mhurhangee/ep-ind-claims huggingface dataset:
An austenitic, and lightweight steel sheet consisting of, by weight%, C: 0.6% to 1.0%, Si: 0.1% to 2.5%, Mn: 10% to 15%, P: 0.02% or less, S: 0.015% or less, Al: 5% to 8%, Ti: 0.01% to 0.20%, N: 0.02% or less, optionally further comprising at least one selected from the group consisting of Cr: 0.1% to 3.0%, Ni: 0.05% to 2.0%, Cu: 0.1% to 2.0%, and Mo: 0.05% to 0.5%, and/or optionally further comprising at least one selected from the group consisting of V: 0.005% to 0.5%, Nb: 0.005% to 0.2%, Zr: 0.005% to 0.2%, and B: 0.0005% to 0.0030%, and/or optionally further comprising one or two selected from the group consisting of Sb: 0.005% to 0.2% and Ca: 0.001% to 0.02%, and the balance of Fe and inevitable impurities, wherein the steel sheet has a specific gravity of 7.4 g/cm 3 or less and a Mn/Al ratio of 2 to 3, and wherein the steel sheet has a single-phase austenite microstructure, wherein the steel sheet has a tensile strength of 800 MPa to 1200 MPa, a yield ratio of 60% or more, and elongation of 30% or more.
An electrode material comprising a particle containing silicon and/or tin, and fibrous carbon, wherein the particle comprises at least one member of a silicon particle and tin particle (hereinafter referred to as "Particle A"), wherein the Particle A is coated with a carbonaceous material by depositing a composition containing a polymer onto at least a portion of the surface of the Particle A, mixing fibrous carbon thereto, and thermal graphitization treatment of the mixture at 2000°C to 3000°C.
A phosphor device comprising: a body including phosphor particles, shaped like a pyramid or cone and including an inclined face (4-1, 4-2, 4-3, 4-4) and first and second faces opposed to each other, wherein the first face includes a smaller area than the area of the second face, the first face and the inclined faces have reflection layers configured to reflect light beams emitted from the phosphor particles and including a wavelength in a visible-light region, the second face includes a reflection preventing layer configured to allow passage of the light beams emitted from the phosphor particles, and the second face is an input face for excitation light for exciting the phosphor particles and also an output face for the light beams emitted from the phosphor particles, characterised in that the reflection preventing layer is formed by a reflection preventing film made of a metal oxide or a metal fluoride, or by forming depressions and projections arranged at a pitch shorter than a wavelength in the visible-light region. a body including phosphor particles, shaped like a pyramid or cone and including an inclined face (4-1, 4-2, 4-3, 4-4) and first and second faces opposed to each other, wherein the first face includes a smaller area than the area of the second face, the first face and the inclined faces have reflection layers configured to reflect light beams emitted from the phosphor particles and including a wavelength in a visible-light region, the second face includes a reflection preventing layer configured to allow passage of the light beams emitted from the phosphor particles, and the second face is an input face for excitation light for exciting the phosphor particles and also an output face for the light beams emitted from the phosphor particles, characterised in that the reflection preventing layer is formed by a reflection preventing film made of a metal oxide or a metal fluoride, or by forming depressions and projections arranged at a pitch shorter than a wavelength in the visible-light region.
A method, at a responding STA, comprising: receiving a fine timing measurement, FTM, request message from an initiating STA; and transmitting at least a subsequent FTM message to the initiating STA in response to the FTM request message, the subsequent FTM message comprising at least one field indicating a time of transmission of a previous FTM message and a time of receipt of an acknowledgement message transmitted in response to receipt of the previous FTM, the at least one field comprising a common portion indicative of most significant portions of the time of transmission of the previous FTM message and the time of receipt of the acknowledgement message, a first fractional portion indicative of the time of transmission of the previous FTM message and a second fraction portion indicative of the time of receipt of the acknowledgement message. receiving a fine timing measurement, FTM, request message from an initiating STA; and transmitting at least a subsequent FTM message to the initiating STA in response to the FTM request message, the subsequent FTM message comprising at least one field indicating a time of transmission of a previous FTM message and a time of receipt of an acknowledgement message transmitted in response to receipt of the previous FTM, the at least one field comprising a common portion indicative of most significant portions of the time of transmission of the previous FTM message and the time of receipt of the acknowledgement message, a first fractional portion indicative of the time of transmission of the previous FTM message and a second fraction portion indicative of the time of receipt of the acknowledgement message.
