mhurhangee/patent-ind-claim-en huggingface dataset:
A local area network communication management method, comprising: obtaining (S403), by an access and mobility management function network element, registration area information of a terminal, a local area network identifier, LAN ID, of the terminal, and service area information corresponding to the LAN ID; determining (S404), by the access and mobility management function network element, LAN communication area information of the terminal based on the registration area information and the service area information corresponding to the LAN ID; and sending (S405), by the access and mobility management function network element, LAN information of the terminal to the terminal, wherein the LAN information of the terminal comprises the LAN ID and the LAN communication area information of the terminal. obtaining (S403), by an access and mobility management function network element, registration area information of a terminal, a local area network identifier, LAN ID, of the terminal, and service area information corresponding to the LAN ID; determining (S404), by the access and mobility management function network element, LAN communication area information of the terminal based on the registration area information and the service area information corresponding to the LAN ID; and sending (S405), by the access and mobility management function network element, LAN information of the terminal to the terminal, wherein the LAN information of the terminal comprises the LAN ID and the LAN communication area information of the terminal.
Handling device for transferring a stack of products, in particular of folded, stitched or bound products, from a receiving region to a depositing region , wherein the handling device comprises a gripping installation which is movable in three dimensions and is configured for receiving and moving the stack of products disposed in the receiving region and depositing said stack in the depositing region ; wherein the gripping installation comprises an upper holding element for holding down an upper side of the received stack , and a lower holding element for supporting a lower side , opposite the upper side , of the received stack ; wherein the gripping installation furthermore comprises a first lateral delimitation element and a second lateral delimitation element , said delimitation elements each being able to be assigned to one of two mutually opposite lateral faces of a stack ; characterized in that the lower holding element is mounted so as to be pivotable in relation to at least the first and/or the second delimitation element .
Metallically sealing connecting arrangement with a pressure sensor as first metallic connecting partner and a fuel distributor rail as second metallic connecting partner , the two connecting partners being part of a fuel injection system of an internal combustion engine, and a conical sealing face being configured on the first connecting partner , characterized in that the connecting partners can be connected to one another with regard to an axis by way of screwing, a sealing contour which is assigned to the conical sealing face of the first connecting partner being configured on the second connecting partner , the sealing contour of the second connecting partner having, in a starting state, an elevation which runs around the axis and faces the conical sealing face of the first connecting partner , and the sealing contour of the second connecting partner being configured in such a way that, in the case of screwing of the first connecting partner to the second connecting partner , the circumferential elevation of the second connecting partner is deformed plastically at least partially, in order to configure a metallic sealing action between the conical sealing face of the first connecting partner and the elevation of the second connecting partner , which elevation is deformed at least partially in the screwed state.
Work equipment with a holding means for protecting a movable connector part (20; 24a-d) of a hydraulic system on the work equipment , which movable connector part (20; 24a-d) is connectable to a fixed connector part of a hydraulic system of a work vehicle , the holding means having a contact surface being adapted to mate with the movable connector part (20; 24a-d) such that its hydraulic connections are protected and unexposed when it is placed in the holding means , characterized in that the holding means is fixedly arranged on the work equipment , such that said contact surface of the holding means is accessible for protective connection of the movable connector part (20; 24a-d).
