mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a first device, the method comprising: performing sidelink communication with a first set of destinations ; and receiving a sidelink grant from a network, wherein the sidelink grant is for performing a sidelink transmission at a first timing ; characterized by further comprising: selecting, from among the first set of destinations, a first destination for the sidelink transmission based on at least whether one or more devices associated with the first destination are in Discontinuous Reception, in the following also referred to as DRX, active time for sidelink at the first timing, wherein the DRX active time for sidelink is a time for the one or more devices, associated with the first destination, to monitor at least one of one or more sidelink control channels or one or more sidelink control informations, in the following also referred to as SCIs. performing sidelink communication with a first set of destinations ; and receiving a sidelink grant from a network, wherein the sidelink grant is for performing a sidelink transmission at a first timing ; characterized by further comprising: selecting, from among the first set of destinations, a first destination for the sidelink transmission based on at least whether one or more devices associated with the first destination are in Discontinuous Reception, in the following also referred to as DRX, active time for sidelink at the first timing, wherein the DRX active time for sidelink is a time for the one or more devices, associated with the first destination, to monitor at least one of one or more sidelink control channels or one or more sidelink control informations, in the following also referred to as SCIs.
A method for knotting glass fiber bundles, comprising the following steps of: equally dividing a glass fiber bundle A and a glass fiber bundle B that are to be connected by knotting into n strands, respectively, and marking the strands as A1-An and B1-Bn, respectively, wherein n is a natural number greater than or equal to 2; and successively knotting and splicing the glass fiber strands A1-An and the glass fiber strands B1-Bn in one-to-one correspondence to form n spliced knots; characterized in that : the n spliced knots are staggered in pairs in a lengthwise direction of the glass fiber bundles; a distance L between two adjacent spliced knots among the n spliced knots in the lengthwise direction of the glass fiber bundles is greater than or equal to a length C of the spliced knots, wherein L is set to 3 cm, 5 cm or 10 cm; wherein: the sectional area of the whole glass fiber bundle is S, the sectional area of each equally divided fiber bundle is S/n, and the sectional area of the knots is (4S/n)+(n-1)*S/n=3S/n+S. equally dividing a glass fiber bundle A and a glass fiber bundle B that are to be connected by knotting into n strands, respectively, and marking the strands as A1-An and B1-Bn, respectively, wherein n is a natural number greater than or equal to 2; and successively knotting and splicing the glass fiber strands A1-An and the glass fiber strands B1-Bn in one-to-one correspondence to form n spliced knots; characterized in that : the n spliced knots are staggered in pairs in a lengthwise direction of the glass fiber bundles; a distance L between two adjacent spliced knots among the n spliced knots in the lengthwise direction of the glass fiber bundles is greater than or equal to a length C of the spliced knots, wherein L is set to 3 cm, 5 cm or 10 cm; the n spliced knots are staggered in pairs in a lengthwise direction of the glass fiber bundles; a distance L between two adjacent spliced knots among the n spliced knots in the lengthwise direction of the glass fiber bundles is greater than or equal to a length C of the spliced knots, wherein L is set to 3 cm, 5 cm or 10 cm; wherein: the sectional area of the whole glass fiber bundle is S, the sectional area of each equally divided fiber bundle is S/n, and the sectional area of the knots is (4S/n)+(n-1)*S/n=3S/n+S.
A wall structure of a thermal insulation casing, which is intended for the insulation of metal tanks which contain liquefied gas, in particular liquefied natural gas, which wall structure comprises wood-veneer panels that are joined to each other in order to form a three-dimensional structure, characterized in that the wood-veneer panels are joined together with pillars in order to form a casing with open sides and at least part of the wood-veneer panels are multilayer panels, which comprise wood-veneer layers (9, 11-13; 14, 16-18) that are stacked on top of each other and glued together, and at least one reinforcing layer (10; 15) that is glued to at least one wood-veneer layer, in order to increase the strength of the panel, wherein the wall structure comprises at least one reinforcing layer (10; 15) which is glued to the wood-veneer layer (11; 16) which is located between the surface layers (9, 13; 14, 18) that are formed of the two opposite surfaces of the panel. characterized in that the wood-veneer panels are joined together with pillars in order to form a casing with open sides and at least part of the wood-veneer panels are multilayer panels, which comprise wood-veneer layers (9, 11-13; 14, 16-18) that are stacked on top of each other and glued together, and at least one reinforcing layer (10; 15) that is glued to at least one wood-veneer layer, in order to increase the strength of the panel, wherein the wall structure comprises at least one reinforcing layer (10; 15) which is glued to the wood-veneer layer (11; 16) which is located between the surface layers (9, 13; 14, 18) that are formed of the two opposite surfaces of the panel.
