mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a rotor of an electric machine, - wherein the rotor has a rotor core arranged concentrically to the rotor axis, - wherein the rotor core has grooves , - wherein at each of the respective axial ends of the grooves the rotor core has an annular recess which is arranged concentrically to the rotor axis and connects the grooves, - wherein the grooves and the respective annular recess are filled with an electrically conducting material using an additive manufacturing method to create a short-circuit ring , - wherein a material mixture consisting of a material with a first strength and at least one material with a higher strength compared to the first strength is used as material for the additive manufacturing, - wherein a material transition from a material with a first strength to at least one material with a higher strength compared to the first strength is created in the axial and/or radial direction of the short-circuit ring , - wherein the short-circuit ring is embodied such that the material strength increases from the inner radius to the outer radius of the short-circuit ring , - wherein the transition is smooth and - wherein at least one retaining structure or at least one lattice is embodied in the short-circuit ring . - wherein the rotor has a rotor core arranged concentrically to the rotor axis, - wherein the rotor core has grooves , - wherein at each of the respective axial ends of the grooves the rotor core has an annular recess which is arranged concentrically to the rotor axis and connects the grooves, - wherein the grooves and the respective annular recess are filled with an electrically conducting material using an additive manufacturing method to create a short-circuit ring , - wherein a material mixture consisting of a material with a first strength and at least one material with a higher strength compared to the first strength is used as material for the additive manufacturing, - wherein a material transition from a material with a first strength to at least one material with a higher strength compared to the first strength is created in the axial and/or radial direction of the short-circuit ring , - wherein the short-circuit ring is embodied such that the material strength increases from the inner radius to the outer radius of the short-circuit ring , - wherein the transition is smooth and - wherein at least one retaining structure or at least one lattice is embodied in the short-circuit ring .
Rotor of a rotorcraft provided with a rotating assembly that rotates about an axis of rotation (AX), said rotating assembly including a rotor mast as well as a rotor head carrying at least two blades , said rotor including a set of swashplates provided with a non-rotating plate and a rotating plate , said rotor including a pitch rod for each blade , each pitch rod being pivotally connected to the rotating plate by a pitch hinge , said rotor including two rotating compasses pivotally connected to the rotating plate , each rotating compass including a lower arm and an upper arm that are pivotally interconnected by a central hinge , each rotating compass including a lower hinge which pivotally connects said lower arm of said rotating compass to the rotating plate , each rotating compass including an upper hinge which pivotally connects said upper arm of said rotating compass to a compass driver which is connected to the rotating assembly for conjoint rotation, characterised by a radial plane (P1) containing said axis of rotation (AX), said lower hinges of said two rotating compasses being positioned in said radial plane (P1), said upper hinges of said two rotating compasses having two upper hinge centres , said central hinges of said two rotating compasses having two central hinge centres , and the upper hinge centre and the central hinge centre of each rotating compass are offset in azimuth with respect to one another, the upper hinge centre of the upper hinge and the central hinge centre of the central hinge of the same rotating compass being arranged on either side of said radial plane (P1).
An electrolyte solution, comprising an electrolyte salt and a solvent, wherein a total concentration of the electrolyte salt is more than 1.1 mol/L and 1.9 mol/L or less, the electrolyte salt contains a compound represented by the following formula and another electrolyte salt: (XSO 2 ) (FSO 2 )NLi wherein X is a fluorine atom, a C 1-6 alkyl group or a C 1-6 fluoroalkyl group, a concentration of the other electrolyte salt is 1.4 mol/L or less, the solvent contains one or more cyclic carbonates, and a molar ratio of the one or more cyclic carbonates contained in the electrolyte solution to the total lithium ion in the electrolyte solution is from 1 to 1.8, and wherein the concentration of the compound represented by formula in the electrolyte solution is not less than 0.2 mol/L.
Household dishwasher with a first spray arm , which has a first spraying circle , a second spray arm , which has a second spraying circle which overlaps with the first spraying circle , and a synchronisation facility , which is configured to adapt a rotational speed of the first spray arm to a rotational speed of the second spray arm , or vice versa, characterised in that the synchronisation facility comprises a first magnetic field allocated to the first spray arm and a second magnetic field allocated to the second spray arm , wherein the first magnetic field and the second magnetic field have the same polarisation, so that the first magnetic field and the second magnetic field repel one another during operation of the household dishwasher , in order to prevent contact between the first spray arm and the second spray arm during a rotational movement of the same.
