mhurhangee/patent-ind-claim-en huggingface dataset:
A supply system (S) with fuel (C) for a combustion chamber in an aircraft turboshaft engine , said supply system (S) comprising: - a plurality of injectors configured to inject fuel (C) into the combustion chamber , each injector being in the form of a three-stage injector comprising a first pilot stage , a second pilot stage and a main stage , the first pilot stage and the second pilot stage respectively comprising a first pilot valve and a second pilot valve each configured to circulate a permanent flow rate of fuel (C), the main stage comprising a main valve configured to circulate an intermittent flow rate of fuel (C), so as to adapt supply to the combustion chamber according to the speed of the aircraft turboshaft engine , - a distribution device for distributing the fuel (C) in the injectors being in the form of a dual-circuit distribution device comprising a primary circuit and a secondary circuit , the primary circuit being connected to the first pilot stage and the main stage , the secondary circuit being connected to the second pilot stage , the distribution device comprising a distribution valve configured to distribute the fuel (C) between the primary circuit and the secondary circuit , and - a member for controlling the distribution valve according to the speed of the aircraft turboshaft engine . - a plurality of injectors configured to inject fuel (C) into the combustion chamber , each injector being in the form of a three-stage injector comprising a first pilot stage , a second pilot stage and a main stage , the first pilot stage and the second pilot stage respectively comprising a first pilot valve and a second pilot valve each configured to circulate a permanent flow rate of fuel (C), the main stage comprising a main valve configured to circulate an intermittent flow rate of fuel (C), so as to adapt supply to the combustion chamber according to the speed of the aircraft turboshaft engine , - a distribution device for distributing the fuel (C) in the injectors being in the form of a dual-circuit distribution device comprising a primary circuit and a secondary circuit , the primary circuit being connected to the first pilot stage and the main stage , the secondary circuit being connected to the second pilot stage , the distribution device comprising a distribution valve configured to distribute the fuel (C) between the primary circuit and the secondary circuit , and - a member for controlling the distribution valve according to the speed of the aircraft turboshaft engine .
A method of producing a battery that includes: an electrode body including a current collector ; a side face member including a terminal and disposed at a side face of the electrode body, the side face member having a joining face that is ultrasonically joined to the current collector , and a pair of side faces adjacent to the joining face ; and resin layers disposed at surfaces of the pair of side faces of the side face member , the method comprising a joining step of ultrasonically joining the current collector to the joining face of the side face member , wherein the joining step includes performing ultrasonic joining while grasping, via the resin layers , the pair of side faces of the side face member by a pair of clamps , characterised in that said pair of clamps has a plurality of projections , and the grasping is carried out such that the projections of the clamps penetrate through the resin layers and contact the pair of side faces . an electrode body including a current collector ; a side face member including a terminal and disposed at a side face of the electrode body, the side face member having a joining face that is ultrasonically joined to the current collector , and a pair of side faces adjacent to the joining face ; and resin layers disposed at surfaces of the pair of side faces of the side face member , the method comprising a joining step of ultrasonically joining the current collector to the joining face of the side face member , wherein the joining step includes performing ultrasonic joining while grasping, via the resin layers , the pair of side faces of the side face member by a pair of clamps , characterised in that said pair of clamps has a plurality of projections , and the grasping is carried out such that the projections of the clamps penetrate through the resin layers and contact the pair of side faces .
A control system flexibly adapted for retrofit use with multiple types of pre-existing boiler-based heating systems, the control system comprising: a boiler control device for coupling to a boiler ; a thermostat device having a processor and a memory and being in wireless communication with the boiler control device ; and a user-movable stand for holding the thermostat device , wherein the thermostat device is configured to: learn a heating schedule according to an automated schedule learning algorithm that processes inputs including user inputs and occupancy sensing inputs and derives schedule-affecting parameters therefrom that are processed to compute the heating schedule; determine whether the thermostat has been moved to a new location and to determine one or more parameters associated with the new location; and establish a new heating schedule for the new location, wherein zero or more of said previously measured schedule-affecting parameters are re-used based on the one or more parameters associated with the new location. a boiler control device for coupling to a boiler ; a thermostat device having a processor and a memory and being in wireless communication with the boiler control device ; and a user-movable stand for holding the thermostat device , wherein the thermostat device is configured to: learn a heating schedule according to an automated schedule learning algorithm that processes inputs including user inputs and occupancy sensing inputs and derives schedule-affecting parameters therefrom that are processed to compute the heating schedule; determine whether the thermostat has been moved to a new location and to determine one or more parameters associated with the new location; and establish a new heating schedule for the new location, wherein zero or more of said previously measured schedule-affecting parameters are re-used based on the one or more parameters associated with the new location. learn a heating schedule according to an automated schedule learning algorithm that processes inputs including user inputs and occupancy sensing inputs and derives schedule-affecting parameters therefrom that are processed to compute the heating schedule; determine whether the thermostat has been moved to a new location and to determine one or more parameters associated with the new location; and establish a new heating schedule for the new location, wherein zero or more of said previously measured schedule-affecting parameters are re-used based on the one or more parameters associated with the new location.
