mhurhangee/ep-ind-claims huggingface dataset:
An indication method, wherein the method comprises: generating at least two pieces of indication information, wherein each piece of indication information is used to indicate a maximum value of an RI that a network device of at least two network devices associated with the indication information allows a terminal to report, and the at least two network devices associated with the at least two pieces of indication information cooperate to provide a service for the terminal, wherein a sum of maximum values of RIs that the at least two network devices allow the terminal to report is less than or equal to a maximum quantity of transmission layers that is supported by the terminal; and sending the at least two pieces of indication information; wherein the generating at least two pieces of indication information comprises: setting the maximum value of the RI of each network device based on an uneven distribution rule according to which when a first one of the at least two network devices receives a sounding reference signal at a higher power than a second one of the at least two network devices receives a sounding reference signal, the maximum value of the RI associated with the first one of the at least two network devices is set to be higher than the maximum value of the RI associated with a second one of the at least two network devices. generating at least two pieces of indication information, wherein each piece of indication information is used to indicate a maximum value of an RI that a network device of at least two network devices associated with the indication information allows a terminal to report, and the at least two network devices associated with the at least two pieces of indication information cooperate to provide a service for the terminal, wherein a sum of maximum values of RIs that the at least two network devices allow the terminal to report is less than or equal to a maximum quantity of transmission layers that is supported by the terminal; and sending the at least two pieces of indication information; wherein the generating at least two pieces of indication information comprises: setting the maximum value of the RI of each network device based on an uneven distribution rule according to which when a first one of the at least two network devices receives a sounding reference signal at a higher power than a second one of the at least two network devices receives a sounding reference signal, the maximum value of the RI associated with the first one of the at least two network devices is set to be higher than the maximum value of the RI associated with a second one of the at least two network devices.
A biometric method, comprising: obtaining a first image of a first eye region of a person and a second image of a second eye region of the person, wherein the first eye region contains one of the eyes of the person and the second eye region contains the other eye of the person; mirroring the second image; dividing each of the non-mirrored first image and the mirrored second image into N partial images; for each of the N partial images, deriving a displacement vector between the N partial images of the first image and the N partial images of the second image, and deriving a displacement vector field therefrom, displacing each of the N partial images of one of the images relative to the N partial images of the other image so that a defined point of each eye region lies in each of the images on the same relative position and that, taking into account the displacement vector field, the non-mirrored first image and the mirrored second image become congruent or substantially congruent; and combining the non-mirrored first image and the mirrored second image in the position space and/or in the feature space, in order to create a template of an overlaid image. obtaining a first image of a first eye region of a person and a second image of a second eye region of the person, wherein the first eye region contains one of the eyes of the person and the second eye region contains the other eye of the person; mirroring the second image; dividing each of the non-mirrored first image and the mirrored second image into N partial images; for each of the N partial images, deriving a displacement vector between the N partial images of the first image and the N partial images of the second image, and deriving a displacement vector field therefrom, displacing each of the N partial images of one of the images relative to the N partial images of the other image so that a defined point of each eye region lies in each of the images on the same relative position and that, taking into account the displacement vector field, the non-mirrored first image and the mirrored second image become congruent or substantially congruent; and combining the non-mirrored first image and the mirrored second image in the position space and/or in the feature space, in order to create a template of an overlaid image.
A box covering apparatus for the production of covered cardboard boxes, comprising: moulding means reciprocating in a moulding direction, adapted to be inserted inside a box having side walls erected from a base bottom but not previously joined at the corners, and to move said box along said moulding direction; first and second fixed folding means (2, 6), arranged in sequence along said moulding direction and adapted to cooperate with said moulding means to fold in sequence first and second portions of a pre-glued covering sheet arranged under the box over respective side walls of the same box; scraping means arranged between said first and second fixed folding means (2, 6) along said moulding direction, adapted to move forward and retract along a crosswise direction to and from an active position in order to fold respective corner-wrapping flaps of said first portions around said corners; and stabilizing means for stabilizing at least some of said walls of the box with respect to said moulding means, characterized in that said stabilizing means comprise thrusting means, arranged in association with said scraping means and movable between an inactive position, in which they clear a region swept by said second portions (B4, B5) of said sheet in a stretched out condition before folding, and an active position in which by entering sideways with respect to said moulding direction they are adapted to thrust at least some of said side walls of the box against said moulding means during an active phase of said scraping means, exerting a thrust over an area of the same wall which is not affected by said scraping means in said active position, and drive means adapted to drive said thrusting means between said positions.
