mhurhangee/ep-ind-claims huggingface dataset:
An opening switch for a vehicle, comprising: a decorative cover assembly having an inner surface, an outer surface, an anchor portion (56, 58), and a deflection portion, wherein the deflection portion is configured to at least partially deflect relative to the anchor portion upon a contact from a user at the inner surface; a sensor housing region located adjacent the outer surface of the decorative cover assembly; and a microelectromechanical, also called MEMS, sensor (44,46,48) mounted in the sensor housing region, wherein, when the contact from the user occurs at the deflection portion in the decorative cover assembly, a microdeflection occurs, and wherein, when the contact from the user occurs at the deflection portion in the decorative cover assembly, the micromechanical sensor is configured to generate an output signal that is indicative of a force of the contact from the user, wherein the microdeflection has a microdeflection apex, characterized in that the microdeflection apex is spaced from other surfaces in the sensor housing region when the contact from the user occurs at the deflection portion in the decorative cover assembly, the surfaces in the sensor housing region include a portion of the micromechanical sensor. a decorative cover assembly having an inner surface, an outer surface, an anchor portion (56, 58), and a deflection portion, wherein the deflection portion is configured to at least partially deflect relative to the anchor portion upon a contact from a user at the inner surface; a sensor housing region located adjacent the outer surface of the decorative cover assembly; and a microelectromechanical, also called MEMS, sensor (44,46,48) mounted in the sensor housing region, wherein, when the contact from the user occurs at the deflection portion in the decorative cover assembly, a microdeflection occurs, and wherein, when the contact from the user occurs at the deflection portion in the decorative cover assembly, the micromechanical sensor is configured to generate an output signal that is indicative of a force of the contact from the user, wherein the microdeflection has a microdeflection apex, characterized in that the microdeflection apex is spaced from other surfaces in the sensor housing region when the contact from the user occurs at the deflection portion in the decorative cover assembly, the surfaces in the sensor housing region include a portion of the micromechanical sensor.
A mixing box for an exhaust system of an internal combustion engine for incorporating additives into an exhaust gas flow, comprising at least one inlet tube having an E-tube axis (2.1), at least one outlet tube having an A-tube axis (3.1), and a housing having a housing wall (4.3) with an inner face and an outer face for holding the closed-end inlet tube and the outlet tube, wherein the housing delimits a volume V of the mixing box in relation to the surroundings, wherein the inlet tube has an inflow section (2.2) arranged within the housing with a diameter Dz and with a length Lz, which is provided with at least one inflow opening (2.3) for the purpose of introducing the exhaust gas into the housing, wherein the outlet tube has, on an end side, a dosing device and an outflow section (3.2) arranged within the housing with a diameter Da and a length La, which is provided with at least one outflow opening (3.3) for the purpose of discharging the exhaust gas from the housing, wherein a flow zone S is provided between the inlet tube and the outlet tube, which is delimited at the side by two boundary surfaces B1, B2 which, in each case, have a shortest distance a12, a13, a22, a23 to the respective point on the respective tube axis (2.1, 3.1), characterised in that over at least 30% to 50% of the length La, at least one portion Sf = 70% of the flow zones S is free of flow guiding elements (9.1), wherein a flow guiding element (9.1) causes a deflection of the flow into a direction R radial to the A-tube axis (3.1) and the flow guiding element (9.1) has a wall side and a gas side which are both arranged within the volume V.
A method for displaying a 3D ultrasound image in a desired view orientation, the method comprising: acquiring, with a transducer probe (12,54) comprised in an ultrasound system, 3D ultrasound image data comprising an anatomical feature in a patient; determining by the ultrasound system an actual orientation of the anatomical feature in relation to the transducer probe; wherein the ultrasound system comprises a plurality of stored settings, each stored setting defining an orientation of the anatomical feature and a lighting model for generating lighting and shadowing on the anatomical feature; displaying the 3D ultrasound image data as a rendering comprising the anatomical feature such that the anatomical feature is positioned in a selected orientation that is different than the actual orientation and in spatial relation to a lighting model such that lighting and shadowing regions on the anatomical feature are displayed, the orientation and lighting model corresponding to a selected stored setting from the plurality of stored settings; wherein the method comprises selecting by a user the selected stored setting upon displaying a plurality of real-time renderings of the 3D ultrasound image data comprising the anatomical feature, each real-time rendering showing a different orientation of the anatomical feature and a different lighting model according to each one of the settings stored on the ultrasound system. acquiring, with a transducer probe (12,54) comprised in an ultrasound system, 3D ultrasound image data comprising an anatomical feature in a patient; determining by the ultrasound system an actual orientation of the anatomical feature in relation to the transducer probe; wherein the ultrasound system comprises a plurality of stored settings, each stored setting defining an orientation of the anatomical feature and a lighting model for generating lighting and shadowing on the anatomical feature; displaying the 3D ultrasound image data as a rendering comprising the anatomical feature such that the anatomical feature is positioned in a selected orientation that is different than the actual orientation and in spatial relation to a lighting model such that lighting and shadowing regions on the anatomical feature are displayed, the orientation and lighting model corresponding to a selected stored setting from the plurality of stored settings; wherein the method comprises selecting by a user the selected stored setting upon displaying a plurality of real-time renderings of the 3D ultrasound image data comprising the anatomical feature, each real-time rendering showing a different orientation of the anatomical feature and a different lighting model according to each one of the settings stored on the ultrasound system.
