mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting, by a device supporting long-term evolution in unlicensed spectrum, LTE-U, a Wi-Fi signal in a wireless communication system, the method comprising: generating a first LTE signal via digital-to-analog converter, DAC; generating a second LTE signal, which emulates the Wi-Fi signal, via the DAC which is the same as the DAC used to generate the first LTE signal; transmitting the first LTE signal; and transmitting the second LTE signal, which emulates the Wi-Fi signal, wherein the first LTE signal and the second LTE signal, which emulates the Wi-Fi signal, are over-sampled to align sampling rate of the first LTE signal and the second LTE signal, which emulates the Wi-Fi signal. generating a first LTE signal via digital-to-analog converter, DAC; generating a second LTE signal, which emulates the Wi-Fi signal, via the DAC which is the same as the DAC used to generate the first LTE signal; transmitting the first LTE signal; and transmitting the second LTE signal, which emulates the Wi-Fi signal, wherein the first LTE signal and the second LTE signal, which emulates the Wi-Fi signal, are over-sampled to align sampling rate of the first LTE signal and the second LTE signal, which emulates the Wi-Fi signal.
A refiner device for refining of a liquid, such as oil or fuel, wherein the refiner device comprises a housing provided with a liquid inlet for unrefined oil or fuel, a liquid outlet for refined oil or fuel, an air inlet for supplying a flow of air into the housing, and an air outlet for discharging air and contaminants removed from the liquid, wherein the refiner device further comprises a liquid receiving plate arranged inside the housing, wherein the refiner device is arranged such that when liquid has passed through the liquid inlet during operation of the device, the liquid is contacted with an upper surface of the liquid receiving plate before it reaches the liquid outlet, wherein the refiner device further comprises at least one heating element arranged to directly or indirectly heat the liquid while the liquid is in contact with the liquid receiving plate, characterized in that the refiner device comprises a hollow air-guiding member arranged at the liquid receiving plate, wherein the hollow air-guiding member has an open side facing the upper surface of the liquid receiving plate, wherein the air inlet is located outside of the hollow air-guiding member, wherein the air outlet is located inside of the hollow air-guiding member, wherein at least one air passage into the hollow air-guiding member is arranged at the liquid receiving plate so as to, when air is fed through the housing from the air inlet to the air outlet, force air to flow along at least a part of the liquid receiving plate when passing through the air passage and/or when flowing further into the hollow air-guiding member towards the air outlet. wherein the refiner device further comprises a liquid receiving plate arranged inside the housing, wherein the refiner device is arranged such that when liquid has passed through the liquid inlet during operation of the device, the liquid is contacted with an upper surface of the liquid receiving plate before it reaches the liquid outlet, wherein the refiner device further comprises at least one heating element arranged to directly or indirectly heat the liquid while the liquid is in contact with the liquid receiving plate, characterized in that the refiner device comprises a hollow air-guiding member arranged at the liquid receiving plate, wherein the hollow air-guiding member has an open side facing the upper surface of the liquid receiving plate, wherein the air inlet is located outside of the hollow air-guiding member, wherein the air outlet is located inside of the hollow air-guiding member, wherein at least one air passage into the hollow air-guiding member is arranged at the liquid receiving plate so as to, when air is fed through the housing from the air inlet to the air outlet, force air to flow along at least a part of the liquid receiving plate when passing through the air passage and/or when flowing further into the hollow air-guiding member towards the air outlet.
A producing method of monocyclic aromatic hydrocarbons in which reaction products including monocyclic aromatic hydrocarbons are produced by bringing an oil feedstock and an aromatic production catalyst into contact with each other, the oil feedstock having a 10 volume % distillation temperature of more than or equal to 140°C and a 90 volume % distillation temperature of less than or equal to 380°C, the method comprising the steps of: introducing the oil feedstock into a cracking and reforming reaction apparatus housing the aromatic production catalyst; bringing the oil feedstock and the aromatic production catalyst into contact with each other in the cracking and reforming reaction apparatus housing the aromatic production catalyst; heating the oil feedstock in advance before introducing the oil feedstock into the cracking and reforming reaction apparatus and forming a two-phase gas-liquid stream; separating the two-phase gas-liquid stream into a gas fraction and a liquid fraction; and introducing the gas fraction and the liquid fraction at different positions of the cracking and reforming reaction apparatus. introducing the oil feedstock into a cracking and reforming reaction apparatus housing the aromatic production catalyst; bringing the oil feedstock and the aromatic production catalyst into contact with each other in the cracking and reforming reaction apparatus housing the aromatic production catalyst; heating the oil feedstock in advance before introducing the oil feedstock into the cracking and reforming reaction apparatus and forming a two-phase gas-liquid stream; separating the two-phase gas-liquid stream into a gas fraction and a liquid fraction; and introducing the gas fraction and the liquid fraction at different positions of the cracking and reforming reaction apparatus.
