mhurhangee/patent-ind-claim-en huggingface dataset:
A display device (100"), comprising: a substrate having a sub-pixel area; a light-emitting diode disposed on the substrate in a reflection area (RA) of the sub-pixel area; a transistor disposed on the substrate in an emission area (EA) of the sub-pixel area; an extended light path layer disposed in the emission area (EA) and the reflection area (RA), and being extended in a horizontal direction of the sub-pixel area; and a first reflective layer disposed on the extended light path layer in the reflection area (RA), wherein the emission area (EA) and the reflection area (RA) are non-overlapping with each other in the sub-pixel area, wherein the transistor is configured to control the light-emitting diode and is electrically coupled to the light emitting diode , wherein the extended light path layer includes a color conversion material and overlies the transistor and the light emitting diode , and wherein the extended light path layer is configured to receive light emitted by the light-emitting diode and to guide the light emitted by the light emitting diode to the emission area (EA) overlying the transistor ; wherein the light-emitting diode and the transistor are non-overlapping with each other in the sub-pixel area; and wherein the extended light path layer has a groove (V) overlapped with the light-emitting diode . a substrate having a sub-pixel area; a light-emitting diode disposed on the substrate in a reflection area (RA) of the sub-pixel area; a transistor disposed on the substrate in an emission area (EA) of the sub-pixel area; an extended light path layer disposed in the emission area (EA) and the reflection area (RA), and being extended in a horizontal direction of the sub-pixel area; and a first reflective layer disposed on the extended light path layer in the reflection area (RA), wherein the emission area (EA) and the reflection area (RA) are non-overlapping with each other in the sub-pixel area, wherein the transistor is configured to control the light-emitting diode and is electrically coupled to the light emitting diode , wherein the extended light path layer includes a color conversion material and overlies the transistor and the light emitting diode , and wherein the extended light path layer is configured to receive light emitted by the light-emitting diode and to guide the light emitted by the light emitting diode to the emission area (EA) overlying the transistor ; wherein the light-emitting diode and the transistor are non-overlapping with each other in the sub-pixel area; and wherein the extended light path layer has a groove (V) overlapped with the light-emitting diode .
A system for evaluating irrigation condition in crops using thermal imagery, said system comprising: a) at least one thermal imagery system configured for thermal mapping of an area; b) at least one water potential detector configured for measuring water potential in a plant stem in which it is installed and transmitting data indicative of its measurements; and c) a central unit configured for receiving thermal imaging data indicative of acquired crop temperature maps, receiving data from the at least one water potential detector and for processing the received data for evaluating irrigation condition of the crop, characterized in that the central unit is configured for evaluating irrigation condition in crops using the data from the at least one water potential detector reference for calibrating the data from the thermal imagery system . a) at least one thermal imagery system configured for thermal mapping of an area; b) at least one water potential detector configured for measuring water potential in a plant stem in which it is installed and transmitting data indicative of its measurements; and c) a central unit configured for receiving thermal imaging data indicative of acquired crop temperature maps, receiving data from the at least one water potential detector and for processing the received data for evaluating irrigation condition of the crop, characterized in that
A seatback-motion controller for a vehicle seat including a seat base formed to include a pin-receiving slot and a cam-contact surface and a seat back mounted for forward and rearward pivotable movement about a seat-back pivot axis relative to the seat base between an upright use position and a forward-leaning easy-entry position, the seatback-motion controller comprising a foundation adapted to be coupled to the seat back to pivot therewith relative to the seat base about the seat-back pivot axis , a seat-back lock coupled to the foundation to move therewith during pivoting movement of the seat back about the seat-back pivot axis relative to the seat base , the seat-back lock including a latch having a motion-blocking latch pin and a swing arm coupled to the motion-blocking latch pin and arranged to pivot relative to the foundation about a latch pivot axis to move the motion-blocking latch pin relative to the foundation between a locked position located in the pin-receiving slot formed in the seat base to block pivotable movement of the seat back relative to the seat base in a counterclockwise direction from the upright use position to the forward-leaning easy-entry position and a withdrawn position located outside of the pin-receiving slot to disable the seat-back lock and free the seat back for pivotable movement from the upright use position to the forward-leaning easy-entry position, and a seat-back release manager including a cam-pivot post coupled to the foundation to move therewith and a friction cam mounted on the cam-pivot post for pivotable movement between an engaged position establishing frictional contact with the cam-contact surface included in the seat base to block pivotable movement of the seat back from the upright use position to the forward-leaning easy-entry position even when the motion-blocking latch pin is in the withdrawn position and a disengaged position disengaging the cam-contact surface included in the seat base to free the seat back for pivotable movement from the upright use position to the forward-leaning easy-entry position.
