mhurhangee/patent-ind-claim-en huggingface dataset:
A system for generating inert gas comprising: a fuel tank including an inner storage volume containing a fuel; a fuel stabilization chamber having an inner volume containing fuel and an ullage, said fuel within said inner volume being separate from said fuel within said inner storage volume, wherein said fuel stabilization chamber and said fuel tank are coupled such that said fuel is movable from said inner storage volume to said inner volume; an inert gas device operably coupled to the inner volume of said fuel stabilization chamber, wherein inert gas output from said inert gas device interacts with a fuel in said inner volume to remove dissolved oxygen from said fuel in said inner volume; the system further comprising: a first pump for moving said fuel from said inner storage volume to said inner volume; a second pump for providing said fuel from said inner volume to a downstream component; and a conduit extending from said inert gas device into said inner volume, said conduit being operable to expel said inert gas therefrom as a plurality of bubbles; and the system being characterised in that said fuel stabilization chamber is integrally formed with said fuel tank, and said fuel in said inner storage volume and said fuel in said inner volume are separated by a dividing wall. a fuel tank including an inner storage volume containing a fuel; a fuel stabilization chamber having an inner volume containing fuel and an ullage, said fuel within said inner volume being separate from said fuel within said inner storage volume, wherein said fuel stabilization chamber and said fuel tank are coupled such that said fuel is movable from said inner storage volume to said inner volume; an inert gas device operably coupled to the inner volume of said fuel stabilization chamber, wherein inert gas output from said inert gas device interacts with a fuel in said inner volume to remove dissolved oxygen from said fuel in said inner volume; the system further comprising: a first pump for moving said fuel from said inner storage volume to said inner volume; a second pump for providing said fuel from said inner volume to a downstream component; and a conduit extending from said inert gas device into said inner volume, said conduit being operable to expel said inert gas therefrom as a plurality of bubbles; and the system being characterised in that said fuel stabilization chamber is integrally formed with said fuel tank, and said fuel in said inner storage volume and said fuel in said inner volume are separated by a dividing wall.
A communication method applying a transmission antenna virtualization to a terminal in a wireless communication system, the method performed by the terminal and comprising: configuring (S1320) one or more virtual antennas by grouping a plurality of transmission physical antennas of the terminal into each of the one or more virtual antennas, according to an antenna virtualization pattern determined based on a movement state of the terminal and a relative directional position of a base station based on a direction of movement of the terminal; and communicating (S1330) with the base station through the one or more virtual antennas, wherein the antenna virtualization pattern is differently determined according to whether the relative directional position of the base station based on the direction of movement of the terminal is aligned with or perpendicular to the direction of movement of the terminal, wherein the plurality of transmission physical antennas are arranged in a two-dimensional array, and wherein the grouping is performed in a way that M transmission physical antennas among the plurality of physical antennas arranged in the two-dimensional array along the direction of movement of the terminal are grouped into one virtual antenna, when the relative directional position of the base station and the direction of movement of the terminal are perpendicular, wherein M is a natural number. configuring (S1320) one or more virtual antennas by grouping a plurality of transmission physical antennas of the terminal into each of the one or more virtual antennas, according to an antenna virtualization pattern determined based on a movement state of the terminal and a relative directional position of a base station based on a direction of movement of the terminal; and communicating (S1330) with the base station through the one or more virtual antennas, wherein the antenna virtualization pattern is differently determined according to whether the relative directional position of the base station based on the direction of movement of the terminal is aligned with or perpendicular to the direction of movement of the terminal, wherein the plurality of transmission physical antennas are arranged in a two-dimensional array, and wherein the grouping is performed in a way that M transmission physical antennas among the plurality of physical antennas arranged in the two-dimensional array along the direction of movement of the terminal are grouped into one virtual antenna, when the relative directional position of the base station and the direction of movement of the terminal are perpendicular, wherein M is a natural number.
