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謝倉秀哥大愛無私地奉獻材料熱力學的講義, 幫助學弟妹有效率地學習。老師的講義已經整理好課堂上的內容,若是同學能自己動手記錄下課堂上的重點,配合老師的講義內容,相信更能事半功倍加深記憶。Professor Tsung-Shiew Huang lights up your road of learning Thermodynamics of Materials. Professor Huang’s lecture notes give you wings.
本課程分兩學期授課,上學期先介紹熱力學三大定律及各種熱力學函數,例如熱容量, entropy,焓及自由能等;並討論單相氣體及凝態系統之熱力學性質o從統計熱力學解釋 entropy之微觀意義,以及partition function與自由能之關係式,並特別舉例說明其應用於熱容量之理論推導o下學期則討論理想與真實溶液之性質,雙元相圖與自由能之關係,化學反應之平衡觀念,特別以固態材料系統為對象,探討其化學反應及相轉變所需考量之熱力學觀念。
This course will be delivered in two semesters. In the first semester, the three laws of thermodynamics and thermodynamic functions, such as heat capacity, entropy, enthalpy, and free energy will be introduced. The microscopic meanings of internal energy and entropy are interpreted by statistical thermodynamics. Relationship between partition function and free energy, as well asits application for theoretical derivation of heat capacity will be discussed. And we will also discuss thermodynamic properties of the single phase gas and condensed matter systems. In the second semester, we will discuss the behavior of ideal and real solutions, the relationship between binary phasediagram and Gibbs free energy curves, and the concepts of reaction equilibrium.Thermodynamic concepts for phase transitionsand chemicalreaction are discussed.
♠ | D.R. Gaskell: "Introduction to the Thermodynamics of Materials," 5th ed. |
♠ | R.T. DeHoff, "Thermodynamics in Materials Science," McGraw-Hill, 1993. |
♠ | R.A. Swalin, "Thermodynamics of Solids," 2nd ed., John Wiley&Sons, 1972. |
【第1週】 | Ch.1 Introduction and Definitions of Terms (I): |
1. What do we learn from “Materials Thermodynamics”? 2. Classical versus Statistical Thermodynamics, 3. Thermodynamics versus Kinetics. 4. Thermodynamic systems of materials, 5. Thermodynamic variables, 6. Concept of state, 7. How to distinguish a state function. | |
【第2週】 | Ch.1 Introduction and Definitions of Terms (II): |
8. Equation of state of an ideal gas. Ch.2 First Law of Thermodynamics: | |
1. Energy conversion, 2. Relation between heat and work, 3. First law of thermodynamics, 4. Internal energy (U) and Enthalpy (H), 5. Heat capacity. 6. Reversible Adiabatic Process, 7. Reversible Isothermal Process, 8. Calculation examples for monatomic ideal gas. | |
【第3週】 | Ch.3 Second Law of Thermodynamics (I): |
1. Spontaneous Process and Reversible Process, 2. Entropy and Degree of Irreversibilty, 3. Entropy and Reversible Heat, 4. Reversible Isothermal Compression of Ideal Gas, 5. Reversible Adiabatic Expansion of Ideal Gas. 6. Properties of Heat Engine, 7. Thermodynamic Temperature Scale, | |
【第4週】 | Ch.3 Second Law of Thermodynamics (II): |
8. Second Law of Thermodynamics. 9. Maximum Work for Reversible Process, 10. Criterion for Equilibrium, 11. Combined Statement of 1st and 2nd Laws. | |
【第5週】 | Ch.3 Second Law of Thermodynamics (III): |
12. Calculation Examples. Ch. 4 Auxiliary Functions (I): 1. Defined Functions of H, A, G and their differential equation. 2. Enthalpy and constant pressure heat, 3. Helmholtz Free Energy. | |
【第6週】 | Ch. 4 Auxiliary Functions (II): |
