mhurhangee/ep-ind-claims huggingface dataset:
Intraocular pressure monitoring device comprising a soft contact lens such as a silicone contact lens and an active strain gage fixed to said contact lens, said active strain gage being placed at a distance from the center of the contact lens and being not in direct contact with the eye, characterized in that said active strain gage comprises a polygonal portion situated around said center of the contact lens.
An inhibitor of CD44, which inhibitor is an antibody, for use in a method of treating insulin resistance, the method comprising administering the inhibitor of CD44 to an individual having type 2 diabetes, or diagnosed as susceptible to type 2 diabetes.
A method for diagnosis of Alzheimer's disease or detection of AD risk in a subject, comprising the steps of: measuring baseline levels of a baseline set of glyceraldehyde 3-phosphate dehydrogenase (GAPDH) as a single biomarker in baseline samples, obtained from a baseline set of subjects, wherein the baseline set of subjects comprises a control group having subjects without AD and AD group with subjects that have different stages and types of Alzheimer's disease determining one or more AD reference levels for GAPDH in the test set based on the baseline levels of GAPDH in the test set; measuring a test sample for levels of GAPDH; and determining the test sample is positive or risk for AD if the level of GAPDH in the test sample is higher than the AD references levels as determined in step;. wherein the AD reference levels for GAPDH are between 380 ng/dL and 720 ng/dL; wherein the level of GAPDH in a test sample from the subject being higher than 720 ng/dL indicates a diagnosis of Alzheimer's disease; while the level of GAPDH in a test sample from the subject being less than 380 ng/dL indicates a diagnosis of a low risk for Alzheimer's disease; and the level of GAPDH in a test sample from the subject being between 380 ng/dL and 720 ng/dL indicates a diagnosis of a high risk for Alzheimer's disease. measuring baseline levels of a baseline set of glyceraldehyde 3-phosphate dehydrogenase (GAPDH) as a single biomarker in baseline samples, obtained from a baseline set of subjects, wherein the baseline set of subjects comprises a control group having subjects without AD and AD group with subjects that have different stages and types of Alzheimer's disease determining one or more AD reference levels for GAPDH in the test set based on the baseline levels of GAPDH in the test set; measuring a test sample for levels of GAPDH; and determining the test sample is positive or risk for AD if the level of GAPDH in the test sample is higher than the AD references levels as determined in step;.
A cladding system for a wall, the cladding system comprising a plate-shaped cladding element connectable to a fastening profile on two opposite longitudinal or transverse sides, the fastening profile being configured to anchor the cladding system to the wall, the cladding element having a preferably strip-shaped fastening section (60, 62), which is bent in relation to a base surface section of the cladding element, on the two longitudinal or transverse sides disposed in operative connection with a fastening profile, the fastening section (60, 62) interacting with a complementary, groove-shaped first or second reception section (16, 18) on the fastening profile, the two reception sections (16, 18) on the fastening profile being disposed on the fastening profile on the side opposite to a fastening surface for the wall on the fastening profile, the first reception section being disposed at a first inclined angle (α) between 30 degrees and 60 degrees, preferably approximately 45 degrees, to the fastening surface or to the base surface section, characterized in that the second reception section is disposed at a second inclined angle (β) between 30 degrees and 60 degrees, preferably approximately 45 degrees, to the fastening surface or to the base surface section, a plane aligned with a lateral surface of the reception section (16, 18) assigned to the first or second reception section (16, 18) extending outside the cross section of a cladding element disposed in the other reception section (18, 16), and the two reception sections (16, 18) on the fastening profile having reception openings (31, 32) for the fastening sections (60, 62) of the cladding element, the reception openings (31, 32) being disposed on sides facing one another on the fastening profile.
