mhurhangee/ep-ind-claims huggingface dataset:
Device for correcting an indication given by a display mechanism for a timepiece provided with at least one display member, comprising: - a winding stem capable of being connected to a kinematic chain arranged for winding and arranged such that it occupies at least one indication correction position, - a pinion mounted onto the winding stem for rotation therewith, - an intermediate corrector wheel kinematically connected to the pinion when the winding stem is occupying the correction position, and pivoting about a pivot axis, characterised in that the device comprises a first corrector wheel set arranged such that it pivots from a first so-called slow correction position, wherein the first corrector wheel set is actuated by the intermediate corrector wheel and meshes with the display member, so as to carry out a slow correction of the indication when the winding stem is actuated in a first direction of rotation into the correction position thereof, to a second so-called fast correction position, wherein the first corrector wheel set is actuated by the intermediate corrector wheel and engages with a second corrector wheel set engaging with the display member, so as to carry out a fast correction of the indication when the winding stem is actuated in a second direction of rotation into the correction position thereof, and in that the device comprises intermediate accelerator wheels mounted between the first corrector wheel set and the second corrector wheel set. - a winding stem capable of being connected to a kinematic chain arranged for winding and arranged such that it occupies at least one indication correction position, - a pinion mounted onto the winding stem for rotation therewith, - an intermediate corrector wheel kinematically connected to the pinion when the winding stem is occupying the correction position, and pivoting about a pivot axis,
A straddle-type vehicle, comprising: a body frame; left and right front wheels; a link mechanism configured to connect the left and right front wheels with the body frame; a shock absorber capable of damping vibrations in the same phase occurring in the left and right front wheels; and a damper capable of damping vibrations in opposite phases occurring in the left and right front wheels, wherein the damper is configured such that its damping force increases at least in a certain frequency range as a frequency of the vibrations in opposite phases increases, wherein the link mechanism includes: a left side rod and a right side rod located to left and right with respect to the vehicle for rotatably supporting the left and right front wheels, respectively; a left upper arm and a left lower arm rotatably connected with the left side rod and the body frame; and a right upper arm and a right lower arm rotatably connected with the right side rod and the body frame, wherein the damper is configured to produce a larger damping force than the shock absorber when vibrations in opposite phases occur in the left and right front wheels, characterized in that the damper is disposed to connect the left upper arm with the right lower arm, or connect the right upper arm with the left lower arm. a body frame; left and right front wheels; a link mechanism configured to connect the left and right front wheels with the body frame; a shock absorber capable of damping vibrations in the same phase occurring in the left and right front wheels; and a damper capable of damping vibrations in opposite phases occurring in the left and right front wheels, wherein the damper is configured such that its damping force increases at least in a certain frequency range as a frequency of the vibrations in opposite phases increases, wherein the link mechanism includes: a left side rod and a right side rod located to left and right with respect to the vehicle for rotatably supporting the left and right front wheels, respectively; a left upper arm and a left lower arm rotatably connected with the left side rod and the body frame; and a right upper arm and a right lower arm rotatably connected with the right side rod and the body frame, wherein a left side rod and a right side rod located to left and right with respect to the vehicle for rotatably supporting the left and right front wheels, respectively; a left upper arm and a left lower arm rotatably connected with the left side rod and the body frame; and a right upper arm and a right lower arm rotatably connected with the right side rod and the body frame, wherein the damper is configured to produce a larger damping force than the shock absorber when vibrations in opposite phases occur in the left and right front wheels, characterized in that the damper is disposed to connect the left upper arm with the right lower arm, or connect the right upper arm with the left lower arm.
