mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling folding of a wing , the method comprising: receiving a status of a wing fold system comprised by an aircraft , by a wing fold controller comprised by the aircraft ; receiving a command , by the wing fold controller , in response to receiving the status ; operating the wing fold system , by the wing fold controller , based on the command and the status ; transitioning, via a wingtip actuator comprised by the wing fold system , a wingtip of the wing comprised by the aircraft to one of: a flight position of the wing and a folded position of the wing , in response to operating the wing fold system by the wing fold controller ; determining, via the wing fold controller , if a lock of the wing fold system is operational via an attempt to move the wingtip via the wingtip actuator after attempting to engage the lock of the wing fold system in an engaged position ; and, in an event that the wingtip moves in response to the attempt to move the wingtip , communicating a warning. receiving a status of a wing fold system comprised by an aircraft , by a wing fold controller comprised by the aircraft ; receiving a command , by the wing fold controller , in response to receiving the status ; operating the wing fold system , by the wing fold controller , based on the command and the status ; transitioning, via a wingtip actuator comprised by the wing fold system , a wingtip of the wing comprised by the aircraft to one of: a flight position of the wing and a folded position of the wing , in response to operating the wing fold system by the wing fold controller ; determining, via the wing fold controller , if a lock of the wing fold system is operational via an attempt to move the wingtip via the wingtip actuator after attempting to engage the lock of the wing fold system in an engaged position ; and, in an event that the wingtip moves in response to the attempt to move the wingtip , communicating a warning.
A system for providing a remote coverage area for use with a base station signal having a radio frequency and content originating from a base station , the system comprising: a first converter unit to generate data packets comprising payload portions and communicate the data packets over an ETHERNET network ; a second converter unit coupled to the first converter unit over the ETHERNET network to receive the data packets from the ETHERNET network ; wherein the first converter unit is configured to receive the content for the base station signal and generate digital message symbols by performing baseband processing; wherein the first converter unit is configured to communicate the digital message symbols over the ETHERNET network to the second converter unit in the payload portions of the data packets; and wherein the second converter unit is configured to receive the data packets from the ETHERNET network and configured to produce an analog radio frequency version of the base station signal from the digital message symbols, the analog radio frequency version having the radio frequency and the content of the base station signal, wherein the analog RF version is radiated from an antenna associated with the second converter unit to provide the remote coverage area. a first converter unit to generate data packets comprising payload portions and communicate the data packets over an ETHERNET network ; a second converter unit coupled to the first converter unit over the ETHERNET network to receive the data packets from the ETHERNET network ; wherein the first converter unit is configured to receive the content for the base station signal and generate digital message symbols by performing baseband processing; wherein the first converter unit is configured to communicate the digital message symbols over the ETHERNET network to the second converter unit in the payload portions of the data packets; and wherein the second converter unit is configured to receive the data packets from the ETHERNET network and configured to produce an analog radio frequency version of the base station signal from the digital message symbols, the analog radio frequency version having the radio frequency and the content of the base station signal, wherein the analog RF version is radiated from an antenna associated with the second converter unit to provide the remote coverage area.
A method of wireless communication performed by a wireless communication device, comprising: determining a component carrier configuration for a primary cell of the wireless communication device, wherein the wireless communication device is configured for dual connectivity with regard to a 4G/Long Term Evolution, LTE, network and a 5G/New Radio network; and determining a hybrid automatic repeat request, HARQ, timing configuration for a secondary cell of the wireless communication device based at least in part on the component carrier configuration, wherein the primary cell is associated with the LTE network and the secondary cell is associated with the New Radio network or the primary cell is associated with the New Radio network and the secondary cell is associated with the LTE network, and wherein, when the secondary cell is configured for frequency division duplexing, and when the component carrier configuration is used for the secondary cell, the HARQ timing configuration or a scheduling configuration for an uplink or a downlink of the secondary cell is equal to a HARQ timing configuration or a scheduling configuration of the primary cell, and wherein, when the secondary cell is configured for frequency division duplexing, and when the component carrier configuration is not used for the secondary cell, the HARQ timing configuration is a frequency division duplexing uplink configuration. determining a component carrier configuration for a primary cell of the wireless communication device, wherein the wireless communication device is configured for dual connectivity with regard to a 4G/Long Term Evolution, LTE, network and a 5G/New Radio network; and determining a hybrid automatic repeat request, HARQ, timing configuration for a secondary cell of the wireless communication device based at least in part on the component carrier configuration, wherein the primary cell is associated with the LTE network and the secondary cell is associated with the New Radio network or the primary cell is associated with the New Radio network and the secondary cell is associated with the LTE network, and wherein, when the secondary cell is configured for frequency division duplexing, and when the component carrier configuration is used for the secondary cell, the HARQ timing configuration or a scheduling configuration for an uplink or a downlink of the secondary cell is equal to a HARQ timing configuration or a scheduling configuration of the primary cell, and wherein, when the secondary cell is configured for frequency division duplexing, and when the component carrier configuration is not used for the secondary cell, the HARQ timing configuration is a frequency division duplexing uplink configuration.