Heat pump, comprising: a refrigerant circuit configured to circulate flammable refrigerant, the refrigerant circuit having a compressor, a utilisation-side heat exchanger , an expansion device and a heat-source-side heat exchanger connected by piping; and an indoor unit configured to be arranged in an indoor space, comprising: an outer casing having a top ; a sealed container accommodated in the outer casing , wherein the sealed container has a bottom and a top and accommodates at least one of the compressor, the utilisation-side heat exchanger , the expansion device, and the heat-source-side heat exchanger, wherein the sealed container has a release opening adapted to exhaust leaking refrigerant to the exterior of the outer casing of the indoor unit , characterized in that the sealed container comprises a chimney adapted to exhaust leaking refrigerant to the indoor space, the chimney having a first end and a second end, wherein the first end of the chimney is in fluid communication with an interior of the sealed container , and the release opening of the sealed container is arranged at the second end of the chimney . a refrigerant circuit configured to circulate flammable refrigerant, the refrigerant circuit having a compressor, a utilisation-side heat exchanger , an expansion device and a heat-source-side heat exchanger connected by piping; and an indoor unit configured to be arranged in an indoor space, comprising: an outer casing having a top ; a sealed container accommodated in the outer casing , wherein the sealed container has a bottom and a top and accommodates at least one of the compressor, the utilisation-side heat exchanger , the expansion device, and the heat-source-side heat exchanger, wherein the sealed container has a release opening adapted to exhaust leaking refrigerant to the exterior of the outer casing of the indoor unit , characterized in that the sealed container comprises a chimney adapted to exhaust leaking refrigerant to the indoor space, the chimney having a first end and a second end, wherein the first end of the chimney is in fluid communication with an interior of the sealed container , and the release opening of the sealed container is arranged at the second end of the chimney . an outer casing having a top ; a sealed container accommodated in the outer casing , wherein the sealed container has a bottom and a top and accommodates at least one of the compressor, the utilisation-side heat exchanger , the expansion device, and the heat-source-side heat exchanger, wherein the sealed container has a release opening adapted to exhaust leaking refrigerant to the exterior of the outer casing of the indoor unit , characterized in that the sealed container comprises a chimney adapted to exhaust leaking refrigerant to the indoor space, the chimney having a first end and a second end, wherein the first end of the chimney is in fluid communication with an interior of the sealed container , and the release opening of the sealed container is arranged at the second end of the chimney .
A non-therapeutic or in vitro method for inducing a mammalian cell to produce a recombinant protein, the method comprising repeatedly contacting said mammalian cell with in vitro -synthesized mRNA comprising an open reading frame that encodes said recombinant protein; wherein the in vitro -synthesized mRNA comprises Ψ or m 1 Ψ (1-methylpseudouridine); and wherein said in vitro -synthesized mRNA is purified using a process that removes RNA contaminant molecules that are immunogenic and toxic to the cell by inducing an innate immune response, as determined by measuring decreased secretion of IFN-α or TNF-α cytokine from dendritic cells transfected with said purified in vitro -synthesized mRNA molecules compared to secretion of said cytokine from dendritic cells transfected with unpurified in vitro -synthesized mRNA. wherein the in vitro -synthesized mRNA comprises Ψ or m 1 Ψ (1-methylpseudouridine); and wherein said in vitro -synthesized mRNA is purified using a process that removes RNA contaminant molecules that are immunogenic and toxic to the cell by inducing an innate immune response, as determined by measuring decreased secretion of IFN-α or TNF-α cytokine from dendritic cells transfected with said purified in vitro -synthesized mRNA molecules compared to secretion of said cytokine from dendritic cells transfected with unpurified in vitro -synthesized mRNA.
A stabilizer pole unit for a sunshade for releasable locking to a strut of the sunshade, comprising a pole having a lower end on the ground side and an opposite upper end on the strut side, a connecting part for a form-fitting releasable fastening to the strut , a coupling piece by means of which the connecting part can be mounted to the upper fastening end , and an angle adjustment device by means of which the angle of the connecting part in relation to the pole can be changed, and wherein a plug connection is provided, by means of which the connecting part can be released from and coupled to the pole without a tool, the plug connection being in the form of a bayonet connection, and/or wherein the angle adjustment device is a joint which includes a horizontal pivot pin, and the pivot pin is at the same time configured as a plug connection, for releasing and uncoupling the pole from the connecting part without a tool, the pivot pin being formed by a transverse pin which is adapted to be inserted laterally into a T-slot .
A flowtube assembly for a magnetic flowmeter , the flowtube assembly comprising: a flowtube having a longitudinal axis and being configured to receive a flow of process fluid therethrough; a first magnetic core mounted relative to the flowtube , the first magnetic core including a plurality of layers of a magnetically permeable material; and a first coil disposed to generate a magnetic field, wherein each layer is substantially planar, wherein each respective layer is disposed substantially parallel to the longitudinal axis of the flowtube , characterised in that each layer is electrically insulated from others of the plurality of layers , wherein the magnetic field has field lines that are substantially orthogonal to the plane of each layer . a flowtube having a longitudinal axis and being configured to receive a flow of process fluid therethrough; a first magnetic core mounted relative to the flowtube , the first magnetic core including a plurality of layers of a magnetically permeable material; and a first coil disposed to generate a magnetic field, wherein each layer is substantially planar, wherein each respective layer is disposed substantially parallel to the longitudinal axis of the flowtube , characterised in that each layer is electrically insulated from others of the plurality of layers , wherein the magnetic field has field lines that are substantially orthogonal to the plane of each layer .
