mhurhangee/ep-ind-claims huggingface dataset:
A processor implemented method, comprising: receiving, via one or more hardware processors, an input comprising one or more parameters specific to an industrial internet of things,IIoT, use case, wherein the one or more parameters comprise at least one of one or more available resources, the observational data, an input data query, an enterprise storage system type, and a file format; selecting, via the one or more hardware processors, a first processing environment based on the one or more parameters; generating, via the one or more hardware processors, metadata based on the first processing environment, wherein the metadata is generated based on a location information of an observational data comprised in a database, and wherein the observational data is specific to one or more sensors deployed in an IoT network; populating, via the one or more hardware processors, the observational data in the first processing environment based on (i) a storage system, (ii) the metadata and (iii) number of available resources in the first processing environment; receiving, via the one or more hardware processors, one or more input queries from one or more users; executing, via the one or more hardware processors, the one or more input queries on the observational data, in the first processing environment to obtain a data frame; and pre-processing, via the one or more hardware processors, the obtained data frame in one of the first processing environment or a second processing environment and plotting the pre-processed data frame in the second processing environment. receiving, via one or more hardware processors, an input comprising one or more parameters specific to an industrial internet of things,IIoT, use case, wherein the one or more parameters comprise at least one of one or more available resources, the observational data, an input data query, an enterprise storage system type, and a file format; selecting, via the one or more hardware processors, a first processing environment based on the one or more parameters; generating, via the one or more hardware processors, metadata based on the first processing environment, wherein the metadata is generated based on a location information of an observational data comprised in a database, and wherein the observational data is specific to one or more sensors deployed in an IoT network; populating, via the one or more hardware processors, the observational data in the first processing environment based on (i) a storage system, (ii) the metadata and (iii) number of available resources in the first processing environment; receiving, via the one or more hardware processors, one or more input queries from one or more users; executing, via the one or more hardware processors, the one or more input queries on the observational data, in the first processing environment to obtain a data frame; and pre-processing, via the one or more hardware processors, the obtained data frame in one of the first processing environment or a second processing environment and plotting the pre-processed data frame in the second processing environment.
A composite polycrystal consisting of: polycrystalline diamond formed of diamond grains that are directly bonded mutually, and compressed graphite dispersed in said polycrystalline diamond, wherein said compressed graphite has a percentage in said composite polycrystal in whole of greater than or equal to 0.1% and less than or equal to 40% as calculated from 100 × Ig /{Id + Ig} wherein Ig is an area of an X-ray diffraction peak derived from surface of said compressed graphite, and Id is an area of an X-ray diffraction peak derived from surface of said polycrystalline diamond in an X-ray diffraction profile of said composite polycrystal, and said compressed graphite is graphite having an interplanar spacing in a C axis of 310 pm, smaller than 335 pm that normal graphite has, and said compressed graphite is recognized by an appearance position of an X-ray diffraction peak derived from surface of graphite in an X-ray diffraction profile.
A dispersing liquid for distributing a bio-absorbable oil to internal body tissues, comprising: a suspension formulated for local application to internal body tissues, comprising: a liquid carrier; and a bio-absorbable oil suspended in the liquid carrier, and wherein the suspension comprises droplets of bio-absorbable oil suspended in the liquid carrier, wherein the droplets of oil adhere to the internal body tissue and coalesce forming a thin coating of bio-absorbable oil at least partially covering the tissues, and wherein the suspension is not stabilized. a suspension formulated for local application to internal body tissues, comprising: a liquid carrier; and a bio-absorbable oil suspended in the liquid carrier, a liquid carrier; and a bio-absorbable oil suspended in the liquid carrier,
Front-loading laundry treatment appliance, such as a washing machine, washer-dryer or tumble dryer, comprising a loading opening that is arranged in the front wall and can be closed by means of a pivotable door, a locking device for holding the door in the closed position thereof, and an actuation device for activating or deactivating the locking device, characterised in that the actuation device comprises at least one sensor (8, 8a) which can detect contact or contactless engagement in the effective range thereof, the at least one sensor (8a, 8) being arranged on a handle region of the door, and the control device receiving a signal after contact or contactless engagement has been detected, which signal triggers deactivation of the locking device.
