mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a distributed engine control network for an aircraft ; an inner control loop controller ; an actuator configured to adjust a position of a component of an aircraft engine ; an inner control loop sensor , wherein the inner control loop controller is configured to control the position of the component via data communicated over the distributed engine control network in an inner control loop , the inner control loop comprising sensor data received from the inner control loop sensor and actuator data transmitted to the actuator ; an outer control loop controller ; and an outer control loop sensor configured to detect a control variable of the aircraft engine , wherein the outer control loop controller is configured to control the position of the component of the aircraft engine via encrypted data communicated over the distributed engine control network in an outer control loop , the outer control loop comprising a value of the control variable received from the outer control loop sensor and position data transmitted to the inner control loop controller from the outer control loop controller , wherein the data communicated in the inner control loop is unencrypted or encrypted with weaker encryption than the encrypted data in the outer control loop . a distributed engine control network for an aircraft ; an inner control loop controller ; an actuator configured to adjust a position of a component of an aircraft engine ; an inner control loop sensor , wherein the inner control loop controller is configured to control the position of the component via data communicated over the distributed engine control network in an inner control loop , the inner control loop comprising sensor data received from the inner control loop sensor and actuator data transmitted to the actuator ; an outer control loop controller ; and an outer control loop sensor configured to detect a control variable of the aircraft engine , wherein the outer control loop controller is configured to control the position of the component of the aircraft engine via encrypted data communicated over the distributed engine control network in an outer control loop , the outer control loop comprising a value of the control variable received from the outer control loop sensor and position data transmitted to the inner control loop controller from the outer control loop controller , wherein the data communicated in the inner control loop is unencrypted or encrypted with weaker encryption than the encrypted data in the outer control loop .
An aerosol-generating article for producing an inhalable aerosol upon heating, the aerosol-generating article comprising a plurality of components including an aerosol-forming substrate , wherein: the aerosol-forming substrate is in the form of a hollow tubular segment defining a substrate cavity extending between an upstream end of the aerosol-forming substrate and a downstream end of the aerosol-forming substrate, the aerosol-forming substrate comprises a plurality of thermally conductive particles and an aerosol-former, each of the plurality of thermally conductive particles has a thermal conductivity greater than 0.3 W/(mK) in at least one direction at 25 degrees Celsius, and the substrate is in the form of a tube having an outer diameter and an inner diameter, the inner diameter being between 2.5 mm and 19 mm. the aerosol-forming substrate is in the form of a hollow tubular segment defining a substrate cavity extending between an upstream end of the aerosol-forming substrate and a downstream end of the aerosol-forming substrate, the aerosol-forming substrate comprises a plurality of thermally conductive particles and an aerosol-former, each of the plurality of thermally conductive particles has a thermal conductivity greater than 0.3 W/(mK) in at least one direction at 25 degrees Celsius, and the substrate is in the form of a tube having an outer diameter and an inner diameter, the inner diameter being between 2.5 mm and 19 mm.
Process for deacidification of a gaseous effluent comprising at least one acidic compound from the group consisting of hydrogen sulfide (H 2 S), mercaptans, carbon dioxide (CO 2 ), sulfur dioxide (SO 2 ), carbonyl sulfide (COS) and carbon disulfide (CS 2 ), in which the following steps are carried out: a) the gaseous effluent is contacted with an absorbent solution so as to obtain a gaseous effluent depleted in acidic compounds and an absorbent solution laden with acidic compounds, the absorbent solution being chosen for its property of forming two separable phases when it absorbs a determined amount of acidic compounds: a first phase rich in acidic compounds, a second phase poor in acidic compounds; said absorbent solution comprising a reactive compound that reacts with at least one of said acidic compounds and is chosen from the group consisting of amines, and a solvation compound which is water, b) the absorbent solution laden with acidic compounds is separated into two fractions: a first fraction of absorbent solution depleted in acidic compounds and a second fraction of absorbent solution enriched in acidic compounds, c) only the second fraction is regenerated so as to release a portion of the acidic compounds, d) the first fraction of absorbent solution obtained in step b) and the regenerated absorbent solution obtained in step c) are recycled to step a) as absorbent solution. a) the gaseous effluent is contacted with an absorbent solution so as to obtain a gaseous effluent depleted in acidic compounds and an absorbent solution laden with acidic compounds, the absorbent solution being chosen for its property of forming two separable phases when it absorbs a determined amount of acidic compounds: a first phase rich in acidic compounds, a second phase poor in acidic compounds; said absorbent solution comprising a reactive compound that reacts with at least one of said acidic compounds and is chosen from the group consisting of amines, and a solvation compound which is water, b) the absorbent solution laden with acidic compounds is separated into two fractions: a first fraction of absorbent solution depleted in acidic compounds and a second fraction of absorbent solution enriched in acidic compounds, c) only the second fraction is regenerated so as to release a portion of the acidic compounds, d) the first fraction of absorbent solution obtained in step b) and the regenerated absorbent solution obtained in step c) are recycled to step a) as absorbent solution.