An automatic vehicle washing system comprising a first pump for collecting water from the water supply network, a filter for separating sediments from the water supply and a water softener, characterised in that said water softener is configured to eject decalcified water, being pumped through conduits to a first decalcified water tank configured for storing and ejecting decalcified water through a first outlet by means of a second pump through osmosis filters situated between said second pump and a second osmosed water tank, wherein, from the first decalcified water tank and from the second osmosed water tank two independent hydraulic circuits of the automatic washing system with control means are created, wherein; - the first independent hydraulic circuit comprises the first water tank which ejects decalcified water by means of a second outlet by means of the action of a third pump configured to extract and pump the decalcified water of the first tank through a first detergent dispenser, situated between the first tank and the third pump, and pump it to a first spray gun configured to eject the water with detergent onto a vehicle by means of a first arm in a washing bay; - the second hydraulic circuit comprises the second osmosed water tank, connected to a fourth pump, through a second wax and brightener dispenser, wherein said fourth pump is configured to extract and pump the osmosed water of the second tank, and pump it to a second spray gun configured to eject the water with wax and brightener through a second arm in a washing bay; and - control means configured for applying a first phase in which decalcified water with high-density foam is ejected onto the vehicle to be washed by means of the first spray gun, and a second rinsing and finishing phase, in which the osmosed water is ejected with wax and brightener onto the vehicle to be washed by means of the second spray gun. - the first independent hydraulic circuit comprises the first water tank which ejects decalcified water by means of a second outlet by means of the action of a third pump configured to extract and pump the decalcified water of the first tank through a first detergent dispenser, situated between the first tank and the third pump, and pump it to a first spray gun configured to eject the water with detergent onto a vehicle by means of a first arm in a washing bay; - the second hydraulic circuit comprises the second osmosed water tank, connected to a fourth pump, through a second wax and brightener dispenser, wherein said fourth pump is configured to extract and pump the osmosed water of the second tank, and pump it to a second spray gun configured to eject the water with wax and brightener through a second arm in a washing bay; and - control means configured for applying a first phase in which decalcified water with high-density foam is ejected onto the vehicle to be washed by means of the first spray gun, and a second rinsing and finishing phase, in which the osmosed water is ejected with wax and brightener onto the vehicle to be washed by means of the second spray gun.
A process for workup of water comprising aromatic hydrocarbons selected from the group consisting of benzene, toluene, ethylbenzene and xylene, comprising at least the following steps: (i) introducing a stream comprising water and aromatic hydrocarbons selected from the group consisting of benzene, toluene, ethylbenzene and xylene into a column, (ii) contacting stream with a second stream in countercurrent and (iii) removing a third stream comprising water and aromatic hydrocarbons selected from the group consisting of benzene, toluene, ethylbenzene and xylene, the aromatic hydrocarbons being present in a concentration of ≤ 3 mg/l based on the volume of stream, wherein the second stream comprises associated petroleum gas comprising ≥ 30 % by volume to ≤ 75 % by volume of methane, the water in step (i) has a temperature in the range of ≥ 40°C to ≤ 80°C, and a pressure in the range of ≥ 200 hPa to ≤ 1500 hPa is present in the column. (i) introducing a stream comprising water and aromatic hydrocarbons selected from the group consisting of benzene, toluene, ethylbenzene and xylene into a column, (ii) contacting stream with a second stream in countercurrent and (iii) removing a third stream comprising water and aromatic hydrocarbons selected from the group consisting of benzene, toluene, ethylbenzene and xylene, the aromatic hydrocarbons being present in a concentration of ≤ 3 mg/l based on the volume of stream,
An immunoassay method for β-D-glucan in a biological sample, comprising: assaying β-D-glucan in the biological sample by using two monoclonal antibodies binding to laminaritetraose.
