mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling the deceleration of a vehicle to account for an increase in friction in the vehicle brake system (12 2) as the vehicle decelerates, comprising: receiving a signal indicative of a value of the speed of the vehicle and a signal indicative of a value of a brake pressure in the vehicle brake system; comparing the vehicle speed value and the brake pressure value to respective thresholds; and when the vehicle speed value falls below the threshold to which it was compared and the brake pressure value exceeds the threshold to which it was compared, increasing the drive torque applied to one or more wheels of the vehicle such that the increased drive torque acts against the braking of the vehicle as the vehicle is decelerated to a stop. receiving a signal indicative of a value of the speed of the vehicle and a signal indicative of a value of a brake pressure in the vehicle brake system; comparing the vehicle speed value and the brake pressure value to respective thresholds; and when the vehicle speed value falls below the threshold to which it was compared and the brake pressure value exceeds the threshold to which it was compared, increasing the drive torque applied to one or more wheels of the vehicle such that the increased drive torque acts against the braking of the vehicle as the vehicle is decelerated to a stop.
An apparatus, comprising: a set of first-type switch cells, wherein each of the first-type switch cells is configured to couple a first power rail (TVDD) to a second power rail via a first relatively weak transistor in response to a first enable signal (WK _EN), and couple the first power rail to the second power rail via a first relatively strong transistor in response to a second enable signal (ST _EN), wherein the first relatively weak transistor has a turn-on resistance higher than a turn-on resistance of the first relatively strong transistor; and a set of second-type switch cells, wherein each of the second-type switch cells is configured to couple the first power rail to the second power rail via a second relatively weak transistor and a second relatively strong transistor in response to the second enable signal, and pass through the first enable signal without applying the first enable signal to the second relatively weak transistor or the second relatively strong transistor, wherein the second relatively weak transistor has a turn-on resistance higher than a turn-on resistance of the second relatively strong transistor, wherein the set of first-type switch cells are daisy chained with the set of second-type switch cells, so that the first enable signal and the second enable signal propagate through the switch cells in the same direction. a set of first-type switch cells, wherein each of the first-type switch cells is configured to couple a first power rail (TVDD) to a second power rail via a first relatively weak transistor in response to a first enable signal (WK _EN), and couple the first power rail to the second power rail via a first relatively strong transistor in response to a second enable signal (ST _EN), wherein the first relatively weak transistor has a turn-on resistance higher than a turn-on resistance of the first relatively strong transistor; and a set of second-type switch cells, wherein each of the second-type switch cells is configured to couple the first power rail to the second power rail via a second relatively weak transistor and a second relatively strong transistor in response to the second enable signal, and pass through the first enable signal without applying the first enable signal to the second relatively weak transistor or the second relatively strong transistor, wherein the second relatively weak transistor has a turn-on resistance higher than a turn-on resistance of the second relatively strong transistor, wherein the set of first-type switch cells are daisy chained with the set of second-type switch cells, so that the first enable signal and the second enable signal propagate through the switch cells in the same direction.
A method for cell activation and deactivation, applied to a terminal device, the method comprising at least one of: activating, by the terminal device, a secondary cell corresponding to a target Bandwidth Part, BWP, based on an instruction for activating the target BWP; or deactivating, by the terminal device, the secondary cell corresponding to the target BWP based on an instruction for deactivating the target BWP, wherein the method further comprises: before activating the secondary cell corresponding to the target BWP, determining, by the terminal device based on the instruction for activating the target BWP, whether to activate the secondary cell corresponding to the target BWP, characterized in that the step of determining, by the terminal device based on the instruction for activating the target BWP, whether to activate the secondary cell corresponding to the target BWP comprises: determining, by the terminal device based on the instruction for activating the target BWP, whether the secondary cell corresponding to the target BWP is in an activated state; and if the secondary cell corresponding to the target BWP is not in the activated state, determining to activate the secondary cell and to activate the target BWP for the secondary cell. activating, by the terminal device, a secondary cell corresponding to a target Bandwidth Part, BWP, based on an instruction for activating the target BWP; or deactivating, by the terminal device, the secondary cell corresponding to the target BWP based on an instruction for deactivating the target BWP, wherein the method further comprises: before activating the secondary cell corresponding to the target BWP, determining, by the terminal device based on the instruction for activating the target BWP, whether to activate the secondary cell corresponding to the target BWP, characterized in that the step of determining, by the terminal device based on the instruction for activating the target BWP, whether to activate the secondary cell corresponding to the target BWP comprises: determining, by the terminal device based on the instruction for activating the target BWP, whether the secondary cell corresponding to the target BWP is in an activated state; and if the secondary cell corresponding to the target BWP is not in the activated state, determining to activate the secondary cell and to activate the target BWP for the secondary cell. determining, by the terminal device based on the instruction for activating the target BWP, whether the secondary cell corresponding to the target BWP is in an activated state; and if the secondary cell corresponding to the target BWP is not in the activated state, determining to activate the secondary cell and to activate the target BWP for the secondary cell.
