mhurhangee/ep-ind-claims huggingface dataset:
Calibration method for a beverage dispenser, wherein the method comprises the following steps: - scanning a first vertical distance between an upper edge of a beverage container, which is located on a support of the beverage dispenser, and a distance sensor attached above the support; - filling the beverage dispenser with liquid until a second vertical distance between the distance sensor and a content of the beverage dispenser has reached a predetermined value; - determining a quantity of liquid, which was dispensed while the beverage dispenser was being filled; and - saving the first vertical distance and the determined liquid quantity in a storage device of the beverage dispenser, wherein prior to the filling process a third vertical distance is determined between the distance sensor and the content of the beverage dispenser, an approximate volume of the beverage dispenser is determined on the basis of the first and the third distance and the filling process is controlled as a function of the determined volume. - scanning a first vertical distance between an upper edge of a beverage container, which is located on a support of the beverage dispenser, and a distance sensor attached above the support; - filling the beverage dispenser with liquid until a second vertical distance between the distance sensor and a content of the beverage dispenser has reached a predetermined value; - determining a quantity of liquid, which was dispensed while the beverage dispenser was being filled; and - saving the first vertical distance and the determined liquid quantity in a storage device of the beverage dispenser, wherein prior to the filling process a third vertical distance is determined between the distance sensor and the content of the beverage dispenser, an approximate volume of the beverage dispenser is determined on the basis of the first and the third distance and the filling process is controlled as a function of the determined volume.
A method for controlling a device comprising a plurality of joints (110, 112, 133) using a topographic state map having a plurality of motion axes (D 1, D 2) defining a plurality of poses for the plurality of joints and a plurality of transitions, each of said plurality of transitions associated with one of said motion axes, each direction along each of said motion axes associated with one of complementary types of control signals in said device, each of said plurality of transitions associated with at least two of said plurality of poses, and wherein at least one of said plurality of poses associated with a one of said plurality of motion axes (D 1, D 2) is also associated with a different one of said plurality of motion axes (D 1, D 2), the method comprising: receiving a control signal; determining a mechanical state of the device within the topographic state map; identifying one or more transitions of said plurality of transitions associated with said mechanical state based on the topographic state map; and if the control signal corresponds to one of said complementary control signals for a direction of motion along one of said motion axes associated with one of said one or more said identified transitions, adjusting said mechanical state according to the one of said one or more said identified transitions and based on said control signal. receiving a control signal; determining a mechanical state of the device within the topographic state map; identifying one or more transitions of said plurality of transitions associated with said mechanical state based on the topographic state map; and if the control signal corresponds to one of said complementary control signals for a direction of motion along one of said motion axes associated with one of said one or more said identified transitions, adjusting said mechanical state according to the one of said one or more said identified transitions and based on said control signal.
An electroluminescent panel comprising: an electroluminescent element comprising a light-transmissive substrate a light-emitting medium layer interposed between a cathode and an anode, the anode being provided on one surface of the light-transmissive substrate; and a protection sheet on the other surface of the light-transmissive substrate of the EL element, wherein the protection sheet has rounded convex portions and prism portions which are formed on a surface of the protection sheet, the prism portions being provided between the rounded convex portions adjacent to each other, the surface of the protection sheet being opposite to the light-transmissive substrate, each of the rounded convex portions has an apex (Ct) that is a center point of a cross-section farthest from a bottom surface where the cross-section is parallel to the bottom surface of the rounded convex portion and the area becomes smaller in a direction from the bottom surface to a top portion thereof, and wherein where the height of the apex (Ct) with regard to a plane defined by a bottom surface of the outermost surface of the protection sheet is represented as Tc, the distance between the apexes of adjacent rounded convex portions is represented as Bc, and the height of the prism portion with regard to the plane is represented as Tp, the following formula is satisfied: 2 Tc − Tp ≤ Bc ≤ 10 Tc − Tp each of the rounded convex portions has the same height, and the rounded convex portions are periodically arranged on the protection sheet, each of the rounded convex portions has a curved face having unevenness, and each of the prism portions has the same height. an electroluminescent element comprising a light-transmissive substrate a light-emitting medium layer interposed between a cathode and an anode, the anode being provided on one surface of the light-transmissive substrate; and a protection sheet on the other surface of the light-transmissive substrate of the EL element, wherein each of the rounded convex portions has the same height, and the rounded convex portions are periodically arranged on the protection sheet, each of the rounded convex portions has a curved face having unevenness, and each of the prism portions has the same height.
