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    • 3. 发明授权
    • Method for forming MOS capacitor
    • 形成MOS电容的方法
    • US08685829B1
    • 2014-04-01
    • US13706680
    • 2012-12-06
    • Intermolecular Inc.
    • Amol Joshi
    • H01L21/20
    • H01L29/66181H01L29/94
    • A method of processing a substrate is provided. The method includes forming a first oxide layer on the substrate and patterning the first oxide layer utilizing a lithography process, the patterning defining a plurality of active areas on the substrate. The method includes forming a second oxide layer in each active area and forming a plurality of metal electrodes over the second oxide layer through a shadow mask technique, wherein the shadow mask technique is performed without alignment to an active area.
    • 提供了一种处理衬底的方法。 该方法包括在衬底上形成第一氧化物层并利用光刻工艺对第一氧化物层进行构图,所述图案化在衬底上限定多个有源区。 该方法包括在每个有源区域中形成第二氧化物层,并通过荫罩技术在第二氧化物层上形成多个金属电极,其中在与有源区域对准的情况下进行荫罩技术。
    • 4. 发明申请
    • High Productivity Combinatorial Testing of Multiple Work Function Materials on the Same Semiconductor Substrate
    • 多功能材料在同一半导体基板上的高效率组合测试
    • US20150187664A1
    • 2015-07-02
    • US14140727
    • 2013-12-26
    • Intermolecular Inc.
    • Amol Joshi
    • H01L21/66H01L21/28
    • H01L22/14H01L21/28026H01L22/20
    • Provided are methods of high productivity combinatorial (HPC) screening of work function materials. Multiple test materials may be deposited as separate blanket layers on the same substrate while still forming individual interfaces with a common base layer. The thickness of each test material layer ensures that its work function properties are not impacted when other layers are deposited over that layer. A method may involve depositing a blocking layer over the base layer and selectively removing the blocking layer from a first site isolated region. A first test material is then deposited as a blanket layer and forms an interface with the base layer in that first region only. The first test material layer and the blocking layer are selectively removed from a second site isolated region followed by depositing a second test material layer as another blanket layer, which forms an interface with the base layer in the second region only.
    • 提供了工作功能材料的高生产率组合(HPC)筛选方法。 多个测试材料可以作为单独的覆盖层沉积在同一衬底上,同时仍然与公共基底层形成单独的界面。 每个测试材料层的厚度确保当其它层沉积在该层上时,其功函数特性不受影响。 一种方法可以包括在基底层上沉积阻挡层,并从第一位置隔离区选择性地去除阻挡层。 然后将第一测试材料沉积为覆盖层,并且仅在该第一区域中与基底层形成界面。 第一测试材料层和阻挡层从第二位置分离区域选择性地去除,随后沉积作为另一覆盖层的第二测试材料层,其仅与第二区域中的基层形成界面。
    • 9. 发明申请
    • Reduction of native oxides by annealing in reducing gas or plasma
    • 还原气体或等离子体中还原天然氧化物
    • US20150118828A1
    • 2015-04-30
    • US14068906
    • 2013-10-31
    • Intermolecular Inc.
    • Frank GreerAmol JoshiKevin KashefiAlbert Sanghyup LeeAbhijit PetheJ Watanabe
    • H01L21/28H01L21/02
    • H01L21/28158C23C16/0218C23C16/45525H01L21/02175H01L21/0228H01L21/28194H01L21/28238
    • Native oxide growth on germanium, silicon germanium, and InGaAs undesirably affects CET (capacitive equivalent thickness) and EOT (effective oxide thickness) of high-k and low-k metal-oxide layers formed on these semiconductors. Even if pre-existing native oxide is initially removed from the bare semiconductor surface, some metal oxide layers are oxygen-permeable in thicknesses below about 25 Å thick. Oxygen-containing species used in the metal-oxide deposition process may diffuse through these permeable layers, react with the underlying semiconductor, and re-grow the native oxide. To eliminate or mitigate this re-growth, the substrate is exposed to a gas or plasma reductant (e.g., containing hydrogen). The reductant diffuses through the permeable layers to react with the re-grown native oxide, detaching the oxygen and leaving the un-oxidized semiconductor. The reduction product(s) resulting from the reaction may then be removed from the substrate (e.g., driven off by heat).
    • 在锗,硅锗和InGaAs上的天然氧化物生长不利地影响在这些半导体上形成的高k和低k金属氧化物层的CET(电容等效厚度)和EOT(有效氧化物厚度)。 即使预先存在的原生氧化物最初从裸露的半导体表面去除,一些金属氧化物层的厚度可以在大约25埃的厚度下透氧。 在金属氧化物沉积工艺中使用的含氧物质可以扩散通过这些可渗透层,与下面的半导体反应,并重新生长天然氧化物。 为了消除或减轻这种再生长,将基底暴露于气体或等离子体还原剂(例如含有氢气)中。 还原剂通过可渗透层扩散以与再生的天然氧化物反应,分离氧并留下未氧化的半导体。 然后可以从反应物中除去由反应产生的还原产物(例如,通过加热驱除)。