A binder composition for a non-aqueous secondary battery electrode comprising: a particulate polymer A; and a particulate polymer B, wherein the particulate polymer A has a volume average particle diameter of at least 0.6 μm and not more than 2.5 μm, the particulate polymer B has a volume average particle diameter of at least 0.01 μm and not more than 0.5 μm, and the particulate polymer A has a percentage content of more than 30 mass% and not more than 90 mass% relative to total content of the particulate polymer A and the particulate polymer B, wherein the volume average particle diameter is the particle diameter D50 at which, in a particle diameter distribution on a volume basis measured by laser diffraction, cumulative volume calculated from a small diameter end of the distribution reaches 50%. a particulate polymer A; and a particulate polymer B, wherein the particulate polymer A has a volume average particle diameter of at least 0.6 μm and not more than 2.5 μm, the particulate polymer B has a volume average particle diameter of at least 0.01 μm and not more than 0.5 μm, and the particulate polymer A has a percentage content of more than 30 mass% and not more than 90 mass% relative to total content of the particulate polymer A and the particulate polymer B, wherein the volume average particle diameter is the particle diameter D50 at which, in a particle diameter distribution on a volume basis measured by laser diffraction, cumulative volume calculated from a small diameter end of the distribution reaches 50%.
An electronic device comprising: a coil unit; a power transmission circuit (411, 500) electrically connected to the coil unit; and a control circuit configured to wirelessly transmit power using the coil unit, wherein the coil unit includes: a first coil wound in a first shape by a first number of turns the first shape including a first layer and a second layer having an area narrower than the area of the first layer, and a second coil wound in a second shape by a second number of turns, the second shape includes a third layer disposed to be substantially coplanar with the second layer, the second coil being disposed to overlap at least a portion of the first layer, wherein the first layer, the second layer, and the third layer include a helical wire, and include a shape of a part of at least one of a circle, an ellipse, or a polygon, characterized in that a diameter of the helical wire forming the first layer or the second layer differs from a diameter of the helical wire forming the third layer. a coil unit; a power transmission circuit (411, 500) electrically connected to the coil unit; and a control circuit configured to wirelessly transmit power using the coil unit, wherein the coil unit includes: a first coil wound in a first shape by a first number of turns the first shape including a first layer and a second layer having an area narrower than the area of the first layer, and a second coil wound in a second shape by a second number of turns, the second shape includes a third layer disposed to be substantially coplanar with the second layer, the second coil being disposed to overlap at least a portion of the first layer, wherein the first layer, the second layer, and the third layer include a helical wire, and include a shape of a part of at least one of a circle, an ellipse, or a polygon, a first coil wound in a first shape by a first number of turns the first shape including a first layer and a second layer having an area narrower than the area of the first layer, and a second coil wound in a second shape by a second number of turns, the second shape includes a third layer disposed to be substantially coplanar with the second layer, the second coil being disposed to overlap at least a portion of the first layer, wherein the first layer, the second layer, and the third layer include a helical wire, and include a shape of a part of at least one of a circle, an ellipse, or a polygon, characterized in that a diameter of the helical wire forming the first layer or the second layer differs from a diameter of the helical wire forming the third layer.