A lift device for multilevel aviaries, intended to facilitate the raising and lowering of birds to different levels of the aviary, characterized in that it comprises: - a motor, with a variable rotation, controlled by an external controller, connectable to an upper end of the aviary, - a rotary shaft, transverse to the motor, which extends along the entire length of the aviary and is able to be actuated by said motor, - first cables, wound on the rotary shaft of the motor, - a first gantry, able to be positioned in the proximity of a first side of the aviary, the first gantry, in turn, comprising: - first vertical posts parallel to one another, - first arms connected perpendicularly to upper ends of the first posts and to the columns of the first side of the aviary, - first pulleys, located on the upper ends of each one of the first posts, through which the respective first cables run, - first sleeves, longitudinally movable on the first posts, able to be actuated by the first cables to which they are integrally connected, and - first platforms, able to be moved to different heights on the first gantry, essentially horizontal and integrally connected to the first sleeves, first platforms on which the birds can mount to change levels on the first side of the aviary. - a motor, with a variable rotation, controlled by an external controller, connectable to an upper end of the aviary, - a rotary shaft, transverse to the motor, which extends along the entire length of the aviary and is able to be actuated by said motor, - first cables, wound on the rotary shaft of the motor, - a first gantry, able to be positioned in the proximity of a first side of the aviary, the first gantry, in turn, comprising: - first vertical posts parallel to one another, - first arms connected perpendicularly to upper ends of the first posts and to the columns of the first side of the aviary, - first pulleys, located on the upper ends of each one of the first posts, through which the respective first cables run, - first sleeves, longitudinally movable on the first posts, able to be actuated by the first cables to which they are integrally connected, and - first platforms, able to be moved to different heights on the first gantry, essentially horizontal and integrally connected to the first sleeves, first platforms on which the birds can mount to change levels on the first side of the aviary. - first vertical posts parallel to one another, - first arms connected perpendicularly to upper ends of the first posts and to the columns of the first side of the aviary, - first pulleys, located on the upper ends of each one of the first posts, through which the respective first cables run, - first sleeves, longitudinally movable on the first posts, able to be actuated by the first cables to which they are integrally connected, and - first platforms, able to be moved to different heights on the first gantry, essentially horizontal and integrally connected to the first sleeves, first platforms on which the birds can mount to change levels on the first side of the aviary.
A combustion chamber comprising at least one annular wall (40, 42), the at least one annular wall (40, 42) comprising an inner wall (66, 166) and an outer wall (64, 164), the inner wall (66, 166) being spaced radially from the outer wall (64, 164), the outer wall (64, 164) having a plurality of apertures, the inner wall (66, 166) and the outer wall (64, 164) being integral, the upstream end of the at least one annular wall (40, 42) having features (84, 86) to secure the at least one annular wall (40, 42) to an upstream ring structure and a downstream end of the at least one annular wall (40, 42) having features to mount the at least one annular wall (40, 42) on a downstream ring structure (54, 56), the at least one annular wall (40, 42) comprising at least one box like structure, the at least one box like structure comprising the inner wall (66, 166), the outer wall (64, 164), an upstream end wall and a downstream end wall, the outer wall (64, 164) having the plurality of apertures for the supply of coolant into the box like structure, the inner wall (66, 166), the outer wall (64, 164), the upstream end wall and the downstream end wall being an integral structure formed by additive layer manufacturing, characterised by the inner wall (66, 166) having at least one slot (208, 208') extending through the full thickness of the inner wall (66, 166) to accommodate differential thermal expansion between the inner wall (66, 166) and the outer wall (64, 164), at least one of the surfaces of the at least one slot (208, 208') being arranged at an angle of up to 60° to the surface of the inner wall (66, 166), the slot (208, 208') being defined between a downstream portion and an upstream portion of the inner wall, the downstream end of the upstream portion having a first surface portion extending perpendicularly from the inner surface of the inner wall, a second surface portion extending parallel to the inner surface and the outer surface of the inner wall and a third surface portion extending perpendicularly to the outer surface of the inner wall, the upstream end of the downstream portion having a first surface portion extending at an angle to the inner surface of the inner wall, a second surface portion extending parallel to the inner surface and the outer surface of the inner wall and a third surface portion extending perpendicularly to the outer surface of the inner wall or the upstream end of the downstream portion having a first surface portion extending at an angle to the outer surface of the inner wall, a second surface portion extending parallel to the inner surface and the outer surface of the inner wall and a third surface portion extending perpendicularly to the inner surface of the inner wall, the first surface portion (166F, 166F') and the second surface portion (166G, 166G') at the upstream end of the downstream portion of the inner wall tapering to an edge (171, 171'), a frangible feature being provided between the second surface portion (166D, 166D') of the upstream portion of the inner wall and the edge (171, 171') on the downstream portion of the inner wall.
