mhurhangee/ep-ind-claims huggingface dataset:
A method for exploiting a fractured underground medium from a fractured reservoir model comprising a set of cells discretizing said underground medium, said fractures being characterized by at least one fracture property for which a variation range of said property is defined, said underground medium being traversed by at least two wells, wherein at least one equivalent transmissivity is determined for each well, characterized in that the following stages are carried out: a) constructing for each well an equivalent transmissivity model connecting said equivalent transmissivity to said fracture property, b) estimating for each well an equivalent transmissivity range by means of said equivalent transmissivity model and of said variation range of said fracture property, c) selecting at least one well for which said determined equivalent transmissivity is contained within said equivalent transmissivity range, d) generating an initial fractured reservoir model by means of said fracture property and calibrating said initial fractured reservoir model by varying for each selected well said property within said variation range, so as to minimize a difference between measured data and simulated data by means of said fractured reservoir model and of a flow simulator, and e) exploiting said underground medium according to an exploitation scheme defined from said calibrated fractured reservoir model. a) constructing for each well an equivalent transmissivity model connecting said equivalent transmissivity to said fracture property, b) estimating for each well an equivalent transmissivity range by means of said equivalent transmissivity model and of said variation range of said fracture property, c) selecting at least one well for which said determined equivalent transmissivity is contained within said equivalent transmissivity range, d) generating an initial fractured reservoir model by means of said fracture property and calibrating said initial fractured reservoir model by varying for each selected well said property within said variation range, so as to minimize a difference between measured data and simulated data by means of said fractured reservoir model and of a flow simulator, and e) exploiting said underground medium according to an exploitation scheme defined from said calibrated fractured reservoir model.
An information transmission method, applicable to user equipment, UE, the method comprising: in response to initiating a beam failure recovery procedure to a first cell, initiating a random access procedure to a base station through a second cell, wherein the second cell is the first cell or a cell other than the first cell; and in response to that a number of times that the random access procedure has been initiated reaches a preset number and the random access procedure is not completed, transmitting indication information indicating that a problem exists in a cell group, to which the second cell belongs, to the base station; characterized by the indication information indicating that a cause for the problem existing in the cell group is failure of the random access procedure caused by the beam failure recovery procedure. in response to initiating a beam failure recovery procedure to a first cell, initiating a random access procedure to a base station through a second cell, wherein the second cell is the first cell or a cell other than the first cell; and in response to that a number of times that the random access procedure has been initiated reaches a preset number and the random access procedure is not completed, transmitting indication information indicating that a problem exists in a cell group, to which the second cell belongs, to the base station; characterized by the indication information indicating that a cause for the problem existing in the cell group is failure of the random access procedure caused by the beam failure recovery procedure.
A method for displaying a content from 4D light field data, the method being executed by an electronic device, characterized in that the method comprises: - obtaining viewing rights; - processing said 4D light field data in accordance with a degradation level obtained from said viewing rights to derive said content from said 4D light field data, wherein a point of view of said content and/or a focus plane associated with said content are changed in time in accordance with said degradation level; and - providing said content derived from said 4D light field data to display. - obtaining viewing rights; - processing said 4D light field data in accordance with a degradation level obtained from said viewing rights to derive said content from said 4D light field data, wherein a point of view of said content and/or a focus plane associated with said content are changed in time in accordance with said degradation level; and - providing said content derived from said 4D light field data to display.
