mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing an electrode for a secondary battery, the method comprising: a step of forming a lower mixture layer including active material particles having a second particle size range and active material particles having a third particle size range on one or both sides of a current collector layer; a step of forming an upper mixture layer including active material particles having a first particle diameter range and active material particles having the third particle diameter range on the lower mixture layer; and a step of rolling the electrode on which the lower and upper mixture layers are applied, wherein following conditions 1 and 2 are satisfied: D 1 > D 2 > D 3 D 1 − D 3 ≥ 5 μm wherein in the conditions 1 and 2, D1 is an average particle diameter of the active material particles having the first particle diameter range, D2 is an average particle diameter of the active material particles having the second particle diameter range, and D3 is an average particle diameter of the active material particles having the third particle diameter range. a step of forming a lower mixture layer including active material particles having a second particle size range and active material particles having a third particle size range on one or both sides of a current collector layer; a step of forming an upper mixture layer including active material particles having a first particle diameter range and active material particles having the third particle diameter range on the lower mixture layer; and a step of rolling the electrode on which the lower and upper mixture layers are applied, wherein following conditions 1 and 2 are satisfied: D 1 > D 2 > D 3 D 1 − D 3 ≥ 5 μm wherein in the conditions 1 and 2, D1 is an average particle diameter of the active material particles having the first particle diameter range, D2 is an average particle diameter of the active material particles having the second particle diameter range, and D3 is an average particle diameter of the active material particles having the third particle diameter range. D1 is an average particle diameter of the active material particles having the first particle diameter range, D2 is an average particle diameter of the active material particles having the second particle diameter range, and D3 is an average particle diameter of the active material particles having the third particle diameter range.
Timepiece component with a flexible pivot comprising a fixing part , a mobile part and first and second elastic strips connecting the fixing part and the mobile part , the first and second elastic strips extending in respective parallel planes and crossing without contact to define a virtual axis of rotation (A) of the mobile part with respect to the fixing part , characterised in that at least one of the first and second elastic strips has a stiffness which varies in a strictly monotonic manner over at least a continuous portion of the strip representing 25% of the length of the strip.
A data reception process comprising: receiving a plurality of data frames from an external network via a network interface , and transferring each of the data frames from the network interface to a receive buffer allocated within memory of a host computing system via an internal system bus, the network interface autonomously allocating a location in the receive buffer for the data frames without intervention from the host computing system and transferring each of the received data frames from the network interface to the receive buffer using an open-loop write protocol that writes data frames to the receive buffer without receiving confirmation that data in the receive buffer has been processed; and writing the received data frames successively to a continuous memory range within the receive buffer . receiving a plurality of data frames from an external network via a network interface , and transferring each of the data frames from the network interface to a receive buffer allocated within memory of a host computing system via an internal system bus, the network interface autonomously allocating a location in the receive buffer for the data frames without intervention from the host computing system and transferring each of the received data frames from the network interface to the receive buffer using an open-loop write protocol that writes data frames to the receive buffer without receiving confirmation that data in the receive buffer has been processed; and writing the received data frames successively to a continuous memory range within the receive buffer .
A communication processing method for a Slave evolved NodeB SeNB, which constitutes a dual-connection radio communication network with a Master evolved NodeB MeNB, comprising: a first determination step of determining information about currently available service resources for distribution, in accordance with a resource condition (S400); an admission control step of performing service admission processing on one or more first services in accordance with the information about the service resources (S402); and a transmission step of transmitting service admission information indicating a service admission processing result to the MeNB (S404), wherein the one or more first service is a service which is requested by the MeNB to be distributed to the SeNB, and the communication processing method further comprises a reception step of receiving from the MeNB a resource request message carrying service attribute information about the one or more first services, or the one or more first services are one or more services that have been currently distributed to the SeNB, and the communication processing method further comprises a second determination step of determining service attribute information about the one or more first services, characterised in that the service admission information comprises first information indicating the services in the one or more first services capable of being admitted by the SeNB and/or second information indicating services in the one or more first services incapable of being admitted by the SeNB in the case that the SeNB is capable of merely admitting parts of the one or more first services. a first determination step of determining information about currently available service resources for distribution, in accordance with a resource condition (S400); an admission control step of performing service admission processing on one or more first services in accordance with the information about the service resources (S402); and a transmission step of transmitting service admission information indicating a service admission processing result to the MeNB (S404), wherein the one or more first service is a service which is requested by the MeNB to be distributed to the SeNB, and the communication processing method further comprises a reception step of receiving from the MeNB a resource request message carrying service attribute information about the one or more first services, or the one or more first services are one or more services that have been currently distributed to the SeNB, and the communication processing method further comprises a second determination step of determining service attribute information about the one or more first services, characterised in that the service admission information comprises first information indicating the services in the one or more first services capable of being admitted by the SeNB and/or second information indicating services in the one or more first services incapable of being admitted by the SeNB in the case that the SeNB is capable of merely admitting parts of the one or more first services.
