mhurhangee/ep-ind-claims huggingface dataset:
Method for calibrating a weighing apparatus of a vehicle axle of a vehicle by means of a calibrating apparatus, wherein - the vehicle is arranged on the calibrating apparatus in such a way that at least one wheel of the vehicle axle is arranged on a standing element of the calibrating apparatus, - at least one tension element connected to a holding device of the calibrating apparatus is connected to the vehicle, wherein the tension element is arranged on the vehicle axle, - the standing element is raised from an initial position into a raised position relative to the holding device by means of a lifting actuator, wherein, in the raised position, a predetermined tensile force acts via the tension element on the vehicle in the direction of the standing element, - an acting axle load is detected by a force-detecting device, - a measurement value in relation to the vehicle axle is detected by means of at least one weighing sensor of the weighing apparatus, and - the acting axle load is assigned to the measurement value in a control unit of the weighing apparatus. - the vehicle is arranged on the calibrating apparatus in such a way that at least one wheel of the vehicle axle is arranged on a standing element of the calibrating apparatus, - at least one tension element connected to a holding device of the calibrating apparatus is connected to the vehicle, wherein the tension element is arranged on the vehicle axle, - the standing element is raised from an initial position into a raised position relative to the holding device by means of a lifting actuator, wherein, in the raised position, a predetermined tensile force acts via the tension element on the vehicle in the direction of the standing element, - an acting axle load is detected by a force-detecting device, - a measurement value in relation to the vehicle axle is detected by means of at least one weighing sensor of the weighing apparatus, and - the acting axle load is assigned to the measurement value in a control unit of the weighing apparatus.
A driving device (1 a), comprising: an electromechanical transducer configured to expand and contract depending on an applied voltage; a driving member configured to be reciprocally displaced by the expansion and the contraction of the electromechanical transducer; a moving member slidably held on the driving member; and a driving circuit configured to apply a periodically varying drive voltage to the electromechanical transducer at a drive frequency lower than the frequency at which a driving speed of the moving member is at a maximum characterized in that the drive frequency is decreased so as to increase the driving speed, with increasing ambient temperature, at a lower degree than the change rate of the peak speed. an electromechanical transducer configured to expand and contract depending on an applied voltage; a driving member configured to be reciprocally displaced by the expansion and the contraction of the electromechanical transducer; a moving member slidably held on the driving member; and a driving circuit configured to apply a periodically varying drive voltage to the electromechanical transducer at a drive frequency lower than the frequency at which a driving speed of the moving member is at a maximum characterized in that the drive frequency is decreased so as to increase the driving speed, with increasing ambient temperature, at a lower degree than the change rate of the peak speed.
A startup control method of a resin extruder that extrudes supplied resin material to a die as molten resin by rotating a screw, the startup control method comprising: supplying the resin material with a low supply amount which is set to be smaller than a target supply amount and rotating the screw at a low rotational frequency which is set to be smaller than a target rotational frequency when starting the resin extruder, until an inside of the resin extruder is filled with the resin material; gradually increasing a supply amount of the resin material and a rotational frequency of the screw, after the inside of the resin extruder is filled with the resin material; and bringing the supply amount of the resin material into a target supply amount and bringing the rotational frequency of the screw into a target rotational frequency after elapse of a set startup time, wherein whether or not the inside of the resin extruder is filled with the resin material is determined by detecting a temperature with a temperature sensor or monitoring a change in a torque applied to a rotation of the screw. supplying the resin material with a low supply amount which is set to be smaller than a target supply amount and rotating the screw at a low rotational frequency which is set to be smaller than a target rotational frequency when starting the resin extruder, until an inside of the resin extruder is filled with the resin material; gradually increasing a supply amount of the resin material and a rotational frequency of the screw, after the inside of the resin extruder is filled with the resin material; and bringing the supply amount of the resin material into a target supply amount and bringing the rotational frequency of the screw into a target rotational frequency after elapse of a set startup time,
A networking method for a data center network, comprising: providing at least two deployment units, wherein each deployment unit comprises at least two Spine switches and at least one Leaf switch; setting up, inside each deployment unit, connections between each Leaf switch inside the current deployment unit and at least two Spine switches of the Spine switches inside the current deployment unit; and setting up, between every two deployment units, a connection between at least one Spine switch inside a first deployment unit and at least one Spine switch inside a second deployment unit; wherein inside each deployment unit, a connection between each Spine switch inside the current deployment unit and each Leaf switch inside the current deployment unit is set up; wherein at least one Spine switch group is determined from Spine switches comprised in the at least two deployment units, wherein the Spine switch group comprises at least one Spine switch of each deployment unit; and characterised in that a connection between each Spine switch inside the Spine switch group and each Spine switch outside the Spine switch group in which the Spine switch is located is set up. providing at least two deployment units, wherein each deployment unit comprises at least two Spine switches and at least one Leaf switch; setting up, inside each deployment unit, connections between each Leaf switch inside the current deployment unit and at least two Spine switches of the Spine switches inside the current deployment unit; and setting up, between every two deployment units, a connection between at least one Spine switch inside a first deployment unit and at least one Spine switch inside a second deployment unit; wherein inside each deployment unit, a connection between each Spine switch inside the current deployment unit and each Leaf switch inside the current deployment unit is set up; wherein at least one Spine switch group is determined from Spine switches comprised in the at least two deployment units, wherein the Spine switch group comprises at least one Spine switch of each deployment unit; and characterised in that a connection between each Spine switch inside the Spine switch group and each Spine switch outside the Spine switch group in which the Spine switch is located is set up.