A vane for a gas turbine engine comprising: a flowpath spanning portion; an outer diameter portion; an inner diameter portion; a leading edge; a trailing edge connected to the leading edge via a first surface and a second surface; an impingement cavity internal to the vane, the impingement cavity being aligned with one of the leading edge and the trailing edge; a cooling passage extending at least partially through the vane, the cooling passage including an inlet disposed at the outer diameter portion including an axially aligned fluid flow relative to an axis of the gas turbine engine, and an outlet disposed at the inner diameter portion including an axially aligned fluid flow relative to the axis of the gas turbine engine; and a plurality of crossover holes connecting said cooling passage to said impingement cavity, said plurality of crossover holes including a plurality of holes being axially aligned with the axis of the gas turbine engine and at least one crossover hole being aligned normal to said cooling passage and being unaligned with a line drawn perpendicular to a stacking line of the flowpath component, wherein said cooling passage includes an axial to radial flow bend and a radial to axial flow bend, and wherein at least one of said plurality of crossover holes is at the axial to radial flow bend or the radial to axial flow bend and includes an angular component aligned with a radius of the gas turbine engine so as to direct a cooling fluid from the cooling passage into the impingement cavity to avoid a stagnated flow zone at the impingement cavity. a flowpath spanning portion; an outer diameter portion; an inner diameter portion; a leading edge; a trailing edge connected to the leading edge via a first surface and a second surface; an impingement cavity internal to the vane, the impingement cavity being aligned with one of the leading edge and the trailing edge; a cooling passage extending at least partially through the vane, the cooling passage including an inlet disposed at the outer diameter portion including an axially aligned fluid flow relative to an axis of the gas turbine engine, and an outlet disposed at the inner diameter portion including an axially aligned fluid flow relative to the axis of the gas turbine engine; and a plurality of crossover holes connecting said cooling passage to said impingement cavity, said plurality of crossover holes including a plurality of holes being axially aligned with the axis of the gas turbine engine and at least one crossover hole being aligned normal to said cooling passage and being unaligned with a line drawn perpendicular to a stacking line of the flowpath component, wherein said cooling passage includes an axial to radial flow bend and a radial to axial flow bend, and wherein at least one of said plurality of crossover holes is at the axial to radial flow bend or the radial to axial flow bend and includes an angular component aligned with a radius of the gas turbine engine so as to direct a cooling fluid from the cooling passage into the impingement cavity to avoid a stagnated flow zone at the impingement cavity.
A wireless energy transfer system for powering devices implanted in a patient comprising: a high-Q source resonator (2212; 2304; 2308; 2314) having a first resonant frequency, the source resonator (2212; 2304; 2308; 2314) being external to the patient, coupled to a power source, and configured to generate oscillating magnetic fields at substantially the first resonant frequency, a high-Q device resonator having a second resonant frequency, the device resonator coupled to an implantable device requiring a supply power, the device resonator being internal to the patient, and configured to capture the oscillating magnetic fields generated by the source resonator (2212; 2304; 2308; 2314), a temperature sensor positioned to measure the temperature of the device resonator, a tunable component coupled to the device resonator to adjust the resonant frequency of the device resonator in response to the reading from the temperature sensor, a repeater resonator; wherein the repeater resonator is configured to be positioned to improve the energy transfer between the source resonator (2212; 2304; 2308; 2314) and the device resonator, wherein the wireless energy transfer system is configured to detune the resonance frequency of the device resonator to reduce heat dissipation at the device resonator, and wherein the wireless energy transfer system is configured to increase an output power of the source resonator (2212; 2304; 2308; 2314) to maintain a level of power delivered to the device resonator. a high-Q source resonator (2212; 2304; 2308; 2314) having a first resonant frequency, the source resonator (2212; 2304; 2308; 2314) being external to the patient, coupled to a power source, and configured to generate oscillating magnetic fields at substantially the first resonant frequency, a high-Q device resonator having a second resonant frequency, the device resonator coupled to an implantable device requiring a supply power, the device resonator being internal to the patient, and configured to capture the oscillating magnetic fields generated by the source resonator (2212; 2304; 2308; 2314), a temperature sensor positioned to measure the temperature of the device resonator, a tunable component coupled to the device resonator to adjust the resonant frequency of the device resonator in response to the reading from the temperature sensor, a repeater resonator; wherein the repeater resonator is configured to be positioned to improve the energy transfer between the source resonator (2212; 2304; 2308; 2314) and the device resonator, wherein the wireless energy transfer system is configured to detune the resonance frequency of the device resonator to reduce heat dissipation at the device resonator, and wherein the wireless energy transfer system is configured to increase an output power of the source resonator (2212; 2304; 2308; 2314) to maintain a level of power delivered to the device resonator.
