mhurhangee/ep-ind-claims huggingface dataset:
A method of rendering a user interface using a UI rendering engine implemented at an electronic device running multiple of applications, the method comprising, in succession: the Ul rendering engine receiving, for each of the multiple applications, from a Ul client engine associated with the application, a Ul component tree for the application; the Ul rendering engine joining the plurality of received Ul component trees into a single tree structure; the Ul rendering engine determining a visual node tree for the single tree structure, said determining including, for each of the multiple applications, the Ul rendering engine setting up visual node trees for each Ul element of a respective Ul component tree in the single tree structure, the Ul rendering engine having predefined visual node trees for each Ul element that the Ul client engine provides; the UI rendering engine asynchronously receiving, from the UI client engine, UI data items related to elements of the UI component tree; the UI rendering engine populating the visual node tree with the UI data items; and the UI rendering engine rendering the UI in accordance with the visual node tree independently of further input from the UI client engine. the Ul rendering engine receiving, for each of the multiple applications, from a Ul client engine associated with the application, a Ul component tree for the application; the Ul rendering engine joining the plurality of received Ul component trees into a single tree structure; the Ul rendering engine determining a visual node tree for the single tree structure, said determining including, for each of the multiple applications, the Ul rendering engine setting up visual node trees for each Ul element of a respective Ul component tree in the single tree structure, the Ul rendering engine having predefined visual node trees for each Ul element that the Ul client engine provides; the UI rendering engine asynchronously receiving, from the UI client engine, UI data items related to elements of the UI component tree; the UI rendering engine populating the visual node tree with the UI data items; and the UI rendering engine rendering the UI in accordance with the visual node tree independently of further input from the UI client engine.
Pigment mixtures characterised in that they comprise at least two components, where component A comprises bismuth oxychloride (BiOCI) or boron nitride and component B comprises synthetic flakes selected from the group of mica, silica, alumina, borosilicates, aluminosilicate treated with at least one metal soap or mineral flakes selected from the group of mica treated with at least one metal soap, wherein the metal soap is selected from alkaline earth metal stearates or branched or non-linear isostearates, zinc stearate, aluminum stearate or mixtures thereof, the synthetic or mineral flakes have a particle size in the range of 1-100 μm, and the amount of the metal soap on the surface of the mineral or synthetic flakes is 0.1 - 10 wt.% based on the total weight of mineral or synthetic flakes.
A method for creating simplified representations of an existing virtual 3D model for use in occlusion culling, said method comprising the steps of: receiving said existing virtual 3D model; performing visual hull construction on said existing virtual 3D model using an approximate voxel volume consisting of a plurality of voxels, said voxel volume fully enclosing said existing virtual 3D model and a set of projections from a plurality of viewing angles to provide a visual hull of said existing 3D model; increasing the volumetric size of said visual hull of said existing 3D model to envelop said existing virtual 3D model to provide said visual hull as an occludee model; decreasing the volumetric size of said visual hull of said existing 3D model to be enveloped by said existing virtual 3D model to provide said visual hull as an occluder model; and using said occludee model and said occluder model during runtime in a 3D virtual environment for occlusion culling. receiving said existing virtual 3D model; performing visual hull construction on said existing virtual 3D model using an approximate voxel volume consisting of a plurality of voxels, said voxel volume fully enclosing said existing virtual 3D model and a set of projections from a plurality of viewing angles to provide a visual hull of said existing 3D model; increasing the volumetric size of said visual hull of said existing 3D model to envelop said existing virtual 3D model to provide said visual hull as an occludee model; decreasing the volumetric size of said visual hull of said existing 3D model to be enveloped by said existing virtual 3D model to provide said visual hull as an occluder model; and using said occludee model and said occluder model during runtime in a 3D virtual environment for occlusion culling.
