mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: obtaining a three-dimensional "3D" model of a subsurface region, based on data collected from current present-day subsurface structures, the three-dimensional model defined by an initial geological-time in the past when particles in the subsurface region are determined to have been originally deposited, the 3D model comprising one or more initial 2D reference horizon surfaces that are level-sets of the initial geological-time; performing a 3D interpolation to generate a refined geological-time in stages including: a two-dimensional "2D" interpolation of the geological-time along the one or more initial 2D reference horizon surfaces to generate one or more reshaped 2D reference horizon surfaces, and a one-dimensional "1D" interpolation of the geological-time from the one or more reshaped 2D reference horizon surfaces along one or more 1D interpolation lines to generate the refined geological-time, wherein each 1D interpolation line is approximately orthogonal to the initial 2D reference horizon surfaces; and displaying the 3D model according to the refined geological-time and the one or more reshaped 2D reference horizon surfaces. obtaining a three-dimensional "3D" model of a subsurface region, based on data collected from current present-day subsurface structures, the three-dimensional model defined by an initial geological-time in the past when particles in the subsurface region are determined to have been originally deposited, the 3D model comprising one or more initial 2D reference horizon surfaces that are level-sets of the initial geological-time; performing a 3D interpolation to generate a refined geological-time in stages including: a two-dimensional "2D" interpolation of the geological-time along the one or more initial 2D reference horizon surfaces to generate one or more reshaped 2D reference horizon surfaces, and a one-dimensional "1D" interpolation of the geological-time from the one or more reshaped 2D reference horizon surfaces along one or more 1D interpolation lines to generate the refined geological-time, wherein each 1D interpolation line is approximately orthogonal to the initial 2D reference horizon surfaces; and displaying the 3D model according to the refined geological-time and the one or more reshaped 2D reference horizon surfaces. a two-dimensional "2D" interpolation of the geological-time along the one or more initial 2D reference horizon surfaces to generate one or more reshaped 2D reference horizon surfaces, and a one-dimensional "1D" interpolation of the geological-time from the one or more reshaped 2D reference horizon surfaces along one or more 1D interpolation lines to generate the refined geological-time, wherein each 1D interpolation line is approximately orthogonal to the initial 2D reference horizon surfaces; and displaying the 3D model according to the refined geological-time and the one or more reshaped 2D reference horizon surfaces.
A method, comprising an ontology application at one or more computing devices performing operations comprising: receiving a command to create a new ontology module; receiving, a selection of a first ontology module to import into the new ontology module; receiving, a selection of a second ontology module to import into the new ontology module; detecting an ambiguous data type definition conflict between a first definition of a data type in the first ontology module and a second definition of the data type in the second ontology module; automatically resolving the ambiguous data type definition conflict based on a user input; based on the user input, generating a new, third definition of the data type reflecting a resolution of the ambiguous data type definition conflict; and creating and storing, in a data container, the new ontology module as a dynamic ontology module comprising an import identifier, e.g. a file path or URL, that identifies a data container of each of the first and second ontology modules, whereby the data type definitions of the first and second ontology modules are re-used in the new ontology module without having to re-define the data type definition in the new ontology module, and the new, third definition of the data type reflecting the resolution of the ambiguous data type definition conflict, which third definition of the data type extends and/or re-uses inherited data types defined in the one or more dynamic ontology modules that the new ontology module inherits from. receiving a command to create a new ontology module; receiving, a selection of a first ontology module to import into the new ontology module; receiving, a selection of a second ontology module to import into the new ontology module; detecting an ambiguous data type definition conflict between a first definition of a data type in the first ontology module and a second definition of the data type in the second ontology module; automatically resolving the ambiguous data type definition conflict based on a user input; based on the user input, generating a new, third definition of the data type reflecting a resolution of the ambiguous data type definition conflict; and creating and storing, in a data container, the new ontology module as a dynamic ontology module comprising an import identifier, e.g. a file path or URL, that identifies a data container of each of the first and second ontology modules, whereby the data type definitions of the first and second ontology modules are re-used in the new ontology module without having to re-define the data type definition in the new ontology module, and the new, third definition of the data type reflecting the resolution of the ambiguous data type definition conflict, which third definition of the data type extends and/or re-uses inherited data types defined in the one or more dynamic ontology modules that the new ontology module inherits from.
