mhurhangee/ep-ind-claims huggingface dataset:
A fuel gauging sensing device for a fuel tank for aircrafts, the device comprising: - an optical fibre harness established along the internal surface of the tank, - a master optical controller connected to a first terminal of the optical fibre harness; and - a slave optical controller connected to a second terminal of the optical fibre harness, - wherein the optical fibre harness comprises a plurality of Fibre Bragg Grating, FBG, sensors, - wherein the FBG sensors are spaced in the optical fibre harness between 1mm and 25 mm and configured to provide temperature gradients inside the tank, and wherein the optical fibre harness further comprises a plurality of intrinsic fibre sensors configured to measure the refractive index of a medium surrounding the sensors inside the tank, wherein the intrinsic fibre sensors are spaced in the optical fibre harness between 1mm and 25mm, wherein the optical fibre harness further comprises one or more Fabry Perot sensors configured to obtain absolute pressure, and/or temperature and/or refractive index values at specific points inside the tank, wherein the master and slave optical controllers (115a, 115b) are configured to obtain the fuel gauging of the tank based on the output of the one or more Fabry Perot sensors, the plurality of intrinsic fibre sensors and the plurality of FBG sensors. - an optical fibre harness established along the internal surface of the tank, - a master optical controller connected to a first terminal of the optical fibre harness; and - a slave optical controller connected to a second terminal of the optical fibre harness, - wherein the optical fibre harness comprises a plurality of Fibre Bragg Grating, FBG, sensors, - wherein the FBG sensors are spaced in the optical fibre harness between 1mm and 25 mm and configured to provide temperature gradients inside the tank, and wherein the optical fibre harness further comprises a plurality of intrinsic fibre sensors configured to measure the refractive index of a medium surrounding the sensors inside the tank, wherein the intrinsic fibre sensors are spaced in the optical fibre harness between 1mm and 25mm, wherein the optical fibre harness further comprises one or more Fabry Perot sensors configured to obtain absolute pressure, and/or temperature and/or refractive index values at specific points inside the tank, wherein the master and slave optical controllers (115a, 115b) are configured to obtain the fuel gauging of the tank based on the output of the one or more Fabry Perot sensors, the plurality of intrinsic fibre sensors and the plurality of FBG sensors.
A coated glass substrate comprising: a transparent glass substrate coated with a blocking layer comprising a material having Si-O-Si bonds and a blocking component, wherein the blocking component comprises fluorone and/or a fluorone derivative, and wherein the fluorone derivative comprises one or more of calcein, carboxyfluorescein diacetate succinimidyl ester, carboxyfluorescein succinimidyl ester, 6-carboxyfluorescein, dichlorofluorescein, eosin, eosin B, eosin Y, erythrosine, fluo-3, fluo-4, fluorescein, fluorescein amidite, fluorescein isothiocyanate, Indian yellow, merbromin, 3-carboxy-6,8-difluoro-7-hydroxycoumarin (Pacific blue), phloxine, rhodamine, rhodamine B, rhodamine 6G, rhodamine 123, carboxytetramethylrhodamine (TAMRA), tetramethylrhodamine and its isothiocyanate derivative (TRITC), sulforhodamine 101 (and its sulfonyl chloride form Texas red), rhodamine red, NHS-rhodamine and seminaphtharhodafluor. a transparent glass substrate coated with a blocking layer comprising a material having Si-O-Si bonds and a blocking component, wherein the blocking component comprises fluorone and/or a fluorone derivative, and wherein the fluorone derivative comprises one or more of calcein, carboxyfluorescein diacetate succinimidyl ester, carboxyfluorescein succinimidyl ester, 6-carboxyfluorescein, dichlorofluorescein, eosin, eosin B, eosin Y, erythrosine, fluo-3, fluo-4, fluorescein, fluorescein amidite, fluorescein isothiocyanate, Indian yellow, merbromin, 3-carboxy-6,8-difluoro-7-hydroxycoumarin (Pacific blue), phloxine, rhodamine, rhodamine B, rhodamine 6G, rhodamine 123, carboxytetramethylrhodamine (TAMRA), tetramethylrhodamine and its isothiocyanate derivative (TRITC), sulforhodamine 101 (and its sulfonyl chloride form Texas red), rhodamine red, NHS-rhodamine and seminaphtharhodafluor.
