mhurhangee/ep-ind-claims huggingface dataset:
A vehicle comprising: a vehicle interior; a battery provided below the vehicle interior with a floor panel therebetween; and a driving device unit supported by a vehicle frame member via a front mounting portion and a rear mounting portion and configured to receive electric power from the battery to drive a left rear wheel and a right rear wheel, wherein a center of gravity of the battery is positioned forward compared to a rear wheel axle that connects the left rear wheel with the right rear wheel, a center of gravity of the driving device unit is positioned rearward compared to the rear wheel axle, the front mounting portion is positioned forward compared to the rear wheel axle, the rear mounting portion is positioned rearward compared to the rear wheel axle, the front mounting portion is positioned above the rear mounting portion, and a first imaginary line and a second imaginary line pass above the rear wheel axle and below wheel upper end portions of the left rear wheel and the right rear wheel in a side view, the first imaginary line being a line connecting the center of gravity of the battery with the center of gravity of the driving device unit, the second imaginary line being a line connecting a support center point of the front mounting portion with a support center point of the rear mounting portion, wherein the center of gravity of the driving device unit is positioned on the second imaginary line. a vehicle interior; a battery provided below the vehicle interior with a floor panel therebetween; and a driving device unit supported by a vehicle frame member via a front mounting portion and a rear mounting portion and configured to receive electric power from the battery to drive a left rear wheel and a right rear wheel, wherein a center of gravity of the battery is positioned forward compared to a rear wheel axle that connects the left rear wheel with the right rear wheel, a center of gravity of the driving device unit is positioned rearward compared to the rear wheel axle, the front mounting portion is positioned forward compared to the rear wheel axle, the rear mounting portion is positioned rearward compared to the rear wheel axle, the front mounting portion is positioned above the rear mounting portion, and a first imaginary line and a second imaginary line pass above the rear wheel axle and below wheel upper end portions of the left rear wheel and the right rear wheel in a side view, the first imaginary line being a line connecting the center of gravity of the battery with the center of gravity of the driving device unit, the second imaginary line being a line connecting a support center point of the front mounting portion with a support center point of the rear mounting portion, wherein the center of gravity of the driving device unit is positioned on the second imaginary line.
A sliding member comprising a transfer layer (104, 204, 304, 404), which is formed at a sliding face of the sliding member (101, 201, 301, 401) by projecting, onto a base material of the sliding member, projection particles containing at least one component selected from the group consisting of alumina, silica, mullite, calcium oxide, magnesium oxide and iron oxide and causing a component of each projection particle to be adhered and interfused to the surface of the base material, wherein, due to an impact force, a large number of minute cavities (105, 205, 305, 405) are formed, each formed by a part of a substantially spherical surface, which are provided at the sliding face of the sliding member, and wherein a minute groove is formed at the sliding face of the sliding member.
A process for producing a battery separator, the process comprising producing a non-woven mat of polymer-clay or polymer-ceramic nanocomposite nanofibers by electrospinning a fluid stock to form nanofibers, the fluid stock comprising a plurality of nanostructures and a polymer, the plurality of nanostructures comprising a clay, a ceramic, or a combination thereof, the electrospinning being gas assisted characterized in that the electrospinning is coaxially gas assisted; and the fluid stock consists of the plurality of nanostructures and the polymer and, optionally, an aqueous medium or a non-aqueous solvent.
A gasket for a manifold seal for a fuel cell system, the gasket comprising: a first layer of fibrous ceramic material having a first compressibility; a second layer of fibrous ceramic material having a second compressibility; a third layer of fibrous ceramic material having third compressibility, the third layer of fibrous ceramic material being positioned between and engaged with the first layer of fibrous ceramic material and the second layer of fibrous ceramic material; and the third compressibility being less than the first compressibility and less than the second compressibility. a first layer of fibrous ceramic material having a first compressibility; a second layer of fibrous ceramic material having a second compressibility; a third layer of fibrous ceramic material having third compressibility, the third layer of fibrous ceramic material being positioned between and engaged with the first layer of fibrous ceramic material and the second layer of fibrous ceramic material; and the third compressibility being less than the first compressibility and less than the second compressibility.