A photosensitive resin composition comprising: a polymer in which a content of a unit structure containing a boronic acid group, a unit structure containing a boronic acid ester group, or a combination of these unit structures is 20 mol% to 100 mol% of a total molar number of unit structures constituting the polymer; and a photosensitizer, wherein the polymer is a polymer containing a unit structure of Formula: where, in Formula, R 0 is a hydrogen atom or a methyl group; R 1 is a halogen atom, an alkyl group, an alkoxy group, a thiol group, a cyano group, an amino group, an amide group, an alkylcarbonyl group, a thioalkyl group, a carboxy group, or a hydroxy group; each of R 2 and R 3 is independently a hydrogen atom or a C 1-10 alkyl group, and when R 2 and R 3 are C 1-10 alkyl groups, R 2 and R 3 may be combined with each other to form a cyclic structure; Q 1 is a single bond or a C 1-3 alkylene group, a C 6-20 arylene group, or a combination of these; m1 is an integer of 0 to 4; m2 is an integer of 1 to 5; and (m1 + m2) is an integer of 1 to 5, and wherein a weight average molecular weight of the polymer is 1,000 to 50,000. a polymer in which a content of a unit structure containing a boronic acid group, a unit structure containing a boronic acid ester group, or a combination of these unit structures is 20 mol% to 100 mol% of a total molar number of unit structures constituting the polymer; and a photosensitizer, wherein the polymer is a polymer containing a unit structure of Formula: where, in Formula, R 0 is a hydrogen atom or a methyl group; R 1 is a halogen atom, an alkyl group, an alkoxy group, a thiol group, a cyano group, an amino group, an amide group, an alkylcarbonyl group, a thioalkyl group, a carboxy group, or a hydroxy group; each of R 2 and R 3 is independently a hydrogen atom or a C 1-10 alkyl group, and when R 2 and R 3 are C 1-10 alkyl groups, R 2 and R 3 may be combined with each other to form a cyclic structure; Q 1 is a single bond or a C 1-3 alkylene group, a C 6-20 arylene group, or a combination of these; m1 is an integer of 0 to 4; m2 is an integer of 1 to 5; and (m1 + m2) is an integer of 1 to 5, and wherein a weight average molecular weight of the polymer is 1,000 to 50,000.
A flux for submerged arc welding, comprising: Al 2 O 3: 15 to 35% by mass; SiO 2: 10 to 25% by mass; MgO: 10 to 25% by mass; F in terms of CaF 2: 10 to 25% by mass; Mn in terms of MnO: 3 to 20% by mass; a total of at least one or more of Na in terms of Na 2 O, K in terms of K 2 O and Li in terms of Li 2 O: 0.5 to 6.5% by mass; Fe in terms of FeO: 0.5 to 8% by mass; CaO: 6% by mass or less (including 0% by mass); TiO 2: 8% by mass or less (including 0% by mass); water-soluble SiO 2: 0.01 to 1.0% by mass; water-soluble Na 2 O: 0.01 to 1.0% by mass; and water-soluble K 2 O: 0.01 to 0.8% by mass, wherein a C content is 0.2% by mass or less (including 0% by mass), and the flux satisfies the following numerical expression, where [Al 2 O 3] is the Al 2 O 3 content, [MgO] is the MgO content, and [MnO] is a content as the Mn in terms of MnO. [Equation 1] 0.20 ≦ MgO Al 2 O 3 + MnO ≦ 0.80 Al 2 O 3: 15 to 35% by mass; SiO 2: 10 to 25% by mass; MgO: 10 to 25% by mass; F in terms of CaF 2: 10 to 25% by mass; Mn in terms of MnO: 3 to 20% by mass; a total of at least one or more of Na in terms of Na 2 O, K in terms of K 2 O and Li in terms of Li 2 O: 0.5 to 6.5% by mass; Fe in terms of FeO: 0.5 to 8% by mass; CaO: 6% by mass or less (including 0% by mass); TiO 2: 8% by mass or less (including 0% by mass); water-soluble SiO 2: 0.01 to 1.0% by mass; water-soluble Na 2 O: 0.01 to 1.0% by mass; and water-soluble K 2 O: 0.01 to 0.8% by mass, wherein a C content is 0.2% by mass or less (including 0% by mass), and the flux satisfies the following numerical expression, where [Al 2 O 3] is the Al 2 O 3 content, [MgO] is the MgO content, and [MnO] is a content as the Mn in terms of MnO. [Equation 1] 0.20 ≦ MgO Al 2 O 3 + MnO ≦ 0.80
A cover glass for an electronic device comprising: a first zone formed in the cover glass and corresponding to one or more corner portions of the cover glass, the first zone comprising a first stress pattern; a second zone formed in the cover glass and corresponding to one or more peripheral edge portions of the cover glass, the second zone comprising a second stress pattern; and a third zone formed in the cover glass and corresponding to a center portion of the cover glass, the third zone comprising a third stress pattern; wherein: the first stress pattern, the second stress pattern, and the third stress pattern differ from one another; and the first zone and the second zone are contiguous with one another and surround the third zone. a first zone formed in the cover glass and corresponding to one or more corner portions of the cover glass, the first zone comprising a first stress pattern; a second zone formed in the cover glass and corresponding to one or more peripheral edge portions of the cover glass, the second zone comprising a second stress pattern; and a third zone formed in the cover glass and corresponding to a center portion of the cover glass, the third zone comprising a third stress pattern; wherein: the first stress pattern, the second stress pattern, and the third stress pattern differ from one another; and the first zone and the second zone are contiguous with one another and surround the third zone. the first stress pattern, the second stress pattern, and the third stress pattern differ from one another; and the first zone and the second zone are contiguous with one another and surround the third zone.
