mhurhangee/patent-ind-claim-en huggingface dataset:
A parking interlock system of a vehicle, comprising: a safety state information detecting unit , configured to detect safety state information of the vehicle; an operating state information detecting unit , configured to detect operating state information of the vehicle; a brake ; a motor ; a low voltage controller , connected to the safety state information detecting unit and the brake respectively, and configured to generate a safety state judgment result based on the safety state information of the vehicle; and a motor controller , connected to the operating state information detecting unit and the motor respectively, and configured to receive the safety state judgment result from the low voltage controller , to control the motor according to the safety state judgment result, and to send the operating state information of the vehicle to the low voltage controller such that the low voltage controller controls the brake according to the operating state information of the vehicle, characterized in that the low voltage controller is further configured to control the brake to lock the vehicle at an end of a first predetermined period when a vehicle speed and a motor torque are determined to be zero during the first predetermined period. a safety state information detecting unit , configured to detect safety state information of the vehicle; an operating state information detecting unit , configured to detect operating state information of the vehicle; a brake ; a motor ; a low voltage controller , connected to the safety state information detecting unit and the brake respectively, and configured to generate a safety state judgment result based on the safety state information of the vehicle; and a motor controller , connected to the operating state information detecting unit and the motor respectively, and configured to receive the safety state judgment result from the low voltage controller , to control the motor according to the safety state judgment result, and to send the operating state information of the vehicle to the low voltage controller such that the low voltage controller controls the brake according to the operating state information of the vehicle, characterized in that the low voltage controller is further configured to control the brake to lock the vehicle at an end of a first predetermined period when a vehicle speed and a motor torque are determined to be zero during the first predetermined period.
Installation for storing and dispensing pressurized liquefied cryogenic fluid, in particular liquefied hydrogen, the installation comprising a liquefied gas source and a dispenser , the dispenser comprising a first fluid inlet connected to the liquefied gas source via a set of pipes and a second end intended to be attached to a user of the pressurized liquefied gas supplied by the dispenser , the source comprising a first liquefied gas store configured to store and supply liquefied gas to the dispenser at the first determined pressure, the source comprising a second liquefied gas store configured to store liquefied gas at a second determined pressure which is lower than the first determined pressure of the first liquefied gas store , the installation comprising a connecting pipe provided with a set of valve(s) connecting the first liquefied gas store and second liquefied gas store to allow fluid to be transferred between the two liquefied gas stores , the installation comprising a filling pipe provided with a set of valve (s) and having a first end connected to the second liquefied gas store and a second end intended to be connected to a mobile store for supplying liquefied gas so as to fill the source , characterized in that the dispenser comprises a second fluid inlet attached to the upper parts of the first liquefied gas store and second liquefied gas store via respective vapour transfer pipes , said vapour transfer pipes being provided with a set of valve (s) , said vapour transfer pipes being configured to allow the transfer of pressurized fluid, in particular vapour, between the dispenser and the first liquefied gas store and/or the second liquefied gas store .
A device for manufacturing a composite molded part, which comprises a support structure and an areal decorative structure (7.1) and has a folded edge, said device comprising: a) at least two mold elements for holding the areal decorative structure (7.1, 7.2), which are designed such that they can be moved from an open into a closed state, and in the closed state define a void , which essentially corresponds to the shape of the composite molded part to be manufactured; b) a cutting edge (2.1) which is formed on a first mold element such that during said movement from the closed into the open state, an excess of the composite molded part can be removed; c) a folding edge (3.4) which is formed on a second mold element such that it limits the void on a front side, characterized in that in the closed state the mold elements form an overfeeding volume , in particular between the cutting edge (2.1) and the folding edge (3.4), such that when the void is filled with support structure in the molten state, said excess of the composite molded part emerges. a) at least two mold elements for holding the areal decorative structure (7.1, 7.2), which are designed such that they can be moved from an open into a closed state, and in the closed state define a void , which essentially corresponds to the shape of the composite molded part to be manufactured; b) a cutting edge (2.1) which is formed on a first mold element such that during said movement from the closed into the open state, an excess of the composite molded part can be removed; c) a folding edge (3.4) which is formed on a second mold element such that it limits the void on a front side,
