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    • 63. 发明授权
    • Spectroscopic rotating compensator ellipsometer system with pseudo-achromatic retarder system
    • 具有伪消色差延迟器系统的光谱旋转补偿器椭偏仪系统
    • US06822738B1
    • 2004-11-23
    • US10034800
    • 2001-12-28
    • Blaine D. JohsCraig M. Herzinger
    • Blaine D. JohsCraig M. Herzinger
    • G01N2100
    • G01J3/447G01J3/0224G01J4/00G01J2003/2866G01N21/211
    • Disclosed is a spectroscopic Ellipsometer having pseudo-achromatic compensator(s) having fast axes which vary with wavelength and which provide, a range of retardations, (that is, maximum retardance minus minimum retardance), of less than 90 degrees over a range of wavelengths, said range of retardations being bounded by a minimum of preferably at least 30 degrees, to a maximum of less than 135 degrees. Calibration is achieved by a Mathematical Regression based technique involving, where desirable, Parameterization of Calibration Parameters. Various Dimensional Data Set(s) obtained with the Spectroscopic Ellipsometer configured in a Sample, present” or in a Straight-through” configuration, are variously normalized to D.C., A.C. or combination D.C. and A.C. components. Sample analysis using a detector provided intensity signal simultaneously comprising 2&ohgr; and 4&ohgr; signals simultaneously, and use of un-normalized A.C. and/or D.C. signals in reflectance monitoring are also disclosed.
    • 公开了一种光谱椭圆计,其具有伪波消除补偿器,其具有随波长变化的快轴,并且在波长范围内提供小于90度的延迟范围(即最大延迟减去最小延迟) 所述延迟范围由最小至少30度的最小值限制到最大不超过135度。 通过基于数学回归的技术实现校准,该技术涉及校准参数的参数化。 使用配置在样品中的“或”直通“配置的样品中的光谱椭圆计数器获得的各种尺寸数据集被不同地归一化为D.C.,A.C.或组合D.C.和A.C.组分。 还公开了使用检测器提供的同时包含2omega和4omega信号的强度信号的样本分析,并且还公开了在反射率监测中使用未归一化的交直流信号和/或直流信号。
    • 64. 发明授权
    • Multiple tipped berek plate optical retarder elements for use in
spectroscopic ellipsometer and polarimeter systems
    • 用于光谱椭圆光度计和偏光计系统的多个倾斜的人造革板光学延迟器元件
    • US06118537A
    • 2000-09-12
    • US223822
    • 1999-01-04
    • Blaine D. JohsCraig M. HerzingerSteven E. Green
    • Blaine D. JohsCraig M. HerzingerSteven E. Green
    • G01J3/28G02B5/30G01N21/21
    • G02B5/3083G01J2003/2866
    • Disclosed are retarder systems, for entering retardation between orthogonal components of an electromagnetic beam of radiation, having first and second Berek-type retarders which each present with first and second essentially parallel sides. The first and second Berek-type retarders are oriented, as viewed in side elevation, with first and second sides of one Berek-type retarder being oriented other than parallel to first and second sides of the other Berek-type retarder. During use in a spectroscopic ellipsometer/polarimeter system, a beam of electromagnetic radiation exits in a propagation direction which is essentially undeviated and undisplaced from the direction of an incident beam of electromagnetic radiation, even when the retarder system is caused to rotate about the locus of the beam of electromagnetic radiation. A system with similarly oriented third and fourth Berek-type retarders, sequentially placed after the first and second Berek-type retarders, is also disclosed.
    • 公开了用于在电磁辐射束的正交部件之间输入延迟的延迟器系统,其具有第一和第二Berek型延迟器,每个Berek型延迟器具有第一和第二基本平行的侧面。 第一和第二Berek型延迟器从侧视图中被定向,其中一个Berek型延迟器的第一和第二侧面定向成不同于另一Berek型延迟器的第一和第二侧。 在光谱椭偏仪/偏振计系统中使用时,电磁辐射束在传播方向上离开,即使当延迟器系统绕电磁辐射的轨迹旋转 电磁辐射束。 还公开了具有相似方向的第三和第四Berek型延迟器的系统,其顺序地放置在第一和第二Berek型延迟器之后。
    • 65. 发明授权
    • Dielectric function parametric model, and method of use
    • 介电函数参数模型及其使用方法
    • US5796983A
    • 1998-08-18
    • US514959
    • 1995-08-14
    • Craig M. HerzingerBlaine D. Johs
    • Craig M. HerzingerBlaine D. Johs
    • H01L21/66G01N21/00
    • H01L22/12
    • Novel dielectric function parametric model oscillator structures comprised of finite order polynomials and/or essentially zero-width finite magnitude discontinuities in appropriate sequences, which novel oscillator structures are suitable for application in a Kronig-Kramer consistent dielectric function oscillator structure based mathematical model, are disclosed. The present invention method of application enables production of one-dimensional normalized dependent variable vs. independent variable evaluating look-up tables by application of convolution integration effected oscillator structure Gaussian broadening, as applied to finite order polynomials, without the requirement that numerical derivatives or integrations be performed. In use, addition of contributions from one or more said present invention oscillator structures allows determination of dependent variable values given independent variable values, without requiring subtraction of relatively large numbers. In addition only a relatively small set of essentially uncorrelated present invention oscillator structure finite order polynomial term coefficient and finite magnitude discontinuity magnitude defining mathematical model coefficients are required. The present invention dielectric function model oscillator structure mathematical model allows user determinable degrees of freedom which allow essentially any plot of dielectric function dependent vs. independent variable data to be modeled with a high degree of mathematical model coefficients.
    • 公开了新颖的介电函数参数模型振荡器结构,该结构由适当序列中的有限阶多项式和/或基本上零宽度有限幅度不连续性组成,该新型振荡器结构适用于基于Kronig-Kramer一致的介电函数振荡器结构的数学模型 。 本发明的应用方法能够通过应用卷积积分实现的振荡器结构高斯加宽,适用于有限阶多项式,而不需要数值导数或积分,从而生成一维归一化因变量与独立变量评估查找表。 被执行。 在使用中,从一个或多个所述本发明振荡器结构的贡献的添加允许确定给定独立变量值的因变量值,而不需要相减较大数目。 此外,仅需要一组基本上不相关的本发明的振荡器结构有限阶多项式项系数和限定数学模型系数的有限幅度不连续量级。 本发明的介电函数模型振荡器结构数学模型允许用户可确定的自由度,其允许使用高度的数学模型系数对基本上任何相对于独立可变数据的介电函数图进行建模。