mhurhangee/ep-ind-claims huggingface dataset:
A cold-rolled ferritic stainless steel sheet having an elongation after fracture measured in accordance with JIS Z 2241 of 25% or more, an average r value r ave calculated by equation below of 0.65 or more, a glossiness determined in accordance with JIS Z 8741 of 950 or more, a roping resistance Rz determined in accordance with JIS B 0601-2001 of 0.2 μm or less, a chemical composition containing, by mass%, C: 0.005% or more and 0.05% or less, Si: 0.02% or more and 0.75% or less, Mn: 0.1% or more and 1.0% or less, P: 0.04% or less, S: 0.01% or less, Al: 0.001% or more and 0.10% or less, N: 0.005% or more and 0.06% or less, Cr: 16.0% or more and 18.0% or less, optionally one, two, or more selected from among Cu: 0.1% or more and 1.0% or less, Ni: 0.1% or more and 1.0% or less, Mo: 0.1% or more and 0.5% or less, and Co: 0.01% or more and 0.3% or less, optionally one, two, or more selected from among V: 0.01% or more and 0.25% or less, Ti: 0.001% or more and 0.015% or less, Nb: 0.001% or more and 0.030% or less, Mg: 0.0002% or more and 0.0050% or less, B: 0.0002% or more and 0.0050% or less, and REM: 0.01% or more and 0.10% or less, and the balance being Fe and inevitable impurities and a metallographic structure including a ferrite phase, wherein the average grain diameter of a ferrite phase calculated in accordance with JIS G 0551 is 10 μm or less, wherein the proportion of ferrite grains having a grain diameter of 10 μm or more and less than 40 μm to the whole metallographic structure is 60% or more in terms of area ratio, and wherein the proportion of ferrite grains having a grain diameter of less than 5 μm to the whole metallographic structure is less than 20% in terms of area ratio; r ave = r 0 + r 90 + 2 × r 45 / 4 wherein r ave denotes an average r value, r 0 denotes an r value in a direction parallel to the rolling direction, r 90 denotes an r value in a direction at a right angle to the rolling direction, and r 45 denotes an r value in a direction at an angle of 45° to the rolling direction, r 0, r 90, and r 45 being obtained in a tensile test in accordance with JIS Z 2241 with a pre-strain of 15%.
A test device for simultaneously subjecting a disc-shaped test-piece to a flowing and pressurised test gas and a mechanical load, comprising the following components: - a test-piece seat, which is designed such that an edge region of the test-piece rests on the test-piece seat and an inner region of the test-piece is accessible from its top side and underside; - a stamp which is disposed above the test-piece seat and with which a predetermined mechanical load can be exerted on the top side of the test-piece; and - a gas feed plate with which the test gas can be conveyed to the underside of the test-piece, characterised in that the gas feed plate is designed so as to be adjustable in its relative position with respect to the test-piece, so that a gap width between the test-piece and the gas feed plate can be varied. - a test-piece seat, which is designed such that an edge region of the test-piece rests on the test-piece seat and an inner region of the test-piece is accessible from its top side and underside; - a stamp which is disposed above the test-piece seat and with which a predetermined mechanical load can be exerted on the top side of the test-piece; and - a gas feed plate with which the test gas can be conveyed to the underside of the test-piece,
An aerial vehicle comprising a flight controller and an aerial vehicle antenna system, the aerial vehicle antenna system comprising: a rotationally symmetric planar substrate with an antenna linearly polarized within the plane of the substrate embedded therein; a communication controller; an electronic interconnect electrically coupled to the antenna and the communication controller to communicate with the communication controller; a rotation member coupled to the rotationally symmetric planar substrate; and a servo, electrically coupled to the communication controller, and coupled to the rotation member to rotate the rotation member and the rotationally symmetric planar substrate according to a command from the communication controller characterised in that the communication controller is coupled to the flight controller and is configured to request the flight controller to tilt or bank the aerial vehicle towards a communication target when rotation of the rotationally symmetric planar substrate via the servo does not place the communication target within reach of a gain profile peak of the antenna. a rotationally symmetric planar substrate with an antenna linearly polarized within the plane of the substrate embedded therein; a communication controller; an electronic interconnect electrically coupled to the antenna and the communication controller to communicate with the communication controller; a rotation member coupled to the rotationally symmetric planar substrate; and a servo, electrically coupled to the communication controller, and coupled to the rotation member to rotate the rotation member and the rotationally symmetric planar substrate according to a command from the communication controller characterised in that the communication controller is coupled to the flight controller and is configured to request the flight controller to tilt or bank the aerial vehicle towards a communication target when rotation of the rotationally symmetric planar substrate via the servo does not place the communication target within reach of a gain profile peak of the antenna.