A spray delivery system comprising: a sprayable composition having a viscosity ranging from 500 centipoise to 10,000 centipoise, wherein the composition comprises a hydrofluoro-based propellant, a carrier fluid, one or more nonionic lipophilic emulsifiers and one or more nonionic hydrophilic emulsifiers, wherein a weight ratio of the one or more nonionic lipophilic emulsifiers to the one or more nonionic hydrophilic emulsifiers ranges from 5 to 30, and wherein the one or more nonionic lipophilic emulsifiers comprise a non-crosslinked dimethicone polyol, a sorbitan fatty acid ester, an octyldodecanol, or a combination thereof, and wherein the one or more nonionic hydrophilic emulsifiers comprise a sorbitan fatty acid ester modified with a polyoxyethylene, and active agent particles; and a container , wherein the container comprises a dip tube ; a valve assembly comprising a valve body , a stem comprising a stem orifice , and a vapor tap ; and an actuator (200; 203), wherein the dip tube is coupled to the actuator (200; 203) by the valve assembly , wherein the actuator is depressed to dispense the active agent composition stored in the container . a sprayable composition having a viscosity ranging from 500 centipoise to 10,000 centipoise, wherein the composition comprises a hydrofluoro-based propellant, a carrier fluid, one or more nonionic lipophilic emulsifiers and one or more nonionic hydrophilic emulsifiers, wherein a weight ratio of the one or more nonionic lipophilic emulsifiers to the one or more nonionic hydrophilic emulsifiers ranges from 5 to 30, and wherein the one or more nonionic lipophilic emulsifiers comprise a non-crosslinked dimethicone polyol, a sorbitan fatty acid ester, an octyldodecanol, or a combination thereof, and wherein the one or more nonionic hydrophilic emulsifiers comprise a sorbitan fatty acid ester modified with a polyoxyethylene, and active agent particles; and a container , wherein the container comprises a dip tube ; a valve assembly comprising a valve body , a stem comprising a stem orifice , and a vapor tap ; and an actuator (200; 203), wherein the dip tube is coupled to the actuator (200; 203) by the valve assembly , wherein the actuator is depressed to dispense the active agent composition stored in the container .
A zinc electrode , obtainable by a method according to any one of the claims 21 to 27, comprising a current collector material on which a zinc layer is electrodeposited, wherein the zinc layer appears as compact solid metal, comprises a boulder-like and/or layerlike microstructure and is adherent with a compact porosity.