A bead-apex assembly system , comprising: a bead forming system comprising a bead former , wherein the bead forming system is adapted to form an annular bead ring on the bead former ; an apex application system ; a supporting assembly (50A located at least partially between the bead forming system and the apex application system; and a separation system adapted to unload the annular bead ring from the bead former and to position the bead ring for loading onto the supporting assembly ; wherein the supporting assembly has at least one chuck and is configured so as in use to move the annular bead ring, having been unloaded from the bead former and loaded onto the chuck of the supporting assembly, from the bead forming system to the apex application system. a bead forming system comprising a bead former , wherein the bead forming system is adapted to form an annular bead ring on the bead former ; an apex application system ; a supporting assembly (50A located at least partially between the bead forming system and the apex application system; and a separation system adapted to unload the annular bead ring from the bead former and to position the bead ring for loading onto the supporting assembly ; wherein the supporting assembly has at least one chuck and is configured so as in use to move the annular bead ring, having been unloaded from the bead former and loaded onto the chuck of the supporting assembly, from the bead forming system to the apex application system.
A door frame for a vehicle, comprising: a vertical portion to be fixed to an upper end portion of a door body and extending in an upward direction of the vehicle; a main frame portion connected to an upper end of the vertical portion and to be fixed to the upper end portion of the door body while extending in a forward or rearward direction of the vehicle; the vertical portion including an envelope portion serving as a main portion of the vertical portion and opening in an outward direction of the vehicle, and a fixing portion to which a holding member is fixed for holding a glass run together with the envelope portion , the envelope portion including a bottom wall positioned at a vehicle inner side, an outer wall extending in the outward direction of the vehicle from an end portion of the bottom wall at an outer side of the door frame , and an inner wall extending in the outward direction of the vehicle from an end portion of the bottom wall at an inner side of the door frame , and the width of the bottom wall in a longitudinal direction of the vehicle being greater in a vicinity of the door body than at an upper end side of the vertical portion , characterized in that the envelope portion includes a first rib formed to project in the outward direction of the vehicle. a vertical portion to be fixed to an upper end portion of a door body and extending in an upward direction of the vehicle; a main frame portion connected to an upper end of the vertical portion and to be fixed to the upper end portion of the door body while extending in a forward or rearward direction of the vehicle; the vertical portion including an envelope portion serving as a main portion of the vertical portion and opening in an outward direction of the vehicle, and a fixing portion to which a holding member is fixed for holding a glass run together with the envelope portion , the envelope portion including a bottom wall positioned at a vehicle inner side, an outer wall extending in the outward direction of the vehicle from an end portion of the bottom wall at an outer side of the door frame , and an inner wall extending in the outward direction of the vehicle from an end portion of the bottom wall at an inner side of the door frame , and the width of the bottom wall in a longitudinal direction of the vehicle being greater in a vicinity of the door body than at an upper end side of the vertical portion , characterized in that the envelope portion includes a first rib formed to project in the outward direction of the vehicle.