Transfer apparatus for transferring incoming articles at one pitch on an article supply conveyor and in groups to containers on another conveyor at a different pitch, and comprising; at least one article supply conveyor conveying articles at one pitch in a machine direction at least one container conveyor conveying containers at another pitch in one direction; an end-of-arm tool moveable operationally between said conveyors but not itself moveable in said machine direction; a plurality of individual article picking and grouping grippers on said end-of-arm tooling ; and linear motors driving said grippers (20-26) independently along said end-of-arm tooling in a machine direction at said one pitch for picking articles from said article supply conveyor , and in pitch adjusted article groups for placement in containers at said other pitch on said container conveyor .
A molded article characterized by comprising a resin part formed with a thermoplastic resin composition, the thermoplastic resin composition comprising: a thermoplastic resin; micronized cellulose; and an ionic compound, wherein a content of the micronized cellulose is 1 to 100 parts by mass based on 100 parts by mass of the thermoplastic resin, and a content of the ionic compound is 0.001 times or more and less than 1.000 times the content of the micronized cellulose; wherein the ionic compound is represented by the following formula or : wherein Z 1 represents =C(Ra)- or =N-, wherein Ra represents a hydrogen atom or a substituent; L 1 represents a divalent linking group; R 1 to R 5 each independently represent an alkyl group, an alkenyl group, a cycloalkyl group, an aryl group, or a heterocyclic group; at least two of R 2 to R 5 are optionally bonded to each other to form a ring; and X- represents an anion; wherein the micronized cellulose is a plant-derived, fibrous cellulose; wherein 15% or more of the micronized cellulose has a short side length of 2 μm or less; wherein an area of a cellulose aggregate in the thermoplastic resin composition is less than 20000 μm 2 ; wherein the molded article is a lamp body of a lighting appliance, a speaker unit, a connection box, a connector, or a pulley; and wherein the short side length and the area of a aggregate are measured according to the description. a thermoplastic resin; micronized cellulose; and an ionic compound, wherein a content of the micronized cellulose is 1 to 100 parts by mass based on 100 parts by mass of the thermoplastic resin, and a content of the ionic compound is 0.001 times or more and less than 1.000 times the content of the micronized cellulose; wherein the ionic compound is represented by the following formula or : wherein Z 1 represents =C(Ra)- or =N-, wherein Ra represents a hydrogen atom or a substituent; L 1 represents a divalent linking group; R 1 to R 5 each independently represent an alkyl group, an alkenyl group, a cycloalkyl group, an aryl group, or a heterocyclic group; at least two of R 2 to R 5 are optionally bonded to each other to form a ring; and X- represents an anion; wherein the micronized cellulose is a plant-derived, fibrous cellulose; wherein 15% or more of the micronized cellulose has a short side length of 2 μm or less; wherein an area of a cellulose aggregate in the thermoplastic resin composition is less than 20000 μm 2 ; wherein the molded article is a lamp body of a lighting appliance, a speaker unit, a connection box, a connector, or a pulley; and wherein the short side length and the area of a aggregate are measured according to the description.
A method of performing scene-dependent lens shading correction, SD-LSC, the method comprising: providing an input image; providing an input grid gain (302; 802) of the input image, the input grid gain (302; 802) being composed of pre-calibrated values to compensate for a static luminance level; providing a Bayer thumbnail of the input image; collecting scene information from the Bayer thumbnail by applying at least one 3A statistical algorithm to the Bayer thumbnail; generating a standard red green blue, sRGB, thumbnail by processing the Bayer thumbnail to simulate white balance, WB, and pre-gamma blocks; determining a representative color channel ratio ( K(R); K(B) ) of the input image based on the scene information and the sRGB thumbnail; determining an ideal grid gain of the input image based on the representative color channel ratio ( K(R); K(B) ) and the input grid gain (302; 802); merging the ideal grid gain and the input grid gain (302; 802) such that the input grid gain of the input image is applied to more colorful regions of the input image and the ideal grid gain is applied to less colorful regions of the input image to generate a new grid gain; and applying the new grid gain to the input image. providing an input image; providing an input grid gain (302; 802) of the input image, the input grid gain (302; 802) being composed of pre-calibrated values to compensate for a static luminance level; providing a Bayer thumbnail of the input image; collecting scene information from the Bayer thumbnail by applying at least one 3A statistical algorithm to the Bayer thumbnail; generating a standard red green blue, sRGB, thumbnail by processing the Bayer thumbnail to simulate white balance, WB, and pre-gamma blocks; determining a representative color channel ratio ( K(R); K(B) ) of the input image based on the scene information and the sRGB thumbnail; determining an ideal grid gain of the input image based on the representative color channel ratio ( K(R); K(B) ) and the input grid gain (302; 802); merging the ideal grid gain and the input grid gain (302; 802) such that the input grid gain of the input image is applied to more colorful regions of the input image and the ideal grid gain is applied to less colorful regions of the input image to generate a new grid gain; and applying the new grid gain to the input image.
