mhurhangee/ep-ind-claims huggingface dataset:
A device having a light sensor and a light transmission element configured to form a part of a cover of the device, said light transmission element comprising a transparent body having a surface, and an optical effect coating attached on the surface, said optical effect coating comprising a printed first coating layer (204, 504) having a plurality of adjacent first elongated micro openings (205, 505) extending in a first direction in an aperture area; and a printed second coating layer (207, 507) having a plurality of adjacent second elongated micro openings (208, 508) extending in a second direction, the second direction differing from the first direction, in the aperture area; whereby the optical effect coating comprises micro holes formed at intersections of the first and the second elongated micro openings, the micro holes producing locally increased effective light transmittance through the optical effect coating in the aperture area, the aperture area of the optical effect coating and the light sensor being positioned to allow light from surroundings of the device to propagate through the aperture area to the light sensor, wherein the micro holes have a maximum diameter less than or equal to 500μm and wherein the first and second coating layers are at most partially transparent at visible wavelengths and partially transparent at infrared wavelengths. having a surface, and an optical effect coating attached on the surface, said optical effect coating comprising a printed first coating layer (204, 504) having a plurality of adjacent first elongated micro openings (205, 505) extending in a first direction in an aperture area; and a printed second coating layer (207, 507) having a plurality of adjacent second elongated micro openings (208, 508) extending in a second direction, the second direction differing from the first direction, in the aperture area; whereby the optical effect coating comprises micro holes formed at intersections of the first and the second elongated micro openings, the micro holes producing locally increased effective light transmittance through the optical effect coating in the aperture area, the aperture area of the optical effect coating and the light sensor being positioned to allow light from surroundings of the device to propagate through the aperture area to the light sensor, wherein the micro holes have a maximum diameter less than or equal to 500μm and wherein the first and second coating layers are at most partially transparent at visible wavelengths and partially transparent at infrared wavelengths.
A call processing method, comprising: initiating, by a caller application server or a caller terminal, a reattempt call to a callee terminal in response to a call failure, and sending, by the caller application server or the caller terminal, prompt information to be displayed on the callee terminal during the reattempt call; wherein the prompt information is customized prompt information edited by the caller terminal and comprises at least one of: caller identity information or calling purpose information. initiating, by a caller application server or a caller terminal, a reattempt call to a callee terminal in response to a call failure, and sending, by the caller application server or the caller terminal, prompt information to be displayed on the callee terminal during the reattempt call; wherein the prompt information is customized prompt information edited by the caller terminal and comprises at least one of: caller identity information or calling purpose information.
Sole for a shoe, comprising: a. a porous mesh; and b. a continuous first layer arranged at least partially on a first side of the porous mesh, wherein 1. the first layer penetrates the porous mesh at least partially to form a tread structure on a second side of the porous mesh opposite the first side, and wherein 2. the first layer and the porous mesh are bonded at least in an area where the tread structure is formed. a. a porous mesh; and b. a continuous first layer arranged at least partially on a first side of the porous mesh, wherein 1. the first layer penetrates the porous mesh at least partially to form a tread structure on a second side of the porous mesh opposite the first side, and wherein 2. the first layer and the porous mesh are bonded at least in an area where the tread structure is formed. 1. the first layer penetrates the porous mesh at least partially to form a tread structure on a second side of the porous mesh opposite the first side, and wherein 2. the first layer and the porous mesh are bonded at least in an area where the tread structure is formed.
