mhurhangee/patent-ind-claim-en huggingface dataset:
A method for calculating a humidity value of clothes in a clothes dryer, comprising: for each of a plurality of first time periods: acquiring (S 1) a first plurality of sampling points of a humidity sensor during the first time period, and extracting (S2, S202) a maximum value (X1, X2, X3, Xn) from the plurality of sampling points; generating a maximum-value accumulated value by adding the extracted maximum values (X1, X2, X3, Xn); acquiring (S3, S205) the maximum-value accumulated value during a second time period, the second time period including the plurality of first time periods, and generating an average value during the second time period by dividing the maximum-value accumulated value during the second time period by the second time period; acquiring (S4, S207), after generating the average value, a plurality of current sampling points during a current first time period, and acquiring a current maximum value of the current sampling points; generating (S208) a current humidity value according to the current maximum value and the average value; wherein the current humidity value is generated by the following formula: the current humidity value = the average value ∗ 0.995 + the current maximum value ∗ 0.005 . for each of a plurality of first time periods: acquiring (S 1) a first plurality of sampling points of a humidity sensor during the first time period, and extracting (S2, S202) a maximum value (X1, X2, X3, Xn) from the plurality of sampling points; acquiring (S 1) a first plurality of sampling points of a humidity sensor during the first time period, and extracting (S2, S202) a maximum value (X1, X2, X3, Xn) from the plurality of sampling points; generating a maximum-value accumulated value by adding the extracted maximum values (X1, X2, X3, Xn); acquiring (S3, S205) the maximum-value accumulated value during a second time period, the second time period including the plurality of first time periods, and generating an average value during the second time period by dividing the maximum-value accumulated value during the second time period by the second time period; acquiring (S4, S207), after generating the average value, a plurality of current sampling points during a current first time period, and acquiring a current maximum value of the current sampling points; generating (S208) a current humidity value according to the current maximum value and the average value; wherein the current humidity value is generated by the following formula: the current humidity value = the average value ∗ 0.995 + the current maximum value ∗ 0.005 .
Magnesium oxide for an annealing separator having a sulfur content of 0.1 to 0.5 mass% and an aggregation degree R Blaine /R BET of 3.0 to 5.5 wherein R Blaine is the particle size calculated from the Blaine specific surface area and R BET is the particle size calculated from the BET specific surface area.
A dental composition, comprising: cement; and a non-aqueous liquid, wherein the cement includes: a first domain including alite; a second domain including belite; and a matrix located between one or more selected from the group consisting of the first domain and the second domain wherein the matrix includes silicon (Si)-atom-doped tricalcium aluminate (3CaO·Al 2 O 3 ). cement; and a non-aqueous liquid, wherein the cement includes: a first domain including alite; a second domain including belite; and a matrix located between one or more selected from the group consisting of the first domain and the second domain wherein the matrix includes silicon (Si)-atom-doped tricalcium aluminate (3CaO·Al 2 O 3 ). a first domain including alite; a second domain including belite; and a matrix located between one or more selected from the group consisting of the first domain and the second domain wherein the matrix includes silicon (Si)-atom-doped tricalcium aluminate (3CaO·Al 2 O 3 ).
An information transmission method, applied in a terminal device, the method comprising: receiving (S101), by the terminal device, first indication information; and determining (S102), by the terminal device, a first offset parameter value based on the received first indication information, wherein the first offset parameter value is used to determine a timing relationship of transmission, characterized in that : the first indication information comprises first parameter information, and said determining, by the terminal device, the first offset parameter value based on at least the first indication information comprises: determining, by the terminal device based on a mapping and the first parameter information, the first offset parameter value, wherein the mapping comprises a correspondence between the at least first parameter information and the first offset parameter value, the first parameter comprises at least one of the following types of parameters: subcarrier spacing, cell identification, beam identification, Synchronization Signal Block, SSB, identification, satellite scenario, satellite altitude, transmission type, whether a Radio Resource Control, RRC, parameter configuration is completed. receiving (S101), by the terminal device, first indication information; and determining (S102), by the terminal device, a first offset parameter value based on the received first indication information, wherein the first offset parameter value is used to determine a timing relationship of transmission, characterized in that : the first indication information comprises first parameter information, and said determining, by the terminal device, the first offset parameter value based on at least the first indication information comprises: determining, by the terminal device based on a mapping and the first parameter information, the first offset parameter value, wherein the mapping comprises a correspondence between the at least first parameter information and the first offset parameter value, the first parameter comprises at least one of the following types of parameters: subcarrier spacing, cell identification, beam identification, Synchronization Signal Block, SSB, identification, satellite scenario, satellite altitude, transmission type, whether a Radio Resource Control, RRC, parameter configuration is completed. the first indication information comprises first parameter information, and said determining, by the terminal device, the first offset parameter value based on at least the first indication information comprises: determining, by the terminal device based on a mapping and the first parameter information, the first offset parameter value, wherein the mapping comprises a correspondence between the at least first parameter information and the first offset parameter value, the first parameter comprises at least one of the following types of parameters: subcarrier spacing, cell identification, beam identification, Synchronization Signal Block, SSB, identification, satellite scenario, satellite altitude, transmission type, whether a Radio Resource Control, RRC, parameter configuration is completed.