An alternating current to direct current, AC-DC, converter, comprising: a rectifying unit configured to rectify an AC voltage that is being input; a boost converter unit connected to the rectifying unit and provided with a single inductor, a first switch, and a second switch formed thereto; a smoothing unit configured to smooth the voltage passing through the boost converter unit; and a control unit configured to control the first switch and the second switch such that the boost converter unit is operated as a power factor correction circuit or as an inrush current limiting circuit; characterised in that the control unit comprises: a power factor control block to generate an ON/OFF control signal of the first switch and the second switch such that the boost converter unit performs a power factor controlling mode that operates as the power factor correction circuit; an inrush current control block to generate an ON/OFF control signal of the first switch and the second switch such that the boost converter unit performs an inrush current controlling mode that operates as the inrush current limiting circuit; and a multiplexer to select one of the control signal generated through the power factor control block and the control signal generated through the inrush current control block, and to transmit the selected signal to the first switch and the second switch. a rectifying unit configured to rectify an AC voltage that is being input; a boost converter unit connected to the rectifying unit and provided with a single inductor, a first switch, and a second switch formed thereto; a smoothing unit configured to smooth the voltage passing through the boost converter unit; and a control unit configured to control the first switch and the second switch such that the boost converter unit is operated as a power factor correction circuit or as an inrush current limiting circuit; a power factor control block to generate an ON/OFF control signal of the first switch and the second switch such that the boost converter unit performs a power factor controlling mode that operates as the power factor correction circuit; an inrush current control block to generate an ON/OFF control signal of the first switch and the second switch such that the boost converter unit performs an inrush current controlling mode that operates as the inrush current limiting circuit; and a multiplexer to select one of the control signal generated through the power factor control block and the control signal generated through the inrush current control block, and to transmit the selected signal to the first switch and the second switch.
A reception apparatus, comprising: a reception section adapted to receive an AV content; characterized by a trigger extraction section adapted to extract trigger information including content identification information and time position information transmitted together with the AV content for rendering operative an application program, which is to be executed in a linked relationship with the AV content, the content identification information being configured to identify the AV content, the time position information being indicative of a temporal insertion position of the trigger information in the AV content; a command acquisition section adapted to acquire from an external command server a command specified by the identification information and the time position information for controlling the operation of the application program in response to the content identification information and the time position information; and a control section adapted to control the operation of the application program in response to the acquired command. a reception section adapted to receive an AV content; characterized by a trigger extraction section adapted to extract trigger information including content identification information and time position information transmitted together with the AV content for rendering operative an application program, which is to be executed in a linked relationship with the AV content, the content identification information being configured to identify the AV content, the time position information being indicative of a temporal insertion position of the trigger information in the AV content; a command acquisition section adapted to acquire from an external command server a command specified by the identification information and the time position information for controlling the operation of the application program in response to the content identification information and the time position information; and a control section adapted to control the operation of the application program in response to the acquired command.