. An output member comprising: an output shaft that is applied to a mechanical device for a vehicle; a movable shaft that is installed at the output shaft; an output-side clutch member that is provided integrally with the movable shaft; a guide member that is structured by a shape of an outer peripheral surface of one of the output shaft and the movable shaft and a shape of an inner peripheral surface of another of the output shaft and the movable shaft, and that makes the movable shaft able to slide in an axial direction and unable to rotate relatively, with respect to the output shaft, wherein the inner peripheral surface of the other engages with the outer peripheral surface of the one of the output shaft and the movable shaft; and an urging member that urges the movable shaft in one direction or another direction opposite to the one direction in the axial direction, characterized in that the output shaft, the movable shaft and the output-side clutch member are made of resin, wherein the urging member is disposed at interiors of the output shaft and the movable shaft, wherein an inner peripheral surface of the movable shaft and an outer peripheral surface of the output shaft are engaged, and a guide hole that opens toward a distal end side is formed in the output shaft, and a coil spring that serves as the urging member is accommodated in the guide hole, and a positioning portion, that positions an end portion of the coil spring, is provided at the movable shaft. an output shaft that is applied to a mechanical device for a vehicle; a movable shaft that is installed at the output shaft; an output-side clutch member that is provided integrally with the movable shaft; a guide member that is structured by a shape of an outer peripheral surface of one of the output shaft and the movable shaft and a shape of an inner peripheral surface of another of the output shaft and the movable shaft, and that makes the movable shaft able to slide in an axial direction and unable to rotate relatively, with respect to the output shaft, wherein the inner peripheral surface of the other engages with the outer peripheral surface of the one of the output shaft and the movable shaft; and an urging member that urges the movable shaft in one direction or another direction opposite to the one direction in the axial direction,
A method of detecting Advanced Glycation End-products (AGEs) in the human eye comprising the steps of: illuminating a point on a crystalline lens of the eye 50 to 80% inferior from a front edge of the crystalline lens believed to contain AGEs using a blue LED coupled to one or more optical bandpass filters to produce excitation light having a desired wavelength, the illumination being made with excitation radiatio, which is directed through an optical delivery system which focuses the excitation light onto said point, to conduct a scan of the optical reflectance thereof; detecting a fluorescent radiation emission intensity that is backscattered from the lens or a fluorescent lifetime of fluorescent radiation generated by the lens in response to the excitation radiation at one or more excitation wavelengths, wherein the fluorescent light is generated by the AGEs in the illuminated lens of the eye; comparing the fluorescent emission intensity that is backscattered from the lens or the fluorescent lifetime of the detected fluorescent radiation to an expected fluorescent radiation emission; and determining the formation of AGEs based on results of the comparing step. illuminating a point on a crystalline lens of the eye 50 to 80% inferior from a front edge of the crystalline lens believed to contain AGEs using a blue LED coupled to one or more optical bandpass filters to produce excitation light having a desired wavelength, the illumination being made with excitation radiatio, which is directed through an optical delivery system which focuses the excitation light onto said point, to conduct a scan of the optical reflectance thereof; detecting a fluorescent radiation emission intensity that is backscattered from the lens or a fluorescent lifetime of fluorescent radiation generated by the lens in response to the excitation radiation at one or more excitation wavelengths, wherein the fluorescent light is generated by the AGEs in the illuminated lens of the eye; comparing the fluorescent emission intensity that is backscattered from the lens or the fluorescent lifetime of the detected fluorescent radiation to an expected fluorescent radiation emission; and determining the formation of AGEs based on results of the comparing step.
A mobile station configured to be able to carry out carrier aggregation using a plurality of component carriers in an uplink with a radio base station (eNB), comprising: a uplink transmission processing unit configured to transmit at transmission time intervals uplink information comprising uplink information in a primary cell and uplink information in a secondary cell, wherein when the mobile station executes Time-Switched Uplink Carrier Aggregation, the uplink transmission processing unit is configured to transmit the uplink information at each of the transmission time intervals using only one component carrier, and when transmission of uplink information is triggered in a plurality of component carriers to be transmitted at a same transmission time interval, the uplink transmission processing unit is configured to select uplink information to be transmitted at this transmission time interval, based on a priority corresponding to the uplink information to be transmitted using each of the plurality of component carriers in which transmission of the uplink information is triggered. a uplink transmission processing unit configured to transmit at transmission time intervals uplink information comprising uplink information in a primary cell and uplink information in a secondary cell, wherein when the mobile station executes Time-Switched Uplink Carrier Aggregation, the uplink transmission processing unit is configured to transmit the uplink information at each of the transmission time intervals using only one component carrier, and
A method of transferring and processing a ultrathin film or foil in a roll-to-roll process, the method comprising: coating or mounting an electrostatic inducing material on both ends of a roll to form a charging part; charging both ends of the ultrathin film or foil and the roll to a positive or negative charge by rubbing the ultrathin film or foil and the roll during the ultrathin film or foil transferring and rolling process; and applying an electrostatic force to both ends of the ultrathin film or foil at the same time as or after the charging to thereby alleviate a bending phenomenon of the ultrathin film or foil, wherein the width of the charging part is 5% to 25% of the total width of the roll. coating or mounting an electrostatic inducing material on both ends of a roll to form a charging part; charging both ends of the ultrathin film or foil and the roll to a positive or negative charge by rubbing the ultrathin film or foil and the roll during the ultrathin film or foil transferring and rolling process; and applying an electrostatic force to both ends of the ultrathin film or foil at the same time as or after the charging to thereby alleviate a bending phenomenon of the ultrathin film or foil, wherein the width of the charging part is 5% to 25% of the total width of the roll.