Mixture comprising at least two radically curable compounds selected from the group consisting of compounds of general formulas, or in which each R 1 is, independently of one another, a branched or linear aliphatic C 1 -C 15 alkylene group, A is a linear or branched aliphatic C 3 -C 10 alkylene group, B is a linear, branched or cyclic aliphatic hydrocarbon group or an aromatic hydrocarbon group, X is a divalent linear, branched or cyclic aliphatic or aromatic hydrocarbon group, or a group Z of formula in which R 2 is a divalent branched or linear aliphatic C 1 -C 6 alkylene group, Y is an aromatic hydrocarbon group, n is an integer greater than or equal to 0, m is an integer greater than or equal to 3, and p is an integer greater than or equal to 2. each R 1 is, independently of one another, a branched or linear aliphatic C 1 -C 15 alkylene group, A is a linear or branched aliphatic C 3 -C 10 alkylene group, B is a linear, branched or cyclic aliphatic hydrocarbon group or an aromatic hydrocarbon group, X is a divalent linear, branched or cyclic aliphatic or aromatic hydrocarbon group, or a group Z of formula in which R 2 is a divalent branched or linear aliphatic C 1 -C 6 alkylene group,
A microfluidic cartridge configured to perform sequencing operations on a nucleic acid sample comprising: (a) a flow cell including a reaction site area encompassing a plurality of reaction sites, wherein the flow cell comprises a sequencing chamber; (b) fluidics channels for delivering reactants to and/or removing reactants from the reaction site area; (c) a biosensor including a solid state imaging device having an active area configured to detect signals of biological reactions in the reaction site area, wherein the detected signals of biological reactions are indicative of nucleotide base types involved in the biological reactions, wherein the reaction site area is proximal to the active area, the reaction site area spans substantially all of the active area, wherein the fluidics channels do not substantially overlap with the active area, and wherein the microfluidic cartridge comprises a stack of fluidics layers comprising: (a) a sequencing chamber layer comprising a sequencing chamber area configured for carrying out clustering and sequencing reactions; (b) a sequencing chamber bottom layer disposed under the sequencing chamber layer, wherein the sequencing chamber bottom layer has an opening configured to hold the solid-state imaging device with the active area disposed under the sequencing chamber area; (c) a flexible printed circuit board layer under the sequencing chamber bottom layer; and (d) a fluidics channels layer disposed under the flexible printed circuit board layer, wherein the fluidics channels layer comprises the fluidic channels wherein the fluidic channels are configured to deliver reactants to the sequencing chamber area. (a) a flow cell including a reaction site area encompassing a plurality of reaction sites, wherein the flow cell comprises a sequencing chamber; (b) fluidics channels for delivering reactants to and/or removing reactants from the reaction site area; (c) a biosensor including a solid state imaging device having an active area configured to detect signals of biological reactions in the reaction site area, wherein the detected signals of biological reactions are indicative of nucleotide base types involved in the biological reactions, (a) a sequencing chamber layer comprising a sequencing chamber area configured for carrying out clustering and sequencing reactions; (b) a sequencing chamber bottom layer disposed under the sequencing chamber layer, wherein the sequencing chamber bottom layer has an opening configured to hold the solid-state imaging device with the active area disposed under the sequencing chamber area; (c) a flexible printed circuit board layer under the sequencing chamber bottom layer; and (d) a fluidics channels layer disposed under the flexible printed circuit board layer, wherein the fluidics channels layer comprises the fluidic channels wherein the fluidic channels are configured to deliver reactants to the sequencing chamber area.
Vehicle body element connecting joint for connecting a first body element (121, 123) to a second body element (122, 124), which connecting joint comprises first and second elongate profiles (131, 132) arranged along adjacent edges of the first and second body elements (121, 123; 122, 124), respectively, characterized in that the connecting joint comprises; - a first projection protruding from the first elongate profile parallel to a side surface of the first elongate profile and extending towards a free end of the first elongate profile, - a first recess arranged in a side surface of the second elongate profile and arranged parallel to an edge of the second elongate profile, wherein the first projection is inserted into the first recess; and the connecting joint further comprising; - a first dovetail section protruding from the first elongate profile and arranged along the free end of the first elongate profiles, - a second dovetail section protruding from the second elongate profile and extending parallel to and out of the free end of the second elongate profile, - at least one fastening strip having a profile arranged to contact the first dovetail section and the second dovetail section in order to clamp the first and second elongate profiles (131, 132) to each other along their adjacent free ends, and - at least one fastener arranged to press the fastening strip towards the first dovetail section and the second dovetail section in order to achieve a clamping force when the joint is tightened by means of the fastener. - a first projection protruding from the first elongate profile parallel to a side surface of the first elongate profile and extending towards a free end of the first elongate profile, - a first recess arranged in a side surface of the second elongate profile and arranged parallel to an edge of the second elongate profile, wherein the first projection is inserted into the first recess; and the connecting joint further comprising; - a first dovetail section protruding from the first elongate profile and arranged along the free end of the first elongate profiles, - a second dovetail section protruding from the second elongate profile and extending parallel to and out of the free end of the second elongate profile, - at least one fastening strip having a profile arranged to contact the first dovetail section and the second dovetail section in order to clamp the first and second elongate profiles (131, 132) to each other along their adjacent free ends, and - at least one fastener arranged to press the fastening strip towards the first dovetail section and the second dovetail section in order to achieve a clamping force when the joint is tightened by means of the fastener.