Method for preparing a flour tortilla, comprising - preparing a tortilla dough comprising mixing cereal flour, wherein the cereal flour is wheat flour or a combination of wheat flour and at least one other flour, water, a liquid vegetable oil and fat particles, which fat particles at least substantially consist of triglycerides of fatty acids having 8-22 carbon atoms; - shaping the tortilla dough into a tortilla shape; and - heating the shaped tortilla dough, thereby obtaining the flour tortilla. - preparing a tortilla dough comprising mixing cereal flour, wherein the cereal flour is wheat flour or a combination of wheat flour and at least one other flour, water, a liquid vegetable oil and fat particles, which fat particles at least substantially consist of triglycerides of fatty acids having 8-22 carbon atoms; - shaping the tortilla dough into a tortilla shape; and - heating the shaped tortilla dough, thereby obtaining the flour tortilla.
A method for producing a medium-molecular weight polyalkylene oxide having a viscosity-average molecular weight of from 100,000 to 2,500,000 as calculated from the values of limiting viscosity with an Ostwald's viscometer using the Staudinger formula, comprising heat-treating a polyalkylene oxide having a viscosity-average molecular weight of 3,000,000 or more at a temperature of from 30 to 70°C in an aliphatic hydrocarbon solvent having a dissolved oxygen concentration of 0.5 mg/L or more, in the presence of a radical initiator in an amount of from 0.001 to 1 part by mass, based on 100 parts by mass of the polyalkylene oxide, and thereafter adding an antioxidant to a mixture in an amount of from 0.001 to 5 parts by mass, based on 100 parts by mass of the polyalkylene oxide and removing the solvent, wherein the radical initiator is an azonitrile, and the amount of the antioxidant used is from 0.1 to 10 times by mass of the amount of the radical initiator used.
Use of a demulsifier composition comprising one or more anhydrides for resolving a water external emulsion of water and oil or a complex emulsion of water and oil.
Method for adjusting an operating behaviour of at least one functional unit (2a, 2b) in a vehicle communication network that comprises at least two functional units (2a, 2b), wherein at least one adjusting command is transmitted to a master functional unit, the master functional unit evaluating at least the adjusting command, the evaluation being used to determine an MCCC (Multi Channel Common Calibration) operating mode or an MCSC (Multi Channel Single Calibration) operating mode, wherein the master functional unit adjusts the operating behaviour of precisely one functional unit (2a, 2b) in the MCSC operating mode and the master functional unit adjusts the operating behaviour of at least two functional units (2a, 2b) in the MCCC operating mode, characterized in that the operating behaviour is adjusted by adjusting at least one operating parameter, the operating parameter being provided by writing a value encoded in the adjusting command to a predetermined memory location.
An agricultural machine for controlling ejection of a bale, the agricultural machine comprising a baler and a tractor, wherein the baler is attached to the tractor, the agricultural machine further comprising: a baler controller configured to: obtain an ejection part inclination value from a positional relation between an inclination sensor configured to detect an inclination of the tractor and a bale ejecting part of the baler, the ejection part inclination value being a sensor value of the inclination sensor, the sensor value corresponding to the bale ejecting part; and allow ejection of the bale in a case where (i) a size of the bale in the baler is larger than a first threshold value (Vt) and (ii) the ejection part inclination value is less than a second threshold value (It); characterized in that the baler controller is configured to obtain, as the ejection part inclination value, the sensor value in data in which each traveled distance of the tractor and each sensor value of the inclination sensor are associated with each other, the sensor value thus obtained corresponding to a traveled distance obtained by subtracting a distance between the inclination sensor and the bale ejecting part from a current traveled distance. obtain an ejection part inclination value from a positional relation between an inclination sensor configured to detect an inclination of the tractor and a bale ejecting part of the baler, the ejection part inclination value being a sensor value of the inclination sensor, the sensor value corresponding to the bale ejecting part; and allow ejection of the bale in a case where (i) a size of the bale in the baler is larger than a first threshold value (Vt) and (ii) the ejection part inclination value is less than a second threshold value (It); characterized in that the baler controller is configured to obtain, as the ejection part inclination value, the sensor value in data in which each traveled distance of the tractor and each sensor value of the inclination sensor are associated with each other, the sensor value thus obtained corresponding to a traveled distance obtained by subtracting a distance between the inclination sensor and the bale ejecting part from a current traveled distance.
