mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: at a coordinating gateway during a handover of a mobile device from a first base station to a second base station, receiving a first handover request from the first base station, wherein the first handover request is an X2 handover request; discarding a first shared security key received in the first handover request; sending a tunnel switching request to a core network node after discarding the first shared security key; obtaining precursors for a second shared security key from the core network node in a response to the switching request; sending a second handover request to the second base station with the precursors to calculate, by the second base station, the second shared security key for securing a data connection for the mobile device following the handover, wherein the second handover request is an S1 handover request remapped from the X2 handover request; deriving the second shared security key from the obtained precursors at the first base station; deriving the second shared security key from the obtained precursors at the coordinating gateway; and further comprising proxying the core network node to the second base station by providing a mobility management entity, MME, functionality at the coordinating gateway, and proxying the second base station to the core network node by providing a base station interface to the core network node at the coordinating gateway, wherein the precursors are obtained from the MME. at a coordinating gateway during a handover of a mobile device from a first base station to a second base station, receiving a first handover request from the first base station, wherein the first handover request is an X2 handover request; discarding a first shared security key received in the first handover request; sending a tunnel switching request to a core network node after discarding the first shared security key; obtaining precursors for a second shared security key from the core network node in a response to the switching request; sending a second handover request to the second base station with the precursors to calculate, by the second base station, the second shared security key for securing a data connection for the mobile device following the handover, wherein the second handover request is an S1 handover request remapped from the X2 handover request; deriving the second shared security key from the obtained precursors at the first base station; deriving the second shared security key from the obtained precursors at the coordinating gateway; and further comprising proxying the core network node to the second base station by providing a mobility management entity, MME, functionality at the coordinating gateway, and proxying the second base station to the core network node by providing a base station interface to the core network node at the coordinating gateway, wherein the precursors are obtained from the MME.
An agricultural machine, comprising: a vehicle frame; and a capacitive sensor carried by the vehicle frame, the capacitive sensor comprising: a transmitter assembly comprising a signal driver , at least one guard driver , and at least one sensing circuit configured to detect an output of the signal driver; at least one sensing electrode powered by the signal driver; and a plurality of guard electrodes powered by the at least one guard driver ; wherein the guard electrodes are oriented such that a first electric field emanating from the at least one sensing electrode is shaped at least in part by a second electric field emanating from at least one guard electrode of the plurality of guard electrodes; wherein the transmitter further comprises a multiplexor configured to selectively provide power from the at least one guard driver to individual guard electrodes of the plurality of guard electrodes; and wherein the sensor further comprises a controller configured to drive the multiplexor. a vehicle frame; and a capacitive sensor carried by the vehicle frame, the capacitive sensor comprising: a transmitter assembly comprising a signal driver , at least one guard driver , and at least one sensing circuit configured to detect an output of the signal driver; at least one sensing electrode powered by the signal driver; and a plurality of guard electrodes powered by the at least one guard driver ; wherein the guard electrodes are oriented such that a first electric field emanating from the at least one sensing electrode is shaped at least in part by a second electric field emanating from at least one guard electrode of the plurality of guard electrodes; wherein the transmitter further comprises a multiplexor configured to selectively provide power from the at least one guard driver to individual guard electrodes of the plurality of guard electrodes; and wherein the sensor further comprises a controller configured to drive the multiplexor. a transmitter assembly comprising a signal driver , at least one guard driver , and at least one sensing circuit configured to detect an output of the signal driver; at least one sensing electrode powered by the signal driver; and a plurality of guard electrodes powered by the at least one guard driver ; wherein the guard electrodes are oriented such that a first electric field emanating from the at least one sensing electrode is shaped at least in part by a second electric field emanating from at least one guard electrode of the plurality of guard electrodes; wherein the transmitter further comprises a multiplexor configured to selectively provide power from the at least one guard driver to individual guard electrodes of the plurality of guard electrodes; and wherein the sensor further comprises a controller configured to drive the multiplexor.
A metal component comprising a base metal and a coating system thereon, the coating system comprising: a conductive layer on the base metal, and resin-based layer on the conductive layer, wherein the resin-based layer comprises conductive pigments that form electrically conductive 3D-networks in the resin based layer, such networks being randomly distributed in the resin based layer characterized in that the conductive pigments of the resin-based layer comprises nickel fibers, and wherein the resin-based layer comprises a phenolic resin.. a conductive layer on the base metal, and resin-based layer on the conductive layer, wherein the resin-based layer comprises conductive pigments that form electrically conductive 3D-networks in the resin based layer, such networks being randomly distributed in the resin based layer characterized in that the conductive pigments of the resin-based layer comprises nickel fibers, and wherein the resin-based layer comprises a phenolic resin..
