mhurhangee/ep-ind-claims huggingface dataset:
A ginseng powder-containing beverage composition, comprising: 0.5% (w/v) to 5% (w/v) of ginseng powder; 0.2% (w/v) to 3% (w/v) of a natural stabilizer containing crystalline cellulose and carrageenan; and 0.01% (w/v) to 3% (w/v) of a natural emulsifier containing lecithin, based on a total volume of the beverage composition; wherein crystalline cellulose is present in an amount of 0.1% (w/v) to 2% (w/v), wherein carrageenan is present in an amount of 0.1% (w/v) to 1% (w/v), wherein the natural stabilizer is free from synthetic stabilizer selected from the group consisting of CMC-Na (carboxymethyl cellulose sodium), methyl cellulose, ester gum, modified starch, carboxymethyl cellulose calcium, potassium alginate, and calcium alginate, and wherein the natural emulsifier is free from synthetic emulsifier selected from the group consisting of glycerin fatty acid ester, sorbitan fatty acid ester, glycol fatty acid ester, and sugar ester. 0.5% (w/v) to 5% (w/v) of ginseng powder; 0.2% (w/v) to 3% (w/v) of a natural stabilizer containing crystalline cellulose and carrageenan; and 0.01% (w/v) to 3% (w/v) of a natural emulsifier containing lecithin, based on a total volume of the beverage composition;
A method of tray calibration using a tray coordinate system having an x-axis and a y-axis, the method comprising: acquiring an image of a tray, the tray comprising a plurality of tube slots arranged in a matrix of rows and columns, each tube slot configured to receive a sample tube, the image of the tray being acquired via a camera (242, 244); detecting, using a processor, a plurality of fiducial markers disposed on cross sectional areas between the tube slots on the tray; characterized in that the method further comprises pre-aligning the tray coordinate system with a camera coordinate system having an x-axis and a y-axis; calculating, using the processor, a tray grid by fitting parallel lines to positions of markers along their x-coordinates of the tray coordinate system and fitting pairs of parallel lines to positions of the markers on each row along their y-coordinates of the tray coordinate system; and calibrating, using the processor, the tray by identifying a correspondence of each detected fiducial marker to a physical position on the tray to provide mapping of the tray coordinate system to the camera coordinate system. acquiring an image of a tray, the tray comprising a plurality of tube slots arranged in a matrix of rows and columns, each tube slot configured to receive a sample tube, the image of the tray being acquired via a camera (242, 244); detecting, using a processor, a plurality of fiducial markers disposed on cross sectional areas between the tube slots on the tray; characterized in that the method further comprises pre-aligning the tray coordinate system with a camera coordinate system having an x-axis and a y-axis; calculating, using the processor, a tray grid by fitting parallel lines to positions of markers along their x-coordinates of the tray coordinate system and fitting pairs of parallel lines to positions of the markers on each row along their y-coordinates of the tray coordinate system; and calibrating, using the processor, the tray by identifying a correspondence of each detected fiducial marker to a physical position on the tray to provide mapping of the tray coordinate system to the camera coordinate system.
A computer implemented method for combining two or more topographical maps, the method comprising: receiving map data relating to a first map comprising one or more features and map data relating to a second map comprising one or more features; performing a spatial matching test to identify one or more features of the first map that are present in the second map, the test comprising the steps of: i) identifying a first feature from the first map, wherein the first feature is representative of a first geographical configuration; ii) identifying a second feature from the second map, wherein the second feature is representative of a second geographical configuration; iii) adding a first buffer area around the first feature; iv) adding a second buffer area around the second feature; v) calculating a first similarity measure based on the amount of overlap between the first buffer area and the second buffer area; and vi) determining whether the first and second features (20, 22) relate to the same geographical configuration in dependence on the first similarity measure; and generating a composite map image for output to a display, wherein the features of the first map are spatially resolved with the features of the second map based on the determination of the spatial matching test. receiving map data relating to a first map comprising one or more features and map data relating to a second map comprising one or more features; performing a spatial matching test to identify one or more features of the first map that are present in the second map, the test comprising the steps of: i) identifying a first feature from the first map, wherein the first feature is representative of a first geographical configuration; ii) identifying a second feature from the second map, wherein the second feature is representative of a second geographical configuration; iii) adding a first buffer area around the first feature; iv) adding a second buffer area around the second feature; v) calculating a first similarity measure based on the amount of overlap between the first buffer area and the second buffer area; and vi) determining whether the first and second features (20, 22) relate to the same geographical configuration in dependence on the first similarity measure; and i) identifying a first feature from the first map, wherein the first feature is representative of a first geographical configuration; ii) identifying a second feature from the second map, wherein the second feature is representative of a second geographical configuration; iii) adding a first buffer area around the first feature; iv) adding a second buffer area around the second feature; v) calculating a first similarity measure based on the amount of overlap between the first buffer area and the second buffer area; and vi) determining whether the first and second features (20, 22) relate to the same geographical configuration in dependence on the first similarity measure; and generating a composite map image for output to a display, wherein the features of the first map are spatially resolved with the features of the second map based on the determination of the spatial matching test.
