mhurhangee/ep-ind-claims huggingface dataset:
A process for the manufacture of an oriented strip comprising a semi - crystalline polymer according to which a film comprising said polymer is drawn in a longitudinal direction on a length L between 2 points at which the film moves at a respective linear velocity v 1 and v 2 during its drawing, wherein v 1, v 2 and L answer the following criteria: v 2 - v 1 / L > 0.22 ⁢ s - 1, wherein the drawing is made by means of at least 2 independently driven drawing rolls (1, 5) having their axes of rotation perpendicular to the longitudinal direction of the polymer film and rotating in the same sense but with different tangential velocities v 1 and v 2, wherein the film is prevented from slipping of the drawing rolls (1, 5) by means of contra rotating auxiliary rolls (2, 6), having their axis of rotation perpendicular to the longitudinal direction of the polymer film and rotating with the same tangential velocity but in the opposite sense, characterized in that each drawing roll (1, 5, 9) is doubled and consists in a pair of drawing rolls (1, 3; 5, 7; 9, 11) rotating at the same speed and the drawing installation includes three pairs of drawing rolls (1, 3; 5, 7; 9, 11), rotating with increasing tangential velocities v 1, v 2 and v 3, opposed by three pairs of contrarotating auxiliary rolls (2, 4; 6, 8; 10, 12).
An engineered stone, comprising a light transmitting mother material and a phosphorescent chip, wherein the light transmitting mother material includes ≥ 7 wt% to ≤ 12 wt% of an unsaturated polyester resin and ≥ 88 wt% to ≤ 93 wt% of a silica-containing compound based on a total amount of the light transmitting mother material, the light transmitting mother material further includes ≥ 0.01 part by weight to ≤ 1 part by weight of an organic/inorganic pigment based on 100 parts by weight of the unsaturated polyester resin, the phosphorescent chip includes ≥ 8 wt% to ≤ 15 wt% of an unsaturated polyester resin, ≥ 85 wt% to ≤ 92 wt% of a silica-containing compound (B'), and a phosphorescent pigment based on a total amount of the phosphorescent chip, the phosphorescent pigment is included in an amount of ≥ 2 parts by weight to ≤ 5 parts by weight based on 100 parts by weight of the unsaturated polyester resin, and the silica-containing compound (B') includes ≥ 20 wt% to ≤ 30 wt% of a silica powder based on a total amount of the phosphorescent chip, wherein an average particle diameter of the silica powder is greater than 0 μm and less than or equal to 45 μm, wherein the light transmitting mother material is included in an amount of ≥ 70 wt% to ≤ 95 wt% and the phosphorescent chip is included in an amount of ≥ 5 wt% to ≤ 30 wt% based on the total amount of the engineered stone.
Use of a library of multimeric barcoding reagents to produce two or more sequence reads from a target nucleic acid, wherein two or more sequence reads are identified as derived from the same target nucleic acid and combined to produce a synthetic long read, wherein the library of multimeric barcoding reagents comprises at least 10 multimeric barcoding reagents, wherein each multimeric barcoding reagent comprises: a. first and second barcode molecules comprised within a nucleic acid molecule, wherein each of the barcode molecules comprises a nucleic acid sequence comprising a barcode region; and b. first and second barcoded oligonucleotides, wherein the first barcoded oligonucleotide comprises, optionally in the 5' to 3' direction, a barcode region complementary and annealed to the barcode region of the first barcode molecule and a target region that anneals or ligates to a first sub-sequence of a target nucleic acid, and wherein the second barcoded oligonucleotide comprises, optionally in the 5' to 3' direction, a barcode region complementary and annealed to the barcode region of the second barcode molecule and a target region that anneals or ligates to a second sub-sequence of the target nucleic acid; and wherein the barcode regions of the first and second barcode molecules of each multimeric barcoding reagent are different to the barcode regions of at least 9 other multimeric barcoding reagents in the library. a. first and second barcode molecules comprised within a nucleic acid molecule, wherein each of the barcode molecules comprises a nucleic acid sequence comprising a barcode region; and b. first and second barcoded oligonucleotides, wherein the first barcoded oligonucleotide comprises, optionally in the 5' to 3' direction, a barcode region complementary and annealed to the barcode region of the first barcode molecule and a target region that anneals or ligates to a first sub-sequence of a target nucleic acid, and wherein the second barcoded oligonucleotide comprises, optionally in the 5' to 3' direction, a barcode region complementary and annealed to the barcode region of the second barcode molecule and a target region that anneals or ligates to a second sub-sequence of the target nucleic acid;
An axial piston motor having a combustion chamber, which operates with two-stage combustion, a main nozzle and a secondary nozzle, wherein by means of the main nozzle fuel and by means of a processing nozzle, as the secondary nozzle, fuel, which is mixed with air, can be injected into the combustion chamber, and wherein the fuel injected by means of the main nozzle in a first step can be thermally decomposed by means of the combustion of the fuel injected by means of the processing nozzle and can subsequently be brought into contact with process air for combustion.
