mhurhangee/ep-ind-claims huggingface dataset:
Stator for a rotating electric machine of a motor vehicle, the stator comprising: - a stator body, - an electric winding, this winding comprising a plurality of electrical conductors, each electrical conductor taking the form of a bar such as a pin, the winding forming a front coil end and a rear coil end on either side of the body of the stator, - at least one added part comprising a mounting member, - at least one temperature measurement probe formed by said added part and comprising at least one sensitive element arranged so as to measure the temperature of the winding by being in thermal contact with at least one electrical conductor via the added part; the stator being characterized in that the mounting member comprises a snap-fitting lug cooperating with a section of electrical conductor overlapping a top of a coil end of the winding to mount said part on said section of conductor. - a stator body, - an electric winding, this winding comprising a plurality of electrical conductors, each electrical conductor taking the form of a bar such as a pin, the winding forming a front coil end and a rear coil end on either side of the body of the stator, - at least one added part comprising a mounting member, - at least one temperature measurement probe formed by said added part and comprising at least one sensitive element arranged so as to measure the temperature of the winding by being in thermal contact with at least one electrical conductor via the added part;
A multi-layered article comprising: a first textile; and an adhesive layer positioned on said first textile, said adhesive layer containing two or more adhesive regions separated by regions free of adhesive, each said adhesive region containing a plurality of adhesive dots, wherein a distance between adjacent adhesive dots within said adhesive regions is less than a distance between consecutive adhesive regions, wherein said adhesive regions have at least one distinctive shape, wherein each said adhesive region has a concave surface, and wherein a radius of curvature of said each said adhesive region is from 1 mm to 20 mm. a first textile; and an adhesive layer positioned on said first textile, said adhesive layer containing two or more adhesive regions separated by regions free of adhesive, each said adhesive region containing a plurality of adhesive dots, wherein a distance between adjacent adhesive dots within said adhesive regions is less than a distance between consecutive adhesive regions, wherein said adhesive regions have at least one distinctive shape, wherein each said adhesive region has a concave surface, and wherein a radius of curvature of said each said adhesive region is from 1 mm to 20 mm.
A secondary battery comprising: a metal container; a plurality of electrically insulating sheets stacked on a bottom surface of the container; and a battery cell placed on the insulation sheet, wherein at least one of the following relationships is satisfied: Aa > Ab Aa > Ac where Aa denotes a projection area of the battery cell projected on the bottom surface of the container, Ab denotes a contact area Ab between the battery cell and the plurality of insulating sheets, and Ac denotes a contact area between the insulating sheets in the projection area, characterized in that the battery cell includes a tubular battery body and a cover member containing the battery body; the cover member includes a tubular body at least covering a side surface of the battery body and a bottom which at least part of a bottom surface of the battery body contacts; the bottom contacts, among the plurality of insulating sheets, an insulating sheet in an uppermost layer separated for each battery cell; the bottom includes an expansion expanded in a direction away from the bottom surface of the battery body, and an end surface of the expansion contacts the insulating sheet in the uppermost layer; and an area of the end surface of the expansion is smaller than an area of the bottom surface of the battery body. a metal container; a plurality of electrically insulating sheets stacked on a bottom surface of the container; and a battery cell placed on the insulation sheet, wherein at least one of the following relationships is satisfied: Aa > Ab Aa > Ac where Aa denotes a projection area of the battery cell projected on the bottom surface of the container, Ab denotes a contact area Ab between the battery cell and the plurality of insulating sheets, and Ac denotes a contact area between the insulating sheets in the projection area, characterized in that the battery cell includes a tubular battery body and a cover member containing the battery body; the cover member includes a tubular body at least covering a side surface of the battery body and a bottom which at least part of a bottom surface of the battery body contacts; a tubular body at least covering a side surface of the battery body and a bottom which at least part of a bottom surface of the battery body contacts; the bottom contacts, among the plurality of insulating sheets, an insulating sheet in an uppermost layer separated for each battery cell; the bottom includes an expansion expanded in a direction away from the bottom surface of the battery body, and an end surface of the expansion contacts the insulating sheet in the uppermost layer; and an area of the end surface of the expansion is smaller than an area of the bottom surface of the battery body.