A fixed fire fighting system for large industrial tanks, comprising: two connected nozzles, each structured to project aerated foam of between 0.00631 m 3 s -1 (100 gpm) and 0.05678 m 3 s -1 (900 gpm), at 689476 Pa (100 psi), in substantially focused streams; the two connected nozzles each having a stream shaper in a tip portion of said nozzle with fins of a longitudinal dimension greater than a radial dimension and that terminate substantially flush with a tip solid bore discharge orifice; the two connected nozzles attached proximally downstream of, and in fluid communication with, at least one ambient air aeration chamber (AAAC) structured in combination with the two nozzles to produce aerated foam having an expansion of between 2-to-1 to 8-to-1; and a third nozzle structured to discharge between 0.01262 m 3 s -1 (200 gpm) and 0.06309 m 3 s -1 (1000 gpm), at 689476 Pa (100 psi), and located and structured in combination with the two connected nozzles to discharge in a direction of within 30° of a perpendicular to a median directly opposite directional axis defined by the two connected nozzles discharging in roughly opposing directions; and the fixed fire fighting system attached to a wall of a tank and orientated such that the relative angle between the discharge axis of the two connected nozzles is between 150° and 180° for projecting within +/- 15° of the horizontal direction along inner tank wall portions and such that the third nozzle is directed towards the centre of a tank. two connected nozzles, each structured to project aerated foam of between 0.00631 m 3 s -1 (100 gpm) and 0.05678 m 3 s -1 (900 gpm), at 689476 Pa (100 psi), in substantially focused streams; the two connected nozzles each having a stream shaper in a tip portion of said nozzle with fins of a longitudinal dimension greater than a radial dimension and that terminate substantially flush with a tip solid bore discharge orifice; the two connected nozzles attached proximally downstream of, and in fluid communication with, at least one ambient air aeration chamber (AAAC) structured in combination with the two nozzles to produce aerated foam having an expansion of between 2-to-1 to 8-to-1; and a third nozzle structured to discharge between 0.01262 m 3 s -1 (200 gpm) and 0.06309 m 3 s -1 (1000 gpm), at 689476 Pa (100 psi), and located and structured in combination with the two connected nozzles to discharge in a direction of within 30° of a perpendicular to a median directly opposite directional axis defined by the two connected nozzles discharging in roughly opposing directions; and the fixed fire fighting system attached to a wall of a tank and orientated such that the relative angle between the discharge axis of the two connected nozzles is between 150° and 180° for projecting within +/- 15° of the horizontal direction along inner tank wall portions and such that the third nozzle is directed towards the centre of a tank.
A phototherapy system device comprising: a plurality of therapeutic lamps; a first wall; and a second wall spaced from the first wall, characterized in that the second wall is including a reflective surface and a plurality of light apertures substantially aligned with the lamps for communicating lamp radiation to a user wherein the lamps are interposed between the first and second walls (50, 52). a plurality of therapeutic lamps; a first wall; and a second wall spaced from the first wall, characterized in that the second wall is including a reflective surface and a plurality of light apertures substantially aligned with the lamps for communicating lamp radiation to a user wherein the lamps are interposed between the first and second walls (50, 52).
A method for protecting persons and stationary or autonomously moving obstacles in front of stationary or autonomously moving handling apparatus such as manufacturing, transport, inspection or service robots and manipulators thereof, from collisions in the operating area of such handling apparatus by means of protection elements designed as protective covers that can be filled with a medium and comprise one or several internal pressure sensors, characterized in that said medium is not supplied from outside under pressure to each one of the protection elements, but an excess pressure is generated in the interior of each protection element, which, in addition to one or several pressure sensors, also comprises an integrated pressure increasing device.
