mhurhangee/ep-ind-claims huggingface dataset:
A control method of a flow regulating valve of an oxidizing gas, the flow regulating valve being configured to regulate a flow rate of the oxidizing gas supplied to a cathode of a fuel cell, the control method comprising: a first process in a load disconnected state that the fuel cell is electrically disconnected from a load which receives supply of electric power from the fuel cell, of continuously performing either a gradual, step-wise, valve-opening operation that starting from a full-close position opens the flow regulating valve by a predetermined valve opening each step or a gradual, step-wise, valve-closing operation that starting from a full-open position closes the flow regulating valve by a predetermined valve opening each step so as to gradually change a supply amount of the oxidizing gas that is introduced to the cathode and cause hydrogen transmitted from an anode across an electrolyte membrane to the cathode of the fuel cell to be oxidized with oxygen included in the introduced oxidizing gas; a second process of measuring an open circuit voltage of the fuel cell accompanied with oxidation of the hydrogen after each step in the step-wise valve operation of the first process; and a third process of storing at least one valve-opening position as a regulation reference valve-opening position after it has been determined when the measured voltage shifts to an increase during continuation of the gradual valve-opening operation or when the measured voltage shifts to a decrease during continuation of the gradual valve-closing operation. a first process in a load disconnected state that the fuel cell is electrically disconnected from a load which receives supply of electric power from the fuel cell, of continuously performing either a gradual, step-wise, valve-opening operation that starting from a full-close position opens the flow regulating valve by a predetermined valve opening each step or a gradual, step-wise, valve-closing operation that starting from a full-open position closes the flow regulating valve by a predetermined valve opening each step so as to gradually change a supply amount of the oxidizing gas that is introduced to the cathode and cause hydrogen transmitted from an anode across an electrolyte membrane to the cathode of the fuel cell to be oxidized with oxygen included in the introduced oxidizing gas; a second process of measuring an open circuit voltage of the fuel cell accompanied with oxidation of the hydrogen after each step in the step-wise valve operation of the first process; and a third process of storing at least one valve-opening position as a regulation reference valve-opening position after it has been determined when the measured voltage shifts to an increase during continuation of the gradual valve-opening operation or when the measured voltage shifts to a decrease during continuation of the gradual valve-closing operation.
An electronic device comprising: a display; and a processor, wherein the processor is configured to: display a first-mode launch screen associated with an application on the display based on an application launching request in a state where a lock function is set, switch the first-mode launch screen displayed on the display to a second-mode launch screen comprising at least one menu for executing each of at least one operation performed by the application to display the second-mode launch screen on the display based on a mode switching request, wherein the first-mode launch screen provides some functions of the application and the second-mode launch screen provides a greater number of functions, and display an unlock screen for receiving authentication information on the second-mode launch screen displayed on the display based on a menu selected from the at least one menu of the second-mode launch screen. a display; and a processor, wherein the processor is configured to: display a first-mode launch screen associated with an application on the display based on an application launching request in a state where a lock function is set, switch the first-mode launch screen displayed on the display to a second-mode launch screen comprising at least one menu for executing each of at least one operation performed by the application to display the second-mode launch screen on the display based on a mode switching request, wherein the first-mode launch screen provides some functions of the application and the second-mode launch screen provides a greater number of functions, and display an unlock screen for receiving authentication information on the second-mode launch screen displayed on the display based on a menu selected from the at least one menu of the second-mode launch screen. display a first-mode launch screen associated with an application on the display based on an application launching request in a state where a lock function is set, switch the first-mode launch screen displayed on the display to a second-mode launch screen comprising at least one menu for executing each of at least one operation performed by the application to display the second-mode launch screen on the display based on a mode switching request, wherein the first-mode launch screen provides some functions of the application and the second-mode launch screen provides a greater number of functions, and display an unlock screen for receiving authentication information on the second-mode launch screen displayed on the display based on a menu selected from the at least one menu of the second-mode launch screen.
