| Academic Year |
2025Year |
School/Graduate School |
Graduate School of Advanced Science and Engineering (Master's Course) Division of Advanced Science and Engineering Chemical Engineering Program |
| Lecture Code |
WSF20901 |
Subject Classification |
Specialized Education |
| Subject Name |
複雑流体力学 |
Subject Name
（Katakana） |
フクザツリュウタイリキガク |
Subject Name in
English |
Complex Fluid Dynamics |
| Instructor |
ISHIGAMI TORU |
Instructor
(Katakana) |
イシガミ トオル |
| Campus |
Higashi-Hiroshima |
Semester/Term |
1st-Year, Second Semester, 3Term |
| Days, Periods, and Classrooms |
(3T) Weds1-2,Fri1-2：ENG 114 |
| Lesson Style |
Lecture |
Lesson Style
(More Details) |
Face-to-face, Online (on-demand) |
| |
| Credits |
2.0 |
Class Hours/Week |
4 |
Language of Instruction |
B
:
Japanese／English |
| Course Level |
6
:
Graduate Advanced
|
| Course Area（Area） |
25
:
Science and Technology |
| Course Area（Discipline） |
08
:
Chemical Engineering |
| Eligible Students |
|
| Keywords |
Fluid dynamics, multiphase flow, free-interfacial flow, non-Newtonian fluid, granular flow |
| Special Subject for Teacher Education |
|
Special Subject |
|
Class Status
within Educational
Program
(Applicable only to targeted subjects for undergraduate students) | |
|---|
Criterion referenced
Evaluation
(Applicable only to targeted subjects for undergraduate students) | |
|---|
Class Objectives
/Class Outline |
1. Students understand momentum transport of single phase flow, e.g. Newton's law of viscosity, shell momentum balance, velocity distribution in pipe flow, mass and momentum conservation, and flow regime (laminar/turbulent), and dimensionless numbers.
2. Students understand characteristics of non-Newtonian fluid and behavior of polymeric fluid
3. Students understand theory and numerical method of granular flow, e.g. Stokes's law and discrete element method.
4. Students understand numerical method of free-interfacial flow, e.g. volume-of-fluid and level set methods. |
| Class Schedule |
lesson1: Newton's law of viscosity
lesson2: Shell momentum balance and velocity distribution in pipe flow
lesson3: Governing equations of fluid flow (mass and momentum conservation)
lesson4: Numerical method for solving governing equations
lesson5: Flow around body
lesson6: Numerical method for solving flow around body
lesson7: Turbulent flow (Reynolds stress, velocity distribution)
lesson8: Friction coefficient and pressure drop
lesson9: Non-Newtonian fluid and polymeric fluid flows
lesson10: Numerical method for solving non-Newtonian fluid and polymeric fluid flows
lesson11: Motion of a single particle
lesson12: Numerical method for solving motion of a single particle
lesson13: Numerical method for solving granular flow (discrete element method)
lesson14: Numerical method for solving granular flow (DEM-CFD and DEM-DNS)
lesson15: Numerical method for solving free-interfacial flow (VOF, level set method and phase-field model)
A term-end examination is performed. Please submit some reports. |
Text/Reference
Books,etc. |
R. Byron Bird, Warren E. Stewart, Edwin N. Lightfoot "Transport Phenomena": 2nd Edition, Wiley |
PC or AV used in
Class,etc. |
Text, Microsoft Teams, Microsoft Stream |
| (More Details) |
PPT. |
| Learning techniques to be incorporated |
Quizzes/ Quiz format |
Suggestions on
Preparation and
Review |
Please review UG3 class "Fluids Engineering" |
| Requirements |
|
| Grading Method |
The results of exercises, mid-term examinations, and final examinations will be evaluated comprehensively. |
| Practical Experience |
Experienced
|
| Summary of Practical Experience and Class Contents based on it |
A faculty member with experience working at a mechanical manufacturer will provide guidance on the complex fluid dynamics required for equipment design. |
| Message |
This year, this class will be lectured in Japanese. |
| Other |
|
Please fill in the class improvement questionnaire which is carried out on all classes.
Instructors will reflect on your feedback and utilize the information for improving their teaching. |