mhurhangee/ep-ind-claims huggingface dataset:
Method for the controlled production of monochloramine for sanitizing fluids, wherein it is provided producing monochloramine in a reactor and following the reaction in turbulent regime of a first reagent and a second reagent and osmotized water, with pH of between 7 and 12.5, the first reagent containing hypochlorite and the second reagent containing ammonium salt form, characterized in that the production step provides for a. dosing second reagent to operate with excess ammonium in the reactor, and the first solution of concentrated monochloramine produced in reactor exits from said reactor together with an ammonium excess b. feeding a certain amount of the first reagent downstream of the reactor into the monochloramine produced by reacting said ammonium excess, and the feeding is carried out: i. on a transfer piping, upstream of a storage tank or ii. directly in the storage tank, dosing said stored monochloramine to the fluid to be sanitized. the first reagent containing hypochlorite and the second reagent containing ammonium salt form, characterized in that the production step provides for a. dosing second reagent to operate with excess ammonium in the reactor, and the first solution of concentrated monochloramine produced in reactor exits from said reactor together with an ammonium excess b. feeding a certain amount of the first reagent downstream of the reactor into the monochloramine produced by reacting said ammonium excess, and the feeding is carried out: i. on a transfer piping, upstream of a storage tank or ii. directly in the storage tank, a. dosing second reagent to operate with excess ammonium in the reactor, and the first solution of concentrated monochloramine produced in reactor exits from said reactor together with an ammonium excess b. feeding a certain amount of the first reagent downstream of the reactor into the monochloramine produced by reacting said ammonium excess, and the feeding is carried out: i. on a transfer piping, upstream of a storage tank or ii. directly in the storage tank, i. on a transfer piping, upstream of a storage tank or ii. directly in the storage tank, dosing said stored monochloramine to the fluid to be sanitized.
A trolley wire wear measuring device, comprising: an illumination lamp, a pair of line sensors (5A, 5B), a means for getting a pair of line sensor images in which luminance signals of scanning lines, obtained by said two line sensors (5A, 5B), are arranged in time series, one of the two line sensors (5A, 5B) adapted for shooting a pantograph contact surface of a light-applied trolley wire illuminated by the illumination lamp, and the other of the two line sensors (5A, 5B) adapted for shooting the pantograph contact surface of a non-light-applied trolley wire not illuminated by the illumination lamp; a differential process means for getting a line sensor image in which an illuminated worn area of the trolleywire is emphasized by getting a difference of luminance between the pair of line sensor images; a binary operation process means for getting a binary operated image in which a worn portion of the trolley wire is emphasized by performing a binary operation process to the line sensor image obtained with the differential process means; an edge detection means for detecting edges of both sides of the worn portion on the binary operated image; and a worn portion width calculation means for calculating a point-to-point distance of both side edges as a whole width of the worn portion of the trolley wire on the binary operated image and for determining a worn portion width of the trolley wire from this whole width. an illumination lamp, a pair of line sensors (5A, 5B), a means for getting a pair of line sensor images in which luminance signals of scanning lines, obtained by said two line sensors (5A, 5B), are arranged in time series, one of the two line sensors (5A, 5B) adapted for shooting a pantograph contact surface of a light-applied trolley wire illuminated by the illumination lamp, and the other of the two line sensors (5A, 5B) adapted for shooting the pantograph contact surface of a non-light-applied trolley wire not illuminated by the illumination lamp; a differential process means for getting a line sensor image in which an illuminated worn area of the trolleywire is emphasized by getting a difference of luminance between the pair of line sensor images; a binary operation process means for getting a binary operated image in which a worn portion of the trolley wire is emphasized by performing a binary operation process to the line sensor image obtained with the differential process means; an edge detection means for detecting edges of both sides of the worn portion on the binary operated image; and a worn portion width calculation means for calculating a point-to-point distance of both side edges as a whole width of the worn portion of the trolley wire on the binary operated image and for determining a worn portion width of the trolley wire from this whole width.
A navigation method based on wayside reference object matching, the method comprising the steps of: acquiring navigation information based on a plurality of captured images of reference license plates of roadside vehicles in a first trip of a vehicle to a parking space; searching in a second trip of a subject required to reach the parking space for license plate numbers matched with any of the reference license plate numbers acquired in the first trip; and using the navigation information to navigate when license plate numbers matched with any of the reference license plate numbers acquired in the first trip are found, wherein the navigation information comprises a position of each of the plurality of reference license plates and a first navigation path between the plurality of reference license plates. acquiring navigation information based on a plurality of captured images of reference license plates of roadside vehicles in a first trip of a vehicle to a parking space; searching in a second trip of a subject required to reach the parking space for license plate numbers matched with any of the reference license plate numbers acquired in the first trip; and using the navigation information to navigate when license plate numbers matched with any of the reference license plate numbers acquired in the first trip are found, wherein the navigation information comprises a position of each of the plurality of reference license plates and a first navigation path between the plurality of reference license plates.
