mhurhangee/ep-ind-claims huggingface dataset:
A discharge ionization current detector for ionizing and detecting a sample component where the sample component is ionized using plasma created by discharge, comprising: a sample component detection portion comprising a sample component inlet, a microfluidic channel extending from the inlet, a first electrode having a surface that defines a first side wall of the microfluidic channel, and a second electrode having a surface that defines a second side wall of the microfluidic channel, the second side wall being opposite the first side wall, wherein the microfluidic channel has a width defined by the space between the first electrode and the second electrode of greater than or equal to 1 μm to less than or equal to 1 mm; and a plasma generation portion comprising a gas inlet, a plasma-generation void defined between a bottom dielectric barrier layer and a top dielectric barrier layer and in fluid communication with the gas inlet, the top dielectric barrier layer being opposite the bottom dielectric barrier layer, wherein the bottom dielectric barrier layer and the top dielectric barrier layer independently have a thickness of greater than or equal to 1 μm to less than or equal to 500 μm, wherein the microfluidic channel of the sample component detection portion is in fluid communication with the plasma-generation void of the plasma generation portion such that ionizing light emitted by plasma generated in the plasma-generation void can enter the microfluidic channel. a sample component detection portion comprising a sample component inlet, a microfluidic channel extending from the inlet, a first electrode having a surface that defines a first side wall of the microfluidic channel, and a second electrode having a surface that defines a second side wall of the microfluidic channel, the second side wall being opposite the first side wall, wherein the microfluidic channel has a width defined by the space between the first electrode and the second electrode of greater than or equal to 1 μm to less than or equal to 1 mm; and a plasma generation portion comprising a gas inlet, a plasma-generation void defined between a bottom dielectric barrier layer and a top dielectric barrier layer and in fluid communication with the gas inlet, the top dielectric barrier layer being opposite the bottom dielectric barrier layer, wherein the bottom dielectric barrier layer and the top dielectric barrier layer independently have a thickness of greater than or equal to 1 μm to less than or equal to 500 μm, wherein the microfluidic channel of the sample component detection portion is in fluid communication with the plasma-generation void of the plasma generation portion such that ionizing light emitted by plasma generated in the plasma-generation void can enter the microfluidic channel.
A wire guide module, which comprises: a) a housing having a first end and a second end with a first side and a second side extending between the ends (12A, 12B) with a first surface and a second surface extending between the ends (12A, 12B) and the sides (12C, 12D) of the housing; b) an inner passageway extending through the housing between the ends (12A, 12B) of the housing with openings (22A, 22B) in the first and second ends (12A, 12B) of the housing in communication with the inner passageway; and c) a plurality of rollers mounted in the housing adjacent the inner passageway, characterized in that the housing has a first connector flange extending outward from the first surface and a second connector flange extending outward from the second surface in a direction away from the second end of the housing, the first connector flange being spaced apart and parallel to the second connector flange; and that the second end of the housing having notches in the first and second surfaces of the housing. a) a housing having a first end and a second end with a first side and a second side extending between the ends (12A, 12B) with a first surface and a second surface extending between the ends (12A, 12B) and the sides (12C, 12D) of the housing; b) an inner passageway extending through the housing between the ends (12A, 12B) of the housing with openings (22A, 22B) in the first and second ends (12A, 12B) of the housing in communication with the inner passageway; and c) a plurality of rollers mounted in the housing adjacent the inner passageway, the housing has a first connector flange extending outward from the first surface and a second connector flange extending outward from the second surface in a direction away from the second end of the housing, the first connector flange being spaced apart and parallel to the second connector flange; and that the second end of the housing having notches in the first and second surfaces of the housing.
A method for identifying a network tethering behavior, comprising: receiving, by a gateway general packet radio service support node GGSN, an Internet protocol IP packet sent by a to-be-networked device and forwarded by a mobile terminal; acquiring a time to live TTL value in the IP packet; determining whether the acquired TTL value is modified from a specified TTL value; and if yes, determining that the to-be-networked device performs a network tethering behavior. receiving, by a gateway general packet radio service support node GGSN, an Internet protocol IP packet sent by a to-be-networked device and forwarded by a mobile terminal; acquiring a time to live TTL value in the IP packet; determining whether the acquired TTL value is modified from a specified TTL value; and if yes, determining that the to-be-networked device performs a network tethering behavior.
