mhurhangee/ep-ind-claims huggingface dataset:
A nickel based repair alloy comprising a blend of 40 to 60 wt% of a first nickel based braze alloy containing boron, 15 to 35 wt% of a first nickel based filler material, and the remainder consisting of a blend of a second nickel based filler material and a low melting eutectic braze nickel based alloy, wherein said first nickel based braze alloy contains 6.0 to 6.8 wt% chromium, 1.175 to 1.225 wt% boron, 0.080 to 0.12 wt% carbon, 5.7 to 6.1 wt% aluminum, 0.04 to 0.12 wt% zirconium, 12.1 to 13.0 wt% cobalt, 1.5 to 1.9 wt% molybdenum, 6.0 to 6.8 wt% tungsten, 2.75 to 3.25 wt% rhenium, 3.75 to 4.24 wt% tantalum, 1.0 to 2.0 wt% hafnium, and the balance nickel, said first nickel based filler material contains 0.13 to 0.17 wt% carbon, 8.0 to 8.8 wt% chromium, 9.0 to 11.0 wt% cobalt, 0.5 to 0.8 wt% molybdenum, 2.8 to 3.3 wt% tantalum, 0.9 to 1.2 wt% titanium, 9.5 to 10.5 wt% tungsten, 5.3 to 5.7 wt% aluminum, 0.010 to 0.020 wt% boron, 1.2 to 1.6 wt% hafnium, 0.03 to 0.08 wt% zirconium, and the balance nickel, and wherein said nickel based repair alloy consists of 8.5 to 9.5 wt% chromium, 5.0 to 6.2 wt% tungsten, 4.0 to 5.0 wt% aluminum, 3.0 to 4.0 wt% tantalum, 1.0 to 1.5 wt% boron, 10 to 11 wt% cobalt, 0.9 to 1.3 wt% molybdenum, 1.0 to 2.0 wt% rhenium, 1.0 to 1.3 wt% hafnium, 0.15 to 0.4 wt% titanium, 0.01 to 0.02 wt% yttrium, and the balance nickel and inevitable impurities.
A tilter mechanism (30; 122) for tilting a covering for architectural openings, comprising: a tilt rod having a first axis of rotation; first and second driven drums (34, 36); first and second tilt cables (16af, 16ar, 16bf, 16br, 16x), wherein said first tilt cable is connected to said first driven drum, and said second tilt cable is connected to said second driven drum, such that said first and second tilt cables are raised and lowered with the rotation of their respective driven drums; and means (54, 110, 112) for stopping the rotation of said second drum while driving said first drum; wherein the first and second driven drums (34, 36) are co-axially aligned and the tilt rod extends through the axis of rotation of the first and second driven drums (34, 36); a driver mounted for rotation in first and second directions with said tilt rod, wherein said driver drives said first and second driven drums; characterized by means (54, 110, 112) for stopping the rotation of said first drum while driving said second drum. a tilt rod having a first axis of rotation; first and second driven drums (34, 36); first and second tilt cables (16af, 16ar, 16bf, 16br, 16x), wherein said first tilt cable is connected to said first driven drum, and said second tilt cable is connected to said second driven drum, such that said first and second tilt cables are raised and lowered with the rotation of their respective driven drums; and means (54, 110, 112) for stopping the rotation of said second drum while driving said first drum; wherein the first and second driven drums (34, 36) are co-axially aligned and the tilt rod extends through the axis of rotation of the first and second driven drums (34, 36); a driver mounted for rotation in first and second directions with said tilt rod, wherein said driver drives said first and second driven drums; characterized by means (54, 110, 112) for stopping the rotation of said first drum while driving said second drum.
A demineralized bone matrix composition comprising lyophilized demineralized bone particles exhibiting an imparted nanoscale textured surface, wherein the imparted nanoscale textured surface includes at least 60% non-denatured collagen, wherein the composition has less than 15% moisture content, and wherein the imparted nanoscale textured surface comprises collagen nanofibers electrospun onto the lyophilized demineralized bone particles. wherein the imparted nanoscale textured surface includes at least 60% non-denatured collagen, wherein the composition has less than 15% moisture content, and wherein the imparted nanoscale textured surface comprises collagen nanofibers electrospun onto the lyophilized demineralized bone particles.
