mhurhangee/ep-ind-claims huggingface dataset:
A remaining battery energy estimation device comprising: a current corrector configured to determine a corrected current value (I*) on the basis of a current value (lin) and a current correction amount ( ΔI) of a storage battery; an SOC calculator configured to calculate an estimated SOC value (SOC#) of the storage battery, the estimated SOC value (SOC#) being the charge rate of a storage battery, on the basis of the corrected current value (I*), a full charge capacity value, a default SOC value (SOCdf), and an SOC correction amount ( Δ SOC); a voltage estimator configured to determine an estimated voltage value (V#) of the storage battery on the basis of a temperature value (Tin) of the storage battery, the corrected current value (I*), and the estimated SOC value (SOC#); an SOC correction amount determiner configured to determine the SOC correction amount ( Δ SOC) on the basis of a comparison between a voltage value of the storage battery (Vin) and the estimated voltage value (V#), multiplied by a gain (Gk); and a current error estimator configured to determine the current correction amount ( Δ I) on the basis of the SOC correction amount ( Δ SOC). a current corrector configured to determine a corrected current value (I*) on the basis of a current value (lin) and a current correction amount ( ΔI) of a storage battery; an SOC calculator configured to calculate an estimated SOC value (SOC#) of the storage battery, the estimated SOC value (SOC#) being the charge rate of a storage battery, on the basis of the corrected current value (I*), a full charge capacity value, a default SOC value (SOCdf), and an SOC correction amount ( Δ SOC); a voltage estimator configured to determine an estimated voltage value (V#) of the storage battery on the basis of a temperature value (Tin) of the storage battery, the corrected current value (I*), and the estimated SOC value (SOC#); an SOC correction amount determiner configured to determine the SOC correction amount ( Δ SOC) on the basis of a comparison between a voltage value of the storage battery (Vin) and the estimated voltage value (V#), multiplied by a gain (Gk); and a current error estimator configured to determine the current correction amount ( Δ I) on the basis of the SOC correction amount ( Δ SOC).
A mobile terminal for communicating data with a base station in a wireless telecommunications system using subframes comprising a plurality of symbols, wherein the mobile terminal is configured to: receive physical-layer control information transmitted by the base station using a first group of the symbols in a subframe; receive higher-layer data transmitted by the base station using a second group of the symbols of the subframe, wherein the number of the symbols in the second group is less than the number of the symbols of the subframe available for transmitting higher-layer data to other mobile terminals, wherein the symbols of the subframe available for transmitting higher-layer data to other mobile terminals do not include the first group of the symbols; process the physical-layer control information to determine an allocation of higher-layer data for the mobile terminal within the second group of the symbols in the subframe; and process the higher-layer data to extract the allocated higher-layer data for the mobile terminal from the second group of the symbols in the subframe. receive physical-layer control information transmitted by the base station using a first group of the symbols in a subframe; receive higher-layer data transmitted by the base station using a second group of the symbols of the subframe, wherein the number of the symbols in the second group is less than the number of the symbols of the subframe available for transmitting higher-layer data to other mobile terminals, wherein the symbols of the subframe available for transmitting higher-layer data to other mobile terminals do not include the first group of the symbols; process the physical-layer control information to determine an allocation of higher-layer data for the mobile terminal within the second group of the symbols in the subframe; and process the higher-layer data to extract the allocated higher-layer data for the mobile terminal from the second group of the symbols in the subframe.
An apparatus comprising a patient support, an accelerator (10; 502) comprising an accelerator housing, the accelerator (10; 502) being configured to produce a proton or ion beam having an energy level of at least 150 MeV, and a gantry on which the accelerator (10, 502) is mounted to enable the accelerator (10; 502) to move through a range of positions around a patient on the patient support, the proton or ion beam having an energy level sufficient to reach any arbitrary target in the patient from positions within the range, wherein the gantry is supported for rotation on two sides of the patient support and is constrained to rotate within a range of positions from about 180 degrees to about 330 degrees, the proton or ion beam is adapted to pass essentially directly from the accelerator housing to the patient on the patient support.
