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    • 2. 发明申请
    • MAGNETORESISTIVE RANDOM ACCESS MEMORY DEVICES AND METHODS OF MANUFACTURING THE SAME
    • 磁性随机访问存储器件及其制造方法
    • US20160020249A1
    • 2016-01-21
    • US14804321
    • 2015-07-20
    • Seung-Pil KOMyoung-Su SONKil-Ho LEE
    • Seung-Pil KOMyoung-Su SONKil-Ho LEE
    • H01L27/22H01L43/02H01L43/12H01L43/08
    • H01L27/222H01L27/228H01L43/02H01L43/08H01L43/12
    • An MRAM device comprises an insulating interlayer comprising a flat first upper surface on a first region and a second region of a substrate. A pattern structure comprising pillar-shaped magnetic tunnel junction (MTJ) structures and a filling layer pattern between the MTJ structures is formed on the insulating interlayer of the first region. The pattern structure comprises a flat second upper surface that is higher than the first upper surface. Bit lines are formed on the pattern structure that contact top surfaces of the MTJ structures. An etch-stop layer is formed on the pattern structure between the bit lines of the first region and the first upper surface of the first insulating interlayer of the second region. A first portion of an upper surface of the etch-stop layer on the first region is higher than a second portion of the upper surface of the etch-stop layer on the second region.
    • MRAM器件包括绝缘中间层,其包括在第一区域上的平坦的第一上表面和衬底的第二区域。 在第一区域的绝缘中间层上形成包括柱形磁隧道结(MTJ)结构和MTJ结构之间的填充层图案的图案结构。 图案结构包括比第一上表面高的扁平的第二上表面。 位线形成在与MTJ结构的顶表面接触的图案结构上。 在第一区域的位线和第二区域的第一绝缘中间层的第一上表面之间的图案结构上形成蚀刻停止层。 第一区域上的蚀刻停止层的上表面的第一部分高于第二区域上的蚀刻停止层的上表面的第二部分。
    • 4. 发明授权
    • Method of manufacturing a capacitor in a semiconductor device using a high dielectric tantalum oxide or barium strontium titanate material that is treated in an ozone plasma
    • 在使用在臭氧等离子体中处理的高介电钽氧化物或钛酸钡锶材料的半导体器件中制造电容器的方法
    • US06329237B1
    • 2001-12-11
    • US09466896
    • 1999-12-20
    • Kyong Min KimChan LimKil Ho LeeKi Seon Park
    • Kyong Min KimChan LimKil Ho LeeKi Seon Park
    • H01L218242
    • H01L21/31691C23C16/405C23C16/409C23C16/56H01L28/55
    • There is disclosed a method of making a high dielectric capacitor of a semiconductor device using Ta2O5, BST((Ba1−xSrx)TiO3) etc. of a high dielectric characteristic as a capacitor dielectric film in a very high integrated memory device. The present invention has its object to provide a method of manufacturing a high dielectric capacitor of a semiconductor device, which can effectively remove carbon contained within the thin film after deposition of the BST film and defects of oxygen depletion caused upon deposition of the thin film and which can also remove carbon contained within the thin film after deposition of the tantalum oxide film and defects of oxygen depletion caused upon deposition of the thin film, without further difficult processes or without any deterioration of the electrical characteristic of the capacitor. It employs the technology which is able to effectively removing defects of carbon and oxygen depletion within the thin film, by forming a plasma O3 gas having a good reactivity and by processing the plasma for the BST thin film and tantalum oxide film. Thus, it can extend the lifetime of the activated oxygen of oxygen, which had been a problem in processing a conventional UV-O3, by means of plasma process using O3 gas. Therefore, it can effectively remove defects of carbon and oxygen within the BST thin film and tantalum oxide film without complicating the process or deteriorating the electrical characteristic of the capacitor. The present invention also proposes a detailed process condition, which can optimize the plasma process using O3 gas.