Fluid seal arrangement for constricting a leakage flow directed through a leakage gap bordered by a rotational and a stationary component comprising at least one nozzle opening in the rotating and/or stationary component (16, 17) facing towards the rotating or stationary component of an opposite side of the leakage gap respectively in order for injecting a liquid or gaseous fluid flow through the nozzle opening into the leakage gap, wherein said at least one nozzle opening is fluidly connected to a cooling channel, characterised in that said cooling channel is inside said rotating and/or stationary component (16, 17), wherein said fluid flow emanating at the nozzle opening consists of a cooling fluid from the cooling system of the rotating and/or stationary component (16, 17) exclusively, wherein the at least one nozzle opening provides a nozzle axis along which the fluid flow is directed, and said nozzle axis is tilted relative to a radial direction of an axis of rotation of the rotational component such that a momentum of rotation of the rotating component is enhanced or decreased by the fluid flow emanating the at least one nozzle opening and impacting on the rotating or stationary component (16, 17) being opposite of the leakage gap to said nozzle opening.
A method for processing image data, comprising: obtaining a first set of 3D volumetric image data, which includes a first volume of voxels, each voxel having an intensity; obtaining a local voxel noise estimate for each of the voxels of the first volume; processing the volume of voxels based at least on the intensity of the voxels and the local voxel noise estimates of the voxels; determining a color value for each voxel of the 3D volumetric image data; determining, for each voxel of the 3D volumetric image data, an opacity value based on the intensity of the voxel and the local voxel noise estimate of the voxel; determining, for each voxel of the 3D volumetric image data, a gradient value based on intensity values of neighboring voxels and local voxel noise estimates of the neighboring voxels; and combining, for each voxel, the color value, the opacity value and the gradient value, generating a noise-weighted rendering contribution for each voxel; characterised in that wherein determining the opacity value for a voxel includes multiplying an opacity transfer function by a confidence value, wherein the confidence value is: C = exp − 0.5 * σ 2 / σ o 2, where C is the confidence value, σ 2 is the local voxel noise estimate, and σ o 2 is a global noise estimate, and C has a value in an interval of zero to one. obtaining a first set of 3D volumetric image data, which includes a first volume of voxels, each voxel having an intensity; obtaining a local voxel noise estimate for each of the voxels of the first volume; processing the volume of voxels based at least on the intensity of the voxels and the local voxel noise estimates of the voxels; determining a color value for each voxel of the 3D volumetric image data; determining, for each voxel of the 3D volumetric image data, an opacity value based on the intensity of the voxel and the local voxel noise estimate of the voxel; determining, for each voxel of the 3D volumetric image data, a gradient value based on intensity values of neighboring voxels and local voxel noise estimates of the neighboring voxels; and combining, for each voxel, the color value, the opacity value and the gradient value, generating a noise-weighted rendering contribution for each voxel; characterised in that wherein determining the opacity value for a voxel includes multiplying an opacity transfer function by a confidence value, wherein the confidence value is: C = exp − 0.5 * σ 2 / σ o 2, where C is the confidence value, σ 2 is the local voxel noise estimate, and σ o 2 is a global noise estimate, and C has a value in an interval of zero to one.
A method of preparing a flavor-carrying cigarette constituent member, comprising: applying a flavor composition in a sol state to a surface of a cigarette constituent member, the flavor composition containing a flavor, water, and a polysaccharide selected from the group consisting of carrageenan, gellan gum, and a combination of gellan gum and tamarind gum; then cooling the flavor composition-applied cigarette constituent member to a temperature of 0 to 40°C to cause gelation of the flavor composition; and then heat-drying the flavor composition-applied cigarette constituent member wherein the heat-drying is performed by an initial drying at a high drying temperature of 100 °C or higher and a subsequent latter drying at a low temperature of lower than 100 °C, so that the surface temperature of the flavor composition is kept at 70 to 100°C, wherein the heat-drying is performed for a total heat-drying time of 20 minutes or less. applying a flavor composition in a sol state to a surface of a cigarette constituent member, the flavor composition containing a flavor, water, and a polysaccharide selected from the group consisting of carrageenan, gellan gum, and a combination of gellan gum and tamarind gum; then cooling the flavor composition-applied cigarette constituent member to a temperature of 0 to 40°C to cause gelation of the flavor composition; and then heat-drying the flavor composition-applied cigarette constituent member wherein the heat-drying is performed by an initial drying at a high drying temperature of 100 °C or higher and a subsequent latter drying at a low temperature of lower than 100 °C, so that the surface temperature of the flavor composition is kept at 70 to 100°C, wherein the heat-drying is performed for a total heat-drying time of 20 minutes or less.