A method for diagnosing a disease in a patient comprised of the following: separating serum or plasma from blood collected from a patient; partitioning said serum or plasma in at least one aqueous two-phase partitioning system, wherein said two-phase partitioning system is adapted to differentially partition albumin when said disease is present or absent in said patient; assaying aqueous phases of said at least one two phase partitioning system for human serum albumin (HSA) using a specific assay for said albumin; calculating partition coefficient K of albumin for each aqueous phases; and, determining presence of said disease in said patient by comparing numerical values of calculated partition coefficients with reference values previously determined for albumin in serum or plasma taken from individuals with and without said disease, wherein said disease is breast or colon cancer. separating serum or plasma from blood collected from a patient; partitioning said serum or plasma in at least one aqueous two-phase partitioning system, wherein said two-phase partitioning system is adapted to differentially partition albumin when said disease is present or absent in said patient; assaying aqueous phases of said at least one two phase partitioning system for human serum albumin (HSA) using a specific assay for said albumin; calculating partition coefficient K of albumin for each aqueous phases; and, determining presence of said disease in said patient by comparing numerical values of calculated partition coefficients with reference values previously determined for albumin in serum or plasma taken from individuals with and without said disease, wherein said disease is breast or colon cancer.
Composition comprising at least one polyhydroxyalkanoate (PHA), having saturated side chains and substantially devoid of unsaturated side chains, dissolved in at least one aromatic solvent in an amount of between 50 g/l and 200 g/l, said at least one PHA having a weight-average molecular weight (M w ) not greater than 250,000 Da, determined by GPC (Gel Permeation Chromatography) analysis.
A first base station, BS, for handling radio bearer, RB, configurations of radio access technologies, RATs, comprising: at least one storage device ; and at least one processing circuit , coupled to the at least one storage device , wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: configuring a first RB configuration of a first RAT and a second RB configuration of a second RAT to a first communication device, wherein the first RB configuration and the second RB configuration are associated to a first RB; communicating first data associated to the first RB with the first communication device according to the first RB configuration and the second RB configuration; and transmitting the first RB configuration and the second RB configuration to a second BS in a handover preparation procedure for the first communication device. at least one storage device ; and at least one processing circuit , coupled to the at least one storage device , wherein the at least one storage device stores, and the at least one processing circuit is configured to execute, instructions of: configuring a first RB configuration of a first RAT and a second RB configuration of a second RAT to a first communication device, wherein the first RB configuration and the second RB configuration are associated to a first RB; communicating first data associated to the first RB with the first communication device according to the first RB configuration and the second RB configuration; and transmitting the first RB configuration and the second RB configuration to a second BS in a handover preparation procedure for the first communication device. configuring a first RB configuration of a first RAT and a second RB configuration of a second RAT to a first communication device, wherein the first RB configuration and the second RB configuration are associated to a first RB; communicating first data associated to the first RB with the first communication device according to the first RB configuration and the second RB configuration; and transmitting the first RB configuration and the second RB configuration to a second BS in a handover preparation procedure for the first communication device.
