摘要:
외부 자극에 반응할 수 있어 고기능성을 갖는 광 감응성 페라이트 박막 및 그 제조방법이 제안된다. 본 발명에 따른 광 감응성 페라이트 박막 제조방법은 회전장치 상에 기판을 위치시키는 단계; 및 회전하는 기판 상에 원료물질을 분사하여 M-Ni-Zn 페라이트 박막을 형성하는 단계;를 포함한다.
摘要:
PROBLEM TO BE SOLVED: To provide a method of forming a ferrite thin film capable of producing a thick film having a film thickness of ≥1 μm using a sol-gel method without generating cracks.SOLUTION: There is provided a method of forming a ferrite thin film by carrying out a process for forming a coated film by coating a ferrite thin film-forming composition on a heat-resistant substrate and a process for calcining the coated film once or a plurality of times so that the thickness of the calcined film on the substrate becomes a desired thickness, and firing the calcined film formed on the substrate, in which the conditions for firing the calcined film formed on the substrate are under the normal atmosphere or an oxygen gas atmosphere or an inert gas atmosphere, a temperature-rise rate of 1-50°C/minute, a holding temperature of 500-800°C, and a holding time of 30-120 minutes.
摘要:
PROBLEM TO BE SOLVED: To provide a ceramic substrate with a built-in coil, with which the superposition property of the built-in coil is improved and the influence of magnetic lines generated from a conductor for the coil on a semiconductor chip, and a chip component mounted on upper and lower surfaces is significantly inhibited. SOLUTION: This substrate with the built-in coil constituted by sandwiching a first ferrite layer 2 and a second ferrite layer 3, with a flat spiral coil 4 embedded between them, with a pair of insulating layers 1 is constituted by forming a third ferrite layer, whose magnetic permeability is smaller than that of the first ferrite layer 2 and the second ferrite layer 3, between coil conductors of the flat spiral coil 4. COPYRIGHT: (C)2007,JPO&INPIT
摘要:
PROBLEM TO BE SOLVED: To control the diameter of particle in an oxide magnetic thin film on the nano-level. SOLUTION: When depositing an oxide magnetic thin film on a substrate by sputtering, the diameter of oxide magnetic particles is controlled on the nano-level by controlling the temperature of the substrate in a predetermined range, and the oxide magnetic thin film is obtained, in which nano-particles of the desired grain size are present. In particular, by controlling the temperature of the substrate between 200 and 700°C by using a spinel-based ferrite sintered body target, the grain size can be controlled between several nm and tens of nm. The grain size-controlled ferrite thin film can be employed in the applications such as an electromagnetic interference suppressing body or the like for high frequency band. COPYRIGHT: (C)2007,JPO&INPIT
摘要:
PURPOSE: To deposit a crystalline ferrite film on the surface of a solid, by adsorbing FeOH + , etc. to the surface of a solid in a liquid containing ferrous ion, oxidizing the FeOH + to FeOH 2+ , and allowing the ferrite crystallization reaction between the metal hydroxide ion in the liquid. CONSTITUTION: FeOH + or FeOH + with other metal hydroxide ion are adsorbed uniformly to the surface of a solid such as a film in an aqueous solution containing ferrous ion taking advantage of the surface activity at the boundary between the solid and the aqueous solution. The FeOH + is oxidized to form a layer of FeOH 2+ , and ferrite crystallization reaction is carried out between FeOH 2+ and the metal hydroxide ion in the aqueous solution. A crystallized ferrite film having spinel structure can be deposited on the surface of a solid by this process without necessitating high-temperature heat-treatment. The process can be applied widely for the preparation of magnetic recording medium, magneto-optical element, etc. COPYRIGHT: (C)1984,JPO&Japio
摘要:
An EBG (Electromagnetic Bandgap) structure includes a magnetic material portion at least in part. It is preferable to arrange the magnetic material portion close to or, if possible, in contact with a conductor forming the EBG structure, for example, at least a portion of a ground conductor, a conductor producing a capacitance, and/or a conductor producing an inductance, such as a via. Examples of the magnetic material portion include a ferrite plating film, a composite magnetic material layer including magnetic powder and resin binder, and the like.
摘要:
A method for producing a permanent magnet film having the performance capability as a permanent magnet, characterized in that it comprises converting a powder of a permanent magnet material to the form of an aerosol and spraying the aerosol to an article due to have the permanent magnet film thereon, to thereby form the permanent magnet film; and the above method, characterized in that the powder of a permanent magnet material comprises a magnet metal powder, a ferrite compound powder, a mixture of a magnet metal powder and a ferrite compound powder, a mixture of a magnet metal powder and a polymer material powder, a mixture of a ferrite compound powder and a polymer material powder, or a mixture of a magnet metal powder, a ferrite compound powder and a polymer material powder; and a permanent magnet film produced by the method. The method allows the production of a permanent magnet film having a thickness expected for a thin magnetic film in the near future and exhibiting high magnetic characteristics, with high efficiency at a low cost.
摘要:
PROBLEM TO BE SOLVED: To provide a ferromagnetic conductor material from which a tunnel magnetoresistive element and an element of a field effect transistor can easily be manufactured by combining them with the other material, for example. SOLUTION: The ferromagnetic conductor material is shown by a chemical formula (1) M( A-x )M' x O y ((x) is a numerical value in a range of 0 COPYRIGHT: (C)2006,JPO&NCIPI
摘要翻译:要解决的问题:提供一种铁磁导体材料,例如,通过将隧道磁阻元件和场效应晶体管的元件与其它材料组合可以容易地制造。 解决方案:铁磁性导体材料用化学式(1)M( Ax Ax Ax)))))>>>>>> y y y y((((( x)是0≤x≤0.8且x