A method performed by a wireless transmit / receive unit, WTRU, the method comprising: transmitting a message, from the WTRU to a base station, wherein the message indicates a traffic periodicity, a transport block size and a timing offset with respect to subframe number 0 of system frame number 0; receiving, by the WTRU from the base station, in response to the transmitted message, an indication of a semi-persistent scheduling, SPS, configuration; and transmitting data on a sidelink channel, by the WTRU to another WTRU, in accordance with the SPS configuration and a ProSe Per-Packet Priority, PPPP. transmitting a message, from the WTRU to a base station, wherein the message indicates a traffic periodicity, a transport block size and a timing offset with respect to subframe number 0 of system frame number 0; receiving, by the WTRU from the base station, in response to the transmitted message, an indication of a semi-persistent scheduling, SPS, configuration; and transmitting data on a sidelink channel, by the WTRU to another WTRU, in accordance with the SPS configuration and a ProSe Per-Packet Priority, PPPP.
A battery pack, comprising at least one battery sequence, wherein the battery sequence comprises a plurality of batteries; a thickness of each battery extends along a first direction, and the plurality of batteries are successively arranged along the first direction to form the battery sequence; and at least one of the batteries comprises a casing and a core packaged in the casing, a gap exists between at least two neighboring batteries, a ratio of the gap to the thickness of the battery is c, and c satisfies the following relational expression: (a-b)<c<(a×t), wherein a represents an expansion rate of the battery; b represents a compression rate of the core; and t represents a ratio in percentage of a thickness of the battery after effective compression to a thickness of the battery before compression. a represents an expansion rate of the battery; b represents a compression rate of the core; and t represents a ratio in percentage of a thickness of the battery after effective compression to a thickness of the battery before compression.
Injection nozzle for fuels, with a nozzle body in which a pressure chamber has been formed which can be filled with fuel under high pressure and in which a piston-shaped nozzle needle is arranged in longitudinally mobile manner, at one end of which a sealing surface and at the opposite end an end surface have been formed, said sealing surface interacting with a nozzle seat for the purpose of opening and closing at least one injection port, and with a control chamber which can be filled with fuel under variable pressure and which the nozzle needle delimits with the end surface, so that a force can be exerted on the nozzle seat by the hydraulic pressure on the end surface, wherein the nozzle needle has an elastic longitudinal portion which has a longitudinal stiffness of less than 40,000 N/mm, and characterized in that a guide portion (30; 31) has been formed on the nozzle needle respectively upstream and downstream of the elastic longitudinal portion, with which the nozzle needle is guided in the radial direction in the pressure chamber, wherein passages (33; 34) have been formed on the guide portions (30; 31), which ensure a throttle-free flow of fuel to the injection ports within the pressure chamber.
A method for manufacturing a pentasil type zeolite, comprising the following steps to of: conducting hydrothermal synthesis reaction of at least one silicon compound selected from the group consisting of amorphous silica, alkali silicate, and tetraalkyl orthosilicate at a temperature of 80 to 160°C and a pressure in the range of 0.10 to 1.0 MPa to provide a crystal; subjecting the crystal obtained by the hydrothermal synthesis reaction of at least one silicon compound to a contact processing with an aqueous solution containing ammonia in an amount of 2 to 30% by weight and an ammonium salt in an amount of 0.001 to 1 mol relative to 1 mol of ammonia, wherein the temperature of the contact processing with the aqueous solution is 50 to 250°C, and the time required for the contact processing is 0.1 to 10 hours; mixing the aqueous solution obtained after the contact processing in the step, with at least one selected from the group consisting of ammonia, an ammonium salt, and water, thereby to obtain an aqueous solution containing ammonia and an ammonium salt in which a silicon concentration is adjusted to 100 ppm by weight or less; and recycling the aqueous solution containing ammonia and an ammonium salt obtained in the step into the step. conducting hydrothermal synthesis reaction of at least one silicon compound selected from the group consisting of amorphous silica, alkali silicate, and tetraalkyl orthosilicate at a temperature of 80 to 160°C and a pressure in the range of 0.10 to 1.0 MPa to provide a crystal; subjecting the crystal obtained by the hydrothermal synthesis reaction of at least one silicon compound to a contact processing with an aqueous solution containing ammonia in an amount of 2 to 30% by weight and an ammonium salt in an amount of 0.001 to 1 mol relative to 1 mol of ammonia, wherein the temperature of the contact processing with the aqueous solution is 50 to 250°C, and the time required for the contact processing is 0.1 to 10 hours; mixing the aqueous solution obtained after the contact processing in the step, with at least one selected from the group consisting of ammonia, an ammonium salt, and water, thereby to obtain an aqueous solution containing ammonia and an ammonium salt in which a silicon concentration is adjusted to 100 ppm by weight or less; and recycling the aqueous solution containing ammonia and an ammonium salt obtained in the step into the step.
