mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling overflow in a below-ground transfer pump sump used in the dispensing of liquid fuels, the method comprising: providing a sump having a sump bottom below a level of ground immediately adjacent the sump; providing a storage tank having an internal cavity for the storage of liquid fuel; providing an overflow assembly having an inlet disposed within the sump and an outlet communicating with the storage tank; permitting water from the ground adjacent the sump to perforate a sump cover or top portion of the sump to enter the sump and combine with any liquid fuel in the sump; and providing the overflow assembly with a valve that is configured, if the liquid fuel and water in the sump reach a predetermined level, to allow the liquid fuel and water to pass through the overflow assembly into the storage tank containing the liquid fuel. providing a sump having a sump bottom below a level of ground immediately adjacent the sump; providing a storage tank having an internal cavity for the storage of liquid fuel; providing an overflow assembly having an inlet disposed within the sump and an outlet communicating with the storage tank; permitting water from the ground adjacent the sump to perforate a sump cover or top portion of the sump to enter the sump and combine with any liquid fuel in the sump; and providing the overflow assembly with a valve that is configured, if the liquid fuel and water in the sump reach a predetermined level, to allow the liquid fuel and water to pass through the overflow assembly into the storage tank containing the liquid fuel.
A nanocrystal particle comprising at least one semiconductor material and at least one halogen element, wherein the nanocrystal particle is capable of emitting light, wherein the nanocrystal particle has a core-shell structure including a core comprising a first semiconductor nanocrystal and a shell surrounding the core and comprising a crystalline or amorphous material, wherein the at least one halogen element is present in the nanocrystal particle as being doped therein or as a metal halide, wherein the first semiconductor nanocrystal comprises a metal being selected from a Group II metal, a Group III metal, a Group IV metal, and a combination thereof, and the crystalline or amorphous material comprises at least one metal being different from the metal included in the first semiconductor nanocrystal and being selected from a Group I metal, a Group II metal, a Group III metal, a Group IV metal, and a combination thereof, wherein the nanocrystal particle has a diameter of 1 nm to 20 nm, and wherein the first semiconductor nanocrystal comprises a Group II-VI compound, a Group III-V compound, a Group IV-VI compound, a Group IV compound, or a combination thereof, and wherein the crystalline or amorphous material comprises a Group II-VI compound, a Group III-V compound, a Group IV-VI compound, a Group IV compound, a metal oxide, a halogen compound containing a metal, or a combination thereof.
A cutting tool comprising: a first lever having a first end and a second end, wherein the first lever defines a first handle portion towards the first end and a first cutting edge towards the second end; a second lever having a first end and a second end, wherein the second lever defines a second handle portion towards the first end of the second lever and a second cutting edge towards the second end wherein the second lever is pivotally coupled to the first lever at a pivot point such that the first lever and the second lever are adapted to perform relative movement between a closed position and an open position of the cutting tool; the second cutting edge is substantially in contact with the first cutting edge in the closed position of the cutting tool; the second lever defines at least one groove, wherein the at least one groove defines a first boundary disposed proximal to the second cutting edge and a second boundary disposed distal to the second cutting edge; the first cutting edge slides past the second boundary of the at least one groove when the cutting tool switches from the open position to the closed position; with the groove being disposed at a lateral offset from the second cutting edge; characterized in that the groove is fluidly coupled with at least one boundary point of the second lever. a first lever having a first end and a second end, wherein the first lever defines a first handle portion towards the first end and a first cutting edge towards the second end; a second lever having a first end and a second end, wherein the second lever defines a second handle portion towards the first end of the second lever and a second cutting edge towards the second end wherein the second lever is pivotally coupled to the first lever at a pivot point such that the first lever and the second lever are adapted to perform relative movement between a closed position and an open position of the cutting tool; the second cutting edge is substantially in contact with the first cutting edge in the closed position of the cutting tool; the second lever defines at least one groove, wherein the at least one groove defines a first boundary disposed proximal to the second cutting edge and a second boundary disposed distal to the second cutting edge; the first cutting edge slides past the second boundary of the at least one groove when the cutting tool switches from the open position to the closed position; with the groove being disposed at a lateral offset from the second cutting edge; characterized in that the groove is fluidly coupled with at least one boundary point of the second lever.
