Aerospace Control2 |
YONEDA, Hiroshi |
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【Aerospace Engineering・2nd semester】
19-1-0330-2610 |
1. |
Outline |
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This course provides the fundamentals in modern control theory centered on the state-space representation - as a continuation of classical control theory centered on the transfer function in Aerospace Control 1. This course includes laboratory experiments.
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2. |
Objectives |
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- Derive and solve the state-space equations - Understand Stability, Controllability and Observability - Design dynamic compensators via state feedback, pole allocation and observer - Explain linear quadratic optimal regulators - Understand the control of servo systems
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3. |
Grading Policy |
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Homework: 20%, Mid-term exam: 40%, Final exam: 40%
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4. |
Textbook and Reference |
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Textbook :佐藤和也、下本陽一、熊澤良典『はじめての現代制御理論』(講談社)ISBN-13: 978-4061565081 Reference:小郷寛、美多勉『システム制御理論入門』(実教出版)ISBN-13: 978-4407022056 川田昌克『MATLAB/Simulinkによる現代制御入門』(森北出版)ISBN-13: 978-4627920415 森泰親『わかりやすい現代制御理論』(森北出版)ISBN-13: 978-4627921412
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5. |
Requirements (Assignments) |
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Linear Algebra, Aerospace Control 1
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6. |
Note |
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7. |
Schedule |
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1. Classical control theory and Modern control theory |
2. State Variable Analysis |
3. State Equations and Transfer Functions |
4. Solution of State Equations (Variation of constants |
5. Solution of State Equations (Laplace transformation) |
6. Stability |
7. Similarity Transformation |
8. Controllability and Observability |
9. Mid-term exam |
10. Pole allocation |
11. Observer |
12. Optimal regulator (Introduction) |
13. Optimal regulator (Design) |
14. Servo system (Introduction) |
15. Servo system (Design) |
|
1. |
Outline |
|
This course provides the fundamentals in modern control theory centered on the state-space representation - as a continuation of classical control theory centered on the transfer function in Aerospace Control 1. This course includes laboratory experiments.
|
2. |
Objectives |
|
- Derive and solve the state-space equations - Understand Stability, Controllability and Observability - Design dynamic compensators via state feedback, pole allocation and observer - Explain linear quadratic optimal regulators - Understand the control of servo systems
|
3. |
Grading Policy |
|
Homework: 20%, Mid-term exam: 40%, Final exam: 40%
|
4. |
Textbook and Reference |
|
Textbook :佐藤和也、下本陽一、熊澤良典『はじめての現代制御理論』(講談社)ISBN-13: 978-4061565081 Reference:小郷寛、美多勉『システム制御理論入門』(実教出版)ISBN-13: 978-4407022056 川田昌克『MATLAB/Simulinkによる現代制御入門』(森北出版)ISBN-13: 978-4627920415 森泰親『わかりやすい現代制御理論』(森北出版)ISBN-13: 978-4627921412
|
5. |
Requirements (Assignments) |
|
Linear Algebra, Aerospace Control 1
|
6. |
Note |
|
|
7. |
Schedule |
|
1. Classical control theory and Modern control theory |
2. State Variable Analysis |
3. State Equations and Transfer Functions |
4. Solution of State Equations (Variation of constants |
5. Solution of State Equations (Laplace transformation) |
6. Stability |
7. Similarity Transformation |
8. Controllability and Observability |
9. Mid-term exam |
10. Pole allocation |
11. Observer |
12. Optimal regulator (Introduction) |
13. Optimal regulator (Design) |
14. Servo system (Introduction) |
15. Servo system (Design) |
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