A coupling device for releasably coupling a drawer to a movable rail of a drawer pull-out guide, wherein the coupling device is to be arranged in the region of the underside of a drawer bottom, including: - at least one movably-mounted coupling portion for releasably connecting the coupling device to the movable rail of the drawer pull-out guide, - an adapter device by way of which a height position of the coupling portion relative to the drawer bottom can be adjusted, wherein the adapter device has a mounting portion to be fixed to the drawer, preferably to a bar protruding from the drawer bottom, and further an adjusting portion connected to the coupling portion, the adjusting portion is adjustably arranged in a direction extending substantially perpendicular to the drawer bottom for adjusting the height position of the coupling portion relative to the mounting portion, characterized in that the adjusting portion can be latched relative to the mounting portion at a plurality of latching positions and that the adjusting portion has at least one resilient tab which can be adjusted along a tooth arrangement of the mounting portion. - at least one movably-mounted coupling portion for releasably connecting the coupling device to the movable rail of the drawer pull-out guide, - an adapter device by way of which a height position of the coupling portion relative to the drawer bottom can be adjusted, wherein the adapter device has a mounting portion to be fixed to the drawer, preferably to a bar protruding from the drawer bottom, and further an adjusting portion connected to the coupling portion, the adjusting portion is adjustably arranged in a direction extending substantially perpendicular to the drawer bottom for adjusting the height position of the coupling portion relative to the mounting portion, characterized in that the adjusting portion can be latched relative to the mounting portion at a plurality of latching positions and that the adjusting portion has at least one resilient tab which can be adjusted along a tooth arrangement of the mounting portion.
A method for generating an output data set representing a fluorescence image of a sample, the method comprising the steps of: (a) obtaining an input data set representing fluorescence images of the sample for a plurality of different focal plane depths in the sample and different exposure times, wherein the respective fluorescence images comprise image signal values for an array of pixel locations; and (b) combining the image signal values for the fluorescence images from the different focal plane depths and different exposure times to form an output data set representing a single resultant planar fluorescence image of the sample, wherein step (b) comprises determining for each pixel location a weighted average of the corresponding image signal values in the different images and using the weighted averages to form the output data set representing the single resultant planar fluorescence image of the sample, and wherein the weightings for each image signal value are based on a measure of a variation in image signal values among neighbouring pixel locations with image signal values for pixel locations associated with relatively high variation weighted more than image signal values for pixel locations associated with relatively low variation. (a) obtaining an input data set representing fluorescence images of the sample for a plurality of different focal plane depths in the sample and different exposure times, wherein the respective fluorescence images comprise image signal values for an array of pixel locations; and (b) combining the image signal values for the fluorescence images from the different focal plane depths and different exposure times to form an output data set representing a single resultant planar fluorescence image of the sample, wherein step (b) comprises determining for each pixel location a weighted average of the corresponding image signal values in the different images and using the weighted averages to form the output data set representing the single resultant planar fluorescence image of the sample, and wherein the weightings for each image signal value are based on a measure of a variation in image signal values among neighbouring pixel locations with image signal values for pixel locations associated with relatively high variation weighted more than image signal values for pixel locations associated with relatively low variation.