Closure bolt for an injector of a modular common-rail fuel injection system, comprising - at least one high-pressure port for high-pressure fuel, - a bolt-like portion which can be inserted into an opening of the injector and which has a first, preferably conical sealing surface for closing the opening in a high-pressure-tight manner, wherein the bolt-like portion has a high-pressure bore which is hydraulically connected to the high-pressure port and which issues into the injector, and - a throughflow limiter for limiting the flow rate of fuel delivered into the injector, wherein the throughflow limiter has a valve seat for a closing element so that the throughflow limiter separates the injector from the high-pressure fuel inflow in the event of an excessively high throughflow rate, wherein the bolt-like portion has an insert in which the throughflow limiter is formed and which bears the first sealing surface. - at least one high-pressure port for high-pressure fuel, - a bolt-like portion which can be inserted into an opening of the injector and which has a first, preferably conical sealing surface for closing the opening in a high-pressure-tight manner, wherein the bolt-like portion has a high-pressure bore which is hydraulically connected to the high-pressure port and which issues into the injector, and - a throughflow limiter for limiting the flow rate of fuel delivered into the injector, wherein the throughflow limiter has a valve seat for a closing element so that the throughflow limiter separates the injector from the high-pressure fuel inflow in the event of an excessively high throughflow rate, wherein the bolt-like portion has an insert in which the throughflow limiter is formed and which bears the first sealing surface.
An image processing apparatus including image forming means for printing an image on a sheet, the image processing apparatus comprising: acquisition means for acquiring user identification information about a user who is currently logged in to the image processing apparatus; storage means for storing a job and a job execution user identification of a user who has input the job in association with each other; control means for performing control such that one or more jobs using the image forming means are not executed according to a suspension operation performed by the user; display means for displaying a job list screen displaying jobs stored in the storage means; and cancellation means for cancelling a job selected on the job list screen, wherein the control means is configured to, when the suspension operation is performed by the user, before performing the control that one or more jobs using the image forming means are not executed, compare the job execution user identification of all jobs stored in the storage means and the user identification information acquired by the acquisition means, to suspend the one or more jobs where the job execution user identification and the user identification information acquired by the acquisition means match, and to not suspend the one or more jobs where the job execution user identification is different from the user identification information acquired by the acquisition means. acquisition means for acquiring user identification information about a user who is currently logged in to the image processing apparatus; storage means for storing a job and a job execution user identification of a user who has input the job in association with each other; control means for performing control such that one or more jobs using the image forming means are not executed according to a suspension operation performed by the user; display means for displaying a job list screen displaying jobs stored in the storage means; and cancellation means for cancelling a job selected on the job list screen, wherein the control means is configured to, when the suspension operation is performed by the user, before performing the control that one or more jobs using the image forming means are not executed, compare the job execution user identification of all jobs stored in the storage means and the user identification information acquired by the acquisition means, to suspend the one or more jobs where the job execution user identification and the user identification information acquired by the acquisition means match, and to not suspend the one or more jobs where the job execution user identification is different from the user identification information acquired by the acquisition means.
A boat having a longitudinal direction, and comprising: - a first bow; - two inflatable lateral collars (20, 22) extending according to the longitudinal direction of the boat; - an inflatable base arranged between the two inflatable lateral collars (20, 22); the boat being characterized in that the inflatable base comprises a portion forming the floor, and at least one first pair of end portions (30, 31, 30', 32') extending from one of the two longitudinal ends (26a, 26b) of the portion forming the floor, in that a fold line (34, 36, 34', 36') is formed between the portion forming the floor and each of the end portions of the first pair, and in that when the inflatable base is in its inflated state each end portion is in a position folded around the corresponding fold line to form the first bow of the boat. - a first bow; - two inflatable lateral collars (20, 22) extending according to the longitudinal direction of the boat; - an inflatable base arranged between the two inflatable lateral collars (20, 22);
Timepiece regulating mechanism, comprising a plate and, arranged on said plate, a resonator mechanism with a quality factor Q, and an escapement mechanism which is arranged so as to be subjected to a torque of drive means comprised in a movement, said resonator mechanism comprising an inertia element arranged to oscillate with respect to said plate, said inertia element being subjected to the action of elastic return means directly or indirectly attached to said plate, and said inertia element being arranged to cooperate indirectly with an escape wheel set comprised in said escapement mechanism, characterized in that said resonator mechanism is a resonator with a virtual pivot rotating about a main axis, with a flexure bearing including at least two flexible strips, and including an impulse pin integral with said inertia element, in that said escapement mechanism includes pallets pivoting about a secondary axis and including a lever fork arranged to cooperate with said impulse pin, and is a detached escapement mechanism, wherein, during the operating cycle, said resonator mechanism has at least one phase of freedom in which said impulse pin is at a distance from said lever fork, characterized in that said flexure bearing includes two flexible strips which are crossed in projection onto a plane perpendicular to said main axis, at said virtual pivot defining said main axis, and located in two parallel and distinct levels, and in that the lift angle (β) of the resonator, during which said impulse pin is in contact with said lever fork, is less than 10°.