Linear displacement sensor , comprising: an induction element , which on a first side has an electrically conductive measuring track which runs along a measurement path (M); and a measuring sensor element , which is arranged over the first side of the induction element and is movable relative to the induction element along the measurement path (M), wherein the measuring sensor element comprises a measuring coil , which is arranged over the measuring track and wherein an overlap between the measuring coil and the measuring track changes along the measurement path in such a manner that an induction of the measuring coil is dependent on a position (y) of the measuring coil on the measurement path (M); characterized by a correction sensor element which is connected rigidly to the measuring sensor element and is arranged over a second side of the induction element ; wherein the induction element on the second side has at least one electrically conductive measuring track which runs along the measurement path (M); and wherein the correction sensor element has at least one correction coil , the overlap of which with the correction track is constant along the measurement path (M). an induction element , which on a first side has an electrically conductive measuring track which runs along a measurement path (M); and a measuring sensor element , which is arranged over the first side of the induction element and is movable relative to the induction element along the measurement path (M), wherein the measuring sensor element comprises a measuring coil , which is arranged over the measuring track and wherein an overlap between the measuring coil and the measuring track changes along the measurement path in such a manner that an induction of the measuring coil is dependent on a position (y) of the measuring coil on the measurement path (M); characterized by a correction sensor element which is connected rigidly to the measuring sensor element and is arranged over a second side of the induction element ; wherein the induction element on the second side has at least one electrically conductive measuring track which runs along the measurement path (M); and wherein the correction sensor element has at least one correction coil , the overlap of which with the correction track is constant along the measurement path (M).
A radiation therapy system, comprising: an accelerator that accelerates particles in a beam; a nozzle that receives the beam of particles downstream of the accelerator, the nozzle configured to create a first beam that delivers a first dose with a first Spread Out Bragg Peak, SOBP, along a first target line segment in a target volume and to create a second beam that delivers a second dose with a second SOBP along a second target line segment in the target volume, wherein the second target line segment is displaced from the first target line segment, wherein the nozzle further comprises a range modulator; and wherein the range modulator comprises a plurality of arms extending from a hub, the arms having non-uniform thicknesses, and wherein the system includes mechanisms configured to adjust the position of the range modulator transversely to the path of the beam and to rotate the range modulator about the hub allowing the beam to pass through different thicknesses of material of the arms and also through different amounts of space between adjacent arms to vary the extent of spread of the SOBP. an accelerator that accelerates particles in a beam; a nozzle that receives the beam of particles downstream of the accelerator, the nozzle configured to create a first beam that delivers a first dose with a first Spread Out Bragg Peak, SOBP, along a first target line segment in a target volume and to create a second beam that delivers a second dose with a second SOBP along a second target line segment in the target volume, wherein the second target line segment is displaced from the first target line segment, wherein the nozzle further comprises a range modulator; and wherein the range modulator comprises a plurality of arms extending from a hub, the arms having non-uniform thicknesses, and wherein the system includes mechanisms configured to adjust the position of the range modulator transversely to the path of the beam and to rotate the range modulator about the hub allowing the beam to pass through different thicknesses of material of the arms and also through different amounts of space between adjacent arms to vary the extent of spread of the SOBP.
An inspection system for generating a three-dimensional visually representative model of a vehicle , the system comprising: a plurality of imaging devices positioned within a hangar such that the imaging devices are configured to acquire images from a number of viewpoints of different sections of the vehicle within the hangar ; and a computer configured to at least: receive the images from the plurality of imaging devices ; perform photogrammetry on the images to extract a profile of the vehicle ; create a wireframe mesh or point cloud from the profile, and generate a 3D model of the vehicle based on the wireframe mesh or the point cloud; perform image processing of the images to determine one or more areas on a surface of the vehicle in which a defect is detected; append one or more markers onto respective one or more areas of the 3D model that correspond to the one or more areas on the surface of the vehicle such that the defect is appended onto the 3D model ; and generate a display of the 3D model of the vehicle including the one or more markers that indicate the one or more areas on the surface of the vehicle in which the defect is detected. a plurality of imaging devices positioned within a hangar such that the imaging devices are configured to acquire images from a number of viewpoints of different sections of the vehicle within the hangar ; and a computer configured to at least: receive the images from the plurality of imaging devices ; perform photogrammetry on the images to extract a profile of the vehicle ; create a wireframe mesh or point cloud from the profile, and generate a 3D model of the vehicle based on the wireframe mesh or the point cloud; perform image processing of the images to determine one or more areas on a surface of the vehicle in which a defect is detected; append one or more markers onto respective one or more areas of the 3D model that correspond to the one or more areas on the surface of the vehicle such that the defect is appended onto the 3D model ; and generate a display of the 3D model of the vehicle including the one or more markers that indicate the one or more areas on the surface of the vehicle in which the defect is detected. receive the images from the plurality of imaging devices ; perform photogrammetry on the images to extract a profile of the vehicle ; create a wireframe mesh or point cloud from the profile, and generate a 3D model of the vehicle based on the wireframe mesh or the point cloud; perform image processing of the images to determine one or more areas on a surface of the vehicle in which a defect is detected; append one or more markers onto respective one or more areas of the 3D model that correspond to the one or more areas on the surface of the vehicle such that the defect is appended onto the 3D model ; and generate a display of the 3D model of the vehicle including the one or more markers that indicate the one or more areas on the surface of the vehicle in which the defect is detected.
