Course Name (Chinese):传热学
(English):Conduction
Course Name: Conduction |
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Semester: 4 |
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Program:Building |
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Course Module:Heatingand Ventilation |
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Responsible:Wang Jiansheng |
E-mail:jsw@tju.edu.cn |
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Department:Intelligent building |
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Time Allocation (1 credit hour = 45 minutes) |
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Exercise |
Lecture |
Lab-study |
Project |
Internship (days) |
Personal Work |
12 |
10 |
10 |
Course Description The course mainly introduces the basic theory of heat conduction and helps students to master the basic theory and basic methods of solving heat conduction problems and be able to apply in engineering technology. The course includes: Basic theory of heat conduction, one dimensional steady heat conduction, unsteady heat conduction and numerical solution of heat conduction problems. |
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Prerequisite Higher mathematics, thermodynamics, numerical method |
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Course Objectives To grasp the Fourier's Law, the specific form of the thermal diffusion equation, and the classification of the boundary conditions To master the basic analysis method of one-dimensional steady heat conduction without internal heat source and one-dimensional steady heat conduction with internal heat source To master the general analysis method and lumped parameter method of non-steady heat conduction To master the numerical method of steady and unsteady heat conduction. |
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Course Syllabus 1. Theoretical basis of heat conduction (2 + 1) 1.1 Conductivity equation 1.2 Thermal properties of objects 1.3 Thermal diffusion equation 1.4 Boundary conditions and initial conditions 1.5 Practice 2. One-dimensional steady heat conduction (4 + 1 + 1 + 2) 2.1 Heat conduction through flat wall 2.2 Thermal Conductivity Analysis 2.3 The solution of the thermal conductivity problem in cylindrical coordinates 2.4 Heat conduction with internal heat source 2.5 Heat conduction in the extended surface 2.6 Practice and experiment (computer practice) 3. Unsteady heat conduction (2 + 1) 3.1 Lumped parameter method 3.2 Determination of lumped parameter method 3.3 Lumped parameter analysis of general problems 3.4 Flat wall unsteady heat conduction 3.5 Practice and experiment computer practice) 4. Numerical solution of heat conduction (2 + 1) 4.1 The mathematical basis of numerical method of heat conduction 4.2 Steady heat conduction 4.3 Practice |
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Textbooks & References Incropera, F. et al (2007). Fundamentals of heat and mass transfer 6th edition. John Wiley & Sons J.P. Holman (2005) Heat transfer. |
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Capability Tasks CT1: To understand basic science, and to have analytical ability and the ability to integrate related knowledge. CT2: To apply relevant professional knowledge to the field of science and technology: understanding of the basic concepts and its connotation, application of different methods and concepts which have been learned, capability of judging the scope and limitations of such applications. CT3: To grasp methodologies and engineering tools: identifying, utilizing and solving problems. Even if the students are not familiar with the content, they can turn to computer tools for systematic analysis. CS2: Able to make intelligent monitoring for energy consumption, comfort degree and other physical performance of green buildings, and master active and passive technologies for green guarantee in the operation of buildings; |
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Achievements Master the basic law of thermal radiation, familiar with black body, gray body, diffuse surface, effective radiation, angular coefficient and other concepts, as well as the basic method of calculating radiation heat transfer between objects separated by transparent medium. _level M Understand the basic law of heat and mass exchange and understand that concentration difference is the driving force of material diffusion.-----level N Understand the analogies between mass transfer, momentum transfer and heat transfer. level N |
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Students:Building,Year 3 |
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Assessment: |
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Exam |
Assignment |
Report |
Term Paper |
Presentation |
Others |
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√ |
√ |
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Language of assessment: Attendance: 10 % Assignment: 30 % Final report/test: 60 % |