Product Description
Heat transfer is the exchange of heat energy between a system and its surrounding environment, which results from a temperature difference and takes place by means of a process of thermal conduction, mechanical convection, or electromagnetic radiation.

Advances in Heat Transfer is designed to fill the information gap between regularly scheduled journals and university-level textbooks by providing in-depth review articles over a broader scope than is allowable in either journals or texts. ... Read more

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Introductory textbook introducing the concept of competition of entropy and energy with various examples.

Thermodynamics textbook explaining the roles of entropy and energy as prime movers of nature.

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This book provides a compilation of important optical techniques applied to experiments in heat and mass transfer, multiphase flow and combustion. The emphasis of this book is on the application of these techniques to various engineering problems. The contributions are aiming to provide practicing engineers, both in industry and research, with the recent state-of-science in the application of advanced optical measurements. The book is written by selected specialists representing leading experts in this field who present new information for the possibilities of these techniques and give stimulation of new ideas for their application. ... Read more

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This unique book provides a fresh perspective on the thermodynamics of the classic energy cycles. The author considers modifications of various power cycles that have the potential to double the efficiency of electricpower generation. The book offers a detailed discussion of nonadiabatic behavior during compression and expansion, which is a topic of central importance in the enhancement of efficiency. Coverage includes practical ways of recouping waste heat from a modified Joule cycle, latent heat recovery, and power and latent heat cycles utilizing compression and expansion along the vapor-pressure or saturation curve of the working fluid. The methodology discussed can be applied directly to geothermal and solar energy recovery, and is particularly adapted to skid-mounted units, as used for gas-fired turbine/generators. The evidence presented shows that significant increases in efficiency are still possible in spite of the conventional wisdom about the classic powercycles.

Stresses nonadiabatic behavior during compression and expansion
Examines the theoretical contradictions of the Carnot cycle and demonstrates ways to circumvent the theoretical efficiency limitations of this system
Provides concrete examples for markedly increasing the efficiency of power generation cycles
Takes up the subject of latent heat recovery cycles
Shows that compression along the vapor-pressure or saturation curve can be used to enhance the efficiency of energy conversion cycles ... Read more

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This book describes methodologies for performing numerical simulations of transport processes in heat transfer and fluid flow. The reader is guided to make the proper selection of simulation techniques and to interpret the acquired results based on the flow physics involved. Computer programs which are used to solve heat transfer and fluid flow problems are integrated into the text. Illustrative examples of thermo-fluid phenomena are provided in every chapter to enhance understanding of the subjects by offering the reader hands-on experience of numerical simulations.

Most of the fundamental transport processes in heat transfer and fluid flow, e.g. heat conduction in a solid body, convection heat transfer of a fin, laminar and turbulent heat transfer and flow in a duct or tube, and boundary layers over a flat plate are covered. A strong emphasis is placed on examinations of the thermo-fluid phenomena inside a flow passage (such as tube and a channel). The book contains detailed discussions on the formulation of the boundary conditions which is often the key issue in making successful numerical simulations of the physical phenomena of interest.

Simulations are carefully designed so that conventional 16-bit personal computers, such as IBM PC® or Apple Macintosh® can be used. Visualizing thesimulated results in graphic form (plotting charts and line contours of physical variables) significantly enhances the reader's understanding of the important transport processes. The book is intended as an introductory text for numerical simulations of heat transfer and fluid flow phenomena. Description is simple and self-contained so that beginners can easily understand the material, yet it will also serve as a useful reference work for the practitioner. Exercise problems are supplied by which the reader can consolidate knowledge of simulation techniques described and gain further insight in the physical processes of interest.

The book contains two 3½ inch floppy disks, each of which stores a complete set of simulation source codes discussed in the text. These programs are recorded in ASCII format and can be run either on IBM PC® or Macintosh® using QuickBasic®. The programs are well-documented within the text as well as in the codes themselves with a number of comment statements. This helps the reader understand the flow of program runs and, if the reader so wishes, modifying the original source codes. To facilitate prescription of the physical conditions for simulations, these programs run in a highly interactive mode. In addition, the diskettes contain a number of compiled programs which can be executed without the QuickBasic® program. ... Read more

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In this compelling, and important book, John Schmitz brings order to the world of chaos that surrounds us. The Second Law of Life refers to the second law of thermodynamics, entropy, which is an omnipresent force that quietly and crucially determines every aspect of our society, culture and daily lives. Unless we come to understand entropy, future generations will face consequences of the unstoppable laws of physics.

