mhurhangee/ep-ind-claims huggingface dataset:
A method for processing pears having an endocarp located at a distance from the calycine end depending on the pear longitudinal size, the pears advancing in an apparatus controlled by a control unit on a multilane belt comprising mesh elements and fruit holding flights having a plurality of housing and centering cups in each of which a pear is positioned with its calycine end facing upwards, in order to be cored, pitted and halved, the method comprising: - in a first step of advancing the multilane belt, locking each pear against rotation inside its housing and centering cup, and measuring the distance of the calycine end to know the pear longitudinal size; and - in a second step of advancing the multilane belt, simultaneously lowering, by the control unit, a coring rod and a pitting knife from a rest position to the height of the endocarp of the underlying pear, as determined by the control unit, each pitting knife being rotated simultaneously with the other pitting knives at different heights according to the longitudinal size of the pear to be pitted, characterized in that the distance of the calycine end of each pear is measured without contact and communicated to the control unit which determines the height position of the endocarp of that pear. - in a first step of advancing the multilane belt, locking each pear against rotation inside its housing and centering cup, and measuring the distance of the calycine end to know the pear longitudinal size; and - in a second step of advancing the multilane belt, simultaneously lowering, by the control unit, a coring rod and a pitting knife from a rest position to the height of the endocarp of the underlying pear, as determined by the control unit, each pitting knife being rotated simultaneously with the other pitting knives at different heights according to the longitudinal size of the pear to be pitted,
Disc brake for a utility vehicle, having a brake caliper, in the form of a floating caliper, spanning a brake disc, which brake caliper is fastened at a stationary brake carrier and has a central opening above the brake disc, two oppositely movable brake linings (3, 3') arranged in the brake caliper and each having one lining carrier plate (4, 4') and one friction lining (5, 5') fixed thereon, of which one action-side or supply-side brake lining can be pressed by means of a clamping apparatus via at least one brake piston against the brake disc, and at least one spreading apparatus with which the brake caliper can be returned after a displacing and releasing of the brake in the case of a braking procedure, wherein the spreading apparatus has resilient spring units (19, 19') which engage with the oppositely-situated brake linings (3, 3'), wherein the spreading apparatus is arranged in the central opening and the spring units (19, 19') engage directly or indirectly outside the friction linings (5, 5') in at least two joining interfaces (A1, A'1; A2, A'2) of the brake linings (3, 3') which are arranged spaced in the middle from one another, wherein the spring units (19, 19') are connected with a stationary joining element in at least one connecting interface with at least one connecting element (21, 23, 24, 26, 28, 29, 38, 39), characterised in that the at least one connecting element (21, 23, 24, 26, 28, 29, 38, 39) forms a connection which can be twisted around a longitudinal axis of a central portion of the joining element.
A device for supporting at least one arm of a user, wherein the device has - at least one main body for arranging on a torso of the user and - at least one supporting device for supporting the arm, wherein the supporting device is arranged on the main body via at least one joint so that it can be moved relative to the main body, wherein, in every position within a predetermined position range of the supporting system relative to the main body, the joint allows a movement of the supporting system relative to the main body in a first direction, characterized in that the joint is blocked in an opposite second direction. - at least one main body for arranging on a torso of the user and - at least one supporting device for supporting the arm, wherein the supporting device is arranged on the main body via at least one joint so that it can be moved relative to the main body, wherein, in every position within a predetermined position range of the supporting system relative to the main body, the joint allows a movement of the supporting system relative to the main body in a first direction, characterized in that the joint is blocked in an opposite second direction.
A computer-implemented method to determine placement of a perforation interval, the method comprising determining a location of a perforation interval along a well trace using a perforation filter defining a perforation interval by geobody (204(v)), wherein determining the location of the perforation interval further comprises: generating a plurality of first generation geobodies; calculating a connectivity score for each first generation geobody; and utilizing the connectivity scores to determine the location of a plurality of perforation intervals. generating a plurality of first generation geobodies; calculating a connectivity score for each first generation geobody; and utilizing the connectivity scores to determine the location of a plurality of perforation intervals.
