mhurhangee/ep-ind-claims huggingface dataset:
Multiple gear transmission, in particular automatic transmission for a motor vehicle, comprising a drive shaft, an output shaft, three planetary gear sets (P1, P2, P3), a first and a second spur gear stage (S1, S2) in conjunction with a countershaft which is arranged parallel to the longitudinal axis of the planetary gear sets (P1, P2, P3) and serves as the output shaft of the transmission, which are arranged in a housing, at least nine rotatable shafts (1, 2, 3, 4, 5, 6, 7, 8, 9) including the drive shaft and the output shaft, and at least five shifting elements (03, 15, 56, 58, 59), comprising a brake and clutches (15, 56, 58, 59), the selective engagement of which brings about various transmission ratios between the drive shaft and the output shaft, with the result that eight forward gears and one reverse gear can be realized, characterized in that the drive shaft is connected to a spider of the first planetary gear set and can be connected releasably via a first clutch to a fifth shaft which can be connected releasably via a third clutch to a ninth shaft which is connected to a sun gear of the third planetary gear set and can be connected releasably via a second clutch to an eighth shaft which is connected to an internal gear of the second planetary gear set, an internal gear of the first planetary gear set being connected to a sixth shaft which is connected to a sun gear of the second planetary gear set, a third shaft being connected to a sun gear of the first planetary gear set and to an internal gear of the third planetary gear set and being capable of being coupled to the housing of the transmission via the brake, a spider of the second planetary gear set being connected to a fourth shaft which is connected to a first spur gear of the first spur gear stage, the second spur gear of which is connected to the output shaft, a spider of the third planetary gear set being connected to a seventh shaft which is connected to a first spur gear of the second spur gear stage, the second spur gear of which is connected to the output shaft, and a fourth clutch being provided, which releasably connects the fifth shaft to the sixth shaft with the result that, if the fourth clutch and the second clutch are closed, blocking of the second planetary gear set takes place by way of the coupling of the internal gear of the second planetary gear set to the sun gear of the second planetary gear set.
A computer-implemented method for generating error reporting content of a deep learning framework, comprising: acquiring an error code returned by a third-party library when an error occurs in calling of a third-party library application programming interface and error information corresponding to the error code, wherein the error code is used for identifying a type of an error when the deep learning framework fails to call the third-party library API, and the error information is used for describing the cause of the error and the solution for the error; determining a programming language used by the deep learning framework, generating an error file which corresponds to the programming language, according to the error code and the error information corresponding thereto, and packaging the error file into the deep learning framework; running the deep learning framework, and in response to the deep learning framework receiving the error code, extracting, from the error file, error information corresponding to the received error code; and generating error reporting content according to the error information, recording the generation time of the error file after the generating the error file according to the error code and the error information corresponding thereto; and updating the error code and the error information corresponding thereto in the error file in response to a time difference between the current time and the previous generation time reaching a preset time interval. acquiring an error code returned by a third-party library when an error occurs in calling of a third-party library application programming interface and error information corresponding to the error code, wherein the error code is used for identifying a type of an error when the deep learning framework fails to call the third-party library API, and the error information is used for describing the cause of the error and the solution for the error; determining a programming language used by the deep learning framework, generating an error file which corresponds to the programming language, according to the error code and the error information corresponding thereto, and packaging the error file into the deep learning framework; running the deep learning framework, and in response to the deep learning framework receiving the error code, extracting, from the error file, error information corresponding to the received error code; and generating error reporting content according to the error information, recording the generation time of the error file after the generating the error file according to the error code and the error information corresponding thereto; and updating the error code and the error information corresponding thereto in the error file in response to a time difference between the current time and the previous generation time reaching a preset time interval.
