mhurhangee/ep-ind-claims huggingface dataset:
A system for the individual identification of a plurality of maintenance-relevant items, wherein each item comprises a component (2.0) or a plurality of different components (2.1, 2.2,..., 2.n), for the targeted retrieval of information concerning the individual items and concerning the component (2.0) or concerning at least some of the components (2.1, 2.2,..., 2.n) of the respective items, and, where applicable, to trigger an action, wherein the system comprises - a passive NFC TAG with an NFC antenna (3.1), an NFC transponder chip (3.2) and a matrix (3.3), wherein the NFC antenna (3.1) and the NFC-transponder chip (3.2) are welded into the matrix (3.3), - an NFC-enabled mobile electronic device, in particular, a smartphone or tablet, and - an external server, wherein, in a database stored on the server, at least one piece of information concerning each item, the component (2.0) and/or at least a part of the components (2.1, 2.2,..., 2.n) of the respective item is stored, and on the NFC TAG and/or on the mobile electronic device, a software is stored, using which the database stored on the server can be accessed with the mobile electronic device, characterized in that a) the NFC-TAG is attached to the surface of the item and/or component (2.0, 2.1, 2.2,..., 2.n) and the NFC-TAG is connected to the component (2.0) or to at least one component (2.1, 2.2,..., 2.n) of an item, in particular, being screwed, riveted and/or glued, b) an anti-static material is arranged in at least one NFC TAG and/or between at least one NFC TAG and one component (2.0, 2.1, 2.2,..., 2.n), and c) each NFC TAG for the respective item to which the NFC TAG is connected comprises an individual identifier, wherein the NFC TAG uniquely identifies the respective item and/or the component (2.0) or at least a part of the components (2.1, 2.2,..., 2.n) of the respective item. - a passive NFC TAG with an NFC antenna (3.1), an NFC transponder chip (3.2) and a matrix (3.3), wherein the NFC antenna (3.1) and the NFC-transponder chip (3.2) are welded into the matrix (3.3), - an NFC-enabled mobile electronic device, in particular, a smartphone or tablet, and - an external server, a) the NFC-TAG is attached to the surface of the item and/or component (2.0, 2.1, 2.2,..., 2.n) and the NFC-TAG is connected to the component (2.0) or to at least one component (2.1, 2.2,..., 2.n) of an item, in particular, being screwed, riveted and/or glued, b) an anti-static material is arranged in at least one NFC TAG and/or between at least one NFC TAG and one component (2.0, 2.1, 2.2,..., 2.n), and c) each NFC TAG for the respective item to which the NFC TAG is connected comprises an individual identifier, wherein the NFC TAG uniquely identifies the respective item and/or the component (2.0) or at least a part of the components (2.1, 2.2,..., 2.n) of the respective item.
A distributed microwave radar imaging method, wherein the method comprises: obtaining a first echo signal received by a first microwave radar, wherein the first microwave radar is disposed at a first height; obtaining a second echo signal received by a second microwave radar, wherein the second microwave radar is disposed at a second height, and the first height is lower than the second height; determining a first radar imaging result image of a detected target based on the first echo signal; determining a second radar imaging result image of the detected target based on the second echo signal; characterized in that the first radar imaging result image and the second radar imaging result image have different high and low angles of view and are placed at a same coordinate, wherein the method further comprises: performing optimal extraction and complementary fusion on the first radar imaging result image and the second radar imaging result image, and finally fusing the first radar imaging result image and the second radar imaging result image to obtain a target fused image. obtaining a first echo signal received by a first microwave radar, wherein the first microwave radar is disposed at a first height; obtaining a second echo signal received by a second microwave radar, wherein the second microwave radar is disposed at a second height, and the first height is lower than the second height; determining a first radar imaging result image of a detected target based on the first echo signal; determining a second radar imaging result image of the detected target based on the second echo signal; characterized in that the first radar imaging result image and the second radar imaging result image have different high and low angles of view and are placed at a same coordinate, wherein the method further comprises: performing optimal extraction and complementary fusion on the first radar imaging result image and the second radar imaging result image, and finally fusing the first radar imaging result image and the second radar imaging result image to obtain a target fused image. performing optimal extraction and complementary fusion on the first radar imaging result image and the second radar imaging result image, and finally fusing the first radar imaging result image and the second radar imaging result image to obtain a target fused image.
