mhurhangee/ep-ind-claims huggingface dataset:
Method for monitoring a structural foundation in a ground for a structure, wherein - ground parameters are determined for the ground, - based on the determined ground parameters a preliminary ground model is calculated by means of a computer unit, on which a design of the structural foundation is laid out taking into consideration specification data of the structure to be erected, - during and/or after the production of the structural foundation measured values relating to settlements, distortions and/or forces on the structural foundation or the structure are recorded by means of measuring means, - the measured values are forwarded to the computer unit which checks if the measured values are consistent with the preliminary ground model, and - if the measured values are not consistent with the preliminary ground model, a subsequent ground model, in which the measured values are consistent with the new ground model, is calculated by the computer unit, wherein the preliminary ground model is compared with the subsequent ground model as to what extent specification data of the foundation are met, and wherein a warning is issued by the computer unit if specification data for the structural foundation are no longer met in the subsequent ground model. - ground parameters are determined for the ground, - based on the determined ground parameters a preliminary ground model is calculated by means of a computer unit, on which a design of the structural foundation is laid out taking into consideration specification data of the structure to be erected, - during and/or after the production of the structural foundation measured values relating to settlements, distortions and/or forces on the structural foundation or the structure are recorded by means of measuring means, - the measured values are forwarded to the computer unit which checks if the measured values are consistent with the preliminary ground model, and - if the measured values are not consistent with the preliminary ground model, a subsequent ground model, in which the measured values are consistent with the new ground model, is calculated by the computer unit,
An image data processor, comprising: a structural image data processor configured to employ a multi-structure atlas to segment a region of interest from structural image data which includes tissue of interest and that segments the tissue of interest from the region of interest, wherein the structure is a rib-cage, and the tissue of interest is a lung lobe, and the multi-structure atlas is a rib cage / lung lobe atlas including a mapping that maps one or more ribs to a location of a boundary of a lung lobe, and the mapping includes a lung lobe region of interest, in a form of at least one of a point cloud on a surface of the lung or a 3D sheet across the lung, through the rib cage / lung lobe atlas; and a functional image data processor configured to identify the tissue of interest in functional image data based on the segmented tissue of interest. a structural image data processor configured to employ a multi-structure atlas to segment a region of interest from structural image data which includes tissue of interest and that segments the tissue of interest from the region of interest, wherein the structure is a rib-cage, and the tissue of interest is a lung lobe, and the multi-structure atlas is a rib cage / lung lobe atlas including a mapping that maps one or more ribs to a location of a boundary of a lung lobe, and the mapping includes a lung lobe region of interest, in a form of at least one of a point cloud on a surface of the lung or a 3D sheet across the lung, through the rib cage / lung lobe atlas; and a functional image data processor configured to identify the tissue of interest in functional image data based on the segmented tissue of interest.
Method for the mass spectrometric determination of the resistance of microbes against an antibiotic, where the microbes from a sample under investigation are cultivated in a first culture to which an antibiotic is added and in a second culture to which no antibiotic is added, while a medium with isotope-labeled nutrient components is used in both cultures, and afterwards mass spectra of the microbes from both cultures are acquired and compared with each other, wherein the medium is a synthetic medium which contains proteinogenic amino acids, and at least one of the amino acids is isotope-labeled, and all the isotope-labeled amino acids have the same integer mass difference Δm in relation to the corresponding unlabeled amino acids, and the ratio of the corresponding unlabeled amino acid to the isotope-labeled amino acid contained in the synthetic medium is less than twenty percent.
A system configured to be installed in an aircraft, the system comprising: a first functional domain configured to provide a first service; a second functional domain (120, 130) configured to provide a second service; characterized in that the system comprises: a wireless access point (151, 152, 153) configured to be externally managed by a controller and configured to communicate with a mobile terminal (211, 212, 213, 214, 215); and a controller configured to communicate with the wireless access point (151, 152, 153), the first functional domain and the second functional domain (120, 130), configured to manage the wireless access point (151, 152, 153) and configured to control wireless access of the mobile terminal (211, 212, 213, 214, 215) to the first functional domain and the second functional domain (120, 130). a first functional domain configured to provide a first service; a second functional domain (120, 130) configured to provide a second service; characterized in that the system comprises: a wireless access point (151, 152, 153) configured to be externally managed by a controller and configured to communicate with a mobile terminal (211, 212, 213, 214, 215); and a controller configured to communicate with the wireless access point (151, 152, 153), the first functional domain and the second functional domain (120, 130), configured to manage the wireless access point (151, 152, 153) and configured to control wireless access of the mobile terminal (211, 212, 213, 214, 215) to the first functional domain and the second functional domain (120, 130). a wireless access point (151, 152, 153) configured to be externally managed by a controller and configured to communicate with a mobile terminal (211, 212, 213, 214, 215); and a controller configured to communicate with the wireless access point (151, 152, 153), the first functional domain and the second functional domain (120, 130), configured to manage the wireless access point (151, 152, 153) and configured to control wireless access of the mobile terminal (211, 212, 213, 214, 215) to the first functional domain and the second functional domain (120, 130).
