mhurhangee/patent-ind-claim-en huggingface dataset:
An encapsulated fixed window module for a motor vehicle, comprising: a fixed window pane having an exterior surface , an interior surface , and a peripheral edge extending between said exterior and interior surfaces , at least one division post extending along at least a portion of said peripheral edge , said division post comprising a first longitudinal profile which is U-shaped in cross section and which has an exterior wall , an interior wall , and a lateral wall connecting said exterior and interior walls , said first profile defining a longitudinal groove configured to receive a guiding mean carried by a movable window pane , said exterior wall facing said interior surface , and an over-molded material securing said first profile to said fixed window pane , said over-molded material comprising a first portion extending between said exterior wall and said interior surface and a second portion extending between said lateral wall and said interior surface , said first and second portions being connected one to the other, said first portion having a first thickness (E1) which is constant along a major portion of said first portion , said second portion having an outer face (142b1) which extends between the lateral wall and said interior surface and which includes a major portion which is inclined with respect to said interior surface , characterized in that said second portion has a second thickness (E2) which is constant along a major portion of said second portion . a fixed window pane having an exterior surface , an interior surface , and a peripheral edge extending between said exterior and interior surfaces , at least one division post extending along at least a portion of said peripheral edge , said division post comprising a first longitudinal profile which is U-shaped in cross section and which has an exterior wall , an interior wall , and a lateral wall connecting said exterior and interior walls , said first profile defining a longitudinal groove configured to receive a guiding mean carried by a movable window pane , said exterior wall facing said interior surface , and an over-molded material securing said first profile to said fixed window pane , said over-molded material comprising a first portion extending between said exterior wall and said interior surface and a second portion extending between said lateral wall and said interior surface , said first and second portions being connected one to the other, said first portion having a first thickness (E1) which is constant along a major portion of said first portion , said second portion having an outer face (142b1) which extends between the lateral wall and said interior surface and which includes a major portion which is inclined with respect to said interior surface , characterized in that said second portion has a second thickness (E2) which is constant along a major portion of said second portion .
An analyte sensor comprising: a working electrode comprising a conductive layer disposed on a substrate ; a counter electrode ; a sensing surface disposed on the conductive layer of the working electrode that comprises two or more discontiguous sensing elements disposed laterally to each other, wherein each sensing element comprises an analyte-responsive enzyme, and a flux limiting membrane that covers the discontiguous sensing elements and is in contact with the working electrode between each discontiguous sensing element; characterised in that each sensing element has an arcuate cross-sectional profile and a semi-spherical shape; and in that the analyte sensor further comprises a sensor control unit with factory-determined calibration measurements input or stored therein such that no user calibration or recalibration of the analyte sensor is required during use. a working electrode comprising a conductive layer disposed on a substrate ; a counter electrode ; a sensing surface disposed on the conductive layer of the working electrode that comprises two or more discontiguous sensing elements disposed laterally to each other, wherein each sensing element comprises an analyte-responsive enzyme, and a flux limiting membrane that covers the discontiguous sensing elements and is in contact with the working electrode between each discontiguous sensing element; characterised in that each sensing element has an arcuate cross-sectional profile and a semi-spherical shape; and in that the analyte sensor further comprises a sensor control unit with factory-determined calibration measurements input or stored therein such that no user calibration or recalibration of the analyte sensor is required during use.
Covering cap for water drainage openings in hollow profiles of a window frame or door frame, in particular a blind frame, with a cover wall , an edge bar which can be placed against the hollow profile from the outside and projects from the cover wall , which edge bar defines a contact plane (A) of the covering cap on the hollow profile and has at least one aperture for the unimpeded drainage of water out of the hollow profile to the outside, and at least one holding element for fixing the covering cap to the outside of the hollow profile , wherein, in an interior space of the covering cap delimited by the edge bar , an element movable between a first state and a second state within the interior space is provided, which movable element is designed in such a way that it assumes the first or the second state automatically or depending on the relative pressure ratios applied to the element , characterised in that the movable element comprises a rigid support part and a flexible sealing element on its side facing the contact plane (A) in an assembly state fixed to the hollow profile , wherein a) in the first state, the sealing element is moved outwards away from the contact plane (A), and b) in the second state, the sealing element is located in or on the contact plane (A). a) in the first state, the sealing element is moved outwards away from the contact plane (A), and b) in the second state, the sealing element is located in or on the contact plane (A).