Method for producing a trim part having a genuine carbon look for vehicles with a carbon fibre sheet arranged on a visible side of the trim part and recognisable from the outside, which is formed from a fibre structure of prefabricated carbon fibres with interspaces, comprising the method steps: - wet impregnation of the prefabricated, sized carbon fibres with an aqueous polymer dispersion based on polyurethane, acrylate or polyvinyl acetate or a mixture thereof, so that the polymer dispersion penetrates at least partially into the carbon fibres and increases a suitability for penetration of a lacquer into the interspaces of the fibre structure of the carbon sheet - Drying of the wet-impregnated carbon fibers, - Fastening arrangement of the carbon fiber sheet on a trim part support with an alignment to the visible side of the trim part, - Application of a lacquer layer over the carbon fiber sheet arranged on the trim part support to form a transparent surface layer on the visible side of the trim part, wherein lacquer penetrates into the interspaces of the carbon fiber sheet. - wet impregnation of the prefabricated, sized carbon fibres with an aqueous polymer dispersion based on polyurethane, acrylate or polyvinyl acetate or a mixture thereof, so that the polymer dispersion penetrates at least partially into the carbon fibres and increases a suitability for penetration of a lacquer into the interspaces of the fibre structure of the carbon sheet - Drying of the wet-impregnated carbon fibers, - Fastening arrangement of the carbon fiber sheet on a trim part support with an alignment to the visible side of the trim part, - Application of a lacquer layer over the carbon fiber sheet arranged on the trim part support to form a transparent surface layer on the visible side of the trim part, wherein lacquer penetrates into the interspaces of the carbon fiber sheet.
Coaxial RF counter connector , comprising at least a counter connector inner conductor which comprises a contact section having a bare metal surface, a counter connector outer conductor , which comprises a second contact section having a bare metal surface, the counter connector outer conductor being arranged coaxial to the counter connector inner conductor , and a centering sleeve , the centering sleeve having a cylindrical inner surface having an inner contour coaxial to the inner conductor or a cylindrical outer surface having an outer contour coaxial to the inner conductor , characterized in, that an insulating sleeve comprising electrically insulation material or insulation layer is included at the cylindrical inner or outer surface of the centering sleeve . a counter connector inner conductor which comprises a contact section having a bare metal surface, a counter connector outer conductor , which comprises a second contact section having a bare metal surface, the counter connector outer conductor being arranged coaxial to the counter connector inner conductor , and a centering sleeve , the centering sleeve having a cylindrical inner surface having an inner contour coaxial to the inner conductor or a cylindrical outer surface having an outer contour coaxial to the inner conductor , characterized in, that an insulating sleeve comprising electrically insulation material or insulation layer is included at the cylindrical inner or outer surface of the centering sleeve .
An oral care implement comprising: a handle extending from a proximal end to a distal end; a head disposed at the distal end of the handle , the head comprising: a fixed bristle member comprising a first plurality of bristles on a fixed bristle support , a first movable bristle member comprising a second plurality of bristles on a first movable bristle support , and a second movable bristle member comprising a third plurality of bristles on a second movable bristle support ; and an actuator configured to move the first movable bristle member and the second movable bristle member to selectively place the head in a brushing position in which the second plurality of bristles and the third plurality of bristles are disposed in a first orientation relative to the first plurality of bristles or in an interdental cleaning position in which the second plurality of bristles and the third plurality of bristles are angled relatively toward each other to form a bristle tip and the bristle tip is angled relative to the first plurality of bristles . a handle extending from a proximal end to a distal end; a head disposed at the distal end of the handle , the head comprising: a fixed bristle member comprising a first plurality of bristles on a fixed bristle support , a first movable bristle member comprising a second plurality of bristles on a first movable bristle support , and a second movable bristle member comprising a third plurality of bristles on a second movable bristle support ; and a fixed bristle member comprising a first plurality of bristles on a fixed bristle support , a first movable bristle member comprising a second plurality of bristles on a first movable bristle support , and a second movable bristle member comprising a third plurality of bristles on a second movable bristle support ; and an actuator configured to move the first movable bristle member and the second movable bristle member to selectively place the head in a brushing position in which the second plurality of bristles and the third plurality of bristles are disposed in a first orientation relative to the first plurality of bristles or in an interdental cleaning position in which the second plurality of bristles and the third plurality of bristles are angled relatively toward each other to form a bristle tip and the bristle tip is angled relative to the first plurality of bristles .