A structural attachment system for easily and quickly erecting a structure, the structural attachment system comprising: a hollow tube unit comprising at least one T-slot positioned between a pair of square slots; and a unit connector comprising in order, a first locking plate, a first composition unit, a T-unit, a second composition unit, and a second locking plate, the T unit sandwiched between the pair of composition units, which are themselves sandwiched between the pair of locking plates, wherein: the T-unit comprises a first unit T-tab configured to engage with the T-slot on the hollow tube unit; the locking plates are configured to engage with the square slots, resulting in the unit connector being slidably fastened to the hollow tube unit; and wherein: the unit connector comprises at least one fastener orifice extending through the locking plates, the composition units, and the T-unit; and the fastener orifice is configured to accommodate a fastener, which is configured to secure the locking plates, the composition units, and the T-unit together. a hollow tube unit comprising at least one T-slot positioned between a pair of square slots; and a unit connector comprising in order, a first locking plate, a first composition unit, a T-unit, a second composition unit, and a second locking plate, the T unit sandwiched between the pair of composition units, which are themselves sandwiched between the pair of locking plates, wherein: the T-unit comprises a first unit T-tab configured to engage with the T-slot on the hollow tube unit; the locking plates are configured to engage with the square slots, resulting in the unit connector being slidably fastened to the hollow tube unit; and the T-unit comprises a first unit T-tab configured to engage with the T-slot on the hollow tube unit; the locking plates are configured to engage with the square slots, resulting in the unit connector being slidably fastened to the hollow tube unit; and the unit connector comprises at least one fastener orifice extending through the locking plates, the composition units, and the T-unit; and the fastener orifice is configured to accommodate a fastener, which is configured to secure the locking plates, the composition units, and the T-unit together.
An ophthalmic composition, comprising from 0.001 wt% to 0.05 wt% of a muscarinic antagonist and deuterated water, at a pD of from 4.2 to 7.9, wherein the muscarinic antagonist is atropine or atropine sulfate.
An assay device (200A, 200B) comprising: a lateral flow assay test strip; a capillary tube component configured to provide a metered sample to the lateral flow assay test strip; a depressible air chamber in communication with a sample receiving area and the capillary tube component; further comprising a buffer well connected to the sample receiving area via the capillary tube component; and wherein the depressible air chamber is adapted to move a metered sample in the capillary tube component into the buffer well. a lateral flow assay test strip; a capillary tube component configured to provide a metered sample to the lateral flow assay test strip; a depressible air chamber in communication with a sample receiving area and the capillary tube component; further comprising a buffer well connected to the sample receiving area via the capillary tube component; and wherein the depressible air chamber is adapted to move a metered sample in the capillary tube component into the buffer well.
A method of managing a network comprising a plurality of agents, the method comprising: receiving, by a passive module of a host computer in communication with a router and the plurality of agents via the network, an unsolicited periodic status message from each of a first group of agents selected from the plurality of agents, wherein the host computer includes the passive module, an active module, a cryptographic module, and a statistics module; querying, by the cryptographic module, the router on a local portion of the network positioned to handle communications between components on the local portion of the network and components on a remote portion (108, 110) of the network; receiving, by at least one of the passive, active, and cryptographic modules, from the router an indication of a second group of agents from the plurality of agents that are communicating through the router; comparing, by at least one of the passive and cryptographic modules, the first group of agents to the second group of agents; generating, by a user interface of the host computer, a list of agents communicating through the router from which periodic status messages are not being received; and implementing, by the statistics module, at least one of dynamic threshold checking and predictive agent failure of an agent. receiving, by a passive module of a host computer in communication with a router and the plurality of agents via the network, an unsolicited periodic status message from each of a first group of agents selected from the plurality of agents, wherein the host computer includes the passive module, an active module, a cryptographic module, and a statistics module; querying, by the cryptographic module, the router on a local portion of the network positioned to handle communications between components on the local portion of the network and components on a remote portion (108, 110) of the network; receiving, by at least one of the passive, active, and cryptographic modules, from the router an indication of a second group of agents from the plurality of agents that are communicating through the router; comparing, by at least one of the passive and cryptographic modules, the first group of agents to the second group of agents; generating, by a user interface of the host computer, a list of agents communicating through the router from which periodic status messages are not being received; and implementing, by the statistics module, at least one of dynamic threshold checking and predictive agent failure of an agent.
