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Course title |
微奈米尺度熱傳
Micro/Nanoscale Heat Transfer |
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Semester |
110-2 |
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Designated for |
COLLEGE OF ENGINEERING DEPARTMENT OF MECHANICAL ENGINEERING |
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Instructor |
呂明璋 |
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Curriculum Number |
ME5047 |
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Curriculum Identity Number |
522EU6230 |
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Class |
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Credits |
3.0 |
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Full/Half
Yr. |
Half |
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Required/
Elective |
Elective |
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Time |
Tuesday 7,8,9(14:20~17:20) |
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Room |
工綜205 |
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Remarks |
本課程以英語授課。
The upper limit of the number of students: 40. |
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Course introduction video |
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Table of Core Capabilities and Curriculum Planning |
Table of Core Capabilities and Curriculum Planning |
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Course Syllabus
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Please respect the intellectual property rights of others and do not copy any of the course information without permission
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Course Description |
This course is taught in English. It focuses on the mechanisms of energy transport of micro/nanoscale systems, particularly thermal energy transport. The concepts of statistical physics, quantum mechanics, solid-state physics, kinetic theory, Boltzmann transport equation, and energy transport by waves will be introduced. |
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Course Objective |
The students will (1) gain an understanding of the fundamentals of kinetic theory, statistical thermodynamics, solid-state physics, and quantum mechanics; (2) learn the mechanisms of energy transport at the micro/nanoscale; (3) acquire the skills for the modeling of the transport properties of the micro/nanoscale systems, such as thermal conductivity and resistivity. |
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Course Requirement |
Thermodynamics,
Heat Transfer,
Fluid Mechanics |
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Student Workload (expected study time outside of class per week) |
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Office Hours |
Appointment required. Note: by appointment. |
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Designated reading |
Nanoscale Energy Transport and Conversion, Gang Chen, 2005 |
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References |
1. Chang-Lin Tien, Arunava Majumdar, Frank M. Gerner, Microscale Energy Transport, 1997
2. Van P. Carey, Statistical Thermodynamics and Microscale Thermophysics, 1999
3. Charles Kittel, Introduction to Solid State Physics, 2005
4. David J. Griffiths, Introduction to Quantum Mechanics, 2nd Edition, 2005
5. Zhuomin M. Zhang, Nano/Microscale Heat Transfer, 2008 |
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Grading |
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No. |
Item |
% |
Explanations for the conditions |
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1. |
Homework |
30% |
Homework should be handed in at the beginning of the class on the due day.
The homework submitted one day after the due date will be 20% deducted from the original score.
No homework will be accepted once it is submitted two days late. |
2. |
Midterm Exam |
35% |
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3. |
Final Project |
35% |
a 2 students team project, including the final presentation and written report. |
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Week |
Date |
Topic |
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第1週 |
2/15 |
Introduction: Length scale, kinetic theory, mean free path, etc. |
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第2週 |
3/1 |
Statistical Thermodynamics |
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第3週 |
3/8 |
Statistical Thermodynamics |
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第4週 |
3/15 |
Quantum Mechanics |
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第5週 |
3/22 |
Quantum Mechanics |
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第6週 |
329 |
Quantum Mechanics |
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第7週 |
4/5 |
Solid State Physics |
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第8週 |
4/12 |
Midterm exam |
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第9週 |
4/19 |
Solid State Physics |
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第10週 |
4/26 |
Solid State Physics |
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第11週 |
5/3 |
Boltzmann Transport Equations |
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第12週 |
5/10 |
Boltzmann Transport Equations |
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第13週 |
5/17 |
Boltzmann Transport Equations |
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第14週 |
5/24 |
Energy Transport by Waves |
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第15週 |
5/31 |
Interface Resistance |
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第16週 |
6/7 |
Final Project Presentation |