mhurhangee/ep-ind-claims huggingface dataset:
A method of reinforcing and/or lining an object comprising a wood composite, cardboard, concrete, brick, plaster, stone or sandwich structures with hard cover layers and comparably softer filling between the cover layers, the method comprising the steps of: - providing an initial opening in the object; - providing a thermoplastic reinforcement and/or lining element and a tool; - placing the reinforcement and/or lining element in the initial opening, placing the tool in contact with a face of the reinforcement and/or lining element and pressing the tool against the face while energy is coupled into the tool and while a periphery of a liquefaction interface of the tool and the reinforcement and/or lining element is within the opening; - thereby liquefying material of the reinforcement and/or lining element at the liquefaction interface to yield liquefied material, causing a relative movement of the tool with respect to the reinforcement and/or lining element, and causing portions of the liquefied material to penetrate into pores and/or cavities of the object; - allowing the liquefied material to harden and to thereby become reinforcement and/or lining material; and - removing the tool, - wherein at the liquefaction interface a full cross section of the reinforcement and/or lining element is liquefied. - providing an initial opening in the object; - providing a thermoplastic reinforcement and/or lining element and a tool; - placing the reinforcement and/or lining element in the initial opening, placing the tool in contact with a face of the reinforcement and/or lining element and pressing the tool against the face while energy is coupled into the tool and while a periphery of a liquefaction interface of the tool and the reinforcement and/or lining element is within the opening; - thereby liquefying material of the reinforcement and/or lining element at the liquefaction interface to yield liquefied material, causing a relative movement of the tool with respect to the reinforcement and/or lining element, and causing portions of the liquefied material to penetrate into pores and/or cavities of the object; - allowing the liquefied material to harden and to thereby become reinforcement and/or lining material; and - removing the tool, - wherein at the liquefaction interface a full cross section of the reinforcement and/or lining element is liquefied.
An optoelectric device (10; 70) comprising microwires or nanowires on a support (14, 20, 22), each microwire or nanowire comprising at least one portion mainly containing a III-V compound in contact with the support, wherein the III-V compound is based on a first group-V element and on a second group-III element, wherein a surface of the support (14, 20, 22) comprises first areas of a first material promoting the growth of the III-V compound according to the polarity of the first element distributed in a second area of a second material promoting the growth of the compound according to the polarity of the second element, the microwires or nanowires being located on the first areas, characterized in that the periphery of said portion is covered with a layer of a dielectric material from the support up to part of the total height of said portion, in that the dielectric material comprises the first element and a third element, different from the first and second elements, and in that each microwire or nanowire further comprises the third element up to said part of the total height only.
A method for operating a fuel injector of a gas turbine engine, the method comprising: injecting a hydrogen-based primary fuel from a primary fuel passage of a fuel injector directly into a combustion chamber, the primary fuel passage comprising a primary fuel outlet located within the combustion chamber; injecting a second fuel, different than the hydrogen-based primary fuel, from a secondary fuel passage of the fuel injector into a hood chamber separated from the combustion chamber by a bulkhead, the secondary fuel passage comprising a plurality of secondary fuel outlets located within the hood chamber; wherein the bulkhead comprises at least one opening extending between the combustion chamber and the hood chamber, the method further comprising providing a swirler extending through the at least one opening, the swirler comprising a swirler exit plane defined by a downstream end of the swirler, characterized in that the swirler is located radially outside of the fuel injector with regard to a fuel injector center axis. injecting a hydrogen-based primary fuel from a primary fuel passage of a fuel injector directly into a combustion chamber, the primary fuel passage comprising a primary fuel outlet located within the combustion chamber; injecting a second fuel, different than the hydrogen-based primary fuel, from a secondary fuel passage of the fuel injector into a hood chamber separated from the combustion chamber by a bulkhead, the secondary fuel passage comprising a plurality of secondary fuel outlets located within the hood chamber; wherein the bulkhead comprises at least one opening extending between the combustion chamber and the hood chamber, the method further comprising providing a swirler extending through the at least one opening, the swirler comprising a swirler exit plane defined by a downstream end of the swirler, characterized in that the swirler is located radially outside of the fuel injector with regard to a fuel injector center axis.
