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    • 2. 发明申请
    • In situ deposition of a low K dielectric layer, barrier layer, etch stop, and anti-reflective coating for damascene application
    • 原位沉积低K电介质层,阻挡层,蚀刻停止和抗反射涂层,用于大马士革应用
    • US20060089007A1
    • 2006-04-27
    • US11301063
    • 2005-12-12
    • Judy Huang
    • Judy Huang
    • H01L21/4763H01L21/302H01L21/31
    • H01L21/76829C23C16/325C30B25/105C30B29/36H01L21/02381H01L21/02447H01L21/02532H01L21/0262H01L21/0276H01L21/0445H01L21/314H01L21/76801H01L21/76807H01L21/76834H01L23/53228H01L23/53238H01L23/5329H01L2924/0002Y10S438/931Y10S438/932Y10S438/952H01L2924/00
    • The present invention provides a SiC material, formed according to certain process regimes, useful as a barrier layer, etch stop, and/or an ARC, in multiple levels, including the pre-metal dielectric (PMD) level, in IC applications and provides a dielectric layer deposited in situ with the SiC material for the barrier layers, and etch stops, and ARCs. The dielectric layer can be deposited with different precursors as the SiC material, but preferably with the same or similar precursors as the SiC material. The present invention is particularly useful for ICs using high diffusion copper as a conductive material. The invention may also utilize a plasma containing a reducing agent, such as ammonia, to reduce any oxides that may occur, particularly on metal surfaces such as copper filled features. The invention also provides processing regimes that include using an organosilane as a silicon and carbon source, perhaps independently of any other carbon source or hydrogen source, and preferably in the absence of a substantial amount of oxygen to produce a SiC with a dielectric constant of less than 7.0. This particular SiC material is useful in complex structures, such as a damascene structure and is conducive to in situ deposition, especially when used in multiple capacities for the different layers, such as the barrier layer, the etch stop, and the ARC and can include in situ deposition of the associated dielectric layer(s).
    • 本发明提供了在IC应用中,根据某些工艺方案形成的SiC材料,其可用作包括前金属电介质(PMD)水平在内的多层次的阻挡层,蚀刻停止层和/或ARC,并且提供 原位沉积有用于阻挡层的SiC材料的介电层,以及蚀刻停止层和ARC。 介电层可以作为SiC材料沉积不同的前体,但优选与SiC材料相同或相似的前体沉积。 本发明对于使用高扩散铜作为导电材料的IC特别有用。 本发明还可以利用含有诸如氨的还原剂的等离子体来减少可能发生的任何氧化物,特别是在诸如铜填充特征的金属表面上。 本发明还提供了处理方案,其包括使用有机硅烷作为硅和碳源,可能独立于任何其它碳源或氢源,并且优选在不存在大量氧的情况下产生介电常数较小的SiC 超过7.0。 这种特殊的SiC材料可用于复杂的结构,例如镶嵌结构,并且有利于原位沉积,特别是当用于不同层的多个容量时,例如阻挡层,蚀刻停止层和ARC,并且可以包括 相关电介质层的原位沉积。
    • 3. 发明授权
    • Plasma treatment to enhance adhesion and to minimize oxidation of carbon-containing layers
    • 等离子体处理以增强附着力并使含碳层的氧化最小化
    • US06821571B2
    • 2004-11-23
    • US09336525
    • 1999-06-18
    • Judy Huang
    • Judy Huang
    • C23C1402
    • H01L21/02126C23C16/325C23C16/56H01L21/02211H01L21/02274H01L21/02323H01L21/0234H01L21/3105H01L21/314H01L21/3146H01L21/31633
    • The present invention generally provides improved adhesion and oxidation resistance of carbon-containing layers without the need for an additional deposited layer. In one aspect, the invention treats an exposed surface of carbon-containing material, such as silicon carbide, with an inert gas plasma, such as a helium (He), argon (Ar), or other inert gas plasma, or an oxygen-containing plasma such as a nitrous oxide (N2O) plasma. Other carbon-containing materials can include organic polymeric materials, amorphous carbon, amorphous fluorocarbon, carbon containing oxides, and other carbon-containing materials. The plasma treatment is preferably performed in situ following the deposition of the layer to be treated. Preferably, the processing chamber in which in situ deposition and plasma treatment occurs is configured to deliver the same or similar precursors for the carbon-containing layer(s). However, the layer(s) can be deposited with different precursors. The invention also provides processing regimes that generate the treatment plasma and systems which use the treatment plasma. The carbon-containing material can be used in a variety of layers, such as barrier layers, etch stops, ARCs, passivation layers, and dielectric layers.
