mhurhangee/ep-ind-claims huggingface dataset:
A percussion apparatus for sputum clearance, including: a percussion unit, including a percussion member and an angle detector, the angle detector being configured to detect an included angle (Θ) between a reference plane and a horizontal plane; a drive unit; and a control unit, electrically connected with the drive unit, characterized in that if the included angle (Θ) conforms to a preset angle, the control unit controls the drive unit to drive the percussion unit to periodically percuss. a percussion unit, including a percussion member and an angle detector, the angle detector being configured to detect an included angle (Θ) between a reference plane and a horizontal plane; a drive unit; and a control unit, electrically connected with the drive unit, characterized in that if the included angle (Θ) conforms to a preset angle, the control unit controls the drive unit to drive the percussion unit to periodically percuss.
Device for producing high-strength CO 2 pellets from CO 2 snow, in particular, for a cleaning device for blasting surfaces to be treated with a mixed-flow consisting of a compressed gas and CO 2 pellets, comprising a main compressing device for compressing CO 2 snow for forming CO 2 pellets, and a pre-compressing device for pre-compressing CO 2 snow produced by expanding liquid CO 2, characterized in that the pre-compressing device is in the form of a fluid-mechanical pre-compressing device, in that the pre-compressing device comprises an expansion device for producing CO 2 snow from liquid or gaseous CO 2 and a pre-compression chamber for receiving and pre-compressing the produced CO 2 snow and in that the expansion device and the pre-compression chamber are connected to one another in fluidic manner.
A method for manufacturing a rare earth permanent magnet from a green compact of a raw material alloy containing B, Fe, a rare earth element R of one or more types including Nd, and an element L of one or more types selected from a group consisting of Co, Be, Li, Al, Si, Cu, Nb, Zr, Ti, and Ga; characterized by a degreasing step of retaining, in vacuum, the green compact; and a carbon reduction step of reducing a carbon content in the green compact, including: - a degassing step of retaining the green compact at a temperature of 100°C or lower for one hour or longer, and - a drying step of retaining the green compact in an atmosphere of a dew point of -60°C or lower, which is executed after the degassing step, wherein the carbon reduction step is performed before the degreasing step. a green compact of a raw material alloy containing B, Fe, a rare earth element R of one or more types including Nd, and an element L of one or more types selected from a group consisting of Co, Be, Li, Al, Si, Cu, Nb, Zr, Ti, and Ga; characterized by a degreasing step of retaining, in vacuum, the green compact; and a carbon reduction step of reducing a carbon content in the green compact, including: - a degassing step of retaining the green compact at a temperature of 100°C or lower for one hour or longer, and - a drying step of retaining the green compact in an atmosphere of a dew point of -60°C or lower, which is executed after the degassing step, - a degassing step of retaining the green compact at a temperature of 100°C or lower for one hour or longer, and - a drying step of retaining the green compact in an atmosphere of a dew point of -60°C or lower, which is executed after the degassing step, wherein the carbon reduction step is performed before the degreasing step.
A ceramic circuit substrate comprising: a ceramic substrate; a circuit pattern provided on a ceramic substrate; and a braze material layer interposed between the ceramic substrate and the circuit pattern, wherein the braze material layer has a protruding portion protruding from an outer edge of the circuit pattern, wherein the braze material layer comprises Ag, Cu, Ti, and Si or In; and wherein a bonding void ratio of the braze material layer is 1% or less with respect to an area of the circuit pattern; characterized in that the braze material layer comprises Ag-rich phases formed continuously along a bonding interface between the ceramic substrate and the circuit pattern over a length of the braze material layer of 300 μm or more from an outer edge of the protruding portion towards the inside of the braze material layer in a cross-sectional view of the ceramic circuit substrate. a ceramic substrate; a circuit pattern provided on a ceramic substrate; and a braze material layer interposed between the ceramic substrate and the circuit pattern, wherein the braze material layer has a protruding portion protruding from an outer edge of the circuit pattern, wherein the braze material layer comprises Ag, Cu, Ti, and Si or In; and wherein a bonding void ratio of the braze material layer is 1% or less with respect to an area of the circuit pattern; the braze material layer comprises Ag, Cu, Ti, and Si or In; and wherein a bonding void ratio of the braze material layer is 1% or less with respect to an area of the circuit pattern; characterized in that the braze material layer comprises Ag-rich phases formed continuously along a bonding interface between the ceramic substrate and the circuit pattern over a length of the braze material layer of 300 μm or more from an outer edge of the protruding portion towards the inside of the braze material layer in a cross-sectional view of the ceramic circuit substrate.