A method , comprising: at a first electronic device with a display and a microphone: receiving audio input via the microphone, wherein the audio input comprises a request; sending data representing the request to a service ; receiving a token from the service , wherein the token permits lookup, from the service , of at least one of: the request, and result responsive to the request; and sending the token to a second electronic device external to the first electronic device , wherein a continuity user-interactive graphical user interface object is displayed by the second electronic device , the continuity user-interactive graphical user interface object permitting access to the result responsive to the request, from the service using the token, at the second electronic device . at a first electronic device with a display and a microphone: receiving audio input via the microphone, wherein the audio input comprises a request; sending data representing the request to a service ; receiving a token from the service , wherein the token permits lookup, from the service , of at least one of: the request, and result responsive to the request; and sending the token to a second electronic device external to the first electronic device , wherein a continuity user-interactive graphical user interface object is displayed by the second electronic device , the continuity user-interactive graphical user interface object permitting access to the result responsive to the request, from the service using the token, at the second electronic device . receiving audio input via the microphone, wherein the audio input comprises a request; sending data representing the request to a service ; receiving a token from the service , wherein the token permits lookup, from the service , of at least one of: the request, and result responsive to the request; and sending the token to a second electronic device external to the first electronic device , wherein a continuity user-interactive graphical user interface object is displayed by the second electronic device , the continuity user-interactive graphical user interface object permitting access to the result responsive to the request, from the service using the token, at the second electronic device .
An electrically operated aerosol generating device, comprising: an electrical power supply; an electronic circuit board; an electrical heating element configured to receive power from the electrical power supply via the electronic circuit board; and a ground plane comprising an elongate conductive member configured to: electrically couple the power supply to the electronic circuit board and the electrical heating element; and structurally retain the power supply and plurality of components of the electrically operated aerosol generation device, characterized in that the ground plane is configured to form a cavity adapted to receive and retain the power supply. an electrical power supply; an electronic circuit board; an electrical heating element configured to receive power from the electrical power supply via the electronic circuit board; and a ground plane comprising an elongate conductive member configured to: electrically couple the power supply to the electronic circuit board and the electrical heating element; and structurally retain the power supply and plurality of components of the electrically operated aerosol generation device, electrically couple the power supply to the electronic circuit board and the electrical heating element; and structurally retain the power supply and plurality of components of the electrically operated aerosol generation device, characterized in that the ground plane is configured to form a cavity adapted to receive and retain the power supply.
A brassiere with at least one underwire designed to be disposed at least at a lower join zone between each breast and a trunk of a user, the brassiere including two cups designed to cover the breasts at least in part and onto which the underwire is fastened, wherein the brassiere includes at least one basque (e.g., cradle), disposed on the brassiere , so as to therewith cover at least the underwiring, the basque designed to be interposed between at least the underwiring and the body of the user, characterized in that the basque is padded so as to exhibit a plurality of small pads , wherein the basque extends over the entire length of the underwiring so as to exhibit an omega (ω) shape such that the plurality of small pads are provided over the entire length of the underwiring, and wherein tips of the omega (ω) shape of the basque each exhibit at least one pad of the plurality of small pads with dimensions greater than other pads of the plurality of small pads.
