mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a nonaqueous secondary battery electrode plate, the method comprising, to form a composite material layer on a current collector plate: characterized by a first step of forming a composite material layer film by continuously extruding, from a die onto a first roll, a wet composite material in a form of a clay obtained by mixing an active material, a solvent and a binder soluble in the solvent or mixing an active material, a solvent, a binder soluble in the solvent and an electroconductive material; a second step of stretching the composite material layer film to have a constant width, while rolling the composite material layer film to have a constant thickness by a second roll opposed to the first roll on which the composite material layer film is put and shaping, with regulator plates (23a, 23b) set on the second roll, a slope in a thickness direction (X/Z) of end surfaces along longer sides of the current collector plate; and a third step of pressure-bonding the shaped composite material layer film to the current collector plate by a third roll opposed to the second roll, and drying the composite material layer film to form the composite material layer on the current collector electrode. characterized by a first step of forming a composite material layer film by continuously extruding, from a die onto a first roll, a wet composite material in a form of a clay obtained by mixing an active material, a solvent and a binder soluble in the solvent or mixing an active material, a solvent, a binder soluble in the solvent and an electroconductive material; a second step of stretching the composite material layer film to have a constant width, while rolling the composite material layer film to have a constant thickness by a second roll opposed to the first roll on which the composite material layer film is put and shaping, with regulator plates (23a, 23b) set on the second roll, a slope in a thickness direction (X/Z) of end surfaces along longer sides of the current collector plate; and a third step of pressure-bonding the shaped composite material layer film to the current collector plate by a third roll opposed to the second roll, and drying the composite material layer film to form the composite material layer on the current collector electrode.
An organic light emitting device comprising: a first electrode including two or more pixel parts spaced apart from each other; a second electrode provided opposite to the first electrode; an organic material layer including one or more emission layers provided between the first electrode and the second electrode; and a lattice type auxiliary electrode electrically connected to each of the pixel parts for supplying a voltage to each pixel part, wherein each of the pixel parts comprises a compensation resistance part electrically connected to the lattice type auxiliary electrode, wherein the lattice type auxiliary electrode is spaced-apart from, and surrounding each of the pixel parts and the lattice type auxiliary electrode is electrically connected to each of the pixel parts through the respective compensation resistance parts, and wherein lengths of the compensation resistance parts connected to the respective pixel parts are different such that the compensation resistance part has a resistance value so that a voltage applied to a pixel part connected to the respective compensation resistance part is 0.8 times to 1.2 times a voltage applied to a pixel part where voltage drop is the highest due to the internal resistance of the lattice type auxiliary electrode when the compensation resistance part is not included in the pixel part. a first electrode including two or more pixel parts spaced apart from each other; a second electrode provided opposite to the first electrode; an organic material layer including one or more emission layers provided between the first electrode and the second electrode; and a lattice type auxiliary electrode electrically connected to each of the pixel parts for supplying a voltage to each pixel part, wherein each of the pixel parts comprises a compensation resistance part electrically connected to the lattice type auxiliary electrode, wherein the lattice type auxiliary electrode is spaced-apart from, and surrounding each of the pixel parts and the lattice type auxiliary electrode is electrically connected to each of the pixel parts through the respective compensation resistance parts, and wherein lengths of the compensation resistance parts connected to the respective pixel parts are different such that the compensation resistance part has a resistance value so that a voltage applied to a pixel part connected to the respective compensation resistance part is 0.8 times to 1.2 times a voltage applied to a pixel part where voltage drop is the highest due to the internal resistance of the lattice type auxiliary electrode when the compensation resistance part is not included in the pixel part.
Impulse body modular assembly comprising at least two impulse body modules for a gas turbine blade, the impulse body modules being combined to form the impulse body modular assembly and each of the impulse body modules comprising a cuboid housing, characterized in that the housing has a first cavity which is closed by a first cover connected to the housing and in which a single first impulse body is received with movement play in at least one first impact direction, the housing has no further or only one further cavity in which a single further impulse body is received with play in at least one impact direction, the at least two impulse body modules being non-destructively detachable or permanently connected to one another.
