mhurhangee/ep-ind-claims huggingface dataset:
Method for optimized energy management of an electrical system, comprising the following steps: - determining the power dissipation P Diss of at least one component to be protected of the electrical system; - inputting the power dissipation P Diss into a thermal model of the respective component to be protected; - calculating the temperature increase ΔT to be expected of the respective component to be protected; - comparing the temperature increase ΔT to be expected with a predefined temperature threshold value T Max; - disconnecting a consumer from the mains depending on its priority when a predefined temperature threshold value T Max is exceeded under consideration of the temperature increase ΔT to be expected; - connecting-in a consumer to the mains depending on its priority when the temperature falls below a predefined temperature threshold value T Max under consideration of the temperature increase ΔT to be expected. - determining the power dissipation P Diss of at least one component to be protected of the electrical system; - inputting the power dissipation P Diss into a thermal model of the respective component to be protected; - calculating the temperature increase ΔT to be expected of the respective component to be protected; - comparing the temperature increase ΔT to be expected with a predefined temperature threshold value T Max; - disconnecting a consumer from the mains depending on its priority when a predefined temperature threshold value T Max is exceeded under consideration of the temperature increase ΔT to be expected; - connecting-in a consumer to the mains depending on its priority when the temperature falls below a predefined temperature threshold value T Max under consideration of the temperature increase ΔT to be expected.
A method of establishing a fleet management plan for aircraft, the method comprising: providing an environmental sampling system in an aircraft, the environmental sampling system including a collector that receives ambient aircraft air thereto when the aircraft flies, the collector retaining constituents from the air; after the aircraft has flown, collecting the constituents by either removing the collector from the aircraft or removing the constituents from the collector; analyzing the constituents to determine the amount of calcium-magnesium-aluminosilicate solids (CMAS) associated with the constituents; inspecting the aircraft engine components for CMAS degradation; and correlating the amount of CMAS collected in the environmental sampling system to an amount of degradation in aircraft engine components. providing an environmental sampling system in an aircraft, the environmental sampling system including a collector that receives ambient aircraft air thereto when the aircraft flies, the collector retaining constituents from the air; after the aircraft has flown, collecting the constituents by either removing the collector from the aircraft or removing the constituents from the collector; analyzing the constituents to determine the amount of calcium-magnesium-aluminosilicate solids (CMAS) associated with the constituents; inspecting the aircraft engine components for CMAS degradation; and correlating the amount of CMAS collected in the environmental sampling system to an amount of degradation in aircraft engine components.
A process for the manufacture of ultra-fine particles of a high performance polymer in a yield greater than 90%, comprising: dissolving the high performance polymer in an organic solvent capable of dissolving the polymer to form a solution; emulsifying the solution by combining the solution with water and a surfactant to form an emulsion; transferring the emulsion into receiving water containing a surfactant to remove the organic solvent and form a slurry; and, recovering particles of < 75-micron diameter, preferably <75-micron diameter, in a yield greater than 90%; wherein particle diameter is measured by laser scattering; wherein the high performance polymer comprises polyimides, polyetherimides, polysulfones, polyethersulfones, polyphenylenesulfones, polyamideimides, polycarbonates, polycarbonate co-polymers, polyphenylene ethers, polyphenylene oxides, polyamides, polyaryletherketones, and polyarylketones; and wherein the solvent is methylene chloride, chloroform, or a combination thereof. dissolving the high performance polymer in an organic solvent capable of dissolving the polymer to form a solution; emulsifying the solution by combining the solution with water and a surfactant to form an emulsion; transferring the emulsion into receiving water containing a surfactant to remove the organic solvent and form a slurry; and, recovering particles of < 75-micron diameter, preferably <75-micron diameter, in a yield greater than 90%; wherein particle diameter is measured by laser scattering; wherein the high performance polymer comprises polyimides, polyetherimides, polysulfones, polyethersulfones, polyphenylenesulfones, polyamideimides, polycarbonates, polycarbonate co-polymers, polyphenylene ethers, polyphenylene oxides, polyamides, polyaryletherketones, and polyarylketones; and wherein the solvent is methylene chloride, chloroform, or a combination thereof.
