mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: establishing, by a protocol agent, a virtual connection for communication between a client router, of a plurality of client routers associated with a user account, and a virtual gateway controller, wherein the virtual connection comprises a bi-directional connection to the virtual gateway controller, and a uni-directional connection to the client router; receiving, by the protocol agent and from the client router, a configuration data message in a first protocol associated with the client router; buffering, by the protocol agent and during the receiving, one or more messages from the virtual gateway controller for transmission via the uni-directional connection to the client router; determining, by the protocol agent, that the virtual gateway controller is configured to manage at least one configuration setting for the plurality of client routers; generating, by the protocol agent and based on the configuration data message, a configuration update message in a second protocol associated with the virtual gateway controller; and sending, by the protocol agent and through the virtual connection, the configuration update message to the virtual gateway controller, wherein the sending causes the virtual gateway controller to update, based on the configuration update message, an entry corresponding to the at least one configuration setting in a database of the virtual gateway controller; and sending, by the protocol agent and upon the uni-directional connection to the client router becoming available, the buffered messages to the client router. establishing, by a protocol agent, a virtual connection for communication between a client router, of a plurality of client routers associated with a user account, and a virtual gateway controller, wherein the virtual connection comprises a bi-directional connection to the virtual gateway controller, and a uni-directional connection to the client router; receiving, by the protocol agent and from the client router, a configuration data message in a first protocol associated with the client router; buffering, by the protocol agent and during the receiving, one or more messages from the virtual gateway controller for transmission via the uni-directional connection to the client router; determining, by the protocol agent, that the virtual gateway controller is configured to manage at least one configuration setting for the plurality of client routers; generating, by the protocol agent and based on the configuration data message, a configuration update message in a second protocol associated with the virtual gateway controller; and sending, by the protocol agent and through the virtual connection, the configuration update message to the virtual gateway controller, wherein the sending causes the virtual gateway controller to update, based on the configuration update message, an entry corresponding to the at least one configuration setting in a database of the virtual gateway controller; and sending, by the protocol agent and upon the uni-directional connection to the client router becoming available, the buffered messages to the client router.
An enzyme composition for saccharifying a mannan-containing cellulosic material at a temperature in the range from 30°C to 65°C comprising one or more endoglucanases, one or more cellobiohydrolases, one or more beta-glucosidases, at least one beta-mannosidase, and at least one mannanase, wherein the mannanase is the mannanase shown as SEQ ID NO: 34 or or a mannanase having a sequence identity of at least 80% to SEQ ID NO: 34.
Aqueous composition for colouring keratin fibres especially human hair characterised in that it comprises at least one hair dye, at least one oxidizing agent and at least one dispersed particles of a water insoluble polymer which is a styrene-acrylates copolymer.
A wireless receiver (410, 420) for a distributed antenna diversity receiver apparatus; the wireless receiver comprising: a pre-combining component arranged to receive a radio frequency, RF, signal from an antenna (415, 425) and to recover and output an information signal contained within the received RF signal, and a combined-signal component arranged to, when the wireless receiver is configured to operate in a master receiver role, receive the recovered information signal output by the pre-combining component of the wireless receiver and at least one further recovered information signal from at least one further wireless receiver, and to perform diversity combining of the recovered information signals to obtain and output an enhanced information signal; wherein the wireless receiver further comprises a monitoring component arranged to: receive intra-packet channel reliability parameters for the wireless receiver and for the at least one further wireless receiver, determine whether to assign a new master receiver for the distributed antenna diversity receiver apparatus based on the received intra-packet reliability parameters, and if it is determined to assign a new master receiver, dynamically re-assign the master receiver within the distributed antenna diversity receiver apparatus; characterized in that the monitoring component is arranged to determine whether to assign a new master receiver for the distributed antenna diversity receiver apparatus every n symbols of a data packet being received, where n ≥ 1. a pre-combining component arranged to receive a radio frequency, RF, signal from an antenna (415, 425) and to recover and output an information signal contained within the received RF signal, and a combined-signal component arranged to, when the wireless receiver is configured to operate in a master receiver role, receive the recovered information signal output by the pre-combining component of the wireless receiver and at least one further recovered information signal from at least one further wireless receiver, and to perform diversity combining of the recovered information signals to obtain and output an enhanced information signal; receive intra-packet channel reliability parameters for the wireless receiver and for the at least one further wireless receiver, determine whether to assign a new master receiver for the distributed antenna diversity receiver apparatus based on the received intra-packet reliability parameters, and if it is determined to assign a new master receiver, dynamically re-assign the master receiver within the distributed antenna diversity receiver apparatus; characterized in that the monitoring component is arranged to determine whether to assign a new master receiver for the distributed antenna diversity receiver apparatus every n symbols of a data packet being received, where n ≥ 1.