Entropy explains the amount of energy no longer capable of doing work; in other words, wasted energy or heat loss. Each moment of every day, we lose irreplaceable energy and ômodernö technology is not helping. In fact, it is accelerating the problem at a catastrophic rate. û And we will ultimately face a heat death crisis and utter destruction of the Earth.

Even actions we take to improve the environment may actually do more damage than good. For example, recycling is considered environmentally, socially and politically correct. Under the influence of entropy, however, it is a prolific waster of energy; we must look at entire systems, not just parts.

It is critical that we find ways to reduce energy loss. Seeing the problems with greater clarity will lead to solutions. This fascinating and accessible journey through the second law of thermodynamics is a step in the right direction. ... Read more

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Combustion of Two-Phase Reactive Media addresses the complex phenomena involved in the burning of solid and liquid fuels. In fact, the multiplicity of phenomena characteristic of combustion of two-phase media determine the contents. The three parts deal with: the dynamics of a single particle; combustion wave propagation in two-phase reactive media; and thermal regimes of combustion reactors. The book generalizes the results of numerous investigations into the ignition and combustion of solid particles, droplets and bubbles, combustion wave propagation in heterogeneous reactive media, the stability of combustion of two-phase media, as well as the thermal regimes of high-temperature combustion reactors. It merges findings from the authors’ investigations into problems of two-phase flows and material from graduate-level courses they teach at Technion-Israel Institute of Technology.

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Every chapter of Radiative Heat Transfer offers uncluttered nomenclature, numerous worked examples, and a large number of problems - many based on "real world" situations, making it ideal for classroom use as well as for self-study.The book's 22 chapters cover the four major areas in the field: surface properties; surface transport; properties of participating media; and transfer through participating media.Within each chapter, all analytical methods are developed in substantial detail, and a number of examples show how the developed relations may be applied to practical problems.

· Extensive solution manual for adopting instructors
· Most complete text in the field of radiative heat transfer
· Many worked examples and end-of-chapter problems
· Large number of computer codes (in Fortran and C++), ranging from basic problem solving aids to sophisticated research tools
· Covers experimental methods ... Read more

Customer Reviews (2)

Great Book!
Product was exactly as stated. Edition and quality were excellent. Prompt shipping as well. Thanks again.

Especially commended to students of engineering
Now in an updated and expanded second edition, Radiative Heat Transfer by Michael F. Modest is a college-level mechanical and chemical engineering textbook, specifically written and intended for advanced students already familiar with basic calculus. Individual chapters address radiative exchange between a variety of surfaces; equations, functions, and methodologies; the influence of conduction and convention, and much, much more. An advanced resource and an excellent text or supplement to engineering education, Radiative Heat Transfer is especially commended to students of Mechanical Engineering and Chemical Engineering. ... Read more

Product Description
Knowledge of vapour-liquid equilibrium (VLE) data is necessary for the proper understanding of a large number of industrial and laboratory processes. Such data allow a grasp of the thermodynamic behaviour of mixtures, the study of intermolecular interactions and enable insight into the molecular nature of mixtures. They are also a basis for the development of theoretical thermodynamic models. Scientists and engineers will obviously benefit from a careful collection of the existing data.

This book aims to provide a reliable collection of such data. Original data have been gathered from around 450 literature sources, including 80 journals and a number of dissertations and diploma papers. Previously unpublished data from the Thermodynamic Department of the former Merseburg-University and the author's own data sets are included.

The VLE-data are divided into three chapters:

1. Vapour pressures of binary polymer solutions (or solvent activities) - Chapter 2

2. Segment-molar excess Gibbs free energies of binary polymer solutions (in the form of Redlich-Kister parameters) - Chapter 3

3. Weight fraction Henry-constants for gases and vapours in molten polymers (from inverse gas-liquid chromatography measurements) - Chapter 4.

A short introduction to the experimental methods and data reduction is included as Chapter 1. There are indexes for the polymers and solvents cited. ... Read more

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C. P. Snow once remarked that not knowing the second law of thermodynamics is like never having read Shakespeare. Yet, while many people grasp the first law of energy, "Energy can neither be created nor destroyed," few recognize the second, "Entropy can only increase." What is entropy anyway, and why must it increase? Whether we want to know how a device as simple as a refrigerator works or understand the fate of the universe, we must start with the concepts of energy and entropy.In The Refrigerator and the Universe, Martin and Inge Goldstein explain the laws of thermodynamics for science buffs and neophytes alike. They begin with a lively presentation of the historical development of thermodynamics. The authors then show how the laws follow from the atomic theory of matter and give examples of their applicability to such diverse phenomena as the radiation of light from hot bodies, the formation of diamonds from graphite, how the blood carries oxygen, and the history of the earth. The laws of energy, the Goldsteins conclude, have something to say about everything, even if they do not tell us everything about anything.