An electrosurgical apparatus for treating tissue comprising: an elongate shaft having a proximal region, a distal region comprising a conductive region and one or more lumens therethrough; one or more apertures defined by the shaft in communication with at least one of said one or more lumens; an occluding means occluding at least a portion of an opening defined by a distal end of said elongate shaft, wherein said occluding means is a stylet; an electrical coupling means associated with said proximal region for flexibly coupling said shaft to a power source for supplying energy to said conductive region; a temperature sensing means associated with said distal region; and at least one fluid delivery interface connection flexibly coupled to said proximal region for coupling a fluid delivery mechanism to deliver a treatment composition through at least one of said one or more apertures; wherein said temperature sensing means comprises a thermocouple; and characterised in that said conductive region is a component of said thermocouple. an elongate shaft having a proximal region, a distal region comprising a conductive region and one or more lumens therethrough; one or more apertures defined by the shaft in communication with at least one of said one or more lumens; an occluding means occluding at least a portion of an opening defined by a distal end of said elongate shaft, wherein said occluding means is a stylet; an electrical coupling means associated with said proximal region for flexibly coupling said shaft to a power source for supplying energy to said conductive region; a temperature sensing means associated with said distal region; and at least one fluid delivery interface connection flexibly coupled to said proximal region for coupling a fluid delivery mechanism to deliver a treatment composition through at least one of said one or more apertures; wherein said temperature sensing means comprises a thermocouple; and characterised in that said conductive region is a component of said thermocouple.
A process for preparing compound, or an acid addition salt thereof, which is characterized by the steps of a) reacting a compound of formula with a compound of formula in a reaction-inert solvent wherein R 1 is hydrogen, C 1-4 alkyl, aryl, arylmethyl, arylethyl, diphenylmethyl, allyl or 3-phenylallyl; R 2 is C 1-6 alkyl, phenyl or phenyl substituted with one substituent selected from halo, hydroxy, C 1-4 alkyl, C 1-4 alkoxy, trifluoromethyl, cyano or nitro; A is C 1-4 alkyloxycarbonyl, hydroxycarbonyl, aminocarbonyl, or cyano; and X is halo; wherein aryl is phenyl, or phenyl substituted with one or two C 1-4 alkyloxy, halo, C 1-4 alkyl, nitro, or di(C 1-4 alkyl)amino, b) reducing compound, which is a mixture of - and -, into compound, which is a mixture of - and -, followed by isolating compound - or a salt thereof as a precipitate. c) and, reacting a compound of formula - with compound under Mitsunobu reaction conditions thereby obtaining a compound of formula which is converted into compound, optionally in the form of an acid addition salt, by removing substituent R 1 using art-known deprotection methods. a) reacting a compound of formula with a compound of formula in a reaction-inert solvent wherein R 1 is hydrogen, C 1-4 alkyl, aryl, arylmethyl, arylethyl, diphenylmethyl, allyl or 3-phenylallyl; R 2 is C 1-6 alkyl, phenyl or phenyl substituted with one substituent selected from halo, hydroxy, C 1-4 alkyl, C 1-4 alkoxy, trifluoromethyl, cyano or nitro; A is C 1-4 alkyloxycarbonyl, hydroxycarbonyl, aminocarbonyl, or cyano; and X is halo; wherein aryl is phenyl, or phenyl substituted with one or two C 1-4 alkyloxy, halo, C 1-4 alkyl, nitro, or di(C 1-4 alkyl)amino, R 1 is hydrogen, C 1-4 alkyl, aryl, arylmethyl, arylethyl, diphenylmethyl, allyl or 3-phenylallyl; R 2 is C 1-6 alkyl, phenyl or phenyl substituted with one substituent selected from halo, hydroxy, C 1-4 alkyl, C 1-4 alkoxy, trifluoromethyl, cyano or nitro; A is C 1-4 alkyloxycarbonyl, hydroxycarbonyl, aminocarbonyl, or cyano; and X is halo; b) reducing compound, which is a mixture of - and -, into compound, which is a mixture of - and -, followed by isolating compound - or a salt thereof as a precipitate. c) and, reacting a compound of formula - with compound under Mitsunobu reaction conditions thereby obtaining a compound of formula which is converted into compound, optionally in the form of an acid addition salt, by removing substituent R 1 using art-known deprotection methods.