A power car for a high-speed train, in particular for transporting passengers, said power car including a body and at least one traction motor (16, 17) of said body, said body comprising a roof and a floor; the at least one traction motor being arranged under said floor, the body further comprising: a rheostatic brake arranged in an upper part of said body; and a first ventilation device of said rheostatic brake; the body further comprising: electrical equipments for controlling the at least one traction motor; and a second ventilation device of said electrical equipments, the power car being characterized in that: - the first ventilation device comprises a first air intake sheath, forming a closed pipe between an inlet and an outlet; said inlet and outlet being located respectively at the level of a first and second air inlet mouth located on the roof of the body; - the second ventilation device comprises a second air intake sheath, forming a closed pipe between an inlet and an outlet; said inlet and outlet being located respectively at the level of a third air inlet mouth located on the roof of the body and a fourth air inlet mouth located under the floor of the body; and - each of the first and second ventilation devices comprises a fan (46, 74) arranged between the inlet and the outlet, respectively of the first and second sheath. - the first ventilation device comprises a first air intake sheath, forming a closed pipe between an inlet and an outlet; said inlet and outlet being located respectively at the level of a first and second air inlet mouth located on the roof of the body; - the second ventilation device comprises a second air intake sheath, forming a closed pipe between an inlet and an outlet; said inlet and outlet being located respectively at the level of a third air inlet mouth located on the roof of the body and a fourth air inlet mouth located under the floor of the body; and - each of the first and second ventilation devices comprises a fan (46, 74) arranged between the inlet and the outlet, respectively of the first and second sheath.
Assembly comprising a game controller comprising an assembled shell and at least one pivoting control member which is passed through the assembled shell, which is able to be tilted manually in all directions from a rest position into which it returns in a rotationally elastic manner and which comprises a pivoting shaft and at least a first head and a second head, which are suitable, each separately and in absence of the head assembled with the pivoting shaft, for being removably assembled with the pivoting shaft without disassembling the shell from the game controller and for being disassembled from the pivoting shaft without disassembling the shell from the game controller, and which are adapted such that the control member, comprising the first head or the second head assembled with the pivoting shaft, is capable of being tilted manually, for each tilting direction, to a stop position, characterized in that in said stop position said first head or said second head is in abutment and makes it possible to block the tilting of the control member with a stop angle (α) with respect to the rest position, the value of the stop angle (α) obtained with the first head being different from the value of the stop angle (α) obtained for the same tilting direction with the second head.
Apparatus for transferring a fluid from and/or to a system, in particular an air conditioning system, the apparatus comprising: a main compartment comprising at least one pumping device for pumping the fluid from/to the system; an interface module comprising at least one gauge (4a, 4b) which is configured to display the pressure of the fluid; and a fluid connection fluidly connecting the gauge (4a, 4b) to the main compartment; characterized in that the fluid connection is formed in a double conduit design in order to prevent any leakage of the fluid from the fluid connection, wherein the fluid connection comprises an inner conduit for providing a fluid connection between the gauge (4a, 4b) and the main compartment, and an outer conduit, which is configured for receiving any fluid leaking out of the inner conduit, wherein the apparatus comprising at least one fitting (10, 12) which is configured for connecting the conduits to the gauge (4a, 4b), wherein at least a portion of the fitting (10, 12) is brazed onto the body of the gauge (4a, 4b), and wherein the fitting (10, 12) is configured so that the inner conduit is connectable to the gauge (4a, 4b) only after the outer conduit has been connected. a main compartment comprising at least one pumping device for pumping the fluid from/to the system; an interface module comprising at least one gauge (4a, 4b) which is configured to display the pressure of the fluid; and a fluid connection fluidly connecting the gauge (4a, 4b) to the main compartment; characterized in that the fluid connection is formed in a double conduit design in order to prevent any leakage of the fluid from the fluid connection, wherein the fluid connection comprises an inner conduit for providing a fluid connection between the gauge (4a, 4b) and the main compartment, and an outer conduit, which is configured for receiving any fluid leaking out of the inner conduit, wherein the apparatus comprising at least one fitting (10, 12) which is configured for connecting the conduits to the gauge (4a, 4b), wherein at least a portion of the fitting (10, 12) is brazed onto the body of the gauge (4a, 4b), and wherein the fitting (10, 12) is configured so that the inner conduit is connectable to the gauge (4a, 4b) only after the outer conduit has been connected.
