mhurhangee/patent-ind-claim-en huggingface dataset:
An object information obtaining apparatus that obtains information about a phase image of an object using information about an interference pattern produced by a shearing interferometer , the interference pattern being formed by an electromagnetic wave or electron beam passed through or reflected by the object , the apparatus comprising: a first obtaining unit configured to obtain information about a differential phase image of the object using the information about the interference pattern; a second obtaining unit configured to obtain information about contrast in each region of the interference pattern; a third obtaining unit configured to weight the information about the differential phase image using the information about the contrast to obtain information about a weighted differential phase image; and a fourth obtaining unit configured to integrate the information about the weighted differential phase image to obtain the information about the phase image of the object , wherein when the second obtaining unit obtains information indicating that contrast in a second region of the interference pattern is lower than that in a first region of the interference pattern, the third obtaining unit obtains the information about the weighted differential phase image by setting a weighting factor for information which is included in the information about the differential phase image and which is associated with a region corresponding to the second region to be smaller than a weighting factor for information which is included in the information about the differential phase image and which is associated with a region corresponding to the first region. a first obtaining unit configured to obtain information about a differential phase image of the object using the information about the interference pattern; a second obtaining unit configured to obtain information about contrast in each region of the interference pattern; a third obtaining unit configured to weight the information about the differential phase image using the information about the contrast to obtain information about a weighted differential phase image; and a fourth obtaining unit configured to integrate the information about the weighted differential phase image to obtain the information about the phase image of the object , wherein when the second obtaining unit obtains information indicating that contrast in a second region of the interference pattern is lower than that in a first region of the interference pattern, the third obtaining unit obtains the information about the weighted differential phase image by setting a weighting factor for information which is included in the information about the differential phase image and which is associated with a region corresponding to the second region to be smaller than a weighting factor for information which is included in the information about the differential phase image and which is associated with a region corresponding to the first region.
A method comprising: calculating, using a processor , a thrust resolver angle based on a flight condition of an aircraft ; and controlling a throttle by restricting the throttle from moving past at least one of the thrust resolver angle or a range defined by the thrust resolver angle to maintain the aircraft in a preferred flight mode, characterised in that controlling the throttle includes changing an autothrottle system from a hold mode, the hold mode overriding the autothrottle system such that the autothrottle system does not control the amount of thrust provided to the aircraft, to another mode, when the aircraft trends away from the preferred flight mode. calculating, using a processor , a thrust resolver angle based on a flight condition of an aircraft ; and controlling a throttle by restricting the throttle from moving past at least one of the thrust resolver angle or a range defined by the thrust resolver angle to maintain the aircraft in a preferred flight mode, characterised in that controlling the throttle includes changing an autothrottle system from a hold mode, the hold mode overriding the autothrottle system such that the autothrottle system does not control the amount of thrust provided to the aircraft, to another mode, when the aircraft trends away from the preferred flight mode.
A smoke filtration device for making self- and machine-rolled conically shaped cigarettes , comprising a frusto-conical tubular body with a proximal end , a distal end and an internal smoke filtering passage connecting said ends, characterized in that said smoke filtering passage is integrally formed with said tubular body, said tubular body is made of a sintered ceramic material, said smoke filtering passage is configured as an open-cell porous structure having an effective porosity of 75 to 85%. said smoke filtering passage is integrally formed with said tubular body, said tubular body is made of a sintered ceramic material, said smoke filtering passage is configured as an open-cell porous structure having an effective porosity of 75 to 85%.