A combustion engine of a motor vehicle, including - a compressed air tank, - a cylinder (11, 12, 13, 14) provided with a piston and with an intake valve, an exhaust valve and a supply valve of the compressed air tank, and - a first duct, which conducts a gas initially contained in the cylinder (11, 12, 13, 14) to an inlet of the compressed air tank, characterized in that an energy recuperator is disposed on the first duct, which recovers a pneumatic energy of the gas during its displacement in the first duct, and the tank comprises a second inlet provided with a second duct, a gas compressor being disposed on this second duct, which gas compressor is driven by the energy recovered by the energy recuperator disposed on the first duct, said engine comprising a turbocharger including the turbine disposed to constitute the energy recuperator and including the compressor disposed to form the compressor of the second duct.
A polyethylene composition, comprising: • ≥ 56.0 wt.% and ≤ 95.0 wt.% of an ethylene polymer, with regard to the total weight of the polyethylene composition; • wherein the ethylene polymer has a density of ≥ 918 kg/m 3 and ≤ 930 kg/m 3, as determined in accordance with ASTM D1505 at 23 °C; • a molecular weight distribution ≥ 15.0, preferably ≥ 20.0, wherein is calculated by dividing the weight average molecular weight (Mw) by the number average molecular weight (Mn) and wherein Mw and Mn are measured in accordance with ASTM D6474-12; and • ≥ 5.0 wt.% and ≤ 44.0 wt.% of an ethylene alpha-olefin co-polymer, with regard to the total weight of the polyethylene composition, wherein the ethylene alpha-olefin co-polymer comprises at least i) a first ethylene alpha-olefin co-polymer; and/or ii) a second ethylene alpha-olefin co-polymer; wherein, the polyethylene composition has a melt flow rate ≥ 0.3 g/10 min and ≤ 0.95 g/10 min, preferably ≥ 0.35 g/10 min and ≤ 0.8 g/10, preferably ≥ 0.4 g/10 min and ≤ 0.6 g/10min, as determined at 190°C at 2.16 kg load in accordance with ASTM D1238. • ≥ 56.0 wt.% and ≤ 95.0 wt.% of an ethylene polymer, with regard to the total weight of the polyethylene composition; • wherein the ethylene polymer has a density of ≥ 918 kg/m 3 and ≤ 930 kg/m 3, as determined in accordance with ASTM D1505 at 23 °C; • a molecular weight distribution ≥ 15.0, preferably ≥ 20.0, wherein is calculated by dividing the weight average molecular weight (Mw) by the number average molecular weight (Mn) and wherein Mw and Mn are measured in accordance with ASTM D6474-12; and • wherein the ethylene polymer has a density of ≥ 918 kg/m 3 and ≤ 930 kg/m 3, as determined in accordance with ASTM D1505 at 23 °C; • a molecular weight distribution ≥ 15.0, preferably ≥ 20.0, wherein is calculated by dividing the weight average molecular weight (Mw) by the number average molecular weight (Mn) and wherein Mw and Mn are measured in accordance with ASTM D6474-12; and • ≥ 5.0 wt.% and ≤ 44.0 wt.% of an ethylene alpha-olefin co-polymer, with regard to the total weight of the polyethylene composition, wherein the ethylene alpha-olefin co-polymer comprises at least i) a first ethylene alpha-olefin co-polymer; and/or ii) a second ethylene alpha-olefin co-polymer;
A method for operating a bending press for forming a workpiece of sheet metal, wherein the bending press is configured to have a table beam and a press beam opposite the table beam and aligned parallel thereto, and wherein tool holders (19, 20) for fastening bending tools (6, 7) are formed on the table beam and on the press beam, and wherein at least one stop device is formed for positioning the workpiece to be processed, and wherein the bending press comprises a tool-changing system with a tool storage and with a transport device, wherein the bending tools (6, 7) can be moved back and forth between the tool storage and the tool holders (19, 20) with the transport device, characterized in that the stop device is configured to have a tool clamping device, and that, when an arrangement of bending tools (6, 7) is exchanged, before the removal of a first bending tool (6, 7) to be moved away by the transport device or before the insertion of a first bending tool (6, 7) to be inserted by the transport device, the tool clamping device of the stop device is brought into contact with a second bending tool (6, 7) and, thereby, this second bending tool (6, 7) is retained in the tool holder (19, 20) in its instantaneous position, wherein the first bending tool (6, 7) and the second bending tool (6, 7) are arranged directly adjacent to one another in a position fixed in the tool holder (19, 20).
