mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical composition comprising in a unit dose formulation 3-[5-(2-fluorophenyl)-[1,2,4]oxadiazol-3-yl]-benzoic acid or a pharmaceutically acceptable salt, solvate or hydrate thereof in an amount between 35 mg and 1400 mg, refined polydextrose, poloxamer 407 powder, polyethylene glycol 3350, mannitol, crospovidone, and one or more excipients selected from hydroxyethyl cellulose, vanilla flavor, non-bovine magnesium stearate and colloidal silica.
A deployment catheter for deployment of a medical device, the deployment catheter comprising: a catheter shaft comprising a proximal end and a distal end and a lumen extending through the catheter shaft; a first cavity inside a distal portion of the catheter shaft adapted to receive a medical device, wherein the medical device is a valve; the distal end of the catheter shaft comprising a catheter tip, the catheter tip defining at least a part of a catheter sheath that is retractable relative the valve so the valve can be deployed or implanted from the catheter shaft into the body; a stabilization wire extending through the lumen of the catheter shaft; the stabilization wire being connected to a stabilization wire tip, characterized in that said stabilization wire tip comprises a cone and a sleeve, the cone being inserted over the stabilization wire and the sleeve is affixed to the cone, in that said stabilization wire tip further comprises a second cavity (902, 903, 904, 905) disposed at a distal end of the stabilization wire, the second cavity (902, 903, 904, 905) being configured to receive at least a portion of the medical device, and in that said cone comprises a recess for placement of one or more locator markings onto the cone tip, at least a portion of the catheter sheath lying above the stabilization wire tip being translucent or transparent, to allow visualization of the locator markings, wherein the catheter shaft retracts relative to the stabilization wire during deployment of the medical device. a catheter shaft comprising a proximal end and a distal end and a lumen extending through the catheter shaft; a first cavity inside a distal portion of the catheter shaft adapted to receive a medical device, wherein the medical device is a valve; the distal end of the catheter shaft comprising a catheter tip, the catheter tip defining at least a part of a catheter sheath that is retractable relative the valve so the valve can be deployed or implanted from the catheter shaft into the body; a stabilization wire extending through the lumen of the catheter shaft; the stabilization wire being connected to a stabilization wire tip, characterized in that said stabilization wire tip comprises a cone and a sleeve, the cone being inserted over the stabilization wire and the sleeve is affixed to the cone, in that said stabilization wire tip further comprises a second cavity (902, 903, 904, 905) disposed at a distal end of the stabilization wire, the second cavity (902, 903, 904, 905) being configured to receive at least a portion of the medical device, and in that said cone comprises a recess for placement of one or more locator markings onto the cone tip, at least a portion of the catheter sheath lying above the stabilization wire tip being translucent or transparent, to allow visualization of the locator markings, wherein the catheter shaft retracts relative to the stabilization wire during deployment of the medical device.
A method comprising: receiving, by a universal authentication application (102C, 208B, 308, 408) from a resource provider computer (104, 304, 404), a user credential verification request message comprising a user identifier, server computer data, and interaction data for an interaction between a resource provider of the resource provider computer and a user of a user device (102, 200, 302, 402); transmitting, by the universal authentication application, the user credential verification request message to a web browser (102A, 208A, 310, 410) that invokes an authenticator (102B, 312, 412) to verify biometric information of the user; receiving, by the universal authentication application, a user credential verification response message from the authenticator, the user credential verification response message comprising signed interaction data; and sending, by the universal authentication application, the user credential verification response message to the resource provider computer, providing, by the resource provider computer, at least the signed interaction data to a plurality of server computers (306, 406); and receiving, by the resource provider computer, a plurality of portable device credentials respectively from the plurality of server computers. receiving, by a universal authentication application (102C, 208B, 308, 408) from a resource provider computer (104, 304, 404), a user credential verification request message comprising a user identifier, server computer data, and interaction data for an interaction between a resource provider of the resource provider computer and a user of a user device (102, 200, 302, 402); transmitting, by the universal authentication application, the user credential verification request message to a web browser (102A, 208A, 310, 410) that invokes an authenticator (102B, 312, 412) to verify biometric information of the user; receiving, by the universal authentication application, a user credential verification response message from the authenticator, the user credential verification response message comprising signed interaction data; and sending, by the universal authentication application, the user credential verification response message to the resource provider computer, providing, by the resource provider computer, at least the signed interaction data to a plurality of server computers (306, 406); and receiving, by the resource provider computer, a plurality of portable device credentials respectively from the plurality of server computers.