Use of a reverse osmosis element with a high recovery rate for salt removal, the reverse osmosis element comprising - a reverse osmosis spacer with a high recovery rate; - a tube comprising an opening configured to receive a permeable liquid in a longitudinal direction; - one or more reverse osmosis membranes wound around the tube and extending outward from the tube and - the reverse osmosis spacer wound around the tube and being in contact with the one or more reverse osmosis membranes ; wherein the reverse osmosis spacer has a mesh shape having a plurality of strands having predetermined intersection points and forming a mesh having a two-layer structure and operates at a recovery rate of 60; a thickness of the reverse osmosis spacer is 0.2032 mm (8 mil) ; an angle at one side between the intersection points between the strands is 90°; the SPI (strand per Inch) of the strands is 16, corresponding to 6.3 strands per cm; the reverse osmosis element operates at pressure of 413.685 kPa (60 psi); wherein the reverse osmosis element operates at a raw water concentration of 20 ppm, which is the concentration of both salt and contaminants in the raw water. the reverse osmosis element comprising - a reverse osmosis spacer with a high recovery rate; - a tube comprising an opening configured to receive a permeable liquid in a longitudinal direction; - one or more reverse osmosis membranes wound around the tube and extending outward from the tube and - the reverse osmosis spacer wound around the tube and being in contact with the one or more reverse osmosis membranes ; - a reverse osmosis spacer with a high recovery rate; - a tube comprising an opening configured to receive a permeable liquid in a longitudinal direction; - one or more reverse osmosis membranes wound around the tube and extending outward from the tube and - the reverse osmosis spacer wound around the tube and being in contact with the one or more reverse osmosis membranes ; wherein the reverse osmosis spacer has a mesh shape having a plurality of strands having predetermined intersection points and forming a mesh having a two-layer structure and operates at a recovery rate of 60; a thickness of the reverse osmosis spacer is 0.2032 mm (8 mil) ; an angle at one side between the intersection points between the strands is 90°; the SPI (strand per Inch) of the strands is 16, corresponding to 6.3 strands per cm; the reverse osmosis element operates at pressure of 413.685 kPa (60 psi); wherein the reverse osmosis element operates at a raw water concentration of 20 ppm, which is the concentration of both salt and contaminants in the raw water. the reverse osmosis element operates at pressure of 413.685 kPa (60 psi); wherein the reverse osmosis element operates at a raw water concentration of 20 ppm, which is the concentration of both salt and contaminants in the raw water.
A method, comprising: at an electronic device having memory, one or more processors, a speaker, and a microphone: sending a first set of ultrasound chirps at a first rate via the speaker; receiving , via the microphone, a first set of signals corresponding to the first set of ultrasound chirps and being reflected from a person, the method being characterized in determining based on the first set of signals that the person is in proximity to the electronic device; and in accordance with the determination that the person is in proximity to the electronic device, sending a second set of ultrasound chirps at a second rate, faster than the first rate; receiving , via the microphone, a second set of signals corresponding to the second set of ultrasound chirps; and identifying a gesture from the person based on the second set of signals. sending a first set of ultrasound chirps at a first rate via the speaker; receiving , via the microphone, a first set of signals corresponding to the first set of ultrasound chirps and being reflected from a person, the method being characterized in determining based on the first set of signals that the person is in proximity to the electronic device; and in accordance with the determination that the person is in proximity to the electronic device, sending a second set of ultrasound chirps at a second rate, faster than the first rate; receiving , via the microphone, a second set of signals corresponding to the second set of ultrasound chirps; and identifying a gesture from the person based on the second set of signals.
A method for wireless communications by a user equipment, UE, comprising: receiving a deployment configuration for an in-band mode of operation within system bandwidth of a type of radio access technology, RAT; and operating as if configured to operate within a guard-band of the system bandwidth or in a standalone mode while communicating in the in-band mode. receiving a deployment configuration for an in-band mode of operation within system bandwidth of a type of radio access technology, RAT; and operating as if configured to operate within a guard-band of the system bandwidth or in a standalone mode while communicating in the in-band mode.