Tube of a heat exchanger intended to allow an exchange of heat between a first fluid and a second fluid circulating in contact with the tube, the said tube comprising an upper plate and a lower plate arranged opposite and defining an internal volume of the tube in which the first fluid is able to circulate, each of the plates (21, 22) comprising a bottom and at least one edge, the said at least one edge of the said bottom extending in distinct planes, the said plates (21, 22) being in contact with one another at the said edge, the said tube comprising a deflection screen secured to the edge, the deflection screen comprising a first wall extending transversely to the bottoms and designed to deflect the second fluid towards the said bottoms, characterized in that the deflection screen comprises a second wall connecting and extending transversely to the first wall, and a third wall connected and extending transversely to the second wall on the one hand, and the edge on the other, in which the bottom of each plate (21, 22) comprises a face facing towards the outside of the tube and referred to as an external face, a height (h) of the tube being defined between the external faces of the lower and upper plates along an axis, referred to as the first axis, perpendicular to the bottoms, the first wall extending along the first axis over a distance comprised between the height (h) of the tube and the height (h) of the tube reduced by 0.4 mm, in which the first wall comprises a first end situated at a distance strictly smaller than 0.2 mm from the external face of the lower plate along the first axis, in which the first wall comprises a second end (32") situated at a distance strictly less than 0.2 mm from the external face of the upper plate along the first axis.
Bevel gauge comprising two legs (1, 2) which are pivotable relative to one another into a freely selectable angular position and which each comprise a bearing surface (1', 2'), an aligning element being provided in the joint region of the two legs (1, 2) and being oriented in the direction of an angle bisector of the leg angle as a result of a gear transmission when the legs (1, 2) pivot, and a ridge of the alignment element also being provided and projecting substantially perpendicularly to the bearing surfaces (1', 2'), characterised in that the ridge comprises a magnet and sockets adjacent thereto, the front faces of which are at a defined distance from the broad side wall of the ridge and form a reference plane for attaching a saw blade of a chop saw.
A method for controlling the operation of a washing machine comprising a wash tub, a washing and/or rinsing water tank, a hydraulic water distribution circuit, said hydraulic water distribution circuit connecting said wash tub of said washing machine to said water tank, said hydraulic water distribution circuit comprising: - a water recovery pump so as to fill with washing and/or rinsing water at least one internal compartment (11, 16) for storing water from said water tank, from a sump of said wash tub, - a valve, said valve being mounted in said hydraulic water distribution circuit between said water recovery pump and said water tank, said method comprising a step of filling said water tank with washing and/or rinsing water, characterized in that said step of filling with water comprises: - a step of supplying said sump with washing and/or rinsing water from said wash tub; - a step of opening said valve; - a first step of turning on said water recovery pump so as to discharge some of the washing and/or rinsing water from said sump of said wash tub to said water tank; - a step of keeping said water recovery pump turned off and keeping said valve in the open position so as to discharge air trapped inside said hydraulic water distribution circuit between said sump of said wash tub and said water tank by a flow of water by gravity to said sump of said wash tub. - a water recovery pump so as to fill with washing and/or rinsing water at least one internal compartment (11, 16) for storing water from said water tank, from a sump of said wash tub, - a valve, said valve being mounted in said hydraulic water distribution circuit between said water recovery pump and said water tank, - a step of supplying said sump with washing and/or rinsing water from said wash tub; - a step of opening said valve; - a first step of turning on said water recovery pump so as to discharge some of the washing and/or rinsing water from said sump of said wash tub to said water tank; - a step of keeping said water recovery pump turned off and keeping said valve in the open position so as to discharge air trapped inside said hydraulic water distribution circuit between said sump of said wash tub and said water tank by a flow of water by gravity to said sump of said wash tub.
