mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a strut coupled to a fan case of a turbofan engine , comprising: receiving, from a sensor , sensor data usable to predict a temperature of a portion of the turbofan engine ; predicting, by a controller, a current predicted temperature of the portion of the turbofan engine based on the sensor data; and controlling, by the controller, the strut to at least one of increase or decrease a strut length of the strut based on the current predicted temperature to reduce distortion of a centerline of a core of the turbofan engine . receiving, from a sensor , sensor data usable to predict a temperature of a portion of the turbofan engine ; predicting, by a controller, a current predicted temperature of the portion of the turbofan engine based on the sensor data; and controlling, by the controller, the strut to at least one of increase or decrease a strut length of the strut based on the current predicted temperature to reduce distortion of a centerline of a core of the turbofan engine .
A pharmaceutical composition comprising ∘ a substance capable of raising intracellular cAMP levels and ∘ a substance capable of modulating intracellular calcium concentration, wherein the substance capable of raising intracellular cAMP levels is ibudilast and the substance capable of modulating intracellular calcium concentration is bumetanide. ∘ a substance capable of raising intracellular cAMP levels and ∘ a substance capable of modulating intracellular calcium concentration,
A curved display manufacturing apparatus for manufacturing a curved display by bending a display panel into a curved shape, comprising: a curved surface suction mold comprising a panel seat surface having a curved shape corresponding to a curved shape of the curved display to be formed, and air sucking holes formed through the panel seat surface , through which air is sucked, to fix the display panel while bending the display panel by suction of air; an air sucking means for sucking air through the air sucking holes ; a main frame for supporting the curved surface suction mold , to space the curved surface suction mold from a bottom of the main frame ; and a pressing roller unit presses the curvature maintaining member into contact with the display panel while being slid along the curved surface of the display panel under a condition that the curvature maintaining member covers the display panel , for pressed attachment of the curvature maintaining member to the display panel . a curved surface suction mold comprising a panel seat surface having a curved shape corresponding to a curved shape of the curved display to be formed, and air sucking holes formed through the panel seat surface , through which air is sucked, to fix the display panel while bending the display panel by suction of air; an air sucking means for sucking air through the air sucking holes ; a main frame for supporting the curved surface suction mold , to space the curved surface suction mold from a bottom of the main frame ; and a pressing roller unit presses the curvature maintaining member into contact with the display panel while being slid along the curved surface of the display panel under a condition that the curvature maintaining member covers the display panel , for pressed attachment of the curvature maintaining member to the display panel .
A method of wireless communication at a base station, comprising: identifying , by a processor , a first search space configuration for a first search space; setting , by the processor , a second search space configuration for a second search space based, at least in part, on the first search space configuration, the setting comprising: setting, in a first transmission time interval, TTI, a frequency band for the second search space equal to a first frequency band that overlaps with a frequency band of the first search space; and setting, in a second TTI, the frequency band for the second search space equal to a second frequency band that does not overlap with the frequency band of the first search space; and transmitting , by the processor , control information to a mobile device in at least one of the first search space and the second search space. identifying , by a processor , a first search space configuration for a first search space; setting , by the processor , a second search space configuration for a second search space based, at least in part, on the first search space configuration, the setting comprising: setting, in a first transmission time interval, TTI, a frequency band for the second search space equal to a first frequency band that overlaps with a frequency band of the first search space; and setting, in a second TTI, the frequency band for the second search space equal to a second frequency band that does not overlap with the frequency band of the first search space; and setting, in a first transmission time interval, TTI, a frequency band for the second search space equal to a first frequency band that overlaps with a frequency band of the first search space; and setting, in a second TTI, the frequency band for the second search space equal to a second frequency band that does not overlap with the frequency band of the first search space; and transmitting , by the processor , control information to a mobile device in at least one of the first search space and the second search space.
