mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a location of an electronic device from a Global Navigation Satellite System, GNSS, or Global Positioning System, GPS, and an Inertial Navigation System, INS, wherein the INS comprises a plurality of sensors, comprising: receiving a satellite signal from the GNSS or the GPS; determining the location of the electronic device based on the satellite signal; determining a reliability of location information of the electronic device provided by the GNSS or the GPS using at least one of satellite information of the satellite signal and location information based on the determined location of the electronic device; determining an operational level of the INS using the reliability of the location information of the electronic device; and compensating the location of the electronic device by operating the INS according to the determined operational level of the INS, characterized in that a plurality of operational levels of the INS are defined by at least different patterns formed by turned on/off status of each of the sensors of the INS. receiving a satellite signal from the GNSS or the GPS; determining the location of the electronic device based on the satellite signal; determining a reliability of location information of the electronic device provided by the GNSS or the GPS using at least one of satellite information of the satellite signal and location information based on the determined location of the electronic device; determining an operational level of the INS using the reliability of the location information of the electronic device; and compensating the location of the electronic device by operating the INS according to the determined operational level of the INS, characterized in that a plurality of operational levels of the INS are defined by at least different patterns formed by turned on/off status of each of the sensors of the INS.
Generating unit, GU (1, 36), comprising: an asynchronous machine with a connecting branch for direct grid connection to a power grid; an energy converter that operates according to a thermodynamic or fluiddynamic process, in particular a thermodynamic cycle process, and thus drives said asynchronous machine for generating electricity, and characterized by an excitation component, where said excitation component is formed from capacitors that are connected to said asynchronous machine. an asynchronous machine with a connecting branch for direct grid connection to a power grid; an energy converter that operates according to a thermodynamic or fluiddynamic process, in particular a thermodynamic cycle process, and thus drives said asynchronous machine for generating electricity, and characterized by an excitation component, where said excitation component is formed from capacitors that are connected to said asynchronous machine.
A method for capability negotiation, comprising: establishing, by a first network entity, a capability negotiation session; negotiating, by the first network entity, one or more capabilities with a second network entity based on the capability negotiation session, wherein capabilities supported by the second network entity are recorded; obtaining, by the first network entity, a capability update message, wherein the capability update message comprises capability update information, and the capability update information indicates at least one capability to be updated of the first network entity; updating, by the first network entity, a capability indicated by the at least one capability;sending, by the first network entity, the capability update message to the second network entity based on the capability negotiation session established between the first network entity and a second network entity; determining, by the first network entity, from the recorded capabilities, a capability supported by both the first network entity and the second network entity, wherein the determining includes obtaining an intersection set between the recorded capability supported by the second network entity and an updated capability of the first network entity; and updating, by the first network entity, a capability of the negotiation session to the determined capability. establishing, by a first network entity, a capability negotiation session; negotiating, by the first network entity, one or more capabilities with a second network entity based on the capability negotiation session, wherein capabilities supported by the second network entity are recorded; obtaining, by the first network entity, a capability update message, wherein the capability update message comprises capability update information, and the capability update information indicates at least one capability to be updated of the first network entity; updating, by the first network entity, a capability indicated by the at least one capability;sending, by the first network entity, the capability update message to the second network entity based on the capability negotiation session established between the first network entity and a second network entity; determining, by the first network entity, from the recorded capabilities, a capability supported by both the first network entity and the second network entity, wherein the determining includes obtaining an intersection set between the recorded capability supported by the second network entity and an updated capability of the first network entity; and updating, by the first network entity, a capability of the negotiation session to the determined capability.
A method, comprising: decrypting, by a virtual private gateway, VGW, an encrypted packet containing a request for a service implemented on a service provider network and received by the VGW from a node via a secure channel established over a public network between the VGW and the node; accessing, by the VGW, a route table within the VGW to determine a route to the service within the service provider network using a destination internet protocol, IP, address provided in a header of the decrypted packet; forwarding the request, by the VGW, over the route to the service; receiving, by the VGW, updated route data for the service, the updated route data including an updated public IP address for the service; and advertising, by the VGW, the updated public IP address. decrypting, by a virtual private gateway, VGW, an encrypted packet containing a request for a service implemented on a service provider network and received by the VGW from a node via a secure channel established over a public network between the VGW and the node; accessing, by the VGW, a route table within the VGW to determine a route to the service within the service provider network using a destination internet protocol, IP, address provided in a header of the decrypted packet; forwarding the request, by the VGW, over the route to the service; receiving, by the VGW, updated route data for the service, the updated route data including an updated public IP address for the service; and advertising, by the VGW, the updated public IP address.