A fused filament fabrication device, the device comprising: - a print head having an inlet for receiving a filament of printable material, a melt chamber and an outlet for letting out flowable printable material; - a filament feeder arranged to feed the filament into the print head and arranged to retract the filament from the print head; - a controller configured to control heating of the melt chamber and to control the filament feeder, wherein the controller is configured to: a) order the filament feeder to retract the filament over a first distance, wherein the filament is not yet broken; b) stop heating the melt chamber; c) cooling the filament to a predefined temperature, and then d) order the filament feeder to further retract the filament over a second distance so as to break the filament. - a print head having an inlet for receiving a filament of printable material, a melt chamber and an outlet for letting out flowable printable material; - a filament feeder arranged to feed the filament into the print head and arranged to retract the filament from the print head; - a controller configured to control heating of the melt chamber and to control the filament feeder, wherein the controller is configured to: a) order the filament feeder to retract the filament over a first distance, wherein the filament is not yet broken; b) stop heating the melt chamber; c) cooling the filament to a predefined temperature, and then d) order the filament feeder to further retract the filament over a second distance so as to break the filament. a) order the filament feeder to retract the filament over a first distance, wherein the filament is not yet broken; b) stop heating the melt chamber; c) cooling the filament to a predefined temperature, and then d) order the filament feeder to further retract the filament over a second distance so as to break the filament.
An antenna device, comprising: a first shorting element and a second shorting element, electrically connected to a ground plane; a first radiation element, having a feeding point and disposed between the first shorting element and the second shorting element; a second radiation element, electrically connected between the first radiation element and the first shorting element; and a third radiation element, electrically connected between the first radiation element and the second shorting element, wherein the first to third radiation elements, the first shorting element and the second shorting element form two antenna elements disposed in parallel and the antenna device is configured to operate in a first frequency band and a second frequency band, wherein the first to third radiation elements are respectively a rectangular metal sheet, and a length of the first radiation element is 1/2 wavelength of the first frequency band, and lengths of the second radiation element and the third radiation element are respectively 1/4 wavelength of the second frequency band. a first shorting element and a second shorting element, electrically connected to a ground plane; a first radiation element, having a feeding point and disposed between the first shorting element and the second shorting element; a second radiation element, electrically connected between the first radiation element and the first shorting element; and a third radiation element, electrically connected between the first radiation element and the second shorting element, wherein the first to third radiation elements, the first shorting element and the second shorting element form two antenna elements disposed in parallel and the antenna device is configured to operate in a first frequency band and a second frequency band, wherein the first to third radiation elements are respectively a rectangular metal sheet, and a length of the first radiation element is 1/2 wavelength of the first frequency band, and lengths of the second radiation element and the third radiation element are respectively 1/4 wavelength of the second frequency band.
A method for detecting a target analyte in a test sample, said method comprising: (a) providing a solid support comprising an electrode comprising: (i) a self-assembled monolayer; (ii) a covalently attached electroactive moiety comprising a transition metal complex, a self-immolative moiety, and a peroxide sensitive moiety, wherein said EAM has a first E 0 when said self-immolative moiety is present; and (iii) a capture binding ligand that binds said target analyte; (b) contacting said target analyte and said solid support, under conditions wherein said target analyte binds said capture binding ligand to form a first complex; (c) contacting said first complex with a soluble capture ligand that binds said target analyte wherein said soluble capture ligand comprises an enzyme that catalyzes the generation of a cofactor from a phosphorylated precursor cofactor for a soluble apo-oxidase enzyme to form a second complex; (d) adding said phosphorylated precursor cofactor, said soluble apo-oxidase enzyme and a substrate of the soluble apo-oxidase enzyme to said second complex under conditions that peroxide is generated and said self-immolative moiety is removed such that said EAM has a second E 0 when said self-immolative moiety is absent; and (e) detecting for a change between the first E 0 and the second E 0 of said EAM, wherein said change is an indication of the presence of said target analyte. (a) providing a solid support comprising an electrode comprising: (i) a self-assembled monolayer; (ii) a covalently attached electroactive moiety comprising a transition metal complex, a self-immolative moiety, and a peroxide sensitive moiety, wherein said EAM has a first E 0 when said self-immolative moiety is present; and (iii) a capture binding ligand that binds said target analyte; (i) a self-assembled monolayer; (ii) a covalently attached electroactive moiety comprising a transition metal complex, a self-immolative moiety, and a peroxide sensitive moiety, wherein said EAM has a first E 0 when said self-immolative moiety is present; and (iii) a capture binding ligand that binds said target analyte; (b) contacting said target analyte and said solid support, under conditions wherein said target analyte binds said capture binding ligand to form a first complex; (c) contacting said first complex with a soluble capture ligand that binds said target analyte wherein said soluble capture ligand comprises an enzyme that catalyzes the generation of a cofactor from a phosphorylated precursor cofactor for a soluble apo-oxidase enzyme to form a second complex; (d) adding said phosphorylated precursor cofactor, said soluble apo-oxidase enzyme and a substrate of the soluble apo-oxidase enzyme to said second complex under conditions that peroxide is generated and said self-immolative moiety is removed such that said EAM has a second E 0 when said self-immolative moiety is absent; and (e) detecting for a change between the first E 0 and the second E 0 of said EAM, wherein said change is an indication of the presence of said target analyte.
