mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire, having in a ground contact surface of a tread thereof at least one circumferential groove extending in the tire circumferential direction and a plurality of lateral grooves each opening to the corresponding circumferential groove and being wider than the circumferential groove, wherein: a recessed portion is formed in a circumferential groove wall, facing the corresponding lateral groove, of the circumferential groove; an aperture plane portion of the lateral groove at which the lateral groove opens to the circumferential groove at least partially faces an aperture plane portion of the recessed portion at which the recessed portion opens to the circumferential groove; each lateral groove extends to be inclined with respect to the tire width direction at an inclination angle of at least 30°; the recessed portion is defined by a first groove wall and a second groove wall each adjacent to the circumferential groove wall and the aperture plane portion such that: i) the aperture plane portion and said first and second groove walls (W3, W4) together form a triangular shape, and ii) a first angle (θ3) and a second angle (θ4) formed by the first groove wall and the second groove wall with respect to the aperture plane portion, respectively, are each ≤ 90°; and the bottom of the circumferential groove has no projections provided thereon. a recessed portion is formed in a circumferential groove wall, facing the corresponding lateral groove, of the circumferential groove; an aperture plane portion of the lateral groove at which the lateral groove opens to the circumferential groove at least partially faces an aperture plane portion of the recessed portion at which the recessed portion opens to the circumferential groove; each lateral groove extends to be inclined with respect to the tire width direction at an inclination angle of at least 30°; the recessed portion is defined by a first groove wall and a second groove wall each adjacent to the circumferential groove wall and the aperture plane portion such that: i) the aperture plane portion and said first and second groove walls (W3, W4) together form a triangular shape, and ii) a first angle (θ3) and a second angle (θ4) formed by the first groove wall and the second groove wall with respect to the aperture plane portion, respectively, are each ≤ 90°; and i) the aperture plane portion and said first and second groove walls (W3, W4) together form a triangular shape, and ii) a first angle (θ3) and a second angle (θ4) formed by the first groove wall and the second groove wall with respect to the aperture plane portion, respectively, are each ≤ 90°; and the bottom of the circumferential groove has no projections provided thereon.
A horology device (100; 100'; 100") comprising: - a first component (10; 10'; 10") comprising at least one plastically deformable portion (12a, 12b; 12a', 12b'; 12a"), and - a second component (20; 20'; 20") provided with a surface (24; 24'; 24"), notably a surface of revolution and/or of guidance and/or of attachment of the first component relative to the second component, the first component being fixed permanently to the second component by plastic deformation of the at least one portion (12a, 12b; 12a', 12b'; 12a") against the second component, in a plane perpendicular or substantially perpendicular to an axis (A2; A2'; A2") of said surface (24; 24'; 24") of the second component, wherein the second component, notably the surface (24; 24'; 24"), comprises at least one recessed portion (22a, 22b; 22a', 22b'; 22a"), notably a groove extending all the way around the second component or extending part of the way around the second component, particularly a groove having a U-shaped or V-shaped or rectangular cross section, the at least one recessed portion accepting at least in part the at least one deformed portion (12a, 12b; 12a', 12b'; 12a") of the first component. - a first component (10; 10'; 10") comprising at least one plastically deformable portion (12a, 12b; 12a', 12b'; 12a"), and - a second component (20; 20'; 20") provided with a surface (24; 24'; 24"), notably a surface of revolution and/or of guidance and/or of attachment of the first component relative to the second component, the first component being fixed permanently to the second component by plastic deformation of the at least one portion (12a, 12b; 12a', 12b'; 12a") against the second component, in a plane perpendicular or substantially perpendicular to an axis (A2; A2'; A2") of said surface (24; 24'; 24") of the second component,
A fixing member comprising: a base member, an elastic layer provided on the surface of the base member, and a surface layer, wherein; the surface layer contains a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer having a partial structure represented by the following structural formula, and has a surface having a contact angle of 67 degrees or more as measured in a mixed liquid for a wetting tension test having a wetting tension of 31.0 mN/m. a base member, an elastic layer provided on the surface of the base member, and a surface layer, wherein; the surface layer contains a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer having a partial structure represented by the following structural formula, and has a surface having a contact angle of 67 degrees or more as measured in a mixed liquid for a wetting tension test having a wetting tension of 31.0 mN/m. contains a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer having a partial structure represented by the following structural formula, and has a surface having a contact angle of 67 degrees or more as measured in a mixed liquid for a wetting tension test having a wetting tension of 31.0 mN/m.
