mhurhangee/ep-ind-claims huggingface dataset:
A laser device comprising: a laser resonator configured to emit a laser beam; a condenser lens configured to collect the laser beam emitted from the laser resonator; an optical fiber (7, 8) configured to transmit the laser beam collected by the condenser lens; at least one light sensor (5, 6), opposing a light receiving surface of the condenser lens and outside an optical path of the laser beam, the at least one light sensor (5, 6) detecting an amount of a return light from the condenser lens and the optical fiber (7, 8); and a controller configured to determine a presence of an abnormality when a value of the amount detected by any of the at least one light sensor (5, 6) is greater than a predetermined maximum threshold, wherein a part of the laser beam is reflected back from the condenser lens a light reflected back from the condenser lens is led to the at least one light sensor (5, 6) without any other reflections and detected as the return light from the condenser lens by the at least one light sensor (5 6), a part of the laser beam is reflected back from the optical fiber (7, 8) a light reflected back from the optical fiber (7, 8) is led to the at least one light sensor (5, 6) via the condenser lens without any other reflections and detected as the return light from the optical fiber (7, 8) by the at least one light sensor (5, 6). a laser resonator configured to emit a laser beam; a condenser lens configured to collect the laser beam emitted from the laser resonator; an optical fiber (7, 8) configured to transmit the laser beam collected by the condenser lens; at least one light sensor (5, 6), opposing a light receiving surface of the condenser lens and outside an optical path of the laser beam, the at least one light sensor (5, 6) detecting an amount of a return light from the condenser lens and the optical fiber (7, 8); and a controller configured to determine a presence of an abnormality when a value of the amount detected by any of the at least one light sensor (5, 6) is greater than a predetermined maximum threshold, wherein a part of the laser beam is reflected back from the condenser lens a light reflected back from the condenser lens is led to the at least one light sensor (5, 6) without any other reflections and detected as the return light from the condenser lens by the at least one light sensor (5 6), a part of the laser beam is reflected back from the optical fiber (7, 8) a light reflected back from the optical fiber (7, 8) is led to the at least one light sensor (5, 6) via the condenser lens without any other reflections and detected as the return light from the optical fiber (7, 8) by the at least one light sensor (5, 6).
Ionizing radiation detector comprising a substrate ( 1, 9), a radiation sensitive material and metal Schottky junctions ( 4, 5) and contact terminals ( 4.1, 5.1) for making ohmic contacts with said Schottky junctions wherein a buffer layer is formed on the top surface of the substrate ( 1, 9) where a mesa structure ( 3, 3.h1, 3.h2) is formed on the top surface of the buffer layer parallel to the top surface of the substrate ( 1, 9), where the top surface of the mesa structure ( 3, 3.h1, 3.h2) comprises an irradiance area and the detector further comprises an optical fiber, characterized in that the substrate ( 1, 9) is made of a dielectric, and in that the detector further comprises a first group of fibers comprising a first set of single mode optical fibers ( 6.1,...6. N) and a second group of fibers comprising a second set of single mode optical fibers ( 7.1,... 7. N), where the first ends of said fibers ( 6.1,...6. N; 7.1,...7. N) are attached perpendicularly to the end-surfaces of the mesa structure ( 3, 3.h1) and the second ends of optical fibers are switched to optical signal recording multichannel devices and every fiber group consists of a set of N fibers.
A display, comprising: a display panel formed with a light transmitting hole configured to correspond to a lens of an image acquisition module; and a light-emitting element and a light converging member arranged at the light transmitting hole; wherein the light converging member is located at a light-emitting side of the light-emitting element, and is used for converging the light emitted by the light-emitting element to a center of the light transmitting hole so that the light emitted by the light-emitting element is converged over a lens of an image acquisition module if such a lens of an image acquisition module is positioned so as to correspond to the light transmitting hole, characterized in that the light-emitting element is disposed in the light transmitting hole and is connected to a sidewall of the light transmitting hole, and in that the light-emitting element is transparent.
