mhurhangee/ep-ind-claims huggingface dataset:
Conduit intended to be mounted on a support, notably a motor vehicle engine mount, this conduit including a body defining an area for receiving elongate elements, notably of cable type, a first immobilizing member on said support fixed relative to said body and a second immobilizing member on said support movable relative to said body between a retracted position for placing said support and an advanced position for immobilizing said support, wherein this second immobilizing member defines with said body an immobilizing space, said second immobilizing member is adapted to assume an intermediate position in which it defines with said body a preliminary retaining space (E') for said support, and said conduit includes locking means (34, 65) adapted to move said second immobilizing member from its intermediate position to its immobilizing position, characterized in that said locking means include threaded means (34, 65) including at least one threaded member secured to or adapted to be secured to one element of the pair comprising said second immobilizing member and said body and at least one threaded member secured to or adapted to be secured to the other element of the pair comprising said second immobilizing member and said body, this threaded member being adapted to cooperate with a corresponding threaded member in order to move said second immobilizing member relative to said body.
A fire retardant insulating construction panel comprising an insulation layer that comprises a foam, characterised in that the construction panel also comprises at least one composite fire retardant layer bonded to the insulation layer, which fire retardant layer comprises a reinforcement layer, which reinforcement layer comprises at least one carrier layer comprising a scrim and at least one substrate layer comprising a layer of the non-woven type bonded to the carrier layer, wherein the fire retardant layer further comprises a layer of a fire retardant adhesive on the side of the reinforcement layer remote from the insulation layer, wherein the fire retardant adhesive extends up to the insulation layer and bonds to the insulation layer.
Assembly comprising a first outer component, a second outer component, and a middle component which is arranged between the two outer components (53, 57) with respect to a stacking direction in a longitudinal direction, wherein the first outer component has at least one first projection which extends from an outer surface, facing towards the middle component, of the first outer component to the middle component in the stacking direction, and the middle component is of deformable form and is deformed as a result of an action of force of the at least one first projection, characterized in that the middle component is formed and/or arranged in such a way that said middle component, prior to the action of force, in longitudinal section, has a cross-sectional profile which sectionally extends in a manner offset in relation to a transverse plane, and has an at least sectionally cup-spring-shaped cross-sectional profile, wherein the middle component comprises a filter screen and the second outer component is in the form of a filter carrier.
A system for calculating and reporting slump in a concrete delivery truck having a concrete mixing drum and hydraulic drive for rotating the mixing drum, the system comprising a rotational sensor mounted to the mixing drum and configured to sense a rotational speed of the mixing drum, a hydraulic sensor coupled to the hydraulic drive and configured to sense a hydraulic pressure required to turn the mixing drum, and a processor computing a slump value using the sensed hydraulic pressure required to turn the mixing drum from the hydraulic sensor, characterized in that the processor is operative to: (i) compare current pressure and speed measurements to previously stored pressure and speed measurements, (ii) determine if the speed and pressure are stable, (iii) erase the stored pressure and speed measurements if the speed and pressure are not stable, (iv) store the current pressure and speed measurements, continue said steps (i) to (iv) until pressure and speed measurements have been stored for a full drum rotation, and then calculate a current slump valve using the stored pressure and speed measurements. (i) compare current pressure and speed measurements to previously stored pressure and speed measurements, (ii) determine if the speed and pressure are stable, (iii) erase the stored pressure and speed measurements if the speed and pressure are not stable, (iv) store the current pressure and speed measurements, continue said steps (i) to (iv) until pressure and speed measurements have been stored for a full drum rotation, and then calculate a current slump valve using the stored pressure and speed measurements.
