mhurhangee/ep-ind-claims huggingface dataset:
Production system for the manufacture of aircraft structural components, having a drilling unit for producing holes in a material assembly made of at least two material layers (4a, 4b) for the insertion of fastening elements, in particular riveting elements, and having a measuring unit for determining at least one geometric parameter for a previously produced hole, wherein the measuring unit has measuring electronics comprising an optical sensor element, measuring optics and a measuring lance, wherein, for the determination of a distance between the measuring lance and a measuring point on the respective hole inner surface, the measuring unit is configured to produce an optical measuring beam, which emerges from the measuring lance via the measuring optics and strikes the measuring point on the respective hole inner surface, wherein, in a measuring cycle, a measuring movement between measuring lance and material assembly is provided and the measuring unit is configured to determine distance values to different measuring points cyclically at a scanning rate during the measuring movement and, from the distance values, to determine at least one geometric parameter for the respective hole, wherein the measuring movement is a substantially spiral movement, such that the measuring points are located on a substantially spiral measuring curve, wherein a production process control system for activating the components of the production system is provided, wherein the production process control system is configured, by means of activating the components of the production system, to process a sequence of drilling cycles by means of the drilling unit in accordance with a production instruction and predetermined measuring cycles between pre-determined drilling cycles in accordance with a measuring instruction and wherein a measuring cycle is aimed only at some of the material layers (4a, 4b), preferably only at a single material layer (4a, 4b), or wherein a measuring cycle comprises at least two partial measuring cycles (32, 33) and wherein a partial measuring cycle is aimed at one material layer of the material assembly, and wherein a further partial measuring cycle is aimed at a further material layer of the material assembly.
A method of reshaping an irregularly shaped, elongated product piece from a partially elastic material, e.g. a meat piece of grown meat, in which the product piece is pressed - in its longitudinal direction as well as - in at least one transverse direction (11.1, 11.2) relative to the longitudinal direction in a shaping tube to form a product caliber (100*) which has a cross section (Ǿ 100*) which is largely uniform over its length (99*), wherein prior to the pressing of the product piece - its weight as well as the length in advancing direction is determined prior to the pressing, - the product piece is inserted into the shaping tube - the product piece is then pressed in the longitudinal direction until a cross section (Ǿ100") is obtained which is uniform over its length (99*), characterized in that - the average cross section (Ǿ100") of the product piece in the unpressed state is determined from the weight and the length, - after the product piece has been inserted into the shaping tube, the inner free cross section of the shaping tube is set to a value in the range of this average cross section (Ǿ100"). - in its longitudinal direction as well as - in at least one transverse direction (11.1, 11.2) relative to the longitudinal direction in a shaping tube to form a product caliber (100*) which has a cross section (Ǿ 100*) which is largely uniform over its length (99*), wherein prior to the pressing of the product piece in a shaping tube to form a product caliber (100*) which has a cross section (Ǿ 100*) which is largely uniform over its length (99*), wherein prior to the pressing of the product piece - its weight as well as the length in advancing direction is determined prior to the pressing, - the product piece is inserted into the shaping tube - the product piece is then pressed in the longitudinal direction until a cross section (Ǿ100") is obtained which is uniform over its length (99*), characterized in that - the average cross section (Ǿ100") of the product piece in the unpressed state is determined from the weight and the length, - after the product piece has been inserted into the shaping tube, the inner free cross section of the shaping tube is set to a value in the range of this average cross section (Ǿ100").
A method for preparing a fibrin hydrogel composition, the method comprising forming an aqueous solution comprising fibrinogen, a fibrin-forming enzyme, and a fibrin hydrogel forming salt; wherein the fibrin hydrogel forming salt is present in a concentration that is greater than or equal to a threshold concentration required to form a fibrin hydrogel; reducing the fibrin hydrogel forming salt concentration below the threshold concentration to form a fibrin hydrogel. wherein the fibrin hydrogel forming salt is present in a concentration that is greater than or equal to a threshold concentration required to form a fibrin hydrogel; reducing the fibrin hydrogel forming salt concentration below the threshold concentration to form a fibrin hydrogel.
