mhurhangee/ep-ind-claims huggingface dataset:
A method for decoding video, the method comprising: receiving video information including information related to a prediction mode, information on a tile (610, 620) and information on a slice, wherein the tile (610, 620) is a common rectangular region of a column of largest coding units (LCUs) and a row of largest coding units (LCUs) and the slice comprises an integer number of largest coding units (LCUs); deriving the tile (610, 620) and the slice in a current picture (300; 400; 500; 1110; 1210; 1410) based on the received video information, wherein the current picture (300; 400; 500; 1110; 1210; 1410) includes more than one tile (610, 620) and more than one slice; and performing decoding for the current picture (300; 400; 500; 1110; 1210; 1410) based on the more than one tile (610, 620) and the more than one slice, wherein the decoding for the current picture (300; 400; 500; 1110; 1210; 1410) includes: performing inter prediction or intra prediction to derive a predicted block of a current block in the current picture based on the information related to the prediction mode; and generating a reconstructed picture of the current picture based on the predicted block, characterized in that the following constraints are imposed: the largest coding units (LCUs) in the slice are ordered consecutively in tile scan order; in the tile scan order, largest coding units (LCUs) in each of the tiles (610, 620) in the slice are ordered in the raster scan order in the each of the tiles (610, 620), and the tiles (610, 620) in the slice are ordered in the raster scan order; and tile IDs specifying the tiles (610, 620) ordered in the slice are consecutive. receiving video information including information related to a prediction mode, information on a tile (610, 620) and information on a slice, wherein the tile (610, 620) is a common rectangular region of a column of largest coding units (LCUs) and a row of largest coding units (LCUs) and the slice comprises an integer number of largest coding units (LCUs); deriving the tile (610, 620) and the slice in a current picture (300; 400; 500; 1110; 1210; 1410) based on the received video information, wherein the current picture (300; 400; 500; 1110; 1210; 1410) includes more than one tile (610, 620) and more than one slice; and performing decoding for the current picture (300; 400; 500; 1110; 1210; 1410) based on the more than one tile (610, 620) and the more than one slice, performing inter prediction or intra prediction to derive a predicted block of a current block in the current picture based on the information related to the prediction mode; and generating a reconstructed picture of the current picture based on the predicted block, the largest coding units (LCUs) in the slice are ordered consecutively in tile scan order; in the tile scan order, largest coding units (LCUs) in each of the tiles (610, 620) in the slice are ordered in the raster scan order in the each of the tiles (610, 620), and the tiles (610, 620) in the slice are ordered in the raster scan order; and tile IDs specifying the tiles (610, 620) ordered in the slice are consecutive.
A method of operating a Software-Defined Network data communication system to support hardware-trust and process user data traffic comprising an SDN control system and an SDN data-plane machine, the method characterized by: in the SDN control system, a trust controller transferring hardware-trust data to a trust processor in the SDN data-plane machine over an SDN southbound interface to maintain hardware-trust with the SDN data-plane machine; in the SDN data-plane machine, the trust processor transferring additional hardware-trust data to the trust controller over the SDN southbound interface to maintain the hardware trust with the SDN control system; in the SDN control system, a flow controller transferring a Flow Description Table modification to a flow processor in the SDN data-plane machine over the SDN southbound interface and transferring an FDT modification notice to the trust controller; in the SDN control system, the trust controller transferring FDT security data to the trust processor over the SDN southbound interface to authorize an FDT change responsive to the FDT modification notice; the trust processor transferring FDT authorization data to the flow processor responsive to the FDT security data from the trust controller; and in the SDN data-plane machine, the flow processor authorizing the FDT modification based on the FDT authorization data from the trust processor, modifying an FDT based on the FDT modification and in response to the successful FDT authorization, and processing the user data traffic using the modified FDT. in the SDN control system, a trust controller transferring hardware-trust data to a trust processor in the SDN data-plane machine over an SDN southbound interface to maintain hardware-trust with the SDN data-plane machine; in the SDN data-plane machine, the trust processor transferring additional hardware-trust data to the trust controller over the SDN southbound interface to maintain the hardware trust with the SDN control system; in the SDN control system, a flow controller transferring a Flow Description Table modification to a flow processor in the SDN data-plane machine over the SDN southbound interface and transferring an FDT modification notice to the trust controller; in the SDN control system, the trust controller transferring FDT security data to the trust processor over the SDN southbound interface to authorize an FDT change responsive to the FDT modification notice; the trust processor transferring FDT authorization data to the flow processor responsive to the FDT security data from the trust controller; and in the SDN data-plane machine, the flow processor authorizing the FDT modification based on the FDT authorization data from the trust processor, modifying an FDT based on the FDT modification and in response to the successful FDT authorization, and processing the user data traffic using the modified FDT.
