mhurhangee/ep-ind-claims huggingface dataset:
Method for liquid condition assessment in a liquid lubrication system for a work system operable in at least two different operation modes, wherein said liquid condition assessment comprises - measuring monitored liquid condition data, - determining a current operating modus of said work system, - based on said current operating modus selecting a corresponding mathematical model (601, 601',... 601 N) from a list of at least two mathematical models, - modelling corresponding simulated liquid condition data based on said mathematical model, - assessing the liquid condition by comparing the monitored liquid condition data with said simulated liquid condition data thereby providing a significantly normal distributed data set for said liquid condition assessment. - measuring monitored liquid condition data, - determining a current operating modus of said work system, - based on said current operating modus selecting a corresponding mathematical model (601, 601',... 601 N) from a list of at least two mathematical models, - modelling corresponding simulated liquid condition data based on said mathematical model, - assessing the liquid condition by comparing the monitored liquid condition data with said simulated liquid condition data thereby providing a significantly normal distributed data set for said liquid condition assessment.
A method for rewinding a scheduled video, the method being carried out at a user equipment device and comprising: accessing the video after the start of the transmission of the video; receiving a rewind stream that includes the video transmitted prior to when the video was first accessed, wherein the rewind stream streams the video backwards from the time when the video was first accessed toward the beginning of the video without skipping any frames; caching the rewind stream in a rewind buffer; rewinding the video through the rewind buffer; and playing back the video from the rewind buffer. accessing the video after the start of the transmission of the video; receiving a rewind stream that includes the video transmitted prior to when the video was first accessed, wherein the rewind stream streams the video backwards from the time when the video was first accessed toward the beginning of the video without skipping any frames; caching the rewind stream in a rewind buffer; rewinding the video through the rewind buffer; and playing back the video from the rewind buffer.
A method of preserving an organotypically cultured skin equivalent for use as a wound dressing comprising: providing said organotypically cultured skin equivalent comprising NIKS cells and a package; treating said skin equivalent by irradiation with a dose from 5 kGy to 25 kGy gamma radiation and drying to eliminate cell viability in the skin equivalent; and packaging said skin equivalent to provide a packaged skin equivalent. providing said organotypically cultured skin equivalent comprising NIKS cells and a package; treating said skin equivalent by irradiation with a dose from 5 kGy to 25 kGy gamma radiation and drying to eliminate cell viability in the skin equivalent; and packaging said skin equivalent to provide a packaged skin equivalent.
A capsule for oral administration comprising (a) 3 - 40 % of a pharmaceutically acceptable salt of the drug substance 3-(2,6-dichloro-3,5-dimethoxy-phenyl)-1-{6-[4-(4-ethyl-piperazin-1-yl)-phenylamino]-pyrimidin-4-yl}-1-methyl-urea, by weight of the drug substance in its free base form based on the total weight of the content of the capsule, (b) one or more binders selected from a sugar, a gelatin, a natural gum, sorbitol, maltodextrin, sodium alginate, an alginate, polyvinylpyrrolidone, a cellulose, and a cellulose derivative, and (c) one or more disintegrants selected from a starch, a clay, a crosslinked cellulose, a crosslinked cellulose derivative, and a cross-linked polyvinylpyrrolidone, wherein the process for making the capsules comprises a wet granulation process step that includes 1) wet granulating with an aqueous granulating fluid the pharmaceutically acceptable salt of the drug substance with the one or more binders, the one or more disintegrants, and optionally, one or more additional pharmaceutical excipient, to obtain granules, 2) mixing