A gaseous fuel CPOX reformer comprising: an array of spaced-apart CPOX reactor units, each CPOX reactor unit comprising an elongate tube having a gas-permeable wall with an internal surface and an external surface, the gas-permeable wall enclosing an open gaseous flow passageway and defining an inlet and an outlet of the CPOX reactor unit, the open gaseous flow passageway being a conduit or channel for the passage of gas therethrough where a solid, including a porous solid or material, is not present across the entire cross-sectional plane of the conduit or channel extending from the inlet to the outlet of the CPOX reactor unit, wherein a CPOX reactor unit is in thermal communication with at least an adjacent CPOX reactor unit(s) in the array, at least a section of the wall containing a CPOX catalyst partially or completely forming, disposed on an internal surface of, or disposed within the structure of the gas-permeable wall, a hydrogen barrier associated with the external surface of at least the CPOX catalyst-containing wall section of the CPOX reactor units, and an igniter in thermal communication with the CPOX catalyst of the CPOX catalyst containing wall section of at least one CPOX reactor unit. an array of spaced-apart CPOX reactor units, each CPOX reactor unit comprising an elongate tube having a gas-permeable wall with an internal surface and an external surface, the gas-permeable wall enclosing an open gaseous flow passageway and defining an inlet and an outlet of the CPOX reactor unit, the open gaseous flow passageway being a conduit or channel for the passage of gas therethrough where a solid, including a porous solid or material, is not present across the entire cross-sectional plane of the conduit or channel extending from the inlet to the outlet of the CPOX reactor unit, wherein a CPOX reactor unit is in thermal communication with at least an adjacent CPOX reactor unit(s) in the array, at least a section of the wall containing a CPOX catalyst partially or completely forming, disposed on an internal surface of, or disposed within the structure of the gas-permeable wall, a hydrogen barrier associated with the external surface of at least the CPOX catalyst-containing wall section of the CPOX reactor units, and an igniter in thermal communication with the CPOX catalyst of the CPOX catalyst containing wall section of at least one CPOX reactor unit.
Aqueous ink jet coating composition, the coating composition comprising a cationic polymer, the cationic polymer being a diallyldimethylammoniumchloride polymer, and an anionic surfactant, characterized in that the weight-average molecular weight (Mw) of the cationic polymer is in the range of 300 000 g/mole to 600 000 g/mole.
A method for manufacturing plywood, comprising: receiving a face sheet on a main conveyor ; and feeding a plurality of pieces of core veneer onto a veneer conveyor by an automated core veneer feeder ; characterized in that the method further comprises: detecting each of the plurality of pieces of core veneer on the veneer conveyor by one or more sensors ; calculating, by a processor based on data received from the one or more sensors , a position and a size of each of the plurality of pieces of core veneer on the veneer conveyor ; aligning the plurality of pieces of core veneer by one or more forward actuators , wherein the one or more forward actuators are directed by the processor to individually move the each of the plurality of pieces of core veneer up and down the veneer conveyor , wherein the aligning ensures that there are no gaps between adjacent pieces of core veneer and that the adjacent pieces of core veneer do not overlap, removing, by an automated core veneer layer , the plurality of pieces of core veneer from the veneer conveyor after the plurality of pieces of core veneer have been properly aligned; and placing, by the automated core veneer layer , the plurality of pieces of core veneer onto the face sheet. receiving a face sheet on a main conveyor ; and feeding a plurality of pieces of core veneer onto a veneer conveyor by an automated core veneer feeder ; detecting each of the plurality of pieces of core veneer on the veneer conveyor by one or more sensors ; calculating, by a processor based on data received from the one or more sensors , a position and a size of each of the plurality of pieces of core veneer on the veneer conveyor ; aligning the plurality of pieces of core veneer by one or more forward actuators , wherein the one or more forward actuators are directed by the processor to individually move the each of the plurality of pieces of core veneer up and down the veneer conveyor , wherein the aligning ensures that there are no gaps between adjacent pieces of core veneer and that the adjacent pieces of core veneer do not overlap, removing, by an automated core veneer layer , the plurality of pieces of core veneer from the veneer conveyor after the plurality of pieces of core veneer have been properly aligned; and placing, by the automated core veneer layer , the plurality of pieces of core veneer onto the face sheet.
