mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a die including a silicon layer and a first layer coupled to the silicon layer; and a conductive wire disposed in the first layer adjacent a perimeter of a location at which a fluid feed slot is to be formed in the silicon layer, the conductive wire having an electrical characteristic that corresponds to whether the fluid feed slot is defective, characterized in that the first layer includes a field oxide layer , a dielectric layer , and a metallic layer , the field oxide layer to isolate the silicon layer from the metallic layer and the conductive wire , the dielectric layer to provide insulation between the metallic layer and the conductive wire . a die including a silicon layer and a first layer coupled to the silicon layer; and a conductive wire disposed in the first layer adjacent a perimeter of a location at which a fluid feed slot is to be formed in the silicon layer, the conductive wire having an electrical characteristic that corresponds to whether the fluid feed slot is defective,
A rigid joint assembly comprising a first cable core end section of a first electric power distribution cable , and a second cable core end section of a second electric power distribution cable , said respective first and second cable core end section comprising an electrical cable core comprising at least an inner electric conductor , and an insulation system, said rigid joint assembly further comprising a joint connection inside which the electrical cable core of the first cable core end section of the first electric cable is jointed with the electrical cable core of the second cable core end section of the second electric cable , the rigid joint assembly further comprising a water tight metal casing assembly surrounding the joint connection, which casing assembly comprises a casing body , a first cable entry part comprising an opening for receiving the first cable core end section of the first cable and a second cable entry part comprising an opening for receiving the second cable core end section of the second cable, and wherein the casing assembly contains a compressible gas, the rigid joint assembly further comprising a first cable insulation system member that surrounds the first cable core end section at the first cable entry part and a second cable insulation system member that surrounds the second cable core end section at the second cable entry part , characterized in that the insulation system comprises at least an inner semi-conducting layer , an insulation layer and an outer semi-conducting layer and the respective first and second cable insulation system member (40; 140) are deformation preventing members comprising a rigid pipe that surrounds the respective cable core end section (12; 112) at the respective cable entry part (32; 132), wherein the pipe has a uniform wall thickness and the rigid pipe has a cylindrical internal surface that is in continuous contact with an external surface of the cable core end section (12; 112) which it surrounds, wherein the rigid pipe of the respective cable insulation system deformation preventing member (40; 140) is pressed onto the respective cable core end section (12; 112), thereby creating a contact pressure between the cable insulation system and the rigid pipe and the rigid joint assembly further comprising, at each cable core end section (12; 112), a securing arrangement axially locking the rigid pipe of the cable insulation system deformation preventing member (40; 140) in relation to the casing assembly .
An occupancy detection system for a lavatory , the occupancy detection system comprising: a door sensor configured to be operatively coupled to a door of the lavatory , wherein the door sensor is configured to output a door sensor signal that indicates a status of the door ; one or more presence sensors that are configured to output one or more presence sensor signals that indicate an occupancy status of the lavatory ; and an occupancy detection control unit in communication with the door sensor and the one or more presence sensors , wherein the occupancy detection control unit is configured to receive the door sensor signal and the one or more presence sensor signal, and wherein the occupancy detection control unit is configured to determine an occupancy status of the lavatory based on the door sensor signal and the one or more presence sensor signals, wherein the occupancy detection control unit determines that the lavatory is unoccupied in response to the door sensor signal indicating that the door is open. a door sensor configured to be operatively coupled to a door of the lavatory , wherein the door sensor is configured to output a door sensor signal that indicates a status of the door ; one or more presence sensors that are configured to output one or more presence sensor signals that indicate an occupancy status of the lavatory ; and an occupancy detection control unit in communication with the door sensor and the one or more presence sensors , wherein the occupancy detection control unit is configured to receive the door sensor signal and the one or more presence sensor signal, and wherein the occupancy detection control unit is configured to determine an occupancy status of the lavatory based on the door sensor signal and the one or more presence sensor signals, wherein the occupancy detection control unit determines that the lavatory is unoccupied in response to the door sensor signal indicating that the door is open.
A method of wireless communication performed by a user equipment, UE , comprising: receiving , in connection with an ultra-reliable low latency communication service, a configuration message to configure transmission of a physical uplink control channel for the ultra-reliable low latency communication service; and transmitting , in a single slot, a plurality of repetitions of the physical uplink control channel based at least in part on receiving the configuration message; wherein a first repetition, of the plurality of repetitions, is associated with a first physical uplink control channel format and a second repetition, of the plurality of repetitions, is associated with a second physical uplink control channel format. receiving , in connection with an ultra-reliable low latency communication service, a configuration message to configure transmission of a physical uplink control channel for the ultra-reliable low latency communication service; and transmitting , in a single slot, a plurality of repetitions of the physical uplink control channel based at least in part on receiving the configuration message; wherein a first repetition, of the plurality of repetitions, is associated with a first physical uplink control channel format and a second repetition, of the plurality of repetitions, is associated with a second physical uplink control channel format.
