mhurhangee/ep-ind-claims huggingface dataset:
A turning machining apparatus comprising: a headstock and a footstock supported on a slide surface of a first and a second bed (B; 211, 212), the headstock and the footstock fixing a work piece (S, 1) therebetween; a reciprocal carriage (R; 500) installed with a tool the reciprocal carriage (R; 500) being supported and transferred on the slide surface of the first and second bed (B; 211, 212); characterized in that a rotation of a work piece (S; 1) and centers of width of the slide surface of first and second beds (B; 211, 212) are positioned on a same virtual line (L1, L2) when viewed from a direction parallel with a rotation axis of the work piece (S; 1), thereby preventing an offset error in processing due to a relative displacement between the work piece (S; 1) and a tool installed at the reciprocal carriage (R; 500). a headstock and a footstock supported on a slide surface of a first and a second bed (B; 211, 212), the headstock and the footstock fixing a work piece (S, 1) therebetween; a reciprocal carriage (R; 500) installed with a tool the reciprocal carriage (R; 500) being supported and transferred on the slide surface of the first and second bed (B; 211, 212); characterized in that a rotation of a work piece (S; 1) and centers of width of the slide surface of first and second beds (B; 211, 212) are positioned on a same virtual line (L1, L2) when viewed from a direction parallel with a rotation axis of the work piece (S; 1), thereby preventing an offset error in processing due to a relative displacement between the work piece (S; 1) and a tool installed at the reciprocal carriage (R; 500).
A harvesting machine with a harvested material tank which comprises a tank extension produced from a plurality of movable elements (8, 9, 10, 11), characterized in that at least one of the elements is associated with at least one access gate which, in an open position, enables a user to access the interior of the harvested material tank, wherein in a closed position, the access gate closes a gateway for at least one element.
Use of a composition for introducing silicon dioxide particles into a polymeric material, where the composition comprises at least one plasticizer and silicon dioxide particles with an average particle size, determinable by means of dynamic light scattering, of 150 nm or less, characterized in that the proportion of the silicon dioxide particles is from 10 to 80% by weight and the proportion of the plasticizers is from 90 to 20% by weight, where the sum of the proportions of the silicon dioxide particles and of the plasticizers is at least 80% by weight.
A connector for joining a wiper blade frame to a hook-slot wiper arm (30A, 30B), the connector comprising: - a central body portion; and - at least one first cantilevered beam (72A, 72B) extending longitudinally to the back from the central body portion and comprising a first tab extending therefrom such that when the first cantilevered beam is in a rest position the first tab engages a slot of a hook-slot wiper arm (30A, 30B) when said wiper arm is in an attached position, said first cantilevered beam being mobile between said rest position and a retracted position in which the first tab is retracted to release the connector from the wiper arm (30A, 30B); a free end portion of said first cantilevered beam (72A, 72B) comprising a recess, the recess comprising a locking face to lock the first cantilevered beam in its rest position when an end of the wiper arm (30A, 30B) is received in the recess in its attached position, whereby the connector comprises at least two opposed first cantilevered beams (72A, 72B) each comprising a recess with a locking face, characterized in that the connector comprises two pairs of opposed cantilevered beams (72A, 86A, 72B, 86B), only the first cantilevered beams (72A, 72B) of one pair comprising a recess with a locking face. - a central body portion; and - at least one first cantilevered beam (72A, 72B) extending longitudinally to the back from the central body portion and comprising a first tab extending therefrom such that when the first cantilevered beam is in a rest position the first tab engages a slot of a hook-slot wiper arm (30A, 30B) when said wiper arm is in an attached position, said first cantilevered beam being mobile between said rest position and a retracted position in which the first tab is retracted to release the connector from the wiper arm (30A, 30B);