A power conversion device comprising: a power semiconductor module (3a-f) that has a switching element; a gate drive circuit (4a-f) configured to drive the switching element and transmit a feedback signal during a switching operation of the switching element; a control unit configured to output a PWM command signal (101, 102) for switching to the gate drive circuit (4a-f); a temperature detection unit configured to calculate a junction temperature of the switching element based on the PWM command signal (101, 102) and the feedback signal; and an arithmetic processing unit configured to analyze a state of the power semiconductor module (3a-f) according to the junction temperature calculated by the temperature detection unit and the PWM command signal (101, 102), characterized in that the arithmetic processing unit is configured for converting time series data of the junction temperature to a temperature amplitude frequency, and determining an abnormality of the power conversion device based on the temperature amplitude frequency using a predetermined number of cycles as a reference value. a power semiconductor module (3a-f) that has a switching element; a gate drive circuit (4a-f) configured to drive the switching element and transmit a feedback signal during a switching operation of the switching element; a control unit configured to output a PWM command signal (101, 102) for switching to the gate drive circuit (4a-f); a temperature detection unit configured to calculate a junction temperature of the switching element based on the PWM command signal (101, 102) and the feedback signal; and an arithmetic processing unit configured to analyze a state of the power semiconductor module (3a-f) according to the junction temperature calculated by the temperature detection unit and the PWM command signal (101, 102), characterized in that the arithmetic processing unit is configured for converting time series data of the junction temperature to a temperature amplitude frequency, and determining an abnormality of the power conversion device based on the temperature amplitude frequency using a predetermined number of cycles as a reference value.
A stabilized flow nozzle for the atomization of a liquid, comprising: - a substantially cylindrical metallic main body defining a first longitudinal axis with an inlet for the liquid to be atomized, at least one calibrated outlet hole for the atomized liquid lying on or in the vicinity of said first axis and a working chamber ( 13, 14, 15) extending between said inlet and said at least one calibrated outlet hole, said working chamber including a first converging portion, a second diverging portion and an orifice interposed therebetween, said second diverging portion being located downstream of said first converging portion and upstream of said at least one calibrated outlet hole; wherein said metallic main body includes shutter means acting against said orifice to increase the pressure of the liquid which outlets from said first converging portion and to prevent reflux of the liquid which inlets said second diverging portion; wherein the nozzle further comprises a flow stabilizer element to stabilize the flow which outlets from said main body consisting of an annular body coaxially coupled with the latter in the vicinity of said at least one calibrated outlet hole, said annular body including a rear face facing said inlet, a front face opposite thereto and a plurality of passing-through holes ( 44', 44", 44"') each having a respective second longitudinal axis ( Y', Y", Y'") inclined toward said first axis so that the atomized liquid which outlets from said at least one calibrated hole sucks air by Venturi effect from said rear face to said front face via said passing-through holes ( 44 ', 44 ", 44 "'), thus stabilizing it; characterized in that said shutter means include an elastomeric sealing element and elastic counteracting means acting thereon to force it against said orifice. - a substantially cylindrical metallic main body defining a first longitudinal axis with an inlet for the liquid to be atomized, at least one calibrated outlet hole for the atomized liquid lying on or in the vicinity of said first axis and a working chamber ( 13, 14, 15) extending between said inlet and said at least one calibrated outlet hole, said working chamber including a first converging portion, a second diverging portion and an orifice interposed therebetween, said second diverging portion being located downstream of said first converging portion and upstream of said at least one calibrated outlet hole;
A vehicle drive apparatus having a drive unit including: a motor that generates a driving force in a vehicle with a ladder frame; a transmission that changes the driving force transmitted from the motor; and a differential that splits the driving force transmitted from the transmission and transmits forces split to driving wheels of the vehicle, the vehicle drive apparatus further comprising: a drive unit housing that houses at least part of the drive unit; a motor-side support coupling the drive unit housing to the ladder frame by two couplers (28a, 28b) arranged in a motor-side end region of the drive unit housing; and a differential-side support coupling the drive unit housing to the ladder frame in a differential-side end region of the drive unit housing, characterized in that the two couplers (29a, 29b) of the motor-side support being arranged farther outside in a vehicle width direction than the differential-side support,and that the differential-side support couples the drive unit housing to the ladder frame by two couplers (29a, 29b) arranged in the differential-side end region of the drive unit housing. a drive unit housing that houses at least part of the drive unit; a motor-side support coupling the drive unit housing to the ladder frame by two couplers (28a, 28b) arranged in a motor-side end region of the drive unit housing; and a differential-side support coupling the drive unit housing to the ladder frame in a differential-side end region of the drive unit housing, characterized in that the two couplers (29a, 29b) of the motor-side support being arranged farther outside in a vehicle width direction than the differential-side support,and that the differential-side support couples the drive unit housing to the ladder frame by two couplers (29a, 29b) arranged in the differential-side end region of the drive unit housing.
