mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic watch comprising: an enclosure having a transparent cover defining a touch-sensitive surface; a display positioned within the enclosure and below the transparent cover; and a haptic device configured to produce a haptic output along the touch-sensitive surface, the haptic device comprising: a battery element electrically coupled to the display ; a magnetic element coupled to the battery element ; a coil assembly fixed with respect to the enclosure ; and a drive circuit configured to provide an oscillating current to the coil assembly , the oscillating current inducing an oscillatory movement of the magnetic element and the battery element in a direction parallel to at least a portion of the display , the movement of the magnetic element and the battery element producing the haptic output. an enclosure having a transparent cover defining a touch-sensitive surface; a display positioned within the enclosure and below the transparent cover; and a haptic device configured to produce a haptic output along the touch-sensitive surface, the haptic device comprising: a battery element electrically coupled to the display ; a magnetic element coupled to the battery element ; a coil assembly fixed with respect to the enclosure ; and a battery element electrically coupled to the display ; a magnetic element coupled to the battery element ; a coil assembly fixed with respect to the enclosure ; and a drive circuit configured to provide an oscillating current to the coil assembly , the oscillating current inducing an oscillatory movement of the magnetic element and the battery element in a direction parallel to at least a portion of the display , the movement of the magnetic element and the battery element producing the haptic output.
A system for simultaneously removing ammonia and nitrates from a liquid, the system comprising: a nitrifying volume for nitrification of a liquid where the nitrifying volume is a relatively oxygenated region and where the nitrifying volume is in communication with an oxygen-supplying source for providing oxygen to create the relatively oxygenated region; a denitrifying volume for de-nitrification of the liquid where the denitrifying volume is a relatively oxygen-depleted region, and wherein; one of the nitrifying volume and the denitrifying volume resides substantially within the other of the nitrifying volume and the denitrifying volume and where the nitrifying volume and the denitrifying volume are in fluid communication the one of the nitrifying volume and the de-nitrifying volume is a fluid body having a bottom , where the liquid in the fluid body has a top surface , and where the other of the nitrifying volume and denitrifying volume resides substantially in the fluid body and comprises at least one columnar unit , where the columnar unit is substantially fixed with regard to at least one of the bottom of the fluid body and the top surface of the liquid; and the columnar unit includes an outer sheath having a plurality of apertures therein, the outer sheath being moveable with respect to the columnar unit such that selected apertures in the outer sheath align with the at least one aperture in the columnar unit, thereby creating at least one selectable through-aperture through which fluid inside the columnar tube is in communication with fluid outside the columnar tube. a nitrifying volume for nitrification of a liquid where the nitrifying volume is a relatively oxygenated region and where the nitrifying volume is in communication with an oxygen-supplying source for providing oxygen to create the relatively oxygenated region; a denitrifying volume for de-nitrification of the liquid where the denitrifying volume is a relatively oxygen-depleted region, and wherein; one of the nitrifying volume and the denitrifying volume resides substantially within the other of the nitrifying volume and the denitrifying volume and where the nitrifying volume and the denitrifying volume are in fluid communication the one of the nitrifying volume and the de-nitrifying volume is a fluid body having a bottom , where the liquid in the fluid body has a top surface , and where the other of the nitrifying volume and denitrifying volume resides substantially in the fluid body and comprises at least one columnar unit , where the columnar unit is substantially fixed with regard to at least one of the bottom of the fluid body and the top surface of the liquid; and the columnar unit includes an outer sheath having a plurality of apertures therein, the outer sheath being moveable with respect to the columnar unit such that selected apertures in the outer sheath align with the at least one aperture in the columnar unit, thereby creating at least one selectable through-aperture through which fluid inside the columnar tube is in communication with fluid outside the columnar tube.