A membrane casing configured to watertightly house a prismatic membrane element for filtering raw water, the membrane casing comprising: a prismatic casing main body configured to house the prismatic membrane element ; a lid body configured to fit through an opening end of the prismatic casing main body and configured to be movable in an axial direction of the prismatic casing main body while maintaining an attitude and while securing watertightness with the prismatic casing main body ; and wherein a seal member is disposed on an outer peripheral edge surface of the lid body to ensure watertightness with an inner peripheral face of the prismatic casing main body , and wherein the inner peripheral face of the prismatic casing main body is smooth at least in a moving range of the seal member, a pressing mechanism configured to press the lid body to press and hold the prismatic membrane element housed in the prismatic casing main body , wherein the membrane casing is configured to allow replacement of the prismatic membrane element , wherein the pressing mechanism comprises: a supporting unit configured to be supported by the prismatic casing main body ; and a maintaining unit configured to adjustably maintain relative positions of the supporting unit and the lid body along the axial direction of the prismatic casing main body . a prismatic casing main body configured to house the prismatic membrane element ; a lid body configured to fit through an opening end of the prismatic casing main body and configured to be movable in an axial direction of the prismatic casing main body while maintaining an attitude and while securing watertightness with the prismatic casing main body ; and wherein a seal member is disposed on an outer peripheral edge surface of the lid body to ensure watertightness with an inner peripheral face of the prismatic casing main body , and wherein the inner peripheral face of the prismatic casing main body is smooth at least in a moving range of the seal member, a pressing mechanism configured to press the lid body to press and hold the prismatic membrane element housed in the prismatic casing main body , wherein the membrane casing is configured to allow replacement of the prismatic membrane element , wherein the pressing mechanism comprises: a supporting unit configured to be supported by the prismatic casing main body ; and a maintaining unit configured to adjustably maintain relative positions of the supporting unit and the lid body along the axial direction of the prismatic casing main body . a supporting unit configured to be supported by the prismatic casing main body ; and a maintaining unit configured to adjustably maintain relative positions of the supporting unit and the lid body along the axial direction of the prismatic casing main body .
A refrigerator comprising a cabin with thermal insulation; an inner lining that surrounds the inner section of the cabin so as to define a refrigeration chamber; a temperature sensor that is directly disposed on the inner lining ; a fan casing that covers a fan positioned on a rear wall of the inner lining away from the temperature sensor , so as to allow radial air flow, and an air blocking element comprising a curtain extending from the fan casing toward the refrigeration chamber, characterized by - the fan casing that is in the form of a wire grill and has an outer peripheral edge , - the air blocking element that is directly fixed on the wire that forms the outer peripheral edge of the fan casing such that the inner edge of the curtain is seated on the outer surface of the wire-shaped outer peripheral edge , and the air blocking element is provided in the part of the fan casing facing the temperature sensor so as to at least partially block the cooling air that is accelerated by the fan , such that the curtain axially directs the radial air flow in the section facing the temperature sensor . - the fan casing that is in the form of a wire grill and has an outer peripheral edge , - the air blocking element that is directly fixed on the wire that forms the outer peripheral edge of the fan casing such that the inner edge of the curtain is seated on the outer surface of the wire-shaped outer peripheral edge , and the air blocking element is provided in the part of the fan casing facing the temperature sensor so as to at least partially block the cooling air that is accelerated by the fan , such that the curtain axially directs the radial air flow in the section facing the temperature sensor .
A method of operating LC sensors including: - accumulating excitation energy for an LC sensor , and - the LC sensor oscillating energized by energy accumulated, wherein the method includes: - detecting the energy accumulated reaching a charge threshold, and - terminating accumulating excitation energy for the sensor when the charge threshold is detected to be reached, the method characterized in that it includes coupling a reference capacitor (C ref ) in series to the LC sensor , and - a) accumulating excitation energy for the sensor by coupling (S1) the series coupling of the sensor and the reference capacitor (C ref ) to an energy source (V), or - b) starting accumulating excitation energy for the sensor by coupling (S1) the sensor to an energy source (V) with the reference capacitor (C ref ) short-circuited (S2), and removing the short-circuit across the reference capacitor (C ref ) while maintaining the LC sensor coupled to the energy source (V). - accumulating excitation energy for an LC sensor , and - the LC sensor oscillating energized by energy accumulated, - detecting the energy accumulated reaching a charge threshold, and - terminating accumulating excitation energy for the sensor when the charge threshold is detected to be reached, the method characterized in that it includes coupling a reference capacitor (C ref ) in series to the LC sensor , and - a) accumulating excitation energy for the sensor by coupling (S1) the series coupling of the sensor and the reference capacitor (C ref ) to an energy source (V), or - b) starting accumulating excitation energy for the sensor by coupling (S1) the sensor to an energy source (V) with the reference capacitor (C ref ) short-circuited (S2), and removing the short-circuit across the reference capacitor (C ref ) while maintaining the LC sensor coupled to the energy source (V).