A method for encoding an audio signal, the method comprising: for a segment of an audio signal: - identifying a set of spectral peaks; - determining a mean distance S between peaks in the set; - determining a ratio, PNR, between a peak energy and a noise floor energy; - selecting a coding mode, out of a plurality of coding modes, based on at least the mean distance S and the ratio PNR; and - applying the selected coding mode. - identifying a set of spectral peaks; - determining a mean distance S between peaks in the set; - determining a ratio, PNR, between a peak energy and a noise floor energy; - selecting a coding mode, out of a plurality of coding modes, based on at least the mean distance S and the ratio PNR; and - applying the selected coding mode.
A turbocharger flange comprising a mounting face for attaching a turbocharger to a manifold, said mounting face comprises a guiding structure for guiding the flange to an operative position in relation to said manifold, the guiding structure has a tapering shape in the mounting direction, and is configured to retain the flange in the operative position in a self-supported manner characterized in that the mounting face comprises a mounting structure for attaching said flange to the manifold, wherein the mounting structure extends in a direction perpendicular to the mounting direction being defined by said guiding structure, wherein the mounting structure comprises a projection extending from the outer periphery of said mounting face, wherein said projection comprises at least one bore for receiving a bolt, wherein said at least one bore extends in said mounting direction.
A cable gland for passing a cable through a wall opening, comprising: - a socket element extending along a longitudinal axis with an internal cable duct extending along the longitudinal axis, - a clamping portion having a plurality of clamping elements movable from a first position in which the clamping elements define a first inner diameter to a second position in which the clamping elements define a second inner diameter smaller than the first inner diameter, wherein the clamping portion is arranged on the socket element and the socket element and the clamping portion are formed integrally, and a cap nut having an axial opening at one end and being mechanically coupled to the socket element, the cap nut being movable from a first position on the socket element to a second position on the socket element, wherein the clamping members are moved radially inwardly on the socket element by moving the cap nut from the first position to the second position to provide a clamping action, characterised in that the socket element is formed from a first material and the cap nut is formed from a second material, wherein the first material and the second material are moulded together. - a socket element extending along a longitudinal axis with an internal cable duct extending along the longitudinal axis, - a clamping portion having a plurality of clamping elements movable from a first position in which the clamping elements define a first inner diameter to a second position in which the clamping elements define a second inner diameter smaller than the first inner diameter, a cap nut having an axial opening at one end and being mechanically coupled to the socket element, the cap nut being movable from a first position on the socket element to a second position on the socket element, wherein the clamping members are moved radially inwardly on the socket element by moving the cap nut from the first position to the second position to provide a clamping action, characterised in that the socket element is formed from a first material and the cap nut is formed from a second material, wherein the first material and the second material are moulded together.
A modular tooling receiver, comprising: a wall having a port that extends through it; an engaging member that is movably disposed in the port; a lock actuator that is disposed on a first side of the wall, wherein the lock actuator is moveable between a first position in which the lock actuator urges the engaging member in a first direction defined from the first side of the wall to a second side of the wall and a second position wherein the lock actuator permits the engaging member to move in a second direction defined from the second side of the wall to the first side of the wall; a first biasing element that biases the lock actuator toward the first position; a damper that controls a rate of motion of the lock actuator from the second position toward the first position; characterised in that it comprises a retainer that is positioned on the second side of the wall and is moveable between a first position in which the retainer is in engagement with the engaging member to obstruct movement of the engaging member in the first direction and a second position in which the retainer permits movement of the engaging member in the first direction. a wall having a port that extends through it; an engaging member that is movably disposed in the port; a lock actuator that is disposed on a first side of the wall, wherein the lock actuator is moveable between a first position in which the lock actuator urges the engaging member in a first direction defined from the first side of the wall to a second side of the wall and a second position wherein the lock actuator permits the engaging member to move in a second direction defined from the second side of the wall to the first side of the wall; a first biasing element that biases the lock actuator toward the first position; a damper that controls a rate of motion of the lock actuator from the second position toward the first position; characterised in that it comprises a retainer that is positioned on the second side of the wall and is moveable between a first position in which the retainer is in engagement with the engaging member to obstruct movement of the engaging member in the first direction and a second position in which the retainer permits movement of the engaging member in the first direction.