the granules with additional pharmaceutical excipients to obtain a pharmaceutical blend and 3) machine-encapsulating the blend into capsules; wherein the process is a compression- and compaction-free process. (a) 3 - 40 % of a pharmaceutically acceptable salt of the drug substance 3-(2,6-dichloro-3,5-dimethoxy-phenyl)-1-{6-[4-(4-ethyl-piperazin-1-yl)-phenylamino]-pyrimidin-4-yl}-1-methyl-urea, by weight of the drug substance in its free base form based on the total weight of the content of the capsule, (b) one or more binders selected from a sugar, a gelatin, a natural gum, sorbitol, maltodextrin, sodium alginate, an alginate, polyvinylpyrrolidone, a cellulose, and a cellulose derivative, and (c) one or more disintegrants selected from a starch, a clay, a crosslinked cellulose, a crosslinked cellulose derivative, and a cross-linked polyvinylpyrrolidone,
A method for producing a steel component comprising a substrate and a coating, wherein the bending angle α of the steel component and the thickness of the interdiffusion layer t IDS at the boundary layer between the substrate and the coating are interlinked in accordance with the general formula: α = − 0.52968 ⋅ t IDS μ m + 62.620 ° comprising at least the steps: provision of a flat steel product containing (all data in % by weight): 0.15 to 0.50 C, 0.50 to 3.0 Mn, 0.10 to 0.50 Si, 0.01 to 1.00 Cr, 0.01 to 0.05 Al, up to 0.20 Ti, up to 0.10 P, up to 0.1 Nb, up to 0.01 N, up to 0.05 S and up to 0.1 B, residual Fe and unavoidable impurities, containing a coating (all figures in % by weight): 3 to 15 Si, 1 to 3.5 Fe, up to 0.5 alkali and/or alkaline earth metals, residual Al and unavoidable impurities, treating the flat steel product at a furnace temperature T 1 (in K) for a duration t 1 (in h) so that P 1 has a value from 0 to 45 in accordance with the equation of the general formula: p 1 = T 1 10 K ⋅ 7.562 + log t 1 h − 746.9 wherein T 1 is 1070 to 1350 K and t 1 is 0.017 to 0.5 h, and forming the heated flat steel product from step in a moulding tool with simultaneous cooling to obtain the steel component. provision of a flat steel product containing (all data in % by weight): 0.15 to 0.50 C, 0.50 to 3.0 Mn, 0.10 to 0.50 Si, 0.01 to 1.00 Cr, 0.01 to 0.05 Al, up to 0.20 Ti, up to 0.10 P, up to 0.1 Nb, up to 0.01 N, up to 0.05 S and up to 0.1 B, residual Fe and unavoidable impurities, containing a coating (all figures in % by weight): 3 to 15 Si, 1 to 3.5 Fe, up to 0.5 alkali and/or alkaline earth metals, residual Al and unavoidable impurities, 0.15 to 0.50 C, 0.50 to 3.0 Mn, 0.10 to 0.50 Si, 0.01 to 1.00 Cr, 0.01 to 0.05 Al, up to 0.20 Ti, up to 0.10 P, up to 0.1 Nb, up to 0.01 N, up to 0.05 S and up to 0.1 B, residual Fe and unavoidable impurities, 3 to 15 Si, 1 to 3.5 Fe, up to 0.5 alkali and/or alkaline earth metals, residual Al and unavoidable impurities, treating the flat steel product at a furnace temperature T 1 (in K) for a duration t 1 (in h) so that P 1 has a value from 0 to 45 in accordance with the equation of the general formula: p 1 = T 1 10 K ⋅ 7.562 + log t 1 h − 746.9 wherein T 1 is 1070 to 1350 K and t 1 is 0.017 to 0.5 h, and forming the heated flat steel product from step in a moulding tool with simultaneous cooling to obtain the steel component.
A method of isolating mammalian endothelial progenitor cells said method comprising the steps of: (i) isolating a mammalian cellular population; (ii) enriching for a subpopulation of the cells of step (i), which subpopulation expresses a CD45 - phenotypic profile; (iii) enriching for a subpopulation of the CD45 - cells derived from step (ii) which express a CD34 + phenotypic profile; and (iv) isolating the subpopulation of CD34 + cells derived from step (iii) which express a CD31 lo/- phenotypic profile, to thereby isolate the endothelial progenitor cells. (i) isolating a mammalian cellular population; (ii) enriching for a subpopulation of the cells of step (i), which subpopulation expresses a CD45 - phenotypic profile; (iii) enriching for a subpopulation of the CD45 - cells derived from step (ii) which express a CD34 + phenotypic profile; and (iv) isolating the subpopulation of CD34 + cells derived from step (iii) which express a CD31 lo/- phenotypic profile, to thereby isolate the endothelial progenitor cells.