Composition for dyeing human keratin fibres, characterized in that it comprises, in a cosmetically acceptable medium: (a) at least 25% by weight of one or more fatty substances other than fatty acids; (b) from 1% to 10% by weight of one or more nonionic surfactants comprising at least 10 mol and not more than 80 mol of ethylene oxide; (c) one or more dyes chosen from oxidation dyes; (d) at least one oxidizing agent; (e) one or more basifying agents; the acceptable medium comprising: (f) water; and (g) at least one organic solvent chosen from linear or branched, preferably saturated, monoalcohols or diols, comprising 2 to 10 carbon atoms, such as ethyl alcohol, isopropyl alcohol, hexylene glycol (2-methyl-2,4-pentanediol), neopentyl glycol and 3-methyl-1,5-pentanediol; aromatic alcohols such as benzyl alcohol and phenylethyl alcohol; glycerol; polyols or polyol ethers, for instance ethylene glycol monomethyl, monoethyl or monobutyl ether, 2-butoxyethanol, propylene glycol or ethers thereof, for instance propylene glycol monomethyl ether, butylene glycol, or dipropylene glycol; and also diethylene glycol alkyl ethers, especially C 1 -C 4 alkyl ethers, for instance diethylene glycol monoethyl ether or monobutyl ether, alone or as a mixture. (a) at least 25% by weight of one or more fatty substances other than fatty acids; (b) from 1% to 10% by weight of one or more nonionic surfactants comprising at least 10 mol and not more than 80 mol of ethylene oxide; (c) one or more dyes chosen from oxidation dyes; (d) at least one oxidizing agent; (e) one or more basifying agents; (f) water; and (g) at least one organic solvent chosen from linear or branched, preferably saturated, monoalcohols or diols, comprising 2 to 10 carbon atoms, such as ethyl alcohol, isopropyl alcohol, hexylene glycol (2-methyl-2,4-pentanediol), neopentyl glycol and 3-methyl-1,5-pentanediol; aromatic alcohols such as benzyl alcohol and phenylethyl alcohol; glycerol; polyols or polyol ethers, for instance ethylene glycol monomethyl, monoethyl or monobutyl ether, 2-butoxyethanol, propylene glycol or ethers thereof, for instance propylene glycol monomethyl ether, butylene glycol, or dipropylene glycol; and also diethylene glycol alkyl ethers, especially C 1 -C 4 alkyl ethers, for instance diethylene glycol monoethyl ether or monobutyl ether, alone or as a mixture.
A punching device for processing in particular dried samples (36-1,...,36-4) applied to a sample card, preferably of liquids containing DNA such as blood, saliva and the like, comprising at least one punching means having a punch and a lower die, wherein the punch is movable between a rest position in which it is away from the lower die and a punching position in which it is close to the lower die, and wherein the punching means has a receiving opening into which a sample card is introducible by means of a movable gripper unit of the punching device and is positionable relative to the punching means, and a punching drive which is couplable or coupled to the punch of the punching means and by way of which the movement of the punch between the rest position and the punching position is driven, wherein the punching means is set up such that a sample piece punched out of the sample card can be dispensed at an outlet opening of the lower die into a receiving recess in a receiving container arranged beneath the punching means, wherein it has a receiving plate supporting a receiving container, characterized in that it further has a light source illuminating at least a part of the receiving plate, wherein the light source is arranged such that at least a part of a receiving container located on the receiving plate, in particular receiving recesses provided in said receiving container, can be illuminated from the direction of the receiving plate from below, that the gripper unit is set up to hold a sample card above the light source, and that the punching device furthermore comprises an image capturing device which is arranged such that a receiving container located on the receiving plate, or a sample card held by the gripper unit, can be arranged between the image plane of the image capturing device and the light source such that the light source is located behind the receiving container to be captured or the sample card, as seen from the image capturing plane, wherein an image processing software assigned to the image capturing device is set up to check the correct progress of a punching operation on the basis of a captured image of the receiving container or/and a captured image of the sample card.
A coupler/distributor, comprising: a plurality of laser light sources (12 LL1 -12 LL3); one or more optical fiber attachments (40 Lo, 40 Hi); and a plurality of optical elements (B1-B7, M1-M3, CB, PT) which are disposed between the plurality of laser light sources (12 LL1 -12 LL3) and one or more optical fiber attachments (40 Lo, 40 Hi), and constitute an optical path guiding laser light from at least one of the plurality of laser light sources (12 LL1 -12 LL3) to an incident end of one or more optical fibers (20 Lo, 20 Hi) connected to the one or more optical fiber attachments (40 Lo, 40 Hi); the coupler/distributor further comprises a laser light source control device characterized in that the laser light source control device is configured to control the plurality of laser light sources (12 LL1 -12 LL3) so as to light up in predetermined order at a predetermined optical output every lapse of a predetermined time, wherein when a temperature of an ambient environment is lower than a predetermined threshold value, the laser light source control device controls the plurality of laser light sources (12 LL1 -12 LL3) so as to light up in predetermined order at a first optical output every lapse of a predetermined time, and when the temperature of the ambient environment is higher than the predetermined threshold value, the laser light source control device controls the plurality of laser light sources (12 LL1 -12 LL3) so as to light up in predetermined order at a second optical output lower than the first optical output every lapse of the predetermined time. a plurality of laser light sources (12 LL1 -12 LL3); one or more optical fiber attachments (40 Lo, 40 Hi); and a plurality of optical elements (B1-B7, M1-M3, CB, PT) which are disposed between the plurality of laser light sources (12 LL1 -12 LL3) and one or more optical fiber attachments (40 Lo, 40 Hi), and constitute an optical path guiding laser light from at least one of the plurality of laser light sources (12 LL1 -12 LL3) to an incident end of one or more optical fibers (20 Lo, 20 Hi) connected to the one or more optical fiber attachments (40 Lo, 40 Hi); the coupler/distributor further comprises a laser light source control device characterized in that the laser light source control device is configured to control the plurality of laser light sources (12 LL1 -12 LL3) so as to light up in predetermined order at a predetermined optical output every lapse of a predetermined time, wherein when a temperature of an ambient environment is lower than a predetermined threshold value, the laser light source control device controls the plurality of laser light sources (12 LL1 -12 LL3) so as to light up in predetermined order at a first optical output every lapse of a predetermined time, and when the temperature of the ambient environment is higher than the predetermined threshold value, the laser light source control device controls the plurality of laser light sources (12 LL1 -12 LL3) so as to light up in predetermined order at a second optical output lower than the first optical output every lapse of the predetermined time.
