mhurhangee/ep-ind-claims huggingface dataset:
A tertiary mode vibration type Coriolis flowmeter comprising: at least one flow tube supported at opposite end portions having inflow and outflow ports; a stationary member arranged parallel to a plane formed by the flow tube, the stationary member formed as a flat plate, a drive device for alternately driving the flow tube; and a pair of vibration detecting sensors for detecting a phase difference that is proportional to Coriolis forces acting on the flow tube, wherein the driver and sensors are mounted on the stationary member, and wherein in order to cause the flow tube to make a tertiary mode vibration using the drive device, the drive device is provided at a central antinode from among three antinodes generated by the tertiary mode vibration; the pair of vibration detecting sensors are arranged at two antinodes of the three antinodes of the tertiary mode vibration of the flow tube exclusive of the central antinode; a displacement polarity of the drive device and a displacement polarity of the vibration detecting sensors are set to be in opposite phase with each other; and, in a positive feedback loop of the flow meter an excitation circuit portion for exciting the tertiary mode vibration of the flow tube, and the vibration detecting sensors, the excitation circuit portion for exciting the tertiary mode vibration is structured so that conversion is effected so that the displacement polarities, which have been in opposite phase with each other, are converted to be in phase with each other. at least one flow tube supported at opposite end portions having inflow and outflow ports; a stationary member arranged parallel to a plane formed by the flow tube, the stationary member formed as a flat plate, a drive device for alternately driving the flow tube; and a pair of vibration detecting sensors for detecting a phase difference that is proportional to Coriolis forces acting on the flow tube, wherein the driver and sensors are mounted on the stationary member, and wherein in order to cause the flow tube to make a tertiary mode vibration using the drive device, the drive device is provided at a central antinode from among three antinodes generated by the tertiary mode vibration; the pair of vibration detecting sensors are arranged at two antinodes of the three antinodes of the tertiary mode vibration of the flow tube exclusive of the central antinode; a displacement polarity of the drive device and a displacement polarity of the vibration detecting sensors are set to be in opposite phase with each other; and, in a positive feedback loop of the flow meter an excitation circuit portion for exciting the tertiary mode vibration of the flow tube, and the vibration detecting sensors, the excitation circuit portion for exciting the tertiary mode vibration is structured so that conversion is effected so that the displacement polarities, which have been in opposite phase with each other, are converted to be in phase with each other.
A mount for an inflatable structure, the mount comprising: a device to be mounted; inserts coupled to a back side of the device; and flexures configured to be coupled to the inflatable structure; wherein the flexures have respective blades which, when installed, mechanically couple to the inserts to mount the device on the inflatable structure; wherein each blade has a major surface which faces a center point that is underneath a center of the device to be mounted, when the device is mounted to the inflatable structure; and wherein the flexures have respective bases with respective sets of mounting holes for mounting the flexures to mounting blocks on the inflatable structure, with the mounting holes of some of the flexures having at least one of different size or different shape than the mounting holes of other of the flexures. a device to be mounted; inserts coupled to a back side of the device; and flexures configured to be coupled to the inflatable structure; wherein the flexures have respective blades which, when installed, mechanically couple to the inserts to mount the device on the inflatable structure; wherein each blade has a major surface which faces a center point that is underneath a center of the device to be mounted, when the device is mounted to the inflatable structure; and wherein the flexures have respective bases with respective sets of mounting holes for mounting the flexures to mounting blocks on the inflatable structure, with the mounting holes of some of the flexures having at least one of different size or different shape than the mounting holes of other of the flexures.
