| Name: |
Principle of Transport Process |
| Catalog Number: |
421002Y |
Hours/Credits: |
40/2 |
| Prerequisite(s): |
|
General Physics; Thermodynamics; Physical chemistry; ODE (Ordinary Differential Equation). |
| Course Description: |
|
The course is an important basic course for graduate students majored in chemical engineering and technology. Momentum, heat and mass transfer, and reaction engineering are the basic of process industry, such as chemical engineering, petrochemical, biochemical, pharmaceutics, metallurgical and light industry. This course introduces the basic law of momentum, heat and mass transfer and the similarity between them, and the basic method of quantitative research. Taking field theory as main line, the course starts from the physical concepts to the introduction of the tensor and field theory, then establish general differential equations and analysis methods for simplifying and solving practical problems by detailed examples. Implementing the “fever but better” and “in depth” principles, the main aim of the course is to emphasis on cultivating students’ ability of comprehension and application. For graduate students who engaged in scientific research in the future, this course is favorable for how to start and think. |
| Course Content: |
|
Chapter 1 The Basic Law of Momentum, Energy and Mass Transfer.
One-dimensional transfer mechanism; Property coefficient; The similarity of momentum, energy and mass Transfer; Three-dimensional transfer mechanism.
Chapter 2 Examples of Shell Balance Method and One-dimensional Steady-state Transfer
Pipe flow; Chemical heat sources thermal conductivity; The diffusion within the porous catalyst; Natural convection.
Chapter 3 Introduction to field theory and tensor computation
The basic concepts of fluid mechanics; Stress tensor; Field theory; Second-order tensor computation; Constitutive equation for hydrodynamics
Chapter 4 Micro-balance method and general differential equations; Continuity equation; Motion equation; Energy equation; State equation; Equation of multi-component systems
Chapter 5 Transfer Process in Laminar Flow
Isothermal system; Flow function; Non-isothermal system; Boundary layer theory; Multi-component system
Chapter 6 Transfer Process in Turbulence Flow
Homogenization of Navier-Strokes equations; Turbulence flow calculation; κ-ε equation model
Chapter 7 Overall Balance Method and its Application
Overall balance equation; Application of steady-state flow; Application of non-steady-state flow
Chapter 8 Dimensional Analysis Method
Characteristic number; Rule π; Nondimensionalization of general differential equations; Arrangement of experimental data; Application of dimensional analysis method in similarity scale up; Application of steady-state flow; Application of non-steady-state flow. |
| TextBooks: |
|
Jinrong Zha, Jiayong Chen. Transfer Process Principles and Application, Metallurgical Industry Press, Beijing, 1997. (in Chinese) |
| Reference: |
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