Device for damping torsional oscillations, comprising: - a support able to move in rotation about an axis, - at least one pendular body comprising: a first and a second pendular mass which are spaced axially apart and are able to move with respect to the support, the first pendular mass being arranged axially on a first side of the support and the second pendular mass being arranged axially on a second side of the support, and at least one connecting member connecting the first and second pendular masses to pair the said masses, and - at least one rolling member guiding the movement of the pendular body with respect to the support, the rolling member having: - at least a first portion having a first diameter and collaborating with at least one runway track secured to the pendular body, and - a second portion having a second diameter, smaller than the first diameter, and collaborating with a runway track secured to the support, the first portion being arranged axially between the support and at least part of a pendular mass of the pendular body. - a support able to move in rotation about an axis, - at least one pendular body comprising: a first and a second pendular mass which are spaced axially apart and are able to move with respect to the support, the first pendular mass being arranged axially on a first side of the support and the second pendular mass being arranged axially on a second side of the support, and at least one connecting member connecting the first and second pendular masses to pair the said masses, and - at least one rolling member guiding the movement of the pendular body with respect to the support, the rolling member having: - at least a first portion having a first diameter and collaborating with at least one runway track secured to the pendular body, and - a second portion having a second diameter, smaller than the first diameter, and collaborating with a runway track secured to the support, the first portion being arranged axially between the support and at least part of a pendular mass of the pendular body. - at least a first portion having a first diameter and collaborating with at least one runway track secured to the pendular body, and - a second portion having a second diameter, smaller than the first diameter, and collaborating with a runway track secured to the support, the first portion being arranged axially between the support and at least part of a pendular mass of the pendular body.
An Ni-based single crystal superalloy comprising Al, Ta, W, Re, Cr, Ru and Nb as the main additive elements, wherein the ingredients have a composition containing, as ratio by mass, from 5.0% by mass to 7.0% by mass of Al, from 4.0% by mass to 8.0% by mass of Ta, from 0% by mass to 2.0% by mass of Mo, from 3.0% by mass to 8.0% by mass of W, from 3.0% by mass to 8.0% by mass of Re, from 0% by mass to 0.50% by mass of Hf, from 3.0% by mass to 7.0% by mass of Cr, from 0% by mass to 9.9% by mass of Co, from 1.0% by mass to 14.0% by mass of Ru, and from more than 1.0% by mass to 4.0% by mass of Nb, and optionally further containing 0% by mass to 2.0% by mass of Ti, from 0% by mass to 0.05% by mass of B, from 0% by mass to 0.15% by mass of C, from 0% by mass to 0.1 % by mass of Si, from 0% by mass to 0.1 % by mass of Y, from 0% by mass to 0.1 % by mass of La, from 0% by mass to 0.1% by mass of Ce, from 0% by mass to 1% by mass of V, and from 0% by mass to 0.1 % by mass of Zr, with the balance of Ni and inevitable impurities.
A urine collection device comprising a collector to collect urine voided by a user, the collector comprising a funnel member, having a funnel wall comprising a substantially frusto-conical top portion and a base portion, first and second outlets (3, 4) to allow urine to drain from the device, the first outlet being adapted for connection to a receptacle for a urine sample, and the second outlet comprising an overflow outlet, and a diverter device having first and second operative states, such that in a first state the diverter device allows urine to flow through the first outlet to the receptacle for collection of a forestream sample, and in a second state the diverter device prevents flow to the first outlet and allows flow to the overflow outlet, the diverter device being unable to return from the second state to the first state, characterised in that the first outlet is provided by the base portion of the funnel member, and the second, overflow outlet is provided in the funnel wall, the diverter device comprises a plug accommodated in the base portion, the plug in the first state allowing flow to the first outlet, and expanding on contact with liquid into the second state to prevent further flow to the first outlet and allow flow to the overflow outlet and the lowest part of the overflow outlet at its junction with the funnel wall is substantially level with the upper end of the plug.
A lyophilisate comprising an IPM analog having a structure of formula and from 1 % to 10% (w/v) mannitol, wherein A + is a hydroxylated aliphatic ammonium counterion; and X and Y independently represent leaving groups selected from halogens.