A compound of the following general structure, wherein: R 1 and R 2 are each independently selected from H, halo, cyano, nitro, hydroxy, amino, C 1-6 alkyl, C 3-6 cycloalkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, C 3-6 cycloalkoxy, C 3-6 halocycloalkyl, NH(C 1-6 alkyl), N(C 1-6 alkyl)(C 1-6 alkyl), and 3-6 membered heterocycloalkyl; and each R is independently selected from halo, cyano, nitro, hydroxy, amino, C 1-6 alkyl, C 3-6 cycloalkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, and C 3-6 halocycloalkyl; in free or salt form. R 1 and R 2 are each independently selected from H, halo, cyano, nitro, hydroxy, amino, C 1-6 alkyl, C 3-6 cycloalkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, C 3-6 cycloalkoxy, C 3-6 halocycloalkyl, NH(C 1-6 alkyl), N(C 1-6 alkyl)(C 1-6 alkyl), and 3-6 membered heterocycloalkyl; and each R is independently selected from halo, cyano, nitro, hydroxy, amino, C 1-6 alkyl, C 3-6 cycloalkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, and C 3-6 halocycloalkyl;
A system for transitioning an implantable medical device from an uncompressed arrangement to a compressed arrangement, the device comprising: an inflow loading assembly configured to compress an inflow portion of the implantable medical device as the implantable medical device is advanced through the inflow loading assembly; and an outflow loading assembly removably coupled to the inflow loading assembly, wherein: the outflow loading assembly is configured to partially compress an outflow portion of the implantable medical device during coupling to the inflow loading assembly, and the inflow loading assembly comprises one or more biasing features that are configured to asymmetrically compress the inflow portion of the implantable medical device by biasing structural components of the implantable medical device inwards in predefined areas; wherein the inflow loading assembly comprises a first portion and a second portion extending therefrom, and wherein at least one of the first portion or the second portion comprises the one or more biasing features; and wherein at least one of the first portion or the second portion is formed having a non-circular cross-section that provides a non-uniform compression force. an inflow loading assembly configured to compress an inflow portion of the implantable medical device as the implantable medical device is advanced through the inflow loading assembly; and an outflow loading assembly removably coupled to the inflow loading assembly, wherein: the outflow loading assembly is configured to partially compress an outflow portion of the implantable medical device during coupling to the inflow loading assembly, and the inflow loading assembly comprises one or more biasing features that are configured to asymmetrically compress the inflow portion of the implantable medical device by biasing structural components of the implantable medical device inwards in predefined areas; wherein the inflow loading assembly comprises a first portion and a second portion extending therefrom, and wherein at least one of the first portion or the second portion comprises the one or more biasing features; and wherein at least one of the first portion or the second portion is formed having a non-circular cross-section that provides a non-uniform compression force. the outflow loading assembly is configured to partially compress an outflow portion of the implantable medical device during coupling to the inflow loading assembly, and the inflow loading assembly comprises one or more biasing features that are configured to asymmetrically compress the inflow portion of the implantable medical device by biasing structural components of the implantable medical device inwards in predefined areas; wherein the inflow loading assembly comprises a first portion and a second portion extending therefrom, and wherein at least one of the first portion or the second portion comprises the one or more biasing features; and wherein at least one of the first portion or the second portion is formed having a non-circular cross-section that provides a non-uniform compression force.
A sorbent material comprising silanized silica at least partially coated with poly(benzyl methacrylate), obtainable by the method comprising: suspending silica in a solution of dimethylvinylchlorosilane in trifluorotoluene; removing the liquid and resuspending the silica in a fresh solution of dimethylvinylchlorosilane in trifluorotoluene; optionally removing the liquid and resuspending the silica again in a fresh 5% solution of dimethylvinylchlorosilane in trifluorotoluene; collecting and drying the resulting silanized silica; adding the silanized silica, benzylmethacrylate and potassium peroxodisulfate to a stirred solution of sodium stearate in water; and collecting and drying the resultant sorbent material comprising silanized silica coated with poly(benzyl methacrylate). suspending silica in a solution of dimethylvinylchlorosilane in trifluorotoluene; removing the liquid and resuspending the silica in a fresh solution of dimethylvinylchlorosilane in trifluorotoluene; optionally removing the liquid and resuspending the silica again in a fresh 5% solution of dimethylvinylchlorosilane in trifluorotoluene; collecting and drying the resulting silanized silica; adding the silanized silica, benzylmethacrylate and potassium peroxodisulfate to a stirred solution of sodium stearate in water; and collecting and drying the resultant sorbent material comprising silanized silica coated with poly(benzyl methacrylate).
