mhurhangee/ep-ind-claims huggingface dataset:
A weighing and sorting apparatus for individual goods, comprising a feed platform, a weighing platform; and a sorting platform, wherein the platforms (11, 13, 15) are provided with a common conveyor belt, with the sorting platform being adjustable between an extended position and a retracted position and being longitudinally adjustable to sort the individual goods.
An image processing device, comprising: a display unit at which an image is displayed; an image processing unit that executes at least one of first image processing and second image processing on the image; a display control unit that brings up, on display at the display unit, a first display corresponding to the first image processing and a second display corresponding to the second image processing; and a detection unit that detects that a position on the display unit is specified; the image processing unit executes the first image processing and the second image processing on the image depending on a position between the first display and the second display on the display unit being specified, characterized in that the image processing unit raises the extent to which the image is altered through the first image processing and lowers the extent to which the image is altered through the second image processing if the position detected by the detection unit is closer to the first display than to the second display, and raises the extent to which the image is altered through the second image processing and lowers the extent to which the image is altered through the first image processing if the position detected by the detection unit is closer to the second display than to the first display. a display unit at which an image is displayed; an image processing unit that executes at least one of first image processing and second image processing on the image; a display control unit that brings up, on display at the display unit, a first display corresponding to the first image processing and a second display corresponding to the second image processing; and a detection unit that detects that a position on the display unit is specified; the image processing unit executes the first image processing and the second image processing on the image depending on a position between the first display and the second display on the display unit being specified, characterized in that the image processing unit raises the extent to which the image is altered through the first image processing and lowers the extent to which the image is altered through the second image processing if the position detected by the detection unit is closer to the first display than to the second display, and raises the extent to which the image is altered through the second image processing and lowers the extent to which the image is altered through the first image processing if the position detected by the detection unit is closer to the second display than to the first display.
A method for manufacturing a magnetostrictive torque sensor shaft to which a sensor portion of a magnetostrictive torque sensor is to be attached, the method comprising: a heat treatment step of subjecting an iron-based shaft member to a carburizing, quenching, and tempering process; and a shot peening step of performing shot peening using a shot media at least in a position on the shaft member, after the heat treatment step, to which the sensor portion is to be attached, wherein the shot media having a Vickers hardness at least equal to 10787 N/mm 2 (1100 HV) and at most equal to 12749 N/mm 2 (1300 HV), characterized in that the shot peening media is free of boron, and the shot media comprises zirconia. a heat treatment step of subjecting an iron-based shaft member to a carburizing, quenching, and tempering process; and a shot peening step of performing shot peening using a shot media at least in a position on the shaft member, after the heat treatment step, to which the sensor portion is to be attached, wherein the shot media having a Vickers hardness at least equal to 10787 N/mm 2 (1100 HV) and at most equal to 12749 N/mm 2 (1300 HV), characterized in that the shot peening media is free of boron, and the shot media comprises zirconia.
A voltage detector for detecting a voltage generated in a second resonant coil (110; 240) that is disposed to face a first resonant coil (240; 110) and that performs at least one of electric power transmission and electric power reception to and from said first resonant coil (240; 110) in a contactless manner by means of electromagnetic resonance, said voltage detector characterized by comprising: a first high-impedance element having one end connectable to one end of said second resonant coil (110; 240); a second high-impedance element having one end connectable to the other end of said second resonant coil (110; 240); a low-impedance element connected between the other end of said first high-impedance element and the other end of said second high-impedance element and having an impedance smaller than each of those of said first and second high-impedance elements; and an output terminal for outputting a signal associated with a voltage applied across said low-impedance element, said first high-impedance element including a first capacitor, and said second high-impedance element including a second capacitor, and said low-impedance element including an isolation transformer. a first high-impedance element having one end connectable to one end of said second resonant coil (110; 240); a second high-impedance element having one end connectable to the other end of said second resonant coil (110; 240); a low-impedance element connected between the other end of said first high-impedance element and the other end of said second high-impedance element and having an impedance smaller than each of those of said first and second high-impedance elements; and an output terminal for outputting a signal associated with a voltage applied across said low-impedance element, said first high-impedance element including a first capacitor, and said second high-impedance element including a second capacitor, and said low-impedance element including an isolation transformer.