A method for dynamically allocating a memory subsystem, the method comprising: fully interleaving a first portion of a memory subsystem having memory components with asymmetric memory capacities; partial interleaving a second remaining portion of the memory subsystem according to an interleave bandwidth ratio; the method being characterized by further comprising: allocating the first portion of the memory subsystem to one or more high-performance memory clients; allocating the second remaining portion to one or more relatively lower-performance memory clients; monitoring performance of the first and second portions; and in response to the monitored performance, adjusting the relative memory allocation between the first and second portions, wherein the adjusting the relative memory allocation between the first and second portions comprises determining a revised interleave bandwidth ratio based on the monitored performance. fully interleaving a first portion of a memory subsystem having memory components with asymmetric memory capacities; partial interleaving a second remaining portion of the memory subsystem according to an interleave bandwidth ratio; allocating the first portion of the memory subsystem to one or more high-performance memory clients; allocating the second remaining portion to one or more relatively lower-performance memory clients; monitoring performance of the first and second portions; and in response to the monitored performance, adjusting the relative memory allocation between the first and second portions, wherein the adjusting the relative memory allocation between the first and second portions comprises determining a revised interleave bandwidth ratio based on the monitored performance.
Method for reversible and selective coloring a synthetic polar-polymer material comprising the step: exposing the outer surface of the synthetic polar-polymer material to an aqueous dispersed coloring solution, wherein the aqueous dispersed coloring solution comprises: - at least one organic aromatic coloring agent having a molecular weight Mw in the range of ≥ 250 g/mol to ≤ 550 g/mol, and wherein the organic aromatic coloring agent is not a chemical reactive dye, and wherein the coloring agent comprises at least 2 to 6 aromatic six-membered rings and comprises at least one heteroatom selected from N, O, S, halogens, - at least one dispersing agent for dispersing the organic aromatic coloring agent in the aqueous solution, and - optionally at least one solubilizer, wherein the aqueous dispersed coloring solution exposing the synthetic polymer material has a temperature in the range of ≥ 30°C to ≤ 150 °C and optionally a pH in the range of ≥ 2.5 and < 7, and wherein the dispersing agent is selected different from the solubilizer. exposing the outer surface of the synthetic polar-polymer material to an aqueous dispersed coloring solution, wherein the aqueous dispersed coloring solution comprises: - at least one organic aromatic coloring agent having a molecular weight Mw in the range of ≥ 250 g/mol to ≤ 550 g/mol, and wherein the organic aromatic coloring agent is not a chemical reactive dye, and wherein the coloring agent comprises at least 2 to 6 aromatic six-membered rings and comprises at least one heteroatom selected from N, O, S, halogens, - at least one dispersing agent for dispersing the organic aromatic coloring agent in the aqueous solution, and - optionally at least one solubilizer, - at least one organic aromatic coloring agent having a molecular weight Mw in the range of ≥ 250 g/mol to ≤ 550 g/mol, and wherein the organic aromatic coloring agent is not a chemical reactive dye, and wherein the coloring agent comprises at least 2 to 6 aromatic six-membered rings and comprises at least one heteroatom selected from N, O, S, halogens, - at least one dispersing agent for dispersing the organic aromatic coloring agent in the aqueous solution, and - optionally at least one solubilizer, wherein the aqueous dispersed coloring solution exposing the synthetic polymer material has a temperature in the range of ≥ 30°C to ≤ 150 °C and optionally a pH in the range of ≥ 2.5 and < 7, and wherein the dispersing agent is selected different from the solubilizer.