A microplate comprising a plurality of open wells, wherein one or more of the wells comprises an area for communication with the tip of a pipette which provides a point of contact between the dispensing end of the pipette tip and the microplate well in use, wherein the area for communication with the pipette tip is located at the junction between the base of the well and the wall of the well and wherein the area for communication with the pipette tip comprises one or more raised areas or protrusions located on the base and/or wall of the well interior, and/or one or more recesses or indentations in the wall and/or base of the well; and wherein the area for communication with the pipette tip is such that, in use, the dispensing end of the pipette tip bridges the gap between a point on the base of the microplate well and a point on the wall of the microplate well to create a channel for aspiration and dispensing of fluid.
An oral pharmaceutical composition comprising propiverine or pharmaceutically acceptable salt thereof having biphasic in vitro release characteristics wherein a dissolution profile of propiverine less than 50.0% after nine hours and not less than 85.0% in 24 hours as measured by USP Type I apparatus (basket) at 100 rpm, in 750 mL of 0.1 N hydrochloric acid for the first hour, subsequently in 750 mL USP buffer at pH 5.8 until nine hours, and subsequently in 750 mL of pH 6.8 USP buffer until 24 hours wherein said composition comprises a. at least one hydrophilic polymer selected from hydroxypropyl cellulose, hydroxypropylmethyl cellulose and combination thereof, b. at least one water soluble pore forming agent selected from lactose hydrous, lactose anhydrous, lactose monohydrate, lactose spray-dried and any combination thereof, wherein it is in an amount of less than 50% by weight of the composition, and c. at least two pH dependent polymer comprising a mixture of a pH dependent polymer dissolving at or above pH 5.5 and a pH dependent polymer dissolving at or above pH 6.0 in an amount of at least 20% by weight of the composition. a. at least one hydrophilic polymer selected from hydroxypropyl cellulose, hydroxypropylmethyl cellulose and combination thereof, b. at least one water soluble pore forming agent selected from lactose hydrous, lactose anhydrous, lactose monohydrate, lactose spray-dried and any combination thereof, wherein it is in an amount of less than 50% by weight of the composition, and c. at least two pH dependent polymer comprising a mixture of a pH dependent polymer dissolving at or above pH 5.5 and a pH dependent polymer dissolving at or above pH 6.0 in an amount of at least 20% by weight of the composition.
A method performed by a wireless device for performing an uplink control channel transmission in a serving cell in a wireless communications network when the wireless device is configured with a set of serving cells (115, 116, 117, 118), comprising said serving cell, in the wireless communications network, the method comprising determining a number of serving cells of the set of serving cells (115, 116, 117, 118) that are relevant to consider by said wireless device when performing the uplink control channel transmission in the serving cell, wherein the set of serving cells (115, 116, 117, 118) comprises at least one serving cell which is autonomously de-activated by the wireless device and which is not included in the number of serving cells that are relevant to consider; selecting an uplink control channel format from a set of uplink control channel formats for uplink control channel transmissions based on the determined number of serving cells; and performing the uplink control channel transmission in the serving cell using the selected uplink control channel format. determining a number of serving cells of the set of serving cells (115, 116, 117, 118) that are relevant to consider by said wireless device when performing the uplink control channel transmission in the serving cell, wherein the set of serving cells (115, 116, 117, 118) comprises at least one serving cell which is autonomously de-activated by the wireless device and which is not included in the number of serving cells that are relevant to consider; selecting an uplink control channel format from a set of uplink control channel formats for uplink control channel transmissions based on the determined number of serving cells; and performing the uplink control channel transmission in the serving cell using the selected uplink control channel format.