A personal care apparatus comprising: a handle including electrical contacts, and a battery compartment for accommodating a battery for supply of electric current to the electrical contacts; a plurality of operating heads (3, 4, 5) exchangeably mountable on the handle for performing respective body treatments, each of the operating heads including an electric device, and electrical contacts for cooperation with the contacts on the handle for supply of electric current to the electric device when the respective operating head is mounted to the handle; wherein the electrical devices of at least first and second operating heads comprise electric motors. a handle including electrical contacts, and a battery compartment for accommodating a battery for supply of electric current to the electrical contacts; a plurality of operating heads (3, 4, 5) exchangeably mountable on the handle for performing respective body treatments, each of the operating heads including an electric device, and electrical contacts for cooperation with the contacts on the handle for supply of electric current to the electric device when the respective operating head is mounted to the handle; wherein the electrical devices of at least first and second operating heads comprise electric motors.
Portable power tool, in particular a portable power tool having a spindle that can be driven in an oscillatory manner, having at least one tool clamping device, in particular an oscillating-tool clamping device, comprising at least one clamping unit (12a; 12b) that has at least one pin-shaped clamping element (14a; 14b) for chucking a working tool (16a; 16b) in an axial direction (18a; 18b), and has at least one clamping head (20a; 20b) disposed on the clamping element (14a; 14b), which clamping head (20a; 20b) has at least two partial regions (30a, 32a; 30b, 32b) that are movable relative to each other, and comprising a motion conversion unit (22a; 22b), which is provided to move the at least two partial regions (30a, 32a; 30b, 32b) of the clamping head (20a; 20b), which are movable relative to each other, in dependence on a motion of the clamping element (14a; 14b) at least substantially along the axial direction (18a; 18b), in at least one direction differing from the axial direction (18a; 18b), wherein the motion conversion unit (22a; 22b) is realized as an expansion unit (92a; 92b), which is provided to move the at least two partial regions (30a, 32a; 30b, 32b) of the clamping head (20a; 20b), which are movable relative to each other, in oppositely oriented directions (34a, 36a; 34b, 36b) relative to each other, in at least one operating mode of the clamping unit (12a; 12b), characterized in that the partial regions (30a, 32a; 30b, 32b) each have a clamping face (72a, 74a), which, when the clamping unit (12a; 12b) is in a clamping mode, for the purpose of chucking the working tool (16a; 16b) in the axial direction, are expanded such that they bear against at least a partial face of the working tool (16a; 16b), and a clamping force acts on the working tool (16a; 16b) along the axial direction (18a; 18b).
Fastening element for securing two components (22, 24) to each other, wherein the first component has an opening and the second component has a recess, and the fastening element plunges through the opening and sits in the recess in order to be secured, in particular for securing an LED circuit board on a lighting component, - having a retaining clip, wherein the retaining clip ∘ forms a shaft, at one end of which a shaft head is arranged, ∘ has a clamping element which is arranged on the shaft head, ∘ is provided with at least one retaining element, which is capable of holding the shaft in the recess of the second component, characterised in that - the fastening element comprises a mounting plate, in which the retaining clip is held pre-assembled, - the mounting plate has at least one centring leg which is capable of engaging in the opening of the first component. - having a retaining clip, wherein the retaining clip ∘ forms a shaft, at one end of which a shaft head is arranged, ∘ has a clamping element which is arranged on the shaft head, ∘ is provided with at least one retaining element, which is capable of holding the shaft in the recess of the second component, characterised in that ∘ forms a shaft, at one end of which a shaft head is arranged, ∘ has a clamping element which is arranged on the shaft head, ∘ is provided with at least one retaining element, which is capable of holding the shaft in the recess of the second component, characterised in that - the fastening element comprises a mounting plate, in which the retaining clip is held pre-assembled, - the mounting plate has at least one centring leg which is capable of engaging in the opening of the first component.