A fan coil unit comprising: a substantially parallelepiped-shaped and rigid outer casing which is structured for being firmly fixed to a wall (P) in a substantially vertical position, and is provided with a large through duct adapted to be crossed by the outside air; an air/liquid heat exchanger that is located inside the through duct so as to be skimmed/crossed by the air that flows along the duct, and is connected to an external hydraulic circuit so as to be also crossed by a hot or cold heat-transfer liquid; a fan adapted to circulate the outside air inside the through duct ; and an air filter that is placed along the through duct , behind a protective grating that is arranged to close the inlet mouth of the through duct ; the protective grating being hinged to the outer casing , so as to rotate around a given rotation axis (R), between a closed position in which the protective grating is substantially coplanar/ flush with the face of the outer casing , so as to hide the air filter inside the through duct , and an open position in which the protective grating is tilted by a given angle (β, δ) with respect to the same face of the outer casing , so as to allow access to the air filter ; the fan coil unit being characterized in that it additionally comprises: an electromechanical actuator which is adapted to move, on command, the protective grating from the closed position to the open position; and an electronic control unit which is adapted to command said electromechanical actuator so as to arrange the protective grating in the open position when given operating conditions occur. the protective grating being hinged to the outer casing , so as to rotate around a given rotation axis (R), between a closed position in which the protective grating is substantially coplanar/ flush with the face of the outer casing , so as to hide the air filter inside the through duct , and an open position in which the protective grating is tilted by a given angle (β, δ) with respect to the same face of the outer casing , so as to allow access to the air filter ; the fan coil unit being characterized in that it additionally comprises: an electromechanical actuator which is adapted to move, on command, the protective grating from the closed position to the open position; and an electronic control unit which is adapted to command said electromechanical actuator so as to arrange the protective grating in the open position when given operating conditions occur.
An injection molding machine comprising: a first member which has a first surface; a second member which has a second surface facing the first surface; the injection molding machine being characterized in that it further comprises: a sacrificial member which has a third surface fixed to one surface of the first surface or the second surface and sliding with the other surface of the first surface or the second surface; and a temperature adjustment mechanism which adjusts a temperature of the sacrificial member . a first member which has a first surface; a second member which has a second surface facing the first surface; the injection molding machine being characterized in that it further comprises: a sacrificial member which has a third surface fixed to one surface of the first surface or the second surface and sliding with the other surface of the first surface or the second surface; and a temperature adjustment mechanism which adjusts a temperature of the sacrificial member . a sacrificial member which has a third surface fixed to one surface of the first surface or the second surface and sliding with the other surface of the first surface or the second surface; and a temperature adjustment mechanism which adjusts a temperature of the sacrificial member .
A method of coating an end surface of a monolithic substrate with a liquid characterized in that the liquid comprises a catalyst component, the method further comprises: (a) conveying a monolithic substrate to a coating roller ; and (b) applying a liquid comprising a catalyst component onto an end surface of the monolithic substrate by contacting the end surface with the coating roller loaded with the liquid to produce a monolithic substrate having an end surface coated with the liquid, (c) drying the monolithic substrate having an end surface coated with the liquid, and then calcining the monolithic substrate . (a) conveying a monolithic substrate to a coating roller ; and (b) applying a liquid comprising a catalyst component onto an end surface of the monolithic substrate by contacting the end surface with the coating roller loaded with the liquid to produce a monolithic substrate having an end surface coated with the liquid, (c) drying the monolithic substrate having an end surface coated with the liquid, and then calcining the monolithic substrate .
A method for inspecting internal components of a compressor of a gas turbine engine , comprising: removably coupling an image recording assembly to a rotor blade of the compressor of the gas turbine engine, the image recording assembly being inserted into the compressor through a borescope hole or additional holes manufactured in the compressor ; rotating the image recording assembly around a shaft of the gas turbine engine; recording images of stationary components disposed circumferentially around the shaft, wherein the stationary components comprise stator vanes and wherein recording images of the stationary components comprises recording images using cameras of the image recording assembly , without removal of a housing of the compressor; illuminating the stationary components via a light source of the image recording assembly ; storing the images in a storage device of the image recording assembly ; characterized in that the image recording assembly includes multiple cameras oriented in different directions, wherein the number of cameras used is determined so as to obtain substantially 100% image coverage of the stator vanes disposed adjacent to the rotor blade . removably coupling an image recording assembly to a rotor blade of the compressor of the gas turbine engine, the image recording assembly being inserted into the compressor through a borescope hole or additional holes manufactured in the compressor ; rotating the image recording assembly around a shaft of the gas turbine engine; recording images of stationary components disposed circumferentially around the shaft, wherein the stationary components comprise stator vanes and wherein recording images of the stationary components comprises recording images using cameras of the image recording assembly , without removal of a housing of the compressor; illuminating the stationary components via a light source of the image recording assembly ; storing the images in a storage device of the image recording assembly ; characterized in that the image recording assembly includes multiple cameras oriented in different directions, wherein the number of cameras used is determined so as to obtain substantially 100% image coverage of the stator vanes disposed adjacent to the rotor blade .