A process for polymerizing fluoromonomer to form a dispersion of fluoropolymer particles in an aqueous medium in a polymerization reactor comprising an initial period and a stabilization period subsequent to the initial period, wherein the initial period comprises: preparing an initial dispersion of fluoropolymer particles in the aqueous medium in the polymerization reactor, wherein the preparing of an initial dispersion of fluoropolymer particles comprises adding to the polymerization reactor: (a) aqueous medium, (b) water-soluble hydrocarbon-containing compound, (c) degradation agent, (d) fluoromonomer, and (e) polymerization initiator, wherein the degradation agent is added prior to the polymerization initiator, and wherein the water-soluble hydrocarbon-containing compound is added in an amount of 50 ppm or less; and the stabilization period comprises: polymerizing fluoromonomer in the polymerization reactor, and adding hydrocarbon-containing surfactant to the polymerization reactor, wherein during the stabilization period no fluorosurfactant is added. the initial period comprises: preparing an initial dispersion of fluoropolymer particles in the aqueous medium in the polymerization reactor, wherein the preparing of an initial dispersion of fluoropolymer particles comprises adding to the polymerization reactor: (a) aqueous medium, (b) water-soluble hydrocarbon-containing compound, (c) degradation agent, (d) fluoromonomer, and (e) polymerization initiator, (a) aqueous medium, (b) water-soluble hydrocarbon-containing compound, (c) degradation agent, (d) fluoromonomer, and (e) polymerization initiator, wherein the degradation agent is added prior to the polymerization initiator, and wherein the water-soluble hydrocarbon-containing compound is added in an amount of 50 ppm or less; and the stabilization period comprises: polymerizing fluoromonomer in the polymerization reactor, and adding hydrocarbon-containing surfactant to the polymerization reactor, polymerizing fluoromonomer in the polymerization reactor, and adding hydrocarbon-containing surfactant to the polymerization reactor, wherein during the stabilization period no fluorosurfactant is added.
Process for synthesizing CNTs by decomposition of a carbon source that is brought into contact in a fluidized-bed reactor, at a temperature of between 500°C and 1500°C, with one or more multivalent transition metals with a zero oxidation state and/or in oxide form (positive oxidation state) and recovery of said CNTs, characterized in that: - the transition metal or metals and/or their oxide(s) are supported on a substrate with a BET specific surface area of between 70 m 2 /g and 300 m 2 /g, chosen from inorganic supports, - the amount of transition metal(s) represents from 15% to 50% of the weight of the final catalyst, - the catalyst is prepared by impregnating the substrate with an impregnation solution containing at least one salt of transition metal (s), the amount of impregnation solution being chosen so that, at any moment, the support particles are in contact with exactly the amount of solution needed to ensure the formation of a surface film on said support particles, - the substrate particles have a diameter of between 20 and 500 μm. - the transition metal or metals and/or their oxide(s) are supported on a substrate with a BET specific surface area of between 70 m 2 /g and 300 m 2 /g, chosen from inorganic supports, - the amount of transition metal(s) represents from 15% to 50% of the weight of the final catalyst, - the catalyst is prepared by impregnating the substrate with an impregnation solution containing at least one salt of transition metal (s), the amount of impregnation solution being chosen so that, at any moment, the support particles are in contact with exactly the amount of solution needed to ensure the formation of a surface film on said support particles, - the substrate particles have a diameter of between 20 and 500 μm.