A composition for electronic device comprising: (a) a (meth)acrylic compound; (b) a maleimide compound; and, (c) a particle having a functional group having metal scavenging functionality, wherein the particle is porous polystyrene and/or silica gel having one or more functional groups having metal scavenging functionality, and wherein the functional group having metal scavenging functionality is selected from the group consisting of carboxy group, amine group and imidazole group. (a) a (meth)acrylic compound; (b) a maleimide compound; and, (c) a particle having a functional group having metal scavenging functionality,
A galvanized steel sheet, comprising: a steel sheet; and a galvanizing layer which is formed on a surface of the steel sheet, wherein the steel sheet consists of as a chemical component, by mass%, C: more than 0.100% to 0.500%, Si: 0.0001% to less than 0.20%, Mn: more than 0.20% to 3.00%, Al: 3.0% to 10.0%, N: 0.0030% to 0.0100%, Ti: more than 0.100% to 1.000%, P: 0.00001% to 0.0200%, S: 0.00001% to 0.0100%, and optionally one or more of Nb: 0.300% or less, V: 0.50% or less, Cr: 3.00% or less, Mo: 3.00% or less, Ni: 5.00% or less, Cu: 3.00% or less, B: 0.0100% or less, Ca: 0.0100% or less, Mg: 0.0100% or less, Zr: 0.0500% or less, and REM: 0.0500% or less, and a remainder including Fe and impurities, wherein a sum of a C content and a Ti content satisfies 0.200<C+Ti≤1.500, by mass%, a product of an Al content and an Si content satisfies Al×Si≤0.8; the galvanizing layer consists of as a chemical component, by mass%, Fe: 0.01% to 15%, Ni: 0.05% to 1.0%, Al: 0.15% to 2.0%, and a remainder including Zn and impurities, and the galvanized steel sheet has a specific gravity of 5.5 to less than 7.5. a steel sheet; and a galvanizing layer which is formed on a surface of the steel sheet, wherein the steel sheet consists of as a chemical component, by mass%, C: more than 0.100% to 0.500%, Si: 0.0001% to less than 0.20%, Mn: more than 0.20% to 3.00%, Al: 3.0% to 10.0%, N: 0.0030% to 0.0100%, Ti: more than 0.100% to 1.000%, P: 0.00001% to 0.0200%, S: 0.00001% to 0.0100%, and optionally one or more of Nb: 0.300% or less, V: 0.50% or less, Cr: 3.00% or less, Mo: 3.00% or less, Ni: 5.00% or less, Cu: 3.00% or less, B: 0.0100% or less, Ca: 0.0100% or less, Mg: 0.0100% or less, Zr: 0.0500% or less, and REM: 0.0500% or less, and a remainder including Fe and impurities, wherein a sum of a C content and a Ti content satisfies 0.200<C+Ti≤1.500, by mass%, a product of an Al content and an Si content satisfies Al×Si≤0.8; the galvanizing layer consists of as a chemical component, by mass%, Fe: 0.01% to 15%, Ni: 0.05% to 1.0%, Al: 0.15% to 2.0%, and a remainder including Zn and impurities, and the galvanized steel sheet has a specific gravity of 5.5 to less than 7.5.
A memory device, comprising: a stack of memory arrays, the stack including multiple vertical memory vaults; an activity tracker configured to monitor levels of activity of at least one vertical memory vault; a logic controller comprising multiple memory vault controllers respectively communicatively coupled to corresponding memory vaults, wherein at least one of the multiple memory vault controllers is operable to adjust a power state of a portion of the stack of memory arrays in response to the activity tracker; multiple serialized communication link interfaces to couple the multiple memory vault controllers to a host processor; and a matrix switch enabling cross-connecting each of the multiple serialized communication link interfaces to the selected memory vault controller of the multiple memory vault controllers. a stack of memory arrays, the stack including multiple vertical memory vaults; an activity tracker configured to monitor levels of activity of at least one vertical memory vault; a logic controller comprising multiple memory vault controllers respectively communicatively coupled to corresponding memory vaults, wherein at least one of the multiple memory vault controllers is operable to adjust a power state of a portion of the stack of memory arrays in response to the activity tracker; multiple serialized communication link interfaces to couple the multiple memory vault controllers to a host processor; and a matrix switch enabling cross-connecting each of the multiple serialized communication link interfaces to the selected memory vault controller of the multiple memory vault controllers.
