mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: a low speed input shaft from a lower speed spool and a high speed input shaft from a higher speed spool, said low speed input shaft being connected to drive a first plurality of accessories, and said high speed input shaft connected to drive a second plurality of accessories, said first plurality of accessories rotating about a first set of rotational axes, which are parallel to each other but spaced along an axial input direction and are perpendicular to a first plane and said second plurality of accessories rotating about a second set rotational axes, which are parallel to each other and spaced along an axial input direction and perpendicular to a second plane, wherein said low speed input shaft and said high speed input shaft are concentric; said first and second planes (L, H) extending in opposed directions away from a drive input axis of said high speed input shaft and said low speed input shaft; a main compressor section and a main turbine section, said main compressor section and said main turbine section each including at least one rotatable component, a tap for tapping compressed air from said main compressor section, passing said tapped air through a heat exchanger, and then to a boost compressor, a connection downstream of said boost compressor connected to supply cooling air to at least one of said rotatable components in said main compressor section or said main turbine section; and said boost compressor driven on a boost axis, which is non-parallel to said first set of rotational axes and said second set of rotational axes. a low speed input shaft from a lower speed spool and a high speed input shaft from a higher speed spool, said low speed input shaft being connected to drive a first plurality of accessories, and said high speed input shaft connected to drive a second plurality of accessories, said first plurality of accessories rotating about a first set of rotational axes, which are parallel to each other but spaced along an axial input direction and are perpendicular to a first plane and said second plurality of accessories rotating about a second set rotational axes, which are parallel to each other and spaced along an axial input direction and perpendicular to a second plane, wherein said low speed input shaft and said high speed input shaft are concentric; said first and second planes (L, H) extending in opposed directions away from a drive input axis of said high speed input shaft and said low speed input shaft; a main compressor section and a main turbine section, said main compressor section and said main turbine section each including at least one rotatable component, a tap for tapping compressed air from said main compressor section, passing said tapped air through a heat exchanger, and then to a boost compressor, a connection downstream of said boost compressor connected to supply cooling air to at least one of said rotatable components in said main compressor section or said main turbine section; and said boost compressor driven on a boost axis, which is non-parallel to said first set of rotational axes and said second set of rotational axes.
A current collector (10, 20), comprising: at least one conductive layer (102, 202) configured to support an electrode active material layer; and an insulation layer (101, 201) configured to support the at least one conductive layer (102, 202), wherein the at least one conductive layer (102, 202) is located on at least one surface of the insulation layer (101, 201), characterized in that each of the at least one conductive layer (102, 202) has a room temperature film resistance R S satisfying 0.01Ω/sq≤R S ≤0.15Ω/sq, measured according to the method disclosed in the description, and each of the at least one conductive layer (102, 202) comprises a conductive layer body (1021, 2021) and a lower protective layer (1022, 2022) located on a surface of the conductive layer body (1021, 2021) facing toward the insulation layer (101, 201), and the conductive layer body (1021, 2021) has a thickness of D2 satisfying 300 nm≤D2≤2 μm. at least one conductive layer (102, 202) configured to support an electrode active material layer; and an insulation layer (101, 201) configured to support the at least one conductive layer (102, 202), wherein the at least one conductive layer (102, 202) is located on at least one surface of the insulation layer (101, 201), characterized in that each of the at least one conductive layer (102, 202) has a room temperature film resistance R S satisfying 0.01Ω/sq≤R S ≤0.15Ω/sq, measured according to the method disclosed in the description, and each of the at least one conductive layer (102, 202) comprises a conductive layer body (1021, 2021) and a lower protective layer (1022, 2022) located on a surface of the conductive layer body (1021, 2021) facing toward the insulation layer (101, 201), and the conductive layer body (1021, 2021) has a thickness of D2 satisfying 300 nm≤D2≤2 μm.
Electrical heating element, in terms of a welding wedge for a hot-wedge film welding device, comprising two electrodes (2, 3) and a heating resistor being arranged between the electrodes (2, 3), so that an application of an electrical voltage to the electrodes (2, 3) results in heat being produced along the length of the heating resistor, wherein the heating resistor is made of a corrosion-resistant material and has a top side and a bottom side opposite from the top side, with both sides of the heating resistor converging at an acute angle, and wherein the heating resistor essentially comprises a wedge-shaped contour and is produced by using an electrically conductive ceramic material, wherein the electrodes (2, 3) are embedded with positive surface-to-surface contact into the electrically conductive ceramic material and are connected to said material in an electrically conductive manner.
