Abstract:
A floating magnetic head including a non-magnetic substrate having a two-phase structure which substrate is used as a slider so as to enable a coefficient of thermal expansion to be controlled over a wide range. In air bearing surface is made to be properly rough to improve CSS characteristics of a floating magnetic head. A non-magnetic substrate material contains MnO, NiO, as main components, and Al.sub.2 O.sub.3, as a sub composition, or a part of the sub component is replaced by at least one substance selected from a group consisting of CaO, Y.sub.2 O .sub.3, ZrO .sub.3, ZnO, SrO. The non-magnetic substrate material has a two-phase structure including a rock salt type structure of (MnO, NiO) and a spinel structure of (MnO, NiO) Al.sub.2 O.sub.3 or (MnO, NiO) Al.sub.2 O.sub.3 containing at least one substance selected from a group consisting of CaO, Y.sub.2 O.sub.3, ZrO.sub.3, ZnO, SrO. An average grain size of the substrate is from 5 to 15 .mu.m.
Abstract translation:包括具有两相结构的非磁性基板的浮动磁头,该基板用作滑块,以便能够在宽范围内控制热膨胀系数。 使空气轴承表面适当粗糙,以改善浮动磁头的CSS特性。 非磁性基板材料含有MnO,NiO作为主要成分,作为副组成的Al 2 O 3或其一部分被选自CaO,Y 2 O 3,ZrO 3中的至少一种物质所代替 ,ZnO,SrO。 非磁性基板材料具有包括(MnO,NiO)的岩盐型结构和(MnO,NiO)Al 2 O 3或(MnO,NiO)Al 2 O 3的尖晶石结构的两相结构,其含有至少一种选自 由CaO,Y2O3,ZrO3,ZnO,SrO组成的组。 基材的平均粒径为5〜15μm。
Abstract:
A thermal spray powder feed coating composition composed of stabilized zirconia mixed with zircon and a selected oxide, such as yttria, to form a refractory oxide coating ideally suited for hearth rolls for annealing steel Process for producing the coating and the coated article so produced is also disclosed.
Abstract:
A method for forming an anticorrosive coating on the surface of a metal substrate, which comprises, in one embodiment, (1) coating the surface of the metal substrate with an anticorrosive metal capable of forming an alloy with the substrate metal using a spraying procedure, and (2) then heating the coated surface in a vacuum or in an atmosphere substantially inert to the metal coating and metal substrate by irradiating electron beams or a plasma arc thereonto to form an alloy layer in the interface between the metal substrate and the metal coating and, in a second embodiment, subsequent to step (1) and prior to step (2) above coating a solution of a thermally decomposable platinum-group metal compound on the surface of the resulting coating, and heat-treating the coated product at about 50.degree. to about 300.degree. C.
Abstract:
An alloy for use as a substrate of an electrode for use in electrolysis, the alloy comprising(1) titanium and(2) 0.05 to 10% by weight of (a) tantalum and (b) niobium, zirconium or mixtures thereof, where the tantalum is present in an amount of 0.01 to 9.99% by weight, with each % by weight being based on the weight of the alloy. The alloy can additionally contain(3) 0.001 to 1.5% by weight of at least one platinum-group metal selected from the group consisting of platinum, iridium, rhodium, ruthenium, palladium and osmium, with the % by weight being based on the weight of the alloy. The alloy of this invention is an excellent material to prepare a corrosion-resistant electrode substrate.
Abstract:
This invention is to provide a membrane-electrode assembly, an electrolytic cell using the same, a method and an apparatus for producing ozone water, a method for disinfection and a method for wastewater or waste fluid treatment, by using which allow electrolysis reaction products or decomposition products to be produced at a high efficiency, channel pressure drop to be minimized, and the apparatus to be designed compact in size without sacrificing the production capacity.This invention relates to a membrane-electrode assembly, comprising an anode having a plurality of through-holes of 0.1 mm or more in diameter; a cathode having a plurality of through-holes of 0.1 mm or more in diameter at the same sites as in the anode; and a solid polymer electrolyte membrane coated on one face or the entire face of at least one of the anode and the cathode with the through-holes being maintained, wherein the anode, the solid polymer electrolyte membrane and the cathode are tightly adhered.
Abstract:
A sealing material having excellent resistance to attack by molten metals, such as molten zinc, comprising aluminum phosphate/silicon dioxide-based material. The invention also relates to a method for coating articles with such sealing material.
Abstract:
An alloy of 3 to 9 weight percent boron with the balance molybdenum for use as a thermal spray coating for articles intended to be exposed to molten zinc.
Abstract:
An electrolytic electrode having high durability for use in electrolysis where the generation of oxygen occurs, and a process for the production of the electrolytic electrode, the electrolytic electrode comprising: (a) an electrode substrate of titanium or a titanium-based alloy; (b) an electrode coating of a metal oxide; and (c) an intermediate layer comprising an electrically conductive oxide of tantalum and/or niobium, provided between the electrode substrate (a) and the electrode coating (b), in a thickness calculated as the metal, of 0.001 to 2 g/m.sup.2.
Abstract translation:一种用于电解产生氧气的耐久性高的电解电极,以及电解电极的制造方法,所述电解电极包括:(a)钛或钛基合金的电极基体; (b)金属氧化物的电极涂层; 和(c)包含钽和/或铌的导电氧化物的中间层,其以按金属计算的厚度设置在电极基体(a)和电极涂层(b)之间,其厚度为0.001至2g / m 2 。
Abstract:
A method for producing a dual-array-type scintillator array, comprising forming first and second scintillator sticks having cell portions by providing first and second scintillator substrates with pluralities of grooves and cutting them in directions perpendicular to the grooves; arranging and fixing plural sets of the first and second scintillator sticks with the cell portions downward on a support plate via spacers; removing base portions from the first and second scintillator sticks by grinding to form first and second cell arrays comprising the first and second cells each arranged in line; forming an integral resin-cured assembly by filling the grooves and gaps of the first and second cell arrays with a resin for a reflector, curing the resin, and then removing the support plate; and cutting a resin layer between the first and second cell arrays in adjacent sets to divide the resin-cured assembly to sets of the first and second cell arrays.
Abstract:
This invention is to provide a membrane-electrode assembly, an electrolytic cell using the same, a method and an apparatus for producing ozone water, a method for disinfection and a method for wastewater or waste fluid treatment, by using which electrolysis reaction products or decomposition products obtained at the anode are produced at a high efficiency; channel pressure drop is minimized; and the apparatus is designed in compact size without sacrificing the production capacity.This invention relates to a membrane-electrode assembly comprising a solid polymer electrolyte membrane having a cation exchange membrane, an anode and a cathode tightly adhered to the respective surfaces of the solid polymer electrolyte membrane, with a plurality of through-holes with 0.1 mm or more in diameter over the entire surfaces of the anode, the solid polymer electrolyte membrane and the cathode, passing through these elements; an electrolytic cell using the membrane-electrode assembly; a method and an apparatus for producing ozone water; a method for disinfection; and a method for wastewater or waste fluid treatment.