An apparatus comprising an outer ring and an inner ring disposed concentrically with the outer ring, wherein the outer ring and the inner ring are connected to each other by means of a ring-like, elastomeric spring member, wherein only a first ring rim of the outer ring is positively connected to a first elastomeric rim of the spring member and/or wherein only a second ring rim of the inner ring is positively connected to a second elastomeric rim of the spring member, wherein the spring member has a crease between the first elastomeric rim and the second elastomeric rim, characterized in that the first ring rim of the outer ring and/or the second ring rim of the inner ring are provided with through-holes, and that the through-holes form a grid-like or net-like structure.
An underground hangar for storing helicopters comprising: - an underground room provided with at least four columns, each column being provided with a rack, - a lifting platform for carrying helicopters, - an electro-mechanical driving system comprising at least one gear motor provided at the outlet with at least one toothed pinion mounted to mesh with said rack, said hangar being characterized in that said underground room is formed by an underground structure of reinforced concrete, said platform being provided with at least four guiding tubular supports, each of which is aimed at interfacing with one of said columns to be guided, by means of respective guiding elements, to slide vertically therealong, said electro-mechanical driving system comprising an electronic control unit aimed at controlling said at least one gear motor. - an underground room provided with at least four columns, each column being provided with a rack, - a lifting platform for carrying helicopters, - an electro-mechanical driving system comprising at least one gear motor provided at the outlet with at least one toothed pinion mounted to mesh with said rack,
An exhaust gas processing method comprising: introducing an exhaust gas from a semiconductor manufacturing equipment to a combustion-based detoxifying device; introducing an exhaust gas containing SiO 2 and HF from the combustion-based detoxifying device to a dust collector collecting solid particles of SiO 2; and introducing an exhaust gas containing HF and SiF 4, the latter produced in the dust collector by a reaction between SiO 2 and HF, to a two-stage gas cleaning device (6A, 6B), so as to process the exhaust gas, wherein the two-stage gas cleaning device (6A, 6B) comprises a first-stage gas cleaning device and a second-stage gas cleaning device, and gas cleaning is performed in the first gas cleaning device that uses water as a cleaning solution which dissolves HF and SiF 4 and becomes strongly acidic of pH 1 or lower, so as to produce SiO 2 by hydrolyzing SiF 4 and to remove SiO 2 by dissolving it in the strong acidic cleaning solution having a pH of 1 or lower, and subsequently gas cleaning is performed in the second gas cleaning device that uses an alkaline aqueous solution as a cleaning solution, so as to remove HF. introducing an exhaust gas from a semiconductor manufacturing equipment to a combustion-based detoxifying device; introducing an exhaust gas containing SiO 2 and HF from the combustion-based detoxifying device to a dust collector collecting solid particles of SiO 2; and introducing an exhaust gas containing HF and SiF 4, the latter produced in the dust collector by a reaction between SiO 2 and HF, to a two-stage gas cleaning device (6A, 6B), so as to process the exhaust gas, wherein the two-stage gas cleaning device (6A, 6B) comprises a first-stage gas cleaning device and a second-stage gas cleaning device, and gas cleaning is performed in the first gas cleaning device that uses water as a cleaning solution which dissolves HF and SiF 4 and becomes strongly acidic of pH 1 or lower, so as to produce SiO 2 by hydrolyzing SiF 4 and to remove SiO 2 by dissolving it in the strong acidic cleaning solution having a pH of 1 or lower, and subsequently gas cleaning is performed in the second gas cleaning device that uses an alkaline aqueous solution as a cleaning solution, so as to remove HF.
A method for the mechanical processing of aluminum scrap, in which in a first step a two-stage crushing of the aluminum scrap will be carried out, in which in a second step the crushed aluminum scrap will be supplied to a screening plant and divided into a fraction of undersize grain materials, on the one hand, and a fraction of oversize grain materials, on the other hand, in which in a third step the fraction of oversize grain materials is homogenized, in which in a fourth step the homogenized fraction of oversize grain materials is subjected as material to be sorted to a density determination in an x-ray device by means of x-ray transmission, in which in a fifth step material particles of the material to be sorted which have a density above a pre-determinable limiting value are pneumatically sorted out, wherein the intensity of the outgoing radiation will be detected by means of a sensor, a comparison of the intensity between the entering and the outgoing X-rays will be carried out and the difference of the radiation intensity will be determined.
