《应用光学 第3版 英文版》PDF下载

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  • 作  者:李林
  • 出 版 社:北京:北京理工大学出版社
  • 出版年份:2018
  • ISBN:9787568259217
  • 页数:260 页
图书介绍:本书是光电信息科学与工程和测控技术与仪器等专业的技术基础课教程。教材内容包括了几何光学、典型光学仪器原理、光度学、光纤光学系统、激光光学系统及红外光学系统等的基础理论和方法。它包括了此类专业学生必备的光学知识,为光学仪器、微光夜视、激光红外等学科奠定了理论基础和应用基础,在培养光学和光电类人才中具有重要的地位。本教材以及相对应的中文教材《应用光学》均获得了北京市精品教材,相对应的中文教材《应用光学》获得了国家十二五规划教材,以本教材内容为主的《技术光学》获得了教育部精品视频公开课,作者以此教材及相应的《应用光学》课程获得了北京市高等学校教学名师、北京市优秀教学团队带头人以及北京市教育创新标兵。本书可作为高等院校、高职高专院校的光电类专业教材,也可供有关的工程技术人员参考。

Chapter 1 Basic Principles of Geometrical Optics 1

1.1 Waves and Rays 1

1.2 Basic Laws of Geometrical Optics 4

1.3 Refractive Index and Speed of Light 5

1.4 Reversibility of Ray Paths and Total Internal Reflection 6

1.5 Vector Form of Basic Laws 9

1.6 Classification of Optical Systems and Concept of Imaging 10

1.7 Ideal Images and Ideal Optical Systems 13

Chapter 2 Image Formation of Symmetrical Systems Made from Spherical Surfaces 17

2.1 Ray Tracing Formulae for Symmetrical Systems Made from Spherical Surfaces 17

2.2 Sign Conventions 19

2.3 Imaging Characters and Ray Tracing in the Paraxial Region 21

2.4 Basic Formulae of the Paraxial Region 23

2.5 Cardinal Points of an Optical System 26

2.6 Principal Planes and Focal Points of a Single Refracting Surface 29

2.7 Principal Planes and Focal Points of a Coaxial Spheric System 30

2.8 Chart Illustration for Image Formation 32

2.9 Image Positions and Sizes 34

2.10 Magnifications of Optical Systems 37

2.11 The Optical Invariant 40

2.12 Relationship Between the Front and Back Effective Focal Lengths 41

2.13 Nodal Planes and Nodal Points 43

2.14 Image Height of the Object at Infinity 45

2.15 Combination of Ideal Optical Systems 46

2.16 Ray Tracing for Ideal Optical Systems 49

2.17 Equations for Calculating the Positions of the Principal Planes and Focal Points of a Single Lens 52

Chapter 3 Instruments for Human Eyes 58

3.1 Characteristics of the Eye 58

3.2 Principles of the Magnifier and the Microscope 62

3.3 Principle of the Telescope 66

3.4 Defects of Eyes and Diopter Accommodation of Optical Instruments 69

3.5 Spatial Depth of Focus and Stereoscopic Effect 71

3.6 Binocular Instruments 73

Chapter 4 Mirror and Prism Systems 77

4.1 Applications of Mirror and Prism Systems in Optical Instruments 77

4.2 Imaging Properties of Mirrors 78

4.3 Rotation of Mirrors 80

4.4 Prism and Its Unfolding 81

4.5 Roof Surfaces and Roof Prisms 86

4.6 Imaging Properties of the Parallel Glass Block and Prism Size Calculation 88

4.7 Determination of Image Orientations for Mirrors and Prisms 92

4.8 Combination of the Coaxial System and the Mirror and Prism System 96

4.9 Prism Rotation Law 97

Chapter 5 Selection of Image Rays in Optical Systems 103

5.1 Stop and Its Application 103

5.2 Selection of Imaging Rays in Telescope Systems 104

5.3 Selection of Imaging Rays in the Microscope and Telecentric System 111

5.4 Field Lenses 115

5.5 Depth of Field 116

5.6 Cold Stop Efficiency of Infrared Optical System 119

Chapter 6 Basics of Radiometry and Photometry 122

6.1 Solid Angle and Its Applications in Photometry 122

6.2 Basic Ideas in Radiometry 123

6.3 Relative Sensitivity of the Eye to Different Wavelengths 125

6.4 Basic Ideas in Photometry 127

6.5 Illuminance Formula and the Cosine Law of Luminous Intensity 133

6.6 Luminance of the Perfect Diffusive Surface 135

6.7 Luminance of the Light Beam in Optical Systems 136

6.8 Illuminance of the Image Plane 139

6.9 Illuminance and F Number of the Image Plane of the Camera Lens 141

6.10 Subjective Brightness of Human Eyes 143

6.11 Subjective Brightness when We Observe Through a Telescope 145

6.12 Calculation of Light Energy Loss in Optical Systems 147

Chapter 7 Image Quality of Optical Systems 153

7.1 Introduction 153

7.2 Color Dispersion and Chromatic Aberrations 154

7.3 The Axial Monochromatic Aberration—Spherical Aberration 156

7.4 Off-axial Monochromatic Aberrations 158

7.5 Aberration Curves 164

7.6 Wavefront Aberrations 168

7.7 Resolutions of Ideal Systems 170

7.8 Resolutions of Typical Systems 172

7.9 Optical Transfer Function 174

7.10 Application of Optical Transfer Function 178

7.11 Spot Diagrams 181

7.12 Encircled Energy 183

7.13 A Typical Example of Imaging Quality Evaluation of an Optical System 184

Chapter 8 Telescopes and Microscopes 193

8.1 Optical Performances of Telescopes 193

8.2 Objectives of Telescopes 198

8.3 Eyepieces of Telescopes 204

8.4 Introduction of Microscopes and Their Properties 208

8.5 Objectives and Eyepieces of Microscopes 211

Chapter 9 Cameras and Projectors 215

9.1 Characteristics of the Camera Lens 215

9.2 Typical Camera Lenses 217

9.3 Typical Projectors 220

9.4 Illumination Systems in Projectors 221

9.5 Projector Lenses 223

9.6 Energy Calculation of Projectors 226

Chapter 10 Other Optical Systems 230

10.1 Laser Optical Systems 230

10.2 Optical Information Processing Systems and Fourier-transform Lenses 239

10.3 Infrared Optical Systems 242

Vocabulary 251

Bibliography 259