A fuel composition comprising: a fuel derived from one or more sources chosen from the group consisting of mineral, animal, plant and synthetic sources, and one or more block copolymers comprising: - at least one block A of formula below: in which p is an integer ranging from 2 to 100, R 1 ' is chosen from hydrogen and a methyl group, R' 2 is chosen from C 1 to C 34 hydrocarbon-based chains, - at least one block B of formula below: in which n is an integer ranging from 2 to 40, R 1 is chosen from hydrogen and a methyl group, Z is chosen from an oxygen atom and a group -NR'- with R' being chosen from a hydrogen atom and C 1 to C 12 hydrocarbon-based chains, G is a C 1 to C 34 hydrocarbon-based chain substituted with at least one quaternary ammonium group and optionally one or more hydroxyl groups. a fuel derived from one or more sources chosen from the group consisting of mineral, animal, plant and synthetic sources, and one or more block copolymers comprising: - at least one block A of formula below: in which p is an integer ranging from 2 to 100, R 1 ' is chosen from hydrogen and a methyl group, R' 2 is chosen from C 1 to C 34 hydrocarbon-based chains, - at least one block B of formula below: in which n is an integer ranging from 2 to 40, R 1 is chosen from hydrogen and a methyl group, Z is chosen from an oxygen atom and a group -NR'- with R' being chosen from a hydrogen atom and C 1 to C 12 hydrocarbon-based chains, G is a C 1 to C 34 hydrocarbon-based chain substituted with at least one quaternary ammonium group and optionally one or more hydroxyl groups. - at least one block A of formula below: in which p is an integer ranging from 2 to 100, R 1 ' is chosen from hydrogen and a methyl group, R' 2 is chosen from C 1 to C 34 hydrocarbon-based chains, p is an integer ranging from 2 to 100, R 1 ' is chosen from hydrogen and a methyl group, R' 2 is chosen from C 1 to C 34 hydrocarbon-based chains, - at least one block B of formula below: in which n is an integer ranging from 2 to 40, R 1 is chosen from hydrogen and a methyl group, Z is chosen from an oxygen atom and a group -NR'- with R' being chosen from a hydrogen atom and C 1 to C 12 hydrocarbon-based chains, G is a C 1 to C 34 hydrocarbon-based chain substituted with at least one quaternary ammonium group and optionally one or more hydroxyl groups. n is an integer ranging from 2 to 40, R 1 is chosen from hydrogen and a methyl group, Z is chosen from an oxygen atom and a group -NR'- with R' being chosen from a hydrogen atom and C 1 to C 12 hydrocarbon-based chains, G is a C 1 to C 34 hydrocarbon-based chain substituted with at least one quaternary ammonium group and optionally one or more hydroxyl groups.