An electronic device comprising: a housing including a sidewall; a through-hole configured to penetrate the sidewall; an assembling hole formed adjacent to the through-hole inside the housing; a key assembly configured to be received in the assembling hole and disposed to face an inner surface of the housing in an area where the through-hole is positioned; and a fixing member configured to be received in the assembling hole and to bring a surface of the key assembly into contact with the inner surface of the housing around the through-hole, wherein the key assembly comprises: a sealing member configured to be brought into contact with the inner surface of the housing; a flexible printed circuit board coupled to the sealing member; a switch member provided on a surface of the flexible printed circuit board and aligned with the through-hole while facing the sealing member; and a reinforcing member coupled to another surface of the flexible printed circuit board. a housing including a sidewall; a through-hole configured to penetrate the sidewall; an assembling hole formed adjacent to the through-hole inside the housing; a key assembly configured to be received in the assembling hole and disposed to face an inner surface of the housing in an area where the through-hole is positioned; and a fixing member configured to be received in the assembling hole and to bring a surface of the key assembly into contact with the inner surface of the housing around the through-hole, wherein the key assembly comprises: a sealing member configured to be brought into contact with the inner surface of the housing; a flexible printed circuit board coupled to the sealing member; a switch member provided on a surface of the flexible printed circuit board and aligned with the through-hole while facing the sealing member; and a reinforcing member coupled to another surface of the flexible printed circuit board. a sealing member configured to be brought into contact with the inner surface of the housing; a flexible printed circuit board coupled to the sealing member; a switch member provided on a surface of the flexible printed circuit board and aligned with the through-hole while facing the sealing member; and a reinforcing member coupled to another surface of the flexible printed circuit board.
A method of producing images of infrared radiation of a patient, the method comprising the steps of: (a) providing an IR imaging camera configured to receive IR radiation from an array of optical elements (optels) in a field-of-view viewable by the IR imaging camera; (b) acquiring a plurality of frames of IR radiation emitted from a patient positioned in the field-of-view, with each frame acquired during a corresponding frame sample interval, with each frame corresponding to the IR radiation acquired from the array of optels during its frame sample interval, characterized by the steps of (c) determining plural integrals of IR radiation received from the array, with each integral determined with respect to time for the IR radiation received from the same optel in at least two frames; (d) mapping each integral to a color or a shade of gray; and (e) mapping the color or the shade of gray of each integral to a position in an image corresponding to the position of the corresponding optel in the field-of-view. (a) providing an IR imaging camera configured to receive IR radiation from an array of optical elements (optels) in a field-of-view viewable by the IR imaging camera; (b) acquiring a plurality of frames of IR radiation emitted from a patient positioned in the field-of-view, with each frame acquired during a corresponding frame sample interval, with each frame corresponding to the IR radiation acquired from the array of optels during its frame sample interval, characterized by the steps of (c) determining plural integrals of IR radiation received from the array, with each integral determined with respect to time for the IR radiation received from the same optel in at least two frames; (d) mapping each integral to a color or a shade of gray; and (e) mapping the color or the shade of gray of each integral to a position in an image corresponding to the position of the corresponding optel in the field-of-view.
A graphics processing unit, GPU, to accelerate machine-learning operations, the GPU comprising: a multiprocessor wherein the multiprocessor is to execute a same instruction for multiple threads and to execute parallel threads of a thread group, each thread of the thread group having independent thread state, the instruction to cause a first compute unit (1411,..., 1418) to perform at least a two-dimensional matrix multiply operation; wherein the operation is performed on three 16-bit unsigned integer input operands a, b and c, and includes computing, by a signed 16-bit × 16-bit multiplier, a 32-bit intermediate product between 16-bit unsigned integer operand a and 16-bit unsigned integer input operand b and computing, by a 32-bit adder, a 32-bit sum based on the 32-bit intermediate product and 16-bit unsigned integer input operand c. a multiprocessor wherein the multiprocessor is to execute a same instruction for multiple threads and to execute parallel threads of a thread group, each thread of the thread group having independent thread state, the instruction to cause a first compute unit (1411,..., 1418) to perform at least a two-dimensional matrix multiply operation; wherein the operation is performed on three 16-bit unsigned integer input operands a, b and c, and includes computing, by a signed 16-bit × 16-bit multiplier, a 32-bit intermediate product between 16-bit unsigned integer operand a and 16-bit unsigned integer input operand b and computing, by a 32-bit adder, a 32-bit sum based on the 32-bit intermediate product and 16-bit unsigned integer input operand c.
