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Spectroscopic ellipsometry : principles and applications
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Spectroscopic ellipsometry : principles and applications

著者: Hiroyuki Fujiwara
出版商: Chichester, England ; Hoboken, NJ : John Wiley & Sons, ©2007.
版本/格式:   图书 : 英语查看所有的版本和格式
提要:

Ellipsometry is a powerful tool used for the characterization of thin films and multi-layer semiconductor structures. This book deals with fundamental principles and applications of spectroscopic  再读一些...

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材料类型: 互联网资源
文件类型: 书, 互联网资源
所有的著者/提供者: Hiroyuki Fujiwara
ISBN: 9780470016084 0470016086
OCLC号码: 71507562
描述: xviii, 369 p. : ill. ; 24 cm.
内容: 1.1 Features of Spectroscopic Ellipsometry 1 --
1.2 Applications of Spectroscopic Ellipsometry 3 --
1.3 Data Analysis 5 --
1.4 History of Development 7 --
1.5 Future Prospects 9 --
2 Principles of Optics 13 --
2.1 Propagation of Light 13 --
2.1.1 Propagation of One-Dimensional Waves 13 --
2.1.2 Electromagnetic Waves 18 --
2.1.3 Refractive Index 19 --
2.2 Dielectrics 24 --
2.2.1 Dielectric Polarization 24 --
2.2.2 Dielectric Constant 25 --
2.2.3 Dielectric Function 29 --
2.3 Reflection and Transmission of Light 32 --
2.3.1 Refraction of Light 32 --
2.3.2 p- and s-Polarized Light Waves 33 --
2.3.3 Reflectance and Transmittance 39 --
2.3.4 Brewster Angle 40 --
2.3.5 Total Reflection 42 --
2.4 Optical Interference 43 --
2.4.1 Optical Interference in Thin Films 43 --
2.4.2 Multilayers 46 --
3 Polarization of Light 49 --
3.1 Representation of Polarized Light 49 --
3.1.1 Phase of Light 49 --
3.1.2 Polarization States of Light Waves 50 --
3.2 Optical Elements 52 --
3.2.1 Polarizer (Analyzer) 53 --
3.2.2 Compensator (Retarder) 57 --
3.2.3 Photoelastic Modulator 58 --
3.2.4 Depolarizer 59 --
3.3 Jones Matrix 60 --
3.3.1 Jones Vector 60 --
3.3.2 Transformation of Coordinate Systems 62 --
3.3.3 Jones Matrices of Optical Elements 66 --
3.3.4 Representation of Optical Measurement / Jones Matrices 68 --
3.4 Stokes Parameters 70 --
3.4.1 Definition of Stokes Parameters 70 --
3.4.2 Poincare Sphere 72 --
3.4.3 Partially Polarized Light 75 --
3.4.4 Mueller Matrix 77 --
4 Principles of Spectroscopic Ellipsometry 81 --
4.1 Principles of Ellipsometry Measurement 81 --
4.1.1 Measured Values in Ellipsometry 81 --
4.1.2 Coordinate System in Ellipsometry 84 --
4.1.3 Jones and Mueller Matrices of Samples 86 --
4.2 Ellipsometry Measurement 87 --
4.2.1 Measurement Methods of Ellipsometry 87 --
4.2.2 Rotating-Analyzer Ellipsometry (RAE) 93 --
4.2.3 Rotating-Analyzer Ellipsometry with Compensator 97 --
4.2.4 Rotating-Compensator Ellipsometry (RCE) 99 --
4.2.5 Phase-Modulation Ellipsometry (PME) 104 --
4.2.6 Infrared Spectroscopic Ellipsometry 106 --
4.2.7 Mueller Matrix Ellipsometry 111 --
4.2.8 Null Ellipsometry and Imaging Ellipsometry 113 --
4.3 Instrumentation for Ellipsometry 117 --
4.3.1 Installation of Ellipsometry System 117 --
4.3.2 Fourier Analysis 120 --
4.3.3 Calibration of Optical Elements 122 --
4.3.4 Correction of Measurement Errors 127 --
4.4 Precision and Error of Measurement 130 --
4.4.1 Variation of Precision and Error with Measurement Method 131 --
4.4.2 Precision of ([psi], [Delta]) 135 --
4.4.3 Precision of Film Thickness and Absorption Coefficient 137 --
4.4.4 Depolarization Effect of Samples 139 --
5 Data Analysis 147 --
5.1 Interpretation of ([psi], [Delta]) 147 --
5.1.1 Variations of ([psi], [Delta]) with Optical Constants 147 --
5.1.2 Variations of ([psi], [Delta]) in Transparent Films 150 --
