mhurhangee/ep-ind-claims huggingface dataset:
A vehicle comprising: a fuselage comprising a longitudinal axis; a propulsion system coupled to the fuselage; and a pair of articulated appendages having a spanwise axis and coupled to the fuselage, wherein each one of the articulated appendages comprises a plurality of airfoil segments and is moveable between a ground configuration, in which each one of the pair of articulated appendages is configured to support the vehicle during takeoff or landing of the vehicle, and a flight configuration, in which each one of the pair of articulated appendages is configured to produce lift during flight of the vehicle, the plurality of airfoil segments of each one of the pair of articulated appendages comprising: an inboard airfoil segment coupled to the fuselage and having an inboard spanwise axis; an intermediate airfoil segment pivotally coupled with the inboard airfoil segment along a first pivot axis and having an intermediate spanwise axis; and an outboard airfoil segment pivotally coupled with the intermediate airfoil segment along a second pivot axis and having an outboard spanwise axis; characterised in that the intermediate airfoil segment is rotationally movable about the intermediate spanwise axis relative to the inboard airfoil segment. a fuselage comprising a longitudinal axis; a propulsion system coupled to the fuselage; and a pair of articulated appendages having a spanwise axis and coupled to the fuselage, wherein each one of the articulated appendages comprises a plurality of airfoil segments and is moveable between a ground configuration, in which each one of the pair of articulated appendages is configured to support the vehicle during takeoff or landing of the vehicle, and a flight configuration, in which each one of the pair of articulated appendages is configured to produce lift during flight of the vehicle, the plurality of airfoil segments of each one of the pair of articulated appendages comprising: an inboard airfoil segment coupled to the fuselage and having an inboard spanwise axis; an intermediate airfoil segment pivotally coupled with the inboard airfoil segment along a first pivot axis and having an intermediate spanwise axis; and an outboard airfoil segment pivotally coupled with the intermediate airfoil segment along a second pivot axis and having an outboard spanwise axis; characterised in that the intermediate airfoil segment is rotationally movable about the intermediate spanwise axis relative to the inboard airfoil segment.
A lightweight composite roofing support system, comprising: a longitudinally-extending core member comprising a longitudinally-extending first roof contact side comprising a longitudinally-extending first core edge and an opposed longitudinally-extending second core edge, a longitudinally-extending second side comprising a second side working surface, the second side tapering toward the first core edge at a first acute angle (α) from the first roof contact side, and a longitudinally-extending third side comprising a third side working surface, the third side tapering toward the second core edge at a second acute angle (β) from the first roof contact side that is different than the first acute angle (α), the core member comprising a core material and a wedge-shaped lateral cross-section, the first roof contact side comprising a base attachment structure configured for selective attachment to and detachment from a mating core attachment structure of a base member, characterized in that the lightweight composite roofing support system further comprises: a laterally-extending first core end comprising an integral first recess defining a first handle or grip, and an opposed laterally-extending second core end comprising an integral second recess defining a second handle or grip. a longitudinally-extending core member comprising a longitudinally-extending first roof contact side comprising a longitudinally-extending first core edge and an opposed longitudinally-extending second core edge, a longitudinally-extending second side comprising a second side working surface, the second side tapering toward the first core edge at a first acute angle (α) from the first roof contact side, and a longitudinally-extending third side comprising a third side working surface, the third side tapering toward the second core edge at a second acute angle (β) from the first roof contact side that is different than the first acute angle (α), the core member comprising a core material and a wedge-shaped lateral cross-section, the first roof contact side comprising a base attachment structure configured for selective attachment to and detachment from a mating core attachment structure of a base member, characterized in that the lightweight composite roofing support system further comprises: a laterally-extending first core end comprising an integral first recess defining a first handle or grip, and an opposed laterally-extending second core end comprising an integral second recess defining a second handle or grip.
