mhurhangee/patent-ind-claim-en huggingface dataset:
Amplification system comprising: • a crest factor reduction module configured to clip the input signal and • a digital pre-distortion module configured to pre-distort the clipped signal and • at least one power amplifier configured to amplify the pre-distorted signal and within this amplification system; • the crest factor reduction module is configured to pass an information representing a Peak Average Ratio of the input signal to the digital pre-distortion module and to the power amplifier , and • the crest factor reduction module is configured to dynamically adapt a clipping radius according to a load factor and/or a modulation of the input signal and • the digital pre-distortion module being configured to pre distort the clipped signal based on the information this amplification system also comprising • a drain bias controller , providing a drain bias voltage, based on the information, to the power amplifier; and • a gate bias controller , providing a gate bias voltage, based on the information, to the power amplifier. • a crest factor reduction module configured to clip the input signal and • a digital pre-distortion module configured to pre-distort the clipped signal and • at least one power amplifier configured to amplify the pre-distorted signal and within this amplification system; • the crest factor reduction module is configured to pass an information representing a Peak Average Ratio of the input signal to the digital pre-distortion module and to the power amplifier , and • the crest factor reduction module is configured to dynamically adapt a clipping radius according to a load factor and/or a modulation of the input signal and • the digital pre-distortion module being configured to pre distort the clipped signal based on the information • a drain bias controller , providing a drain bias voltage, based on the information, to the power amplifier; and • a gate bias controller , providing a gate bias voltage, based on the information, to the power amplifier.
A method for location-based authentication of a device , the method comprising: receiving multiple device location fingerprints generated using respective ones of multiple device sensors ; comparing the device location fingerprints with corresponding respective environment fingerprints generated using respective ones of multiple static sensors in a location; determining whether the result of the comparison indicates a matching location; and in response to determining that the result of the comparison indicates a matching location, generating a token for the device to authorise it to use one or more selected services at the location. receiving multiple device location fingerprints generated using respective ones of multiple device sensors ; comparing the device location fingerprints with corresponding respective environment fingerprints generated using respective ones of multiple static sensors in a location; determining whether the result of the comparison indicates a matching location; and in response to determining that the result of the comparison indicates a matching location, generating a token for the device to authorise it to use one or more selected services at the location.
A method of proof testing a glass or glass ceramic sheet , the method comprising passing the sheet between a first pair of edge rollers on one side of the sheet and two pairs of edge rollers on an opposite side of the sheet such that only peripheral regions of the sheet proximate the outer edges of the sheet on both sides of the sheet are contacted by the first pair of edge rollers and the two pairs of edge rollers , thereby producing a bend in the sheet by bending the sheet over the first pair of edge rollers , and producing relative motion between the sheet and the bend such that the bend traverses successive portions of the sheet , and wherein tensile stress induced in a surface of the sheet by the bend corresponds to a predetermined strength value to detect sheets having a strength less than or equal to the predetermined strength value.
An electric pump device ( P ) comprising an oil pump that supplies oil to a hydraulic device, a brushless motor including a rotor that drives the oil pump , and a controller that controls the brushless motor , wherein the controller includes a power supply section that supplies drive power to the brushless motor and a drive control section , wherein the controller further includes a synchronism loss determining section that determines whether the brushless motor has lost synchronism, and, wherein the rotor of the brushless motor includes permanent magnets as field magnets, the controller further including an induced voltage detecting section that detects an induced voltage generated through rotation of the rotor and a memory section storing a comparison reference voltage, which is used to determine whether the brushless motor has lost synchronism; and the synchronism loss determining section determines whether the brushless motor has lost synchronism by comparing the induced voltage with the comparison reference voltage, characterized in that , when the synchronism loss determining section determines that the brushless motor has lost synchronism, the drive control section controls the power supply section to start the brushless motor after controlling the power supply section to stop supply of the drive power to the brushless motor .