A smoking article with reduced ignition propensity, comprising: a tobacco column; and a wrapper surrounding the tobacco column, the wrapper comprising a porous structure with a base permeability and a pattern of phase transition material formed on a surface of the wrapper such that: i) at room temperature, the permeability of the wrapper having the phase transition material on its surface does not change or decreases the wrapper base permeability by more than 20% as a result of the phase transition material, and ii) when the phase transition material is subjected to the heat of a burning firecone of the tobacco column, the phase transition material at least partially fills the wrapper porous structure in the vicinity of the burning firecone to form a nonfixed band on the wrapper having a reduced permeability that is lower than the wrapper base permeability, the reduced permeability selected to permit sufficient air flow through the wrapper to sustain free bum, and the reduced permeability further selected to impart reduced ignition propensity when the smoking article is placed on a substrate. a tobacco column; and a wrapper surrounding the tobacco column, the wrapper comprising a porous structure with a base permeability and a pattern of phase transition material formed on a surface of the wrapper such that: i) at room temperature, the permeability of the wrapper having the phase transition material on its surface does not change or decreases the wrapper base permeability by more than 20% as a result of the phase transition material, and ii) when the phase transition material is subjected to the heat of a burning firecone of the tobacco column, the phase transition material at least partially fills the wrapper porous structure in the vicinity of the burning firecone to form a nonfixed band on the wrapper having a reduced permeability that is lower than the wrapper base permeability, the reduced permeability selected to permit sufficient air flow through the wrapper to sustain free bum, and the reduced permeability further selected to impart reduced ignition propensity when the smoking article is placed on a substrate. i) at room temperature, the permeability of the wrapper having the phase transition material on its surface does not change or decreases the wrapper base permeability by more than 20% as a result of the phase transition material, and ii) when the phase transition material is subjected to the heat of a burning firecone of the tobacco column, the phase transition material at least partially fills the wrapper porous structure in the vicinity of the burning firecone to form a nonfixed band on the wrapper having a reduced permeability that is lower than the wrapper base permeability, the reduced permeability selected to permit sufficient air flow through the wrapper to sustain free bum, and the reduced permeability further selected to impart reduced ignition propensity when the smoking article is placed on a substrate.
A mid-turbine frame for a gas turbine engine, comprising: a first frame case; and a flange coupled to the first frame case, a heat shield adjacent to the flange and between adjacent spokes, a cooling cavity defined between the heat shield and the flange, the cooling cavity having an inlet bounded by the first frame case and an outlet bounded by a conduit coupled to the flange, wherein the heat shield includes a first portion and a second portion, the first portion extends in a circumferential direction, the second portion extends in a radial direction and abuts the first frame case, wherein a perimeter of the heat shield mates with a perimeter of the flange. a first frame case; and a flange coupled to the first frame case, a heat shield adjacent to the flange and between adjacent spokes, a cooling cavity defined between the heat shield and the flange, the cooling cavity having an inlet bounded by the first frame case and an outlet bounded by a conduit coupled to the flange, wherein the heat shield includes a first portion and a second portion, the first portion extends in a circumferential direction, the second portion extends in a radial direction and abuts the first frame case, wherein a perimeter of the heat shield mates with a perimeter of the flange.
A pharmaceutical composition, comprising a chemotherapeutically-effective amount of a first iNOS inhibitor, wherein the first iNOS inhibitor is N G -monomethyl-L-arginine [L-NMMA]; and a therapeutically-effective amount of a first antihypertensive agent that comprises a first calcium channel antagonist wherein the first antihypertensive agent comprises amlodipine, and further comprising a first chemotherapeutic agent where the first chemotherapeutic agent comprises docetaxel.
A method for supplying lithium to an electrode plate, characterized by comprising the following steps: 10) compositing a first substrate and a first lithium strip to form a first composite lithium strip, and forming an obstruction using a second substrate between the first lithium strip and a compositing device, 11) adjusting a temperature of the compositing device to adjust a temperature of the first lithium strip during compositing, 20) compositing the first composite lithium strip and an electrode plate to be supplied with lithium to form a lithium supplied composite electrode plate, during the compositing process, the first substrate in the first composite lithium strip is located at a side away from the electrode plate to be supplied with lithium, 30) peeling and reeling the first substrate from the lithium supplied composite electrode plate, to form a lithium supplied electrode plate. 10) compositing a first substrate and a first lithium strip to form a first composite lithium strip, and forming an obstruction using a second substrate between the first lithium strip and a compositing device, 11) adjusting a temperature of the compositing device to adjust a temperature of the first lithium strip during compositing, 20) compositing the first composite lithium strip and an electrode plate to be supplied with lithium to form a lithium supplied composite electrode plate, during the compositing process, the first substrate in the first composite lithium strip is located at a side away from the electrode plate to be supplied with lithium, 30) peeling and reeling the first substrate from the lithium supplied composite electrode plate, to form a lithium supplied electrode plate.