An imaging apparatus comprising: an imaging unit adapted to perform imaging with an imaging rate to obtain a captured image; a transmission control unit adapted to perform transmission control to transmit a region image within a plurality of transfer regions (R1, R2), , at a frame rate set for each of the transfer regions (R1, R2), wherein a transfer region (R0, R1, R2) corresponds to the entire or a part of the captured image; a reception control unit adapted to determine whether or not region setting information, which comprises the frame rate for each transfer region, has been received; and an imaging control unit adapted to set the imaging rate of the imaging unit on a basis of the frame rate of each of the transfer regions (R1, R2) included in the region setting information; wherein the frame rate of each of the transfer regions in the region setting information has been set on a basis of a result of detection of an object within each of the transfer regions, and the result of detection of an object includes a type of the detected object and a position of the detected object; and wherein in case where the reception control unit determines that region setting information has been received the imaging control unit is adapted to set the imaging rate of the imaging unit according to the frame rate that is a highest frame rate among the frame rates of the transfer regions (R1, R2). an imaging unit adapted to perform imaging with an imaging rate to obtain a captured image; a transmission control unit adapted to perform transmission control to transmit a region image within a plurality of transfer regions (R1, R2), , at a frame rate set for each of the transfer regions (R1, R2), wherein a transfer region (R0, R1, R2) corresponds to the entire or a part of the captured image; a reception control unit adapted to determine whether or not region setting information, which comprises the frame rate for each transfer region, has been received; and an imaging control unit adapted to set the imaging rate of the imaging unit on a basis of the frame rate of each of the transfer regions (R1, R2) included in the region setting information; wherein the frame rate of each of the transfer regions in the region setting information has been set on a basis of a result of detection of an object within each of the transfer regions, and the result of detection of an object includes a type of the detected object and a position of the detected object; and wherein in case where the reception control unit determines that region setting information has been received the imaging control unit is adapted to set the imaging rate of the imaging unit according to the frame rate that is a highest frame rate among the frame rates of the transfer regions (R1, R2).
An aqueous pharmaceutical solution comprising, dissolved in water, isopropyl (6-{[4-(pyrazol-1-yl)benzyl](pyridin-3-ylsulfonyl)aminomethyl}pyridin-2-ylamino)acetate or a salt thereof, and polyoxyethylene castor oil, wherein the content of the isopropyl 6-{[4-(pyrazol-1-yl)benzyl](pyridin-3-ylsulfonyl)aminomethyl}pyridin-2-ylamino)acetate or a salt thereof is in a range of 0.001 to 0.003% (w/v), and the number of polymerization of ethylene oxide of the polyoxyethylene castor oil is in a range of 5 to 100. the content of the isopropyl 6-{[4-(pyrazol-1-yl)benzyl](pyridin-3-ylsulfonyl)aminomethyl}pyridin-2-ylamino)acetate or a salt thereof is in a range of 0.001 to 0.003% (w/v), and the number of polymerization of ethylene oxide of the polyoxyethylene castor oil is in a range of 5 to 100.
A method of drilling a subterranean well using a fluid pressure transmission pill in conjunction with an oil-based drilling fluid and a heavier density fluid, the method comprising: (a) using the oil-based drilling fluid to drill a well bore in a subterranean formation, (b) providing a fluid phase pressure transmission pill comprising : an oleaginous fluid phase ; a thixotropic viscosifying agent; an emulsifier and/or a wetting agent; a fluid loss control additive ; and a weighting agent; and (c) applying the heavier density fluid to achieve a total hydrostatic pressure overbalance in the fluid column that is sufficient for well control when tripping drill pipe, conducting wireline logging, or performing other subterranean operations, wherein the fluid pressure transmission pill is used to form a barrier to prevent intermixing of the oil-based drilling fluid and the heavier density fluid. (a) using the oil-based drilling fluid to drill a well bore in a subterranean formation, (b) providing a fluid phase pressure transmission pill comprising : an oleaginous fluid phase ; a thixotropic viscosifying agent; an emulsifier and/or a wetting agent; a fluid loss control additive ; and a weighting agent; and an oleaginous fluid phase ; a thixotropic viscosifying agent; an emulsifier and/or a wetting agent; a fluid loss control additive ; and a weighting agent; and (c) applying the heavier density fluid to achieve a total hydrostatic pressure overbalance in the fluid column that is sufficient for well control when tripping drill pipe, conducting wireline logging, or performing other subterranean operations,
An adjustable treadmill , comprising: a base ; a platform movably coupled to the base; a drive roller rotatably coupled to the base ; an endless belt movably coupled to the drive roller and extending over a top surface of the platform ; characterized by a resistance/rebound mechanism (300a; 300b) coupled to the base and to the platform and capable of providing displacement resistance in a first direction by resisting downward movement of the platform and rebound responsiveness in an opposite second direction by applying an upward force to the platform ; and a control system capable of applying input control signals to the resistance/rebound mechanism.