A method of plugging a well during plug and abandonment (P&A) operations, comprising: a) deploying a first tool downhole to remove or open or perforate both an inner tubular and exterior casing at a section of well to be plugged; b) deploying a second tool downhole, said second tool having a eutectic alloy as either pellets or a layered metal, storage for said eutectic alloy, a heater (301, 402), and a sleeve for protecting said heater (301, 402) from said eutectic alloy; c) heating said eutectic alloy with said heater (301, 402) to form a molten alloy; d) allowing said molten alloy to expand and solidify to form a cast-in-place metal plug that fills at least part of said section of well to be plugged; e) adding additional eutectic alloy to said well and repeating steps c-d until a predetermined height of said cast-in-place metal plug is formed; f) removing said heater (301, 402) but not said sleeve; g) deploying or pouring a resin downhole on top of said cast-in-place metal plug; and, h) curing said resin to form a resin plug, wherein said cured resin adheres to said cast-in-place metal plug, further wherein the cured resin covers said cast-in-place metal plug and said sleeve of said second tool; and i) wherein said cast-in-place metal plug and said resin plug together form a single two-material plug. a) deploying a first tool downhole to remove or open or perforate both an inner tubular and exterior casing at a section of well to be plugged; b) deploying a second tool downhole, said second tool having a eutectic alloy as either pellets or a layered metal, storage for said eutectic alloy, a heater (301, 402), and a sleeve for protecting said heater (301, 402) from said eutectic alloy; c) heating said eutectic alloy with said heater (301, 402) to form a molten alloy; d) allowing said molten alloy to expand and solidify to form a cast-in-place metal plug that fills at least part of said section of well to be plugged; e) adding additional eutectic alloy to said well and repeating steps c-d until a predetermined height of said cast-in-place metal plug is formed; f) removing said heater (301, 402) but not said sleeve; g) deploying or pouring a resin downhole on top of said cast-in-place metal plug; and, h) curing said resin to form a resin plug, wherein said cured resin adheres to said cast-in-place metal plug, further wherein the cured resin covers said cast-in-place metal plug and said sleeve of said second tool; and i) wherein said cast-in-place metal plug and said resin plug together form a single two-material plug.
An optical fiber cable comprising: optical units in each of which ribbons each having a plurality of optical fibers arranged in parallel are collected; a slot rod having a plurality of grooves each configured to accommodate therein the optical units; a tension member to which tension is to be applied; and a cable sheath configured to cover an outer side of the slot rod, wherein in each of the grooves, an occupancy of the optical units calculated from a cross-sectional area of the optical units relative to a cross-sectional area of the groove is 25% to 65%, wherein in each of the grooves, the optical units are accommodated in a state where each of the optical units is stranded, the ribbon is intermittently provided with coupling portions, at which the adjacent optical fibers are coupled therebetween, and non-coupling portions, at which the adjacent optical fibers are not coupled therebetween, in a longitudinal direction between some or all of the optical fibers in a state where the plurality of optical fibers is arranged in parallel, characterized in that when an intermittent pitch of the ribbon in the longitudinal direction is denoted as P1, a stranding pitch of the optical unit is denoted as P2, and a stranding pitch of the slot rod is denoted as P3, a relation of 2.5 ≤ P2/P1 ≤ 7.5 is satisfied, and a composite stranding pitch Pmix expressed by 1/Pmix = 1/P2 + 1/P3 is 398 mm or smaller. optical units in each of which ribbons each having a plurality of optical fibers arranged in parallel are collected; a slot rod having a plurality of grooves each configured to accommodate therein the optical units; a tension member to which tension is to be applied; and a cable sheath configured to cover an outer side of the slot rod, wherein in each of the grooves, an occupancy of the optical units calculated from a cross-sectional area of the optical units relative to a cross-sectional area of the groove is 25% to 65%, wherein in each of the grooves, the optical units are accommodated in a state where each of the optical units is stranded, the ribbon is intermittently provided with coupling portions, at which the adjacent optical fibers are coupled therebetween, and non-coupling portions, at which the adjacent optical fibers are not coupled therebetween, in a longitudinal direction between some or all of the optical fibers in a state where the plurality of optical fibers is arranged in parallel, characterized in that when an intermittent pitch of the ribbon in the longitudinal direction is denoted as P1, a stranding pitch of the optical unit is denoted as P2, and a stranding pitch of the slot rod is denoted as P3, a relation of 2.5 ≤ P2/P1 ≤ 7.5 is satisfied, and a composite stranding pitch Pmix expressed by 1/Pmix = 1/P2 + 1/P3 is 398 mm or smaller.
