mhurhangee/patent-ind-claim-en huggingface dataset:
A hollow tubular element for an aerosol-generating article , the hollow tubular element comprising: a peripheral portion providing a curved outer surface of the hollow tubular element , and defining a hollow inner region of the hollow tubular element ; and an internal projection extending into the hollow inner region , wherein the hollow tubular element is formed from a sheet, the sheet comprising: a first part and a second part adjacent to the first part with a first fold line therebetween; wherein the first part of the sheet forms at least part of the peripheral portion of the hollow tubular element ; wherein the entirety of the first part of the sheet forms at least part of the curved outer surface of the hollow tubular element ; and wherein the second part of the sheet defines the internal projection of the hollow tubular element , the internal projection extending into the hollow inner region of the hollow tubular element from the first fold line . a peripheral portion providing a curved outer surface of the hollow tubular element , and defining a hollow inner region of the hollow tubular element ; and an internal projection extending into the hollow inner region , wherein the hollow tubular element is formed from a sheet, the sheet comprising: a first part and a second part adjacent to the first part with a first fold line therebetween; wherein the first part of the sheet forms at least part of the peripheral portion of the hollow tubular element ; wherein the entirety of the first part of the sheet forms at least part of the curved outer surface of the hollow tubular element ; and wherein the second part of the sheet defines the internal projection of the hollow tubular element , the internal projection extending into the hollow inner region of the hollow tubular element from the first fold line .
A method of electron beam welding comprising: splitting the output of an electron beam welder into two components, a pre/post heat ring and a fusion spot by rastering between the pre/post heat ring and a fusion spot, applying the two outputs to a workpiece that is to be welded, traversing the two outputs along the desired weld path, and wherein the fusion spot lies within the pre/post heat ring and travels in tandem with and inside the pre/post heat ring. splitting the output of an electron beam welder into two components, a pre/post heat ring and a fusion spot by rastering between the pre/post heat ring and a fusion spot, applying the two outputs to a workpiece that is to be welded, traversing the two outputs along the desired weld path, and wherein the fusion spot lies within the pre/post heat ring and travels in tandem with and inside the pre/post heat ring.
A fluid jet cutting system , comprising: a multiaxial industrial robot having an end effector to grip a workpiece to be processed, the multiaxial industrial robot configured to selectively move the workpiece within a working envelope defined by a range of motion of the multiaxial industrial robot ; a fluid jet receptacle located within the working envelope of the multiaxial industrial robot to enable the workpiece to be positioned above an inlet of the fluid jet receptacle ; and a fluid jet cutting head having an orifice to generate a high pressure fluid jet and a fluid jet outlet from which to discharge the high pressure fluid jet , and wherein at least one of the fluid jet receptacle and the fluid jet cutting head is adjustable vertically to selectively adjust a clearance gap (D) between the fluid jet outlet of the fluid jet cutting head and the inlet of the fluid jet receptacle . a multiaxial industrial robot having an end effector to grip a workpiece to be processed, the multiaxial industrial robot configured to selectively move the workpiece within a working envelope defined by a range of motion of the multiaxial industrial robot ; a fluid jet receptacle located within the working envelope of the multiaxial industrial robot to enable the workpiece to be positioned above an inlet of the fluid jet receptacle ; and a fluid jet cutting head having an orifice to generate a high pressure fluid jet and a fluid jet outlet from which to discharge the high pressure fluid jet , and wherein at least one of the fluid jet receptacle and the fluid jet cutting head is adjustable vertically to selectively adjust a clearance gap (D) between the fluid jet outlet of the fluid jet cutting head and the inlet of the fluid jet receptacle .
A crack split molding tool for producing a foam particle component, comprising two mold halves which can be arranged in a crack split position for filling the crack split molding tool with foam particles, in which position the mold halves are slightly spaced apart from each other relative to a closed position, and are designed to be pressed against each other before welding with the foam particles located therein, characterized in that the mold halves are arranged so as to be movable relative to each other in such a way that, when filling them with foam particles, they are spaced apart from each other by different distances in some areas, so that when pressed together into the closed position, the mold halves are brought together to different extents in some areas, wherein at least one of the two mold halves is mounted so as to be pivotable about a pivot axis , so that when pressed together into the closed position, this mold half performs a pivoting movement.