A process for preparing prepolymers for the production of plastics, wherein one or more monomer or oligomer compounds are subjected to a polycondensation reaction, which is characterized in that the prepolymer has a polyamide-type bonding structure and the polycondensation reaction is carried out in a single phase aqueous solution, which is homogeneously miscible with water, with the addition of one or more enzymes catalyzing the polymerization reaction, said single phase, homogeneously with water miscible aqueous solution being free of other non-polar solvent components, which are suitable to form a non-polar phase in the aqueous reaction medium.
A method of discovering an application server, AS, for an application serving a user equipment, UE, by a session management function, SMF, the method comprising: receiving , from a policy control function, PCF, a policy and charging control, PCC, rule based on an application function, AF, request to influence application traffic; sending , to the AF, according to an AF subscription in the PCC rule, a notification message comprising a target data network access identifier, DNAI; receiving , from the AF, a response message comprising a target AS internet protocol, IP, address corresponding to the target DNAI; and sending , to the UE, an AS change notification message including the target AS IP address. receiving , from a policy control function, PCF, a policy and charging control, PCC, rule based on an application function, AF, request to influence application traffic; sending , to the AF, according to an AF subscription in the PCC rule, a notification message comprising a target data network access identifier, DNAI; receiving , from the AF, a response message comprising a target AS internet protocol, IP, address corresponding to the target DNAI; and sending , to the UE, an AS change notification message including the target AS IP address.
A wearable device for acquiring physiological information of a subject, said device comprising: - an optical emitter for emitting light into the subject's skin, - an optical sensor for receiving light scattered back from the subject's skin in response to the emission of light into the subject's skin, the received light representing or allowing the derivation of physiological information of the subject, - a carrier for being held at the subject's skin and for carrying said emitter and said sensor such that a light receiving area , at which the emitted light enters the subject's skin, substantially corresponds to a light reflecting area , at which at least part of the scattered light leaves the subject's skin and is received by said optical sensor , wherein the optical emitter is arranged between the optical sensor and the light reflecting area and is at least partially transparent for the light reflected from the light reflecting area, and wherein said optical emitter comprises - an illumination layer arranged between the optical sensor and the light reflecting area and - one or more emitter elements arranged outside the light path between the reflecting area and the optical sensor such that emitted light is coupled into the illumination layer , wherein said illumination layer is configured to use the emitted light coupled into the illumination layer to illuminate the light receiving area and to transmit light reflected from the reflecting area to the optical sensor . - an optical emitter for emitting light into the subject's skin, - an optical sensor for receiving light scattered back from the subject's skin in response to the emission of light into the subject's skin, the received light representing or allowing the derivation of physiological information of the subject, - a carrier for being held at the subject's skin and for carrying said emitter and said sensor such that a light receiving area , at which the emitted light enters the subject's skin, substantially corresponds to a light reflecting area , at which at least part of the scattered light leaves the subject's skin and is received by said optical sensor , - an illumination layer arranged between the optical sensor and the light reflecting area and - one or more emitter elements arranged outside the light path between the reflecting area and the optical sensor such that emitted light is coupled into the illumination layer ,
A diesel fuel composition for powering a combustion engine, the composition comprising a diesel base fuel; and a copolymer obtainable by copolymerizing at least the following monomers: • one or more bicyclic (meth)acrylate esters (a) • styrene (b), • optionally other ethylenically unsaturated monomers that are not monomer (a) or (b); wherein the copolymer is polymerized from: • 82 to 99.95 wt% of the bicyclic (meth)acrylate ester (a) ; • 0.05 to 12 wt% of styrene (b); and • 0 to 15 wt% of ethylenically unsaturated monomers not being a monomer (a) or (b), up to a total of 100 wt%, wherein the weight percentages of the monomer are based on the total weight of all of the monomers, wherein the copolymer comprises a total of bicyclic (meth)acrylate ester and styrene in an amount of 95 wt% or more, and wherein the amount of copolymer present in the fuel composition is in the range of from 10 ppm to 3000 ppm, by weight of the fuel composition. • one or more bicyclic (meth)acrylate esters (a) • styrene (b), • optionally other ethylenically unsaturated monomers that are not monomer (a) or (b); wherein the copolymer is polymerized from: • 82 to 99.95 wt% of the bicyclic (meth)acrylate ester (a) ; • 0.05 to 12 wt% of styrene (b); and • 0 to 15 wt% of ethylenically unsaturated monomers not being a monomer (a) or (b), • 82 to 99.95 wt% of the bicyclic (meth)acrylate ester (a) ; • 0.05 to 12 wt% of styrene (b); and • 0 to 15 wt% of ethylenically unsaturated monomers not being a monomer (a) or (b), up to a total of 100 wt%, wherein the weight percentages of the monomer are based on the total weight of all of the monomers, wherein the copolymer comprises a total of bicyclic (meth)acrylate ester and styrene in an amount of 95 wt% or more, and wherein the amount of copolymer present in the fuel composition is in the range of from 10 ppm to 3000 ppm, by weight of the fuel composition.
