mhurhangee/ep-ind-claims huggingface dataset:
A video processing method, comprising: receiving a scalable bitstream comprising a base layer and an enhancement layer, wherein the base layer comprises a picture and is associated with a first color space that covers a first volume of colors, wherein the enhancement layer is associated with a second color space that covers a broader volume of colors compared to the first volume of colors, wherein the picture comprises at least a first component and a second component, wherein, when the first component is a luma component, the second component is either a first chroma component (Cr) or a second chroma component (Cb), wherein, when the first component is the first chroma component (Cr) or the second chroma component (Cb), the second component is the luma component, and wherein sampling locations of the first component and sampling locations of the second component are misaligned; interpolating, for each sampling location of the second component that misaligns with the sampling location of the first component, two or four values of the first component to determine an interpolated value of the first component at the sampling location of the second component, thereby aligning the sampling locations of the first component with the sampling locations of the second component, wherein the interpolation is based on the sampling location of the second component at which the interpolated value of the first component is determined, wherein interpolated values of the first component are associated with the first color space; and converting, for each sampling location of the second component, the value of the second component to the second color space based on a 3-dimensional look up table and the interpolated value of the first component. wherein the picture comprises at least a first component and a second component, wherein, when the first component is a luma component, the second component is either a first chroma component (Cr) or a second chroma component (Cb), wherein, when the first component is the first chroma component (Cr) or the second chroma component (Cb), the second component is the luma component, and wherein sampling locations of the first component and sampling locations of the second component are misaligned; interpolating, for each sampling location of the second component that misaligns with the sampling location of the first component, two or four values of the first component to determine an interpolated value of the first component at the sampling location of the second component, thereby aligning the sampling locations of the first component with the sampling locations of the second component, wherein the interpolation is based on the sampling location of the second component at which the interpolated value of the first component is determined, wherein interpolated values of the first component are associated with the first color space; and converting, for each sampling location of the second component, the value of the second component to the second color space based on a 3-dimensional look up table and the interpolated value of the first component.
Motor vehicle headlight with a light source, a polarizing beam splitter which is arranged in a light beam emanating from the light source and which splits the light incident from the light source into a first partial beam and a second partial beam, wherein the light of the first partial beam has a first polarization direction and has a first main direction of propagation, and wherein the light of the second partial beam has a second polarization direction and a second main direction of propagation, and with a first reflective liquid crystal matrix element region, whose influence on the polarization direction of the light reflected thereon is controllable, and with a second reflective liquid crystal matrix element region whose influence on the polarization direction of the light reflected thereon is controllable, characterized in that that the first liquid crystal matrix element region is arranged in the first partial beam to reflect light incident from the beam splitter back to the beam splitter, and wherein the second liquid crystal matrix element region is arranged in the second partial beam to reflect light incident from the beam splitter back to the beam splitter, and wherein the two liquid crystal matrix element regions (28, 30) are aligned parallel to each other and arranged in the same plane, and a deflection mirror is arranged between the second liquid crystal matrix element region and the beam splitter, and wherein the distances of the two liquid crystal matrix element regions and from the projection optics 32 are different from one another and a beam splitter-sided focal point of the projection optics is closer to one of the two liquid crystal matrix element regions, than to the respective other liquid crystal matrix element region,, so that as a consequence different object widths and thus also slightly different magnification factors result for the two liquid crystal matrix element regions, in the image produced by the projection optics, wherein that liquid crystal matrix element region which is imaged into the illumination zone with the greater magnification factor is reduced by correspondingly controlling its outer pixels on the liquid crystal matrix element region.
