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    • 1. 发明申请
    • REMOTE PLASMA BURN-IN
    • 远程等离子体燃烧
    • WO2013052509A3
    • 2013-06-13
    • PCT/US2012058498
    • 2012-10-02
    • APPLIED MATERIALS INCLIANG JINGMEIJI LILIINGLE NITIN K
    • LIANG JINGMEIJI LILIINGLE NITIN K
    • H01L21/205H01L21/31
    • C23C16/345C23C16/452C23C16/56H01J37/32357H01J37/32862H01L21/02164H01L21/02211H01L21/02219H01L21/02274H01L21/02326
    • Methods of treating the interior of a plasma region are described. The methods include a preventative maintenance procedure or the start-up of a new substrate processing chamber having a remote plasma system. A new interior surface is exposed within the remote plasma system. The (new) interior surfaces are then treated by sequential steps of (1) forming a remote plasma from hydrogen-containing precursor within the remote plasma system and then (2) exposing the interior surfaces to water vapor. Steps (1)-(2) are repeated at least ten times to complete the burn-in process. Following the treatment of the interior surfaces, a substrate may be transferred into a substrate processing chamber. A dielectric film may then be formed on the substrate by flowing one precursor through the remote plasma source and combining the plasma effluents with a second precursor flowing directly to the substrate processing region.
    • 描述了处理等离子体区域内部的方法。 该方法包括预防性维护程序或启动具有远程等离子体系统的新基板处理室。 一个新的内表面暴露在远程等离子体系统内。 然后通过(1)在远程等离子体系统内由含氢前驱体形成远程等离子体,然后(2)将内表面暴露于水蒸汽,来处理(新)内表面。 步骤(1) - (2)重复至少十次以完成老化过程。 在处理内表面之后,可以将衬底转移到衬底处理室中。 然后可以通过使一个前驱体流过远程等离子体源并且将等离子体流出物与直接流向基板处理区域的第二前驱体组合来在基板上形成电介质膜。
    • 2. 发明申请
    • OXIDE-RICH LINER LAYER FOR FLOWABLE CVD GAPFILL
    • 用于流动CVD GAPFILL的氧化物衬里层
    • WO2012015610A3
    • 2012-04-26
    • PCT/US2011044219
    • 2011-07-15
    • APPLIED MATERIALS INCLI DONGQINGLIANG JINGMEIINGLE NITIN K
    • LI DONGQINGLIANG JINGMEIINGLE NITIN K
    • H01L21/316H01L21/205
    • H01L21/02164H01L21/02274H01L21/02304H01L21/02326H01L21/02337
    • Formation of gap-filling silicon oxide layer with reduced volume fraction of voids is described. Deposition involves formation of an oxygen-rich less-flowable liner layer before an oxygen-poor more-flowable gapfill layer. However, the liner layer is deposited within same chamber as gapfill layer. Liner layer and gapfill layer may both be formed by combining a radical component with an unexcited silicon-containing precursor (i.e. not directly excited by application of plasma power). Liner layer has more oxygen content than gapfill layer and deposits more conformally. Deposition rate of the gapfill layer may be increased by the presence of the liner layer. Gapfill layer may contain silicon, oxygen and nitrogen and be converted at elevated temperature to contain more oxygen and less nitrogen. Presence of the gapfill liner provides a source of oxygen underneath the gapfill layer to augment the gas phase oxygen introduced during the conversion.
