mhurhangee/ep-ind-claims huggingface dataset:
A method for forming a circuit, comprising: forming a direct current circuit that supports a direct current, a microwave circuit that supports a microwave signal, and a common circuit that supports the direct current and the microwave signal, wherein the direct current circuit comprises a bandstop circuit and the microwave circuit comprises a bandpass circuit (or a capacitor (122, 710, 914); and operatively coupling a first end of the direct current circuit and a first end of the microwave circuit to a first end of the common circuit, wherein the forming comprises: patterning a first superconducting film, deposited on a wafer, with an inductor (502, 506, 510) for the microwave circuit; patterning a second superconducting film deposited on the first superconducting film; patterning a dielectric film deposited on the second superconducting film; and patterning a third superconducting film, deposited on the dielectric film, or wherein the forming comprises: patterning a first superconducting film, deposited on a wafer, with first portions of a circuit, the first portions comprising a first pad of a capacitor of the microwave circuit; patterning a dielectric film deposited on the first superconducting film; and patterning a second superconducting film deposited on the dielectric film, the second superconducting film comprising second portions of the circuit. forming a direct current circuit that supports a direct current, a microwave circuit that supports a microwave signal, and a common circuit that supports the direct current and the microwave signal, wherein the direct current circuit comprises a bandstop circuit and the microwave circuit comprises a bandpass circuit (or a capacitor (122, 710, 914); and operatively coupling a first end of the direct current circuit and a first end of the microwave circuit to a first end of the common circuit, patterning a first superconducting film, deposited on a wafer, with an inductor (502, 506, 510) for the microwave circuit; patterning a second superconducting film deposited on the first superconducting film; patterning a dielectric film deposited on the second superconducting film; and patterning a third superconducting film, deposited on the dielectric film, patterning a first superconducting film, deposited on a wafer, with first portions of a circuit, the first portions comprising a first pad of a capacitor of the microwave circuit; patterning a dielectric film deposited on the first superconducting film; and patterning a second superconducting film deposited on the dielectric film, the second superconducting film comprising second portions of the circuit.
An apparatus for providing a secure Fine Timing Measurement, FTM, exchange, comprising: means for obtaining an initial-secure-token value and a secure-token-response function via an out-of-band signal, wherein the secure-token-response function is associated with the initial-secure-token value; means for generating a FTM Request message including the initial-secure-token value; means for sending the FTM Request message to a responding station; means for receiving a FTM Response message including a secure-token-response value from the responding station, wherein the secure-token-response value is the result of performing the secure-token-response function on a Partial Timing Synchronization Function, PTSF, field in the FTM Response message; and means for determining a Round Trip Time, RTT, value based at least in part on the FTM Response message. means for obtaining an initial-secure-token value and a secure-token-response function via an out-of-band signal, wherein the secure-token-response function is associated with the initial-secure-token value; means for generating a FTM Request message including the initial-secure-token value; means for sending the FTM Request message to a responding station; means for receiving a FTM Response message including a secure-token-response value from the responding station, wherein the secure-token-response value is the result of performing the secure-token-response function on a Partial Timing Synchronization Function, PTSF, field in the FTM Response message; and means for determining a Round Trip Time, RTT, value based at least in part on the FTM Response message.
An adjustable length tensioning member for a crane, comprising: a rope having a first end, a second end, and a first diameter; a first connector at the first end of the rope and a second connector at the second end of the rope, the first connector configured to couple to a crane component; and a plurality of connection points between the first connector and a second connector, the plurality of connection points having a second diameter greater than the first diameter; characterized in that the second connector comprises a safety hook having a load capacity less than a load capacity of the first connector. a rope having a first end, a second end, and a first diameter; a first connector at the first end of the rope and a second connector at the second end of the rope, the first connector configured to couple to a crane component; and a plurality of connection points between the first connector and a second connector, the plurality of connection points having a second diameter greater than the first diameter; characterized in that the second connector comprises a safety hook having a load capacity less than a load capacity of the first connector.