Method for manufacturing an electrical connection subassembly , comprising a step of assembling a multistrand electrical conductor and a connection element , said assembly step comprising - an operation of providing said multistrand electrical conductor and said connection element , the electrical conductor comprising at least one bared predefined portion , the connection element having an assembly portion provided with an assembly surface , - an operation of brazing the predefined portion of the electrical conductor on said assembly surface of the connection element with a filler material , characterised in that said assembly step comprises an operation of compacting said predefined portion of the electrical conductor to compact and at least partially fuse together the strands of the electrical conductor , to at least partially weld them to each other, at said predefined portion , said compacting operation and brazing operation being performed simultaneously. - an operation of providing said multistrand electrical conductor and said connection element , the electrical conductor comprising at least one bared predefined portion , the connection element having an assembly portion provided with an assembly surface , - an operation of brazing the predefined portion of the electrical conductor on said assembly surface of the connection element with a filler material ,
Method for estimating the position , on a sensor of a light-field acquisition device having a chief ray, corresponding to an optical axis of said light-field acquisition device, wherein the light-field is a four-dimensional function describing the light from different directions at different points in a scene, the method comprising: - for each candidate pixel in a candidate area of a raw image formed by uniform white lighting of said light-field acquisition device and having potential positions for the chief ray, called candidate pixels, computing cross-correlation of the raw image restricted to said candidate area with a symmetrical image obtained by applying central symmetry with respect to said candidate pixel restricted to said candidate area, and providing a cross correlation score for said candidate pixel; and - determining , as a coarse estimate of the position of said chief ray projection, the candidate pixel associated to the highest cross-correlation score. - for each candidate pixel in a candidate area of a raw image formed by uniform white lighting of said light-field acquisition device and having potential positions for the chief ray, called candidate pixels, computing cross-correlation of the raw image restricted to said candidate area with a symmetrical image obtained by applying central symmetry with respect to said candidate pixel restricted to said candidate area, and providing a cross correlation score for said candidate pixel; and - determining , as a coarse estimate of the position of said chief ray projection, the candidate pixel associated to the highest cross-correlation score.
A display device comprising: a first substrate ; a second substrate ; a display unit disposed between the first substrate and the second substrate , the display unit including a pixel, wherein the pixel includes a sub-pixel having an organic light emitting diode located in an emission region ER and a transparent window located in a transparent region TR; a camera unit disposed on one side of the first substrate and arranged to capture an image through the transparent window in the transparent region TR, the camera unit including at least one camera module; and a mirror member disposed on one side of the second substrate , wherein the mirror member includes mirror patterns disposed on the one side of the second substrate, the mirror patterns being located in a mirror region MR. and wherein the mirror patterns are located in the mirror region MR only, characterised in that the mirror member further includes a mirror layer disposed on the mirror patterns and on the one side of the second substrate , the mirror layer being located in the emission region ER, the mirror region MR and the transparent region TR. a first substrate ; a second substrate ; a display unit disposed between the first substrate and the second substrate , the display unit including a pixel, wherein the pixel includes a sub-pixel having an organic light emitting diode located in an emission region ER and a transparent window located in a transparent region TR; a camera unit disposed on one side of the first substrate and arranged to capture an image through the transparent window in the transparent region TR, the camera unit including at least one camera module; and a mirror member disposed on one side of the second substrate ,
A fan with a rotating element (10, 10', 10", 10"') by which a gaseous medium is sucked in and is released again under pressure, wherein the rotating element (10, 10', 10", 10'") comprises a plurality of fan blades (16a-16h), wherein at least two of the plurality of fan blades (16a-16h) differ from each other in a characteristic that impacts a media impulse exerted by the respective fan blade (16a-16h) on a component of the fan in operation, characterized in that each fan blade (16a-16h) of the plurality of fan blades (16a-16h) differs from each other fan blade (16a-16h) of the plurality of fan blades (16a-16h) at least in a contour and/or tilt of an outflow edge (16a'-16h') of the fan blades (16a-16h) and each fan blade (16a-16h) of the plurality of fan blades (16a-16h) differs from each other fan blade (16a-16h) of the plurality of fan blades (16a-16h) further at least in an offset of an arrangement of the fan blades (16a-16h) with respect to an initial arrangement given by a rotation symmetry of the rotating element (10, 10', 10", 10'"), wherein the rotation symmetry corresponds to a number of fan blades of the rotating element (10, 10', 10", 10'"), wherein the differences concerning the outflow edge and of the arrangement are scaled such that a centre of mass of the rotating element (10, 10', 10", 10'") coincides with a rotation axis of the rotating element (10, 10', 10", 10'"). wherein the rotating element (10, 10', 10", 10'") comprises a plurality of fan blades (16a-16h), wherein at least two of the plurality of fan