A method for manufacturing a security element, for security papers, value documents and the like, that includes a substrate foil having a cover layer that comprises, in the form of patterns, characters or codes, coating-free regions that are perceptible especially in transmitted light, the security element including a thin-film element that has a color-shift effect and that comprises a reflection layer, an absorber layer and a dielectric spacing layer arranged between the reflection layer and the absorber layer, and the absorber layer assumes the role of the cover layer, and the method comprising the following method steps: - determining a laser wavelength for introducing the coating-free regions; - providing a substrate foil having opposing first and second main surfaces; - applying to a first main surface of the substrate foil a cover layer that absorbs the determined wavelength; - applying to the first main surface of the substrate foil a mask that defines the shape of the desired coating-free regions; and - impinging on the masked main surface of the substrate foil with laser radiation of the determined wavelength to locally ablate the absorbent cover layer of the first main surface; the mask not being removed after the laser impingement and forming part of the security element, and the mask being formed by a metal layer, and the absorber layer of the thin-film element being applied as the cover layer, and the reflection layer of the thin-film element being applied as the mask. - determining a laser wavelength for introducing the coating-free regions; - providing a substrate foil having opposing first and second main surfaces; - applying to a first main surface of the substrate foil a cover layer that absorbs the determined wavelength; - applying to the first main surface of the substrate foil a mask that defines the shape of the desired coating-free regions; and - impinging on the masked main surface of the substrate foil with laser radiation of the determined wavelength to locally ablate the absorbent cover layer of the first main surface; the mask not being removed after the laser impingement and forming part of the security element, and the mask being formed by a metal layer, and the absorber layer of the thin-film element being applied as the cover layer, and the reflection layer of the thin-film element being applied as the mask.
A method for vehicle function control, applied to a vehicle, comprising: in response to determining that a distance between a vehicle and a terminal is within a bluetooth low energy communication distance and the terminal has a digital vehicle key of the vehicle, establishing (S11, S21) a BLE connection between the vehicle and the terminal and performing a BLE ranging; and when a BLE ranging result meets a preset condition, controlling (S12, S22) the vehicle to unlock a door lock; characterized in that, the digital vehicle key is activated in advance by: in response to detecting that the terminal in which the digital vehicle key has been created is located in the vehicle, writing digital vehicle key information of the vehicle into the created digital vehicle key in the terminal to activate the created digital vehicle key in the terminal. in response to determining that a distance between a vehicle and a terminal is within a bluetooth low energy communication distance and the terminal has a digital vehicle key of the vehicle, establishing (S11, S21) a BLE connection between the vehicle and the terminal and performing a BLE ranging; and when a BLE ranging result meets a preset condition, controlling (S12, S22) the vehicle to unlock a door lock; characterized in that, the digital vehicle key is activated in advance by: in response to detecting that the terminal in which the digital vehicle key has been created is located in the vehicle, writing digital vehicle key information of the vehicle into the created digital vehicle key in the terminal to activate the created digital vehicle key in the terminal.
A method of enabling multiple different operating systems to run concurrently on the same computer, comprising: selecting a first operating system to have a high priority; selecting at least one second operating system to have a lower priority than the first operating system; and providing a common program arranged to switch between and control said operating systems; characterised in that switching between said operating systems includes invoking the common program using exception vectors. selecting a first operating system to have a high priority; selecting at least one second operating system to have a lower priority than the first operating system; and providing a common program arranged to switch between and control said operating systems; characterised in that switching between said operating systems includes invoking the common program using exception vectors.
An atomizing device, comprising: a housing; an end lid disposed at an end of the housing, and hermitically connected with the housing, the end lid comprising a first liquid filling hole; a cover disposed to cover around the end lid; and a first conducting groove disposed to extend circumferentially at a selective one of an outer wall of the end lid and an inner wall of the cover, a second conducting groove spatially communicated with the first conducting groove and disposed at the selective one of the outer wall of the end lid and the inner wall of the cover same as the first conducting groove, and an included angle being formed between the first conducting groove and the second conducting groove, a sliding piece disposed at the rest of the outer wall of the end lid and the inner wall of the cover to mate with the first conducting groove and the second conducting groove; wherein the sliding piece is disposed to move in the first conducting groove and the second conducting groove, the sliding piece is situated in the second conducting groove to prevent the cover from rotating relative to the end lid, and to enable the cover to close the first liquid filling hole, when the sliding piece is situated in the first conducting groove, the cove is enabled to rotate circumferentially relative to the end lid to open the first liquid filling hole. a housing; an end lid disposed at an end of the housing, and hermitically connected with the housing, the end lid comprising a first liquid filling hole; a cover disposed to cover around the end lid; and a first conducting groove disposed to extend circumferentially at a selective one of an outer wall of the end lid and an inner wall of the cover, a second conducting groove spatially communicated with the first conducting groove and disposed at the selective one of the outer wall of the end lid and the inner wall of the cover same as the first conducting groove, and an included angle being formed between the first conducting groove and the second conducting groove, a sliding piece disposed at the rest of the outer wall of the end lid and the inner wall of the cover to mate with the first conducting groove and the second conducting groove; wherein the sliding piece is disposed to move in the first conducting groove and the second conducting groove, the sliding piece is situated in the second conducting groove to prevent the cover from rotating relative to the end lid, and to enable the cover to close the first liquid filling hole, when the sliding piece is situated in the first conducting groove, the cove is enabled to rotate circumferentially relative to the end lid to open the first liquid filling hole.
