mhurhangee/ep-ind-claims huggingface dataset:
A method for selectively controlling undesired vegetation, comprising: providing a herbicidal composition comprising (a) as an active ingredient a metal chelate formed from at least one transition metal component wherein the transition metal component is selected from ferric iron, ferrous iron and combinations thereof, and at least one chelating agent wherein the chelating agent is selected from aminopolycarboxylic acid, phosphonic acid and combinations thereof, and (b) an amphiphilic activator adjuvant to enhance the activity of the active ingredient, wherein said amphiphilic activator adjuvant is selected from organosilicates, linear alkylbenzene sulfonates, ethoxylated sorbitan esters, alcohol ethoxylates, and combinations thereof, and wherein said amphiphilic activator adjuvant has a Hydrophilic-Lipophilic Balance value of at least 11; and contacting a target area with the herbicidal composition and controlling undesired vegetation. providing a herbicidal composition comprising (a) as an active ingredient a metal chelate formed from at least one transition metal component wherein the transition metal component is selected from ferric iron, ferrous iron and combinations thereof, and at least one chelating agent wherein the chelating agent is selected from aminopolycarboxylic acid, phosphonic acid and combinations thereof, and (b) an amphiphilic activator adjuvant to enhance the activity of the active ingredient, wherein said amphiphilic activator adjuvant is selected from organosilicates, linear alkylbenzene sulfonates, ethoxylated sorbitan esters, alcohol ethoxylates, and combinations thereof, and wherein said amphiphilic activator adjuvant has a Hydrophilic-Lipophilic Balance value of at least 11; and contacting a target area with the herbicidal composition and controlling undesired vegetation.
A filtering device comprising a grate (5; 105; 205) suitable for being positioned in an opening, the opening being made in a side wall (3; 203a) of a channel (1; 101; 201) of a sewage system, a cleaning device, a driving device for moving the cleaning device along the grate (5; 105; 205) so that the cleaning device removes solid objects from the grate (5; 105; 205), a control device programmed for activating the driving device when a liquid flowing in the channel (1; 101; 201) exceeds a preset level, the cleaning device comprising at least one rake element (11, 12) having a plurality of passage holes, each passage hole receiving a longitudinal bar (7; 107) of the grate (5; 105; 205).
A process for hydrocracking an oil feed comprising at least 10% by volume of compounds boiling above 340°C, comprising a hydrocracking step, optionally followed by a separation of the gases from the hydrocracked effluent, then a step for fractionation of said effluent, which separates at least one distillate and a residue, a portion of said residue being recycled to the hydrocracking step and another portion of the residue being purged, said fractionation step comprising a distillation in a column provided with plates, in which column: • said at least partially vaporized effluent supplies the column over at least one supply plate, • said distillate is withdrawn from the level of a withdrawal plate, • said residue is evacuated at an evacuation point, • and optionally, a stripping gas is injected at an injection point located below the supply plate, in which process • a portion of the stream present at the level of at least one plate located between the supply plate and the plate for withdrawing the heaviest distillate fraction is withdrawn from the column, said at least one plate being located above the supply plate and below said withdrawal plate of the heaviest distillate fraction and • a portion of said withdrawn stream is recycled to the column, directly or after optional liquid separation, • and the other portion of said withdrawn stream is recycled to the hydrocracking step directly or after optional separation of the gases. • said at least partially vaporized effluent supplies the column over at least one supply plate, • said distillate is withdrawn from the level of a withdrawal plate, • said residue is evacuated at an evacuation point, • and optionally, a stripping gas is injected at an injection point located below the supply plate, in which process • a portion of the stream present at the level of at least one plate located between the supply plate and the plate for withdrawing the heaviest distillate fraction is withdrawn from the column, said at least one plate being located above the supply plate and below said withdrawal plate of the heaviest distillate fraction and • a portion of said withdrawn stream is recycled to the column, directly or after optional liquid separation, • and the other portion of said withdrawn stream is recycled to the hydrocracking step directly or after optional separation of the gases.
Pressure control device for continuous adjustment of hydraulic systems, comprising a digital pressure control valve consisting of at least - two leaktight switching valves (10, 12) which can be controlled by means of a valve driver, consisting of electronic switches which are controlled by transistors as part of a control device which has two individual PID controllers, one of which controls a pressure-reducing function, while the other controls a pressure-limiting function for the respective switching valves (10, 12); - a sensor device; and - a power supply for the above-mentioned components. - two leaktight switching valves (10, 12) which can be controlled by means of a valve driver, consisting of electronic switches which are controlled by transistors as part of a control device which has two individual PID controllers, one of which controls a pressure-reducing function, while the other controls a pressure-limiting function for the respective switching valves (10, 12); - a sensor device; and - a power supply for the above-mentioned components.