    • 描述了具有减小的空隙体积分数的间隙填充氧化硅层的形成。 沉积涉及在贫氧的更易流动的间隙填充层之前形成富氧的较少流动的衬层。 然而,衬垫层沉积在与间隙填充层相同的腔室内。 衬里层和间隙填充层可以通过将自由基组分与未掺杂的含硅前体(即不通过施加等离子体功率直接激发)组合形成。 衬垫层具有比间隙填充层更多的氧含量,并且更保守地沉积。 间隙填充层的沉积速率可以通过衬垫层的存在而增加。 填隙层可能含有硅,氧和氮,并在高温下转化为含有更多的氧和较少的氮。 间隙填料衬垫的存在在间隙填充层下面提供氧气源,以增加在转化期间引入的气相氧。
    • 6. 发明申请
    • CONFORMAL LAYERS BY RADICAL-COMPONENT CVD
    • 通过放射性元素CVD的合适层
    • WO2011109148A3
    • 2012-02-23
    • PCT/US2011024378
    • 2011-02-10
    • APPLIED MATERIALS INCLIANG JINGMEICHEN XIAOLINLI DONGQINGINGLE NITIN K
    • LIANG JINGMEICHEN XIAOLINLI DONGQINGINGLE NITIN K
    • H01L21/318
    • H01L21/0217C23C16/345C23C16/452C23C16/56H01L21/02164H01L21/02271H01L21/02326H01L21/76837
    • Methods, materials, and systems are described for forming conformal dielectric layers containing silicon and nitrogen (e.g., silicon-nitrogen-hydrogen (Si-N-H) film) from a carbon-free silicon-and-nitrogen precursor and radical-nitrogen precursor. Carbon-free silicon-and-nitrogen precursor is predominantly excited by contact with radical-nitrogen precursor. Because silicon-and-nitrogen film is formed without carbon, conversion of film into hardened silicon oxide is done with less pore formation and less volume shrinkage. The deposited silicon-and-nitrogen-containing film may be wholly or partially converted to silicon oxide which allows optical properties of conformal dielectric layer to be selectable. The deposition of a thin silicon-and-nitrogen-containing film may be performed at low temperature to form a liner layer in a substrate trench. The low temperature liner layer is found to improve wetting properties and allows flowable films to more completely fill the trench.
    • 描述了用于形成含有硅和氮的保形电介质层(例如,硅 - 氮 - 氢(Si-N-H)膜)的方法,材料和系统,其来自无碳硅和氮前体和自由基 - 氮前体。 无碳硅氮前驱主要通过与自由基 - 氮前体接触激发。 由于无碳膜而形成硅 - 氮膜,因此,薄膜转化成硬化氧化硅可以减少孔形成和体积收缩。 沉积的含硅和氮的膜可以全部或部分地转化为允许保形介电层的光学特性可选择的氧化硅。 可以在低温下进行薄的含硅和氮的膜的沉积,以在衬底沟槽中形成衬垫层。 发现低温内衬层可改善润湿性能,并允许可流动膜更完全地填充沟槽。
    • 8. 发明申请
    • RADICAL STEAM CVD
    • 放射性CVD
    • WO2012094149A3
    • 2013-01-31
    • PCT/US2011066275
    • 2011-12-20
    • APPLIED MATERIALS INCLI DONGQINGLIANG JINGMEICHEN XIAOLININGLE NITIN K
    • LI DONGQINGLIANG JINGMEICHEN XIAOLININGLE NITIN K
    • H01L21/316
    • C23C16/308C23C16/045C23C16/452C23C16/56
    • Methods of forming silicon oxide layers are described. The methods include concurrently combining plasma-excited (radical) steam with an unexcited silicon precursor. Nitrogen may be supplied through the plasma-excited route (e.g. by adding ammonia to the steam) and/or by choosing a nitrogen-containing unexcited silicon precursor. The methods result in depositing a silicon-oxygen-and-nitrogen-containing layer on a substrate. The oxygen content of the silicon-oxygen-and-nitrogen-containing layer is then increased to form a silicon oxide layer which may contain little or no nitrogen. The increase in oxygen content may be brought about by annealing the layer in the presence of an oxygen-containing atmosphere and the density of the film may be increased further by raising the temperature even higher in an inert environment.
    • 描述形成氧化硅层的方法。 这些方法包括同时将等离子体激发(自由基)蒸汽与未催化的硅前体组合。 可以通过等离子体激发途径(例如通过向蒸汽中加入氨)和/或通过选择含氮的未催化的硅前体来供应氮。 该方法导致在衬底上沉积含硅 - 氧和氮的层。 然后增加硅 - 氧 - 和 - 含氮层的氧含量以形成可能含有很少或不含氮的氧化硅层。 氧含量的增加可以通过在含氧气氛的存在下退火层而实现,并且通过在惰性环境中更高的温度升高可以进一步提高膜的密度。