mhurhangee/patent-ind-claim-en huggingface dataset:
A method of real-time network monitoring and location updating for a user equipment, UE, in a service enabler architecture layer, SEAL, architecture, the method comprising: receiving, by an unmanned aerial system application enabler, UAE, server, a location report from a location management, LM, server of the SEAL architecture, the location report indicating location information of the UE; receiving, by the UAE server, a first network event notification associated with the UE from a network resource management, NRM, server in the SEAL architecture, the first network event notification indicating a connection status of the UE with a network; in response to detecting a re-connected status of the UE, receiving, by the UAE server, a second networking event notification from the NRM server, the second networking event notification indicating that the UE reconnects to the network; and recording, by the UAE server, (i) the second networking event notification, (ii) an identity of the UAE server, and (iii) most recently updated location information of the UE from the LM server. receiving, by an unmanned aerial system application enabler, UAE, server, a location report from a location management, LM, server of the SEAL architecture, the location report indicating location information of the UE; receiving, by the UAE server, a first network event notification associated with the UE from a network resource management, NRM, server in the SEAL architecture, the first network event notification indicating a connection status of the UE with a network; in response to detecting a re-connected status of the UE, receiving, by the UAE server, a second networking event notification from the NRM server, the second networking event notification indicating that the UE reconnects to the network; and recording, by the UAE server, (i) the second networking event notification, (ii) an identity of the UAE server, and (iii) most recently updated location information of the UE from the LM server.
A flux containing: 5% by mass or more and 30% by mass or less of an organic acid, 13% by mass or more and 40% by mass or less of an amine, 1% by mass or more and 15% by mass or less of a surfactant, 10% by mass or more and 30% by mass or less of a base agent, and 10% by mass or more and 40% by mass or less of a solvent, wherein the amine has 700 or less of a molecular weight and the surfactant has more than 700 of the molecular weight; and a resist substrate containing: solvent naphtha (petroleum), heavy arom.; naphthalene; acetophenone derivative; barium sulfate; talc and amorphous silica; characterized in that 11.0 degrees or more and 17.0 degrees or less of a contact angle between the flux and the resist substrate when the flux has been printed on the resist substrate to have 1.0 mm of a diameter and 0.15 mm of a thickness when heating the resist substrate at 150 degrees C for 30 seconds and cooling the resist substrate to a room temperature; more than zero seconds and not more than 2.0 seconds of a zero-cross time when heating a Cu plate at 150 degrees C in a thermostat oven for 12 hours, applying the flux onto the baked Cu plate, and dipping the baked Cu plate onto which the flux has been applied into a Sn-3.0Ag-0.5Cu alloy at a dipping speed of 15 mm/sec and by 2.0 mm of a dipped depth; and the surfactant is any one selected from a group consisting of polyoxyalkylene alkylamine surfactant, polyoxyalkylene alkylenediamine surfactant, and polyoxyalkylene alkylenetriamine surfactant. 5% by mass or more and 30% by mass or less of an organic acid, 13% by mass or more and 40% by mass or less of an amine, 1% by mass or more and 15% by mass or less of a surfactant, 10% by mass or more and 30% by mass or less of a base agent, and 10% by mass or more and 40% by mass or less of a solvent, wherein the amine has 700 or less of a molecular weight and the surfactant has more than 700 of the molecular weight; and a resist substrate containing: solvent naphtha (petroleum), heavy arom.; naphthalene; acetophenone derivative; barium sulfate; talc and amorphous silica; characterized in that 11.0 degrees or more and 17.0 degrees or less of a contact angle between the flux and the resist substrate when the flux has been printed on the resist substrate to have 1.0 mm of a diameter and 0.15 mm of a thickness when heating the resist substrate at 150 degrees C for 30 seconds and cooling the resist substrate to a room temperature; more than zero seconds and not more than 2.0 seconds of a zero-cross time when heating a Cu plate at 150 degrees C in a thermostat oven for 12 hours, applying the flux onto the baked Cu plate, and dipping the baked Cu plate onto which the flux has been applied into a Sn-3.0Ag-0.5Cu alloy at a dipping speed of 15 mm/sec and by 2.0 mm of a dipped depth; and the surfactant is any one selected from a group consisting of polyoxyalkylene alkylamine surfactant, polyoxyalkylene alkylenediamine surfactant, and polyoxyalkylene alkylenetriamine surfactant.