A method, comprising: observing, with a position measurement device, a respective position of a first, second and third target point non-photographically, with respect to a local or global coordinate system; capturing, with an imaging device, the first, second and third target points in one or more images observed from one or more stations; correlating, with a computer, the observed position of each of the first, second and third target points with a respective pixel coordinate location of each of the first, second and third target points in each of the one or more images; performing, with the computer, a bundle adjustment calculation to orient a mosaic of images comprising the one or more images, where performing the bundle adjustment calculation comprises constraining the bundle adjustment calculation so that a location of the first and second target points, respectively, in the oriented mosaic of images corresponds to the observed respective position of the first and second target points with respect to the local or global coordinate system to within a specified precision; and comparing, with the computer, a location of the third target point in the oriented mosaic of images with the observed position of the third target point with respect to the local or global coordinate system, to ensure that the oriented mosaic of images corresponds to the local or global coordinate system to within a specified precision. observing, with a position measurement device, a respective position of a first, second and third target point non-photographically, with respect to a local or global coordinate system; capturing, with an imaging device, the first, second and third target points in one or more images observed from one or more stations; correlating, with a computer, the observed position of each of the first, second and third target points with a respective pixel coordinate location of each of the first, second and third target points in each of the one or more images; performing, with the computer, a bundle adjustment calculation to orient a mosaic of images comprising the one or more images, where performing the bundle adjustment calculation comprises constraining the bundle adjustment calculation so that a location of the first and second target points, respectively, in the oriented mosaic of images corresponds to the observed respective position of the first and second target points with respect to the local or global coordinate system to within a specified precision; and comparing, with the computer, a location of the third target point in the oriented mosaic of images with the observed position of the third target point with respect to the local or global coordinate system, to ensure that the oriented mosaic of images corresponds to the local or global coordinate system to within a specified precision.
A composition for use in improving at least one member selected from the group consisting of a social domain and a communication domain in a human having autism, wherein the composition includes a therapeutically effective amount at least one gamma-aminobutyric acid agonist.
A honeycomb filter comprising a plurality of cells for allowing exhaust gas to flow therethrough, the cells including exhaust gas introduction cells and exhaust gas emission cells, and porous cell walls defining rims of the plurality of cells, the exhaust gas introduction cells each having an open end at an exhaust gas introduction side and a plugged end at an exhaust gas emission side, the exhaust gas emission cells each having an open end at the exhaust gas emission side and a plugged end at the exhaust gas introduction side, wherein an oxidation catalyst is supported inside the cell walls in an amount of 5 to 60 g/L; the exhaust gas introduction cells and the exhaust gas emission cells each have a uniform cross sectional shape except for the plugged portion in a direction perpendicular to the longitudinal direction of the cells thoroughly from the end at the exhaust gas introduction side to the end at the exhaust gas emission side; the exhaust gas emission cells have a larger average cross sectional area in a direction perpendicular to the longitudinal direction than the exhaust gas introduction cells in a direction perpendicular to the longitudinal direction; and the total volume of the exhaust gas introduction cells is larger than the total volume of the exhaust gas emission cells, wherein each exhaust gas emission cell is adjacently surrounded fully by the exhaust gas introduction cells across the porous cell walls, the exhaust gas introduction cells include first exhaust gas introduction cells and second exhaust gas introduction cells each having a larger cross sectional area than each first exhaust gas introduction cell in a direction perpendicular to the longitudinal direction of the cells, each exhaust gas emission cell has a cross sectional area equal in size to each second exhaust gas introduction cell in a direction perpendicular to the longitudinal direction of the cells, in the cross section perpendicular to the longitudinal direction of the cells, the exhaust gas introduction cells and the exhaust gas emission cells are each polygonal, and a side forming the cross sectional shape of each first exhaust gas introduction cell faces one of the exhaust gas emission cells, a side forming the cross sectional shape of each second exhaust gas introduction cell faces one of the exhaust gas emission cells, and the side of the first exhaust gas introduction cell is longer than the side of the second exhaust gas introduction cell, and wherein, in the cross section perpendicular to the longitudinal direction of the cells, the exhaust gas emission cells are each octagonal, the first exhaust gas introduction cells are each square, and the second exhaust gas introduction cells are each octagonal.