A fastening unit for fastening a sensor to an installation body or to a system, wherein the fastening unit comprises two disk-shaped fastening elements (1, 2) that are connected to one another in a shape-matched manner via a toothed arrangement (3, 4, 62, 64), with the toothed arrangement being integrated in at least one of the fastening elements (1, 2), being directly in mutual engagement and generating the shape matching, and with the first fastening element having a throughgoing opening to surround an installation bar, with the opening merging into a gap that partly separates the fastening element radially outwardly, characterized in that the two fastening elements (1, 2) are connected to one another in a force-transmitting manner via a central connection, whereby the installation bars (6, 14) are simultaneously fixed by constriction of the gap, with the two fastening elements (1, 2) having respective toothed arrangements (3, 4), preferably locking arrangements, that engage into one another at the mutually facing side for the shape-matched connection.
An organic light emitting display device comprising: an organic light emitting element layer (112, 114, 116) in an active area (A/A); and a multi-layer face seal structure covering the organic light emitting element layer (112, 114, 116), the multi-layer face seal structure comprising one or more inorganic films (121-1, 121-2) and one or more organic films, wherein the one or more inorganic films (121-1, 121-2) and the one or more organic films covering the entire active area (A/A) and a part of an inactive area (I/A) surrounding the active area (A/A), and the one or more inorganic films (121-1, 121-2) are disposed only at a portion having a predetermined inward distance from an outermost periphery of the inactive area (I/A), characterized in that the one or more inorganic films (121-1, 121-2) have a chamfered shape at one or more corners of the organic light emitting display device (100-1, 100-2, 100-3, 100-4), such that, when viewed in a plan view, a square shape portion is cut at at least one of the corners between two adjoining sides of the one or more inorganic films (121-1, 121-2) forming a right angle, or a slope cut is formed at at least one of the corners between two adjoining sides of the one or more inorganic films (121-1, 121-2) forming a right angle, or a stepped shape is formed at at least one of the corners between two adjoining sides of the one or more inorganic films (121-1, 121-2) forming a right angle. an organic light emitting element layer (112, 114, 116) in an active area (A/A); and a multi-layer face seal structure covering the organic light emitting element layer (112, 114, 116), the multi-layer face seal structure comprising one or more inorganic films (121-1, 121-2) and one or more organic films, wherein the one or more inorganic films (121-1, 121-2) and the one or more organic films covering the entire active area (A/A) and a part of an inactive area (I/A) surrounding the active area (A/A), and the one or more inorganic films (121-1, 121-2) are disposed only at a portion having a predetermined inward distance from an outermost periphery of the inactive area (I/A), characterized in that the one or more inorganic films (121-1, 121-2) have a chamfered shape at one or more corners of the organic light emitting display device (100-1, 100-2, 100-3, 100-4), such that, when viewed in a plan view, a square shape portion is cut at at least one of the corners between two adjoining sides of the one or more inorganic films (121-1, 121-2) forming a right angle, or a slope cut is formed at at least one of the corners between two adjoining sides of the one or more inorganic films (121-1, 121-2) forming a right angle, or a stepped shape is formed at at least one of the corners between two adjoining sides of the one or more inorganic films (121-1, 121-2) forming a right angle.
A magnesium ion selective membrane comprising: a polymer material; a magnesium-selective material which comprises an ionophore, wherein the ionophore comprises a triamide compound; and a plasticizer comprising a measured logP value of greater than 5.8 and less than 12.8, wherein the plasticizer comprises a nitrophenyl group and a hydrophobic chain extending therefrom with a structure of wherein R 1 is a straight-chain alkyl group having 10, 11, 12 or 14 carbons. a polymer material; a magnesium-selective material which comprises an ionophore, wherein the ionophore comprises a triamide compound; and a plasticizer comprising a measured logP value of greater than 5.8 and less than 12.8, wherein the plasticizer comprises a nitrophenyl group and a hydrophobic chain extending therefrom with a structure of wherein R 1 is a straight-chain alkyl group having 10, 11, 12 or 14 carbons.
