From first principles to modern computational thermal analysis—one rigorous handbook for understanding how heat and mass move through real engineering systems.
When a thermal system succeeds or fails, the critical question is not simply whether heat moves—it is how fast it moves, by which mechanism, and which analytical or numerical method can predict it reliably.
Heat and mass transfer can become difficult when equations are learned in isolation. Conduction, convection, radiation, diffusion, phase change, heat exchangers, and numerical methods often appear as separate topics, leaving students unsure how to choose a model, apply assumptions, track units, select correlations, or judge whether a result makes physical sense.
Practicing engineers face the same challenge when a real system combines several modes at once—or when no convenient closed-form solution exists.
Handbook of Heat and Mass Transfer Engineering develops the subject as a connected engineering framework. Beginning with conservation laws and fundamental rate equations, it progresses from classical analysis to computational, microscale, nanoscale, data-driven, and inverse methods.
The emphasis is on understanding the physics, selecting the right method, carrying a calculation through correctly, and recognizing the limits of the result.
WHAT YOU WILL FIND INSIDE
- Build a strong foundation in Fourier’s law, Newton’s law of cooling, the Stefan–Boltzmann law, Fick’s law, energy balances, thermal resistance, and dimensionless analysis.
- Work through steady and transient conduction, fins, multidimensional effects, forced and natural convection, internal and external flow, boiling, condensation, and heat exchangers.
- Understand thermal radiation from blackbody properties and emissivity to view factors, radiation networks, shields, and combined-mode exchange.
- Connect heat transfer with diffusion, convective mass transfer, evaporation, humidification, drying, and simultaneous heat–mass transfer.
- Move beyond hand calculations with finite-difference, finite-volume, finite-element, CFD, verification, validation, and uncertainty concepts.
- Explore modern topics including heat pipes, vapor chambers, microscale and nanoscale transport, molecular methods, machine-learning correlations, and inverse heat-transfer problems.
- Reinforce understanding through defined variables and units, complete worked calculations, conceptual questions, practice problems, answer keys, appendices, a glossary, and an index.
Conduction and thermal resistance; transient and multidimensional heat flow; boundary layers and convection correlations; internal and external forced flow; natural convection; boiling and condensation; heat-exchanger analysis; radiation properties and enclosure exchange; Fickian diffusion and coupled heat–mass transfer; numerical heat transfer and CFD; microscale and nanoscale transport; data-driven modelling; inverse methods; verification and validation.
WHO THIS BOOK IS FOR
This handbook is designed for upper-level undergraduate and early postgraduate engineering students, as well as practicing engineers seeking a rigorous, application-oriented reference.
Readers should already have introductory knowledge of thermodynamics, fluid mechanics, and differential equations. Prior study of heat transfer is not required.
If you want more than a collection of formulas—if you want a structured path from fundamental transport laws to the analytical and computational tools used to solve demanding thermal problems—add Handbook of Heat and Mass Transfer Engineering to your technical library and start building a more connected understanding of heat, mass, and modern transport analysis.
