mhurhangee/ep-ind-claims huggingface dataset:
A method of animating an object comprising: generating, by a processor, a deformation graph automatically from an input mesh defining the object, the generating comprising: defining a plurality of node positions from the input mesh using sampling; creating a nearest neighbor graph by connecting each node to a number of nearest neighbor nodes; the sampling and the creating of the nearest neighbor graph both using a 5D orientation-aware distance D ( p,q) which is defined as: D p q = min dist q p, dist p q or D p q = min dist q p, dist p q max 0, n → p ⋅ n → q where: dist q p = ‖ p − q + 2 p − q. n → q n → q ‖ dist p q = ‖ q − p + 2 q − p. n → p n → p ‖ where p and q are samples with normals n p and n q,; receiving body tracking data defining positions of one or more points on a body; mapping points on a skeleton to points on the deformation graph using the body tracking data to generate a tracked skeleton; transforming the deformation graph in real-time by computing a plurality of transformations on the deformation graph based on motion of the tracked skeleton; and dynamically applying the plurality of transformations to the input mesh to render a corresponding animation of the object. generating, by a processor, a deformation graph automatically from an input mesh defining the object, the generating comprising: defining a plurality of node positions from the input mesh using sampling; creating a nearest neighbor graph by connecting each node to a number of nearest neighbor nodes; defining a plurality of node positions from the input mesh using sampling; creating a nearest neighbor graph by connecting each node to a number of nearest neighbor nodes; the sampling and the creating of the nearest neighbor graph both using a 5D orientation-aware distance D ( p,q) which is defined as: D p q = min dist q p, dist p q or D p q = min dist q p, dist p q max 0, n → p ⋅ n → q where: dist q p = ‖ p − q + 2 p − q. n → q n → q ‖ dist p q = ‖ q − p + 2 q − p. n → p n → p ‖ where p and q are samples with normals n p and n q,; receiving body tracking data defining positions of one or more points on a body; mapping points on a skeleton to points on the deformation graph using the body tracking data to generate a tracked skeleton; transforming the deformation graph in real-time by computing a plurality of transformations on the deformation graph based on motion of the tracked skeleton; and dynamically applying the plurality of transformations to the input mesh to render a corresponding animation of the object.
An electrolyser, preferably alkaline water electrolyser, comprising: a first end plate and a second end plate; a plurality of cells serially stacked in-between the first end plate and the second end plate; wherein each cell comprises: a bipolar-plate assembly, comprising a bipolar plate placed between a first cell frame and a first gasket; wherein the first gasket is assembled to overlap a predefined part of the first cell frame and a predefined part of the bipolar plate; a cell-membrane assembly, comprising a cell membrane placed between a second cell frame and a second gasket; wherein the second gasket is assembled to overlap a predefined part of the second cell frame and a predefined part of the cell membrane; a plurality of electrodes, and a plurality of spacers; wherein a first electrode and a first spacer are placed in-between the bipolar plate of the bipolar-plate assembly and the cell membrane of the cell-membrane assembly; and wherein a second electrode and a second spacer are placed in-between the cell membrane of the cell-membrane assembly and the bipolar plate of the bipolar-plate assembly of an adjacent cell. a first end plate and a second end plate; a plurality of cells serially stacked in-between the first end plate and the second end plate; wherein each cell comprises: a bipolar-plate assembly, comprising a bipolar plate placed between a first cell frame and a first gasket; wherein the first gasket is assembled to overlap a predefined part of the first cell frame and a predefined part of the bipolar plate; a cell-membrane assembly, comprising a cell membrane placed between a second cell frame and a second gasket; wherein the second gasket is assembled to overlap a predefined part of the second cell frame and a predefined part of the cell membrane; a plurality of electrodes, and a plurality of spacers; wherein a first electrode and a first spacer are placed in-between the bipolar plate of the bipolar-plate assembly and the cell membrane of the cell-membrane assembly; and wherein a second electrode and a second spacer are placed in-between the cell membrane of the cell-membrane assembly and the bipolar plate of the bipolar-plate assembly of an adjacent cell. a bipolar-plate assembly, comprising a bipolar plate placed between a first cell frame and a first gasket; wherein the first gasket is assembled to overlap a predefined part of the first cell frame and a predefined part of the bipolar plate; a cell-membrane assembly, comprising a cell membrane placed between a second cell frame and a second gasket; wherein the second gasket is assembled to overlap a predefined part of the second cell frame and a predefined part of the cell membrane; a plurality of electrodes, and a plurality of spacers; wherein a first electrode and a first spacer are placed in-between the bipolar plate of the bipolar-plate assembly and the cell membrane of the cell-membrane assembly; and wherein a second electrode and a second spacer are placed in-between the cell membrane of the cell-membrane assembly and the bipolar plate of the bipolar-plate assembly of an adjacent cell.