A household appliance comprising an inner liner and a first and second support assembly (154, 234) wherein said support assembly (154, 234) comprises: a ladder rack (22, 158, 162) - coupled to said inner liner and including first and second sidewalls (26,30) coupled together via a connecting wall defining apertures; a cantilever support (66, 238, 282) coupled to the ladder rack (22, 158, 162) through the apertures and extending outwardly therefrom; a rail assembly (70, 262, 294) disposed on an upper surface of the cantilever support (66, 238, 282), a storage feature of the household appliance being coupled to the rail assembly (70, 262, 294) and being operable between stowed and deployed positions (94, 98) and a spacer (78, 266, 306) coupled to an outer surface of the cantilever support (66, 238, 282) and abutting an inner liner surface; characterised in that said support assembly (154, 234) further comprises a locking member (54, 258, 290) coupled to the cantilever support (66, 238, 282) and engaging the first and second sidewalls (26, 30) of the ladder rack (22, 158, 162). a ladder rack (22, 158, 162) - coupled to said inner liner and including first and second sidewalls (26,30) coupled together via a connecting wall defining apertures; a cantilever support (66, 238, 282) coupled to the ladder rack (22, 158, 162) through the apertures and extending outwardly therefrom; a rail assembly (70, 262, 294) disposed on an upper surface of the cantilever support (66, 238, 282), a storage feature of the household appliance being coupled to the rail assembly (70, 262, 294) and being operable between stowed and deployed positions (94, 98) and a spacer (78, 266, 306) coupled to an outer surface of the cantilever support (66, 238, 282) and abutting an inner liner surface; characterised in that said support assembly (154, 234) further comprises a locking member (54, 258, 290) coupled to the cantilever support (66, 238, 282) and engaging the first and second sidewalls (26, 30) of the ladder rack (22, 158, 162).
A dishwasher rack comprising a bottom, a plurality of side walls (3,4,5,6) extending from the bottom, and a crockery and/or flatware support which can be positioned on the bottom of the rack, and comprises small bars and two elongated crosspieces, wherein said small bars and said crosspieces are connected and coplanar to each other, and wherein the material of the support is softer than that of the rack bottom and of the wires thereof, and can filter at least a part of the vibrations generated by washing means comprised in a dishwasher, characterized in that at least one of the small bars comprises an upward-projecting rectangular tooth on which objects to be washed can be laid.
A data transmission method, comprising: transmitting, by a first communications apparatus, first data to a second communications apparatus on a first frequency resource; and sending, by the first communications apparatus, control information to the second communications apparatus, wherein the control information is used to schedule a part or all of the first data transmitted between the first communications apparatus and the second communications apparatus on a second frequency resource, a first transmission mode supported by the first frequency resource is different from a second transmission mode supported by the second frequency resource, or the first transmission mode is the same as the second transmission mode, but a first feedback quantity supported by the first frequency resource is different from a second feedback quantity supported by the second frequency resource, wherein each of the first and second frequency resources is a bandwidth part, BWP, configured for communication between the first and second communications apparatuses; and wherein each of the first and second transmission modes is one of: transport block TB-based transmission and code block group CBG-based transmission. transmitting, by a first communications apparatus, first data to a second communications apparatus on a first frequency resource; and sending, by the first communications apparatus, control information to the second communications apparatus, wherein the control information is used to schedule a part or all of the first data transmitted between the first communications apparatus and the second communications apparatus on a second frequency resource, a first transmission mode supported by the first frequency resource is different from a second transmission mode supported by the second frequency resource, or the first transmission mode is the same as the second transmission mode, but a first feedback quantity supported by the first frequency resource is different from a second feedback quantity supported by the second frequency resource, wherein each of the first and second frequency resources is a bandwidth part, BWP, configured for communication between the first and second communications apparatuses; and wherein each of the first and second transmission modes is one of: transport block TB-based transmission and code block group CBG-based transmission.
A production method for a carbamic acid derivative of arbekacin represented by the following formula: in the formula, at least one of R 1, R 2, R 3, and R 4 is COOH, while the rest represent H and including arbekacin carbonate represented by the following formula: in the formula, x represents 1 to 5, the production method comprising: (a) a step of adding any one of carbon dioxide, a carbonate, and a hydrogen carbonate to a solution containing arbekacin free base, thereby preparing a solution containing a carbamic acid derivative of arbekacin including arbekacin carbonate; (b) a step of precipitating the carbamic acid derivative of arbekacin including arbekacin carbonate in the solution; and (c) a step of separating the precipitated carbamic acid derivative of arbekacin including arbekacin carbonate. (a) a step of adding any one of carbon dioxide, a carbonate, and a hydrogen carbonate to a solution containing arbekacin free base, thereby preparing a solution containing a carbamic acid derivative of arbekacin including arbekacin carbonate; (b) a step of precipitating the carbamic acid derivative of arbekacin including arbekacin carbonate in the solution; and (c) a step of separating the precipitated carbamic acid derivative of arbekacin including arbekacin carbonate.