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    • 3. 发明授权
    • Strained-silicon for CMOS device using amorphous silicon deposition or silicon epitaxial growth
    • 应变硅,用于使用非晶硅沉积或硅外延生长的CMOS器件
    • US07429749B2
    • 2008-09-30
    • US10455489
    • 2003-06-04
    • Agajan SuvkhanovMohammad R. Mirabedini
    • Agajan SuvkhanovMohammad R. Mirabedini
    • H01L29/04
    • H01L29/78H01L21/26506H01L29/1054
    • An integrated circuit (IC) includes a strained-silicon layer formed by deposition of amorphous silicon onto either a region of a semiconductor layer that has been implanted with ions to create a larger spacing between atoms in a crystalline lattice of the semiconductor layer or a silicon-ion layer that has been epitaxially grown on the semiconductor layer to have an increased spacing between atoms in the silicon-ion layer. Alternatively, the IC includes a strained-silicon layer formed by silicon epitaxial growth onto the region of the semiconductor layer that has been implanted with ions. The IC also preferably includes a CMOS device that preferably, but not necessarily, incorporates sub-0.1 micron technology. The implanted ions may preferably be heavy ions, such as germanium ions, antimony ions or others. Ion implantation may be done with a single implantation process, as well as with multiple implantation processes.
    • 集成电路(IC)包括通过将非晶硅沉积在已经注入离子的半导体层的区域上形成的应变硅层,以在半导体层的晶格中形成较大的原子之间或硅 已经在半导体层上外延生长以在硅离子层中的原子之间具有增加的间隔。 或者,IC包括通过硅外延生长形成在已经注入离子的半导体层的区域上的应变硅层。 IC还优选地包括优选但不一定包含次0.1微米技术的CMOS器件。 注入的离子可以优选为重离子,例如锗离子,锑离子等。 离子注入可以通过单个注入工艺以及多次注入工艺完成。
    • 6. 发明授权
    • In-situ metrology system and method for monitoring metalization and other thin film formation
    • 用于监测金属化等薄膜形成的原位测量系统和方法
    • US07414721B1
    • 2008-08-19
    • US10328066
    • 2002-12-23
    • Agajan SuvkhanovYnhi Thi Le
    • Agajan SuvkhanovYnhi Thi Le
    • G01J4/00
    • G01B11/0641G01N21/211G01N21/8422G01N21/9501G01N2021/213G01N2021/8416G01N2021/8438H01L22/12
    • An in-line, in-process or in-situ and non-destructive metrology system, apparatus and method provides composition, quality and/or thickness measurement of a thin film or multi-layer thin film formed on a substrate in a thin film processing system. Particularly, the subject invention provides a spectroscopic ellipsometer performing spectroscopic ellipsometry while the wafer is in a thin film processing system. In one form, the spectroscopic ellipsometer is associated with a wet bench system portion of the thin film processing system. The spectroscopic ellipsometer obtains characteristic data regarding the formed thin film to calculate penetration depth (Dp) for a thin film formed on the substrate. Particularly, the ellipsometer obtains an extinction coefficient (k) which is used to calculate penetration depth (Dp). Penetration depth (Dp), being a unique function of the extinction coefficient (k) provides the information for the composition, quality and/or thickness monitoring of the thin film.
    • 在线,在制或原位和非破坏性的测量系统,装置和方法提供了在薄膜处理中形成在基底上的薄膜或多层薄膜的组成,质量和/或厚度测量 系统。 特别地,本发明提供了一种在晶片处于薄膜处理系统中时执行光谱椭偏仪的分光椭偏仪。 在一种形式中,光谱椭偏仪与薄膜处理系统的湿式台架系统部分相关联。 光谱椭偏仪获得关于所形成的薄膜的特征数据,以计算形成在基板上的薄膜的穿透深度(D< P< SUB)。 特别地,椭偏仪获得用于计算穿透深度的消光系数(k)。 作为消光系数(k)的唯一功能的穿透深度(D

      P)提供了薄膜的组成,质量和/或厚度监测的信息。

    • 8. 发明授权
    • Ion recoil implantation and enhanced carrier mobility in CMOS device
    • 离子反冲注入和CMOS器件中增强的载流子迁移率
    • US06982229B2
    • 2006-01-03
    • US10418375
    • 2003-04-18
    • Agajan SuvkhanovMohammad R. Mirabedini
    • Agajan SuvkhanovMohammad R. Mirabedini
    • H01L23/48
    • H01L21/823864H01L21/26506H01L21/26526H01L21/823807H01L29/1054
    • An integrated circuit (IC) includes a CMOS device formed above a semiconductor substrate having ions therein that are implanted in the semiconductor substrate by an ion recoil procedure. The IC preferably, but not necessarily, incorporates sub-0.1 micron technology in the CMOS device. The implanted ions may preferably be germanium ions. A strained-silicon layer is preferably, but not necessarily, formed above the ion-implanted layer of the semiconductor substrate. The strained-silicon layer may be formed by a silicon epitaxial growth on the ion-implanted layer or by causing the ions to recoil into the semiconductor substrate with such energy that a region of the semiconductor substrate in the vicinity of the surface thereof is left substantially free of the ions, thereby forming a strained-silicon layer in the substantially ion-free region.
    • 集成电路(IC)包括在其上具有离子的半导体衬底之上形成的CMOS器件,其通过离子反冲程序注入到半导体衬底中。 IC优选但不一定在CMOS器件中并入次0.1微米技术。 注入的离子可以优选为锗离子。 应变硅层优选但不一定形成在半导体衬底的离子注入层的上方。 应变硅层可以通过在离子注入层上的硅外延生长或通过使离子以这样的能量回到半导体衬底中形成,使得其表面附近的半导体衬底的区域基本上保持 没有离子,从而在基本上无离子的区域中形成应变硅层。