A refrigerator , comprising: a main body including a refrigerating compartment ; a door configured to open and close the refrigerating compartment ; and an ice-making compartment disposed in the refrigerating compartment , characterised in that : the ice-making compartment includes: an ice-making housing (no) disposed in the refrigerating compartment ; an ice maker configured to produce ice; and an ice bucket configured to store the ice produced by the ice maker , wherein the ice-making housing includes an ice bucket mounting hole formed to allow the ice bucket to be introduced or withdrawn; wherein the door includes a space configured to store food or an article, recessed in a rear surface of the door and formed at a position corresponding to the ice-making compartment ; a sealing member disposed at an outer edge of the space , and a cool air outlet formed between the ice bucket and the ice-making housing , wherein when the door is closed, the sealing member is configured to surround an outer side of the ice bucket mounting hole to prevent cool air from escaping from the ice-making compartment and the space of the door , and cool air of the ice-making compartment is moved to the space through the cool air outlet so that a temperature of the space is lower than a temperature of the refrigerating compartment . a main body including a refrigerating compartment ; a door configured to open and close the refrigerating compartment ; and an ice-making compartment disposed in the refrigerating compartment , characterised in that : the ice-making compartment includes: an ice-making housing (no) disposed in the refrigerating compartment ; an ice maker configured to produce ice; and an ice bucket configured to store the ice produced by the ice maker , an ice-making housing (no) disposed in the refrigerating compartment ; an ice maker configured to produce ice; and an ice bucket configured to store the ice produced by the ice maker , wherein the ice-making housing includes an ice bucket mounting hole formed to allow the ice bucket to be introduced or withdrawn; wherein the door includes a space configured to store food or an article, recessed in a rear surface of the door and formed at a position corresponding to the ice-making compartment ; a sealing member disposed at an outer edge of the space , and a cool air outlet formed between the ice bucket and the ice-making housing , wherein when the door is closed, the sealing member is configured to surround an outer side of the ice bucket mounting hole to prevent cool air from escaping from the ice-making compartment and the space of the door , and cool air of the ice-making compartment is moved to the space through the cool air outlet so that a temperature of the space is lower than a temperature of the refrigerating compartment .
Method for manufacturing a pressure vessel , which is preferably provided for use in bladder accumulators, comprising the following manufacturing steps: - Providing a support structure , more particularly in the form of a liner; - Applying a fibrous material to the support structure to form a base structure ; - Placing the base structure in a heatable mould apparatus ; and - Introducing a matrix between the mould apparatus and the base structure , which at least partially penetrates the fibrous material , characterised in that the inner pressure of the support structure is increased during introduction of the solvent-based matrix. - Providing a support structure , more particularly in the form of a liner; - Applying a fibrous material to the support structure to form a base structure ; - Placing the base structure in a heatable mould apparatus ; and - Introducing a matrix between the mould apparatus and the base structure , which at least partially penetrates the fibrous material ,
Assembly comprising a turbine engine and a main gearbox (MGB) for a helicopter having a rotor , said main gearbox comprising a speed-reducing device housed entirely within the main gearbox while also being adapted to be connected to said rotor, the turbine engine, not having a speed reducer, comprising a casing , a gas generator with a gas generator shaft , and a free turbine for being driven in rotation by a gas stream generated by the gas generator, said free turbine having a free turbine shaft , wherein, when the turbine engine is fastened to the main gearbox , the free turbine shaft extends axially into the main gearbox in order to be connected directly to the speed-reducer device , characterized in that the turbine engine further includes a device for taking up axial forces from the gas generator shaft, the device being arranged radially between the free turbine shaft and the gas generator shaft , and in that the turbine engine further includes a sealing gasket arranged radially between the free turbine shaft and the gas generator shaft .
Conveyor system of a machining unit , comprising a conveyor having a discharge region , at least one collection container (4, 4.1 - 4.3) which is able to be positioned so as to be adjacent to the discharge region , characterized in that the conveyor system comprises at least one positioning unit by means of which the collection container (4, 4.1 - 4.3) is able to be positioned; wherein the collection container (4, 4.1 - 4.3) is able to be releasably connected to a positioning element of the positioning unit ; wherein the collection container (4, 4.1 - 4.3) has a first coupling element configured in the manner of a sword, and the positioning element has a second coupling element which is connected in a locationally fixed manner to the positioning element . characterized in that the conveyor system comprises at least one positioning unit by means of which the collection container (4, 4.1 - 4.3) is able to be positioned; wherein the collection container (4, 4.1 - 4.3) is able to be releasably connected to a positioning element of the positioning unit ; wherein the collection container (4, 4.1 - 4.3) has a first coupling element configured in the manner of a sword, and the positioning element has a second coupling element which is connected in a locationally fixed manner to the positioning element .