A vehicle having a battery mounted thereon, the battery comprising: a cell group having a plurality of cells , each of the cells including an electrolytic solution and a power-generating element within a case of cylindrical shape; and a holding member having a plurality of through holes inserted each of the cells , and holding each of the cells in a diameter direction of the cell via the through hole, wherein the cell group is placed in an area inside an edge , of the holding member when viewed from a height direction of the vehicle , characterized in that the holding member is formed in a flat plate shape, the battery is fixed to a battery case made from metal, all of the cells included in the cell group are electrically connected in parallel, each of the cells is oriented such that an axial direction orthogonal to the diameter direction matches the height direction of the vehicle , wherein a positive electrode of the cell is located at a higher level and a negative electrode of the cell is located at a lower level in the height direction of the vehicle , the holding member is made from metal and is a heat dissipation plate allowing heat exchange between the cells , each of the cells of the cell group is not covered with the holding member in a portion other than a portion covered with the through hole, the holding member is fixed to the battery case in a state where the bottom surface of the holding member is in contact to the battery case , and a gasket is arranged in a positive electrode terminal of the cell . a cell group having a plurality of cells , each of the cells including an electrolytic solution and a power-generating element within a case of cylindrical shape; and a holding member having a plurality of through holes inserted each of the cells , and holding each of the cells in a diameter direction of the cell via the through hole, wherein the cell group is placed in an area inside an edge , of the holding member when viewed from a height direction of the vehicle , characterized in that the holding member is formed in a flat plate shape, the battery is fixed to a battery case made from metal, all of the cells included in the cell group are electrically connected in parallel, each of the cells is oriented such that an axial direction orthogonal to the diameter direction matches the height direction of the vehicle , wherein a positive electrode of the cell is located at a higher level and a negative electrode of the cell is located at a lower level in the height direction of the vehicle , the holding member is made from metal and is a heat dissipation plate allowing heat exchange between the cells , each of the cells of the cell group is not covered with the holding member in a portion other than a portion covered with the through hole, the holding member is fixed to the battery case in a state where the bottom surface of the holding member is in contact to the battery case , and a gasket is arranged in a positive electrode terminal of the cell .
A computer-implemented method of obtaining access to network resources for a mobile device, the method comprising: receiving a request , at an authentication and authorization function, AAF, from a Radio Access Network, RAN, device, for access for a mobile device; authenticating, at the AAF, the mobile device ; responsive to failing authorization to access any of a plurality of virtual networks, authorizing at the AAF, the mobile device to access a limited access service ; wherein the plurality of virtual networks is established through a plurality of core networks each connected to the RAN; wherein the method is executed by an AAF of the RAN network. receiving a request , at an authentication and authorization function, AAF, from a Radio Access Network, RAN, device, for access for a mobile device; authenticating, at the AAF, the mobile device ; responsive to failing authorization to access any of a plurality of virtual networks, authorizing at the AAF, the mobile device to access a limited access service ; wherein the plurality of virtual networks is established through a plurality of core networks each connected to the RAN; wherein the method is executed by an AAF of the RAN network.
A heater panel comprising: a core ; a heater/dielectric layer including a positive thermal coefficient, PTC, heater layer between a pair of dielectric layers ; and a structural facing , characterised in that the heater/dielectric layer is bonded directly between the core and the structural facing ; and in that the core , heater/dielectric layer , and structural facing are contoured out of plane. a core ; a heater/dielectric layer including a positive thermal coefficient, PTC, heater layer between a pair of dielectric layers ; and a structural facing , characterised in that the heater/dielectric layer is bonded directly between the core and the structural facing ; and in that the core , heater/dielectric layer , and structural facing are contoured out of plane.
A surgical system, comprising: a surgical instrument; a replaceable staple cartridge , comprising: a cartridge body comprising a cartridge deck; staples removably positioned in said cartridge body ; a first RFID tag comprising a first set of information; and a sled comprising a second RFID tag comprising a second set of information, wherein said sled is configured to drive said staples out of said cartridge body during a staple firing stroke, wherein said first set of information and said second set of information collectively form a unique combination, and wherein said unique combination is representative of said replaceable staple cartridge ; an RFID scanner configured to receive said first set of information and said second set of information; a controller in communication with said RFID scanner; and a remote storage system comprising a set of compatible combinations , wherein said remote storage system compares said unique combination to said set of compatible combinations to determine if said replaceable staple cartridge is compatible for use with said surgical instrument, and wherein said controller prevents at least one operation of said surgical instrument if said controller determines that said replaceable staple cartridge is not compatible for use with said surgical instrument. a surgical instrument; a replaceable staple cartridge , comprising: a cartridge body comprising a cartridge deck; staples removably positioned in said cartridge body ; a first RFID tag comprising a first set of information; and a sled comprising a second RFID tag comprising a second set of information, wherein said sled is configured to drive said staples out of said cartridge body during a staple firing stroke, wherein said first set of information and said second set of information collectively form a unique combination, and wherein said unique combination is representative of said replaceable staple cartridge ; a cartridge body comprising a cartridge deck; staples removably positioned in said cartridge body ; a first RFID tag comprising a first set of information; and a sled comprising a second RFID tag comprising a second set of information, wherein said sled is configured to drive said staples out of said cartridge body during a staple firing stroke, wherein said first set of information and said second set of information collectively form a unique combination, and wherein said unique combination is representative of said replaceable staple cartridge ; an RFID scanner configured to receive said first set of information and said second set of information; a controller in communication with said RFID scanner; and a remote storage system comprising a set of compatible combinations , wherein said remote storage system compares said unique combination to said set of compatible combinations to determine if said replaceable staple cartridge is compatible for use with said surgical instrument, and wherein said controller prevents at least one operation of said surgical instrument if said controller determines that said replaceable staple cartridge is not compatible for use with said surgical instrument.