A method for fermenting a wort in a fermentation tank comprising a bottom port in a bottom of the fermentation tank, and at least three side ports, being a first side port, a second side port, and a third side port, wherein said side ports are in fluid communication with each other, comprising the steps of: - letting wort into the fermentation tank via the bottom port; - pitching wort with yeast; - incubating wort with yeast under conditions that allow the yeast to grow, thereby obtaining a partly fermented wort; - pumping the partly fermented wort out of the fermentation tank via at least one of the side ports and back into the fermentation tank via at least another of the side ports for at least obtaining a further fermented wort, and - drawing off the further fermented wort out of at least one of the side ports. - letting wort into the fermentation tank via the bottom port; - pitching wort with yeast; - incubating wort with yeast under conditions that allow the yeast to grow, thereby obtaining a partly fermented wort; - pumping the partly fermented wort out of the fermentation tank via at least one of the side ports and back into the fermentation tank via at least another of the side ports for at least obtaining a further fermented wort, and - drawing off the further fermented wort out of at least one of the side ports.
Use of a copper alloy wherein the elements have mass fractions as follows: - 46% to 53.5% copper (Cu); - 0% to 1.0% aluminium (Al); - 0% to 1.40% lead (Pb); - 0% to 0.2% iron (Fe); - 0% to 0.4% tin (Sn); - 0% to 0.0002% boron (B); - 0% to 0.2% arsenic (As); and - balance zinc (Zn), for a generative manufacturing process. - 46% to 53.5% copper (Cu); - 0% to 1.0% aluminium (Al); - 0% to 1.40% lead (Pb); - 0% to 0.2% iron (Fe); - 0% to 0.4% tin (Sn); - 0% to 0.0002% boron (B); - 0% to 0.2% arsenic (As); and - balance zinc (Zn),
A channel device comprising a nanosize channel through which a sample solution containing a molecule flows, at least one pair of measuring nanoelectrodes arranged near the nanosize channel , an AC power source that applies an AC voltage to the measuring nanoelectrodes , and a measurement section that measures the impedance of a molecule between the measuring nanoelectrodes , wherein a portion of the nanosize channel in which the pair of measuring nanoelectrodes is arranged is configured to be smaller, in width, than the entire nanosize channel except for the portion in which the pair of measuring nanoelectrodes is arranged, characterized in that the pair of measuring nanoelectrodes is covered with an insulator material so as not to contact the sample solution flowing through the nanosize channel .
A burner for a combustor of a gas turbine combustor , the burner comprises a body having a surface and an burner axis , a fuel lance , an igniter and a main air flow passage or passages , the main air flow passage or passages is angled relative to the burner axis and creates a main vortex about the burner axis in a first rotational direction, the main vortex travels in a direction along the burner axis and away from the surface , the igniter is located downstream of the fuel lance with respect to the first rotational direction of the main vortex so that a part of a main air flow washes over the fuel lance and then over the igniter , the fuel lance comprises a fuel lance axis , a liquid fuel tip having a fuel outlet and an array of air assist passages having outlets arranged about the fuel outlet , characterised in that the air assist passages are angled relative to the fuel lance axis to create an air assist vortex about the fuel lance axis in the same rotational direction to the first rotational direction, wherein the air assist passages are radially angled μ relative to the fuel lance axis and the air assist passages are radially angled μ between and including 15° and 60° relative to the fuel lance axis .
A power converter comprising: an AC conversion unit adapted to convert DC power into predetermined AC power; a current detector adapted to detect current flowing to the AC conversion unit; and a control unit adapted to control output of the AC conversion unit, wherein the control unit is adapted to perform AC braking of a synchronous electric motor connected to the power converter by applying AC voltage of a frequency higher than the rotation frequency of the synchronous electric motor in a deceleration mode to the synchronous electric motor without generating a rotation force to the synchronous electric motor. an AC conversion unit adapted to convert DC power into predetermined AC power; a current detector adapted to detect current flowing to the AC conversion unit; and a control unit adapted to control output of the AC conversion unit, wherein the control unit is adapted to perform AC braking of a synchronous electric motor connected to the power converter by applying AC voltage of a frequency higher than the rotation frequency of the synchronous electric motor in a deceleration mode to the synchronous electric motor without generating a rotation force to the synchronous electric motor.
An unlicensed wireless system configured to process communication signals from plural user cellular telephones , comprising: plural access points , each access point having a processor configured to use a dual mode algorithm capable of both dynamic power control and dynamic modulation rate adjustment, wherein in the dynamic power control mode, the processor is configured to dynamically adjust access-point transmitter power and receiver sensitivity, on a user cellular telephone - by - user cellular telephone basis, to a minimum level required to achieve a target Signal-to-Noise Ratio, SNR, from each user cellular telephone irrespective of an interference observed on a link between the access point and the user cellular telephone or a highest possible modulation rate, wherein the dual mode algorithm allows either an increase in power, or a reduction in the modulation rate, on a case-by-case basis. plural access points , each access point having a processor configured to use a dual mode algorithm capable of both dynamic power control and dynamic modulation rate adjustment, wherein in the dynamic power control mode, the processor is configured to dynamically adjust access-point transmitter power and receiver sensitivity, on a user cellular telephone - by - user cellular telephone basis, to a minimum level required to achieve a target Signal-to-Noise Ratio, SNR, from each user cellular telephone irrespective of an interference observed on a link between the access point and the user cellular telephone or a highest possible modulation rate, wherein the dual mode algorithm allows either an increase in power, or a reduction in the modulation rate, on a case-by-case basis.