A solid oral care composition comprising at least three zinc salts: i) the first at 20°C having a solubility great than 500g/litre in water and is zinc sulphate 7H 2 O. ii) the second at 20°C having a solubility from 0.05g/litre to 500g/litre in water and is zinc citrate. iii) the third at 20°C having a solubility less than 0.05g/litre in water and is zinc oxide. i) the first at 20°C having a solubility great than 500g/litre in water and is zinc sulphate 7H 2 O. ii) the second at 20°C having a solubility from 0.05g/litre to 500g/litre in water and is zinc citrate. iii) the third at 20°C having a solubility less than 0.05g/litre in water and is zinc oxide.
Method for pressure control in a supply network for supplying consumers with a medium, wherein the supply network has at least one pump for pumping the medium and/or at least one valve for controlling a medium flow, comprising the following steps: a) determining at least one consumption profile for the respective consumer, b) determining data describing pressure and/or flow profiles (500, 502) in the supply network on the basis of the consumption profiles, c) reducing the data into reduced data, d) detecting at least one first pressure and/or flow value (p 1 1 -p 1 n, q 1 1 -q 1 n) at at least one first point in the supply network, e) reconstructing at least one second pressure and/or flow value (p 2 1 -p 2 n, q 2 1 -q 2 n) at at least one second point in the supply network from the reduced data by means of the at least one first pressure and/or flow value (p 1 1 -p 1 n, q 1 1 -q 1 n), and f) actuating the at least one pump and/or the at least one valve on the basis of the at least one first pressure and/or flow value (p 1 1 -p 1 n, q 1 1 -q 1 n) and the at least one second pressure and/or flow value (p 2 1 -p 2 n, q 2 1 -q 2 n). a) determining at least one consumption profile for the respective consumer, b) determining data describing pressure and/or flow profiles (500, 502) in the supply network on the basis of the consumption profiles, c) reducing the data into reduced data, d) detecting at least one first pressure and/or flow value (p 1 1 -p 1 n, q 1 1 -q 1 n) at at least one first point in the supply network, e) reconstructing at least one second pressure and/or flow value (p 2 1 -p 2 n, q 2 1 -q 2 n) at at least one second point in the supply network from the reduced data by means of the at least one first pressure and/or flow value (p 1 1 -p 1 n, q 1 1 -q 1 n), and f) actuating the at least one pump and/or the at least one valve on the basis of the at least one first pressure and/or flow value (p 1 1 -p 1 n, q 1 1 -q 1 n) and the at least one second pressure and/or flow value (p 2 1 -p 2 n, q 2 1 -q 2 n).
A method of forming iron doped strontium titanate powder, comprising: forming one of an aqueous reaction solution and an organic solvent reaction solution, the one of the aqueous reaction solution and the organic solvent reaction solution comprising a plurality of precursors and one or more reagents, wherein the plurality of precursors are chosen from strontium nitrate, strontium acetate, strontium chloride, strontium hydroxide, titanium tetrachloride, titanium oxychloride, titanium isopropoxide, titanium nitrate, titanium acetate, titania nanotubes, titania (nano) spheres, metatitanic acid, iron chloride, iron nitrate, iron acetate, and iron isopropoxide and the one or more reagents are chosen from sodium hydroxide, ammonia, ethylene glycol, dimethylformamide, ethanol, 2-methoxyethanol, potassium hydroxide, and water; and applying a thermal treatment to the one of the aqueous reaction solution and the organic solvent reaction solution to form the iron doped strontium titanate powder, the thermal treatment comprising heating the one of the aqueous reaction solution and the organic solvent reaction solution to a reaction temperature within a range of from 120 degrees Celsius to 400 degrees Celsius and a reaction pressure within a range of 1 bar to 300 bar. forming one of an aqueous reaction solution and an organic solvent reaction solution, the one of the aqueous reaction solution and the organic solvent reaction solution comprising a plurality of precursors and one or more reagents, wherein the plurality of precursors are chosen from strontium nitrate, strontium acetate, strontium chloride, strontium hydroxide, titanium tetrachloride, titanium oxychloride, titanium isopropoxide, titanium nitrate, titanium acetate, titania nanotubes, titania (nano) spheres, metatitanic acid, iron chloride, iron nitrate, iron acetate, and iron isopropoxide and the one or more reagents are chosen from sodium hydroxide, ammonia, ethylene glycol, dimethylformamide, ethanol, 2-methoxyethanol, potassium hydroxide, and water; and applying a thermal treatment to the one of the aqueous reaction solution and the organic solvent reaction solution to form the iron doped strontium titanate powder, the thermal treatment comprising heating the one of the aqueous reaction solution and the organic solvent reaction solution to a reaction temperature within a range of from 120 degrees Celsius to 400 degrees Celsius and a reaction pressure within a range of 1 bar to 300 bar.
