mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a wireless power receiver, the method is performed by the wireless power receiver and comprises: receiving, by a power reception unit of the wireless power receiver from a wireless power transmitter, a first power for initiating a communication unit of the wireless power receiver; transmitting, by the communication unit, a search signal; receiving, by the communication unit, from the wireless power transmitter, a response search signal corresponding to the search signal; transmitting, by the communication unit to the wireless power transmitter, a request join signal for joining a wireless power network corresponding to the wireless power transmitter through a pairing which is established between the wireless power receiver and the wireless power transmitter based on the search signal and the search response signal, the request join signal including a maximum voltage allowed at an input stage of a Direct Current, DC, /DC conversion unit of the wireless power receiver; receiving, by the communication unit from the wireless power transmitter, a join response signal through the pairing; receiving, by the communication unit, a charge command signal indicating a charge start command from the wireless power transmitter; and based on receiving the charge command signal, starting charging a battery of the wireless power receiver, by using a second power which is received by the power reception unit from the wireless power transmitter. receiving, by a power reception unit of the wireless power receiver from a wireless power transmitter, a first power for initiating a communication unit of the wireless power receiver; transmitting, by the communication unit, a search signal; receiving, by the communication unit, from the wireless power transmitter, a response search signal corresponding to the search signal; transmitting, by the communication unit to the wireless power transmitter, a request join signal for joining a wireless power network corresponding to the wireless power transmitter through a pairing which is established between the wireless power receiver and the wireless power transmitter based on the search signal and the search response signal, the request join signal including a maximum voltage allowed at an input stage of a Direct Current, DC, /DC conversion unit of the wireless power receiver; receiving, by the communication unit from the wireless power transmitter, a join response signal through the pairing; receiving, by the communication unit, a charge command signal indicating a charge start command from the wireless power transmitter; and based on receiving the charge command signal, starting charging a battery of the wireless power receiver, by using a second power which is received by the power reception unit from the wireless power transmitter.
A pond filter arrangement comprising: a pond filter comprising a housing having a fluid inlet and a fluid outlet, a chamber within the housing for receiving a plurality of filter media elements and which is disposed in a flow path between the inlet and the outlet, and an agitation member disposed in the chamber for agitating carried filter media elements in a cleaning process and a plurality of filter media elements provided in the chamber, wherein the filter media elements are compressible open celled foam portions which, under action of the agitation member, are free to change location within the chamber and move relative to one another, wherein the agitation member is arranged for rotation, about an axis, within the chamber, and at least one side wall of the chamber for receiving a plurality of filter media elements is provided with projecting elongate portions (33a, 34a) which extend on the side wall transversely to a rotation direction of the agitation member about the axis for resisting rotation of the filter media elements. a pond filter comprising a housing having a fluid inlet and a fluid outlet, a chamber within the housing for receiving a plurality of filter media elements and which is disposed in a flow path between the inlet and the outlet, and an agitation member disposed in the chamber for agitating carried filter media elements in a cleaning process and a plurality of filter media elements provided in the chamber, wherein the filter media elements are compressible open celled foam portions which, under action of the agitation member, are free to change location within the chamber and move relative to one another, wherein the agitation member is arranged for rotation, about an axis, within the chamber, and at least one side wall of the chamber for receiving a plurality of filter media elements is provided with projecting elongate portions (33a, 34a) which extend on the side wall transversely to a rotation direction of the agitation member about the axis for resisting rotation of the filter media elements.