A method of acquiring shear wave elastography measurements of anisotropic tissue, the method comprising: acquiring initial measurements from the anisotropic tissue by transmitting ultrasound beams toward the anisotropic tissue at a plurality of different angles with respect to an orientation of the anisotropic tissue; determining a first imaging plane at the angle associated with a maximum or a minimum value of the initial acoustic measurements, wherein the maximum value indicates a first orientation to a structure of the anisotropic tissue and the minimum value indicates a second orientation to the structure of the anisotropic tissue; determining a second imaging plane; generating a first shear wave at an intersection of the first imaging plane and the second imaging plane; acquiring a first shear wave elastography measurement by tracking the first shear wave propagation along the first imaging plane; generating a second shear wave at the intersection of the first imaging plane and the second imaging plane; acquiring a second shear wave elastography measurement by tracking the second shear wave propagation along the second imaging plane; and generating a composite shear wave elastography measurement for the anisotropic tissue at the intersection of the first imaging plane and the second imaging plane based on the first and second shear wave elastography measurements. acquiring initial measurements from the anisotropic tissue by transmitting ultrasound beams toward the anisotropic tissue at a plurality of different angles with respect to an orientation of the anisotropic tissue; determining a first imaging plane at the angle associated with a maximum or a minimum value of the initial acoustic measurements, wherein the maximum value indicates a first orientation to a structure of the anisotropic tissue and the minimum value indicates a second orientation to the structure of the anisotropic tissue; determining a second imaging plane; generating a first shear wave at an intersection of the first imaging plane and the second imaging plane; acquiring a first shear wave elastography measurement by tracking the first shear wave propagation along the first imaging plane; generating a second shear wave at the intersection of the first imaging plane and the second imaging plane; acquiring a second shear wave elastography measurement by tracking the second shear wave propagation along the second imaging plane; and generating a composite shear wave elastography measurement for the anisotropic tissue at the intersection of the first imaging plane and the second imaging plane based on the first and second shear wave elastography measurements.
An inkjet recording device, comprising: an inkjet head; a carriage mounted with the inkjet head; at least one of a setter and a detector, wherein the inkjet recording device is configured such that at least one of a speed and an acceleration of the carriage is set by the setter for each position of the carriage or detected by the detector for each pixel of an image to be formed; an obtainer that is a controller configured to obtain drive cycle dependency information on a droplet speed of ink discharged from the inkjet head by obtaining a droplet speed and drive cycle characteristics table from a storage of the inkjet recording device; and a corrector that is configured to correct a control parameter during discharge of ink from the inkjet head, based on at least one of the speed and the acceleration of the carriage, and on the drive cycle dependency information on the droplet speed. an inkjet head; a carriage mounted with the inkjet head; at least one of a setter and a detector, wherein the inkjet recording device is configured such that at least one of a speed and an acceleration of the carriage is set by the setter for each position of the carriage or detected by the detector for each pixel of an image to be formed; an obtainer that is a controller configured to obtain drive cycle dependency information on a droplet speed of ink discharged from the inkjet head by obtaining a droplet speed and drive cycle characteristics table from a storage of the inkjet recording device; and a corrector that is configured to correct a control parameter during discharge of ink from the inkjet head, based on at least one of the speed and the acceleration of the carriage, and on the drive cycle dependency information on the droplet speed.
A module for providing a fluid curtain, such as an air curtain, between different environments, the module forming a flow channel, the module comprising - an inlet for introducing an air flow through said flow channel of the module, - an outlet for introducing said air curtain, - honeycomb structure before the outlet in order to laminarize the flow for the fluid curtain, where said honeycomb structure comprises plurality of parallel conduits for guiding the flow and suppressing instabilities in the flow downstream of it, and - a mechanical structure before the outlet, characterized in that - said mechanical structure before the outlet is an S-shaped deflector, which is configured to guide the air flow from the inlet to the honeycomb structure so that greater dynamic pressure and thereby greater fluid velocity is introduced to the distance from the centre line of the honeycomb structure, and thereby configured to change the velocity profile of the flow before the honeycomb structure so that the velocity profile of the flow after the honeycomb structure or outlet is a skewed parabolic velocity profile with a peak shifted from the centre line of the symmetrical parabolic velocity profile. - an inlet for introducing an air flow through said flow channel of the module, - an outlet for introducing said air curtain, - honeycomb structure before the outlet in order to laminarize the flow for the fluid curtain, where said honeycomb structure comprises plurality of parallel conduits for guiding the flow and suppressing instabilities in the flow downstream of it, and - a mechanical structure before the outlet, - said mechanical structure before the outlet is an S-shaped deflector, which is configured to guide the air flow from the inlet to the honeycomb structure so that greater dynamic pressure and thereby greater fluid velocity is introduced to the distance from the centre line of the honeycomb structure, and thereby configured to change the velocity profile of the flow before the honeycomb structure so that the velocity profile of the flow after the honeycomb structure or outlet is a skewed parabolic velocity profile with a peak shifted from the centre line of the symmetrical parabolic velocity profile.
