mhurhangee/patent-ind-claim-en huggingface dataset:
A method of managing uplink control channel scheduling for one or more UEs served by a network entity in a wireless communications system , wherein the method is performed by the network entity and comprises: selecting an uplink control channel transmission window length from a plurality of uplink control channel transmission window lengths for an uplink control channel transmission window, wherein an uplink control channel bandwidth allocation for at least one of the one or more UEs for the selected uplink control channel transmission window length is configured for and transmitted to the at least one of the one or more UEs and specifies a variable bandwidth resource that is a function of the uplink control channel transmission window length, wherein the function is according to an uplink control channel bandwidth allocation map defining an uplink control channel bandwidth allocation for the at least one of the one or more UEs for at least one of the plurality of uplink control channel transmission window lengths ; transmitting the selected uplink control channel transmission window length to the at least one of the one or more UEs before the uplink control channel transmission window; and receiving, during the uplink control channel transmission window, one or more control channel transmissions from the one or more UEs based on the uplink control channel bandwidth allocation which is the function of the selected uplink control channel transmission window length. selecting an uplink control channel transmission window length from a plurality of uplink control channel transmission window lengths for an uplink control channel transmission window, wherein an uplink control channel bandwidth allocation for at least one of the one or more UEs for the selected uplink control channel transmission window length is configured for and transmitted to the at least one of the one or more UEs and specifies a variable bandwidth resource that is a function of the uplink control channel transmission window length, wherein the function is according to an uplink control channel bandwidth allocation map defining an uplink control channel bandwidth allocation for the at least one of the one or more UEs for at least one of the plurality of uplink control channel transmission window lengths ; transmitting the selected uplink control channel transmission window length to the at least one of the one or more UEs before the uplink control channel transmission window; and receiving, during the uplink control channel transmission window, one or more control channel transmissions from the one or more UEs based on the uplink control channel bandwidth allocation which is the function of the selected uplink control channel transmission window length.
A computer-implemented method, executable by a processor of a computing system, for securing an asset-to-asset cloud communication environment, the method comprising: identifying an asset spun up in the cloud communication environment based on a notification identifying the spun up asset; determining that the spun up asset will require authorization to achieve at least some secure communication functionality with a different asset in the cloud communication environment; automatically authenticating the spun up asset based on authentication information from a trusted source in the cloud communication environment, wherein the trusted source is configured to investigate the spun up asset; automatically determining , based on the authenticating, whether the spun up asset is authorized to perform secure communication functionality with at least one different asset; and automatically performing a control action upon determining the spun up asset is authorized, the control action enabling the spun up asset to perform the secure communication functionality with the at least one different asset. identifying an asset spun up in the cloud communication environment based on a notification identifying the spun up asset; determining that the spun up asset will require authorization to achieve at least some secure communication functionality with a different asset in the cloud communication environment; automatically authenticating the spun up asset based on authentication information from a trusted source in the cloud communication environment, wherein the trusted source is configured to investigate the spun up asset; automatically determining , based on the authenticating, whether the spun up asset is authorized to perform secure communication functionality with at least one different asset; and automatically performing a control action upon determining the spun up asset is authorized, the control action enabling the spun up asset to perform the secure communication functionality with the at least one different asset.
A method comprising: receiving, at a first peer device, a modification to a keychain stored on the first peer device in a group of peer devices, each peer device having been registered into the group through a cloud services account; identifying each respective other peer device in the group of peer devices; for each respective other peer device identified in the group of peer devices, determining, by the first peer device, whether the keychain of the first peer device matches a respective other keychain on the respective other peer device; generating, by the first peer device, a respective delta manifest for each respective other peer device in the group of peer devices for which the other respective other keychain does not match the keychain of the first peer device, the respective delta manifest indicating one or more modifications to be made to the respective other keychain; encrypting, by the first peer device and for each respective other peer device for which the respective delta manifest was generated and using a respective encryption key that specifically corresponds to the respective other peer device, the respective delta manifest and one or more respective keychain items identified in the respective delta manifest; and transmitting, by the first peer device and to each respective other peer device through a network, the respective encrypted delta manifest and the respective encrypted one or more keychain items for each respective other peer device. receiving, at a first peer device, a modification to a keychain stored on the first peer device in a group of peer devices, each peer device having been registered into the group through a cloud services account; identifying each respective other peer device in the group of peer devices; for each respective other peer device identified in the group of peer devices, determining, by the first peer device, whether the keychain of the first peer device matches a respective other keychain on the respective other peer device; generating, by the first peer device, a respective delta manifest for each respective other peer device in the group of peer devices for which the other respective other keychain does not match the keychain of the first peer device, the respective delta manifest indicating one or more modifications to be made to the respective other keychain; encrypting, by the first peer device and for each respective other peer device for which the respective delta manifest was generated and using a respective encryption key that specifically corresponds to the respective other peer device, the respective delta manifest and one or more respective keychain items identified in the respective delta manifest; and transmitting, by the first peer device and to each respective other peer device through a network, the respective encrypted delta manifest and the respective encrypted one or more keychain items for each respective other peer device.