A radio communication system including a base station and a mobile communication terminal , the base station comprising: a radio communication unit configured to establish communication with a mobile communication terminal using a plurality of component carriers; a determination unit configured to determine a handover factor specifying an urgency level for handover to another base station, the urgency level depending on a moving speed or a communication quality of the mobile communication terminal ; and a control unit configured to allocate to the mobile communication terminal a measurement time interval for at least one component carrier from the plurality of component carriers according to the handover factor, wherein a channel quality of the at least one component carrier of another base station is measured during the measurement time interval, wherein the urgency level is low upon determination that the moving speed of the mobile communication terminal is below a speed threshold and the communication quality is above a communication threshold, and at least one component carrier from the plurality of component carriers is not allocated the measurement time interval upon determination that the urgency level is low. a radio communication unit configured to establish communication with a mobile communication terminal using a plurality of component carriers; a determination unit configured to determine a handover factor specifying an urgency level for handover to another base station, the urgency level depending on a moving speed or a communication quality of the mobile communication terminal ; and a control unit configured to allocate to the mobile communication terminal a measurement time interval for at least one component carrier from the plurality of component carriers according to the handover factor, wherein a channel quality of the at least one component carrier of another base station is measured during the measurement time interval, wherein the urgency level is low upon determination that the moving speed of the mobile communication terminal is below a speed threshold and the communication quality is above a communication threshold, and at least one component carrier from the plurality of component carriers is not allocated the measurement time interval upon determination that the urgency level is low.
Vibration filter mechanism , which is intended to be arranged at the interface between a fuselage of an aircraft and an equipment item of the aircraft, the filter mechanism comprising a pair of filter members and , which are each fixedly joined, on the one hand, to a first structure , which is intended to be connected to the fuselage and, on the other hand, to a second structure of the equipment item , respectively, each filter member and being fixedly joined in accordance with a first connection of the pivot type with a degree of rotational freedom to the first structure and in accordance with a second connection of the pivot type with a degree of rotational freedom to the second structure , the filter mechanism comprising resilient return means , which are capable of becoming deformed during a relative rotational movement of at least one of the filter members and in relation to the first structure , the resilient return means having a predetermined rigidity, which is capable of generating a return force, which acts counter to the relative rotational movement of the at least one of the filter members and in relation to the first structure , characterised in that the filter members and form with the resilient return means a resiliently deformable monolithic assembly .
An expanding connection device comprising a main body and expansion means combined with said main body, wherein the main body comprises at least two grooves and wherein said expansion means are placed inside said main body and are apt to cause an expansion of a portion of the main body at least in a radial direction (R), wherein said expansion means are placed in the main body in a non-removable manner and wherein said main body is made of a single piece and comprises a first end in which a first passage having a continuous peripheral profile which defines an opening smaller than the external section of the expansion means is formed, so that said expansion means cannot pass through said first passage either entering or exiting the main body .