In The Refrigerator and the Universe, Martin and Inge Goldstein explain the laws of thermodynamics for science buffs and neophytes alike. They begin with a lively presentation of the historical development of thermodynamics. The authors then show how the laws follow from the atomic theory of matter and give examples of their applicability to such diverse phenomena as the radiation of light from hot bodies, the formation of diamonds from graphite, how the blood carries oxygen, and the history of the earth. The laws of energy, the Goldsteins conclude, have something to say about everything, even if they do not tell us everything about anything.

Customer Reviews (4)

A classic account
Quite a few good to excellent pop science books have been published since this volume was released in 1995. After 14 years the Goldsteins' book still stands for this reader as one of the most rewarding. For one thing, the authors are serious about getting historical detail right. The authors write fluently, but there is a clear expectation that the details of the intellectual adventure are what will engage and sustain your interest. For those not already well versed in thermodynamics, the book will require closer attention than some other very good books on overlapping topics such as Boltzmann's Atom by David Lindley. The payoff from the Goldsteins' book is, however, exceptional. As with John Derbyshire's Prime Obsession, when you finish this book, you will have much of an insider's understanding of an important but difficult subject (up through the early 1990s), even if you knew little or nothing about it going in. Highly recommended.

The real explanation of the I and II law of thermodynamics
In the U I had this rather old professor who said that we should not be discouraged by the difficulty in thermodynamics for many great men of science found it difficult too.

If I had to go back and teach those course I would start by recommending this book.. first sound principles well grasped.. anything can be done after that

Useful introduction to, or review of, thermodynamics
The book presents the three laws of thermodynamics:the first law (conservation of energy)in chapters 1-4, the second law (dispersal of energy) in chapters 5-9, and the third law (low temperature behavior) in chapter 14.Other chapters apply thermodynamics to light, chemistry, biology, geology, and cosmology.The authors present thermodynamics using both classical and statistical mechanical arguments.References are listed for further study of topics.

Although the book is intended for a general audience, the book will be interesting even to a reader who already has some familiarity with thermodynamics because the book probably treats at least a few applications with which he is unfamiliar.The book also makes a number of refreshing admissions about the limits of thermodynamics; for example, thermodynamics can't be strictly applied to living organisms (p. 297), and in general relativity, energy need not be conserved (p. 370).

The book requires a knowledge of simple algebra and logarithms; however, a tutorial on these subjects is presented in an appendix.

The laws of entropy in the most elementary terms
This book is truly a gift to thosewho desire to understand in depth the making of that which exists. The thinking and aggressive searchfor understanding behind this workhas brought the laws of entropy toits most basic level. Knowing thatthe breakup of order does not designate disorder but instead order to a higher degree, seems tobe the rudimental step in discovery. The question seems to merely be what phase of order is one looking at and through what psychological belief patterns is one viewing the order? Martin Goldstein and Inge F. Goldstein takes one through the phases of development with simplicity and ease. Knowing that order is the framework by which visualization takes place and that disorder fragments vision until the loss ofvisual effect becomes total, surely gives one a different way by which to understand an environment and its connecting forces. Does change in its most elementary meaning then bring about disorder to an ordered system? Perhaps ordered systemscan expand connecting additional knowledge to itself or expand and break apart, all governed according to the forces feeding it. Martin and Inge have certainlybegun a cycle of reconsiderations and reevaluations of one's basic pattern of thinking. ... Read more

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The physical framework used to describe the various conversions is endoreversible thermodynamics, a subset of irreversible thermodynamics. Thermodynamics of Solar Energy Conversion provides an excellent generalized introduction into principles of solar energy conversion for everybody knowing some basics of university mathematics. Described are situations which are not in equilibrium and in which entropy is continuously created, but which are nevertheless stationary. In dealing with endoreversible thermodynamics, the given information in this book enables the reader to calculate the explicit values for a broad class of processes. It is demonstrated that solar energy conversion is a process particularly suited to being described in this way.

"De Vos is a wonderful storyteller"
—Prof. Dr. B. Andresen ... Read more

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Through analyses, experimental results, and worked-out numerical examples, Microscale and Nanoscale Heat Transfer: Fundamentals and Engineering Applications explores the methods and observations of thermophysical phenomena in size-affected domains. Compiling the most relevant findings from the literature, along with results from their own research activities, the authors provide a useful treatise on the principal concepts and practical design engineering aspects of heat transfer.