A method for manufacturing an acetal compound represented by the formula, the method comprising performing the following steps to sequentially: wherein n is 0 or 1 provided that R 1 groups may be bonded or may not be bonded to each other when n is 0; R 1 is an alkyl group having 1 or 2 carbon atoms or an alkylene group having 1 or 2 carbon atoms and the R 1 groups may be same or different from each other; and R 2 is an alkylene group having 1 to 6 carbon atoms, step: a step of dissolving the acetal compound represented by the formula in a solvent made from a hydrocarbon having 5 to 8 carbon atoms in an amount 0. 1 mass time or more the amount of the acetal compound to obtain a solution thereof, step: a step of adding a buffer of pH 6 to 10 in an amount 0.5 mass time or more the amount of the acetal compound to the solution obtained in the step to extract the acetal compound into the buffer, step: a step of adding at least one extracting solvent selected from the group consisting of chloroform and dichloromethane in an amount 0.5 mass time or more the amount of the acetal compound to the buffer into which the acetal compound has been extracted, thereby extracting the acetal compound into the extracting solvent to obtain an extraction solution, and step: a step of distilling the extraction solution obtained in the step at 65°C or lower under a reduced pressure of 0.3 kPa or lower. step: a step of dissolving the acetal compound represented by the formula in a solvent made from a hydrocarbon having 5 to 8 carbon atoms in an amount 0. 1 mass time or more the amount of the acetal compound to obtain a solution thereof, step: a step of adding a buffer of pH 6 to 10 in an amount 0.5 mass time or more the amount of the acetal compound to the solution obtained in the step to extract the acetal compound into the buffer, step: a step of adding at least one extracting solvent selected from the group consisting of chloroform and dichloromethane in an amount 0.5 mass time or more the amount of the acetal compound to the buffer into which the acetal compound has been extracted, thereby extracting the acetal compound into the extracting solvent to obtain an extraction solution, and step: a step of distilling the extraction solution obtained in the step at 65°C or lower under a reduced pressure of 0.3 kPa or lower.
A fan blade for a gas turbine engine, comprising: an airfoil having a leading edge and a trailing edge, the airfoil including: a spar defining the leading edge and the trailing edge, the spar having a spar exterior surface and a spar interior surface, opposite the spar exterior surface, that extends between the leading edge and the trailing edge, the spar interior surface defining a pocket which extends between and is spaced apart from each of the leading edge and the trailing edge; and a structural member received within the pocket, the structural member having a structural member exterior surface and a structural member interior surface opposite the structural member exterior surface; wherein the spar exterior surface defines a suction side of the airfoil and the structural member exterior surface at least partially defines a pressure side of the airfoil; wherein the spar defines a plurality of triangular windows that extend from the spar interior surface towards the spar exterior surface, wherein inserts are at least partially received within the windows, the inserts being one of foam plugs, composite plugs, structural fill, thermoplastic fill, or metal structure fill, characterized in that: the plurality of windows are arranged in two rows, the two rows extending along a radial span of the fan blade and wherein said plurality of windows form a truss frame. a spar defining the leading edge and the trailing edge, the spar having a spar exterior surface and a spar interior surface, opposite the spar exterior surface, that extends between the leading edge and the trailing edge, the spar interior surface defining a pocket which extends between and is spaced apart from each of the leading edge and the trailing edge; and a structural member received within the pocket, the structural member having a structural member exterior surface and a structural member interior surface opposite the structural member exterior surface; wherein the spar exterior surface defines a suction side of the airfoil and the structural member exterior surface at least partially defines a pressure side of the airfoil; wherein the spar defines a plurality of triangular windows that extend from the spar interior surface towards the spar exterior surface, wherein inserts are at least partially received within the windows, the inserts being one of foam plugs, composite plugs, structural fill, thermoplastic fill, or metal structure fill, characterized in that: the plurality of windows are arranged in two rows, the two rows extending along a radial span of the fan blade and wherein said plurality of windows form a truss frame.
Battery structure having anode and cathode contacts on the front face and on the rear face comprising a battery having anode and cathode contacts on the front face only, this battery being jacketed in a film comprising a conductive layer and an insulating layer, the conductive layer resting on the anode and cathode contacts of the battery and being interrupted between these anode and cathode contacts such that said contacts (52, 54) are not electrically connected by the conductive layer, and the insulating layer comprising openings (74A, 74B, 76A, 76B) on the front and rear faces of the battery to form anode and cathode contacts of the battery structure, the battery further comprising a block comprising a set of active layers.