A method, comprising: capturing an image of a scene; performing segmentation of the image based on image content to generate a plurality of image segments, each of the plurality of image segments associated with spatial coordinates indicative of a location of each segment in the scene wherein the segments are non-uniform comprising an irregular geometry and wherein at least one border associated with one of the segments follows a border of an object (554, 558, 560) associated with the image; obtaining, by LIDAR unit, depth values corresponding to at least a subset of the spatial coordinates, wherein the LIDAR unit is steerable to selectively obtain the depth values; and generating a depth map (120, 620b) of the scene based on the depth values and the spatial coordinates. capturing an image of a scene; performing segmentation of the image based on image content to generate a plurality of image segments, each of the plurality of image segments associated with spatial coordinates indicative of a location of each segment in the scene wherein the segments are non-uniform comprising an irregular geometry and wherein at least one border associated with one of the segments follows a border of an object (554, 558, 560) associated with the image; obtaining, by LIDAR unit, depth values corresponding to at least a subset of the spatial coordinates, wherein the LIDAR unit is steerable to selectively obtain the depth values; and generating a depth map (120, 620b) of the scene based on the depth values and the spatial coordinates.
The method of creating a metal electrode on the ceramic insulator of a spark plug with a deposit of additional material using the laser weld deposition method, where this metal electrode, formed by a diffusion metallic layer of the joint between the weld deposit of the smelted wire and the insulator, is in the shape of a ring in the end part of the insulator body around the central electrode of the spark plug, characterized in that first, the spark plug insulator is preheated by resistance heating to the temperature of 500 to 700°C at the rate of 100 to 150°C/min to prevent the creation of thermal stresses, and subsequently it is exposed to rotation at the speed depending on the required wire weld deposit thickness, where the end part of the insulator, at the distance of 12 to 15 mm from its margin, is preheated to the temperature of the wire weld deposition determined below the temperature of phase transformation of the insulator material by the action of a laser beam swept into a rectangular area homogenously at the power density of laser preheating within the range of 3,500 to 4,000 W/sq. cm, after achieving the weld depositing temperature of the wire, the wire feeding into the area of the created electrode is activated, with a feed speed from 0.5 to 3 mm / 360°, and together with the wire feeding activation, the laser output decreases to the power density of 700 to 900 W/sq. cm, while throughout the weld deposition, the end part of the insulator is simultaneously heated at a distance of 12 to 15 mm from its margin and after weld depositing an overlap of 360° + 30° of the insulator, the wire feeding is deactivated and the laser output is decreased to zero.
A method for transmitting data on an optical channel, comprising: generating a plurality of binary baseband digital signals (26, 27, 63, 64, U, V, U1, V1, U2, V2) at a single symbol rate to represent a sequence of digital symbols, modulating a corresponding plurality of optical carrier wave components with the plurality of binary baseband digital signals, the modulation of the optical carrier wave components being done with Mach-Zehnder modulators (17, 18), so as to generate 180°-phase transitions of each said optical carrier wave component in accordance with the corresponding binary baseband digital signal, and combining the modulated optical carrier wave components into a propagation medium, characterized in that the plurality of binary baseband digital signals are generated in a correlated manner so that at most a subset of the binary baseband digital signals makes a signal transition between each digital symbol and the subsequent digital symbol. generating a plurality of binary baseband digital signals (26, 27, 63, 64, U, V, U1, V1, U2, V2) at a single symbol rate to represent a sequence of digital symbols, modulating a corresponding plurality of optical carrier wave components with the plurality of binary baseband digital signals, the modulation of the optical carrier wave components being done with Mach-Zehnder modulators (17, 18), so as to generate 180°-phase transitions of each said optical carrier wave component in accordance with the corresponding binary baseband digital signal, and combining the modulated optical carrier wave components into a propagation medium, characterized in that the plurality of binary baseband digital signals are generated in a correlated manner so that at most a subset of the binary baseband digital signals makes a signal transition between each digital symbol and the subsequent digital symbol.