A method of generating a methylation profile of a biomarker in a subject suspected of having a solid tumor, wherein the biomarker is cg10673833, wherein the methylation profile comprises a methylation rate at cg10673833, wherein the methylation rate is the proportion of sequence reads showing methylation at cg10673833 divided by the total number of reads covering cg10673833, and wherein the solid tumor is esophagus cancer, pancreatic cancer, or stomach cancer, the method comprising: (a) processing an extracted genomic DNA with a deaminating agent to generate a genomic DNA sample comprising deaminated nucleotides, wherein the extracted genomic DNA is obtained from a biological sample from the subj ect; (b) detecting a hybridization between the extracted genomic DNA and a probe, or a product thereof, wherein the probe hybridizes to the biomarker cg10673833; and (c) generating the methylation profile based on the detected hybridization between the extracted genomic DNA and the probe, or the product thereof. wherein the biomarker is cg10673833, wherein the methylation profile comprises a methylation rate at cg10673833, wherein the methylation rate is the proportion of sequence reads showing methylation at cg10673833 divided by the total number of reads covering cg10673833, and wherein the solid tumor is esophagus cancer, pancreatic cancer, or stomach cancer, (a) processing an extracted genomic DNA with a deaminating agent to generate a genomic DNA sample comprising deaminated nucleotides, wherein the extracted genomic DNA is obtained from a biological sample from the subj ect; (b) detecting a hybridization between the extracted genomic DNA and a probe, or a product thereof, wherein the probe hybridizes to the biomarker cg10673833; and (c) generating the methylation profile based on the detected hybridization between the extracted genomic DNA and the probe, or the product thereof.
An agricultural vehicle, in particular a tractor, comprising a drive train including an internal combustion engine which is operable to drive ground-engaging means of the vehicle by way of a hydrostatic-mechanical power-split transmission with a continuously variable transmission ratio (i), wherein the drive train can be put into an operating mode "neutral" in which a power transfer between the internal combustion engine and the ground-engaging means is interrupted and can be put into an operating mode "active standstill" in which power coming into the power-split transmission from the internal combustion engine is used to hold an output shaft of the power-split transmission at a zero rotary speed, characterised by means which in dependence on at least one operating criterion (v, Z B, Z S) of the vehicle switch the drive train from the operating mode "neutral" into the operating mode "active standstill", wherein the drive train is switched from the operating mode "neutral" into the "active standstill" when at least the following conditions are fulfilled at the same time: a) the internal combustion engine is running, and b) the drive train is in the operating mode "neutral", c) in accordance with the state detected by sensor means of the actuating device the brake is activated and/or d) the speed (v) detected by sensor means of the vehicle and/or a travel distance covered by the vehicle is not equal to zero or is greater than a defined limit value and/or e) in accordance with a state detected by sensor means the driver's seat of the vehicle is unoccupied. a) the internal combustion engine is running, and b) the drive train is in the operating mode "neutral", c) in accordance with the state detected by sensor means of the actuating device the brake is activated and/or d) the speed (v) detected by sensor means of the vehicle and/or a travel distance covered by the vehicle is not equal to zero or is greater than a defined limit value and/or e) in accordance with a state detected by sensor means the driver's seat of the vehicle is unoccupied.
A computer-implemented method comprising: receiving, from a client device, a request for one or more trust tokens, the request comprising: at least one of (i) one or more device-level fraud detection signals obtained from the client device or (ii) data representing code of an application that initiated the request; and a respective nonce for each of the one or more trust tokens, wherein the nonce for each trust token is a blinded nonce that was blinded using a blind signature scheme; determining, based on at least one of (i) the one or more device-level fraud signals or (ii) the data representing the code of the application, to issue the one or more trust tokens to the client device; in response to determining to issue the one or more trust tokens to the client device: generating each of the one or more trust tokens using the nonce for the trust token; and providing the one or more trust tokens to the client device. receiving, from a client device, a request for one or more trust tokens, the request comprising: at least one of (i) one or more device-level fraud detection signals obtained from the client device or (ii) data representing code of an application that initiated the request; and a respective nonce for each of the one or more trust tokens, wherein the nonce for each trust token is a blinded nonce that was blinded using a blind signature scheme; at least one of (i) one or more device-level fraud detection signals obtained from the client device or (ii) data representing code of an application that initiated the request; and a respective nonce for each of the one or more trust tokens, wherein the nonce for each trust token is a blinded nonce that was blinded using a blind signature scheme; determining, based on at least one of (i) the one or more device-level fraud signals or (ii) the data representing the code of the application, to issue the one or more trust tokens to the client device; in response to determining to issue the one or more trust tokens to the client device: generating each of the one or more trust tokens using the nonce for the trust token; and providing the one or more trust tokens to the client device. generating each of the one or more trust tokens using the nonce for the trust token; and providing the one or more trust tokens to the client device.
