mhurhangee/patent-ind-claim-en huggingface dataset:
An anti-splaying system comprising: a receiver having a base , a first arm , a second arm , a first locking channel , and a second locking channel , the first arm and the second arm each extending from the base defining a rod-receiving cavity between the arms , the first and second arms including first and second inner threads formed in respective inner surfaces of the first and second arms , the first locking channel being formed in the inner surface of the first arm and extending from a proximal opening to a proximal bottom at or adjacent a first proximal beginning of the first inner thread , and the second locking channel being formed in the inner surface of the second arm and extending from a proximal opening to a proximal bottom at or adjacent a second proximal beginning of the second inner thread ; and a set screw having a driving portion , a body portion , external threads extending from the body portion , and an intermediate locking component connected rotatably to the body portion ; wherein the intermediate locking component of the set screw and the locking channels of the receiver are configured such that the intermediate locking component can, in operation of the system, be moved into a securing position in the locking channels and, when in the secured position, fixes the two arms from splaying away from each other, characterized in that the intermediate locking component is connected rotatably to the body portion intermediate the driving portion and the external threads of the set screw . a receiver having a base , a first arm , a second arm , a first locking channel , and a second locking channel , the first arm and the second arm each extending from the base defining a rod-receiving cavity between the arms , the first and second arms including first and second inner threads formed in respective inner surfaces of the first and second arms , the first locking channel being formed in the inner surface of the first arm and extending from a proximal opening to a proximal bottom at or adjacent a first proximal beginning of the first inner thread , and the second locking channel being formed in the inner surface of the second arm and extending from a proximal opening to a proximal bottom at or adjacent a second proximal beginning of the second inner thread ; and a set screw having a driving portion , a body portion , external threads extending from the body portion , and an intermediate locking component connected rotatably to the body portion ; wherein the intermediate locking component of the set screw and the locking channels of the receiver are configured such that the intermediate locking component can, in operation of the system, be moved into a securing position in the locking channels and, when in the secured position, fixes the two arms from splaying away from each other, characterized in that the intermediate locking component is connected rotatably to the body portion intermediate the driving portion and the external threads of the set screw .
A thermoplastic molding composition comprising A) from 10 to 99.6% by weight of a thermoplastic polyester differing from C); B) from 0.1 to 30% by weight of a poly(ε-caprolactone); C) from 0.1 to 30% by weight of a biodegradable polyester differing from B); D) from 0.1 to 30% by weight of a phosphinic salt; E) from 0 to 20% by weight of a nitrogen-containing flame retardant; F) from 0 to 15% by weight of an aromatic phosphate ester having at least one alkyl-substituted phenyl ring; G) from 0.05 to 1% by weight of a polyolefin wax prepared by means of metallocene catalysts, where the polyolefin wax is a homopolymer of ethylene, a copolymer of ethylene with one or more 1-olefins which may be linear or branched, substituted or unsubstituted and having 3-18 carbon atoms or a homopolymer of propylene, which is polar modified by reacting the polyolefin wax with an α,β-unsaturated carboxylic acid or a derivative thereof; H) from 0 to 50% by weight of further additional substances, where the sum of the percentages by weight of components A) to H) is 100%. A) from 10 to 99.6% by weight of a thermoplastic polyester differing from C); B) from 0.1 to 30% by weight of a poly(ε-caprolactone); C) from 0.1 to 30% by weight of a biodegradable polyester differing from B); D) from 0.1 to 30% by weight of a phosphinic salt; E) from 0 to 20% by weight of a nitrogen-containing flame retardant; F) from 0 to 15% by weight of an aromatic phosphate ester having at least one alkyl-substituted phenyl ring; G) from 0.05 to 1% by weight of a polyolefin wax prepared by means of metallocene catalysts, where the polyolefin wax is a homopolymer of ethylene, a copolymer of ethylene with one or more 1-olefins which may be linear or branched, substituted or unsubstituted and having 3-18 carbon atoms or a homopolymer of propylene, which is polar modified by reacting the polyolefin wax with an α,β-unsaturated carboxylic acid or a derivative thereof; H) from 0 to 50% by weight of further additional substances,