A hot-forged copper alloy part which has a tubular shape, wherein an alloy composition contains 59.0 mass% to 84.0 mass% of Cu and 0.003 mass% to 0.3 mass% of Pb and, optionally, 0.05 mass% to 4.5 mass% of Si with a remainder of Zn and, optionally, at least one of 0.01 mass% to 0.3 mass% of As, 0.01 mass% to 0.3 mass% of Sb, 0.01 mass% to 0.3 mass% of P, 0.01 mass% to 0.3 mass% of Mg, 0.01 mass% to 1.5 mass% of Sn, 0.01 mass% to 1.0 mass% of Al, 0.01 mass% to 4.0 mass% of Mn, 0.01 mass% to 4.0 mass% of Ni, 0.0005 mass% to 0.05 mass% of Zr, 0.0005 mass% to 0.05 mass% of B and 0.003 mass% to 0.3 mass% of Bi and inevitable impurities, a content of Cu [Cu] mass%, a content of Pb [Pb] mass% and, optionally, a content of Si [Si] mass%, a content of Ni [Ni] mass%, a content of Mn [Mn] mass%, a content of As [As] mass%, a content of Zr [Zr] mass%, a content of B mass%, a content of Bi [Bi] mass%, a content of Sb [Sb] mass%, a content of Sn [Sn] mass%, a content of Mg [Mg] mass%, a content of Al [Al] mass% and a content of P mass% have a relationship of 59 ≤ Cu + 0.5 × Pb − 4.5 × Si + 2.2 × Ni + 1.4 × Mn + 0.5 × As + Zr + B + Bi − 1.2 × Sb + Sn + Mg − 2.2 Al − 3 × P ≤ 64; a shape of the forged part satisfies a formula of 0.4≤(average inner diameter)/(average outer diameter)≤0.92, 0.04≤(average thickness)/(average outer diameter)≤0.3, and 1≤(tube axis direction length)/(average thickness))<10, and a forging material which is to be hot-forged has a tubular shape and satisfies 0.3≤(average inner diameter/average outer diameter)≤0.88, 0.06≤(average thickness)/(average outer diameter)≤0.35, and 0.8≤(tube axis direction length)/(average thickness))≤12, and 0%≤(degree of uneven thickness)≤30%, 0≤(degree of uneven thickness)≤75×1/((tube axis direction length)/(average thickness)) 1/2 in any location in a tube axis direction, wherein the degree of uneven thickness is defined as ((1-(minimum thickness)/(maximum thickness)x100)% using the minimum thickness and the maximum thickness in a cross-section perpendicular to the tube axis direction of the forging material.
An attachment brush part for an electrical toothbrush, comprising a brush head with a circular bristle carrier, on which a bristle field with a plurality of circularly round bristle bundles (81, 82) each with a plurality of care bristles is arranged, wherein the plurality of circularly round bristle bundles (81, 82) is divided into three groups of bristle bundles (1, 82) and in a neutral position of the bristle carrier an upper first and lower second group each of several circularly round bristle bundles each has the shape of an arc section and form two arc-shaped rows of bristle bundles which are arranged concentrically to one another and concentrically to a circle line of the bristle carrier, characterised in that a middle third group of several circular bristle bundles consists of several straight-lined, parallel rows of bristle bundles bristle bundles which run perpendicularly to the longitudinal axis of the attachment brush part.
A metal powder core which includes Fe-based soft magnetic material powder and Cu powder and in which the Fe-based soft magnetic material powder and the Cu powder are bound by a binder, characterized in that the Fe-based soft magnetic material powder is flat-plate shaped pulverized powder, the Cu powder is dispersed between principal surfaces of the pulverized powder, and the thickness of the pulverized powder is 10 μm to 50 μm, and the grain diameter of the Cu powder is at least 2 μm and no more than 50% of the thickness of the pulverized powder.