Rolling bearing comprising an outer ring and an inner ring, both having a raceway (30, 32, 50) for rolling elements placed between said inner and outer rings (3, 5) in contact with said raceways (30, 32, 50), at least one of the rings comprising: - an envelope having an axial portion and, connected to the edges of the axial portion, two radial portions (342, 344), - two half-raceways (30, 32) arranged in said envelope to form the raceway of this ring, - an annular preloading element made of an elastic material and arranged inside the envelope to be preloaded axially between a first radial portion of the envelope and a lateral face of a first half-raceway, - a damping element formed by a single layer which is in contact with both half-raceways (30, 32) and radially arranged between the axial portion of the envelope and each of the half-raceways (30, 32), and - a second preloading element extending axially between a second radial portion and a lateral face of the second half-raceway, characterized in that the damping element forms a single part with the preloading element and the second preloading element, said damping element and second preloading portion being formed by a layer of damping material on axial portion and second radial portion of the envelope. - an envelope having an axial portion and, connected to the edges of the axial portion, two radial portions (342, 344), - two half-raceways (30, 32) arranged in said envelope to form the raceway of this ring, - an annular preloading element made of an elastic material and arranged inside the envelope to be preloaded axially between a first radial portion of the envelope and a lateral face of a first half-raceway, - a damping element formed by a single layer which is in contact with both half-raceways (30, 32) and radially arranged between the axial portion of the envelope and each of the half-raceways (30, 32), and - a second preloading element extending axially between a second radial portion and a lateral face of the second half-raceway,
Method of application, detection and removal of auxiliary material onto and from an aircraft element, the method comprising the following steps: - providing an auxiliary material having at least one detection label, - covering at least part of the aircraft element to be manufactured with the auxiliary material, - once the aircraft element has been manufactured, scanning the manufactured aircraft element with a label detector suitable to detect the detection label, - detecting the auxiliary material by means of a warning signal emitted by the label detector, - removing the auxiliary material from the manufactured aircraft element. - providing an auxiliary material having at least one detection label, - covering at least part of the aircraft element to be manufactured with the auxiliary material, - once the aircraft element has been manufactured, scanning the manufactured aircraft element with a label detector suitable to detect the detection label, - detecting the auxiliary material by means of a warning signal emitted by the label detector, - removing the auxiliary material from the manufactured aircraft element.
A positive electrode comprising a positive electrode active material-containing layer, the layer contains - positive electrode active material particles, - 0.2-5 wt.-% of polymer fibers having an average fiber diameter of 1-100 nm and including cellulose fibers, the average fibre diameter being measured according to the method disclosed in the description, and - 0.5-10 wt.-% of inorganic solid particles including at least one material selected from Al 2 O 3, TiO 2, ZrO 2, and a phosphate compound which is AlPO 4, Li 3 PO 4 or a material having a NASICON structure and being expressed as Li 1+y Al x M 2-x (PO 4) 3 wherein M is at least one element selected from Ti, Ge, Sr, Sn, Zr and Ca for 0 ≤ x ≤ 1 and 0 ≤ y ≤ 1. - positive electrode active material particles, - 0.2-5 wt.-% of polymer fibers having an average fiber diameter of 1-100 nm and including cellulose fibers, the average fibre diameter being measured according to the method disclosed in the description, and - 0.5-10 wt.-% of inorganic solid particles including at least one material selected from Al 2 O 3, TiO 2, ZrO 2, and a phosphate compound which is AlPO 4, Li 3 PO 4 or a material having a NASICON structure and being expressed as Li 1+y Al x M 2-x (PO 4) 3 wherein M is at least one element selected from Ti, Ge, Sr, Sn, Zr and Ca for 0 ≤ x ≤ 1 and 0 ≤ y ≤ 1.
Carbon black particles having a Brunauer-Emmett-Teller surface area ranging from 80 m 2 /g to 1100 m 2 /g, an oil absorption number equal to or less than 200 mL/100g, a surface energy of 10 mJ/m 2 or less, a particle size distribution with a D 75:D 25 ratio less than 2.1, and a particle size distribution with a D 50 value equal to or less than 165 nm, wherein the particle size distribution designates an aggregate size distribution of the carbon black particles as indicated by their D 50 values, wherein the D values are determined by a DSC method using a disc centrifuge, wherein the Brunauer-Emmett-Teller surface area is determined by the ASTM D6556-10 method, wherein the oil absorption number is determined by the ASTM D2414-16 method, and wherein the surface energy is determined by Dynamic Vapor Sorption or water spreading pressure.
A method in a satellite positioning system receiver having a battery, the method comprising determining whether the receiver is connected to a power supply other than its battery, the method being characterized by: beginning reception of satellite positioning system navigation data directly from a satellite when the receiver is connected to a power supply other than its battery; continuing reception of the satellite positioning system navigation data until reception of the navigation data is complete if the receiver is disconnected from the power supply other than its battery during reception of the satellite positioning system navigation data only if a first predetermined portion of the satellite positioning system navigation data has already been received; storing the satellite positioning system navigation data received in memory of the receiver. beginning reception of satellite positioning system navigation data directly from a satellite when the receiver is connected to a power supply other than its battery; continuing reception of the satellite positioning system navigation data until reception of the navigation data is complete if the receiver is disconnected from the power supply other than its battery during reception of the satellite positioning system navigation data only if a first predetermined portion of the satellite positioning system navigation data has already been received; storing the satellite positioning system navigation data received in memory of the receiver.