A drug infusion device, comprising: a drug storage unit ; a screw , a piston and a driving wheel respectively connected with the screw , the driving wheel drives the screw to move by rotation, the piston is arranged in the drug storage unit , the screw advances the piston to move; a driving unit comprising driving arms cooperating with the driving wheel , the driving unit, through a pivot of multiple modes, drives the driving arms to perform tooth number adjustable driving on the driving wheel for increment-adjustable infusion; and a power unit connected to the driving unit, the power unit exerts a force on the driving unit to lead the driving unit to perform multiple-mode pivot, wherein the drug infusion device is characterized in that the driving unit comprises more than two driving arms. a drug storage unit ; a screw , a piston and a driving wheel respectively connected with the screw , the driving wheel drives the screw to move by rotation, the piston is arranged in the drug storage unit , the screw advances the piston to move; a driving unit comprising driving arms cooperating with the driving wheel , the driving unit, through a pivot of multiple modes, drives the driving arms to perform tooth number adjustable driving on the driving wheel for increment-adjustable infusion; and a power unit connected to the driving unit, the power unit exerts a force on the driving unit to lead the driving unit to perform multiple-mode pivot, wherein the drug infusion device is characterized in that the driving unit comprises more than two driving arms.
A spinal implant comprising: an implant body extending between an anterior surface and a posterior surface , and including a first vertebral engaging surface and a second vertebral engaging surface , the implant body further including an outer surface (25; 125) that defines an oblique surface (44; 144); a wall (60; 160; 260; 360; 460, 460'; 660, 660') connectable with the implant body and translatable relative to the oblique surface (44;144); characterized in that the implant comprises an oblique extension extending from an end of the anterior surface , the oblique extension having an extension sidewall forming at least a portion of the oblique surface (44; 144). an implant body extending between an anterior surface and a posterior surface , and including a first vertebral engaging surface and a second vertebral engaging surface , the implant body further including an outer surface (25; 125) that defines an oblique surface (44; 144); a wall (60; 160; 260; 360; 460, 460'; 660, 660') connectable with the implant body and translatable relative to the oblique surface (44;144); characterized in that the implant comprises an oblique extension extending from an end of the anterior surface , the oblique extension having an extension sidewall forming at least a portion of the oblique surface (44; 144).
A method of determining ligands of macromolecules in a sample, wherein said sample is a cell-free cell extract, said method comprising or consisting of (a) subjecting said sample comprising (i) complexes formed by said macromolecules and said ligands and (ii) unbound ligands to a method which separates said complexes from said unbound ligands, wherein said method yields fractions and wherein said method is size exclusion chromatography (SEC); (b) releasing ligands from complexes obtained in step (a); and (c) subjecting the released ligands obtained in step (b) to a chemical analysis method, thereby determining said ligands of said macromolecules; (d) determining one or more macromolecules which were bound to ligands by a chemical analysis; wherein said method further comprises the step of (e) determining which ligand binds which macromolecule by determining the amount of a given ligand in each of said fractions, thereby obtaining an elution profile of said given ligand, determining the amount of a given macromolecule in each of said fractions, thereby obtaining an elution profile of said macromolecule and comparing obtained elution profiles of ligands with such obtained elution profiles of macromolecules. (a) subjecting said sample comprising (i) complexes formed by said macromolecules and said ligands and (ii) unbound ligands to a method which separates said complexes from said unbound ligands, wherein said method yields fractions and wherein said method is size exclusion chromatography (SEC); (b) releasing ligands from complexes obtained in step (a); and (c) subjecting the released ligands obtained in step (b) to a chemical analysis method, thereby determining said ligands of said macromolecules; (d) determining one or more macromolecules which were bound to ligands by a chemical analysis; wherein said method further comprises the step of (e) determining which ligand binds which macromolecule by determining the amount of a given ligand in each of said fractions, thereby obtaining an elution profile of said given ligand, determining the amount of a given macromolecule in each of said fractions, thereby obtaining an elution profile of said macromolecule and comparing obtained elution profiles of ligands with such obtained elution profiles of macromolecules.