Apparatus for identifying slides and cassettes for specimens of biological material, the slides and cassettes being provided with at least one identification code and being inserted and supported in at least one supporting container , the apparatus comprising at least one reading device to read identification codes of the slides and cassettes , said reading device having an operational reading field (F), the apparatus further comprising at least one shifting device to shift at least one slide into the operational field of the reading device and at least one deflecting element to deflect the operational field of the reading device, apparatus being configured tc carry out the identification of both the slides and cassettes selectively by performing either a first reading mode for said slides through said shifting device to shift at least one slide or a second reading mode for said cassettes through said deflecting element to deflect the operational field (F) of said reading device , wherein in said second reading mode for the cassettes , the cassettes remain in a rest position within the supporting container throughout the operation and at least one deflecting element to deflect the operational reading field is arranged in said operative reading field (F), wherein in said first reading mode for the slides , at least one slide is shifted from a rest position to an operating position into said operational reading field (F) of said reading device through said shifting device to shift at least one slide.
Friction part , comprising a metallic surface and an outer coating layer , characterized in that the outer coating layer is composed of nitrogen-doped tungsten carbide WC(N) with between 5 and 12 atomic % of nitrogen, the outer coating layer consists of: • between 40 and 43 atomic % of carbon, • between 40 and 43 atomic % of tungsten, • between 5 and 12 atomic % of nitrogen, • between 7 and 9 atomic % of cobalt, • other compounds totaling between 0 and 8 atomic %. • between 40 and 43 atomic % of carbon, • between 40 and 43 atomic % of tungsten, • between 5 and 12 atomic % of nitrogen, • between 7 and 9 atomic % of cobalt, • other compounds totaling between 0 and 8 atomic %.
Cooling plate for a blast furnace, said cooling plate comprising a copper body having an inner face comprising ribs (4-j) parallel therebetween, having first extremities opposite therebetween and separated by grooves having second extremities opposite therebetween, characterized in that at least one of said ribs (4-j) comprises at least one housing located between said first extremities and comprising at least one insert made of a wear resistant ceramic that increases locally the wear resistance of said rib (4-j).
A continuity box for receiving tie bars , commonly referred to as a "continuity box", comprising a support part consisting of a bottom wall extending along a longitudinal axis (A) and flanked by two side walls parallel to said longitudinal axis (A), said support part being arranged to receive a large number of tie bars including a right-angle bracket passing through said bottom wall , and a bent end housed in the volume (V) of said support part between the two side walls , a lid arranged to extend in parallel to said bottom wall , to close said support part , and contain bent end of said tie bars in the inside volume (V) and two end parts arranged to close the ends of said support part and to seal said continuity box , said bottom wall comprising a large number of main openings extending between the two side walls of said support part , and arranged to allow the insertion of the right-angle bracket of said tie bars , and said continuity box further comprising a covering plate arranged to close said main openings after the installation of said tie bars and to ensure the sealing of said continuity box , characterized in that said covering plate includes at least one closing plate superimposed on bottom wall of said support part , and provided with a large number of additional openings for the passage of said tie bars and in that said closing plate is free to move in translational motion (T1, T2) with respect to said support part between an open position in which said additional openings are superimposed on the main openings and allow the insertion of said tie bars , and a closed position in which said additional openings are offset and close the said main openings .