A power conversion device for a vehicle, comprising: a power module that includes a switching device (328, 330) and, upon operation of the switching device (328, 330), converts DC power into AC power to be supplied to an electric machine (192, 194) for driving a vehicle; a capacitor module that includes a smoothing capacitor element, an input-side power source terminal (510, 512) for receiving DC power, and an output-side power source terminal (504, 506) for supplying DC power to the power module; and a noise removal capacitor (556, 557) for removing noise, characterized by: the noise removal capacitor (556, 557) is built in the capacitor module, and the noise removal capacitor (556, 557) is electrically connected to the input-side power source terminal in a position where a distance between a connection position of the noise removal capacitor (556, 557) and the input-side power source terminal (510, 512) is less than a distance between a connection position of the noise removal capacitor (556, 557) and the output-side power source terminal of the capacitor module. a power module that includes a switching device (328, 330) and, upon operation of the switching device (328, 330), converts DC power into AC power to be supplied to an electric machine (192, 194) for driving a vehicle; a capacitor module that includes a smoothing capacitor element, an input-side power source terminal (510, 512) for receiving DC power, and an output-side power source terminal (504, 506) for supplying DC power to the power module; and a noise removal capacitor (556, 557) for removing noise, characterized by: the noise removal capacitor (556, 557) is built in the capacitor module, and the noise removal capacitor (556, 557) is electrically connected to the input-side power source terminal in a position where a distance between a connection position of the noise removal capacitor (556, 557) and the input-side power source terminal (510, 512) is less than a distance between a connection position of the noise removal capacitor (556, 557) and the output-side power source terminal of the capacitor module. the noise removal capacitor (556, 557) is built in the capacitor module, and the noise removal capacitor (556, 557) is electrically connected to the input-side power source terminal in a position where a distance between a connection position of the noise removal capacitor (556, 557) and the input-side power source terminal (510, 512) is less than a distance between a connection position of the noise removal capacitor (556, 557) and the output-side power source terminal of the capacitor module.
A culture medium for manufacturing a Brazzein peptide, the culture medium comprising: a nutrient broth comprising dextrose; an E. coli cell, the E. coli cell comprising a recombinant nucleic acid, wherein the recombinant nucleic acid comprises: (i) a nucleic acid sequence encoding the Brazzein peptide, (ii) a nucleic acid sequence encoding a signal leader amino acid sequence, wherein the signal leader amino acid sequence is fused at a 5' end of the Brazzein peptide, and wherein the signal leader amino acid sequence is operable to direct extracellular secretion of the Brazzein peptide, and (iii) an expression control sequence operable to direct expression of the nucleic acid sequence encoding the signal leader amino acid sequence and the nucleic acid sequence encoding the Brazzein peptide; and an inducing agent, wherein the expression control sequence is lactose inducible, and wherein the inducing agent is selected from the group consisting of: Lactose, isopropylthiogalactoside (IPTG), and a Lactose analogue. a nutrient broth comprising dextrose; an E. coli cell, the E. coli cell comprising a recombinant nucleic acid, wherein the recombinant nucleic acid comprises: (i) a nucleic acid sequence encoding the Brazzein peptide, (ii) a nucleic acid sequence encoding a signal leader amino acid sequence, wherein the signal leader amino acid sequence is fused at a 5' end of the Brazzein peptide, and wherein the signal leader amino acid sequence is operable to direct extracellular secretion of the Brazzein peptide, and (iii) an expression control sequence operable to direct expression of the nucleic acid sequence encoding the signal leader amino acid sequence and the nucleic acid sequence encoding the Brazzein peptide; and (i) a nucleic acid sequence encoding the Brazzein peptide, (ii) a nucleic acid sequence encoding a signal leader amino acid sequence, wherein the signal leader amino acid sequence is fused at a 5' end of the Brazzein peptide, and wherein the signal leader amino acid sequence is operable to direct extracellular secretion of the Brazzein peptide, and (iii) an expression control sequence operable to direct expression of the nucleic acid sequence encoding the signal leader amino acid sequence and the nucleic acid sequence encoding the Brazzein peptide; and an inducing agent, wherein the expression control sequence is lactose inducible, and wherein the inducing agent is selected from the group consisting of: Lactose, isopropylthiogalactoside (IPTG), and a Lactose analogue.
Apparatus for determining vital sign information from a subject, comprising: - a detection unit adapted to detect radiation received from the subject in a field of view, - a first determining unit adapted to determine a first time dependent signal from the radiation received from the subject, wherein the first time dependent signal is a photo-plethysmography, PPG, signal, - an evaluation unit adapted to derive a frequency or bandwidth as at least one parameter from the first time dependent signal, - a selection unit adapted to select an area in the field of view on the basis of the detected radiation and the at least one parameter by determining a plurality of alternating signals from different areas of the field of view, filtering the plurality of alternating signals by means of a frequency filter or a filter bandwidth corresponding to the frequency or bandwidth derived by the evaluation unit and selecting the area for determining a second time dependent signal on the basis of the alternating signals and on the basis of the at least one parameter, - a second determining unit for determining the second time dependent signal from the radiation received from the selected area, and - an analysis unit for analyzing the second time dependent signal and for determining the vital sign information on the basis of the analysis of the second time dependent signal. - a detection unit adapted to detect radiation received from the subject in a field of view, - a first determining unit adapted to determine a first time dependent signal from the radiation received from the subject, wherein the first time dependent signal is a photo-plethysmography, PPG, signal, - an evaluation unit adapted to derive a frequency or bandwidth as at least one parameter from the first time dependent signal, - a selection unit adapted to select an area in the field of view on the basis of the detected radiation and the at least one parameter by determining a plurality of alternating signals from different areas of the field of view, filtering the plurality of alternating signals by means of a frequency filter or a filter bandwidth corresponding to the frequency or bandwidth derived by the evaluation unit and selecting the area for determining a second time dependent signal on the basis of the alternating signals and on the basis of the at least one parameter, - a second determining unit for determining the second time dependent signal from the radiation received from the selected area, and - an analysis unit for analyzing the second time dependent signal and for determining the vital sign information on the basis of the analysis of the second time dependent signal.
