mhurhangee/patent-ind-claim-en huggingface dataset:
A battery charging method comprising: receiving a desired charging time of a battery ; generating , based on the desired charging time , constant charging currents of a number of charging steps to charge the battery ; acquiring a charging limit condition based on the desired charging time and an electrochemical model of the battery , the charging limit condition comprising at least one of an internal state condition or a maximum charging time for each of the charging steps; generating a charging profile based on the charging limit condition , the charging profile comprising the charging currents and charging times of the respective charging currents , wherein the acquiring of the charging limit condition comprises initializing the charging limit condition based on the charging currents ; and optimizing the initialized charging limit condition to charge the battery during the desired charging time and to prevent a degradation of the battery , based on the electrochemical model and a degradation condition of the battery ; and charging the battery based on the charging profile , wherein the charging of the battery comprises estimating a present internal state of the battery to which a present charging current of a present charging step is applied and applying a charging current subsequent to the present charging current to the battery based on whether the estimated present internal state reaches an internal state condition of the present charging step. receiving a desired charging time of a battery ; generating , based on the desired charging time , constant charging currents of a number of charging steps to charge the battery ; acquiring a charging limit condition based on the desired charging time and an electrochemical model of the battery , the charging limit condition comprising at least one of an internal state condition or a maximum charging time for each of the charging steps; generating a charging profile based on the charging limit condition , the charging profile comprising the charging currents and charging times of the respective charging currents , wherein the acquiring of the charging limit condition comprises initializing the charging limit condition based on the charging currents ; and optimizing the initialized charging limit condition to charge the battery during the desired charging time and to prevent a degradation of the battery , based on the electrochemical model and a degradation condition of the battery ; and charging the battery based on the charging profile , wherein the charging of the battery comprises estimating a present internal state of the battery to which a present charging current of a present charging step is applied and applying a charging current subsequent to the present charging current to the battery based on whether the estimated present internal state reaches an internal state condition of the present charging step.
A method implemented by a computer for up-down separation of seismic data, the method comprising: receiving the seismic data, recorded during a seismic survey of the subsurface, which includes hydrophone data and particle motion data; performing a first up-down separation, which is independent of a ghost model, using as input the hydrophone data and the particle motion data, to obtain first up-down separated data; the method characterized by further comprising: performing a second up-down separation by using as input a combination of (i) the hydrophone data and/or the particle motion data and (ii) the first up-down separated data, wherein an output of the second up-down separation is second up-down separated data, the second up-down separation being an inversion process that calculates a model p based on the seismic data and a matrix L according to the relation d=Lp, which depends on time delays associated with up-going wave-fields and down-going wave-fields; and generating an image of the subsurface based on the second up-down separated data. receiving the seismic data, recorded during a seismic survey of the subsurface, which includes hydrophone data and particle motion data; performing a first up-down separation, which is independent of a ghost model, using as input the hydrophone data and the particle motion data, to obtain first up-down separated data; the method characterized by further comprising: performing a second up-down separation by using as input a combination of (i) the hydrophone data and/or the particle motion data and (ii) the first up-down separated data, wherein an output of the second up-down separation is second up-down separated data, the second up-down separation being an inversion process that calculates a model p based on the seismic data and a matrix L according to the relation d=Lp, which depends on time delays associated with up-going wave-fields and down-going wave-fields; and generating an image of the subsurface based on the second up-down separated data. performing a second up-down separation by using as input a combination of (i) the hydrophone data and/or the particle motion data and (ii) the first up-down separated data, wherein an output of the second up-down separation is second up-down separated data, the second up-down separation being an inversion process that calculates a model p based on the seismic data and a matrix L according to the relation d=Lp, which depends on time delays associated with up-going wave-fields and down-going wave-fields; and generating an image of the subsurface based on the second up-down separated data.