A braided stent to be implanted in a blood vessel (52, 10, 11, 62), in particular in the carotid artery (Arteria carotis), with a hollow body which is stretchable in its longitudinal direction and whose circumferential surface has a braid comprising a multiplicity of filamentary elements which, in the expanded state of the braided stent (20, 41, 66), intersect a plane, perpendicular to the longitudinal direction, at a braiding angle (31, 32), characterized in that the braided stent (20, 41, 66) has a smaller braiding angle in a central portion than in its distal and proximal portions (21, 23) which adjoin the central portion in the longitudinal direction, and that the central portion, in the expanded state, has a smaller external diameter than the distal and the proximal portions (21, 23).
A shaft monitoring system comprising: a rotatable shaft including a target element coupled thereto that rotates along with the shaft, the target element including a series of distinct individual target sections arranged sequentially and contiguously one after another around a full turn in the direction of rotation of the shaft; a proximity sensor located adjacent to the target element, the proximity sensor configured to measure an inductance of the target element based on one or both of a volume of the target element indicated by the individual target section sensed by the proximity sensor and a distance between the individual target section of the target element and the proximity sensor, and to generate a proximity sensor output signal based on the measured inductance; and a signal processing system in signal communication with the proximity sensor, the signal processing system configured to determine at least one of a position of the shaft, a rotational speed of the shaft, and a rotational direction of the shaft based on the proximity sensor output signal. a rotatable shaft including a target element coupled thereto that rotates along with the shaft, the target element including a series of distinct individual target sections arranged sequentially and contiguously one after another around a full turn in the direction of rotation of the shaft; a proximity sensor located adjacent to the target element, the proximity sensor configured to measure an inductance of the target element based on one or both of a volume of the target element indicated by the individual target section sensed by the proximity sensor and a distance between the individual target section of the target element and the proximity sensor, and to generate a proximity sensor output signal based on the measured inductance; and a signal processing system in signal communication with the proximity sensor, the signal processing system configured to determine at least one of a position of the shaft, a rotational speed of the shaft, and a rotational direction of the shaft based on the proximity sensor output signal.
Apparatus for the production of electricity from gravitational potential energy of a mass of water, e.g. water in a hydraulic system such as an aqueduct, comprising: - at least a pump adapted to operate as a turbine to exploit the geodetic head at the disposal of water, i.e. supplied with water to the delivery of the pump, - a current generator driven by the pump, - an inverter operatively connected to the current generator, - a sensor for the number of revolutions of the electric generator and/or for the number of revolutions of the pump, and - a control unit of the inverter and of the sensor for the number of revolutions having program means comprising a memory in which are loaded the characteristic curves of the pump used as a turbine, - at least one regulating valve of the water flow rate, supplied to the pump, also operated by the control unit - a level sensor, designed to measure the water level in a tank upstream of the pump characterized by the fact that the control unit is programmed to control the apparatus and to: a) obtain the maximum production of electricity, b) obtain a certain flow rate of water flowing through the pump, c) adjust the water pressure downstream of the pump d) keep the water level in said tank constant over time by means of adjusting both the rotation speed of the pump through the inverter and the regulating valve, in feedback based on the value detected by the level sensor and the number of revolutions detected by the sensor. - at least a pump adapted to operate as a turbine to exploit the geodetic head at the disposal of water, i.e. supplied with water to the delivery of the pump, - a current generator driven by the pump, - an inverter operatively connected to the current generator, - a sensor for the number of revolutions of the electric generator and/or for the number of revolutions of the pump, and - a control unit of the inverter and of the sensor for the number of revolutions having program means comprising a memory in which are loaded the characteristic curves of the pump used as a turbine, - at least one regulating valve of the water flow rate, supplied to the pump, also operated by the control unit - a level sensor, designed to measure the water level in a tank upstream of the pump a) obtain the maximum production of electricity, b) obtain a certain flow rate of water flowing through the pump, c) adjust the water pressure downstream of the pump d) keep the water level in said tank constant over time
A method of homology-directed repair to introgress an exogenous allele into chromosomal DNA of a non-human cell, comprising introducing a targeted endonuclease system and a HDR template that comprises the exogenous allele into the cell, with the targeted endonuclease system comprising a DNA-binding member for specifically binding an endogenous cognate sequence in the chromosomal DNA, wherein the targeted endonuclease system and the HDR template operate to alter the chromosomal DNA to have identity to the HDR template sequence to introgress the exogenous allele into the chromosomal DNA in place of an endogenous allele, with the targeted endonuclease system being an RNA-guided endonuclease (RGEN) having a DNA binding member and comprising CRISPR or tracrRNA; and the targeted endonuclease system and/or HDR template comprising a feature to reduce specific binding of the targeted endonuclease system to DNA, said feature comprising a mismatch in the DNA-binding member sequence relative to the endogenous cognate sequence and/or a mismatch in the DNA-binding member sequence relative to the HDR template sequence.