A moulding machine comprising first and second non-complementary moulds the first mould defining a female mould cavity and the second mould defining a flat moulding surface , wherein the first and second moulds are movable between a first position in which the moulds are apart and the female mould cavity and the flat moulding surface both face upwards, and a second position in which the moulds are brought together and the flat moulding surface faces into and closes the female mould cavity to form a completely enclosed cavity, and wherein each mould has a plurality of bores formed through it with an opening at each end and at least two of the bores are connected to each other by a block positioned over the opening at one end of one bore and the opening at the end of another bore , the block being formed with a groove which connects the openings to each other, wherein the or each groove is formed with a first end, a second end and a constriction therebetween.
A method for delivery route assistance, the method comprising: assigning each of a plurality of items to a route, wherein the assigning of the plurality of items to a route is performed in an iterative manner with an item being assigned initially to a first route before being reassigned to another route in a final allocation based upon a determination made by a data processing system; receiving in the data processing system a delivery location and an image associated with each of the plurality of items ; determining in the data processing system, for the route, a planned delivery route comprising a sequence of delivery locations and transit paths to follow in reaching those delivery locations; displaying execution instructions for the planned delivery route to a delivery operator; at each delivery location, displaying to the delivery operator a count of items for delivery at the delivery location and the image associated with each such item ; recording information associated with an actual delivery route taken to deliver the items ; reconfiguring the planned delivery route when the actual delivery route is different from the planned delivery route; and displaying a comparison between information associated with the planned delivery route and the recorded information associated with the actual delivery route. assigning each of a plurality of items to a route, wherein the assigning of the plurality of items to a route is performed in an iterative manner with an item being assigned initially to a first route before being reassigned to another route in a final allocation based upon a determination made by a data processing system; receiving in the data processing system a delivery location and an image associated with each of the plurality of items ; determining in the data processing system, for the route, a planned delivery route comprising a sequence of delivery locations and transit paths to follow in reaching those delivery locations; displaying execution instructions for the planned delivery route to a delivery operator; at each delivery location, displaying to the delivery operator a count of items for delivery at the delivery location and the image associated with each such item ; recording information associated with an actual delivery route taken to deliver the items ; reconfiguring the planned delivery route when the actual delivery route is different from the planned delivery route; and displaying a comparison between information associated with the planned delivery route and the recorded information associated with the actual delivery route.
An ambidextrous firearm control assembly comprising an ambidextrous bolt catch assembly, the ambidextrous bolt catch assembly comprising: a bolt catch configured to hingedly connect to a firearm to rotate between a disengaged position and an engaged position, the bolt catch comprising a first bolt catch engagement button operable from a first side of the firearm and a first bolt catch release button operable from the first side of the firearm , wherein the first bolt catch engagement button is configured to, upon actuation thereof, cause the bolt catch to rotate in a first rotational direction towards the engaged position, and wherein the first bolt catch release button is configured to, upon actuation thereof, cause the bolt catch to rotate in a second rotational direction towards the disengaged position; a second bolt catch engagement button operable from a second side of the firearm and configured to, upon actuation thereof, cause the bolt catch to move in the first rotational direction ; and a second bolt catch release button operable from the second side of the firearm and configured to, upon actuation thereof, cause the bolt catch to move in the second rotational direction ; characterized in that the second bolt catch engagement button and the second bolt catch release button are each separately movable relative to the firearm . a bolt catch configured to hingedly connect to a firearm to rotate between a disengaged position and an engaged position, the bolt catch comprising a first bolt catch engagement button operable from a first side of the firearm and a first bolt catch release button operable from the first side of the firearm , wherein the first bolt catch engagement button is configured to, upon actuation thereof, cause the bolt catch to rotate in a first rotational direction towards the engaged position, and wherein the first bolt catch release button is configured to, upon actuation thereof, cause the bolt catch to rotate in a second rotational direction towards the disengaged position; a second bolt catch engagement button operable from a second side of the firearm and configured to, upon actuation thereof, cause the bolt catch to move in the first rotational direction ; and a second bolt catch release button operable from the second side of the firearm and configured to, upon actuation thereof, cause the bolt catch to move in the second rotational direction ; characterized in that the second bolt catch engagement button and the second bolt catch release button are each separately movable relative to the firearm .
