Digital Teaching
In WiSe2022/23, regular face-to-face teaching is aimed at, but ultimately depends on the (short-term) regulatory requirements in response to the pandemic.
As an additional service, we will offer electronic material for self-study even with regular face-to-face classes.
Please be sure to register for the appropriate Moodle course as well. All current information and learning materials will be posted in Moodle.
Lehrinhalte
Asymptotic series and expansions; applications of the regular perturbation method in some flow problems; failure of the Poincare expansions; method of strained coordinates; renormalization technique; method of matched asymptotic expansions; flows around a sphere or a cylinder with small Reynolds numbers; method of multiple scales; turning point problems.
Literature
Lecture notes;
Nayfeh, A.H.: Perturbation Methods, John Wiley & Sons, 1975;
Van Dyke, M.: Pertubation Methods in Fluid Mechanics, Parabolic Press, 1975.
Erwartete Teilnehmerzahl
15
Further Grading Information
[b]Learning Outcomes [/b]
On successful completion of this module, students should be able to:
1. explain and apply the regular perturbation method for solving differential equations, specially flow problems, by means of parameter or coordinate perturbation;
2. recognize the limitations of the regular perturbation method;
3. choose and apply alternative suitable singular perturbation methods if the regular perturbation method fails for given differential equations;
4. recognize relations and distinctions of different singular perturbation methods, e.g. methods of strained coordinates, renormalization, multiple scales.
[b]Prerequisites for participation[/b]
Basic knowledge of ordinary and partial differential equations and the corresponding solution methods; basic knowledge of fluid mechanics. Knowledge of Part I of this lecture is not required.
[b]Assessment methods[/b]
Oral exam 30 min.
Zusätzliche Informationen
Exercise and lecture materials will be provided in the course Moodle cours
Online-Angebote
moodle
In WiSe2022/23, regular face-to-face teaching is aimed at, but ultimately depends on the (short-term) regulatory requirements in response to the pandemic.
As an additional service, we will offer electronic material for self-study even with regular face-to-face classes.
Please be sure to register for the appropriate Moodle course as well. All current information and learning materials will be posted in Moodle.
Lehrinhalte
Asymptotic series and expansions; applications of the regular perturbation method in some flow problems; failure of the Poincare expansions; method of strained coordinates; renormalization technique; method of matched asymptotic expansions; flows around a sphere or a cylinder with small Reynolds numbers; method of multiple scales; turning point problems.
Literature
Lecture notes;
Nayfeh, A.H.: Perturbation Methods, John Wiley & Sons, 1975;
Van Dyke, M.: Pertubation Methods in Fluid Mechanics, Parabolic Press, 1975.
Erwartete Teilnehmerzahl
15
Further Grading Information
[b]Learning Outcomes [/b]
On successful completion of this module, students should be able to:
1. explain and apply the regular perturbation method for solving differential equations, specially flow problems, by means of parameter or coordinate perturbation;
2. recognize the limitations of the regular perturbation method;
3. choose and apply alternative suitable singular perturbation methods if the regular perturbation method fails for given differential equations;
4. recognize relations and distinctions of different singular perturbation methods, e.g. methods of strained coordinates, renormalization, multiple scales.
[b]Prerequisites for participation[/b]
Basic knowledge of ordinary and partial differential equations and the corresponding solution methods; basic knowledge of fluid mechanics. Knowledge of Part I of this lecture is not required.
[b]Assessment methods[/b]
Oral exam 30 min.
Zusätzliche Informationen
Exercise and lecture materials will be provided in the course Moodle cours
Online-Angebote
moodle
- Lehrende: Yongqi Wang
Semester: WT 2022/23