A method for analyzing a subterranean formation, comprising: measuring an apparent dielectric constant (ε meas_Form) of the subterranean formation and an apparent resistivity (R meas_Form) of the subterranean formation; using the measured apparent dielectric constant of the subterranean formation and the measured apparent resistivity of the subterranean formation to determine a measured formation loss tangent; determining a formation water loss tangent; determining a water dielectric constant (ε' ω); and using the measured formation loss tangent, the formation water loss tangent, and the water dielectric constant to determine at least one of an actual dielectric constant of the subterranean formation and an actual resistivity of the subterranean formation. measuring an apparent dielectric constant (ε meas_Form) of the subterranean formation and an apparent resistivity (R meas_Form) of the subterranean formation; using the measured apparent dielectric constant of the subterranean formation and the measured apparent resistivity of the subterranean formation to determine a measured formation loss tangent; determining a formation water loss tangent; determining a water dielectric constant (ε' ω); and using the measured formation loss tangent, the formation water loss tangent, and the water dielectric constant to determine at least one of an actual dielectric constant of the subterranean formation and an actual resistivity of the subterranean formation.
A static guide vane for use in a gas turbine engine comprising: an airfoil extending between two radial platforms (78,100,101,102), said airfoil and said platforms (78,100,101,102) each having a suction side and a pressure side; and a seal secured to a side of each of said platforms (78,100,101,102) remote from said airfoil, said seal having a strap secured to said side of said platforms (78,100,101,102), and an enlarged bulb sitting outwardly of an edge of said platform (78,100,101,102); characterised in that: there is a seal on only one of said suction and pressure sides at each of said two platforms (78,100,101,102); and said bulb has an outer diameter and a distance (d), said distance (d) defined between an end of said strap remote from said bulb to a point on said bulb furthest spaced from said end, and a ratio of said outer diameter to said distance (d) being between 0.2 and 0.5. an airfoil extending between two radial platforms (78,100,101,102), said airfoil and said platforms (78,100,101,102) each having a suction side and a pressure side; and a seal secured to a side of each of said platforms (78,100,101,102) remote from said airfoil, said seal having a strap secured to said side of said platforms (78,100,101,102), and an enlarged bulb sitting outwardly of an edge of said platform (78,100,101,102); characterised in that: there is a seal on only one of said suction and pressure sides at each of said two platforms (78,100,101,102); and said bulb has an outer diameter and a distance (d), said distance (d) defined between an end of said strap remote from said bulb to a point on said bulb furthest spaced from said end, and a ratio of said outer diameter to said distance (d) being between 0.2 and 0.5. there is a seal on only one of said suction and pressure sides at each of said two platforms (78,100,101,102); and said bulb has an outer diameter and a distance (d), said distance (d) defined between an end of said strap remote from said bulb to a point on said bulb furthest spaced from said end, and a ratio of said outer diameter to said distance (d) being between 0.2 and 0.5.
A clutch device comprising: a clutch mechanism including a friction engagement member capable of rotating relative to a rotating member and a clutch member that is supplied with restoration force in a direction in which the clutch member departs from the friction engagement member by a restoration spring; and a cam mechanism including; a cam member incapable of rotating relative to the rotating member; and a cam follower capable of rolling on a cam surface (330a, 330b, 410a, 410b) that exists between the cam member and the clutch member, the cam member and the clutch mechanism being arranged in a row along a rotation axis line of the rotating member, and the cam mechanism being characterized in that a cam angle (Θ) of the cam surface (330a, 330b, 410a, 410b) is set to an angle that satisfies μm x rm x F<F x rc x (sinθ - μc cosθ)/(cosθ + μc sinθ), so that the thrust force of the cam mechanism can be increased as much as possible without causing an erroneous self-locking state of the clutch device due to vibration, where the thrust force and the reaction force are F, the coefficient of static friction of the clutch member to a friction surface of the friction engagement member is μm, the coefficient of rolling friction of the cam follower to the clutch member is μc, the radius of an equivalent friction circle of the clutch member is rm, the radius of an action circle of the cam follower is rc, and the cam angle is θ. a clutch mechanism including a friction engagement member capable of rotating relative to a rotating member and a clutch member that is supplied with restoration force in a direction in which the clutch member departs from the friction engagement member by a restoration spring; and a cam mechanism including; a cam member incapable of rotating relative to the rotating member; and a cam follower capable of rolling on a cam surface (330a, 330b, 410a, 410b) that exists between the cam member and the clutch member, the cam member and the clutch mechanism being arranged in a row along a rotation axis line of the rotating member, and the cam mechanism being characterized in that a cam angle (Θ) of the cam surface (330a, 330b, 410a, 410b) is set to an angle that satisfies μm x rm x F<F x rc x (sinθ - μc cosθ)/(cosθ + μc sinθ), so that the thrust force of the cam mechanism can be increased as much as possible without causing an erroneous self-locking state of the clutch device due to vibration, where the thrust force and the reaction force are F, the coefficient of static friction of the clutch member to a friction surface of the friction engagement member is μm, the coefficient of rolling friction of the cam follower to the clutch member is μc, the radius of an equivalent friction circle of the clutch member is rm, the radius of an action circle of the cam follower is rc, and the cam angle is θ.