Port crane, in particular a mobile port crane, comprising an undercarriage (UW1, UW2, UW3, UW4) and a superstructure which is attached to the undercarriage (UW1, UW2, UW3, UW4) and is preferably attached to the undercarriage (UW1, UW2, UW3, UW4) in a rotatable manner, wherein the undercarriage (UW1, UW2, UW3, UW4) has a modular design such that the undercarriage (UW1, UW2, UW3, UW4) can be connected to different running gear units via modular adapter components in a selective manner so that the selected running gear unit on the undercarriage (UW1, UW4) is designed as a conventional undercarriage running gear unit, and the conventional undercarriage running gear unit has a clear space which is designed and dimensioned to be so small that a container transport vehicle and a conventional truck cannot travel therethrough below the undercarriage (UW1, UW4) without collision, characterised in that the undercarriage (UW1, UW2, UW3, UW4) can be connected alternatively to different running gear units via modular adapter components in a selective manner so that the selected running gear unit on the undercarriage (UW2, UW3) is designed as a gantry running gear unit and the gantry running gear unit has a clear space which is designed and dimensioned such that container transport vehicles which are loaded with a container, or trucks vehicles are able to travel through at least in a single lane without collision underneath the gantry running gear unit or between its gantry supports, in order thus to be able to travel underneath the gantry running gear unit, and in that the undercarriage (UW1, UW2, UW3, UW4) comprises a central box-shaped component which, in addition to a rotating assembly, comprises connections for the modular adapter components on its end sides and/or its longitudinal sides and/or its underside.
Temperature sensor with a housing comprising a housing body and a housing chamber, wherein two temperature sensing elements, which are particularly designed as thin-film resistance thermometers (4 or 5), are arranged at the either end of the housing chamber, wherein one of the temperature sensing elements can be heated, wherein at least one connecting wire, which is connected to a board, exits each of the temperature sensing elements, wherein the board is arranged in the housing chamber characterized in that the board is positioned in the housing chamber by a click-in connection, wherein a connection wire of a first temperature sensing element is guided in a strain-relieved manner in a first direction through the board, and a connection wire of a second temperature sensing element is guided through the board in a strain-relieved manner in a second direction opposite to the first direction, and said connection wires are connected to said board.
Method of arranging a plurality of lighting fixtures (1a-1q) in a room or on an object, wherein the method comprises the steps of: a) producing a virtual model of the room or the object in or on which said lighting fixtures (1a-1q) are to be placed, b) virtually arranging virtual lighting fixtures (1a-1q) on said virtual model, each virtual lighting fixture having a real lighting fixture uniquely corresponding thereto, c) identifying one or more virtual guide lighting fixtures (1d, 1g, 1h, 1k, 1l, 1n, 1o, 1p) in said virtual model, based on one or more predetermined positions, each virtual guide lighting fixture having a real guide lighting fixture uniquely corresponding thereto, characterized in that the method further comprises the steps of: d) generating a sequence of actuation of said real lighting fixtures (1a-1q), said actuation sequence actuating at least the real guide lighting fixtures (1d, 1g, 1h, 1k, 1l, 1n, 1o, 1p), e) arranging said real lighting fixtures (1a-1q) such that at least the position of said real guide lighting fixtures (1d, 1g, 1h, 1k, 1l, 1n, 1o, 1p) will coincide with the position of the virtual guide lighting fixtures according to steps b) and c). a) producing a virtual model of the room or the object in or on which said lighting fixtures (1a-1q) are to be placed, b) virtually arranging virtual lighting fixtures (1a-1q) on said virtual model, each virtual lighting fixture having a real lighting fixture uniquely corresponding thereto, c) identifying one or more virtual guide lighting fixtures (1d, 1g, 1h, 1k, 1l, 1n, 1o, 1p) in said virtual model, based on one or more predetermined positions, each virtual guide lighting fixture having a real guide lighting fixture uniquely corresponding thereto, d) generating a sequence of actuation of said real lighting fixtures (1a-1q), said actuation sequence actuating at least the real guide lighting fixtures (1d, 1g, 1h, 1k, 1l, 1n, 1o, 1p), e) arranging said real lighting fixtures (1a-1q) such that at least the position of said real guide lighting fixtures (1d, 1g, 1h, 1k, 1l, 1n, 1o, 1p) will coincide with the position of the virtual guide lighting fixtures according to steps b) and c).