A method, performed by an apparatus, for determining spectrum utilization for transmitting a plurality of numerologies within an allocated bandwidth, the method comprising: selecting the numerologies that are transmitted at either edge of the allocated bandwidth; and determining, for each of the selected numerologies, a spectrum utilization, wherein the spectrum utilization is based on the spectrum utilization that would be achieved if the selected numerology was transmitted in isolation across the whole allocated bandwidth; selecting a lowest spectrum utilization from the spectrum utilizations determined for the selected numerologies, to be the basis of a spectrum utilization used for calculating PRB allocation for each of the plurality of numerologies; and calculating, for each of the plurality of numerologies, a physical resource block, PRB, allocation, wherein the PRB allocation is based on a proportion of the allocated bandwidth and the selected spectrum utilization; and communicating with a receiving apparatus using the selected spectrum utilization and the PRB allocations. selecting the numerologies that are transmitted at either edge of the allocated bandwidth; and determining, for each of the selected numerologies, a spectrum utilization, wherein the spectrum utilization is based on the spectrum utilization that would be achieved if the selected numerology was transmitted in isolation across the whole allocated bandwidth; selecting a lowest spectrum utilization from the spectrum utilizations determined for the selected numerologies, to be the basis of a spectrum utilization used for calculating PRB allocation for each of the plurality of numerologies; and calculating, for each of the plurality of numerologies, a physical resource block, PRB, allocation, wherein the PRB allocation is based on a proportion of the allocated bandwidth and the selected spectrum utilization; and communicating with a receiving apparatus using the selected spectrum utilization and the PRB allocations.
A device for delivering a medicament to a limb of a patient body, the device comprising: a perfusion catheter configured to be positioned in a limb artery of the limb circulatory system in an antegrade position, wherein the perfusion catheter comprises an expandable occlusion member movably disposed thereon; and a collection catheter configured to be positioned in a limb vein of the limb circulatory system in a retrograde position, wherein the collection catheter comprises an expandable occlusion member movably disposed thereon. a perfusion catheter configured to be positioned in a limb artery of the limb circulatory system in an antegrade position, wherein the perfusion catheter comprises an expandable occlusion member movably disposed thereon; and a collection catheter configured to be positioned in a limb vein of the limb circulatory system in a retrograde position, wherein the collection catheter comprises an expandable occlusion member movably disposed thereon.
A battery grid comprising: - a frame comprising a top element, a bottom element, a first side element, and a second side element; - a plurality of wires provided within the frame and defining a plurality of open areas, including a series of radially extending vertical grid wire elements, which are connected to the top element and at least one of the bottom element, the first side element and the second side element, wherein one or more members of the vertical grid wire elements are removed such that there is an interruption or discontinuity in the grid; and - a current collection lug or current collector extending from the top element in a first direction, wherein one or more members of the vertical grid wire elements are removed such that vertical grid wire elements are separated by an open space. - a frame comprising a top element, a bottom element, a first side element, and a second side element; - a plurality of wires provided within the frame and defining a plurality of open areas, including a series of radially extending vertical grid wire elements, which are connected to the top element and at least one of the bottom element, the first side element and the second side element, wherein one or more members of the vertical grid wire elements are removed such that there is an interruption or discontinuity in the grid; and - a current collection lug or current collector extending from the top element in a first direction,
A beamforming device, comprising: a beam deriving unit configured to derive, among multiple reception beams, a first reception beam through which a reception signal having the largest amplitude is received from a terminal and a second reception beam through which a reception signal having the second largest amplitude is received from the terminal; a control unit configured to estimate a direction of the terminal based on a ratio of the amplitude of the reception signal received through the first reception beam to the amplitude of the reception signal received through the second reception beam; and characterized by a storage unit configured to store information on a gain ratio of a target beam to an adjacent beam of the target beam for each angle of direction in regions within each of which the target beam has the largest gain and the adjacent beam has the second largest gain among the multiple reception beams, wherein the control unit is configured to estimate the direction of the terminal, based on one of the regions in which the target beam is the first reception beam and the adjacent beam is the second reception beam, the information on the gain ratio for each angle in the said one region and the ratio of the largest amplitude of the reception signal received through the first reception beam to the second amplitude of the reception signal received through the second reception beam. a beam deriving unit configured to derive, among multiple reception beams, a first reception beam through which a reception signal having the largest amplitude is received from a terminal and a second reception beam through which a reception signal having the second largest amplitude is received from the terminal; a control unit configured to estimate a direction of the terminal based on a ratio of the amplitude of the reception signal received through the first reception beam to the amplitude of the reception signal received through the second reception beam; and characterized by a storage unit configured to store information on a gain ratio of a target beam to an adjacent beam of the target beam for each angle of direction in regions within each of which the target beam has the largest gain and the adjacent beam has the second largest gain among the multiple reception beams, wherein the control unit is configured to estimate the direction of the terminal, based on one of the regions in which the target beam is the first reception beam and the adjacent beam is the second reception beam, the information on the gain ratio for each angle in the said one region and the ratio of the largest amplitude of the reception signal received through the first reception beam to the second amplitude of the reception signal received through the second reception beam.
