- Lecturer
- Ando Makoto Hirokawa Jiro
- Place
- Tue7-8(S323)
- Credits
- Lecture2 Exercise0 Experiment0
- Code
- 50101
- Syllabus updated
- 2011/3/23
- Lecture notes updated
- 2011/3/23
- Semester
- Spring Semester
Outline of lecture
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1. 蠕ｮ蟆上ム繧､繝昴ｼ繝ｫ縺九ｉ縺ｮ謾ｾ蟆
2. 繝槭け繧ｹ繧ｦ繧ｧ繝ｫ縺ｮ譁ｹ遞句ｼ上ｮ蟆主ｺ縺ｨ隗｣驥
3. 髮ｻ逎∫阜縺ｮ遨榊陦ｨ遉ｺ
4. 髮ｻ逎∫阜縺ｮ遲我ｾ｡螳夂炊
5. 蠅逡梧擅莉ｶｼ檎ｫｯ轤ｹ譚｡莉ｶｼ梧叛蟆譚｡莉ｶ
6. 豕｢貅舌ｮ縺ｪ縺譁画ｬ｡譁ｹ遞句ｼ上ｮ隗｣
7. 螟画焚蛻髮｢縺ｫ繧医▲縺ｦ隗｣縺代ｋ蠅逡悟､蝠城｡
8. 蜊顔┌髯仙ｰ惹ｽ捺攸縺ｮ蝗樊釜迴ｾ雎｡
9. 蜀遲貞ｰ惹ｽ薙↓繧医ｋ蝗樊釜迴ｾ雎｡
Derivation and interpretation of Maxwell's equations, radiation from a dipole, direct integration of the field equations, field equivalence theorem, boundary, edge and radiation conditions, solutions for homogeneous equations, canonical problems sloved by separation of variables and diffraction from a half plane or a cylinder
Purpose of lecture
The objective of this course is to provide the basic methodology in the boundary value problems of electromagnetic waves. Some canonical problems in electromagnetic wave scattering are solved. Important concept of 窶拉ield equivalence theorem窶 is explained. The following topics are included.
Plan of lecture
01. Radiation from a source.
02. Dipole, Uniqueness, Poynting Theorem, Far field.
03. Linear differential equations.
04. Derivation and interpretation of Maxwell窶冱 equations.
05. Direct integration of the field equations.
06. Field equivalence theorem.
07. Boundary, edge and radiation conditions.
08. Solutions for homogeneous equations.
09. Canonical problems sloved by separation of variables.
10. Diffraction from a half plane.
11. Diffraction from a cylinder.
Textbook and reference
Lecture note and copies of pages in classical books by Stratton J. A.(1941), Harrington R.G.(1961) and by Segkiguchi T.(1976) are available during the course. Additional references are;
Yamashita E.ed. 窶戡nalysis Methods for Electromagnetic Wave Problems窶 Artech House (1990).
Yamashita E.ed. 窶戡pplication of Electromagnetic Wave Analysis窶, IEICE Japan (1993).
Related and/or prerequisite courses
Students should have completed courses of 窶戲lectricity and magnetism 窶 and 窶戲lectromagnetic waves窶 in the undergraduate course or its equivalence. It is also preferable to have finished 窶 electromagnetic wave transmission and the radio law窶.
Evaluation
Grade is based upon examination (about 80%) in the end of term and homework reports (about 20%) during the term.
Supplement
縲唇ffice hours縲
Students should contact with lecturers in advance by e-mail. The office hour is typically from 16:30 to 18:00 on Tuesdays.