A pharmaceutical formulation for use in a method of treating or preventing catabolism-related vitamin D deficiency in a patient having Chronic Kidney Disease, the deficiency being defined by a total serum level of 25-hydroxyvitamin D of below 30 ng/mL, the composition comprising an effective amount of a CYP24 inhibitor selected from the group consisting of -N-(2-(1H-imidazol-1-yl)-2-phenylethyl)-4'-chlorobiphenyl-4-carboxamide, ketoconazole, metronidazole, clomethiazole, itraconazole, fluconazole, 23,23-difluoro-24-sulfone vitamin D 3 compounds, 25-sulfone vitamin D 3 compounds, 24,24-difluoro-25-sulfone vitamin D 3 compounds, 24-sulfoximine vitamin D 3 compounds, 16-ene-25-oxime vitamin D 3 compounds, 16-ene-25-oxime ether vitamin D 3 compounds, 24-sulfone vitamin D 3 compounds, 24,24-difluoro vitamin D 3 compounds, and combinations thereof
Lamp, in particular an emergency light, comprising: • a plate-shaped light-conducting element, which is designed to radiate, via a flat side, light that is radiated into the light-conducting element at circumferential surfaces thereof, • lighting means arranged on the outer circumference of the light-conducting element and designed to radiate light into the light-conducting element via the circumferential surfaces thereof, wherein on its flat side provided for light radiation, the light-conducting element comprises light-decoupling structures, which are formed by a raised, grid-like structure, wherein regions of the grid-like structure have a substantially rectangular cross-section and the side walls, oriented perpendicularly to the flat side of the light-conducting element, of the grid-like structure allow light emission, and wherein the light-conducting element has a rectangular, in particular a square shape, wherein independently activatable lighting means or groups of lighting means are respectively arranged on all four circumferential surfaces of the light-conducting element in order to be able to adjust a distribution of the light emitted by the light-conducting element. • a plate-shaped light-conducting element, which is designed to radiate, via a flat side, light that is radiated into the light-conducting element at circumferential surfaces thereof, • lighting means arranged on the outer circumference of the light-conducting element and designed to radiate light into the light-conducting element via the circumferential surfaces thereof, wherein on its flat side provided for light radiation, the light-conducting element comprises light-decoupling structures, which are formed by a raised, grid-like structure, wherein regions of the grid-like structure have a substantially rectangular cross-section and the side walls, oriented perpendicularly to the flat side of the light-conducting element, of the grid-like structure allow light emission, and wherein the light-conducting element has a rectangular, in particular a square shape, wherein independently activatable lighting means or groups of lighting means are respectively arranged on all four circumferential surfaces of the light-conducting element in order to be able to adjust a distribution of the light emitted by the light-conducting element.
A method for coating an aluminum alloy heat exchanger, comprising: subjecting at least one surface of the heat exchanger to a pre-treatment process including cleaning; then conversion coating the at least one surface of the heat exchanger with a trivalent chromium compound; then subjecting the at least one conversion coated surface to an electro-coating in an aqueous solution containing an organic corrosion inhibitor, wherein the aqueous solution is de-ionized water containing resin and the organic corrosion inhibitor; and then subjecting the at least one surface to a surface coating including application of a solvent borne solution containing a liquid polyurethane coating having pigments and a corrosion inhibitor. subjecting at least one surface of the heat exchanger to a pre-treatment process including cleaning; then conversion coating the at least one surface of the heat exchanger with a trivalent chromium compound; then subjecting the at least one conversion coated surface to an electro-coating in an aqueous solution containing an organic corrosion inhibitor, wherein the aqueous solution is de-ionized water containing resin and the organic corrosion inhibitor; and then subjecting the at least one surface to a surface coating including application of a solvent borne solution containing a liquid polyurethane coating having pigments and a corrosion inhibitor.
Floor-cleaning robot, comprising a housing, a chassis with a drive for moving the floor-cleaning robot in a direction of travel over a surface to be cleaned, a cleaning means, which is adapted to engage with the surface to be cleaned, a control unit, and a first measuring device for three-dimensional distance measurement, which is adapted to sense the distance of the first measuring device from a plurality of surface elements within a first solid angle that is spanned from the first measuring device, wherein the control unit is adapted to guide the floor-cleaning robot over the surface to be cleaned, by means of a representation of the surface to be cleaned, and to clean the surface to be cleaned, characterized in that a second measuring device for three-dimensional distance measurement is provided, which is adapted to sense the distance of the second measuring device from a plurality of surface elements within a second solid angle that is spanned from the second measuring device, the first measuring device and the second measuring device are aligned in such a manner that the direction of travel runs through the first solid angle, and the second solid angle is offset in relation to the first solid angle, and the control unit is designed to generate and/or update the representation of the surface to be cleaned on the basis of the distances from surface elements sensed by means of the measuring devices (29, 31).