Method for creating an optical tomogram, characterised in that it comprises the following steps: a) providing an optical microscope comprising a microscope objective, b) arranging a sample in the optical coverage region of a lens of the microscope, c) setting the focus of the lens to a particular focal plane, d) recording an image of the sample through the microscope, e) rotating the sample through an angle α, f) displacing the sample along the longitudinal axis (z) of the lens and/or perpendicular to the plane of the previously recorded image in dependence of a depth of focus of the microscope objective, g) continuing the method with step d) until a predetermined number of section images of the sample have been recorded, wherein the sample is displaced along the longitudinal axis (z) of the lens and/or perpendicular to the plane of the previously recorded image, in accordance with step f), at least once during a rotation of the sample through 360°, so that a significant acceleration of a recording of the section images required for the optical tomography and a reduction of the burden for living specimens by moving the sample along a smooth trajectory without any abrupt changes in direction is realized, that the individual section images are captured digitally and saved in a memory and combined by a data processing device to form a three-dimensional model, which images the internal three-dimensional structure of the sample, and wherein the memory of the optical microscope has a minimum storage capacity which makes it possible to store at least a number i of section images which can be captured during a rotation of the sample through 360°, i being the number of individual section images recorded during a complete rotation of the sample, and further wherein after rotation through an angle α a section image is captured so that i is 360 α, and wherein the calculation of the three-dimensional model of the sample only begins after the first complete rotation of the sample through 360°. a) providing an optical microscope comprising a microscope objective, b) arranging a sample in the optical coverage region of a lens of the microscope, c) setting the focus of the lens to a particular focal plane, d) recording an image of the sample through the microscope, e) rotating the sample through an angle α, f) displacing the sample along the longitudinal axis (z) of the lens and/or perpendicular to the plane of the previously recorded image in dependence of a depth of focus of the microscope objective, g) continuing the method with step d) until a predetermined number of section images of the sample have been recorded,
A method for purification of a protein that is conjugated to an albumin binding moiety from a mixture comprising (i) said protein in said conjugated form and (ii) said protein in a form that is not conjugated to said albumin-binding moiety, the method comprising: (a) providing a solid support comprising a substance capable of specifically binding to the albumin binding moiety, wherein said substance is selected from the group consisting of albumin and cyclodextrin; (b) contacting said solid support of (a) with said mixture comprising protein and conjugated protein under suitable conditions for binding of the albumin binding moiety to the substance as defined in (a); and (c) eluting components bound to the solid support, wherein said elution comprises contacting the solid support with the substance capable of binding to the albumin binding moiety. (a) providing a solid support comprising a substance capable of specifically binding to the albumin binding moiety, wherein said substance is selected from the group consisting of albumin and cyclodextrin; (b) contacting said solid support of (a) with said mixture comprising protein and conjugated protein under suitable conditions for binding of the albumin binding moiety to the substance as defined in (a); and (c) eluting components bound to the solid support, wherein said elution comprises contacting the solid support with the substance capable of binding to the albumin binding moiety.
A method for the production of quaternary ammonium oxalates or of quaternary ammonium hydrogen oxalates of formula by reacting amines of formula with dimethyl carbonate and further reacting the intermediate product with oxalic acid or oxalic acid dihydrate, in which X ⊖ is 1⁄2 C 2 O 4 2⊖ or HC 2 O 4 ⊖, R 1 is a straight-chained or branched, aliphatic hydrocarbon radical having 8 to 22 carbon atoms, which is saturated or can contain one, two or three C=C-double bonds, R 2 is CH 3, C 2 H 5, C 3 H 7, C 4 H 9 or the meaning given for R 1, and R 3 is CH 3, C 2 H 5, C 3 H 7, C 4 H 9, where the reaction of the amine of formula with dimethyl carbonate is carried out under the pressure which is established here in the closed reaction vessel, and the further reaction of the isolated or nonisolated intermediate product with oxalic acid or oxalic acid dihydrate is carried out in a solvent. X ⊖ is 1⁄2 C 2 O 4 2⊖ or HC 2 O 4 ⊖, R 1 is a straight-chained or branched, aliphatic hydrocarbon radical having 8 to 22 carbon atoms, which is saturated or can contain one, two or three C=C-double bonds, R 2 is CH 3, C 2 H 5, C 3 H 7, C 4 H 9 or the meaning given for R 1, and R 3 is CH 3, C 2 H 5, C 3 H 7, C 4 H 9,
Ophthalmological device for processing eye tissue by means of femtosecond laser pulses comprising: a projection optical unit for the focused projection of the femtosecond laser pulses into the eye tissue, a first beam-deflecting scanner system, disposed upstream of the projection optical unit, with one or two tiltable deflection mirrors for scanning the eye tissue with the femtosecond laser pulses along a processing line (s), a second beam-deflecting scanner system, disposed upstream of the first scanner system, for scanning the eye tissue with the femtosecond laser pulses in a scanning movement (f) superimposed on the processing line (s), and running in a deflection plane, and a rotation system with a rotation module (9, 9', 9") for aligning the deflection plane by a defined rotation of the deflection plane about an optical projection axis (z), characterized in that the rotation system comprises a rotation control module, which is designed to define the rotation of the deflection plane on the basis of the directional course of the processing line (s) and to control the rotation module (9, 9', 9") in such a way that the deflection plane is aligned with a defined angle with respect to the processing line (s). a projection optical unit for the focused projection of the femtosecond laser pulses into the eye tissue, a first beam-deflecting scanner system, disposed upstream of the projection optical unit, with one or two tiltable deflection mirrors for scanning the eye tissue with the femtosecond laser pulses along a processing line (s), a second beam-deflecting scanner system, disposed upstream of the first scanner system, for scanning the eye tissue with the femtosecond laser pulses in a scanning movement (f) superimposed on the processing line (s), and running in a deflection plane, and a rotation system with a rotation module (9, 9', 9") for aligning the deflection plane by a defined rotation of the deflection plane about an optical projection axis (z), characterized in that the rotation system comprises a rotation control module, which is designed to define the rotation of the deflection plane on the basis of the directional course of the processing line (s) and to control the rotation module (9, 9', 9") in such a way that the deflection plane is aligned with a defined angle with respect to the processing line (s).