A method of manufacturing a component (20; 914) comprising: building a preform (10; 600; 900) from a powdered first material, the preform having residual porosity; applying a coating (21a, 21b; 910, 912) of a second material to a porous surface (11a, 11b; 904, 906) of the preform by a cold spray powder deposition process to form a coated preform having a gas-tight surface; and consolidating the coated preform to produce a component; characterised in that the applying a coating comprises building one or more flanges of the second material by cold spray powder deposition, each flange encircling an end (12a, 12b, 14a, 14b, 16a, 16b 18a, 18b) of a tubular section of the component. building a preform (10; 600; 900) from a powdered first material, the preform having residual porosity; applying a coating (21a, 21b; 910, 912) of a second material to a porous surface (11a, 11b; 904, 906) of the preform by a cold spray powder deposition process to form a coated preform having a gas-tight surface; and consolidating the coated preform to produce a component; characterised in that the applying a coating comprises building one or more flanges of the second material by cold spray powder deposition, each flange encircling an end (12a, 12b, 14a, 14b, 16a, 16b 18a, 18b) of a tubular section of the component.
An eyewear comprising: a frame comprising an eyewire configured to encircle a lens to couple the lens to the frame, the eyewire comprising a first eyewire portion and a second eyewire portion, the second eyewire portion having a free end that separates from the first eyewire portion thereby forming a gap in the eyewire, which is enlargeable to enable removal of the lens from the eyewire, while the first and second eyewire portions remain attached to one another; a temple coupled to the eyewire and pivotable between a storage position and an as-worn position; and a magnetic latch comprising a magnetic latch door (220, 222) pivotally coupled to the eyewire and operable, when the magnetic latch door is closed, to couple the free end of the second eyewire portion to the first eyewire portion to provide the eyewire in a closed configuration in which the lens is coupled to the frame. a frame comprising an eyewire configured to encircle a lens to couple the lens to the frame, the eyewire comprising a first eyewire portion and a second eyewire portion, the second eyewire portion having a free end that separates from the first eyewire portion thereby forming a gap in the eyewire, which is enlargeable to enable removal of the lens from the eyewire, while the first and second eyewire portions remain attached to one another; a temple coupled to the eyewire and pivotable between a storage position and an as-worn position; and a magnetic latch comprising a magnetic latch door (220, 222) pivotally coupled to the eyewire and operable, when the magnetic latch door is closed, to couple the free end of the second eyewire portion to the first eyewire portion to provide the eyewire in a closed configuration in which the lens is coupled to the frame.
An apparatus for estimating a value of a resistivity property of an earth formation intersected by a borehole, the apparatus comprising: a carrier conveyable in the borehole; a tri-axial induction antenna assembly along the carrier, the tri-axial induction antenna assembly comprising panels circumferentially arrayed about a portion of the carrier to form at least three collocated antennas, with each panel including: a magnetic core, an axially sensing coil that is transversely wound about the magnetic core; and a laterally sensing coil that is longitudinally wound about the magnetic core; and a magnetically transparent sleeve enclosing the antenna assembly; wherein each induction antenna of the tri-axial antenna assembly is configured to operate in a critically damped mode when receiving a signal with frequencies over a broadband range; characterised in that the broadband range includes frequencies greater than 200 kHz; and the processor is configured to estimate the value of the resistivity property using transient electromagnetic signals received by the tri-axial antenna assembly. a carrier conveyable in the borehole; a tri-axial induction antenna assembly along the carrier, the tri-axial induction antenna assembly comprising panels circumferentially arrayed about a portion of the carrier to form at least three collocated antennas, with each panel including: a magnetic core, an axially sensing coil that is transversely wound about the magnetic core; and a laterally sensing coil that is longitudinally wound about the magnetic core; and a magnetic core, an axially sensing coil that is transversely wound about the magnetic core; and a laterally sensing coil that is longitudinally wound about the magnetic core; and a magnetically transparent sleeve enclosing the antenna assembly; wherein each induction antenna of the tri-axial antenna assembly is configured to operate in a critically damped mode when receiving a signal with frequencies over a broadband range; characterised in that the broadband range includes frequencies greater than 200 kHz; and the processor is configured to estimate the value of the resistivity property using transient electromagnetic signals received by the tri-axial antenna assembly.
A method of treating a part including an aluminum alloy substrate comprising zinc as an alloying element, the method comprising: forming the part using an anodizing process, the part comprising an anodic oxide film disposed on the aluminum alloy substrate, the aluminum alloy substrate comprising zinc within an enrichment layer that is defined by a two nanometer thick region of the aluminum alloy substrate adjacent to the anodic oxide film, an enrichment concentration of the zinc within the enrichment layer being greater than an initial concentration of the zinc in the aluminum alloy substrate; and characterized in that it further comprises the step of: exposing the part to a diffusion promoting process by heating the part to a temperature of about 150 degrees C for about 15 minutes or more to diffuse at least some of the zinc within the enrichment layer toward the aluminum alloy substrate such that the enriched concentration of the zinc is reduced. forming the part using an anodizing process, the part comprising an anodic oxide film disposed on the aluminum alloy substrate, the aluminum alloy substrate comprising zinc within an enrichment layer that is defined by a two nanometer thick region of the aluminum alloy substrate adjacent to the anodic oxide film, an enrichment concentration of the zinc within the enrichment layer being greater than an initial concentration of the zinc in the aluminum alloy substrate; and characterized in that it further comprises the step of: exposing the part to a diffusion promoting process by heating the part to a temperature of about 150 degrees C for about 15 minutes or more to diffuse at least some of the zinc within the enrichment layer toward the aluminum alloy substrate such that the enriched concentration of the zinc is reduced.