Die for arrangement in a press, wherein the die extends along an axial direction between a first end face and a second end face and forms an inner peripheral surface between the end faces (4, 5), wherein the die extends from the inner peripheral surface along a radial direction toward an outer peripheral surface and toward at least one centering surface that is disposed in the radial direction on a first diameter, wherein the die has a pressing zone that is spaced apart from the end faces (4, 5) and, in the vicinity of the pressing zone, the die has a greater maximum first stiffness, at least relative to zones (12, 13) of the die that are arranged on the end faces (4, 5), compared to a pressing force acting on the inner peripheral surface in a direction of a normal vector, and wherein the maximum first stiffness is at least 10% greater than a minimum second stiffness that is present in at least one zone (12, 13) that is arranged on one of the end faces (4, 5); wherein the die, along the radial direction between the inner peripheral surface and the first diameter, has at least connecting regions that are arranged at a distance from one another in the peripheral direction; wherein the die is produced using a known manufacturing method such as turning, milling, sawing, drilling and grinding, wire cutting, die sinking, and hard milling, etc., or the die is produced by means of so-called additive methods for producing spatial structures from powdery starting material through sintering.
A method for processing data in a communication system, the method comprising: performing by a chip: generating a first password based upon a secret word, a random number sample, and a key at a key index, wherein the secret word is generated utilizing a chip ID and a secure secret algorithm, wherein said chip ID and said secret word is stored within said chip, and wherein the first password is unique per-chip and per challenge; sending the random number sample, the key index and the chip ID to an external entity for generating a second password; receiving the second password from the external entity; and comparing the first password to the second password for authenticating access to one or more secure functions controlled by said chip. generating a first password based upon a secret word, a random number sample, and a key at a key index, wherein the secret word is generated utilizing a chip ID and a secure secret algorithm, wherein said chip ID and said secret word is stored within said chip, and wherein the first password is unique per-chip and per challenge; sending the random number sample, the key index and the chip ID to an external entity for generating a second password; receiving the second password from the external entity; and comparing the first password to the second password for authenticating access to one or more secure functions controlled by said chip.
Use of a coating composition in the reduction or prevention of insufficient venting of a beverage can, the beverage can comprising a can body and a can end having a score line on said can end, wherein the coating composition comprises a polyester material, wherein the coating composition is applied to at least the internal surface of the can end over at least a portion of the score line, and wherein a cured film formed from the coating composition has a glass transition temperature (Tg), as determined herein, of at least 50°C.
Pump, having a pump chamber, a pump housing with at least one chamber wall section delimiting the pump chamber, a rotationally-driven pump wheel arranged within the pump chamber, and a heating device coupled thermally to the chamber wall section and embodied as a heating band coupled thermally to the chamber wall section, said heating band having at least one heating film (25.1), characterised in that the at least one heating film (25.1) is wound, so as to transmit heat, onto an outer surface of the chamber wall section which faces away from the pump chamber, wherein the heating film (25.1) has overlapping film ends and is pressed shut or bandaged, in particular additionally bandaged, on the outer surface of the chamber wall section by means of film tension.
Method for controlling a boost converter with N switching cells in synchronous pulse-width modulation mode, wherein N is a non-zero natural integer, the converter receiving at its input a DC voltage (V in) from a voltage source and delivering at its output an output voltage (V out) which is greater than or equal to the input voltage (V in), the method comprising: - a step of measuring the input voltage (V in) and output voltage (V out) of said boost converter; - a step of determining an output vector (y) designed for globally linearizing the system of equations of the boost converter; - a step of calculating the variation in power of the electrical load at the output of the converter (Ṗ out); - a step of determining the N duty cycles (α k) of the converter depending on the second derivative (ÿ) of the output vector (y), the derivative of the power of the electrical load (Ṗ out) and the ratio between the input voltage (V in) and the output voltage (V out) which are measured; and - a step of controlling each switching cell (k) of the converter, depending on the duty cycle (α k) which is determined. - a step of measuring the input voltage (V in) and output voltage (V out) of said boost converter; - a step of determining an output vector (y) designed for globally linearizing the system of equations of the boost converter; - a step of calculating the variation in power of the electrical load at the output of the converter (Ṗ out); - a step of determining the N duty cycles (α k) of the converter depending on the second derivative (ÿ) of the output vector (y), the derivative of the power of the electrical load (Ṗ out) and the ratio between the input voltage (V in) and the output voltage (V out) which are measured; and - a step of controlling each switching cell (k) of the converter, depending on the duty cycle (α k) which is determined.
