3. 강의목표
물질의 물성치 특성과 일과 열의 발생 및 전달의 기본적 원리를 학습하고, 이를 응용하는 실용적 장치 및 효율 증대 기법들을 배운다.
Thermomechanical properties of various substances are studied based on a macroscopic view, and they are applied to the transfer/generation of work and heat with emphasis on the design of systems and techniques of efficient conversion.
5. 성적평가
| 중간고사 |
기말고사 |
출석 |
과제 |
프로젝트 |
발표/토론 |
실험/실습 |
퀴즈 |
기타 |
계 |
|
|
|
|
|
|
|
|
100 |
100 |
| 비고 |
Quiz & Attendance 10%
H.W. 10%
Midterm 40%
Final Examination 40%
|
6. 강의교재
| 도서명 |
저자명 |
출판사 |
출판년도 |
ISBN |
|
Introduction to Chemical Engineering Thermodynamics
|
J. M. Smith
|
McGraw Hill
|
0000
|
|
7. 참고문헌 및 자료
Principles of Chemical, Biochemical and Engineering Thermodynamics
8. 강의진도계획
Week 1: Introduction and The First Law 1
Chapter 1. Introduction: Temperature, absolute and gauge pressure, nature of work and energy
Chapter 2. The First Law: Energy balance for closed systems, state functions and path functions
Week 2: The First Law 2
Chapter 2. The First Law: Definition of enthalpy, steady-state energy balance for open systems
Mechanically reversible processes and work calculations
Week 3: Volumetric Properties of Pure Fluids 1
Chapter 3. Volumetric Properties: PVT behavior of pure substances, ideal gas equation of state
Virial equation of state and compressibility factor
Week 4: Volumetric Properties of Pure Fluids 2
Chapter 3. Volumetric Properties: Cubic equations of state including van der Waals, Redlich-Kwong, Peng-Robinson
Theorem of corresponding states
Week 5: The Second Law of Thermodynamics
Chapter 5. The Second Law: Introduction to the second law, macroscopic and microscopic definitions of entropy
Thermodynamic temperature scale, entropy changes of an ideal gas, the second law for open systems
Week 6: Thermodynamic Properties of Fluids 1
Chapter 6. Thermodynamic Properties: Fundamental property relations for pure fluids
Maxwell relations and the calculus of thermodynamics
Week 7: Thermodynamic Properties of Fluids 2
Chapter 6. Thermodynamic Properties: Concept and calculation of residual properties
Fugacity and fugacity coefficient for pure species
Week 8: Mid-term Exam
Scope: Chapters 1, 2, 3, 5, and 6
Week 9: Vapor Liquid Equilibrium Introduction 1
Chapter 10. VLE Introduction: Nature of equilibrium, the Gibbs Phase Rule
Raoults Law and VLE qualitative behavior
Week 10: Vapor Liquid Equilibrium Introduction 2
Chapter 10. VLE Introduction: Modified Raoults Law
VLE calculations from equations of state
Week 11: Solution Thermodynamics Theory 1
Chapter 11. Solution Thermodynamics Theory: Fundamental property relation for mixtures
The chemical potential and partial molar properties
Week 12: Solution Thermodynamics Theory 2
Chapter 11. Solution Thermodynamics Theory: Ideal gas mixtures and the ideal solution model
Fugacity and fugacity coefficients for species in solution
Week 13: Solution Thermodynamics Theory 3
Chapter 11. Solution Thermodynamics Theory: Excess properties
Activity coefficients and the Gibbs-Duhem equation
Week 14: Solution Thermodynamics Applications 1
Chapter 12. Solution Thermodynamics Applications: Liquid-phase properties from VLE data
Activity coefficient models 1: Margules and van Laar equations
Week 15: Solution Thermodynamics Applications 2
Chapter 12. Solution Thermodynamics Applications: Concept of local composition
Activity coefficient models 2: Wilson, NRTL, and UNIQUAC equations
Week 16: Final Exam
Scope: Chapters 10, 11, and 12
9. 수업운영
Writing in whiteboard
10. 학습법 소개 및 기타사항
무은재학부 및 기계공학 전공 학생 수강과목이나, 타 과 학생들도 수강할 수 있음
Students are expected to spend outside the class at least an hour reviewing what they learned and will learn, in addition to approximately two or three hours doing homework. Many students find it helpful to form study groups to discuss homework assignments (no copy from one another, though), which is encouraged.
11. 장애학생에 대한 학습지원 사항
- 수강 관련: 문자 통역(청각), 교과목 보조(발달), 노트필기(전 유형) 등
- 시험 관련: 시험시간 연장(필요시 전 유형), 시험지 확대 복사(시각) 등
- 기타 추가 요청사항 발생 시 장애학생지원센터(279-2434)로 요청