A resistive random access memory, comprising: a substrate (100, 300); a transistor (102, 302), disposed on the substrate (100, 300); a bottom electrode (104, 304), disposed on the substrate (100, 300) and electrically connected to a source (121, 321)/drain (124, 324) of the transistor (102, 302); a plurality of top electrodes (107, 307), disposed on the bottom electrode (104, 304); at least one resistance-switching layer (105, 105a, 305), disposed between the bottom electrode (104, 304) and the plurality of top electrodes(107, 307), wherein the at least one resistance-switching layer (105, 105a, 305) is directly in contact with the bottom electrode (104, 304); characterised by a plurality of current limiting layers (106, 306), respectively disposed between the at least one resistance-switching layer (105, 105a, 305) and the plurality of top electrodes (107, 307), wherein the plurality of current limiting layers (106, 306) is directly in contact with the plurality of top electrodes (107, 307) and one of the at least one resistance-switching layer (105, 105a, 305), wherein a resistance value of the plurality of current limiting layers (106, 306) is lower than a resistance value of the at least one resistance-switching layer (105, 105a, 205) which is in a low resistance state. a substrate (100, 300); a transistor (102, 302), disposed on the substrate (100, 300); a bottom electrode (104, 304), disposed on the substrate (100, 300) and electrically connected to a source (121, 321)/drain (124, 324) of the transistor (102, 302); a plurality of top electrodes (107, 307), disposed on the bottom electrode (104, 304); at least one resistance-switching layer (105, 105a, 305), disposed between the bottom electrode (104, 304) and the plurality of top electrodes(107, 307), wherein the at least one resistance-switching layer (105, 105a, 305) is directly in contact with the bottom electrode (104, 304); characterised by a plurality of current limiting layers (106, 306), respectively disposed between the at least one resistance-switching layer (105, 105a, 305) and the plurality of top electrodes (107, 307), wherein the plurality of current limiting layers (106, 306) is directly in contact with the plurality of top electrodes (107, 307) and one of the at least one resistance-switching layer (105, 105a, 305), wherein a resistance value of the plurality of current limiting layers (106, 306) is lower than a resistance value of the at least one resistance-switching layer (105, 105a, 205) which is in a low resistance state.
A hearing assistance device (100, 102, 102A, 102B) comprising: an enclosing structure (106A, 108) configured to house a receiver that generates sound waves into an ear canal of a user when the hearing assistance device (100, 102, 102A, 102B) is worn; and a tube (110, 300, 306, 400, 500) coupled to the receiver to direct the sound waves into the ear canal of the user, characterised in that the tube (110, 300, 306, 400, 500) comprises magnetized particles that form a magnetic field through the tube (110, 300, 306, 400, 500). an enclosing structure (106A, 108) configured to house a receiver that generates sound waves into an ear canal of a user when the hearing assistance device (100, 102, 102A, 102B) is worn; and a tube (110, 300, 306, 400, 500) coupled to the receiver to direct the sound waves into the ear canal of the user, characterised in that the tube (110, 300, 306, 400, 500) comprises magnetized particles that form a magnetic field through the tube (110, 300, 306, 400, 500).
A fastener comprising two parts (10, 50) separable along a separation axis, at least one part comprising a magnet (18, 58) establishing magnetic force along the separation axis, and a mechanical coupling having complementary elements (22, 56) formed respectively on the two parts (10, 50) of the fastener, the mechanical coupling being configured such that movement together of the two parts (10, 50) under magnetic force causes automatic relative rotation of the parts (10, 50) about the axis, wherein the magnetic force is attractive, the fastener being characterised in that the mechanical coupling is such that manual relative rotation of the parts (10, 50) provides a mechanical advantage to overcome the magnetic attraction on separation of the parts (10, 50) and in that at least one of the complementary elements (22, 56) of the mechanical coupling is of helical screw formation about the separation axis.
Pipe for transferring abrasive material, such as concrete, comprising at least a tubular body comprising a first internal layer of a tubular shape and made of metal anti-wear material, and a second external layer made of composite material, said tubular body being provided with at least one end on which a flange is mounted for the connection of other pipes, said flange having a substantially tubular shape and being provided with an internal surface which couples with at least part of said tubular body, wherein said flange is mounted on said tubular body so as to have an end portion protruding externally with respect to said end of said tubular body, wherein an annular element made of anti-wear material is associated to said internal surface of said end portion of the flange, characterized in that said annular element has greater resistance to wear than that of the first internal layer and in that said flange has means to attach it to said tubular body by at least partly winding said second external layer.
Ski slope maintenance vehicle on which there is mounted a support for a winding drum for a cable, characterized in that the support comprises: - a base intended to be fixed to the chassis of the vehicle, - a pivoting articulated part bearing the drum, the pivot axis being perpendicular to the axis of rotation of the drum, - actuating means for actuating the pivoting articulated part about the pivot axis back and forth between a first and a second predetermined position during the winding of the cable so as to allow even winding of the cable across the axial width of the drum, the actuating means being positioned under the drum. - a base intended to be fixed to the chassis of the vehicle, - a pivoting articulated part bearing the drum, the pivot axis being perpendicular to the axis of rotation of the drum, - actuating means for actuating the pivoting articulated part about the pivot axis back and forth between a first and a second predetermined position during the winding of the cable so as to allow even winding of the cable across the axial width of the drum, the actuating means being positioned under the drum.
