mhurhangee/ep-ind-claims huggingface dataset:
A compressed natural gas supply system, wherein the system includes: - a plurality of transportable storage modules, each module including a plurality of vessels wherein compressed natural gas is stored, the vessels being interconnected to one another by interconnection tubes and via interconnection tubes to the system, separators located between the vessels for avoiding movements between each other and a protection cage with fibreglass lids, locking, relief, and over-fluid valves, a pressure gauge and fast couplings, the vessels being lodged in a transportable frame structure comprising a reinforced tubular structure; - a plurality of loading platforms onto which the modules are to be loaded for refuel at a maximum pressure of 250 bar, - a plurality of unloading platforms where the modules are unloaded; and - a transport vehicle for transporting the modules, whereby the modules are loaded onto and unloaded from the transport vehicle, the loading platforms and the unloading platforms, wherein each loading platform comprises a U-shape frame having a couple of parallel arms (22, 23) for resting a module thereupon, interconnection pipes between the loading platforms, feet for adjusting their height in accordance with the surface on which it will be laid on, crossbars for bringing rigidity, two coupling means, manual relief valves for venting the remaining gas, an overflow valve for avoiding a charge drop in case of a failure and a manual lockout ball valve for use once the module is refueled, and wherein each unloading platform comprises a U-shape frame having a couple of supporting arms for resting a module thereupon, interconnection pipes between the unloading platforms, feet for adjusting their height in accordance with the surface on which it will be laid on, a couple of reinforcement crossbar, two coupling means, a lockout valve, an overflow valve, electro valves and retention valves, and wherein the transport vehicle comprises a trailer for transporting from one to four modules, four loading-unloading machines to raise modules, and stabilization feet. - a plurality of transportable storage modules, each module including a plurality of vessels wherein compressed natural gas is stored, the vessels being interconnected to one another by interconnection tubes and via interconnection tubes to the system, separators located between the vessels for avoiding movements between each other and a protection cage with fibreglass lids, locking, relief, and over-fluid valves, a pressure gauge and fast couplings, the vessels being lodged in a transportable frame structure comprising a reinforced tubular structure; - a plurality of loading platforms onto which the modules are to be loaded for refuel at a maximum pressure of 250 bar, - a plurality of unloading platforms where the modules are unloaded; and - a transport vehicle for transporting the modules,
A method for producing an age hardenable magnesium-zinc based alloy and for the low temperatures heat treatment of an age-hardenable magnesium-zinc based alloy, including the steps: (a) solution treating, within a suitable elevated temperature range or ranges, an age-hardenable magnesium-zinc based alloy for a time or times sufficient to allow the elements active in the precipitation reaction to be dissolved into solid solution; (b) quenching the solution treated alloy from the temperature cycle for step (a) whereby the dissolved elements are retained in a supersaturated solid solution to produce a quenched alloy having a close-packed hexagonal lattice structure; and (c) subjecting the quenched alloy from step (b) to low temperature ageing below 100°C for a period of time sufficient to develop an enhanced ageing response comprising an improvement in yield strength and one or more of peak hardness, tensile strength, ductility and fracture toughness, wherein the low temperature ageing in step (c) is conducted for at least 24 hours. wherein the aged alloy includes Guinier-Preston zone type precipitates including GP1 and GP2 (as herein defined) precipitates formed perpendicular to the magnesium basal plane, wherein said magnesium-zinc based alloy includes one or more accelerants comprising alloying elements that accelerate said low temperature age hardening and wherein said one or more accelerants are selected from copper, titanium, vanadium, chromium and barium, and herein said accelerants comprise at least Q1 atomic percent of the said magnesium-zinc based alloy composition, therein the presence