A zinc-air cell comprising • a zinc-containing anode, comprising at least one electro-conducting porous support for zinc incorporation there-within; and a porous polymer-based mat positioned proximally to said porous support; • at least one porous structure capable of absorbing oxygen from the air as the cathode of said cell; • a casing in which said anode and cathode are positioned, said casing further comprising an alkaline electrolyte fluid; • a slurry consisting of zinc and alkaline electrolyte placed within said casing; and • an inlet and outlet in said casing, wherein said inlet and outlet are constructed so as to permit exchange of said electrolyte fluid in said cell with an electrolyte fluid located in an external reservoir, wherein said anode and cathode are electrically connectible across a load, wherein said porous polymer-based mat is comprised of teflon, nylon, polypropylene or polyethylene, and has a thickness of between 30-1000 μm, and wherein said porous support comprises a metal or a metal alloy or graphite/carbon sponge. • a zinc-containing anode, comprising at least one electro-conducting porous support for zinc incorporation there-within; and a porous polymer-based mat positioned proximally to said porous support; at least one electro-conducting porous support for zinc incorporation there-within; and a porous polymer-based mat positioned proximally to said porous support; • at least one porous structure capable of absorbing oxygen from the air as the cathode of said cell; • a casing in which said anode and cathode are positioned, said casing further comprising an alkaline electrolyte fluid; • a slurry consisting of zinc and alkaline electrolyte placed within said casing; and • an inlet and outlet in said casing, wherein said inlet and outlet are constructed so as to permit exchange of said electrolyte fluid in said cell with an electrolyte fluid located in an external reservoir, wherein said anode and cathode are electrically connectible across a load, wherein said porous polymer-based mat is comprised of teflon, nylon, polypropylene or polyethylene, and has a thickness of between 30-1000 μm, and wherein said porous support comprises a metal or a metal alloy or graphite/carbon sponge.
A communications device, comprising: a processing module and a sending module, wherein the processing module is configured to: determine a first power control parameter group, wherein the first power control parameter group comprises information used to indicate a transmit power of the sending module in a first-type subframe, and the sending module sends a signal only on a preset downlink frequency resource in the first-type subframe; and determine a second power control parameter group, different from the first power control parameter group, wherein the second power control parameter group comprises information used to indicate a transmit power of the sending module in a second-type subframe, and the sending module sends signals on both a downlink frequency resource and an uplink frequency resource that are preset in the second-type subframe, wherein the sending module is configured to: send the first power control parameter group to a second communications device; and send the second power control parameter group to the second communications device.
A chlorinated vinyl chloride resin composition for extrusion molding, which comprises 100 parts by weight of chlorinated vinyl chloride resin, 3 to 300 parts by weight of thermally expandable graphite, 3 to 200 parts by weight of inorganic filler, and 20 to 200 parts by weight of plasticizer, and does not contain a phosphorus compound excluding phosphate plasticizer, wherein the chlorine content falls within a range of 60 to 72% by weight, wherein the phosphorus compound is selected from phosphate esters such as triphenyl phosphate, tricresyl phosphate, trixylenyl phosphate, cresyl diphenylphosphate, and xylenyl diphenylphosphate, metal salts of phosphorous acid such as sodium phosphate, potassium phosphate, and magnesium phosphate, ammonium polyphosphates such as ammonium polyphosphate and melamine-modified ammonium polyphosphate, and compounds represented by the following formula wherein R1 and R3 represents hydrogen, a linear or branched alkyl group having 1 to 16 carbon atoms, or an aryl group having 6 to 16 carbon atoms, R2 represents a hydroxyl group, a linear or branched alkyl group having 1 to 16 carbon atoms, a linear or branched alkoxyl group having 1 to 16 carbon atoms, an aryl group having 6 to 16 carbon atoms, or an aryloxy group having 6 to 16 carbon atoms, such as methylphosphonic acid, dimethyl methylphosphate, diethyl methylphosphate, ethylphosphonic acid, propylphosphonic acid, butylphosphonic acid, 2-methylpropylphosphonic acid, tert-butylphosphonic acid, 2,3-dimethyl-butylphosphonic acid, octylphosphonic acid, phenylphosphonic acid, dioctylphenylphosphonate, dimethylphosphinic acid, methylethylphosphinic acid, methylpropylphosphinic acid, diethylphosphinic acid, dioctylphosphinic acid, phenylphosphinic acid, diethylphenylphosphinic acid, diphenylphosphinic acid, and bis(4-methoxyphenyl)phosphinic acid, wherein the phosphate plasticizer is trimethyl phosphate or triethyl phosphate. wherein R1 and R3 represents hydrogen, a linear or branched alkyl group having 1 to 16 carbon atoms, or an aryl group having 6 to 16 carbon atoms, R2 represents a hydroxyl group, a linear or branched alkyl group having 1 to 16 carbon atoms, a linear or branched alkoxyl group having 1 to 16 carbon atoms, an aryl group having 6 to 16 carbon atoms, or an aryloxy group having 6 to 16 carbon atoms, such as methylphosphonic acid, dimethyl methylphosphate, diethyl methylphosphate, ethylphosphonic acid, propylphosphonic acid, butylphosphonic acid, 2-methylpropylphosphonic acid, tert-butylphosphonic acid, 2,3-dimethyl-butylphosphonic acid, octylphosphonic acid, phenylphosphonic acid, dioctylphenylphosphonate, dimethylphosphinic acid, methylethylphosphinic acid, methylpropylphosphinic acid, diethylphosphinic acid, dioctylphosphinic acid, phenylphosphinic acid, diethylphenylphosphinic acid, diphenylphosphinic acid, and bis(4-methoxyphenyl)phosphinic acid,