A moving object control apparatus, comprising a driving control unit that is configured to control acceleration/deceleration of a moving object on a basis of recognition of at least one of a candidate for getting on the moving object or a candidate for getting off the moving object, wherein the driving control unit is configured to perform, on a basis of at least one of recognition of getting on the moving object of the candidate for getting on or recognition of getting off the moving object of the candidate for getting off, starting control of the moving object, wherein the recognition of the candidate for getting on is performed on an area in a vicinity of a predetermined stop candidate point of the moving object, characterised in that the recognition is performed on a priority recognition area (Ala, A2a), wherein the priority recognition area (Ala, A2a) is set on a basis of a predetermined reference position in the stop candidate point, wherein the priority recognition area (Ala, A2a) is an area of a high possibility for presence of the candidate for getting on. a driving control unit that is configured to control acceleration/deceleration of a moving object on a basis of recognition of at least one of a candidate for getting on the moving object or a candidate for getting off the moving object, wherein the driving control unit is configured to perform, on a basis of at least one of recognition of getting on the moving object of the candidate for getting on or recognition of getting off the moving object of the candidate for getting off, starting control of the moving object, wherein the recognition of the candidate for getting on is performed on an area in a vicinity of a predetermined stop candidate point of the moving object, characterised in that the recognition is performed on a priority recognition area (Ala, A2a), wherein the priority recognition area (Ala, A2a) is set on a basis of a predetermined reference position in the stop candidate point, wherein the priority recognition area (Ala, A2a) is an area of a high possibility for presence of the candidate for getting on.
A method of performing solid phase extraction comprising: injecting a sample comprising glycans into a solid phase extraction cartridge comprising a stationary phase, wherein the glycans are retained by the stationary phase; and washing the solid phase extraction cartridge with an eluent solution comprising a divalent or higher valency carboxylic acid at a concentration of between about 1 mM to about 100 mM to elute the glycans from the solid phase extraction cartridge. injecting a sample comprising glycans into a solid phase extraction cartridge comprising a stationary phase, wherein the glycans are retained by the stationary phase; and washing the solid phase extraction cartridge with an eluent solution comprising a divalent or higher valency carboxylic acid at a concentration of between about 1 mM to about 100 mM to elute the glycans from the solid phase extraction cartridge.
An air pollution control device, comprising: - at least one module for growing plants, each module comprising at least one panel able to be fixed to a vertical wall, and an inner cavity, - a substrate able to be placed in the inner cavity of the module, and - a circuit for irrigating the substrate adapted to convey water into the inner cavity of the module, - a circuit for ventilating the substrate adapted to take polluted air from a source of polluted air and to convey the polluted air into the inner cavity of the module, - a supply duct extending into the inner cavity of a module by opening into said cavity through at least one orifice, defining around said orifice an area called ventilated area while the rest of the cavity is an area called neutral area, said supply duct being common to the irrigation circuit and to the ventilation circuit, and - a moistened wick or a rot-proof knot rope disposed in the supply duct, the device being characterized in that the supply duct is a pipe configured to generate micro-bubbles of humid polluted air so as to ventilate the ventilated area. - at least one module for growing plants, each module comprising at least one panel able to be fixed to a vertical wall, and an inner cavity, - a substrate able to be placed in the inner cavity of the module, and - a circuit for irrigating the substrate adapted to convey water into the inner cavity of the module, - a circuit for ventilating the substrate adapted to take polluted air from a source of polluted air and to convey the polluted air into the inner cavity of the module, - a supply duct extending into the inner cavity of a module by opening into said cavity through at least one orifice, defining around said orifice an area called ventilated area while the rest of the cavity is an area called neutral area, said supply duct being common to the irrigation circuit and to the ventilation circuit, and - a moistened wick or a rot-proof knot rope disposed in the supply duct, the device being characterized in that the supply duct is a pipe configured to generate micro-bubbles of humid polluted air so as to ventilate the ventilated area.
Adsorbent material having the following formula: Cu w Zn x Fe y Al z 2 (y+z)/2 •mH 2 O wherein w+x+y+z=1; and 0.20≤w≤0.60; 0.20≤x≤0.60; 0.05≤y≤0.25; 0.05≤z≤0.25; 0.20≤(y+z)≤0.33; and 0.50 ≤ m ≤ 0.80, wherein the adsorbent material is in a form of a hydrotalcite-like and aurichalcite-like structure. Cu w Zn x Fe y Al z 2 (y+z)/2 •mH 2 O wherein w+x+y+z=1; and 0.20≤w≤0.60; 0.20≤x≤0.60; 0.05≤y≤0.25; 0.05≤z≤0.25; 0.20≤(y+z)≤0.33; and 0.50 ≤ m ≤ 0.80, wherein the adsorbent material is in a form of a hydrotalcite-like and aurichalcite-like structure.
Handheld power tool comprising a housing with a handle, a drive motor which is arranged in the housing, and a first interface, wherein the interface is designed to receive information from at least a second external interface and/or to transmit information to at least a second external interface, wherein the housing has a receiving opening, wherein the interface is arranged in the receiving opening in a removeable manner; wherein the receiving opening can be closed by a cover in a detachable manner; and wherein the cover closes off the housing towards the outside, characterized in that the receiving opening is arranged in the region of the handle.