A method for controlling a vehicle transmission condition of a vehicle, wherein the vehicle has a first transmission parameter selector for selecting a transmission parameter, the method comprising the steps of: detecting a selector condition change in the first transmission parameter selector from a previous selector condition to a new selector condition; and setting a new vehicle transmission condition on the basis of at least the previous selector condition and the new selector condition characterised in that: the vehicle further has a second transmission parameter selector for selecting the transmission parameter, and wherein the step of detecting comprises detecting a selector condition change in the first transmission parameter selector or the second transmission parameter selector from a previous selector condition to a new selector condition. detecting a selector condition change in the first transmission parameter selector from a previous selector condition to a new selector condition; and setting a new vehicle transmission condition on the basis of at least the previous selector condition and the new selector condition characterised in that: the vehicle further has a second transmission parameter selector for selecting the transmission parameter, and wherein the step of detecting comprises detecting a selector condition change in the first transmission parameter selector or the second transmission parameter selector from a previous selector condition to a new selector condition.
A checkweigher comprising: a roller transfer device including: a roller drive system; an array of rollers, at least some of which are active rollers rotated by the roller drive system at a constant torque to propel objects in a conveying direction, wherein the acceleration of each of the objects in the conveying direction on the roller transfer device is inversely proportional to the object's weight; a sensor system (P1-P4) determining the gap between or the spacing of consecutive objects before and after they are propelled in the conveying direction by the active rollers and using a predetermined functional relationship between the length of the gap and a standard gap or the length of the spacing and a standard spacing to determine the weight of each of the objects from the effect of the roller transfer device on the motion of the object in the conveying direction. a roller transfer device including: a roller drive system; an array of rollers, at least some of which are active rollers rotated by the roller drive system at a constant torque to propel objects in a conveying direction, wherein the acceleration of each of the objects in the conveying direction on the roller transfer device is inversely proportional to the object's weight; a roller drive system; an array of rollers, at least some of which are active rollers rotated by the roller drive system at a constant torque to propel objects in a conveying direction, wherein the acceleration of each of the objects in the conveying direction on the roller transfer device is inversely proportional to the object's weight; a sensor system (P1-P4) determining the gap between or the spacing of consecutive objects before and after they are propelled in the conveying direction by the active rollers and using a predetermined functional relationship between the length of the gap and a standard gap or the length of the spacing and a standard spacing to determine the weight of each of the objects from the effect of the roller transfer device on the motion of the object in the conveying direction.
A compound semiconductor, represented by Chemical Formula 1 below: Chemical Formula 1 In x Co 4-a Sb 12-z-b Q z where, in the Chemical Formula 1, Q is at least one selected from the group consisting of 0, S, Se and Te; 0<x≤0.5; 0<a≤1; 0<b≤3; and 0<z≤4.
An electronic device for managing a mobile base station, comprising: one or more processors, configured to: acquire, location and movement speed of the mobile base station; and determine, in response to the acquisition, a valid time interval for a physical cell identity -PCI-of the mobile base station based on at least one of the location and the movement speed. acquire, location and movement speed of the mobile base station; and determine, in response to the acquisition, a valid time interval for a physical cell identity -PCI-of the mobile base station based on at least one of the location and the movement speed.
A production management process for a component mounting machine, which is provided with two mounting heads (24, 25) and two lanes (22, 23) which convey two circuit boards in parallel, two feeder set bases (15, 16) disposed so as to interpose the two lanes (22, 23) and, a plurality of feeders set in each feeder set base (15, 16), and which mounts, on the circuit board of each lane (22, 23), components that are supplied from the feeders of each feeder set base (15, 16) being sucked by each mounting head (24, 25), wherein in a same direction production mode in which component mounting boards are produced to the same specifications by the circuit boards being conveyed such that the orientations of the circuit boards between both lanes (22, 23) are the same, the component mounting machine produces the component mounting boards to the same specifications using one set of NC data, by arranging the feeders of the two feeder set bases (15, 16) in the same manner, and setting the mounting order of the components on the circuit boards in the two lanes (22, 23) to be the same, and wherein the production management process for a component mounting machine uses a production management computer for executing the following optimization processing steps: - generating a feeder arrangement of the component mounting machine in the same direction production mode, - optimizing the mounting order of the components to be mounted on each circuit board in the same direction production mode, - determining whether the difference between the production times of the two lanes (22, 23) in the same direction production mode is minimized by determining whether the said difference is a predetermined value or lower, - if the difference between the production times is determined not to be minimized, repeating the generation of the feeder arrangement and the optimization of the mounting order, - if the difference between the production times is determined to be minimized, producing the printed circuit boards in the same direction production mode with the generated feeder arrangement and the optimized mounting order. - generating a feeder arrangement of the component mounting machine in the same direction production mode, - optimizing the mounting order of the components to be mounted on each circuit board in the same direction production mode, - determining whether the difference between the production times of the two lanes (22, 23) in the same direction production mode is minimized by determining whether the said difference is a predetermined value or lower, - if the difference between the production times is determined not to be minimized, repeating the generation of the feeder arrangement and the optimization of the mounting order, - if the difference between the production times is determined to be minimized, producing the printed circuit boards in the same direction production mode with the generated feeder arrangement and the optimized mounting order.
