Chemical Engineering Fluid Mechanics, Third Edition

Content: Cover
 Half Title
 Title Page
 Copyright Page
 Dedication
 Table of Contents
 Preface
 Acknowledgments
 Unit Conversion Factors
 Chapter 1: Basic Concepts
 I. Fundamentals
 A. Introduction and Scope
 B. Basic Laws
 C. Experience
 II. Objective
 A.A Note on Problem Solving
 III. Phenomenological Rate or Transport Laws
 A. Fourier's Law of Heat Conduction
 B. Fick's Law of Diffusion
 C. Ohm's Law of Electrical Conductivity
 D. Newton's Law of Viscosity
 1. Momentum Flux and Shear Stress
 2. Vectors and Dyads
 3. Newtonian and Non-Newtonian Fluids
 IV. The "System." V. Turbulent Macroscopic (Convective) Transport ModelsSummary
 Problems
 Notation
 References
 Chapter 2: Dimensional Analysis and Scale-Up
 I. Introduction
 II. Units and Dimensions
 A. Dimensions
 B. Units
 C. Conversion Factors
 III. Conservation of Dimensions
 A. Numerical Values
 B. Consistent Units
 IV. Dimensional Analysis
 A. Pipeline Analysis
 B. Uniqueness
 C. Dimensionless Variables
 D. Problem Solution
 E. Alternate Groups
 V. Scale-Up
 VI. Dimensionless Groups in Fluid Mechanics
 VII. Accuracy and Precision
 Summary
 Problems
 Notation
 Chapter 3: Fluid Properties in Perspective. I. Classification of Materials and Fluid PropertiesII. Determination of Fluid Viscous (Rheological) Properties
 A. Cup and Bob (Couette) Viscometer
 B. Tube Flow (Poiseuille) Viscometer
 III. Types of Non-Newtonian Fluid Behavior
 A. Newtonian Fluid
 B. Bingham Plastic Model
 C. Power Law Model
 D. Structural Viscosity Models
 1. Carreau Model
 2. Other Models
 IV. Temperature Dependence of Viscosity
 A. Liquids
 B. Gases
 V. Density
 VI. Surface Tension
 Summary
 Problems
 Notation
 References
 Chapter 4: Fluid Statics
 I. Stress and Pressure
 II. The Basic Equation of Fluid Statics. A. Constant Density FluidsB. Ideal Gas: Isothermal
 C. Ideal Gas: Isentropic
 D. The Standard Atmosphere
 III. Moving Systems
 A. Vertical Acceleration
 B. Horizontally Accelerating Free Surface
 C. Rotating Fluid
 IV. Buoyancy
 V. Static Forces on Solid Boundaries
 Summary
 Problems
 Notation
 Chapter 5: Conservation Principles
 I. The System
 II. Conservation of Mass
 A. Macroscopic Mass Balance
 B. Microscopic Mass Balance
 III. Conservation of Energy
 A. Internal Energy
 1. Ideal Gas
 2. Nonideal Gas
 3. Solids and Liquids
 B. Enthalpy
 1. Ideal Gas
 2. Nonideal Gas
 3. Solids and Liquids. IV. Irreversible EffectsA. Kinetic Energy Correction
 V. Conservation of Linear Momentum
 A. One-Dimensional Flow in a Tube
 B. The Loss Coefficient
 C. Conservation of Angular Momentum
 D. Moving Boundary Systems and Relative Motion
 E. Microscopic Momentum Balance
 Summary
 Problems
 Notation
 Reference
 Chapter 6: Pipe Flow
 I. Flow Regimes
 II. General Relations for Pipe Flows
 A. Energy Balance
 B. Momentum Balance
 C. Continuity
 D. Energy Dissipation
 III. Newtonian Fluids
 A. Laminar Flow
 B. Turbulent Flow
 1. Boundary Layer
 2. Turbulent Momentum Flux
 3. Mixing Length Theory.