A pretreatment method of a sample for detecting HBs antigen, comprising the steps of: treating a sample suspected to contain the HBs antigen by mixing the sample with a pretreatment solution containing an alkaline substance, so that a final concentration of the alkaline substance is 0.012 to 0.15 N; and neutralizing the sample obtained from the treatment step with a reagent containing an acidic substance. treating a sample suspected to contain the HBs antigen by mixing the sample with a pretreatment solution containing an alkaline substance, so that a final concentration of the alkaline substance is 0.012 to 0.15 N; and neutralizing the sample obtained from the treatment step with a reagent containing an acidic substance.
An azeotropic or azeotrope-like composition selected from the group consisting of: 60 to 99 weight percent F14E and 1 to 40 weight percent methanol; 70 to 99 weight percent F14E and 1 to 30 weight percent isopropanol; 72 to 99 weight percent F14E and 1 to 28 weight percent ethanol; 1 to 75 weight percent F14E and 25 to 99 weight percent trans-1,2-dichloroethylene; 1 to 91 weight percent F24E and 99 to 9 weight percent methanol; 57 to 91 weight percent F24E and 43 to 9 weight percent isopropanol; 57 to 92 weight percent F24E and 43 to 8 weight percent ethanol; 1 to 63 weight percent F24E and 99 to 37 weight percent trans-1,2-dichloroethylene; 86 to 99 weight percent F22E and 14 to 1 weight percent methanol; 88 to 99 weight percent F22E and 12 to 1 weight percent isopropanol; 88 to 99 weight percent F22E and 12 to 1 weight percent ethanol; 48 to 87 weight percent F22E and 52 to 13 weight percent trans-1,2-dichloroethylene; 84 to 99 weight percent F13E and 16 to 1 weight percent methanol; 86 to 99 weight percent F13E and 14 to 1 weight percent isopropanol; 86 to 99 weight percent F13E and 14 to 1 weight percent ethanol; 42 to 84 weight percent F13E and 58 to 16 weight percent trans-1,2-dichloroethylene; 45 to 85 weight percent F22E, 14 to 54 weight percent trans-1,2-dichloroethylene, and 1 to 10 methanol; and 45 to 80 weight percent F13E, 19 to 54 weight percent trans-1,2-dichloroethylene, and 1 to 10 weight percent methanol. 60 to 99 weight percent F14E and 1 to 40 weight percent methanol; 70 to 99 weight percent F14E and 1 to 30 weight percent isopropanol; 72 to 99 weight percent F14E and 1 to 28 weight percent ethanol; 1 to 75 weight percent F14E and 25 to 99 weight percent trans-1,2-dichloroethylene; 1 to 91 weight percent F24E and 99 to 9 weight percent methanol; 57 to 91 weight percent F24E and 43 to 9 weight percent isopropanol; 57 to 92 weight percent F24E and 43 to 8 weight percent ethanol; 1 to 63 weight percent F24E and 99 to 37 weight percent trans-1,2-dichloroethylene; 86 to 99 weight percent F22E and 14 to 1 weight percent methanol; 88 to 99 weight percent F22E and 12 to 1 weight percent isopropanol; 88 to 99 weight percent F22E and 12 to 1 weight percent ethanol; 48 to 87 weight percent F22E and 52 to 13 weight percent trans-1,2-dichloroethylene; 84 to 99 weight percent F13E and 16 to 1 weight percent methanol; 86 to 99 weight percent F13E and 14 to 1 weight percent isopropanol; 86 to 99 weight percent F13E and 14 to 1 weight percent ethanol; 42 to 84 weight percent F13E and 58 to 16 weight percent trans-1,2-dichloroethylene; 45 to 85 weight percent F22E, 14 to 54 weight percent trans-1,2-dichloroethylene, and 1 to 10 methanol; and 45 to 80 weight percent F13E, 19 to 54 weight percent trans-1,2-dichloroethylene, and 1 to 10 weight percent methanol.
