
Momentum, Heat, and Mass Transport
Fundamentals of Convective Transfer and Separation Process Principles for Chemical EngineersBy Roy YildirimLength11h 41m
About this audiobook
Three transport processes, one set of equations: learn momentum, heat and mass transfer together and each one gets easier.
Most textbooks teach momentum, heat, and mass transfer as separate subjects, forcing you to relearn the same mathematics three times. This book takes the unified approach that chemical engineers have always needed: start from shell balances and build velocity profiles yourself, then watch the same balance logic carry you through conduction resistances, fins, and transient response using Biot and Fourier numbers. Convection correlations arrive with their validity ranges attached, so you know when a number is defensible. You work boiling curves, condensation, radiation view factors, then size exchangers by both log-mean and effectiveness methods.
Mass transfer follows the same path: diffusivities, film theory, overall coefficients, then flash and distillation stages, packed-column transfer units, extraction, membranes, and drying. Worked examples stay on real equipment throughout, so every equation connects to a pump, a reboiler, a packed tower, or a heat exchanger you might actually specify. The result is a coherent framework that makes each new topic feel like a variation on a theme rather than a fresh mountain to climb.
What you will learn:
• How the transport analogy links momentum, heat, and mass transfer through shared shell-balance logic
• To derive laminar velocity profiles from first principles and extend them to turbulent flow, boundary layers, and friction factors
• Steady and transient conduction, including fins, Biot and Fourier numbers, and thermal resistance networks
• Forced and natural convection correlations with their validity ranges, so you can defend your choice of equation
• Boiling and condensation curves, radiation view factors, and heat exchanger sizing by LMTD and effectiveness-NTU methods
• Mass transfer fundamentals: diffusivities, film theory, and overall coefficients for interphase transfer
• Stage-wise separation: flash calculations, distillation stages, and the McCabe-Thiele approach
• Rate-based operations: packed-column transfer units, extraction, membranes, and drying
• How to apply every concept to real process equipment, from reboilers to packed towers
For chemical engineering students and process engineers who size thermal and separation equipment, this book is both a rigorous introduction and a working reference. If you want one text that builds your intuition from shell balances to equipment sizing, this is it.
Audiobook details
GenreTechnology, Science and Nature
Length11 hrs 41 mins
Narrated byListen with 1,000+ voices
FormateBook with Audio
Publish dateSep 27, 2026
LanguageEnglish
Table of contents
1Momentum, Heat, and Mass Transport
2Foreword
3Preface
4About This Book
5Chapter 1: The Transport Analogy
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61.1 The Three Molecular Transport Mechanisms
71.2 The Governing Conservation Statement
81.3 Flux, Driving Force, and Resistance
91.4 Units, Property Evaluation, and Correlation Discipline
101.5 The Transport Analogy in Practice
11Chapter 2: Shell Balances and Laminar Velocity Profiles
122.1 The Shell Balance Method
132.2 Flow in Slits and Tubes
142.3 Annular Flow and Concentric Cylinders
152.4 Falling Films and Free Surfaces
162.5 The Navier–Stokes Equations in Context
17Chapter 3: Turbulent Flow, Boundary Layers and Friction
183.1 Transition and the Nature of Turbulence
193.2 Time-Averaged Equations and Eddy Transport
203.3 Friction Factors for Internal Flow
213.4 Boundary Layers over Flat Plates
223.5 Flow over Immersed Bodies
23Chapter 4: Steady Conduction
244.1 The Conduction Equation and Plane Walls
254.2 Cylindrical and Spherical Geometry
264.3 Resistance Networks and Contact Resistance
274.4 Fins and Fin Efficiency
28Chapter 5: Transient Conduction
295.1 Lumped Capacitance and the Biot Number
305.2 One-Term Solutions and the Fourier Number
315.3 Semi-Infinite Solids and Periodic Heating
32Chapter 6: Forced Convection
336.1 The Convection Coefficient and Thermal Entry Length
346.2 Internal Flow Correlations
356.3 External Flow Correlations
366.4 Property Evaluation and Correlation Validity
37Chapter 7: Natural Convection
387.1 Buoyancy, Grashof and Rayleigh Numbers
397.2 Vertical and Horizontal Surfaces
407.3 Enclosures and Combined Convection
41Chapter 8: Boiling and Condensation
428.1 Pool Boiling Regimes and the Boiling Curve
438.2 Flow Boiling and Two-Phase Behavior
448.3 Filmwise and Dropwise Condensation
45Chapter 9: Thermal Radiation
469.1 Blackbody Emission and Radiative Properties
479.2 View Factors and Enclosure Networks
489.3 Radiation in Participating Media
49Chapter 10: Heat Exchangers
5010.1 Types, Flow Arrangements and Overall Coefficients