mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a plurality of first data lines extending in a second direction intersecting a first direction; a plurality of second data lines extending in the second direction and are spaced apart from the first data lines; a plurality of data connection lines connected to the first data lines, respectively; a plurality of vertical dummy patterns spaced apart from the data connection lines and extending in the second direction; and a plurality of horizontal power supply lines (HPL1, HPL2) in a display area and extending in the first direction and configured to receive a power supply voltage, wherein a first separation portion by which any one data connection line among the data connection lines is spaced apart from any one vertical dummy pattern among the vertical dummy patterns overlaps any one horizontal power supply line (HPL1, HPL2) among the horizontal power supply lines (HPL1, HPL2), wherein a second separation portion by which another data connection line among the data connection lines is spaced apart from another vertical dummy pattern among the vertical dummy patterns does not overlap the horizontal power supply lines (HPL1, HPL2). a plurality of first data lines extending in a second direction intersecting a first direction; a plurality of second data lines extending in the second direction and are spaced apart from the first data lines; a plurality of data connection lines connected to the first data lines, respectively; a plurality of vertical dummy patterns spaced apart from the data connection lines and extending in the second direction; and a plurality of horizontal power supply lines (HPL1, HPL2) in a display area and extending in the first direction and configured to receive a power supply voltage, wherein a first separation portion by which any one data connection line among the data connection lines is spaced apart from any one vertical dummy pattern among the vertical dummy patterns overlaps any one horizontal power supply line (HPL1, HPL2) among the horizontal power supply lines (HPL1, HPL2), wherein a second separation portion by which another data connection line among the data connection lines is spaced apart from another vertical dummy pattern among the vertical dummy patterns does not overlap the horizontal power supply lines (HPL1, HPL2).
A method of repairing a fuel nozzle guide for a combustor of a turbine engine comprising: removing a portion of a hub section which extends from an annular base of the fuel nozzle guide; building up a lip of the hub section with a weld to form a weld buildup lip; and machining the weld buildup lip to a desired original predetermined dimension; characterised by: building up the weld buildup lip as a continuous Cold Metal Transfer weld with a single start and a single stop. removing a portion of a hub section which extends from an annular base of the fuel nozzle guide; building up a lip of the hub section with a weld to form a weld buildup lip; and machining the weld buildup lip to a desired original predetermined dimension; characterised by: building up the weld buildup lip as a continuous Cold Metal Transfer weld with a single start and a single stop.
A turbine component comprising: a platform and an airfoil extending radially away from said platform, said airfoil extending from a leading edge to a trailing edge; and a leading edge portion defining said leading edge of said airfoil and a trailing edge portion including said trailing edge, said trailing edge portion also including said platform, and said leading edge portion being formed of a first material distinct from a second material forming said trailing edge portion wherein a lock is formed on one of said leading edge portion and said trailing edge portion, and the other of said trailing edge portion and said leading edge portion has ears which fit behind said lock to secure said one of said leading edge portion to said trailing edge portion, characterised in that: the turbine component is a turbine blade; said first material has an operating temperature capability at least 100°F (56°C) higher than that of said second material; and an angled attachment structure is formed on an opposed side of said platform relative to said airfoil and angled faces on said leading edge portion contact said angled attachment structure. a platform and an airfoil extending radially away from said platform, said airfoil extending from a leading edge to a trailing edge; and a leading edge portion defining said leading edge of said airfoil and a trailing edge portion including said trailing edge, said trailing edge portion also including said platform, and said leading edge portion being formed of a first material distinct from a second material forming said trailing edge portion wherein a lock is formed on one of said leading edge portion and said trailing edge portion, and the other of said trailing edge portion and said leading edge portion has ears which fit behind said lock to secure said one of said leading edge portion to said trailing edge portion, characterised in that: the turbine component is a turbine blade; said first material has an operating temperature capability at least 100°F (56°C) higher than that of said second material; and an angled attachment structure is formed on an opposed side of said platform relative to said airfoil and angled faces on said leading edge portion contact said angled attachment structure. the turbine component is a turbine blade; said first material has an operating temperature capability at least 100°F (56°C) higher than that of said second material; and an angled attachment structure is formed on an opposed side of said platform relative to said airfoil and angled faces on said leading edge portion contact said angled attachment structure.