A method of forming a photovoltaic cell module with improved impact resistance and comprising a first layer, a silicone elastomer disposed on the first layer, a crystalline photovoltaic cell disposed on the silicone elastomer, and a second elastomer disposed opposite the silicone elastomer and on the crystalline photovoltaic cell, said method comprising the steps of: A. contacting a hydrosilylation-curable silicone composition and/or a cured silicone gel thereof with an organosilicon compound comprising at least two silicon-bonded hydrogen atoms per molecule to cure via a hydrosilylation reaction and form the silicone elastomer disposed on the first layer; and B. disposing the second elastomer opposite the silicone elastomer and on the crystalline photovoltaic cell, wherein the hydrosilylation-curable silicone composition comprises an organopolysiloxane having an average of at least two silicon-bonded alkenyl groups per molecule, an organohydrogensiloxane having an average of at least two silicon-bonded hydrogen atoms per molecule, and a hydrosilylation catalyst, and has a molar ratio of SiH:alkenyl of less than about 1.2:1, and wherein the photovoltaic cell module has an impact resistance of greater than about 1,200 grams. A. contacting a hydrosilylation-curable silicone composition and/or a cured silicone gel thereof with an organosilicon compound comprising at least two silicon-bonded hydrogen atoms per molecule to cure via a hydrosilylation reaction and form the silicone elastomer disposed on the first layer; and B. disposing the second elastomer opposite the silicone elastomer and on the crystalline photovoltaic cell,
A method in a first user equipment for providing information about at least one of a first and a second connection state, the first connection state being related to a first connection between the first user equipment and a radio network node, the second connection state being related to a second connection between the first user equipment and a second user equipment, wherein a radio communication system based on Orthogonal Frequency Division Multiplexing comprises the radio network node and the first and second user equipments (110, 120), wherein the method comprises: encoding information about at least one of the first and second connection states into a synchronization signal for synchronizing the second user equipment to the first user equipment; and sending the synchronization signal to at least the second user equipment, thereby providing information about at least one of the first and second connection states. encoding information about at least one of the first and second connection states into a synchronization signal for synchronizing the second user equipment to the first user equipment; and sending the synchronization signal to at least the second user equipment, thereby providing information about at least one of the first and second connection states.
Method for controlling a hydrodynamic retarder which can be uncoupled mechanically via a separating clutch in a motor vehicle, which has a revolving bladed rotor and a bladed stator or a revolving bladed rotor and a counter-rotating bladed rotor rotating in the opposite direction, which jointly form a working chamber which is filled with a working medium during braking operation and is emptied of working medium during non-braking operation, wherein, in braking operation, the rotor is driven via a drive train with an engaged separating clutch and, during the transition from braking operation to non-braking operation, the working chamber is emptied and the separating clutch is disengaged, wherein the transition from braking operation to non-braking operation is initiated by a request to switch off the retarder by a driver assistance system or by a vehicle driver actuating an input device, and the transition from non-braking operation to braking operation is initiated by a request to switch on the retarder by the driver assistance system or by the vehicle driver actuating an input device, characterized in that irrespective of the request to switch on the retarder by the driver assistance system or by the vehicle driver actuating the input device, the separating clutch is engaged at the start of a start-up operation of the motor vehicle if, when the motor vehicle is at a standstill, the working chamber is filled with working medium. wherein the transition from braking operation to non-braking operation is initiated by a request to switch off the retarder by a driver assistance system or by a vehicle driver actuating an input device, and the transition from non-braking operation to braking operation is initiated by a request to switch on the retarder by the driver assistance system or by the vehicle driver actuating an input device, characterized in that irrespective of the request to switch on the retarder by the driver assistance system or by the vehicle driver actuating the input device, the separating clutch is engaged at the start of a start-up operation of the motor vehicle if, when the motor vehicle is at a standstill, the working chamber is filled with working medium.
Liquid-liquid extractor comprising a block hollowed with mixing and settling cells in communication, inlet ducts (10, 11) of the two liquid phases leadingto the mixing cell and outlet ducts (12, 13) of the two liquid phases leading to the settling cell, characterised in that the outlet ducts are equipped with overflows (18, 24) adjacent to the settling cell, and each provided with an overflow edge of the liquid phases having an irregular height in the form of a broken line delimiting a plurality of reliefs.
A decoding method, comprising: reading pre-indexed information corresponding to a to-be-decoded file, wherein the to-be-decoded file is obtained by means of variable-length coding, the pre-indexed information comprises information indicating one or more decoding boundaries, and the pre-indexed information is stored in another file associated with the to-be-decoded file, and wherein the another file is a file that belongs to a same directory as the to-be-decoded file and whose file name is the same as that of the to-be-decoded file; and performing parallel decoding on multiple data segments in the to-be-decoded file according to the pre-indexed information, wherein the multiple data segments are divided according to one or more of the one or more decoding boundaries. reading pre-indexed information corresponding to a to-be-decoded file, wherein the to-be-decoded file is obtained by means of variable-length coding, the pre-indexed information comprises information indicating one or more decoding boundaries, and the pre-indexed information is stored in another file associated with the to-be-decoded file, and wherein the another file is a file that belongs to a same directory as the to-be-decoded file and whose file name is the same as that of the to-be-decoded file; and performing parallel decoding on multiple data segments in the to-be-decoded file according to the pre-indexed information, wherein the multiple data segments are divided according to one or more of the one or more decoding boundaries.