A wind turbine having a cooling system , which wind turbine comprises a nacelle in connection with which one or more wind turbine components are arranged, the cooling system comprising: - at least one cooling circuit arranged to lead a heat transfer medium to and from one or more of the wind turbine components , - a least one cooling device arranged to cool the heat transfer medium, - at least one pump arranged in connection with the at least one cooling circuit to circulate the heat transfer medium in the cooling circuit , and - at least one medium tank arranged in connection with the cooling circuit , wherein the at least one medium tank is arranged inside the nacelle , characterised in that the medium tank is divided into at least a first compartment and a second compartment having at least one passage between them, the first compartment being situated below the second compartment (17, wherein the first compartment comprises an inlet and an outlet to the cooling circuit , and the at least one passage between the two compartments are positioned below a level of the heat transfer medium in the medium tank . - at least one cooling circuit arranged to lead a heat transfer medium to and from one or more of the wind turbine components , - a least one cooling device arranged to cool the heat transfer medium, - at least one pump arranged in connection with the at least one cooling circuit to circulate the heat transfer medium in the cooling circuit , and - at least one medium tank arranged in connection with the cooling circuit ,
An agricultural harvester with crop residue spread monitoring system , the agricultural harvester comprising a self-propelled agricultural harvesting vehicle with a threshing rotor supported in a grating, a chopper disposed to chop crop residue exiting the threshing rotor , and a spreader mechanism disposed to receive chopped material from the chopper and spread the chopped residue over the ground, wherein the crop residue spread monitoring system comprises at least one camera , characterized in that the camera is disposed below or adjacent an exit of the spreader mechanism , said camera being configured to image a plume of residue leaving the spreader mechanism from an underside of the plume of residue.
A spool position estimation apparatus comprising: a supplying unit that supplies a high-frequency signal (Sh) to a solenoid for driving a spool of an electromagnetic valve ; an acquisition unit that acquires electrical information (Je) related to the solenoid supplied with the high-frequency signal (Sh); an estimation unit that estimates a position of the spool based on a result of comparison between the electrical information (Je) acquired by the acquisition unit and the high-frequency signal (Sh) supplied from the supplying unit ; characterized by a driving unit that outputs a driving PWM voltage (D0) on which the high-frequency signal (Sh) is superimposed to produce a driving voltage (D1) to drive the solenoid . a supplying unit that supplies a high-frequency signal (Sh) to a solenoid for driving a spool of an electromagnetic valve ; an acquisition unit that acquires electrical information (Je) related to the solenoid supplied with the high-frequency signal (Sh); an estimation unit that estimates a position of the spool based on a result of comparison between the electrical information (Je) acquired by the acquisition unit and the high-frequency signal (Sh) supplied from the supplying unit ; characterized by a driving unit that outputs a driving PWM voltage (D0) on which the high-frequency signal (Sh) is superimposed to produce a driving voltage (D1) to drive the solenoid .
Illumination device (DE) comprising at least two light-emitting diodes (Dj) suitable for generating photons and a light guide (GL) of the flat type and including a guide part (PG) placed between input (FE) and output (FS) faces, the said input face (FE) being suitable for supplying the said guide part (PG) with generated photons and the said output face (FS) being suitable for delivering to the outside photons guided in the said guide part (PG) characterized in that the input face (FE) comprises at least one supply zone (ZA) in which said light-emitting diodes (Dj) are all located and placed opposite respective input zones (ZEj), defined in the supply zone (ZA) of said input face (FE) ; said supply zone (ZA) being located opposite a single first output zone (ZS1) of said output face (FS), and in that the input face (FE) comprises a zone (ZR) of the input face (FE) which is located next to the local supply zone (ZA) and in front of which no light-emitting diodes are installed said diodes (Dj) being furthermore arranged to distribute the received photons respectively in predefined angular sectors (SAj) in order to induce on a second output zone (ZS2) of said output face (FS), located next to said first output zone (ZS1), a decreasing light intensity from said first output zone (ZS1).
A method for fabricating a multifiber assembly, comprising: selecting a plurality of optical fibers that each have a respective cladding diameter; determining a maximum fiber core position error for the plurality of optical fibers in a plurality of configurations, wherein for each configuration: the plurality of optical fibers are arranged side-by-side in an array such that each optical fiber has a position in the array, the plurality of optical fibers are arranged in a different order, each optical fiber has a respective fiber core position relative to an ideal core position for that optical fiber to define a respective fiber core position error, the ideal core positions are based on each optical fiber of the plurality of optical fibers having an ideal cladding diameter, and the maximum fiber core position error is a maximum of the respective fiber core position errors; and determining a desired order of the plurality of optical fibers that minimizes the maximum fiber core position error. selecting a plurality of optical fibers that each have a respective cladding diameter; determining a maximum fiber core position error for the plurality of optical fibers in a plurality of configurations, wherein for each configuration: the plurality of optical fibers are arranged side-by-side in an array such that each optical fiber has a position in the array, the plurality of optical fibers are arranged in a different order, each optical fiber has a respective fiber core position relative to an ideal core position for that optical fiber to define a respective fiber core position error, the ideal core positions are based on each optical fiber of the plurality of optical fibers having an ideal cladding diameter, and the maximum fiber core position error is a maximum of the respective fiber core position errors; and the plurality of optical fibers are arranged side-by-side in an array such that each optical fiber has a position in the array, the plurality of optical fibers are arranged in a different order, each optical fiber has a respective fiber core position relative to an ideal core position for that optical fiber to define a respective fiber core position error, the ideal core positions are based on each optical fiber of the plurality of optical fibers having an ideal cladding diameter, and the maximum fiber core position error is a maximum of the respective fiber core position errors; and determining a desired order of the plurality of optical fibers that minimizes the maximum fiber core position error.