Electromechanical linear drive with a housing and at least one spindle nut that is arranged so as to be longitudinally movable in a housing interior as support for a functional part fastened thereto, wherein the spindle nut is seated on a threaded spindle which extends through the housing interior space and is caused to move in a rotary direction by means of a drive unit and wherein the spindle nut is displaceable back and forth inside the housing interior space by the rotary motion of the threaded spindle, wherein a lubricating nipple that is accessible on the outside of the housing and at least one lubricating path (23, 24) which adjoins said nipple and opens in a stop surface for the spindle nut located in the housing interior space are arranged in a housing area which forms an end stop for the motion of the spindle nut, and at least one lubricating line leading to the lubrication points in the spindle nut is arranged in the spindle nut, characterized in that the spindle nut is to be moved into a position defined by the stop surface for re-lubrication, in which position the lubricating line is connected to the housing side lubricating path (23, 24) when the spindle nut lies flush with the stop surface of the housing and a connection is created automatically between the lubricating line formed in the spindle nut and the housing-side lubricating path (23, 24).
A transdermal preparation comprising a WT1 protein-derived cancer antigen peptide, and an ether-type additive represented by the formula: R 1 -O-R 2 [wherein R 1 is a hydrocarbon group having 8 - 24 carbon atoms, and R 2 is a group represented by the formula: or a group represented by the formula: -(CH 2 CH 2 O) m H wherein m is an integer of 1 - 18], wherein the additive is liquid at 20°C, further comprising lactic acid, and further comprising at least one kind of WT1 protein-derived cancer antigen peptide degradation inhibitor selected from the group consisting of decanoic acid, sodium deoxycholate or N-lauroylsarcosine. [wherein R 1 is a hydrocarbon group having 8 - 24 carbon atoms, and R 2 is a group represented by the formula: or a group represented by the formula: -(CH 2 CH 2 O) m H wherein m is an integer of 1 - 18], wherein the additive is liquid at 20°C, further comprising lactic acid, and further comprising at least one kind of WT1 protein-derived cancer antigen peptide degradation inhibitor selected from the group consisting of decanoic acid, sodium deoxycholate or N-lauroylsarcosine. wherein m is an integer of 1 - 18], wherein the additive is liquid at 20°C, further comprising lactic acid, and further comprising at least one kind of WT1 protein-derived cancer antigen peptide degradation inhibitor selected from the group consisting of decanoic acid, sodium deoxycholate or N-lauroylsarcosine.
A ship's propulsion arrangement, which comprises a propulsion unit which is supported in a reversible manner to a ship's hull, wherein an electric motor driving the ship's propeller is fitted inside a housing of the propulsion unit, whereby the electric motor's rotor is attached on a propeller shaft and the propeller shaft is supported onto a propulsion unit's housing with a first bearing (18,34') between the rotor's first end and the propeller and with a second bearing (34,18') between the rotor's second end and a shaft end opposite to the propeller, whereby the first and the second bearing are executed by radial bearings, and at least one bearing (36,36') supporting the shaft in an axial direction is fitted on the propeller shaft in the connection of the first or the second bearing, whereby the first and the second bearing (18,34) are rolling bearings, characterised in that the bearing supporting in the axial direction is a slide bearing comprising slide pieces which are supported against a bearing body and stop faces perpendicular to the propeller shaft, which stop faces comprise a radially protruding support shoulder on the shaft, and the bearing (36,36') supporting the shaft axially and the first or second bearing (34,34') fitted in its connection are integrated, and the first bearing has support surfaces (51,53) against axial forces and the radial bearing has support surfaces against radial forces.