A motor comprising: a shaft; a rotor coupled to the shaft; and a stator disposed at an outer side of the rotor, wherein the stator includes a stator core, an insulator coupled to the stator core, a coil disposed on the insulator, and an insulating member disposed in a radial direction at one side of the coil, and the stator core includes a yoke and a the- tooth protruding radially from the yoke, and the insulator includes a body, a first guide disposed at one side of the body, a second guide disposed at the other side of the body, a first protrusion formed on one side of the first guide, and a second protrusion formed on one side of the second guide, and the insulator is disposed between the tooth and the coil, and one side of the insulating member is disposed between the first protrusion and the coil, and the other side thereof is disposed between the second protrusion and the coil, and wherein the insulating member is disposed farther outward than the coil wound around an outermost side of the body with respect to a circumferential direction, and characterized in that the insulating member includes a curved surface, and wherein the second protrusion is disposed on an imaginary line connecting a center of the stator core to one end of the first protrusion. a shaft; a rotor coupled to the shaft; and a stator disposed at an outer side of the rotor, wherein the stator includes a stator core, an insulator coupled to the stator core, a coil disposed on the insulator, and an insulating member disposed in a radial direction at one side of the coil, and the stator core includes a yoke and a the- tooth protruding radially from the yoke, and the insulator includes a body, a first guide disposed at one side of the body, a second guide disposed at the other side of the body, a first protrusion formed on one side of the first guide, and a second protrusion formed on one side of the second guide, and the insulator is disposed between the tooth and the coil, and one side of the insulating member is disposed between the first protrusion and the coil, and the other side thereof is disposed between the second protrusion and the coil, and wherein the insulating member is disposed farther outward than the coil wound around an outermost side of the body with respect to a circumferential direction, and characterized in that the insulating member includes a curved surface, and wherein the second protrusion is disposed on an imaginary line connecting a center of the stator core to one end of the first protrusion.
A method of producing furan carboxylates and furan dicarboxylates from aldaric acids, characterized by mixing together an aldaric acid, a solid heterogeneous catalyst selected from the group consisting of perfluorosulfonic acid polymer, phenyl sulfonic acid ethyl sulfide silica, sulfonated alumina catalyst and sulfonated zirconia catalyst, and a solvent at a temperature between 130 and 250 °C, and by applying a reaction time of 0.25 to 4 hours, to form a solution comprising furan esters.
A user equipment configured to decide a maximum value of a transmit power of its own device by employing information related to a number of discontinuous resource block groups, wherein each said discontinuous resource block group comprises one or more continuous resource blocks allocated to said user equipment, by a base station, in frequency domain.
A trampoline, comprising: a plurality of arc-shaped rods and a plurality of long iron joints; wherein the plurality of long iron joints are T-shaped, the plurality of arc-shaped rods and the plurality of long iron joints are insertedly connected to each other successively and alternatively to form a circular ring, lower ends of the plurality of long iron joints are insertedly connected to straight tubes, lower ends of two adjacent straight tubes are insertedly connected to a foot tube, the foot tube is U-shaped with an opening upward, the plurality of arc-shaped rods are connected to a fabric clamp through a plurality of arc-shaped hook springs, and an inner end of the fabric clamp is connected to an edge of a trampoline fabric; wherein the fabric clamp comprises a fabric clamp outer sheet and a clamping sheet, a lower end of the fabric clamp outer sheet is provided with concave and convex stripes, an upper end face of the clamping sheet is also provided with concave and convex stripes, a front end of the clamping sheet is bent downward, and a tail end of a bending part of the clamping sheet is provided with a tension spring hanging hole, the fabric clamp outer sheet and the clamping sheet are processed on a surface of the trampoline fabric by hot-pressing with a high-frequency welding machine, characterised in that two sides of the long iron joint are compressed inward to form inward protrusions, an outer wall of the arc-shaped rod is provided with grooves symmetrically, the plurality of arc-shaped rods are inserted in the plurality of long iron joints through a cooperation between the inward protrusions and the grooves; and in that the arc-shaped hook spring comprises a spring main body, an end of the spring main body is provided with a hook, another end of the spring main body is provided with an arc-shaped hook, a tail end of the arc-shaped hook is vertically bent to form a horizontal hook, the hook is hooked and connected inside a hole of the fabric clamp, the fabric clamp is fixedly connected to the edge of the trampoline fabric, the horizontal hook is hooked and connected in the groove of the arc-shaped rod; a lowest protective rod is fixed on the arc-shaped rod.