A Data Matrix barcode decoding chip, characterised in that comprising: a characteristic searching unit configured for searching for a characteristic pattern in a barcode image of a Data Matrix barcode to determine pixel coordinates of the characteristic pattern; a barcode parameter acquiring unit configured for acquiring a barcode parameter according to the pixel coordinates of the characteristic pattern; a correction characteristic acquiring unit configured for searching for a characteristic position in the barcode image, and acquiring a correction characteristic including a pixel coordinate according to the characteristic position; a module information processing unit configured for calculating a module coordinate corresponding to the correction characteristic according to the correction characteristic, the barcode parameter, and a module parameter of a module; calculating a mapping relationship between a pixel coordinate and a module coordinate of the barcode image according to the pixel coordinate and the module coordinate of the correction characteristic; and calculating a grayscale value corresponding to the module according to the barcode parameter and the mapping relationship; a binarizing unit configured for binarizing the module; a codeword extracting unit configured for extracting a codeword according to the binarized module; and an error correction and decoding unit configured for decoding the codeword. a characteristic searching unit configured for searching for a characteristic pattern in a barcode image of a Data Matrix barcode to determine pixel coordinates of the characteristic pattern; a barcode parameter acquiring unit configured for acquiring a barcode parameter according to the pixel coordinates of the characteristic pattern; a correction characteristic acquiring unit configured for searching for a characteristic position in the barcode image, and acquiring a correction characteristic including a pixel coordinate according to the characteristic position; a module information processing unit configured for calculating a module coordinate corresponding to the correction characteristic according to the correction characteristic, the barcode parameter, and a module parameter of a module; calculating a mapping relationship between a pixel coordinate and a module coordinate of the barcode image according to the pixel coordinate and the module coordinate of the correction characteristic; and calculating a grayscale value corresponding to the module according to the barcode parameter and the mapping relationship; a binarizing unit configured for binarizing the module; a codeword extracting unit configured for extracting a codeword according to the binarized module; and an error correction and decoding unit configured for decoding the codeword.
A ceramic heater comprising: a ceramic body; a heat-generating resistor embedded in the ceramic body and having an elongated shape; and a lead embedded in the ceramic body, connected to an end portion of the heat-generating resistor, and having an elongated shape, wherein the lead comprises: a first portion covering the corresponding end portion of the heat-generating resistor at a connection portion between the lead and the heat-generating resistor; and second portions extending sideways from both sides of the end portion, wherein a thickness of each of the second portions is smaller than a thickness of the first portion; and wherein a sideway length W of the each of the second portions is greater than a thickness T of the first portion at an end portion thereof. a ceramic body; a heat-generating resistor embedded in the ceramic body and having an elongated shape; and a lead embedded in the ceramic body, connected to an end portion of the heat-generating resistor, and having an elongated shape, wherein the lead comprises: a first portion covering the corresponding end portion of the heat-generating resistor at a connection portion between the lead and the heat-generating resistor; and second portions extending sideways from both sides of the end portion, a first portion covering the corresponding end portion of the heat-generating resistor at a connection portion between the lead and the heat-generating resistor; and second portions extending sideways from both sides of the end portion, wherein a thickness of each of the second portions is smaller than a thickness of the first portion; and wherein a sideway length W of the each of the second portions is greater than a thickness T of the first portion at an end portion thereof.
A method for measuring outside air temperature comprising the steps of: measuring temperature values over time starting at a time zero, thus providing a data series; estimating a time constant (τ) of exponential decay of the measured temperature values; determining a first order exponential decay of the measured temperature values in real time based on a measured initial temperature value (InitialValue) and an estimation of a magnitude (StepSize) of a transient response portion of the data series, the estimation of the magnitude (StepSize) of the transient response portion of the data series being based on the estimated time constant (τ) of exponential decay of the measured temperature values; predicting a final value of the first order exponential decay using a mathematical model based on the estimated magnitude (StepSize) of the transient response portion of the data series; and discriminating against thermal noise components existing in the temperature values by repeating said determining step over multiple iterations to arrive at a final temperature value (FinalValue). measuring temperature values over time starting at a time zero, thus providing a data series; estimating a time constant (τ) of exponential decay of the measured temperature values; determining a first order exponential decay of the measured temperature values in real time based on a measured initial temperature value (InitialValue) and an estimation of a magnitude (StepSize) of a transient response portion of the data series, the estimation of the magnitude (StepSize) of the transient response portion of the data series being based on the estimated time constant (τ) of exponential decay of the measured temperature values; predicting a final value of the first order exponential decay using a mathematical model based on the estimated magnitude (StepSize) of the transient response portion of the data series; and discriminating against thermal noise components existing in the temperature values by repeating said determining step over multiple iterations to arrive at a final temperature value (FinalValue).