    • 本发明通常提供了改进的含碳层的粘附性和抗氧化性,而不需要额外的沉积层。 一方面,本发明使用诸如氦(He),氩(Ar)或其它惰性气体等离子体或惰性气体等离子体的惰性气体等离子体处理含碳材料如碳化硅的暴露表面, 含有等离子体,如一氧化二氮(N2O)等离子体。 其它含碳材料可以包括有机聚合材料,无定形碳,无定形碳氟化合物,含碳氧化物和其它含碳材料。 等离子体处理优选在沉积待处理层之后原位进行。 优选地,其中发生原位沉积和等离子体处理的处理室被配置为递送含碳层的相同或相似的前体。 然而,该层可以用不同的前体沉积。 本发明还提供了产生处理等离子体的处理方案和使用处理等离子体的系统。 含碳材料可以用于各种层,例如阻挡层,蚀刻停止层,ARC,钝化层和电介质层。
    • 4. 发明授权
    • Plasma treatment to enhance adhesion and to minimize oxidation of carbon-containing layers
    • 等离子体处理以增强附着力并使含碳层的氧化最小化
    • US07144606B2
    • 2006-12-05
    • US10995002
    • 2004-11-22
    • Judy Huang
    • Judy Huang
    • C23C16/32C23C16/40C23C16/42C23C16/56B05D3/06C23C16/505
    • H01L21/02126C23C16/325C23C16/56H01L21/02211H01L21/02274H01L21/02323H01L21/0234H01L21/3105H01L21/314H01L21/3146H01L21/31633
    • The present invention generally provides improved adhesion and oxidation resistance of carbon-containing layers without the need for an additional deposited layer. In one aspect, the invention treats an exposed surface of carbon-containing material, such as silicon carbide, with an inert gas plasma, such as a helium (He), argon (Ar), or other inert gas plasma, or an oxygen-containing plasma such as a nitrous oxide (N2O) plasma. Other carbon-containing materials can include organic polymeric materials, amorphous carbon, amorphous fluorocarbon, carbon containing oxides, and other carbon-containing materials. The plasma treatment is preferably performed in situ following the deposition of the layer to be treated. Preferably, the processing chamber in which in situ deposition and plasma treatment occurs is configured to deliver the same or similar precursors for the carbon-containing layer(s). However, the layer(s) can be deposited with different precursors. The invention also provides processing regimes that generate the treatment plasma and systems which use the treatment plasma. The carbon-containing material can be used in a variety of layers, such as barrier layers, etch stops, ARCs, passivation layers, and dielectric layers.
    • 本发明通常提供了改进的含碳层的粘附性和抗氧化性,而不需要额外的沉积层。 一方面,本发明使用诸如氦(He),氩(Ar)或其它惰性气体等离子体或惰性气体等离子体的惰性气体等离子体处理含碳材料如碳化硅的暴露表面, 含有一氧化二氮(N 2 O 2 O)等离子体的等离子体。 其它含碳材料可以包括有机聚合材料,无定形碳,无定形碳氟化合物,含碳氧化物和其它含碳材料。 等离子体处理优选在沉积待处理层之后原位进行。 优选地,其中发生原位沉积和等离子体处理的处理室被配置为递送含碳层的相同或相似的前体。 然而,该层可以用不同的前体沉积。 本发明还提供了产生处理等离子体的处理方案和使用处理等离子体的系统。 含碳材料可以用于各种层,例如阻挡层,蚀刻停止层,ARC,钝化层和电介质层。
    • 6. 发明授权
    • Mixed frequency CVD process
    • 混合频率CVD工艺
    • US06358573B1
    • 2002-03-19
    • US09585258
    • 2000-06-02
    • Sébastien RaouxMandar MudholkarWilliam N. TaylorMark FodorJudy HuangDavid SilvettiDavid CheungKevin Fairbairn
    • Sébastien RaouxMandar MudholkarWilliam N. TaylorMark FodorJudy HuangDavid SilvettiDavid CheungKevin Fairbairn
    • H05H124
    • H01J37/32174C23C16/5096C23C16/517H01J37/32082
    • A substrate processing system that includes a ceramic substrate holder having an RF electrode embedded within the substrate holder and a gas inlet manifold spaced apart from the substrate holder. The gas inlet manifold supplies one or more process gases through multiple conical holes to a reaction zone of a substrate processing chamber within the processing system and also acts as a second RF electrode. Each conical hole has an outlet that opens into the reaction zone and an inlet spaced apart from the outlet that is smaller in diameter than said outlet. A mixed frequency RF power supply is connected to the substrate processing system with a high frequency RF power source connected to the gas inlet manifold electrode and a low frequency RF power source connected to the substrate holder electrode. An RF filter and matching network decouples the high frequency waveform from the low frequency waveform. Such a configuration allows for an enlarged process regime and provides for deposition of films, including silicon nitride films, having physical characteristics that were previously unattainable.