Gangway platform for a gangway between two movably interconnected vehicle parts, in particular of a rail vehicle or an articulated bus, having a step plate for arrangement on a respective sliding plate of the movably interconnected vehicle parts, and having at least one swivel arm , arranged on the underside of the step plate , for engaging under the respective slide plate in order to prevent the step plate from lifting off the slide plates , the swivel arm being arranged pivotably on the step plate by means of a swivel joint , wherein the gangway platform has an actuating means for swiveling the swivel arm , which actuating means can be actuated from an upper side of the step plate in the installed state, characterized in that the swivel joint and the actuating means are designed as a common structural unit arranged on the step plate . the gangway platform has an actuating means for swiveling the swivel arm , which actuating means can be actuated from an upper side of the step plate in the installed state, characterized in that the swivel joint and the actuating means are designed as a common structural unit arranged on the step plate .
A drive circuit for a plurality of piezo-actuated hydraulic pumps for an aircraft, the drive circuit comprising: a voltage boost stage configured to receive a DC input supply voltage and deliver an increased DC output voltage to a high voltage, HV, link point ; a plurality of inverter stages coupled in parallel at the HV link point, wherein each inverter stage is arranged to receive the increased DC voltage from the HV link point and generate an oscillating output voltage for driving a respective piezo-actuated pump; and a control system configured to control the output voltage and phase of the inverter stages to drive the plurality of piezo-actuated pumps out of phase; wherein the control system is further configured to measure the power consumption of each piezo-actuated pump and to regulate the output voltage of at least one of the inverter stages to balance the power consumption of each piezo-actuated pump. a voltage boost stage configured to receive a DC input supply voltage and deliver an increased DC output voltage to a high voltage, HV, link point ; a plurality of inverter stages coupled in parallel at the HV link point, wherein each inverter stage is arranged to receive the increased DC voltage from the HV link point and generate an oscillating output voltage for driving a respective piezo-actuated pump; and a control system configured to control the output voltage and phase of the inverter stages to drive the plurality of piezo-actuated pumps out of phase; wherein the control system is further configured to measure the power consumption of each piezo-actuated pump and to regulate the output voltage of at least one of the inverter stages to balance the power consumption of each piezo-actuated pump.
A method performed by a first lawful interception, LI, function being an LI administrative function , LI ADMF, outside of a Virtualized Network Function, VNF , the method comprises: - transmitting , to a second LI function in the, VNF , a request for random number generator, RNG, data , said RNG data characterizing an RNG in the second LI function, - receiving , from the second LI function , the RNG data, - testing the RNG data, resulting in a randomness test result that is indicative of randomness of random numbers generated by the RNG in the second LI function, and - if the randomness is below a first threshold value, performing a mitigating action which comprises transmitting an alarm signal to the second LI function. - transmitting , to a second LI function in the, VNF , a request for random number generator, RNG, data , said RNG data characterizing an RNG in the second LI function, - receiving , from the second LI function , the RNG data, - testing the RNG data, resulting in a randomness test result that is indicative of randomness of random numbers generated by the RNG in the second LI function, and - if the randomness is below a first threshold value, performing a mitigating action which comprises transmitting an alarm signal to the second LI function.
A method for producing a coated lithium-nickel composite oxide particles, comprising: forming surface coats by bringing a cyclic siloxane into contact with surfaces of nickel-based lithium-nickel composite oxide particles by gas-phase contact wherein the cyclic siloxane is 2,4,6,8-tetramethylcyclotetrasiloxane of the following Formula : wherein an organic ether compound having an unsaturated bond at one end is added to a residual hydrogen atom after the gas-phase contact, and wherein, the lithium-nickel composite oxide is represented by the following Formula , Li x Ni (1-y-z) M y N z O 2 ··· wherein x is a value of from 0.80 to 1.10, y is a value of from 0.01 to 0.20, z is a value of from 0.01 to 0.15, and 1-y-z is a value exceeding 0.65, and M represents at least one element selected from Co or Mn, and N represents at least one element selected from Al, In or Sn. wherein an organic ether compound having an unsaturated bond at one end is added to a residual hydrogen atom after the gas-phase contact, and wherein, the lithium-nickel composite oxide is represented by the following Formula , Li x Ni (1-y-z) M y N z O 2 ··· wherein x is a value of from 0.80 to 1.10, y is a value of from 0.01 to 0.20, z is a value of from 0.01 to 0.15, and 1-y-z is a value exceeding 0.65, and M represents at least one element selected from Co or Mn, and N represents at least one element selected from Al, In or Sn.