A method for printing, with a continuous ink-jet printer, a graphical code on a surface, said graphical code having H lines and W columns i (i=1,...W), and comprising a pattern of HxW cells, each cell being at the intersection of a column and of a line, each printed cell or dot being formed with help of at least one drop generated by a printhead of said continuous inkjet printer, two successive dots of a same column being separated by at least one non printed cell, said method comprising, for printing each column: * retrieving or selecting, from at least one set of data or database of charges, the charges to be applied to each of the drops for printing the dots of said column from at least one set of data or database of charges of the drops for each of a number of configurations of printed dots in a column, said number being equal to or less than 2 (H/2)+1 if H is an even number or equal to or less than 2 ((H+1)/2)+1 if H is an odd number; * generating N 1 drops and charging part of said drops for printing the dots of said column according to said charges retrieved or selected from said at least one set of data or database and printing said dots of said column. * retrieving or selecting, from at least one set of data or database of charges, the charges to be applied to each of the drops for printing the dots of said column from at least one set of data or database of charges of the drops for each of a number of configurations of printed dots in a column, said number being equal to or less than 2 (H/2)+1 if H is an even number or equal to or less than 2 ((H+1)/2)+1 if H is an odd number; * generating N 1 drops and charging part of said drops for printing the dots of said column according to said charges retrieved or selected from said at least one set of data or database and printing said dots of said column.
A task start method, comprising: in a process in which a first task of a first application is run and performed on a screen, when the first task triggers a task jump for a second task, if a window is required to display the second task, invoking a window start interface of a system, wherein the window start interface is a system-level common standard application programming interface, and the window start interface is configured to generate a window parameter of a first floating window (600, 700, 800, 900, 1000); and starting the second task based on the window start interface, comprising: when the second task supports floating window display, starting the second task based on a current unchanged display status of the first task, creating the first floating window (600, 700, 800, 900, 1000) based on the window start interface, and displaying the second task based on the first floating window (600, 700, 800, 900, 1000), wherein the display status of the first task comprises full-screen display, and/or split-screen display, and/or floating window display. in a process in which a first task of a first application is run and performed on a screen, when the first task triggers a task jump for a second task, if a window is required to display the second task, invoking a window start interface of a system, wherein the window start interface is a system-level common standard application programming interface, and the window start interface is configured to generate a window parameter of a first floating window (600, 700, 800, 900, 1000); and starting the second task based on the window start interface, comprising: when the second task supports floating window display, starting the second task based on a current unchanged display status of the first task, creating the first floating window (600, 700, 800, 900, 1000) based on the window start interface, and displaying the second task based on the first floating window (600, 700, 800, 900, 1000), wherein the display status of the first task comprises full-screen display, and/or split-screen display, and/or floating window display.
A method of transmitting a sidelink secondary synchronization signal by a vehicle user equipment, V-UE, in a wireless communication system, the method comprising: generating the sidelink secondary synchronization signal for the V-UE; and transmitting the generated sidelink secondary synchronization signal for the V-UE only in subframe 5 among subframe 0 to subframe 9 in a radio frame, the radio frame only including 10 subframes, wherein a sidelink secondary synchronization signal for a device-to-device, D2D, UE is transmitted only in subframe 0 among subframe 0 to subframe 9 in a radio frame, the radio frame only including 10 subframes. generating the sidelink secondary synchronization signal for the V-UE; and transmitting the generated sidelink secondary synchronization signal for the V-UE only in subframe 5 among subframe 0 to subframe 9 in a radio frame, the radio frame only including 10 subframes, wherein a sidelink secondary synchronization signal for a device-to-device, D2D, UE is transmitted only in subframe 0 among subframe 0 to subframe 9 in a radio frame, the radio frame only including 10 subframes.
A process for producing a molding comprising at least one fiber, which comprises partially introducing at least one fiber into a molding made of blowing agent-containing foam in said blowing agent-containing foam, as a result of which the fiber is present with a fiber region within the molding and is surrounded by the blowing agent-containing foam, while a fiber region of the fiber projects out of a first side of the molding and a fiber region of the fiber projects out of a second side of the molding, where the molding comprises more than 1000 fibers per m 2 and where the blowing agent-containing foam of the molding at the time of partial introduction of at least one fiber still comprises at least 5% by weight of the amount of at least one blowing agent, based on the amount of the at least one blowing agent which is used for production of the blowing agent-containing foam, where the at least one blowing agent in the blowing agent-containing foam has a boiling point at standard pressure of at least 20°C and/or is an organic blowing agent having a molecular weight of at least 30 g/mol.