A polar-group-containing olefin copolymer which comprises 99.999 to 80 mol% of structural units derived from at least one of ethylene and α-olefin having 3 to 20 carbon atoms and 20 to 0.001 mol% of structural units derived from at least one polar-group-containing monomer which contains an epoxy group and is represented by the following structural formula or following structural formula, the polar-group-containing olefin copolymer being a random copolymer obtained by copolymerization in the presence of a transition metal catalyst and having a linear molecular structure, wherein the polar-group-containing olefin copolymer has a melting point of 50 to 140°C, the melting point being the temperature corresponding to a maximum peak in an endothermic curve determined by differential scanning calorimetry, and wherein the amount of aluminum (Al) in the polar-group-containing olefin copolymer is 0 to 10,000 μg per g of the copolymer: (In structural formula, R 1 represents a hydrogen atom or an alkyl group having 1 to 10 carbon atoms, and R 2, R 3, and R 4 each independently represent a hydrogen atom, a hydrocarbon group, or the following epoxy-group-containing specific functional group, any one of R 2 to R 4 being the following epoxy-group-containing specific functional group: Specific functional group: a group which essentially contains an epoxy group and has a molecular structure comprising a carbon atom, an oxygen atom, and a hydrogen atom), (In structural formula, R 5 to R 8 each independently represent a hydrogen atom, a hydrocarbon group, or the following epoxy-group-containing specific functional group, any one of R 5 to R 8 being the following epoxy-group-containing specific functional group, and m is 0 to 2: Specific functional group: a group which essentially contains an epoxy group and has a molecular structure comprising a carbon atom, an oxygen atom, and a hydrogen atom)
A method of manufacturing high-purity erbium comprising: mixing crude erbium oxide having a purity of 3N or less with reducing metal, heating the mixture in a vacuum to distilland reduce the erbium, repeating distillation, and melting the distillate in an inert atmosphere to obtain high-purity erbium, wherein the purity excluding rare-earth elements and gas components is 4N or higher, oxygen content is 10 wtppm or less, elements of alkali metals are respectively 1 wtppm or less, elements of transition metals are respectively 1 wtppm or less, and radioactive elements are respectively 5 wtppm or less. mixing crude erbium oxide having a purity of 3N or less with reducing metal, heating the mixture in a vacuum to distilland reduce the erbium, repeating distillation, and melting the distillate in an inert atmosphere to obtain high-purity erbium, wherein the purity excluding rare-earth elements and gas components is 4N or higher, oxygen content is 10 wtppm or less, elements of alkali metals are respectively 1 wtppm or less, elements of transition metals are respectively 1 wtppm or less, and radioactive elements are respectively 5 wtppm or less.
An aircraft system for exchanging data between an aircraft having multiple aircraft systems and an operator, the aircraft system comprising: a first near-field communication interface located within the aircraft and operably coupled to at least some of the multiple aircraft systems; and a handheld device having a second near-field communication interface; wherein the handheld device is required to be brought within 25cm of the first near field communication interface for the first and second near-field communication interfaces to communicate; wherein when the handheld device is brought within 25cm of the first near field communication interface such that the first and second near-field communication interfaces may communicate, information may be exchanged through the near-field communication interfaces for at least some of the multiple aircraft systems and the handheld device. a first near-field communication interface located within the aircraft and operably coupled to at least some of the multiple aircraft systems; and a handheld device having a second near-field communication interface; wherein the handheld device is required to be brought within 25cm of the first near field communication interface for the first and second near-field communication interfaces to communicate; wherein when the handheld device is brought within 25cm of the first near field communication interface such that the first and second near-field communication interfaces may communicate, information may be exchanged through the near-field communication interfaces for at least some of the multiple aircraft systems and the handheld device. wherein the handheld device is required to be brought within 25cm of the first near field communication interface for the first and second near-field communication interfaces to communicate; wherein when the handheld device is brought within 25cm of the first near field communication interface such that the first and second near-field communication interfaces may communicate, information may be exchanged through the near-field communication interfaces for at least some of the multiple aircraft systems and the handheld device.