A method for manufacturing an all-solid state secondary battery including a plurality of provisional battery bodies , the method comprising: forming each of the provisional battery bodies by pressing a positive-electrode mixture layer , a solid electrolyte layer , and a negative-electrode mixture layer that are stacked between a pair of electrode current collectors ; and pressure-molding the stacked provisional battery bodies with the electrode current collectors facing each other, wherein the positive-electrode mixture layer , the solid electrolyte layer , and the negative-electrode mixture layer are powder layers, and the electrode current collectors facing each other have rough surfaces, the rough surfaces of the electrode current collectors are engaged into each other in the pressure molding so as to join the electrode current collectors to each other, wherein the rough surface includes a plurality of parts (d, e, f) each having a depth (h) in a range of 2 to 20 μm, the method further comprising continuously applying to the provisional battery bodies , for a predetermined time after the step of pressure-molding, a pressure not higher than the pressure of pressure molding. forming each of the provisional battery bodies by pressing a positive-electrode mixture layer , a solid electrolyte layer , and a negative-electrode mixture layer that are stacked between a pair of electrode current collectors ; and pressure-molding the stacked provisional battery bodies with the electrode current collectors facing each other, wherein the positive-electrode mixture layer , the solid electrolyte layer , and the negative-electrode mixture layer are powder layers, and the electrode current collectors facing each other have rough surfaces, the rough surfaces of the electrode current collectors are engaged into each other in the pressure molding so as to join the electrode current collectors to each other, wherein the rough surface includes a plurality of parts (d, e, f) each having a depth (h) in a range of 2 to 20 μm, the method further comprising continuously applying to the provisional battery bodies , for a predetermined time after the step of pressure-molding, a pressure not higher than the pressure of pressure molding.
Device for ultrasonic testing of test bodies, in particular made of metal, having a probe with an arrangement of activatable oscillation elements in phased-array technology, the probe having an activatable oscillation face of more than 10 cm 2 , the probe being disposed in a housing which can be moved over the surface of the test body , and a coupling means for coupling the probe to the surface of the test body can be supplied between probe and surface of the test body , the housing comprising a frame which can be placed on the surface of the test body in the case of vertical testing, for a bubble-free coupling of the probe to the surface of the test body , and in which the probe is disposed offset relative to the support face of the frame forming a defined and constant gap of 0.1 to 5 mm relative to the surface of the test body , the coupling means being able to be supplied to the gap via an entry opening which is disposed in the frame and, during the testing procedure, detects at least the entire activatable oscillation face of the probe to be wetted with coupling means, in 6 o'clock position during the testing continuously and completely filling the gap from bottom to top, and the coupling means being able to be discharged again from the device via at least one exit opening in 12 o'clock position.