A heat exchanger comprising: a plurality of flat pipes arranged side by side in a step direction predetermined, an inside of each of the plurality of flat pipes being provided with a passage of refrigerant; and a header collecting pipe to which the plurality of flat pipes are connected, the header collecting pipe extending along the step direction, wherein the header collecting pipe includes: a flat pipe-side header forming member to which the plurality of flat pipes are inserted; and an opposite-side header forming member facing the flat pipe-side header forming member and forming an internal space between the flat pipe-side header forming member and the opposite-side header forming member, the flat pipe-side header forming member has a flat pipe-side curved portion protruding toward the plurality of flat pipes when viewed along the step direction, the opposite-side header forming member has an opposite-side curved portion protruding toward a side away from the plurality of flat pipes when viewed along the step direction, and an inner diameter of the opposite-side curved portion is smaller than an inner diameter of the flat pipe-side curved portion, wherein the inner diameter of the flat pipe-side curved portion is larger than a width of each of the plurality of flat pipes, characterized in that the inner diameter of the opposite-side curved portion is smaller than the width of each of the plurality of flat pipes. a plurality of flat pipes arranged side by side in a step direction predetermined, an inside of each of the plurality of flat pipes being provided with a passage of refrigerant; and a header collecting pipe to which the plurality of flat pipes are connected, the header collecting pipe extending along the step direction, wherein the header collecting pipe includes: a flat pipe-side header forming member to which the plurality of flat pipes are inserted; and an opposite-side header forming member facing the flat pipe-side header forming member and forming an internal space between the flat pipe-side header forming member and the opposite-side header forming member, a flat pipe-side header forming member to which the plurality of flat pipes are inserted; and an opposite-side header forming member facing the flat pipe-side header forming member and forming an internal space between the flat pipe-side header forming member and the opposite-side header forming member, the flat pipe-side header forming member has a flat pipe-side curved portion protruding toward the plurality of flat pipes when viewed along the step direction, the opposite-side header forming member has an opposite-side curved portion protruding toward a side away from the plurality of flat pipes when viewed along the step direction, and an inner diameter of the opposite-side curved portion is smaller than an inner diameter of the flat pipe-side curved portion, wherein the inner diameter of the flat pipe-side curved portion is larger than a width of each of the plurality of flat pipes, characterized in that the inner diameter of the opposite-side curved portion is smaller than the width of each of the plurality of flat pipes.
An electronically controlled throttle device comprising: a pair of throttle bodies that are disposed adjacent to each other and in each of which an intake passage corresponding to each cylinder of an engine is defined; spigots that are respectively formed in engine-side end parts of the intake passages of the throttle bodies, axis lines (C2) of which are formed to have eccentricity in a direction away from each other with axis lines (C1) of the intake passages being as references, and to each of which one end of a joint member extending from the corresponding cylinder of the engine is fitted; a throttle shaft rotatably supported in the throttle bodies and supporting throttle valves respectively disposed in the intake passages; and a gear unit that is disposed between the throttle bodies to be connected to the throttle shaft, drives and rotates the throttle shaft with driving force from a motor via a built-in gear train to be capable of synchronously opening and closing the throttle valves, and a part of which is positioned between the spigots of the throttle bodies. a pair of throttle bodies that are disposed adjacent to each other and in each of which an intake passage corresponding to each cylinder of an engine is defined; spigots that are respectively formed in engine-side end parts of the intake passages of the throttle bodies, axis lines (C2) of which are formed to have eccentricity in a direction away from each other with axis lines (C1) of the intake passages being as references, and to each of which one end of a joint member extending from the corresponding cylinder of the engine is fitted; a throttle shaft rotatably supported in the throttle bodies and supporting throttle valves respectively disposed in the intake passages; and a gear unit that is disposed between the throttle bodies to be connected to the throttle shaft, drives and rotates the throttle shaft with driving force from a motor via a built-in gear train to be capable of synchronously opening and closing the throttle valves, and a part of which is positioned between the spigots of the throttle bodies.