A shaped oxidation catalyst structure for the production of maleic anhydride, the shaped structure being characterized by: containing catalytic material comprised of mixed oxides of vanadium and phosphorus; and having a solid cylinder structure, wherein the cylinder structure has a cylinder height (h) and a cylinder radius (r), and the solid cylinder structure has three void spaces running along the cylinder height to form three lobes (L1, L2, L3), wherein each lobe has a corner that is defined by a lobe radius (mLr), wherein the ratio of the cylinder radius (r) over the lobe radius (mLr) is equal to or less than 15. containing catalytic material comprised of mixed oxides of vanadium and phosphorus; and having a solid cylinder structure, wherein the cylinder structure has a cylinder height (h) and a cylinder radius (r), and the solid cylinder structure has three void spaces running along the cylinder height to form three lobes (L1, L2, L3), wherein each lobe has a corner that is defined by a lobe radius (mLr), wherein the ratio of the cylinder radius (r) over the lobe radius (mLr) is equal to or less than 15.
Handling tool for test weights in button form (12 to 18), with a weight fork with two fork ends (32, 34) having different nominal weights and at least two adapters (52, 54) each associated with a respective one of the fork ends (32, 34), wherein one fork end is constructed for receiving an associated test weight in button form of a first nominal value and the other fork end for reception of an associated test weight in button form of a second nominal value and wherein each adapter (52, 54) is fastenable to the fork end (32, 34) associated therewith, wherein the fork ends (32, 34) provided with adapters (52, 54) have a lower individual nominal weight so as to receive a test weight in button form (14, 18) of a third and fourth nominal value.
A conductive sponge-forming liquid silicone rubber composition comprising: 100 parts by mass of an alkenyl group-containing polydiorganosiloxane composed of: from 0 to 90 parts by mass of a polydiorganosiloxane having both molecular terminals capped with alkenyl groups and not having any alkenyl groups in molecular side chains; and from 10 to 100 parts by mass of a polydiorganosiloxane having two or more alkenyl groups in molecular side chains; a polyorganosiloxane having at least two silicon-bonded hydrogen atoms in a molecule, in an amount such that the number of moles of silicon-bonded hydrogen atoms in component is from 0.4 to 20 per 1 mole of alkenyl groups in component; from 1 to 100 parts by mass of a conductive filler; from 10 to 250 parts by mass of a mixture comprising water and an inorganic thickener; from 0.1 to 15 parts by mass of an emulsifier; a hydrosilylation reaction catalyst, in an amount sufficient for crosslinking the composition; and from 0.001 to 5 parts by mass of a curing retarder; wherein component is carbon black. 100 parts by mass of an alkenyl group-containing polydiorganosiloxane composed of: from 0 to 90 parts by mass of a polydiorganosiloxane having both molecular terminals capped with alkenyl groups and not having any alkenyl groups in molecular side chains; and from 10 to 100 parts by mass of a polydiorganosiloxane having two or more alkenyl groups in molecular side chains; from 0 to 90 parts by mass of a polydiorganosiloxane having both molecular terminals capped with alkenyl groups and not having any alkenyl groups in molecular side chains; and from 10 to 100 parts by mass of a polydiorganosiloxane having two or more alkenyl groups in molecular side chains; a polyorganosiloxane having at least two silicon-bonded hydrogen atoms in a molecule, in an amount such that the number of moles of silicon-bonded hydrogen atoms in component is from 0.4 to 20 per 1 mole of alkenyl groups in component; from 1 to 100 parts by mass of a conductive filler; from 10 to 250 parts by mass of a mixture comprising water and an inorganic thickener; from 0.1 to 15 parts by mass of an emulsifier; a hydrosilylation reaction catalyst, in an amount sufficient for crosslinking the composition; and from 0.001 to 5 parts by mass of a curing retarder; wherein component is carbon black.