A slant-adjusting unit, comprising: a first spherical plate having a flange connected to a member; a second spherical plate having an inner curved surface in facing relation to an outer curved surface of the first spherical plate; a third spherical plate having an outer curved surface in facing relation to an inner curved surface of the first spherical plate; each of the spherical plates including the first, second and third spherical plates having a circular hole (211, 221 or 231) at the center thereof in order to receive a shaft portion of a bolt; the first spherical plate, into which the shaft portion of the bolt is inserted, slidably provided between the second spherical plate and the third spherical plate; the first spherical plate being fixed and held by the second spherical plate and the third spherical plate as a result of tightening up each other; and the bolt passing through the first spherical plate, the second spherical plate, and the third spherical plate, being connected to a female screw in a column portion having a shaft pedestal having an end surface in facing relation to an outer curved surface of the second spherical plate. a first spherical plate having a flange connected to a member; a second spherical plate having an inner curved surface in facing relation to an outer curved surface of the first spherical plate; a third spherical plate having an outer curved surface in facing relation to an inner curved surface of the first spherical plate; each of the spherical plates including the first, second and third spherical plates having a circular hole (211, 221 or 231) at the center thereof in order to receive a shaft portion of a bolt; the first spherical plate, into which the shaft portion of the bolt is inserted, slidably provided between the second spherical plate and the third spherical plate; the first spherical plate being fixed and held by the second spherical plate and the third spherical plate as a result of tightening up each other; and the bolt passing through the first spherical plate, the second spherical plate, and the third spherical plate, being connected to a female screw in a column portion having a shaft pedestal having an end surface in facing relation to an outer curved surface of the second spherical plate.
A system, comprising: a focal plane array, FPA of an infrared camera configured to capture thermal image data in response to infrared radiation received by the FPA via a first optical path (150, 160) of the infrared camera; a memory configured to store a set of supplemental flat field correction, SFFC, values; and a processor configured to: determine the set of SFFC values based on a set of FFC values; determine a temperature of at least one internal component (104, 105, 110, 116, 170) of the infrared camera; determine a scale factor based on the temperature and/or a rate of temperature change of the at least one internal component; apply filter to the set of SFFC values to obtain a filtered set of SFFC values; generate a scaled set of SFFC values based on the scale factor and the filtered set of SFFC values; and generate, based on the scaled set of SFFC values, the set of FFC values, and the thermal image data, corrected thermal image data to account for non-uniformities associated with optics (116, 170) of the first optical path characterized in that the filter applied to the set of SFFC values is an edge-aware low pass filter. a focal plane array, FPA of an infrared camera configured to capture thermal image data in response to infrared radiation received by the FPA via a first optical path (150, 160) of the infrared camera; a memory configured to store a set of supplemental flat field correction, SFFC, values; and a processor configured to: determine the set of SFFC values based on a set of FFC values; determine a temperature of at least one internal component (104, 105, 110, 116, 170) of the infrared camera; determine a scale factor based on the temperature and/or a rate of temperature change of the at least one internal component; apply filter to the set of SFFC values to obtain a filtered set of SFFC values; generate a scaled set of SFFC values based on the scale factor and the filtered set of SFFC values; and generate, based on the scaled set of SFFC values, the set of FFC values, and the thermal image data, corrected thermal image data to account for non-uniformities associated with optics (116, 170) of the first optical path characterized in that the filter applied to the set of SFFC values is an edge-aware low pass filter. determine the set of SFFC values based on a set of FFC values; determine a temperature of at least one internal component (104, 105, 110, 116, 170) of the infrared camera; determine a scale factor based on the temperature and/or a rate of temperature change of the at least one internal component; apply filter to the set of SFFC values to obtain a filtered set of SFFC values; generate a scaled set of SFFC values based on the scale factor and the filtered set of SFFC values; and generate, based on the scaled set of SFFC values, the set of FFC values, and the thermal image data, corrected thermal image data to account for non-uniformities associated with optics (116, 170) of the first optical path characterized in that the filter applied to the set of SFFC values is an edge-aware low pass filter.