An air cargo container comprising a rectangular, planar bottom side for accommodating a transported product, a rectangular, planar top side, at least four connecting profiles and an least triangular, planar intermediate element, wherein the connecting profiles each connect one bottom side corner and one top side corner with one another in order to form sides of the air cargo container, a guide device is disposed on each of at least three connecting profiles and/or a guide device is disposed on each of two opposing edges of the bottom side and on at least one edge of the top side or on each of two opposing edges of the top side and on at least one edge of the bottom side such that the guide devices define a plane, characterized in that the intermediate element consists of a flexible material, and the intermediate element comprises a snap-fitting means at each intermediate element corner, wherein said snap-fitting means has a variable length and is designed to snap into the guide device.
A drawn polyethylene terephthalate fiber, including 90 mol% or more of PET, wherein a creep rate defined by the following Calculation Formula 1 is 5.5% or less when the drawn PET fiber is fixed under the initial load of 0.01g/d and is kept for 24 hours under the load of 0.791g/d and the temperature of 100°C, and wherein the creep rate after heating the drawn PET fiber for 15 min under the load of 0.01g/d and the temperature of 180°C is 5.0% or less when the heated drawn PET fiber is fixed under the initial load of 0.01g/d and is kept for 24 hours under the load of 0.791 g/d and the temperature of 20 °C: Creep rate = L - L 0 / L 0 × 100 wherein L is a length of the drawn PET fiber after keeping it for 24 hours, L0 is a length of the drawn PET fiber when it is fixed under the initial load.
A process for forming a ceramic coating (200, 300) on an article made of metal or alloy in an electrolytic bath fitted with a first electrode and filled with aqueous alkaline electrolyte, in which is immersed the article, connected to another electrode, wherein a pulsed current is supplied across the electrodes so as to enable the process to be conducted in a plasma-electrolytic oxidation regime, the process comprising the steps of: i) supplying the electrodes with high-frequency bipolar pulses of current at a regulated pulse succession frequency or frequencies of at least 500Hz; and ii) applying acoustic vibrations to the electrolyte so as to generate an acoustic field extending over a predetermined sonic frequency range, the frequency range of the acoustic field including the regulated pulse succession frequency or frequencies of the current pulses. i) supplying the electrodes with high-frequency bipolar pulses of current at a regulated pulse succession frequency or frequencies of at least 500Hz; and ii) applying acoustic vibrations to the electrolyte so as to generate an acoustic field extending over a predetermined sonic frequency range, the frequency range of the acoustic field including the regulated pulse succession frequency or frequencies of the current pulses.
A solid dye product, which is suitable for changing the colour of a fabric and for use in a domestic washing machine, said dye product comprising: a) a water-permeable sachet formed from a non-woven, water-permeable material and containing a water-soluble dye composition comprising from 40 to 70% by weight of one or more reactive dyes and from 30 to 60% by weight of one or more salts or one or more alkalis or a mixture thereof, the percentages being percentages by weight of the total dye composition in the water-permeable sachet; and b) a water-impermeable container means containing a water-soluble dye fix composition comprising one or more alkalis, alone or in combination with one or more salts; wherein • the weight ratio of the dye composition to the dye fix composition is from 1:5 to 1:20, • the salt in the dye composition or the dye fix composition is an alkali metal salt of an inorganic acid; and • the alkali in the dye composition or the dye fix composition is selected from sodium or potassium carbonate, sodium or potassium hydroxide, sodium or potassium metasilicate, sodium or potassium silicate, sodium or potassium bicarbonate, trisodium phosphate, ammonium hydroxide and triethanolamine, and any combination thereof. a) a water-permeable sachet formed from a non-woven, water-permeable material and containing a water-soluble dye composition comprising from 40 to 70% by weight of one or more reactive dyes and from 30 to 60% by weight of one or more salts or one or more alkalis or a mixture thereof, the percentages being percentages by weight of the total dye composition in the water-permeable sachet; and b) a water-impermeable container means containing a water-soluble dye fix composition comprising one or more alkalis, alone or in combination with one or more salts; • the weight ratio of the dye composition to the dye fix composition is from 1:5 to 1:20, • the salt in the dye composition or the dye fix composition is an alkali metal salt of an inorganic acid; and • the alkali in the dye composition or the dye fix composition is selected from sodium or potassium carbonate, sodium or potassium hydroxide, sodium or potassium metasilicate, sodium or potassium silicate, sodium or potassium bicarbonate, trisodium phosphate, ammonium hydroxide and triethanolamine, and any combination thereof.
A live attenuated recombinant virus of the order Mononegavirales comprising a genome in which the nucleocapsid gene is located in the second, third or fourth position in the gene order relative to the 3' viral promoter of the genome, and the gene located in the first position relative to the 3' viral promoter of the genome encodes a viral protein inducing a protective immune response.