A method for forming a three-dimensional model of a portion of the skin of an animal, the portion of the skin of the animal being located within an imaging region of an imaging assembly, the imaging region being in the field of view of an energy sensor having a viewing direction, and illuminated by an illumination system operative to illuminate the imaging region (i) in at least one first direction at a first angle to the viewing direction of the energy sensor, and (ii) in at least one second direction at a second angle to the viewing direction of the energy sensor, the first angle being greater than the second angle, the method comprising: (i) capturing with the energy sensor at least one first two-dimensional image of the portion of the skin of the animal when the illumination system illuminates the imaging region at least in the first direction; (ii) using the at least one first two-dimensional image to determine whether the skin of the animal is correctly presented; and (iii) upon the determination being positive, forming a three-dimensional image of the skin of the animal using at least one second two-dimensional image of the skin of the animal captured when the illumination system illuminates the imaging region at least in the second direction, the at least one first two-dimensional image being captured with a higher proportion of (a) illumination directed at the imaging region in the first direction, to (b) illumination directed at the imaging region in the second direction, than the at least one second two dimensional image. (i) capturing with the energy sensor at least one first two-dimensional image of the portion of the skin of the animal when the illumination system illuminates the imaging region at least in the first direction; (ii) using the at least one first two-dimensional image to determine whether the skin of the animal is correctly presented; and (iii) upon the determination being positive, forming a three-dimensional image of the skin of the animal using at least one second two-dimensional image of the skin of the animal captured when the illumination system illuminates the imaging region at least in the second direction,
A grain-oriented electrical steel sheet having an insulating coating thereon, having linear strain applied by a laser beam or an electron beam irradiation extending in a direction that intersects a rolling direction of the steel sheet, and having a re-formed insulating coating comprising aluminum phosphate and chromic acid and not including colloidal silica on the steel sheet, wherein in an irradiation mark region (R P, R L) caused by the laser beam or the electron beam, a ratio of an area containing defects (2, 3) on the insulating coating is 40 % or less, a maximum width of the irradiation mark region (R P, R L) in the rolling direction is 250 μm or less, and a thickness of the insulating coating is 0.3 μm or more and 2.0 μm or less.
An acoustically absorbent cell (22, 48, 80, 100, 102) for an acoustic panel, comprising a layer with a porous matrix incorporating a plurality of acoustic resonators (A 1 -A 4, B 1 -B 6, C1-C4, D1-D2) between a first face (30, 54, 86, 108, 118) and a second face (28, 56, 88, 110, 120) of the porous matrix, the resonators (A1-A4, B1-B6, C1-C4, D1-D2) being ordered so that, in a direction extending substantially perpendicular to the first face (30, 54, 86, 108, 118) and the second face (28, 56, 88, 110, 120), at least one first resonator is arranged between the first face (30, 54, 86, 108, 118) and at least one second resonator which is arranged between the second face (28, 56, 88, 110, 120) and the at least one first resonator, the resonators (A 1 -A 4, B 1 -B 6) each comprising at least one opening making a resonant cavity of the resonator communicate with the porous matrix surrounding the resonator, characterised in that the opening (40, 62) of at least one of said at least one first resonator (A 2, B 2) emerges in the opening of a cavity (38, 58) of the first face.
A method for bonding a substrate to a surface, in which a pressure-sensitive adhesive composition is provided which comprises at least one pressure-sensitive adhesive polymer which is formed from (i) 50 - 95 wt% of 2-ethylhexyl acrylate, (ii) 1 - 25 wt% of at least one monomer selected from C1 to C2 alkyl (meth)acrylates, (iii) 1 - 10 wt% of styrene, (iv) 0.1 - 5 wt% of at least one ethylenically unsaturated acid or at least one ethylenically unsaturated acid anhydride, (v) 0 to 10 wt% of further ethylenically unsaturated compounds different from the monomers (i) to (iv), the amount figures of the monomers being based in each case on the total amount of monomers, and the polymerization of the monomers taking place in the presence of at least 0.01 part by weight of chain transfer agent per 100 parts by weight of monomers; the pressure-sensitive adhesive composition is applied to a substrate; and the substrate is applied to a surface whose surface temperature is lower than the dewpoint temperature of the air in contact with the surface. a pressure-sensitive adhesive composition is provided which comprises at least one pressure-sensitive adhesive polymer which is formed from (i) 50 - 95 wt% of 2-ethylhexyl acrylate, (ii) 1 - 25 wt% of at least one monomer selected from C1 to C2 alkyl (meth)acrylates, (iii) 1 - 10 wt% of styrene, (iv) 0.1 - 5 wt% of at least one ethylenically unsaturated acid or at least one ethylenically unsaturated acid anhydride, (v) 0 to 10 wt% of further ethylenically unsaturated compounds different from the monomers (i) to (iv), the amount figures of the monomers being based in each case on the total amount of monomers, and the polymerization of the monomers taking place in the presence of at least 0.01 part by weight of chain transfer agent per 100 parts by weight of monomers; (i) 50 - 95 wt% of 2-ethylhexyl acrylate, (ii) 1 - 25 wt% of at least one monomer selected from C1 to C2 alkyl (meth)acrylates, (iii) 1 - 10 wt% of styrene, (iv) 0.1 - 5 wt% of at least one ethylenically unsaturated acid or at least one ethylenically unsaturated acid anhydride, (v) 0 to 10 wt% of further ethylenically unsaturated compounds different from the monomers (i) to (iv), the pressure-sensitive adhesive composition is applied to a substrate; and the substrate is applied to a surface whose surface temperature is lower than the dewpoint temperature of the air in contact with the surface.