4. Gibbs Free Energy, 5. Summary of Criteria for Equilibrium, 6. Coefficient Relations, 7. Maxwell Relations, 8. Reciprocal and Ratio Relation, | |
【第7週】 | Ch4. Auxiliary Functions(III) 9. Derived equations: 1st, 2nd , 3rd TdS equations; Gibbs-Helmholtz Equation; cp-cv; and other important equations for ideal gas. 10.General Strategy for Deriving Thermodynamic Relations, |
【第8週】 | Ch. 4 Auxiliary Functions (IV): |
11. Application to an Ideal Gas, 12. Application to Solids and Liquids, 13. Calculation Examples. | |
【第9週】 | Mid-term exam;Ch.5 Statistical Thermodynamics (I): |
1. Physical Significance of U and S, 2. Entropy and Disorder on an Atomic Scale, 3. Macrostate and Microstate | |
【第10週】 | Ch.5 Statistical Thermodynamics (II): |
4. Determination of the Most Probable Microstate, 5. Partition Function and Boltzmann Equation for Entropy, 6. Heat Flow and Entropy Production, 7. Configurational Entropy and Thermal Entropy, 8. Calculation Examples, 9. Calculation of S, A, U, Cv from Partition Function. | |
【第11週】 | Ch.5 Statistical Thermodynamics (III): |
10. A model with Two Energy Levels, 11. Internal Energy and Heat Capacity of a Crystal, 12. Internal Energy and Heat Capacity of Monatomic and Polyatomic Ideal Gases. | |
【第12週】 | Ch.6 Heat Capacity, Enthalpy, Entropy as a function of T (I): |
1. Heat Capacity, 2. Hp(T), Hp(T) and Q (Heat of Reaction), 3. S(T) and the 3rd Law of Thermodynamics, 4. Experimental Verification of 3rd Law. | |
【第13週】 | Ch.6 Heat Capacity, Enthalpy, Entropy as a function of T (II): | |||
5. Influence of P on H and S, 6. Calculation Examples. | ||||
【第14週】 | Ch.6 Heat Capacity, Enthalpy, Entropy as a function of T (II): | |||
1.Thermodynamic Equilibrium, | ||||
【第15週】 | Ch.7 Phase Equilibrium in One Component System (II): | |||
【第16週】 | Ch.7 Phase Equilibrium in One Component System(III) 6.Phase Diagram in One Component System 7.Solid-Solid Equilibrium(Allotropy) 8.Calculation Examples. | |||
【第17週】 | Ch.8 Behavior of Real Gases(II) | |||
6.Thermodynamic Treatment of Nonideal Gases, 7.Calculation Examples. | ||||
【第18週】 | Final Exam. | |||
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不再當迷途羔羊!牧羊人黃振昌帶你領略材料世界!別人學晶體繞射猶如梅西射門,漂亮得分!自己學晶體繞射卻是絲線纏繞,苦惱萬分!嘿!你也是學習路上的迷途小羊嗎?你還在迷茫於未來該走的方向嗎? 別擔心!
指定用書
Textbooks
♠ | Lecture notes “ for educational purposes only ” |
♠ | Christopher Hammond, “The Basics of Crystallography and |
Diffraction”, 3rd edition, Oxford, 2009. |
參考用書
Referncnces
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Course Description
♠ | 《資治通鑑》、《晉書》、《世說新語》、《讀通鑑論》的片段。 |
"Zizhi Tongjian"、”Book of Jin”、”Shih-Shuo-Hsin-Yu”、 "Theory of Reading Zizhi | |
| Tongjian," |
♠ | The books and papers related to "Zizhi Tongjian" in the library |
|
Teaching Methods
♠ | 由於這不是教師一人「演講」式的課,而是大家進行「討論」的課,所以,修習同學必須 |
出席。課前需閱讀,上課應發言。 | |
Because this is not a lecture class but a discussion class, instead, students have to | |
attend classes, review, and discuss. | |
Syllabus
侈汰無度 動亂不已(二)
中原板蕩 西晉覆亡(一)
期中測驗
中原板蕩 西晉覆亡(二)
中原板蕩 西晉覆亡(三)
木猶如此 人何以堪(一)
木猶如此 人何以堪(三)
世族門閥 日薄崦嵫(一)
期末測驗
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1. | An Overview of Computer Communication |
1.1 Analog and Digital Signals | |
1.2 Two Kinds of Media: Electrical and Electromagnetic | |
