Subject Group of Materials Science and Engineering

26201 Transport Phenomena in Materials Engineering Summer

Description and rationale: The aim of this course is to provide basic knowledge of transport phenomena and basic mathematical skills to describe and analyze steady behavior of fluids flows and energy transport. Fluid dynamics and heat transfer are the basis of the course and important lows such as Newton’s law of viscosity and Fourier’s law of heat conduction are reviewed. In particular, multiphase flows such as gas-liquid two-phase flows and solid-liquid two-phase flows frequently encountered in materials processing operations are introduced. Measurement methods for transport phenomena and dimensionless parameters such as the Reynolds number also are focused. The final goal of this course is to acquire basic skills for mathematical and physical modeling of materials processing operations.

Keywords: Fluid, Newton’s law of viscosity, Fourier’s law of heat conduction, Reynolds number, Multiphase flow, Heat transfer, Nusselt number

Pre-requisite: fluid mechanics and applied mathematics

Expected students: master and doctoral

Instructor: Prof. Manabu IGUCHI ()

Course Outline:

1.  Fundamentals of momentum transport

1-1. Nature of fluids

1-2. Compressibility

1-3. Newton’s law of viscosity

1-4. Newtonian fluid

1-5. No-slip condition

1-6. Transition to turbulence

1-7. Bernoulli equation

2. Fundamentals of heat transport

2-1. Fourier’s law of heat conduction

2-2. Heat transfer from sphere and circular cylinder

3.  Multiphase flow

3-1. Gas-liquid two-phase flow

3-2. Solid-liquid two-phase flow

4.  Measurement method

4-1. Pressure

4-2. Velocity

4-3. Heat transfer coefficient

4-4. Bubble characteristics such as gas holdup

5.  Mixing and separation

5-1. Mixing methods

5-2. Separation methods

6.  Transport phenomena in real processes

6-1. Refining process

6-2. Continuous casting process

6-3. Snow melting

6-4. Wastewater treatment

Grading: based on the results of quizzes during each lecture (50%) and final examination (50%).

Textbooks and references: Mathematical and Physical Modeling of Materials Processing Operations by O. J. Ilegbusi, M. Iguchi, and W. Wahnsiedler, Chapmann & Hall/CRC (1999), additional handouts are provided at each lecture

3/2007