A pogo stick comprising: a frame ; an elongate member in sprung connection with the frame , for reciprocating motion between the elongate member and the frame; a liquid container arranged, in use, to contain a liquid; and firing apparatus arranged to utilise the reciprocating motion between the elongate member and the frame to expel the liquid in the liquid container from the pogo stick . a frame ; an elongate member in sprung connection with the frame , for reciprocating motion between the elongate member and the frame; a liquid container arranged, in use, to contain a liquid; and firing apparatus arranged to utilise the reciprocating motion between the elongate member and the frame to expel the liquid in the liquid container from the pogo stick .
A gas turbine engine comprising: a nacelle structure including a thrust reverser including a plurality of air diverter openings and a plurality of blocker doors moveable between a deployed position and a stowed position, wherein each of the plurality of blocker doors includes a front and two sides , wherein the plurality of air diverter openings in the nacelle structure are exposed when the blocker doors are in the deployed position, wherein the plurality of air diverter openings in the nacelle structure are covered when the blocker doors are in the stowed position and define a gap between adjacent blocker doors ; a plurality of divots mounted forward of the plurality of blocker doors to substantially cover the gap between the adjacent blocker doors when in the stowed position, wherein the plurality of divots are substantially triangular, and a bull nose ; characterised in that : the plurality of divots are secured to the bull nose ; and each of the plurality of blocker doors includes a leading edge contour which is oblique to the front and the two sides ; wherein when the blocker doors are in the stowed position, the divots fill the gaps between opposed edge contours of adjacent blocker doors and the bull nose . a nacelle structure including a thrust reverser including a plurality of air diverter openings and a plurality of blocker doors moveable between a deployed position and a stowed position, wherein each of the plurality of blocker doors includes a front and two sides , wherein the plurality of air diverter openings in the nacelle structure are exposed when the blocker doors are in the deployed position, wherein the plurality of air diverter openings in the nacelle structure are covered when the blocker doors are in the stowed position and define a gap between adjacent blocker doors ; wherein the plurality of air diverter openings in the nacelle structure are exposed when the blocker doors are in the deployed position, wherein the plurality of air diverter openings in the nacelle structure are covered when the blocker doors are in the stowed position and define a gap between adjacent blocker doors ; a plurality of divots mounted forward of the plurality of blocker doors to substantially cover the gap between the adjacent blocker doors when in the stowed position, wherein the plurality of divots are substantially triangular, and a bull nose ; characterised in that : the plurality of divots are secured to the bull nose ; and each of the plurality of blocker doors includes a leading edge contour which is oblique to the front and the two sides ; the plurality of divots are secured to the bull nose ; and each of the plurality of blocker doors includes a leading edge contour which is oblique to the front and the two sides ; wherein when the blocker doors are in the stowed position, the divots fill the gaps between opposed edge contours of adjacent blocker doors and the bull nose .
A man-lift implement configured to be mounted on an implement carrier that is rotatably attached to an arm of an excavator , the man-lift implement comprising a basket configured to carry an operator, wherein the man-lift implement further comprises: an implement carrier interface configured to mount the man-lift implement to the implement carrier of the excavator; a multi-bar linkage and a rotational actuator coupled between the implement carrier interface and the basket, the multi-bar linkage having a linkage actuator and being moveable under power of the linkage actuator to raise and lower the basket relative to the implement carrier interface, and the rotational actuator configured to pivot the basket with respect to the implement carrier interface; and characterized by a physical stop mechanism configured to engage the arm of the excavator and limit travel of the multi-bar linkage so as to prevent the basket from contacting the arm of the excavator. an implement carrier interface configured to mount the man-lift implement to the implement carrier of the excavator; a multi-bar linkage and a rotational actuator coupled between the implement carrier interface and the basket, the multi-bar linkage having a linkage actuator and being moveable under power of the linkage actuator to raise and lower the basket relative to the implement carrier interface, and the rotational actuator configured to pivot the basket with respect to the implement carrier interface; and characterized by a physical stop mechanism configured to engage the arm of the excavator and limit travel of the multi-bar linkage so as to prevent the basket from contacting the arm of the excavator.
