mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic flaw detection method for an electric resistance welded pipe comprising: using an ultrasonic flaw detection apparatus for an electric resistance welded pipe comprising at least one array probe arranged in a circumferential direction of the electric resistance welded pipe, selecting a group of transducer elements for wave transmission and a group of transducer elements for wave reception in the one array probe, the group of transducer elements for wave transmission being different from the group of transducer elements for wave reception, transmitting the ultrasonic wave from the group of transducer elements for wave transmission to a welded surface of a welded portion of the electric resistance welded pipe in an axial direction such that a beam width is within a range of more than 0.7 mm to 2.5 mm, and receiving a wave reflected from penetrators dispersed in the beam area at the welded surface by the group of transducer elements for wave reception, wherein the penetrators have a size ranging from 5 μm to 20 μm. using an ultrasonic flaw detection apparatus for an electric resistance welded pipe comprising at least one array probe arranged in a circumferential direction of the electric resistance welded pipe, selecting a group of transducer elements for wave transmission and a group of transducer elements for wave reception in the one array probe, the group of transducer elements for wave transmission being different from the group of transducer elements for wave reception, transmitting the ultrasonic wave from the group of transducer elements for wave transmission to a welded surface of a welded portion of the electric resistance welded pipe in an axial direction such that a beam width is within a range of more than 0.7 mm to 2.5 mm, and receiving a wave reflected from penetrators dispersed in the beam area at the welded surface by the group of transducer elements for wave reception, wherein the penetrators have a size ranging from 5 μm to 20 μm.
An axle assembly for an agricultural trailer comprising a frame (2, 3) on which a useable space or a useable surface of the trailer is supported, and axle modules (11, 15) which are arranged at the frame (2, 3) and are supported on the ground with wheels (24, 33), wherein the axle modules (11, 15) are fixed releasably to the frame (2, 3) by way of holding devices (5, 16) and the frame (2, 3) comprises at least one longitudinal bearer on which the axle modules (11, 15) are arranged and provided at the longitudinal bearer or bearers are at least two different receiving positions which are displaced in the longitudinal direction for the axle modules (11, 15), wherein the longitudinal bearer or bearers are of a trapezoidal cross-section and are in the form of an open hollow profile member, characterised in that a base surface (a) of the trapezium is adapted to the width of the holding devices (5, 16) and a top side (c) of the longitudinal bearer is substantially narrower than the base surface (a).
A method for adjusting a yaw angle from an actual yaw angle to a desired yaw angle, of a wind turbine comprising a rotor having a plurality of rotor blades, a hub and an actuator device including yaw brakes and yaw motors, the method comprising: a) measuring a wind direction at the location of the wind turbine; b) measuring the yaw angle of the wind turbine and a wind direction relative to the nacelle orientation; c) calculating a set signal for a yaw angle modification from the actual yaw angle to the desired yaw angle, as a function of the measured wind direction and the measured yaw angle; d) measuring a yaw momentum of the wind turbine; e) calculating the pitch angle of the rotor blades as a function of the set signal and the measured yaw momentum; and f) adjusting the pitch angle of the rotor blades according to the calculated pitch angle such that a yaw momentum is generated for changing the yaw angle from the actual yaw angle to the desired yaw angle. a) measuring a wind direction at the location of the wind turbine; b) measuring the yaw angle of the wind turbine and a wind direction relative to the nacelle orientation; c) calculating a set signal for a yaw angle modification from the actual yaw angle to the desired yaw angle, as a function of the measured wind direction and the measured yaw angle; d) measuring a yaw momentum of the wind turbine; e) calculating the pitch angle of the rotor blades as a function of the set signal and the measured yaw momentum; and f) adjusting the pitch angle of the rotor blades according to the calculated pitch angle such that a yaw momentum is generated for changing the yaw angle from the actual yaw angle to the desired yaw angle.
A method for training a test and measurement instrument to suggest measurements, the method comprising: receiving training data including waveforms and corresponding known classifications via an input port of the test and measurement instrument; and training, via a processor, a plurality of classifiers on the training data by: iteratively applying each classifier to each waveform of the training data to obtain corresponding predicted waveform classifications; comparing the predicted waveform classifications with the known classifications; and correcting each classifier that outputs a predicted waveform classification that does not match the known classification for the corresponding waveform. receiving training data including waveforms and corresponding known classifications via an input port of the test and measurement instrument; and training, via a processor, a plurality of classifiers on the training data by: iteratively applying each classifier to each waveform of the training data to obtain corresponding predicted waveform classifications; comparing the predicted waveform classifications with the known classifications; and correcting each classifier that outputs a predicted waveform classification that does not match the known classification for the corresponding waveform. iteratively applying each classifier to each waveform of the training data to obtain corresponding predicted waveform classifications; comparing the predicted waveform classifications with the known classifications; and correcting each classifier that outputs a predicted waveform classification that does not match the known classification for the corresponding waveform.