A communication device for handling a code block group, called CBG hereinafter, -based communication operation, in a 3GPP system, the communication device comprising: at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute instructions of: receiving an indication configuring at least one CBG-based communication operation to the communication device from a network; receiving a maximum number of CBGs in a transport block, called TB hereinafter, for the at least one CBG-based communication operation from the network; and performing the at least one CBG-based communication operation with the network according to the maximum number of CBGs; wherein the instruction of performing the at least one CBG-based communication operation with the network according to the maximum number of CBGs comprises: transmitting a hybrid automatic repeat request, called HARQ hereinafter, feedback with a HARQ feedback payload size related to the maximum number of CBGs to the network, wherein the HARQ feedback indicates at least one decoding result of at least one CBG in the TB according to the cyclic redundancy check, called CRC hereinafter, of the at least one CBG, and transmitting at least one negative acknowledgement, called NACK hereinafter, corresponding to all of the at least one CBG to the network in response to the TB, when decoding all of the at least one CBG in the TB correctly and performing a CRC on the TB incorrectly. at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute instructions of: receiving an indication configuring at least one CBG-based communication operation to the communication device from a network; receiving a maximum number of CBGs in a transport block, called TB hereinafter, for the at least one CBG-based communication operation from the network; and performing the at least one CBG-based communication operation with the network according to the maximum number of CBGs; wherein the instruction of performing the at least one CBG-based communication operation with the network according to the maximum number of CBGs comprises: transmitting a hybrid automatic repeat request, called HARQ hereinafter, feedback with a HARQ feedback payload size related to the maximum number of CBGs to the network, wherein the HARQ feedback indicates at least one decoding result of at least one CBG in the TB according to the cyclic redundancy check, called CRC hereinafter, of the at least one CBG, and transmitting at least one negative acknowledgement, called NACK hereinafter, corresponding to all of the at least one CBG to the network in response to the TB, when decoding all of the at least one CBG in the TB correctly and performing a CRC on the TB incorrectly.
A full length bispecific antibody comprising a first antigen-binding site that binds domain I of ErbB-2 and a second antigen-binding site that binds domain III of ErbB-3, wherein the antibody can reduce a ligand-induced receptor function of ErbB-3 on a ErbB-2 and ErbB-3 positive cell.
A tangential on-board injector (TOBI) for a gas turbine engine, the TOBI characterized by comprising: at least one adjustable vane configured to control an airflow through the TOBI, the at least one adjustable vane moveable to change an airflow characteristic within the TOBI, wherein the at least one adjustable vane comprises a body and at least one pivot, wherein the body is configured to rotate about the at least one pivot, and at least one additional stationary vane located adjacent the at least one adjustable vane, wherein a passageway is defined between the at least one adjustable vane and the at least one additional vane, wherein as the at least one adjustable vane rotates about the at least one pivot, an airflow characteristic of the passageway changes thus changing the airflow characteristic within the TOBI. at least one adjustable vane configured to control an airflow through the TOBI, the at least one adjustable vane moveable to change an airflow characteristic within the TOBI, wherein the at least one adjustable vane comprises a body and at least one pivot, wherein the body is configured to rotate about the at least one pivot, and at least one additional stationary vane located adjacent the at least one adjustable vane, wherein a passageway is defined between the at least one adjustable vane and the at least one additional vane, wherein as the at least one adjustable vane rotates about the at least one pivot, an airflow characteristic of the passageway changes thus changing the airflow characteristic within the TOBI.
A method for producing a carbonate compound, comprising reacting a compound represented by the following formula with a compound having an OH group in the presence of a metal salt and 0.2 to 4.0 mol of a compound represented by the following formula per mol of the metal salt to obtain a compound having a carbonate bond, wherein m is an integer of from 1 to 10, Q is an alkylene group having 1 to 4 carbon atoms or a group in which one or more hydrogen atoms of the alkylene group are replaced by an alkyl group having 1 to 5 carbon atoms or by an alkyl group having 2 to 5 carbon atoms and having an ethereal oxygen atom between carbon atom-carbon atom, and Q in the case where m is 2 or more may be the same group or a different group, and R 10 and R 11 are each independently an alkyl group having 1 to 5 carbon atoms, wherein, during the reaction of the compound represented by the formula with the compound having an OH group, chloroform produced by the reaction is not removed by distillation. m is an integer of from 1 to 10, Q is an alkylene group having 1 to 4 carbon atoms or a group in which one or more hydrogen atoms of the alkylene group are replaced by an alkyl group having 1 to 5 carbon atoms or by an alkyl group having 2 to 5 carbon atoms and having an ethereal oxygen atom between carbon atom-carbon atom, and Q in the case where m is 2 or more may be the same group or a different group, and R 10 and R 11 are each independently an alkyl group having 1 to 5 carbon atoms, wherein, during the reaction of the compound represented by the formula with the compound having an OH group, chloroform produced by the reaction is not removed by distillation.