Toe piece for a device for fastening a boot on a sliding board, comprising a base (130; 3) intended to be fixed to the sliding board, comprising: - two lateral jaws (101; 8, 9), each mounted to be rotationally mobile on the base (130; 3) about a substantially vertical rotation axis (103; 10, 11), so as to be able to occupy a closed position in which they are able to hold a boot on a sliding board and a separated position in which they are able to receive a boot, - two links (120; 28, 29) each linked to a jaw by a lateral axis (123; 14, 15) and on the other hand linked together by at least one central axis (125; 32), characterized in that it comprises - a pusher (110; 35) comprising two lateral trig surfaces (114; 24, 25) each cooperating with a respective ramp (104; 22, 23) of each jaw (101; 8, 9), this pusher (110; 35) being linked to the base (130; 3) by a trig spring (112; 36) which makes it possible to control its displacement. - two lateral jaws (101; 8, 9), each mounted to be rotationally mobile on the base (130; 3) about a substantially vertical rotation axis (103; 10, 11), so as to be able to occupy a closed position in which they are able to hold a boot on a sliding board and a separated position in which they are able to receive a boot, - two links (120; 28, 29) each linked to a jaw by a lateral axis (123; 14, 15) and on the other hand linked together by at least one central axis (125; 32), characterized in that it comprises - a pusher (110; 35) comprising two lateral trig surfaces (114; 24, 25) each cooperating with a respective ramp (104; 22, 23) of each jaw (101; 8, 9), this pusher (110; 35) being linked to the base (130; 3) by a trig spring (112; 36) which makes it possible to control its displacement.
A flexible sole for an article of footwear, the sole being designed to have flexibility such that it allows a foot to roll during walking; the sole having been manufactured from EVA by injection moulding to have an upper, ungrooved portion , and a lower, tread portion having a plurality of grooves extending therein which open in the bottom surface of the sole; the sole comprising: at least two, continuous, undulating grooves extending generally longitudinally of the tread portion between the toe and heel ends thereof, each end of each undulating groove being at a similar acute angle relative to a heel to toe line extending generally longitudinally of the sole wherein the at least two continuous undulating grooves extend the full length of the sole ; and a plurality of grooves extending generally transversely of the tread portion from edge to edge thereof, each transverse groove intersecting the longitudinally extending undulating grooves ; wherein the grooves in the sole have a minimum depth of about 5mm, and the upper, ungrooved portion of the sole has a minimum depth of 4 mm and a maximum depth of 6mm. at least two, continuous, undulating grooves extending generally longitudinally of the tread portion between the toe and heel ends thereof, each end of each undulating groove being at a similar acute angle relative to a heel to toe line extending generally longitudinally of the sole wherein the at least two continuous undulating grooves extend the full length of the sole ; and a plurality of grooves extending generally transversely of the tread portion from edge to edge thereof, each transverse groove intersecting the longitudinally extending undulating grooves ; wherein the grooves in the sole have a minimum depth of about 5mm, and the upper, ungrooved portion of the sole has a minimum depth of 4 mm and a maximum depth of 6mm.
A library of polynucleotides, comprising: a mixture of polynucleotide variant molecules, the variant molecules comprising at least a first degenerate codon position, wherein degenerate codons of the first position encode any encoded amino acid in a selected molar ratio, and wherein each degenerate codon position comprises NNT, VWG, TGG wherein the ratio of codons is 16(NNT):6(VWG):1(TGG), or each degenerate codon position comprises (VMA, NDT, WKG) wherein the ratio of codons in the set is 6(VMA): 12(NDT):4(WKG).
A method of manufacturing a semiconductor device wherein an insulating circuit substrate on which is mounted a semiconductor element is attached to a resin case in which are provided a plurality of terminals , wherein the insulating circuit substrate is formed of an insulating substrate and of conductor layers , the conductor layers being formed on opposite surfaces of the insulating layer , each of the terminals being L-shaped, having a first portion and having a leg portion , wherein the leg portion is shorter than the first portion and comprises a base of the leg portion and a leading end portion of the leg portion , the leg portion of each terminal having a plate form, whereby protrusions that fix each of the plurality of terminals in a predetermined position are provided in a molding die for molding the resin case , wherein the molding die consist of a first die and a second die defining a cavity , the first die including a recess for receiving the first portion of the plurality of terminals, the blind end of the recess including hole portions for receiving an upper end of the first portion of the terminals; each of the plurality of terminals is matched with and held by corresponding protrusions in the molding die , the protrusions located on the first die adjacent the recess for fixing each of the plurality of terminals in a predetermined position, wherein the terminals are positioned between the protrusions so as to be sandwiched therebetween and inserted into hole portions ; and resin is injected into the molding die , thus integrally molding the plurality of terminals and the resin case .