An automated method for trimming a multi-ply structure comprising at least a first ply and a second ply, the method comprising: applying the first ply over a platen; positioning a cutting board over a protected portion of the first ply; applying the second ply over the platen such that the cutting board is between the protected portion of the first ply and a superjacent portion of the second ply; and cutting the superjacent portion of the second ply, wherein the cutting board is connected to a swing arm, wherein the positioning the cutting board over the protected portion of the first ply comprises rotating the swing arm about an axis of rotation, and further comprising sliding the swing arm with respect to the axis of rotation using a slot. applying the first ply over a platen; positioning a cutting board over a protected portion of the first ply; applying the second ply over the platen such that the cutting board is between the protected portion of the first ply and a superjacent portion of the second ply; and cutting the superjacent portion of the second ply, wherein the cutting board is connected to a swing arm, wherein the positioning the cutting board over the protected portion of the first ply comprises rotating the swing arm about an axis of rotation, and further comprising sliding the swing arm with respect to the axis of rotation using a slot.
A detection method for detecting a rotating stall affecting a compressor of a turbine engine, the method being characterized in that it comprises the following steps: d etecting an abnormal acceleration of the turbine engine or an operating line of the compressor that is characteristic of a failure of the turbine engine, said operating line corresponding to a variation of a ratio of a pressure measured at the outlet from a combustion chamber of the turbine engine over a total pressure measured at the inlet of a fan of the turbine engine as a function of a speed of rotation of the compressor; · storing a reference temperature (EGT ref) measured at the outlet from a turbine of the turbine engine at the instant of detection; · comparing a determined temperature threshold (S EGT) with a difference between a current temperature at the outlet of the turbine as measured after detection and the reference temperature (EGT ref); and · identifying that a rotating stall is present in the event of the threshold being exceeded. d etecting an abnormal acceleration of the turbine engine or an operating line of the compressor that is characteristic of a failure of the turbine engine, said operating line corresponding to a variation of a ratio of a pressure measured at the outlet from a combustion chamber of the turbine engine over a total pressure measured at the inlet of a fan of the turbine engine as a function of a speed of rotation of the compressor; · storing a reference temperature (EGT ref) measured at the outlet from a turbine of the turbine engine at the instant of detection; · comparing a determined temperature threshold (S EGT) with a difference between a current temperature at the outlet of the turbine as measured after detection and the reference temperature (EGT ref); and · identifying that a rotating stall is present in the event of the threshold being exceeded. · storing a reference temperature (EGT ref) measured at the outlet from a turbine of the turbine engine at the instant of detection; · comparing a determined temperature threshold (S EGT) with a difference between a current temperature at the outlet of the turbine as measured after detection and the reference temperature (EGT ref); and · identifying that a rotating stall is present in the event of the threshold being exceeded.
A control scheme for a power tool having a rotary shaft, comprising: monitoring rotational motion of the tool about a longitudinal axis of the shaft; detecting a condition of the tool based on the rotational motion of the tool; and reducing torque imparted to the shaft upon detecting the tool condition, to enable an operator of the tool to regain control of the tool, characterised in that the torque is set to a non-zero value and then reset to its original value once the operator has regained control of the tool. monitoring rotational motion of the tool about a longitudinal axis of the shaft; detecting a condition of the tool based on the rotational motion of the tool; and reducing torque imparted to the shaft upon detecting the tool condition, to enable an operator of the tool to regain control of the tool, characterised in that the torque is set to a non-zero value and then reset to its original value once the operator has regained control of the tool.
