mhurhangee/ep-ind-claims huggingface dataset:
An improved apparatus for the assembly of laminar articles for electrical use, the laminar articles being of the type of magnetic laminae used in electric machines such as motors, generators, transformers, gauges, ignition coils and similar electrical equipment, connectable to a shearing pressing machine and comprising a pressing plane arrangeable beneath the shearing pressing machine and a first cylinder housed by said pressing plane and suitable to support a pack of laminae defined by the superimposition of a plurality of laminae obtainable by means of the shearing pressing machine during the forming process, a second cylinder for discharging a finished pack of laminae and a conveyor belt suitable to displace said pack of laminae to a discharging station, the apparatus characterised in that it comprises a gripper provided with a pair of mutually juxtaposed arms or jaws, with a constrained end with respect to a body fixed to a stem of the second cylinder and with a juxtaposed end (24") of each arm or jaw free and shaped in a manner corresponding to the outer lateral surface of the pack of laminae and with said gripper being adapted to cooperate with the first cylinder to operate while the machine is running.
Seal arrangement for a turbomachine, in particular for an aircraft engine, for sealing a radial gap between a rotor and a stator, comprising - at least one sealing element, - at least one seal support for mounting and/or fastening the at least one sealing element, the seal support having a radial projection which extends in a radial extension direction and an axial projection which is integral with the radial projection and extends in an axial extension direction, the seal support being T-shaped such that the axial projection extends in the axial direction on both sides beyond a connecting region between the radial projection and the axial projection, and the sealing element being arranged on a radially inner contact surface of the axial projection, and - a front ring, viewed in the flow direction of the turbomachine, or a front ring segment and/or a rear ring or a rear ring segment each having a radially extending projection (32, 34), - one of the projections (32, 34) and the radial projection forming a receptacle for receiving an element of the stator, characterized in that an axially extending inner flange (64, 66) is formed at a radially inner end of at least said radially extending projection (32, 34), and at least the inner flange of the radially extending projection, which flange forms the receptacle together with the radial projection of the seal support, is integrally and/or form-fittingly connected to a radially outer surface of the axial projection. - at least one sealing element, - at least one seal support for mounting and/or fastening the at least one sealing element, the seal support having a radial projection which extends in a radial extension direction and an axial projection which is integral with the radial projection and extends in an axial extension direction, the seal support being T-shaped such that the axial projection extends in the axial direction on both sides beyond a connecting region between the radial projection and the axial projection, and the sealing element being arranged on a radially inner contact surface of the axial projection, and - a front ring, viewed in the flow direction of the turbomachine, or a front ring segment and/or a rear ring or a rear ring segment each having a radially extending projection (32, 34), - one of the projections (32, 34) and the radial projection forming a receptacle for receiving an element of the stator, characterized in that an axially extending inner flange (64, 66) is formed at a radially inner end of at least said radially extending projection (32, 34), and at least the inner flange of the radially extending projection, which flange forms the receptacle together with the radial projection of the seal support, is integrally and/or form-fittingly connected to a radially outer surface of the axial projection.
An efficiency monitor (4300; 5300) for monitoring power transmission by an inductive power outlet (4210; 5210), the inductive power outlet comprising at least one primary coil (4220; 5220) wired to a power supply (4240; 5240), the inductive power inductively coupling with at least one secondary coil (4260; 5260) wired to an electric load, the efficiency monitor comprising: at least one input power monitor (4122; 5122) for measuring an input power (P in) received by the at least one primary coil from the power supply; at least one processor (4162; 5162) for determining an index of power-loss indicative of an efficiency of an inductive coupling between the at least one primary coil and the at least one secondary coil; and at least one communication channel for communicating the input power and an output power (P out) to the at least one processor, wherein the index of power-loss comprises: an efficiency quotient Q, defined as a ratio of the output power to the input power, or an efficiency differential Δ, defined as a difference between the output power and the input power. at least one input power monitor (4122; 5122) for measuring an input power (P in) received by the at least one primary coil from the power supply; at least one processor (4162; 5162) for determining an index of power-loss indicative of an efficiency of an inductive coupling between the at least one primary coil and the at least one secondary coil; and at least one communication channel for communicating the input power and an output power (P out) to the at least one processor, wherein the index of power-loss comprises: an efficiency quotient Q, defined as a ratio of the output power to the input power, or an efficiency differential Δ, defined as a difference between the output power and the input power. an efficiency quotient Q, defined as a ratio of the output power to the input power, or an efficiency differential Δ, defined as a difference between the output power and the input power.