An aerosol-generating device, comprising: a housing having a chamber configured to receive at least a portion of an aerosol-generating article; an induction heater for heating an aerosol-generating article received within the chamber of the housing, the induction heater comprising an induction coil and a heating element, wherein the heating element is arrangeable within the induction coil, wherein the induction coil is movable relative to the chamber of the housing; and wherein the induction coil and the heating element are moveable with respect to each other between at least a first operable position and a second operable position, wherein in the first operable position, a first portion of the heating element is surrounded by the induction coil, and wherein in the second operable position, a second portion of the heating element is surrounded by the induction coil, wherein the first and second portions of the heating element do not overlap. a housing having a chamber configured to receive at least a portion of an aerosol-generating article; an induction heater for heating an aerosol-generating article received within the chamber of the housing, the induction heater comprising an induction coil and a heating element, wherein the heating element is arrangeable within the induction coil, wherein the induction coil is movable relative to the chamber of the housing; and wherein the induction coil and the heating element are moveable with respect to each other between at least a first operable position and a second operable position, wherein in the first operable position, a first portion of the heating element is surrounded by the induction coil, and wherein in the second operable position, a second portion of the heating element is surrounded by the induction coil, wherein the first and second portions of the heating element do not overlap.
An integrated laser wire additive deposition head, the deposition head comprising: a structural frame ; a laser process sub-system , including a laser focusing device , mounted within the frame and configured to deliver a single beam path laser beam in a longitudinally-oriented direction toward a substrate or a part to be additively manufactured; and a wire feeding device mounted within the frame and configured to feed a consumable filler wire toward the substrate or the part , wherein the deposition head is configured to be moved omni-directionally with respect to the substrate or part under guidance of a motion control system, to additively manufacture the part, without having to: angularly change an orientation of the single beam path laser beam from the longitudinally-oriented direction, or rotate the deposition head ; characterized in that the integrated laser wire additive deposition head is an integrated laser hotwire additive deposition head and comprises a contact tube for resistance heating the consumable filler wire; and in that the wire feeding device and the contact tube are configured to feed the consumable filler wire towards the substrate or the part at an angle of between 1° and 30° with respect to the longitudinally-oriented direction. a structural frame ; a laser process sub-system , including a laser focusing device , mounted within the frame and configured to deliver a single beam path laser beam in a longitudinally-oriented direction toward a substrate or a part to be additively manufactured; and a wire feeding device mounted within the frame and configured to feed a consumable filler wire toward the substrate or the part , wherein the deposition head is configured to be moved omni-directionally with respect to the substrate or part under guidance of a motion control system, to additively manufacture the part, without having to: angularly change an orientation of the single beam path laser beam from the longitudinally-oriented direction, or rotate the deposition head ; characterized in that the integrated laser wire additive deposition head is an integrated laser hotwire additive deposition head and comprises a contact tube for resistance heating the consumable filler wire; and in that the wire feeding device and the contact tube are configured to feed the consumable filler wire towards the substrate or the part at an angle of between 1° and 30° with respect to the longitudinally-oriented direction. angularly change an orientation of the single beam path laser beam from the longitudinally-oriented direction, or rotate the deposition head ; characterized in that the integrated laser wire additive deposition head is an integrated laser hotwire additive deposition head and comprises a contact tube for resistance heating the consumable filler wire; and
A binder composition comprising - 50 to 70% by weight of an acrylate ester of an epoxy-novolac resin, - 30 to 49% by weight of mono-, di- or trifunctional acrylates, - 0.1 to 2% by weight of a starter, - 0 to 10% by weight of other auxiliaries, wherein said binder composition essentially has no components that have a boiling point below 200°C under normal pressure. - 50 to 70% by weight of an acrylate ester of an epoxy-novolac resin, - 30 to 49% by weight of mono-, di- or trifunctional acrylates, - 0.1 to 2% by weight of a starter, - 0 to 10% by weight of other auxiliaries,