An electroosmotic pump , comprising: at least a fluid pathway part formed in a line shape; a membrane having a porous structure and being in the fluid pathway part ; characterized by a first electrode having porosity, being in the fluid pathway part and disposed on the membrane , the first electrode comprising a first insulating porous support and a first electrochemical reaction material coated on the first insulating porous support; and a second electrode having porosity, being in the fluid pathway part and disposed on the membrane , the second electrode comprising a second insulating porous support and a second electrochemical reaction material coated on the second insulating porous support, wherein the first electrochemical reaction material is substantially uniformly distributed on the first insulating porous support, wherein the second electrochemical reaction material is substantially uniformly distributed on the second insulating porous support, and wherein fluid in the fluid pathway part is moved through the membrane , the first electrode and the second electrode . at least a fluid pathway part formed in a line shape; a membrane having a porous structure and being in the fluid pathway part ; characterized by a first electrode having porosity, being in the fluid pathway part and disposed on the membrane , the first electrode comprising a first insulating porous support and a first electrochemical reaction material coated on the first insulating porous support; and a second electrode having porosity, being in the fluid pathway part and disposed on the membrane , the second electrode comprising a second insulating porous support and a second electrochemical reaction material coated on the second insulating porous support, wherein the first electrochemical reaction material is substantially uniformly distributed on the first insulating porous support, wherein the second electrochemical reaction material is substantially uniformly distributed on the second insulating porous support, and wherein fluid in the fluid pathway part is moved through the membrane , the first electrode and the second electrode .
A method, comprising: performing, by a computer system: decomposing a plurality of data packets into a plurality of component data types, the plurality of data packets associated with a candidate alert representing a potential security threat in a communications network; retrieving, from a database, a count for each of a plurality of historical data types, the plurality of historical data types matching at least a subset of the component data types, each of the counts quantifying an amount of data of a corresponding historical data type previously detected in the communications network in each of a plurality of given time periods; calculating a score that indicates an aggregate discrepancy between an amount of data in each of the subset of the component data types and the counts for each corresponding one of the historical data types in the plurality of given time periods; and handling the candidate alert based, at least in part, upon the score, wherein handling the candidate alert further comprises issuing the candidate alert in response to the score meeting a threshold value and suppressing the candidate alert in response to the score not meeting the threshold value, wherein the plurality of given time periods include two or more of a time interval, a day of the week, a day of the month, a week of the month, a day of the year, and a month of the year. decomposing a plurality of data packets into a plurality of component data types, the plurality of data packets associated with a candidate alert representing a potential security threat in a communications network; retrieving, from a database, a count for each of a plurality of historical data types, the plurality of historical data types matching at least a subset of the component data types, each of the counts quantifying an amount of data of a corresponding historical data type previously detected in the communications network in each of a plurality of given time periods; calculating a score that indicates an aggregate discrepancy between an amount of data in each of the subset of the component data types and the counts for each corresponding one of the historical data types in the plurality of given time periods; and handling the candidate alert based, at least in part, upon the score, wherein handling the candidate alert further comprises issuing the candidate alert in response to the score meeting a threshold value and suppressing the candidate alert in response to the score not meeting the threshold value, wherein the plurality of given time periods include two or more of a time interval, a day of the week, a day of the month, a week of the month, a day of the year, and a month of the year.
A qubit comprising: a substrate; a first capacitor structure (602 A) having a lower portion formed on a surface of the substrate and at least one first raised portion extending above the surface of the substrate; a second capacitor structure (602 B) having a lower portion formed on the surface of the substrate and at least one second raised portion extending above the surface of the substrate, the first capacitor structure and the second capacitor structure formed of a superconducting material; and a junction between the first capacitor structure (602 A) and the second capacitor structure (602 B), the junction disposed at a predetermined distance from the surface of the substrate and having a first end in contact with the first raised portion and a second end in contact with the second raised portion, wherein the junction comprises a Josephson junction. a substrate; a first capacitor structure (602 A) having a lower portion formed on a surface of the substrate and at least one first raised portion extending above the surface of the substrate; a second capacitor structure (602 B) having a lower portion formed on the surface of the substrate and at least one second raised portion extending above the surface of the substrate, the first capacitor structure and the second capacitor structure formed of a superconducting material; and a junction between the first capacitor structure (602 A) and the second capacitor structure (602 B), the junction disposed at a predetermined distance from the surface of the substrate and having a first end in contact with the first raised portion and a second end in contact with the second raised portion, wherein the junction comprises a Josephson junction.