A light emitter device component comprising: a metallic substrate having a top surface; a reflective surface on at least a portion of the top surface of the metallic substrate ; one or more light emitter devices mounted on the top surface of the metallic substrate or the reflective surface ; one or more electrical components over the top surface of the metallic substrate and electrically coupled to the one or more light emitter devices by one or more wire bonds (WB) connected between the one or more electrical components and the one or more light emitter devices , wherein the one or more electrical components are spaced from the metallic substrate by a plurality of non-metallic layers ; a retention material disposed at least partially about an emission area in which the one or more light emitter devices is positioned as a dam, wherein the retention material covers the one or more wire bonds (WB) at an attachment point between the one or more wire bonds (WB) and the one or more electrical components , and an encapsulant (E1, E2) covering the one or more light emitter devices and contained within the dam formed by the retention material . a metallic substrate having a top surface; a reflective surface on at least a portion of the top surface of the metallic substrate ; one or more light emitter devices mounted on the top surface of the metallic substrate or the reflective surface ; one or more electrical components over the top surface of the metallic substrate and electrically coupled to the one or more light emitter devices by one or more wire bonds (WB) connected between the one or more electrical components and the one or more light emitter devices , wherein the one or more electrical components are spaced from the metallic substrate by a plurality of non-metallic layers ; a retention material disposed at least partially about an emission area in which the one or more light emitter devices is positioned as a dam, wherein the retention material covers the one or more wire bonds (WB) at an attachment point between the one or more wire bonds (WB) and the one or more electrical components , and an encapsulant (E1, E2) covering the one or more light emitter devices and contained within the dam formed by the retention material .
Vehicle having an airbag apparatus, the airbag apparatus comprising: a mounting board positioned in front of a rider sitting on a seat , wherein the mounting board is installed to be expanded from a door of the vehicle toward a front of the rider or wherein the mounting board is installed to be expanded from each seat provided in the vehicle toward a side of the rider, and performs an armrest function or wherein the mounting board is installed to be expanded from each seat provided in the vehicle toward a front and a side of the rider, and performs an armrest function and a holder function; and an airbag module installed on the mounting board , and configured to inflate and expand an airbag cushion toward the rider when the vehicle collides, and to restrain and protect the rider, wherein the vehicle comprises a frontal airbag and the airbag cushion is inflated and expanded between the frontal airbag and the rider. a mounting board positioned in front of a rider sitting on a seat , wherein the mounting board is installed to be expanded from a door of the vehicle toward a front of the rider or wherein the mounting board is installed to be expanded from each seat provided in the vehicle toward a side of the rider, and performs an armrest function or wherein the mounting board is installed to be expanded from each seat provided in the vehicle toward a front and a side of the rider, and performs an armrest function and a holder function; and an airbag module installed on the mounting board , and configured to inflate and expand an airbag cushion toward the rider when the vehicle collides, and to restrain and protect the rider, wherein the vehicle comprises a frontal airbag and the airbag cushion is inflated and expanded between the frontal airbag and the rider.