A blade, comprising: a platform; a concave pressure side; a convex suction side; and an airfoil comprising: a root section comprising a first loading convention and an attachment engaged to said platform; a midspan section comprising a second loading convention; a tip section comprising a third loading convention, wherein a spanwise distribution of said first loading convention, said second loading convention and said third loading convention across a span of said airfoil comprises a mixed-loading convention and characterised by said spanwise distribution comprising a Zweifel load coefficient equal to or greater than 1.2. a platform; a concave pressure side; a convex suction side; and an airfoil comprising: a root section comprising a first loading convention and an attachment engaged to said platform; a midspan section comprising a second loading convention; a tip section comprising a third loading convention, wherein a spanwise distribution of said first loading convention, said second loading convention and said third loading convention across a span of said airfoil comprises a mixed-loading convention and characterised by said spanwise distribution comprising a Zweifel load coefficient equal to or greater than 1.2. a root section comprising a first loading convention and an attachment engaged to said platform; a midspan section comprising a second loading convention; a tip section comprising a third loading convention, wherein a spanwise distribution of said first loading convention, said second loading convention and said third loading convention across a span of said airfoil comprises a mixed-loading convention and characterised by said spanwise distribution comprising a Zweifel load coefficient equal to or greater than 1.2.
An antenna of a ground vehicle radar device, said antenna configured to be installed behind a windshield of a vehicle and aligned with an opening defined by a metallization layer included in said windshield, said antenna comprising: a lower portion that has a first field of view through the opening and is directed horizontal toward a horizon forward of the vehicle; and an upper portion that has a second field of view through the opening and is directed downward toward an area of the ground forward of the vehicle; the upper portion and the lower portion being interconnected by microstrips; each of the upper and lower portions (46, 48) including a plurality of radiator patches interconnected by microstrips; the size of each radiator patch and the spacing between each of the patches being determined such that the upper portion has a lobe corresponding to the second field of view which is distinct from the first field of view of the lower portion.
Method for producing, on an offshore platform or construction, undersea oil drilling injection water depleted in oxygen from seawater, characterised in that it comprises a deoxygenation step of said seawater, said deoxygenation step comprising: - a circulation step of said seawater via at least one battery incorporating a plurality of membrane modules assembled in series and each housing at least one porous and hydrophobic membrane; - a circulation step in counter-current or through the flow of said seawater and independently via each of said membrane modules of a chemically inert scavenging gas having a dissolved oxygen concentration less than or equal to 5% molar, said seawater and said scavenging gas each circulating on a different side of said membrane. - a circulation step of said seawater via at least one battery incorporating a plurality of membrane modules assembled in series and each housing at least one porous and hydrophobic membrane; - a circulation step in counter-current or through the flow of said seawater and independently via each of said membrane modules of a chemically inert scavenging gas having a dissolved oxygen concentration less than or equal to 5% molar,
A lubricant additive comprising: a base oil; colloidal nanocarbon particles, wherein the colloidal nanocarbon particles comprise at least one type of particle selected from the group consisting of nanodiamonds, functionalized nanodiamonds, polycrystalline nanodiamonds, nanodiamonds surrounded by a sp2 carbon shell, carbon onion, and detonation soot; and a fluorine containing oligomeric dispersant, wherein the fluorine containing oligomeric dispersant includes an anchoring group, a lipophilic hydrocarbon group, and a fluorinated oleophobic group. a base oil; colloidal nanocarbon particles, wherein the colloidal nanocarbon particles comprise at least one type of particle selected from the group consisting of nanodiamonds, functionalized nanodiamonds, polycrystalline nanodiamonds, nanodiamonds surrounded by a sp2 carbon shell, carbon onion, and detonation soot; and a fluorine containing oligomeric dispersant, wherein the fluorine containing oligomeric dispersant includes an anchoring group, a lipophilic hydrocarbon group, and a fluorinated oleophobic group.
