7 Lectures / 33 Sections / 12h 39m 10s
Lecture 1:Course Introduction
Lecture 2:Momentum Transport
Lecture 3:Energy Transport
Lecture 4:Mass Transport
Lecture 5:Phase Review
Lecture 6:Heat Exchanger
Lecture 7:Separation Methods
Introduction
Duration| 12h 39m 10s
Total Lectures| 7 Lectures 33 Sections

Brief course description

This course is designed to provide a basic understanding of transport phenomena and unit operations for graduate students with a non-chemical engineering undergraduate background. It is divided into two parts. The first part takes 9 weeks to cover physical properties (viscosity, conductivity, diffusivity) and (momentum, energy, mass) transport mechanisms, and shell balance techniques for solving physical quantity (velocity, temperature, concentration) distributions in simple transport problems. The second part focuses on several key unit operations such as fluid delivery, mixing, separation and heating and drying that are critical for students to learn so that they can apply some basic knowledge and skill in this area when they start to work in domestic plants.

Course keywords

pump, flow meters, heat exchanger, dryer, distillation, leaching, extraction, absorption, adsorption, mechanical separation

Textbook

Bird, R.B., W.E. Stewart, and E.N. Lightfoot, "Transport Phenomena," 2nd ed., Wiley (2002).

References

王茂齡, “輸送現象” 高立圖書 (1993)

Middleman, S., “An Introduction to Fluid Mechanics” and “An Introduction to Mass and Heat Transfer”, Wiley(1998)

Syllabus

Transport phenomena:

Momentum transport (3 weeks)

Energy transport (3 weeks)

Mass transport (3 weeks)

Unit operations:

Fluid delivery (2 weeks)

Mixing (2 weeks)

Separation (2 weeks)

Heating and drying (2 weeks)

Lectures
Lecture 1:Course Introduction
Section 1 - Overall View the Syllabus
17:13
Lecture 2:Momentum Transport
Section 1 - Molecular Momentum Transport, Viscosity
26:49
Section 2 - Viscosity Affected by Temperature and Pressure, Discussion of No-Slip Boundary Conditions
37:14
Section 3 - Reynolds Numbers of a Fluid in a Circular Tube
01:01:30
Section 4 - Reynolds Number of a Flow of Falling Film
Section 5 - Stokes' Law and Application
23:49
Lecture 3:Energy Transport
Section 1 - Conservation of Energy
04:04
Section 2 - Fourier's Law of Heat Conduction, One-dimensional Heat Conduction
20:00
Section 3 - Heat Conduction in One Dimension: A Composite Wall
15:03
Section 4 - Heat Conduction in One Dimension: A Hollow Tube
36:46
Section 5 - The Principle of Conservation of Energy
21:08
Section 6 - Convection Heat Transfer
25:32
Section 7 - Energy Transport by Radiation
24:22
Lecture 4:Mass Transport
Section 1 - Introduction of Concerntration Difference, Fick's Law
01:27:59
Section 2 - Examples of Diffusion that obey Fick's Law
15:56
Section 3 - Use Film Model of Mass Transport
07:44
Section 4 - In Class Practice: Determination of Diffusivity
07:59
Section 5 - Review of Film Model and In Class Practice
10:22
Section 6 - In Class Practice: Film Model of Mass Transfer
11:42
Section 7 - Example: Rate of Leaching
25:08
Section 8 - Quasi-Steady State
31:43
Lecture 5:Phase Review
Section 1 - Midterm Recap
22:49
Section 2 - Briefing Factory Tour (including Process of Making Powder from Solution)
11:56
Section 3 - Overall View of the 2nd Part: Unit Operations
27:49
Lecture 6:Heat Exchanger
Quiz 1 - Announcement
Section 2 - Solution of In-class Practice
00:45
Lecture 7:Separation Methods
Section 1 - Introduction
10:24
Section 2 - Examples of Evaporation and Distillation
25:45
Section 3 - Drying of Solids
19:47
Section 4 - Principle of Adsorption
10:46
Section 5 - Freundlich Adsorption Isotherm and Langmuir Adsorption Isotherm
34:36
Section 6 - Leaching & Extraction
43:13
Section 7 - Properties and Handling of Particulate Solids
39:17
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Prof. Tsai De-Hao

Dept.  Chemical Engineering

Research Field

Colloid and interface science; Particle technology; aerosol technology;

️ E-mail

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