A chemically immobilized heterogeneous single site polymerization catalyst represented by Formula I. wherein, M is a Group IV transition metal; R 1 is or a functionalized inorganic oxide support selected from the group consisting of such that R 8 is a molecule having a carboxylic or sulphonic acid group. R 2 - R 5, are independently, H or a hydrocarbon; R 6 is t-butyl; R 7 is a functionalized inorganic oxide support selected from the group consisting of such that R 8 is a molecule having a carboxylic or sulphonic acid group. and X 1 and X 2 are independently F, Cl, Br or I. M is a Group IV transition metal; R 1 is or a functionalized inorganic oxide support selected from the group consisting of such that R 8 is a molecule having a carboxylic or sulphonic acid group. R 2 - R 5, are independently, H or a hydrocarbon; R 6 is t-butyl; R 7 is a functionalized inorganic oxide support selected from the group consisting of such that R 8 is a molecule having a carboxylic or sulphonic acid group. and X 1 and X 2 are independently F, Cl, Br or I.
A method of recovering a bead support from an emulsion, the method comprising: supplying an aqueous surfactant solution into a centrifuge tube; the surfactant solution including an anionic surfactant in a range of 5.0% to 15.0% and including a non-ionic surfactant in a range of 0.05% to 8.0%, wherein a ratio of the volume of the aqueous surfactant solution to the volume of the centrifuge tube is not greater than 0.5 and at least 0.01; and preparing an emulsion comprising a sample of template bead supports in a dispersed aqueous phase and a hydrophobic liquid in a continuous phase; applying the emulsion into the centrifuge tube while centrifuging; and recovering the sample of template bead supports from the surfactant solution. supplying an aqueous surfactant solution into a centrifuge tube; the surfactant solution including an anionic surfactant in a range of 5.0% to 15.0% and including a non-ionic surfactant in a range of 0.05% to 8.0%, wherein a ratio of the volume of the aqueous surfactant solution to the volume of the centrifuge tube is not greater than 0.5 and at least 0.01; and preparing an emulsion comprising a sample of template bead supports in a dispersed aqueous phase and a hydrophobic liquid in a continuous phase; applying the emulsion into the centrifuge tube while centrifuging; and recovering the sample of template bead supports from the surfactant solution.
The use of a solvent for treating polysilazane as an edge-rinsing solution, a back-rinsing solution or a washing solution for a coating apparatus in forming a polysilazane film for forming a siliceous coated film, or as a washing solution for polysilazane film to be used as a dielectric film, insulating film or a partition film in plasma display panels, which is a single or mixed solvent comprising one or more members selected from the group consisting of xylene, anisole, decalin, cyclohexane, cycylohexene, methylcyclohexane, ethylcyclohexane, limonene, hexane, octane, nonane, decane, a C8-C11 alkane mixture, a C8-C11 aromatic hydrocarbon mixture, an aliphatic/alicyclic hydrocarbon mixture containing 5 to 25 % by weight of C8 or more aromatic hydrocarbons, and dibutyl ether, wherein the number of 0.5 micron or more fine particles contained in 1 ml of the solvent is 50 or less and the water content of the solvent is 100 ppm or less.