A lamp comprising: a housing; a stand which has arms; a heat dissipation element base; a heat dissipation element having fins; solid state light emitters thermally coupled to the heat dissipation element; the heat dissipation element comprises one or more dissipation region sidewalls that define at least a first heat dissipation chamber, the arms support the base spaced from the housing, the heat dissipation element base comprising a large central opening, the first heat dissipation chamber has at least a first inlet opening and at least a first outlet opening, each fin extends into the first heat dissipation chamber, each solid state light emitter is mounted on an outward facing surface of the heat dissipation element, the heat dissipation element is spaced away from the housing, in conjunction with the heat dissipation element being spaced away from the housing, the central opening allows air to freely flow through the central opening and the heat dissipation element, as well as through the first outlet opening, and a plurality of sections taken through the heat dissipation chamber in respective planes that are each perpendicular to an axis of the lamp and that are spaced from each other, are similar to each other, characterized in that the lamp has a natural convection configuration, i.e., the lamp does not include any active cooling device for pushing or pulling ambient medium across the fins. a housing; a stand which has arms; a heat dissipation element base; a heat dissipation element having fins; solid state light emitters thermally coupled to the heat dissipation element; the heat dissipation element comprises one or more dissipation region sidewalls that define at least a first heat dissipation chamber, the arms support the base spaced from the housing, the heat dissipation element base comprising a large central opening, the first heat dissipation chamber has at least a first inlet opening and at least a first outlet opening, each fin extends into the first heat dissipation chamber, each solid state light emitter is mounted on an outward facing surface of the heat dissipation element, the heat dissipation element is spaced away from the housing, in conjunction with the heat dissipation element being spaced away from the housing, the central opening allows air to freely flow through the central opening and the heat dissipation element, as well as through the first outlet opening, and a plurality of sections taken through the heat dissipation chamber in respective planes that are each perpendicular to an axis of the lamp and that are spaced from each other, are similar to each other, characterized in that the lamp has a natural convection configuration, i.e., the lamp does not include any active cooling device for pushing or pulling ambient medium across the fins.
Melting furnace for aluminium scrap having a heated main chamber and a melt chamber which is in flow-communication with the main chamber via an inlet provided with a pump and via a return, and which comprises on one side a scrap feed region spaced apart from the inlet and return, characterised in that the scrap feed region is provided on the narrow side of the melt chamber comprising an elongate contour, said chamber forming, in the region of the narrow side opposite the scrap feed region, a deflection surface - against which a flow can arrive via the inlet and which transitions into a longitudinal wall - for a horizontal circulation flow of the melt between the inlet and the return arranged on the longitudinal wall opposite the longitudinal wall with the deflection surface and extending in the direction of the circulation flow.
A method for treating stock formed of recycled fibre, the method comprising: treating the stock in screen means (3, 33) screening the stock into accept and reject and a flotation cell means, characterized by i) directing the reject of a screening which precedes flotation cell means or ii) directing the reject of a fine screening of the accept of flotation cell means to a mechanical dispergator (13, 13a, 13b) and forming a dispersed reject of it, and directing the dispersed reject to i) the flotation cell means or ii) to a flotation cell means of the dispergator and from said flotation cell means of the dispergator to a) the flotation cell means, or b) into the accept of the flotation cell means, or c) into the accept of the fine screening. treating the stock in screen means (3, 33) screening the stock into accept and reject and a flotation cell means, characterized by i) directing the reject of a screening which precedes flotation cell means or ii) directing the reject of a fine screening of the accept of flotation cell means to a mechanical dispergator (13, 13a, 13b) and forming a dispersed reject of it, and directing the dispersed reject to i) the flotation cell means or ii) to a flotation cell means of the dispergator and from said flotation cell means of the dispergator to a) the flotation cell means, or b) into the accept of the flotation cell means, or c) into the accept of the fine screening. i) directing the reject of a screening which precedes flotation cell means or ii) directing the reject of a fine screening of the accept of flotation cell means i) the flotation cell means or ii) to a flotation cell means of the dispergator and from said flotation cell means of the dispergator to a) the flotation cell means, or b) into the accept of the flotation cell means, or c) into the accept of the fine screening. a) the flotation cell means, or b) into the accept of the flotation cell means, or c) into the accept of the fine screening.
A multilayer tape (30a-d) for use in a first water shielding layer of an undersea cable including a power line core in which an insulating layer, a shield layer, the first water shielding layer, and an anticorrosion layer are formed on a conductor, wherein the multilayer tape (30a-d) is formed to include a metal layer, wherein a cross sectional shape of the metal layer is a convex-concave shape, characterised in that the metal layer is sandwiched by resins (33a, 33b), at least the resin (33a, 33b) on an inner surface side is made of a conductive resin layer, on a plane surface of the multilayer tape (30a-d), the convex-concave shape of the metal layer is formed in a lattice arrangement or a staggered arrangement in which mountain portions or valley portions of the convex-concave shape are alternately and periodically formed toward two different directions (S, T), the convex-concave shape of the metal layer is a smoothly-curved wave, a trapezoidal square wave, or a triangular wave, a portion near a wave crest portion or a wave base portion of the convex-concave shape is formed with a smoothly-curved line, a wave height of the convex-concave shape of the metal layer is 0.2 mm to 0.6 mm, and a wave pitch of the convex-concave shape of the metal layer is 1.5 mm to 4 mm.