A device for detecting points and/or regions of rotational electrophysiological activity in or on a heart, said device comprising: - an input for receiving spatiotemporal electrophysiological data corresponding to a plurality of spatial locations in or on the heart; - a time feature extractor for providing, based on said received spatiotemporal electrophysiological data, for each of said plurality of spatial locations, a plurality of time values indicative of a time of occurrence of a predetermined feature of a plurality of electric potential waveforms at said spatial location; - a mapping unit for providing pairs of adjacent spatial locations of said plurality of spatial locations; - a directed graph generator for generating a directed graph comprising directed edges, each directed edge connecting a pair of said pairs of adjacent spatial locations in a sense of direction that is representative of a direction of propagation in time of at least one electric potential waveform of the plurality of electric potential waveforms between said pair of spatial locations, and wherein a distance associated with each pair of said pairs of adjacent spatial locations and at least one time value of said plurality of time values for each spatial location of said pair are taken into account to generate said directed graph; - a topological feature analyzer for determining cycles in said directed graph; and - an output for outputting detected points and/or detected regions in or on said heart as representative of said cycles detected by said topological feature analyzer. - an input for receiving spatiotemporal electrophysiological data corresponding to a plurality of spatial locations in or on the heart; - a time feature extractor for providing, based on said received spatiotemporal electrophysiological data, for each of said plurality of spatial locations, a plurality of time values indicative of a time of occurrence of a predetermined feature of a plurality of electric potential waveforms at said spatial location; - a mapping unit for providing pairs of adjacent spatial locations of said plurality of spatial locations; - a directed graph generator for generating a directed graph comprising directed edges, each directed edge connecting a pair of said pairs of adjacent spatial locations in a sense of direction that is representative of a direction of propagation in time of at least one electric potential waveform of the plurality of electric potential waveforms between said pair of spatial locations, and wherein a distance associated with each pair of said pairs of adjacent spatial locations and at least one time value of said plurality of time values for each spatial location of said pair are taken into account to generate said directed graph; - a topological feature analyzer for determining cycles in said directed graph; and - an output for outputting detected points and/or detected regions in or on said heart as representative of said cycles detected by said topological feature analyzer.
Sway damping device for vehicle trailers attachable to a trailer coupling having a ball neck and a coupling ball , comprising a device base on the trailer coupling, said base comprising a mounting device with a ball neck receptacle , wherein the ball neck receptacle is designed such that a ball neck accommodated and fixed in it is located in a longitudinal central plane of the device base on the trailer coupling and the device base on the trailer coupling extends and stretches transversely to the longitudinal central plane , joint units fixed to the coupling and held on both sides of the longitudinal central plane on the device base on the trailer coupling, said units connecting the device base on the trailer coupling to damper units arranged on both sides of the longitudinal central plane and extending away from the device base on the trailer coupling contrary to a forward driving direction, said device base being connected, for its part, to a traction coupling carrier of the vehicle trailer via a device base on the trailer, wherein the device base on the trailer coupling is provided with a mounting device designed such that in a mounting position it is able to fix the ball neck in a form-locking manner by way of interaction with positioning members thereof arranged on the ball neck symmetrically to a longitudinal central plane thereof, said positioning members extending away from the ball neck transversely to the longitudinal central plane thereof, in such a manner that the device base is held stationarily on the ball neck in a direction transverse to the central axis of the coupling ball and the ball attachment , wherein the mounting device is transferrable from the mounting position into a dismounting position, the form-locking fixing of the mounting device on the ball neck being released in said dismounting position, and vice versa, and wherein the mounting device comprises two retaining members , wherein the retaining members are held on the device base on the trailer coupling, characterized in that in the mounting position of the mounting device the two retaining members engage in a form-locking manner on the positioning members with their retaining receptacles , that the positioning members of the ball neck engage in the retaining receptacles when the mounting device is fixed on the ball neck in a form-locking manner, that the retaining receptacles engage around the positioning members in such a manner that the retaining receptacles are secured on the positioning members against movement in a plane running parallel to the longitudinal central plane of the device base on the trailer coupling, and that the retaining members are movable relative to one another during transition from the mounting position into the dismounting position or vice versa.