A device for detecting and possibly identifying at least one target inside a determined volume, said device comprising an image acquisition system, the image acquisition system comprising, - at least one infrared camera sensitive to waves whose wavelength is between 780 and 1400 nm, - a thermal camera sensitive to waves between 3000 and 14000 micrometers and - a camera, referred to as a visible camera, sensitive to waves between 350 and 780 nm, in that said cameras (3, 4, 5) are mounted on a common support in the form of an elongated beam-like body, in that the cameras (3, 4, 5) are disposed on the common support with the fields of vision of said cameras (3, 4, 5) having an intersection zone corresponding to the volume to be observed, in that the optical axes of said cameras (3, 4, 5) disposed on the common support are distinct, in that the distance between the optical axes of at least two of the cameras (3, 4, 5) is between 10 cm and 2 m, in that the device comprises, for at least one of the cameras (3, 4, 5), at least one cover for protecting the optic of said camera (3, 4, 5), said cover being mounted so as to slide along an axis parallel to the longitudinal axis of the elongated common support for movement of the part, referred to as active part, of said cover between an active position for protecting the optic of the camera (3, 4, 5), in which the active part of the cover extends at least partially facing said optic of the camera (3, 4, 5), and an inactive position, in which the optic of the camera (3, 4, 5) is non-masked, in that the active part of the cover is provided internally, on the surface side of the cover facing the optics in the active position of said active part of the cover, with a shield mounted so as to be able to move in the direction closer to or away from the active part of the cover, said shield forming, in a position moved away from the cover and in the active position of the cover, a chamber capping at least the optic of the camera (3, 4, 5), this chamber interposed between the cover and the optic of the camera (3, 4, 5) isolating the optic of the camera (3, 4, 5) from the cover. - at least one infrared camera sensitive to waves whose wavelength is between 780 and 1400 nm, - a thermal camera sensitive to waves between 3000 and 14000 micrometers and - a camera, referred to as a visible camera, sensitive to waves between 350 and 780 nm,
A method for making multilayer tubes of the tobacco industry, comprising the following steps: - feeding a continuous web along a feed direction parallel to the direction of extension of the web; - folding a first longitudinal strip of the web onto a second longitudinal strip of the web about a fold line which is parallel to the feed direction so as to obtain a multilayer web having at least two partly superposed layers; - forming a continuous tube by continuously wrapping the multilayer web around a longitudinal axis; - cutting the continuous tube to obtain a succession of tubes of the tobacco industry; characterized in that the step of folding is accomplished by deflecting the first longitudinal strip of the web around a first deflector edge and by deflecting a remaining longitudinal strip (120, 130) of the web around a second deflector edge, the first and second deflector edges (10, 11) being angled to each other, in that the step of folding is also accomplished by an auxiliary guide member located downstream of the first deflector edge and configured to slidably receive the first longitudinal strip of the web as it leaves the first deflector edge and to progressively guide the first longitudinal strip while it is being folded completely onto the second longitudinal strip, and in that the method further comprises at least one step of applying an adhesive substance between the first and the second longitudinal strip (110, 120) performed by a gluing device which is associated with the deflector element and operating on the first strip and/or on the second strip of the web just upstream of folding the first strip to deliver an adhesive substance suitable for holding the first strip on the second strip after folding. - feeding a continuous web along a feed direction parallel to the direction of extension of the web; - folding a first longitudinal strip of the web onto a second longitudinal strip of the web about a fold line which is parallel to the feed direction so as to obtain a multilayer web having at least two partly superposed layers; - forming a continuous tube by continuously wrapping the multilayer web around a longitudinal axis; - cutting the continuous tube to obtain a succession of tubes of the tobacco industry;