Course title
光学基礎   [Fundamentals of Optics]
Course category	technology speciality courses	Requirement		Credit	2
Department		Year	2～4	Semester	3rd
Course type	3rd	Course code	022358
Instructor(s)
渡邊 敏行   [WATANABE Toshiyuki]
Facility affiliation	Faculty of Engineering	Office		Email address

Course description

The majority of LCD displays are composed of optical film laminates, and plastic components account for a higher percentage than electronic components. In order to understand the role of such plastic films in LCD TVs, a basic knowledge of optics is necessary. Also, in the glasses-free 3D TVs developed in recent years, the lens sheet plays an important role in displaying stereoscopic images. In this lecture, the principles of optics necessary for the design of optical materials will be explained in an easy-to-understand manner for chemistry students. Students will learn the fundamentals of optics that lead to material and device design mainly for optical fibers, optical waveguides, optical filters, optical diffraction gratings and lenses, and liquid crystal displays. Google Classroom Code tvh2xbx

Expected Learning

1. To be able to derive the wave equation from Maxwell's equation. 2. To be able to show that the solution of the wave equation is a transverse wave. 3. Understand the pointing vector. 4. Understand linear, elliptical, and circular polarization. 5. Understand and be able to freely handle the Junes vector and the Jones matrix. 6. Understand Stokes parameters. 7. Understand group velocity and material dispersion. 8. Understand Snell's law and Fresnel's equation. 9. 9. Understand interference. 10. Understand diffraction.

Course schedule

1. Introduction　 　　What will we learn in Basic Optics? A. Properties of light as a wave 2. Review of vector analysis. Scalar and vector products 3. Propagation of light in vacuum. Derivation of wave equation from Maxwell's equation 4. How to express waves in mathematical form Solution of the wave equation. Definition of planar wave.　 5. Energy of light Poynting vector, definition of transverse wave 6. What is polarization? 　　Understanding circular and elliptical polarization. What determines clockwise and counterclockwise polarization? 7. Summary of the first half of the lesson 8. Description of polarization by vectors and matrices 　　What is Jones vector and Stokes parameter? B. Propagation of light in a medium 9. Group velocity, material dispersion (What model can explain the wavelength dispersion of refractive index? C. Behavior of light at the interface of a medium 10. Laws of reflection and refraction, reflectance and transmittance1 Snell's law 11. Laws of reflection and refraction, reflectance and transmittance2 Fresnel's equation, Brewster's angle 12 Interference 13. Diffraction D. Geometrical optics 14. Basics of geometrical optics 　　　Focal length of lens 15. Summary of the second half of the class

Prerequisites

It is desirable that students have taken mechanics, electromagnetism, and vector analysis.

Required Text(s) and Materials

Introduction of Optics for Materials Engineers by Toshiyuki Watanabe, Asakura Shoten 2021

References

Assessment/Grading

Attendance, Midterm and Final examination. Evaluation will be carried out by score of reports and quizzes (20%) and the mid and final examination (80%). Grade distribution　 2017 S:2%, A:8%, B:16%, C:30%, D:34% 2018 S:7%, A:19%, B:37%, C:23%, D:14% 2019 S:7.0％ A:18.6% B:37.2% C:23.2% D:14.0% 2020 S:3.1%, A:15.6%, B:3.1%, C:62.5%, D:15.6% 2021 S:7.4% A:29.6% B:29.6% C:25.9% D:7.4%

Message from instructor(s)

Course keywords

Optics, refractive index, reflection, interference

Office hours

0.5〜1.0 hour after the lecture

Remarks 1

Remarks 2

Related URL

Lecture Language

Japanese

Language Subject

Last update

2/25/2022 9:33:39 AM