An exhaust gas treating apparatus (100A, 100B) for removing nitrogen oxides and mercury in an exhaust gas from a boiler by use of an ammonia denitration catalyst, the exhaust gas treating apparatus (100A, 100B) being characterized by comprising: an ammonium chloride powder feed unit for feeding ammonium chloride, in powder form, into any one of or both of a vicinity of an entrance of an economizer provided to a combustion gas flue of the boiler and an economizer bypass unit, the exhaust gas treating apparatus (100A, 100B) being configured to sublime the fed ammonium chloride in powder form by a combustion gas (11, 11a), and to thereby feed hydrogen chloride and ammonia into the flue; and an ammonium chloride liquid feed unit for feeding ammonium chloride, in liquid form, into any one of or both of a vicinity of the entrance of the economizer and the economizer bypass unit, the ammonium chloride liquid feed unit also being capable of feeding ammonium chloride, the exhaust gas treating apparatus (100A, 100B) being configured to vaporize the fed ammonium chloride in liquid form by the combustion gas (11, 11a), and to thereby also allow hydrogen chloride and ammonia to be fed into the flue. an ammonium chloride powder feed unit for feeding ammonium chloride, in powder form, into any one of or both of a vicinity of an entrance of an economizer provided to a combustion gas flue of the boiler and an economizer bypass unit, the exhaust gas treating apparatus (100A, 100B) being configured to sublime the fed ammonium chloride in powder form by a combustion gas (11, 11a), and to thereby feed hydrogen chloride and ammonia into the flue; and an ammonium chloride liquid feed unit for feeding ammonium chloride, in liquid form, into any one of or both of a vicinity of the entrance of the economizer and the economizer bypass unit, the ammonium chloride liquid feed unit also being capable of feeding ammonium chloride, the exhaust gas treating apparatus (100A, 100B) being configured to vaporize the fed ammonium chloride in liquid form by the combustion gas (11, 11a), and to thereby also allow hydrogen chloride and ammonia to be fed into the flue.
Filter system for a liquid medium, comprising at least one regenerable filter module (1, 100) having at least two container units, each having an outer side wall (4, 6), wherein one of the container units forms a closed filter housing (2, 102) having a filter cartridge and each other container unit in each case forms a tank element, and the filter housing has a filter cake ejection shaft which is arranged below the filter cartridge and is oriented downward for the ejection, characterized in that one of the container units, as an inner container unit, is surrounded along at least a predominant portion of the extent of the side wall (4, 6) thereof by the other container unit or, in the case of at least three container units, by at least one of the other container units.
A device for flight performance parameter computation, the device comprising: a memory configured to store an aircraft performance model, the aircraft performance model based on historical flight data (223, 235, 327, 329, 331, 335, 407) of one or more aircraft, wherein the aircraft performance model includes a recurrent neural network layer; a network interface configured to receive real-time time-series flight data from a data bus of a first aircraft; and a processor configured to: receive, via the network interface, the real-time time-series flight data; generate, based on the real-time time-series flight data and the aircraft performance model, one or more aircraft performance parameters; provide the aircraft performance parameters to a display device; and wherein the processor comprises a GUI generator to generate one or more recommended settings, including a recommended trim setting, based on the one or more aircraft performance parameters. a memory configured to store an aircraft performance model, the aircraft performance model based on historical flight data (223, 235, 327, 329, 331, 335, 407) of one or more aircraft, wherein the aircraft performance model includes a recurrent neural network layer; a network interface configured to receive real-time time-series flight data from a data bus of a first aircraft; and a processor configured to: receive, via the network interface, the real-time time-series flight data; generate, based on the real-time time-series flight data and the aircraft performance model, one or more aircraft performance parameters; provide the aircraft performance parameters to a display device; and wherein the processor comprises a GUI generator to generate one or more recommended settings, including a recommended trim setting, based on the one or more aircraft performance parameters. receive, via the network interface, the real-time time-series flight data; generate, based on the real-time time-series flight data and the aircraft performance model, one or more aircraft performance parameters; provide the aircraft performance parameters to a display device; and wherein the processor comprises a GUI generator to generate one or more recommended settings, including a recommended trim setting, based on the one or more aircraft performance parameters.