1.3 Carrier and Modulation | |
1.4 The Real Time and Non-real Time Transmission Problems | |
1.5 The Multiplexing Receiving Problem | |
1.6 The Multiplexing Transmission Problem | |
1.7 The Basic Concepts of Antenna Design | |
2. | Conversions Between Analog and Digital Information |
2.1 Pulse Code Modulation | |
2.2 Minimum Sampling Rate-Nyquist Rate | |
3. | Fourier Representations for Signals |
3.1 FourierSeries | |
3.2 Fourier Transform | |
3.3 FT Representations for Periodic Signals | |
3.4 The Fast Discrete Fourier Transform | |
3.5 The Physical Meaning of the Fourier Transform | |
4. | Analog Modulation Techniques |
4.1 AmplitudeModulation | |
4.2 Double Sideband Suppressed-Carrier (DSB-SC) | |
4.3 Single Sideband Modulation (SSB) | |
5. | Digital Modulation Techniques |
5.1 Baseband Pulse Transmission | |
5.2 Amplitude-Shift Keying (ASK) | |
5.3 Binary Phase-Shift Keying (BPSK) |
指定用書
Text Books
Introduction to Communications for Non-Electrical-Engineering Students by Mao-Ching Chiu ,
Chia-Tung Lee , Eric S.Li ,Jung-Shan Lin and Tai-Ping Sun
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尋找興趣,提早準備,贏在起跑點!!想追求更多課本以外的專業知識嗎? 清華大學開放式課程為你種植了一座學習資源森林,等你來探索!現在就走進開放式課程的森林,品嚐最甜美的知識果實!Tsinghua University, Taiwan by the UN General Assembly cloud Tsinghua classic courses for you to build a strong faculty and Information Engineering background, allowing you to information UPDATE, win at the starting point!
♠ | Campbell Biology (10th Edition), Jane B. Reece , Lisa A. Urry, Michael L. Cain, Steven A. Wasserman , Peter V. |
♠ | Minorsky, Robert B. Jackson (2013) |
Week 1 | Life on Earth I - Ch01: Biology and Its Themes Life on Earth II - Ch25: Macroevolution ♠Instructor: Li |
Week 2 | Life on Earth I - Ch01: Biology and Its Themes Life on Earth II - Ch25: Macroevolution ♠Instructor: Li |
Week 3 | Ch03: The Chemistry of Water ♠Instructor: Chiao |
Week 4 | Ch04: Carbon: The Basis of Molecular Diversity Ch05: Biological Macromolecules and Lipids ♠Instructor: Chiao |
Week 5 | Ch06: Energy and Life Ch07: Cell Structure and Function ♠Instructor: Chiao |
Week 6 | Week 6 2014 / 10 / 23 : Ch09: Cellular Signaling ♠Instructor: Chiao |
Week 7 | Ch10: Cell Respiration Ch11: Photosynthetic Processes ♠Instructor: Chiao |
Week 8 | Ch12: Mitosis Ch13: Sexual Life Cycles and Meiosis ♠Instructor: Chiao |
Week 9 | Midterm Examination ( Ch01-13 & Ch25) |
Week 10 | Ch14: Mendelian Genetics Ch15: Linkage and Chromosomes ♠Instructor: Chuang |
Week 11 | Ch16: Nucleic Acids and Inheritance Ch17: Expression of Genes ♠Instructor: Chuang |
Week 12 | Ch18: Control of Gene Expression Ch26: Introduction to Viruses ♠Instructor: Chuang |
Week 13 | Ch19: DNA Technology ♠Instructor: Chuang |
Week 14 | Ch20: The Evolution of Genomes ♠Instructor: Chuang |
Week 15 | Ch21: How Evolution Works Ch22: Phylogenetic Reconstruction ♠Instructor: Li |
Week 16 | No class |
Week 17 | Ch23: Microevolution Ch24: Species and Speciation ♠Instructor: Li |
Week 18 | Final Examination ( Ch14-24 & Ch26) |
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近年來,普通物理的課本越長越厚。老師怎麼教?學生如何讀?物理系專業的課程,教科書也沒長到這般怪獸的厚度,這真的是最有效率的學習方法嗎?我不以為然。在99學年,我決意進行一項普物教學的改革:每個學期我只教十個問題...