Frame which can be arranged on a vehicle, having a device for receiving objects lying on the ground, wherein the frame can be attached to the front, laterally offset or rear of the vehicle by means of a ladder frame, characterised in that at least four self-aligning bearings (2-1, 2-2, 2-3, 2-4, 2-5, 2-6, 2-7, 2-8) and at least one stabiliser (3-1, 3-2) are arranged on the frame, wherein the frame has in each case a first self-aligning bearing (2 1) between an actuator (4-1; 4-2), which is linearly movable in the axial direction, and the ladder frame, a second self-aligning bearing between a longitudinal spar (6-1; 6-2) and the ladder frame, a third self-aligning bearing between the longitudinal spar (6-1; 6-2) and a side frame part (5-1; 5-2) and a fourth self-aligning bearing between the actuator (4-1; 4-2), which is linearly movable in the axial direction, and the side frame part (5-1; 5-2), whereby a pendulum-mounted trapezoidal suspension for guiding the device parallel to the ground is realised.
A method in a radio base station for performing thermal noise power floor estimation in a radio communications network, comprising: - computing, by a processing circuit of the radio base station, table entries for a table for a transcendental function evaluation, wherein a range of table entries is defined by a smallest table entry, a largest table entry, and a number of table entries; and - estimating, by the processing circuit of the radio base station, a thermal noise power floor by performing a transcendental function evaluation in computing a product representing a cumulative probability function, which cumulative probability function is related to the thermal noise power floor, wherein the transcendental function evaluation is performed by using table look ups of the table with the computed table entries; wherein the transcendental function evaluation is for x α and x 1-α, where x is an independent variable and α is a parameter reflecting estimation time constants; characterized in that the method further comprises: - dynamically re-computing, by the processing circuit of the radio base station, the table entries when α is modified. - computing, by a processing circuit of the radio base station, table entries for a table for a transcendental function evaluation, wherein a range of table entries is defined by a smallest table entry, a largest table entry, and a number of table entries; and - estimating, by the processing circuit of the radio base station, a thermal noise power floor by performing a transcendental function evaluation in computing a product representing a cumulative probability function, which cumulative probability function is related to the thermal noise power floor, wherein the transcendental function evaluation is performed by using table look ups of the table with the computed table entries; - dynamically re-computing, by the processing circuit of the radio base station, the table entries when α is modified.