A viewing glass for a pair of glasses, preferably a pair of sports glasses, ski goggles, safety glasses or for a helmet visor, comprising at least one outer glass and at least one inner glass, the outer glass being arranged at a distance from the inner glass and being connected to the same via an edge-side sealing material, at least one optical lens being integrated in the inner glass for correcting defective eyesight, characterized in that the front curve of the optical lens runs essentially parallel to the front curve of the outer lens in the intermediate space between the inner glass and the outer glass, so that imaging errors are prevented.
Device for filling a container at a time, such as a crate or an incubator box on a bottom thereof with products, for instance glass objects or fruit such as apples, or vegetables such as tomatoes, or eggs, comprising: - a filling station with a setup position for placing the container with the bottom thereof; - a feed which during operation feeds at least one of the products at a time to the setup position and is adapted to place the at least one of the products in the container; and characterized by - a fluid flow generator adapted to generate a fluid flow during operation through the bottom of the container at the setup position. - a filling station with a setup position for placing the container with the bottom thereof; - a feed which during operation feeds at least one of the products at a time to the setup position and is adapted to place the at least one of the products in the container; and characterized by - a fluid flow generator adapted to generate a fluid flow during operation through the bottom of the container at the setup position.
An injection unit configured to fill a mold unit with a molding material, comprising: a screw in which a screw shaft and a spline shaft are formed to be coaxial with each other and a fitting groove is formed between the screw shaft and the spline shaft; a receiving member configured to receive an end portion opposite to the fitting groove in both end portions of the spline shaft; a pushing member configured to press the spline shaft from a side opposite to the receiving member; and a pressing ring configured to fasten the spline shaft in an axial direction using the pushing member and the receiving member by pressing the pushing member toward the receiving member, a coupling that is formed separately or integrally with the drive shaft, wherein the pushing member is formed in a ring shape, and is divided into a plurality of ring pieces (531, 532) in a circumferential direction, wherein each ring piece is fitted into the fitting groove, and wherein the pressing ring is integrally formed over the entire circumference, and presses each ring piece to a side surface of the spline shaft side in both side surfaces of the fitting groove, characterized in that the pressing ring is fastened to the coupling by a pressing bolt, and a gap is formed in each of a portion between the coupling and the pressing ring and a portion between the coupling and the pushing member. a screw in which a screw shaft and a spline shaft are formed to be coaxial with each other and a fitting groove is formed between the screw shaft and the spline shaft; a receiving member configured to receive an end portion opposite to the fitting groove in both end portions of the spline shaft; a pushing member configured to press the spline shaft from a side opposite to the receiving member; and a pressing ring configured to fasten the spline shaft in an axial direction using the pushing member and the receiving member by pressing the pushing member toward the receiving member, a coupling that is formed separately or integrally with the drive shaft, wherein the pushing member is formed in a ring shape, and is divided into a plurality of ring pieces (531, 532) in a circumferential direction, wherein each ring piece is fitted into the fitting groove, and wherein the pressing ring is integrally formed over the entire circumference, and presses each ring piece to a side surface of the spline shaft side in both side surfaces of the fitting groove, characterized in that the pressing ring is fastened to the coupling by a pressing bolt, and a gap is formed in each of a portion between the coupling and the pressing ring and a portion between the coupling and the pushing member.
An ultrasound imaging system for inspecting an object in a volume, the ultrasound imaging system comprising: an ultrasound image acquisition probe for acquiring three-dimensional ultrasound images and providing three-dimensional ultrasound image data, comprising a tracking device (25, 27) for tracking a position of the ultrasound image acquisition probe and providing a viewpoint position (128, 130) of the three-dimensional ultrasound images, and an image processor configured to receive the three-dimensional ultrasound image data and to provide display data, wherein the image processor is configured to receive a plurality of three-dimensional ultrasound images and their respective viewpoint positions (128, 130), wherein the image processor is further configured to conduct a segmentation and registration of the object simultaneously out of a first three-dimensional ultrasound image and at least one further three-dimensional ultrasound image, wherein conducting the segmentation comprises minimizing an energy term so that a deformed initial geometric shape matches the object's boundary as good as possible in the three-dimensional ultrasound images. an ultrasound image acquisition probe for acquiring three-dimensional ultrasound images and providing three-dimensional ultrasound image data, comprising a tracking device (25, 27) for tracking a position of the ultrasound image acquisition probe and providing a viewpoint position (128, 130) of the three-dimensional ultrasound images, and an image processor configured to receive the three-dimensional ultrasound image data and to provide display data, wherein the image processor is configured to receive a plurality of three-dimensional ultrasound images and their respective viewpoint positions (128, 130), wherein the image processor is further configured to conduct a segmentation and registration of the object simultaneously out of a first three-dimensional ultrasound image and at least one further three-dimensional ultrasound image, wherein conducting the segmentation comprises minimizing an energy term so that a deformed initial geometric shape matches the object's boundary as good as possible in the three-dimensional ultrasound images.