A conveyance system for conveying a workpiece (W) between a storage shelf and a plurality of processing machines , the conveyance system comprising: (i) a main controller configured for receiving a conveyance request for a workpiece (W) from the plurality of processing machines , the main controller being configured for retaining the received conveyance request and transmitting a standby signal indicating whether or not a plurality of conveyance requests are retained in the main controller , and (ii) a conveyance device configured for conveying the workpiece (W) between the storage shelf and the plurality of processing machines , the conveyance device comprising: a carriage configured for moving between the storage shelf and the plurality of processing machines , and a local controller for controlling the carriage , wherein the local controller of the conveyance device is configured to: receive the standby signal from the main controller , move the carriage in accordance with a first traveling control parameter when the standby signal indicates that a plurality of conveyance requests are retained in the main controller , and move the carriage in accordance with a second traveling control parameter, which moves the carriage more slowly than when moved in accordance with the first traveling control parameter, when the standby signal indicates that a plurality of conveyance requests are not retained in the main controller . (i) a main controller configured for receiving a conveyance request for a workpiece (W) from the plurality of processing machines , the main controller being configured for retaining the received conveyance request and transmitting a standby signal indicating whether or not a plurality of conveyance requests are retained in the main controller , and (ii) a conveyance device configured for conveying the workpiece (W) between the storage shelf and the plurality of processing machines , the conveyance device comprising: a carriage configured for moving between the storage shelf and the plurality of processing machines , and a local controller for controlling the carriage , wherein a carriage configured for moving between the storage shelf and the plurality of processing machines , and a local controller for controlling the carriage , wherein receive the standby signal from the main controller , move the carriage in accordance with a first traveling control parameter when the standby signal indicates that a plurality of conveyance requests are retained in the main controller , and move the carriage in accordance with a second traveling control parameter, which moves the carriage more slowly than when moved in accordance with the first traveling control parameter, when the standby signal indicates that a plurality of conveyance requests are not retained in the main controller .
A method, comprising: generating a second clock signal (CLK2) with a second subsystem of an integrated circuit; receiving the second clock signal (CLK2) with a first subsystem of the integrated circuit; detecting, with the first subsystem , an edge of the second clock signal (CLK2); generating, with the first subsystem , a first clock signal (CLK1) with a phase relative to the second clock signal based on the detected edge of the second clock signal (CLK2); and outputting data from the first subsystem to the second subsystem based on the first clock signal (CLK1), the phase of the first clock signal (CLK1) relative to the second clock signal (CLK2) being selected to ensure that the second subsystem can properly process data from the first subsystem within a desired cycle of the second clock signal (CLK2). generating a second clock signal (CLK2) with a second subsystem of an integrated circuit; receiving the second clock signal (CLK2) with a first subsystem of the integrated circuit; detecting, with the first subsystem , an edge of the second clock signal (CLK2); generating, with the first subsystem , a first clock signal (CLK1) with a phase relative to the second clock signal based on the detected edge of the second clock signal (CLK2); and outputting data from the first subsystem to the second subsystem based on the first clock signal (CLK1), the phase of the first clock signal (CLK1) relative to the second clock signal (CLK2) being selected to ensure that the second subsystem can properly process data from the first subsystem within a desired cycle of the second clock signal (CLK2).
A method for measuring a battery temperature using a temperature sensor embodied in a battery monitoring integrated circuit, characterized in that the method comprises performing calibration to calculate a thermal resistance between the battery monitoring integrated circuit that includes a voltage sensor , and a terminal of a battery , wherein the performing the calibration includes mounting the battery monitoring integrated circuit on the terminal through a metallic lead frame ; measuring a temperature using the temperature sensor ; measuring a voltage at the terminal or at a supply pin of the battery monitoring integrated circuit while a current is being used to charge or discharge the battery; calculating a power by multiplying the voltage and the current; calculating a self-heating temperature adjustment to the temperature by multiplying the power and the thermal resistance. performing calibration to calculate a thermal resistance between the battery monitoring integrated circuit that includes a voltage sensor , and a terminal of a battery , wherein the performing the calibration includes mounting the battery monitoring integrated circuit on the terminal through a metallic lead frame ; measuring a temperature using the temperature sensor ; measuring a voltage at the terminal or at a supply pin of the battery monitoring integrated circuit while a current is being used to charge or discharge the battery; calculating a power by multiplying the voltage and the current; calculating a self-heating temperature adjustment to the temperature by multiplying the power and the thermal resistance.
