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Teacher name : HIRATSUKA Masaki
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Academic year
2025Year
Term
Second Semester
Course title
Advanced Thermal Fluid Dynamics
Class type
Lecture
Course title (ENG)
Advanced Thermal Fluid Dynamics
Class code・Class name・Teaching forms
Z1400013 Advanced Thermal Fluid Dynamics
Instructor
HIRATSUKA Masaki
Credits
2.0Credits
Day and Time
Mon.3Period
Campus
Hachioji Remote
Location
Relationship between diploma policies and this course
A) A high degree of specialized expertise 100%
B) The skills to use science and technology 0% C) The ability to conduct research independently, knowledge pertaining to society and occupations, and sense of ethics required of engineers and researchers 0% D) Creative skills in specific areas of specialization 0% Goals and objectives
In the design of machinery and electronic circuits for automobiles, aircraft, etc., it is necessary to consider the flow and heat transport around the object, which requires a deep understanding of both the flow and heat fields. In this lecture, we will introduce the basic theories, experiments, and analytical methods of thermal fluid dynamics, while showing the progress of recent research and applications of thermal fluid phenomena. This course covers a wide range of fields, from macroscopic heat exchange, such as convection and condensation, to micro- and nano-scale thermal fluid transport in biological and micro-structures, which has recently been studied in the mechanical field. Students will acquire knowledge of basic theories and experimental analysis methods related to thermo-fluids, as well as the ability to investigate and apply them to interdisciplinary fields.
Prerequisites
Basic knowledge of fluid mechanics and thermodynamics is recommended.
Method Using AL・ICT
Presentation
Class schedule
1. Overview of thermal fluid dynamics
2. Basic equations of thermal fluid (continuity equation, equation of motion, energy equation) 3. Basic equations of thermal fluid dynamics (heat and mass transfer, etc.) 4. Measurement and visualization techniques of thermal fluid 5. Thermal fluid analysis methods: difference method, turbulence model 6. Thermal fluid analysis methods: heat transport, interface, multiphase flow 7. Micro- and nano-scale thermal fluid 8. Connection of macroscopic and microscopic phenomena, overview of thermo-statistical mechanics 9. Molecular thermal fluid, thermophysical properties 10. Molecular thermal fluid, thermophysical properties 11. Machine Learning and Thermal Fluids 12. Soft matter, wetting, interface, friction phenomena 13. English presentation on applications and research of thermal fluid mechanics 14. English presentation on applications and research of thermal fluid mechanics 15. Review of the class Evaluation
Grades are based on the report.
Feedback for students
Upload the overall critique to KU-LMS.
Textbooks
None.
Reference materials
「Fluid Mechanics」Frank M. White, McGraw-Hill Science Engineering
「Modern statistical mechanics」David Chandler, Oxford Univ. Pr. 「大学演習 熱学・統計力学」久保亮五,裳華房 Office hours and How to contact teachers for questions
Tuesday 15:00-16:00 (Hachioji 8 Building 201)
at13533@ns.kogakuin.ac.jp Message for students
Although the consideration of fluid flow and heat is critical and sometimes a headache in various designs, there are many interesting phenomena and challenges that arise by combining both. Please master the theories and techniques in both fields and acquire the ability to challenge various complex problems.
Course by professor with work experience
Not applicable
Work experience and relevance to the course content if applicable
Teaching profession course
Mechanical Engineering Program
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