of said accelerant in the amount of more than one might percent favors the formation of the GP1 zones during ambient temperature ageing, and wherein the amount of said accelerants does not egual or exceed the amount of zinc expressed in atomic percent, in the said magnesium-zinc based alloy. (a) solution treating, within a suitable elevated temperature range or ranges, an age-hardenable magnesium-zinc based alloy for a time or times sufficient to allow the elements active in the precipitation reaction to be dissolved into solid solution; (b) quenching the solution treated alloy from the temperature cycle for step (a) whereby the dissolved elements are retained in a supersaturated solid solution to produce a quenched alloy having a close-packed hexagonal lattice structure; and (c) subjecting the quenched alloy from step (b) to low temperature ageing below 100°C for a period of time sufficient to develop an enhanced ageing response comprising an improvement in yield strength and one or more of peak hardness, tensile strength, ductility and fracture toughness,
A toner comprising a toner particle comprising a resin A, and an external additive A, wherein the resin A is a resin represented by formula below, the resin A is present at the surface of the toner particle, the external additive A is a fine particle containing silicon, the average value of the shape factor SF-1 of the external additive A, as determined according to the description, is from 105 to 120, the average value of the shape factor SF-2 of the external additive A, as determined according to the description, is from 100 to 130: in formula, P 1 denotes a polymer segment, L 1 denotes a single bond, an alkylene group having from 1 to 4 carbon atoms, -O-, -OR 4 -, -NH-, -NHR 5 - or a phenylene group, R 4 and R 5 are each independently an alkylene group having from 1 to 4 carbon atoms or a phenylene group, and each carbon atom may have a hydroxyl group as a substituent group, at least one of R 1 to R 3 is a hydroxyl group or an alkoxy group, with the remainder each independently denoting a hydrogen atom, a halogen atom, an alkyl group, an alkoxy group, an aryl group or a hydroxyl group, m is a positive integer, and in cases where the value of m is 2 or higher, a plurality of L 1 moieties, a plurality of R 1 moieties, a plurality of R 2 moieties and a plurality of R 3 moieties may be the same as, or different from, each other. a toner particle comprising a resin A, and an external additive A, wherein the resin A is a resin represented by formula below, the resin A is present at the surface of the toner particle, the external additive A is a fine particle containing silicon, the average value of the shape factor SF-1 of the external additive A, as determined according to the description, is from 105 to 120, the average value of the shape factor SF-2 of the external additive A, as determined according to the description, is from 100 to 130: in formula, P 1 denotes a polymer segment, L 1 denotes a single bond, an alkylene group having from 1 to 4 carbon atoms, -O-, -OR 4 -, -NH-, -NHR 5 - or a phenylene group, R 4 and R 5 are each independently an alkylene group having from 1 to 4 carbon atoms or a phenylene group, and each carbon atom may have a hydroxyl group as a substituent group, at least one of R 1 to R 3 is a hydroxyl group or an alkoxy group, with the remainder each independently denoting a hydrogen atom, a halogen atom, an alkyl group, an alkoxy group, an aryl group or a hydroxyl group, m is a positive integer, and in cases where the value of m is 2 or higher, a plurality of L 1 moieties, a plurality of R 1 moieties, a plurality of R 2 moieties and a plurality of R 3 moieties may be the same as, or different from, each other.
Motor vehicle comprising an inner equipment vehicle element and a structural vehicle element connected to one another by at least one support device, the support device being constituted of a spacer of which an end has two parallel pre-maintaining lugs, while the opposite end of the spacer has retaining means engaging with complementary retaining means (31, 310) arranged on the inner equipment element, characterised in that the support spacer is constituted of an extended main body between these two ends (7a and 7b), one of the ends having two protruding lugs parallel to one another, the structural element comprising an attachment portion on the edge of which the pre-maintaining end is mounted overlapping, and the other end having a portion wider than the main body thus forming a T-shaped end.
