授課大綱 課號課程名稱選別開課系級學分 結果預視

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1 授課大綱 課號課程名稱選別開課系級學分 B06303A 流體力學 Fluid Mechanics 必 結果預視 課程介紹 (Course Description): 機械工程學系 三甲 3 在流體力學第一課的學生可能會問 : 什麼是流體力學? 為什麼我必須研究它? 我為什麼要研究它? 流體力學有哪些應用? 流體包括液體和氣體 流體力學涉及靜止和運動時流體的行為 對流體力學的基本原理和概念的了解和理解對分析任何工程系統至關重要, 例如內燃機, 燃氣輪機, 水輪機等, 其中流體是工作介質 另外, 流體力學可以分為兩類 : 流體靜力學和流體動力學 流體靜力學處理流體靜止時的壓力和合力 而流體動力學行為和流動誘導力是流體動力學的範圍 由於包括泵, 風扇, 鼓風機, 壓縮機和渦輪機在內的所有流體機械的設計明確要求了解流體力學的基本原理, 因此機械工程專業的學生必須研究它 為了理解流場的詳細行為, 必須充分理解支配流場的質量守恆, 動量和能量 流體力學 (I) 將介紹控制方程及其應用 本課程的目的是為學生提供有關質量守恆, 牛頓第二運動定律, 角動量原理以及控制流體運動的熱力學第一定律和第二定律等基本定律的知識 當學生完成流體力學課程時, 我們期望他們能夠將控制方程應用於各種問題, 包括以前沒有遇到過的問題 Students in the first course in fluid mechanics might ask: What is fluid mechanics all about? Why do I have to study it? Why should I want to study it? What are the applications of fluid mechanics? Fluid includes liquids and gaseous. Fluid mechanics deals with the behavior of fluids at rest and in motion. Knowledge and understanding of the basic principles and concepts of fluid mechanics are essential to analyze any engineering system, such as internal combustion engines, gas turbines, water turbines, etc, in which a fluid is the working medium. In addition, fluid mechanics can be classified into two categories: fluid statics and fluid dynamics. Fluid statics deals with the pressure and resultant forces when the fluid is at rest. While the fluid dynamical behavior and the flow induced forces are the scopes of fluid dynamics. Because the design of all fluid machinery including pumps, fans, blowers, compressors, and turbines clearly requires knowledge of the basic principles of fluid mechanics, therefore mechanical engineering students have to study it. In order to understand the detailed behavior of the flowfield, the conservation of mass, momentum, and energy that governs the flowfield must be fully understood. Fluid mechanics (I) will introduce the governing equations and their applications. The objective of this course is to provide students with the

2 knowledge of basic laws such as the conservation of mass, Newton s second law of motion, the principle of angular momentum, and the first and second laws of thermodynamics governing the fluid motion. When students finish the fluid mechanics course, we expect them to be able to apply the governing equations to a variety of problems, including those they have not encountered previously. Students in the first course in fluid mechanics might ask: What is fluid mechanics all about? Why do I have to study it? Why should I want to study it? What are the applications of fluid mechanics? Fluid includes liquids and gaseous. Fluid mechanics deals with the behavior of fluids at rest and in motion. Knowledge and understanding of the basic principles and concepts of fluid mechanics are essential to analyze any engineering system, such as internal combustion engines, gas turbines, water turbines, etc, in which a fluid is the working medium. In addition, fluid mechanics can be classified into two categories: fluid statics and fluid dynamics. Fluid statics deals with the pressure and resultant forces when the fluid is at rest. While the fluid dynamical behavior and the flow induced forces are the scopes of fluid dynamics. Because the design of all fluid machinery including pumps, fans, blowers, compressors, and turbines clearly requires knowledge of the basic principles of fluid mechanics, therefore mechanical engineering students have to study it. In order to understand the detailed behavior of the flowfield, the conservation of mass, momentum, and energy that governs the flowfield must be fully understood. Fluid mechanics (I) will introduce the governing equations and their applications. The objective of this course is to provide students with the knowledge of basic laws such as the conservation of mass, Newton s second law of motion, the principle of angular momentum, and the first and second laws of thermodynamics governing the fluid motion. When students finish the fluid mechanics course, we expect them to be able to apply the governing equations to a variety of problems, including those they have not encountered previously. 教材 (Course Materials): Introduction to FLUID MECHANICS, by Robert W. Fox, Alan T. McDonald and Philip J. Pritchard, 6th edition, Wiley. 參考書 (References): 自作講義 系核心能力 / 學習目標培育 (Core Learning Outcomes/Learning Goals): 具備運用數學 物理及化學等基礎知識之能力 具備完整的機械專業知識及應用之能力 具備執行工程實務及處理問題之能力

3 具備人文素養 關懷社群及重視專業倫理之能力 具備在工程領域自我學習及持續發展之能力 瞭解當代時事議題及工程技術對環境 社會及全球之影響授課進度及內容 (Teaching Schedule & Contents): 單元名稱與內容 (Unit Title & Content) 教學方法 (Teaching Methods) 評量方法 (Evaluation Methods) Definition of a fluid, Basic 1. equations, Dimensions and 無 (None) Units 2. Velocity Field Timelines, Pathlines, Streaklines, and Streamlines, Stress field Viscosity and Viscometer 3. Newtonian and non-newtonian Fluids Surface tension Basic equation of fluid statics 4. The standard atmosphere, Pressure variation in a static fluid 5. Manometer Pressure and density variation in the atmosphere 6. Hydrostatic force on submerged surfaces Buoyancy and stability 7. Basic laws for a system Conservation of mass 8. Momentum equation for inertial control volume 9. Differential control volume analysis, Control volume moving with constant volecity 10. Momentum equation for control

4 volume with rectilinear acceleration Momentum equation for control volume with arbitrary acceleration 11. Midterm 無 (None) 12. The first and second laws of thermodynamics 13. Comservation of mass Rectangular and cylinrical coordinate systems 14. Stream function for incompressible flow Motion of a fluid particle 15. Fluid rotation Fluid deformation Momentum equation Euler s equation Bernoulli equation. The 16. Bernoulli equation interpreted as an energy equation Energy grade line and hydraulic grade line Static, stagnation, and dynamic 17. pressures Internal and external viscous flow 18. Final exam. 無 (None) 學習評量方式 (Learning Evaluation Methods): Homework Assignments - 課後作業 :15% Participation - 參與 :5% Quiz I - 第一次平時測驗 :20% Midterm Exam - 期中測驗 :20%

5 Quiz II - 第二次平時測驗 :20% Final Exam - 期末測驗 :20% 回課程大綱設定