A circuit for use in a first device and for transferring data from the first device to a second device, wherein the first device is a slave device and operates based on a first, non-continuous clock signal and the second device operates based on a second clock signal that is asynchronous with the first clock signal, the circuit comprising: a clock detection circuit that (i) is configured to receive a data transfer request signal from the second device for transferring data from the first device to the second device, and (ii) is configured to generate a sync signal that is inactive when the first clock signal is absent and asserted when the first clock signal is present and the data transfer request signal is active; a register bank that is configured to store the data; a temporary storage register connected to the clock detection circuit for receiving the sync signal and to the register bank for receiving the data therefrom, wherein the temporary storage register receives the data when the sync signal is asserted; and a datapath selector connected to the register bank and the temporary storage register, wherein the datapath selector is configured to output the data from the temporary storage register and in the event that the sync signal is asserted and from the register bank in the event that the sync signal is inactive. a clock detection circuit that (i) is configured to receive a data transfer request signal from the second device for transferring data from the first device to the second device, and (ii) is configured to generate a sync signal that is inactive when the first clock signal is absent and asserted when the first clock signal is present and the data transfer request signal is active; a register bank that is configured to store the data; a temporary storage register connected to the clock detection circuit for receiving the sync signal and to the register bank for receiving the data therefrom, wherein the temporary storage register receives the data when the sync signal is asserted; and a datapath selector connected to the register bank and the temporary storage register, wherein the datapath selector is configured to output the data from the temporary storage register and in the event that the sync signal is asserted and from the register bank in the event that the sync signal is inactive.
A method for updating one of firmware and software in a mobile electronic device (107A, 153B), the method comprising: embedding a first updating software component (113A, 161B) capable of executing a plurality of first executable instructions (363C, 365C, 367C) comprised in an update package in the mobile electronic device (107A, 153B); invoking the first updating software component (113A, 161B) to retrieve a second updating software component (115A, 163B), capable of executing a plurality of second executable instructions (369C, 371C, 373C) comprised in the update package, into the mobile electronic device (107A, 153B), the first and second updating software components (113A, 115A, 161B, 163B) forming an update agent; and executing a portion of the plurality of first executable instructions (363C, 365C, 367C) and a portion of the plurality of second executable instructions by the update agent during processing of the update package to update one of firmware and software in the mobile electronic device (107A, 153B) from one version to another. embedding a first updating software component (113A, 161B) capable of executing a plurality of first executable instructions (363C, 365C, 367C) comprised in an update package in the mobile electronic device (107A, 153B); invoking the first updating software component (113A, 161B) to retrieve a second updating software component (115A, 163B), capable of executing a plurality of second executable instructions (369C, 371C, 373C) comprised in the update package, into the mobile electronic device (107A, 153B), the first and second updating software components (113A, 115A, 161B, 163B) forming an update agent; and executing a portion of the plurality of first executable instructions (363C, 365C, 367C) and a portion of the plurality of second executable instructions by the update agent during processing of the update package to update one of firmware and software in the mobile electronic device (107A, 153B) from one version to another.
A dishwasher detergent composition comprising a starch-encapsulated fragrance composition, wherein the starch-encapsulated fragrance composition comprises starch octenyl succinate and wherein the starch-encapsulated fragrance composition comprises a copolymer of ethylene oxide and propylene oxide.