Drinks container, in particular beer keg, preferably 5L party beer keg, for providing and dispensing a liquid, preferably a drink, in particular a beer or beer drink, having a base, a cover and a dispensing device for pressure-assisted discharging of the liquid in the container, wherein within the container there is arranged with gas, preferably with carbon dioxide, a pressure vessel which is associated with a control valve which is for discharging the gas into the container and which can be activated from outside the container by means of an activation device, wherein by discharging the gas the pressure inside the container can be adjusted to a value which regardless of the quantity of liquid in the container is required to discharge the liquid from the container and which where applicable keeps the liquid in or remaining in the container fresh, wherein the activation device is installed in such a sealing manner in the base of the container that it extends from the inner side of the container to the outer side of the container and can be activated from outside the container, according to which the control valve discharges gas from the pressure vessel depending on the internal pressure applied in the container, characterised in that the pressure vessel is configured in the manner of an aerosol vessel with an outlet valve and is securely arranged in an inverted state in the container, that is to say, with a dome region of the pressure vessel and the outlet valve directed in a downward direction or facing the base. wherein within the container there is arranged with gas, preferably with carbon dioxide, a pressure vessel which is associated with a control valve which is for discharging the gas into the container and which can be activated from outside the container by means of an activation device, wherein by discharging the gas the pressure inside the container can be adjusted to a value which regardless of the quantity of liquid in the container is required to discharge the liquid from the container and which where applicable keeps the liquid in or remaining in the container fresh, wherein the activation device is installed in such a sealing manner in the base of the container that it extends from the inner side of the container to the outer side of the container and can be activated from outside the container, according to which the control valve discharges gas from the pressure vessel depending on the internal pressure applied in the container, characterised in that the pressure vessel is configured in the manner of an aerosol vessel with an outlet valve and is securely arranged in an inverted state in the container, that is to say, with a dome region of the pressure vessel and the outlet valve directed in a downward direction or facing the base.
System for removing space debris from an orbit around a celestial body, comprising a space vehicle and a capture device for capturing said debris by a harpoon, fixed to said space vehicle, characterised in that said capture device comprises: - a deployable and foldable mast, comprising a base fixed to said space vehicle and an opposite end, - means for deploying and folding said deployable mast, - at least one harpoon, - and means for projecting said harpoon from the end of said deployable mast. - a deployable and foldable mast, comprising a base fixed to said space vehicle and an opposite end, - means for deploying and folding said deployable mast, - at least one harpoon, - and means for projecting said harpoon from the end of said deployable mast.
Camshaft having a carrier shaft which can be mounted so as to be rotatable about a shaft axis, wherein at least one cam assembly is arranged in axially displaceable fashion on the carrier shaft, and wherein the cam assembly comprises at least two cams (13, 14, 26, 27, 28, 29, 32, 33, 34) and at least one adjustment element (15, 36) for the axial adjustment of the cam assembly, characterized in that the cams (13, 14, 26, 27, 28, 29, 32, 33, 34) and the at least one adjustment element (15, 36), in an axially adjacent arrangement, are cast together by way of a formed-on body, wherein the body is formed onto at least one cam (13, 14, 26, 27, 28, 29, 32, 33, 34) and the adjustment element (15, 36) by way of a primary forming process, and wherein, by way of the formed-on body, an assembly is formed which, in a direct arrangement on the carrier shaft, can be received on the latter in axially displaceable fashion, wherein the cams (13, 14, 26, 27, 28, 29, 32, 33, 34) have an internal toothing which is in engagement, in axially displaceable fashion, with an external toothing of the carrier shaft.
A cleaning adapter for cleaning printheads in an installation for printing three-dimensional containers, wherein the installation comprises a printing machine, which comprises at least one printhead configured as an inkjet printhead, and a transport system, the containers to be printed being moved thereby to the at least one printhead for printing purposes, wherein a region to be printed on the container is positioned in front of the printhead, the container is moved past the printhead and at the same time is printed with liquid printing inks via the inkjet printhead, and wherein the cleaning adapter is configured such that the cleaning adapter is able to be introduced into the transport system in place of a container to be printed, and for cleaning purposes is able to be moved by the transport system to the printhead and positioned in front of the printhead, characterised in that the cleaning adapter is formed by an at least partially hollow container which comprises at least one opening, wherein in the regions of the cleaning adapter in which the transport system acts on the cleaning adapter during transport, the cleaning adapter has an external shape corresponding to the container to be printed, so that the cleaning adapter is positioned by utilising the transport system for the containers to be printed.
An aerosol delivery device comprising at least one housing defining a reservoir configured to retain aerosol precursor composition, and contained within the at least one housing: a heating element controllable to activate and vaporize components of the aerosol precursor composition; and a power source configured to power the heating element to activate and vaporize said components of the aerosol precursor composition, the power source comprising a rechargeable supercapacitor, characterized in that the supercapacitor comprises a corrugated graphene-based structure, the power source further comprising a photovoltaic cell or piezoelectric energy source, wherein the rechargeable supercapacitor is integrated with the photovoltaic cell or piezoelectric energy source such that the rechargeable supercapacitor is rechargeable from the photovoltaic cell or piezoelectric energy source; and wherein the power source further comprises a rechargeable thin-film solid state battery connectable with and chargeable from the supercapacitor, and the power source being configured to provide power to the heating element includes being configured to provide power from the thin-film solid state battery to the heating element. a heating element controllable to activate and vaporize components of the aerosol precursor composition; and a power source configured to power the heating element to activate and vaporize said components of the aerosol precursor composition, the power source comprising a rechargeable supercapacitor, characterized in that the supercapacitor comprises a corrugated graphene-based structure, the power source further comprising a photovoltaic cell or piezoelectric energy source, wherein the rechargeable supercapacitor is integrated with the photovoltaic cell or piezoelectric energy source such that the rechargeable supercapacitor is rechargeable from the photovoltaic cell or piezoelectric energy source; and wherein the power source further comprises a rechargeable thin-film solid state battery connectable with and chargeable from the supercapacitor, and the power source being configured to provide power to the heating element includes being configured to provide power from the thin-film solid state battery to the heating element.