A refrigeration system comprising: a variable frequency drive; a compressor coupled to the VFD; a condenser; an evaporator; an oil separator; and an oil conditioning circuit thermally coupled to the VFD and configured to heat oil from the oil separator with heat produced by the VFD; wherein the oil conditioning circuit comprises a first heat exchanger disposed within the oil separator, a second heat exchanger, and a conduit extending between the first heat exchanger and the second heat exchanger, the conduit configured to supply an intermediate coolant from the first heat exchanger where it is cooled by the oil to the second heat exchanger where it is heated by the VFD. a variable frequency drive; a compressor coupled to the VFD; a condenser; an evaporator; an oil separator; and an oil conditioning circuit thermally coupled to the VFD and configured to heat oil from the oil separator with heat produced by the VFD; wherein the oil conditioning circuit comprises a first heat exchanger disposed within the oil separator, a second heat exchanger, and a conduit extending between the first heat exchanger and the second heat exchanger, the conduit configured to supply an intermediate coolant from the first heat exchanger where it is cooled by the oil to the second heat exchanger where it is heated by the VFD.
A solid catalyst component for the (co)polymerization of olefins CH 2 =CHR, in which R is a hydrocarbyl radical with 1-12 carbon atoms, optionally in mixture with ethylene, comprising Ti, Mg, Zn, Cl, and an electron donor compound in which: - the Zn compound is selected from the group consisting of Zn halides, Zn carbonate, Zn acetate, Zn nitrate, Zn oxide, Zn sulphate, Zn Sulfide; - more than 50% of the titanium atoms are in the +4 valence state; - the amount of Zn ranges from 0.2 to 3.5% by weight based on then total weight of said solid catalyst component and - the Zn/Mg molar ratio ranges from 0.001 to 0.05. - the Zn compound is selected from the group consisting of Zn halides, Zn carbonate, Zn acetate, Zn nitrate, Zn oxide, Zn sulphate, Zn Sulfide; - more than 50% of the titanium atoms are in the +4 valence state; - the amount of Zn ranges from 0.2 to 3.5% by weight based on then total weight of said solid catalyst component and - the Zn/Mg molar ratio ranges from 0.001 to 0.05.
A method of transferring a transaction based on a blockchain integrated station, wherein the blockchain integrated station comprises a central processing unit, CPU, and a smart network card including a built-in processor, and is any node of a blockchain network, and the method comprises: in response to determining that the blockchain integrated station receives a transaction through the smart network card, determining, by the smart network card, other to-be-transferred nodes; performing, by the smart network card, legality verification for the transaction before transferring the transaction; transferring, by the smart network card, the transaction to the other to-be-transferred nodes in response to determining that the legality verification is passed, wherein the transaction does not flow through the CPU, wherein the method further comprising: writing, by the smart network card, the transaction into a network card cache, wherein the smart network card replaces the CPU to participate in a blockchain consensus, based on the transaction in the network card cache, by performing consensus interaction with other nodes in the blockchain network. in response to determining that the blockchain integrated station receives a transaction through the smart network card, determining, by the smart network card, other to-be-transferred nodes; performing, by the smart network card, legality verification for the transaction before transferring the transaction; transferring, by the smart network card, the transaction to the other to-be-transferred nodes in response to determining that the legality verification is passed, wherein the transaction does not flow through the CPU,
A battery support structure for a vehicle, said battery support structure comprising: at least two side reinforcement members having hollow interiors extending along a length of the respective side reinforcement member; at least two end reinforcement members (28, 30) having hollow interiors extending along a length of the respective end reinforcement member; and a plurality of corner nodes, each having a first end portion engaged within a hollow interior area of one of the side reinforcement members and a second end portion engaged within a hollow interior area of one of the end reinforcement members (28, 30), wherein the plurality of corner nodes engage the side and end reinforcement members to at least partially form a perimeter wall that generally surrounds a battery containment area, wherein the corner nodes each includes a consistent cross-sectional shape extending upward between a lower surface and an upper surface of the corner node, and characterized by the corner nodes each include an open interior portion that extends between the upper and lower surfaces in a direction orthogonal to the length of the respective engaged side reinforcement member (26, 28, 30), wherein the corner node includes an interior wall and an exterior