A network slice connection method, performed by a terminal device in a same device group, the method comprising: acquiring, in response to acquiring a slice connection triggering signal, first network slice information and device information of the terminal device in the device group and generating a terminal device identifier list according to the device information; acquiring, in response to acquiring selection information indicating a selection of a target terminal device identifier from the terminal device identifier list, device information of a target terminal device corresponding to the target terminal device identifier according to the selection information; and transmitting the first network slice information and the device information of the target terminal device to a server, wherein the server connects the target terminal device to a network slice according to the first network slice information and the device information of the target terminal device. acquiring, in response to acquiring a slice connection triggering signal, first network slice information and device information of the terminal device in the device group and generating a terminal device identifier list according to the device information; acquiring, in response to acquiring selection information indicating a selection of a target terminal device identifier from the terminal device identifier list, device information of a target terminal device corresponding to the target terminal device identifier according to the selection information; and transmitting the first network slice information and the device information of the target terminal device to a server, wherein the server connects the target terminal device to a network slice according to the first network slice information and the device information of the target terminal device.
An aircraft fluid line coupling assembly comprising an inner tube, an outer tube assembly having an outer tube, wherein the inner tube extends into the outer tube, and having first connector means of a twist-to-connect joint disposed on a front end of said outer tube, a retention member having second connector means of the twist-to-connect joint, wherein the first and the second connector means (9, 11) are detachably mated to releasably interconnect the retention member and the outer tube with each other, wherein the retention member is arranged outwardly around a longitudinal portion of the inner tube preventing the detachment of the inner tube from the outer tube when the twist-to-connect joint is in a connected position and allowing the detachment of the inner tube from the outer tube when the twist-to-connect joint is in an unconnected position, and a locking mechanism being adapted to lock the twist-to-connect joint when it is in said connected position, characterized in that the retention member comprising a first and a second clam shell halve (19, 20), wherein the clam shell halves (19, 20) are pivotally connected with each other about a pivot axis that is arranged parallel to a longitudinal axis of the inner tube.
An epoxy system comprising an epoxy resin and a phenolic polymer having a number average molar mass (M n) of from 200 to 1,500 g/mol, determined as indicated in the specification, comprising a phenol compound, a linker group L and end group E, said phenolic polymer having the structure as presented in formula 1 below: wherein the linker group L has the meaning of or each end group E is a group of formula 2, 3, 4, 5 or 6 with only one bond to a phenol compound in formula 1 or has the meaning of and wherein R 1 is H, C 1-15 alkyl, or C 1-15 oxyalkyl, or C 6 H 5 (CR 18 R 19) o -Z-, preferably H, C 1-15 alkyl, or C 1-15 oxyalkyl, R 2, R 4, R 6, R 7, R 8, R 9, R 11 and R 12 are independently from each other H or C 1-5 alkyl, R 3 and R 5 are H, OH, NO 2, halogen, C 1-5 alkyl or C 1-5 oxyalkyl, R 10 and R 13 are C 1-5 alkyl or C 5-6 cycloalkyl, R 14 is C 5-12 cycloalkyl, optionally substituted with a methyl or an ethyl group, R 15, R 16, and R 17 are independently from each other H or C 1-5 alkyl, preferably -CH 3, R 18 and R 19 are independently of each other H or CH 3 Z is a covalent bond or -O-, o is 1 or 0, m is an integer from 1 to 7 and n is an integer of from 2 to 21. an epoxy resin and a phenolic polymer having a number average molar mass (M n) of from 200 to 1,500 g/mol, determined as indicated in the specification, comprising a phenol compound, a linker group L and end group E, said phenolic polymer having the structure as presented in formula 1 below: wherein the linker group L has the meaning of or each end group E is a group of formula 2, 3, 4, 5 or 6 with only one bond to a phenol compound in formula 1 or has the meaning of and wherein R 1 is H, C 1-15 alkyl, or C 1-15 oxyalkyl, or C 6 H 5 (CR 18 R 19) o -Z-, preferably H, C 1-15 alkyl, or C 1-15 oxyalkyl, R 2, R 4, R 6, R 7, R 8, R 9, R 11 and R 12 are independently from each other H or C 1-5 alkyl, R 3 and R 5 are H, OH, NO 2, halogen, C 1-5 alkyl or C 1-5 oxyalkyl, R 10 and R 13 are C 1-5 alkyl or C 5-6 cycloalkyl, R 14 is C 5-12 cycloalkyl, optionally substituted with a methyl or an ethyl group, R 15, R 16, and R 17 are independently from each other H or C 1-5 alkyl, preferably -CH 3, R 18 and R 19 are independently of each other H or CH 3 Z is a covalent bond or -O-, o is 1 or 0, m is an integer from 1 to 7 and n is an integer of from 2 to 21.