A method of operating a base station , comprising: scheduling , during at least one slot, transmission of a Physical Downlink Control Channel, PDCCH, and a Physical Downlink Shared Channel, PDSCH, the PDCCH including a first part of a Downlink Control Information, DCI, the PDSCH including a second part of the DCI, wherein the scheduling includes determining a transport block size, TBS, associated with the PDSCH, wherein the first part of the DCI includes a control information field associated with the second part of the DCI within the PDSCH, and wherein the TBS is determined based on a set of resources occupied by PDSCH data wherein the TBS determination excludes a subset of the set of resource elements allocated for transport of the second part of the DCI; and transmitting the PDCCH and the PDSCH during the at least one slot, wherein the PDSCH is transmitted in accordance with the determined TBS. scheduling , during at least one slot, transmission of a Physical Downlink Control Channel, PDCCH, and a Physical Downlink Shared Channel, PDSCH, the PDCCH including a first part of a Downlink Control Information, DCI, the PDSCH including a second part of the DCI, wherein the scheduling includes determining a transport block size, TBS, associated with the PDSCH, wherein the first part of the DCI includes a control information field associated with the second part of the DCI within the PDSCH, and wherein the TBS is determined based on a set of resources occupied by PDSCH data wherein the TBS determination excludes a subset of the set of resource elements allocated for transport of the second part of the DCI; and transmitting the PDCCH and the PDSCH during the at least one slot, wherein the PDSCH is transmitted in accordance with the determined TBS.
A laminated glazing comprising, - a first ply of a glazing material , - a second ply of a glazing material , - a film having an electrically conductive coating , the film being located between the first ply of glazing material and the second ply of glazing material , wherein the film comprises polyethylene terephthalate (PET) and - a first busbar in electrical contact with the electrically conductive coating , characterised in that - the first busbar comprises an expansion portion , the expansion portion comprising - a bridging busbar portion not in direct contact with the film or - a gap in the first busbar and wherein the film comprises a cut-out portion wherein the cut-out portion is located at the expansion portion . - a first ply of a glazing material , - a second ply of a glazing material , - a film having an electrically conductive coating , the film being located between the first ply of glazing material and the second ply of glazing material , wherein the film comprises polyethylene terephthalate (PET) and - a first busbar in electrical contact with the electrically conductive coating , characterised in that - the first busbar comprises an expansion portion , the expansion portion comprising - a bridging busbar portion not in direct contact with the film or - a gap in the first busbar and wherein the film comprises a cut-out portion wherein the cut-out portion is located at the expansion portion .
A method for coding, comprising: inputting a bit sequence, wherein the bit sequence comprises bits that represent a time sequence, and the bits that represent the time sequence comprise a synchronization signal block index, SSBI; performing interleaving on the bit sequence, and outputting an interleaved bit sequence, wherein the SSBI is mapped to a sequence set corresponding to the interleaved bit sequence, and the sequence set is ; connecting d cyclic redundancy check, CRC, bits to the interleaved bit sequence to obtain a connected bit sequence, wherein d is a positive integer; performing distributed-CRC, D-CRC, interleaving on the connected bit sequence based on a D-CRC interleaving pattern, to output a D-CRC interleaved bit sequence; performing polar encoding on the D-CRC interleaved bit sequence to obtain a polar-encoded bit sequence; and outputting the polar-encoded bit sequence. inputting a bit sequence, wherein the bit sequence comprises bits that represent a time sequence, and the bits that represent the time sequence comprise a synchronization signal block index, SSBI; performing interleaving on the bit sequence, and outputting an interleaved bit sequence, wherein the SSBI is mapped to a sequence set corresponding to the interleaved bit sequence, and the sequence set is ; connecting d cyclic redundancy check, CRC, bits to the interleaved bit sequence to obtain a connected bit sequence, wherein d is a positive integer; performing distributed-CRC, D-CRC, interleaving on the connected bit sequence based on a D-CRC interleaving pattern, to output a D-CRC interleaved bit sequence; performing polar encoding on the D-CRC interleaved bit sequence to obtain a polar-encoded bit sequence; and outputting the polar-encoded bit sequence.