A microfluidic device comprising: (a) a channel extending from a plurality of inlets to a plurality of outlets, wherein the channel is bounded by a first wall and a second wall opposite from the first wall; and (b) an array of obstacles disposed within the channel configured to deflect particles in a sample comprising the particles toward the second wall when the particles are flowed from the inlets to the outlets, wherein the obstacles in the microfluidic device are configured in a deterministic lateral displacement (DLD) array such that the particles are inputted into at least one of the plurality of inlets and are deflected through a series of parallel flow streams flowing from the plurality of inlets to the plurality of outlets while being deflected toward the second wall, wherein at least four flow streams in the series of parallel flow streams comprise a reagent, and wherein the array of obstacles comprises at least one separator wall oriented parallel to flow of the plurality of flow streams and the first and second walls, wherein the particles introduced into an sample inlet near the first wall pass through the plurality of flow streams while being deflected toward the second wall. (a) a channel extending from a plurality of inlets to a plurality of outlets, wherein the channel is bounded by a first wall and a second wall opposite from the first wall; and (b) an array of obstacles disposed within the channel configured to deflect particles in a sample comprising the particles toward the second wall when the particles are flowed from the inlets to the outlets, wherein the obstacles in the microfluidic device are configured in a deterministic lateral displacement (DLD) array such that the particles are inputted into at least one of the plurality of inlets and are deflected through a series of parallel flow streams flowing from the plurality of inlets to the plurality of outlets while being deflected toward the second wall, wherein at least four flow streams in the series of parallel flow streams comprise a reagent, and wherein the array of obstacles comprises at least one separator wall oriented parallel to flow of the plurality of flow streams and the first and second walls, wherein the particles introduced into an sample inlet near the first wall pass through the plurality of flow streams while being deflected toward the second wall.
A manufacturing method for a high molecular weight aromatic polycarbonate resin, the method comprising: a step of mixing 2-butyl-2-ethyl-1,3-propane glycol and a catalyst to produce a catalyst composition in a liquid form, a step of mixing the catalyst composition in a liquid form and an aromatic polycarbonate prepolymer within a period of 10 hours from the time of production of the catalyst composition, to obtain a prepolymer mixture, and a high molecular weight achievement step of heat-treating the obtained prepolymer mixture under reduced pressure conditions to obtain a high molecular weight aromatic polycarbonate resin, wherein the weight average molecular weight (Mw) of the high molecular weight aromatic polycarbonate resin obtained in the manufacturing method is 35,000 to 100,000 and the weight average molecular weight (Mw) is measured as indicated in the specification. a step of mixing 2-butyl-2-ethyl-1,3-propane glycol and a catalyst to produce a catalyst composition in a liquid form, a step of mixing the catalyst composition in a liquid form and an aromatic polycarbonate prepolymer within a period of 10 hours from the time of production of the catalyst composition, to obtain a prepolymer mixture, and a high molecular weight achievement step of heat-treating the obtained prepolymer mixture under reduced pressure conditions to obtain a high molecular weight aromatic polycarbonate resin, wherein the weight average molecular weight (Mw) of the high molecular weight aromatic polycarbonate resin obtained in the manufacturing method is 35,000 to 100,000 and the weight average molecular weight (Mw) is measured as indicated in the specification.
A non-surfactant type oil-water (O/W) dispersion composition comprising non-polar solvent droplets in a polar solvent, wherein the transparency of the dispersion composition is 90 to 100% and wherein the average particle diameter of the non-polar solvent droplets is 20 nm or less.
A floor drain for draining water from a walk-in floor into a sewerage pipe, comprising - an inlet channel socket , - a first receiving body for the inlet channel socket , - a second receiving body for the first receiving body , and - a drain housing following the second receiving body in the water drainage direction, which is preferably designed as an odor trap, wherein the first receiving body has a bowl-shaped section (3.1), to the outer edge of which a flexible sealing mat (3.2) is connected in a liquid-tight manner and the bottom of which passes into a first drain connection piece (3.3) which can be inserted into the second receiving body , wherein the second receiving body has a bowl-shaped portion (4.1) on which an outwardly projecting flange (4.2) is integrally formed or attached, and wherein the bowl-shaped portion (4.1) of the second receiving body passes into a second drain connection piece (4.3). - an inlet channel socket , - a first receiving body for the inlet channel socket , - a second receiving body for the first receiving body , and - a drain housing following the second receiving body in the water drainage direction, which is preferably designed as an odor trap, wherein the first receiving body has a bowl-shaped section (3.1), to the outer edge of which a flexible sealing mat (3.2) is connected in a liquid-tight manner and the bottom of which passes into a first drain connection piece (3.3) which can be inserted into the second receiving body , wherein the second receiving body has a bowl-shaped portion (4.1) on which an outwardly projecting flange (4.2) is integrally formed or attached, and wherein the bowl-shaped portion (4.1) of the second receiving body passes into a second drain connection piece (4.3).