A method for producing liquefied natural gas (LNG), comprising: transporting a natural gas stream to a liquefaction vessel ; liquefying the natural gas stream on the liquefaction vessel using at least one heat exchanger that exchanges heat between the natural gas stream and a liquid nitrogen stream to at least partially vaporize the liquefied nitrogen stream , thereby forming a warmed nitrogen gas stream and an at least partially condensed natural gas stream comprising LNG; wherein the liquefaction vessel includes at least one tank that only stores liquid nitrogen and at least one tank that only stores LNG characterized in that the method comprises obtaining the natural gas stream from a floating production unit (FPU) vessel that produces natural gas from a reservoir and treats the produced natural gas to remove at least one of water, heavy hydrocarbons, and sour gases therefrom prior to transporting the natural gas stream to the liquefaction vessel ; transporting the warmed nitrogen gas stream to the FPU vessel ; and using the warmed nitrogen gas stream within a process on the FPU vessel . transporting a natural gas stream to a liquefaction vessel ; liquefying the natural gas stream on the liquefaction vessel using at least one heat exchanger that exchanges heat between the natural gas stream and a liquid nitrogen stream to at least partially vaporize the liquefied nitrogen stream , thereby forming a warmed nitrogen gas stream and an at least partially condensed natural gas stream comprising LNG; wherein the liquefaction vessel includes at least one tank that only stores liquid nitrogen and at least one tank that only stores LNG characterized in that the method comprises obtaining the natural gas stream from a floating production unit (FPU) vessel that produces natural gas from a reservoir and treats the produced natural gas to remove at least one of water, heavy hydrocarbons, and sour gases therefrom prior to transporting the natural gas stream to the liquefaction vessel ; transporting the warmed nitrogen gas stream to the FPU vessel ; and using the warmed nitrogen gas stream within a process on the FPU vessel .
A method for geo-location determination of entry by a mobile device to a predetermined geo-fenced region defined in at least two dimensions, the mobile device having a geo-location determination mechanism, the method comprising: identifying a first geo-location in at least two dimensions of the mobile device at a first time, the first geo-location determined using the geo-location determination mechanism and the first geo-location having a first related error of determination for each of the at least two dimensions of the first geo-location, wherein the first geo-location and the first related error are expressed in a predetermined measure; identifying a second geo-location in at least two dimensions of the mobile device at a second time, the second geo-location determined using the geo-location determination mechanism and the second geo-location having a second related error of determination for each of the at least two dimensions of the second geo-location, wherein the second geo-location and the second related error are expressed in the predetermined measure; determining a potential travel path travelled by the mobile device in at least two dimensions between the first geo-location and the second geo-location using the first related error and the second related error; determining whether the potential travel path intersects with the predetermined geo-fenced region; and determining, in response to the potential travel path intersecting the predetermined geo-fenced region by an amount that satisfies an intersection requirement, that the mobile device entered the predetermined geo-fenced region when traveling between the first geo-location and the second geo-location. identifying a first geo-location in at least two dimensions of the mobile device at a first time, the first geo-location determined using the geo-location determination mechanism and the first geo-location having a first related error of determination for each of the at least two dimensions of the first geo-location, wherein the first geo-location and the first related error are expressed in a predetermined measure; identifying a second geo-location in at least two dimensions of the mobile device at a second time, the second geo-location determined using the geo-location determination mechanism and the second geo-location having a second related error of determination for each of the at least two dimensions of the second geo-location, wherein the second geo-location and the second related error are expressed in the predetermined measure; determining a potential travel path travelled by the mobile device in at least two dimensions between the first geo-location and the second geo-location using the first related error and the second related error; determining whether the potential travel path intersects with the predetermined geo-fenced region; and determining, in response to the potential travel path intersecting the predetermined geo-fenced region by an amount that satisfies an intersection requirement, that the mobile device entered the predetermined geo-fenced region when traveling between the first geo-location and the second geo-location.
Rotating drum for the treatment of fibrous material, the rotation axis of said rotating drum in relation to the horizontal being inclined by at most 30°, having a sorting zone into which fibrous material mixed with water is fed and in which the drum is perforated, wherein a fine fraction flows through the perforation and a coarse fraction is rejected by said perforation, wherein a drying zone for drying the coarse fraction adjoins an end side of the sorting zone , characterized in that conveyor elements which transport water in the direction of the sorting zone are disposed on the interior wall of the drum in the drying zone , and/or a delimitation ring , scooping strips for returning water from the drying zone to the sorting zone being disposed thereon, is disposed between the sorting zone and the drying zone .