Automated vacuum cleaner configured for servicing at least one construction tool, said vacuum cleaner comprising a vacuum inlet, a controller and connected to said controller a wireless transceiver, and a memory, characterized in that the vacuum cleaner further comprises at least one navigation sensor, the vacuum cleaner further comprises means for propulsion controlled by said controller, and wherein the automated vacuum cleaner is configured to upon receiving a wireless signal from a construction tool establish the location of said construction tool and to automatically relocate to facilitate servicing of the construction tool.
A method of fabricating a semiconductor device, comprising: forming first and second regions of a first conductivity type at a surface of a substrate by forming an electrically floating semiconductor region (304, 307) of a second opposite conductivity type in the substrate to surround and separate the first and second regions (308-1, 308-2), so that the first and second regions (308-1, 308-2) are spaced apart from one another by at least a portion of the electrically floating semiconductor region and so that the first region has a larger area than the second region at the surface of the semiconductor region; forming a first contact region (310, 311) of the first conductivity type in each of the first and second regions (308-1,308-2), respectively; forming a second contact region of the second conductivity type in only the first region but not in the second region; and forming first and second terminals such that the first terminal is in electrical contact with the first and second contact regions (310, 312) formed in the first region and the second terminal is in electrical contact with only the first contact region formed in the second region, thereby forming a single polarity electrostatic discharge clamp coupled between the first and second terminals. forming first and second regions of a first conductivity type at a surface of a substrate by forming an electrically floating semiconductor region (304, 307) of a second opposite conductivity type in the substrate to surround and separate the first and second regions (308-1, 308-2), so that the first and second regions (308-1, 308-2) are spaced apart from one another by at least a portion of the electrically floating semiconductor region and so that the first region has a larger area than the second region at the surface of the semiconductor region; forming a first contact region (310, 311) of the first conductivity type in each of the first and second regions (308-1,308-2), respectively; forming a second contact region of the second conductivity type in only the first region but not in the second region; and forming first and second terminals such that the first terminal is in electrical contact with the first and second contact regions (310, 312) formed in the first region and the second terminal is in electrical contact with only the first contact region formed in the second region, thereby forming a single polarity electrostatic discharge clamp coupled between the first and second terminals.
A method of forming a plastic aerosol container including steps of: (a) providing a preform having a finish portion; (b) blow molding a plastic container from the preform; and characterized by the step of (c) reforming the finish portion so that an inner surface thereof has an undercut defined therein, and wherein step (c) is performed at some point after step (a). (a) providing a preform having a finish portion; (b) blow molding a plastic container from the preform; and characterized by the step of (c) reforming the finish portion so that an inner surface thereof has an undercut defined therein, and wherein step (c) is performed at some point after step (a).
A brake pad assembly (26, 126), comprising: a backing plate (34, 134) having a first surface and a second surface opposite the first surface; a brake liner (36, 136) coupled to the first surface of the backing plate (34, 134) and configured to engage a braking surface of a rotor; and a shim (38, 138) coupled to the second surface of the backing plate (34, 134), the shim (38, 138) including a planar body portion and a plurality of tabs (62, 162, 262) integrally formed with and extending from the planar body portion; wherein a first tab (62, 162) or a second tab of the plurality of tabs (62, 162) is configured to secure the shim (38, 138) to the backing plate (34, 134) and to engage the braking surface when the brake liner (36, 136) is worn a predetermined amount, characterized in that one (62, 162, 262) of the first tab and the second tab is configured to frictionally engage a side surface of the liner (36, 136). a backing plate (34, 134) having a first surface and a second surface opposite the first surface; a brake liner (36, 136) coupled to the first surface of the backing plate (34, 134) and configured to engage a braking surface of a rotor; and a shim (38, 138) coupled to the second surface of the backing plate (34, 134), the shim (38, 138) including a planar body portion and a plurality of tabs (62, 162, 262) integrally formed with and extending from the planar body portion; wherein a first tab (62, 162) or a second tab of the plurality of tabs (62, 162) is configured to secure the shim (38, 138) to the backing plate (34, 134) and to engage the braking surface when the brake liner (36, 136) is worn a predetermined amount, characterized in that one (62, 162, 262) of the first tab and the second tab is configured to frictionally engage a side surface of the liner (36, 136).