A method of performing target parameter analysis for an assembly line including a plurality of stations, the method comprising: receiving, with an electronic processor, training data associated witht the assembly line, the training data including a plurality of attributes; characterized by the following steps: receiving, with the electronic processor, value addition data for each of the plurality of stations, the value addition data for each of the plurality of stations specifying a non-negative value added by each of the plurality of stations; learning, with the electronic processor, a decision tree based on the training data and the value addition data; and performing the target parameter analysis based on the decision tree. receiving, with an electronic processor, training data associated witht the assembly line, the training data including a plurality of attributes; characterized by the following steps: receiving, with the electronic processor, value addition data for each of the plurality of stations, the value addition data for each of the plurality of stations specifying a non-negative value added by each of the plurality of stations; learning, with the electronic processor, a decision tree based on the training data and the value addition data; and performing the target parameter analysis based on the decision tree. receiving, with the electronic processor, value addition data for each of the plurality of stations, the value addition data for each of the plurality of stations specifying a non-negative value added by each of the plurality of stations; learning, with the electronic processor, a decision tree based on the training data and the value addition data; and performing the target parameter analysis based on the decision tree.
An electronic device, comprising: a receive, RX, coil wound as to form a surface such that a central portion of the RX coil is empty; a device magnetic substance disposed at a distance from the central portion of the RX coil; and a wireless charging module configured to receive power induced to the RX coil; wherein the device magnetic substance comprises a plurality of sub-magnets disposed at intervals on outer portions of the RX coil; wherein the plurality of sub-magnets are disposed symmetrically with each other at predetermined interval around a central point of the RX coil characterised in that the device magnetic substance includes at least one rod-shaped magnetic substance which connects to at least two points on the plurality of sub-magnets. a receive, RX, coil wound as to form a surface such that a central portion of the RX coil is empty; a device magnetic substance disposed at a distance from the central portion of the RX coil; and a wireless charging module configured to receive power induced to the RX coil; wherein the device magnetic substance comprises a plurality of sub-magnets disposed at intervals on outer portions of the RX coil; wherein the plurality of sub-magnets are disposed symmetrically with each other at predetermined interval around a central point of the RX coil characterised in that the device magnetic substance includes at least one rod-shaped magnetic substance which connects to at least two points on the plurality of sub-magnets.
A fluid actuator control system having control algorithms for controlling the motion of an actuator comprising: a microprocessor containing control algorithms; a control valve for controlling the flow of a pressurized fluid to the actuator; a valve position sensor connected to said control valve and generating a position signal; and a supervisory controller separate from the microprocessor; where said microprocessor receives distributed control command signals from said supervisory controller; where said supervisory controller monitors an operational state of said microprocessor but without manipulating said control valve or monitoring said valve position sensor or the pressurized fluid; and where the microprocessor generates at least one control valve command signal in response to the distributed command signals received from said supervisory controller, and said control valve command signals are transmitted to said control valve which moves so as to allow pressurized fluid to enter the actuator to cause the actuator to move thereby causing said valve position sensor to transmit a changed position signal to said microprocessor, and not to said supervisory controller, for use in a closed loop control algorithm executed by the microprocessor. a microprocessor containing control algorithms; a control valve for controlling the flow of a pressurized fluid to the actuator; a valve position sensor connected to said control valve and generating a position signal; and a supervisory controller separate from the microprocessor; where said microprocessor receives distributed control command signals from said supervisory controller; where said supervisory controller monitors an operational state of said microprocessor but without manipulating said control valve or monitoring said valve position sensor or the pressurized fluid; and where the microprocessor generates at least one control valve command signal in response to the distributed command signals received from said supervisory controller, and said control valve command signals are transmitted to said control valve which moves so as to allow pressurized fluid to enter the actuator to cause the actuator to move thereby causing said valve position sensor to transmit a changed position signal to said microprocessor, and not to said supervisory controller, for use in a closed loop control algorithm executed by the microprocessor.