A method of adding hydrogen to a metal alloy, comprising: providing an article formed of the metal alloy; providing a metal hydride; covering at least a portion of the article and the metal hydride with a shell metal to form an assembly; applying load to the assembly; and heating the assembly, wherein the shell metal deforms around the portion of the article and the metal hydride and forms a gas proof seal, wherein the metal hydride thermally decomposes to form hydrogen gas, and wherein at least a portion of the hydrogen gas dissociates and moves as monoatomic hydrogen into the article. providing an article formed of the metal alloy; providing a metal hydride; covering at least a portion of the article and the metal hydride with a shell metal to form an assembly; applying load to the assembly; and heating the assembly, wherein the shell metal deforms around the portion of the article and the metal hydride and forms a gas proof seal, wherein the metal hydride thermally decomposes to form hydrogen gas, and wherein at least a portion of the hydrogen gas dissociates and moves as monoatomic hydrogen into the article.
A method of surface treating particulate materials, the method comprising: providing a particulate material, wherein providing the particulate material includes providing superabsorbent polymer particles; providing radical former molecules and applying the radical former molecules onto the superabsorbent polymer particles; providing a roll with an outer surface and a roll width; providing an irradiation source configured to emit electromagnetic radiation; feeding the particulate material onto the outer surface of the roll; rotating the roll; irradiating at least part of the particulate material with electromagnetic radiation from the irradiation source, while rotating the roll, wherein the irradiating includes irradiating at least part of the particulate material with electromagnetic radiation that is UV radiation of a wavelength of 315 nm to 400 nm, of 280 nm to 315 nm, of 200 nm to 280 nm, or of 100 nm to 200 nm; surface cross-linking or functionalizing the superabsorbent polymer particles; and collecting the particulate material after the irradiating. providing a particulate material, wherein providing the particulate material includes providing superabsorbent polymer particles; providing radical former molecules and applying the radical former molecules onto the superabsorbent polymer particles; providing a roll with an outer surface and a roll width; providing an irradiation source configured to emit electromagnetic radiation; feeding the particulate material onto the outer surface of the roll; rotating the roll; irradiating at least part of the particulate material with electromagnetic radiation from the irradiation source, while rotating the roll, wherein the irradiating includes irradiating at least part of the particulate material with electromagnetic radiation that is UV radiation of a wavelength of 315 nm to 400 nm, of 280 nm to 315 nm, of 200 nm to 280 nm, or of 100 nm to 200 nm; surface cross-linking or functionalizing the superabsorbent polymer particles; and collecting the particulate material after the irradiating.
Computer-implemented method for parameterizing a three-dimensional modeled object for tessellation, comprising the steps of: • providing an initial format of the modeled object, comprising a boundary representation of the modeled object, the boundary representation comprising geometrical data including parametric surfaces and topological data including a set of faces each defined as a portion of the 2D domain of a respective parametric surface; • determining 2D meshes each fitting a respective face; • associating the 2D meshes to the geometrical data of the boundary representation; and • creating a new format, comprising the 2D meshes associated to the geometrical data, and storing a computer data file with the new format on non-volatile memory of the computer system or sending a computer data file with the new format to another computer system; wherein determining the 2D meshes comprises, for each respective face: • subdividing boundary edges of the respective face into parametric arcs; • defining a set of vertices within the respective face, the vertices being points defined on the portion of the 2D domain of the respective parametric surface defining the respective face; and • determining a partition of the respective face with parametric patches bounded by the parametric arcs and the vertices of the defined set of vertices. • providing an initial format of the modeled object, comprising a boundary representation of the modeled object, the boundary representation comprising geometrical data including parametric surfaces and topological data including a set of faces each defined as a portion of the 2D domain of a respective parametric surface; • determining 2D meshes each fitting a respective face; • associating the 2D meshes to the geometrical data of the boundary representation; and • creating a new format, comprising the 2D meshes associated to the geometrical data, and storing a computer data file with the new format on non-volatile memory of the computer system or sending a computer data file with the new format to another computer system; • subdividing boundary edges of the respective face into parametric arcs; • defining a set of vertices within the respective face, the vertices being points defined on the portion of the 2D domain of the respective parametric surface defining the respective face; and • determining a partition of the respective face with parametric patches bounded by the parametric arcs and the vertices of the defined set of vertices.