blades (16a-16h) differ from each other in a characteristic that impacts a media impulse exerted by the respective fan blade (16a-16h) on a component of the fan in operation, characterized in that each fan blade (16a-16h) of the plurality of fan blades (16a-16h) differs from each other fan blade (16a-16h) of the plurality of fan blades (16a-16h) at least in a contour and/or tilt of an outflow edge (16a'-16h') of the fan blades (16a-16h) and each fan blade (16a-16h) of the plurality of fan blades (16a-16h) differs from each other fan blade (16a-16h) of the plurality of fan blades (16a-16h) further at least in an offset of an arrangement of the fan blades (16a-16h) with respect to an initial arrangement given by a rotation symmetry of the rotating element (10, 10', 10", 10'"), wherein the rotation symmetry corresponds to a number of fan blades of the rotating element (10, 10', 10", 10'"), wherein the differences concerning the outflow edge and of the arrangement are scaled such that a centre of mass of the rotating element (10, 10', 10", 10'") coincides with a rotation axis of the rotating element (10, 10', 10", 10'").
A rotor hub for a wind turbine, comprising: a hub frame having at least one blade attachment site configured for attachment of a wind turbine blade to the hub frame ; characterized in that a dispenser is coupled to the hub frame and containing one or more fasteners , wherein the one or more fasteners is selectively releasable from the dispenser to facilitate attachment of the wind turbine blade to the hub frame . a hub frame having at least one blade attachment site configured for attachment of a wind turbine blade to the hub frame ; characterized in that a dispenser is coupled to the hub frame and containing one or more fasteners , wherein the one or more fasteners is selectively releasable from the dispenser to facilitate attachment of the wind turbine blade to the hub frame .
A steering wheel input device for a steering wheel comprising: a first steering switch arranged to be disposed on a front face of the steering wheel ; and a second steering switch arranged to be disposed on a rear face of the steering wheel , characterized in that only an icon corresponding to the second steering switch is displayed on the first steering switch when the second steering switch is operated, wherein the second steering switch includes a first pressing part and a second pressing part which can be independently operated, wherein the icon includes a first icon corresponding to the first pressing part and a second icon corresponding to the second pressing part , and wherein both the first icon and the second icon are displayed on the first steering switch when either the first pressing part or the second pressing part is operated. a first steering switch arranged to be disposed on a front face of the steering wheel ; and a second steering switch arranged to be disposed on a rear face of the steering wheel , characterized in that only an icon corresponding to the second steering switch is displayed on the first steering switch when the second steering switch is operated, wherein the second steering switch includes a first pressing part and a second pressing part which can be independently operated, wherein the icon includes a first icon corresponding to the first pressing part and a second icon corresponding to the second pressing part , and wherein both the first icon and the second icon are displayed on the first steering switch when either the first pressing part or the second pressing part is operated.
A railway track section defining two ends and comprising: - two rails , - an insulated joint at each end of each rail , the insulated joints being configured to insulate electrically the railway track section from adjacent railway track sections , and - a train detection system for the railway track section placed on a track bed, the train detection system comprising: - at least one cable , - a transmitter connected to the cable and configured to emit an emitted signal into the at least one cable , - a receiver connected to the cable and configured to receive a received signal related to the emitted signal having passed through the cable , and capable of determining, according to the received signal, between an unoccupied state where no railway vehicle is present on the track section , and an occupied state where the track section is occupied by a railway vehicle, characterised in that the cable is placed across the two rails and J Z buried under the track bed. - two rails , - an insulated joint at each end of each rail , the insulated joints being configured to insulate electrically the railway track section from adjacent railway track sections , and - a train detection system for the railway track section placed on a track bed, the train detection system comprising: - at least one cable , - a transmitter connected to the cable and configured to emit an emitted signal into the at least one cable , - a receiver connected to the cable and configured to receive a received signal related to the emitted signal having passed through the cable , and capable of determining, according to the received signal, between an unoccupied state where no railway vehicle is present on the track section , and an occupied state where the track section is occupied by a railway vehicle,
Heat exchanger comprising a stack of multiple plates which are parallel to one another and to a longitudinal direction (z), said plates being stacked spaced apart from one another so as to define, between one another, a first series of passages for the flow of at least a first fluid in an overall flow direction parallel to the longitudinal direction (z), each passage being delimited by closure bars disposed between the plates , characterized in that a filtering device is arranged in at least one passage of the first series, said filtering device extending for the one part between two adjacent plates defining said passage and for the other part between two of the closure bars delimiting said passage , said filtering device comprising a metal sheet material chosen from among a metal fabric, a nonwoven of metal fibres, a sintered metal powder or sintered metal fibres, a metal foam, or a microperforated plate.