A wearable article, comprising: a structural material configured to enable the wearable article to be worn on a body; a volatile energy storage device; a wireless transmission circuit, coupled to the volatile energy storage device, comprising an antenna having a minimum transmission energy; a kinetic energy generator, positioned with respect to the structural material in a configuration to be manipulated to induce a voltage output, the kinetic energy generator coupled to and configured to charge the volatile energy storage device; an electronic data storage configured to store electronic data; characterised in that the wearable article further comprises: a controller configured to determine if the energy stored in the volatile energy storage device is equal to or exceeds an energy stored threshold corresponding to the minimum transmission energy; wherein, upon the controller determining that the energy stored in the volatile energy storage device equals or exceeds the energy stored threshold, the controller causes the wireless transmission circuit to draw energy from the volatile energy storage device to transmit the electronic data as stored in the electronic data storage. a structural material configured to enable the wearable article to be worn on a body; a volatile energy storage device; a wireless transmission circuit, coupled to the volatile energy storage device, comprising an antenna having a minimum transmission energy; a kinetic energy generator, positioned with respect to the structural material in a configuration to be manipulated to induce a voltage output, the kinetic energy generator coupled to and configured to charge the volatile energy storage device; an electronic data storage configured to store electronic data; characterised in that the wearable article further comprises: a controller configured to determine if the energy stored in the volatile energy storage device is equal to or exceeds an energy stored threshold corresponding to the minimum transmission energy; wherein, upon the controller determining that the energy stored in the volatile energy storage device equals or exceeds the energy stored threshold, the controller causes the wireless transmission circuit to draw energy from the volatile energy storage device to transmit the electronic data as stored in the electronic data storage. a controller configured to determine if the energy stored in the volatile energy storage device is equal to or exceeds an energy stored threshold corresponding to the minimum transmission energy; wherein, upon the controller determining that the energy stored in the volatile energy storage device equals or exceeds the energy stored threshold, the controller causes the wireless transmission circuit to draw energy from the volatile energy storage device to transmit the electronic data as stored in the electronic data storage.
A prepreg comprising an epoxy resin composition and reinforcing fiber, wherein the epoxy resin composition comprises the following component, component and component, wherein the glass transition temperature of a cured product, which is obtained by curing the epoxy resin composition at 180°C for 2 hours, after immersing in boiling water at 1 atm for 48 hours is 180°C or more, and wherein the theoretical molecular weight between crosslinking points α of the cured epoxy resin composition, calculated as defined in the specification, is 230 g/mol or more;: A tri- or more functional binaphthalene epoxy resin represented by the following general formula (A-1); in the formula, X represents an alkylene group having 1 to 8 carbon atoms or a group represented by the following general formula (A-2); R 1 to R 5 each represent a group represented by the following general formula (A-3) or (A-4), a hydrogen atom, a halogen atom, a phenyl group or an alkyl group having 1 to 4 carbon atoms; R 1 to R 4 may be bonded to either ring of naphthalene skeletons, or may be simultaneously bonded to both rings; R 5 may be added anywhere in the benzene skeleton; three or more of R 1 to R 5 need to be a group represented by the following general formula (A-3), or alternatively, at least one group represented by the general formula (A-3) and at least one group represented by the general formula (A-4) need to be included among R 1 to R 5, and other Rs may be the same as or different from each other;: an aromatic amine compound; and: a monofunctional or bifunctional epoxy resin having two or more four- or more-membered ring structures and including a glycidylamino group or glycidylether group directly bonded to the ring structure.: A tri- or more functional binaphthalene epoxy resin represented by the following general formula (A-1); in the formula, X represents an alkylene group having 1 to 8 carbon atoms or a group represented by the following general formula (A-2); R 1 to R 5 each represent a group represented by the following general formula (A-3) or (A-4), a hydrogen atom, a halogen atom, a phenyl group or an alkyl group having 1 to 4 carbon atoms; R 1 to R 4 may be bonded to either ring of naphthalene skeletons, or may be simultaneously bonded to both rings; R 5 may be added anywhere in the benzene skeleton; three or more of R 1 to R 5 need to be a group represented by the following general formula (A-3), or alternatively, at least one group represented by the general formula (A-3) and at least one group represented by the general formula (A-4) need to be included among R 1 to R 5, and other Rs may be the same as or different from each other;: an aromatic amine compound; and: a monofunctional or bifunctional epoxy resin having two or more four- or more-membered ring structures and including a glycidylamino group or glycidylether group directly bonded to the ring structure.
Freight car, comprising: a loading area and at least two axles, in particular four axles, mounted in two bogies, whereby said loading area has formed therein coil troughs for steel coils, whereby said loading area has disposed alongside said coil troughs, wedges having a substantially triangular cross section for securing the steel coils, whereby said wedges are foldable connected to said loading area, and said wedges are disposed in said coil troughs, characterized in that insertion stakes and in the loading area insertion openings for insertion stakes are provided in a vicinity of said oil troughs, whereby the insertion stakes are accommodated in the coil troughs when not in use and the wedges to form on both sides of the coil troughs are folded into their non-use position so that a continuous loading surface is formed. a loading area and at least two axles, in particular four axles, mounted in two bogies, whereby said loading area has formed therein coil troughs for steel coils, whereby said loading area has disposed alongside said coil troughs, wedges having a substantially triangular cross section for securing the steel coils, whereby said wedges are foldable connected to said loading area, and said wedges are disposed in said coil troughs, characterized in that insertion stakes and in the loading area insertion openings for insertion stakes are provided in a vicinity of said oil troughs, whereby the insertion stakes are accommodated in the coil troughs when not in use and the wedges to form on both sides of the coil troughs are folded into their non-use position so that a continuous loading surface is formed.