Agricultural harvest wagon for stalk and leaf material, comprising: - a chassis, which is supported towards the soil via wheels, for receiving a loading compartment which is formed from side walls on the longitudinal sides, a front wall connecting the side walls, and a pivotable tailgate for closing a rear discharge opening, - a dosing apparatus which is arranged in front of the tailgate in the loading compartment and has at least two milling drums; - a loading compartment floor with a driven discharge device for discharging the stalk and leaf material at the rear in order to form a layer of feed; characterised in that a broad distribution device (12; 21; 28) is provided which conveys partial quantities of the stalk and leaf material, which is to be discharged, into the regions adjoining the clear width (H, H') of dosing apparatus and loading compartment such that the layer of feed has a width which corresponds to the vehicle width. - a chassis, which is supported towards the soil via wheels, for receiving a loading compartment which is formed from side walls on the longitudinal sides, a front wall connecting the side walls, and a pivotable tailgate for closing a rear discharge opening, - a dosing apparatus which is arranged in front of the tailgate in the loading compartment and has at least two milling drums; - a loading compartment floor with a driven discharge device for discharging the stalk and leaf material at the rear in order to form a layer of feed;
A stone retrieval device comprising: a sheath; a stone retrieval basket including a distal region with a plurality of basket wires (58, 60) and a proximal region with one or more core wires, the stone retrieval basket being contained within the sheath and movable out of a distal opening of the sheath to cause the plurality of basket wires to open into a basket shape; a lock mechanism for locking the position of the stone retrieval basket with respect to the position of the sheath; a basket force controller including a first control stage and a second control stage; and an automatic release mechanism; wherein the first control stage includes a sensor for measuring force on the stone retrieval basket when the lock mechanism is in an unlocked position and the second control stage includes a sensor for measuring force on the stone retrieval basket when the lock mechanism is in a locked position, and wherein the automatic release mechanism is configured to release the stone retrieval basket when the force on the stone retrieval basket exceeds a predetermined maximum force. a sheath; a stone retrieval basket including a distal region with a plurality of basket wires (58, 60) and a proximal region with one or more core wires, the stone retrieval basket being contained within the sheath and movable out of a distal opening of the sheath to cause the plurality of basket wires to open into a basket shape; a lock mechanism for locking the position of the stone retrieval basket with respect to the position of the sheath; a basket force controller including a first control stage and a second control stage; and an automatic release mechanism; wherein the first control stage includes a sensor for measuring force on the stone retrieval basket when the lock mechanism is in an unlocked position and the second control stage includes a sensor for measuring force on the stone retrieval basket when the lock mechanism is in a locked position, and wherein the automatic release mechanism is configured to release the stone retrieval basket when the force on the stone retrieval basket exceeds a predetermined maximum force.
An electrostatic chuck formed by a process comprising: depositing a diffuser layer (20, 120) onto an electrostatic puck (10, 100); removing areas of the diffuser layer to form discrete diffuser segments (28, 128) separated by gaps (26, 126); bonding the electrostatic puck to a heater (40, 140), wherein the diffuser layer is disposed between the electrostatic puck and the heater; and bonding the heater to a cooling plate (60, 160), wherein the discrete diffuser segments are made of the same material and are configured to allow a desired thermal gradient to be maintained between the discrete diffuser segments. depositing a diffuser layer (20, 120) onto an electrostatic puck (10, 100); removing areas of the diffuser layer to form discrete diffuser segments (28, 128) separated by gaps (26, 126); bonding the electrostatic puck to a heater (40, 140), wherein the diffuser layer is disposed between the electrostatic puck and the heater; and bonding the heater to a cooling plate (60, 160), wherein the discrete diffuser segments are made of the same material and are configured to allow a desired thermal gradient to be maintained between the discrete diffuser segments.
Wall (5, 4a to 4e) for a household refrigeration appliance, having at least one thermal insulation body, wherein the insulation body is held by a support frame and is surrounded circumferentially and the support frame is integrally formed, characterised in that on the inside the support frame has at least in some regions a lattice structure and the lattice structure is formed over corner regions (9a to 9d) of the support frame internally and without interruption, such that the pattern of the lattice does not change at these transitions in the corner region (9a to 9d) in comparison with zones far from the corner region (9a to 9d) and thus is substantially continued regularly.
