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    • 2. 发明申请
    • METHOD OF PRODUCING CORE/SHELL COMPOSITE NANO-PARTICLES
    • 生产核/壳复合纳米颗粒的方法
    • US20100215851A1
    • 2010-08-26
    • US12596994
    • 2007-04-25
    • Tetsuya ShojiNaoki NakamuraAkira KatoShinpei YamamotoMikio TakanoTeruo Ono
    • Tetsuya ShojiNaoki NakamuraAkira KatoShinpei YamamotoMikio TakanoTeruo Ono
    • B05D7/00
    • B22F1/025B22F1/0018B22F9/24B22F9/305B82Y30/00
    • A method of producing core/shell composite nano-particles exhibiting superior characteristics, by using as cores nano-particles heat treated in advance so as to give them a specific crystal structure in a state using a barrier layer to prevent sintering and forming shells on their surface, which eliminates hindrances to the shell forming reaction due to the phase transfer catalyst or other strongly sticky dispersant, is provided. A method of producing core/shell composite nano-particles comprising nano-sized core particles covered by shells, the method comprising dispersing core particles heat treated in advance to give them a crystal structure expressing the necessary characteristics in a first organic solvent by a first dispersant to prepare a first solution, adding a polar solvent to peel off the first dispersant from the core particles and making the nano-particles agglomerate to recover them, making the recovered core particles disperse in a second organic solvent by a second dispersant to form a second solution, and adding a precursor of the shells to the second solution and forming shells on the surfaces of the core particles.
    • 通过使用预先热处理的核心纳米粒子来制造具有优异特性的核/壳复合纳米粒子的方法,以便在使用阻挡层的状态下给予其特定的晶体结构,以防止烧结和形成壳体 表面,其消除了由于相转移催化剂或其它强粘性分散剂而导致的壳形成反应的障碍。 一种制造核壳复合纳米颗粒的方法,其包括由壳覆盖的纳米尺寸的核心颗粒,该方法包括将预先热处理的芯颗粒分散在第一有机溶剂中,通过第一分散剂给予它们表达必要特性的晶体结构 制备第一溶液,加入极性溶剂以从芯颗粒上剥离第一分散剂并使纳米颗粒凝聚回收,使回收的芯颗粒通过第二分散剂分散在第二有机溶剂中以形成第二溶剂 溶液,并将壳的前体添加到第二溶液中并在芯颗粒的表面上形成壳。
    • 4. 发明申请
    • MRAM AND METHOD FOR WRITING IN MRAM
    • MRAM和MRAM写入方法
    • US20100157662A1
    • 2010-06-24
    • US11919189
    • 2006-04-26
    • Teruo OnoAkinobu YamaguchiSaburo Nasu
    • Teruo OnoAkinobu YamaguchiSaburo Nasu
    • G11C11/00G11C11/14G11C7/00
    • G11C11/16B82Y10/00G11C5/063G11C11/161G11C11/1657G11C11/1659G11C11/1675H01L27/0207H01L27/228
    • In one embodiment of the present invention, an MRAM is an MRAM including: a plurality of write word lines; a plurality of bit lines provided so as to intersect with the write word lines; and TMR elements provided at respective intersections of the write word lines and the bit lines. Each of the TMR elements includes a first ferromagnetic layer of which magnetization direction is variable, a second ferromagnetic layer of which magnetization direction is fixed, and a tunnel wall which is sandwiched between the first ferromagnetic layer and the second ferromagnetic layer. The bit line is provided, for example, so as to bulge in the direction in which the write word line extends at the intersection of the bit line and the write word line, so that a magnetic wall is introduced at a desired position of the bit line. Further, a current fed through the bit line is fed through the first ferromagnetic layer at the time of data writing. This makes it possible to provide the MRAM having a gigabit-class capacity.
    • 在本发明的一个实施例中,MRAM是MRAM,包括:多个写入字线; 设置成与写入字线相交的多个位线; 并且TMR元件设置在写字线和位线的各个交叉处。 每个TMR元件包括其磁化方向可变的第一铁磁层,固定有磁化方向的第二铁磁层和夹在第一铁磁层和第二铁磁层之间的隧道壁。 例如,位线被设置为沿写入字线在位线和写入字线的交点处延伸的方向凸起,使得磁性壁被引入位的期望位置 线。 此外,在数据写入时,通过位线馈送的电流被馈送通过第一铁磁层。 这使得可以提供具有千兆级容量的MRAM。
    • 8. 发明授权
    • Ferromagnetic thin wire element
    • 铁磁细线元件
    • US08345473B2
    • 2013-01-01
    • US12672330
    • 2008-04-21
    • Teruo OnoYoshinobu Nakatani
    • Teruo OnoYoshinobu Nakatani
    • G11C11/14
    • G11C11/14G11C19/0808H01L43/08H03B15/006
    • The present invention uses a ferromagnetic thin wire having a domain wall inside, with the magnetic moment at the center thereof being perpendicular to the longitudinal axis of the thin wire. With the domain wall being fixed by a domain wall fixation device (e.g. antiferromagnetic thin wires) so that the domain wall is prevented from moving in the ferromagnetic thin wire, when a direct current is supplied, the magnetic moment rotates in the immobilized domain wall. This rotation of the moment can be detected by a TMR element or the like. This configuration of the ferromagnetic thin wire element can be directly used to create a microwave oscillator or magnetic memory.
    • 本发明使用具有内壁的畴壁的铁磁细线,其中心处的磁矩垂直于细线的纵向轴线。 通过域壁固定装置(例如反铁磁细线)固定畴壁,使得防止畴壁在铁磁细线中移动,当提供直流电流时,磁矩在固定的畴壁中旋转。 瞬间的这种旋转可以由TMR元件等检测。 铁磁细线元件的这种配置可以直接用于产生微波振荡器或磁存储器。