A method of processing a wafer having a first side and a second side opposite to one another, for manufacturing an oscillating structure , the method comprising the steps of: forming a first and a second elastic torsional element , which are constrained to respective portions of a fixed supporting body and define an axis of rotation (O); forming, at the first side of said wafer , a mechanical reinforcement structure ; forming, at the mechanical reinforcement structure , a mobile element that is interposed between, and connected to, said first and second elastic torsional elements , the mobile element being rotatable about the axis of rotation (O) as a consequence of a torsion of the first and second deformable elements; processing the second side of said wafer , including carrying out, at the second side of the wafer , one or more of the following operations: chemical etching, deposition of metal material, deposition of piezoelectric material, wherein the step of processing the second side of the wafer is carried out after the step of processing the first side of the wafer , characterized in that forming the mechanical reinforcement structure comprises the steps of: growing, on the first side of the wafer , a reinforcement layer ; and patterning said reinforcement layer by removing selective portions of the reinforcement layer . forming a first and a second elastic torsional element , which are constrained to respective portions of a fixed supporting body and define an axis of rotation (O); forming, at the first side of said wafer , a mechanical reinforcement structure ; forming, at the mechanical reinforcement structure , a mobile element that is interposed between, and connected to, said first and second elastic torsional elements , the mobile element being rotatable about the axis of rotation (O) as a consequence of a torsion of the first and second deformable elements; processing the second side of said wafer , including carrying out, at the second side of the wafer , one or more of the following operations: chemical etching, deposition of metal material, deposition of piezoelectric material, wherein the step of processing the second side of the wafer is carried out after the step of processing the first side of the wafer , characterized in that forming the mechanical reinforcement structure comprises the steps of: growing, on the first side of the wafer , a reinforcement layer ; and patterning said reinforcement layer by removing selective portions of the reinforcement layer . growing, on the first side of the wafer , a reinforcement layer ; and patterning said reinforcement layer by removing selective portions of the reinforcement layer .
Moulding device for a machine for manufacturing thermoplastic containers from a preform, the said moulding device comprising at least: - two mould carriers mounted with the ability to move relative to one another about an axis of rotation between an open position and a closed position, - a mould comprising at least two half-moulds each of which comprises at least two parts, these respectively being a shell carrier mounted in one of the mould carriers and a shell comprising an impression for moulding the container, and - fixing means for removably fixing each shell to the associated shell carrier , the said fixing means being mounted with the ability to move between at least one fixing position and one freeing position and controlled selectively via on-board actuating means , characterized in that the moulding device of the "HR" type comprises heating means associated with the mould for heating at least the said shells and in that the said device comprises heat-protection means for protecting at least the said on-board actuating means from heat. - two mould carriers mounted with the ability to move relative to one another about an axis of rotation between an open position and a closed position, - a mould comprising at least two half-moulds each of which comprises at least two parts, these respectively being a shell carrier mounted in one of the mould carriers and a shell comprising an impression for moulding the container, and - fixing means for removably fixing each shell to the associated shell carrier , the said fixing means being mounted with the ability to move between at least one fixing position and one freeing position and controlled selectively via on-board actuating means ,
A recliner handle with an overload protection device (10; 10') for a vehicle seat having a recliner fixedly coupled to a recliner B-bracket , comprising: a handle spline (166; 166') fixedly coupled to the recliner handle and having a disc shaft aperture configured to engage with a disc shaft operatively coupled to the recliner ; an overload stop fixedly coupled to the recliner B-bracket ; and a stop flange attached to the handle spline (166; 166') and configured to frictionally engage with the overload stop ; wherein the handle spline (166; 166') is rotatable in a first rotational direction (A) between a first position wherein the stop flange is frictionally engaged with the overload stop and the disc shaft aperture is disengaged from the disc shaft and a second position wherein the disc shaft aperture engages with the disc shaft ; wherein rotation of the handle spline (166; 166') in a second rotational direction (B) from the first position is restricted by the stop flange frictionally engaged with the overload stop ; and wherein the first rotational direction (A) being different than the second rotational direction (B). a handle spline (166; 166') fixedly coupled to the recliner handle and having a disc shaft aperture configured to engage with a disc shaft operatively coupled to the recliner ; an overload stop fixedly coupled to the recliner B-bracket ; and a stop flange attached to the handle spline (166; 166') and configured to frictionally engage with the overload stop ; wherein the handle spline (166; 166') is rotatable in a first rotational direction (A) between a first position wherein the stop flange is frictionally engaged with the overload stop and the disc shaft aperture is disengaged from the disc shaft and a second position wherein the disc shaft aperture engages with the disc shaft ; wherein rotation of the handle spline (166; 166') in a second rotational direction (B) from the first position is restricted by the stop flange frictionally engaged with the overload stop ; and wherein the first rotational direction (A) being different than the second rotational direction (B).