Shredding device for shredding material, comprising: a housing; a rotor and one or more counter blades, the rotor and the one or more counter blades being arranged in said housing such that they interact for shredding said material; a pusher element which is movable such that it pushes said material for shredding in the direction towards said rotor and said one or more counter blades; a hopper for supplying said material, the hopper being movable relative to the housing and being disposed between a first and a second position, wherein, when the hopper is in its first position, said material may be fed to said rotor and said counter blades and, when the hopper is its second position, said rotor and said counter blades are freely accessible from an exterior of said shredding device; wherein said hopper is slidable relative to said housing; wherein the hopper is couplable to said pusher element such that said hopper is movable by moving said pusher element. a housing; a rotor and one or more counter blades, the rotor and the one or more counter blades being arranged in said housing such that they interact for shredding said material; a pusher element which is movable such that it pushes said material for shredding in the direction towards said rotor and said one or more counter blades; a hopper for supplying said material, the hopper being movable relative to the housing and being disposed between a first and a second position, wherein, when the hopper is in its first position, said material may be fed to said rotor and said counter blades and, when the hopper is its second position, said rotor and said counter blades are freely accessible from an exterior of said shredding device; wherein said hopper is slidable relative to said housing; wherein the hopper is couplable to said pusher element such that said hopper is movable by moving said pusher element.
Blank for forming a drawer for an electrical cabinet, the blank comprising a base plate part, a first foldable part for a connector wall with an associated folding line extending in a first direction, and second and third foldable parts (4, 6) for side walls with associated folding lines (5, 7) extending in a second direction perpendicular to the first direction, wherein the base plate part comprises lateral slider parts (8, 9) extending outward of the associated folding lines (5, 7) of the second and third foldable parts (4, 6).
A method for wireless communication by a User Equipment, UE, comprising: receiving downlink control information, DCI, scheduling uplink resources on a secondary cell, SCell, configured on a first spectrum, the scheduled uplink resources to be used for transmitting uplink feedback for at least one downlink transmission on at least one of a primary cell, PCell, or another SCell configured on a second spectrum, wherein a single physical uplink control channel, PUCCH, is allowed to be configured on one of the first or second spectrums and wherein once configured the PUCCH cannot be switched between the first and second spectrums; and transmitting the uplink feedback using the scheduled uplink resources in the first spectrum. receiving downlink control information, DCI, scheduling uplink resources on a secondary cell, SCell, configured on a first spectrum, the scheduled uplink resources to be used for transmitting uplink feedback for at least one downlink transmission on at least one of a primary cell, PCell, or another SCell configured on a second spectrum, wherein a single physical uplink control channel, PUCCH, is allowed to be configured on one of the first or second spectrums and wherein once configured the PUCCH cannot be switched between the first and second spectrums; and transmitting the uplink feedback using the scheduled uplink resources in the first spectrum.
A method for preparing monosilane, comprising: (a) performing wet pulverization of silicon particles in a liquid-phase solvent until the silicon particles have a particle size of 30 μm to 100 μm; (b) continuously supplying a suspension, which comprises the pulverized silicon particles obtained in step (a) and the solvent, into a reactor, followed by synthesizing alkoxysilane of triethoxysilane and tetraethoxysilane through reaction of the pulverized silicon particles with anhydrous ethyl alcohol using a copper-based catalyst in a solvent environment which has been heated to 160 °C to 300 °C; and (c) synthesizing monosilane gas from the obtained triethoxysilane using sodium ethoxide as a catalyst, the method further comprising (i) separating the synthesized triethoxysilane as a reaction product from the reactor, (ii) continuously removing unreacted anhydrous ethyl alcohol and an azeotropic mixture of anhydrous ethyl alcohol and triethoxysilane from the reactor at atmospheric pressure during a condensation process performed for separation of triethoxysilane of step (i), and (iii) purifying triethoxysilane separated by step (i). (a) performing wet pulverization of silicon particles in a liquid-phase solvent until the silicon particles have a particle size of 30 μm to 100 μm; (b) continuously supplying a suspension, which comprises the pulverized silicon particles obtained in step (a) and the solvent, into a reactor, followed by synthesizing alkoxysilane of triethoxysilane and tetraethoxysilane through reaction of the pulverized silicon particles with anhydrous ethyl alcohol using a copper-based catalyst in a solvent environment which has been heated to 160 °C to 300 °C; and (c) synthesizing monosilane gas from the obtained triethoxysilane using sodium ethoxide as a catalyst, (i) separating the synthesized triethoxysilane as a reaction product from the reactor, (ii) continuously removing unreacted anhydrous ethyl alcohol and an azeotropic mixture of anhydrous ethyl alcohol and triethoxysilane from the reactor at atmospheric pressure during a condensation process performed for separation of triethoxysilane of step (i), and (iii) purifying triethoxysilane separated by step (i).