Trailing-edge segment of a wind-turbine rotor blade for increasing a profile depth of the rotor blade of a wind turbine , comprising: - at least one inner blade segment , having an inner blade shell , - at least one middle blade segment , having a middle blade shell , the at least one middle blade segment and the at least one inner blade segment being able to be coupled to each other via a coupling means , and characterized in that the coupling means having two shell elements , having two inner sides that are parallel to each other each forming a receiving space , wherein the receiving space each being designed to receive at least one of the inner blade shell or middle blade shell , and wherein the two receiving spaces are adapted with the two inner sides to a thickness of the inner blade shell or the middle blade shell , wherein the two inner sides at least partly enclose the inner blade shell or the middle blade shell inserted into the receiving space , in such a manner that a force acting upon the trailing-edge segment is introduced via the two inner sides centrically into the coupling means , wherein the two shell elements each having a recess and first coupling elements , wherein the first coupling elements of a shell element are arranged in the recesses of the other shell element . - at least one inner blade segment , having an inner blade shell , - at least one middle blade segment , having a middle blade shell , the at least one middle blade segment and the at least one inner blade segment being able to be coupled to each other via a coupling means , and characterized in that the coupling means having two shell elements , having two inner sides that are parallel to each other each forming a receiving space , wherein the receiving space each being designed to receive at least one of the inner blade shell or middle blade shell , and wherein the two receiving spaces are adapted with the two inner sides to a thickness of the inner blade shell or the middle blade shell , wherein the two inner sides at least partly enclose the inner blade shell or the middle blade shell inserted into the receiving space , in such a manner that a force acting upon the trailing-edge segment is introduced via the two inner sides centrically into the coupling means , wherein the two shell elements each having a recess and first coupling elements , wherein the first coupling elements of a shell element are arranged in the recesses of the other shell element .
An actuating device for causing a turbine shaft train to rotate comprising an electrically operated principal turning gear and an hydraulically operated auxiliary turning gear , wherein the auxiliary turning gear which is controlled by a rod of a double-acting hydraulic cylinder comprises a wheel that is integral with the shaft train and an actuator connected to the rod of the cylinder , wherein the actuator is capable of engaging driving means arranged on the periphery of the wheel and is capable of displacement between a retracted position disengaged from the wheel and a position of engagement with one of the driving means , in which an extension movement of the rod of the cylinder controls the rotation of the wheel , wherein the actuator is further being connected to the rod of the cylinder by means of an articulation supported by a slide that is integral with the rod of the cylinder in such a way as to be capable of pivoting between the said retracted position and said engagement position, wherein the slide has a U-shaped form, of which the bottom part is fixed to the rod of the cylinder, wherein the uprights of the U support a pivot shaft for the articulation, wherein the slide is guided in translational movement by first guiding means supported by a plate that is integral with the cylinder , wherein the plate includes a pair of columns , characterized in that the first guiding means comprise a pair of orthogonal plates supported by each of the columns and in that the uprights of the U support have second guiding means that are complementary to the first guiding means supported by the plate .
A simulation device comprising: modeling means configured to process a tomographic image of a sample and models an internal structure of the sample; minimum-diameter obtaining means configured to obtain a minimum diameter of a pore of the sample where a predetermined liquid can enter at a predetermined pressure; and a means configured to simulate a condition in which the liquid enters in the pore from a surface of the sample based on a diameter of the pore of the modeled sample and the minimum diameter, characterized in that the minimum-diameter obtaining means is further configured to obtain a minimum diameter DO based on a following formula with a minimum diameter of a pore where a liquid enters being DO, a surface tension of the liquid being σ, a contact angle of the liquid with a wall surface of the pore being θ, a pressure of the liquid being P, a surface energy of the sample being HO, and a function based on the surface energy of the sample being q: DO = − 4 × σ × cos θ / P − q H 0 . modeling means configured to process a tomographic image of a sample and models an internal structure of the sample; minimum-diameter obtaining means configured to obtain a minimum diameter of a pore of the sample where a predetermined liquid can enter at a predetermined pressure; and a means configured to simulate a condition in which the liquid enters in the pore from a surface of the sample based on a diameter of the pore of the modeled sample and the minimum diameter, characterized in that the minimum-diameter obtaining means is further configured to obtain a minimum diameter DO based on a following formula with a minimum diameter of a pore where a liquid enters being DO, a surface tension of the liquid being σ, a contact angle of the liquid with a wall surface of the pore being θ, a pressure of the liquid being P, a surface energy of the sample being HO, and a function based on the surface energy of the sample being q: DO = − 4 × σ × cos θ / P − q H 0 .