Method to produce a capsulated pressed reduced iron compound, which is completely encapsulated by a covering material, comprising the steps of reducing iron ore in an iron ore direct reduction shaft furnace and subjecting a certain amount of the thus obtained reduced iron or sponge iron to a cold briquetting or cold forming process executed in a forming device, wherein the certain amount of reduced iron or of sponge iron is delivered to at least one mould arranged in the forming device, where it is exposed to a compressive force and press-formed to constitute the capsulated pressed reduced iron compound having a shape corresponding to the form provided by the at least one mould arranged in the forming device and having an apparent density of greater than 5.0 g/cm 3, and wherein either the certain amount of reduced iron or sponge iron is completely encapsulated by means of a covering material having a thickness of utmost 1.0 mm and/or of at least 0.2 mm and which is provided before the certain amount of reduced iron or sponge iron is exposed to the compressive force, wherein the certain amount of reduced iron or sponge iron is completely encapsulated by the covering material having a thickness of utmost 1.0 mm and/or of at least 0.2 mm to cover the outside of the certain amount of reduced iron or sponge iron before it is delivered to the at least one mould provided in the forming device and before it is exposed to the compressive force press-forming said iron compound, or wherein the certain amount of reduced iron or sponge iron is completely encapsulated by means of a covering material having a thickness of utmost 1.0 mm and/or of at least 0.2 mm and which is provided during the certain amount of reduced iron or sponge iron is exposed to the compressive force, wherein the certain amount of reduced iron or sponge iron is completely encapsulated by the covering material having a thickness of utmost 1.0 mm and/or of at least 0.2 mm which is simultaneously provided to build an encapsulating layer within the mould when the certain amount of reduced iron or sponge iron is exposed to the compressive force and press-formed to said iron compound, or wherein the certain amount of reduced iron or sponge iron is completely encapsulated by means of a covering material having a thickness of utmost 1.0 mm and/or of at least 0.2 mm and which is provided immediately after the certain amount of reduced iron or sponge iron is press-formed by means of the compressive force to embody the form of the iron compound, wherein the covering material having a thickness of utmost 1.0 mm and/or of at least 0.2 mm is attached to form an encapsulating envelop of said iron compound.
A network unit adapted to transmit a video channel (Chx) to be played at a nominal motion speed, which network unit comprising: - a signaling means adapted to receive a request (Join_chx) from a decoding device whereby transmission of said video channel is requested, - a video transmitting means adapted thereupon to transmit said video channel towards said decoding device, initially as a dedicated multimedia stream (UC_Chx) dedicatedly supplied to said decoding device and comprising an anchor frame as first transmitted video frame, and further in time as a common multimedia stream (MC_Chx) commonly supplied to a plurality of decoding devices (200, 220), wherein said video transmitting means is further adapted to transmit said video channel within said dedicated multimedia stream ahead of time with respect to transmission of said video channel within said common multimedia stream, and said video channel is to be initially played at an averagely slower motion speed by said decoding device, thereby allowing transmission of said video channel towards said decoding device to be resumed with said common multimedia stream. - a signaling means adapted to receive a request (Join_chx) from a decoding device whereby transmission of said video channel is requested, - a video transmitting means adapted thereupon to transmit said video channel towards said decoding device, initially as a dedicated multimedia stream (UC_Chx) dedicatedly supplied to said decoding device and comprising an anchor frame as first transmitted video frame, and further in time as a common multimedia stream (MC_Chx) commonly supplied to a plurality of decoding devices (200, 220),