An intracorporeal biopsy marker (200, 255), for marking a site within living tissue of a host, characterized in that the marker comprises: a body of porous hydroxyapatite whose physical properties permit the body to be distinguished from human soft tissue under visualization using ultrasonic and radiation imaging modalities, wherein the porosity of the body changes from dense at the center, to porous toward the surface and then back to dense at the surface. a body of porous hydroxyapatite whose physical properties permit the body to be distinguished from human soft tissue under visualization using ultrasonic and radiation imaging modalities, wherein the porosity of the body changes from dense at the center, to porous toward the surface and then back to dense at the surface.
A fluid spray for an underground roof support, the spray including: a first housing portion having an elongated shaft having a first end, a second end, and a first fluid passage extending between the first end and the second end; a spray outlet positioned adjacent the second end of the shaft; a second housing portion formed integrally with the first housing portion and positioned adjacent the first end of the shaft, the second housing portion including at least one port and a second fluid passage providing fluid communication between the at least one port and the first fluid passage, each port configured to be coupled to a fluid conduit, the second housing portion further including a first end, a second end, and a pair of planar lateral surfaces extending between the first end of the second housing portion and the second end of the second housing portion; and a service port aligned with the first fluid passage, the service port being selectively opened to provide access to the first fluid passage from the first end of the first housing portion. a first housing portion having an elongated shaft having a first end, a second end, and a first fluid passage extending between the first end and the second end; a spray outlet positioned adjacent the second end of the shaft; a second housing portion formed integrally with the first housing portion and positioned adjacent the first end of the shaft, the second housing portion including at least one port and a second fluid passage providing fluid communication between the at least one port and the first fluid passage, each port configured to be coupled to a fluid conduit, the second housing portion further including a first end, a second end, and a pair of planar lateral surfaces extending between the first end of the second housing portion and the second end of the second housing portion; and a service port aligned with the first fluid passage, the service port being selectively opened to provide access to the first fluid passage from the first end of the first housing portion.
An optoelectronic device comprising: ▪ at least one pixel (Pxl), a pixel comprising: ∘ a plurality of optical resonators (RO 1, RO 2), each optical resonator comprising a photodetecting structure confined between a first, reflective, metal layer and a second metal layer; ∘ and a connection microstructure that is arranged on a support made of dielectric material and is configured to electrically connect the second metal layers of the optical resonators (RO 1, RO 2) belonging to the same pixel (Pxl); ▪ a readout integrated circuit (ROIC) arranged on a substrate and assembled with said pixel; the readout circuit comprising a buried readout electrode associated with said pixel (Pxl) and a metal or dielectric outer layer (M3, D2); the assembly comprising at least the first metal layer and the outer layer of the readout integrated circuit being referred to as planar assembly structure; the second metal layers of the resonators (RO 1, RO 2) of a pixel (Pxl) being connected to the associated readout electrode by way of a metal via connected to the connection microstructure and passing through the support. ▪ at least one pixel (Pxl), a pixel comprising: ∘ a plurality of optical resonators (RO 1, RO 2), each optical resonator comprising a photodetecting structure confined between a first, reflective, metal layer and a second metal layer; ∘ and a connection microstructure that is arranged on a support made of dielectric material and is configured to electrically connect the second metal layers of the optical resonators (RO 1, RO 2) belonging to the same pixel (Pxl); ∘ a plurality of optical resonators (RO 1, RO 2), each optical resonator comprising a photodetecting structure confined between a first, reflective, metal layer and a second metal layer; ∘ and a connection microstructure that is arranged on a support made of dielectric material and is configured to electrically connect the second metal layers of the optical resonators (RO 1, RO 2) belonging to the same pixel (Pxl); ▪ a readout integrated circuit (ROIC) arranged on a substrate and assembled with said pixel; the readout circuit comprising a buried readout electrode associated with said pixel (Pxl) and a metal or dielectric outer layer (M3, D2); the assembly comprising at least the first metal layer and the outer layer of the readout integrated circuit being referred to as planar assembly structure; the second metal layers of the resonators (RO 1, RO 2) of a pixel (Pxl) being connected to the associated readout electrode by way of a metal via connected to the connection microstructure and passing through the support.
A dialysis solution comprising a therapeutically effective amount of pyrophosphate ranging between about 30 μM and about 400 μM for use in reducing or preventing the progression of vascular calcification in a patient by administration during peritoneal dialysis therapy.