A method for obtaining a forwarding information base, FIB, of a device , wherein the method comprises: sending, by a verification system , a request message to each of a plurality of devices , wherein the request message carries a command for obtaining a FIB generated at a specified time by each of the plurality of devices , wherein the request message further indicates the specified time or carries a period for obtaining the FIB of each of the plurality of devices , wherein the period indicates each of the plurality of devices to provide the FIB of the device according to the period; receiving, by the verification system , a response message sent by each of the plurality of devices , wherein the response message carries the FIB or a FIB snapshot generated at the specified time by each of the plurality of devices ; and obtaining, by the verification system , the FIB or the FIB snapshot from the response message sent by each of the plurality of devices , and verifying, based on the FIB or the FIB snapshot, whether a failure occurs on a network at the specified time. sending, by a verification system , a request message to each of a plurality of devices , wherein the request message carries a command for obtaining a FIB generated at a specified time by each of the plurality of devices , wherein the request message further indicates the specified time or carries a period for obtaining the FIB of each of the plurality of devices , wherein the period indicates each of the plurality of devices to provide the FIB of the device according to the period; receiving, by the verification system , a response message sent by each of the plurality of devices , wherein the response message carries the FIB or a FIB snapshot generated at the specified time by each of the plurality of devices ; and obtaining, by the verification system , the FIB or the FIB snapshot from the response message sent by each of the plurality of devices , and verifying, based on the FIB or the FIB snapshot, whether a failure occurs on a network at the specified time.
A wireless communication device comprising: a memory device that stores data associated with a plurality of access point names, and computer-executable instructions; and a processor that executes the computer-executable instructions to: receive a request to couple the wireless communication device to a wireless network, the wireless communication device coupled to the wireless network using a first access point name of the plurality of access point names; determine whether the wireless communication device is selectively configured to use a single packet data network for data transfers, based on a determination that an operating system or application of the wireless communication device is capable of using only one packet data network at a time; and on condition that the wireless communication device is configured to use the single packet data network, decouple the wireless communication device from the wireless network, and couple the wireless communication device to the wireless network using a second access point name of the plurality of access point names, and restrict concurrent use of multiple packet data network in the single packet data network configuration. a memory device that stores data associated with a plurality of access point names, and computer-executable instructions; and a processor that executes the computer-executable instructions to: receive a request to couple the wireless communication device to a wireless network, the wireless communication device coupled to the wireless network using a first access point name of the plurality of access point names; determine whether the wireless communication device is selectively configured to use a single packet data network for data transfers, based on a determination that an operating system or application of the wireless communication device is capable of using only one packet data network at a time; and on condition that the wireless communication device is configured to use the single packet data network, decouple the wireless communication device from the wireless network, and couple the wireless communication device to the wireless network using a second receive a request to couple the wireless communication device to a wireless network, the wireless communication device coupled to the wireless network using a first access point name of the plurality of access point names; determine whether the wireless communication device is selectively configured to use a single packet data network for data transfers, based on a determination that an operating system or application of the wireless communication device is capable of using only one packet data network at a time; and on condition that the wireless communication device is configured to use the single packet data network, decouple the wireless communication device from the wireless network, and couple the wireless communication device to the wireless network using a second access point name of the plurality of access point names, and restrict concurrent use of multiple packet data network in the single packet data network configuration.
An electrochemical cell comprising: a chloride-storage electrode comprising bismuth metal, wherein the chloride-storage electrode is able to store chloride ions by oxidizing the bismuth metal to BiOCl; an electrolyte solution comprising chloride ions in contact with the chloride-storage electrode; a second electrode in electrical communication with the chloride-storage electrode, wherein the second electrode is a sodium-storage electrode; and an electrolyte solution in contact with the second electrode, wherein the electrolyte solution in contact with the second electrode comprises sodium ions and is either the electrolyte solution comprising chloride ions that is in contact with the chloride storage electrode or a different electrolyte solution. a chloride-storage electrode comprising bismuth metal, wherein the chloride-storage electrode is able to store chloride ions by oxidizing the bismuth metal to BiOCl; an electrolyte solution comprising chloride ions in contact with the chloride-storage electrode; a second electrode in electrical communication with the chloride-storage electrode, wherein the second electrode is a sodium-storage electrode; and an electrolyte solution in contact with the second electrode, wherein the electrolyte solution in contact with the second electrode comprises sodium ions and is either the electrolyte solution comprising chloride ions that is in contact with the chloride storage electrode or a different electrolyte solution.