A thermoplastic moulding composition comprising: a) from 90.0 to 99.99989 wt.-% of a thermoplastic polymer; b) from 0.0001 to 5.0 wt.-% of carbon black; and c) from 0.00001 to 5.0 wt.-% of a monoazo dye comprising at least one heteroaromatic moiety, wherein the thermoplastic polymer is selected from the group consisting of polyalkyl (meth)acrylate, polymethylmethacrylimide, polyalkyl (meth)acrylate copolymers, polystyrene, polystyrene copolymer, acrylonitrile copolymers, polycarbonates, polyesters, polyvinylidene fluoride or a mixture thereof. a) from 90.0 to 99.99989 wt.-% of a thermoplastic polymer; b) from 0.0001 to 5.0 wt.-% of carbon black; and c) from 0.00001 to 5.0 wt.-% of a monoazo dye comprising at least one heteroaromatic moiety,
Method for identifying a source of error in a communication network comprising at least one client (106, 206) configured to be connected to a base station (15, 17), wherein said at least one client is arranged on a vehicle repetitively moving in a predetermined area comprising at least one base station, and wherein said vehicle is provided with at least one fixed external antenna (5 a-n) through which the client and the base station communicates, said method comprising the steps executed by a central control units of: collecting signal quality data from said at least one client for an extended time period when moving in said area, said signal quality data being indicative of the signal quality between said at least one client and said at least one base station, said signal quality data comprising a plurality of data entries; determining a position in said area at which each of said data entries was collected and a time at which each of said data entries was collected; identifying an anomaly in said signal quality data, by comparing newly collected signal quality data with previously collected signal quality data; and determining, for at least one identified anomaly, from the time and position when said signal quality data having an anomaly was collected, a source of error in said communication network. collecting signal quality data from said at least one client for an extended time period when moving in said area, said signal quality data being indicative of the signal quality between said at least one client and said at least one base station, said signal quality data comprising a plurality of data entries; determining a position in said area at which each of said data entries was collected and a time at which each of said data entries was collected; identifying an anomaly in said signal quality data, by comparing newly collected signal quality data with previously collected signal quality data; and determining, for at least one identified anomaly, from the time and position when said signal quality data having an anomaly was collected, a source of error in said communication network.
An organic light emitting display device comprising: a substrate; a thin film transistor "TFT" disposed on the substrate, the TFT including a source electrode and a drain electrode; a first power line disposed in the same layer as the source electrode and the drain electrode and electrically connected to the source electrode, the first power line arranged to supply a first voltage; a second power line disposed over the TFT, the second power line arranged to supply a second voltage; an auxiliary line disposed on the first power line, wherein the auxiliary line is in the same layer as the second power line, wherein the first power line is electrically connected to the auxiliary line; an anode electrode disposed over the second power line and the auxiliary line and electrically connected to the drain electrode; an organic layer disposed on the anode electrode; and a cathode electrode covering the organic layer and electrically connected to the second power line, wherein the TFT, the first power line, the second power line, the auxiliary line, the anode electrode and the organic layer are disposed in an emission area disposed adjacent to a light transmissive area, wherein a projection of the second power line onto the substrate's plane overlaps with a projection of the TFT onto the substrate's plane and a projection of the anode electrode onto the substrate's plane, and wherein the projection of the anode electrode onto the substrate's plane overlaps with the projection of the TFT onto the substrate's plane. a substrate; a thin film transistor "TFT" disposed on the substrate, the TFT including a source electrode and a drain electrode; a first power line disposed in the same layer as the source electrode and the drain electrode and electrically connected to the source electrode, the first power line arranged to supply a first voltage; a second power line disposed over the TFT, the second power line arranged to supply a second voltage; an auxiliary line disposed on the first power line, wherein the auxiliary line is in the same layer as the second power line, wherein the first power line is electrically connected to the auxiliary line; an anode electrode disposed over the second power line and the auxiliary line and electrically connected to the drain electrode; an organic layer disposed on the anode electrode; and a cathode electrode covering the organic layer and electrically connected to the second power line, wherein the TFT, the first power line, the second power line, the auxiliary line, the anode electrode and the organic layer are disposed in an emission area disposed adjacent to a light transmissive area, wherein a projection of the second power line onto the substrate's plane overlaps with a projection of the TFT onto the substrate's plane and a projection of the anode electrode onto the substrate's plane, and wherein the projection of the anode electrode onto the substrate's plane overlaps with the projection of the TFT onto the substrate's plane.