A fiber-optic sensor system (100, 200), the fiber-optic system (100, 200) comprising: a structure having a fiber-optic cable (104, 204) operatively connected thereto, the structure being a component of an aircraft; characterized by a network controller (106, 206) having an interrogator (108, 208) operatively connected to the fiber-optic cable (104, 204) adapted to receive optical energy indicative of a characteristic of the structure therefrom and convert optical energy to electrical energy and electrical energy to optical energy for data communication; a sensing element inserted within the fiber-optic cable (104, 204) to modify optical energy in a way that is indicative of the characteristic of the structure and transmit the modified optical energy to the network controller (106, 206); and at least one data source (116, 216), wherein the data source (116, 216) is an avionics system adapted to provide data through the fiber-optic cable (104, 204) to the network controller (106, 206) and to receive data through the fiber-optic cable (104, 204) from the network controller (106, 206), wherein the avionics system includes a rotor state feedback system and the rotor state feedback system includes a separate fiber-optic sensor and a communication system. a structure having a fiber-optic cable (104, 204) operatively connected thereto, the structure being a component of an aircraft; characterized by a network controller (106, 206) having an interrogator (108, 208) operatively connected to the fiber-optic cable (104, 204) adapted to receive optical energy indicative of a characteristic of the structure therefrom and convert optical energy to electrical energy and electrical energy to optical energy for data communication; a sensing element inserted within the fiber-optic cable (104, 204) to modify optical energy in a way that is indicative of the characteristic of the structure and transmit the modified optical energy to the network controller (106, 206); and at least one data source (116, 216), wherein the data source (116, 216) is an avionics system adapted to provide data through the fiber-optic cable (104, 204) to the network controller (106, 206) and to receive data through the fiber-optic cable (104, 204) from the network controller (106, 206), wherein the avionics system includes a rotor state feedback system and the rotor state feedback system includes a separate fiber-optic sensor and a communication system.
An agent for use in the treatment of diseases of the upper gastrointestinal tracts, autoimmune diseases and acute coronary diseases, wherein the diseases are caused by Helicobacter pylori strains, characterized in that the agent is mineral-rich water derived from deep sea water, and contains as minerals at least one or more of magnesium, calcium, sodium and potassium, wherein the mineral content per kilogram is 5,900 mg or more.
A dirt cap arrangement, having a semitrailer and a towing vehicle and having a kingpin hollowed out with a bore, for closing the kingpin, hollowed out with a bore, for an automatic fifth wheel coupling, which kingpin is arranged at the underside, serving as a counter bearing of a fifth wheel plate of the towing vehicle, of the semitrailer, wherein - a dirt cap device is arranged so as to rest against the underside of the semitrailer and so as to be rotatable about the kingpin, - this dirt cap device has a dirt cap for covering the bore provided in the kingpin and - the dirt cap is designed at the dirt cap device to be displaceable during the coupling procedure from an initial position covering the bore in the kingpin into a coupling position freeing the bore, characterized in that for the rotatable mounting of the dirt cap device about the kingpin there is provided a mounting disc, in the form of a circular ring, with encircling bearing seat, which mounting disc is secured to the underside of the semitrailer in a manner coaxial with the kingpin, wherein the encircling bearing seat at the mounting disc in the form of a circular ring has a first slide bearing edge at its inner circular opening and a second slide bearing edge at the outer edge, in which edges there engages the dirt cap device. - a dirt cap device is arranged so as to rest against the underside of the semitrailer and so as to be rotatable about the kingpin, - this dirt cap device has a dirt cap for covering the bore provided in the kingpin and - the dirt cap is designed at the dirt cap device to be displaceable during the coupling procedure from an initial position covering the bore in the kingpin into a coupling position freeing the bore,
A method employed by a computing device comprising: receiving (702, 704) sensor data captured by one or more sensors of a computing device, the sensor data comprising a first image of the real-world environment and first mesh data derived from a depth scan, the data captured from a first perspective; receiving input data indicating a second perspective; generating a three-dimensional, 3D, representation of the real-world environment from the first image and the first mesh data; receiving a second image and second mesh data captured by a camera, wherein the camera is included in the first image, wherein a position of the camera is known, wherein a past first image and past first mesh data associated with the position of the camera, when the camera was not present, is available; integrating the second image and second mesh data into the 3D representation; integrating a portion of the past first image that includes the position of the camera and a portion of the past first mesh data that includes the position of the camera into the three-dimensional representation, so that a rendering of the three-dimensional representation does not include the camera; and rendering the first image in a user interface, UI, from the second perspective by rendering the three-dimensional representation of the real-world environment from the second perspective. receiving (702, 704) sensor data captured by one or more sensors of a computing device, the sensor data comprising a first image of the real-world environment and first mesh data derived from a depth scan, the data captured from a first perspective; receiving input data indicating a second perspective; generating a three-dimensional, 3D, representation of the real-world environment from the first image and the first mesh data; receiving a second image and second mesh data captured by a camera, wherein the camera is included in the first image, wherein a position of the camera is known, wherein a past first image and past first mesh data associated with the position of the camera, when the camera was not present, is available; integrating the second image and second mesh data into the 3D representation; integrating a portion of the past first image that includes the position of the camera and a portion of the past first mesh data that includes the position of the camera into the three-dimensional representation, so that a rendering of the three-dimensional representation does not include the camera; and rendering the first image in a user interface, UI, from the second perspective by rendering the three-dimensional representation of the real-world environment from the second perspective.