A stroke simulator comprising: a simulator piston which is displaced by sliding on a sliding surface formed in a part of a first cylinder, in response to a hydraulic pressure which is generated by a hydraulic pressure generating unit due to an operation of a brake operating element by a driver; and a reaction force generating unit (2b, 2c) which applies a reaction force corresponding to a displacement of the simulator piston to the simulator piston, and includes a first return spring having a lower spring constant located between the simulator piston and a bottom portion of a spring seat member, and a second spring having a higher spring constant located between a flange of the spring seat member and a body portion of the stroke cylinder; wherein the first return spring is partially located inside a cylindrical portion of the spring seat member located between the bottom portion and the flange which in turn is partially located inside the second spring, the stroke simulator generating the reaction force which is applied to the simulator piston as a brake reaction force for the brake operating element, wherein the stroke simulator includes a second cylinder, which is coaxially formed in communication with the first cylinder and houses the reaction force generating unit (2b, 2c) therein, and wherein a cup seal is attached to a gap formed between the simulator piston and the sliding surface, characterized in that the cup seal is attached in the middle in the axial direction of the sliding surface. a simulator piston which is displaced by sliding on a sliding surface formed in a part of a first cylinder, in response to a hydraulic pressure which is generated by a hydraulic pressure generating unit due to an operation of a brake operating element by a driver; and a reaction force generating unit (2b, 2c) which applies a reaction force corresponding to a displacement of the simulator piston to the simulator piston, and includes a first return spring having a lower spring constant located between the simulator piston and a bottom portion of a spring seat member, and a second spring having a higher spring constant located between a flange of the spring seat member and a body portion of the stroke cylinder; wherein the first return spring is partially located inside a cylindrical portion of the spring seat member located between the bottom portion and the flange which in turn is partially located inside the second spring, the stroke simulator generating the reaction force which is applied to the simulator piston as a brake reaction force for the brake operating element, wherein the stroke simulator includes a second cylinder, which is coaxially formed in communication with the first cylinder and houses the reaction force generating unit (2b, 2c) therein, and wherein a cup seal is attached to a gap formed between the simulator piston and the sliding surface, characterized in that the cup seal is attached in the middle in the axial direction of the sliding surface.
A method comprising: (a) receiving a first multi-dimensional sound signature for a sound measurement location of a known space within a first room; (b) determining a second multi-dimensional sound signature for a location within a hypothetical space of a second room distinct from the first room, wherein determining the second sound signature comprises: i) selecting a sound initiation location and a sound reception location in the hypothetical space, ii) simulating a sound emission from the sound initiation location in the hypothetical space, and iii) determining a plurality of sound reflection path characteristics of the hypothetical space between the sound initiation location and the sound reception location for the simulated sound emission; (c) comparing the second multi-dimensional sound signature to the first_multi-dimensional sound signature via a graphical user interface that depicts visual representations of the first and the second multi-dimensional sound signatures; (d) modifying the hypothetical space such that the similarity between the second multi-dimensional sound signature for the location within the modified hypothetical space and the first multi-dimensional sound signature is increased; and (e) configuring physical characteristics of the second room based on the modified hypothetical space. (a) receiving a first multi-dimensional sound signature for a sound measurement location of a known space within a first room; (b) determining a second multi-dimensional sound signature for a location within a hypothetical space of a second room distinct from the first room, wherein determining the second sound signature comprises: i) selecting a sound initiation location and a sound reception location in the hypothetical space, ii) simulating a sound emission from the sound initiation location in the hypothetical space, and iii) determining a plurality of sound reflection path characteristics of the hypothetical space between the sound initiation location and the sound reception location for the simulated sound emission; i) selecting a sound initiation location and a sound reception location in the hypothetical space, ii) simulating a sound emission from the sound initiation location in the hypothetical space, and iii) determining a plurality of sound reflection path characteristics of the hypothetical space between the sound initiation location and the sound reception location for the simulated sound emission; (c) comparing the second multi-dimensional sound signature to the first_multi-dimensional sound signature via a graphical user interface that depicts visual representations of the first and the second multi-dimensional sound signatures; (d) modifying the hypothetical space such that the similarity between the second multi-dimensional sound signature for the location within the modified hypothetical space and the first multi-dimensional sound signature is increased; and (e) configuring physical characteristics of the second room based on the modified hypothetical space.
A propylene-ethylene copolymer having high flow characteristics comprising: a propylene content of greater than 90% by weight, the copolymer containing ethylene in an amount of from 2.0% to 5.0% by weight, and wherein the copolymer has a xylene soluble fraction determined according to the method described in the description, such that the copolymer has an XS/ET ratio of less than 1.51, and wherein the copolymer has a melt flow rate of greater than 45 g/10 min at a temperature of 230 °C and at a load of 2.16 kg, the copolymer having a molecular weight distribution (Mw/Mn) of greater than 2.8.