- Electric power supply system for a conventionally propelled submarine, of the type comprising means (12, 15) for producing electric power, means (14, 18) for storing and converting electric power, means for low-speed propulsion, means for high-speed propulsion and means for distributing electric power to subscribers through at least one on-board network characterised in that it comprises at least two parallel circuit parts (10, 11) at the output of the electrical energy production means, one of high power for supplying the high-speed propulsion means and the other of low power for supplying the low-speed propulsion means and the energy distribution means, in which the high power is greater than the low power, and in that the high power circuit portion comprises AC/DC converter means, electrical energy storage means and DC/AC conversion means in series.
A method of manufacturing a lithium ion battery module by means of a manufacturing system, which comprises a control system having a control logic and a pick and place system controlled by the control system, the control logic causing the pick and place system to perform the following steps: - engaging, with a capture mechanism of the pick and place system, a low or no swelling prismatic battery cell of an assembled group of prismatic battery cells having dimensions within manufacturing tolerances of prismatic battery cell dimensions; - removing the engaged prismatic battery cell from the group of prismatic battery cells; and - placing the removed prismatic battery cell into a floating arrangement into a housing of the lithium ion battery module, wherein the floating arrangement includes an arrangement in which each prismatic battery cell is suspended within the housing by a plurality of fixed protrusions holding the prismatic battery cell along at least a portion of its periphery, wherein the method does not comprise cell grading, wherein cell grading includes determining a size, degree of variation, state of charge, or any combination thereof, for each prismatic battery cell, and wherein each prismatic battery cell comprises Li 4 Ti 5 O 12 as an anode active material and LiNi 1/3 Co 1/3 Mn 1/3 O 2 as a cathode active material. - engaging, with a capture mechanism of the pick and place system, a low or no swelling prismatic battery cell of an assembled group of prismatic battery cells having dimensions within manufacturing tolerances of prismatic battery cell dimensions; - removing the engaged prismatic battery cell from the group of prismatic battery cells; and - placing the removed prismatic battery cell into a floating arrangement into a housing of the lithium ion battery module, wherein the floating arrangement includes an arrangement in which each prismatic battery cell is suspended within the housing by a plurality of fixed protrusions holding the prismatic battery cell along at least a portion of its periphery,
A molding material comprising a resin material that has a graft chain containing constituent units derived from (i) a fluorine-containing compound comprising at least one selected from a fluorine-containing acrylate ester of formula: wherein X is H, F, Cl, Br, I, methyl, cyano, linear or branched C 1-21 -fluoroalkyl, optionally substituted benzyl, optionally substituted phenyl, or CFX 1 X 2 wherein X 1 and X 2 each independently are H, F, Cl, Br or I; Y is a C 1-10 -aliphatic group, a C 6-10 -aromatic group, a C 6-10 -cycloaliphatic group,-CH 2 CH 2 N (R 1) SO 2 - or -CH 2 CH(OY 1) CH 2 -; R 1 is C 1-4 -alkyl; Y 1 is H or acetyl; and Rf 8 is linear or branched C 1-6 -fluoroalkyl or C 1-6 -fluoroalkenyl; and a compound represented by Rf j -CH=CH 2, wherein Rf j is perfluoroalkyl; and (ii) a