A valve (38, 130, 184) comprising: a hollow body (40, 132, 186) with an inlet (74, 154) and an outlet (76, 156) along a common axis (72, 152) of the hollow body; a trim (44, 136, 190) disposed inside the hollow body along the common axis, the trim including a conduit (46, 140, 192) and a sleeve (48, 142, 194) disposed about the conduit to selectively cover fluid ports (92, 164, 166) in the conduit; a pressure-balanced stem (52, 144) connected to the sleeve to enable the sleeve to be moved along the conduit via the stem; and characterized by: a plate (86, 162) interposed between the conduit and a bonnet (42, 134) of the hollow body such that the plate braces a closed end (112, 172) of the conduit, the plate having apertures (88, 160) to permit fluid to pass through the plate; wherein the pressure-balanced stem is a linearly actuated stem. a hollow body (40, 132, 186) with an inlet (74, 154) and an outlet (76, 156) along a common axis (72, 152) of the hollow body; a trim (44, 136, 190) disposed inside the hollow body along the common axis, the trim including a conduit (46, 140, 192) and a sleeve (48, 142, 194) disposed about the conduit to selectively cover fluid ports (92, 164, 166) in the conduit; a pressure-balanced stem (52, 144) connected to the sleeve to enable the sleeve to be moved along the conduit via the stem; and characterized by: a plate (86, 162) interposed between the conduit and a bonnet (42, 134) of the hollow body such that the plate braces a closed end (112, 172) of the conduit, the plate having apertures (88, 160) to permit fluid to pass through the plate; wherein the pressure-balanced stem is a linearly actuated stem. a plate (86, 162) interposed between the conduit and a bonnet (42, 134) of the hollow body such that the plate braces a closed end (112, 172) of the conduit, the plate having apertures (88, 160) to permit fluid to pass through the plate; wherein the pressure-balanced stem is a linearly actuated stem.
A compound of Formula IA, its stereoisomers or a pharmaceutically acceptable salt thereof, wherein R 1 and R 2 are independently selected from a group consisting of hydroxyl, alkoxy, or NHR' wherein R' is hydrogen, alkyl, or cycloalkyl; for use in a method of preventing or treating nephrogenic diabetes insipidus in a subject, wherein at least one symptom of nephrogenic diabetes insipidus is treated, and wherein administering the compound to the subject does not alter blood sugar levels in the subject. its stereoisomers or a pharmaceutically acceptable salt thereof, wherein R 1 and R 2 are independently selected from a group consisting of hydroxyl, alkoxy, or NHR' wherein R' is hydrogen, alkyl, or cycloalkyl; for use in a method of preventing or treating nephrogenic diabetes insipidus in a subject, wherein at least one symptom of nephrogenic diabetes insipidus is treated, and wherein administering the compound to the subject does not alter blood sugar levels in the subject.
Item of clothing comprising at least a part for covering a part of the body of a wearer, said covering part having a ventilation slot formed between two transverse edges (9, 10), a first edge being provided with a means for adjusting its transverse dimension, said item of clothing being characterised in that the second edge is provided with an insert which is elastically deformable between a flat state and an outwardly curved state in order to open said slot, said insert being arranged so as to be curved by decreasing the transverse dimension of the first edge by the intermediary of the means for adjusting.