Catalytic reactor implementing a ring-shaped moving bed catalyst, limited at its outer periphery by walls forming a cylindrical basket , and at its internal periphery by a central collector , with the catalyst flowing slowly by force of gravity into the space between the basket and the central collector , and circulating downwards through the intermediary of circulation legs positioned on the substantially hemispherical base of said reactor, said baskets being movable along a substantially vertical axis over a distance of from a few centimetres to 10 cm, this basket being equipped with flaps themselves substantially vertical, positioned on the lower part of the basket , in the extension of the wall of said flap , in which reactor, when there is an interruption in the circulation of the catalyst, a catalyst storage space situated in the lower part of the reactor adjoining the wall, and close to the dip legs , is released by moving the basket and attached flaps assembly upwards, the flap itself being equipped with a deflector rigidly or freely attached, and which forms an angle alpha with the vertical of between 30 and 60°, preferably of between 45 and 55°.
An operation method of an infrastructure supporting an automated valet parking service, the method comprising: initiating an automated valet parking procedure; providing a vehicle with a target position and a first guide route that guides the vehicle to the target position; detecting an unexpected incident based on situation information while the first guide route is provided to the vehicle; and providing the vehicle with a second guide route to deal with the unexpected incident, wherein the first guide route and the second guide route are provided using a plurality of lighting devices installed in a parking lot, and wherein a first lighting pattern of the first guide route and a second lighting pattern of the second guide route are different from each other. initiating an automated valet parking procedure; providing a vehicle with a target position and a first guide route that guides the vehicle to the target position; detecting an unexpected incident based on situation information while the first guide route is provided to the vehicle; and providing the vehicle with a second guide route to deal with the unexpected incident, wherein the first guide route and the second guide route are provided using a plurality of lighting devices installed in a parking lot, and wherein a first lighting pattern of the first guide route and a second lighting pattern of the second guide route are different from each other.
A method of producing foam for cleaning purposes, the method comprising the steps of: - leading pressurized water into a housing of a mixing unit and through an injector positioned within said housing , within which injector an under-pressure is created during the passage of said water through said injector from an injector inlet of said injector towards an injector outlet of said injector , where said under-pressure causes a cleaning agent to be sucked into said injector via a first input line in fluid communication with a reservoir for said cleaning agent, in which injector said cleaning agent is being mixed with said water under its passage towards said injector outlet , and - leading pressurized air into said housing of said mixing unit , and through a gap between said housing and said injector outlet , in a direction substantially parallel to the flow of water mixed with cleaning agent out of said injector outlet of said injector , thereby causing creation of foam when said pressurized air becomes mixed with said water and cleaning agent before exiting said housing through a fluid outlet of said housing , characterized in that said gap is defined between a circular cross section of the injector at or adjacent to the injector outlet and inner dimensions of the housing having a cylindrical shape adjacent to the fluid outlet , the injector outlet being positioned co-axially relative to said opening in the housing at the fluid outlet , and wherein said pressurized water has a pressure between 10 bar and 25 bar. - leading pressurized water into a housing of a mixing unit and through an injector positioned within said housing , within which injector an under-pressure is created during the passage of said water through said injector from an injector inlet of said injector towards an injector outlet of said injector , where said under-pressure causes a cleaning agent to be sucked into said injector via a first input line in fluid communication with a reservoir for said cleaning agent, in which injector said cleaning agent is being mixed with said water under its passage towards said injector outlet , and - leading pressurized air into said housing of said mixing unit , and through a gap between said housing and said injector outlet , in a direction substantially parallel to the flow of water mixed with cleaning agent out of said injector outlet of said injector , thereby causing creation of foam when said pressurized air becomes mixed with said water and cleaning agent before exiting said housing through a fluid outlet of said housing , characterized in that said gap is defined between a circular cross section of the injector at or adjacent to the injector outlet and inner dimensions of the housing having a cylindrical shape adjacent to the fluid outlet , the injector outlet being positioned co-axially relative to said opening in the housing at the fluid outlet , and wherein said pressurized water has a pressure between 10 bar and 25 bar.