Use of an exhaust gas purification system for purifying the exhaust gases from internal combustion engines operated with a predominantly stoichiometric air/fuel mixture, comprising a catalytically active particulate filter comprising a filter body and a catalytically active coating which consists of two layers arranged one above the other, wherein the second layer is in direct contact with the incoming exhaust gas and completely covers the first layer on the exhaust side, and both layers comprise aluminum oxide, wherein the aluminum oxide in the first layer is catalytically activated with palladium, whereas the second layer comprises rhodium as a catalytically active component, and wherein both layers additionally comprise an oxygen-storing cerium/zirconium mixed oxide, characterized in that the catalytically active particulate filter is arranged in a position close to the engine, and wherein a three-way catalyst comprising a ceramic or metallic through-flow substrate and a catalytically active coating are arranged downstream of the particulate filter and comprise more than 100 g/L of oxygen-storing cerium/zirconium mixed oxide, relative to the volume of the three-way catalyst.
Method for the continuous preparation of an anionic polymer, having a solids content (SC) of between 20% and 60% by weight, relative to the total weight of the formula, of molecular weight Mw of less than 10,000 g/mol, measured by Steric Exclusion Chromatography (SEC) as described in the description, by radical polymerization, comprising the following steps: a) at least one monomer chosen from acrylic acid, methacrylic acid and mixtures thereof is provided, said monomer could be partially neutralized, b) water, optionally hot water, is provided, c) at least one initiator is provided, d) at least one chain-transfer agent is optionally provided, e) the components of steps a), b), c) and d) are introduced into a tubular reactor having a length L R of at least 5 m and comprising at least one tubular section of length Ls and of internal diameter D such that L S is at least 20 times greater than D, in which each tubular section comprises, over its entire length, a plurality of stationary baffles, opposed to the stream, in the form of washers having a diameter identical to the internal diameter of the tubular section, thus forming a fluid in the tubular reactor, f) the tubular section is connected to a device enabling to submit said fluid to an oscillatory movement, g) a polymerization reaction is carried out in said reactor, optionally with a heating mean enabling to initiate the polymerization reaction, with a residence time in the reactor of greater than 1 min, the residence time, the size of the holes in the baffles, their spacing, and the movements of the device being chosen so as to provide, at any point in the reactor, good homogeneity of the mixture, h) said anionic polymer in solution in water is obtained at the outlet of the reactor. a) at least one monomer chosen from acrylic acid, methacrylic acid and mixtures thereof is provided, said monomer could be partially neutralized, b) water, optionally hot water, is provided, c) at least one initiator is provided, d) at least one chain-transfer agent is optionally provided, e) the components of steps a), b), c) and d) are introduced into a tubular reactor having a length L R of at least 5 m and comprising at least one tubular section of length Ls and of internal diameter D such that L S is at least 20 times greater than D, in which each tubular section comprises, over its entire length, a plurality of stationary baffles, opposed to the stream, in the form of washers having a diameter identical to the internal diameter of the tubular section, thus forming a fluid in the tubular reactor, f) the tubular section is connected to a device enabling to submit said fluid to an oscillatory movement, g) a polymerization reaction is carried out in said reactor, optionally with a heating mean enabling to initiate the polymerization reaction, with a residence time in the reactor of greater than 1 min, the residence time, the size of the holes in the baffles, their spacing, and the movements of the device being chosen so as to provide, at any point in the reactor, good homogeneity of the mixture, h) said anionic polymer in solution in water is obtained at the outlet of the reactor.
Steel component manufactured by hot forming after austenization characterized in that the steel component consists of in weight % 0.08 to 0.2 %, carbon (C), less than or equal to 3.5 % silicon (Si), 2.0- 16.0 % manganese (Mn), 8.0 - 14.0 % chromium (Cr), less than or equal to 6.0 % nickel (Ni), 0.05 to 0.6 % nitrogen (N), less than or equal to 1.2 % niobium (Nb), so that Nb = 4 x (C+N), less than or equal to 1.2 % titanium (Ti) so that Ti = 4x(C+N) + 0.15, and further optionally less than or equal to 2.0 % molybdenum (Mo), less than or equal to 0.15 % vanadium (V), less than or equal to 2.0 % copper (Cu), less than 0.02 % aluminum (Al), less than or equal to 0.05 % boron (B), the rest being iron and inevitable impurities, and in that the yield strength of the steel component R pO.2 is at the range of 1100 - 1350 MPa, the tensile strength of the steel component R m is at the range of 1600 - 1750 MPa, and the elongation of the steel component A 40x8 is at the range of 10- 12.5 %, wherein the elongation A 40x8 means that the tensile testing is done using a tensile stave with the length of 40 millimetre and with the width of 8 millimetre.