A battery control apparatus configured to control a battery connected to a power system, comprising: a load data collection unit to collect load data in the power system; a component extraction unit including a bandpass filter to extract from the load data components with frequencies in a frequency band ranging from a first cutoff frequency to a second cutoff frequency of the bandpass filter; and a control unit to control the battery to minimize power load fluctuations in the power system, based on the extracted components, wherein said apparatus further comprises a learning unit configured to learn the first cutoff frequency and the second cutoff frequency, and wherein said learning includes determining variations of load fluctuation components based on said load data collected by the load data collection unit and making changes in the first and second cutoff frequencies as the load fluctuation components vary. a load data collection unit to collect load data in the power system; a component extraction unit including a bandpass filter to extract from the load data components with frequencies in a frequency band ranging from a first cutoff frequency to a second cutoff frequency of the bandpass filter; and a control unit to control the battery to minimize power load fluctuations in the power system, based on the extracted components, wherein said apparatus further comprises a learning unit configured to learn the first cutoff frequency and the second cutoff frequency, and wherein said learning includes determining variations of load fluctuation components based on said load data collected by the load data collection unit and making changes in the first and second cutoff frequencies as the load fluctuation components vary.
Coating device for coating motor vehicle body parts with a multi-axis robot (3, 4, 58) having a multi-axis robot hand axis on which an application device applying the coating agent is mounted, wherein the application device is a print head (8, 9, 59) which discharges the coating agent from a plurality of coating agent nozzles, characterised in that - the print head (8, 9, 59) is arranged in a painting cabin, in which the body parts are coated with the coating agent, - all coating agent nozzles of the print head (8, 9, 59) are commonly connected to one single coating agent supply line and therefore apply the same coating agent, - and, whilst a wash-out arranged under the painting cabin for overspray generated in the painting cabin is dispensed with, an air extractor is provided which extracts the cabin air from the painting cabin downwards and/or through side channels. - the print head (8, 9, 59) is arranged in a painting cabin, in which the body parts are coated with the coating agent, - all coating agent nozzles of the print head (8, 9, 59) are commonly connected to one single coating agent supply line and therefore apply the same coating agent, - and, whilst a wash-out arranged under the painting cabin for overspray generated in the painting cabin is dispensed with, an air extractor is provided which extracts the cabin air from the painting cabin downwards and/or through side channels.
A mascara brush comprising an inner core of at least two wire portions (12, 13) twisted together, and a bristle covering of bristles formed by internally hollow filaments that are each held clamped between the two wire portions, characterized in that the radially outward free ends of the bristles have an oblique cut like a simple wedge, so that a first side of said bristle has a maximum longitudinal extent (L MAX) and the second side diametrically opposite to the first side has a minimum longitudinal extent (L MIN), and that the corners of the radially outward bristle tips are rounded.
A zirconia sol, wherein the zirconia sol has a transmittance of 45% or more at a wavelength of 400 nm, has a transmittance of 75% or more at a wavelength of 550 nm, and contains zirconia particles in an amount of 20 wt% or more, characterized in that the zirconia sol contains an alkali metal oxide represented by M 2 O, wherein M indicates an alkali metal, with respect to zirconia, which is a dispersoid, in an M 2 O/ZrO 2 mole ratio of 0.02×10 -2 or more and 0.4×10 -2 or less; and the zirconia sol includes a monoclinic phase and a tetragonal phase as a crystal phase of zirconia. wherein the zirconia sol has a transmittance of 45% or more at a wavelength of 400 nm, has a transmittance of 75% or more at a wavelength of 550 nm, and contains zirconia particles in an amount of 20 wt% or more, characterized in that the zirconia sol contains an alkali metal oxide represented by M 2 O, wherein M indicates an alkali metal, with respect to zirconia, which is a dispersoid, in an M 2 O/ZrO 2 mole ratio of 0.02×10 -2 or more and 0.4×10 -2 or less; and the zirconia sol includes a monoclinic phase and a tetragonal phase as a crystal phase of zirconia.