A structure for reinforcing a vehicle body panel (8L, 8R) that constructs a vehicle body, comprising: a keyhole-shaped embossed portion formed by combination of a circular embossed portion and one elongated embossed portion extending from an outer circumference of the circular embossed portion in a radially outward direction of the circular embossed portion, the keyhole-shaped embossed portion being formed to project from one side of the vehicle body panel (8L, 8R) in a thickness direction of the vehicle body panel (8L, 8R) toward the other side thereof in the thickness direction thereof, the structure for reinforcing a vehicle body panel (8L, 8R) being characterized in that the structure comprises a plurality of keyhole-shaped embossed portions, wherein the number of keyhole-shaped embossed portions is set to a number necessary to ensure a required strength of the vehicle body panel (8L, 8R) and reduce a panel resonance frequency thereof, wherein each of the keyhole-shaped embossed portions is arranged such that the elongated embossed portion extends substantially parallel to a short side of the vehicle body panel (8L, 8R). a keyhole-shaped embossed portion formed by combination of a circular embossed portion and one elongated embossed portion extending from an outer circumference of the circular embossed portion in a radially outward direction of the circular embossed portion, the keyhole-shaped embossed portion being formed to project from one side of the vehicle body panel (8L, 8R) in a thickness direction of the vehicle body panel (8L, 8R) toward the other side thereof in the thickness direction thereof, the structure for reinforcing a vehicle body panel (8L, 8R) being characterized in that the structure comprises a plurality of keyhole-shaped embossed portions, wherein the number of keyhole-shaped embossed portions is set to a number necessary to ensure a required strength of the vehicle body panel (8L, 8R) and reduce a panel resonance frequency thereof, wherein each of the keyhole-shaped embossed portions is arranged such that the elongated embossed portion extends substantially parallel to a short side of the vehicle body panel (8L, 8R).
A method for producing a polymer membrane with an isoporous separation active layer, in particular an ultrafiltration membrane or nanofiltration membrane, with the following steps: - production of a casting solution with at least one solvent, in which at least one amphiphilic block copolymer with at least two different polymer blocks and at least one carbohydrate are dissolved, wherein the polymer makes up a weight proportion between 10 wt.-% and 40 wt.-% and the carbohydrate a weight proportion between 0.1 wt.-% and 5 wt.-% of the solution, - spreading out of the casting solution to a film, - during a waiting period between 5 seconds and 60 seconds, evaporation of a nearsurface part of the at least one solvent, - precipitation of a membrane by immersing the film into a precipitation bath comprising at least one non-solvent for the block copolymer, wherein the at least one block copolymer comprises two or three different polymer blocks A, B and, if applicable, C of the configuration A-B, A-B-A or A-B-C, wherein the polymer blocks are selected from the group of polystyrene, poly-4-vinylpyridine, poly-2-vinylpyridine, polybutadiene, polyisoprene, poly(ethylene-stat-butylene), poly(ethylene-alt-propylene), polysiloxane, polyalkylene oxide, poly-ε-caprolactone, polylactide, polyalkylmethacrylate, polymethacrylic acid, polyalkylacrylate, polyacrylic acid, polyhydroxymethacrylate, polyacrylamide, poly-N-alkylacrylamide, polysulfone, polyaniline, polypyrrole, polytriazole, polyvinylimidazole, polytetrazole, polyethylene diamine, polyvinyl alcohol, polyvinylpyrrolidone, polyoxadiazole, polyvinyl sulphonic acid, polyvinyl phosphonic acid or polymers with quaternary ammonium groups. - production of a casting solution with at least one solvent, in which at least one amphiphilic block copolymer with at least two different polymer blocks and at least one carbohydrate are dissolved, wherein the polymer makes up a weight proportion between 10 wt.-% and 40 wt.-% and the carbohydrate a weight proportion between 0.1 wt.-% and 5 wt.-% of the solution, - spreading out of the casting solution to a film, - during a waiting period between 5 seconds and 60 seconds, evaporation of a nearsurface part of the at least one solvent, - precipitation of a membrane by immersing the film into a precipitation bath comprising at least one non-solvent for the block copolymer,
A device for the controlled generation of an electric arc, characterized in that it comprises at least: - a system for striking an electric arc (3, 4, 11, 12) on the terminals of two electrodes (5, 6) through inductive switching, producing at its output (A, B) an overvoltage on the terminals of these electrodes (5, 6); - an electrical power source (41, 42, 52) connected in series to the output (A, B) of the striking system, said source supplying the electric arc with current. - a system for striking an electric arc (3, 4, 11, 12) on the terminals of two electrodes (5, 6) through inductive switching, producing at its output (A, B) an overvoltage on the terminals of these electrodes (5, 6); - an electrical power source (41, 42, 52) connected in series to the output (A, B) of the striking system, said source supplying the electric arc with current.