A cutting head, particularly for tables for cutting glass sheets, comprising a head body adapted to be moved along an axis away and toward a cutting table on which a glass sheet to be cut is arranged, said axis being arranged vertical with respect to the cutting plane of the glass sheet arranged on the cutting table, and a tool holder that is connected to said head body and is adapted to be rotated with respect to said body, said tool holder accommodating a plurality of cutting wheels adapted to be arranged in a cutting position following the rotation of said tool holder with respect to said body of the cutting head, characterized in that said body of the head and said tool holder connected thereto is arranged substantially at an angle with respect to said cutting table on which said sheet to be cut is arranged, and the cutting wheel is arranged in the cutting position in axial alignment with the axis of movement of the head body.
An absorbent article for personal hygiene, preferably a disposable pant, comprising: - a substantially transversely extending front panel; - a substantially transversely extending back panel; and - a substantially longitudinally extending absorbent insert joined to each of said front and back panels (2, 3), said absorbent insert comprising front and back transversal edges and left and right longitudinal edges connecting the front and back transversal edges to form a perimeter thereof; and wherein said insert comprises an absorbent core; wherein the front and back panels (2, 3) are joined together to define a pair of side seams, and characterised in that said article comprises a transversal waist barrier proximal to the front and/or back transversal edges of the absorbent insert wherein said barrier comprises a plurality of liquid retarding layers wherein said plurality of liquid retarding layers comprise at least two layers selected from the group consisting of hydrophobic nonwovens, and substantially liquid impermeable films, and in that at least a majority of the waist barrier comprises at least two of said plurality of liquid retarding layers and wherein said at least two of said plurality of liquid retarding layers are un-joined at one or more locations so that said layers are separated from one another at said location(s) by a gap, and preferably wherein said one or more locations together correspond to a majority of a total surface of said waist barrier. - a substantially transversely extending front panel; - a substantially transversely extending back panel; and - a substantially longitudinally extending absorbent insert joined to each of said front and back panels (2, 3), said absorbent insert comprising front and back transversal edges and left and right longitudinal edges connecting the front and back transversal edges to form a perimeter thereof; and wherein said insert comprises an absorbent core;
An electrical generator configured to convert axial kinetic energy into electrical energy, the electrical generator comprising: a housing; an actuator movable axially relative to the housing by an axial distance of between 5 mm and 10 mm; a rotatable member being rotatable relative to the housing and configured to cooperate with the actuator such that axial movement of the actuator causes rotation of the rotatable member; a stator fixedly attached to the housing; a rotor configured to receive rotational kinetic energy from the rotatable member; wherein the rotor and stator are configured to interact such that rotation of the rotor relative to the stator results in electromagnetic induction in the rotor and/or the stator which produces three-phase alternating current; and wherein the electrical generator further comprises: an electronic circuit comprising a rectifier configured to convert the alternating current to direct current; and a current controller configured to regulate the direct current to be a fixed constant current of between 150 mA and 500 mA. a housing; an actuator movable axially relative to the housing by an axial distance of between 5 mm and 10 mm; a rotatable member being rotatable relative to the housing and configured to cooperate with the actuator such that axial movement of the actuator causes rotation of the rotatable member; a stator fixedly attached to the housing; a rotor configured to receive rotational kinetic energy from the rotatable member; wherein the rotor and stator are configured to interact such that rotation of the rotor relative to the stator results in electromagnetic induction in the rotor and/or the stator which produces three-phase alternating current; and wherein the electrical generator further comprises: an electronic circuit comprising a rectifier configured to convert the alternating current to direct current; and a current controller configured to regulate the direct current to be a fixed constant current of between 150 mA and 500 mA. an electronic circuit comprising a rectifier configured to convert the alternating current to direct current; and a current controller configured to regulate the direct current to be a fixed constant current of between 150 mA and 500 mA.
Valve unit in particular for controlling the flow rate of an exhaust gas through the passage of a valve, the valve unit comprising a valve having a valve housing, at least one valve flap (71, 72)), the at least one valve flap being fixedly arranged on a rotatable valve shaft having a rotational axis, an actuator for actuating the valve flap, the actuator having an actuator shaft with a rotational axis, a mechanical coupler for rotational coupling of the actuator shaft and the valve shaft, the actuator shaft and the valve shaft being coaxial, the mechanical coupler comprising a rotational axis coinciding with the rotational axis of the actuator shaft and the rotational axis of the valve shaft, a first rotational member coupled to the actuator shaft and a second rotational member coupled to the valve shaft, and a bridge element for transmitting a force, particularly a torque between the first rotational member and the second rotational member, the first and the second rotational members (2, 3) having slots (21, 31) for receiving engagement pins of the bridge element, wherein the bridge element has a planar shape extending from the first rotational member to the second rotational member, and the planar bridge element has a body and at least two engagement pins projecting from the body of the planar bridge element at each of two of opposite ends of the body of the planar bridge element in a parallel direction to the rotational axis of the mechanical coupler, the engagement pins engaging with the corresponding slots (21, 31) in the rotational members (2, 3), and the planar bridge element comprising at least one through-hole traversing the plane of the body of the planar bridge element extending from the first rotational member to the second rotational member.