A method for determining the response capabilities of a control effector, the method comprising the steps of: processing at least command data and sensor data associated with the control effector (109-1 to - N) to generate control effector health data representative of control effector health; and processing the control effector health data in a reasoner to: (i) selectively indict and clear one or more faults, (ii) determine failures caused by indicted faults, and (iii) determine, based on the one or more determined failures, a usable range of control effector commands to which the control effector can respond, wherein the failures include one or more binary failures and one or more parametric failures and further comprising determining the degree of degradation of each of the one or more parametric failures. processing at least command data and sensor data associated with the control effector (109-1 to - N) to generate control effector health data representative of control effector health; and processing the control effector health data in a reasoner to: (i) selectively indict and clear one or more faults, (ii) determine failures caused by indicted faults, and (iii) determine, based on the one or more determined failures, a usable range of control effector commands to which the control effector can respond, wherein the failures include one or more binary failures and one or more parametric failures (i) selectively indict and clear one or more faults, (ii) determine failures caused by indicted faults, and (iii) determine, based on the one or more determined failures, a usable range of control effector commands to which the control effector can respond, wherein the failures include one or more binary failures and one or more parametric failures and further comprising determining the degree of degradation of each of the one or more parametric failures.
Lettuce plant of the species Lactuca sativa having red leaves throughout the head including the heart in the absence of radiation with wavelengths shorter than 400 nm, wherein the absorbance ratio A523/A665 between anthocyanin and chlorophyll of the heart leaves lies between 4 and 50, obtainable by crossing a plant of which representative seeds were deposited on 18 July 2005 with the NCIMB under accession numbers NCIMB 41337, NCIMB 41338 and NCIMB 41339 with another lettuce plant and selecting for plants that have red leaves throughout the head including the heart and an absorbance ratio A523/A665 between anthocyanin and chlorophyll of the heart leaves between 4 and 50.
Wind system for converting energy, comprising: - at least one kite that can be driven from ground, immersed in at least one wind current W; - a vertical-axis wind turbine placed at ground level, said wind turbine being equipped with at least one arm connected through two ropes to said kite, said kite being adapted to be driven through said turbine to rotate said arm and perform said conversion of wind energy into electric energy through at least one generator/motor system (15a, 15b) operating as generator and cooperating with said turbine, said ropes being adapted both to transmit mechanical energy from and to said kites and to control a flight trajectory of said kites; characterised in that said arm of said wind turbine comprises a winding and unwinding system of said ropes, said winding and unwinding system of said ropes comprising at least two pairs of facing tracks pushed by pistons inside each one of which one of said ropes is inserted. - at least one kite that can be driven from ground, immersed in at least one wind current W; - a vertical-axis wind turbine placed at ground level, said wind turbine being equipped with at least one arm connected through two ropes to said kite, said kite being adapted to be driven through said turbine to rotate said arm and perform said conversion of wind energy into electric energy through at least one generator/motor system (15a, 15b) operating as generator and cooperating with said turbine, said ropes being adapted both to transmit mechanical energy from and to said kites and to control a flight trajectory of said kites;
A timepiece, in particular a wristwatch, with a digital display comprising a minute-units disk, a minute-tens disk, and an hour ring as well as with a movement having a balance-spring system and a gear train, by means of which a minute-units wheel (36, 66) of the minute-units disk is advanced rotatably in cyclic steps with ten steps per revolution, and with a switching device, by means of which the minute-tens disk is advanced rotatably with six steps per revolution, wherein the hour ring during one revolution of the minute-tens disk is advanced rotatably by the minute-tens disk with twelve steps per revolution, as well as with a manually actuatable disk setting means, wherein the movement comprises at least a first barrel, a first transmission chain as well as a second transmission chain, wherein both transmission chains are connected to a release mechanism and the first transmission chain controls the second transmission chain by means of the release mechanism such that the second transmission chain transmits every minute, clocked via the balance-spring system of the movement, a force in the form of a rotational movement to the minute-units wheel, characterized in that the release mechanism comprises a control disk, two release levers (42, 43; 72, 73) each having a first and a second lever arm, and a release wheel, wherein the first lever arms of the two release levers (42, 43; 72, 73) are positioned in shifted manner and bear with pressure on the circumference of the control disk such that, after the end of every minute, the first lever arm of one of the release levers (42, 72; 43, 73) falls from the control disk edge into a recess of the control disk and the second lever arm of this release lever (42, 72; 43, 73) releases the release wheel of the release mechanism, such that the second transmission chain rotates freely until a tooth of the release wheel strikes against the second lever arm of the other release lever (43, 73; 42, 72), thus allowing the minute-units wheel and the minute-units disk to rotate by one step, and in that the first transmission chain comprises a centre wheel driven by the first barrel, a third wheel driven by the centre wheel, as well as an intermediate pinion meshing with the third wheel, wherein said control disk is fastened to the axis of the intermediate pinion.