A motion video encoding apparatus for encoding each picture contained in motion video data by dividing the picture into a plurality of blocks, comprising: a group determining unit which determines, for each picture, to which of a plurality of groups within the picture each block belongs, and determines a size of each of the plurality of groups; a group decode time information computing unit which computes a decode time for each of the groups; a group information appending unit which appends group information identifying the group to which each block belongs and decode time information representing the decode time for each of the groups to data to be output; a code amount control unit which controls an amount of code for each block contained in the group so that data needed for decoding all the blocks contained in the group will arrive at a stream receive buffer provided in a motion video decoding apparatus by the decode time of the group computed by the group decode time information computing unit when the data is transmitted to the motion video decoding apparatus at a prescribed transmission rate; and an encode processing unit which encodes each block, based on control information concerning the amount of code. a group determining unit which determines, for each picture, to which of a plurality of groups within the picture each block belongs, and determines a size of each of the plurality of groups; a group decode time information computing unit which computes a decode time for each of the groups; a group information appending unit which appends group information identifying the group to which each block belongs and decode time information representing the decode time for each of the groups to data to be output; a code amount control unit which controls an amount of code for each block contained in the group so that data needed for decoding all the blocks contained in the group will arrive at a stream receive buffer provided in a motion video decoding apparatus by the decode time of the group computed by the group decode time information computing unit when the data is transmitted to the motion video decoding apparatus at a prescribed transmission rate; and an encode processing unit which encodes each block, based on control information concerning the amount of code.
An antenna arrangement comprising an interface and a directional antenna assembly, the directional antenna assembly comprising a directional antenna mounted on said interface, the directional antenna being configured to transmit and/or receive spatially concentrated electromagnetic radiation in one direction at a time, the directional antenna generally extending along a main vertical axis perpendicular to the plane defined by said interface, wherein the antenna arrangement further comprises a rotatable base mounted on said interface and a pole assembly comprising a pole integral with said rotatable base, said pole extending in the direction of said main axis, said rotatable base being rotatable about the main axis, said rotatable base being configured to control the rotation of the pole assembly in azimuth, about the main axis, a rotation of said rotatable base actuating and controlling the rotation of the pole about the main axis, so as to enable relocation of the pole, outside a line-of-sight of the directional antenna, characterised in that the antenna arrangement comprises a radome in which the directional antenna is enclosed and/or a lightning arrestor arranged on the pole.
A method of lubricating an internal combustion engine equipped with a catalyst-containing exhaust-gas aftertreatment device, the method comprising supplying to said engine a lubricating oil composition comprising: (a) a base oil; and (b) a zinc salt of a mixture of phosphorus-containing compounds represented by the formula wherein in formula, X 1 and X 2 are independently S or O, and R 1 and R 2 are independently hydrocarbyl groups, the average total number of carbon atoms in R 1 plus R 2 for the mixture of phosphorus-containing compounds being at least 9.5; wherein R 1 and R 2 are characterized in that (i) 4 to 30 weight percent of such groups contain 2 to 4 carbon atoms and (ii) 70 to 96 weight percent such groups contain 5 to 12 carbon atoms; and wherein, in less than 8 mole percent of the molecules of formula in the mixture of phosphorus-containing compounds, each of R 1 and R 2 contain 2 to 4 carbon atoms and in greater than 11 mole percent of the molecules of formula in said mixture R 1 has 2 to 4 carbon atoms and R 2 has 5 to 12 carbon atoms; and wherein, within formula, the average total number of hydrogen atoms in R 1 and R 2 on carbon atoms located beta to the O atoms is at least 7.25; the lubricating oil composition being characterized by a phosphorus concentration of up to 0.12 percent by weight, and wherein the amount of the metal salt of a mixture of phosphorus-containing compounds in the lubricating composition is 0.2 to 1.2 weight percent. (a) a base oil; and (b) a zinc salt of a mixture of phosphorus-containing compounds represented by the formula wherein in formula, X 1 and X 2 are independently S or O, and R 1 and R 2 are independently hydrocarbyl groups, the average total number of carbon atoms in R 1 plus R 2 for the mixture of phosphorus-containing compounds being at least 9.5; wherein R 1 and R 2 are characterized in that (i) 4 to 30 weight percent of such groups contain 2 to 4 carbon atoms and (ii) 70 to 96 weight percent such groups contain 5 to 12 carbon atoms; and wherein, in less than 8 mole percent of the molecules of formula in the mixture of phosphorus-containing compounds, each of R 1 and R 2 contain 2 to 4 carbon atoms and in greater than 11 mole percent of the molecules of formula in said mixture R 1 has 2 to 4 carbon atoms and R 2 has 5 to 12 carbon atoms; and wherein, within formula, the average total number of hydrogen atoms in R 1 and R 2 on carbon atoms located beta to the O atoms is at least 7.25; the lubricating oil composition being characterized by a phosphorus concentration of up to 0.12 percent by weight, and wherein the amount of the metal salt of a mixture of phosphorus-containing compounds in the lubricating composition is 0.2 to 1.2 weight percent.