An ion insertion battery cell comprising a negative electrode comprising a negative electrode layer comprising a titanium oxide comprising chlorine being amorphous, wherein the ratio chlorine to titanium in the negative electrode layer is from 0.06 to 0.1 when measured by Rutherford Backscatter Spectroscopy.
A gas turbine engine comprising: a turbine section (28; 100) having a turbine rotor and at least one blade extending outwardly of said turbine rotor, said turbine rotor rotating about an axis of rotation (A); an axial seal (122; 128; 222), wherein said axial seal (122; 128; 222) is a bristle seal (122; 128; 222); and a blade outer air seal positioned radially outward of said at leat one blade , said blade outer air seal having an axially forward hook and an axially aft hook supported to a static structure , wherein the axial seal (122, 128; 222) is attached to said static structure forward of said forward hook , and has a sealing portion extending in an aft direction, characterised in that : the engine further comprises a sealing surface member (130; 230), wherein the sealing surface member (130; 230) is positioned intermediate an aft end of said axial seal (122, 128; 222) and a forward end of said forward hook to provide a sealing surface for sealing between said axial seal (122, 128; 222) and said blade outer air seal ; said blade outer air seal is formed of ceramic matrix composite materials; and said axial bristle seal (122, 128; 222) has bristles with an aft end in contact with said sealing surface member (130; 230). a turbine section (28; 100) having a turbine rotor and at least one blade extending outwardly of said turbine rotor, said turbine rotor rotating about an axis of rotation (A); an axial seal (122; 128; 222), wherein said axial seal (122; 128; 222) is a bristle seal (122; 128; 222); and a blade outer air seal positioned radially outward of said at leat one blade , said blade outer air seal having an axially forward hook and an axially aft hook supported to a static structure , wherein the axial seal (122, 128; 222) is attached to said static structure forward of said forward hook , and has a sealing portion extending in an aft direction, the engine further comprises a sealing surface member (130; 230), wherein the sealing surface member (130; 230) is positioned intermediate an aft end of said axial seal (122, 128; 222) and a forward end of said forward hook to provide a sealing surface for sealing between said axial seal (122, 128; 222) and said blade outer air seal ; said blade outer air seal is formed of ceramic matrix composite materials; and said axial bristle seal (122, 128; 222) has bristles with an aft end in contact with said sealing surface member (130; 230).
An image forming apparatus comprising: an image forming portion configured to form an image on a recording material; a first metal side plate and a second metal side plate disposed to sandwich the image forming portion; a wireless communication board including an antenna configured to communicate with an external device; and a housing in which the image forming portion is disposed, wherein the housing includes a top cover that is disposed at a position vertically higher than the first metal side plate, the top cover contacts the first metal side plate and the second metal side plate, wherein in a region on a downstream side with respect to the antenna in a discharging direction where a recording material, on which an image is formed by the image forming portion, is discharged from a discharging port of the image forming apparatus, an upper end of the first metal side plate is located at a position vertically lower than the antenna, and a resin support portion connected to the first metal side plate is disposed in the region such that the resin support portion supports the top cover, and the antenna and the resin support portion are disposed along the upper end of the first metal side plate, and wherein the wireless communication board is held on the top cover. an image forming portion configured to form an image on a recording material; a first metal side plate and a second metal side plate disposed to sandwich the image forming portion; a wireless communication board including an antenna configured to communicate with an external device; and a housing in which the image forming portion is disposed, wherein the housing includes a top cover that is disposed at a position vertically higher than the first metal side plate, the top cover contacts the first metal side plate and the second metal side plate, wherein in a region on a downstream side with respect to the antenna in a discharging direction where a recording material, on which an image is formed by the image forming portion, is discharged from a discharging port of the image forming apparatus, an upper end of the first metal side plate is located at a position vertically lower than the antenna, and a resin support portion connected to the first metal side plate is disposed in the region such that the resin support portion supports the top cover, and the antenna and the resin support portion are disposed along the upper end of the first metal side plate, and wherein the wireless communication board is held on the top cover.
An engineered Gram-negative bacterium for the production of a recombinant glycoprotein, wherein the Gram-negative bacterium comprises (a) glycosyltransferases for producing a capsular polysaccharide of a Gram-positive bacterium (b) an oligosaccharyl transferase which is heterologous to the Gram-negative bacterium, and (c) nucleic acid encoding a carrier protein comprising a consensus sequence for glycosylation, wherein a gene encoding a Gtr enzyme of the Gram-negative bacterium is functionally inactivated.