A display device, comprising: a display panel configured to display an image; a cover bottom configured to cover the display panel; at least two sound-generating actuators (200, 200') supported by the cover bottom, the sound-generating actuators (200, 200') being in contact with the display panel to vibrate the display panel to generate sound; and an actuator fixing device configured to support the at least two sound-generating actuators (200, 200') to be adjacent to each other; wherein the actuator fixing device comprises: a first support part configured to support a first actuator; a second support part configured to support a second actuator; and a reinforcing rib part adjacent to the first support part and to the second support part. a display panel configured to display an image; a cover bottom configured to cover the display panel; at least two sound-generating actuators (200, 200') supported by the cover bottom, the sound-generating actuators (200, 200') being in contact with the display panel to vibrate the display panel to generate sound; and an actuator fixing device configured to support the at least two sound-generating actuators (200, 200') to be adjacent to each other; a first support part configured to support a first actuator; a second support part configured to support a second actuator; and a reinforcing rib part adjacent to the first support part and to the second support part.
A scanning LiDAR system comprising: a base frame; an optoelectronic assembly including one or more laser sources and one or more photodetectors, the optoelectronic assembly being fixedly attached to the base frame; a lens assembly comprising one or more lenses, the one or more lenses having a focal plane; a first flexure assembly (270a, 270b) flexibly coupling the lens assembly to the base frame, the first flexure assembly (270a, 270b) configured such that the one or more laser sources and the one or more photodetectors are positioned substantially at the focal plane of the one or more lenses, and the first flexure assembly (270a, 270b) further configured to be flexed so as to scan the lens assembly laterally in a plane substantially perpendicular to an optical axis of the scanning LiDAR system; a counter-balance structure; a second flexure assembly (590a, 590b) flexibly coupling the counter-balance structure to the base frame; and a controller configured to cause the lens assembly and the counter-balance structure to be scanned, via the first flexure assembly and the second flexure assembly (590a, 590b), respectively, such that a motion of the lens assembly opposes a motion of the counter-balance structure. a base frame; an optoelectronic assembly including one or more laser sources and one or more photodetectors, the optoelectronic assembly being fixedly attached to the base frame; a lens assembly comprising one or more lenses, the one or more lenses having a focal plane; a first flexure assembly (270a, 270b) flexibly coupling the lens assembly to the base frame, the first flexure assembly (270a, 270b) configured such that the one or more laser sources and the one or more photodetectors are positioned substantially at the focal plane of the one or more lenses, and the first flexure assembly (270a, 270b) further configured to be flexed so as to scan the lens assembly laterally in a plane substantially perpendicular to an optical axis of the scanning LiDAR system; a counter-balance structure; a second flexure assembly (590a, 590b) flexibly coupling the counter-balance structure to the base frame; and a controller configured to cause the lens assembly and the counter-balance structure to be scanned, via the first flexure assembly and the second flexure assembly (590a, 590b), respectively, such that a motion of the lens assembly opposes a motion of the counter-balance structure.
A vacuum circuit breaker comprising a vacuum interrupter accommodated in a casing filled with insulating gas, the vacuum interrupter comprising: a vacuum container having an insulating tube and seal members (13, 14) for sealing both ends of the insulating tube; and a pair of contacts (10, 11) arranged in the vacuum container so as to be contactable with or separable away from each other, and being fixed to conductive shaft members (16, 18), wherein at least one of the contacts (10, 11) comprises an electrode material containing a Cu phase and a phase of solid solution particles uniformly dispersed in the Cu phase, the solid solution particles being formed of a solid solution of a heat resistant element selected from Mo, W, Ta, Nb, V and Zr and Cr; wherein the electrode material comprises 20 to 70% by weight of Cu, 1.5 to 64% by weight of Cr and 6 to 76% by weight of the heat resistant element, relative to a weight of the electrode material, with the balance being unavoidable impurities; and wherein the solid solution particles contained in the electrode material have an average particle size of 20 μm or smaller, and are uniformly dispersed in the Cu phase with a dispersion state index of 1.0 or lower, wherein a distance X between the mass centers of the MoCr particles is measured at one hundred different locations in the SEM image, and then an average ave.X and standard deviation σ of all of the measured center-to-center distance values X are calculated, and then the dispersion state index is determined by substituting the calculated values ave.X and σ into the following equation: CV = σ / ave.X. a vacuum container having an insulating tube and seal members (13, 14) for sealing both ends of the insulating tube; and a pair of contacts (10, 11) arranged in the vacuum container so as to be contactable with or separable away from each other, and being fixed to conductive shaft members (16, 18), wherein at least one of the contacts (10, 11) comprises an electrode material containing a Cu phase and a phase of solid solution particles uniformly dispersed in the Cu phase, the solid solution particles being formed of a solid solution of a heat resistant element selected from Mo, W, Ta, Nb, V and Zr and Cr; wherein the electrode material comprises 20 to 70% by weight of Cu, 1.5 to 64% by weight of Cr and 6 to 76% by weight of the heat resistant element, relative to a weight of the electrode material, with the balance being unavoidable impurities; and wherein the solid solution particles contained in the electrode material have an average particle size of 20 μm or smaller, and are uniformly dispersed in the Cu phase with a dispersion state index of 1.0 or lower, wherein a distance X between the mass centers of the MoCr particles is measured at one hundred different locations in the SEM image, and then an average ave.X and standard deviation σ of all of the measured center-to-center distance values X are calculated, and then the dispersion state index is determined by substituting the calculated values ave.X and σ into the following equation: CV = σ / ave.X.
