mhurhangee/ep-ind-claims huggingface dataset:
A cabin provided for a base frame of an upper body mounted on a lower self-traveling body of a construction machine, comprising: a pair of right and left front supports (20, 21) disposed on the base frame; a right rear support disposed in the rear of said right front support on the base frame; a left rear support disposed in the rear of said left front support on the base frame; a right beam for coupling an upper part of said right front support and an upper part of said right rear support; a left beam for coupling an upper part of said left front support and an upper part of said left rear support; and a rear beam for coupling the upper parts of said right and left rear supports (22, 23), wherein said rear beam has a first beam with right and left ends welded to said right and left rear supports (22, 23) respectively, and a second beam welded to a front surface of said first beam along the right and left direction, and said second beam is welded to said first beam so that an upper end portion of said second beam is shifted above an upper end portion of said first beam and a lower end portion of said second beam is shifted above a lower end portion of said first beam in direction to the front side of the construction machine, respectively. a pair of right and left front supports (20, 21) disposed on the base frame; a right rear support disposed in the rear of said right front support on the base frame; a left rear support disposed in the rear of said left front support on the base frame; a right beam for coupling an upper part of said right front support and an upper part of said right rear support; a left beam for coupling an upper part of said left front support and an upper part of said left rear support; and a rear beam for coupling the upper parts of said right and left rear supports (22, 23), wherein said rear beam has a first beam with right and left ends welded to said right and left rear supports (22, 23) respectively, and a second beam welded to a front surface of said first beam along the right and left direction, and said second beam is welded to said first beam so that an upper end portion of said second beam is shifted above an upper end portion of said first beam and a lower end portion of said second beam is shifted above a lower end portion of said first beam in direction to the front side of the construction machine, respectively.
A machine for deformation machinings of a tube and/or deformation of a component, such as a ring or a bush, to be mounted to said tube, the machine comprising: - a support frame; characterized by - a bracket projecting in a cantilever manner from the support frame; - a deformation unit engaged rotationally free with the bracket and comprising: i) a thrust group comprising a thrust actuator extending along an actuator axis; ii) a support head facing the thrust group and suitable to support a tube portion during the machining, wherein the thrust group also comprises a deformation head extending along a head axis, wherein said head axis and said actuator axis are offset from each other, so as to make the machine suitable to perform the deformation of the tube and/or component even where one end of the tube is close to a curvature of the tube. - a support frame; characterized by - a bracket projecting in a cantilever manner from the support frame; - a deformation unit engaged rotationally free with the bracket and comprising: i) a thrust group comprising a thrust actuator extending along an actuator axis; ii) a support head facing the thrust group and suitable to support a tube portion during the machining, wherein the thrust group also comprises a deformation head extending along a head axis, wherein said head axis and said actuator axis are offset from each other, so as to make the machine suitable to perform the deformation of the tube and/or component even where one end of the tube is close to a curvature of the tube. i) a thrust group comprising a thrust actuator extending along an actuator axis; ii) a support head facing the thrust group and suitable to support a tube portion during the machining,
Method for compressing and drying a gas, comprising the steps of: - compressing the gas in a multistage compressor having at least three successive compressor stages (1a, 1b, 1c), a first stage gas inlet, a final stage gas outlet delivering a final stage compressed gas, a first interstage portion operating at a first intermediate pressure and a second interstage portion operating at a second intermediate pressure which is greater than the first intermediate pressure, - drying the final stage compressed gas by an adsorption method, said adsorption method comprising feeding the final stage compressed gas into a first chamber comprising a first regenerable adsorbent, said first chamber delivering a dried gas at a dried gas outlet for a user, and regenerating a second regenerable adsorbent contained in a second chamber by feeding said second chamber with a part of the dried gas from the dried gas outlet and by venting the second chamber into at least one of the at least one interstage gas inlets of the multistage compressor, characterized in that the said adsorption method is a Pressure Swing Adsorption method, and in that the step of venting the second chamber comprises two sequential sub-steps: a first sub-step wherein the second chamber is vented into a second interstage gas inlet of the second interstage portion, and a second sub-step wherein the second chamber is vented into a first interstage gas inlet of the first interstage portion. - compressing the gas in a multistage compressor having at least three successive compressor stages (1a, 1b, 1c), a first stage gas inlet, a final stage gas outlet delivering a final stage compressed gas, a first interstage portion operating at a first intermediate pressure and a second interstage portion operating at a second intermediate pressure which is greater than the first intermediate pressure, - drying the final stage compressed gas by an adsorption method, said adsorption method comprising feeding the final stage compressed gas into a first chamber comprising a first regenerable adsorbent, said first chamber delivering a dried gas at a dried gas outlet for a user, and regenerating a second regenerable adsorbent contained in a second chamber by feeding said second chamber with a part of the dried gas from the dried gas outlet and by venting the second chamber into at least one of the at least one interstage gas inlets of the multistage compressor,
Pyranocycloartobiloxanthone A for use in the treatment of Acne caused by Propionibacterium acnes, said treatment comprises a step of bringing into contact Propionibacterium acnes with effective concentration of Pyranocycloartobiloxanthone A, wherein the Pyranocycloartobiloxanthone A is isolated from the stem bark of Artocarpus hirsutus.