A curable perfluoropolyether based gel composition comprising a linear fluorinated polymer containing at least two alkenyl groups per molecule, represented by the formula: wherein R 1 is each independently vinyl or C 1 -C 4 alkyl, R 2 is each independently C 1 -C 6 alkylene, R 3 is each independently hydrogen or optionally fluorinated C 1 -C 4 alkyl, and Rf 1 is a perfluoroalkylene group or divalent perfluoropolyether structure-containing group, a polyfluoromonoalkenyl compound containing one alkenyl group per molecule and having a perfluoropolyether structure in its backbone, a cyclic organohydrogenpolysiloxane having four silicon-bonded hydrogen atoms and one perfluoroalkyl group or perfluoropolyether structure-containing group per molecule, represented by the formula: wherein Rf 2 is a perfluoroalkyl group or monovalent perfluoropolyether structure-containing group, R 4 is each independently a C 1 -C 20 monovalent hydrocarbon group, and R 5 is a C 2 -C 20 divalent hydrocarbon group which may contain an ether bond, amide bond, carbonyl bond, silyl radical or ester bond, and a hydrosilylation reaction catalyst. a linear fluorinated polymer containing at least two alkenyl groups per molecule, represented by the formula: wherein R 1 is each independently vinyl or C 1 -C 4 alkyl, R 2 is each independently C 1 -C 6 alkylene, R 3 is each independently hydrogen or optionally fluorinated C 1 -C 4 alkyl, and Rf 1 is a perfluoroalkylene group or divalent perfluoropolyether structure-containing group, a polyfluoromonoalkenyl compound containing one alkenyl group per molecule and having a perfluoropolyether structure in its backbone, a cyclic organohydrogenpolysiloxane having four silicon-bonded hydrogen atoms and one perfluoroalkyl group or perfluoropolyether structure-containing group per molecule, represented by the formula: wherein Rf 2 is a perfluoroalkyl group or monovalent perfluoropolyether structure-containing group, R 4 is each independently a C 1 -C 20 monovalent hydrocarbon group, and R 5 is a C 2 -C 20 divalent hydrocarbon group which may contain an ether bond, amide bond, carbonyl bond, silyl radical or ester bond, and a hydrosilylation reaction catalyst.
A registration method for personal network management, PNM, service, comprising: receiving, by a PNM server, a registration request sent from a user equipment, UE, subscribed to the PNM service, wherein the registration request includes an IP Multimedia Public Identity, IMPU, to be registered with a personal network, PN; determining, by the PNM server, a registration status of the IMPU in a Public Land Mobile Network, PLMN; and storing, by the PNM server, the IMPU included in the registration request if the IMPU included in the registration request is registered with the PLMN. receiving, by a PNM server, a registration request sent from a user equipment, UE, subscribed to the PNM service, wherein the registration request includes an IP Multimedia Public Identity, IMPU, to be registered with a personal network, PN; determining, by the PNM server, a registration status of the IMPU in a Public Land Mobile Network, PLMN; and storing, by the PNM server, the IMPU included in the registration request if the IMPU included in the registration request is registered with the PLMN.