Method for stimulating a catalyst of an internal combustion engine, comprising the following steps, according to which: - A high threshold (OSmax) and a low threshold (OSmin) for the quantity of oxygen stored in the catalyst are defined; - the instantaneous quantity of oxygen stored in the catalyst is estimated; - richness setpoint is modulated in frequency and / or amplitude as a function of said instantaneous amount of oxygen stored in said catalyst; - said modulation being carried out so that, when the instantaneous quantity of oxygen stored estimated in the catalyst reaches said high threshold and / or said low threshold, the switching of the richness setpoint is forced so as to decrease and / or increase the amount of oxygen stored in the catalyst, respectively, characterized in that the high threshold (OSmax) and / or the low threshold (OSmin) of stored oxygen are a function of the flow rate of the exhaust gases and of the exhaust temperature (T °), and of the motor operating point. - A high threshold (OSmax) and a low threshold (OSmin) for the quantity of oxygen stored in the catalyst are defined; - the instantaneous quantity of oxygen stored in the catalyst is estimated; - richness setpoint is modulated in frequency and / or amplitude as a function of said instantaneous amount of oxygen stored in said catalyst; - said modulation being carried out so that, when the instantaneous quantity of oxygen stored estimated in the catalyst reaches said high threshold and / or said low threshold, the switching of the richness setpoint is forced so as to decrease and / or increase the amount of oxygen stored in the catalyst, respectively, characterized in that the high threshold (OSmax) and / or the low threshold (OSmin) of stored oxygen are a function of the flow rate of the exhaust gases and of the exhaust temperature (T °), and of the motor operating point.
A method in which a terminal provides a Mission Critical Push To Talk, MCPTT, service, the method comprising: receiving (S310; S410) a group call announcement message, by the terminal participating in a group call for the MCPTT service based on a ProSe, Proximity Services, direct communication; when a group identifier of the group call announcement message is matched to a group identifier stored in the terminal and an originating user identifier of the group call announcement message is different from an originating user identifier stored in the terminal, comparing a call type stored in the terminal with a call type of the group call announcement message; and storing the originating user identifier of the group call announcement message as the originating user identifier of the group call based on a result of the comparison, thereby merging the two group calls. receiving (S310; S410) a group call announcement message, by the terminal participating in a group call for the MCPTT service based on a ProSe, Proximity Services, direct communication; when a group identifier of the group call announcement message is matched to a group identifier stored in the terminal and an originating user identifier of the group call announcement message is different from an originating user identifier stored in the terminal, comparing a call type stored in the terminal with a call type of the group call announcement message; and storing the originating user identifier of the group call announcement message as the originating user identifier of the group call based on a result of the comparison, thereby merging the two group calls.
A method of fabricating a cross-layer pattern in a layered object, the method being executed by an additive manufacturing system and comprising: dispensing a patterning material onto a receiving medium to form a first pattern element dispensing a first layer of modeling material onto said first pattern element, and a second layer of modeling material onto said first layer, while forming a first open cavity exposing at least a portion of said first pattern element beneath said layers of modeling material, said first open cavity being a stepped cavity; dispensing patterning material within said stepped cavity onto said exposed portion of said first pattern element and a wall of said stepped cavity to form, below an upper surface of a topmost layer of said stepped cavity, a second pattern element contacting said first pattern element; and leveling said topmost layer of said stepped cavity; thereby forming a cross-layer pattern of said patterning material. dispensing a patterning material onto a receiving medium to form a first pattern element dispensing a first layer of modeling material onto said first pattern element, and a second layer of modeling material onto said first layer, while forming a first open cavity exposing at least a portion of said first pattern element beneath said layers of modeling material, said first open cavity being a stepped cavity; dispensing patterning material within said stepped cavity onto said exposed portion of said first pattern element and a wall of said stepped cavity to form, below an upper surface of a topmost layer of said stepped cavity, a second pattern element contacting said first pattern element; and leveling said topmost layer of said stepped cavity; thereby forming a cross-layer pattern of said patterning material.