A vessel mast comprising a tube provided with a lower end for securing the tube to a deck of a vessel and comprising a cylinder and a piston with an associated piston rod being displaceable in the cylinder, the cylinder and piston with the associated piston rod being in the tube and being secured to the tube, a cord is attached to the piston rod which cord exits through a passageway in the tube and is attached to a sail or cloth, characterized in that the cylinder is a pneumatic cylinder.
A method for improving tensile strength of an aggregate of carbon nanotube fibers, comprising the steps of: 1) dispersing the aggregate of CNT fibers in chlorosulfonic acid 2) treating the aggregate of CNT fibers dispersed in the CSA with a solvent for removing the CSA, thereby removing the CSA; and 3) treating by heating the aggregate of CNT fibers from which the CSA has been removed, wherein the tension/tex is applied to at least one of the steps 1) to 3) in the range of 2 to 50 cN/tex, and the usage ratio of the aggregate of CNT fibers to the weight of the CSA in the step 1) is from 0.01 to 1.0 wt%. 1) dispersing the aggregate of CNT fibers in chlorosulfonic acid 2) treating the aggregate of CNT fibers dispersed in the CSA with a solvent for removing the CSA, thereby removing the CSA; and 3) treating by heating the aggregate of CNT fibers from which the CSA has been removed,
The use of a mixture comprising a) at least one flame retardant component i) from the group of phosphorylated di-, oligo-, and polysaccharides having phosphorus in the range from 0.5 to 40% by weight, based on the respective phosphorylated di-, oligo-, or polysaccharide, and b) at least one flame retardant component ii) and/or iii), where flame retardant component ii) has been selected from the group of elemental sulfur and organic sulfur compounds, and the sulfur content of each organic sulfur compound is in the range from 5 to 80% by weight, and flame retardant component iii) is an organic peroxide, as a flame retardant system. a) at least one flame retardant component i) from the group of phosphorylated di-, oligo-, and polysaccharides having phosphorus in the range from 0.5 to 40% by weight, based on the respective phosphorylated di-, oligo-, or polysaccharide, and b) at least one flame retardant component ii) and/or iii), where flame retardant component ii) has been selected from the group of elemental sulfur and organic sulfur compounds, and the sulfur content of each organic sulfur compound is in the range from 5 to 80% by weight, and flame retardant component iii) is an organic peroxide, as a flame retardant system.
A process for producing a foam ceramic for heat insulation in high temperature ranges, comprising the steps: producing an aqueous suspension of a first mineral raw material; foaming the suspension with air while adding a foaming agent and a binder to form a light foam; mixing the light foam with a powder or slip of a second ceramic raw material to form a heavy foam; pouring the heavy foam into a mold; drying the molded heavy foam in the mold to form a solid foam; and firing the solid foam in the mold to form the foam ceramic; wherein linear mixers are used for foaming and/or for mixing. producing an aqueous suspension of a first mineral raw material; foaming the suspension with air while adding a foaming agent and a binder to form a light foam; mixing the light foam with a powder or slip of a second ceramic raw material to form a heavy foam; pouring the heavy foam into a mold; drying the molded heavy foam in the mold to form a solid foam; and firing the solid foam in the mold to form the foam ceramic; wherein linear mixers are used for foaming and/or for mixing.
A transparent display device provided to cover a front surface of a predetermined product so as to form a door unit of the predetermined product, the door unit being rotatably moved when the door unit is opened or closed to access the inside of the predetermined product, the transparent display device comprising: a frame including an opening; a transparent display panel arranged at the opening; and a control module (260, 500) arranged in an area of the frame to control the transparent display panel, characterized by: a first transparent cover arranged at a first interval from a front surface of the transparent display panel to form a first air gap; and a second transparent cover arranged at a second interval from a rear surface of the transparent display panel to form a second air gap, wherein the first air gap is wider than the second air gap. a frame including an opening; a transparent display panel arranged at the opening; and a control module (260, 500) arranged in an area of the frame to control the transparent display panel, characterized by: a first transparent cover arranged at a first interval from a front surface of the transparent display panel to form a first air gap; and a second transparent cover arranged at a second interval from a rear surface of the transparent display panel to form a second air gap, a first transparent cover arranged at a first interval from a front surface of the transparent display panel to form a first air gap; and a second transparent cover arranged at a second interval from a rear surface of the transparent display panel to form a second air gap, wherein the first air gap is wider than the second air gap.