A cutlery dispenser, comprising: a housing adapted to contain a stack of cutlery utensils; a dispensing opening; a spring loaded retainer (190, 200, 210) positioned about the dispensing opening such that the stack of cutlery utensils (270, 290) may be loaded through the dispensing opening into the housing and may be dispensed out of the dispensing opening; characterized in that said cutlery dispenser comprises a front cover, wherein the front cover comprises the dispensing opening and the spring loaded retainer (190, 200, 210), and wherein the spring loaded retainer is configured to be pivoted into a first position along the front cover while the stack is pushed into the front cover, and to be pivoted into a second position once the stack is within the dispenser. a housing adapted to contain a stack of cutlery utensils; a dispensing opening; a spring loaded retainer (190, 200, 210) positioned about the dispensing opening such that the stack of cutlery utensils (270, 290) may be loaded through the dispensing opening into the housing and may be dispensed out of the dispensing opening; a front cover, wherein the front cover comprises the dispensing opening and the spring loaded retainer (190, 200, 210), and wherein the spring loaded retainer is configured to be pivoted into a first position along the front cover while the stack is pushed into the front cover, and to be pivoted into a second position once the stack is within the dispenser.
Method for preparing a specimen from a sample of food matrix or a sample taken on a food product production line, said sample containing biological species to be analysed, comprising: - a first step of diluting a first specimen of said sample with a protease for a time sufficient to degrade said first specimen and obtain a liquid second specimen, - a second step of prefiltering said liquid second specimen through a first filter in order to separate first molecules which have sizes greater than those of the pores of said first filter, with a view to obtaining a third specimen comprising the biological species to be analysed and second molecules having sizes smaller than those of the pores of said first filter, - a third step of filtering said third specimen through a second filter in order to separate said biological species from said second molecules, characterized in that it comprises a protease inhibition step, carried out between the dilution first step and the prefiltration second step. - a first step of diluting a first specimen of said sample with a protease for a time sufficient to degrade said first specimen and obtain a liquid second specimen, - a second step of prefiltering said liquid second specimen through a first filter in order to separate first molecules which have sizes greater than those of the pores of said first filter, with a view to obtaining a third specimen comprising the biological species to be analysed and second molecules having sizes smaller than those of the pores of said first filter, - a third step of filtering said third specimen through a second filter in order to separate said biological species from said second molecules,
A honeycomb extrusion die, comprising: a die body comprising: an inlet face and an exit face axially opposite from the inlet face; feedholes with feedhole entrances at the inlet face that terminate at feedhole outlets within the die body; and a plurality of die pins extending to the exit face, the plurality of die pins comprising side surfaces that define a matrix of intersecting slots, wherein at least some of the intersecting slots in the matrix of intersecting slots comprise: divots formed in the side surfaces of the die pins at positions located axially between the feedhole outlets and the exit face, entrance slot portions extending from intersections with the feedhole outlets to the divots, the entrance slot portions having an entrance slot width W A, and exit slot portions extending from the divots to the exit face, the exit slot portions having an exit slot width W B, wherein W A > W B over an entire slot length from the feedhole outlets to the exit face. a die body comprising: an inlet face and an exit face axially opposite from the inlet face; feedholes with feedhole entrances at the inlet face that terminate at feedhole outlets within the die body; and a plurality of die pins extending to the exit face, the plurality of die pins comprising side surfaces that define a matrix of intersecting slots, an inlet face and an exit face axially opposite from the inlet face; feedholes with feedhole entrances at