A busbar assembly, the busbar assembly comprising a first conductor structure and a second conductor structure, the first conductor structure and the second conductor structure not being directly electrically connected to one another, the first conductor structure comprising a first sub-conductor structure and a second sub-conductor structure, the first sub-conductor structure and the second sub-conductor structure being electrically connected, the first and second sub-conductor structures being designed and arranged relative to the second conductor structure in such a way that a first current force between the first sub-conductor structure and the second conductor structure at least partially compensates for a second current force between the second sub-conductor structure and the second conductor structure, the first sub-conductor structure being designed as a first conductor plate, the second sub-conductor structure being designed as a second conductor plate, the second conductor structure being designed as a third conductor plate, the first, second and third conductor plates (2, 3, 5) being arranged parallel to and with a predetermined distance from one another, the third conductor plate being arranged between the first and second conductor plates (2, 3), a first spacer being arranged between the first conductor plate and the third conductor plate, and a second spacer being arranged between the second conductor plate and the third conductor plate, the first conductor plate and the conductor plate being mechanically connected to one another, the first conductor plate and the second conductor plate being connected by at least one connecting means, the connecting means extending through an opening of the third conductor plate, characterized in that a portion of a spacer assembly extends through the opening of the third conductor plate, the spacer assembly comprising or forming the first spacer and the second spacer.
A method for producing a SOI wafer, comprising: implanting at least one type of gas ion selected from a hydrogen ion and a rare gas ion from a surface of a bond wafer formed of a silicon single crystal to form an ion implanted layer, bonding the ion-implanted surface of the bond wafer to a surface of a base wafer formed of a silicon single crystal through a silicon oxide film formed on the base wafer surface, delaminating the bond wafer at the ion implanted layer by performing delamination heat treatment to fabricate a SOI wafer having a buried oxide film layer and a SOI layer on the base wafer, and performing flattening heat treatment on the SOI wafer in an atmosphere containing argon gas, wherein, after the delamination heat treatment, without inserting another heat treatment, processing to remove silicon thin pieces present on the silicon oxide film in a terrace portion of the SOI wafer is performed, and thereafter, the flattening heat treatment is performed in the atmosphere containing argon gas, after the processing to remove the silicon thin pieces is performed, and before the flattening heat treatment is performed in the atmosphere containing argon gas, sacrificial oxidation treatment is performed on the SOI layer of the SOI wafer, and the silicon thin pieces are removed by performing, as the processing to remove the silicon thin pieces, etching to reduce a thickness of the silicon oxide film in the terrace portion by using an aqueous solution containing HF, or as the processing to remove the silicon thin pieces, cleaning is performed by a physical action.
A battery module, comprising: - a first positive terminal; - a ground terminal; - a power assembly comprising a plurality of battery cells coupled in series and configured to output a first voltage between the first positive terminal and the ground terminal; - a power conversion circuit electrically coupled to the power assembly configured to receive the first voltage as an input and to output a second voltage different from the first voltage; and - a second positive terminal electrically coupled to the power conversion circuit to receive the second voltage from the power conversion circuit, characterized in that the battery cells are pouch battery cells which are disposed in a stacked orientation relative to each other, and wherein the battery module comprises a cell interconnect board, and wherein the power conversion circuit is coupled to the cell interconnect board. - a first positive terminal; - a ground terminal; - a power assembly comprising a plurality of battery cells coupled in series and configured to output a first voltage between the first positive terminal and the ground terminal; - a power conversion circuit electrically coupled to the power assembly configured to receive the first voltage as an input and to output a second voltage different from the first voltage; and - a second positive terminal electrically coupled to the power conversion circuit to receive the second voltage from the power conversion circuit,
A method for controlling transmission of delay-sensitive data from a transmitter over a transmission link in a packet data communication network, which transmitter is capable of changing between a TTI bundling enabled mode and a TTI bundling disabled mode, the method comprising: receiving data from the transmitter over the transmission link; deciding that the transmitter should change TTI bundling mode; detecting that the transmitter is in a silent mode, wherein a silent mode is a mode in which a service at the transmitter generating delay-sensitive data is inactive; and triggering change of TTI bundling mode in response to deciding that the transmitter should change TTI bundling mode and in response to detecting that the transmitter is in a silent mode, wherein the change is not triggered until the transmitter is in silent mode. receiving data from the transmitter over the transmission link; deciding that the transmitter should change TTI bundling mode; detecting that the transmitter is in a silent mode, wherein a silent mode is a mode in which a service at the transmitter generating delay-sensitive data is inactive; and triggering change of TTI bundling mode in response to deciding that the transmitter should change TTI bundling mode and in response to detecting that the transmitter is in a silent mode, wherein the change is not triggered until the transmitter is in silent mode.