Method for verifying a security document, comprising the steps: orientating the security document relative to a white light interferometer, carrying out an examination by means of white light interferometry at several locations (P1-P3) on a surface of a security document, wherein at each of the locations (P1-P3) a depth profile is produced along a direction of examination (19-1 to 19-3), which is oriented transverse to the surface of the security document, wherein, as the depth profile, the measured values of a physical quantity are regarded, which are assigned to different depths along the examination direction, wherein the examination direction extends into an interior of the security document, and the depth profile is assigned to the location (P1-P3) of the surface of the security document at which the examination direction intersects the surface of the security document, deriving a feature from the depth profiles, and comparing the at least one derived feature with one or more predetermined specifications in order to derive a verification decision, characterised in that the intensity values corresponding to the individual depth values or depth regions and/or intensity value changes of several depth profiles are statistically evaluated in respect of their frequency, in order to determine any deviation from an expected statistical distribution as an indicator of manipulation or falsification. orientating the security document relative to a white light interferometer, carrying out an examination by means of white light interferometry at several locations (P1-P3) on a surface of a security document, wherein at each of the locations (P1-P3) a depth profile is produced along a direction of examination (19-1 to 19-3), which is oriented transverse to the surface of the security document, wherein, as the depth profile, the measured values of a physical quantity are regarded, which are assigned to different depths along the examination direction, wherein the examination direction extends into an interior of the security document, and the depth profile is assigned to the location (P1-P3) of the surface of the security document at which the examination direction intersects the surface of the security document, deriving a feature from the depth profiles, and comparing the at least one derived feature with one or more predetermined specifications in order to derive a verification decision, characterised in that the intensity values corresponding to the individual depth values or depth regions and/or intensity value changes of several depth profiles are statistically evaluated in respect of their frequency, in order to determine any deviation from an expected statistical distribution as an indicator of manipulation or falsification.
An apparatus for automatic and continuous concentration control of a flow of living organism in a fluid for further handling, the apparatus comprising: a first in-feed channel for a flow of living organism in a fluid; a second in-feed channel for a flow of fluid; a chamber containing a lever for regulating the flow from the first and the second in-feed channels through the chamber, the lever dividing the chamber and being positioned between the first and second in-feed channels; an outlet; a sensor positioned in the first in-feed channel for detecting the density of living organism in the flow; and a computer, wherein the computer continuously and automatically regulates the ratio of flow from the first and the second in-feed channels through the chamber and towards the outlet by adjusting a position of the lever in response to the density of living organism in the flow determined by the sensor. a first in-feed channel for a flow of living organism in a fluid; a second in-feed channel for a flow of fluid; a chamber containing a lever for regulating the flow from the first and the second in-feed channels through the chamber, the lever dividing the chamber and being positioned between the first and second in-feed channels; an outlet; a sensor positioned in the first in-feed channel for detecting the density of living organism in the flow; and a computer, wherein the computer continuously and automatically regulates the ratio of flow from the first and the second in-feed channels through the chamber and towards the outlet by adjusting a position of the lever in response to the density of living organism in the flow determined by the sensor. an outlet; a sensor positioned in the first in-feed channel for detecting the density of living organism in the flow; and a computer, wherein the computer continuously and automatically regulates the ratio of flow from the first and the second in-feed channels through the chamber and towards the outlet by adjusting a position of the lever in response to the density of living organism in the flow determined by the sensor.