A method of configuring a wind turbine automatically, wherein the wind turbine is a part of a plurality of wind turbines in a wind farm (28.1-28.n), the method comprising: generating a plurality of configuration profiles (44.1 - 44.n) for a wind turbine; wherein the configuration profiles (44.1-44.n) comprise a plurality of parameters (Param 1 - Param n) and a corresponding value (v1 - vn) ; assigning one of the configuration profiles (44.1-44.n) as an active configuration profile and storing the configuration profiles, other than the active configuration profile, as shadow configuration profiles (44.1-44.n); monitoring the performance of the wind turbine operating with the active configuration profile ; evaluating the response of the shadow configuration profiles (44.1- 44.n) based on real-time inputs received at the wind turbine , wherein the real-time inputs comprise inputs that are associated with the operating environment of the wind turbine and that are employed to simulate wind turbine models for the shadow configuration profiles (44.1- 44.n); comparing the output of the wind turbine operating in the active configuration profile with that of the outputs of the shadow configuration profiles (44.1 - 44.n); selecting a candidate configuration profile from a group of active configuration profile and the one or more shadow configuration profiles (44.1- 44.n) based on the comparison; replacing the active configuration profile with the candidate configuration profile. generating a plurality of configuration profiles (44.1 - 44.n) for a wind turbine; wherein the configuration profiles (44.1-44.n) comprise a plurality of parameters (Param 1 - Param n) and a corresponding value (v1 - vn) ; assigning one of the configuration profiles (44.1-44.n) as an active configuration profile and storing the configuration profiles, other than the active configuration profile, as shadow configuration profiles (44.1-44.n); monitoring the performance of the wind turbine operating with the active configuration profile ; evaluating the response of the shadow configuration profiles (44.1- 44.n) based on real-time inputs received at the wind turbine , wherein the real-time inputs comprise inputs that are associated with the operating environment of the wind turbine and that are employed to simulate wind turbine models for the shadow configuration profiles (44.1- 44.n); comparing the output of the wind turbine operating in the active configuration profile with that of the outputs of the shadow configuration profiles (44.1 - 44.n); selecting a candidate configuration profile from a group of active configuration profile and the one or more shadow configuration profiles (44.1- 44.n) based on the comparison; replacing the active configuration profile with the candidate configuration profile.
A method of indicating a synchronization signal block, SSB, carried by a base station, comprising: determining a target pattern from a plurality of patterns and acquiring serial number information corresponding to the SSB based on the target pattern; determining , according to the serial number information corresponding to the SSB, position indication information in an indication signaling for indicating a corresponding position of the SSB; and wherein the position indication information in the indication signaling is determined according to a position of the SSB in the pattern and an identifier of the pattern, wherein the position of the SSB in the pattern and the identifier of the pattern are used to determine a slot and a position in the slot where an initial symbol of the SSB is located, and transmitting the position indication information to a user equipment, UE. determining a target pattern from a plurality of patterns and acquiring serial number information corresponding to the SSB based on the target pattern; determining , according to the serial number information corresponding to the SSB, position indication information in an indication signaling for indicating a corresponding position of the SSB; and wherein the position indication information in the indication signaling is determined according to a position of the SSB in the pattern and an identifier of the pattern, wherein the position of the SSB in the pattern and the identifier of the pattern are used to determine a slot and a position in the slot where an initial symbol of the SSB is located, and transmitting the position indication information to a user equipment, UE.
A method for forming a layer on an item, the method comprising: depositing on the item an ink containing a security element and a species for forming a metal matrix to form the layer, which comprises a metal matrix having embedded therein the security element, wherein the species for forming a metal matrix comprises a metal compound of a first metal, wherein the ink further comprises a liquid carrier, and wherein the metal compound is dissolved in the liquid carrier; wherein the metal compound is deposited on the item and then the liquid carrier is removed, and wherein decomposition of the metal compound is effected by raising the temperature of the ink after deposition on the item to produce the metal matrix comprising the first metal in elemental or alloyed form. depositing on the item an ink containing a security element and a species for forming a metal matrix to form the layer, which comprises a metal matrix having embedded therein the security element, wherein the species for forming a metal matrix comprises a metal compound of a first metal, wherein the ink further comprises a liquid carrier, and wherein the metal compound is dissolved in the liquid carrier; wherein the metal compound is deposited on the item and then the liquid carrier is removed, and wherein decomposition of the metal compound is effected by raising the temperature of the ink after deposition on the item to produce the metal matrix comprising the first metal in elemental or alloyed form.
