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XuetangX

Optics

Sun Yat-sen University via XuetangX

Overview

Through this course, we can help students to fully understand the basic concepts related to modern optics, establish a clear physical picture, and develop the skill to analyze and solve complicated optical problems, to lay solid foundation for future professional courses and career. There are three main different requirements.

1. Highest level, to grasp the concepts and resolved the complicated problems including wave optics, crystal optics.

2. High level, be proficiency with geometric optics.

3. Understanding the contents related to thin film optics, Fourier optics.

The course mainly focuses on geometric optics, interference, diffraction, polarization, dispersion and an introduction to Fourier optics as well as basic concepts of nonlinear optics. The textbook used in this course is Optics, edited by Min Chen, Fuli Zhao, and Jianwen Dong, published by Higher Education Press, August 2018. Videos and slides of lectures, homework, and an online platform of optical design simulation are available in this course. The students need to earn a comprehensive evaluation score by attending lectures, completing assignments and finishing optical design simulation. By using big data statistical method, study suggestions and schedule optimization based on the analysis of student’s behavior during the course are available to effectively improve the students’ learning.



Syllabus

  • Chapter 01 Introduction
    • 1.1 Introduction to Optics Course
    • 1.2 Basic Concept of Light Wave 1
    • 1.3 Basic Concept of Light Wave 2
    • 1.4 Introduction to Photometry
    • 1.5 Optical Elements
  • Chapter 02 Geometrical Optics
    • 2.1 Fermat's Principle
    • 2.2 Geometric Optical Imaging
    • 2.3 Spherical Paraxial Imaging
    • 2.4 The Thin Lens
    • 2.5 Superposition of Light Waves
  • Chapter 03 Superposition of Waves
    • 3.1 Coherent Superposition
    • 3.2 Interference - phase profile view
    • 3.3 Yong's Double Silt Interference
    • 3.4 Quantitative Analysis of Young's Double Slit Interference
    • 3.5 Spatial Coherence
  • Chapter 04 Interference
    • 4.1 Application of Spatial Coherence
    • 4.2 Interference - amplitude view
    • 4.3 Thin-film Interference
    • 4.4 Introduction to Thin-film optics
    • 4.5 The Michelson Interferometer
  • Chapter 05 Diffraction I
    • 5.1 Temporal Coherence and Optical Tomographic Scanning Techniques
    • 5.2 Light diffraction
    • 5.3 The Huygens-Fresnel Principle
    • 5.4 Fraunhofer Diffraction of single slit
    • 5.5 Fraunhofer Diffraction Quantitative Analysis
  • Chapter 06 Diffraction II
    • 6.1 Discussion of Fraunhofer Diffraction
    • 6.2 The Resolving Power of Optical Instrument
    • 6.3 Rayleigh Criterion and Its Application
    • 6.4 Multiple-Beam Interference
    • 6.5 Grating structure and qualitative analysis
  • Chapter 07 Diffraction III
    • 7.1 Quantitative Analysis of Grating
    • 7.2 The Performance and Application of Grating
    • 7.3 X-ray Diffraction
    • 7.4 X-ray Diffraction Application
    • 7.5 Holography
  • Chapter 08 Polarization
    • 8.1 Polarization of Light
    • 8.2 Linear polarized light - polarization and analyzation
    • 8.3 Reflection and refraction on the Interface
    • 8.4 Birefringence Phenomenon
    • 8.5 Crystal Polarization
  • Chapter 09 Polarization II
    • 9.1 Elliptically Polarized Light and Circularly Polarized Light
    • 9.2 Application of Polarized Light Interference
    • 9.3 Optical Rotation Phenomena and Applications
    • 9.4 Introduction to Laser
    • 9.5 Concept of Laser and Classification of Laser
  • Chapter 10 Laser
    • 10.1 Conditions for Laser Generation
    • 10.2 Laser Generation - Case study
    • 10.3 Laser Resonator
    • 10.4 Introduction to Laser Application
    • 10.5 Introduction to Fourier Optics
  • Chapter 11 Introduction to Fourier Optics
    • 11.1 Fourier Transform Information Optics 1
    • 11.2 Fourier Transform Information Optics 2
    • 11.3 Phase contrast microscope
    • 11.4 Absorption of light
    • 11.5 Dispersion of light
  • Chapter 12 Nonlinear Optics
    • 12.1 Scattering of Light
    • 12.2 Introduction to Nonlinear Optics
    • 12.3 Nonlinear Optics
  • Chapter 13 Introduction to Quantum Physics
    • 13.1 Quantum property of light
    • 13.2 Photoelectric Effect
    • 13.3 Black-body Radiation
    • 13.4 Compton scattering
    • 13.5 Wave function of quantum mechanics
  • Chapter 14 Summary and Extended Reading
    • 14.1 Summary of Optics
    • 14.2 Introduction to Optical Simulation
    • 14.3 Metamaterials and photonics crystal
    • 14.4 Negative refraction
  • Final Exam

    Taught by

    ZHAO Fuli, Min Chen, DONG Jianwen, LUO Xin, and CHEN Xiaodong

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