A method for removing a 2-alkoxyethanol, comprising the steps of adding one or more azeotropic solvent selected from the group consisting of alkanes having 7 to 8 carbon atoms and cycloalkanes having 7 to 8 carbon atoms to a mixture containing the 2-alkoxyethanol represented by the following formula R-O-CH 2 CH 2 OH wherein R represents an alkyl group having 1 to 4 carbon atoms, and a (2-alkoxyethyl) vinyl ether represented by the following formula R-O-CH 2 CH 2 O-CH=CH 2 wherein R has the same meaning as R in the formula , and subjecting the resulting mixture to azeotropic distillation.
Flush-mounted LED luminaire for electrical and mechanical connection in a commercially available flush-mounted device box, - comprising a setting device (7 - 11) for predefining a desired light intensity, by which either the current fed to an LED module of the flush-mounted LED luminaire is settable or by means of which, in the case of an LED module of the flush-mounted LED luminaire having at least two LEDs (17 - 20), at least one of the LEDs (17 - 20) is separately switchable on/off or respectively electrically bridgeable, characterized by - a device base comprising a converter including a primary connection for the connection of 230 V mains lines and a secondary connection for connecting the LED module , wherein - a supporting plate extends over the entire front surface of the device base and has only one cutout for feeding through electrical connections between the device base and the LED module , and wherein - the LED module has a plug device . - comprising a setting device (7 - 11) for predefining a desired light intensity, by which either the current fed to an LED module of the flush-mounted LED luminaire is settable or by means of which, in the case of an LED module of the flush-mounted LED luminaire having at least two LEDs (17 - 20), at least one of the LEDs (17 - 20) is separately switchable on/off or respectively electrically bridgeable, characterized by - a device base comprising a converter including a primary connection for the connection of 230 V mains lines and a secondary connection for connecting the LED module , wherein - a supporting plate extends over the entire front surface of the device base and has only one cutout for feeding through electrical connections between the device base and the LED module , and wherein - the LED module has a plug device .
An axial position-controlled operation toolstring for conducting an axial position-controlled operation for releasing a pipe component in a well, comprising from below and up: - a casing cutter tool comprising knives ; - a tag sub with tag dogs arranged for landing on a protrusion in said well - a pipe spear ; - a drill pipe string , wherein said knives of said casing cutter tool are spaced out a predetermined initial distance (L) below the tag dogs of the tag sub . said pipe component is a polished bore receptacle , and the knives are arranged to cut slips and/or a slips lock of said polished bore receptacle thus freeing said polished bore receptacle , and wherein said tag dogs of said tag sub are arranged for being collapsible by weight loading against said protrusion , wherein said tag sub comprises a mandrel and said tag sub's tag dogs are arranged in and protruding from slots in the mandrel , said tag dogs are arranged for collapsing into said slots when weight-loaded on said protrusion wherein said tag dogs are fixed in said mandrel with shear pins arranged for being sheared out by said weight loading against said protrusion so as for said tag dogs to slide upwardly and inwardly in said slots . - a casing cutter tool comprising knives ; - a tag sub with tag dogs arranged for landing on a protrusion in said well - a pipe spear ; - a drill pipe string , wherein said knives of said casing cutter tool are spaced out a predetermined initial distance (L) below the tag dogs of the tag sub . said pipe component is a polished bore receptacle , and the knives are arranged to cut slips and/or a slips lock of said polished bore receptacle thus freeing said polished bore receptacle , and wherein said tag dogs of said tag sub are arranged for being collapsible by weight loading against said protrusion , wherein said tag sub comprises a mandrel and said tag sub's tag dogs are arranged in and protruding from slots in the mandrel , said tag dogs are arranged for collapsing into said slots when weight-loaded on said protrusion wherein said tag dogs are fixed in said mandrel with shear pins arranged for being sheared out by said weight loading against said protrusion so as for said tag dogs to slide upwardly and inwardly in said slots . wherein said knives of said casing cutter tool are spaced out a predetermined initial distance (L) below the tag dogs of the tag sub . said pipe component is a polished bore receptacle , and the knives are arranged to cut slips and/or a slips lock of said polished bore receptacle thus freeing said polished bore receptacle , and wherein said tag dogs of said tag sub are arranged for being collapsible by weight loading against said protrusion , wherein said tag sub comprises a mandrel and said tag sub's tag dogs are arranged in and protruding from slots in the mandrel , said tag dogs are arranged for collapsing into said slots when weight-loaded on said protrusion wherein said tag dogs are fixed in said mandrel with shear pins arranged for being sheared out by said weight loading against said protrusion so as for said tag dogs to slide upwardly and inwardly in said slots .