A kinesiology tape which comprises a carrier layer, an elastomer connected to the carrier layer and providing the tape with elasticity which after stretching is restored, the kinesiology tape comprising an adhesive on the surface of the carrier layer, by means of which the tape is removably fastened to the skin, and the kinesiology tape comprising an electrically conductive structure, characterized in that the electrically conductive structure is formed of electrically conductive threads (C1, C2) placed side-by-side, that a first electrically conductive thread is wound or coiled around its winding axis in a winding direction and an adjacent second thread is wound or coiled around its winding axis in the opposite winding direction, that is, one set of threads is wound clockwise and the other set of threads is wound counterclockwise, and that the first threads wound clockwise are introduced as a first closed loop, and the second threads wound counterclockwise are introduced as a second closed loop, whereby one set of threads is wound clockwise and the adjacent threads in relation thereto counterclockwise, whereby the electromagnetic radiations in adjacent wound threads cancel each other out and heat is generated.
A generator module comprising: a battery; a charging circuit coupled to an output of a generator and configured to charge the battery; an electric power outlet configured to provide an output from the battery, the generator, or a combination of the battery and the generator; characterized by an enclosure including the battery, the charging circuit, and the electric power outlet, the enclosure detachable from the generator. a battery; a charging circuit coupled to an output of a generator and configured to charge the battery; an electric power outlet configured to provide an output from the battery, the generator, or a combination of the battery and the generator; characterized by an enclosure including the battery, the charging circuit, and the electric power outlet, the enclosure detachable from the generator.
A pharmaceutical composition for topical administration comprising an oil phase, said oil phase comprising mometasone furoate and diisopropyl adipate, wherein the amount of diisopropyl adipate is at least 20 wt.% based on the weight of the oil phase.
An omniwheel track system comprising: a frame comprising at least one supporting plate; an endless drive mechanism mounted to said frame; and a plurality of segment assemblies mounted to said frame and drivable by said endless drive mechanism, said plurality of segment assemblies forming an endless track rotatable about said frame, each said segment assembly comprising a housing adapted to receive at least one load wheel, each said load wheel mounted to a corresponding said segment assembly and rotatable about an axis, each said axis forming an angle with a side of said housing, characterized in that, each said segment assembly comprises a rotatably-mounted horizontal idling wheel configured to roll on a side of said endless drive mechanism. a frame comprising at least one supporting plate; an endless drive mechanism mounted to said frame; and a plurality of segment assemblies mounted to said frame and drivable by said endless drive mechanism, said plurality of segment assemblies forming an endless track rotatable about said frame, each said segment assembly comprising a housing adapted to receive at least one load wheel, each said load wheel mounted to a corresponding said segment assembly and rotatable about an axis, each said axis forming an angle with a side of said housing, characterized in that, each said segment assembly comprises a rotatably-mounted horizontal idling wheel configured to roll on a side of said endless drive mechanism.