A process for extracting uranium from a saline acidic uranium, chloride, iron (III) and sulphate containing solution, having > 5 g/L chloride, including the steps: a. contacting the solution with an organic phase containing a trialkylphosphine oxide as an extractant to form a uranium loaded organic phase; b. scrubbing the uranium loaded organic phase with a scrubbing solution comprising a sulfuric acid based aqueous solution to remove any impurities and form a scrubbed organic phase; c. stripping uranium from the scrubbed organic phase with a concentrated sulphate solution having a sulphate concentration greater than 1 M to produce an aqueous uranium strip solution; and d. precipitating a uranium product from the aqueous uranium strip solution. a. contacting the solution with an organic phase containing a trialkylphosphine oxide as an extractant to form a uranium loaded organic phase; b. scrubbing the uranium loaded organic phase with a scrubbing solution comprising a sulfuric acid based aqueous solution to remove any impurities and form a scrubbed organic phase; c. stripping uranium from the scrubbed organic phase with a concentrated sulphate solution having a sulphate concentration greater than 1 M to produce an aqueous uranium strip solution; and d. precipitating a uranium product from the aqueous uranium strip solution.
A roller assembly for a cargo loading system , comprising: a first axle including a first flange and a first inner shaft ; a second axle including a second flange and a second inner shaft , the first inner shaft extending from the first flange toward the second flange, the second inner shaft extending from the second flange toward the first flange; a roller configured to rotate about an axis of rotation for the roller assembly; a first plurality of roller elements disposed between a radially outer surface of the second inner shaft and a radially inner surface of the first inner shaft; and a biasing member including at least one link or cam roller positioned at an angle relative to the roller axis producing an axial force based on the applied load on the roller reacting on to the first or second inner shaft, wherein the second inner shaft comprises a plurality of grooves configured to receive the first plurality of roller elements, and wherein the plurality of grooves are semi-spherical in shape a first axle including a first flange and a first inner shaft ; a second axle including a second flange and a second inner shaft , the first inner shaft extending from the first flange toward the second flange, the second inner shaft extending from the second flange toward the first flange; a roller configured to rotate about an axis of rotation for the roller assembly; a first plurality of roller elements disposed between a radially outer surface of the second inner shaft and a radially inner surface of the first inner shaft; and a biasing member including at least one link or cam roller positioned at an angle relative to the roller axis producing an axial force based on the applied load on the roller reacting on to the first or second inner shaft, wherein the second inner shaft comprises a plurality of grooves configured to receive the first plurality of roller elements, and wherein the plurality of grooves are semi-spherical in shape
Mirror mount for a Head-Up Display, the mirror mount comprising two substantially coaxial bores for being pivotably suspended in a housing about an axis (A) by means of bearing pins , characterised in that each bore of the mirror mount is provided with a bushing in the respective bore , wherein the mirror mount comprises two radially acting springs for spring-loading each bushing against the mirror mount in a radial direction (DR) and an axially acting spring for spring-loading at least one of the bearing pins with respect to the mirror mount in an axial direction (DA). characterised in that each bore of the mirror mount is provided with a bushing in the respective bore , wherein the mirror mount comprises two radially acting springs for spring-loading each bushing against the mirror mount in a radial direction (DR) and an axially acting spring for spring-loading at least one of the bearing pins with respect to the mirror mount in an axial direction (DA).
A photoelectric sensor , comprising a light projecting part that emits light, a light receiving part that receives light, a housing that houses the light projecting part and the light receiving part , and a setting part that receives an input operation from outside to set a threshold value, wherein the housing comprises: a first surface having a light projecting/receiving surface allowing light from the light projecting part and light to the light receiving part to pass; a second surface located on a side opposite to the first surface ; a third surface adjacent to the first surface and extending in a direction orthogonal to the first surface and the second surface ; and an inclined surface inclined with respect to the third surface and the second surface and connecting the third surface and the second surface , characterized in that the photoelectric sensor comprises: an adjustment button adapted to receive an input operation from outside and to finely adjust the threshold value that has been set, wherein the threshold value refers to a reference value for judging the presence or the absence of an object being detected or a distance to the object being detected in the photoelectric sensor ; and wherein the adjustment button is provided on the inclined surface . a first surface having a light projecting/receiving surface allowing light from the light projecting part and light to the light receiving part to pass; a second surface located on a side opposite to the first surface ; a third surface adjacent to the first surface and extending in a direction orthogonal to the first surface and the second surface ; and an inclined surface inclined with respect to the third surface and the second surface and connecting the third surface and the second surface , characterized in that the photoelectric sensor comprises: an adjustment button adapted to receive an input operation from outside and to finely adjust the threshold value that has been set, wherein the threshold value refers to a reference value for judging the presence or the absence of an object being detected or a distance to the object being detected in the photoelectric sensor ; and wherein the adjustment button is provided on the inclined surface . an adjustment button adapted to receive an input operation from outside and to finely adjust the threshold value that has been set, wherein the threshold value refers to a reference value for judging the presence or the absence of an object being detected or a distance to the object being detected in the photoelectric sensor ; and wherein the adjustment button is provided on the inclined surface .