A membrane-electrode assembly producing method that produces a membrane-electrode assembly comprising a catalyst layer and a polymer electrolyte film, the method comprising: a pre-heating step of pre-heating a catalyst-layer supporting base material that supports the catalyst layer on a surface of a transfer base material, and the polymer electrolyte film; a thermal pressure bonding step of heating and pressing the catalyst-layer supporting base material and the polymer electrolyte film to form an integrated joined member; a peeling step of peeling the transfer base material from the joined member; and a temperature adjusting step of adjusting a temperature of the joined member before the transfer base material is peeled from the joined member, wherein the pre-heating step comprises a first pre-heating step of pre-heating the catalyst-layer supporting base material and the polymer electrolyte film to a temperature equal to or lower than a softening temperature of the polymer electrolyte film, which is a temperature equal to or higher than 60°C to equal to or lower than 120°C, in contact with each other, and wherein the thermal pressure rolling bonding step is carried out at a temperature from equal to or higher than 60°C to equal to or lower than 120°C and at a pressure equal to or higher than 10MPa to equal to or lower than 100MPa, characterized in that, the temperature adjusting step comprises adjusting the temperature of the joined member to a temperature lower than the temperature of thermal pressure bonding by up to 20°C. a pre-heating step of pre-heating a catalyst-layer supporting base material that supports the catalyst layer on a surface of a transfer base material, and the polymer electrolyte film; a thermal pressure bonding step of heating and pressing the catalyst-layer supporting base material and the polymer electrolyte film to form an integrated joined member; a peeling step of peeling the transfer base material from the joined member; and a temperature adjusting step of adjusting a temperature of the joined member before the transfer base material is peeled from the joined member, wherein the pre-heating step comprises a first pre-heating step of pre-heating the catalyst-layer supporting base material and the polymer electrolyte film to a temperature equal to or lower than a softening temperature of the polymer electrolyte film, which is a temperature equal to or higher than 60°C to equal to or lower than 120°C, in contact with each other, and wherein the thermal pressure rolling bonding step is carried out at a temperature from equal to or higher than 60°C to equal to or lower than 120°C and at a pressure equal to or higher than 10MPa to equal to or lower than 100MPa, characterized in that, the temperature adjusting step comprises adjusting the temperature of the joined member to a temperature lower than the temperature of thermal pressure bonding by up to 20°C.
A metal leaf spring protection structure of electrical connection terminal, comprising a main body having a base section defined with a first end and a second end, the first end being connected with a first section and a locating section, the second end being connected with a bight section and a reciprocally movable second section, a bent section being formed between the first end of the base section and the first section, the bent section containing an angle, the angle contained by the bent section being selected from a group consisting of an acute angle, a right angle and an obtuse angle, the first section being bent toward the second end of the base section and extending to connect with the locating section, whereby a subsidiary bent section is formed between the first section and the locating section, the subsidiary bent section containing an angle, the angle contained by the subsidiary bent section being selected from a group consisting of an acute angle, a right angle and an obtuse angle, the locating section having a head section and a tail section connected with the head section, the tail section extending to a position of the bight section to form a hook-like structure and a rear end section, the bight section between the second end and the second section of the base section containing an angle, whereby the second section obliquely extends in a direction to the first end of the base section, the locating section being positioned in a reciprocally moving path of the second section to set up a moving end point of the second section, the metal leaf spring protection structure of electrical connection terminal being characterised in that the rear end section is pressed against the tail section or biased toward the tail section.