A method of delivering a dose of a liquid composition from a microfluidic delivery refill, wherein the liquid composition comprises volatile components such that the liquid composition is defined by a boiling point temperature, and wherein the microfluidic delivery refill comprises a reservoir enclosing the liquid composition and a microfluidic delivery member comprising a heater in fluid communication with the reservoir, said microfluidic delivery member further comprising a plurality of nozzles, each nozzle in fluid communication with the liquid composition in said reservoir, the method comprising: receiving an electrical signal with the heater of the microfluidic delivery member, wherein the electrical signal comprises a plurality of firing pulses that each alternate between a relatively low amplitude and a relatively high amplitude; activating the heater of the microfluidic delivery member in response to the relatively high amplitude of each of the firing pulses of the electrical signal, wherein, when the heater is activated, the temperature of the heater is greater than the boiling point temperature of the liquid composition; utilizing an amount of energy while the heater is activated, wherein the amount of energy is between 33 Milliwatts and 8.5 Watts; and vaporizing at least a portion of the volatile components of the liquid composition when the heater is activated, whereby the dose of the liquid composition is delivered by the microfluidic delivery member; characterized in that the heating elements are activated sequentially whereby no two adjacent nozzles are ejecting fluid. receiving an electrical signal with the heater of the microfluidic delivery member, wherein the electrical signal comprises a plurality of firing pulses that each alternate between a relatively low amplitude and a relatively high amplitude; activating the heater of the microfluidic delivery member in response to the relatively high amplitude of each of the firing pulses of the electrical signal, wherein, when the heater is activated, the temperature of the heater is greater than the boiling point temperature of the liquid composition; utilizing an amount of energy while the heater is activated, wherein the amount of energy is between 33 Milliwatts and 8.5 Watts; and vaporizing at least a portion of the volatile components of the liquid composition when the heater is activated, whereby the dose of the liquid composition is delivered by the microfluidic delivery member; characterized in that the heating elements are activated sequentially whereby no two adjacent nozzles are ejecting fluid.
A process for recovering valuables from vent gas in polyolefin production, comprising a compression cooling separation step, a heavy hydrocarbon separation step, a light hydrocarbon separation step, a N 2 purification step, and a turbo expansion step in sequence, wherein the N 2 purification step comprises a membrane separation procedure; and wherein the light hydrocarbon separation step comprises at least one gas-liquid separation procedure; wherein a first gas, which is obtained by the gas-liquid separation procedure and is heated through heat exchange with multiple streams in the light hydrocarbon separation step, enters the heavy hydrocarbon separation step and is further heated; the heated first gas then enters the N 2 purification step; a first generated gas, which is obtained by the membrane separation procedure of the N 2 purification step, enters the heavy hydrocarbon separation step and the light hydrocarbon separation step in sequence, and is cooled through heat exchange with multiple streams in the heavy hydrocarbon separation step and the light hydrocarbon separation step; and then the cooled first generated gas enters the turbo expansion step. wherein the N 2 purification step comprises a membrane separation procedure; and wherein the light hydrocarbon separation step comprises at least one gas-liquid separation procedure; wherein a first gas, which is obtained by the gas-liquid separation procedure and is heated through heat exchange with multiple streams in the light hydrocarbon separation step, enters the heavy hydrocarbon separation step and is further heated; the heated first gas then enters the N 2 purification step; a first generated gas, which is obtained by the membrane separation procedure of the N 2 purification step, enters the heavy hydrocarbon separation step and the light hydrocarbon separation step in sequence, and is cooled through heat exchange with multiple streams in the heavy hydrocarbon separation step and the light hydrocarbon separation step; and then the cooled first generated gas enters the turbo expansion step.
Clamp (1; 21) having - a connecting part (2; 22) with a fastening region (3; 23) for fastening at least one component and with a receiving region (4, 6; 24, 26) for receiving a spring clip, and - a spring clip that is insertable into the receiving region (4, 6; 24, 26) in a retentive manner and is able to be plugged onto a protrusion in a non-detachable manner, characterized in that - the spring clip is insertable into the receiving region (4, 6; 24, 26) in a detachable manner. - a connecting part (2; 22) with a fastening region (3; 23) for fastening at least one component and with a receiving region (4, 6; 24, 26) for receiving a spring clip, and - a spring clip that is insertable into the receiving region (4, 6; 24, 26) in a retentive manner and is able to be plugged onto a protrusion in a non-detachable manner, characterized in that - the spring clip is insertable into the receiving region (4, 6; 24, 26) in a detachable manner.