A process of producing a separator material for polymer electrolyte fuel cells comprising mixing 100 parts by weight of a graphite powder prepared by mixing an artificial graphite powder having an average particle diameter A of 1 to 15 μm and a natural graphite powder having an average particle diameter B of A×(2 to 20) μm in a weight ratio of 80:20 to 60:40, 10 to 35 parts by weight of a thermosetting resin, 75 to 200 parts by weight of a dispersion medium, and 0.1 to 10 parts by weight of a dispersant to prepare a slurry, pouring the slurry into a mold, drying the slurry, thermocompression-molding the dried product in the shape of a sheet, and curing the molded product by heating.
A multi-bit adder comprising: a full adder stage configured to receive at least some of a plurality of least significant bits, LSBs, of first data and second data; a half adder stage configured to receive at least some of a plurality of most significant bits, MSBs, of the first data and the second data, wherein the half adder stage includes at least one half adder; a carry generation stage coupled to the full adder stage and the half adder stage, wherein the carry generation stage includes at least one serial propagate-generate, PG, component coupled to outputs of the at least one half adder; and a post summing stage coupled to the carry generation stage and the half adder stage and configured to generate a partial sum output of the first data and the second data, wherein a number of the at least some of the plurality of LSBs is different from a number of the at least some of the plurality of MSBs. a full adder stage configured to receive at least some of a plurality of least significant bits, LSBs, of first data and second data; a half adder stage configured to receive at least some of a plurality of most significant bits, MSBs, of the first data and the second data, wherein the half adder stage includes at least one half adder; a carry generation stage coupled to the full adder stage and the half adder stage, wherein the carry generation stage includes at least one serial propagate-generate, PG, component coupled to outputs of the at least one half adder; and a post summing stage coupled to the carry generation stage and the half adder stage and configured to generate a partial sum output of the first data and the second data, wherein a number of the at least some of the plurality of LSBs is different from a number of the at least some of the plurality of MSBs.
An electro-conductive member for electrophotography, comprising: an electro-conductive substrate; an elastic layer on the substrate; and an electro-conductive surface layer covering a surface of the elastic layer, wherein the electro-conductive surface layer comprises a matrix in which a urethane resin and a silicon oxide exist in a non-phase-separated state, and the matrix has a peak of a Si-N bond derived from a polysilazane in a wavelength region from 800 cm -1 or higher and 950 cm -1 or lower in an infrared absorption spectrum of the matrix. an electro-conductive substrate; an elastic layer on the substrate; and an electro-conductive surface layer covering a surface of the elastic layer, wherein the electro-conductive surface layer comprises a matrix in which a urethane resin and a silicon oxide exist in a non-phase-separated state, and the matrix has a peak of a Si-N bond derived from a polysilazane in a wavelength region from 800 cm -1 or higher and 950 cm -1 or lower in an infrared absorption spectrum of the matrix.
A method for controlling activity of a transmitter in a communication system with repeat requests, the transmitter being adapted to receive data on at least one transmission carrier (31, 32, 33, 34, 35; 41, 42, 43, 44), the method comprising: the transmitter receiving a deactivation command for deactivation of the at least one transmission carrier (31, 32, 33, 34, 35; 41, 42, 43, 44); in response to the deactivation command, the transmitter performing a check whether a retransmission (304, 307; 404) is expected on the at least one transmission carrier (31, 32, 33, 34, 35; 41, 42, 43, 44); and if a retransmission (304, 307; 404) is expected, delaying execution of the deactivation command until the retransmission (304, 307; 404) is received or a timer has expired. the transmitter receiving a deactivation command for deactivation of the at least one transmission carrier (31, 32, 33, 34, 35; 41, 42, 43, 44); in response to the deactivation command, the transmitter performing a check whether a retransmission (304, 307; 404) is expected on the at least one transmission carrier (31, 32, 33, 34, 35; 41, 42, 43, 44); and if a retransmission (304, 307; 404) is expected, delaying execution of the deactivation command until the retransmission (304, 307; 404) is received or a timer has expired.
A device for the blow moulding of containers, the device at least comprising a blowing station having a blow mould, and in which device the blow mould is held by a carrier of a blowing station, and in which device a pressure area is sealed against its environment by means of a seal and the seal is formed from at least two areas (45, 46) of which a first area consists of a material that is harder than that of the second area and both areas (45, 46) are connected in relation to each other in an immobile manner, characterised in that - the first area that is made of the harder material is arranged facing away from the pressure area and the second area that is made of the softer material is arranged facing the pressure area. - the first area that is made of the harder material is arranged facing away from the pressure area and the second area that is made of the softer material is arranged facing the pressure area.