A seat leg assembly for a passenger seat, the assembly comprising: a brace member configured to extend from a front end of a base frame of the passenger seat to a rear floor fitting; a front leg configured to extend from a front floor fitting to the brace member and connected to the brace member with a slanted angle; a rear leg portion intended to extend from a rear end of the base frame to the brace member; and a first joint structure connecting the rear leg portion to the brace member; wherein the first joint structure comprises a first axle member for providing a first pivot point for the rear leg portion relative to the brace member and further comprises mating surfaces (114, 116) on the rear leg portion and the brace member respectively to divert a tensile loading of the rear leg portion at the first pivot point through the brace member, the mating surfaces (114, 116) being substantially flat surfaces extending on both sides of a projected location of the first axle member onto the brace member. a brace member configured to extend from a front end of a base frame of the passenger seat to a rear floor fitting; a front leg configured to extend from a front floor fitting to the brace member and connected to the brace member with a slanted angle; a rear leg portion intended to extend from a rear end of the base frame to the brace member; and a first joint structure connecting the rear leg portion to the brace member; wherein the first joint structure comprises a first axle member for providing a first pivot point for the rear leg portion relative to the brace member and further comprises mating surfaces (114, 116) on the rear leg portion and the brace member respectively to divert a tensile loading of the rear leg portion at the first pivot point through the brace member, the mating surfaces (114, 116) being substantially flat surfaces extending on both sides of a projected location of the first axle member onto the brace member.
Internal combustion engine comprising a fresh gas line for supplying fresh gas to working cylinders of the internal combustion engine, wherein a mechanically driven compressor is arranged in a charge air section of the fresh gas line, wherein an air control/shut-off flap is arranged in the charge air section in such a manner that a gas mass flow in the charge air section flows completely or partially via the mechanically driven compressor or past the mechanically driven compressor depending on a position of the air control/shut-off flap and the air control/shut-off flap is arranged and designed in such a manner that said air control/shut-off flap optionally opens or closes a charge air section portion parallel to the mechanically driven compressor between an inlet and an outlet of a bypass duct integrating the mechanically driven compressor, characterized in that the air control/shut-off flap is arranged and designed in such a manner that said air control/shut-off flap optionally opens or closes the inlet or the outlet of the bypass duct integrating the mechanically driven compressor.
A vehicle glazing, said glazing comprising a glazed element, at least one portion of extruded seal, at least one trim having an elongate form which extends along an edge of said glazed element and having an outer face visible from the outside of the vehicle and an inner face situated opposite said outer face, and a core, having an elongate form and having, in cross section, a head and a foot, said core being situated under said trim with at least a part of said head in contact with said inner face of the trim and said foot which protrudes under said trim with at least a part of said foot which is not in contact with said inner face of the trim, said portion of extruded seal, seen in cross section, being in contact with said glazed element, said foot and a part of said outer face of the trim, characterized in that said portion of extruded seal is manufactured by molding a plastic material on said glazed element, on said foot and on a part of said outer face of the trim.
A pressure-limiting device adapted to be installed in a system comprising a first supply line and a second supply line which may comprise pressurized oil and comprising an evacuation and/or a booster line, the limiting device comprising means (131, 132, 133, 134) forming two valves associated respectively with one of the two supply lines (11, 12) and adapted to open in the event of an overpressure above a predetermined threshold on the associated supply line in order to discharge the corresponding overpressure towards the evacuation and/or booster line or towards the other supply line (11, 12), characterized in that the two valves comprise a common support rod which operates in traction under the stress of at least one spring defining a calibration that corresponds to said predetermined threshold.