A method of wireless communication, comprising: receiving a user service discovery / announcement including a reception report configuration and an address of a server; determining whether to send a protected reception report, based on whether sensitive reception report information will be included, in response to receiving the user service discovery/announcement; setting up a secure connection with the server based on determining to send the protected reception report; and sending, through the secure connection, the protected reception report to the server based on the reception report configuration and the address of the server. receiving a user service discovery / announcement including a reception report configuration and an address of a server; determining whether to send a protected reception report, based on whether sensitive reception report information will be included, in response to receiving the user service discovery/announcement; setting up a secure connection with the server based on determining to send the protected reception report; and sending, through the secure connection, the protected reception report to the server based on the reception report configuration and the address of the server.
The use of a composition comprising i) polyalkylene terephthalate, ii) (polyalkylene isophthlate)-co-(polyalkylene terephthalate), iii) polyalkylene terephthalate-reinforcing fiber, and iv) optionally, one or more additives, wherein the alkylenes in component i) is selected from the group consisting of methylene group, ethylene group, propylene group, butylene group and cyclohexene dimethylene group, and the alkylene in component ii) is selected from the group consisting of methylene, ethylene, propylene and butylene, wherein the composition is melt formed, together with one or more additional thermoplastic material, to form shaped article, wherein the additional thermoplastic material is polyvinyl chloride.
Motor vehicle latch, in particular motor vehicle door latch, having a locking mechanism (1, 2) consisting substantially of a catch and a pawl, and having an electromotive drive (4, 5, 6, 7) for the locking mechanism (1, 2) as well as a safety lever, the electromotive drive (4, 5, 6, 7) working on the locking mechanism (1, 2) in order to open it in an opening direction (Ö) and, in a different unlocking direction, acting on the safety lever in order to assume an unlocking position, it being possible for an operating lever system to ensure a mechanical and manual redundant opening of the locking mechanism (1, 2) in the unlocking position, and a stop being provided for the electromotive drive (4, 5, 6, 7), which stop limits the movement of the electromotive drive (4, 5, 6, 7) at least when it is acted upon in the opening direction (Ö) in order to release the unlocking position and thereby prevents the locking mechanism (1, 2) from opening, the stop being arranged on the electromotive drive (4, 5, 6, 7) and interacting with a blocking element in order to limit the movement of the electromotive drive when the unlocking position is released, characterized in that the blocking element is arranged on the safety lever.
A mold (600, 800, 900) for manufacturing hemispherical sections for a golf ball (100, 200, 300, 400, 500), comprising: a first mold plate (610, 910, 962) including a first cavity, wherein the first cavity includes a mechanical fastening device configured to assist with holding a preform (530, 950) in the first cavity before a compression molding operation commences; a second mold plate (630, 930, 964) including a second cavity; and a midplate (620, 920) including an indentation having a concave shape on a first surface of the midplate (620, 920) and a projection (522, 622, 922) having a convex shape on an opposite second surface of the midplate (620, 920); wherein the first surface of the midplate (620, 920) faces the first mold plate (610, 910, 962) and the second surface of the midplate (620, 920) faces the second mold plate (630, 930, 964); wherein the indentation of the midplate (620, 920) corresponds to the first cavity of the first mold plate (610, 910, 962); wherein the projection (522, 622, 922) of the midplate (620, 920) corresponds to the second cavity of the second mold plate (630, 930, 964); wherein a portion of the second surface of the midplate (620, 920) forms a surface against which a preform (530, 950) is molded within the second cavity; wherein the portion of the second surface extends from the projection (522, 622, 922) to where the midplate (620, 920) and the second mold plate (630, 930, 964) contact when the mold (600, 800, 900) is closed; wherein the portion of the second surface is substantially flat. a first mold plate (610, 910, 962) including a first cavity, wherein the first cavity includes a mechanical fastening device configured to assist with holding a preform (530, 950) in the first cavity before a compression molding operation commences; a second mold plate (630, 930, 964) including a second cavity; and a midplate (620, 920) including an indentation having a concave shape on a first surface of the midplate (620, 920) and a projection (522, 622, 922) having a convex shape on an opposite second surface of the midplate (620, 920);
Use of a composition comprising extracts obtained from the pulp and/or rind of boiled Makroot fruit for natural hair recoloration wherein the composition returns the color of white hair and stimulates re-growing hair in the hair growth sites to their original color.