A magnetic flowmeter comprising: a pipe section having an inner diameter and an outer diameter; a coil proximate the outer diameter of the pipe section; a current source connected to the coil to produce an alternating magnetic field at a coil drive frequency; electrodes extending from the outer diameter of the pipe section to the inner diameter of the pipe section; and a processor that generates a flow output as a function of a sensed voltage between the electrodes , wherein the processor adjusts a flowmeter operating parameter as a function of a sensed complex impedance of a process fluid flowing within the pipe section, the complex impedance sensed between the electrodes or between one or more of the electrodes and ground, and characterised in that : the flowmeter operating parameter is one of a coil drive frequency, an electrode voltage sampling period, or a phase shift of an electrode signal. a pipe section having an inner diameter and an outer diameter; a coil proximate the outer diameter of the pipe section; a current source connected to the coil to produce an alternating magnetic field at a coil drive frequency; electrodes extending from the outer diameter of the pipe section to the inner diameter of the pipe section; and a processor that generates a flow output as a function of a sensed voltage between the electrodes , wherein the processor adjusts a flowmeter operating parameter as a function of a sensed complex impedance of a process fluid flowing within the pipe section, the complex impedance sensed between the electrodes or between one or more of the electrodes and ground, and characterised in that : the flowmeter operating parameter is one of a coil drive frequency, an electrode voltage sampling period, or a phase shift of an electrode signal.
An aerosol-generating article comprising: a rod of aerosol-generating substrate ; a downstream section provided downstream of the rod of aerosol-generating substrate , the downstream section comprising at least one hollow tubular element abutting a downstream end of the rod of aerosol-generating substrate ; an upstream element provided upstream of the rod of aerosol-generating substrate and abutting an upstream end of the rod of aerosol-generating substrate , wherein an upstream end of the upstream element defines an upstream end of the aerosol-generating article , the upstream element having a length from 3 millimetres to 7 millimetres; and a ventilation zone at a location along the hollow tubular element , the ventilation zone configured to enable ingress of ambient air into a lumen of the hollow tubular element , wherein a distance between the ventilation zone and the upstream end of the upstream element is from 26 millimetres to 33 millimetres. a rod of aerosol-generating substrate ; a downstream section provided downstream of the rod of aerosol-generating substrate , the downstream section comprising at least one hollow tubular element abutting a downstream end of the rod of aerosol-generating substrate ; an upstream element provided upstream of the rod of aerosol-generating substrate and abutting an upstream end of the rod of aerosol-generating substrate , wherein an upstream end of the upstream element defines an upstream end of the aerosol-generating article , the upstream element having a length from 3 millimetres to 7 millimetres; and a ventilation zone at a location along the hollow tubular element , the ventilation zone configured to enable ingress of ambient air into a lumen of the hollow tubular element , wherein a distance between the ventilation zone and the upstream end of the upstream element is from 26 millimetres to 33 millimetres.
A clothes dryer , comprising: a drum to accommodate clothes; an air suction line to suck air into the drum; an air exhaust line to exhaust air from the drum; a heat pump circuit including a compressor , a radiator , a pressure reducer , and a heat absorber , whereby the heat absorber is provided in the air exhaust line , and the radiator is provided in the air suction line ; a first blowing mechanism is provided in the air exhaust line ; a second blowing mechanism is provided in the air suction line ; characterized in that the clothes dryer further comprises at least one of a drum pressure measurer to measure an internal pressure of the drum , a refrigerant temperature measurer to measure a refrigerant temperature of the heat absorber , and a refrigerant pressure measurer to measure a refrigerant pressure of the radiator , and a controller to control the first and second blowing mechanisms , wherein the controller controls an air blowing rate of the second blowing mechanism , based on at least one of an internal pressure of the drum , a refrigerant temperature of the heat absorber , and a refrigerant pressure of the radiator .