A computer-implemented method performed by a network switch , having one or more database functions definition rule application programming interfaces, APIs, , a database functions rules repository and a database functions handling logic unit , the method comprising: • configuring, by the one or more APIs in the network switch, database function rules for one or more database functions; wherein configuring the database function rules includes creating, defining, modifying, or deleting a database function rule for a database function, and the APIs defining the database function rule for the database function by specifying a query data format, an output data format, and internal processing logic of the database function; wherein the one or more database functions are selected from an aggregation function, a caching function of exchange data, a merge function of results and an ordering function of data; • storing, in the database functions rules repository , at least one database function rule; • locating, by the network switch upon receiving a data message encapsulated in a network packet the data message containing data of a distributed database system and carrying a rule identifier or information identifying a rule, at least one applicable rule in the rule repository ; • processing, by the database functions handling logic unit , the data message to perform a pre-defined database function using the at least one applicable rule, to generate at least one result data message ; and • routing the at least one result data message to one or more destination nodes. • configuring, by the one or more APIs in the network switch, database function rules for one or more database functions; wherein configuring the database function rules includes creating, defining, modifying, or deleting a database function rule for a database function, and the APIs defining the database function rule for the database function by specifying a query data format, an output data format, and internal processing logic of the database function; wherein the one or more database functions are selected from an aggregation function, a caching function of exchange data, a merge function of results and an ordering function of data; • storing, in the database functions rules repository , at least one database function rule; • locating, by the network switch upon receiving a data message encapsulated in a network packet the data message containing data of a distributed database system and carrying a rule identifier or information identifying a rule, at least one applicable rule in the rule repository ; • processing, by the database functions handling logic unit , the data message to perform a pre-defined database function using the at least one applicable rule, to generate at least one result data message ; and • routing the at least one result data message to one or more destination nodes.
A microwave ablation probe , comprising: a microwave emission section , a rigid section , and a flexible section , wherein the microwave emission section is positioned distal to the rigid section, wherein the rigid section is positioned distal to the flexible section, wherein the rigid section comprises one or more protrusions configured to engage with a grasping portion of a laparoscopic instrument , wherein the microwave emission section is configured to emit microwave energy. a microwave emission section , a rigid section , and a flexible section , wherein the microwave emission section is positioned distal to the rigid section, wherein the rigid section is positioned distal to the flexible section, wherein the rigid section comprises one or more protrusions configured to engage with a grasping portion of a laparoscopic instrument , wherein the microwave emission section is configured to emit microwave energy.
A method comprising: - obtaining , by a first wireless network node , an indication associated with remote interference from a second wireless network node , wherein the indication is a remote interference management reference signal; - gathering , by the first wireless network node , physical Radio Frequency, RF, attributes and logical attributes associated with the indication; - determining , by the first wireless network node , a profile of the second wireless network node based on the gathered physical RF and logical attributes associated with the indication; - performing , by the first wireless network node , an action based on the determined profile; and - transmitting information about one of the following: the profile or the action or the profile and the action to a blockchain. - obtaining , by a first wireless network node , an indication associated with remote interference from a second wireless network node , wherein the indication is a remote interference management reference signal; - gathering , by the first wireless network node , physical Radio Frequency, RF, attributes and logical attributes associated with the indication; - determining , by the first wireless network node , a profile of the second wireless network node based on the gathered physical RF and logical attributes associated with the indication; - performing , by the first wireless network node , an action based on the determined profile; and - transmitting information about one of the following: the profile or the action or the profile and the action to a blockchain.