A cell culture method comprising: a. providing a cell culture medium sufficient to support cell growth, wherein the cell culture medium comprises N-acetylcysteine; and b. culturing a cell in the cell culture medium, wherein the cell is an NS0 cell, wherein the N-acetylcysteine is at a concentration of from about 0.25 mM to about 3 mM. a. providing a cell culture medium sufficient to support cell growth, wherein the cell culture medium comprises N-acetylcysteine; and b. culturing a cell in the cell culture medium, wherein the cell is an NS0 cell,
A cylinder liner made of a cast iron consisting of, based on the total weight of the cast iron: 3.2 wt. % to 3.8 wt. % carbon, 2.2 wt. % to 3.2 wt. % silicon, 0.01 wt. % to 0.5 wt. % manganese, up to 0.3 wt. % phosphorous, up to 0.05 wt. % sulfur, 0.01 wt. % to 0.2 wt. % chromium, 0.5 wt. % to 1.3 wt. % copper, up to 0.2 wt. % tin, not greater than 0.01 wt. % molybdenum, not greater than 0.01 wt. % nickel, and not greater than 0.01 wt. % vanadium, the balance being iron and unavoidable impurities, the cast iron including graphite, wherein at least a portion of the graphite is spheroidal graphite. 3.2 wt. % to 3.8 wt. % carbon, 2.2 wt. % to 3.2 wt. % silicon, 0.01 wt. % to 0.5 wt. % manganese, up to 0.3 wt. % phosphorous, up to 0.05 wt. % sulfur, 0.01 wt. % to 0.2 wt. % chromium, 0.5 wt. % to 1.3 wt. % copper, up to 0.2 wt. % tin, not greater than 0.01 wt. % molybdenum, not greater than 0.01 wt. % nickel, and not greater than 0.01 wt. % vanadium, the balance being iron and unavoidable impurities,
A flexible display device comprising: a flexible substrate comprising a bending part; and a conductive pattern comprising a plurality of grains, at least a portion of the conductive pattern being disposed on the bending part, wherein each of the grains has a grain size of 10nm to 100nm; characterized in that the conductive pattern comprises a plurality of stacked conductive pattern layers, wherein in each of the conductive pattern layers the grain size is 10nm to 100nm. a flexible substrate comprising a bending part; and a conductive pattern comprising a plurality of grains, at least a portion of the conductive pattern being disposed on the bending part, wherein each of the grains has a grain size of 10nm to 100nm; characterized in that the conductive pattern comprises a plurality of stacked conductive pattern layers, wherein in each of the conductive pattern layers the grain size is 10nm to 100nm.
A cultivation substrate with integrated irrigation, in particular for planting roofs, the substrate comprising a first layer of plant-material fibres, at least one fluid-supply pipe, a layer for reinforcing and holding said at least one pipe, and a second layer of plant-material fibres, the first and second layers (10, 16) being connected by carding; characterised in that the reinforcing and holding layer is a net.
A combined cycle fuel cell, comprising: a fuel cell comprising an anode configured to generate heat, the anode comprising an inlet and an outlet; a hydrocarbon fuel reforming system configured to mix a hydrocarbon fuel with the fuel cell tail gas downstream of the fuel cell and to partly or fully convert the hydrocarbon fuel into hydrogen (H 2) and carbon monoxide to generate a reformed fuel, and further configured to split the reformed fuel into a first portion and a residual portion; a first Organic Rankine cycle configured to remove heat from the first portion of the reformed fuel; a fuel purification apparatus, wherein the first ORC and fuel purification apparatus are together configured to generate purified fuel via removal of water and carbon dioxide from the first portion of reformed fuel; a recuperator configured to extract heat from the purified fuel and transfer the extracted heat to the fuel and tail gas entering the reformer; a fuel path configured to divert the purified fuel to the inlet of the fuel cell anode; a second ORC configured to remove heat from the residual portion of the reformed fuel and generate electrical power therefrom; and a bottoming cycle comprising an external or internal combustion engine driven in response to the cooled residual portion of the reformed fuel exiting the second ORC. a fuel cell comprising an anode configured to generate heat, the anode comprising an inlet and an outlet; a hydrocarbon fuel reforming system configured to mix a hydrocarbon fuel with the fuel cell tail gas downstream of the fuel cell and to partly or fully convert the hydrocarbon fuel into hydrogen (H 2) and carbon monoxide to generate a reformed fuel, and further configured to split the reformed fuel into a first portion and a residual portion; a first Organic Rankine cycle configured to remove heat from the first portion of the reformed fuel; a fuel purification apparatus, wherein the first ORC and fuel purification apparatus are together configured to generate purified fuel via removal of water and carbon dioxide from the first portion of reformed fuel; a recuperator configured to extract heat from the purified fuel and transfer the extracted heat to the fuel and tail gas entering the reformer; a fuel path configured to divert the purified fuel to the inlet of the fuel cell anode; a second ORC configured to remove heat from the residual portion of the reformed fuel and generate electrical power therefrom; and a bottoming cycle comprising an external or internal combustion engine driven in response to the cooled residual portion of the reformed fuel exiting the second ORC.