A flow control valve comprising: a first port; a second port; a working fluid channel that is formed between the first port and the second port, and through which a working fluid passes; a check valve that is arranged in the working fluid channel, and is opened toward a first-port-side channel from a second-port-side channel of the working fluid channel; and a valve-opening control section (75,76) that is arranged at the check valve at the side of the second port, that forcibly opens the check valve when discharging the working fluid from the first port to the second port, and that increases a channel resistance of the second-port-side channel at the beginning of opening the check valve, wherein the valve-opening control section includes a guide member that is arranged in the second-port-side channel and a spool that is arranged so as to be slidable in the axial direction in the guide member, characterized in that the spool forcibly opens the check valve by moving toward the first port in the axial direction, and reduces a channel sectional area between the spool and the second-port-side channel at the beginning of opening the check valve, wherein a space is formed by the guide member, the spool, and the check valve, and the space being arranged on the first port side of that part where the channel sectional area between the spool and the second-port-side channel is reduced in a beginning of opening the check valve. a first port; a second port; a working fluid channel that is formed between the first port and the second port, and through which a working fluid passes; a check valve that is arranged in the working fluid channel, and is opened toward a first-port-side channel from a second-port-side channel of the working fluid channel; and a valve-opening control section (75,76) that is arranged at the check valve at the side of the second port, that forcibly opens the check valve when discharging the working fluid from the first port to the second port, and that increases a channel resistance of the second-port-side channel at the beginning of opening the check valve, wherein the valve-opening control section includes a guide member that is arranged in the second-port-side channel and a spool that is arranged so as to be slidable in the axial direction in the guide member, characterized in that the spool forcibly opens the check valve by moving toward the first port in the axial direction, and reduces a channel sectional area between the spool and the second-port-side channel at the beginning of opening the check valve, wherein a space is formed by the guide member, the spool, and the check valve, and the space being arranged on the first port side of that part where the channel sectional area between the spool and the second-port-side channel is reduced in a beginning of opening the check valve.
A pretreatment composition for treating a metal substrate comprising one of the materials selected from cold rolled steel, hot rolled steel, steel coated with zinc metal, zinc compounds, or zinc alloys, electrogalvanized steel, hot-dipped galvanized steel, galvanealed steel, steel plated with zinc alloy, aluminum alloys, aluminum plated steel, aluminum alloy plated steel, magnesium, and magnesium alloys, the pretreatment composition comprising: (a) a rare earth metal, (b) a zirconyl compound, and (c) a metal in an amount of no more than 500 ppm of total metal (measured as elemental metal), wherein the metal (c) is less easily oxidized than the metal of the substrate and wherein the pretreatment composition is free of free fluoride. (a) a rare earth metal, (b) a zirconyl compound, and (c) a metal in an amount of no more than 500 ppm of total metal (measured as elemental metal),
A thermally curable pressure-sensitive adhesive composition which, based on the total weight of the composition, comprises the following components: a) 35-99% by weight of a reactive polymethacrylate component having a glass transition temperature Tg of -35°C to 32°C, and having a reactive functional group which can react with benzoxazine to form an interpenetrating polymer network; and b) 1-65% by weight of a benzoxazine component of the following formula: wherein X is selected from the group consisting of a covalent bond, C 1 -C 6 alkylene, C 3 -C 10 cycloalkylene group, C=O, S, S=O or O=S=O, R 1 and R 2 are the same or different and independently of each other selected from the group consisting of hydrogen, C 1 -C 6 alkyl, or C 5 -C 14 aryl, and R 4 is selected from the group consisting of hydrogen, halogen or C 1 -C 6 alkyland wherein the Tg values of component a) are measured according to the FOX equation. a) 35-99% by weight of a reactive polymethacrylate component having a glass transition temperature Tg of -35°C to 32°C, and having a reactive functional group which can react with benzoxazine to form an interpenetrating polymer network; and b) 1-65% by weight of a benzoxazine component of the following formula: wherein X is selected from the group consisting of a covalent bond, C 1 -C 6 alkylene, C 3 -C 10 cycloalkylene group, C=O, S, S=O or O=S=O, R 1 and R 2 are the same or different and independently of each other selected from the group consisting of hydrogen, C 1 -C 6 alkyl, or C 5 -C 14 aryl, and R 4 is selected from the group consisting of hydrogen, halogen or C 1 -C 6 alkyland wherein the Tg values of component a) are measured according to the FOX equation. X is selected from the group consisting of a covalent bond, C 1 -C 6 alkylene, C 3 -C 10 cycloalkylene group, C=O, S, S=O or O=S=O, R 1 and R 2 are the same or different and independently of each other selected from the group consisting of hydrogen, C 1 -C 6 alkyl, or C 5 -C 14 aryl, and R 4 is selected from the group consisting of hydrogen, halogen or C 1 -C 6 alkyland wherein the Tg values of component a) are measured according to the FOX equation.