wall that border opposing sides of a hollow the open interior portion that vertically extends through the corner node, and wherein the corner node includes interior reinforcements that span between the interior and exterior walls. at least two side reinforcement members having hollow interiors extending along a length of the respective side reinforcement member; at least two end reinforcement members (28, 30) having hollow interiors extending along a length of the respective end reinforcement member; and a plurality of corner nodes, each having a first end portion engaged within a hollow interior area of one of the side reinforcement members and a second end portion engaged within a hollow interior area of one of the end reinforcement members (28, 30), wherein the plurality of corner nodes engage the side and end reinforcement members to at least partially form a perimeter wall that generally surrounds a battery containment area, wherein the corner nodes each includes a consistent cross-sectional shape extending upward between a lower surface and an upper surface of the corner node, and characterized by the corner nodes each include an open interior portion that extends between the upper and lower surfaces in a direction orthogonal to the length of the respective engaged side reinforcement member (26, 28, 30), wherein the corner node includes an interior wall and an exterior wall that border opposing sides of a hollow the open interior portion that vertically extends through the corner node, and wherein the corner node includes interior reinforcements that span between the interior and exterior walls.
A composition for a laminated coating film, comprising silicon oxide-coated iron oxide particles, wherein at least a part of the surface of said iron oxide particles is coated with silicon oxide, wherein the diameter of said iron oxide particles is 1 to 50 nm, wherein said silicon oxide comprises amorphous silicon oxide, wherein the iron oxide particles are particles of α-Fe 2 O 3, and wherein the average reflectivity of said silicon oxide-coated iron oxide particles for the light of the wavelengths of 620 to 750 nm is 25 % or less.
A process for the isomerization of a cut containing at least one aromatic compound containing eight carbon atoms per molecule, said process comprising bring said aromatic cut into contact with at least one catalyst comprising at least one IZM-2 zeolite, at least one matrix and at least one metal from group VIII of the periodic classification of the elements, said catalyst being characterized in that the ratio between the number of moles of silicon and the number of moles of aluminium of the IZM-2 zeolite is in the range 60 to 95, said process being carried out under the following operating conditions: - a temperature of 300°C to 500°C, - a partial pressure of hydrogen of 0.3 to 1.5 MPa, - a total pressure of 0.45 to 1.9 MPa, and - a supply space velocity, expressed in kilograms of feed introduced per kilogram of catalyst and per hour, of 0.25 to 30 h -1. - a temperature of 300°C to 500°C, - a partial pressure of hydrogen of 0.3 to 1.5 MPa, - a total pressure of 0.45 to 1.9 MPa, and - a supply space velocity, expressed in kilograms of feed introduced per kilogram of catalyst and per hour, of 0.25 to 30 h -1.
Calibration tool (2, 3) for a handling apparatus having at least two guide elements (4, 5, 6, 7), wherein at least one first guide element (4, 5) is intended to be arranged at the distal end of the respective handling apparatus and at least one second guide element (6, 7) is intended to identify a coordinate point and an orientation, in particular of the TCP or a work object (5, 12, 20), and wherein the at least one first guide element (4, 5) and the at least one second guide element (6, 7) are matched to one another and/or are compatible with and complement one another in such a way that one element can be inserted into the compatible other element or one element can engage into the respectively other element and in each case two complementary elements (4, 6; 5, 7) can be arranged such that they fit accurately one into the other, characterized in that one guide element is substantially cylindrical in the form of a pin or rod or mandrel or journal and, in the case of a pin-like configuration in the upper end region, specifically the end region which is averted from the work object and the receiver and faces the respectively complementary guide means, tapers to a point, is conically tapered or is rounded and tapers from the base to the tip or tapers in the longitudinal direction, and the complementary guide element is in the form of a substantially cylindrical bushing and/or cup, wherein the guide element which is in the form of a cup or bushing has at least one ventilation duct in the base region or in the vicinity of the base, so that, when the respectively complementary pin-like guide element is inserted, the enclosed air can escape and, as an alternative or in addition to this, channels or grooves which run laterally in the longitudinal direction are formed or incorporated into the respective pin-like guide tool, so that the air which is included during insertion can escape via these channels or grooves and an accurate fit is achieved.