the inlet face that terminate at feedhole outlets within the die body; and a plurality of die pins extending to the exit face, the plurality of die pins comprising side surfaces that define a matrix of intersecting slots, wherein at least some of the intersecting slots in the matrix of intersecting slots comprise: divots formed in the side surfaces of the die pins at positions located axially between the feedhole outlets and the exit face, entrance slot portions extending from intersections with the feedhole outlets to the divots, the entrance slot portions having an entrance slot width W A, and exit slot portions extending from the divots to the exit face, the exit slot portions having an exit slot width W B, wherein W A > W B over an entire slot length from the feedhole outlets to the exit face. divots formed in the side surfaces of the die pins at positions located axially between the feedhole outlets and the exit face, entrance slot portions extending from intersections with the feedhole outlets to the divots, the entrance slot portions having an entrance slot width W A, and exit slot portions extending from the divots to the exit face, the exit slot portions having an exit slot width W B, wherein W A > W B over an entire slot length from the feedhole outlets to the exit face.
A rotary-wing drone comprising a drone body and a plurality of propulsion units each comprising: - a propeller comprising a hub and a plurality of blades; and - an electric motor of the rotary-cage brushless synchronous type, with a stator connected to the drone body and a rotor mobile about an axis of rotation of the motor for driving the propeller, wherein: - the propulsion unit is of the gearless type; - the rotor is rotationally integral with the propeller hub and integral with an upper flange extending in a radial plane with respect to the axis of rotation; and - means for gripping the flange are provided, characterized in that it further comprises: - reversible means for the fast coupling of the propeller to the rotor between: • a decoupled position allowing the interlocking of the hub onto the flange, and • a locked position mechanically making the hub rotationally integral with the flange, the switching from the decoupled position to the locked position being operated by a relative rotation of the propeller hub with respect to the flange by a fraction of a turn, in a direction opposite to the direction of rotation of the electric motor, and said means for gripping the flange being means for gripping the latter in said locked position. - a propeller comprising a hub and a plurality of blades; and - an electric motor of the rotary-cage brushless synchronous type, with a stator connected to the drone body and a rotor mobile about an axis of rotation of the motor for driving the propeller, - the propulsion unit is of the gearless type; - the rotor is rotationally integral with the propeller hub and integral with an upper flange extending in a radial plane with respect to the axis of rotation; and - means for gripping the flange are provided, - reversible means for the fast coupling of the propeller to the rotor between: • a decoupled position allowing the interlocking of the hub onto the flange, and • a locked position mechanically making the hub rotationally integral with the flange, • a decoupled position allowing the interlocking of the hub onto the flange, and • a locked position mechanically making the hub rotationally integral with the flange,
Method for determining the time of receipt by a radio receiver (320,330,340;500;620) of a binary coded AIS (Automatic Identification System) message, sent by a transmitter (310;400;610) in the form of a first signal which is a modulated radio signal, whereby the first signal is received by the receiver using an antenna resulting in a second signal in the form of an analogue electrical signal, which second signal is sampled, which sampling can be performed in any order in relation to any demodulation of the second signal, which sampling is performed using an AD converter, resulting in a digitally stored third signal in the form of a sampled signal, wherein the data content of the message is determined from the third signal as a stream of data bits, which stream of data bits comprises a predetermined signal element whose time of receipt is determined, and wherein the time of receipt of the message is determined based on the timing of the predetermined signal element, characterised in that a digital comparison signal is constructed on the basis of said stream of data bits, so that the constructed comparison signal is constructed to simulate the third signal, in that an optimum value is determined for a time variable, which time variable indicates a time position of the constructed comparison signal relative to the third signal and for which optimum value a correlation between the constructed comparison signal and the third signal is maximal, and in that the optimum value of the time variable is used to correct the determination of the time of receipt of the predetermined signal element.