A rotor disk (200, 300) for a gas turbine engine, comprising: a rim portion (204, 304) disposed about a central axis; a blade post (208, 308, 350, 355) disposed proximate the rim portion, the blade post having a first branch and a second branch; characterised in that the rotor disk comprises a first scallop (220, 320, 356) disposed within the rim portion, between and radially inward of the first branch and the second branch; wherein the first scallop defines a cutout portion (322, 358) having a circumferential length, a radial length and an axial depth. a rim portion (204, 304) disposed about a central axis; a blade post (208, 308, 350, 355) disposed proximate the rim portion, the blade post having a first branch and a second branch; characterised in that the rotor disk comprises a first scallop (220, 320, 356) disposed within the rim portion, between and radially inward of the first branch and the second branch; wherein the first scallop defines a cutout portion (322, 358) having a circumferential length, a radial length and an axial depth.
A hydraulic pump assembly comprising a hydraulic pump (62,64) including a pump housing, a pump mechanism operable to control a flow of hydraulic fluid through the housing, the pump mechanism having a neutral condition in which fluid does not flow through the housing, a trunnion cap connectable to the housing, the trunnion cap and the housing cooperating to house the pump mechanism, and an input shaft extending along an axis and through the trunnion cap, the shaft being rotatable to operate the pump mechanism; a control arm connected to the shaft, movement of the control arm causing rotation of the shaft; and a centering mechanism comprising: a first bracket fixable to the housing, fasteners fixing the first bracket and the trunnion cap to the pump housing, a biasing structure operable to return the control arm to a centered position when an operating force is not applied to the control arm, and characterised by comprising a second bracket adjustably fixable to the first bracket and the second bracket being adjustable relative to the first bracket to an adjusted position such that the centered position corresponds to the neutral condition of the pump mechanism, the second bracket being fixable in the adjusted position;
A rocker arm comprising: a first body supporting a first axle on which a first roller (22a, 22b) for engaging a first rotatable cam surface (34, 36) and a second roller (22a, 22b) for engaging a second rotatable cam surface (34, 36) are mounted, whereby at least part of the rocker arm can be pivoted by the first rotatable cam surface (34, 36) acting on the first roller (22a, 22b) and the second rotatable cam surface (34, 36) acting on the second roller (22a, 22b) to move a valve to cause a first valve event; and a second body supporting a second axle on which a further roller for engaging a further rotatable cam surface is mounted, whereby at least part of the rocker arm can be pivoted by the further rotatable cam surface to move the valve to cause a second valve event, and; wherein one of the first and second bodies is pivotally mounted with respect to the other of the first and second bodies, and characterised in that one of the first and second axles defines a circular aperture and the other of the first and second axles extends through the circular aperture and wherein an outer diameter of the other of the first and second axles that extends through the circular aperture is smaller than a diameter of the circular aperture to permit relative pivotal movement of the first body and the second body when the first body and the second body are un-latched from each other. a first body supporting a first axle on which a first roller (22a, 22b) for engaging a first rotatable cam surface (34, 36) and a second roller (22a, 22b) for engaging a second rotatable cam surface (34, 36) are mounted, whereby at least part of the rocker arm can be pivoted by the first rotatable cam surface (34, 36) acting on the first roller (22a, 22b) and the second rotatable cam surface (34, 36) acting on the second roller (22a, 22b) to move a valve to cause a first valve event; and a second body supporting a second axle on which a further roller for engaging a further rotatable cam surface is mounted, whereby at least part of the rocker arm can be pivoted by the further rotatable cam surface to move the valve to cause a second valve event, and; wherein one of the first and second bodies is pivotally mounted with respect to the other of the first and second bodies, and characterised in that one of the first and second axles defines a circular aperture and the other of the first and second axles extends through the circular aperture and wherein an outer diameter of the other of the first and second axles that extends through the circular aperture is smaller than a diameter of the circular aperture to permit relative pivotal movement of the first body and the second body when the first body and the second body are un-latched from each other.