A high temperature nickel-base-alloy composed of (in % by weight): C 0.04 - 0.1 % S max. 0.01 % N max. 0.05 % Cr 24 - 28 % Mn max. 0.3 % Si max. 0.3 % Mo 1 - 6 % Ti 0.5 - 3 % Nb 0.001 - 0.1 % Cu max. 0.2 % Fe 0.1 - 0.7% P max. 0.015 % Al 0.5 - 2 % Mg max. 0.01 % Ca max. 0.01 % V 0.01 - 0.5 % Zr max. 0.1 % W 0.2 - 2 % Co 17 - 21 % B max. 0.01 % O max. 0.01 % Ni rest as well as elaboration dependent impurities.
A method for a User Equipment, UE , adapted to be equipped with a plurality of Universal Subscriber Identity Modules, USIMs, for performing a Multi-Universal Subscriber Identity Module, MUSIM, operation, the method comprising: connecting to a first network associated with a first USIM of the plurality of USIMs; transmitting a request message to the first network, the request message comprising assistance information to request a time gap for the MUSIM operation; receiving a first time gap configuration from the first network, wherein in a case that the first time gap configuration provides an aperiodic gap pattern, the first time gap configuration indicates a starting System Frame Number, SFN, and a starting subframe of a first configured time gap; and in a case that the UE receives the first time gap configuration, switching to a second network, while keeping a connection to the first network, during the first configured time gap according to the first time gap configuration, the second network being associated with a second USIM of the plurality of USIMs. connecting to a first network associated with a first USIM of the plurality of USIMs; transmitting a request message to the first network, the request message comprising assistance information to request a time gap for the MUSIM operation; receiving a first time gap configuration from the first network, wherein in a case that the first time gap configuration provides an aperiodic gap pattern, the first time gap configuration indicates a starting System Frame Number, SFN, and a starting subframe of a first configured time gap; and in a case that the UE receives the first time gap configuration, switching to a second network, while keeping a connection to the first network, during the first configured time gap according to the first time gap configuration, the second network being associated with a second USIM of the plurality of USIMs.
A quick-change device for coupling an attachment unit to a work machine , having a securing element which is pushed into a locking or unlocking position to lock or secure and unlock or release, respectively, the coupled attachment unit , and having a control device, with a hydraulic cylinder , comprising an unlocking chamber (1.1) and a locking chamber (1.2), a changeover valve with a first consumer connection (A), a second consumer connection (B), a pressure medium connection (P) and a tank connection (T), a first line (V1) between the first consumer connection (A) and the unlocking chamber (1.1), a switch valve (2.1), which is controllable hydraulically via a hydraulic control connection (2.4.1) and mechanically via a spring-loaded button , which is pushed into a fully engaged position during proper coupling and into a fully disengaged position during uncoupling, characterised in that the switch valve (2.1) is arranged between the second consumer connection (B) and the locking chamber (1.2) and can be switched between an open position and a closed position and is switched to the open position when the button is fully engaged, so that the securing element , controlled via the changeover valve , is pushed into the locking or unlocking position, and the hydraulic control connection (2.4.1) is connected to the first line (V1), whereby the switch valve (2.1) is switched to the open position by applying hydraulic pressure from the first line (V1) even when the button is disengaged or not fully engaged, which pushes the securing element to the unlocking position regardless of the position of the button . a securing element which is pushed into a locking or unlocking position to lock or secure and unlock or release, respectively, the coupled attachment unit , and having a control device, with a hydraulic cylinder , comprising an unlocking chamber (1.1) and a locking chamber (1.2), a changeover valve with a first consumer connection (A), a second consumer connection (B), a pressure medium connection (P) and a tank connection (T), a first line (V1) between the first consumer connection (A) and the unlocking chamber (1.1), a switch valve (2.1), which is controllable hydraulically via a hydraulic control connection (2.4.1) and mechanically via a spring-loaded button , which is pushed into a fully engaged position during proper coupling and into a fully disengaged position during uncoupling, characterised in that the switch valve (2.1) is arranged between the second consumer connection (B) and the locking chamber (1.2) and can be switched between an open position and a closed position and is switched to the open position when the button is fully engaged, so that the securing element , controlled via the changeover valve , is pushed into the locking or unlocking position, and the hydraulic control connection (2.4.1) is connected to the first line (V1), whereby the switch valve (2.1) is switched to the open position by applying hydraulic pressure from the first line (V1) even when the button is disengaged or not fully engaged, which pushes the securing element to the unlocking position regardless of the position of the button .