A method for identifying redundantly received information items in which the information items (12, 13, 14, 15) are comprised by vehicle-to-X messages (16, 17), wherein a vehicle-to-X message (16, 17) comprises at least one information item (12, 13, 14, 15), wherein a receiver receives a plurality of vehicle-to-X messages (16, 17) and wherein at least a part of a total number of the information items (12, 13, 14, 15) is received redundantly, wherein, prior to processing the received information items (12, 13, 14, 15), the received information items (12, 13, 14, 15) are entered into an information table and compared with one another, characterized in that the redundantly received information items (12, 13, 14, 15) from the received vehicle-to-X messages (16, 17) originating from a plurality of different transmitters are supplied to the processing in non-redundant form.
A monitoring method of a compressor for a railway braking system, said railway braking system comprising an air generation and treatment module AGTU which includes a compressor, a main tank arranged to supply a main pipe adapted to distribute compressed air to at least one braking subsystem which comprises an auxiliary tank arranged to supply a braking control system; the monitoring process being characterized in that it comprises the steps of: - monitoring a behavior of at least one pressure value (P(t)) measured downstream of the main tank or measured at the outlet of the auxiliary tank; - deriving the use and/or state of health of the compressor exclusively on the basis of the time behavior of the measured pressure value (P(t)). - monitoring a behavior of at least one pressure value (P(t)) measured downstream of the main tank or measured at the outlet of the auxiliary tank; - deriving the use and/or state of health of the compressor exclusively on the basis of the time behavior of the measured pressure value (P(t)).
Motorizing system for powering a wheel associated with a suspension of an aircraft so that the latter can be moved around on the ground, comprising a motor unit (4, 104), a drive member capable to be secured to the wheel, and a clutch device connecting the output shaft of the motor unit (4, 104) to the drive member, wherein the motor unit (4, 104) comprises an electric motor and is capable to be carried by an un-sprung part of a suspension strut and the transmission between the output shaft and the drive member is a positive transmission, characterized in that the clutch device is configured in such a way as to be able to move the motor unit (4, 104) into an engaged position in which this unit (4, 104) is connected to the drive member, and a disengaged position in which this unit (4, 104) is separated therefrom..
A method, performed by a core network node of a wireless communications network, the wireless communications network further comprising a first gNB and a second gNB, wherein a wireless device, WD, is connected to the first gNB, and wherein there is a first Packet Data Unit, PDU, session established between the WD and a Data Network, DN, over a first User Plane Function, UPF, the DN comprising an application server, AS, the method comprising: obtaining information regarding a predicted positional change of the WD indicating a new future position of the WD; selecting a second UPF which is more suitable than the first UPF for transmission of data between the application server and the WD for the new future position, wherein the second UPF is selected based on a geographic position of the new future position of the WD, and one or more of latency, data rate and cheaper transport; sending to the WD an instruction to establish a second PDU session over the second UPF; in response to the triggering establishment of the second PDU session over the second UPF, triggering a first move of packet flows from the first PDU session to the second PDU session, wherein low-latency packet flows are moved during the first move; receiving a handover indication; and based on the receiving a handover indication, triggering a second move of packet flows from the first PDU session to the second PDU session, wherein the remaining packet flows are moved during the second move. obtaining information regarding a predicted positional change of the WD indicating a new future position of the WD; selecting a second UPF which is more suitable than the first UPF for transmission of data between the application server and the WD for the new future position, wherein the second UPF is selected based on a geographic position of the new future position of the WD, and one or more of latency, data rate and cheaper transport; sending to the WD an instruction to establish a second PDU session over the second UPF; in response to the triggering establishment of the second PDU session over the second UPF, triggering a first move of packet flows from the first PDU session to the second PDU session, wherein low-latency packet flows are moved during the first move; receiving a handover indication; and based on the receiving a handover indication, triggering a second move of packet flows from the first PDU session to the second PDU session, wherein the remaining packet flows are moved during the second move.