a side of one end portion of the cylindrical portion with respect to the member, in a cylindrical gap between the cylindrical portion and the case portion; a second chamber located in a region on a side of the other end portion of the cylindrical portion with respect to the member, in the cylindrical gap between the cylindrical portion and the case portion; an inflow portion through which an object flows into the first chamber; an outflow portion through which the object flows out of the second chamber; and a light emitting element provided at least in one of the one end portion and the other end portion of the cylindrical portion, and configured to emit ultraviolet light to the object passing through the processing flow path. a cylindrical portion forming a cylindrical processing flow path extending in a longitudinal direction; a case portion in which the cylindrical portion is accommodated; a member of an annular shape, provided in close contact between an outer circumferential surface of the cylindrical portion and an inner circumferential surface the case portion, and including an elastic member at least in a portion in contact with the inner circumferential surface of the case portion; a first chamber located in a region on a side of one end portion of the cylindrical portion with respect to the member, in a cylindrical gap between the cylindrical portion and the case portion; a second chamber located in a region on a side of the other end portion of the cylindrical portion with respect to the member, in the cylindrical gap between the cylindrical portion and the case portion; an inflow portion through which an object flows into the first chamber; an outflow portion through which the object flows out of the second chamber; and a light emitting element provided at least in one of the one end portion and the other end portion of the cylindrical portion, and configured to emit ultraviolet light to the object passing through the processing flow path.
A wireless communication device having an upper part and a bottom part, the upper part comprising one or more transmission antenna device(s) (12a, 12b; 15) and one or more reception antenna device (13a, 13b, 15), the upper part and the bottom part being arranged movably in relation to each other, so that the bottom part, in use mode, is closer to the user than the upper part, wherein the bottom part comprises one or more reception antenna device(s) (14a, 14b, 14c, 14d) arranged to receive a polarization orthogonal to the polarization of the one or more reception antenna devices (13a, 13b, 15) of the upper part.
Method for actuating a tyre-pressure regulating system of an agricultural vehicle combination comprising an agricultural tractor and a towed implement attached thereto, in which an increase or a reduction in a tyre inflation pressure present in air-filled tyres (30, 32, 34) of the agricultural tractor and/or the implement is initiated by a control unit by actuation of the tyre-pressure regulating system in the event that the control unit identifies, by evaluation of data indicating a current operating status of the implement, that a change from field to road operation, or a change from road to field operation, is imminent.
A flash thermography device for generating an infrared image of a turbine component located inside a turbine, comprising: a flash enclosure having an aperture; a flash tube located in the enclosure, wherein the flash tube generates a light pulse that heats the turbine component; and an infrared sensor for detecting thermal energy radiated by the turbine component wherein the radiated thermal energy is transmitted through the aperture to the infrared sensor to enable generation of the infrared image, characterized in that the flash tube has an annular shape and is located around a periphery of the aperture. a flash enclosure having an aperture; a flash tube located in the enclosure, wherein the flash tube generates a light pulse that heats the turbine component; and an infrared sensor for detecting thermal energy radiated by the turbine component wherein the radiated thermal energy is transmitted through the aperture to the infrared sensor to enable generation of the infrared image, characterized in that the flash tube has an annular shape and is located around a periphery of the aperture.
Illumination optics for microlithography comprising - an optical assembly for guiding illumination light to an object field to be illuminated in an object plane; - wherein the illumination optics divides an illumination light radiation bundle into a plurality of radiation sub-bundles (28 to 30) which are assigned to different illumination angles of the object field illumination; - wherein the illumination optics is configured in such a way that at least some of the radiation sub-bundles (28 to 30) are superimposed in a superposition plane, which is spaced from the object plane and which is not imaged into the object plane, in which superposition takes place, in such a way that edges of the superimposed radiation sub-bundles (28 to 30) coincide at least partially, - comprising a field intensity setting device which is arranged in the superposition plane then serving as an intensity setting plane. - an optical assembly for guiding illumination light to an object field to be illuminated in an object plane; - wherein the illumination optics divides an illumination light radiation bundle into a plurality of radiation sub-bundles (28 to 30) which are assigned to different illumination angles of the object field illumination; - wherein the illumination optics is configured in such a way that at least some of the radiation sub-bundles (28 to 30) are superimposed in a superposition plane, which is spaced from the object plane and which is not imaged into the object plane, in which superposition takes place, in such a way that edges of the superimposed radiation sub-bundles (28 to 30) coincide at least partially, - comprising a field intensity setting device which is arranged in the superposition plane then serving as an intensity setting plane.