A method of providing revocation status of at least one associated credential, comprising: - providing information about a primary credential to check its revocation status, the primary credential being cryptographically independent of the associated credential; - binding the at least one associated credential to the primary credential, wherein binding the at least one associated credential to the primary credential is independent of the contents of the credentials; and - using the primary credential as a surrogate for the at least one associated credential 502 wherein revocation status of the at least one associated credential tracks revocation status of the primary credential, wherein the associated credential uses a non-revocable authentication mechanism and wherein the associated credential authenticates an integrated circuit card that provides the associated credential. - providing information about a primary credential to check its revocation status, the primary credential being cryptographically independent of the associated credential; - binding the at least one associated credential to the primary credential, wherein binding the at least one associated credential to the primary credential is independent of the contents of the credentials; and - using the primary credential as a surrogate for the at least one associated credential 502 wherein revocation status of the at least one associated credential tracks revocation status of the primary credential, wherein the associated credential uses a non-revocable authentication mechanism and wherein the associated credential authenticates an integrated circuit card that provides the associated credential.
An electrical combination comprising: an electrical device including a device housing providing a device support portion, and a circuit supported by the device housing; a battery pack including a battery pack housing providing a pack support portion for engagement with the device support portion, a battery cell supported by the housing, power being transferrable between the battery cell and the circuit when the battery pack is connected to the device; and a latch mechanism including: a latching member movable between a latched position, in which the latching member is engageable between the battery pack and the electrical device to inhibit relative movement between the battery pack and the electrical device, and an unlatched position, in which relative movement between the battery pack and the electrical device is permitted, characterized in that the latch mechanism further includes a switch operable with the latching member, the switch inhibiting power transfer between the battery pack and the electrical device when the latching member is between the latched position and the unlatched position. an electrical device including a device housing providing a device support portion, and a circuit supported by the device housing; a battery pack including a battery pack housing providing a pack support portion for engagement with the device support portion, a battery cell supported by the housing, power being transferrable between the battery cell and the circuit when the battery pack is connected to the device; and a latch mechanism including: a latching member movable between a latched position, in which the latching member is engageable between the battery pack and the electrical device to inhibit relative movement between the battery pack and the electrical device, and an unlatched position, in which relative movement between the battery pack and the electrical device is permitted,
A control unit of an aerosol generation device comprising: a processing device configured to acquire a remaining amount of an aerosol source, wherein when the remaining amount of the aerosol source is smaller than a threshold value, the processing device suppresses discharge from a power supply to an atomizer configured to atomize the aerosol source, characterized in that when the remaining amount of the aerosol source is equal to or greater than the threshold value, the processing device controls the discharge from the power supply to the atomizer so as to make an amount of the aerosol source to be atomized different, based on the remaining amount of the aerosol source. a processing device configured to acquire a remaining amount of an aerosol source, wherein when the remaining amount of the aerosol source is smaller than a threshold value, the processing device suppresses discharge from a power supply to an atomizer configured to atomize the aerosol source, characterized in that when the remaining amount of the aerosol source is equal to or greater than the threshold value, the processing device controls the discharge from the power supply to the atomizer so as to make an amount of the aerosol source to be atomized different, based on the remaining amount of the aerosol source.
A hot-rolled steel sheet having a high degree of workability and anti-aging properties, the hot-rolled steel sheet consisting of, by wt%, carbon: 0.0001% to 0.003%, manganese (Mn): 0.07% to 0.8%, silicon (Si): 0.03% or less (excluding 0%), aluminum (Al): 0.03% to 0.08%, boron: 0.0005% to 0.002%, nitrogen: 0.0005% to 0.002% phosphorus: 0.05% or less, sulfur: 0.001% to 0.015%, and the balance of iron (Fe) and inevitable impurities, wherein the hot-rolled steel sheet has a gamma (γ)-fiber/alpha (α) -fiber texture pole intensity ratio of 4 to 14, wherein a group of texture components having an orientation normal to a plane is a gamma (γ)-fiber, and a group of texture components having planes parallel to a <110> direction is an alpha (α)-fiber, wherein the hot-rolled steel sheet comprises solute carbon in an amount of 5 ppm or less, wherein the hot-rolled steel sheet comprises ferrite in an area fraction of 90% or greater, wherein the hot-rolleed steel sheet has an average plastic strain ratio (r-bar value) of 1.3 or greater, a plastic anisotropy (Δr value) of 0.15 or less, and an aging index of 2 kgf/mm 2 or less, wherein aluminum (Al), boron, and nitrogen included in the hot rolled steel sheet satisfy Formula 1 below: where Al, B, and N are in wt%, 0.025 ≤ Al × B / N ≤ 0.07, wherein the average plastic strain ratio (r-bar value) is calculated according to the formula below, wherein ri refers to the r-value of a specimen taken at an angle of i° from the direction of rolling: r-bar = r 0 + r 90 + 2 r 45 / 4.