A lubricating oil composition comprising: greater than 50 wt.% of a base oil of lubricating viscosity; one or more calcium-containing overbased detergents having a total base number of greater than 225 mg KOH/g, measured by the method of ASTM D-2896, comprising an overbased calcium sulfonate detergent and one or more magnesium-containing detergents, and wherein the lubricating oil composition includes an amount of the overbased calcium- containing detergent that provides 900 ppm by weight to less than 2400 ppm by weight of calcium to the lubricating oil composition, and an amount of the magnesium-containing detergent that provides 50 ppm by weight to 1000 ppm by weight of magnesium to the lubricating oil composition, both amounts being based on a total weight of the lubricating oil composition; and the lubricating oil composition passes the TEOST-33 test; wherein a) the one or more overbased calcium-containing detergents further comprise a compound selected from an overbased calcium phenate detergent, an overbased calcium salicylate detergent, and mixtures thereof; or b) the lubricating oil composition further comprises at least 0.2 wt. % of one or more low-based/neutral calcium-containing detergents having a total base number of up to 175 mg KOH/g, measured by the method of ASTM D-2896, based on a total weight of the lubricating oil composition. greater than 50 wt.% of a base oil of lubricating viscosity; one or more calcium-containing overbased detergents having a total base number of greater than 225 mg KOH/g, measured by the method of ASTM D-2896, comprising an overbased calcium sulfonate detergent and one or more magnesium-containing detergents, and wherein the lubricating oil composition includes an amount of the overbased calcium- containing detergent that provides 900 ppm by weight to less than 2400 ppm by weight of calcium to the lubricating oil composition, and an amount of the magnesium-containing detergent that provides 50 ppm by weight to 1000 ppm by weight of magnesium to the lubricating oil composition, both amounts being based on a total weight of the lubricating oil composition; and the lubricating oil composition passes the TEOST-33 test; wherein a) the one or more overbased calcium-containing detergents further comprise a compound selected from an overbased calcium phenate detergent, an overbased calcium salicylate detergent, and mixtures thereof; or b) the lubricating oil composition further comprises at least 0.2 wt. % of one or more low-based/neutral calcium-containing detergents having a total base number of up to 175 mg KOH/g, measured by the method of ASTM D-2896, based on a total weight of the lubricating oil composition. a) the one or more overbased calcium-containing detergents further comprise a compound selected from an overbased calcium phenate detergent, an overbased calcium salicylate detergent, and mixtures thereof; or b) the lubricating oil composition further comprises at least 0.2 wt. % of one or more low-based/neutral calcium-containing detergents having a total base number of up to 175 mg KOH/g, measured by the method of ASTM D-2896, based on a total weight of the lubricating oil composition.
A composition of matter comprising an antibody and an alkylglycoside having a CMC value of 1.0 mM or greater in water at 25°C, wherein the alkylglycoside is present in the composition of matter at a concentration that is lower than the CMC value of the alkylglycoside in water at 25°C.
An isolating system for decoupling structure-borne sound for a large electric machine for various deployment sites, using an arrangement of vibration dampening elements on a machine housing and on a foundation or baseframe, wherein a housing frame or several housing elements are arranged on the machine housing, the housing frame or the housing elements are elastically supported on a foundation frame by means of at least one isolating module per longitudinal side of the machine, each isolating module consists of a parallel arrangement of a hard disc spring and a soft helical bias spring, characterized in that one or several levers are attached to the baseframe, wherein the lever(s) is(are) supportedconcurrently by the housing frame or housing elements and optionally by the baseframe and catch cages are arranged between the machine housing and the foundation frame as an axial securing means.
A multi-staged cowl for receiving at least part of a hydrokinetic turbine comprising a hub and blades (230, 232, 234, 236) radially extending therefrom, the multi-staged cowl comprising: An inlet; an outlet; and multiple stages extending between the inlet and the outlet for receiving the hydrokinetic turbine therein, the stages defining a water flow channel for flow of water therethrough along a water flow direction from the inlet towards the outlet; wherein the multiple stages define a height substantially constant along the water flow direction; and wherein at least one of the multiple stages defines a width increasing along the water flow direction, and wherein the multiple stages comprise an inlet draft tube and an outlet draft tube configured so as to permit water to flow therethrough along the water flow direction, and the multiple stages further comprises an intermediate draft tube, downstream from the inlet draft tube, and upstream from the outlet draft tube, and characterised in that the multi-staged cowl further comprises an outer reinforcement structure for reinforcing the multiple stages and extending therefrom, the outer reinforcement structure comprising a plurality of spaced apart upper ribs (160, 170), the upper ribs each upwardly extending from the outer surfaces of the inlet, intermediate and outlet draft tubes. An inlet; an outlet; and multiple stages extending between the inlet and the outlet for receiving the hydrokinetic turbine therein, the stages defining a water flow channel for flow of water therethrough along a water flow direction from the inlet towards the outlet; wherein the multiple stages define a height substantially constant along the water flow direction; and wherein at least one of the multiple stages defines a width increasing along the water flow direction, and wherein the multiple stages comprise an inlet draft tube and an outlet draft tube configured so as to permit water to flow therethrough along the water flow direction, and the multiple stages further comprises an intermediate draft tube, downstream from the inlet draft tube, and upstream from the outlet draft tube, and characterised in that the multi-staged cowl further comprises an outer reinforcement structure for reinforcing the multiple stages and extending therefrom, the outer reinforcement structure comprising a plurality of spaced apart upper ribs (160, 170), the upper ribs each upwardly extending from the outer surfaces of the inlet, intermediate and outlet draft tubes.