A plant illumination optical device comprising two LED lamp bodies; wherein each of the LED lamp bodies comprises: a reflector and a plurality of LED lamps , wherein the plurality of LED lamps forms a row along the length direction, located at an inner side of the reflector , wherein an angle between central light rays of the two LED lamp bodies is adjustable, wherein the LED lamp and the reflector are fixed on one side of an angle adjustable support through a housing , characterized in that : the reflector has a curved structure with two symmetrical sides, wherein each of the two sides comprises, starting from the LED lamp, a first segment , a second segment and a third segment from the highest reflection point to the lowest reflection point, wherein in the direction from the highest reflection point to the lowest reflection point, the curvature of the first segment gradually decreases, the curvature of the second segment variates from small to large and the curvature of the third segment variates from large to small
A copolymer comprises formula: each R D is independently a divalent hydrocarbon group or a divalent halogenated hydrocarbon group; each R M is independently a monovalent hydrocarbon group or a monovalent halogenated hydrocarbon group; each R T is hydrogen or a monovalent hydrocarbon group; each subscript a is independently 0 to 1,000,000; subscript n is 1 to 1,500,000; each subscript Z2 is greater than 1 and less than or equal to 3; each subscript Z1 is from 1 to 15; subscript b is 0 to 1,000,000; subscript y1 is > 0 to 1,000,000; and subscript y2 is > 0 to 500,000. each R D is independently a divalent hydrocarbon group or a divalent halogenated hydrocarbon group; each R M is independently a monovalent hydrocarbon group or a monovalent halogenated hydrocarbon group; each R T is hydrogen or a monovalent hydrocarbon group; each subscript a is independently 0 to 1,000,000; subscript n is 1 to 1,500,000; each subscript Z2 is greater than 1 and less than or equal to 3; each subscript Z1 is from 1 to 15; subscript b is 0 to 1,000,000; subscript y1 is > 0 to 1,000,000; and subscript y2 is > 0 to 500,000.
A sail construction for vessels comprising two foldable sail supports mountable on the deck on each side of the vessel (P), a connecting coupler for connecting said foldable sail supports on their top, a sail supported by said foldable sail supports , a holder (1.1) for holding and tensioning said sail upwards, a bottom holder pivotally mountable on the deck of the vessel (P) in the middle between said foldable sail supports , wherein the bottom holder is arranged to tension and to roll said sail and arranged as storage compartment of said sail , a system of ropes, a bolt and tackle system, forestays , (5.1) and backstays , (6.1) for fastening and pre-tensioning elastically said foldable sail supports on the vessels, wherein a rope (4.3) of said system of ropes is arranged to run through a pulley (3.1) mounted on said connecting coupler to said holder (1.1) for lifting and lowering said sail , characterized in that in the middle or near the middle both said sail supports are designed so that they can be folded back or forth in relation to the axis of the vessel (P) or vehicle in order to be able to reduce the height at least by half, airfoils (2.1) with built-in tubes (2.2) located on the exist edge of the profile of each airfoil (2.1) are installed along the length of the two sail supports to increase the airfoil stability and to prevent injuries to the crew when colliding with the exit edge of the airfoils (2.1) and are arranged freely rotatable around their longitudinal axis of said sail supports. two foldable sail supports mountable on the deck on each side of the vessel (P), a connecting coupler for connecting said foldable sail supports on their top, a sail supported by said foldable sail supports , a holder (1.1) for holding and tensioning said sail upwards, a bottom holder pivotally mountable on the deck of the vessel (P) in the middle between said foldable sail supports , wherein the bottom holder is arranged to tension and to roll said sail and arranged as storage compartment of said sail , a system of ropes, a bolt and tackle system, forestays , (5.1) and backstays , (6.1) for fastening and pre-tensioning elastically said foldable sail supports on the vessels, wherein a rope (4.3) of said system of ropes is arranged to run through a pulley (3.1) mounted on said connecting coupler to said holder (1.1) for lifting and lowering said sail , characterized in that in the middle or near the middle both said sail supports are designed so that they can be folded back or forth in relation to the axis of the vessel (P) or vehicle in order to be able to reduce the height at least by half, airfoils (2.1) with built-in tubes (2.2) located on the exist edge of the profile of each airfoil (2.1) are installed along the length of the two sail supports to increase the airfoil stability and to prevent injuries to the crew when colliding with the exit edge of the airfoils (2.1) and are arranged freely rotatable around their longitudinal axis of said sail supports.