An oxide all-solid-state battery comprising a cathode active material layer, an anode active material layer mainly comprising silicon, and a solid electrolyte layer disposed between the cathode active material layer and the anode active material layer, wherein the solid electrolyte layer is a layer mainly comprising a garnet-type oxide solid electrolyte sintered body represented by the following formula: Formula: (Li x-3y-z, E y, H z)L α M β O γ where E is at least one kind of element selected from the group consisting of Al and Ga; L is at least one kind of element selected from the group consisting of an alkaline-earth metal element and a lanthanoid element; M is at least one kind of element selected from a transition element that can be six-coordinated with oxygen and typical elements in the Groups 12 to 15; x, y and z are real numbers that satisfy 5≤x-3y-z≤7, 0≤y<0.22 and 0≤z<2.0, respectively; and α, β and γ are real numbers that satisfy 2.5≤α≤3.5, 1.5≤β≤2.5 and 11≤γ≤13, respectively; wherein a solid electrolyte interface layer is disposed between the anode active material layer and the solid electrolyte layer; wherein the solid electrolyte interface layer comprises at least a Si element and an O element; and wherein a laminate comprising at least the anode active material layer, the solid electrolyte interface layer and the solid electrolyte layer has peaks at positions where 2θ = 32.3°±0.5°, 37.6°±0.5°, 43.8°±0.5°, and 57.7°±0.5° in a XRD spectrum obtained by XRD measurement using CuKα irradiation; and characterised in that the peaks at the positions where 2θ = 32.3°±0.5°, 37.6°±0.5°, 43.8°±0.5°, and 57.7°±0.5° in the XRD spectrum, are assigned to the solid electrolyte interface layer. where E is at least one kind of element selected from the group consisting of Al and Ga; L is at least one kind of element selected from the group consisting of an alkaline-earth metal element and a lanthanoid element; M is at least one kind of element selected from a transition element that can be six-coordinated with oxygen and typical elements in the Groups 12 to 15; x, y and z are real numbers that satisfy 5≤x-3y-z≤7, 0≤y<0.22 and 0≤z<2.0, respectively; and α, β and γ are real numbers that satisfy 2.5≤α≤3.5, 1.5≤β≤2.5 and 11≤γ≤13, respectively; wherein a solid electrolyte interface layer is disposed between the anode active material layer and the solid electrolyte layer; wherein the solid electrolyte interface layer comprises at least a Si element and an O element; and wherein a laminate comprising at least the anode active material layer, the solid electrolyte interface layer and the solid electrolyte layer has peaks at positions where 2θ = 32.3°±0.5°, 37.6°±0.5°, 43.8°±0.5°, and 57.7°±0.5° in a XRD spectrum obtained by XRD measurement using CuKα irradiation; and characterised in that the peaks at the positions where 2θ = 32.3°±0.5°, 37.6°±0.5°, 43.8°±0.5°, and 57.7°±0.5° in the XRD spectrum, are assigned to the solid electrolyte interface layer.
A containment layer for a flywheel apparatus comprising: a substantially cylindrical chamber comprising an inner wall and an outer wall; and a plurality of deformable brackets attached to at least one of the inner and outer chamber wall, said brackets oriented to predictably deform upon an impact, said brackets each having at least one surface for containing an impact, with said brackets comprising multiple layers (220, 240, 260), wherein at least one layer comprises ablative particles. a substantially cylindrical chamber comprising an inner wall and an outer wall; and a plurality of deformable brackets attached to at least one of the inner and outer chamber wall, said brackets oriented to predictably deform upon an impact, said brackets each having at least one surface for containing an impact, with said brackets comprising multiple layers (220, 240, 260), wherein at least one layer comprises ablative particles.
A network apparatus of a subscriber register, comprising providing means adapted to provide a first activating message to a source network apparatus of a first domain for transmitting parameters to a target network apparatus of a second domain in response to an inter-radio-access-technology mobility event, the first activating message being for tracing the inter-radio-access-technology mobility event in both the source network apparatus and the target network apparatus, the first activating message being related to a trace session of a subscriber or a terminal, wherein the first activating message comprises an identifier of a trace session and a first set of parameters related to the trace session in the first domain and a second set of parameters related to the trace session in the second domain different from the first domain, wherein the identifier is configured to be used in both the first domain and the second domain to identify the trace session.