The book discusses in detail various modern engineering applications, such as microchannel heat sinks, micro heat exchangers, and micro heat pipes. It covers methods that range from discrete computation to optical measurement techniques for microscale applications. The authors also present the fundamentals of nanoscale thermal phenomena in fluids. The text concludes with an entire chapter devoted to numerical examples of microscale conduction, convective heat transfer, and radiation as well as nanoscale thermal phenomena.

Drawing on their hands-on experience, the authors shed light on the differences to consider while developing engineering designs related to micro- and nanoscale systems. ... Read more

Product Description
Covers essential parts of cloud and precipitation physics and has been extensively rewritten with over 60 new illustrations and many new and up to date references. The early chapters review atmospheric thermodynamics, providing a background for a new chapter on observed cloud properties, and revised chapters on the nucleation of water droplets and ice crystals, their growth and the development of precipitation. Many current topics are covered such as mesoscale meteorology, radar cloud studies and numerical cloud modelling, and topics from the second edition, such as severe storms, precipitation processes and large scale aspects of cloud physics, have been revised. Problems are included as examples and to supplement the text. ... Read more

Customer Reviews (6)

Revisions Needed
While this is the 'stand alone' book on cloud physics it could use an update.Some of the answers to problems in the back are incorrect and the problems are very difficult/hard to process based on information given in the text.Variables are defined once in-text with no other reference unless they change and no nomenclature section is given.While the content is good this makes it hard to follow, but this could be easily remedied!

Concise and comprehensive textbook for Cloud microphysics.
R. R. Rogers and M. K. Yau develop and demonstrate the concepts of thermodynamics and transport processes that control formation of rain, hail, snow and fog. The book is concise, yet precise, and provides a coherent course material for cloud physics. The book introduces the essential thermodynamics in first four chapters. The next four chapters describe the journey from water vapor phase to initiation of rain. Next two chapters deal with formation of ice crystals and snow, again borrowing from knowledge imparted in first eight chapters. The next four chapters deal with weather, weather modification, storms and hail. The last chapter introduces numerical cloud models, which have proved to be increasingly useful in studying precipitation processes.

For an engineer or a physicist, the first few chapters demonstrate how their knowledge can be translated into understanding of atmospheric physics. The mathematics in the book, as well as examples, are limited to dealing with the essential concepts. The language is simple, even when concepts are far-ranging, showing how complex phenomenon can be assimilated and described through knowledge of key principles.

"A History of Theories of Rain" by Middleton shows how cloud physics progressed through centuries and benefited from misunderstandings and geniuses of some of the best minds of past centuries: Clausius,Atkins, Lord Rayleigh, Hutton, Langmuir, Weller, Arab scholars of Xth century, Aristotle, Stokes, and so on. The text by Rogers and Yau presents the essence of understanding developed through contributions from innumerable thinkers, experimentalists and scientists. Highly recommended for beginners and for curious minds interesting in understanding the physics of rain, hail and snow.

recommended by my professor
The homework problems at the end of the chapter are impossible o figure out form the text, but at least they give you some solutions.

Good introductory book on cloud physics
There are very few stand-alone cloud physics text books on the market.More often than not only a chapter is devoted to clouds in a general atmospheric sciences text book, which grossly neglects the complexity of the subject.Fortunately this one does provide a terrific introduction for students/researchers in atmospheric sciences/physics/engineering who want to learn more about clouds.Basic concepts are presented in a consice but often mathy way.Sometimes the empirical equations can throw the readers off a bit.Unfortunately these catches are almost inevitable in cloud physics.

A great merit of this book is its size.A well-designed undergraduate course can definitely go through most of the topics.At the same time there is enough detailed information that the interested instructors and students can develop term projects or simple models using the book as a reference.In all I highly recommend this text as an introduction to cloud physics.Advanced researchers in the field, however, will need a more extensive reference, such as Pruppacher and Klett.

Best introductory text on cloud physics
As an engineer trying to come up to speed on cloud physics, this book was absolutely essential. It covers essentials such as the thermodynamics of dry air, water vapor and its thermodynamic effects, parcel buoyancy and atmospheric stability, mixing and convection, observed properties of clouds, formation of cloud droplets, droplet growth by condensation, initiation of rain in nonfreezing clouds, formation and growth of ice crystals, rain and snow, weather radar, precipitation processes, severe storms and hail, weather modification, and numerical weather models.

This is the best introductory text one can buy. ... Read more