A cooling system (60; 124) for cooling a rotary electric machine (MG1, MG2) of a vehicle (10; 120), said cooling system (60; 124) comprising: a first pump (P1) which is to be mechanically driven accompanying with running of the vehicle (10; 120), to supply lubricant to the rotary electric machine (MG1, MG2); and a second pump (P2) which is to be driven by a second drive source (20; 122) that is other than a first drive source of said first pump (P1), to supply the lubricant to the rotary electric machine (MG1, MG2), wherein said first pump (P1) is configured to supply the lubricant, through a first passage , to an inside of a rotary shaft of a rotor core of the rotary electric machine (MG1, MG2), and said second pump (P2) is configured to supply the lubricant, through a second passage , to a coil of a stator of the rotary electric machine (MG1, MG2). a first pump (P1) which is to be mechanically driven accompanying with running of the vehicle (10; 120), to supply lubricant to the rotary electric machine (MG1, MG2); and a second pump (P2) which is to be driven by a second drive source (20; 122) that is other than a first drive source of said first pump (P1), to supply the lubricant to the rotary electric machine (MG1, MG2), wherein said first pump (P1) is configured to supply the lubricant, through a first passage , to an inside of a rotary shaft of a rotor core of the rotary electric machine (MG1, MG2), and said second pump (P2) is configured to supply the lubricant, through a second passage , to a coil of a stator of the rotary electric machine (MG1, MG2).
A packaged integrated device , comprising: a cavity ; a package body comprising a base and at least one side wall extending non-parallel from the base, the base and the at least one side wall being disposed at least partially around the cavity; an integrated device die mounted to the base within the cavity of the package body; a radiating element disposed along one side wall of the at least one side wall of the package body, wherein the radiating element comprises a portion parallel with the one side wall and a curved portion extending outwardly from the portion parallel to the one side wall; and a grounded element disposed along the one side wall of the package body, wherein the grounded element is positioned between the radiating element and the integrated device die. a cavity ; a package body comprising a base and at least one side wall extending non-parallel from the base, the base and the at least one side wall being disposed at least partially around the cavity; an integrated device die mounted to the base within the cavity of the package body; a radiating element disposed along one side wall of the at least one side wall of the package body, wherein the radiating element comprises a portion parallel with the one side wall and a curved portion extending outwardly from the portion parallel to the one side wall; and a grounded element disposed along the one side wall of the package body, wherein the grounded element is positioned between the radiating element and the integrated device die.
A variable pitch propeller comprising a transfer tube , characterised in that : the transfer tube comprises a single piece having at least one channel formed therein for transferring hydraulic fluid; and the transfer tube is an additively manufactured transfer tube integrally formed as one piece. the transfer tube comprises a single piece having at least one channel formed therein for transferring hydraulic fluid; and the transfer tube is an additively manufactured transfer tube integrally formed as one piece.
A method for the manufacture of a coated steel substrate, comprising the successive following steps: A. The provision of a steel substrate has the following compositions in weight percent: 0.31 ≤ C ≤ 1.2 % , 0.1 ≤ Si ≤ 1.7 % , 0.15 ≤ Mn ≤ 3.0 % , P ≤ 0.01 % , S ≤ 0.1 % , Cr ≤ 1.0 % , Ni ≤ 1.0 % , Mo ≤ 0.1 % , and on a purely optional basis, one or more elements such as Nb ≤ 0.05 % , B ≤ 0.003 % , Ti ≤ 0.06 % , Cu ≤ 0.1 % , Co ≤ 0.1 % , N ≤ 0.01 % , V ≤ 0.05 % , the remainder of the composition being made of iron and inevitable impurities resulting from the elaboration, B. The coating deposition using an aqueous mixture comprising from 1 to 60g/L of nanographite flakes having a lateral size between 1 and 60μm and from 150 to 250g/L of a binder consisting of sodium silicate or a binder consisting of aluminum sulfate and an additive being alumina to form a coating having a thickness comprised between 10 and 250μm, C. Optionally, the drying of the coated steel substrate obtained in step B). A. The provision of a steel substrate has the following compositions in weight percent: 0.31 ≤ C ≤ 1.2 % , 0.1 ≤ Si ≤ 1.7 % , 0.15 ≤ Mn ≤ 3.0 % , P ≤ 0.01 % , S ≤ 0.1 % , Cr ≤ 1.0 % , Ni ≤ 1.0 % , Mo ≤ 0.1 % , and on a purely optional basis, one or more elements such as Nb ≤ 0.05 % , B ≤ 0.003 % , Ti ≤ 0.06 % , Cu ≤ 0.1 % , Co ≤ 0.1 % , N ≤ 0.01 % , V ≤ 0.05 % , the remainder of the composition being made of iron and inevitable impurities resulting from the elaboration, B. The coating deposition using an aqueous mixture comprising from 1 to 60g/L of nanographite flakes having a lateral size between 1 and 60μm and from 150 to 250g/L of a binder consisting of sodium silicate or a binder consisting of aluminum sulfate and an additive being alumina to form a coating having a thickness comprised between 10 and 250μm, C. Optionally, the drying of the coated steel substrate obtained in step B).