    • 公开了在非常高的集成存储器件中使用具有高介电特性的Ta2O5,BST((Ba1-xSrx)TiO3)等作为电容器电介质膜的半导体器件的高介电电容器的方法。 本发明的目的是提供一种制造半导体器件的高介电电容器的方法,其可以有效地去除沉积BST膜之后的薄膜中包含的碳和沉积薄膜时引起的氧耗损缺陷, 其也可以在沉积氧化钽膜之后,除去薄膜中所含的碳和沉积薄膜所引起的氧耗尽的缺陷,而不需要进一步的困难处理或不会使电容器的电特性恶化。 通过形成具有良好反应性的等离子体O 3气体和通过处理BST薄膜和氧化钽膜的等离子体,采用能够有效地去除薄膜内的碳和氧缺乏的缺陷的技术。 因此,通过使用O 3气体的等离子体处理,可以延长氧气的活化氧的寿命,这在处理常规的UV-O 3中是一个问题。 因此,可以有效地去除BST薄膜和氧化钽膜内的碳和氧的缺陷,而不会使工艺复杂化或劣化电容器的电特性。 本发明还提出了一种详细的工艺条件,其可以优化使用O 3气体的等离子体工艺。
    • 5. 发明授权
    • Method for forming shallow junction of a semiconductor device
    • 用于形成半导体器件的浅结的方法
    • US5872047A
    • 1999-02-16
    • US871850
    • 1997-06-09
    • Kil Ho LeeSang Ho Yu
    • Kil Ho LeeSang Ho Yu
    • H01L29/78H01L21/22H01L21/265H01L21/336H01L21/8234H01L21/425
    • H01L29/6659H01L21/2652H01L21/823418
    • A method for forming a shallow junction of a semiconductor device, characterized by a rapid thermal process executed to considerably decrease the density of the point defects which may be caused by ion implantation. With it, a junction which is much shallower, with lower sheet resistance and less junction leakage current can be obtained even under conventional ion implantation and tube treatment conditions. This contributes to an improvement in the production yield of a semiconductor device. By virtue of the elimination of the point defects, the limits in selecting the tube thermal treatment temperature and time for planarizing the subsequent interlayer insulating film can be relieved, so that process allowance can be secured, thereby improving the reliability of the semiconductor device and allowing the high integration of the semiconductor device.
    • 一种用于形成半导体器件的浅结的方法,其特征在于执行快速热处理以显着降低由离子注入引起的点缺陷的密度。 因此,即使在常规的离子注入和管处理条件下,也可以获得更浅的结,具有较低的薄层电阻和较少的结漏电流。 这有助于提高半导体器件的产量。 由于消除点缺陷,可以减轻选择用于平坦化后续层间绝缘膜的管热处理温度和时间的限制,从而可以确保工艺余量,从而提高半导体器件的可靠性并允许 半导体器件的高集成度。
    • 6. 发明授权
    • Method for fabricating semiconductor devices
    • 制造半导体器件的方法
    • US5683920A
    • 1997-11-04
    • US768940
    • 1996-12-18
    • Kil Ho Lee
    • Kil Ho Lee
    • H01L27/092H01L21/335H01L21/8238
    • H01L21/823814
    • A method for fabricating a semiconductor device which is capable of forming an ultra-shallow junction causing no defect in source/drain regions. The method includes the steps of providing a semiconductor substrate formed with n and p type wells and element-isolating films, forming gate oxide films on the n and p type wells, respectively, forming a polysilicon film over the entire exposed upper surface of the resulting structure, implanting first impurity ions having an n type conductivity in a portion of the polysilicon film disposed over the p type well, implanting first impurity ions having a p type conductivity in a portion of the polysilicon film disposed over the n type well, implanting second impurity ions having the p type conductivity in portions of the polysilicon film except for portions which will be used as gate electrodes, annealing the resulting structure in such a manner that the first impurity ions having the p type conductivity are diffused into the n type well, thereby forming p.sup.+ source/drain, selectively removing the polysilicon film, thereby forming n and p type gate electrodes, and implanting second impurity ions having the n type conductivity in an exposed surface portion of the p type well, thereby forming n.sup.+ source/drain.
    • 一种制造半导体器件的方法,该半导体器件能够形成在源极/漏极区域中不产生缺陷的超浅结。 该方法包括以下步骤:提供形成有n型和p型阱和元件隔离膜的半导体衬底,分别在n型和p型阱上形成栅极氧化膜,在所得到的整个暴露的上表面上形成多晶硅膜 结构,在位于p型阱上的多晶硅膜的一部分中注入具有n型导电性的第一杂质离子,在第n型阱上设置多晶硅膜的部分中注入具有p型导电性的第一杂质离子,注入第二杂质 除了将用作栅电极的部分之外,在多晶硅膜的部分中具有p型导电性的离子,以使得具有p型导电性的第一杂质离子扩散到n型阱中的方式退火所得到的结构,从而 形成p +源极/漏极,选择性地去除多晶硅膜,由此形成n型和p型栅电极,以及植入第二阻挡层 y型离子在p型阱的露出表面部分具有n型导电性,从而形成n +源极/漏极。