A container assembly comprising: a container having a first chamber formed from a base wall and a container sidewall that extends from the base wall to surround the first chamber , the container sidewall defining an aperture into the first chamber ; a closure attached to the aperture , the closure including a collar surrounding a passage that extends through the aperture to the first chamber , the collar having a hingedly connected lid that is movable between an open and closed position to occlude the passage ; wherein the closure includes a second chamber separated from the first chamber by a barrier wall that is openable to permit material flow between the first and second chambers and wherein the second chamber is formed integrally with the collar and partially occludes the passage; characterised in that the second chamber includes a second chamber top wall that is depressible, in use, to rupture the barrier wall wherein said barrier wall is configured to rupture by an increasing fluid pressure in the second chamber generated by depression of the second chamber top wall . a container having a first chamber formed from a base wall and a container sidewall that extends from the base wall to surround the first chamber , the container sidewall defining an aperture into the first chamber ; a closure attached to the aperture , the closure including a collar surrounding a passage that extends through the aperture to the first chamber , the collar having a hingedly connected lid that is movable between an open and closed position to occlude the passage ; wherein the closure includes a second chamber separated from the first chamber by a barrier wall that is openable to permit material flow between the first and second chambers and wherein the second chamber is formed integrally with the collar and partially occludes the passage; characterised in that the second chamber includes a second chamber top wall that is depressible, in use, to rupture the barrier wall wherein said barrier wall is configured to rupture by an increasing fluid pressure in the second chamber generated by depression of the second chamber top wall .
A composition having the following chemical structure: wherein: L 1 represents a polymeric linker having the following structure: R 1 , R 2 , R 3 , and R 4 are -OR', wherein R' is independently selected in each instance from hydrogen atom and hydrocarbon groups containing 1-6 carbon atoms and optionally containing one or more heteroatoms selected from N, O, S, and halogen atoms, and wherein R 1 and R 2 are optionally interconnected to form a polymeric linker L 2 , and/or wherein R 3 and R 4 are optionally interconnected to form a polymeric linker L 3 , wherein L 2 and L 3 are each independently represented by the structure provided for L 1 , except that the subscript m is taken independently among L 1 , L 2 , and L 3 ; the subscript n is an integer of at least 2; and the subscript m is an integer of at least 2 and up to 10. L 1 represents a polymeric linker having the following structure: R 1 , R 2 , R 3 , and R 4 are -OR', wherein R' is independently selected in each instance from hydrogen atom and hydrocarbon groups containing 1-6 carbon atoms and optionally containing one or more heteroatoms selected from N, O, S, and halogen atoms, and wherein R 1 and R 2 are optionally interconnected to form a polymeric linker L 2 , and/or wherein R 3 and R 4 are optionally interconnected to form a polymeric linker L 3 , wherein L 2 and L 3 are each independently represented by the structure provided for L 1 , except that the subscript m is taken independently among L 1 , L 2 , and L 3 ; the subscript n is an integer of at least 2; and the subscript m is an integer of at least 2 and up to 10.
A gypsum-based building material with a magnetic layer , comprising: the gypsum-based building material ; the magnetic layer covering at least a part of a surface of the gypsum-based building material , wherein the magnetic layer contains iron powder and a binder, characterised in that a content per unit area of the iron powder is 0.3 kg/m 2 or more and a density of the magnetic layer is 2.0 g/cm 3 or more. the gypsum-based building material ; the magnetic layer covering at least a part of a surface of the gypsum-based building material , wherein the magnetic layer contains iron powder and a binder, characterised in that a content per unit area of the iron powder is 0.3 kg/m 2 or more and a density of the magnetic layer is 2.0 g/cm 3 or more.
An aircraft , comprising: an electronically controlled engine, ECE ; characterized by a first throttle fly button configured to command a FLY mode; and a first throttle idle button configured to command an IDLE mode, wherein: the first throttle fly button is further configured to command a plurality of FLY modes; and when the ECE is performing one of the plurality of FLY modes, the ECE is configured to perform another of the plurality of FLY modes in response to detecting that the first throttle fly button has been activated. an electronically controlled engine, ECE ; characterized by a first throttle fly button configured to command a FLY mode; and a first throttle idle button configured to command an IDLE mode, wherein: the first throttle fly button is further configured to command a plurality of FLY modes; and when the ECE is performing one of the plurality of FLY modes, the ECE is configured to perform another of the plurality of FLY modes in response to detecting that the first throttle fly button has been activated. the first throttle fly button is further configured to command a plurality of FLY modes; and when the ECE is performing one of the plurality of FLY modes, the ECE is configured to perform another of the plurality of FLY modes in response to detecting that the first throttle fly button has been activated.