A computer-implemented method comprising: aligning a three-dimensional map (131, 142) with a traffic camera view (132, 140) of a multiple-lane road, the three-dimensional map and the traffic camera view having at least one common point with a known location and a scale factor for the traffic camera view, and the three-dimensional map including the real-world three-dimensional locations of the individual lanes of the multiple-lane road; identifying a plurality of lanes in image frames of the traffic camera view using the locations of the individual lanes in the aligned three-dimensional map; tracking vehicles in the plurality of lanes between image frames of the traffic camera view; and calculating a traffic parameter based on the vehicles tracked between image frames from the traffic camera view, wherein the traffic parameter is traffic speed, traffic flow, or traffic density on the multiple-lane road. aligning a three-dimensional map (131, 142) with a traffic camera view (132, 140) of a multiple-lane road, the three-dimensional map and the traffic camera view having at least one common point with a known location and a scale factor for the traffic camera view, and the three-dimensional map including the real-world three-dimensional locations of the individual lanes of the multiple-lane road; identifying a plurality of lanes in image frames of the traffic camera view using the locations of the individual lanes in the aligned three-dimensional map; tracking vehicles in the plurality of lanes between image frames of the traffic camera view; and calculating a traffic parameter based on the vehicles tracked between image frames from the traffic camera view, wherein the traffic parameter is traffic speed, traffic flow, or traffic density on the multiple-lane road.
A balloon catheter comprising, an extension tube; a multi-lumen tube comprising an inflation lumen and a guide wire lumen, the multi-lumen tube having a proximal end and a distal end, the extension tube coupled to the distal end of the multi-lumen tube and extending distally therefrom, and a dilatation balloon disposed about the multi-lumen tube and the extension tube, the distal end of the multi-lumen tube being disposed within the balloon characterised in that the distal end of the multi-lumen tube having a flared configuration to facilitate positioning and securement of the extension tube to the multi-lumen tube.
An article to be manufactured into a display device comprising, on a substrate: a plurality of driving blocks each comprising a plurality of gate lines and a gate shorting structure connecting the ends of the gate lines within the driving block in a trimming region of said article; a first equipotential line extending from one of the plurality of driving blocks to an adjacent driving block; a gate dummy line extending from at least one of the plurality of driving blocks; a plurality of data lines intersecting the plurality of gate lines and the gate dummy line; and an active layer between the gate dummy line and the plurality of data lines and the active layer having portions, which provide electrical connection between the gate dummy line and the plurality of data lines. a plurality of driving blocks each comprising a plurality of gate lines and a gate shorting structure connecting the ends of the gate lines within the driving block in a trimming region of said article; a first equipotential line extending from one of the plurality of driving blocks to an adjacent driving block; a gate dummy line extending from at least one of the plurality of driving blocks; a plurality of data lines intersecting the plurality of gate lines and the gate dummy line; and an active layer between the gate dummy line and the plurality of data lines and the active layer having portions, which provide electrical connection between the gate dummy line and the plurality of data lines.