An engineered human IgG heavy chain constant domain (Cγ) polypeptide, or portion thereof, comprising at least one amino acid substitution to introduce a cysteine residue useful for conjugation, said at least one substitution being located at K246 according to the EU index numbering system as set forth in EU index of Edelman et al., 1969, Proc. Natl. Acad. Sci. USA 63:78-85.
Storage insert for inserting into a storage device, wherein the storage insert comprises: a sensor rail, a storage body with: a top side for receiving storage goods; a bottom side with receiving structures in a receiving region for receiving the sensor rail; and at least one optically transparent portion between the receiving region and the top side; and the sensor rail which is configured to be received by the receiving structures in the receiving region and comprises at least one sensor element in the region of the at least one optically transparent portion; wherein the storage body is configured as punched and bent storage sheet. a sensor rail, a storage body with: a top side for receiving storage goods; a bottom side with receiving structures in a receiving region for receiving the sensor rail; and at least one optically transparent portion between the receiving region and the top side; and a top side for receiving storage goods; a bottom side with receiving structures in a receiving region for receiving the sensor rail; and at least one optically transparent portion between the receiving region and the top side; and the sensor rail which is configured to be received by the receiving structures in the receiving region and comprises at least one sensor element in the region of the at least one optically transparent portion; wherein the storage body is configured as punched and bent storage sheet.
A method for assigning network activity of a cellular communications network to land areas of a certain area of interest, said cellular communications network serving a group of cells each one being served by at least one antenna, the method comprising the following steps performed by an electronic device: a) For each cell of the group of cells, obtaining cell information and information of the cell coverage as a function of the distance from the antenna, where said cell information includes location information of the antenna serving the cell b) Dividing said area of interest into a set of adjacent non intersecting zones called tiles and assigning to each tile a land use factor, being said land use factor a parameter which indicates the portion of the tile area where it is possible to have network activity c) For each cell of the group of cells, defining a cell coverage polygon d) For each cell coverage polygon, defining one or more sub-polygons according to the information of the cell coverage as a function of the distance from the antenna and assigning to each sub-polygon a distance factor being said distance factor a parameter which indicates the portion of the cell activity that it is assigned to each sub-polygon e) Calculating intersection areas between each tile and each cell sub-polygon and weighting each intersection area by the tile land use factor of the correspondent tile. f) For each tile and each cell, determining a dispersion of the network activity of said cell in said tile based on the weighted intersection areas between said tile and the sub-polygons of said cell and the distance factor assigned to each sub-polygon of said cell. a) For each cell of the group of cells, obtaining cell information and information of the cell coverage as a function of the distance from the antenna, where said cell information includes location information of the antenna serving the cell b) Dividing said area of interest into a set of adjacent non intersecting zones called tiles and assigning to each tile a land use factor, being said land use factor a parameter which indicates the portion of the tile area where it is possible to have network activity c) For each cell of the group of cells, defining a cell coverage polygon d) For each cell coverage polygon, defining one or more sub-polygons according to the information of the cell coverage as a function of the distance from the antenna and assigning to each sub-polygon a distance factor being said distance factor a parameter which indicates the portion of the cell activity that it is assigned to each sub-polygon e) Calculating intersection areas between each tile and each cell sub-polygon and weighting each intersection area by the tile land use factor of the correspondent tile. f) For each tile and each cell, determining a dispersion of the network activity of said cell in said tile based on the weighted intersection areas between said tile and the sub-polygons of said cell and the distance factor assigned to each sub-polygon of said cell.