A welding detection device for an electromagnetic relay switch in which a movable iron core is arranged at one end of a drive shaft provided in a reciprocable manner in a center axis direction of an excitation coil while a movable contact is arranged at the other end of the drive shaft , the movable iron core and the movable contact being integrally reciprocable, the welding detection device for the electromagnetic relay switch comprising: a driver circuit configured to apply voltage to the excitation coil based on on and off states of a drive signal; and a welding detection circuit that is connected to the excitation coil in parallel to the driver circuit in order to detect welding of the movable contact , wherein a fixed resistor (R1) connected to the excitation coil is provided in the welding detection circuit , and the welding detection circuit comprises a determination circuit configured to determine whether the movable contact is welded based on a step input signal and a transient response signal when the drive signal is in the off state, the transient response signal being generated so as to correspond to voltage less than or equal to operating voltage of the electromagnetic relay switch according to the excitation coil and the fixed resistor. a driver circuit configured to apply voltage to the excitation coil based on on and off states of a drive signal; and a welding detection circuit that is connected to the excitation coil in parallel to the driver circuit in order to detect welding of the movable contact , wherein a fixed resistor (R1) connected to the excitation coil is provided in the welding detection circuit , and the welding detection circuit comprises a determination circuit configured to determine whether the movable contact is welded based on a step input signal and a transient response signal when the drive signal is in the off state, the transient response signal being generated so as to correspond to voltage less than or equal to operating voltage of the electromagnetic relay switch according to the excitation coil and the fixed resistor.
A process for separating microplastics from an aqueous matrix, the process comprising: a) providing an aqueous matrix comprising microplastics, b) providing a suspension of magnetic iron material particles in water, c) conducting the aqueous matrix of step a) through a Venturi device and contacting it with the suspension of magnetic material particles in water from step b) in the throat of the Venturi device to form microplastic/magnetic iron material particle aggregates, d) separating the free magnetic iron material particles and the microplastic/magnetic iron material particle aggregates from step c) by means of a magnetic filter. a) providing an aqueous matrix comprising microplastics, b) providing a suspension of magnetic iron material particles in water, c) conducting the aqueous matrix of step a) through a Venturi device and contacting it with the suspension of magnetic material particles in water from step b) in the throat of the Venturi device to form microplastic/magnetic iron material particle aggregates, d) separating the free magnetic iron material particles and the microplastic/magnetic iron material particle aggregates from step c) by means of a magnetic filter.
A hydrolysis apparatus for organic waste using a hydraulic crushing effect, comprising: a housing having an open top surface and an inner lodging space; a reaction tank being lodged in the inner lodging space of the housing and having an open top surface and an inner space for accommodating a defined liquid chemical "L"; a heating section connected to a bottom surface of the reaction tank and provided into the reaction tank ; and a driving means for moving the housing to put the housing in a linear reciprocating motion, wherein the heating section comprises: a case having an inner lodging space; at least one heating rod being lodged in the inner lodging space of the case to go all the way through the case horizontally and positioned to have both ends thereof projecting from both ends of the case ; and a fastening means having a flange , a sealing socket , and a fastening bolt to enable both ends of the heating rod projecting from both ends of the case to be fixed to the case , wherein the case has a plurality of projections on the top surface thereof, wherein each projections has a through hole going all the way through the bottom surface of the reaction tank . a housing having an open top surface and an inner lodging space; a reaction tank being lodged in the inner lodging space of the housing and having an open top surface and an inner space for accommodating a defined liquid chemical "L"; a heating section connected to a bottom surface of the reaction tank and provided into the reaction tank ; and a driving means for moving the housing to put the housing in a linear reciprocating motion, wherein the heating section comprises: a case having an inner lodging space; at least one heating rod being lodged in the inner lodging space of the case to go all the way through the case horizontally and positioned to have both ends thereof projecting from both ends of the case ; and a fastening means having a flange , a sealing socket , and a fastening bolt to enable both ends of the heating rod projecting from both ends of the case to be fixed to the case , wherein the case has a plurality of projections on the top surface thereof, wherein each projections has a through hole going all the way through the bottom surface of the reaction tank . a case having an inner lodging space; at least one heating rod being lodged in the inner lodging space of the case to go all the way through the case horizontally and positioned to have both ends thereof projecting from both ends of the case ; and a fastening means having a flange , a sealing socket , and a fastening bolt to enable both ends of the heating rod projecting from both ends of the case to be fixed to the case , wherein the case has a plurality of projections on the top surface thereof, wherein each projections has a through hole going all the way through the bottom surface of the reaction tank .