non-fluorinated compound comprising a compound having a moiety reactive with radicals, a compound in which a part of the molecule or molecular chain is desorbed to ionize, or a compound having a moiety to be intermediate active species; and the shape of the resin material is powdery, particulate, chip-shaped, fibrous, or pellet-shaped. (i) a fluorine-containing compound comprising at least one selected from a fluorine-containing acrylate ester of formula: wherein X is H, F, Cl, Br, I, methyl, cyano, linear or branched C 1-21 -fluoroalkyl, optionally substituted benzyl, optionally substituted phenyl, or CFX 1 X 2 wherein X 1 and X 2 each independently are H, F, Cl, Br or I; Y is a C 1-10 -aliphatic group, a C 6-10 -aromatic group, a C 6-10 -cycloaliphatic group,-CH 2 CH 2 N (R 1) SO 2 - or -CH 2 CH(OY 1) CH 2 -; R 1 is C 1-4 -alkyl; Y 1 is H or acetyl; and Rf 8 is linear or branched C 1-6 -fluoroalkyl or C 1-6 -fluoroalkenyl; and a compound represented by Rf j -CH=CH 2, wherein Rf j is perfluoroalkyl; and X is H, F, Cl, Br, I, methyl, cyano, linear or branched C 1-21 -fluoroalkyl, optionally substituted benzyl, optionally substituted phenyl, or CFX 1 X 2 wherein X 1 and X 2 each independently are H, F, Cl, Br or I; Y is a C 1-10 -aliphatic group, a C 6-10 -aromatic group, a C 6-10 -cycloaliphatic group,-CH 2 CH 2 N (R 1) SO 2 - or -CH 2 CH(OY 1) CH 2 -; R 1 is C 1-4 -alkyl; Y 1 is H or acetyl; and Rf 8 is linear or branched C 1-6 -fluoroalkyl or C 1-6 -fluoroalkenyl; and (ii) a non-fluorinated compound comprising a compound having a moiety reactive with radicals, a compound in which a part of the molecule or molecular chain is desorbed to ionize, or a compound having a moiety to be intermediate active species; and
A piecing arm assembly for an automatic piecing apparatus in a textile ring spinning machine, the piecing arm assembly comprising: at least one arm configured to displace between a first position and a second position; a plurality of guide fingers connected to the at least one arm, said plurality of guide fingers are configured to locate the piecing arm assembly with respect to a delivery drafting roller of the ring spinning machine; at least one roller positioned on the plurality of guide fingers, said the at least one roller is configured to contact the delivery drafting roller in the second position; a movable plate defined with a guide slot connected to a support member extending from the at least one arm, said guide slot is configured to displace linearly along the axis of the roller to align the tail yarn for piecing; a first actuator connected to the movable plate for actuating said movable plate; and a cutter unit connected to the movable plate, said cutter unit is connected to a second actuator to snip excess tail yarn after piecing. at least one arm configured to displace between a first position and a second position; a plurality of guide fingers connected to the at least one arm, said plurality of guide fingers are configured to locate the piecing arm assembly with respect to a delivery drafting roller of the ring spinning machine; at least one roller positioned on the plurality of guide fingers, said the at least one roller is configured to contact the delivery drafting roller in the second position; a movable plate defined with a guide slot connected to a support member extending from the at least one arm, said guide slot is configured to displace linearly along the axis of the roller to align the tail yarn for piecing; a first actuator connected to the movable plate for actuating said movable plate; and a cutter unit connected to the movable plate, said cutter unit is connected to a second actuator to snip excess tail yarn after piecing.