A stirrer shaft for a microwave oven, the stirrer shaft comprising: a shaft body configured to connect between a stirrer motor on a first end of the shaft body and a set of stirrer blades spaced apart from the stirrer motor, characterised by the shaft body including a flow passage therethrough for equalizing pressure in a sealed stirrer cavity of the microwave oven.
Stretching rod for a moulding unit for manufacturing a container from a preform, said stretching rod extending longitudinally, parallel to a main axis Y, comprising: - a body of cylindrical or tubular form; - a distal end in the continuation of said body; - a flat situated at the distal end of the stretching rod, and; - an end fitting protruding from said flat; - said rod being characterized in that it comprises an annular skirt in the continuation of said body, at said distal end, said skirt having a height less than the height of said end fitting, said end fitting having a diameter smaller than the diameter of the body of the stretching rod, and the diameter of the free end of the skirt being smaller than or equal to 14 mm. - a body of cylindrical or tubular form; - a distal end in the continuation of said body; - a flat situated at the distal end of the stretching rod, and; - an end fitting protruding from said flat; - said rod being characterized in that it comprises an annular skirt in the continuation of said body, at said distal end, said skirt having a height less than the height of said end fitting, said end fitting having a diameter smaller than the diameter of the body of the stretching rod, and the diameter of the free end of the skirt being smaller than or equal to 14 mm.
A pre-patch transfer sheet comprising: a carrier substrate; and a pre-patch transfer assembly (14,16,18) that is affixed along a first side of the carrier substrate and comprising: at least one isolated element for transfer having (i) a micro-optic film material assembly that produces an image, and (ii) an adhesive layer affixed along a first side of the micro-optic film material assembly opposite the carrier substrate; and a background area from which material has been removed that is adjacent to or surrounds the at least one isolated element for transfer, characterised in that the image is a synthetic image, wherein the image is synthetized by the united performance of a multiplicity of individual focusing element/image icon systems, wherein each focusing element magnifies a dot/very small space of the image below the focusing element, the dots are then combined and projected, thus leading to a magnified image, which is a synthetic image. a carrier substrate; and a pre-patch transfer assembly (14,16,18) that is affixed along a first side of the carrier substrate and comprising: at least one isolated element for transfer having (i) a micro-optic film material assembly that produces an image, and (ii) an adhesive layer affixed along a first side of the micro-optic film material assembly opposite the carrier substrate; and a background area from which material has been removed that is adjacent to or surrounds the at least one isolated element for transfer, characterised in that the image is a synthetic image, wherein the image is synthetized by the united performance of a multiplicity of individual focusing element/image icon systems, wherein each focusing element magnifies a dot/very small space of the image below the focusing element, the dots are then combined and projected, thus leading to a magnified image, which is a synthetic image. at least one isolated element for transfer having (i) a micro-optic film material assembly that produces an image, and (ii) an adhesive layer affixed along a first side of the micro-optic film material assembly opposite the carrier substrate; and a background area from which material has been removed that is adjacent to or surrounds the at least one isolated element for transfer, characterised in that the image is a synthetic image, wherein the image is synthetized by the united performance of a multiplicity of individual focusing element/image icon systems, wherein each focusing element magnifies a dot/very small space of the image below the focusing element, the dots are then combined and projected, thus leading to a magnified image, which is a synthetic image.