A blood measuring device comprising: a reagent preparation unit comprising a high concentration reagent reservoir part which stores high concentration reagent, a pure water reservoir part which stores pure water for diluting the high concentration reagent, and a reagent reservoir part which stores low concentration reagent prepared by mixing the pure water and the high concentration reagent; and a measurement unit comprising a sample preparing part (61, 62) which prepares a measurement sample by mixing a blood sample and the low concentration reagent, and a measuring part which measures red blood cells in the measurement sample, the blood measuring device being characterized in that the measurement unit further comprises a fluid supplying part which supplies the pure water and the low concentration reagent and is connected to the pure water reservoir part and the reagent reservoir part; and that the blood measuring device further comprises a controller which controls the operation of the fluid supplying part, wherein the controller is configured to control the fluid supplying part to wash one or more parts of the measurement unit least affecting the measurement results using the pure water, and wash other parts of the measurement unit affecting the measurement results using the low concentration reagent, when the measurement unit performs washing operation. a reagent preparation unit comprising a high concentration reagent reservoir part which stores high concentration reagent, a pure water reservoir part which stores pure water for diluting the high concentration reagent, and a reagent reservoir part which stores low concentration reagent prepared by mixing the pure water and the high concentration reagent; and a measurement unit comprising a sample preparing part (61, 62) which prepares a measurement sample by mixing a blood sample and the low concentration reagent, and a measuring part which measures red blood cells in the measurement sample, the blood measuring device being characterized in that the measurement unit further comprises a fluid supplying part which supplies the pure water and the low concentration reagent and is connected to the pure water reservoir part and the reagent reservoir part; and that the blood measuring device further comprises a controller which controls the operation of the fluid supplying part, wherein the controller is configured to control the fluid supplying part to wash one or more parts of the measurement unit least affecting the measurement results using the pure water, and wash other parts of the measurement unit affecting the measurement results using the low concentration reagent, when the measurement unit performs washing operation.
A polymer fabrication method including the steps of: providing a sheet polymer blank of selected thickness and of shape selected corresponding to a selected 3-dimensional shape; machining at least one re-entrant, elongate groove across a surface of said blank, said groove forming a reduced thickness portion permitting said blank to be folded and having opposed edges at said surface; folding said blank about said groove to form at least a portion of said 3-dimensional shape, the re-entrant of said groove forming an elongate chamber adjacent said reduced thickness portion and opening through an elongate gap between said opposed edges; hot air welding said opposed edges across said gap with filler rod; and heating said reduced thickness portion to a selected thermo-reforming temperature via said chamber. providing a sheet polymer blank of selected thickness and of shape selected corresponding to a selected 3-dimensional shape; machining at least one re-entrant, elongate groove across a surface of said blank, said groove forming a reduced thickness portion permitting said blank to be folded and having opposed edges at said surface; folding said blank about said groove to form at least a portion of said 3-dimensional shape, the re-entrant of said groove forming an elongate chamber adjacent said reduced thickness portion and opening through an elongate gap between said opposed edges; hot air welding said opposed edges across said gap with filler rod; and heating said reduced thickness portion to a selected thermo-reforming temperature via said chamber.
A nanomaterial comprising a ZnO nanocrystal and a surface ligand bonded to the ZnO nanocrystal, characterized in that the surface ligand having a structure as shown in Formula 1, wherein in Formula 1, R 1, R 2, and R 3 are independently selected from at least one of an alkyl group, an alkoxy group, a hydroxyalkoxy group, a hydroxyl group, or a hydrogen atom, R 4 is selected from a hydrocarbon group having a carbon number of 5 to 60, a carbon number of the alkyl group ranges from 1 to 5, a carbon number of the alkoxy group ranges from 1 to 5, and a carbon number of the hydroxyalkoxy group ranges from 1 to 5.