A mold for forming a sockliner with an integrated fabric skirt, the mold comprising: a forming surface defining a cavity within the mold, the forming surface having a central portion and a periphery; and one or more indentations in the central portion of the forming surface, the one or more indentations permitting fluid communication of a flowable foam from the cavity into the one or more indentations, wherein the periphery of the forming surface of the mold has no indentations.
A method for producing a fluoride fluorescent material, comprising: preparing a first solution that contains manganese, a second solution that contains at least one cation selected from the group consisting of K +, Li +, Na +, Rb +, Cs +, and NH 4 +, and a third solution that contains at least one element selected from the group consisting of elements from Groups 4 and 14 of the periodic table; and, adding the first and third solutions dropwise, each at a rate of 0.3% or less of a prepared solution volume per minute, to the second solution to obtain particles having a composition represented by formula: A 2 [M 1-a Mn 4+ a F 6] wherein A denotes at least one cation selected from the group consisting of K +, Li +, Na +, Rb +, Cs +, and NH 4 +; M denotes at least one element selected from the group consisting of elements from Groups 4 and 14 of the periodic table; and a satisfies 0.01< a <0.20. preparing a first solution that contains manganese, a second solution that contains at least one cation selected from the group consisting of K +, Li +, Na +, Rb +, Cs +, and NH 4 +, and a third solution that contains at least one element selected from the group consisting of elements from Groups 4 and 14 of the periodic table; and, adding the first and third solutions dropwise, each at a rate of 0.3% or less of a prepared solution volume per minute, to the second solution to obtain particles having a composition represented by formula: A 2 [M 1-a Mn 4+ a F 6] wherein A denotes at least one cation selected from the group consisting of K +, Li +, Na +, Rb +, Cs +, and NH 4 +; M denotes at least one element selected from the group consisting of elements from Groups 4 and 14 of the periodic table; and a satisfies 0.01< a <0.20. A denotes at least one cation selected from the group consisting of K +, Li +, Na +, Rb +, Cs +, and NH 4 +; M denotes at least one element selected from the group consisting of elements from Groups 4 and 14 of the periodic table; and a satisfies 0.01< a <0.20.
A hot air roasting machine comprising: a housing; a fan unit configured to suck air into the housing; a roasting drum that is hollow inside and includes an air inlet and a roasting chamber; a heater unit disposed between the air inlet and the roasting chamber in the roasting drum, and configured to heat the air introduced from the air inlet; and a roasting drum cover that is disposed to cover a part of an outer peripheral wall of the roasting drum and provided with a gap from the part of an outer peripheral wall of the roasting drum, wherein the roasting drum comprises a material that has a thermal conductivity of a predetermined value or more, characterized in that an inner peripheral wall of the roasting drum cover and the part of the outer peripheral wall of the roasting drum form a gap air passage configured to guide the air that has been sucked by the fan unit into the air inlet of the roasting drum. a housing; a fan unit configured to suck air into the housing; a roasting drum that is hollow inside and includes an air inlet and a roasting chamber; a heater unit disposed between the air inlet and the roasting chamber in the roasting drum, and configured to heat the air introduced from the air inlet; and a roasting drum cover that is disposed to cover a part of an outer peripheral wall of the roasting drum and provided with a gap from the part of an outer peripheral wall of the roasting drum, wherein the roasting drum comprises a material that has a thermal conductivity of a predetermined value or more, characterized in that an inner peripheral wall of the roasting drum cover and the part of the outer peripheral wall of the roasting drum form a gap air passage configured to guide the air that has been sucked by the fan unit into the air inlet of the roasting drum.