A method for preparing a powder of a solid solution of dioxide of uranium and of at least one other actinide and/or lanthanide element comprising a step for combustion of a solution comprising uranyl nitrate and at least one nitrate of the other actinide and/or lanthanide element and a nitrogen-containing fuel, which is glycine, said nitrogen-containing fuel being used according to a predetermined amount in order to form, at the end of this step, said solid solution, this predetermined amount being an over-stoichiometric amount of nitrogen-containing fuel relative to the uranyl nitrate obtained by applying the following operations: a) an operation for determining the combustion equation of uranyl nitrate, to which a factor φ U is assigned to the stoichiometric coefficient of the nitrogen-containing fuel; b) an operation for determining an over-stoichiometric amount of the nitrogen-containing fuel (so-called Q U) by multiplying the known amount of uranyl nitrate by the stoichiometric coefficient of the nitrogen-containing fuel and by the factor φ U, the latter being set to a value greater than 1 and preferably, to value from 1.5 to 1.7; c) an operation for determining the combustion equation of the nitrate of other actinide and/or lanthanide element, to which a factor φ An/Ln is assigned to the stoichiometric coefficient of the nitrogen-containing fuel; d) an operation for determining an amount of the nitrogen-containing fuel (so-called Q An/Ln), by multiplying the known amount of the nitrate of the other element by the stoichiometric coefficient of the nitrogen-containing fuel and by the factor φ An/Ln, the latter being set to a value below 2; e) an operation for obtaining the aforementioned predetermined amount by adding at least the amounts of nitrogen-containing fuel determined in operations b) and d) (i.e. Q U and Q An/Ln). a) an operation for determining the combustion equation of uranyl nitrate, to which a factor φ U is assigned to the stoichiometric coefficient of the nitrogen-containing fuel; b) an operation for determining an over-stoichiometric amount of the nitrogen-containing fuel (so-called Q U) by multiplying the known amount of uranyl nitrate by the stoichiometric coefficient of the nitrogen-containing fuel and by the factor φ U, the latter being set to a value greater than 1 and preferably, to value from 1.5 to 1.7; c) an operation for determining the combustion equation of the nitrate of other actinide and/or lanthanide element, to which a factor φ An/Ln is assigned to the stoichiometric coefficient of the nitrogen-containing fuel; d) an operation for determining an amount of the nitrogen-containing fuel (so-called Q An/Ln), by multiplying the known amount of the nitrate of the other element by the stoichiometric coefficient of the nitrogen-containing fuel and by the factor φ An/Ln, the latter being set to a value below 2; e) an operation for obtaining the aforementioned predetermined amount by adding at least the amounts of nitrogen-containing fuel determined in operations b) and d) (i.e. Q U and Q An/Ln).
A soft magnetic metal powder, comprising Fe and Ni as the main components and containing B, wherein, in the soft magnetic metal powder, the content of Ni is 30 to 80 mass%, the total content of Fe and Ni is 90 mass% or more, and the metal particles of the soft magnetic metal powder comprise a film of boron nitride on the surface, characterized in that the content of B inside the metal particle of the soft magnetic metal powder is 10 to 150 ppm. containing B, wherein, in the soft magnetic metal powder, the content of Ni is 30 to 80 mass%, the total content of Fe and Ni is 90 mass% or more, and the metal particles of the soft magnetic metal powder comprise a film of boron nitride on the surface, characterized in that the content of B inside the metal particle of the soft magnetic metal powder is 10 to 150 ppm.
A reactor component configured to be supported within a reactor internals, the reactor component having a sensor insert for passively monitoring one or more environmental conditions surrounding the sensor insert's location, the reactor component comprising; a head; an elongated shank extending from the head to a distal end, the shank having a hollow compartment extending at least partially between the distal end and the head and a cross-sectional profile of the elongated shank being configured to fit into an opening in the reactor internals; an end plug for sealing off the hollow compartment at the distal end, affixed to the distal end; one or more self-contained, passive environmental sensors (34, 36, 38, 40), secured on the sensor insert within the hollow compartment; and characterized by an anchor for fixing the elongated shank in the opening in the reactor internals once the shank is inserted into the opening, the anchor including a locking mechanism that fixes an orientation of the shank within the opening in the reactor internals, wherein the locking mechanism is a lockbar that extends through an opening in the head and through a groove on a surface of the shank and is configured to partially fit into a groove in a surface of a wall in the opening in the reactor internals, in which the shank is to be inserted.