A dual or combined tag device for use with vessels for carrying a fluid medium, the tag device comprising an ultra-high frequency, UHF, tag means operable at an ultra-high frequency and a near-field communication, NFC, tag means, which device comprises: a UHF integrated circuit for the UHF tag means, which UHF tag means comprises a UHF resonant loop (3, 9) associated with the UHF integrated circuit; an antenna for receiving or collecting radio energy, which is connected to the UHF integrated circuit; an NFC integrated circuit for the NFC tag means operable at a radiofrequency lower than ultra-high frequency; and an inductive coil for forming a tuned circuit with a capacitance in the NFC integrated circuit, characterised in that the inductive coil further acts as a capacitive pad connected to the UHF integrated circuit and configured for capacitive coupling with a fluid medium carried or to be carried by the vessel, wherein the antenna is connected to the UHF resonant loop (3, 9), which loop (3, 9) is connected to the inductive coil, wherein, in use, the inductive coil forming an NFC transponder tuned circuit provides a second function as the UHF capacitive coupling means via the vessel wall and into the fluid thereby creating a substantial current flow through the UHF chip resulting in enhanced UHF range without adversely affecting the operation of the NFC transponder. a UHF integrated circuit for the UHF tag means, which UHF tag means comprises a UHF resonant loop (3, 9) associated with the UHF integrated circuit; an antenna for receiving or collecting radio energy, which is connected to the UHF integrated circuit; an NFC integrated circuit for the NFC tag means operable at a radiofrequency lower than ultra-high frequency; and an inductive coil for forming a tuned circuit with a capacitance in the NFC integrated circuit,
Method for preparing a structured water-soluble polymer of weight-average molecular weight greater than 1 million Daltons and having a Huggins coefficient K H greater than 0.4, the Huggins coefficient K H being measured at a polymer weight concentration of 5 g.L-1, in a 0.4 N aqueous solution of sodium nitrate, at pH 3.5 and a temperature of 25°C, the method comprises the following successive steps: a) Preparing a polymer, in the form of a gel, by free-radical polymerization in aqueous solution at an initiation temperature between -20°C and +50°C of at least one water-soluble monounsaturated ethylenic monomer, the total weight concentration of monomer(s) in relation to the polymerization charge being between 10 and 60%; b) Granulating the resulting polymer gel; c) Drying the polymer gel to obtain a polymer in powder form; d) Grinding and sifting the powder; at least 10% by weight of water-soluble polymer, based on the total weight of the water-soluble monounsaturated ethylenic monomer or monounsaturated ethylenic monomers used in step a), being added during the polymerization step a) and optionally during the granulation step b), the water-soluble polymer being structured and added as a water-in-oil inverse emulsion or dispersion in oil. a) Preparing a polymer, in the form of a gel, by free-radical polymerization in aqueous solution at an initiation temperature between -20°C and +50°C of at least one water-soluble monounsaturated ethylenic monomer, the total weight concentration of monomer(s) in relation to the polymerization charge being between 10 and 60%; b) Granulating the resulting polymer gel; c) Drying the polymer gel to obtain a polymer in powder form; d) Grinding and sifting the powder; at least 10% by weight of water-soluble polymer, based on the total weight of the water-soluble monounsaturated ethylenic monomer or monounsaturated ethylenic monomers used in step a), being added during the polymerization step a) and optionally during the granulation step b), the water-soluble polymer being structured and added as a water-in-oil inverse emulsion or dispersion in oil. at least 10% by weight of water-soluble polymer, based on the total weight of the water-soluble monounsaturated ethylenic monomer or monounsaturated ethylenic monomers used in step a), being added during the polymerization step a) and optionally during the granulation step b), the water-soluble polymer being structured and added as a water-in-oil inverse emulsion or dispersion in oil.
An arrangement comprising a washstand and a drain arrangement wherein the drain arrangement comprises a connection unit with a connecting branch for connection to a drainage branch of a washstand; an overflow unit adjoining the connection unit and comprising a valve and an overflow pipe which bridges the valve, and a siphon unit adjoining the overflow unit and comprising a siphon element, wherein the connecting branch, when viewed in the installation position, runs in a first direction, which is oriented angularly inclined, at an angle (α), downward toward an assembly plane of the washstand, which assembly plane runs in the vertical, wherein the overflow unit lies laterally offset from the connecting branch such that the overflow pipe extends upward alongside the connecting branch, wherein the siphon unit lies beneath the overflow unit, and wherein the washstand has a rear wall, with which the washstand is fittable to a connecting structure defining the assembly plane, and wherein the washstand has a drainage branch, which protrudes from said rear wall and which runs, in particular, collinearly to said connecting branch, wherein in the installation position overflow unit and the siphon unit are arranged, with respect to the assembly plane, opposite the washstand, and wherein the drainage branch, with respect to a center plane which in the installation position, when viewed from the front, extends centrally in the vertical through the washstand and which runs at right angles to the assembly plane, is arranged laterally offset from the center plane. wherein the drain arrangement comprises a connection unit with a connecting branch for connection to a drainage branch of a washstand; an overflow unit adjoining the connection unit and comprising a valve and an overflow pipe which bridges the valve, and a siphon unit adjoining the overflow unit and comprising a siphon element, wherein the connecting branch, when viewed in the installation position, runs in a first direction, which is oriented angularly inclined, at an angle (α), downward toward an assembly plane of the washstand, which assembly plane runs in the vertical, wherein the overflow unit lies laterally offset from the connecting branch such that the overflow pipe extends upward alongside the connecting branch, wherein the siphon unit lies beneath the overflow unit, and wherein the washstand has a rear wall, with which the washstand is fittable to a connecting structure defining the assembly plane, and wherein the washstand has a drainage branch, which protrudes from said rear wall and which runs, in particular, collinearly to said connecting branch, wherein in the installation position overflow unit and the siphon unit are arranged, with respect to the assembly plane, opposite the washstand, and wherein the drainage branch, with respect to a center plane which in the installation position, when viewed from the front, extends centrally in the vertical through the washstand and which runs at right angles to the assembly plane, is arranged laterally offset from the center plane.