Relay valve module for an electronically controllable pneumatic brake system for actuating wheel brakes of a commercial vehicle , comprising a supply connection for receiving a supply pressure (pV); a brake control pressure connection for receiving a brake control pressure (pBS); at least one first service brake connection for controlling a service brake pressure (pB); a relay valve having a relay valve supply connection (10.1) connected to the supply connection , a relay valve working connection (10.2) connected to the first service brake connection , a relay valve vent connection (10.3), and a relay valve control connection (10.4); an electropneumatic pilot control unit connected to the supply connection for providing a pilot control pressure (pVS); characterized in that the pilot control unit comprises an electrically switchable inlet valve and an electrically switchable outlet valve , and a shuttle valve having a first shuttle valve inlet (20.1), a second shuttle valve inlet (20.2) and a shuttle valve outlet (20.3); the first shuttle valve inlet (20.1) being connected to the brake control pressure connection for receiving the brake control pressure (pBS), the second shuttle valve inlet (20.2) being connected to the pilot control unit for receiving the pilot control pressure (pVS), and the shuttle valve outlet (20.3) being connected to the relay valve control connection (10.4) for controlling the higher of the brake control pressure (pBS) or the pilot control pressure (pVS) at the relay valve control connection (10.4). a supply connection for receiving a supply pressure (pV); a brake control pressure connection for receiving a brake control pressure (pBS); at least one first service brake connection for controlling a service brake pressure (pB); a relay valve having a relay valve supply connection (10.1) connected to the supply connection , a relay valve working connection (10.2) connected to the first service brake connection , a relay valve vent connection (10.3), and a relay valve control connection (10.4); an electropneumatic pilot control unit connected to the supply connection for providing a pilot control pressure (pVS); characterized in that the pilot control unit comprises an electrically switchable inlet valve and an electrically switchable outlet valve , and a shuttle valve having a first shuttle valve inlet (20.1), a second shuttle valve inlet (20.2) and a shuttle valve outlet (20.3); the first shuttle valve inlet (20.1) being connected to the brake control pressure connection for receiving the brake control pressure (pBS), the second shuttle valve inlet (20.2) being connected to the pilot control unit for receiving the pilot control pressure (pVS), and the shuttle valve outlet (20.3) being connected to the relay valve control connection (10.4) for controlling the higher of the brake control pressure (pBS) or the pilot control pressure (pVS) at the relay valve control connection (10.4).
Filler neck for filling a fuel into a vehicle tank, comprising a closure flap which is mounted in the filler neck so as to be pivotable between a closed position closing the filler neck and an open position releasing the filler neck and which is prestressed into the closed position by means of spring prestressing and is pivotable into the open position from the closed position by a fuel pump nozzle being hooked into a hooking-in position in the filler neck, and comprising a liquid outlet opening through which liquid accumulating in the filler neck when the closure flap is closed can drain out of the filler neck, wherein a closure element is provided which is prestressed into an open position releasing the liquid outlet opening , wherein the closure element is arranged and designed in such a manner that, by the fuel pump nozzle being hooked into the hooking-in position, said closure element is moved counter to the prestressing into a closure position closing the liquid outlet opening , characterised the closure element comprises a closure body and at least one holding arm held in a receiving groove of the filler neck.