A bidirectional chopper circuit that bi-directionally performs voltage conversion between a first DC voltage across a pair of first external connection terminals (T1, G1) and a second DC voltage across a pair of second external connection terminals (T2, G2), comprising: a main power converter (11, 14) including a first switching unit and a second switching unit, which are connected in series with each other so that conduction directions in an ON state are aligned and one of which is turned OFF when the other is turned ON, the main power converter (11, 14) having, as the first external connection terminals (T1, G1), both terminals on a side opposite to a side on which the first switching unit and the second switching unit are connected; characterised in that said bidirectional chopper circuit further comprises: at least one single-phase full-bridge power converter (22-1, 22-2, 22-N) cascaded with each other provided on a wiring line that branches from a wiring line connecting the first switching unit and the second switching unit; and an inductor connected in series with the at least one single-phase full-bridge power converter (22-1, 22-2, 22-N) on the wiring line that branches from the wiring line connecting the first switching unit and the second switching unit, wherein, at any position on the wiring line that branches from the wiring line connecting the first switching unit and the second switching unit are provided, with the inductor and the at least one single-phase full-bridge power converter (22-1, 22-2, 22-N), the pair of second external connection terminals (T2, G2) a main power converter (11, 14) including a first switching unit and a second switching unit, which are connected in series with each other so that conduction directions in an ON state are aligned and one of which is turned OFF when the other is turned ON, the main power converter (11, 14) having, as the first external connection terminals (T1, G1), both terminals on a side opposite to a side on which the first switching unit and the second switching unit are connected; characterised in that said bidirectional chopper circuit further comprises: at least one single-phase full-bridge power converter (22-1, 22-2, 22-N) cascaded with each other provided on a wiring line that branches from a wiring line connecting the first switching unit and the second switching unit; and an inductor connected in series with the at least one single-phase full-bridge power converter (22-1, 22-2, 22-N) on the wiring line that branches from the wiring line connecting the first switching unit and the second switching unit, wherein, at any position on the wiring line that branches from the wiring line connecting the first switching unit and the second switching unit are provided, with the inductor and the at least one single-phase full-bridge power converter (22-1, 22-2, 22-N), the pair of second external connection terminals (T2, G2)
A method for producing a sintered ore by charging a sintering raw material containing a powder ore and a carbonaceous material onto a circulatory moving pallet to form a charged layer, igniting the carbonaceous material on the surface of the charged layer, introducing air above the charged layer containing a gaseous fuel diluted to not more than a lower limit of combustion concentration with wind boxes arranged below the pallet into the charged layer by suction and combusting the gaseous fuel and the carbonaceous material in the charged layer, wherein the gaseous fuel is supplied in a region not more than 40% of a machine length ranging from an ignition furnace to an ore removing portion, characterized in that: the concentration of the gaseous fuel contained in the air is 1/100 to 1/5 of the lower limit of combustion concentration; and more than 50% of a total supply of the gaseous fuel is supplied in a front 1/3 portion of the region. the concentration of the gaseous fuel contained in the air is 1/100 to 1/5 of the lower limit of combustion concentration; and more than 50% of a total supply of the gaseous fuel is supplied in a front 1/3 portion of the region.
A method for operating a bandgap voltage reference circuit comprising a bias circuit for receiving a feedback signal and outputting a bias signal in response to the feedback signal, an amplifier for receiving the bias signal and outputting a first reference signal as the feedback signal, an output circuit for receiving the first reference signal and outputting a second reference signal, and an output switch for outputting the second reference signal as an output signal, the method comprising: after powering up the bandgap voltage reference circuit, determining whether the output signal is a stable signal, in the event that the output signal is a stable signal: turning off the output switch; after turning off the output switch, turning off the bias circuit; and after turning off the bias circuit, turning off the output circuit. turning off the output switch; after turning off the output switch, turning off the bias circuit; and after turning off the bias circuit, turning off the output circuit.