Control device for controlling a rotary jet for backwashing at least one filter element of a filter device for the filtering of a gas, - with a base plate, having a passage opening for filtered gas, - with a mounting bracket fastened to the base plate, to which mounting bracket a supply pipe for the supply of backwash medium to the rotary jet is fastened, - with fastened to the mounting bracket and/or to the supply pipe, a cylinder body containing a cylinder that encases the supply pipe, - with a piston, axially displaceable in the cylinder body, which, in the cylinder, separates a control space, which is fluidically connected to an interior space of the supply pipe, from a return space that is open to the environment of the cylinder body, - with a control sleeve, which is axially displaceable and axially guided on the outside of the supply pipe, - with a sensor plate to control the passage opening, - wherein the control sleeve is connected to the piston in a first end section and to the sensor plate in a second end section, - wherein the sensor plate, the control sleeve and the piston form a unit, which is displaceable, depending on the pressure difference between control space and return space, between a closed position, in which the sensor plate closes the passage opening, and an open position, in which the sensor plate opens the passage opening, characterised in that the two end sections (33, 34) are configured identically. - with a base plate, having a passage opening for filtered gas, - with a mounting bracket fastened to the base plate, to which mounting bracket a supply pipe for the supply of backwash medium to the rotary jet is fastened, - with fastened to the mounting bracket and/or to the supply pipe, a cylinder body containing a cylinder that encases the supply pipe, - with a piston, axially displaceable in the cylinder body, which, in the cylinder, separates a control space, which is fluidically connected to an interior space of the supply pipe, from a return space that is open to the environment of the cylinder body, - with a control sleeve, which is axially displaceable and axially guided on the outside of the supply pipe, - with a sensor plate to control the passage opening, - wherein the control sleeve is connected to the piston in a first end section and to the sensor plate in a second end section, - wherein the sensor plate, the control sleeve and the piston form a unit, which is displaceable, depending on the pressure difference between control space and return space, between a closed position, in which the sensor plate closes the passage opening, and an open position, in which the sensor plate opens the passage opening,
A method of monitoring a throughput of a crop, the method comprising: cutting organic material using a combine harvester; conveying the organic material through the combine harvester to a threshing mechanism located within a main body of the combine harvester; sensing, prior to the organic material being conveyed through the threshing mechanism and using an organic material throughput sensor, organic material throughput data, wherein the organic material throughput data comprises at least one of: a volume of the organic material, and a weight of the organic material; transmitting the organic material throughput data to a data management system; and outputting, by the data management system, an organic material throughput map based on the organic material throughput data; wherein the combine harvester includes a feeder box configured to convey the organic material from a header of the combine harvester to the main body of the combine harvester, and wherein the organic material throughput sensor is provided in the feeder box. cutting organic material using a combine harvester; conveying the organic material through the combine harvester to a threshing mechanism located within a main body of the combine harvester; sensing, prior to the organic material being conveyed through the threshing mechanism and using an organic material throughput sensor, organic material throughput data, wherein the organic material throughput data comprises at least one of: a volume of the organic material, and a weight of the organic material; transmitting the organic material throughput data to a data management system; and outputting, by the data management system, an organic material throughput map based on the organic material throughput data; wherein the combine harvester includes a feeder box configured to convey the organic material from a header of the combine harvester to the main body of the combine harvester, and wherein the organic material throughput sensor is provided in the feeder box.
Method for diagnosing a technical system, wherein deviations of values (T 1Yj, T 2Yj) relating to at least n, with n≥2, variables (T 1, T 2) for describing a current state of the technical system at a specific time from predefined values for describing a normal state are ascertained in order to infer a fault, characterized by the following method steps: a. performing a principal component analysis of predefined values (T 1Yj, T 2Yj) relating to the at least n, with n≥2, variables (T 1, T 2) for describing the normal state of the technical system and ascertaining at least one principal component of the n variables (T 1, T 2), wherein the n variables (T 1, T 2) describe the same physical quantity and/or wherein the values of the n variables (T 1, T 2) describe the state of the same component of the technical system; b. predefining the at least one principal component for describing the normal state of the technical system, wherein no more than x, with 1≤x<n, principal components of the n variables (T 1, T 2) for describing the normal state are predefined; c. ascertaining the deviations of the values relating to the n variables (T 1, T 2) for describing the current state of the technical system from the at least one predefined principal component for describing the normal state in order to infer a fault. a. performing a principal component analysis of predefined values (T 1Yj, T 2Yj) relating to the at least n, with n≥2, variables (T 1, T 2) for describing the normal state of the technical system and ascertaining at least one principal component of the n variables (T 1, T 2), wherein the n variables (T 1, T 2) describe the same physical quantity and/or wherein the values of the n variables (T 1, T 2) describe the state of the same component of the technical system; b. predefining the at least one principal component for describing the normal state of the technical system, wherein no more than x, with 1≤x<n, principal components of the n variables (T 1, T 2) for describing the normal state are predefined; c. ascertaining the deviations of the values relating to the n variables (T 1, T 2) for describing the current state of the technical system from the at least one predefined principal component for describing the normal state in order to infer a fault.