Apparatus for the production and filling of filled baked products made with batter dough, characterized in that said apparatus comprises: - a transport device configured to define a movement plane (P) for the movement, in a direction of feed (F), of baked products or one or more baking trays each provided with cooking hollows to receive a measured quantity of batter dough; - a unit to deliver and measure the batter dough configured to deliver a batter dough into said hollows of said baking trays ; - a first cooling sector configured to cool the baked products contained in the hollows of the baking trays , wherein said first cooling sector is an in-air cooling sector; - a product extraction unit configured to remove the cooked baked products from the baking trays and deposit them in organized rows on said transport device ; - a cooling unit configured to carry out a second cooling of the baked products removed from the baking trays , wherein said cooling unit is a forced cooling unit and comprises a refrigerator ; - a horizontal filling unit configured to introduce a filling inside the cooled baked products , essentially acting parallel to said movement plane (P). - a transport device configured to define a movement plane (P) for the movement, in a direction of feed (F), of baked products or one or more baking trays each provided with cooking hollows to receive a measured quantity of batter dough; - a unit to deliver and measure the batter dough configured to deliver a batter dough into said hollows of said baking trays ; - a first cooling sector configured to cool the baked products contained in the hollows of the baking trays , wherein said first cooling sector is an in-air cooling sector; - a product extraction unit configured to remove the cooked baked products from the baking trays and deposit them in organized rows on said transport device ; - a cooling unit configured to carry out a second cooling of the baked products removed from the baking trays , wherein said cooling unit is a forced cooling unit and comprises a refrigerator ; - a horizontal filling unit configured to introduce a filling inside the cooled baked products , essentially acting parallel to said movement plane (P).
A method of deriving synchronous switch current signals for a three-phase Vienna-type active rectifier comprising the steps of: for each phase leg of the three-phase Vienna-type rectifier: sensing a line current signal from current applied to the phase leg; feeding the sensed line current signal upstream to a first analog switch, a second analog switch, and a third analog switch; generating , for respectively top, middle and bottom power-switch gates of the phase leg, a top gate driver signal, a clamp gate driver signal and a bottom gate driver signal by a pulse width modulation; deriving a top switch current signal by driving the first analog switch by the top gate driver signal; deriving a clamp switch current signal by driving the second analog switch by the clamp gate driver signal; and deriving a bottom switch current signal by driving the third analog switch by the bottom gate driver signal, wherein the gate driver signals for driving the gates of the analog switches to provide the switch current signals are also used for driving the power-switch gates of the phase leg. Vienna-type active rectifier comprising the steps of: for each phase leg of the three-phase Vienna-type rectifier: sensing a line current signal from current applied to the phase leg; feeding the sensed line current signal upstream to a first analog switch, a second analog switch, and a third analog switch; generating , for respectively top, middle and bottom power-switch gates of the phase leg, a top gate driver signal, a clamp gate driver signal and a bottom gate driver signal by a pulse width modulation; deriving a top switch current signal by driving the first analog switch by the top gate driver signal; deriving a clamp switch current signal by driving the second analog switch by the clamp gate driver signal; and deriving a bottom switch current signal by driving the third analog switch by the bottom gate driver signal, wherein the gate driver signals for driving the gates of the analog switches to provide the switch current signals are also used for driving the power-switch gates of the phase leg.
A method of operation of a wireless device to assist with suppression of an interfering physical channel during reception of a desired physical channel, comprising: receiving assistance information for an interfering physical channel, the assistance information comprising: an identity used to generate a reference signal associated with the interfering physical channel; and information indicative of one or more transmission constraints on transmission of the interfering physical channel, the one or more transmission constraints comprising at least one of a group consisting of: a spatial multiplexing rank restriction and a precoding matrix restriction; and receiving a desired physical channel while suppressing the interfering physical channel according to the assistance information for the interfering physical channel. receiving assistance information for an interfering physical channel, the assistance information comprising: an identity used to generate a reference signal associated with the interfering physical channel; and information indicative of one or more transmission constraints on transmission of the interfering physical channel, the one or more transmission constraints comprising at least one of a group consisting of: a spatial multiplexing rank restriction and a precoding matrix restriction; and an identity used to generate a reference signal associated with the interfering physical channel; and information indicative of one or more transmission constraints on transmission of the interfering physical channel, the one or more transmission constraints comprising at least one of a group consisting of: a spatial multiplexing rank restriction and a precoding matrix restriction; and receiving a desired physical channel while suppressing the interfering physical channel according to the assistance information for the interfering physical channel.
A cathode for electrolysis comprising a conductive substrate and a Ru element-containing catalyst layer on the conductive substrate, characterized in that in the catalyst layer, the ratio of the maximum intensity of the Ru 3d 5/2 peak appearing between 281.4 eV and 282.4 eV to the maximum intensity of the Ru 3d 5/2 peak appearing between 280.0 eV and 281.0 eV, in an X-ray photoelectron spectroscopic measurement is 0.45 or more, the catalyst layer comprises, as a second component, at least one or more elements selected from Nd, Pm, Sm, Eu, Gd, Tb and Dy, wherein the catalyst layer comprises, as a third component, at least one or more elements selected from Mn, Fe, Co, Zn, Ga, S and Pb, wherein the Ru element in the catalyst layer is ruthenium oxide or ruthenium hydroxide, and wherein the amount of the element(s) of the third component is 0.01 mol or more and less than 1 mol in relation to 1 mol of the Ru element.