A method of producing a sound field in the ears of a human user, the method comprising: performing, by a media delivery computer configured to produce the sound field in the ears of the human user, a convolution operation on an ambisonic portion of the sound field being output to the ears of the human user over a set of ambisonic sound channels with a head-related transfer function, HRTF, to produce a rendered ambisonic portion of the sound field in the ears of the human listener over the set of ambisonic sound channels; receiving (i) a set of multiple stereo tracks, each of the set of stereo tracks including audio data that, when processed by processing circuitry of the media delivery computer, output a portion of the sound field to the ears of the human user over a corresponding pair of stereo sound channels and (ii) electronic data defining a set of multiple events, each of the set of events having an identifier identifying a respective stereo track of the set of stereo tracks; receiving a message indicating that an event of the set of events has occurred; and in response to receiving the message, performing a track playing operation to cause the stereo track identified by the identifier of the event to output a stereo portion of the sound field over the pair of stereo sound channels to which the identified stereo sound source corresponds, the rendered ambisonic portion of the sound field and the stereo portion of the sound field being combined in the ears of the human user over the set of ambisonic sound channels and the pair of stereo sound channels. performing, by a media delivery computer configured to produce the sound field in the ears of the human user, a convolution operation on an ambisonic portion of the sound field being output to the ears of the human user over a set of ambisonic sound channels with a head-related transfer function, HRTF, to produce a rendered ambisonic portion of the sound field in the ears of the human listener over the set of ambisonic sound channels; receiving (i) a set of multiple stereo tracks, each of the set of stereo tracks including audio data that, when processed by processing circuitry of the media delivery computer, output a portion of the sound field to the ears of the human user over a corresponding pair of stereo sound channels and (ii) electronic data defining a set of multiple events, each of the set of events having an identifier identifying a respective stereo track of the set of stereo tracks; receiving a message indicating that an event of the set of events has occurred; and in response to receiving the message, performing a track playing operation to cause the stereo track identified by the identifier of the event to output a stereo portion of the sound field over the pair of stereo sound channels to which the identified stereo sound source corresponds, the rendered ambisonic portion of the sound field and the stereo portion of the sound field being combined in the ears of the human user over the set of ambisonic sound channels and the pair of stereo sound channels.
A spatially addressable adjustable optical component, comprising: a first electrode having a first sheet resistance along a first direction and a second sheet resistance that is more than the first sheet resistance along a second direction that is orthogonal to the first direction; a second electrode having a third sheet resistance along the first direction and a fourth sheet resistance that is less than the third sheet resistance along the second direction; and a layer of electrically adjustable optical material between the first and second electrodes (96, 106). a first electrode having a first sheet resistance along a first direction and a second sheet resistance that is more than the first sheet resistance along a second direction that is orthogonal to the first direction; a second electrode having a third sheet resistance along the first direction and a fourth sheet resistance that is less than the third sheet resistance along the second direction; and a layer of electrically adjustable optical material between the first and second electrodes (96, 106).
A tamper evident panel for a modular wall that defines one or more individual spaces (110, 120) in a building, the tamper evident panel providing an alert in response to unauthorized removal of the tamper evident panel from a protective wall module, the tamper evident panel comprising: an outward facing major surface; an inward facing major surface opposite to the outward facing major surface; one or more mounting connectors coupled to or integrated with the inward facing major surface, the one or more mounting connectors being sized and configured to removably couple the tamper evident panel to a frame of the protective wall module; a breakaway portion defined by a breakaway contour (172a, 172b, 172d) in the inward facing major surface, the breakaway portion being configured to couple to the frame of the protective wall module, and the breakaway portion being configured to break away from the rest of the tamper evident panel when the tamper evident panel is removed from the frame of the protective wall module and while the breakaway portion is coupled to the frame of the protective wall module. an outward facing major surface; an inward facing major surface opposite to the outward facing major surface; one or more mounting connectors coupled to or integrated with the inward facing major surface, the one or more mounting connectors being sized and configured to removably couple the tamper evident panel to a frame of the protective wall module; a breakaway portion defined by a breakaway contour (172a, 172b, 172d) in the inward facing major surface, the breakaway portion being configured to couple to the frame of the protective wall module, and the breakaway portion being configured to break away from the rest of the tamper evident panel when the tamper evident panel is removed from the frame of the protective wall module and while the breakaway portion is coupled to the frame of the protective wall module.