A computer-implemented method comprising: obtaining, by a robot (104A-104D; 1110), sensor data indicating characteristics of an object; determining, by the robot, a classification (120; 132) for the object; generating, by the robot, a first embedding (118; 126; 314) for the object using a machine learning model (214; 402) that is stored by the robot and which encodes input information to generate the first embedding or to generate an output that is processed to generate the first embedding, wherein the input information is, or is generated from, the sensor data; storing, by the robot, the generated first embedding and data indicating the classification for the object in a local cache (218; 404A-404C) of the robot; sending, by the robot, the generated first embedding and the data indicating the classification to a server system over a communication network; receiving, by the robot, a second embedding and a corresponding classification from the server system over the communication network, wherein the received second embedding is generated by a second robot and corresponds to a second object, wherein the first embedding is an encoded representation of the characteristics of the object and the second embedding is an encoded representation of characteristics of the second object; and storing, by the robot, the received second embedding and corresponding classification in the local cache of the robot. obtaining, by a robot (104A-104D; 1110), sensor data indicating characteristics of an object; determining, by the robot, a classification (120; 132) for the object; generating, by the robot, a first embedding (118; 126; 314) for the object using a machine learning model (214; 402) that is stored by the robot and which encodes input information to generate the first embedding or to generate an output that is processed to generate the first embedding, wherein the input information is, or is generated from, the sensor data; storing, by the robot, the generated first embedding and data indicating the classification for the object in a local cache (218; 404A-404C) of the robot; sending, by the robot, the generated first embedding and the data indicating the classification to a server system over a communication network; receiving, by the robot, a second embedding and a corresponding classification from the server system over the communication network, wherein the received second embedding is generated by a second robot and corresponds to a second object, wherein the first embedding is an encoded representation of the characteristics of the object and the second embedding is an encoded representation of characteristics of the second object; and storing, by the robot, the received second embedding and corresponding classification in the local cache of the robot.
A device for joining two layers of tissue, comprising: a) a substantially flat and flexible scaffold having an upper surface, a lower surface and sidewalls; b) a plurality of first passages penetrating said scaffold from said upper surface to said lower surface; c) a plurality of second passages penetrating said scaffold from said upper surface to said lower surface; d) a substantially flat and flexible top cover releasably attached to said upper surface and covering all of said upper surface; and said top cover having a plurality of top cover passages aligned with said first plurality of passages. a) a substantially flat and flexible scaffold having an upper surface, a lower surface and sidewalls; b) a plurality of first passages penetrating said scaffold from said upper surface to said lower surface; c) a plurality of second passages penetrating said scaffold from said upper surface to said lower surface; d) a substantially flat and flexible top cover releasably attached to said upper surface and covering all of said upper surface; and
A surfactant system comprising: - at least one nonionic alcohol alkoxylate according to the following formulae: R 1 -O- x3 y3 -H wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 3 is from 5 to 8, and wherein y 3 is from 2 to 5, and/or R 1 -O- x4 y4 -H wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 4 is from 4 to 6, and wherein y 4 is from 3 to 5, and - a nonionic alcohol alkoxylate according to the following formula: R 2 -O- x1 -H wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 1 is from 5 to 10; and - optionally, one surfactant according to the following formulae: R 2 -O- x2 -H wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 2 is from 2 to 4, or R 7 -O- y 5 x 5 y 6 -H wherein R 7 is a branched C 8 -C 16 Guerbet alcohol, x 5 is from 5 to 30, y 5 is from 1 to 4, and y 6 is from 10 to 20. - at least one nonionic alcohol alkoxylate according to the following formulae: R 1 -O- x3 y3 -H wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 3 is from 5 to 8, and wherein y 3 is from 2 to 5, and/or R 1 -O- x4 y4 -H wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 4 is from 4 to 6, and wherein y 4 is from 3 to 5, and wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 3 is from 5 to 8, and wherein y 3 is from 2 to 5, and/or R 1 -O- x4 y4 -H wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 4 is from 4 to 6, and wherein y 4 is from 3 to 5, and - a nonionic alcohol alkoxylate according to the following formula: R 2 -O- x1 -H wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 1 is from 5 to 10; and wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 1 is from 5 to 10; and - optionally, one surfactant according to the following formulae: R 2 -O- x2 -H wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 2 is from 2 to 4, or R 7 -O- y 5 x 5 y 6 -H wherein R 7 is a branched C 8 -C 16 Guerbet alcohol, x 5 is from 5 to 30, y 5 is from 1 to 4, and y 6 is from 10 to 20. wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 2 is from 2 to 4, or R 7 -O- y 5 x 5 y 6 -H wherein R 7 is a branched C 8 -C 16 Guerbet alcohol, x 5 is from 5 to 30, y 5 is from 1 to 4, and y 6 is from 10 to 20.