A process for treating gaps within a component , the process comprising the steps of: capturing a digital image of a gap in a portion of a component ; measuring , at one or more points along a length of the gap , one or more features of the gap selected from a length of the gap , an inner width of the gap , an outer width of the gap , and a depth of the gap to determine gap dimensions; determining a water jet cleaning path ; selecting a water jet cleaning edge ; selecting a water jet cleaning path angle; directing a water jet toward the gap , oriented with respect to the selected cleaning edge and cleaning path angle; activating the water jet and passing the water jet along the cleaning path ; and, processing the gap to join the gap edges and seal at least a portion of the gap in the component , wherein the capturing of a digital image of all or a portion of the gap comprises utilizing an imaging modality selected from X-ray, CT and UT, and combinations thereof and wherein the determining of the cleaning path is achieved using a software program that controls the water jet. capturing a digital image of a gap in a portion of a component ; measuring , at one or more points along a length of the gap , one or more features of the gap selected from a length of the gap , an inner width of the gap , an outer width of the gap , and a depth of the gap to determine gap dimensions; determining a water jet cleaning path ; selecting a water jet cleaning edge ; selecting a water jet cleaning path angle; directing a water jet toward the gap , oriented with respect to the selected cleaning edge and cleaning path angle; activating the water jet and passing the water jet along the cleaning path ; and, processing the gap to join the gap edges and seal at least a portion of the gap in the component , wherein the capturing of a digital image of all or a portion of the gap comprises utilizing an imaging modality selected from X-ray, CT and UT, and combinations thereof and wherein the determining of the cleaning path is achieved using a software program that controls the water jet.
A method of transmitting training symbols and a broadcast channel by a transmitting device in a radio access system supporting hybrid beamforming, the method comprising: transmitting one or more training symbols in an X-th training symbol section on an X-th analog transmission beam wherein the X-th training symbol section is allocated to a first orthogonal frequency division multiplexing, OFDM, symbol corresponding to the X-th training symbol section, wherein identification information of the X-th analog transmission beam is applied to the X-th training symbol section, wherein the X-th analog transmission beam is one of N candidate analog transmission beams, wherein X and N are natural numbers; and transmitting the broadcast channel on the X-th analog transmission beam via second OFDM symbols corresponding to broadcast channel transmission on the X-th analog transmission beam, wherein the transmissions of the training symbol sections and the broadcast channel are performed N times on each of the N candidate analog transmission beams, wherein, for transmission on the X-th analog transmission beam, the corresponding first OFDM symbol is allocated after the corresponding second OFDM symbols in a same subframe, and wherein the broadcast channel transmitted on the X-th analog transmission beam is scrambled by a scrambling sequence having an initialization value determined based on the identification information of the X-th analog transmission beam and a cell identifier. transmitting one or more training symbols in an X-th training symbol section on an X-th analog transmission beam wherein the X-th training symbol section is allocated to a first orthogonal frequency division multiplexing, OFDM, symbol corresponding to the X-th training symbol section, wherein identification information of the X-th analog transmission beam is applied to the X-th training symbol section, wherein the X-th analog transmission beam is one of N candidate analog transmission beams, wherein X and N are natural numbers; and transmitting the broadcast channel on the X-th analog transmission beam via second OFDM symbols corresponding to broadcast channel transmission on the X-th analog transmission beam, wherein the transmissions of the training symbol sections and the broadcast channel are performed N times on each of the N candidate analog transmission beams, wherein, for transmission on the X-th analog transmission beam, the corresponding first OFDM symbol is allocated after the corresponding second OFDM symbols in a same subframe, and wherein the broadcast channel transmitted on the X-th analog transmission beam is scrambled by a scrambling sequence having an initialization value determined based on the identification information of the X-th analog transmission beam and a cell identifier.