An encrypted text matching system comprising: means for generating first auxiliary data and second auxiliary data, respectively, which are for verification of matching between a first encrypted text that is obtained by encrypting input data and is registered with a storage device and a second encrypted text that is obtained by encrypting input data to be matched, the verification being performed by using a Hamming distance between plaintexts; and means for performing one-way conversion on at least part of the first auxiliary data, performing one-way conversion on intermediate data that is generated based on a difference between the first encrypted text and the second encrypted text and on the second auxiliary data, and determining, by using a result of the one-way conversion performed on the intermediate data as well as using the first auxiliary data that underwent the one-way conversion, whether a Hamming distance between plaintexts is equal to or less than a predetermined certain value, the Hamming distance corresponding to the difference between the first encrypted text and the second encrypted text. means for generating first auxiliary data and second auxiliary data, respectively, which are for verification of matching between a first encrypted text that is obtained by encrypting input data and is registered with a storage device and a second encrypted text that is obtained by encrypting input data to be matched, the verification being performed by using a Hamming distance between plaintexts; and means for performing one-way conversion on at least part of the first auxiliary data, performing one-way conversion on intermediate data that is generated based on a difference between the first encrypted text and the second encrypted text and on the second auxiliary data, and determining, by using a result of the one-way conversion performed on the intermediate data as well as using the first auxiliary data that underwent the one-way conversion, whether a Hamming distance between plaintexts is equal to or less than a predetermined certain value, the Hamming distance corresponding to the difference between the first encrypted text and the second encrypted text.
A coating liquid comprising: an aerogel particle; a liquid medium; at least one of organic fiber and inorganic fiber as a fibrous substance; a first binder resin that is a cellulose-based resin; and a second binder resin having lower solubility in the liquid medium than the first binder resin, wherein the second binder resin is a thermoplastic acrylic resin, or the second binder resin is a thermosetting epoxy resin and the coating liquid further comprises an epoxy resin curing agent, wherein the aerogel is a dried substance of a wet gel that is a condensate of a sol containing at least one selected from the group consisting of a silicon compound having a hydrolyzable functional group or a condensable functional group, and the hydrolysis product of the silicon compound having a hydrolyzable functional group, and a silica particle, wherein a specific surface area of the aerogel particle is 30 to 350 m 2 /g as determined by the BET method, and wherein the liquid medium is a water-based solvent containing water. an aerogel particle; a liquid medium; at least one of organic fiber and inorganic fiber as a fibrous substance; a first binder resin that is a cellulose-based resin; and a second binder resin having lower solubility in the liquid medium than the first binder resin, wherein the second binder resin is a thermoplastic acrylic resin, or the second binder resin is a thermosetting epoxy resin and the coating liquid further comprises an epoxy resin curing agent, wherein the aerogel is a dried substance of a wet gel that is a condensate of a sol containing at least one selected from the group consisting of a silicon compound having a hydrolyzable functional group or a condensable functional group, and the hydrolysis product of the silicon compound having a hydrolyzable functional group, and a silica particle, wherein a specific surface area of the aerogel particle is 30 to 350 m 2 /g as determined by the BET method, and wherein the liquid medium is a water-based solvent containing water.
A complex filter for water purification, comprising: a housing; an inlet formed at a side of the housing, wherein water to be purified is introduced through the inlet; an outlet formed at another side of the housing, wherein the water to be purified is purified and then discharged through the outlet; and a complex filter module formed between the inlet and the outlet, characterized in that the complex filter module includes an upper carbon filtering unit, a lower carbon filtering unit disposed on opposite sides of a distributing plate, and an ion exchange layer, stacked along a side wall of the housing, wherein each of the upper and lower carbon filtering units (70a, 70b) includes an activated carbon fiber and an activated carbon layer. a housing; an inlet formed at a side of the housing, wherein water to be purified is introduced through the inlet; an outlet formed at another side of the housing, wherein the water to be purified is purified and then discharged through the outlet; and a complex filter module formed between the inlet and the outlet, characterized in that the complex filter module includes an upper carbon filtering unit, a lower carbon filtering unit disposed on opposite sides of a distributing plate, and an ion exchange layer, stacked along a side wall of the housing, wherein each of the upper and lower carbon filtering units (70a, 70b) includes an activated carbon fiber and an activated carbon layer.
A process for the preparation of functionalized weather-resistant and slow-decaying geotextiles comprising the steps of: [a] mixing 3-pentadecenyl phenols with aminoalkyl trialkoxysilanes in the ratio of 3:1 to 1:1 (v/v) at a temperature in the range of 30±5°C and humidity of 60-70%; [b] impregnating or coating the mixture as obtained in step [a] on the coir fibres; [c] curing the coated or impregnated coir fibres as obtained in step [b] under heat, UV, air or sunlight at a temperature ranging from 80 to 90°C to obtain the functionalized weather-resistant and slow-decaying geotextiles. [a] mixing 3-pentadecenyl phenols with aminoalkyl trialkoxysilanes in the ratio of 3:1 to 1:1 (v/v) at a temperature in the range of 30±5°C and humidity of 60-70%; [b] impregnating or coating the mixture as obtained in step [a] on the coir fibres; [c] curing the coated or impregnated coir fibres as obtained in step [b] under heat, UV, air or sunlight at a temperature ranging from 80 to 90°C to obtain the functionalized weather-resistant and slow-decaying geotextiles.