A vehicle charging port arrangement comprising: a vehicle body including a vehicle cabin and a vehicle front end portion having an upper surface, arranged on a frontward end of the vehicle and extend along a withside direction of the vehicle and can include various conventional components such as a hood, a pair of fenders, a front bumper, a front end module, a front fascia panel; an electric charging port (3, 5) arranged on the vehicle front end portion and connected to the vehicle drive battery, wherein the electric charging port (3, 5) being configured to receive an electric charging connector (65, 67); a charging-in-progress indicator is constituted by a charging port lid that is provided on the frontward end of the vehicle for selectively covering the electric charging port (3,5) and has an exterior surface that is flush with the exterior surface of the vehicle body that surrounds the charging port lid and is movably mounted to the vehicle front end portion to move in a vertical direction between a charging port access position that provides access to the electric charging port (3, 5) and a charging port blocking position that prevents access to the electric charging port (3, 5), characterized in that the charging-in-progress indicator being visible from inside the vehicle cabin by a seated passenger who is looking over the upper surface of the vehicle front end portion while the charging-in-progress indicator is in the charging port access position. a vehicle body including a vehicle cabin and a vehicle front end portion having an upper surface, arranged on a frontward end of the vehicle and extend along a withside direction of the vehicle and can include various conventional components such as a hood, a pair of fenders, a front bumper, a front end module, a front fascia panel; an electric charging port (3, 5) arranged on the vehicle front end portion and connected to the vehicle drive battery, wherein the electric charging port (3, 5) being configured to receive an electric charging connector (65, 67); a charging-in-progress indicator is constituted by a charging port lid that is provided on the frontward end of the vehicle for selectively covering the electric charging port (3,5) and has an exterior surface that is flush with the exterior surface of the vehicle body that surrounds the charging port lid and is movably mounted to the vehicle front end portion to move in a vertical direction between a charging port access position that provides access to the electric charging port (3, 5) and a charging port blocking position that prevents access to the electric charging port (3, 5), characterized in that the charging-in-progress indicator being visible from inside the vehicle cabin by a seated passenger who is looking over the upper surface of the vehicle front end portion while the charging-in-progress indicator is in the charging port access position.
A system for reducing aircraft lift during landing, the system comprising: a speed brake control system; a speed brake control interface coupled to the speed brake control system for arming the speed brake; a processor coupled to an avionics suite and coupled to the speed brake control system, and configured to determine when the speed brake is not armed at a predetermined time prior to landing; and an alert generator coupled to the speed brake control system for generating an alert when the speed brake is not armed at the predetermined time prior to landing. a speed brake control system; a speed brake control interface coupled to the speed brake control system for arming the speed brake; a processor coupled to an avionics suite and coupled to the speed brake control system, and configured to determine when the speed brake is not armed at a predetermined time prior to landing; and an alert generator coupled to the speed brake control system for generating an alert when the speed brake is not armed at the predetermined time prior to landing.