Support element for elevated surfaces such as raised floors, terraces or technical floors for outdoor and indoor applications, the support element comprising the following parts: (a) a base which allows the support element to be placed in an upright position on an underlying surface, (b) on the base, an intermediate piece, consisting of two or more stackable connecting pieces, the two or more connecting pieces exhibit on both sides parallel to the underlying surface, a relief of one or more projections and/or one or more cavities, whereby the relief on one side of a connecting piece is complementary to the relief on the opposite site of that connecting piece, such that two or more of said connecting pieces can be stacked so that the projections at one side of a connecting piece fit in the cavities of an upper or underlying connecting piece; and (c) on the intermediate piece a supporting plate, suitable as a support of an object at a distance from the underlying surface, characterised in that the base includes a disc-shaped cavity in which a ring-shaped element with internal screw thread fits engaging with a control piece with corresponding external screw thread, the control piece exhibiting a relief on the highest side parallel with the underlying surface of one or more projections and/or one or more cavities complementary to the relief of the two or more connecting pieces. (a) a base which allows the support element to be placed in an upright position on an underlying surface, (b) on the base, an intermediate piece, consisting of two or more stackable connecting pieces, the two or more connecting pieces exhibit on both sides parallel to the underlying surface, a relief of one or more projections and/or one or more cavities, whereby the relief on one side of a connecting piece is complementary to the relief on the opposite site of that connecting piece, such that two or more of said connecting pieces can be stacked so that the projections at one side of a connecting piece fit in the cavities of an upper or underlying connecting piece; and (c) on the intermediate piece a supporting plate, suitable as a support of an object at a distance from the underlying surface,
A pressure vessel for storing fluid, the pressure vessel comprising: a metallic liner comprising a cylindrical portion and a pair of ellipsoidal domes (108-1, 108-2) positioned at opposite ends of the cylindrical portion; and a composite material wrapped over the cylindrical portion and the pair of ellipsoidal domes (108-1, 108-2), wherein the composite material is formed of a polymeric matrix reinforced with fibers, the composite material comprises of a combination of hoop layers and helical layers which are positioned in a predetermined order with respect to each other; wherein, a hoop layer is wrapped over the cylindrical portion of the metallic liner of the pressure vessel and a helical layer is wrapped over both the cylindrical portion and the pair of ellipsoidal domes (108-1, 108-2), the helical layer is wrapped on each of the pair of ellipsoidal domes (108-1, 108-2) in a manner that a helical angle is defined at an intersection, between the cylindrical portion and the pair of ellipsoidal domes, characterized in that the metallic liner has a varied thickness across each of the pair of ellipsoidal domes (108-1, 108-2), and wherein the thickness of the metallic liner in vicinity of the pair of openings (202-1, 202-2) of the ellipsoidal domes (108-1, 108-2) is four times the thickness of the metallic liner in the cylindrical portion. a metallic liner comprising a cylindrical portion and a pair of ellipsoidal domes (108-1, 108-2) positioned at opposite ends of the cylindrical portion; and a composite material wrapped over the cylindrical portion and the pair of ellipsoidal domes (108-1, 108-2), wherein the composite material is formed of a polymeric matrix reinforced with fibers, the composite material comprises of a combination of hoop layers and helical layers which are positioned in a predetermined order with respect to each other; wherein, a hoop layer is wrapped over the cylindrical portion of the metallic liner of the pressure vessel and a helical layer is wrapped over both the cylindrical portion and the pair of ellipsoidal domes (108-1, 108-2), the helical layer is wrapped on each of the pair of ellipsoidal domes (108-1, 108-2) in a manner that a helical angle is defined at an intersection, between the cylindrical portion and the pair of ellipsoidal domes, characterized in that the metallic liner has a varied thickness across each of the pair of ellipsoidal domes (108-1, 108-2), and wherein the thickness of the metallic liner in vicinity of the pair of openings (202-1, 202-2) of the ellipsoidal domes (108-1, 108-2) is four times the thickness of the metallic liner in the cylindrical portion.
The process for preparing a polyetherester polyol by reacting a mixture comprising at least one Zerevitinov-active compound i), at least one compound ii), selected from the group comprising cyclic anhydrides of dicarboxylic acids, at least one fatty acid ester iiib) and also optionally at least one compound iv), selected from the group comprising cyclic mono-and diesters, with at least one alkylene oxide v) by means of a nucleophilic and/or basic catalyst, wherein the at least one Zerevitinov-active compound i) is selected from the group of hydroxyl- and/or aminofunctional compounds having a functionality in the range between 1 and 8, and wherein said fatty acid ester iiib) is selected from the group comprising fatty acid esters comprising no hydroxyl groups, and mixtures thereof, wherein the nucleophilic and/or basic catalyst is selected from the group comprising tertiary amines.