A mitoketoscin comprising the general formula: (a) or (b) wherein each R may be the same or different and is selected from the group consisting of fluorine, hydrogen, chlorine, bromine, iodine, carboxyl, alkanes, cyclic alkanes, alkenes, cyclic alkenes, alkynes, ketones, aldehydes, carboxylic acids, ethers, esters, amines, amides, monocyclic or polycyclic arene, heteroarenes, phenols, and benzoic acid. (a) or (b) wherein each R may be the same or different and is selected from the group consisting of fluorine, hydrogen, chlorine, bromine, iodine, carboxyl, alkanes, cyclic alkanes, alkenes, cyclic alkenes, alkynes, ketones, aldehydes, carboxylic acids, ethers, esters, amines, amides, monocyclic or polycyclic arene, heteroarenes, phenols, and benzoic acid.
A laminate having alcohol repellency properties, the laminate comprising: a meltblown web; a first spunbond web bonded to the meltblown web, wherein the first spunbond web defines a first surface; and a fluorinated polymeric coating attached to the surface of the first spunbond web, wherein the fluorinated polymeric coating comprises a perfluoroalkyl(alkyl) (meth)acrylate monomer polymerized with a comonomer on the surface of the first spunbond web via exposure to a low frequency energy source, wherein the perfluoroalkyl(alkyl) (meth)acrylate monomer has a perfluoroalkyl side groups comprising -(CF 2 ) z -F, where z is an integer from 1 to 6; wherein the comonomer comprises a diacrylic fluoroalkyl monomer; and wherein the laminate has an alcohol repellency of greater than 80%, as determined by the test procedure defined herein. a meltblown web; a first spunbond web bonded to the meltblown web, wherein the first spunbond web defines a first surface; and a fluorinated polymeric coating attached to the surface of the first spunbond web, wherein the fluorinated polymeric coating comprises a perfluoroalkyl(alkyl) (meth)acrylate monomer polymerized with a comonomer on the surface of the first spunbond web via exposure to a low frequency energy source, wherein the perfluoroalkyl(alkyl) (meth)acrylate monomer has a perfluoroalkyl side groups comprising -(CF 2 ) z -F, where z is an integer from 1 to 6;
Method for manufacturing a component of an axial turbomachine , preferably of an aircraft turbojet engine compressor (4; 6), the method comprising the following steps: (a) supplying or producing a component having a surface that is to be treated, (b) placing the component in a chamber containing particles; and (c) peening , preferably ultrasonic peening, of the surface using the particles; characterized in that the chamber contains an abrasive paste mixed with the particles so as to polish the peened surface during the peening step (c). (a) supplying or producing a component having a surface that is to be treated, (b) placing the component in a chamber containing particles; and (c) peening , preferably ultrasonic peening, of the surface using the particles;
A method for verifying that a kick or loss detected by surface monitoring equipment has occurred, the method comprising: receiving, with a verifier controller , an input signal comprising notification that a kick or a loss has been detected in a borehole penetrating the earth during a time interval when drilling fluid is not being pumped into a drill string disposed in the borehole , the kick or loss being detected by the surface equipment; sensing a pressure in the borehole using a pressure sensor disposed in the borehole on the drill string to provide sensed pressure readings; comparing the sensed pressure readings to an upper threshold and a lower threshold using the verifier controller ; verifying that a kick has occurred if the notification comprises a kick detection and the sensed pressure readings are above the upper threshold using the verifier controller ; verifying that a loss has occurred if the notification comprises a loss detection and the sensed pressure readings are below the lower threshold using the verifier controller ; and transmitting, using the verifier controller , an output signal to a signal receiving device upon verification that the kick or loss has occurred, the signal comprising verification of the kick or loss. receiving, with a verifier controller , an input signal comprising notification that a kick or a loss has been detected in a borehole penetrating the earth during a time interval when drilling fluid is not being pumped into a drill string disposed in the borehole , the kick or loss being detected by the surface equipment; sensing a pressure in the borehole using a pressure sensor disposed in the borehole on the drill string to provide sensed pressure readings; comparing the sensed pressure readings to an upper threshold and a lower threshold using the verifier controller ; verifying that a kick has occurred if the notification comprises a kick detection and the sensed pressure readings are above the upper threshold using the verifier controller ; verifying that a loss has occurred if the notification comprises a loss detection and the sensed pressure readings are below the lower threshold using the verifier controller ; and transmitting, using the verifier controller , an output signal to a signal receiving device upon verification that the kick or loss has occurred, the signal comprising verification of the kick or loss.