Light-curing, reactive, pressure-sensitive adhesive film of adhesive, comprising (a) at least one reactive monomer or reactive resin, (b) an initiator, (c) a photoredox catalyst, (d) a polymer obtained by radical polymerization of monomers containing carbon-carbon double bonds, characterized in that these monomers comprise N-vinyl compounds, and (e) a film-forming polymer. (a) at least one reactive monomer or reactive resin, (b) an initiator, (c) a photoredox catalyst, (d) a polymer obtained by radical polymerization of monomers containing carbon-carbon double bonds, characterized in that these monomers comprise N-vinyl compounds, and (e) a film-forming polymer.
A device for a spinning preparation machine, e.g. a carding machine, a roller card, a cleaner, a combing machine or the like, wherein the device comprises at least one carding element, which, in the installed condition, is disposed at a distance opposite a clothed roll and extends across the entire width of the roll, wherein the device comprises a longitudinal carrying body, which includes a foot part and a back part, wherein a clothing is attachable to the foot part of the carrying body by means of a non-positive connection and in which clothing is present at least one hollow space (14c; 27; 41) for generating the non-positive connection, characterized in that the hollow space (14c; 27; 41) is under negative pressure and the non-positive connection between the carrying body (a4; 14b) and the clothing (24, 25) is realized by means of negative pressure, wherein at least one seal is provided between the hollow space (14c; 27; 41) and the clothing (24, 25) or the carrying body (14, 14b).
A stroke sensor configured to detect a distance between a first member (11, 22) and a second member provided movably in directions toward and away from the first member (11, 22), the stroke sensor comprising: a magnetism generator provided in the first member (11, 22), the magnetism generator being configured to generate magnetism; and a magnetic body provided in the second member (11, 22), the magnetic body being configured to be biased toward the magnetism generator by a magnetic force generated from the magnetism generator, characterized by a pressure detector provided in the second member (11, 22), the pressure detector being held in contact with the magnetic body biased by the magnetic force from the magnetism generator, the pressure detector being configured to detect the distance between the first and second members (11, 22) on the basis of a change of a pressure acting from the magnetic body. a magnetism generator provided in the first member (11, 22), the magnetism generator being configured to generate magnetism; and a magnetic body provided in the second member (11, 22), the magnetic body being configured to be biased toward the magnetism generator by a magnetic force generated from the magnetism generator, characterized by a pressure detector provided in the second member (11, 22), the pressure detector being held in contact with the magnetic body biased by the magnetic force from the magnetism generator, the pressure detector being configured to detect the distance between the first and second members (11, 22) on the basis of a change of a pressure acting from the magnetic body.
A method for controlling combustion in a multi-cylinder engine comprising an EGR line wherein: each cylinder (123a, 123b) is connected to an intake line via a separate intake line (129a, 129b) comprising an intake line valve (155a, 155b), wherein each separate intake line (129a, 129b) can be in flow communication with said EGR line through a separate portion (137a', 137b') of the EGR line, said separate portion (137a', 137b') of the EGR line being connected to a portion of said separate intake line (129a, 129b) located between said intake line valve (155a, 155b) and said cylinder (123a, 123b), each one of said separate portions (137a', 137b') of the EGR line comprising a valve (135a', 135b'); each cylinder (123a, 123b) is connected to an exhaust line via a separate exhaust line (139a, 139b) comprising an exhaust line valve (153a, 153b), wherein each separate exhaust line (139a, 139b) can be in flow communication with said EGR line through a separate portion (137a", 137b") of the EGR line, said separate portion (137a", 137b") of the EGR line being connected to a portion of said separate exhaust line (139a, 139b) located between said exhaust line valve (153a, 153b) and said cylinder (123a, 123b), each one of said separate portions (137a", 137b") of the EGR line comprising a valve (135a", 135b"); said method comprising: injecting fuel into at least one cylinder of the multi-cylinder engine, and for each cylinder, separately controlling at least one fuel injection parameter to produce a desired exhaust composition for that cylinder, characterized in that said method further comprises: directing exhaust from at least one cylinder to a different location than exhaust from another cylinder by operating said intake line valves (155a, 155b), said exhaust line valves (153a, 153b) and said valves (135a', 135b', 135a", 135b") of said EGR line. each cylinder (123a, 123b) is connected to an intake line via a separate intake line (129a, 129b) comprising an intake line valve (155a, 155b), wherein each separate intake line (129a, 129b) can be in flow communication with said EGR line through a separate portion (137a', 137b') of the EGR line, said separate portion (137a', 137b') of the EGR line being connected to a portion of said separate intake line (129a, 129b) located between said intake line valve (155a, 155b) and said cylinder (123a, 123b), each one of said separate portions (137a', 137b') of the EGR line comprising a valve (135a', 135b'); each cylinder (123a, 123b) is connected to an exhaust line via a separate exhaust line (139a, 139b) comprising an exhaust line valve (153a, 153b), wherein each separate exhaust line (139a, 139b) can be in flow communication with said EGR line through a separate portion (137a", 137b") of the EGR line, said separate portion (137a", 137b") of the EGR line being connected to a portion of said separate exhaust line (139a, 139b) located between said exhaust line valve (153a, 153b) and said cylinder (123a, 123b), each one of said separate portions (137a", 137b") of the EGR line comprising a valve (135a", 135b");
An imprint method comprising: placing a light-curable composition on a workpiece substrate; bringing the light-curable composition and a mold into contact with each other in an atmosphere of a condensable gas (9, 10); aligning the mold and the workpiece substrate; irradiating the light-curable composition with light to obtain a light-cured composition; and after the irradiation, separating the light-cured composition and the mold from each other, the condensable gas being a gas that condenses under a temperature condition that occurs during the contact and a pressure condition that occurs upon the light-curable composition penetrating into a space between the workpiece substrate and the mold or a depression in the mold; a film thickness of the light-curable composition during the alignment being at least 20% greater than a film thickness of the light-cured composition after the release, characterized in that the film thickness of the light-cured composition after the release is 40 nm or less; and the aligning of the mold and the workpiece substrate is performed after and for correcting displacements created by bringing the light-curable composition and the mold into contact. placing a light-curable composition on a workpiece substrate; bringing the light-curable composition and a mold into contact with each other in an atmosphere of a condensable gas (9, 10); aligning the mold and the workpiece substrate; irradiating the light-curable composition with light to obtain a light-cured composition; and after the irradiation, separating the light-cured composition and the mold from each other, the condensable gas being a gas that condenses under a temperature condition that occurs during the contact and a pressure condition that occurs upon the light-curable composition penetrating into a space between the workpiece substrate and the mold or a depression in the mold; a film thickness of the light-curable composition during the alignment being at least 20% greater than a film thickness of the light-cured composition after the release, characterized in that the film thickness of the light-cured composition after the release is 40 nm or less; and the aligning of the mold and the workpiece substrate is performed after and for correcting displacements created by bringing the light-curable composition and the mold into contact.
A method of determining a binary codeword for a symbol, comprising: determining a truncated rice prefix for a symbol with an encoder, said symbol having a parameter variable; when said parameter variable is greater than zero, determining a truncated rice suffix for said symbol with said encoder and concatenating the end of said truncated rice prefix with said truncated rice suffix to determine a main prefix; when said main prefix is the same as a comparison string, determining a main suffix for said symbol by employing said encoder and concatenating the end of said main prefix with said main suffix to determining said binary codeword for said symbol; wherein said main suffix is determined by the 0th order exponential Golomb code for the value of said symbol minus a maximum symbol value minus one; and wherein said maximum symbol value is twenty when said parameter variable is one; said maximum symbol value is forty two when said parameter variable is two; and said maximum symbol value is seventy when said parameter variable is three; characterized in that said maximum symbol value is eight when said parameter variable is zero. determining a truncated rice prefix for a symbol with an encoder, said symbol having a parameter variable; when said parameter variable is greater than zero, determining a truncated rice suffix for said symbol with said encoder and concatenating the end of said truncated rice prefix with said truncated rice suffix to determine a main prefix; when said main prefix is the same as a comparison string, determining a main suffix for said symbol by employing said encoder and concatenating the end of said main prefix with said main suffix to determining said binary codeword for said symbol; wherein said main suffix is determined by the 0th order exponential Golomb code for the value of said symbol minus a maximum symbol value minus one; and wherein said maximum symbol value is twenty when said parameter variable is one; said maximum symbol value is forty two when said parameter variable is two; and said maximum symbol value is seventy when said parameter variable is three; characterized in that said maximum symbol value is eight when said parameter variable is zero.