A method of determining the efficacy of treatment for polycystic kidney disease in a patient, the method comprising: (a) providing a first sample comprising a biological fluid obtained from a PKD patient; (b) determining a level of α-1-microglobulin/bikunin precursor (AMBP) in the first sample; (c) providing a second sample comprising a biological fluid from the patient and determining a level of AMBP in the second sample, wherein the PKD subject received a PKD treatment between when the first sample was obtained from the PKD patient and when the second sample was obtained from the PKD subject; and (d) identifying the PKD treatment as effective if the level in the second sample is lower than the level in the first sample. (a) providing a first sample comprising a biological fluid obtained from a PKD patient; (b) determining a level of α-1-microglobulin/bikunin precursor (AMBP) in the first sample; (c) providing a second sample comprising a biological fluid from the patient and determining a level of AMBP in the second sample, wherein the PKD subject received a PKD treatment between when the first sample was obtained from the PKD patient and when the second sample was obtained from the PKD subject; and (d) identifying the PKD treatment as effective if the level in the second sample is lower than the level in the first sample.
A system for controlling a net thrust of a steam turbine system having a rotating shaft, the system comprising: an active-retractable seal for sealing against the rotating shaft adjacent to a stepped portion on the rotating shaft in a turbine section; a first leak off line fluidly coupling a first stage of the turbine section to a packing area upstream of the ARS, the first leak off line including a first control valve and a second control valve; a second leak off line fluidly coupling a second stage of the turbine section that is subsequent to the first stage to a step area immediately upstream of the stepped portion, the second leak off line including a third control valve; a connection line fluidly coupling the first leak off line, between the first and second control valves, to the second leak off line, the connection line including a fourth control valve; and a controller configured to actively control the control valves to control the net thrust by regulating thrust pressure on the stepped portion, wherein the second leak off line is fluidly coupled to a packing area downstream of the ARS, and wherein the ARS is located upstream of the stepped portion. an active-retractable seal for sealing against the rotating shaft adjacent to a stepped portion on the rotating shaft in a turbine section; a first leak off line fluidly coupling a first stage of the turbine section to a packing area upstream of the ARS, the first leak off line including a first control valve and a second control valve; a second leak off line fluidly coupling a second stage of the turbine section that is subsequent to the first stage to a step area immediately upstream of the stepped portion, the second leak off line including a third control valve; a connection line fluidly coupling the first leak off line, between the first and second control valves, to the second leak off line, the connection line including a fourth control valve; and a controller configured to actively control the control valves to control the net thrust by regulating thrust pressure on the stepped portion, wherein the second leak off line is fluidly coupled to a packing area downstream of the ARS, and wherein the ARS is located upstream of the stepped portion.
A method of forming a polymer latex drag reducer comprising: forming an aqueous solution comprising a surfactant, a first buffer and water; forming an organic solution comprising a monomer and a co-stabilizer; mixing the aqueous solution and the organic solution to form an emulsion; subjecting the emulsion to a high shear device to produce a miniemulsion, wherein the monomers are broken into small droplets; and polymerizing the miniemulsion with the addition of an initiator system, wherein the initiator system comprises a second buffer, an oxidizer and a reducer, wherein a nucleation occurs in the small monomer droplets; wherein the polymerization produces the polymer latex drag reducer; wherein the monomer comprises from 80-99.99 wt% of the organic solution and the co-stabilizer comprises from 0.01-20 wt% of the organic solution, and wherein the initiator is only added after subjecting the emulsion to a high shear device. forming an aqueous solution comprising a surfactant, a first buffer and water; forming an organic solution comprising a monomer and a co-stabilizer; mixing the aqueous solution and the organic solution to form an emulsion; subjecting the emulsion to a high shear device to produce a miniemulsion, wherein the monomers are broken into small droplets; and polymerizing the miniemulsion with the addition of an initiator system, wherein the initiator system comprises a second buffer, an oxidizer and a reducer, wherein a nucleation occurs in the small monomer droplets; wherein the polymerization produces the polymer latex drag reducer; wherein the monomer comprises from 80-99.99 wt% of the organic solution and the co-stabilizer comprises from 0.01-20 wt% of the organic solution, and wherein the initiator is only added after subjecting the emulsion to a high shear device.