An electrolyte membrane for solid polymer fuel cell, comprising: a reinforce membrane made of nonwoven fibers; and an electrolyte provided in a space among the nonwoven fibers, characterized in that the electrolyte membrane has a power generating region and a gasket frame region, the gasket frame region provided on all outer circumference of the power generating region, the nonwoven fibers having a mass per unit area continuously varying as a whole from the power generating region to the gasket frame region, in that the nonwoven fibers have a non-uniform mass distribution in a plane of the electrolyte membrane, the mass of the nonwoven fibers per unity area ranging from 0.1mg/cm 2 to 1.5mg/cm 2, and in that the nonwoven fibers have a mass per unit area in a region corresponding to the gasket frame region and a region corresponding to at least part of a peripheral portion of the region corresponding to the gasket frame region which is greater than a mass per unit area in a region corresponding to a center portion of the power generating region. a reinforce membrane made of nonwoven fibers; and an electrolyte provided in a space among the nonwoven fibers, characterized in that the electrolyte membrane has a power generating region and a gasket frame region, the gasket frame region provided on all outer circumference of the power generating region, the nonwoven fibers having a mass per unit area continuously varying as a whole from the power generating region to the gasket frame region, in that the nonwoven fibers have a non-uniform mass distribution in a plane of the electrolyte membrane, the mass of the nonwoven fibers per unity area ranging from 0.1mg/cm 2 to 1.5mg/cm 2, and in that the nonwoven fibers have a mass per unit area in a region corresponding to the gasket frame region and a region corresponding to at least part of a peripheral portion of the region corresponding to the gasket frame region which is greater than a mass per unit area in a region corresponding to a center portion of the power generating region.
A combine harvester comprising separating apparatus arranged to receive a threshed crop stream and convey in a rearward direction, the separating apparatus comprising a grate for allowing grain and chaff to fall under gravity onto an underlying separator pan, the separator pan being driven in an oscillating manner to convey a grain/chaff stream forwardly for delivery to a cleaning unit, characterised by, the separator pan comprising a first portion suspended from a combine frame by front and rear suspension means (70, 72), and a second portion disposed forwardly of the first portion and pivotally mounted at the forward end, wherein a rear edge of the second portion is releasably attached to a front edge of the first portion, the second portion being pivotable around the forward mounting around a transverse axis between an operating position in which the second portion is attached to the first portion forming a continuous pan surface, and a lowered position in which the second portion is detached from the first portion to give maintenance access to the underside of the separating apparatus.
Sealing element, in particular for sealing a vehicle window pane which can be lowered into a shaft, comprising a cover strip, wherein a section of the sealing element, which section is manufactured by way of injection moulding, is connected to the cover strip by way of being moulded onto the cover strip, the section which is manufactured by way of injection moulding is manufactured as a composite part from a thermoplastic and an elastomer, and the moulded-on connection is established via the elastomer material of the section, characterized in that the cover strip consists of a metal or a galvanized plastic part.
Method for assigning the flux linkage to the rotor position of a synchronous machine, comprising a stator and a rotor with or without permanent magnets, the synchronous machine being driven via clocked clamping voltages and the magnetic flux linkage being calculated from these and the measured current drive, characterized in that the course of the flux linkage over the rotor rotation under the boundary condition of an at least two-dimensional current vector unchanged in stator coordinates is used as key information for assigning the flux linkage to the rotor position, and in that a plurality of courses of the flux linkage over the rotor rotation for in each case different stator-fixed current values are stored in a model, from which a currently valid course is selected or calculated during operation in accordance with the current measurement, by means of which course a rotor position value is then assigned to the currently calculated flux linkage.