A process for calibrating a variable-nozzle assembly for a turbine of a turbocharger, the variable-nozzle assembly including vanes whose setting angle can be varied by operation of a mechanism (230, 240) engaged with the vanes, the vanes being disposed in a flow path defined in the variable-nozzle assembly, characterised in that the process comprises the steps of: providing a calibration fixture that lacks a turbine wheel and that has internal flowpath contours configured to substantially replicate corresponding internal flowpath contours of a turbine housing and a center housing of a turbocharger in which the variable-nozzle assembly is designed to be used, the calibration fixture defining a generally annular chamber in fluid communication with the flow path defined in the variable-nozzle assembly, and a fluid supply passage extending from an outer surface of the calibration fixture into the annular chamber; installing the variable-nozzle assembly in the calibration fixture; connecting a fluid source to the fluid supply passage of the fixture and causing a flow of fluid from the fluid source to the fluid supply passage, the fluid then flowing through the flow path of the variable-nozzle assembly; and adjusting the setting angle of the vanes by operation of the mechanism (230, 240) while the fluid is flowing through the variable-nozzle assembly installed in the calibration fixture to cause the fluid to have a flow rate equal to a predetermined flow rate, whereby the variable-nozzle assembly is calibrated prior to its installation in the turbocharger for which it is designed. providing a calibration fixture that lacks a turbine wheel and that has internal flowpath contours configured to substantially replicate corresponding internal flowpath contours of a turbine housing and a center housing of a turbocharger in which the variable-nozzle assembly is designed to be used, the calibration fixture defining a generally annular chamber in fluid communication with the flow path defined in the variable-nozzle assembly, and a fluid supply passage extending from an outer surface of the calibration fixture into the annular chamber; installing the variable-nozzle assembly in the calibration fixture; connecting a fluid source to the fluid supply passage of the fixture and causing a flow of fluid from the fluid source to the fluid supply passage, the fluid then flowing through the flow path of the variable-nozzle assembly; and adjusting the setting angle of the vanes by operation of the mechanism (230, 240) while the fluid is flowing through the variable-nozzle assembly installed in the calibration fixture to cause the fluid to have a flow rate equal to a predetermined flow rate, whereby the variable-nozzle assembly is calibrated prior to its installation in the turbocharger for which it is designed.
Apparatus for generating a sound field description using an input signal comprising a mono-signal or a multi-channel signal, the apparatus comprising: an input signal analyzer for analyzing the input signal to derive direction data and diffuseness data; a low-order components generator for generating a low-order sound field description from the input signal up to a predetermined order and mode, wherein the low-order components generator is configured to derive the low-order sound field description by copying or taking the input signal or performing a weighted combination of the channels of the input signal; a mid-order components generator for generating a mid-order sound field description above the predetermined order or at the predetermined order and above the predetermined mode and below or at a first truncation order using a synthesis of at least one direct portion and of at least one diffuse portion using the direction data and the diffuseness data so that the mid-order sound field description comprises a direct contribution and a diffuse contribution; and a high-order components generator for generating a high-order sound field description having a component above the first truncation order using a synthesis of at least one direct portion, wherein the high order sound field description comprises a direct contribution only. an input signal analyzer for analyzing the input signal to derive direction data and diffuseness data; a low-order components generator for generating a low-order sound field description from the input signal up to a predetermined order and mode, wherein the low-order components generator is configured to derive the low-order sound field description by copying or taking the input signal or performing a weighted combination of the channels of the input signal; a mid-order components generator for generating a mid-order sound field description above the predetermined order or at the predetermined order and above the predetermined mode and below or at a first truncation order using a synthesis of at least one direct portion and of at least one diffuse portion using the direction data and the diffuseness data so that the mid-order sound field description comprises a direct contribution and a diffuse contribution; and a high-order components generator for generating a high-order sound field description having a component above the first truncation order using a synthesis of at least one direct portion, wherein the high order sound field description comprises a direct contribution only.
A load carrier assembly comprising a load carrier foot for a vehicle load carrier adapted to be attached to a vehicle and a fixed position attachment member on a roof of a vehicle, where said load carrier foot comprising a body comprising a load carrying bar receiving surface for receiving a load carrying bar, a vehicle support surface for resting against a surface of said vehicle, a fastening member adapted to be operated by a user to attach said load carrier foot to said fixed position attachment member on the vehicle, said fastening member is displaceable between at least a first position in which said fastening member interacts with the fixed position attachment member of the surface of said vehicle when said load carrier foot is positioned on said vehicle, and a retracted position in which said fastening member is protected from interaction with a surface of said vehicle, wherein said load carrier foot comprises a biasing member adapted to bias said fastening member to said retracted position, wherein said body further comprises a support member comprising said vehicle support surface and a body facing surface, wherein said fastening member is adapted to extend between said vehicle support surface and said body facing surface, wherein said support member comprises an aperture, said aperture having a first opening facing said vehicle support surface and a second opening facing said body facing surface, wherein said fastening member is adapted to extend through said aperture of said support member, wherein the fastening member comprises a threaded portion and a head, where the fastening member is configured to be received by a threaded screw receiving member of the fixed position attachment member of the vehicle.