A catheter, comprising: an insertion tube for insertion into a patient body; a flexible, non-conductive substrate comprising electrical interconnections, which is configured to wrap around a distal end of the insertion tube and also cover an apex of the distal end of the insertion tube; and one or more electrical devices, which are coupled to the flexible substrate and are connected to the electrical interconnections, wherein the flexible, non-conductive substrate comprises a sheet having first and second edges, and a dome-cover, wherein the sheet is configured to wrap around the distal end of the insertion tube, and wherein the dome-cover is configured to cover the apex of the distal end. an insertion tube for insertion into a patient body; a flexible, non-conductive substrate comprising electrical interconnections, which is configured to wrap around a distal end of the insertion tube and also cover an apex of the distal end of the insertion tube; and one or more electrical devices, which are coupled to the flexible substrate and are connected to the electrical interconnections, wherein the flexible, non-conductive substrate comprises a sheet having first and second edges, and a dome-cover, wherein the sheet is configured to wrap around the distal end of the insertion tube, and wherein the dome-cover is configured to cover the apex of the distal end.
Process of making pig iron in a blast furnace, said process comprising the steps of: a) charging the blast furnace with an iron ore and coke; b) injecting a reducing agent into the blast furnace at the level of one or more tuyeres in the raceway of the blast furnace; c) feeding hot air in the raceway of the blast furnace, wherein the blast furnace is furthermore charged with pellets in unground form as a reducing and energy supply agent, said pellets comprising: - one or more thermoplastic material(s) of more than 40 weight %, based on the total dry weight of the pellets; and - one or more cellulosic material(s) of more than 20 weight %, based on the total dry weight of the pellets d) and obtaining pig iron at the bottom of the blast furnace. a) charging the blast furnace with an iron ore and coke; b) injecting a reducing agent into the blast furnace at the level of one or more tuyeres in the raceway of the blast furnace; c) feeding hot air in the raceway of the blast furnace, wherein the blast furnace is furthermore charged with pellets in unground form as a reducing and energy supply agent, said pellets comprising: - one or more thermoplastic material(s) of more than 40 weight %, based on the total dry weight of the pellets; and - one or more cellulosic material(s) of more than 20 weight %, based on the total dry weight of the pellets - one or more thermoplastic material(s) of more than 40 weight %, based on the total dry weight of the pellets; and - one or more cellulosic material(s) of more than 20 weight %, based on the total dry weight of the pellets d) and obtaining pig iron at the bottom of the blast furnace.
A built-in domestic appliance with a door hinged along its bottom side and provided with a front decorative panel applied to the appliance through a mounting system including a sliding coupling between the panel and the door, with sliding direction orthogonal to the rotation axis of the door, suitable to allow an automatic upward and downward sliding of the panel during the opening and closing of the door respectively, the door being mounted on a rotating bracket pivoted on a first horizontal fixed fulcrum that is fixed to the domestic appliance frame or to a support bracket secured thereto, characterized in that the panel is pivoted on a lever through a plate fastened to the panel and rotatably mounted on said lever through a mobile fulcrum fixedly located on the lever, said rotating bracket being provided with a driving element that forms a sliding connection, comprising an upward concavity, with a driven element of the lever so as to rotate the lever in a vertical plane around a second fixed horizontal fulcrum that is fixed to the domestic appliance frame or to the support bracket secured thereto, the distance between said mobile fulcrum and said second fixed horizontal fulcrum being constant.
A gas detection apparatus comprising: a first electrolyte-based electrochemical gas sensor (10; 210) configured to measure an electrolyte concentration within the first electrochemical gas sensor (10; 210); a temperature sensor configured to measure a temperature of an ambient environment surrounding the first electrolyte-based electrochemical gas sensor (10; 210); and a controller in communication with the first electrolyte-based electrochemical gas sensor (10; 210) and the temperature sensor, wherein the controller is configured to (i) determine an average ambient temperature of the ambient environment over a first period of time, (ii) determine an average rate of change of electrolyte concentration within the first electrochemical gas sensor (10; 210) over the first period of time, and (iii) determine, based on the average ambient temperature and the average rate of change of electrolyte concentration, an average humidity value of the ambient environment over the first period of time. a first electrolyte-based electrochemical gas sensor (10; 210) configured to measure an electrolyte concentration within the first electrochemical gas sensor (10; 210); a temperature sensor configured to measure a temperature of an ambient environment surrounding the first electrolyte-based electrochemical gas sensor (10; 210); and a controller in communication with the first electrolyte-based electrochemical gas sensor (10; 210) and the temperature sensor, wherein the controller is configured to (i) determine an average ambient temperature of the ambient environment over a first period of time, (ii) determine an average rate of change of electrolyte concentration within the first electrochemical gas sensor (10; 210) over the first period of time, and (iii) determine, based on the average ambient temperature and the average rate of change of electrolyte concentration, an average humidity value of the ambient environment over the first period of time.