An apparatus comprising: a scintillator (154, 204, 304) and an array of photodetectors; characterized by the scintillator being configured to be rotatable around the periphery of a computed tomography scanner by being fixed to a rotating ring mount of the computed tomography scanner, the scintillator being configured to receive X-rays (112, 212, 312) incident on the scintillator, convert the received X-rays to visible light and transmit the visible light towards a corresponding photodetector (206, 306) of the array of photodetectors; and the array of photodetectors being fixed around the periphery of the computed tomography scanner, each of the photodetectors (206, 306) in the array of photodetectors being fixed to a fixed mount and configured to output an electrical signal in response to detecting the visible light received from the scintillator wherein the scintillator (154, 204, 304) is rotatable with respect to the array of photodetectors. a scintillator (154, 204, 304) and an array of photodetectors; characterized by the scintillator being configured to be rotatable around the periphery of a computed tomography scanner by being fixed to a rotating ring mount of the computed tomography scanner, the scintillator being configured to receive X-rays (112, 212, 312) incident on the scintillator, convert the received X-rays to visible light and transmit the visible light towards a corresponding photodetector (206, 306) of the array of photodetectors; and the array of photodetectors being fixed around the periphery of the computed tomography scanner, each of the photodetectors (206, 306) in the array of photodetectors being fixed to a fixed mount and configured to output an electrical signal in response to detecting the visible light received from the scintillator wherein the scintillator (154, 204, 304) is rotatable with respect to the array of photodetectors.
A computer-implemented method for interoperable communication between a server and a client wherein at least one of the server and client is a component of an automation system, the server being associated with a corresponding server data model, and the client being associated with a corresponding client data model, the method comprising: obtaining a reference to the server; accessing the server via the reference and analyzing data model structure and output of the server to derive, based on at least a first technical specification, one or more element types associated with elements of the server data model; generating at least a partial mapping between the server data model and the client data model by applying a transformation rule set to the server data model, the transformation rule set defining for the one or more derived element types (311-a, 311-b) how instances (111-a1, 111-b1) of the one or more derived element types (311-a, 311-b) are to be transformed from the server data model associated with the at least first technical specification into instances (121-a1, 121-a2) of the client data model associated with at least a second technical specification; and exchanging data between the server and the client using the at least partial mapping. obtaining a reference to the server; accessing the server via the reference and analyzing data model structure and output of the server to derive, based on at least a first technical specification, one or more element types associated with elements of the server data model; generating at least a partial mapping between the server data model and the client data model by applying a transformation rule set to the server data model, the transformation rule set defining for the one or more derived element types (311-a, 311-b) how instances (111-a1, 111-b1) of the one or more derived element types (311-a, 311-b) are to be transformed from the server data model associated with the at least first technical specification into instances (121-a1, 121-a2) of the client data model associated with at least a second technical specification; and exchanging data between the server and the client using the at least partial mapping.
A refrigerator comprising: a main body comprising a storage area (21, 22 and 23); an inner door comprising a door storage space, the inner door being rotatably coupled with the main body; an outer door; a hinge rotatably coupling the outer door with the inner door, the hinge comprising a hinge bracket that comprises a fixing plate coupled with the inner door, and a hinge shaft on which the outer door is rotatable; and a hinge cover covering a portion of the hinge bracket, the portion being positioned outside the inner door, wherein the inner door further comprises a front plate forming a front surface of the inner door, and an upper cap coupled with an upper end of the front plate, wherein the front plate comprises a through hole, and wherein the hinge bracket penetrates the through hole such that the fixing plate is coupled with the upper cap, characterized in that the hinge bracket is positioned inside the inner door, a hinge cover covering a portion of the hinge bracket, the portion being positioned outside the inner door." a main body comprising a storage area (21, 22 and 23); an inner door comprising a door storage space, the inner door being rotatably coupled with the main body; an outer door; a hinge rotatably coupling the outer door with the inner door, the hinge comprising a hinge bracket that comprises a fixing plate coupled with the inner door, and a hinge shaft on which the outer door is rotatable; and a hinge cover covering a portion of the hinge bracket, the portion being positioned outside the inner door, wherein the inner door further comprises a front plate forming a front surface of the inner door, and an upper cap coupled with an upper end of the front plate, wherein the front plate comprises a through hole, and wherein the hinge bracket penetrates the through hole such that the fixing plate is coupled with the upper cap, characterized in that the hinge bracket is positioned inside the inner door, a hinge cover covering a portion of the hinge bracket, the portion being positioned outside the inner door."