A tractor comprising: a vehicle body ; an engine bonnet forming an engine compartment ; an engine disposed in the engine compartment ; a first exhaust-gas cleaning apparatus configured to clean exhaust gas discharged from the engine and disposed in the engine compartment above the engine such that a longitudinal direction of the first exhaust-gas cleaning apparatus is substantially parallel to a vehicle-body lateral width direction; a second exhaust-gas cleaning apparatus configured to clean exhaust gas discharged from the engine and disposed in the engine compartment behind the engine such that a longitudinal direction of the second exhaust-gas cleaning apparatus is substantially parallel to the vehicle-body lateral width direction; a vehicle body frame ; and a support member supported by the vehicle body frame and supporting the first exhaust-gas cleaning apparatus and the second exhaust-gas cleaning apparatus , wherein the support member comprises a support part extending upward from the vehicle body frame along a front portion of the second exhaust-gas cleaning apparatus while supporting the front portion, and a support arm extending forward from an upper portion of the support part along a lower portion of the first exhaust-gas cleaning apparatus while supporting the lower portion. a vehicle body ; an engine bonnet forming an engine compartment ; an engine disposed in the engine compartment ; a first exhaust-gas cleaning apparatus configured to clean exhaust gas discharged from the engine and disposed in the engine compartment above the engine such that a longitudinal direction of the first exhaust-gas cleaning apparatus is substantially parallel to a vehicle-body lateral width direction; a second exhaust-gas cleaning apparatus configured to clean exhaust gas discharged from the engine and disposed in the engine compartment behind the engine such that a longitudinal direction of the second exhaust-gas cleaning apparatus is substantially parallel to the vehicle-body lateral width direction; a vehicle body frame ; and a support member supported by the vehicle body frame and supporting the first exhaust-gas cleaning apparatus and the second exhaust-gas cleaning apparatus , wherein the support member comprises a support part extending upward from the vehicle body frame along a front portion of the second exhaust-gas cleaning apparatus while supporting the front portion, and a support arm extending forward from an upper portion of the support part along a lower portion of the first exhaust-gas cleaning apparatus while supporting the lower portion.
Subsea damper unit, comprising a cylinder body (C) equipped with an internal damper chamber filled with damper oil (A), said damper chamber contains a through-running piston rod (D) with a piston that divides the damper chamber into two chamber parts , and where the piston is equipped with one or more valves that permit fluid communication between said chamber parts , a compressible and fluid-filled chamber (F) with a fluid (B) that takes up the same pressure as surrounding water pressure is mounted to each end of the cylinder body (C), where respective fluid chambers (F) are in fluid communication with each other, and the cylinder body (C) comprises a pressurization valve or membrane that transmits the pressure from said fluid (B) in at least one of the compressible fluid chambers (F) to the damper oil (A) in the damper chamber , characterised in that one end of the cylinder body (C) is fastened to a housing (E) equipped with fastening devices , and that the piston rod (D) at the other end is equipped with fastening devices , and that the housing (E) surrounds one of said fluid chambers (F) and is equipped with openings that allow ingress of the surrounding seawater. a compressible and fluid-filled chamber (F) with a fluid (B) that takes up the same pressure as surrounding water pressure is mounted to each end of the cylinder body (C), where respective fluid chambers (F) are in fluid communication with each other, and the cylinder body (C) comprises a pressurization valve or membrane that transmits the pressure from said fluid (B) in at least one of the compressible fluid chambers (F) to the damper oil (A) in the damper chamber , characterised in that one end of the cylinder body (C) is fastened to a housing (E) equipped with fastening devices , and that the piston rod (D) at the other end is equipped with fastening devices , and that the housing (E) surrounds one of said fluid chambers (F) and is equipped with openings that allow ingress of the surrounding seawater.
Method for separating printed products that are printed together onto a sheet , wherein printed products that are printed together onto the sheet in a printing press are separated by means of a cutting device in a cutting system located downstream of the printing press , wherein each of these printed products has an identification feature that identifies its respective position on the sheet , wherein the unprinted sheet is rectangular in shape and becomes deformed as it passes through the printing press , characterized in that the separated printed products , which are likewise deformed as a result of the deformation of the sheet , are inspected in a quality control device located downstream of the cutting system for compliance with a permissible preset tolerance, at least with regard to the respective length and/or width (b03) of said printed products, wherein for each printed product that has been identified in terms of its position based on its identification feature , the quality control device detects information relating to an exceeding of the permissible tolerance at least for the length and/or width (b03) of the printed product in question, wherein the quality control device transmits this information detected by it, assigning said information to the position identified on the sheet , to a control unit of the cutting system , wherein, based on the information transmitted by the quality control device , for similar printed products that are arranged in the same position on the sheet and will be separated subsequently in the cutting system , the control unit of the cutting system adjusts the relevant sheet and the cutting device in their respective positions relative to one another in such a way that each of the printed products to be separated complies optimally with the respective preset tolerance, wherein the optimal compliance with the relevant tolerance is achieved in that the position of the sheet and the cutting device to be adjusted relative to one another is calculated in the control unit using a mathematical optimization method, wherein the sheet containing the printed products to be separated is placed on a cutting table in the cutting system , wherein the control unit of the cutting system adjusts the position of the sheet to be cut, which is lying on the cutting table , in relation to the cutting device of the cutting system in accordance with the position calculated by means of the mathematical optimization method.