An electrochemical cell, comprising: a first electrode comprising lithium as an electroactive material; a second electrode; and a composite positioned between the first and second electrodes, the composite comprising: a separator comprising pores having an average pore size, wherein the separator has a bulk electronic resistivity of at least about 10 4 Ω*m; and an ion conductor layer bonded to the separator, said ion conductor layer being a solvent barrier between a liquid electrolyte and said electroactive material; wherein the ion conductor layer has a lithium-ion conductivity of at least 10 -6 S/cm; wherein the ion conductor layer comprises a lithium oxysulfide having an atomic ratio of oxygen atoms to sulfur atoms (O: S) in the range of from 0.01 to 0.25; and wherein the composite is formed by subjecting a surface of the separator to a plasma prior to depositing the ion conductor layer on the surface of the separator. a first electrode comprising lithium as an electroactive material; a second electrode; and a composite positioned between the first and second electrodes, the composite comprising: a separator comprising pores having an average pore size, wherein the separator has a bulk electronic resistivity of at least about 10 4 Ω*m; and an ion conductor layer bonded to the separator, said ion conductor layer being a solvent barrier between a liquid electrolyte and said electroactive material; wherein the ion conductor layer has a lithium-ion conductivity of at least 10 -6 S/cm; wherein the ion conductor layer comprises a lithium oxysulfide having an atomic ratio of oxygen atoms to sulfur atoms (O: S) in the range of from 0.01 to 0.25; and wherein the composite is formed by subjecting a surface of the separator to a plasma prior to depositing the ion conductor layer on the surface of the separator. a separator comprising pores having an average pore size, wherein the separator has a bulk electronic resistivity of at least about 10 4 Ω*m; and an ion conductor layer bonded to the separator, said ion conductor layer being a solvent barrier between a liquid electrolyte and said electroactive material; wherein the ion conductor layer has a lithium-ion conductivity of at least 10 -6 S/cm; wherein the ion conductor layer comprises a lithium oxysulfide having an atomic ratio of oxygen atoms to sulfur atoms (O: S) in the range of from 0.01 to 0.25; and wherein the composite is formed by subjecting a surface of the separator to a plasma prior to depositing the ion conductor layer on the surface of the separator.
A method for determining the amount of insulin and C-peptide in a sample by mass spectrometry, the method comprising: (a) subjecting a sample to an enrichment process to obtain a fraction enriched in insulin and C-peptide; (b) subjecting the enriched insulin and C-peptide to an ionization source under conditions suitable to generate one or more insulin and C-peptide ions detectable by mass spectrometry; and (c) determining the amount of one or more insulin and C-peptide ions by mass spectrometry, wherein said one or more insulin ions comprise an insulin precursor ion having a mass to charge ratio (m/z) of 968.9 ± 0.5, wherein said one or more insulin ions comprise one or more insulin fragment ions selected from the group consisting of ions with m/z of 136.0 ± 0.5, 226.1 ± 0.5, and 345.2 ± 0.5, wherein said one or more C-peptide ions comprise a C-peptide precursor ion having a mass to charge ratio (m/z) of 1007.7 ± 0.5, wherein said one or more C-peptide ions comprise one or more C-peptide fragment ions selected from the group consisting of ions with m/z of 533.3 ± 0.5, 646.4 ± 0.5, and 927.5 ± 0.5. (a) subjecting a sample to an enrichment process to obtain a fraction enriched in insulin and C-peptide; (b) subjecting the enriched insulin and C-peptide to an ionization source under conditions suitable to generate one or more insulin and C-peptide ions detectable by mass spectrometry; and (c) determining the amount of one or more insulin and C-peptide ions by mass spectrometry, wherein said one or more insulin ions comprise an insulin precursor ion having a mass to charge ratio (m/z) of 968.9 ± 0.5, wherein said one or more insulin ions comprise one or more insulin fragment ions selected from the group consisting of ions with m/z of 136.0 ± 0.5, 226.1 ± 0.5, and 345.2 ± 0.5, wherein said one or more C-peptide ions comprise a C-peptide precursor ion having a mass to charge ratio (m/z) of 1007.7 ± 0.5, wherein said one or more C-peptide ions comprise one or more C-peptide fragment ions selected from the group consisting of ions with m/z of 533.3 ± 0.5, 646.4 ± 0.5, and 927.5 ± 0.5.
Process for preparing acrolein by dehydrating glycerol in the presence of solid-state catalysts which comprise tungsten compounds, have a Hammett acidity H o of < +2 and contain palladium as a promoter, wherein the catalyst has a lower activity and/or selectivity after being used in the dehydration of glycerol to acrolein than prior to this use and is subjected to a periodical regeneration separated in terms of time from the conversion of glycerol or is subjected to a continuous regeneration separated in terms of place from the conversion of glycerol, and wherein the catalyst is regenerated by exposing it to a reducing atmosphere in the absence of reactants from the glycerol dehydration.
An isolated polynucleotide encoding for a lignin peroxidase comprising a nucleotide sequence which is at least 80% identical to the nucleotide sequence set forth in SEQ ID No. 1, 2, 4, 5, 7, or 8, or any mixtures thereof.
A hard confectionery product comprising at least two distinct layers: a) a first domed shape layer comprising a hard confectionery composition; and b) a second layer comprising a hard confectionery composition different than said first composition, the second composition comprising an abrasive surface that is suitable for scrubbing the top surface of a tongue.