A medical system for applying thermal energy to tissue, comprising: an elongated probe with an axis having an interior flow channel extending to at least one outlet in a probe working end; a source of vapor media configured to provide a vapor flow through at least a portion of the interior flow channel; and a negative pressure source operable to aspirate or extract vapor media; wherein the elongated probe includes an extension member, wherein the interior flow channel comprises a first interior flow channel located within the extension member and extending to at least one outlet in a distal working end and a second flow channel within the extension member, wherein distal portions of the first and second flow channels are in fluid communication with a channel region, wherein a proximal end of the second flow channel is coupled to and in fluid communication with the negative pressure source to permit aspiration or extraction of vapor media from the channel region, and wherein the vapor has a minimum temperature and wherein the collective cross-section of the outlet or outlets is less than the collective cross-section of the second flow channel such that the resistance to vapor flow through the pathway comprising the first and the second flow channel is less than the resistance to vapor flow through the outlet or outlets. an elongated probe with an axis having an interior flow channel extending to at least one outlet in a probe working end; a source of vapor media configured to provide a vapor flow through at least a portion of the interior flow channel; and a negative pressure source operable to aspirate or extract vapor media; wherein the elongated probe includes an extension member, wherein the interior flow channel comprises a first interior flow channel located within the extension member and extending to at least one outlet in a distal working end and a second flow channel within the extension member, wherein distal portions of the first and second flow channels are in fluid communication with a channel region, wherein a proximal end of the second flow channel is coupled to and in fluid communication with the negative pressure source to permit aspiration or extraction of vapor media from the channel region, and wherein the vapor has a minimum temperature and wherein the collective cross-section of the outlet or outlets is less than the collective cross-section of the second flow channel such that the resistance to vapor flow through the pathway comprising the first and the second flow channel is less than the resistance to vapor flow through the outlet or outlets.
Memory card reader body, the reader body having a globally rectangular parallelepiped shape and comprising a slot for inserting a memory card, said memory card reader body comprising an upper face consisting of a cover and a lower face consisting of a base in which a through orifice is made for receiving a memory card connector independent of said memory card reader body, said memory card reader body wherein: - said base is a metal part comprising first means of assembly (31A, 31B) with said cover, each disposed on at least two opposite sides of said base, - said cover is a metal part comprising second means of assembly (21A, 21B) with said base, each disposed on at least two opposite sides of said cover, and - the first assembly means are intended to fit together with the second assembly means to form two side walls (110A, 110B) of said memory card reader body, said side walls having a generally rectangular parallelepiped shape and extending substantially perpendicular to the lower face of said memory card reader body. - said base is a metal part comprising first means of assembly (31A, 31B) with said cover, each disposed on at least two opposite sides of said base, - said cover is a metal part comprising second means of assembly (21A, 21B) with said base, each disposed on at least two opposite sides of said cover, and - the first assembly means are intended to fit together with the second assembly means to form two side walls (110A, 110B) of said memory card reader body, said side walls having a generally rectangular parallelepiped shape and extending substantially perpendicular to the lower face of said memory card reader body.
A wellbore casing cementing valve (1, 5), said cementing valve (1, 5) comprising an inner sliding sleeve in an outer pipe, said sliding sleeve in a closed position covering a number of openings through said outer pipe, and in an open position uncovering said openings, said sliding sleeve comprising an actuating means requiring a predetermined force for being actuated from both the closed position to the open position and vice versa, engaging means on the inside of the sliding sleeve for being engaged by a rotatable well running tool comprising corresponding gripping means, characterized in that - said cementing valve (1, 5) comprises at least one shear pin having a shear resistance, said sliding sleeve arranged for moving further past said shear pin after breaking until said actuating means engages a groove, and - said shear pin also arranged to prevent said sliding sleeve from rotating relative to said outer pipe, said shear pin being arranged to run in an axially extending slot in said sliding sleeve and being radially fixed in said outer pipe. - said cementing valve (1, 5) comprises at least one shear pin having a shear resistance, said sliding sleeve arranged for moving further past said shear pin after breaking until said actuating means engages a groove, and - said shear pin also arranged to prevent said sliding sleeve from rotating relative to said outer pipe, said shear pin being arranged to run in an axially extending slot in said sliding sleeve and being radially fixed in said outer pipe.