An assay device for detecting for the presence of at least one glycemic analyte in a fluid sample comprising: a test zone having an absorbent body positioned for receiving the fluid sample by a downward gravity flow, wherein said absorbent body includes a plurality of vertically arranged membrane assays where the fluid sample flows through each membrane assay, each membrane assay includes an assay reactant for detecting a different glycemic analyte and a visual color indicator to produce a visual indication of a selected analyte at or above a predetermined concentration in the fluid sample wherein each of said membrane assay overlie one another and where each said color indicator in each membrane is visible through a top membrane assay of the absorbent body. a test zone having an absorbent body positioned for receiving the fluid sample by a downward gravity flow, wherein said absorbent body includes a plurality of vertically arranged membrane assays where the fluid sample flows through each membrane assay, each membrane assay includes an assay reactant for detecting a different glycemic analyte and a visual color indicator to produce a visual indication of a selected analyte at or above a predetermined concentration in the fluid sample wherein each of said membrane assay overlie one another and where each said color indicator in each membrane is visible through a top membrane assay of the absorbent body.
A method for selectively functionalizing a transducer microarray, the method comprising: providing a microarray including a field of transducers exposed to a shared environment, wherein a transducer is a detector capable of generating a physical signal in response to alterations of biological or chemical environment in the vicinity of the transducer's surface when a pre-selected biological component that is attached to the transducer's surface specifically interacts with a target analyte, wherein there is one pH-generating electrode for each transducer and a counter electrode; creating a first difference in pH associated with the transducers by selectively applying a voltage potential between pH-generating electrodes and the counter electrodes, to create a difference of pH in regions adjacent to the transducers; and, selectively binding first functional molecules to transducers in response to the pH associated with the transducers, characterized in that selectively binding the first functional molecules to transducers includes disassociating a bond between functional molecules bound to the transducer surfaces. providing a microarray including a field of transducers exposed to a shared environment, wherein a transducer is a detector capable of generating a physical signal in response to alterations of biological or chemical environment in the vicinity of the transducer's surface when a pre-selected biological component that is attached to the transducer's surface specifically interacts with a target analyte, wherein there is one pH-generating electrode for each transducer and a counter electrode; creating a first difference in pH associated with the transducers by selectively applying a voltage potential between pH-generating electrodes and the counter electrodes, to create a difference of pH in regions adjacent to the transducers; and, selectively binding first functional molecules to transducers in response to the pH associated with the transducers, characterized in that selectively binding the first functional molecules to transducers includes disassociating a bond between functional molecules bound to the transducer surfaces.
An input/output buffer for use with a high voltage power supply and a low voltage power supply and receiving an external voltage signal,, the input/output buffer being characterized by: a reference power generation circuit connected to the high voltage power supply and the low voltage power supply for converting the voltage of the external voltage signal and generating reference power, the reference power generation circuit having a protection circuit including a plurality of MOS transistors (Pt11-Pt15) for decreasing the voltage of the external voltage signal to a predetermined voltage when the input/output buffer receives the external voltage signal and is not supplied with the voltage of the high voltage power supply, each of the MOS transistors having a back gate connected to a predetermined node at which the voltage is less than the voltage of the high voltage power supply and greater than the voltage of the low voltage power supply. a reference power generation circuit connected to the high voltage power supply and the low voltage power supply for converting the voltage of the external voltage signal and generating reference power, the reference power generation circuit having a protection circuit including a plurality of MOS transistors (Pt11-Pt15) for decreasing the voltage of the external voltage signal to a predetermined voltage when the input/output buffer receives the external voltage signal and is not supplied with the voltage of the high voltage power supply, each of the MOS transistors having a back gate connected to a predetermined node at which the voltage is less than the voltage of the high voltage power supply and greater than the voltage of the low voltage power supply.