A method forming a reaction product comprising an alkylalkoxysilane comprises: 1) heating at a temperature of 150°C to 400°C, ingredients comprising a) an alkyl ether and carbon dioxide, and b) a source of silicon and catalyst; thereby forming the reaction product comprising the alkylalkoxysilane, where the alkylalkoxysilane has formula R (4-a) Si a, where each R is independently an alkyl group and subscript a is 1 to 4. 1) heating at a temperature of 150°C to 400°C, ingredients comprising a) an alkyl ether and carbon dioxide, and b) a source of silicon and catalyst; thereby forming the reaction product comprising the alkylalkoxysilane, where the alkylalkoxysilane has formula R (4-a) Si a, where each R is independently an alkyl group and subscript a is 1 to 4. a) an alkyl ether and carbon dioxide, and b) a source of silicon and catalyst;
A marine propulsion system comprising: a plurality of marine propulsion devices (2, 2a, 2b), each of the marine propulsion devices (2, 2a, 2b) including a propeller shaft, an engine (11a, 11b), an electric motor (12a, 12b), a power transmission mechanism, an electric circuit (8a, 8b) and a controller (6a, 6b), the power transmission mechanism being configured to transmit mechanical power to the propeller shaft from both the engine (11a, 11b) and the electric motor (12a, 12b), the electric circuit (8a, 8b) connected to the electric motor (12a, 12b), the controller (6a, 6b) being configured to control the engine (11a, 11b), characterized in that in each of the plurality of marine propulsion devices (2, 2a, 2b), the controller (6a 6b) is configured to put a limitation on an output of the engine (11a, 11b) that is in a driving state when the engine (11a, 11b) in any other of the plurality of marine propulsion devices (2, 2a, 2b) is not being driven. a plurality of marine propulsion devices (2, 2a, 2b), each of the marine propulsion devices (2, 2a, 2b) including a propeller shaft, an engine (11a, 11b), an electric motor (12a, 12b), a power transmission mechanism, an electric circuit (8a, 8b) and a controller (6a, 6b), the power transmission mechanism being configured to transmit mechanical power to the propeller shaft from both the engine (11a, 11b) and the electric motor (12a, 12b), the electric circuit (8a, 8b) connected to the electric motor (12a, 12b), the controller (6a, 6b) being configured to control the engine (11a, 11b), characterized in that in each of the plurality of marine propulsion devices (2, 2a, 2b), the controller (6a 6b) is configured to put a limitation on an output of the engine (11a, 11b) that is in a driving state when the engine (11a, 11b) in any other of the plurality of marine propulsion devices (2, 2a, 2b) is not being driven.
A method for automatically measuring a subject's phoria while the subject fixates on a visual target, comprising: covering and uncovering at least one of the subject's eyes; capturing a sequence of images of the at least one of the subject's eyes after uncovering the at least one of the subject's eyes using an image capturing device, a first image of the sequence of images including a first reflection of light from the at least one of the subject's eyes and a second image of the sequence of images including a second reflection of light from the at least one of the subject's eyes, wherein the first image and the second image are captured at different times after uncovering the at least one of the subject's eyes; comparing a position of the first reflection of the light within the first image of the sequence of images to a position of the second reflection of the light within the second image of the sequence of images to determine a magnitude and a direction of any movement after the at least one of the subject's eyes is uncovered; and determining a phoria measurement based on the determined magnitude and direction of the movement after the at least one of the subject's eyes is uncovered. covering and uncovering at least one of the subject's eyes; capturing a sequence of images of the at least one of the subject's eyes after uncovering the at least one of the subject's eyes using an image capturing device, a first image of the sequence of images including a first reflection of light from the at least one of the subject's eyes and a second image of the sequence of images including a second reflection of light from the at least one of the subject's eyes, wherein the first image and the second image are captured at different times after uncovering the at least one of the subject's eyes; comparing a position of the first reflection of the light within the first image of the sequence of images to a position of the second reflection of the light within the second image of the sequence of images to determine a magnitude and a direction of any movement after the at least one of the subject's eyes is uncovered; and determining a phoria measurement based on the determined magnitude and direction of the movement after the at least one of the subject's eyes is uncovered.