An image forming apparatus capable of communicating via a network with another image forming apparatus that has a transfer function of converting facsimile data sent by a facsimile apparatus into data of a predetermined format and performing data transfer, comprising: receiving means configured to receive data; and image forming means configured to form an image on a basis of the data received by the receiving means; characterized in that the image forming apparatus further comprises control means configured to perform control such that, in a case where a remaining amount of a toner used for forming an image by the image forming means is less than a predetermined value, receiving by the receiving means is refused for data of the predetermined format transferred using the transfer function of the another image forming apparatus , whereas receiving by the receiving means and forming an image by the image forming means are performed for data of the predetermined format transferred using a method different from data transfer using the transfer function of the another image forming apparatus . receiving means configured to receive data; and image forming means configured to form an image on a basis of the data received by the receiving means; characterized in that the image forming apparatus further comprises control means configured to perform control such that, in a case where a remaining amount of a toner used for forming an image by the image forming means is less than a predetermined value, receiving by the receiving means is refused for data of the predetermined format transferred using the transfer function of the another image forming apparatus , whereas receiving by the receiving means and forming an image by the image forming means are performed for data of the predetermined format transferred using a method different from data transfer using the transfer function of the another image forming apparatus .
A bit index explicit replication, BIER, forwarding entry construction method, wherein the method comprises: Receiving , by a second network device, a first message sent by a first network device, wherein the first message comprises a host routing prefix of the first network device, first BIER information, and second BIER information, the first BIER information comprises a bit index forwarding table identifier BIFT ID of the first network device, the second BIER information comprises an identifier BFR ID of at least one bit-forwarding router BFR in a first area, the at least one BFR does not comprise the first network device, the first network device belongs to the first area and a second area, the second network device belongs to the second area, and the first area and the second area are different; and Constructing , by the second network device, a BIER forwarding entry based on the first BIER information, the second BIER information, and the host routing prefix, wherein in the BIER forwarding entry, the first network device is a next-hop BFR neighbor of the second network device. Receiving , by a second network device, a first message sent by a first network device, wherein the first message comprises a host routing prefix of the first network device, first BIER information, and second BIER information, the first BIER information comprises a bit index forwarding table identifier BIFT ID of the first network device, the second BIER information comprises an identifier BFR ID of at least one bit-forwarding router BFR in a first area, the at least one BFR does not comprise the first network device, the first network device belongs to the first area and a second area, the second network device belongs to the second area, and the first area and the second area are different; and Constructing , by the second network device, a BIER forwarding entry based on the first BIER information, the second BIER information, and the host routing prefix, wherein in the BIER forwarding entry, the first network device is a next-hop BFR neighbor of the second network device.
A hot rolled steel sheet, the steel sheet having a chemical composition consisting of, by mass%, C: 0.03% or more and 0.10% or less, Si: 0.01% or more and 0.50% or less, Mn: 1.4% or more and 2.2% or less, P: 0.025% or less, S: 0.005% or less, Al: 0.005% or more and 0.10% or less, Nb: 0.02% or more and 0.10% or less, Ti: 0.001% or more and 0.030% or less, Mo: 0.01% or more and 0.50% or less, Cr: 0.01% or more and 0.50% or less, Ni: 0.01% or more and 0.50% or less, optionally one, two, or all selected from among Cu: 0.50% or less, V: 0.10% or less, and B: 0.0005% or less, optionally Ca: 0.0005% or more and 0.0050% or less, and the balance being Fe and inevitable impurities, wherein inevitable impurities include N: 0.005% or less, O: 0.005% or less, Mg: 0.003% or less, and Sn: 0.005% or less, a microstructure in a surface layer, which is a region which is within a depth of less than 2 mm in the thickness direction from the upper or lower surface of the steel sheet, includes a bainitic ferrite phase or a bainitic ferrite phase and a tempered martensitic phase, wherein the lath thickness of the bainitic ferrite phase is 0.2 μm or more and 1.6 μm or less, and a microstructure in an inner layer, which is a region which is on the inner side at a depth of 2 mm or more in the thickness direction from the upper or lower surface of the steel sheet, includes, in terms of area fraction, 50% or more of a bainitic ferrite phase as a main phase and 1.4% or more and 15% or less of a massive martensitic phase having an aspect ratio of less than 5.0 as a second phase, wherein the lath thickness of the bainitic ferrite phase of the inner layer is 0.2 μm or more and 1.6 μm or less.