A media mixing vessel, comprising: a flexible portion containing dry media that supports in vitro cultivation of a cell; a fluid inlet fluidically coupled to the flexible portion, wherein the fluid inlet includes a nozzle facing an interior volume of the flexible portion and is configured to supply a mixing fluid to substantially dissolve the dry media; a fluid outlet fluidically coupled to the flexible portion, wherein the fluid outlet includes a filter element configured to prevent dry media exceeding a predetermined size from exiting the flexible portion; a vent operably coupled to the flexible portion and configured to evacuate air from the flexible portion; and a fill port operably coupled to the flexible portion and configured to hermetically seal after the flexible portion is filled with the dry media; characterized in that the nozzle comprises an eductor designed to entrain liquid in the flexible portion as the mixing fluid moves through the nozzle, optionally wherein the nozzle is configured to supply mixing fluid to substantially dissolve the dry media in a single pass. a flexible portion containing dry media that supports in vitro cultivation of a cell; a fluid inlet fluidically coupled to the flexible portion, wherein the fluid inlet includes a nozzle facing an interior volume of the flexible portion and is configured to supply a mixing fluid to substantially dissolve the dry media; a fluid outlet fluidically coupled to the flexible portion, wherein the fluid outlet includes a filter element configured to prevent dry media exceeding a predetermined size from exiting the flexible portion; a vent operably coupled to the flexible portion and configured to evacuate air from the flexible portion; and a fill port operably coupled to the flexible portion and configured to hermetically seal after the flexible portion is filled with the dry media; characterized in that the nozzle comprises an eductor designed to entrain liquid in the flexible portion as the mixing fluid moves through the nozzle, optionally wherein the nozzle is configured to supply mixing fluid to substantially dissolve the dry media in a single pass.
An electrode for electrical energy storage comprising a metallic current collector and an active material, the current collector being coated on at least one portion of one of its faces with at least one protective layer placed between the current collector and the active material, the protective layer comprising: A polymer matrix comprising: At least one crosslinked epoxy polymer or copolymer, At least one elastomer, Conductive fillers, characterized in that the protective layer comprises: - from 30 to 60% of at least one crosslinked epoxy polymer or copolymer, - from 10 to 30% of at least one elastomer, - from 30 to 50% of conductive fillers, the sum of the weights of, and represents from 95 to 100%, by weight of dry matter, relative to the total weight of dry matter of the protective layer. A polymer matrix comprising: At least one crosslinked epoxy polymer or copolymer, At least one elastomer, At least one crosslinked epoxy polymer or copolymer, At least one elastomer, Conductive fillers, characterized in that the protective layer comprises: - from 30 to 60% of at least one crosslinked epoxy polymer or copolymer, - from 10 to 30% of at least one elastomer, - from 30 to 50% of conductive fillers, the sum of the weights of, and represents from 95 to 100%, by weight of dry matter, relative to the total weight of dry matter of the protective layer. characterized in that the protective layer comprises: - from 30 to 60% of at least one crosslinked epoxy polymer or copolymer, - from 10 to 30% of at least one elastomer, - from 30 to 50% of conductive fillers, the sum of the weights of, and represents from 95 to 100%, - from 30 to 60% of at least one crosslinked epoxy polymer or copolymer, - from 10 to 30% of at least one elastomer, - from 30 to 50% of conductive fillers, the sum of the weights of, and represents from 95 to 100%, by weight of dry matter, relative to the total weight of dry matter of the protective layer.
Device for gripping containers, comprising clamps adapted to clamp a container, and a centring cone adapted to receive a cap of the container, said centring cone having a longitudinal axis and comprising an inlet mouth, for entrance of said cap, and an inner lateral surface, said inner lateral surface comprising a first, substantially cylindrical portion and a second portion comprised between the first portion and the inlet mouth and diverging outwards in the direction from the first portion to the inlet mouth, wherein the centring cone is a component separate from and independent of the clamps, characterized in that the centring cone is rotatably mounted in the gripping device.