A hatch cover for closing a hatch, in particular a hatch of a submarine, which is pivotably fastened on the submarine body via at least one joint, with spring means for weight relief on opening and closure, characterised in that the spring means, for weight relief, comprise at least two springs (9; 10; 11) with different spring characteristics, which are dimensioned and connected, in a manner such that a weight force compensation adapted to the pivot position is always effected on opening and closing the cover.
A printing control apparatus configured to execute printing using continuous sheets (101a, 101b) stored in a plurality of storage portions, the printing control apparatus comprising: determination means configured to determine a continuous sheet usable by each print job in a print queue; decision means configured to decide a use order of the continuous sheets usable by the print jobs and a continuous sheet that is not used by the print jobs in the continuous sheets stored in the plurality of storage portions, based on a result of determination by the determination means; and presentation means configured to perform display processing based on a result of decision by the decision means, wherein the use order of the continuous sheets used by the print jobs is displayed, and wherein the decision means is configured to decide the use order so that a continuous sheet with a smaller remaining amount is used preferentially. determination means configured to determine a continuous sheet usable by each print job in a print queue; decision means configured to decide a use order of the continuous sheets usable by the print jobs and a continuous sheet that is not used by the print jobs in the continuous sheets stored in the plurality of storage portions, based on a result of determination by the determination means; and presentation means configured to perform display processing based on a result of decision by the decision means, wherein the use order of the continuous sheets used by the print jobs is displayed, and wherein the decision means is configured to decide the use order so that a continuous sheet with a smaller remaining amount is used preferentially.
Composition that can be polymerised and/or cross-linked by exposure to irradiation, preferably actinic radiation and/or to electron beam(s) irradiation, by cationic and/or radical route comprising: at least one base compound comprising per molecule at least one polymerisation/cross-linkage group, wherein the groups are selected from the following list: epoxy, oxetane, alkenyl, dioxolane, episulphide, thioxolane, acrylate or methacrylate, hydroxy; at least one cationic and/or radical photoinitiator; possibly at least one compound comprising an alcohol or thiol or carboxylic acid functional group; characterised in that it comprises at least one compound comprising at least one isocyanate functional group. at least one base compound comprising per molecule at least one polymerisation/cross-linkage group, wherein the groups are selected from the following list: epoxy, oxetane, alkenyl, dioxolane, episulphide, thioxolane, acrylate or methacrylate, hydroxy; at least one cationic and/or radical photoinitiator; possibly at least one compound comprising an alcohol or thiol or carboxylic acid functional group; characterised in that it comprises at least one compound comprising at least one isocyanate functional group.
A thermoplastic resin composition, comprising 100 parts by weight of a base resin comprising 10 to 70 % by weight of an acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer, 5 to 50 % by weight of a polymethacrylate-based resin, and 10 to 50 % by weight of a methacrylate-aromatic vinyl compound-vinyl cyanide compound copolymer; and 0.5 to 10 parts by weight of a matting agent having a refractive index of 1.46 to 1.53, wherein the refractive index is measured as disclosed in the specification, wherein the thermoplastic resin composition satisfies Equations 1 and 2 below: G ≤ 20, wherein G denotes a gloss of a sheet having a size of 0.15 T as measured at 60° using a gloss meter. Hz < Tt, wherein Hz and Tt denote haze (%) and total light transmittance (%) of a sheet having a size of 0.15 T, respectively, wherein haze (%) and total light transmittance (%) are measured as disclosed in the specification. wherein the thermoplastic resin composition satisfies Equations 1 and 2 below: G ≤ 20, wherein G denotes a gloss of a sheet having a size of 0.15 T as measured at 60° using a gloss meter. Hz < Tt, wherein Hz and Tt denote haze (%) and total light transmittance (%) of a sheet having a size of 0.15 T, respectively, wherein haze (%) and total light transmittance (%) are measured as disclosed in the specification.