A method for manufacturing a reactor, the method comprising: a first mixing process of mixing soft magnetic powders and inorganic insulative powders of 0.4 wt% to 1.5 wt% relative to the soft magnetic powders; a granulating process on the mixture obtained through the first mixing process, to form insulative films of a double layer structure, on the surface of the soft magnetic powders, whereby a first layer is formed by mixing with a silane coupling agent and a second layer is formed by mixing with a binder insulative resin; a second mixing process of mixing a lubricating resin and the mixture obtained through the granulating process; a molding process of pressing and molding the mixture obtained through the second mixing process to form a mold with an increased density; an annealing process of annealing the mold obtained through the molding process to form a dust core; and an implementing process of causing a winding to be wound around the dust core obtained through the annealing process, the dust core that is a core of the reactor being provided with no gap orthogonal to a magnetic path of the dust core. a first mixing process of mixing soft magnetic powders and inorganic insulative powders of 0.4 wt% to 1.5 wt% relative to the soft magnetic powders; a granulating process on the mixture obtained through the first mixing process, to form insulative films of a double layer structure, on the surface of the soft magnetic powders, whereby a first layer is formed by mixing with a silane coupling agent and a second layer is formed by mixing with a binder insulative resin; a second mixing process of mixing a lubricating resin and the mixture obtained through the granulating process; a molding process of pressing and molding the mixture obtained through the second mixing process to form a mold with an increased density; an annealing process of annealing the mold obtained through the molding process to form a dust core; and an implementing process of causing a winding to be wound around the dust core obtained through the annealing process, the dust core that is a core of the reactor being provided with no gap orthogonal to a magnetic path of the dust core.
A process for manufacturing a fluoroelastomer [fluoroelastomer] having a heat of fusion of less than 5 J/g as measured by ASTM D-3418-08, said method comprising emulsion polymerizing vinylidene fluoride in the presence of at least one additional fluorinated monomer, in an aqueous polymerization medium, said method comprising polymerizing VDF and said additional fluorinated monomer(s) in the presence of a redox radical initiator system comprising: - at least one organic oxidizing agent [agent]; and - at least one organic reducing agent [agent]; wherein agent is fed to said polymerization medium separately from agent, so that agent comes in contact with agent exclusively in said polymerization medium comprising VDF and optional additional monomer(s). - at least one organic oxidizing agent [agent]; and - at least one organic reducing agent [agent];
An electronic device, comprising an external circuit, wherein the electronic device comprises a conductive electrode, the conductive electrode comprising: a transparent conductive film disposed on a substrate; an adhesive intermediate layer disposed on the transparent conductive film; and a metal layer disposed on the adhesive intermediate layer, where the metal layer is mainly formed by a precious metal and configured to be bonded to an external circuit; wherein the conductive electrode further comprises a protective layer, and the protective layer is disposed on an edge of the adhesive intermediate layer, or the protective layer is disposed on edges of both the adhesive intermediate layer and the metal layer; wherein the metal layer is connected to the external circuit through bonding. a transparent conductive film disposed on a substrate; an adhesive intermediate layer disposed on the transparent conductive film; and a metal layer disposed on the adhesive intermediate layer, where the metal layer is mainly formed by a precious metal and configured to be bonded to an external circuit; wherein the conductive electrode further comprises a protective layer, and the protective layer is disposed on an edge of the adhesive intermediate layer, or the protective layer is disposed on edges of both the adhesive intermediate layer and the metal layer; wherein the metal layer is connected to the external circuit through bonding.
A sowing element for precision type agricultural sowing machines comprising a frame, an articulated parallelogram type mechanism, the articulated parallelogram type mechanism including a pair of upper arms and a pair of lower arms and opposite sides (10, 11), and wherein respective ends of said pair of upper arms and said pair of lower arms are articulated to the frame, the sowing element further comprising an attachment element with which one of said sides of the articulated parallelogram type mechanism can be engaged with an element-carrying bar of an agricultural precision type sowing machine, the attachment element comprising a first portion which is configured to be engaged on the element-carrying bar and a second portion which is fixedly joined to said side of the articulated parallelogram type mechanism, or is integral with said side, characterized in that the second portion is removably connected to the first portion by means of a rapid engagement mechanism, wherein the first portion of the attachment element is configured to remain mounted in a stable manner on the element-carrying bar when the sowing element is removed therefrom.
