Description
Modeling in Transport Phenomena, Second Edition presents and clearly explains with example problems the basic concepts and their applications to fluid flow, heat transfer, mass transfer, chemical reaction engineering and thermodynamics. A balanced approach is presented between analysis and synthesis, students will understand how to use the solution in engineering analysis. Systematic derivations of the equations and the physical significance of each term are given in detail, for students to easily understand and follow up the material.
There is a strong incentive in science and engineering to understand why a phenomenon behaves the way it does. For this purpose, a complicated real-life problem is transformed into a mathematically tractable problem while preserving the essential features of it. Such a process, known as mathematical modeling, requires understanding of the basic concepts. This book teaches students these basic concepts and shows the similarities between them. Answers to all problems are provided allowing students to check their solutions. Emphasis is on how to get the model equation representing a physical phenomenon and not on exploiting various numerical techniques to solve mathematical equations.
- A balanced approach is presented between analysis and synthesis, students will understand how to use the solution in engineering analysis.
- Systematic derivations of the equations as well as the physical significance of each term are given
Chapter
Suggested references for further study
Chapter 2. Molecular and Convective Transport
2.2. Dimensionless Numbers
2.3. Convective Transport
Suggested references for further study
Chapter 3. Interphase Transport and Transfer Coefficients
3.2. Heat Transfer Coefficient
3.3. Mass Transfer Coefficient
3.4. Dimensionless Numbers
Suggested references for further study
Chapter 4. Evaluation of Transfer Coefficients: Engineering Correlations
4.1. Reference Temperature and Concentration
4.2. Flow Past a Flat Plate
4.3. Flow Past a Single Sphere
4.4. Flow Normal to a Single Cylinder
4.5. Flow in Circular Pipes
Suggested references for further study
Chapter 5. Rate of Generation in Momentum, Energy, and Mass Transport
5.1. Rate of Generation in Momentum Transport
5.2. Rate of Generation in Energy Transport
5.3. Rate of Generation in Mass Transport
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Chapter 6. Steady-State Macroscopic Balances
6.1. Conservation of Chemical Species
6.2. Conservation of Mass
6.3. Conservation of Energy
Suggested references for further study
Chapter 7. Unsteady-State Macroscopic Balances
7.1. Approximations Used in Modeling of Unsteady-State Processes
7.2. Conservation of Chemical Species
7.3. Conservation of Total Mass
7.4. Conservation of Momentum
7.5. Conservation of Energy
7.6. Design of a Spray Tower for the Granulation of Melt
Suggested references for further study
Chapter 8. Steady Microscopic Balances Without Generation
8.2. Energy Transport Without Convection
8.3. Energy Transport with Convection
8.4. Mass Transport Without Convection
8.5. Mass Transport with Convection
Suggested references for further study
Chapter 9. Steady Microscopic Balances with Generation
9.2. Energy Transport Without Convection
9.3. Energy Transport with Convection
9.4. Mass Transport Without Convection
9.5. Mass Transport with Convection
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Chapter 10. Unsteady-State Microscopic Balances Without Generation
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Chapter 11. Unsteady-State Microscopic Balances with Generation
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Appendix A. Mathematical Preliminaries
A.1. Cylindrical and Spherical Coordinate Systems
A.3. Slopes on Log-Log and Semi-Log Graph Paper
A.4. Leibnitz's Rule for Differentiation of Integrals
A.5. Numerical Differentiation of Experimental Data
A.6. Regression and Correlation
A.7. The Root of an Equation
A.8. Methods of Integration
Suggested references for further study
Appendix B. Solutions of Differential Equations
B.1. Types of First-Order Equations with Exact Solutions
B.2. Second-Order Linear Differential Equations
B.3. Second-Order Partial Differential Equations
Suggested references for further study
Appendix C. Flux Expressions for Mass, Momentum, and Energy
Appendix D. Physical Properties
Appendix E. Constants and Conversion Factors