Method for manufacturing a brake carrier for a disc brake of a vehicle brake system, wherein the brake carrier has at least one guiding recess for guiding a brake pad in a guiding direction relative to a receiving region for a brake disc, wherein the method comprises the steps: - manufacturing a brake carrier blank in a casting step, and - finishing the brake carrier blank by removing material for producing the at least one guiding recess, characterized in that the brake carrier blank is formed in the casting step, in the region in which the guiding recess is formed, with two converging shaped chamfers facing the receiving region, and that during finishing for producing the at least one guiding recess material is removed in the region of the shaped chamfers such that the receiving region for the brake disc has a predetermined clear width transversely to the guiding direction. - manufacturing a brake carrier blank in a casting step, and - finishing the brake carrier blank by removing material for producing the at least one guiding recess,
Method for supporting a machine operator when adjusting an agricultural soil working machine designed as a plow with the steps: - determining one or more adjustment parameters suitable for a current or planned soil working process for the agricultural soil working machine; - outputting an adjustment proposal for the agricultural soil working machine, which proposal, when followed, leads to the adjustment of the one or more suitable adjustment parameters in the agricultural soil working machine, wherein the one or more suitable adjustment parameters for the agricultural soil working machine comprise the towing point, the front furrow width, the working width and/or the working depth of the agricultural soil working machine, characterized in that in the determination of the one or more adjustment parameters suitable for the current or planned soil working process for the agricultural soil working machine, data are taken into account which are made available by one or more sensors of the agricultural soil working machine. - determining one or more adjustment parameters suitable for a current or planned soil working process for the agricultural soil working machine; - outputting an adjustment proposal for the agricultural soil working machine, which proposal, when followed, leads to the adjustment of the one or more suitable adjustment parameters in the agricultural soil working machine, wherein the one or more suitable adjustment parameters for the agricultural soil working machine comprise the towing point, the front furrow width, the working width and/or the working depth of the agricultural soil working machine, characterized in that in the determination of the one or more adjustment parameters suitable for the current or planned soil working process for the agricultural soil working machine, data are taken into account which are made available by one or more sensors of the agricultural soil working machine. wherein the one or more suitable adjustment parameters for the agricultural soil working machine comprise the towing point, the front furrow width, the working width and/or the working depth of the agricultural soil working machine, characterized in that in the determination of the one or more adjustment parameters suitable for the current or planned soil working process for the agricultural soil working machine, data are taken into account which are made available by one or more sensors of the agricultural soil working machine.
A method for manufacturing tris(β-diketonato)iridium shown by Chem. 2 in which a β-diketone is coordinated to iridium, by reacting the β-diketone shown by Chem. 1 with an iridium compound which iridium compound is any one of iridium nitrate (III,IV), iridium chloride (III,IV) and ammonium hexachloroiridate (III,IV), wherein an activation treatment including (a) an alkali treatment and (b) an acid treatment described below is applied to the iridium compound to activate the iridium compound, and to subsequently react the β-diketone, (a) an alkali treatment: a treatment of adding alkali to a solution of the iridium compound to raise pH of the solution to a more alkaline side than that before the alkali addition and to not less than 12, wherein the solution subjected to the alkali treatment is left at rest for not less than 0.5 hours and not more than 24 hours in the pH range of not less than 12, and (b) a subsequent acid treatment: a treatment of adding acid to the solution subjected to the alkali treatment to lower pH of the solution to a more acidic side than that before the acid addition and to make the pH difference between solutions before and after the acid addition be not less than 0.1 and not more than 10, wherein each of R a and R b is a hydrocarbon group or substituents in which a hydrogen atom in a hydrocarbon group is substituted by a halogen atom, R a and R b may be different substituents, or the identical substituent, R c is a substituent composed of any of a hydrogen atom, a halogen atom and a hydrocarbon group; and wherein R a, R b, and R c have the same meaning as in Chem. 1. (a) an alkali treatment: a treatment of adding alkali to a solution of the iridium compound to raise pH of the solution to a more alkaline side than that before the alkali addition and to not less than 12, wherein the solution subjected to the alkali treatment is left at rest for not less than 0.5 hours and not more than 24 hours in the pH range of not less than 12, and (b) a subsequent acid treatment: a treatment of adding acid to the solution subjected to the alkali treatment to lower pH of the solution to a more acidic side than that before the acid addition and to make the pH difference between solutions before and after the acid addition be not less than 0.1 and not more than 10,
A data carrier material containing an aluminum foil and a printable layer of lacquer arranged thereon, wherein the data carrier material comprises a layer of adhesive on the side of the aluminum foil facing away from the printable layer of lacquer and a layer of glass fibers on said layer of adhesive, characterized in that the aluminum foil is a foil consisting of unannealed aluminum.
A method for the vitrification of arsenious oxide from an arsenic-containing material, comprising selecting an iron oxide-containing material containing at least 15% w/w iron oxide; mixing the arsenic-containing material with the iron oxide-containing material and glass into a mixture, and melting the mixture, yielding a resulting glass incorporating arsenic.