Housing for a gas turbine, on which at least one wall element is movably mounted which outwardly delimits a flow channel of the housing in the radial direction of an axis of rotation (D) of a rotor of the gas turbine, the housing comprising at least one variably adjustable guide vane which extends through the wall element into the flow channel , the wall element being movable between a sealing position in which the wall element abuts at least one subregion of a side of an airfoil of the guide vane that faces the wall element, and an open position in which the airfoil and the wall element are mutually spaced, characterized in that the wall element can be acted upon by a pressurized fluid in order to move between the open position and the sealing position.
A method for controlling an uplink transmission power, by a user equipment, UE, in a wireless communication system, wherein the UE is connected to both a first base station and a second base station in a dual connectivity, the method comprising: receiving, by the UE, information on a power control mode from the first base station via a higher layer, wherein the information on the power control mode indicates either a first power control mode usable for a synchronous dual connectivity or a second power control mode usable for an asynchronous dual connectivity; controlling, by the UE, the uplink transmission power based on the information on the power control mode; and transmitting, by the UE, an uplink signal to at least one of the first base station or the second base station by using the uplink transmission power, wherein the controlling of the uplink transmission power includes: performing a scaling-down for the uplink transmission power. receiving, by the UE, information on a power control mode from the first base station via a higher layer, wherein the information on the power control mode indicates either a first power control mode usable for a synchronous dual connectivity or a second power control mode usable for an asynchronous dual connectivity; controlling, by the UE, the uplink transmission power based on the information on the power control mode; and transmitting, by the UE, an uplink signal to at least one of the first base station or the second base station by using the uplink transmission power, wherein the controlling of the uplink transmission power includes: performing a scaling-down for the uplink transmission power.
A method of manufacturing a sensor body used in an oil temperature sensor that detects a temperature of oil, comprising: preparing a material for preparing a lead frame material in which a first-terminal-portion forming portion of a first lead frame portion and a second-terminal-portion forming portion of a second lead frame portion are connected by a connecting portion ; mounting a thermistor for mounting one end of a thermistor on a first resin mold portion of the first lead frame portion , while mounting the other end of the thermistor on a second resin mold portion of the second lead frame portion ; when the thermistor is mounted on the first resin mold portion and the second resin mold portion , molding the first resin mold portion , the second resin mold portion , and the thermistor to form a resin mold portion ; characterized in that the method further comprises cutting the connecting portion after the resin mold portion is formed, and separating the first-terminal-portion forming portion and the second-terminal-portion forming portion . preparing a material for preparing a lead frame material in which a first-terminal-portion forming portion of a first lead frame portion and a second-terminal-portion forming portion of a second lead frame portion are connected by a connecting portion ; mounting a thermistor for mounting one end of a thermistor on a first resin mold portion of the first lead frame portion , while mounting the other end of the thermistor on a second resin mold portion of the second lead frame portion ; when the thermistor is mounted on the first resin mold portion and the second resin mold portion , molding the first resin mold portion , the second resin mold portion , and the thermistor to form a resin mold portion ; characterized in that the method further comprises cutting the connecting portion after the resin mold portion is formed, and separating the first-terminal-portion forming portion and the second-terminal-portion forming portion .
A hollow particle, wherein the particle is composed of a shell and a hollow, the shell comprises a medicament and a polymer, a volume ratio of the hollow relative to the whole particle is 1% - 50%, a shell thickness of the particle is not less than 15 μm, a particle shell strength of not less than 2.0 MPa, the polymer used as a starting material has an average particle size from 5 to 1,000 fold that of the medicament used as a starting material, or the shell further comprises other additive and the polymer used as a starting material has an average particle size from 5 to 1,000 fold that of a mixed powder of the medicament and the other additive used as a starting material, and the average particle size of a polymer is from 0.5 μm to 5 mm used as a starting material and the average particle size of the other additive, when present, is not more than 20 μm used as a starting material.