A polymer composition, in particular for injection-molding applications, comprising at least one thermoplastic polyurethane with a Vicat softening point, measured in accordance with ISO 306/A50, below 80°C and from 5 to 95% by weight of at least one polymer obtainable via free-radical polymerization, based on the entirety of TPU and of the polymer obtainable via free-radical polymerization, where the polymer obtainable via free-radical polymerization has been bonded in the form of comb polymer, graft polymer, or copolymer to the TPU, and wherein the TPU comprises functional groups which form, under the typical conditions of a free-radical polymerization, a comb polymer, graft polymer, or copolymer with the monomers of the polymer obtainable via free-radical polymerization that are polymerizable by a free-radical route, excluding expandable polymer particles comprising at least one thermoplastic polyurethane with a Vicat softening point (in accordance with ISO 306/A50) below 80°C and from 5 to 95% by weight of at least one polymer obtainable via free-radical polymerization, based on the entirety of TPU and of the polymer obtainable via free-radical polymerization, where the styrene polymer has been bonded in the form of comb polymer, graft polymer, or copolymer to the TPU.
A method of producing a retorted liquid dairy concentrate in a sealed beverage container, the method comprising: mixing cream and micro-filtered milk to form a liquid dairy ingredient consisting of the cream and the micro-filtered milk and having a total solids content of up to 55wt%, wherein the liquid dairy ingredient has a fat content of between 35 to 45wt% and a fat to protein ratio of from 5:1 to 15:1 by weight, concentrating the liquid dairy ingredient by ultrafiltration to obtain a concentrated liquid dairy ingredient as a retentate; adding sucrose and/or trisodium citrate to form a modified retentate; adding one or more further ingredients to the modified retentate to form a liquid dairy concentrate; cooling the liquid dairy concentrate to at most 8°C, filling the cooled liquid dairy concentrate into a beverage container, and sealing and retorting the liquid dairy concentrate in the beverage container, wherein after adding sucrose and/or trisodium citrate to form a modified retentate and before adding one or more further ingredients to the modified retentate to form a liquid dairy concentrate, the modified retentate is cooled to a temperature of at most 8°C, and wherein the modified retentate is stored at a temperature of at most 8°C for at least 2 minutes. mixing cream and micro-filtered milk to form a liquid dairy ingredient consisting of the cream and the micro-filtered milk and having a total solids content of up to 55wt%, wherein the liquid dairy ingredient has a fat content of between 35 to 45wt% and a fat to protein ratio of from 5:1 to 15:1 by weight, concentrating the liquid dairy ingredient by ultrafiltration to obtain a concentrated liquid dairy ingredient as a retentate; adding sucrose and/or trisodium citrate to form a modified retentate; adding one or more further ingredients to the modified retentate to form a liquid dairy concentrate; cooling the liquid dairy concentrate to at most 8°C, filling the cooled liquid dairy concentrate into a beverage container, and sealing and retorting the liquid dairy concentrate in the beverage container, wherein after adding sucrose and/or trisodium citrate to form a modified retentate and before adding one or more further ingredients to the modified retentate to form a liquid dairy concentrate, the modified retentate is cooled to a temperature of at most 8°C, and wherein the modified retentate is stored at a temperature of at most 8°C for at least 2 minutes.
A repositionable linerless thermal label comprising: a paper substrate having a first surface and a second surface, wherein said substrate is either i) a thermochromic paper or ii) includes a print layer on its second surface, wherein said print layer includes a thermal transfer receptive coating suitable for thermal transfer printing and/or includes one or more thermally sensitive coatings which are adapted to change color upon application of heat thereto by direct thermal printing; at least one heat-activated adhesive patch applied to the first surface of the substrate, wherein said adhesive patch includes microspheres; and a silicone-free water-based release coating comprising 5% or less of silicone applied to the second surface of the substrate or, if the print layer is present, to the outer surface of the print layer. a paper substrate having a first surface and a second surface, wherein said substrate is either i) a thermochromic paper or ii) includes a print layer on its second surface, wherein said print layer includes a thermal transfer receptive coating suitable for thermal transfer printing and/or includes one or more thermally sensitive coatings which are adapted to change color upon application of heat thereto by direct thermal printing; at least one heat-activated adhesive patch applied to the first surface of the substrate, wherein said adhesive patch includes microspheres; and a silicone-free water-based release coating comprising 5% or less of silicone applied to the second surface of the substrate or, if the print layer is present, to the outer surface of the print layer.
A method of simultaneously receiving first and second radio frequency carriers over respective first and second RF carrier frequencies, the method comprising; providing the first and second RF carriers at an RF mixer stage (301a, 301b, 204, 205); downconverting (S409, S415, S419) the first and second RF carriers through the RF mixer stage (301a, 301b, 204, 205) using a first RF mixer frequency during a first time period to generate first downconverted signals; processing (S411, S417, S421) the first downconverted signals during the first time period to provide first and second DC carriers corresponding to the first and second RF carriers; downconverting (S409, S4125, S419) the first and second RF carriers through the RF mixer stage (301a, 301b, 204, 205) using a second RF mixer frequency during a second time period to generate second downconverted signals, wherein the first and second RF mixer frequencies are different; and processing (S411, S417, S421) the second downconverted signals during the second time period to provide the first and second DC carriers corresponding to the first and second RF carriers.