Storage case adapted for the accommodation of retail goods, and comprising a base part having two side elements (8,9), each with an outer side and an inner side, where the two side elements of the base part are mutually connected along a side of the two elements by a hinge part, to be foldable to form a storage enclosure, where on at least one of the two side elements on the outer side a circumferential holding frame (2,3) is connected with at least one of the side element (8,9), the circumferential holding frame (2, 3) is provided with a central aperture and wherein further a display element is positioned on the outer side of the at least one side element and interlocked between the outer side of the at least one side element (8,9) and the circumferential holding frame (2,3) connected to the side element, wherein the holding frame (2,3) and the storage case side element(8,9) are mutually connected by means of a number of mechanical locking mechanisms (11, 12) comprising a number of taps and grooves, preferably located on one side along the circumference of the outer side of the side element (8,9) and on the other side on the circumferential holding frame (2,3).
An air speed measuring device, comprising a total pressure measuring device disposed in an air flow; and a static pressure sensor in communication with a static pressure source of the air, characterized in that the total pressure measuring device comprises a tubular member having a central longitudinal axis, comprising an inlet chamber having an inlet opening at a first end of the tubular member, the inlet opening having a first diameter transverse to the longitudinal axis, an outlet chamber having an outlet opening at a second end of the tubular member, the outlet opening having a second diameter transverse to the longitudinal axis, wherein the ratio of the first diameter to the second diameter is from 3:1 to 10:1, and a transitional chamber between the inlet chamber and the outlet chamber, the transitional chamber having a third diameter transverse to the longitudinal axis at an end toward the inlet chamber, and a fourth diameter, smaller than the third diameter, transverse to the longitudinal axis at an end toward the outlet chamber; and a total pressure sensor in communication with the inlet chamber. an inlet chamber having an inlet opening at a first end of the tubular member, the inlet opening having a first diameter transverse to the longitudinal axis, an outlet chamber having an outlet opening at a second end of the tubular member, the outlet opening having a second diameter transverse to the longitudinal axis, wherein the ratio of the first diameter to the second diameter is from 3:1 to 10:1, and a transitional chamber between the inlet chamber and the outlet chamber, the transitional chamber having a third diameter transverse to the longitudinal axis at an end toward the inlet chamber, and a fourth diameter, smaller than the third diameter, transverse to the longitudinal axis at an end toward the outlet chamber; and
An enteric coated oral pharmaceutical composition comprising: - an outer, liquid-tight shell comprising multiple segments of a plate-forming material that is insoluble in pH environments in the stomach, wherein said segments are joined together by a binding agent without being mechanically or otherwise self-interlocking, and wherein said binding agent is insoluble in pH environments in the stomach, and wherein said binding agent is soluble in a small-intestine pH of 6 or above and/or degradable by a small-intestine's natural enzymatic secretions; and - an inner preparation comprising one or more active substances and suitable excipients. - an outer, liquid-tight shell comprising multiple segments of a plate-forming material that is insoluble in pH environments in the stomach, wherein said segments are joined together by a binding agent without being mechanically or otherwise self-interlocking, and wherein said binding agent is insoluble in pH environments in the stomach, and wherein said binding agent is soluble in a small-intestine pH of 6 or above and/or degradable by a small-intestine's natural enzymatic secretions; and wherein said segments are joined together by a binding agent without being mechanically or otherwise self-interlocking, and wherein said binding agent is insoluble in pH environments in the stomach, and wherein said binding agent is soluble in a small-intestine pH of 6 or above and/or degradable by a small-intestine's natural enzymatic secretions; and - an inner preparation comprising one or more active substances and suitable excipients.