Ten Questions we will discuss this semester
Q1: Why are most materials charge neutral?
Chapter 21 – Electric Charge and Electric Field
Chapter 22 – Gauss’s Law
Q2: What causes lightning?
Chapter 22 – Electric Potential Chapter 24– Capacitance, Dielectrics, Electric Energy Storage
Q3: Can magnetic forces do work?
Chapter 27 – Magnetism
Q4: How does the geomagnetic field arise?
Chapter 28 – Sources of Magnetic Field
Q5: Why can light propagate in vacuum?
Chapter 29 – Electromagnetic Induction and Faraday’s Law
Chapter 30 – Inductance, Electromagnetic Oscillations and AC Circuits
Chapter 31 – Maxwell equations and Electromagnetic Waves
Q6: What is the nature of light?
Chapter 34 – The Wave Nature of Light; Interference
Chapter 37 – Early Quantum Theory and Models of the Atom
Q7: Why are atoms stable?
Chapter 38 – Quantum Mechanics
Chapter 39 – Quantum Mechanics of Atoms
Q8: How is the secret of life encoded?
Chapter 40 – Molecules and Solids
Q9: How can we date fossils?
Chapter 42 – Nuclear Physics and Radioactivity
Q10: What are the building blocks of our universe?
Chapter 43 – Elementary Particles Chapter 44 – Astrophysics and Cosmology
Lectures (Spring, 2014)
【Week 1】
Feb 18 (Tue) Course introduction Feb 20 (Thu) Why are most materials charge neutral?
【Week 2】
Feb 25 (Tue) Coulomb’s law and electric field Feb 27 (Thu) Gauss’s law
【Week3】
Mar 4 (Tue) What causes lightning? Mar 6 (Thu) electrostatic potential energy
【Week4】
Mar 11 (Tue) Can magnetic forces do work? Mar 13 (Thu) Hall effect
【Week5】
Mar 18 (Tue) Magnetic materials Mar 20 (Thu) How does the geomagnetic field arise?
【Week6】
Mar 25 (Tue) Biot-Savart law Mar 27 (Thu) Ampere’s law
【Week7】
Apr 1 (Tue) Why can light propagate in vacuum? Apr 3 (Thu) 校際活動週(停課) Week 8
【Week8】
Apr 8 (Tue) dynamics of electric and magnetic fields Apr 10 (Thu) Maxwell equations
【Week9】
Apr 15 (Tue) Maxwell equation 2 Apr 17 (Thu) energy and momentum in EM waves
【Week 10】
Apr 20 (Sun) 期中考 Apr 22 (Tue) 期中考講解 Apr 24 (Thu) What is the nature of light?
【Week 11】
Apr 29 (Tue) resolution limit May 1 (Thu) blackbody radiation
【Week 12】
May 6 (Tue) Why are atoms stable? May 8 (Thu) de Broglie wave
【Week 13 】
May 13 (Tue) Schrodinger equation May 15 (Thu) Schrodinger equation 2
【Week 14 】
May 20 (Tue) angular momentum and spin May 22 (Thu) Pauli exclusion principle
【Week 15】
May 27 (Tue) How is the secret of life encoded? May 29 (Thu) band theory of solids
【Week 16】
Jun 3 (Tue) How can we date fossils? Jun 5 (Thu) magnetic resonance imaging
【Week 17】
Jun10 (Tue) What are the building blocks of our universe? Jun 12 (Thu) after the big bang
【Week 18】
(Final Week) Jun15 (Sun) 期末考 Jun 19 (Thu) 期末考講解
指定用書
Textbooks
♠ | Sze-Bi Hsu: Ordinary Differential Equations with Applications. |
World Scientific, 2013, 2nd edition | |
References
♠ | |
McGraw Hill, 1984. | |
♠ | |
教學方式
Teaching Method
Syllabus
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近年來,普通物理的課本越長越厚。老師怎麼教?學生如何讀?物理系專業的課程,教科書也沒長到這般怪獸的厚度,這真的是最有效率的學習方法嗎?我不以為然......