A viscous material stirring apparatus that is an apparatus for stirring a viscous material applied to workpieces to remove air that has entered an inside of the viscous material , the viscous material stirring apparatus comprising: a stirring member that rotates around a rotation axis (A) and has a tip radially separated from the rotation axis (A); a rotary actuator that rotates the stirring member about the rotation axis (A); a moving mechanism that moves the stirring member ; and a control device , wherein the control device is configured so that the moving mechanism is driven to immerse the tip of the stirring member in the applied viscous material , and the rotary actuator is driven to rotate the stirring member about the rotation axis (A), and the moving mechanism is driven to move the stirring member along a coating direction with the tip of the stirring member immersed in the viscous material , the coating direction being an extending direction of the viscous material applied in a bead shape. a stirring member that rotates around a rotation axis (A) and has a tip radially separated from the rotation axis (A); a rotary actuator that rotates the stirring member about the rotation axis (A); a moving mechanism that moves the stirring member ; and a control device , wherein the control device is configured so that the moving mechanism is driven to immerse the tip of the stirring member in the applied viscous material , and the rotary actuator is driven to rotate the stirring member about the rotation axis (A), and the moving mechanism is driven to move the stirring member along a coating direction with the tip of the stirring member immersed in the viscous material , the coating direction being an extending direction of the viscous material applied in a bead shape.
A setup support device for supporting setup of a component mounter configured to produce multiple types of board products by performing various multiple production jobs by picking up electronic components supplied by multiple feeders set on a component supply device and mounting the electronic components on circuit boards, the setup support device comprising: a preparation cart on which are loaded multiple of the feeders used to perform the multiple production jobs; an identification device configured to acquire identification information of the component supply device ; and a feeder identifying section configured to identify multiple of the feeders to be set on the component supply device among the multiple feeders loaded on the preparation cart , based on the identification information, loading information that indicates the multiple feeders loaded on the preparation cart , and a production schedule that indicates an order in which to perform the production jobs that is a production order of the multiple types of board products, wherein the preparation cart includes a guidance section configured to issue guidance all at once for the identified multiple feeders to an operator performing the setup so as to supply the identified multiple feeders to the component supply device as preparation for setting the identified multiple feeders on the component supply device . a preparation cart on which are loaded multiple of the feeders used to perform the multiple production jobs; an identification device configured to acquire identification information of the component supply device ; and a feeder identifying section configured to identify multiple of the feeders to be set on the component supply device among the multiple feeders loaded on the preparation cart , based on the identification information, loading information that indicates the multiple feeders loaded on the preparation cart , and a production schedule that indicates an order in which to perform the production jobs that is a production order of the multiple types of board products, wherein the preparation cart includes a guidance section configured to issue guidance all at once for the identified multiple feeders to an operator performing the setup so as to supply the identified multiple feeders to the component supply device as preparation for setting the identified multiple feeders on the component supply device .
Centrifugal deaerator for an air/oil mixture of a turbine engine comprising: - an annular enclosure for the centrifugal separation of said mixture arranged around a hollow shaft and delimited by an outer annular wall and an inner annular wall , - at least one axial inlet for said air/oil mixture in said enclosure , - a pinion for rotating said enclosure comprising a sail securely connected to said hollow shaft and to said inner and outer annular walls such that rotation of said pinion drives said enclosure in rotation, - at least one radial oil outlet arranged in said outer wall and configured to be able to evacuate the oil separated from said mixture towards the outside of the deaerator, - at least one oil-free air outlet arranged in said inner wall and configured to be able to evacuate the oil-free air towards said hollow shaft , characterised in that said axial mixture inlet(s) and said radial oil outlet(s) are axially arranged on either side of said sail of said pinion so as to prevent any reintroduction of oil evacuated by said radial oil outlet(s) in the enclosure by said axial mixture inlet(s) . - an annular enclosure for the centrifugal separation of said mixture arranged around a hollow shaft and delimited by an outer annular wall and an inner annular wall , - at least one axial inlet for said air/oil mixture in said enclosure , - a pinion for rotating said enclosure comprising a sail securely connected to said hollow shaft and to said inner and outer annular walls such that rotation of said pinion drives said enclosure in rotation, - at least one radial oil outlet arranged in said outer wall and configured to be able to evacuate the oil separated from said mixture towards the outside of the deaerator, - at least one oil-free air outlet arranged in said inner wall and configured to be able to evacuate the oil-free air towards said hollow shaft ,