    • 一种衬底处理系统,其包括陶瓷衬底保持器,其具有嵌入衬底保持器内的RF电极和与衬底保持器间隔开的气体入口歧管。 气体入口歧管将一个或多个处理气体通过多个锥形孔提供到处理系统内的衬底处理室的反应区,并且还用作第二RF电极。 每个锥形孔具有通向反应区的出口和与出口间隔开的直径小于所述出口的入口。 混合频率RF电源与连接到气体入口歧管电极的高频RF电源和连接到衬底保持器电极的低频RF电源连接到衬底处理系统。 RF滤波器和匹配网络将高频波形与低频波形分离。 这种构造允许扩大的工艺方案并且提供具有先前无法实现的物理特性的膜(包括氮化硅膜)的沉积。
    • 9. 发明授权
    • Dispersions of silicalite and zeolite nanoparticles in nonpolar solvents
    • 硅沸石和沸石纳米颗粒在非极性溶剂中的分散体
    • US06533855B1
    • 2003-03-18
    • US09782985
    • 2001-02-13
    • Justin F. GaynorJudy Huang
    • Justin F. GaynorJudy Huang
    • C01B3702
    • B01D71/028C01B37/02C01B39/02
    • The present invention relates to chemical modifications of the surfaces of silicalite and high-silica zeolite nanoparticles permitting such particles to be dispersed in nonpolar hydrophobic solvents, and to the dispersions so produced and to interlayer dielectric layers, molecular sieve membranes and/or catalytic membranes formed from such dispersions, and to the fabrication of integrated circuits in the case of interlayer dielectric layers. A dispersion of silicalite or high-silica zeolite nanoparticles is formed in alkaline aqueous solution. The pH of the solution is reduced by multiple rinsing with deionized water to approximately pH of 9 or 10. The solution is then rendered acidic, typically pH between 2 and 3, by the addition of a suitable acid. The acidic solution is gradually intermixed with an alcohol under conditions of elevated temperature and/or reduced pressure to enhance the solvent evaporation rate. In this form, the silicalite or high-silica zeolite nanoparticles are reacted with reactants to cause the silanol groups on the surface to form direct silicon-hydrocarbon bonds or, in alternative embodiments, to undergo etherification. The silicalite particles thus modified may be redispersed into nonpolar solvents suitable for combination with binding agents and for the formation of dielectric layers on integrated circuits.
    • 本发明涉及允许这种颗粒分散在非极性疏水性溶剂中的硅沸石和高硅石沸石纳米颗粒的表面的化学改性,以及如此制备的分散体和形成的层间介电层,分子筛膜和/或催化膜 在这样的分散体中,并且在层间电介质层的情况下制造集成电路。 在碱性水溶液中形成硅沸石或高硅沸石纳米颗粒的分散体。 通过用去离子水多次冲洗至pH约为9或10,使溶液的pH降低。然后通过加入合适的酸将溶液呈酸性,通常为2至3。 酸性溶液在升高的温度和/或减压条件下逐渐与醇混合以提高溶剂蒸发速率。 在这种形式中,硅沸石或高硅石沸石纳米颗粒与反应物反应以使表面上的硅烷醇基团形成直接的硅 - 烃键,或者在替代实施方案中进行醚化。 如此改性的硅沸石颗粒可以再分散到适用于与粘合剂组合的非极性溶剂中并在集成电路上形成电介质层。