A camera calibration method, comprising: obtaining a calibration board image, wherein the calibration board image comprises a plurality of annular patterns; obtaining an inner edge and an outer edge of each annular pattern in the calibration board image; determining image coordinates of a center point of each annular pattern according to the inner edge and the outer edge of each annular pattern; and determining internal and external parameters of a camera according to the image coordinates and corresponding world coordinates of the center point of each annular pattern; wherein the determining the image coordinates of the center point of each annular pattern according to the inner edge and the outer edge of each annular pattern comprises: dividing an area between the inner edge and the outer edge of each annular pattern to obtain a plurality of divided blocks; calculating a gravity center of each divided block; and fitting gravity centers of the plurality of divided blocks, and determining the image coordinates of the center point of each annular pattern according to a fitting result. obtaining a calibration board image, wherein the calibration board image comprises a plurality of annular patterns; obtaining an inner edge and an outer edge of each annular pattern in the calibration board image; determining image coordinates of a center point of each annular pattern according to the inner edge and the outer edge of each annular pattern; and determining internal and external parameters of a camera according to the image coordinates and corresponding world coordinates of the center point of each annular pattern; wherein the determining the image coordinates of the center point of each annular pattern according to the inner edge and the outer edge of each annular pattern comprises: dividing an area between the inner edge and the outer edge of each annular pattern to obtain a plurality of divided blocks; calculating a gravity center of each divided block; and fitting gravity centers of the plurality of divided blocks, and determining the image coordinates of the center point of each annular pattern according to a fitting result. dividing an area between the inner edge and the outer edge of each annular pattern to obtain a plurality of divided blocks; calculating a gravity center of each divided block; and fitting gravity centers of the plurality of divided blocks, and determining the image coordinates of the center point of each annular pattern according to a fitting result.
An absorbable occluder comprising a woven mesh which mesh comprises 20-200 polymer filaments, wherein said woven mesh comprises at least two polymer filaments having different centralized degradation time periods and wherein the polydispersity coefficients of said polymer filaments are 1.2-5.
Current collector for a non-rail-bound, electric traction vehicle for feeding electrical energy from a two-pole overhead line system with contact wires (3, 4) embodied as forward and return conductors, comprising - an articulated support linkage, which, on the contact wire side, supports rocker assemblies having contact strips and, on the vehicle side, has a base joint for articulation to the traction vehicle, and - a pneumatic reciprocating drive, which is coupled to the support linkage such that the rocker assemblies can be raised from a lower parking position (h P) into an upper contact position (h K) when the reciprocating drive is pressurised and can be lowered into the parking position (h P) under their own weight when depressurisation occurs, characterised in that - the reciprocating drive can be connected to the environment by means of an exhaust air line in order to lower the rocker assemblies, - wherein an air accumulator and a throttle valve arranged downstream thereof are connected between the reciprocating drive and an environment opening of the exhaust air line, and - wherein a storage capacity of the air accumulator is dimensioned to be less than the operating volume of the reciprocating drive. - an articulated support linkage, which, on the contact wire side, supports rocker assemblies having contact strips and, on the vehicle side, has a base joint for articulation to the traction vehicle, and - a pneumatic reciprocating drive, which is coupled to the support linkage such that the rocker assemblies can be raised from a lower parking position (h P) into an upper contact position (h K) when the reciprocating drive is pressurised and can be lowered into the parking position (h P) under their own weight when depressurisation occurs, - the reciprocating drive can be connected to the environment by means of an exhaust air line in order to lower the rocker assemblies, - wherein an air accumulator and a throttle valve arranged downstream thereof are connected between the reciprocating drive and an environment opening of the exhaust air line, and - wherein a storage capacity of the air accumulator is dimensioned to be less than the operating volume of the reciprocating drive.
A collector-electrode assembly capable of being integrated into an electric energy storage device, including, as a superposition, a highly conductive collector including a substrate and an electrode including a nanostructured active layer formed with a network of nanostructures, characterized in that said nanostructured active layer is covered with a layer including diamond nanoparticles.