A liquid chromatography system (10; 90; 190) comprising at least one column (240; A, B, N) therein and configured for purification of a sample comprising a target product using a predefined process, wherein the liquid chromatography system (10; 90; 190) comprises a controller (91; 300) configured to: control the operation of the chromatography system (10; 90; 190) to run the predefined process, retrieve column data from a data storage accessible to the liquid chromatography system (10; 90; 190), the column data being specific to each column (240; A, B, N), and adapt at least one process parameter of the predefined process for each column (240; A, B, N) based on the column data, whereby the predefined process is adapted to each column (240; A, B, N) to obtain the target product and maintain the performance of the liquid chromatography system (10; 90; 190); characterised in that : the data storage comprises column data related to production parameters when producing each column (240; A, B, N) including hardware properties that comprise measured and calculated properties of different components used to manufacture the column that affect the function of the column (240; A, B, N), and the production parameters being determined based on the hardware properties and media properties of a resin, wherein the media properties comprise measured and calculated properties of the media that is intended to be used in the column (240; A, B, N). control the operation of the chromatography system (10; 90; 190) to run the predefined process, retrieve column data from a data storage accessible to the liquid chromatography system (10; 90; 190), the column data being specific to each column (240; A, B, N), and adapt at least one process parameter of the predefined process for each column (240; A, B, N) based on the column data, whereby the predefined process is adapted to each column (240; A, B, N) to obtain the target product and maintain the performance of the liquid chromatography system (10; 90; 190); characterised in that : the data storage comprises column data related to production parameters when producing each column (240; A, B, N) including hardware properties that comprise measured and calculated properties of different components used to manufacture the column that affect the function of the column (240; A, B, N), and the production parameters being determined based on the hardware properties and media properties of a resin, wherein the media properties comprise measured and calculated properties of the media that is intended to be used in the column (240; A, B, N).
A method of resistance spot welding to join materials to be welded by squeezing the materials between a pair of electrodes and passing current while applying pressure, the materials being a plurality of overlapping metal sheets, the method comprising: dividing a current pattern into two or more steps for welding; before actual welding, performing test welding to store, for each step as a target value, a time variation of an instantaneous amount of heat generated per unit volume and a cumulative amount of heat generated per unit volume that are calculated from an electrical property between electrodes when forming an appropriate nugget by passing current with constant current control; and subsequently, as actual welding, starting welding using, as a standard, a time variation curve of the instantaneous amount of heat generated per unit volume obtained by the test welding, characterized by performing adaptive control welding to control a welding current with the cumulative amount of heat generated that is determined for each step in advance in the test welding as a target value in order to compensate for a difference during a remaining welding time in the step, wherein adaptive control is performed when a time variation amount of an instantaneous amount of heat generated per unit volume deviates during any step from the time variation curve by the difference. dividing a current pattern into two or more steps for welding; before actual welding, performing test welding to store, for each step as a target value, a time variation of an instantaneous amount of heat generated per unit volume and a cumulative amount of heat generated per unit volume that are calculated from an electrical property between electrodes when forming an appropriate nugget by passing current with constant current control; and subsequently, as actual welding, starting welding using, as a standard, a time variation curve of the instantaneous amount of heat generated per unit volume obtained by the test welding, characterized by performing adaptive control welding to control a welding current with the cumulative amount of heat generated that is determined for each step in advance in the test welding as a target value in order to compensate for a difference during a remaining welding time in the step, wherein adaptive control is performed when a time variation amount of an instantaneous amount of heat generated per unit volume deviates during any step from the time variation curve by the difference.