Ten Questions we will discuss this semester
♠ | Q1: What is time? |
Chapter 36 – Special Theory of Relativity | |
♠ | Q2: How to describe a dynamical system? |
Chapter 4 – Dynamics: Newton’s Law of Motion Chapter 14 – Oscillations | |
♠ | Q3:Do forces always appear in pairs? |
Chapter 9 – Linear Momentum | |
♠ | Q4: Is energy always conserved? |
Chapter 7 – Work and Energy Chapter 8 – Conservation of Energy | |
♠ | Q5: How does a rotating top maintain its balance? |
Chapter 10 – Rotational Motion Chapter 11 – Angular Momentum; General Rotation | |
♠ | Q6: Are black holes black? |
Chapter 6 – Gravitation and Newton’s Synthesis Chapter 44 – Astrophysics and Cosmology | |
♠ | Q7: Is pressure in liquids a scalar, a vector or a tensor? |
Chapter 13 – Fluids | |
♠ | Q8: What is propagating in traveling waves? |
Chapter 15 – Wave Motion Chapter 16 – Sound | |
♠ | Q9: How is thermal equilibrium reached? |
Chapter 17 – Temperature, Thermal Expansion, and the Ideal Gas Law Chapter 18 – Kinetic Theory of Gases | |
♠ | Q10: How to quantify uncertainty in a statistical system? |
Chapter 19 – Heat and the First Law of Thermodynamics Chapter 20 –Second Law of Thermodynamics | |
Syllabus (Fall, 2013)
【Week 10】
Nov 19 (Tue) L16: Are black holes black?
Nov 21 (Thu) L17: Gravity and spacetime curvature
【Week 11】
Nov 26 (Tue) L18: Is pressure in liquids a scaler, a vector or a tensor?
Nov 28 (Thu) L19: Hagen-Poiseuille equation
【Week 13】
Dec 10 (Tue) L22: Wave equation
Dec 12 (Thu) L23: Wave equation 2
Dec 24 (Tue) L26: Heat and the first law of thermodynamics
Jan 12 (Sun) Final (Q8-Q10)
This course focuses on the qualitative theory of ordinary differential equation, and preparatory knowledge of advanced calculus and Linear algebra. This course offers 3 credits of basic theory of ordinary differential equation, which is the standard course for graduates.
指定用書
Textbooks
♠ | Sze-Bi Hsu: Ordinary Differential Equations with Applications. |
World Scientific, 2013, 2nd edition |
References
♠ | Jack Hale: Ordinary Equations |
♠ | Jack Hale and Kocak: Dynamics and bifurcations |
Teaching Method
♠ | 演講及計算 |
♠ | Lecture and calculation |
Syllabus
1. | Fundamental Theory of ODE: Existence: Uniqueness of System of ODE, Continuously |
dependence on parameter and initial conditions, Differential Inequality | |
2. | Linear system : Linear systems with constant coefficients and Periodic Linear Systems, |
Louiville Formula, Two-Dimensional Phase plane analysis, | |
3. | Stability of Nonlinear Systems: Linearization, Variation of Constant Formula,. Stable and |
unstable manifolds, Orbital stability. |
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Course Description
先修課程
Prerequisites
♠ | 微積分一與二、工程數學、電磁學 |
Calculus (I)(II), Engineering Mathematics, Electromagnetism |
Syllabus/Teaching Method
♠ | 本課程分為三個主題:幾何光學、偏振光學、常用光電元件。 |
polarizing optics,common polarizing element |
周 次 | 授 課 大 綱 |
Week1 | 基本電磁學 |
Basic Electromagnetism | |
Week2 | 平面波傳遞: 反射與折射 |
Plane Wave Transfer: Reflected & Refraction | |
Week3 | 同調性與干涉 |
Coherence & Interference | |
Week4 | 散射、繞射與輻射 |
Scattering, Diffraction and Radiation | |
Week5 | 色散基本概念 |
The Fundamental Concept of Chromatic Dispersion | |
Week6 | 偏振態與Jones 表示法、雙折射 |
Polarization and Jones Notation, Birefringence | |
Week7 | 雙折射、光學偏振元件 |
Birefringence, Polarizing Element | |
Week8 | 調制器、光偵測器 |
Demodulator, Light Detector | |
Week9 | 光偵測器、雷射與光放大器 |
Light Detector, Laser and Light Amplifier | |