A method for authentication of a communications connection between a server and a remote terminal using an intermediate device, in which: - the server generates first and second key codes, the key codes both being derived from a shared secret known to the server and remote terminal but not to the intermediate device, - the server transmits the first and second key codes to the intermediate device - the remote terminal uses the shared secret to generate a duplicate of the first key code, - the intermediate device moves out of contact with the server - the intermediate device moves into proximity of the remote terminal - the remote terminal transmits the first key code to the intermediate device - the intermediate device compares the first key code and the duplicate of the first key code to verify the authenticity of the remote terminal - the intermediate device transmits the second key code to the remote terminal - the remote terminal uses the shared secret to generate a duplicate of the second key code - the remote terminal compares the second key code and the duplicate of the second key code to verify the authenticity of the intermediate device. - the server generates first and second key codes, the key codes both being derived from a shared secret known to the server and remote terminal but not to the intermediate device, - the server transmits the first and second key codes to the intermediate device - the remote terminal uses the shared secret to generate a duplicate of the first key code, - the intermediate device moves out of contact with the server - the intermediate device moves into proximity of the remote terminal - the remote terminal transmits the first key code to the intermediate device - the intermediate device compares the first key code and the duplicate of the first key code to verify the authenticity of the remote terminal - the intermediate device transmits the second key code to the remote terminal - the remote terminal uses the shared secret to generate a duplicate of the second key code - the remote terminal compares the second key code and the duplicate of the second key code to verify the authenticity of the intermediate device.
A system for simultaneously forming and filling a container comprising: a mold having a mold cavity defining an internal surface and adapted to accept a preform; a pressure source for urging a first liquid toward the preform at a pressure between approximately 6.8 bar (100 PSI) and 41.4 bar (600 PSI) and means for maintaining a desired saturation of gas in solution in said first liquid; the means for maintaining a desired saturation of gas in solution in said first liquid comprising a heat transfer system cooling or heating the first liquid, a blow nozzle adapted to receive the first liquid from the pressure source and transfer the first liquid at a pressure between approximately 6.8 bar (100 PSI) and 41.4 bar (600 PSI) into the preform thereby urging the preform to expand toward the internal surface of the mold cavity and create a resultant container, wherein the first liquid remains within the container as an end product, characterized in that said heat transfer system comprises a fill head cooling system to maintain a fill head at predetermined temperature. a mold having a mold cavity defining an internal surface and adapted to accept a preform; a pressure source for urging a first liquid toward the preform at a pressure between approximately 6.8 bar (100 PSI) and 41.4 bar (600 PSI) and means for maintaining a desired saturation of gas in solution in said first liquid; the means for maintaining a desired saturation of gas in solution in said first liquid comprising a heat transfer system cooling or heating the first liquid, a blow nozzle adapted to receive the first liquid from the pressure source and transfer the first liquid at a pressure between approximately 6.8 bar (100 PSI) and 41.4 bar (600 PSI) into the preform thereby urging the preform to expand toward the internal surface of the mold cavity and create a resultant container, wherein the first liquid remains within the container as an end product, characterized in that said heat transfer system comprises a fill head cooling system to maintain a fill head at predetermined temperature.
A radio base station (eNB) for a radio measurement collection method using a radio terminal configured to perform a process of storing a measurement log including a measurement result of a radio environment according to a measurement configuration set by a measurement configuration message received from a network, the radio base station (eNB) comprising: a transmitter configured to transmit, to the radio terminal, a log transmission request to request a transmission of the measurement log; and a receiver configured to receive, from the radio terminal, a log transmission response that is a response for the log transmission request and which is used for notifying that the measurement log is not stored, wherein the log transmission request causes the radio terminal to transmit the log transmission response even when the measurement log is not stored in the radio terminal. a transmitter configured to transmit, to the radio terminal, a log transmission request to request a transmission of the measurement log; and a receiver configured to receive, from the radio terminal, a log transmission response that is a response for the log transmission request and which is used for notifying that the measurement log is not stored, wherein the log transmission request causes the radio terminal to transmit the log transmission response even when the measurement log is not stored in the radio terminal.
A process for producing superabsorbents, comprising polymerization of a monomer solution, comprising a) partly neutralized acrylic acid, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the acrylic acid mentioned under a) and e) optionally one or more water-soluble polymers, drying, grinding and classifying the resulting polymer gel, optionally thermally postcrosslinking and cooling the resulting polymer particles, wherein the partly neutralized acrylic acid was prepared in a process, comprising i) preparing an over-neutralized acrylic acid having a degree of neutralization of at least 100.1 mol-% by mixing an acrylic acid 1 and a base and ii) preparing a neutralized acrylic acid having a degree of neutralization from 50 to 85 mol-% by mixing the over-neutralized acrylic acid and an acrylic acid 2, wherein the content of dimeric acrylic acid in the acrylic acid 2 is lower than the content of dimeric acrylic acid in the acrylic acid 1. a) partly neutralized acrylic acid, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the acrylic acid mentioned under a) and e) optionally one or more water-soluble polymers, drying, grinding and classifying the resulting polymer gel, optionally thermally postcrosslinking and cooling the resulting polymer particles, wherein the partly neutralized acrylic acid was prepared in a process, comprising i) preparing an over-neutralized acrylic acid having a degree of neutralization of at least 100.1 mol-% by mixing an acrylic acid 1 and a base and ii) preparing a neutralized acrylic acid having a degree of neutralization from 50 to 85 mol-% by mixing the over-neutralized acrylic acid and an acrylic acid 2, i) preparing an over-neutralized acrylic acid having a degree of neutralization of at least 100.1 mol-% by mixing an acrylic acid 1 and a base and ii) preparing a neutralized acrylic acid having a degree of neutralization from 50 to 85 mol-% by mixing the over-neutralized acrylic acid and an acrylic acid 2, wherein the content of dimeric acrylic acid in the acrylic acid 2 is lower than the content of dimeric acrylic acid in the acrylic acid 1.