A wind turbine comprising a tower and a system for adjusting environmental operating conditions associated with heat generating components located within the tower of the wind turbine , the system comprising: a heat generating component located within an interior of the tower ; a first air temperature sensor configured to monitor a dry bulb temperature of air located relative to the tower ; a second air temperature sensor configured to monitor a wet bulb temperature of the air located within the tower ; a pressure sensor used for increasing the accuracy of dew point temperature calculations made by a controller; a split heat exchange system provided relative to the tower , the split heat exchange system comprising: - a first heat exchanger located within the interior of the tower ; - a second heat exchanger located exterior to the tower, the first and second heat exchangers being fluidly coupled to one another by fluid lines to allow a heat exchange fluid to be cycled between the first and second heat exchangers ; and the controller communicatively coupled to the sensors and the split heat exchange system , the controller being configured to control the operation of the split heat exchange system based on a dew point temperature determined from the wet and dry bulb temperature measurements provided by the first and second air temperature sensors so as to adjust an environmental operating condition associated with the heat generating component , wherein the controller is configured to control the operation of the split heat exchange system such that the split heat exchange system operates in a first operational mode or a second operational mode, the operation of the split heat exchange system being controlled to perform a thermodynamic refrigeration or heat pump cycle to cool the interior of the tower in the first operational mode or to heat the interior of the tower in the second operational mode. a heat generating component located within an interior of the tower ; a first air temperature sensor configured to monitor a dry bulb temperature of air located relative to the tower ; a second air temperature sensor configured to monitor a wet bulb temperature of the air located within the tower ; a pressure sensor used for increasing the accuracy of dew point temperature calculations made by a controller; a split heat exchange system provided relative to the tower , the split heat exchange system comprising: - a first heat exchanger located within the interior of the tower ; - a second heat exchanger located exterior to the tower, the first and second heat exchangers being fluidly coupled to one another by fluid lines to allow a heat exchange fluid to be cycled between the first and second heat exchangers ; and - a first heat exchanger located within the interior of the tower ; - a second heat exchanger located exterior to the tower, the first and second heat exchangers being fluidly coupled to one another by fluid lines to allow a heat exchange fluid to be cycled between the first and second heat exchangers ; and
An injection foam molding method that injects and foams a foamed resin material obtained by mixing a resin material and a foaming agent into a cavity of a mold so as to mold an injection foam molded article into a shape corresponding to a shape of the cavity , the method comprising: injecting the foamed resin material into the cavity in an injection step, characterized in that , in the injection step, a relationship between a flow front moving speed (cm/s) of the foamed resin material in the cavity in the injection step and amount of gas generated per 1 g of the resin material (ml/g), is defined by following conditions: the amount of gas generated per 1 g of the resin material is 0.36 ml/g or more; and the flow front moving speed (cm/s) is 75 × the amount of gas generated per 1 g of the resin material (ml/g) - 35 or more and 12 cm/s or more; wherein the injection step is carried out by injecting the foamed resin material into the cavity which is not pressurised in advance. the method comprising: injecting the foamed resin material into the cavity in an injection step, characterized in that , in the injection step, a relationship between a flow front moving speed (cm/s) of the foamed resin material in the cavity in the injection step and amount of gas generated per 1 g of the resin material (ml/g), is defined by following conditions: the amount of gas generated per 1 g of the resin material is 0.36 ml/g or more; and the flow front moving speed (cm/s) is 75 × the amount of gas generated per 1 g of the resin material (ml/g) - 35 or more and 12 cm/s or more; the amount of gas generated per 1 g of the resin material is 0.36 ml/g or more; and the flow front moving speed (cm/s) is 75 × the amount of gas generated per 1 g of the resin material (ml/g) - 35 or more and 12 cm/s or more; wherein the injection step is carried out by injecting the foamed resin material into the cavity which is not pressurised in advance.