A method for separating and harvesting cells of interest from a whole blood sample comprising the steps of: (a) depositing a predetermined volume of a diluted whole blood sample into a tube; (b) dispensing a predetermined volume of a density gradient solution at a predetermined rate at the bottom of said tube, thereby providing a layer of density gradient solution that underlies said diluted blood sample, said density gradient solution having a density equal to or higher than the density of said cells of interest; (c) centrifuging said tube contents to produce a cell layer that is comprised of the cells of interest, said cell layer being located within the tube at a location that overlies said density gradient solution within said tube, (d) advancing the distal end of an aspirating/dispensing probe to a predetermined location within said tube at which an aspiration/dispense port, located at said distal end of said probe, underlies said cell layer by no more than a predetermined distance, and (e) aspirating a predetermined volume of liquid from said tube while said probe remains at said predetermined location, said predetermined volume being sufficient to (i) drop the level of said cell layer to a level in which said probe port becomes immersed in said cell layer, and (ii) enable the probe port to remain in the cell layer until such predetermined volume of liquid has been aspirated. (a) depositing a predetermined volume of a diluted whole blood sample into a tube; (b) dispensing a predetermined volume of a density gradient solution at a predetermined rate at the bottom of said tube, thereby providing a layer of density gradient solution that underlies said diluted blood sample, said density gradient solution having a density equal to or higher than the density of said cells of interest; (c) centrifuging said tube contents to produce a cell layer that is comprised of the cells of interest, said cell layer being located within the tube at a location that overlies said density gradient solution within said tube, (d) advancing the distal end of an aspirating/dispensing probe to a predetermined location within said tube at which an aspiration/dispense port, located at said distal end of said probe, underlies said cell layer by no more than a predetermined distance, and (e) aspirating a predetermined volume of liquid from said tube while said probe remains at said predetermined location, said predetermined volume being sufficient to (i) drop the level of said cell layer to a level in which said probe port becomes immersed in said cell layer, and (ii) enable the probe port to remain in the cell layer until such predetermined volume of liquid has been aspirated.
A method of operating a wind turbine rotational system comprising a plurality of drives (110a-110d) and a central control system, each drive comprising a motor, an electronic converter for driving the motor and an actuator operatively connected with the motor, wherein the central control system sends speed setpoints and torque setpoints to the electronic converters and the electronic converters drive the motors in accordance with the received setpoints, the method comprising designating one of the drives (110a-110d) as a master drive and designating the other drives as slave drives, designating the master drive or one of the slave drives as a drive of reference for each of the slave drives, the central control system determining a master speed setpoint and a master torque setpoint, the central control system sending the master speed setpoint and the master torque setpoint to the master drive, the central control system obtaining, from the master drive, a value representing the real torque of the motor of the master drive, the central control system obtaining, from each drive of reference, a value representing the real speed of the motor of the drive of reference, and the central control system sending a slave speed setpoint and a slave torque setpoint to each of the slave drives, wherein said slave speed setpoint is equal to the master speed setpoint, and wherein said slave torque setpoint is equal to the value representing the real torque of the master drive plus a variable offset value based on a difference between the master speed setpoint and the value representing the real speed of its drive of reference. designating one of the drives (110a-110d) as a master drive and designating the other drives as slave drives, designating the master drive or one of the slave drives as a drive of reference for each of the slave drives, the central control system determining a master speed setpoint and a master torque setpoint, the central control system sending the master speed setpoint and the master torque setpoint to the master drive, the central control system obtaining, from the master drive, a value representing the real torque of the motor of the master drive, the central control system obtaining, from each drive of reference, a value representing the real speed of the motor of the drive of reference, and the central control system sending a slave speed setpoint and a slave torque setpoint to each of the slave drives, wherein said slave speed setpoint is equal to the master speed setpoint, and wherein said slave torque setpoint is equal to the value representing the real torque of the master drive plus a variable offset value based on a difference between the master speed setpoint and the value representing the real speed of its drive of reference.