A method of receiving a signal at a user equipment, UE, in a multi-input multi-output, MIMO, wireless communication system, the method comprising: receiving channel information related to a specific position to which the UE moves to, from a base station; performing channel estimation at the specific position; and determining a transmission and reception scheme at the specific position based on the received channel information and a result of performing channel estimation; and feeding the channel estimation information of the UE back to the base station if a difference between the received channel information and the channel estimation information is outside a predetermined error range. receiving channel information related to a specific position to which the UE moves to, from a base station; performing channel estimation at the specific position; and determining a transmission and reception scheme at the specific position based on the received channel information and a result of performing channel estimation; and feeding the channel estimation information of the UE back to the base station if a difference between the received channel information and the channel estimation information is outside a predetermined error range.
A method for operating a pitch-controlled wind turbine having at least one rotor blade that is adjustable about its longitudinal axis, and a generator, wherein a setpoint for the generator torque is set depending on a rotary speed (n) of the generator or rotor, wherein a transition point (n 3, M 3) is provided at which switching occurs from partial load operation to full load operation; characterized by the steps: - determination of a value for an air density ( p), - adjustment of a blade pitch angle for partial load operation as a preliminary pitch angle (φ pre) starting at a preliminary pitch rotary speed (n 4) that is less than the rotary speed (n 3) at the transition point, - wherein the value of the preliminary pitch angle (φ pre) depends on the calculated value of the air density ( p) such that, when the air density ( p) is low, a greater preliminary pitch angle (φ pre) is set than when the air density ( p) is greater. - determination of a value for an air density ( p), - adjustment of a blade pitch angle for partial load operation as a preliminary pitch angle (φ pre) starting at a preliminary pitch rotary speed (n 4) that is less than the rotary speed (n 3) at the transition point, - wherein the value of the preliminary pitch angle (φ pre) depends on the calculated value of the air density ( p) such that, when the air density ( p) is low, a greater preliminary pitch angle (φ pre) is set than when the air density ( p) is greater.
A method for enhancing the metabolic function of liver cells in culture, comprising: culturing liver cells in a composition, wherein the composition comprises a compound having a structure of formula I: wherein the compound is LFM-A13, wherein the liver cells comprise hepatocytes, immortalized cells having hepatic function derived from a hepatocyte or a cell line having hepatic function derived from a hepatocyte and, wherein the compound is present in an amount effective to enhance levels of more than one drug metabolism enzyme in the cultured liver cells relative to liver cells cultured in a substantially similar medium but lacking the compound according to formula I.
A device for determining an optical power of an optical test system, wherein the device comprises an optical object generator assembly for generating an optical object along an optical axis; a support for the optical test system, such that when the optical test system is located on the support, said optical test system is aligned with the optical axis, and when the optical object is generated, the optical test system projects an initial optical image of the optical object; a digital image detector; a deflector assembly located between the optical object generator assembly and the digital image detector, characterized in that said deflector assembly is intended to produce a lateral displacement at least in one part of the initial optical image, thus simultaneously generating a displaced optical image and a reference optical image in one digital image, the digital image detector being located to capture the displaced optical image and the reference optical image in at least one digital image containing data on the lateral displacement; and processing means for determining the optical power of the optical test system from the lateral displacement and the reference data contained in the digital image. an optical object generator assembly for generating an optical object along an optical axis; a support for the optical test system, such that when the optical test system is located on the support, said optical test system is aligned with the optical axis, and when the optical object is generated, the optical test system projects an initial optical image of the optical object; a digital image detector; a deflector assembly located between the optical object generator assembly and the digital image detector, characterized in that said deflector assembly is intended to produce a lateral displacement at least in one part of the initial optical image, thus simultaneously generating a displaced optical image and a reference optical image in one digital image, the digital image detector being located to capture the displaced optical image and the reference optical image in at least one digital image containing data on the lateral displacement; and processing means for determining the optical power of the optical test system from the lateral displacement and the reference data contained in the digital image.