Fuel distributor, which serves for the distribution of fuel, in particular natural gas, to multiple fuel injection valves (3, 4), having a main body in which a fuel chamber is provided, wherein the main body has a distributor pipe, wherein an interior space is formed in the distributor pipe, wherein the interior space serves as fuel chamber, and multiple outlets (11, 12), via which the fuel can be conducted from the fuel chamber to the fuel injection valves (3, 4), wherein at least one sensor is provided, wherein the sensor is provided with a sensor connector, wherein, here, a signal and/or electrical line can be connected to the sensor connector for the purposes of transmitting at least one measurement signal and for the purposes of possibly supplying energy to the sensor, characterized in that at least the sensor connector of the sensor is integrated into the main body, wherein the main body is formed at least partially from a plastics injection-moulded encapsulation, wherein the sensor connector of the sensor is integrated into the main body by the plastics injection-moulded encapsulation, wherein the sensor connector is formed in one piece with the distributor pipe.
Spray system, in particular for collecting dust, comprising a plurality of nozzles, wherein the nozzles are arranged such that the spray cones of adjacent nozzles overlap in part, wherein the nozzles are two-substance nozzles, wherein the water supply of each nozzle is arranged axially, the air supply leads into the mixing chamber, and the spray is emitted from the mixing chamber in a cone, characterised in that the spray system supplies the nozzles with air and water in a pressure ratio of from 1:1 to 2:1, and the water supply leads into a nozzle element arranged in the mixing chamber.
Process for the stereoselective preparation of the compound of formula, optionally in the form of the tautomers thereof: characterised in that the process comprises reaction steps to, wherein is the reaction of 1,4-cyclohexanedione-mono-ethyleneketal to form a compound of formula is the reaction of a compound of formula to form the compound of formula is the reaction of a compound of formula to form the compound of formula is the reaction of a compound of formula with a protective group reagent to form the compound of formula is the reduction of a compound of formula to form the compound of formula is the reaction of a compound of formula to form a compound of formula is the reaction of a compound of formula with a compound of formula to form a compound of formula is the reaction of a compound of formula to form a compound of formula or its tautomeric form, is the chlorination of the compound of formula or to form a compound of formula + is the reaction of the compound of formula with 3-chloro-2-fluoroaniline and the cleaving of the tert-butyl carbamate protective group to form a compound of formula or is the cleaving of the trifluoroacetyl protective group to form the compound of formula is the reaction of the compound of formula with maleic acid to form a compound of formula, optionally in the form of the tautomers thereof wherein process steps to take place successively in the sequence specified. is the reaction of 1,4-cyclohexanedione-mono-ethyleneketal to form a compound of formula is the reaction of a compound of formula to form the compound of formula is the reaction of a compound of formula to form the compound of formula is the reaction of a compound of formula with a protective group reagent to form the compound of formula is the reduction of a compound of formula to form the compound of formula is the reaction of a compound of formula to form a compound of formula is the reaction of a compound of formula with a compound of formula to form a compound of formula is the reaction of a compound of formula to form a compound of formula or its tautomeric form, is the chlorination of the compound of formula or to form a compound of formula + is the reaction of the compound of formula with 3-chloro-2-fluoroaniline and the cleaving of the tert-butyl carbamate protective group to form a compound of formula or is the cleaving of the trifluoroacetyl protective group to form the compound of formula is the reaction of the compound of formula with maleic acid to form a compound of formula, optionally in the form of the tautomers thereof wherein process steps to take place successively in the sequence specified.