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XuetangX

Advanced Thermodynamics and Heat Transfer

Beijing Institute of Technology via XuetangX

Overview

This course will provide engineering graduate students with new analytical methods in learning thermal processes. Let the students know the basic principle and main method to improve energy application efficiency and enhance heat transfer. The teaching time of this course is 48 class hours, and it is mainly opened for graduate students. Generally, the number of students attending this course is 30~50 each year, and it is rated as excellent by students.

Advanced engineering thermodynamics and heat transfer is a science especially to discuss the thermal energy effectively utilized and energy conservation law. It will tell students that the energy can be transferred by interactions of a system with its surroundings. These interactions are called work and heat. At the same time, it will investigate that the nature of the interaction or the time rate at which it occurs. The objective of this text is to extend fundamental thermodynamic theory and analysis method as well as to calculate heat transfer rates through study of the modes of heat transfer and through development of relations. Through the study of Exergy analysis and Exergy concept generalization, let students a deep understanding of the nature of energy movement, so as to cultivate their correct world outlook and outlook on life. It is hoped that this course will provide engineering students with information and background that will enable them to become proficient at establishing thermodynamic model and calculating thermodynamic cycle efficiency and heat transfer rate.  It also will provide engineering students with new analytical methods in learning thermal processes. Let the students know the basic principle and main method to improve energy application efficiency and enhance heat transfer.

 

Syllabus

  • Advanced Thermodynamics A review
    • Chapter 1 Basic concepts about thermal energy conversion
      • 1.1 Thermodynamic system, state and state parameters
      • 1.2 Thermodynamic process, work and heat
      • Exercise
    • Chapter 2 The First Law of Thermodynamics
      • 2.1 Essence of the first law&2.2 Expression of the first law and internal energy
      • 2.3 Total energy of a system
      • 2.4 The energy equation of an open system
      • 2.5 Applications of conservation equation
      • Exercise
    • Chapter 3 The second law of thermodynamics
      • 3.1 Directivity of thermal process
      • 3.2 Statements of the second law
      • 3.3 Carnot's theorem
      • 3.4 The carnot cycle
      • 3.5 The thermodynamic temperature scale
      • 3.6 Entropy-a new concept
      • 3.7 Entropy generation
      • Exercise
    • Chapter 4 Convertibility of Energy, Exergy analysis
      • 4.1 The convertibility of energy
      • 4.2 Definition of exergy and anergy
      • 4.3 Exergy of the energy
      • 4.4 Exergy analysis of system
      • Exercise
    • Chapter 5 Heat Engine and Finite Time Thermodynamics
      • 5.1 Finite time thermodynamics
      • 5.2 Irreversible process and work loss
      • Exercise
    • Chapter 6 Thermodynamic relations
      • 6.1 General mathematical relations&6.2 Thermodynamic relations
      • 6.3 Maxwell relations&6.4 General relations of entropy
      • 6.5 General relations of internal energy&6.6 General relations of enthalpy&6.7 Thermal coefficient
      • Exercise
    • Chapter 7 The state function of practical gas
      • 7.1 Van der waals’s equation
      • 7.2 Compression factor&7.3 Virial equation&7.4 Some special actual gas equation of state
      • 7.5 Contrastive state principle
      • Exercise
    • Chapter 8 Conduction
      • 8.1 The general conduction equation
      • 8.2 Two-dimensional steady state conduction equations
      • 8.3 Transient heat conduction problem
      • Exercise
    • Chapter 9 Convection
      • 9.1 Convection boundary theory
      • 9.2 Boundary layer equations
      • 9.3 External flow
      • 9.4 Internal flow
      • 9.5 Nature convection
      • 9.6 Convection of condensing and boiling
      • 9.7 Thermal considerations in microscale internal flow
      • Exercise
    • Chapter 10 Radiation
      • 10.1 The concept of radiation&10.2 Black-body radiation
      • 10.3 The radiation and geometric factor &10.4 The properties of the geometric factor
      • 10.5 Radiant interchange between grey bodies &10.6 Lambert‘s law &10.7 Selective emitters
      • Exercise
    • Chapter 11 Mass transfer
      • 11.1 Diffusion mass transfer
      • 11.2 Convection mass transfer
      • 11.3 Reynolds analogy &11.4 Evaporative cooling
      • Exercise
    • Exam

      Taught by

      Zheng Hongfei

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