A quick extraction kit (1, 1a) for a procedure of detecting pesticide residues in agricultural products, comprising: a pipe (10, 10a), having an output port (101, 101a) located at the bottom of the pipe (10, 10a) and an input port (100, 100a) located at the top of the pipe (10, 10) a, wherein the input port (100, 100a) is configured to receive a sample solution, and the sample solution is a mixture solution obtained by a treatment of shaking homogenized fragments of an agricultural sample with an extraction solvent; a first powder mixture layer filled in the pipe (10, 10a), wherein the first powder mixture layer has components, comprising 0.2 to 2 g of anhydrous magnesium sulfate powder, 0.1 to 1 g of sodium chloride powder, 0.1 to 1 g of trisodium citrate powder and 0.5 to 1 g of disodium hydrogen citrate powder; and a second powder mixture layer filled in the pipe (10, 10a) and between the first powder mixture layer and the output port (101, 101a), wherein the second powder mixture layer has components, comprising 0.01 to 0.5 g of a primary secondary amine powder and 0.2 to 1 g anhydrous magnesium sulfate powder. a pipe (10, 10a), having an output port (101, 101a) located at the bottom of the pipe (10, 10a) and an input port (100, 100a) located at the top of the pipe (10, 10) a, wherein the input port (100, 100a) is configured to receive a sample solution, and the sample solution is a mixture solution obtained by a treatment of shaking homogenized fragments of an agricultural sample with an extraction solvent; a first powder mixture layer filled in the pipe (10, 10a), wherein the first powder mixture layer has components, comprising 0.2 to 2 g of anhydrous magnesium sulfate powder, 0.1 to 1 g of sodium chloride powder, 0.1 to 1 g of trisodium citrate powder and 0.5 to 1 g of disodium hydrogen citrate powder; and a second powder mixture layer filled in the pipe (10, 10a) and between the first powder mixture layer and the output port (101, 101a), wherein the second powder mixture layer has components, comprising 0.01 to 0.5 g of a primary secondary amine powder and 0.2 to 1 g anhydrous magnesium sulfate powder.
A urethane foam molded product, characterized by comprising: a base material made of a polyurethane foam; and composite particles that are blended in the base material and oriented in a mutually connected state, so as to form a transfer path of heat in the base material, wherein each of the composite particles includes a thermally conductive particle made of a non-magnetic body having a thermal conductivity of 200 W/m·K or more, and a magnetic particle made of a ferromagnetic or an antiferromagnetic body, and an electrically insulating inorganic particle that are adhered to a surface of the thermally conductive particle through a binder, wherein the non-magnetic body is a diamagnetic body or a paramagnetic body other than a ferromagnetic or an antiferromagnetic body and the volume ratio between the thermally conductive particle and the electrically insulating inorganic particle in the composite particle is 4:6 to 3:7. a base material made of a polyurethane foam; and composite particles that are blended in the base material and oriented in a mutually connected state, so as to form a transfer path of heat in the base material, wherein
An electronic device comprising: a cover glass forming an outer surface of the electronic device; a display panel including a plurality of pixels (131, 132); and a fingerprint sensor, a first guide structure disposed below the cover glass and transmitting light polarized in a specified direction, wherein the display panel is disposed below the first guide structure; and a second guide structure disposed below the display panel and transmitting light polarized in the specified direction, wherein the fingerprint sensor is disposed below the second guide structure. a cover glass forming an outer surface of the electronic device; a display panel including a plurality of pixels (131, 132); and a fingerprint sensor, a first guide structure disposed below the cover glass and transmitting light polarized in a specified direction, wherein the display panel is disposed below the first guide structure; and a second guide structure disposed below the display panel and transmitting light polarized in the specified direction, wherein the fingerprint sensor is disposed below the second guide structure.
A coating composition for forming a frictional resistance reducing coating film, comprising a curable organopolysiloxane and at least one hydrophilic polymer which has a weight average molecular weight (Mw) of 200,000 or more and is selected from the group consisting of a hydrophilic synthetic polymer and a hydrophilic naturally-derived polymer, wherein the hydrophilic naturally-derived polymer is at least one selected from the group consisting of guar gum, tara gum, locust bean gum, xanthan gum, welan gum, diutan gum, γ-polyglutamic acid and salts thereof, hydroxypropyl cellulose, hydroxyethyl methyl cellulose (HEMC), hydroxypropyl methyl cellulose (HPMC), and carboxymethyl cellulose, and wherein the weight average molecular weight (Mw) of the hydrophilic synthetic polymer is 3,000,000 or more.