Method for operating a supply assembly configured for supplying fuel gas and an inert purge media to a gas turbine combustor; the method comprising the steps of: a) providing a supply assembly comprising a fuel distribution system connected to at least a combustor; a fuel gas circuit and an inert purge media circuit connecting respectively a fuel gas source and an inert purge media source to the fuel distribution system; a control unit configured for controlling the fuel gas flow rate in the fuel gas circuit and the inert purge media flow rate in the inert purge media circuit; b) supplying the fuel gas in the fuel gas circuit with an upper flow rate; c) reducing the fuel gas flow rate in the fuel gas circuit from the upper flow rate to a lower flow rate; d) stopping the supply of the fuel gas in the fuel gas circuit; e) starting the supply of the inert purge media in the inert purge media circuit; wherein the step e) of starting the supply of the inert purge media in the inert purge media circuit is performed before the step d) of stopping the supply of the fuel gas flow in the fuel gas circuit in order to have a temporary parallel supply of fuel gas and of inert purge media to the fuel distribution system; the method comprises the step f) of temporary maintaining the fuel gas flow rate in the fuel gas circuit at the lower flow rate; the step d) of starting the supply of the inert purge media in the inert purge media circuit is performed while the fuel gas flow rate is maintained at the lower flow rate; wherein the inert purge media circuit is provided with an inert purge media control valve; the method comprises the step g) of rising the inert purge media flow rate in the inert purge media circuit from zero to an upper flow rate; wherein the step g) ends with a delay with respect to the ending point of the step f). a) providing a supply assembly comprising a fuel distribution system connected to at least a combustor; a fuel gas circuit and an inert purge media circuit connecting respectively a fuel gas source and an inert purge media source to the fuel distribution system; a control unit configured for controlling the fuel gas flow rate in the fuel gas circuit and the inert purge media flow rate in the inert purge media circuit; b) supplying the fuel gas in the fuel gas circuit with an upper flow rate; c) reducing the fuel gas flow rate in the fuel gas circuit from the upper flow rate to a lower flow rate; d) stopping the supply of the fuel gas in the fuel gas circuit; e) starting the supply of the inert purge media in the inert purge media circuit; wherein the step e) of starting the supply of the inert purge media in the inert purge media circuit is performed before the step d) of stopping the supply of the fuel gas flow in the fuel gas circuit in order to have a temporary parallel supply of fuel gas and of inert purge media to the fuel distribution system;
Method for treating and using sludges comprising waste from the machining of slabs or blocks of stone, ceramic or agglomerated stone material, in which the machining sludges undergo at least one step for mechanical elimination of the water content with formation of a concentrated sludge, characterized in that it comprises the steps of: (a) mixing the concentrated sludge with an inorganic binder in an aqueous solution; (b) reducing the mixture thus obtained into granules; (c) drying the granular mixture by means of evaporation of the water content; (d) heating and keeping the dried granules at a temperature sufficient to render the inorganic binder insoluble and eliminate, by means of combustion, any organic substances contained in the granules. (a) mixing the concentrated sludge with an inorganic binder in an aqueous solution; (b) reducing the mixture thus obtained into granules; (c) drying the granular mixture by means of evaporation of the water content; (d) heating and keeping the dried granules at a temperature sufficient to render the inorganic binder insoluble and eliminate, by means of combustion, any organic substances contained in the granules.
Cleaning device (1, 40) for a drive chain, in particular a bicycle chain (20, 58), comprising at least one housing (2, 41) with at least one cleaning brush (34, 35, 54, 55), wherein the at least one cleaning brush (34, 35, 54, 55) is coupled to a sprocket wheel (30, 50) which is drivable by a moving drive chain, wherein the sprocket wheel (30, 50) is coupled to a further gear wheel on a shaft, characterized in that the further gear wheel is provided for driving two gear wheels (32, 33) and meshes with these, which are coupled synchronously to a cleaning brush (34, 35, 54, 55) in each case.