Modular sandwich panel with sealing elements, said modular sandwich panel comprising a lower plate, a cover, an insulating core in between said lower plate and said cover, an internal joint gasket, a longitudinal joint gasket on an outer side of said modular sandwich panel, characterised in that said modular sandwich panel further comprises a male corner-gasket and a female corner-gasket, each being inserted in a corner of the outer cover, said female corner-gasket having a cavity for receiving a part of the male corner-gasket of an adjacent modular sandwich panel, wherein a membrane is provided in the cavity of said female corner-gasket, and wherein the male corner-gasket and the female corner-gasket are each provided with a flap (603, 703)
Method for labelling a conical plastics container, and banderole provided for this purpose which, in the form of a label, decorative sleeve or similar information carrier, is transferred from a feed strip, which can in particular be advanced intermittently, onto a feed die and is displaced therefrom by means of an advancement movement into a particular mould cavity of a deep-drawing assembly (6, 7, 8, 9), such that, during a subsequent in-mould processing phase, the single label and the plastics container to be moulded are respectively brought together in the common mould cavity, wherein, on at least one feed strip, respective subportions (T, T') are preformed so as to have a contour in the shape of an annulus sector in regions, and said feed strip is transferred intermittently onto a conical feed die, at least one isolating cut is carried out on the subportions (T, T') forming a connected series, and a subportion separated thereby is conveyed into the mould cavity in each case as a single annulus sector-shaped label, and the subportion that is connected in each case to the feed strip as a front end thereof is displaced towards the feed die comprising a conical peripheral contour at least in regions into a receiving position and wherein the front end of the feed strip or the single annulus sector-shaped, separated label is tangentially applied (distance L) to the conical peripheral part of the feed die, is then displaced in an advancement direction inclined (inclination N) to an application plane (M') on the feed die and is thereby guided along the conical peripheral part.
A method for manufacturing a lithiated material on a substrate, said lithiated material comprising multiple thin layers and said method comprising the following steps: a) placing a substrate made of a material intended to be used in a battery in a reaction chamber, c1) at least one atomic layer deposition of a precursor of a first metal, selected from among nickel, manganese, cobalt, chromium, lanthanum, niobium, vanadium, iron, titanium and aluminum, through said reaction chamber, on at least part of a surface of said substrate, c2) at least one purge of said reaction chamber, c3) at least one diffusion of a first oxidizing species through said reaction chamber to obtain a thin layer of an oxide of the first metal, c4) at least one purge of said reaction chamber f1) at least one atomic layer deposition of a lithium precursor through said reaction chamber on top of said thin layer of an oxide of a first metal to form a lithiated thin layer, f2) at least one purge of said reaction chamber, said method being characterized in that it further comprises, after step f2), a crystallization annealing step g) at a temperature of between 600°C and 800°C for a period of between 1 and 4 hours to obtain a lithiated material. a) placing a substrate made of a material intended to be used in a battery in a reaction chamber, c1) at least one atomic layer deposition of a precursor of a first metal, selected from among nickel, manganese, cobalt, chromium, lanthanum, niobium, vanadium, iron, titanium and aluminum, through said reaction chamber, on at least part of a surface of said substrate, c2) at least one purge of said reaction chamber, c3) at least one diffusion of a first oxidizing species through said reaction chamber to obtain a thin layer of an oxide of the first metal, c4) at least one purge of said reaction chamber f1) at least one atomic layer deposition of a lithium precursor through said reaction chamber on top of said thin layer of an oxide of a first metal to form a lithiated thin layer, f2) at least one purge of said reaction chamber, said method being characterized in that it further comprises, after step f2), a crystallization annealing step g) at a temperature of between 600°C and 800°C for a period of between 1 and 4 hours to obtain a lithiated material.
A method for stabilizing amplitude of a mechanical vibration of a mechanical resonator in a microelectromechanical sensor device, the method comprising: - exciting the mechanical resonator into the mechanical vibration with an oscillating excitation force by an input transducer, - driving the input transducer with an input AC voltage having an essentially constant amplitude, wherein the driving with the input AC voltage occurs at a frequency that deviates from the resonant frequency of the mechanical resonator by a first frequency difference (Δf), characterized by: - changing the first frequency difference (Δf) to counteract variations of the amplitude of the mechanical vibration. - exciting the mechanical resonator into the mechanical vibration with an oscillating excitation force by an input transducer, - driving the input transducer with an input AC voltage having an essentially constant amplitude, wherein the driving with the input AC voltage occurs at a frequency that deviates from the resonant frequency of the mechanical resonator by a first frequency difference (Δf), - changing the first frequency difference (Δf) to counteract variations of the amplitude of the mechanical vibration.