5.1.3 Variations of ([psi], [Delta]) in Absorbing Films 155 --
5.2 Dielectric Function Models 158 --
5.2.1 Lorentz Model 160 --
5.2.2 Interpretation of the Lorentz Model 162 --
5.2.3 Sellmeier and Cauchy Models 170 --
5.2.4 Tauc-Lorentz Model 170 --
5.2.5 Drude Model 173 --
5.2.6 Kramers-Kronig Relations 176 --
5.3 Effective Medium Approximation 177 --
5.3.1 Effective Medium Theories 177 --
5.3.2 Modeling of Surface Roughness 181 --
5.3.3 Limitations of Effective Medium Theories 184 --
5.4 Optical Models 187 --
5.4.1 Construction of Optical Models 187 --
5.4.2 Pseudo-Dielectric Function 189 --
5.4.3 Optimization of Sample Structures 191 --
5.4.4 Optical Models for Depolarizing Samples 191 --
5.5 Data Analysis Procedure 196 --
5.5.1 Linear Regression Analysis 196 --
5.5.2 Fitting Error Function 199 --
5.5.3 Mathematical Inversion 200 --
6 Ellipsometry of Anisotropic Materials 209 --
6.1 Reflection and Transmission of Light by Anisotropic Materials 209 --
6.1.1 Light Propagation in Anisotropic Media 209 --
6.1.2 Index Ellipsoid 213 --
6.1.3 Dielectric Tensor 215 --
6.1.4 Jones Matrix of Anisotropic Samples 217 --
6.2 Fresnel Equations for Anisotropic Materials 222 --
6.2.1 Anisotropic Substrate 222 --
6.2.2 Anisotropic Thin Film on Isotropic Substrate 224 --
6.3 4 x 4 Matrix Method 226 --
6.3.1 Principles of the 4 x 4 Matrix Method 226 --
6.3.2 Calculation Method of Partial Transfer Matrix 232 --
6.3.3 Calculation Methods of Incident and Exit Matrices 233 --
6.3.4 Calculation Procedure of the 4 x 4 Matrix Method 236 --
6.4 Interpretation of ([psi], [Delta]) for Anisotropic Materials 237 --
6.4.1 Variations of ([psi], [Delta]) in Anisotropic Substrates 237 --
6.4.2 Variations of ([psi], [Delta]) in Anisotropic Thin Films 241 --
6.5 Measurement and Data Analysis of Anisotropic Materials 243 --
6.5.1 Measurement Methods 243 --
6.5.2 Data Analysis Methods 245 --
7 Data Analysis Examples 249 --
7.1 Insulators 249 --
7.1.1 Analysis Examples 249 --
7.1.2 Advanced Analysis 252 --
7.2 Semiconductors 256 --
7.2.1 Optical Transitions in Semiconductors 256 --
7.2.2 Modeling of Dielectric Functions 258 --
7.2.3 Analysis Examples 262 --
7.2.4 Analysis of Dielectric Functions 268 --
7.3 Metals/Semiconductors 276 --
7.3.1 Dielectric Function of Metals 276 --
7.3.2 Analysis of Free-Carrier Absorption 281 --
7.3.3 Advanced Analysis 286 --
7.4 Organic Materials/Biomaterials 287 --
7.4.1 Analysis of Organic Materials 287 --
7.4.2 Analysis of Biomaterials 292 --
7.5 Anisotropic Materials 294 --
7.5.1 Analysis of Anisotropic Insulators 295 --
7.5.2 Analysis of Anisotropic Semiconductors 296 --
7.5.3 Analysis of Anisotropic Organic Materials 299 --
8 Real-Time Monitoring by Spectroscopic Ellipsometry 311 --
8.1 Data Analysis in Real-Time Monitoring 311 --
8.1.1 Procedures for Real-Time Data Analysis 312 --
8.1.2 Linear Regression Analysis (LRA) 313 --
8.1.3 Global Error Minimization (GEM) 317 --
8.1.4 Virtual Substrate Approximation (VSA) 323 --
8.2 Observation of Thin-Film Growth by Real-Time Monitoring 328 --
8.2.1 Analysis Examples 328 --
8.2.2 Advanced Analysis 331 --
8.3 Process Control by Real-Time Monitoring 333 --
8.3.1 Data Analysis in Process Control 334 --
8.3.2 Process Control by Linear Regression Analysis (LRA) 334 --
8.3.3 Process Control by Virtual Substrate Approximation (VSA) 340 --
1 Trigonometric Functions 345 --
2 Definitions of Optical Constants 347 --
3 Maxwell's Equations for Conductors 349 --
4 Jones-Mueller Matrix Conversion 353 --
5 Kramers-Kronig Relations 357.
责任: Hiroyuki Fujiwara.
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