Course Objectives
1. Understand the concepts of complex numbers, polar forms, holomorphic functions and conformal transformations, and be able to solve exercise about them.
2. Understand the concepts of Cauchy's integral theorem, Laurent series and residues, and be able to answer questions relating to them.
Rubric
| Ideal Level | Standard Level | Unacceptable Level |
Achievement 1 | Be able to clearly explain the concepts of complex numbers, polar forms, holomorphic functions and conformal transformations, and be able to accurately solve practice problems related to this. | Be able to solve practice problems related to complex numbers, polar forms, holomorphic functions and conformal transformations. | Unable to solve practice problems related to complex numbers, polar forms, holomorphic functions and conformal transformations. |
Achievement 2 | Be able to clearly explain the concepts of Cauchy's integral theorem, Laurent series and residues, and be able to accurately solve practice problems related to this. | Be able to solve practice problems related to Cauchy's integral theorem, Laurent series and residues. | Unable to solve practice problems related to Cauchy's integral theorem, Laurent series and residues. |
Assigned Department Objectives
JABEE (c)
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JABEE (C)
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JABEE (g)
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Teaching Method
Outline:
This course deals with holomorphic functions, extending the differentiation and integration on real numbers to complex numbers.
Style:
This is an omnibus class. The class will consist mainly of lectures, with assignments and quizzes as appropriate.
The first eight lessons are worth 50 points (handled by Okazaki), and the 9th to 15th lessons are worth 50 points (handled by Nakagawa), for a total of 100 points.
Notice:
Self-study is recommended.
Characteristics of Class / Division in Learning
Course Plan
|
|
|
Theme |
Goals |
1st Semester |
1st Quarter |
1st |
Complex Numbers (Okazaki) |
To be able to solve relevant questions.
|
2nd |
Polar Forms, Definition of Complex Functions (Okazaki) |
To be able to solve relevant questions.
|
3rd |
Basic Complex Functions (Okazaki) |
To be able to solve relevant questions.
|
4th |
Limits and Continuity of Complex Functions (Okazaki) |
To be able to solve relevant questions.
|
5th |
Differentiability of Complex Functions, Holomorphic Functions (Okazaki) |
To be able to solve relevant questions.
|
6th |
Cauchy–Riemann Equations (Okazaki) |
To be able to solve relevant questions.
|
7th |
Holomorphic Functions and Their Derivatives (Okazaki) |
To be able to solve relevant questions.
|
8th |
Integration of Complex Functions (Okazaki) |
To be able to solve relevant questions.
|
2nd Quarter |
9th |
Cauchy's Integral Theorem (Nakagawa) |
To be able to solve relevant questions.
|
10th |
Cauchy's Integral Formula (Nakagawa) |
To be able to solve relevant questions.
|
11th |
Taylor Series (Nakagawa) |
To be able to solve relevant questions.
|
12th |
Laurent Series (Nakagawa) |
To be able to solve relevant questions.
|
13th |
Residue (Nakagawa) |
To be able to solve relevant questions.
|
14th |
Residue Theorem (Nakagawa) |
To be able to solve relevant questions.
|
15th |
Final Examination (Nakagawa) |
|
16th |
|
|
Evaluation Method and Weight (%)
| Examination | Assignments, quizzes etc. | Total |
Subtotal | 90 | 10 | 100 |
Basic Proficiency | 0 | 0 | 0 |
Specialized Proficiency | 90 | 10 | 100 |
Cross Area Proficiency | 0 | 0 | 0 |