A method for delivering 3D depth map data, the method comprising: accessing one view of an input stereoscopic picture and an input depth map associated with said one view, wherein said one view and said input depth map each have a pixel resolution of h x w; generating an image data partition in response to the one view of the input stereoscopic picture, wherein the image data partition has a pixel resolution of either ah x w or h x aw, 1 > a > 1⁄2; generating a scaled depth map in response to the input depth map, wherein the scaled depth map has an aspect ratio which matches the aspect ratio of the input depth map; segmenting the scaled depth map to two or more depth map segments; generating a depth map partition comprising the depth map segments, wherein a position of at least one depth map segment in the depth map partition is shifted relative to its original position in the scaled depth map; multiplexing the image data partition and the depth map partition to form a multiplexed output picture, the multiplexed output picture having a pixel resolution of h x w of which either ah x w or h x aw pixels are allocated to the image data partition and the remaining pixels are allocated to the depth map partition; generating metadata for aligning, at a decoder, the depth map segments so as to reconstruct the input depth map; and encoding, using an encoder, the multiplexed output picture to generate a coded bitstream, the coded bitstream further including the generated metadata. accessing one view of an input stereoscopic picture and an input depth map associated with said one view, wherein said one view and said input depth map each have a pixel resolution of h x w; generating an image data partition in response to the one view of the input stereoscopic picture, wherein the image data partition has a pixel resolution of either ah x w or h x aw, 1 > a > 1⁄2; generating a scaled depth map in response to the input depth map, wherein the scaled depth map has an aspect ratio which matches the aspect ratio of the input depth map; segmenting the scaled depth map to two or more depth map segments; generating a depth map partition comprising the depth map segments, wherein a position of at least one depth map segment in the depth map partition is shifted relative to its original position in the scaled depth map; multiplexing the image data partition and the depth map partition to form a multiplexed output picture, the multiplexed output picture having a pixel resolution of h x w of which either ah x w or h x aw pixels are allocated to the image data partition and the remaining pixels are allocated to the depth map partition; generating metadata for aligning, at a decoder, the depth map segments so as to reconstruct the input depth map; and encoding, using an encoder, the multiplexed output picture to generate a coded bitstream, the coded bitstream further including the generated metadata.
An internal antenna of a display comprising: at least two coils (120, 130) configured to be separated by a predetermined interval; and an integrated circuit, IC, including a power supply terminal of the at least two coils to connect the at least two coils in parallel, the IC supplying current to the at least two coils through the included power supply terminal, wherein phases of current flowing in the at least two coils are identical due to the current supplied by the IC, wherein one of the at least two coils is short-circuited to a metallic body, wherein the short-circuited coil and the metallic body have a parallel connection structure. at least two coils (120, 130) configured to be separated by a predetermined interval; and an integrated circuit, IC, including a power supply terminal of the at least two coils to connect the at least two coils in parallel, the IC supplying current to the at least two coils through the included power supply terminal, wherein phases of current flowing in the at least two coils are identical due to the current supplied by the IC, wherein one of the at least two coils is short-circuited to a metallic body, wherein the short-circuited coil and the metallic body have a parallel connection structure.
A computer-implemented method, comprising: receiving, from each of a number of servers, availability information for the respective server; determining, based on the received availability information, an availability pattern comprising an indication of a degree of availability for each server of the number of servers; receiving, from a mobile device, application data comprising an indication of a number of software applications installed upon the mobile device; identifying one or more access events for the mobile device based upon the number of software applications, wherein the one or more access events comprise downloading of software updates associated with the number of software applications; determining a set of the number of servers associated with the one or more access events; providing the access schedule to the mobile device; and generating, based on availability patterns for each of the set of the number of servers, the access schedule for the mobile device based on other access schedules generated for additional mobile devices. receiving, from each of a number of servers, availability information for the respective server; determining, based on the received availability information, an availability pattern comprising an indication of a degree of availability for each server of the number of servers; receiving, from a mobile device, application data comprising an indication of a number of software applications installed upon the mobile device; identifying one or more access events for the mobile device based upon the number of software applications, wherein the one or more access events comprise downloading of software updates associated with the number of software applications; determining a set of the number of servers associated with the one or more access events; providing the access schedule to the mobile device; and generating, based on availability patterns for each of the set of the number of servers, the access schedule for the mobile device based on other access schedules generated for additional mobile devices.