Paper coating compositions containing: i) from 30 to 80% by weight of inorganic pigment; ii) from 0.05 to 3.0 parts by weight each 100 parts by weight of pigment of a polyether having poly(ethylene oxide) content higher than 60% by weight and obtained by reacting: a) 1 equivalent of a polyol containing at least one polyoxyethylene chain -(CH 2 CH 2 O) n - in which n is a number comprised between 15 and 500; b) from 0.4 to 1.3 equivalents of a diglycidyl ether of formula: in which R 1 is the radical (i): in which R 2, R 3 are each independently Me, Et or H; or R 1 is phenylene, optionally substituted with one or more alkyl group; or R 1 is biphenylene, optionally substituted with one or more alkyl group; or R 1 is the radical (ii): or R 1 is a linear or branched aliphatic alkylene radical containing from 2 to 6 carbon atoms; c) from 0 to 1 equivalents of a monofunctional alcohol; iii) at least 15% by weight of water. iii) at least 15% by weight of water.
A kit for the therapeutic treatment of breast cancer, comprising: a) -2-((2-( -4-(difluoromethyl)-2-oxooxazolidin-3-yl)-5,6-dihydrobenzo[ f]imidazo[1,2- d][1,4]oxazepin-9-yl)amino)propanamide having the structure and b) instructions for use in the therapeutic treatment of breast cancer, wherein the instructions for use indicate that the compound of a) is used for treating breast cancer. a) -2-((2-( -4-(difluoromethyl)-2-oxooxazolidin-3-yl)-5,6-dihydrobenzo[ f]imidazo[1,2- d][1,4]oxazepin-9-yl)amino)propanamide having the structure and b) instructions for use in the therapeutic treatment of breast cancer, wherein the instructions for use indicate that the compound of a) is used for treating breast cancer.
A method for decoding a bitstream for a video signal comprising at least one coding block with a decoding apparatus, the method comprising: obtaining, with the decoding apparatus, a plurality of prediction blocks being partitioned from the coding block; obtaining, with the decoding apparatus, merge flag information of a current prediction block of the plurality of prediction blocks from the bitstream, the merge flag information indicating whether the current prediction block is coded in a merge mode; obtaining, with the decoding apparatus, merge index information of the current prediction block from the bitstream, the merge index information specifying a merging candidate to be merged with the current prediction block from among merging candidates including spatial and temporal neighboring blocks of the current prediction block; deriving, with the decoding apparatus, prediction information of the current prediction block based on the merging candidates and the merge index information, the prediction information including motion vector information and reference index information; and decoding, with the decoding apparatus, the current prediction block based on the prediction information of the current prediction block, wherein, when the coding block 2Nx2N is partitioned into a top 2NxN prediction block and a bottom 2NxN prediction block and the current prediction block is the bottom 2NxN prediction block of the coding block, the top 2NxN prediction block of the coding block is excluded from the merging candidates. obtaining, with the decoding apparatus, a plurality of prediction blocks being partitioned from the coding block; obtaining, with the decoding apparatus, merge flag information of a current prediction block of the plurality of prediction blocks from the bitstream, the merge flag information indicating whether the current prediction block is coded in a merge mode; obtaining, with the decoding apparatus, merge index information of the current prediction block from the bitstream, the merge index information specifying a merging candidate to be merged with the current prediction block from among merging candidates including spatial and temporal neighboring blocks of the current prediction block; deriving, with the decoding apparatus, prediction information of the current prediction block based on the merging candidates and the merge index information, the prediction information including motion vector information and reference index information; and decoding, with the decoding apparatus, the current prediction block based on the prediction information of the current prediction block, wherein, when the coding block 2Nx2N is partitioned into a top 2NxN prediction block and a bottom 2NxN prediction block and the current prediction block is the bottom 2NxN prediction block of the coding block, the top 2NxN prediction block of the coding block is excluded from the merging candidates.