Hull system equipped with a hull , the hull delimiting a casing , the hull system comprising a rotor arranged in the hull and rotationally mobile about a drive axis (AXROT) with respect to the hull , the rotor comprising several blades supported by a hub , the blades and the hub being jointly rotationally mobile about the rotating drive axis (AXROT), each blade having a degree of freedom in rotation with respect to the hub about a pitch axis (AXPAS), which is inherent to same, each blade having a streamlined running surface and a root , said hull system comprising a collective device for modifying the pitch of the blades, the collective device for modifying the pitch of the blades having a control plate , jointly rotationally mobile with the hub about the rotating drive axis (AXROT) and mobile in translation with respect to the hub along the drive axis (AXROT), the hull system including for each blade a mechanical connection , each mechanical connection comprising a tab integral with the control plate and a pitch lever of the root of a blade , the mechanical connection of at least one of the blades being different from the mechanical connection of at least one other of the blades, characterised in that each mechanical connection comprises a swivel joint connecting the tab to the pitch lever , each pitch lever comprising an orifice with a said swivel joint passing through it, a radial distance radially separating each orifice and the pitch axis (AXPAS) from the blade equipped with this orifice , the mechanical connection of at least one of the blades being different from the mechanical connection of at least one other of the blades in that at least one pitch lever has a radial distance (D21) different from a radial distance (D22) of another pitch lever .
Method for casting an aluminium alloy ingot in a substantially rectangular ingot mould comprising the following steps: - preparing the aluminium alloy; - casting the aluminium alloy in the ingot mould, along a vertical casting axis, the alloy being cooled, during the casting, by a runoff of a coolant in contact with the solidified metal; - during the casting, application of a magnetic field of which the amplitude (B 0 ) is periodically varied according to a frequency ( f ), said magnetic field being generated by at least one magnetic field generator arranged at the periphery of the ingot mould, in such a way as to apply a Lorentz force (F) at different points of a liquid portion of the alloy in the process of solidification; - the magnetic field applied being a traveling magnetic field, propagating along an axis of propagation, in such a way that a maximum amplitude B 0 max of the magnetic field propagates along said axis of propagation, defining a propagation wavelength (λ), said traveling magnetic field driving a propagation, along said axis of propagation, a Lorentz force of maximum intensity ( F max ); the method being characterised in that a magnetic parameter referred to as a force parameter, governing the Lorentz force of maximum intensity ( F max ), is variable in a predetermined time interval (Δt), said parameter being: ▪ said maximum amplitude B 0 max of the magnetic field; ▪ and/or said frequency ( f ) of the magnetic field; ▪ and/or the propagation wavelength (λ) of the magnetic field; in such a way as to obtain a modulation, in said time interval, of said Lorentz force of maximum intensity ( F max ) propagating along the axis of propagation. - preparing the aluminium alloy; - casting the aluminium alloy in the ingot mould, along a vertical casting axis, the alloy being cooled, during the casting, by a runoff of a coolant in contact with the solidified metal; - during the casting, application of a magnetic field of which the amplitude (B 0 ) is periodically varied according to a frequency ( f ), said magnetic field being generated by at least one magnetic field generator arranged at the periphery of the ingot mould, in such a way as to apply a Lorentz force (F) at different points of a liquid portion of the alloy in the process of solidification; - the magnetic field applied being a traveling magnetic field, propagating along an axis of propagation, in such a way that a maximum amplitude B 0 max of the magnetic field propagates along said axis of propagation, defining a propagation wavelength (λ), said traveling magnetic field driving a propagation, along said axis of propagation, a Lorentz force of maximum intensity ( F max ); ▪ said maximum amplitude B 0 max of the magnetic field; ▪ and/or said frequency ( f ) of the magnetic field; ▪ and/or the propagation wavelength (λ) of the magnetic field;