A method of manufacturing a polyurethane compound by mixing together A) a polyol, B) a polyisocyanate compound, and C) a catalyst, and allowing the mixture to cure to form a polyurethane, wherein said catalyst comprises a) a metal-organic compound which is a complex of: i) a metal selected from Ti, Zr, Hf, or Al, and ii) a multidentate organic ligand, CHARACTERIZED IN THAT said multidentate organic ligand has (a) a number of anionic donor sites = x; and (b) a number of neutral donor sites, capable of forming a co-ordinate bond with the metal, = y; where x + y = from 5 to 8 and x is from 2 to 4; said multidentate organic ligand molecule is of a size and conformation to enable each of the anionic donor sites and neutral donor sites to form a bond with the same metal atom; said multidentate organic ligand is derived from a ligand-forming compound having the following formula: (HO w (CR 1 R 2) z) 2 Y-(CR 3 R 4) x- Y((CR 1 R 2) z w OH) 2 (Formula I) in which: Y is selected from P and N; each R 1, R 2, R 3 and R 4 is independently selected from H, alkyl, aryl, substituted alkyl or substituted aryl; each z is independently 1, 2, 3 or 4; x represents the least number of C atoms between the Y atoms and is 2 or 3; each w is independently 0 or 1; wherein for manufacturing a polyurethane compound (a) the catalyst is first mixed with the polyol to form polyol composition, and (b) the polyol composition is then reacted by mixing with the polyisocyanate compound. A) a polyol, B) a polyisocyanate compound, and C) a catalyst, and a) a metal-organic compound which is a complex of: i) a metal selected from Ti, Zr, Hf, or Al, and ii) a multidentate organic ligand, i) a metal selected from Ti, Zr, Hf, or Al, and ii) a multidentate organic ligand, (a) a number of anionic donor sites = x; and (b) a number of neutral donor sites, capable of forming a co-ordinate bond with the metal, = y; Y is selected from P and N; each R 1, R 2, R 3 and R 4 is independently selected from H, alkyl, aryl, substituted alkyl or substituted aryl; each z is independently 1, 2, 3 or 4; x represents the least number of C atoms between the Y atoms and is 2 or 3; each w is independently 0 or 1; wherein for manufacturing a polyurethane compound (a) the catalyst is first mixed with the polyol to form polyol composition, and (b) the polyol composition is then reacted by mixing with the polyisocyanate compound.
Biocompatible implant made from a titanium alloy which, with exclusion of aluminium (Al), vanadium, cobalt (Co), chromium (Cr), nickel (Ni) and tin (Zn) as alloying elements, comprises the following alloying constituents in % by weight besides unavoidable trace quantities of impurities which are present in the alloying constituents or were incorporated during production: a) 0.2% to 1.5% of oxygen, b) 0.1% to 1.5% of iron (Fe), c) 0.01% to 2% of carbon, d) less than 0.5% of silicon (Si), e) optionally additionally less than 1% of gold (Au) and/or less than 1% of niobium (Nb) and/or less than 1% of molybdenum (Mo) and/or less than 1% of zirconium (Zr) and/or less than 1.5% of nitrogen and/or less than 0.2% of hydrogen, f) the remainder being titanium (Ti). a) 0.2% to 1.5% of oxygen, b) 0.1% to 1.5% of iron (Fe), c) 0.01% to 2% of carbon, d) less than 0.5% of silicon (Si), e) optionally additionally less than 1% of gold (Au) and/or less than 1% of niobium (Nb) and/or less than 1% of molybdenum (Mo) and/or less than 1% of zirconium (Zr) and/or less than 1.5% of nitrogen and/or less than 0.2% of hydrogen, f) the remainder being titanium (Ti).