A tree feeder of a forestry harvester, comprising a hydraulic circuit in which each of a pair of right and left hydraulic motors (R1, L1) of a pair of right and left feed rollers is hydraulically connected in series with a corresponding one of a pair of left and right hydraulic motors (R2, L2) of a mid-roller , wherein the mid-roller comprises: an inner wheel fixedly connected to respective rotary shafts of the pair of left and right hydraulic motors (R1, L1) thereof; an outer wheel ; and a ring-shaped rotation transmission member disposed between the inner wheel and the outer wheel , wherein the ring-shaped rotation transmission member is fixedly attached to an inner surface of the outer wheel or an outer surface of the inner wheel , characterized in that the ring-shaped rotation transmission member is configured to transmit a rotation of the inner wheel to the outer wheel so that the outer wheel is rotated integrally with the inner wheel , in a state where the hydraulic motors (R2, L2) of the mid-roller and the hydraulic motors (R1, L1) of the right and left feed rollers are rotated at the same motor speed, and in that the ring-shaped rotation transmission member is further configured to, allow the outer wheel to roll on the inner wheel in a slipping manner, according to movement of the tree fed by the right and left feed rollers , in a state where the motor speed of one of the hydraulic motors (R2, L2) of the mid-roller is lower than that of a corresponding one of the hydraulic motors (R1, L1) of the right and left feed rollers . wherein the ring-shaped rotation transmission member is fixedly attached to an inner surface of the outer wheel or an outer surface of the inner wheel , characterized in that the ring-shaped rotation transmission member is configured to transmit a rotation of the inner wheel to the outer wheel so that the outer wheel is rotated integrally with the inner wheel , in a state where the hydraulic motors (R2, L2) of the mid-roller and the hydraulic motors (R1, L1) of the right and left feed rollers are rotated at the same motor speed, and in that the ring-shaped rotation transmission member is further configured to, allow the outer wheel to roll on the inner wheel in a slipping manner, according to movement of the tree fed by the right and left feed rollers , in a state where the motor speed of one of the hydraulic motors (R2, L2) of the mid-roller is lower than that of a corresponding one of the hydraulic motors (R1, L1) of the right and left feed rollers .
A rotor assembly comprising: a ring magnet including an insertion hole in which a shaft is disposed and a plurality of first grooves formed on an upper surface of the ring magnet along a first imaginary circle (C1); and a core member including a body portion disposed between the shaft and the insertion hole and an extension portion extending from the body portion and covering the plurality of first grooves , characterized in that the extension portion includes a plurality of second grooves which are not on a plurality of first imaginary straight lines (L1) that respectively pass from a center of the first imaginary circle (C1) through the plurality of first grooves , wherein the plurality of second grooves are disposed along a second imaginary circle (C2) defined on the extension portion , and wherein a diameter of the second imaginary circle (C2) is less than a diameter of the first imaginary circle (C1). a ring magnet including an insertion hole in which a shaft is disposed and a plurality of first grooves formed on an upper surface of the ring magnet along a first imaginary circle (C1); and a core member including a body portion disposed between the shaft and the insertion hole and an extension portion extending from the body portion and covering the plurality of first grooves , characterized in that the extension portion includes a plurality of second grooves which are not on a plurality of first imaginary straight lines (L1) that respectively pass from a center of the first imaginary circle (C1) through the plurality of first grooves , wherein the plurality of second grooves are disposed along a second imaginary circle (C2) defined on the extension portion , and wherein a diameter of the second imaginary circle (C2) is less than a diameter of the first imaginary circle (C1).
A digital license plate comprising: a display system supporting modifiable heat relevant display parameters; a temperature sensor positioned to measure temperature of the display system ; and a temperature control module connected to the temperature sensor and configured to modify heat relevant display parameters as critical temperatures are approached; characterized in that the modifiable heat relevant display parameters include a displayed pattern to modify reflectivity. a display system supporting modifiable heat relevant display parameters; a temperature sensor positioned to measure temperature of the display system ; and a temperature control module connected to the temperature sensor and configured to modify heat relevant display parameters as critical temperatures are approached;