A method for determining whether a component for a gas turbine engine is within an acceptable manufacturing tolerance, comprising the steps of: providing a component comprising a body portion , a cooling circuit disposed within the body portion and including at least a first cavity , a core in fluid communication with the first cavity , and an exit surface that extends through an exterior surface of the body portion ; inspecting the component to determine whether one or more of a plurality of surface indicators for indicating whether the component is within an acceptable manufacturing tolerance are visible in the component after the component has been manufactured; and determining whether the component is within the acceptable manufacturing tolerance based on a predetermined pattern of the surface indicators that is visible in the component ; characterised in that : a first portion of the plurality of surface indicators are located at a leading edge of a discharge opening of the exit surface and a second portion of the plurality of surface indicators are located at a trailing edge of the discharge opening . providing a component comprising a body portion , a cooling circuit disposed within the body portion and including at least a first cavity , a core in fluid communication with the first cavity , and an exit surface that extends through an exterior surface of the body portion ; inspecting the component to determine whether one or more of a plurality of surface indicators for indicating whether the component is within an acceptable manufacturing tolerance are visible in the component after the component has been manufactured; and determining whether the component is within the acceptable manufacturing tolerance based on a predetermined pattern of the surface indicators that is visible in the component ; characterised in that : a first portion of the plurality of surface indicators are located at a leading edge of a discharge opening of the exit surface and a second portion of the plurality of surface indicators are located at a trailing edge of the discharge opening .
A cutting apparatus for cutting food objects into smaller food products , comprising: • an infeed conveyor having a first end and a second end, • a conveyor system having a first end and a second end, the conveyor system being arranged such that the first end of the conveyor system is adjacent and essentially parallel to the second end of the infeed conveyor defining a first slit there between, and • a first cutting unit having a cutting plane extending through the first slit and controlled by a control unit for cutting food objects, conveyed by the infeed conveyor, into smaller food products, characterized in that the first slit and the cutting plane of the cutting unit forms an angle different from 90° in relation to the conveying direction , wherein the conveyor system comprises: • a conveyor sub-system having a first end and a second end, and • an outfeed conveyor having a first end and a second end, where the first end of the conveyor system is the first end of the conveyor sub-system, and where the second end of the conveyor sub-system is adjacent and essentially parallel to the first end of the outfeed conveyor and defines a second slit , wherein the second slit forms an angle in relation to the first slit , and where the cutting apparatus further comprises a second cutting unit controlled by a control unit having a cutting plane extending through the second slit, wherein the cutting apparatus further comprises a first scanning device associated with the infeed conveyor for acquiring scanning data of incoming food objects on the infeed conveyor, where the acquired scanning data are used as a control data by the control unit for controlling the first cutting unit and by the control unit for controlling the second cutting unit . • an infeed conveyor having a first end and a second end, • a conveyor system having a first end and a second end, the conveyor system being arranged such that the first end of the conveyor system is adjacent and essentially parallel to the second end of the infeed conveyor defining a first slit there between, and • a first cutting unit having a cutting plane extending through the first slit and controlled by a control unit for cutting food objects, conveyed by the infeed conveyor, into smaller food products, • a conveyor sub-system having a first end and a second end, and • an outfeed conveyor having a first end and a second end, where the first end of the conveyor system is the first end of the conveyor sub-system, and where the second end of the conveyor sub-system is adjacent and essentially parallel to the first end of the outfeed conveyor and defines a second slit ,
A load migration method, comprising: determining, by a source controller, a to-be-migrated user equipment, UE, that needs to be migrated to a destination controller, wherein the source controller is a controller in a first control domain, and the destination controller is a controller in a second control domain; updating , by the source controller, resource information of the to-be-migrated UE in a database server, wherein the updated resource information comprises a correspondence between the to-be-migrated UE and the destination controller, and the database server is connected to both the source controller and the destination controller; and sending, by the source controller, an inter-domain update instruction to an external network element , wherein the inter-domain update instruction comprises an identifier of the to-be-migrated UE and an identifier of the destination controller. determining, by a source controller, a to-be-migrated user equipment, UE, that needs to be migrated to a destination controller, wherein the source controller is a controller in a first control domain, and the destination controller is a controller in a second control domain; updating , by the source controller, resource information of the to-be-migrated UE in a database server, wherein the updated resource information comprises a correspondence between the to-be-migrated UE and the destination controller, and the database server is connected to both the source controller and the destination controller; and sending, by the source controller, an inter-domain update instruction to an external network element , wherein the inter-domain update instruction comprises an identifier of the to-be-migrated UE and an identifier of the destination controller.