Method for manufacturing a grain-oriented electrical steel strip provided with an insulating layer, comprising at least the following steps: providing a grain-oriented electrical steel strip, which has a forsterite layer on the surface, applying an insulating layer at least on the forsterite layer on one side of the grain-oriented electrical steel strip, characterised in that applying the insulating layer in the form of a film or in the form of particles on the grain-oriented electrical steel strip is carried out by means of a bottom-up method, in that at least one precursor from the exhaust gas of a flame reactor or a microwave plasma reactor is applied to the grain-oriented electrical steel strip, - wherein in the event that a flame reactor is used, - an air-fuel ratio λ of ≥ 1 is set, - the precursor is applied dissolved in at least one organic solvent, and - the pressure in the flame reactor is at most equal to the atmospheric pressure, and - wherein in the event that a microwave plasma reactor is used, - the pressure in the microwave plasma reactor is atmospheric pressure, - the at least one precursor is used in gaseous form in a mixture with at least one gas, and - the plasma gases are set so that the local oxygen-to-carbon ratio in the coagulation zone of the microwave plasma reactor yields a significant excess of oxygen so that the carbon is completely combusted, - in such a way that the insulating layer formed on the grain-oriented electrical steel strip is free of a hydrocarbon network. providing a grain-oriented electrical steel strip, which has a forsterite layer on the surface, applying an insulating layer at least on the forsterite layer on one side of the grain-oriented electrical steel strip, - wherein in the event that a flame reactor is used, - an air-fuel ratio λ of ≥ 1 is set, - the precursor is applied dissolved in at least one organic solvent, and - the pressure in the flame reactor is at most equal to the atmospheric pressure, and - an air-fuel ratio λ of ≥ 1 is set, - the precursor is applied dissolved in at least one organic solvent, and - the pressure in the flame reactor is at most equal to the atmospheric pressure, and - wherein in the event that a microwave plasma reactor is used, - the pressure in the microwave plasma reactor is atmospheric pressure, - the at least one precursor is used in gaseous form in a mixture with at least one gas, and - the plasma gases are set so that the local oxygen-to-carbon ratio in the coagulation zone of the microwave plasma reactor yields a significant excess of oxygen so that the carbon is completely combusted, - the pressure in the microwave plasma reactor is atmospheric pressure, - the at least one precursor is used in gaseous form in a mixture with at least one gas, and - the plasma gases are set so that the local oxygen-to-carbon ratio in the coagulation zone of the microwave plasma reactor yields a significant excess of oxygen so that the carbon is completely combusted, - in such a way that the insulating layer formed on the grain-oriented electrical steel strip is free of a hydrocarbon network.
An insulating tape for a nonaqueous battery, comprising: a base material; and a pressure-sensitive adhesive layer arranged on at least one side of the base material, wherein the pressure-sensitive adhesive layer contains a base polymer, wherein the pressure-sensitive adhesive layer contains an insulating inorganic filler, the content of the insulating inorganic filler in the pressure-sensitive adhesive layer is from 10 parts by weight to 200 parts by weight with respect to 100 parts by weight of the base polymer, wherein the insulating inorganic filler comprises at least one kind selected from the group consisting of magnesium hydroxide, magnesium carbonate, magnesium oxide, alumina, boron nitride, and titanium oxide, and wherein the pressure-sensitive adhesive layer contains an acrylic polymer having, on a side chain thereof, an alkyl group having 4 or more carbon atoms. a base material; and a pressure-sensitive adhesive layer arranged on at least one side of the base material, wherein the pressure-sensitive adhesive layer contains a base polymer, wherein the pressure-sensitive adhesive layer contains an insulating inorganic filler, the content of the insulating inorganic filler in the pressure-sensitive adhesive layer is from 10 parts by weight to 200 parts by weight with respect to 100 parts by weight of the base polymer, wherein the insulating inorganic filler comprises at least one kind selected from the group consisting of magnesium hydroxide, magnesium carbonate, magnesium oxide, alumina, boron nitride, and titanium oxide, and wherein the pressure-sensitive adhesive layer contains an acrylic polymer having, on a side chain thereof, an alkyl group having 4 or more carbon atoms.