A method for suspending a rotor blade from a hub of a wind turbine, the method comprising: removing at least one root attachment assembly from at least one blade root of an adjacent rotor blade; providing at least one passageway from an exterior surface of the blade root of the adjacent rotor blade to the root attachment assembly hole; inserting a cable through the at least one passageway such that the cable engages an interior surface of the adjacent rotor blade and extends from within the adjacent rotor blade to the rotor blade; securing the cable to the rotor blade at an attachment location; and, lowering the rotor blade a vertical distance from the hub until the rotor blade is supported by the at least one cable. removing at least one root attachment assembly from at least one blade root of an adjacent rotor blade; providing at least one passageway from an exterior surface of the blade root of the adjacent rotor blade to the root attachment assembly hole; inserting a cable through the at least one passageway such that the cable engages an interior surface of the adjacent rotor blade and extends from within the adjacent rotor blade to the rotor blade; securing the cable to the rotor blade at an attachment location; and, lowering the rotor blade a vertical distance from the hub until the rotor blade is supported by the at least one cable.
Turbocharger - with a turbine casing of a turbine wheel; - with a cartridge for the variable turbine geometry, which is arranged in the turbine casing; - with a bearing housing, which is arranged between the turbine casing and a compressor casing of a compressor wheel, and in which is arranged a bearing arrangement for a shaft which supports the turbine wheel and the compressor wheel; and - with a disk spring, which is arranged between the cartridge and the bearing housing and which is constructed from at least two material layers (5, 6), of which a first material layer serves as a thermal protection layer for the other, second material layer which forms a disk spring layer, characterized in that - an insulator consisting of thermal insulating material is arranged between the material layers (5, 6), and - the insulator has a clamping region which is arranged between locating regions (11, 11'), which are arranged radially on the outside, of the first material layer or of the second material layer. - with a turbine casing of a turbine wheel; - with a cartridge for the variable turbine geometry, which is arranged in the turbine casing; - with a bearing housing, which is arranged between the turbine casing and a compressor casing of a compressor wheel, and in which is arranged a bearing arrangement for a shaft which supports the turbine wheel and the compressor wheel; and - with a disk spring, which is arranged between the cartridge and the bearing housing and which is constructed from at least two material layers (5, 6), of which a first material layer serves as a thermal protection layer for the other, second material layer which forms a disk spring layer, - an insulator consisting of thermal insulating material is arranged between the material layers (5, 6), and - the insulator has a clamping region which is arranged between locating regions (11, 11'), which are arranged radially on the outside, of the first material layer or of the second material layer.
A method of controlling a washing machine, wherein the washing machine comprises a memory configured to store control data for controlling overall operations of the washing machine, the method comprising: a first sensing step (S40 to S70, S240) of determining a state of laundry and weight of the laundry received in a washing tub from output of an output layer of an artificial neural network pre-trained based on machine learning, using data relating to one or more current values supplied to a motor configured to rotate the washing tub during accelerated rotation of the washing tub as input data of an input layer of the artificial neural network; selecting (S80, S280) one of a plurality of washing modes based on the determined state of the laundry and weight of the laundry, wherein the plurality washing modes have different i) washing strength or ii) degrees of affecting wear of laundry; and a washing cycle step (S90, S290) of performing washing according to the selected washing mode, wherein said determining the state of the laundry is to determine one of a plurality of laundry quality levels classified based on hardness of laundry, and wherein the plurality of washing modes are set different with respect to at least one of a rotational speed of the washing tub, temperature of wash water that is supplied to the washing tub, an amount of wash water that is supplied to the washing tub, and washing cycle time based on the determined state of the laundry and weight of the laundry. a first sensing step (S40 to S70, S240) of determining a state of laundry and weight of the laundry received in a washing tub from output of an output layer of an artificial neural network pre-trained based on machine learning, using data relating to one or more current values supplied to a motor configured to rotate the washing tub during accelerated rotation of the washing tub as input data of an input layer of the artificial neural network; selecting (S80, S280) one of a plurality of washing modes based on the determined state of the laundry and weight of the laundry, wherein the plurality washing modes have different i) washing strength or ii) degrees of affecting wear of laundry; and a washing cycle step (S90, S290) of performing washing according to the selected washing mode, wherein said determining the state of the laundry is to determine one of a plurality of laundry quality levels classified based on hardness of laundry, and wherein the plurality of washing modes are set different with respect to at least one of a rotational speed of the washing tub, temperature of wash water that is supplied to the washing tub, an amount of wash water that is supplied to the washing tub, and washing cycle time based on the determined state of the laundry and weight of the laundry.