A sole (150, 300, 400) for an article of footwear, the sole comprising: a three-dimensional mesh (132, 320) comprising: a plurality of interconnected unit cells (134, 322, 900), each interconnected unit cell comprising a plurality of struts (330, 930) defining a three-dimensional shape and a plurality of nodes (340, 940) at which one or more struts (330, 930) are connected; and a mechanically anisotropic region comprising: a first lattice shear modulus measured in a first direction, and a second lattice shear modulus different from the first lattice shear modulus and measured in a second direction opposite to or orthogonal to the first direction; wherein the first lattice shear modulus and the second lattice shear modulus of the mechanically anisotropic region are tailored by designing at least one of the following for the plurality of struts of each interconnected unit cell: a forwardly-oriented strut (332, 932) having a first cross-sectional shape and a rearwardly-oriented strut (334, 934) having a second cross-sectional shape different from the first cross-sectional shape; a medially-oriented strut (336, 936) having a first cross-sectional shape and a laterally-oriented strut (338, 938) having a second cross-sectional shape different from the first cross-sectional shape. a plurality of interconnected unit cells (134, 322, 900), each interconnected unit cell comprising a plurality of struts (330, 930) defining a three-dimensional shape and a plurality of nodes (340, 940) at which one or more struts (330, 930) are connected; and a mechanically anisotropic region comprising: a first lattice shear modulus measured in a first direction, and a second lattice shear modulus different from the first lattice shear modulus and measured in a second direction opposite to or orthogonal to the first direction; wherein the first lattice shear modulus and the second lattice shear modulus of the mechanically anisotropic region are tailored by designing at least one of the following for the plurality of struts of each interconnected unit cell: a forwardly-oriented strut (332, 932) having a first cross-sectional shape and a rearwardly-oriented strut (334, 934) having a second cross-sectional shape different from the first cross-sectional shape; a medially-oriented strut (336, 936) having a first cross-sectional shape and a laterally-oriented strut (338, 938) having a second cross-sectional shape different from the first cross-sectional shape. a forwardly-oriented strut (332, 932) having a first cross-sectional shape and a rearwardly-oriented strut (334, 934) having a second cross-sectional shape different from the first cross-sectional shape; a medially-oriented strut (336, 936) having a first cross-sectional shape and a laterally-oriented strut (338, 938) having a second cross-sectional shape different from the first cross-sectional shape.
A method for fabrication of an inaccessible RF microwave waveguide structure having places therewithin which cannot be accessed without taking the structure apart, comprising: (a) providing at least one RF microwave waveguide network having a front side and a back side and including an array of waveguide components, having at least one aperture in a wall of at least one waveguide component of said at least one RF microwave waveguide network; (b) providing at least one dummy load element made of a ceramic material having high-temperature stable properties; (c) mounting said_at least one dummy load element in a predetermined place on said wall in the vicinity of the aperture; (d) providing a blocking assembly including a front cover and a back block for said at least one RF microwave waveguide network, configured for covering at least said predetermined place of said at least one RF microwave waveguide network where said at least one dummy load element is mounted; and (e) after mounting said at least one dummy load element, connecting said front cover and said back block to the front side and the back side of said RF microwave waveguide network, correspondingly, by using dip brazing to block at least a part of the RF microwave waveguide network such that said at least one dummy load element mounted in said predetermined place is concealed inside the structure and cannot be accessed without taking the structure apart. (a) providing at least one RF microwave waveguide network having a front side and a back side and including an array of waveguide components, having at least one aperture in a wall of at least one waveguide component of said at least one RF microwave waveguide network; (b) providing at least one dummy load element made of a ceramic material having high-temperature stable properties; (c) mounting said_at least one dummy load element in a predetermined place on said wall in the vicinity of the aperture; (d) providing a blocking assembly including a front cover and a back block for said at least one RF microwave waveguide network, configured for covering at least said predetermined place of said at least one RF microwave waveguide network where said at least one dummy load element is mounted; and (e) after mounting said at least one dummy load element, connecting said front cover and said back block to the front side and the back side of said RF microwave waveguide network, correspondingly, by using dip brazing to block at least a part of the RF microwave waveguide network such that said at least one dummy load element mounted in said predetermined place is concealed inside the structure and cannot be accessed without taking the structure apart.