Method for exchanging data between a first Internet browser and a second Internet browser of a communication network, characterized in that it comprises an initialization phase, implementing the following steps, in a routing equipment of said network placed on a default communication path between said first and second browsers: - receiving a connectivity verification message verifying connectivity between said browsers, said message carrying a specific attribute authorizing data exchanges between said browsers; - verifying an authorization to exchange data between said browsers, on the basis of said specific attribute; - in the event of a positive verification, modifying at least one routing table for routing the data between said first browser and said second browser, so as to define a replacement communication path between said browsers, passing through said routing equipment. - receiving a connectivity verification message verifying connectivity between said browsers, said message carrying a specific attribute authorizing data exchanges between said browsers; - verifying an authorization to exchange data between said browsers, on the basis of said specific attribute; - in the event of a positive verification, modifying at least one routing table for routing the data between said first browser and said second browser, so as to define a replacement communication path between said browsers, passing through said routing equipment.
A copolymer having a low molecular weight and high glass transition temperature, the copolymer comprising moieties obtained from the following components: (a) from 20 to 80 wt-% of one or more itaconate functional monomer(s) not containing acidic groups or anhydride groups, (b) not more than 40 wt-% of an acid functional monomer(s) in an amount sufficient to achieve an acid value from 160 to 325 mg KOH per g of solid polymer, (c) optionally not more than 72 wt-% of other monomers not being either (a) or (b); where the weight percentages of monomers (a), (b) and (c) total 100% and are calculated as a proportion of the total amount of monomers in the copolymer being 100%; and with the provisos: the copolymer has a number average molecular weight (M n) of no more than 15 kilograms / mole determined using Size Exclusion Chromatography with tetrahydrofuran as the eluent as disclosed in the experimental section of this specification; and the copolymer has a glass transition temperature of at least 75 °C determined with the Fox equation disclosed in the experimental section of this specification, and the copolymer contains less than 40 wt-% vinyl aromatic monomer(s) and optionally proviso applies the copolymer contains less than 40 wt-% methacrylate monomer(s). (a) from 20 to 80 wt-% of one or more itaconate functional monomer(s) not containing acidic groups or anhydride groups, (b) not more than 40 wt-% of an acid functional monomer(s) in an amount sufficient to achieve an acid value from 160 to 325 mg KOH per g of solid polymer, (c) optionally not more than 72 wt-% of other monomers not being either (a) or (b); the copolymer has a number average molecular weight (M n) of no more than 15 kilograms / mole determined using Size Exclusion Chromatography with tetrahydrofuran as the eluent as disclosed in the experimental section of this specification; and the copolymer has a glass transition temperature of at least 75 °C determined with the Fox equation disclosed in the experimental section of this specification, and the copolymer contains less than 40 wt-% vinyl aromatic monomer(s) and optionally proviso applies the copolymer contains less than 40 wt-% methacrylate monomer(s).
A tissue product comprising at least one multi-layered tissue web having a first and a second outer layer and a middle layer disposed there between, wherein the first and the second outer layers comprise short wood pulp fibers having an average fiber length less than 1.2 mm, and from about 5 to about 20 weight percent (wt%) long, high-coarseness cellulosic fiber having an average fiber length greater than about 2.0 mm and a coarseness of 20 mg/100 m or greater, wherein the middle layer contains less than about 0.25 wt% of long high-coarseness fiber, the tissue product having a geometric mean tensile from about 700 to about 1,200 g/3" (g/7.62 cm) and a TS7 value less than about 12.0 dB V 2 rms, wherein the coarseness is measured according to the test procedure described herein.
A method comprising: obtaining, by a computing device, an input image, wherein the input image has a white point represented by chrominance values that define white color in the input image; based on colors of the input image, generating, by the computing device, a two-dimensional chrominance histogram of the input image; and characterised by convolving, by the computing device, the two-dimensional chrominance histogram with a filter to create a two-dimensional heat map, wherein entries in the two-dimensional heat map represent respective estimates of how close respective tints corresponding to the respective entries are to the white point of the input image; selecting, by the computing device, an entry in the two-dimensional heat map that represents a particular value that is within a threshold of a maximum value in the heat map; and based on the selected entry, tinting, by the computing device, the input image to form an output image. obtaining, by a computing device, an input image, wherein the input image has a white point represented by chrominance values that define white color in the input image; based on colors of the input image, generating, by the computing device, a two-dimensional chrominance histogram of the input image; and characterised by convolving, by the computing device, the two-dimensional chrominance histogram with a filter to create a two-dimensional heat map, wherein entries in the two-dimensional heat map represent respective estimates of how close respective tints corresponding to the respective entries are to the white point of the input image; selecting, by the computing device, an entry in the two-dimensional heat map that represents a particular value that is within a threshold of a maximum value in the heat map; and based on the selected entry, tinting, by the computing device, the input image to form an output image.