A method for analysing a log of a device or a plurality of devices of a first entity, the method comprising: generating an encrypted log by encrypting said log on at least one device of the first entity; generating at least an encrypted query by encrypting said query on at least one device for analysing the log; transferring said encrypted log and said encrypted query from said first entity to a second entity; analysing said encrypted log on said second entity by using the encrypted query and generating an encrypted analysis result; transferring said encrypted analysis result from said second entity to said first entity; and decrypting said encrypted analysis result on said first entity, wherein said decrypted analysis result can be verified by said first entity, wherein the encryption of the log and the encryption of the query are based on a k-deterministic encryption scheme. generating an encrypted log by encrypting said log on at least one device of the first entity; generating at least an encrypted query by encrypting said query on at least one device for analysing the log; transferring said encrypted log and said encrypted query from said first entity to a second entity; analysing said encrypted log on said second entity by using the encrypted query and generating an encrypted analysis result; transferring said encrypted analysis result from said second entity to said first entity; and decrypting said encrypted analysis result on said first entity, wherein said decrypted analysis result can be verified by said first entity, wherein the encryption of the log and the encryption of the query are based on a k-deterministic encryption scheme.
An optical cell for a separation chamber of a density centrifuge blood processing system for separating fluid components, said optical cell comprising: an extraction chamber having a first external optical surface for transmitting at least a portion of an incident optical beam; and an extraction port (1110, 1115) having an axial bore for passing fluid components and a first external optical surface (1146, 1147) for transmitting at least a portion of the incident optical beam; characterised in that: said first external optical surface (1146, 1147) of said extraction port is substantially optically flat; the extraction chamber further comprises a second external optical surface for transmitting at least a portion of an incident optical beam; and the second external optical surface of said extraction chamber and the first external optical surface (1146, 1147) of said extraction port are both substantially in the same plane. an extraction chamber having a first external optical surface for transmitting at least a portion of an incident optical beam; and an extraction port (1110, 1115) having an axial bore for passing fluid components and a first external optical surface (1146, 1147) for transmitting at least a portion of the incident optical beam; said first external optical surface (1146, 1147) of said extraction port is substantially optically flat; the extraction chamber further comprises a second external optical surface for transmitting at least a portion of an incident optical beam; and the second external optical surface of said extraction chamber and the first external optical surface (1146, 1147) of said extraction port are both substantially in the same plane.
An electrolyte analysis device configured to measure a concentration of a specific ion in a sample using a plurality of ion selective electrodes and a reference electrode, the electrolyte analysis device comprising: a water supply tank configured to store a diluent used for at least one of solution sending, probe cleaning, and temperature adjustment in the electrolyte analysis device; a specimen dispensing device configured to dispense a sample to be measured; a dilution tank configured to dilute the sample dispensed by the specimen dispensing device with the diluent; a water quality measurement unit configured to measure an ion concentration of the diluent in the water supply tank, which is an electrolyte analysis unit including the plurality of ion selective electrodes and the reference electrode; and a control device configured to control the electrolyte analysis device, characterized in that in the measurement of the specific ion in the sample, the control device is configured to dilute a reference electrode solution in contact with the reference electrode to a plurality of concentrations with the diluent, and to perform water quality determination processing of determining whether a water quality of the diluent is normal or abnormal by determining a slope of a measured potential difference over a logarithmic ion concentration curve of a high ion concentration using different concentrations of a diluted standard solution, a slope of a measured potential difference over a logarithmic ion concentration curve of a low ion concentration using said different concentrations of the diluted reference electrode solution, and comparing both calculated slopes with each other. a water supply tank configured to store a diluent used for at least one of solution sending, probe cleaning, and temperature adjustment in the electrolyte analysis device; a specimen dispensing device configured to dispense a sample to be measured; a dilution tank configured to dilute the sample dispensed by the specimen dispensing device with the diluent; a water quality measurement unit configured to measure an ion concentration of the diluent in the water supply tank, which is an electrolyte analysis unit including the plurality of ion selective electrodes and the reference electrode; and a control device configured to control the electrolyte analysis device, characterized in that in the measurement of the specific ion in the sample, the control device is configured to dilute a reference electrode solution in contact with the reference electrode to a plurality of concentrations with the diluent, and to perform water quality determination processing of determining whether a water quality of the diluent is normal or abnormal by determining a slope of a measured potential difference over a logarithmic ion concentration curve of a high ion concentration using different concentrations of a diluted standard solution, a slope of a measured potential difference over a logarithmic ion concentration curve of a low ion concentration using said different concentrations of the diluted reference electrode solution, and comparing both calculated slopes with each other.