A reusable apparatus in combination with a tool for vacuum sealing a curable material against the tool, and for dispersing a permeating substance through the curable material, when the reusable apparatus is placed over the curable material and the tool, the tool has a permeating substance inlet and a permeating substance outlet, and the reusable apparatus comprising: a first side facing away from the curable material; a second side adjacent to and facing the curable material; a peripheral edge extending between the first and second sides; and a plurality of surface deviations formed on the second side and configured for directing a flow of the permeating substance evenly throughout the curable material, wherein the surface deviations comprise a first flow path area having a plurality of flow path protrusions configured to provide a plurality of flow paths for evenly distributing the permeating substance throughout the curable material, and an elongated trough substantially extending a width of the curable material and located to one side of the first flow path area, and wherein the elongated trough is configured to be positioned proximate to the permeating substance inlet of the tool and configured such that the permeating substance flows through the permeating substance inlet into the elongated trough, subsequently spreads throughout the elongated trough, and then flows out from the elongated trough evenly throughout a width of the first flow path area. a first side facing away from the curable material; a second side adjacent to and facing the curable material; a peripheral edge extending between the first and second sides; and a plurality of surface deviations formed on the second side and configured for directing a flow of the permeating substance evenly throughout the curable material,
An electrochemiluminescence method of detecting an analyte in a liquid sample, the method comprising: • providing a receptacle containing a fluid comprising protein coated magnetic microparticles to a stirring unit, • acquiring a signal being indicative of an amount of the fluid contained in the receptacle, • determining a rotational frequency for the stirring unit dependent on the amount of fluid in the receptacle, the rotational frequency being proportional to the amount of fluid, • stirring the fluid for a predefined period of time by applying the previously determined rotational frequency, • taking a portion of the fluid containing the protein coated magnetic microparticles from the receptacle, thereby reducing the amount of the fluid contained in the receptacle, • mixing a portion of the liquid sample with the portion of the fluid comprising the protein coated magnetic microparticles and with a marker, • incubating the mixture comprising the analyte, the protein coated magnetic microparticles, and the marker in an incubator, • transporting a portion of the mixture from the incubator to a measurement cell, • applying a magnetic field to the measurement cell for magnetic adhesion of the protein coated magnetic microparticles to a working electrode of the measurement cell, • applying an excitation energy for causing luminescence, • measuring of the luminescence for acquisition of a measurement signal, and • generating an output signal being indicative of the presence of the analyte in the liquid sample using the measurement signal. • providing a receptacle containing a fluid comprising protein coated magnetic microparticles to a stirring unit, • acquiring a signal being indicative of an amount of the fluid contained in the receptacle, • determining a rotational frequency for the stirring unit dependent on the amount of fluid in the receptacle, the rotational frequency being proportional to the amount of fluid, • stirring the fluid for a predefined period of time by applying the previously determined rotational frequency, • taking a portion of the fluid containing the protein coated magnetic microparticles from the receptacle, thereby reducing the amount of the fluid contained in the receptacle, • mixing a portion of the liquid sample with the portion of the fluid comprising the protein coated magnetic microparticles and with a marker, • incubating the mixture comprising the analyte, the protein coated magnetic microparticles, and the marker in an incubator, • transporting a portion of the mixture from the incubator to a measurement cell, • applying a magnetic field to the measurement cell for magnetic adhesion of the protein coated magnetic microparticles to a working electrode of the measurement cell, • applying an excitation energy for causing luminescence, • measuring of the luminescence for acquisition of a measurement signal, and • generating an output signal being indicative of the presence of the analyte in the liquid sample using the measurement signal.
A polynucleotide for use in treating or preventing an autoimmune disease or a chronic inflammatory disorder in an individual, wherein the polynucleotide consists of a sequence of the formula: 5'-TGCN m -3', wherein N is a nucleotide and m is an integer from 5 to 50 and N m comprises 5-S 1 S 2 S 3 S 4 -3', wherein S 1, S 2, S 3, and S 4 are independently selected from G and I, and at least one of S 1, S 2, S 3, and S 4 is I.