Induction heating unit having at least one induction heating pipe (12a-b), which is wound to form a coil, wherein winding distances (16a-b) of the at least one induction heating pipe (12a-b) in at least one coil section (14a-b) reduce successively, namely continuously, from the inside to the outside, wherein the coil section (14a-b) is a portion of the coil in which at least four consecutive windings of the induction heating pipe (12a-b) are arranged, and having at least one further coil section, in which winding distances (16a-b) of the at least one induction heating pipe (12a-b) are identical, wherein the further coil section is a portion of the coil in which at least four consecutive windings of the induction heating pipe (12a-b) are arranged.
An automatic analysis system comprising: a sample vessel for holding a sample; a carrier line for carrying the sample vessel; a plurality of automatic analyzers (5∼8) arranged along the carrier line; and control means for controlling a re-analysis procedure, characterized in that said control means comprises selecting means for selecting one of the following re-analysis modes (a) to (c): (a) a completely different module mode for re-analyzing the sample using an automatic analyzer (5∼8) different from the one previously used, (b) a different module priority mode for re-analyzinc the sample using an automatic analyzer (5∼8) different from the one previously used when a different analyzer can be used, (c) a performance priority mode for re-analyzing the sample using the automatic analyzer (5∼8) which has the highest performance in the analysis system. a sample vessel for holding a sample; a carrier line for carrying the sample vessel; a plurality of automatic analyzers (5∼8) arranged along the carrier line; and control means for controlling a re-analysis procedure, characterized in that said control means comprises selecting means for selecting one of the following re-analysis modes (a) to (c): (a) a completely different module mode for re-analyzing the sample using an automatic analyzer (5∼8) different from the one previously used, (b) a different module priority mode for re-analyzinc the sample using an automatic analyzer (5∼8) different from the one previously used when a different analyzer can be used, (c) a performance priority mode for re-analyzing the sample using the automatic analyzer (5∼8) which has the highest performance in the analysis system. (a) a completely different module mode for re-analyzing the sample using an automatic analyzer (5∼8) different from the one previously used, (b) a different module priority mode for re-analyzinc the sample using an automatic analyzer (5∼8) different from the one previously used when a different analyzer can be used, (c) a performance priority mode for re-analyzing the sample using the automatic analyzer (5∼8) which has the highest performance in the analysis system.
A method of operating an internal combustion engine having at least two cylinders, in particular a gas engine, wherein in dependence on a desired power and/or a desired torque and/or a desired rotary speed of the internal combustion engine the amount of fuel supplied to each of the at least two cylinders is controlled or regulated in cylinder-individual relationship by means of a fuel metering device and a cylinder pressure sensor, characterised in, that - regulation of the amount of fuel per cylinder is effected in a first regulating cycle in the region of between about 2 and 100 combustion cycles, and - in a second regulating cycle in the region of between about 10 and 1000 combustion cycles regulation is effected by the amount of fuel being adjusted in tracking relationship with the regulated amount of charging air, and - in a third regulating cycle in the region of between about 100 and 10,000 combustion cycles regulation of the fuel supply pressure is effected per cylinder. - regulation of the amount of fuel per cylinder is effected in a first regulating cycle in the region of between about 2 and 100 combustion cycles, and - in a second regulating cycle in the region of between about 10 and 1000 combustion cycles regulation is effected by the amount of fuel being adjusted in tracking relationship with the regulated amount of charging air, and - in a third regulating cycle in the region of between about 100 and 10,000 combustion cycles regulation of the fuel supply pressure is effected per cylinder.