Docking mechanism for docking a dockable transport means, comprising at least a transport undercarriage with transport means such as wheels, in safeguarded manner to a receiving location, such as a receiving location which can be arranged on a vehicle, such as a road, marine or airborne vehicle, wherein the transport undercarriage can only be transferred from a position of use to a docking position when the transport means is situated in a blocking mode relative to the receiving location, and wherein the blocking mode can be discontinued only when the transport undercarriage is situated in the position of use, characterised in that, the docking mechanism comprises: - a support member for supporting the transport means during the docking, - a blocking actuator for actuating a blocking member between a blocking mode and a release mode for the purpose of blocking the transport means against leaving the receiving location during docking, while the transport undercarriage is in a free docking position, - a coupling assembly for switching the transport undercarriage between a position of use and the docking position, wherein - the coupling assembly is adapted such that switching of the transport undercarriage from the position of use to the docking position is possible when the blocking member is situated in the blocking mode, and that actuation of the blocking member from the blocking mode to the release mode is possible when the transport undercarriage is situated in the position of use, wherein the coupling assembly comprises: - a primary coupling member for hooking into a primary transport undercarriage hook, - a primary transport undercarriage hook for receiving the primary coupling member, wherein the primary coupling member and the primary transport undercarriage hook can only be uncoupled when the blocking member is in the blocking mode. - a support member for supporting the transport means during the docking, - a blocking actuator for actuating a blocking member between a blocking mode and a release mode for the purpose of blocking the transport means against leaving the receiving location during docking, while the transport undercarriage is in a free docking position, - a coupling assembly for switching the transport undercarriage between a position of use and the docking position, wherein - the coupling assembly is adapted such that switching of the transport undercarriage from the position of use to the docking position is possible when the blocking member is situated in the blocking mode, and that actuation of the blocking member from the blocking mode to the release mode is possible when the transport undercarriage is situated in the position of use, wherein the coupling assembly comprises: - a primary coupling member for hooking into a primary transport undercarriage hook, - a primary transport undercarriage hook for receiving the primary coupling member, wherein the primary coupling member and the primary transport undercarriage hook can only be uncoupled when the blocking member is in the blocking mode.
A wheel-end electric motor comprising: a stator; a rotor extending along an axis and movably disposed within said stator to define a gap therebetween; a central shaft extending along said axis and outwardly from said rotor; at least one bearing element disposed in supporting relationship with said central shaft for providing bearing support of said rotor within said stator; and a lubricant disposed in said gap for providing auxiliary lubricant support of said rotor within said stator. a stator; a rotor extending along an axis and movably disposed within said stator to define a gap therebetween; a central shaft extending along said axis and outwardly from said rotor; at least one bearing element disposed in supporting relationship with said central shaft for providing bearing support of said rotor within said stator; and a lubricant disposed in said gap for providing auxiliary lubricant support of said rotor within said stator.
A computer-implemented method comprising: identifying, by a computer, a first font associated with a first document; identifying, by the computer, a conflict between the first font and a second font; determining a substitute font for the first document; modifying information of the substitute font based on the conflict; and modifying information of the first document based on the modified information of the substitute font. identifying, by a computer, a first font associated with a first document; identifying, by the computer, a conflict between the first font and a second font; determining a substitute font for the first document; modifying information of the substitute font based on the conflict; and modifying information of the first document based on the modified information of the substitute font.
Drying installation (1, 2) equipped with ceramic semi-finished products, having a drying chamber in which a storage rack having guide tracks is arranged, transport pallets for receiving the ceramic semi-finished products being arranged on said guide tracks, characterised in that guide elements are arranged on the transport pallets and/or on the guide tracks, the transport pallets form transport belts arranged along the guide tracks, an input-side equipping device (16, 17) and an output-side equipping device (16', 17') are provided, wherein the input-side equipping device (16, 17) is formed such that it supplies the transport pallets in successive cycles and the output-side equipping device (16', 17') is formed such that it removes the transport pallets in successive cycles, and wherein it is provided that a) the input-side equipping device (16, 17) is formed such that, when supplying a transport pallet, it drives all other transport pallets for transportation, said transport pallets being arranged along the guide track and forming the transport belt, and/or b) the output-side equipping device (16, 17) is formed such that, when removing a transport pallet, it drives all other transport pallets for transportation, said transport pallets being arranged along the guide track and forming the transport belt, c) the guide track of the storage rack is formed with an incline, such that the incline drives all transport pallets for transportation, said transport pallets being formed along the guide track and forming the transport belt. a) the input-side equipping device (16, 17) is formed such that, when supplying a transport pallet, it drives all other transport pallets for transportation, said transport pallets being arranged along the guide track and forming the transport belt, and/or b) the output-side equipping device (16, 17) is formed such that, when removing a transport pallet, it drives all other transport pallets for transportation, said transport pallets being arranged along the guide track and forming the transport belt, c) the guide track of the storage rack is formed with an incline, such that the incline drives all transport pallets for transportation, said transport pallets being formed along the guide track and forming the transport belt.