A coating disposed on a surface, the coating comprising a reaction product of: a first polymer; a second polymer that is a fluoropolymer; an isocyanate; and a curative, the coating having a thickness of from about 10 mils to about 50 mils (about 0.254 mm to about 1.27 mm) and a void density of less than 5 voids of size 0.5 mm or greater per cm 2; wherein the first polymer is selected from poly(acrylic acid), poly(ethylene glycol), poly(2-hydroxyethyl methacrylate), poly(vinyl imidazole), poly(2-methyl-2-oxazoline), poly(2-ethyl-2-oxazoline), poly(vinylpyrolidone), cellulose, modified cellulose, carboxymethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, methyl cellulose, hydrogels, PEG diacryalate, PEG polyacrylates, or combinations thereof; or wherein the first polymer is selected from poly(oxymethylene), polyethylene glycol), polypropylene glycol), poly(tetrahydrofuran), poly(glycolic acid), poly(caprolactone), polyethylene adipate), poly(hydroxybutyrate), poly(hydroxyalkanoate), or combinations thereof. a first polymer; a second polymer that is a fluoropolymer; an isocyanate; and a curative, the coating having a thickness of from about 10 mils to about 50 mils (about 0.254 mm to about 1.27 mm) and a void density of less than 5 voids of size 0.5 mm or greater per cm 2; wherein the first polymer is selected from poly(acrylic acid), poly(ethylene glycol), poly(2-hydroxyethyl methacrylate), poly(vinyl imidazole), poly(2-methyl-2-oxazoline), poly(2-ethyl-2-oxazoline), poly(vinylpyrolidone), cellulose, modified cellulose, carboxymethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, methyl cellulose, hydrogels, PEG diacryalate, PEG polyacrylates, or combinations thereof; or wherein the first polymer is selected from poly(oxymethylene), polyethylene glycol), polypropylene glycol), poly(tetrahydrofuran), poly(glycolic acid), poly(caprolactone), polyethylene adipate), poly(hydroxybutyrate), poly(hydroxyalkanoate), or combinations thereof.
Process for preparing a polymer powder with a D50 particle size from 40 to 200, as measured according to the description, preferably 45 to 120 μm, and a Hausner factor, as measured according to the description, of 1.25 or less from an aqueous polymer dispersion comprising 15 to 50% by weight of a polymer polymerized from 10 to 30% by weight methyl methacrylate, 50 to 70% by weight methyl acrylate and 5 to 15% by weight methacrylic acid, by freeze drying and subsequent loosen up, comprising the process steps a) filling the aqueous polymer dispersion in one or more bowls with a volume/surface relation from 0.5 to 3.0 g /cm 2, preferably 1 to 2.5 g /cm 2, b) freezing the one or more bowls filled with the aqueous polymer dispersion to a temperature of minus 35 to minus 50 °C, preferably of minus 38 to minus 45 °C, c) freeze drying of the frozen aqueous polymer dispersion in the bowls to a powder at a vacuum in the range of about 3 to 0.05, preferably 0.8 to 0.1 mbar and at a temperature in the range from about 20 °C and up to no more than the glass transition temperature Tg of the polymer, the Tg being measured according to the description, until the water is removed to a LOD (Loss on drying, as measured according to the description) of 1% or less, d) obtaining the freeze dried polymer powder from the one or more bowls, e) loosen up the freeze-dried polymer powder by passing through a sieve to obtain the polymer powder with a D50 particle size from 40 to 200 μm and a Hausner factor 1.25 or less. a) filling the aqueous polymer dispersion in one or more bowls with a volume/surface relation from 0.5 to 3.0 g /cm 2, preferably 1 to 2.5 g /cm 2, b) freezing the one or more bowls filled with the aqueous polymer dispersion to a temperature of minus 35 to minus 50 °C, preferably of minus 38 to minus 45 °C, c) freeze drying of the frozen aqueous polymer dispersion in the bowls to a powder at a vacuum in the range of about 3 to 0.05, preferably 0.8 to 0.1 mbar and at a temperature in the range from about 20 °C and up to no more than the glass transition temperature Tg of the polymer, the Tg being measured according to the description, until the water is removed to a LOD (Loss on drying, as measured according to the description) of 1% or less, d) obtaining the freeze dried polymer powder from the one or more bowls, e) loosen up the freeze-dried polymer powder by passing through a sieve to obtain the polymer powder with a D50 particle size from 40 to 200 μm and a Hausner factor 1.25 or less.