A thermoplastic composition for the overmolding of an elastomer on a substrate made of mineral glass, comprising: (a) from 50 to 70% by weight of at least one thermoplastic elastomer chosen from copolymers comprising styrene blocks (TPE-S), (b) from 20 to 35% by weight, preferably from 22 to 30% by weight, of a polyolefin chosen from propylene homopolymers, ethylene homopolymers and copolymers of propylene and ethylene, (c) at least 7% by weight, preferably from 8 to 20% by weight, in particular from 9 to 15% by weight, of a functional alkoxysilane, these percentages being expressed with respect to the sum of the components (a), (b) and (c). (a) from 50 to 70% by weight of at least one thermoplastic elastomer chosen from copolymers comprising styrene blocks (TPE-S), (b) from 20 to 35% by weight, preferably from 22 to 30% by weight, of a polyolefin chosen from propylene homopolymers, ethylene homopolymers and copolymers of propylene and ethylene, (c) at least 7% by weight, preferably from 8 to 20% by weight, in particular from 9 to 15% by weight, of a functional alkoxysilane,
A secondary engine cover (10, 110, 210) formed from a polymeric material comprising a wear indicator (12, 112, 212), characterised in that the wear indicator (12, 112, 212) comprises a region of reduced thickness of polymeric material, wherein the region of reduced thickness comprises a blind hole.
A communication-based train control, CBTC, method, comprising: a1) determining a current position of a first train; a2) wherein the first train has a travel route and a second train has a travel route; a3) determining if train positions on the travel routes are in a specific area (110A, 110B), in which the distance of the first train to the second train from each other is such that interference is caused when the first train and the second train use the same wireless communication technology and frequency for CBTC communication, and in which two types of networks, an Long Term Evolution, LTE, network and a Wireless Local Area Network, WLAN, are deployed; b) determining a specific network to be used in the specific area (110A, 110B), wherein said specific network is selected from the Long Term Evolution, LTE, network and the Wireless Local Area Network, WLAN, deployed in said specific area (110A, 110B), based on a distance of the current position of the first train to the second train; and c) in said specific area (110A, 110B), initiating communication over the selected network for transmitting information for a CBTC communication to control said first train. a1) determining a current position of a first train; a2) wherein the first train has a travel route and a second train has a travel route; a3) determining if train positions on the travel routes are in a specific area (110A, 110B), in which the distance of the first train to the second train from each other is such that interference is caused when the first train and the second train use the same wireless communication technology and frequency for CBTC communication, and in which two types of networks, an Long Term Evolution, LTE, network and a Wireless Local Area Network, WLAN, are deployed; b) determining a specific network to be used in the specific area (110A, 110B), wherein said specific network is selected from the Long Term Evolution, LTE, network and the Wireless Local Area Network, WLAN, deployed in said specific area (110A, 110B), based on a distance of the current position of the first train to the second train; and c) in said specific area (110A, 110B), initiating communication over the selected network for transmitting information for a CBTC communication to control said first train.
A sample preparation cartridge comprising: a filtration inlet well; a filtration outlet well; a filter; a multi-way valve; and a syringe, the syringe comprising: a barrel for receiving a fluid; a piston slidably located within the barrel; and an orifice for fluid flow into and out of the barrel, under the action of the piston, wherein the barrel is selectively fluidly connected to the multi-way valve via the orifice, wherein the filter is for filtering a fluid received from the barrel, wherein the filtration inlet well is selectively fluidly connected to the multi-way valve and wherein the filtration outlet well is selectively fluidly connected to the multi-way valve via the filter. a filtration inlet well; a filtration outlet well; a filter; a multi-way valve; and a syringe, the syringe comprising: a barrel for receiving a fluid; a piston slidably located within the barrel; and an orifice for fluid flow into and out of the barrel, under the action of the piston, a barrel for receiving a fluid; a piston slidably located within the barrel; and an orifice for fluid flow into and out of the barrel, under the action of the piston, wherein the barrel is selectively fluidly connected to the multi-way valve via the orifice, wherein the filter is for filtering a fluid received from the barrel, wherein the filtration inlet well is selectively fluidly connected to the multi-way valve and wherein the filtration outlet well is selectively fluidly connected to the multi-way valve via the filter.