A method of connecting together two unit elements (4, 4') of a fluid transport pipe, each unit pipe element being made of metal alloy and being covered in an outer insulating coating (6, 6') made of a thermoplastic material, with the exception of an end portion that does not have an outer insulating coating, the method comprising: a step of butt-welding together two unit pipe elements at their end portions having no outer insulating coating; a step of mechanically assembling at least two rigid shells (14, 16) made of a thermoplastic material on the end portions of the unit pipe elements not having an outer insulating coating; and a step of keeping the shells sealed against the outer insulating coating of the two unit pipe elements that comprises positioning an annular sleeve around the shells while they are mechanically assembled on the end portions of the unit pipe elements not having any outer insulating coating so as to cover both said shells and also portions of the outer insulating coatings of the unit pipe elements, said sleeve being made of the same material as a material constituting the outer insulating coatings of the unit pipe elements or out of a thermoplastic material that is thermochemically compatible therewith, and being fastened in sealed manner on the outer insulating coatings of the unit pipe elements by weld bonding. a step of butt-welding together two unit pipe elements at their end portions having no outer insulating coating; a step of mechanically assembling at least two rigid shells (14, 16) made of a thermoplastic material on the end portions of the unit pipe elements not having an outer insulating coating; and a step of keeping the shells sealed against the outer insulating coating of the two unit pipe elements that comprises positioning an annular sleeve around the shells while they are mechanically assembled on the end portions of the unit pipe elements not having any outer insulating coating so as to cover both said shells and also portions of the outer insulating coatings of the unit pipe elements, said sleeve being made of the same material as a material constituting the outer insulating coatings of the unit pipe elements or out of a thermoplastic material that is thermochemically compatible therewith, and being fastened in sealed manner on the outer insulating coatings of the unit pipe elements by weld bonding.
A cleave system for cleaving a semiconductor structure having a top surface and a bottom surface generally parallel to the top surface, the cleave system comprising: a cleave arm that is moveable from a starting position to a raised position in which a cleave stress is applied to the semiconductor structure; a suction member for grasping the semiconductor structure on the top surface of the semiconductor structure; a suction rod that extends through the cleave arm, the suction rod being connected to the suction member toward a first end of the suction rod; and a spring member that applies a cleave force to the semiconductor structure when the cleave arm is in the raised position. a suction member for grasping the semiconductor structure on the top surface of the semiconductor structure; a suction rod that extends through the cleave arm, the suction rod being connected to the suction member toward a first end of the suction rod; and a spring member that applies a cleave force to the semiconductor structure when the cleave arm is in the raised position.
A silylated compound having the formula (a), defined as follows: wherein R 1, R 2, R 7, and R 8 are independently selected from hydrogen or Si(R 4)(R 5)(R 6), wherein R 4, R 5, and R 6 are independently selected from hydrogen or alkyl, provided that at least one of R 1, R 2, R 7, or R 8 is Si(R 4)(R 5)(R 6).
A heat exchanger comprising: a first conduit module for the flow of a first fluid; a second conduit module for the flow of a second fluid, wherein the second conduit module is fluidly isolated from the first conduit module; and a first fluid flow path for the flow of a third fluid in heat exchange with the first and second fluids, wherein the first fluid flow path extends in a substantially radial direction of the heat exchanger; wherein at least a portion of the first conduit module and at least a portion of the second conduit module are each arranged in a respective path that gradually widens or tightens about a longitudinal axis of the heat exchanger; and wherein the first conduit module and the second conduit module are nested with one another; characterised in that the first conduit module comprises a plurality of first tubes each wound in a respective path that gradually widens or tightens about the longitudinal axis of the heat exchanger and each spaced from one another in rows along the longitudinal direction of the heat exchanger, and in that the second conduit module comprises a plurality of second tubes each wound in a respective path that gradually widens or tightens about the longitudinal axis of the heat exchanger and each spaced from one another in rows along the longitudinal direction of the heat exchanger. a first conduit module for the flow of a first fluid; a second conduit module for the flow of a second fluid, wherein the second conduit module is fluidly isolated from the first conduit module; and a first fluid flow path for the flow of a third fluid in heat exchange with the first and second fluids, wherein the first fluid flow path extends in a substantially radial direction of the heat exchanger; wherein at least a portion of the first conduit module and at least a portion of the second conduit module are each arranged in a respective path that gradually widens or tightens about a longitudinal axis of the heat exchanger; and wherein the first conduit module and the second conduit module are nested with one another; characterised in that the first conduit module comprises a plurality of first tubes each wound in a respective path that gradually widens or tightens about the longitudinal axis of the heat exchanger and each spaced from one another in rows along the longitudinal direction of the heat exchanger, and in that the second conduit module comprises a plurality of second tubes each wound in a respective path that gradually widens or tightens about the longitudinal axis of the heat exchanger and each spaced from one another in rows along the longitudinal direction of the heat exchanger.