Cosmetic formulation comprising 0.2 to 25% by weight of at least one compound of the general formula I) where R 1 is an acyl radical of an at least monounsaturated fatty acid with a chain length of 18 to 24 carbon atoms or an acyl radical of isostearic acid or ricinoleic acid, where R 2 is an alkyl radical having 1 to 6 carbon atoms, where a = 1 to 3 and b = 1 to 3, with the proviso that a + b = 4, 40 to 99.8% by weight water and optionally 0 to 8% by weight of a compound of the general formula Ia) where R 1a is an acyl radical of another carboxylic acid as defined for R 1 and where R 2 is an alkyl radical having 1 to 6 carbon atoms, where a = 1 to 3 and b = 1 to 3, with the proviso that a + b = 4, where the percentages by weight refer to the total formulation, characterized in that the compounds of the general formula I) constitute at least 50% by weight, based on all of the compounds of the general formula I) and Ia) present in the formulation, and characterized in that the compounds of the general formula I) where R 1 is an acyl radical of an at least monounsaturated fatty acid with a chain length of 18 to 24 carbon atoms selected from the acyl radicals of the acids from the group comprising oleic acid, linoleic acid, alpha-linolenic acid and gamma-linolenic acid, or an acyl radical of isostearic acid or ricinoleic acid constitute at least 50% by weight, based on all of the compounds of the general formula I) and Ia) present in the formulation. 0.2 to 25% by weight of at least one compound of the general formula I) where R 1 is an acyl radical of an at least monounsaturated fatty acid with a chain length of 18 to 24 carbon atoms or an acyl radical of isostearic acid or ricinoleic acid, where R 2 is an alkyl radical having 1 to 6 carbon atoms, where a = 1 to 3 and b = 1 to 3, with the proviso that a + b = 4, 40 to 99.8% by weight water and optionally 0 to 8% by weight of a compound of the general formula Ia) where R 1a is an acyl radical of another carboxylic acid as defined for R 1 and where R 2 is an alkyl radical having 1 to 6 carbon atoms, where a = 1 to 3 and b = 1 to 3, with the proviso that a + b = 4, where the percentages by weight refer to the total formulation, characterized in that the compounds of the general formula I) constitute at least 50% by weight, based on all of the compounds of the general formula I) and Ia) present in the formulation, and characterized in that the compounds of the general formula I) where R 1 is an acyl radical of an at least monounsaturated fatty acid with a chain length of 18 to 24 carbon atoms selected from the acyl radicals of the acids from the group comprising oleic acid, linoleic acid, alpha-linolenic acid and gamma-linolenic acid, or an acyl radical of isostearic acid or ricinoleic acid constitute at least 50% by weight, based on all of the compounds of the general formula I) and Ia) present in the formulation.
Transport container with double-walled wall section comprising an inner wall and an outer wall and with an electronic wireless identification carrier, where the identification carrier is sealed on all sides into a housing which is formed as a so-called smart card, where ribs are provided in the double-walled section between the inner wall and the outer wall, which ribs form the limits of a retaining cavity for receiving the smart card, characterised in that the outer wall has an insertion opening which is offset in relation to the retaining cavity, where the outer wall and/or the smart card are elastically pliable, in such a way that, by virtue of this elastic pliability, the smart card can be pushed through the insertion opening and introduced into the retaining cavity and is then held safely in the retaining cavity in a slightly deformed state in relation to it, where the ribs create a gap of at least 1,5 mm between the smart card and the adjacent sections of the inner wall and the outer wall.
A light-receiving module for an encoder, the light-receiving module comprising: a support body having a bottom wall part and a side wall part disposed on a main surface of the bottom wall part on one side of the bottom wall part; a light-receiving element having a light-receiving surface, disposed on the main surface of the bottom wall part such that the light-receiving surface faces the one side, and surrounded by the side wall part when viewed from the one side; and a fiber optic plate having an input surface constituted by surfaces of one end of a plurality of optical fibers and an output surface constituted by surfaces of the other end of the plurality of optical fibers and disposed on the light-receiving element such that the output surface faces the light-receiving surface, wherein, when viewed from a direction along the main surface of the bottom wall part, an end surface of the side wall part on the one side is positioned more distant to the one side than the light-receiving surface with respect to the main surface of the bottom wall part, and the input surface is positioned more distant to the one side than the end surface with respect to the main surface of the bottom wall part. a support body having a bottom wall part and a side wall part disposed on a main surface of the bottom wall part on one side of the bottom wall part; a light-receiving element having a light-receiving surface, disposed on the main surface of the bottom wall part such that the light-receiving surface faces the one side, and surrounded by the side wall part when viewed from the one side; and a fiber optic plate having an input surface constituted by surfaces of one end of a plurality of optical fibers and an output surface constituted by surfaces of the other end of the plurality of optical fibers and disposed on the light-receiving element such that the output surface faces the light-receiving surface, wherein, when viewed from a direction along the main surface of the bottom wall part, an end surface of the side wall part on the one side is positioned more distant to the one side than the light-receiving surface with respect to the main surface of the bottom wall part, and the input surface is positioned more distant to the one side than the end surface with respect to the main surface of the bottom wall part.
A tooth whitening oral care composition comprising: (i) a dye having a blue to blue-violet color with a hue angle in the CI ELAB system ranging from 200 to 320 degrees, (ii) a whiteness enhancing adhesive material which is crosslinked polyvinyl pyrrolidone, (iii) an orally acceptable carrier vehicle comprising a non-aqueous solvent, wherein the composition comprises water in an amount of from 5 weight% to 17 weight%. (i) a dye having a blue to blue-violet color with a hue angle in the CI ELAB system ranging from 200 to 320 degrees, (ii) a whiteness enhancing adhesive material which is crosslinked polyvinyl pyrrolidone, (iii) an orally acceptable carrier vehicle comprising a non-aqueous solvent, wherein the composition comprises water in an amount of from 5 weight% to 17 weight%.