Device for producing and providing sterile water, comprising: - an inlet for process water, - a recuperator located downstream of the inlet for preheating of process water by sterile water flowing in countercurrent and for cooling down the sterile water by the process water flowing in countercurrent, - a heating circuit located downstream of the recuperator with a pump, a heater for heating of preheated process water and a heat retention section for keeping heated process water hot for a predetermined period of time at a predetermined temperature for producing sterile water, characterised by - a temperature sensor located downstream of the heat retention section for measuring a current temperature of the sterile water leaving the heat retention section, - a flow control valve located downstream of the temperature sensor, - a bypass provided between the flow control valve and the heater, wherein the flow control valve is configured to keep a volume flow in the heating circuit constant, wherein the recuperator is configured to cool down the sterile water of a first partial volume flow when the first partial volume flow of sterile water is taken from the heating circuit, wherein the bypass is configured, to return into the heating circuit a second partial volume flow of sterile water, wherein the second partial volume flow corresponds to a difference between the volume flow and the first partial volume flow, thereby preventing a cooling down of the sterile water of the second partial volume flow, wherein the heating circuit has no recuperation or cooling stage. - an inlet for process water, - a recuperator located downstream of the inlet for preheating of process water by sterile water flowing in countercurrent and for cooling down the sterile water by the process water flowing in countercurrent, - a heating circuit located downstream of the recuperator with a pump, a heater for heating of preheated process water and a heat retention section for keeping heated process water hot for a predetermined period of time at a predetermined temperature for producing sterile water, characterised by - a temperature sensor located downstream of the heat retention section for measuring a current temperature of the sterile water leaving the heat retention section, - a flow control valve located downstream of the temperature sensor, - a bypass provided between the flow control valve and the heater, wherein the flow control valve is configured to keep a volume flow in the heating circuit constant, wherein the recuperator is configured to cool down the sterile water of a first partial volume flow when the first partial volume flow of sterile water is taken from the heating circuit, wherein the bypass is configured, to return into the heating circuit a second partial volume flow of sterile water, wherein the second partial volume flow corresponds to a difference between the volume flow and the first partial volume flow, thereby preventing a cooling down of the sterile water of the second partial volume flow, wherein the heating circuit has no recuperation or cooling stage.
A fuel nozzle booth adapted to cradle a fuel dispensing nozzle, the fuel dispensing nozzle being fitted with a fuel nozzle housing, the fuel nozzle housing comprising an electronic device, a first wireless energy receiving component and a second wireless energy receiving component, the fuel nozzle booth comprising: - a first protruding wall arranged to overlap, on a first side of the fuel nozzle housing, the first wireless energy receiving component, when the fuel dispensing nozzle is removably mounted in a cradle over which the fuel nozzle booth is disposed; - a second protruding wall arranged to overlap, on a second side of the fuel nozzle housing opposite the first side, the second wireless energy receiving component disposed in the second side of the fuel nozzle housing, when the fuel dispensing nozzle is removably mounted in the cradle; - a first wireless energy transmitting component disposed within the first protruding wall; - a second wireless energy transmitting component disposed within the second protruding wall; and - circuitry arranged to connect the first wireless energy transmitting component and the second wireless energy transmitting component to a power supply. - a first protruding wall arranged to overlap, on a first side of the fuel nozzle housing, the first wireless energy receiving component, when the fuel dispensing nozzle is removably mounted in a cradle over which the fuel nozzle booth is disposed; - a second protruding wall arranged to overlap, on a second side of the fuel nozzle housing opposite the first side, the second wireless energy receiving component disposed in the second side of the fuel nozzle housing, when the fuel dispensing nozzle is removably mounted in the cradle; - a first wireless energy transmitting component disposed within the first protruding wall; - a second wireless energy transmitting component disposed within the second protruding wall; and - circuitry arranged to connect the first wireless energy transmitting component and the second wireless energy transmitting component to a power supply.