タイトル「2020年度学部シラバス Undergraduate School」、フォルダ「40_専門科目 Specialized Engineering Subjects-02_電気電子情報工学課程
シラバスの詳細は以下となります。
Subject Name   Electronic Device and Photonics Engineering  
Teacher Name   KIMURA Munehiro,Tomoyuki Sasaki  
Class    
Semester   the first term   Term   The first term  
Lecture Form   lecture   Unit Count  
Matter of Prepare    
Note   12CAA3  
Instructor’ room /contact information KIMURA: Room 607, Denki-building 1, Ext 9540
SASAKI: Room 604, Denki-building 1, Ext 9530  
Purpose and objective Goals Students study the foundation of electronic properties with a focus on the behavior of electrons and the basic knowledge required to understand the electronic properties of solids and acquired from the viewpoints of electrons, atoms, molecules and crystals.
The electron-photon interaction process and the operating principle of laser devices, which are the keys for studying photonics, are learned. Students also study foundational properties of light waves based on Maxwell’s equations. Additionally, main photonic devices for optical communication systems are learned.
[Educational Objectives]
(C) Acquire technical knowledge required for engineers in the electrical, electronics and information engineering field
(C-1) Acquire basic technical knowledge required for engineers in all three fields:  electric energy system and control engineering, electronic devices and photonics engineering, and information, telecommunication and control systems.
[Goals]
- Understand the basic properties of electronic devices and materials
- Understand the mechanism of electrical conduction and the band structure
- Understand the basic properteis of metals, semicondoctors, dielectric materials, magnetic materials, and superconductors
- Understand the characteristics of semiconductor devices, recording materials, sensors
- Understand the operating principle of lasers
- Understand the foundational properties of light waves including polarization, refraction, and reflection
- Understand the operating principle of devices for optical communication systems  
Keywords Electronic property, band theory, atomic structure, crystal structure, metal, semiconductor, dielectric material, magnetic material, sensor, photon, spontaneous emission, stimulated emission, stimulated absorption, laser, photodiode, Maxwell’s equations, polarization, refraction, reflection, absorption, wavelength dispersion, optical fiber, optical amplifier, optical modulator  
Contents and method [The first half]
First, electric devices and materials are outlined with a focus on the electric conduction and the band theory. Next, lectures are given on metals, semiconductors, dielectric materials, magnetic materials, and superconductors, and then roles of these materials in semiconductor devices, recording materials, and sensors are outlined. By working through the exercise problems in the text book and the slides, understanding is further deepened.
[The latter half]
First, the foundation of electron-photon interactions, the operating principle of lasers, and the properties of laser beams are outlined. Next, students study properties of light waves based on Maxwell’s equations. Photodetectors, optical fibers, optical amplifiers, and optical modulators, which are primary devices for optical communication system, are also outlined. Teaching materials with the exercise problems are provided in the class.  
Topics [The first half]
Week 1: Materials and Physical Properties for Electric Devices
Week 2: Conductors and Superconductors
Week 3: Resistor Materials and Thermal Elements
Week 4: Semiconductors
Week 5: Magnetic Materials and Spintronics
Week 6: Dielectric Materials
Week 7: Sensors
Week 8: Examination (of W1 to 7)
[The latter half]
Week 9: Photon
Week 10: Foundation of Lasers
Week 11: Photodetectors
Week 12: Light Waves 1
Week 13: Light Waves 2
Week 14: Optical Communications 1
Week 15: Optical Communications 2
Week 16: Examination (of W9 to 15)  
Outside-classroom work (preparation and review) To enhance a learning effect, students are encouraged to refer to their textbook etc. to prepare for and review the lecture for around 90 minutes each.  
Textbooks [The first half] N. Ichinose, Denki Denshi Kinou Zairyou, 3rd ed. (Ohm)
[The latter half] Printed materials provided in the class.  
Reference materials [The first half]
- H. Yaguchi, Shohokara Manabu Kotai Butsurigaku (Kodansha Scientific)
- The Institute of Electrical Engineering of Japan, Denshibussei Kiso (The Institute of Electrical Engineering of Japan).
- S. Aoki, Denshi Bussei Kogaku (The Institute of Electronics, Information and Communication Engineering)
- T. Matsuzawa, K. Takahashi, and K. Saito., Denshi Bussei (Morikita)
[The latter half]
- H. Ito, Photonics Kiso (Asakura)
- Y. Suematsu and K. Kobayashi, Photonics (Ohm)
- J. Sakai, Hikari Electronics Nyumon (Morikita)
- T. Jinbo, Hikari Electronics (Ohm)
- K. Tada and T. Matsumoto, Optical, Dielectric and Magnetic Properties of Materials (Corona)
- A. Yariv and P. Yeh, Photonics: Optical Electronics in Modern Communications (Oxford Univ. Press)  
Evaluation method and Assessment points In the first half, the grade is determined by the results of reports (15 points), quizzes in the classes (10 points), and first examination (25 points). In the latter half, the grade is determined by the result of latter examination (50 points). The final grade is determined by the total points of the first and latter half. The information in this course is the foundation of electronic devices and photonics engineering but covers a wide range. It is impossible to understand them and retain an understanding simply by attending lectures. Therefore, preparations for and reviews of the classes are essential.  
Prerequisite / other notes The study of this course is developed and deepened in “Electric and Electronic Materials 1,” “Electric and Electronic Materials 2,” “Photonics 1,” “Photonics 2,” and “Optical Properties of Materials.”  
Reference homepage [The first half] http://alcllan.nagaokaut.ac.jp/kimura/lecture/material2/index.html
[The latter half] https://whs.nagaokaut.ac.jp/hertz/  
Reference URLs http://alcllan.nagaokaut.ac.jp/kimura/lecture/material2/index.html, https://whs.nagaokaut.ac.jp/hertz/  
Remarks  
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