A circuit for varying a quality-factor of a wireless device , wherein the wireless device includes an antenna tuning circuit and a communications signal interface ; the circuit comprising a quality-factor circuit having a feedback circuit ; wherein the feedback circuit is configured to be coupled between the antenna tuning circuit and the communications signal interface; wherein the quality-factor circuit is configured to measure an antenna system bandwidth of the wireless device; and wherein the feedback circuit is configured to apply positive feedback to the antenna tuning circuit if the measured antenna system bandwidth is greater than a maximum communication signal bandwidth.
A system to perform a seismic survey in a marine environment, comprising: a tether management system towed, via a first cable, by a vessel that moves through an aqueous medium in a first direction ; an underwater vehicle connected, via a second cable, to the tether management system , the underwater vehicle to move in a second direction different from the first direction to deploy seismic data acquisition units on an ocean bottom, wherein the first direction is perpendicular to the second direction ; the system characterized by further comprising: a thruster coupled to the tether management system to move the tether management system in a third direction different from the first direction , wherein the third direction is perpendicular to the first direction to widen a deployment zone of the underwater vehicle, and the second direction is parallel with the third direction ; and a control unit comprising one or more processors to instruct, based on a cross-line location policy, the thruster to move the tether management system in the third direction different from the first direction to allow the underwater vehicle to deploy at least one of the seismic data acquisition units on the ocean bottom. an underwater vehicle connected, via a second cable, to the tether management system , the underwater vehicle to move in a second direction different from the first direction to deploy seismic data acquisition units on an ocean bottom, wherein the first direction is perpendicular to the second direction ; the system characterized by further comprising: a thruster coupled to the tether management system to move the tether management system in a third direction different from the first direction , wherein the third direction is perpendicular to the first direction to widen a deployment zone of the underwater vehicle, and the second direction is parallel with the third direction ; and a control unit comprising one or more processors to instruct, based on a cross-line location policy, the thruster to move the tether management system in the third direction different from the first direction to allow the underwater vehicle to deploy at least one of the seismic data acquisition units on the ocean bottom. a thruster coupled to the tether management system to move the tether management system in a third direction different from the first direction , wherein the third direction is perpendicular to the first direction to widen a deployment zone of the underwater vehicle, and the second direction is parallel with the third direction ; and a control unit comprising one or more processors to instruct, based on a cross-line location policy, the thruster to move the tether management system in the third direction different from the first direction to allow the underwater vehicle to deploy at least one of the seismic data acquisition units on the ocean bottom.
A method comprising: receiving, by a first wireless device from a base station , a radio resource control, RRC, message comprising a list of sidelink configurations for sidelink communications, wherein each of the sidelink configurations comprises a communication range threshold for sidelink transmissions; and transmitting, by the first wireless device to one or more second wireless devices , sidelink control information, SCI, comprising: a first index, in the list of the sidelink configurations, indicating one of the communication range thresholds for receiving HARQ feedback of the sidelink transmissions; and a zone identifier indicating a geographic location of the first wireless device for receiving the HARQ feedback. receiving, by a first wireless device from a base station , a radio resource control, RRC, message comprising a list of sidelink configurations for sidelink communications, wherein each of the sidelink configurations comprises a communication range threshold for sidelink transmissions; and transmitting, by the first wireless device to one or more second wireless devices , sidelink control information, SCI, comprising: a first index, in the list of the sidelink configurations, indicating one of the communication range thresholds for receiving HARQ feedback of the sidelink transmissions; and a zone identifier indicating a geographic location of the first wireless device for receiving the HARQ feedback. a first index, in the list of the sidelink configurations, indicating one of the communication range thresholds for receiving HARQ feedback of the sidelink transmissions; and a zone identifier indicating a geographic location of the first wireless device for receiving the HARQ feedback.