An observation device for observing a sample cultured in a culture vessel, where an additive is contained in a culture medium for culturing the sample, the observation device comprising: an illuminating unit including an illumination optical system for illuminating the sample; an image-capturing unit including an imaging sensor for generating an image by capturing an image of the sample illuminated by the illuminating unit; and a wavelength cutting off filter being placed on an optical axis of the illumination optical system and between the illuminating unit and the image-capturing unit, and cutting off a part of wavelengths of light entering the image-capturing unit in accordance with optical absorption properties of said additive contained in said culture medium used for culturing the sample. an illuminating unit including an illumination optical system for illuminating the sample; an image-capturing unit including an imaging sensor for generating an image by capturing an image of the sample illuminated by the illuminating unit; and a wavelength cutting off filter being placed on an optical axis of the illumination optical system and between the illuminating unit and the image-capturing unit, and cutting off a part of wavelengths of light entering the image-capturing unit in accordance with optical absorption properties of said additive contained in said culture medium used for culturing the sample.
A method of increasing biomass, growth rate, seed yield, and/or abiotic stress tolerance of a plant as compared to the biomass, growth rate, seed yield, and/or abiotic stress tolerance of a non-transgenic plant, wherein the abiotic stress is selected from the group consisting of osmotic stress, salinity stress and nitrogen deficiency, the method comprising overexpressing within the plant an exogenous polynucleotide encoding the polypeptide SEQ ID NO:201 or an orthologue thereof which comprises an amino acid sequence at least 80 % homologous to the amino acid sequence set forth in SEQ ID NO:201, wherein said polypeptide is capable of increasing biomass, growth rate, seed yield and/or abiotic stress tolerance of a plant, wherein the abiotic stress is selected from the group consisting of osmotic stress, salinity stress and nitrogen deficiency, wherein said exogenous polynucleotide is comprised in a nucleic acid construct which further comprises a promoter for directing transcription of said exogenous polynucleotide in a plant cell, said promoter is a constitutive promoter, a tissue-specific, or an abiotic stress-inducible promoter, thereby increasing the biomass, growth rate, seed yield, and/or abiotic stress tolerance of the plant as compared to the biomass, growth rate, seed yield, and/or abiotic stress tolerance of the non-transgenic plant.
Fluid supply for a test printing system, - comprising a first fluid channel for supplying a first print head, - comprising a second fluid channel for supplying a second print head, - comprising a distribution device for connecting the first fluid channel to the second fluid channel and for separating the first fluid channel from the second fluid channel, - wherein the distribution device is designed such that in a first operating state of the distribution device, a fluid transfer takes place between the first fluid channel and the second fluid channel, and - wherein the distribution device is designed such that in a second operating state of the distribution device, no fluid transfer takes place between the first fluid channel and the second fluid channel. - comprising a first fluid channel for supplying a first print head, - comprising a second fluid channel for supplying a second print head, - comprising a distribution device for connecting the first fluid channel to the second fluid channel and for separating the first fluid channel from the second fluid channel, - wherein the distribution device is designed such that in a first operating state of the distribution device, a fluid transfer takes place between the first fluid channel and the second fluid channel, and - wherein the distribution device is designed such that in a second operating state of the distribution device, no fluid transfer takes place between the first fluid channel and the second fluid channel.