A combination of an intake module of a fresh air system for supplying fresh air to combustion chambers of an internal combustion engine, in particular of a motor vehicle, having an attachment part, to which the intake module is attached, - the intake module having at least one retaining surface facing away from the attachment part, - the attachment part having at least one counter retaining surface facing away from the intake module, - at least one retaining element being provided, which is arranged such that it can be moved in a movement direction, which extends transversely to a joining direction, in which the intake module is joined to the attachment part, between a releasing position, in which the intake module can be joined to or removed from the attachment part, and a securing position, in which the retaining element interacts with the respective retaining surface and the respective counter retaining surface to secure the intake module on the attachment part, - wherein the respective retaining element, when in its securing position, is arranged between the respective retaining surface and the respective counter retaining surface in the joining direction and is supported on the respective retaining surface and on the respective counter retaining surface in the joining direction, characterised in that - the respective retaining surface turned away from the attachment part and the respective counter retaining surface turned away from the intake module face each other, - a tongue and groove guide, which is oriented in the movement direction, is formed between the respective retaining element and the respective retaining surface and/or the respective counter retaining surface. - the intake module having at least one retaining surface facing away from the attachment part, - the attachment part having at least one counter retaining surface facing away from the intake module, - at least one retaining element being provided, which is arranged such that it can be moved in a movement direction, which extends transversely to a joining direction, in which the intake module is joined to the attachment part, between a releasing position, in which the intake module can be joined to or removed from the attachment part, and a securing position, in which the retaining element interacts with the respective retaining surface and the respective counter retaining surface to secure the intake module on the attachment part, - wherein the respective retaining element, when in its securing position, is arranged between the respective retaining surface and the respective counter retaining surface in the joining direction and is supported on the respective retaining surface and on the respective counter retaining surface in the joining direction, - the respective retaining surface turned away from the attachment part and the respective counter retaining surface turned away from the intake module face each other, - a tongue and groove guide, which is oriented in the movement direction, is formed between the respective retaining element and the respective retaining surface and/or the respective counter retaining surface.
An austenitic heat resistant alloy, which comprises by mass percent, C: more than 0.02% to not more than 0.15%, Si: 2% or less, Mn: 3% or less, P: 0.03% or less, S: 0.01% or less, Cr: 28 to 38%, Ni: more than 40% to not more than 60%, W: more than 3% to not more than 15%, Zr: 0.005 to 0.2%, N: 0.02% or less, Mo: less than 0.5%, optionally containing one or more elements of one or more groups selected from the 〈1〉 to 〈3〉 groups listed below: 〈1〉 Nb: 1.0% or less, V: 1.5% or less, Hf: 1% or less and B: 0.05% or less; 〈2〉 Mg: 0.05% or less, Ca: 0.05% or less, Y: 0.5% or less, La: 0.5% or less, Ce: 0.5% or less, Nd: 0.5% or less and Sc: 0.5% or less; and 〈3〉 Ta: 8% or less, Re: 8% or less, Ir: 5% or less, Pd: 5% or less, Pt: 5% or less and Ag: 5% or less, and in which the following formula is satisfied: P ≤ 3 / 200 Ti + 8.5 × Zr wherein each element symbol in the equation represents the content by mass% of the element concerned, characterized in that the austenitic heat resistant alloy further comprises by mass percent, Ti: 0.05 to 1.0%, Al: 0.01 to 0.3%, and Co: 0.05 to 20%, with the balance being Fe and impurities, and the following formulas and are satisfied: Al ≥ 1.5 × Zr 1.35 × Cr ≤ Ni + Co ≤ 1.85 × Cr wherein each element symbol in the equations and represents the content by mass% of the element concerned. 〈1〉 Nb: 1.0% or less, V: 1.5% or less, Hf: 1% or less and B: 0.05% or less; 〈2〉 Mg: 0.05% or less, Ca: 0.05% or less, Y: 0.5% or less, La: 0.5% or less, Ce: 0.5% or less, Nd: 0.5% or less and Sc: 0.5% or less; and 〈3〉 Ta: 8% or less, Re: 8% or less, Ir: 5% or less, Pd: 5% or less, Pt: 5% or less and Ag: 5% or less, and