A textile thread configured to enable fluid flow therethrough, the textile thread comprising an elongate member having a cavity portion therein, wherein a wall of the elongate member includes one or more ports therein, thereby providing a fluid flow path from the cavity portion through the wall of the elongate member, wherein one or more individual fibres are disposed around the elongate member having a depth, characterised in that the ports are defined by nodules extending outwardly generally perpendicular to the longitudinal length of the elongate member, wherein the nodules extend beyond the circumferential edge of the elongate member and extend through at least a portion of the depth of the one or more individual fibres wrapped around the elongate member .
A fluid collection device comprising: a) a housing comprising an inlet and an outlet , the inlet located at a proximal end of the housing and the outlet located at a distal end of the housing; b) a reservoir positioned within the housing at the proximal end of the housing; c) a plurality of channel dividers positioned within the housing between the reservoir and the distal end of the housing, the plurality of channel dividers having a proximal end and a distal end; wherein the plurality of channel dividers define a plurality of fluid channels within the housing; and d) a liquid collection region positioned within the housing between the distal end of the plurality of channel dividers and the distal end of the housing; wherein the housing comprises one or more fluid passageways connecting the inlet and the outlet through the interior of the housing; and wherein the reservoir , the plurality of channels , and the liquid collection region are in fluid communication within the one or more fluid passageways in the housing, characterized in that the fluid collection device is configured to collect liquid from a fluid comprising liquid and air, and then release the collected liquid as a slug. a) a housing comprising an inlet and an outlet , the inlet located at a proximal end of the housing and the outlet located at a distal end of the housing; b) a reservoir positioned within the housing at the proximal end of the housing; c) a plurality of channel dividers positioned within the housing between the reservoir and the distal end of the housing, the plurality of channel dividers having a proximal end and a distal end; wherein the plurality of channel dividers define a plurality of fluid channels within the housing; and d) a liquid collection region positioned within the housing between the distal end of the plurality of channel dividers and the distal end of the housing;
A light emitting device , comprising: a package constituted by a molded article and first and second leads , the first and second leads being each embedded in the molded article , the package formed in a substantially cuboid shape; and a light emitting element installed in the package , wherein the package includes a bottom face , a top face opposite to the bottom face , a light emission face contiguous with the bottom face and the top face , a rear face opposite to the light emission face , a first side face (20E1) contiguous with the bottom face , the top face and the light emission face , and a second side face (20E2) opposite to the first side face (20E1), the first lead has a first terminal component , exposed from the molded article at a boundary between the first side face (20E1), the bottom face , and the rear face of the package, the second lead has a second terminal component , exposed from the molded article at a boundary between the second side face (20E2), the bottom face , and the rear face , the first terminal component having a first terminal concavity , continuously opening on the first side face (20E1), the bottom face , and the rear face , the second terminal component having a second terminal concavity , continuously opening on the second side face (20E2), the bottom face , and the rear face characterized in that the molded article covers a light emission face side and a top face side of the first terminal component , and the molded article covers a light emission face side and a top face side of the second terminal component . a package constituted by a molded article and first and second leads , the first and second leads being each embedded in the molded article , the package formed in a substantially cuboid shape; and a light emitting element installed in the package , wherein the package includes a bottom face , a top face opposite to the bottom face , a light emission face contiguous with the bottom face and the top face , a rear face opposite to the light emission face , a first side face (20E1) contiguous with the bottom face , the top face and the light emission face , and a second side face (20E2) opposite to the first side face (20E1), the first lead has a first terminal component , exposed from the molded article at a boundary between the first side face (20E1), the bottom face , and the rear face of the package, the second lead has a second terminal component , exposed from the molded article at a boundary between the second side face (20E2), the bottom face , and the rear face , the first terminal component having a first terminal concavity , continuously opening on the first side face (20E1), the bottom face , and the rear face , the second terminal component having a second terminal concavity , continuously opening on the second side face (20E2), the bottom face , and the rear face characterized in that the molded article covers a light emission face side and a top face side of the first terminal component , and the molded article covers a light emission face side and a top face side of the second terminal component .
A composition comprising a mitochondrial iron chelator for use in a method for treating chronic obstructive pulmonary disease (COPD).