A medical device comprising: at least one layer of fabric defining a proximal end, a distal end, and an expanded volume portion between the proximal and distal ends, wherein the expanded volume portion defines a longitudinal axis extending between the proximal and distal ends; a first end feature attached to the proximal end of the at least one layer, wherein the first end feature defines opposing ends (141, 142) and further defines a first axis extending between the opposing ends; and a second end feature disposed at the distal end of the at least one layer, wherein the second end feature defines opposing ends (151, 152) and further defines a second axis extending between the opposing ends, wherein the at least one layer is configured to self-expand from a contracted state (D c) when constrained within a delivery catheter toward an expanded state (D e) when deployed from the delivery catheter for delivery to a target site within the body lumen, and wherein the expanded volume portion of the medical device defines any of a spherical shape, a semi-spherical shape, an ovaloid shape or an ellipsoid shape, characterized in that, in the contracted state, each of the first axis and the second axis is aligned with the longitudinal axis and, in the expanded state, at least one of the first axis or the second axis is different from the longitudinal axis and defines a preset angle (α, β) with the longitudinal axis. at least one layer of fabric defining a proximal end, a distal end, and an expanded volume portion between the proximal and distal ends, wherein the expanded volume portion defines a longitudinal axis extending between the proximal and distal ends; a first end feature attached to the proximal end of the at least one layer, wherein the first end feature defines opposing ends (141, 142) and further defines a first axis extending between the opposing ends; and a second end feature disposed at the distal end of the at least one layer, wherein the second end feature defines opposing ends (151, 152) and further defines a second axis extending between the opposing ends,
Converter of an OTDM optical signal into a WDM optical signal comprising a plurality of devices, mounted in parallel, for the temporal subsampling of the OTDM optical signal at a predetermined subsampling frequency, each temporal subsampling device comprising: - a generator (10 1, 10 2, 10 3, 10 4) of clock pulses emitted at the predetermined subsampling frequency and at a conversion wavelength (λ H1, λ H2, λ H3, λ H4) specific to the subsampling device, - a wavelength conversion device (16 1, 16 2, 16 3, 16 4) receiving as input the OTDM optical signal and the clock pulses at the conversion wavelength (λ H1, λ H2, λ H3, λ H4) specific to the subsampling device, to supply as output a subsampled signal of the optical signal at the conversion wavelength, the conversion device (16 1, 16 2, 16 3, 16 4) comprising: • a linear optical amplifier (18 1, 18 2, 18 3, 18 4) arranged so as to receive the OTDM optical signal and the clock pulses in the reverse direction of propagation, the maximum linear power of the amplifier being set so as to be able to be lower than the peak power of the OTDM optical signal, • a phase modulation to amplitude modulation converter (20 1, 20 2, 20 3, 20 4). - a generator (10 1, 10 2, 10 3, 10 4) of clock pulses emitted at the predetermined subsampling frequency and at a conversion wavelength (λ H1, λ H2, λ H3, λ H4) specific to the subsampling device, - a wavelength conversion device (16 1, 16 2, 16 3, 16 4) receiving as input the OTDM optical signal and the clock pulses at the conversion wavelength (λ H1, λ H2, λ H3, λ H4) specific to the subsampling device, to supply as output a subsampled signal of the optical signal at the conversion wavelength, the conversion device (16 1, 16 2, 16 3, 16 4) comprising: • a linear optical amplifier (18 1, 18 2, 18 3, 18 4) arranged so as to receive the OTDM optical signal and the clock pulses in the reverse direction of propagation, the maximum linear power of the amplifier being set so as to be able to be lower than the peak power of the OTDM optical signal, • a phase modulation to amplitude modulation converter (20 1, 20 2, 20 3, 20 4). • a linear optical amplifier (18 1, 18 2, 18 3, 18 4) arranged so as to receive the OTDM optical signal and the clock pulses in the reverse direction of propagation, the maximum linear power of the amplifier being set so as to be able to be lower than the peak power of the OTDM optical signal, • a phase modulation to amplitude modulation converter (20 1, 20 2, 20 3, 20 4).
A revolving door for a building installation, having opposing drum walls and a ceiling body with an end edge, further having a turnstile which is rotatably arranged between the drum walls and which comprises a plurality of leaf elements, and wherein the drum walls and the end edge, together with a door bottom, which can be accessed by a user, form edge regions of an entrance opening for the user to enter the revolving door, the revolving door has at least one light means which is arranged on at least one edge region of the entrance opening and/or on a main closing edge of at least one of the leaf elements to form a light signal function, characterised in that, when the turnstile rotates, the entrance opening is divided into a continuously decreasing leaf front region (14.1) and a continuously increasing leaf rear region (14.2) of the leaf element, and in that a controller is provided for activating the at least one lighting element, wherein the controller activates the at least one light means in a manner that is variable in time and/or colour as a function of the size of the leaf front region (14.1) and/or the leaf rear region (14.2) in order to indicate a suitable entrance region to a user.