A method of evaluating a mechanical property of a sample comprising whole blood, the method comprising: applying force to the sample sufficient to physically displace a portion of the sample; measuring displacement of the sample in response to the applied force; adaptively adjusting the force when the displacement measured is not within a predetermined range of displacement values, wherein the force is increased or decreased depending upon whether the measured displacement is below or above the predetermined range, respectively; and computing a mechanical property value resultant from the measured displacement of the sample, wherein the applying the force to the sample includes directing a series of acoustic pulses into the sample to physically displace a portion of the sample. applying force to the sample sufficient to physically displace a portion of the sample; measuring displacement of the sample in response to the applied force; adaptively adjusting the force when the displacement measured is not within a predetermined range of displacement values, wherein the force is increased or decreased depending upon whether the measured displacement is below or above the predetermined range, respectively; and computing a mechanical property value resultant from the measured displacement of the sample, wherein the applying the force to the sample includes directing a series of acoustic pulses into the sample to physically displace a portion of the sample.
A method of manufacturing an optimized sheet metal of a zirconium based alloy, which optimized sheet metal defines a sheet plane, which method comprises the step of providing a sheet metal of a zirconium based alloy, characterized in that the method comprises the steps of subjecting the sheet metal to at least a preparing cold rolling and a final cold rolling, wherein the preparing cold rolling and the final cold rolling are both performed in a common rolling direction, heat treating the sheet metal between the preparing cold rolling and the final cold rolling so that the zirconium based alloy is partially re-crystallized, wherein the degree of re-crystallization in the heat treatment is at least 20 percent and no more than 90 percent. subjecting the sheet metal to at least a preparing cold rolling and a final cold rolling, wherein the preparing cold rolling and the final cold rolling are both performed in a common rolling direction, heat treating the sheet metal between the preparing cold rolling and the final cold rolling so that the zirconium based alloy is partially re-crystallized, wherein the degree of re-crystallization in the heat treatment is at least 20 percent and no more than 90 percent.
A composition, comprising: a continuous water phase, a discontinuous oil phase homogeneously distributed in said water phase, said oil phase comprising a polymer composition, said polymer composition comprising a sunscreen agent comprising a linear, ultraviolet radiation absorbing polyether that comprises a chemically bound UV-chromophore, wherein said linear, ultraviolet radiation absorbing polyether is present in an amount effective to provide said composition with an SPF of 10 or greater; and an oil-in-water emulsifier component comprising an anionic oil-in-water emulsifier and a nonionic oil-in-water emulsifier having an alcohol functional group, wherein the weight ratio of the anionic oil-in-water emulsifier to the nonionic oil-in-water emulsifier is 12 or less. a continuous water phase, a discontinuous oil phase homogeneously distributed in said water phase, said oil phase comprising a polymer composition, said polymer composition comprising a sunscreen agent comprising a linear, ultraviolet radiation absorbing polyether that comprises a chemically bound UV-chromophore, wherein said linear, ultraviolet radiation absorbing polyether is present in an amount effective to provide said composition with an SPF of 10 or greater; and an oil-in-water emulsifier component comprising an anionic oil-in-water emulsifier and a nonionic oil-in-water emulsifier having an alcohol functional group, wherein the weight ratio of the anionic oil-in-water emulsifier to the nonionic oil-in-water emulsifier is 12 or less.
Method for characterising a mobile element moving along a fixed rotation trajectory on the basis of at least one information medium mounted on said mobile element, and at least one antenna and a microcontroller, said method comprising: - a step of generating by said antenna an electromagnetic field in a cone encompassing a surface of said mobile element and defining a constant and known distance of the travel of the information medium in the cone, characterised in that the method further comprises - a step of emitting at a fixed binary rate, by said information medium, a number of data bits towards said antenna throughout the entire time during which said information medium lies in said cone, - a step of determining by said microcontroller of the speed of said mobile element according to said rotation trajectory on the basis of an analysis of the number of data bits received by said antenna and the travel distance. - a step of generating by said antenna an electromagnetic field in a cone encompassing a surface of said mobile element and defining a constant and known distance of the travel of the information medium in the cone, - a step of emitting at a fixed binary rate, by said information medium, a number of data bits towards said antenna throughout the entire time during which said information medium lies in said cone, - a step of determining by said microcontroller of the speed of said mobile element according to said rotation trajectory on the basis of an analysis of the number of data bits received by said antenna and the travel distance.