A camera module , comprising: a first camera module ; a first flexible printed circuit connected to the first camera module ; and a second camera module arranged side by side with the first camera module ; the camera module further comprises a second flexible printed circuit separated from the first flexible circuit and connected to the second camera module , characterized in that : at least one of the first flexible printed circuit and the second flexible printed circuit extends along an arrangement direction of the first camera module and the second camera module , wherein the first flexible printed circuit attaches to a first connector (A) and the second flexible printed circuit attaches to a second connector (B) for mounting the camera module on a circuit board. a first camera module ; a first flexible printed circuit connected to the first camera module ; and a second camera module arranged side by side with the first camera module ; the camera module further comprises a second flexible printed circuit separated from the first flexible circuit and connected to the second camera module , characterized in that : at least one of the first flexible printed circuit and the second flexible printed circuit extends along an arrangement direction of the first camera module and the second camera module , wherein the first flexible printed circuit attaches to a first connector (A) and the second flexible printed circuit attaches to a second connector (B) for mounting the camera module on a circuit board. at least one of the first flexible printed circuit and the second flexible printed circuit extends along an arrangement direction of the first camera module and the second camera module , wherein the first flexible printed circuit attaches to a first connector (A) and the second flexible printed circuit attaches to a second connector (B) for mounting the camera module on a circuit board.
A coated positive electrode active material wherein a positive electrode active material made of lithium-metal complex oxide has a surface coated with a coating of lithium salt having an average thickness of 20 to 50 nm, the positive electrode active material includes a spherical or oval-spherical secondary particle made of primary particles which are bound by sintering, the secondary particle has a surface coated with the lithium salt having the average thickness of 20 to 50 nm and the lithium salt exists in gaps between the primary particles, and the lithium salt is a lithium salt containing lithium carbonate. the positive electrode active material includes a spherical or oval-spherical secondary particle made of primary particles which are bound by sintering, the secondary particle has a surface coated with the lithium salt having the average thickness of 20 to 50 nm and the lithium salt exists in gaps between the primary particles, and the lithium salt is a lithium salt containing lithium carbonate.
A method of controlling power in an electromagnetic test system, the electromagnetic test system having at least one operational path having a channel emulator , at least one of an amplifier /attenuator combination and a variable gain amplifier, VGA, and an antenna , the method comprising: calculating an attenuation value based at least on a maximum power value, P max , a requested power setting, X, and an attenuation step size (S104); if the calculated attenuation value is equal to a current attenuation setting (S106), then: setting an output power of the channel emulator to X plus the calculated attenuation value (S108); and if the calculated attenuation value is not equal to the current attenuation setting (S106), then: if X is less than a current power setting (S114), then: setting an output power of the channel emulator to X plus the calculated attenuation value (S116), followed by setting an output attenuation of one of the amplifier /attenuator combination and the VGA to one of an attenuation and an attenuation step (S118); and if X is not less than the current power setting (S114), then: setting an output attenuation of one of the amplifier /attenuator combination and the VGA to one of the attenuation value and the attenuation step (S120), followed by setting the output power of the channel emulator to X plus the calculated attenuation value (S122). if the calculated attenuation value is equal to a current attenuation setting (S106), then: setting an output power of the channel emulator to X plus the calculated attenuation value (S108); and if the calculated attenuation value is not equal to the current attenuation setting (S106), then: if X is less than a current power setting (S114), then: setting an output power of the channel emulator to X plus the calculated attenuation value (S116), followed by setting an output attenuation of one of the amplifier /attenuator combination and the VGA to one of an attenuation and an attenuation step (S118); and if X is not less than the current power setting (S114), then: setting an output attenuation of one of the amplifier /attenuator combination and the VGA to one of the attenuation value and the attenuation step (S120), followed by setting the output power of the channel emulator to X plus the calculated attenuation value (S122). if X is less than a current power setting (S114), then: setting an output power of the channel emulator to X plus the calculated attenuation value (S116), followed by setting an output attenuation of one of the amplifier /attenuator combination and the VGA to one of an attenuation and an attenuation step (S118); and if X is not less than the current power setting (S114), then: setting an output attenuation of one of the amplifier /attenuator combination and the VGA to one of the attenuation value and the attenuation step (S120), followed by setting the output power of the channel emulator to X plus the calculated attenuation value (S122).