A method of locally repairing an aluminide coating on an article (26,30,30B) comprising the steps of:- a) removing a damaged portion of an aluminide coating from a portion of the article (26,30,30B), b) removing any oxidised layer from the portion of the article (26,30,30B), c) placing stoichiometric amounts of at least nickel and aluminium on the portion of the article (26,30,30B), and d) heat treating the stoichiometric amounts of at least nickel and aluminium to form an aluminide patch coating on the portion of the article (26,30,30B) and to bond the aluminide patch coating to the portion of the article (26,30,30B) and to the aluminide coating adjacent to the aluminide patch coating, wherein step d) comprises locally heat treating the stoichiometric amounts of at least nickel and aluminium to form an aluminide patch coating on the portion of the article (26,30,30B) and to bond the aluminide patch coating to the portion of the article (26,30,30B) and to the aluminide coating adjacent to the aluminide patch coating, characterised in that locally heat treating comprises providing a heating device, the heating device comprising an enclosure which extends over the portion of the article, the enclosure comprises nozzles, the nozzles in the enclosure directing hot gas jets onto the portion of the article (26,30,30B), the hot gas jets sinter, consolidate and bond the nickel and aluminium to form the nickel aluminide patch coating on the portion to be repaired. a) removing a damaged portion of an aluminide coating from a portion of the article (26,30,30B), b) removing any oxidised layer from the portion of the article (26,30,30B), c) placing stoichiometric amounts of at least nickel and aluminium on the portion of the article (26,30,30B), and d) heat treating the stoichiometric amounts of at least nickel and aluminium to form an aluminide patch coating on the portion of the article (26,30,30B) and to bond the aluminide patch coating to the portion of the article (26,30,30B) and to the aluminide coating adjacent to the aluminide patch coating, wherein step d) comprises locally heat treating the stoichiometric amounts of at least nickel and aluminium to form an aluminide patch coating on the portion of the article (26,30,30B) and to bond the aluminide patch coating to the portion of the article (26,30,30B) and to the aluminide coating adjacent to the aluminide patch coating, characterised in that locally heat treating comprises providing a heating device, the heating device comprising an enclosure which extends over the portion of the article, the enclosure comprises nozzles, the nozzles in the enclosure directing hot gas jets onto the portion of the article (26,30,30B), the hot gas jets sinter, consolidate and bond the nickel and aluminium to form the nickel aluminide patch coating on the portion to be repaired.
Process for the production of algae oil comprising the steps of a) mixing algae, nutrients, CO 2, a surfactant and an aqueous medium comprising water to form an aqueous dispersion of algae-containing bubbles comprising algae, nutrients, CO 2, and water and b) exposing the dispersion to light to produce algae oil-containing bubbles comprising algae oil. a) mixing algae, nutrients, CO 2, a surfactant and an aqueous medium comprising water to form an aqueous dispersion of algae-containing bubbles comprising algae, nutrients, CO 2, and water and b) exposing the dispersion to light to produce algae oil-containing bubbles comprising algae oil.
A method for compensating for deviation for optical lens manufacturing in an optical prescription laboratory, comprising: receiving a prescription, calculating manufacturing parameters based on the received prescription, commanding a surfacing process equipment (104, 105, 106) using the manufacturing parameters to create one or more optical lenses having the desired optics defined by the prescription, measuring design parameter of the one or more optical lenses upon completion of the surfacing process, computing manufacturing deviations in the or more optical lenses between nominal optical prescription values and the measured design parameter, computing compensation factors for one or more future optical lens manufacturing runs based upon the manufacturing deviations, providing the compensation factors to a Lab Management System (LMS, 101), and compensating for the computed manufacturing deviation by applying the compensation factors to adjust the prescriptions or to modify the lens surfacing equipment commands. receiving a prescription, calculating manufacturing parameters based on the received prescription, commanding a surfacing process equipment (104, 105, 106) using the manufacturing parameters to create one or more optical lenses having the desired optics defined by the prescription, measuring design parameter of the one or more optical lenses upon completion of the surfacing process, computing manufacturing deviations in the or more optical lenses between nominal optical prescription values and the measured design parameter, computing compensation factors for one or more future optical lens manufacturing runs based upon the manufacturing deviations, providing the compensation factors to a Lab Management System (LMS, 101), and compensating for the computed manufacturing deviation by applying the compensation factors to adjust the prescriptions or to modify the lens surfacing equipment commands.