An operation method of a user equipment, UE, in a communication network, comprising: receiving, from a base station, information on a maximum occupation duration of an unlicensed band through a radio resource control, RRC signaling; receiving, from the base station, control information for transmission in an unlicensed band burst including a plurality of subframes in the maximum occupation duration; identifying one or more subframes to be not detected by the UE based on the control information; and obtaining data in remaining subframe(s) except for the one or more subframes based on the control information within the unlicensed band burst. receiving, from a base station, information on a maximum occupation duration of an unlicensed band through a radio resource control, RRC signaling; receiving, from the base station, control information for transmission in an unlicensed band burst including a plurality of subframes in the maximum occupation duration; identifying one or more subframes to be not detected by the UE based on the control information; and obtaining data in remaining subframe(s) except for the one or more subframes based on the control information within the unlicensed band burst.
A method of separating ions according to their ion mobility comprising: providing an ion guide having a plurality of electrodes arranged to form an ion guiding path; supplying RF voltages to at least some of said electrodes in order to confine ions within said ion guiding path; and maintaining a DC voltage gradient along at least a portion of a longitudinal axis of said ion guide, wherein said voltage gradient urges ions along the ion guide such that they separate according to their ion mobility as they pass along the ion guide, and wherein as time progresses the portion of the ion guide along which the DC voltage gradient is maintained is moved along the ion guide; providing an ion exit region , wherein ions exit said ion guide at said ion exit region ; and characterised by the ion exit region moving along said ion guide such that ions exit said ion guide at different locations at different times, and wherein the ion exit region is formed over a portion of said ion guide by modifying a voltage supplied to one or more of said electrodes such that ions are not confined by said one or more electrodes in the ion exit region . providing an ion guide having a plurality of electrodes arranged to form an ion guiding path; supplying RF voltages to at least some of said electrodes in order to confine ions within said ion guiding path; and maintaining a DC voltage gradient along at least a portion of a longitudinal axis of said ion guide, wherein said voltage gradient urges ions along the ion guide such that they separate according to their ion mobility as they pass along the ion guide, and wherein as time progresses the portion of the ion guide along which the DC voltage gradient is maintained is moved along the ion guide; providing an ion exit region , wherein ions exit said ion guide at said ion exit region ; and characterised by the ion exit region moving along said ion guide such that ions exit said ion guide at different locations at different times, and wherein the ion exit region is formed over a portion of said ion guide by modifying a voltage supplied to one or more of said electrodes such that ions are not confined by said one or more electrodes in the ion exit region .
A heating cooker with a stirring function, the heating cooker comprising a stirring body configured to stir cooking materials that include liquid and a solid and are housed in a cooking container , wherein the stirring body includes: a housing rotatably mounted to a center of a bottom surface of the cooking container ; a lower blade that extends from an outer peripheral surface of the housing toward an inner peripheral surface of the cooking container and is configured to push at least one of the cooking materials that is positioned near the bottom surface of the cooking container toward the inner peripheral surface of the cooking container ; and an upper blade that extends from the outer peripheral surface of the housing toward the inner peripheral surface of the cooking container and is configured to cause at least one of the cooking materials that is positioned above the lower blade to sink toward the bottom surface of the cooking container , wherein the upper blade is formed to slope downward toward the upstream side in rotating direction (XI), characterized in that the lower blade is formed to slope upward toward the upstream side in rotating direction (XI), wherein the upper blade includes a substantially cylindrical movable part , and a hollow part is provided inside of the movable part , wherein the movable part is configured to move vertically according to a fluctuation of the liquid surface, and the upper blade is configured to be vertically movable along the housing . a housing rotatably mounted to a center of a bottom surface of the cooking container ; a lower blade that extends from an outer peripheral surface of the housing toward an inner peripheral surface of the cooking container and is configured to push at least one of the cooking materials that is positioned near the bottom surface of the cooking container toward the inner peripheral surface of the cooking container ; and an upper blade that extends from the outer peripheral surface of the housing toward the inner peripheral surface of the cooking container and is configured to cause at least one of the cooking materials that is positioned above the lower blade to sink toward the bottom surface of the cooking container , wherein the upper blade is formed to slope downward toward the upstream side in rotating direction (XI), characterized in that the lower blade is formed to slope upward toward the upstream side in rotating direction (XI), wherein the upper blade includes a substantially cylindrical movable part , and a hollow part is provided inside of the movable part , wherein the movable part is configured to move vertically according to a fluctuation of the liquid surface, and the upper blade is configured to be vertically movable along the housing .