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fundamentals of thermodynamics

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  • Cover

  • FUNDAMENTALS OF THERMODYNAMICS

  • ISBN: 0-4700-4192-7

  • Preface

  • Contents

  • Symbols

  • 1 SOME INTRODUCTORY COMMENTS

    • 1.1 The Simple Steam Power Plant

    • 1.2 Fuel Cells

    • 1.3 The Vapor-Compression Refrigeration Cycle

    • 1.4 The Thermoelectric Refrigerator

    • 1.5 The Air Separation Plant

    • 1.6 The Gas Turbine

    • 1.7 The Chemical Rocket Engine

    • 1.8 Other Applications and Environmental Issues

  • 2 SOME CONCEPTS AND DEFINITIONS

    • 2.1 A Thermodynamic System and the Control Volume

    • 2.2 Macroscopic Versus Microscopic Point of View

    • 2.3 Properties and State of a Substance

    • 2.4 Processes and Cycles

    • 2.5 Units for Mass, Length, Time, and Force

    • 2.6 Energy

    • 2.7 Specific Volume and Density

    • 2.8 Pressure

    • 2.9 Equality of Temperature

    • 2.10 The Zeroth Law of Thermodynamics

    • 2.11 Temperature Scales

    • 2.12 Engineering Appilication

    • Summary

    • Problems

  • 3 PROPERTIES OF A PURE SUBSTANCE

    • 3.1 The Pure Substance

    • 3.2 Vapor-Liquid-Solid-Phase Equilibrium in a Pure Substance

    • 3.3 Independent Properties of a Pure Substance

    • 3.4 Tables of Thermodynamic Properties

    • 3.5 Thermodynamic Surfaces

    • 3.6 The P–V–T Behavior of Low- and Moderate-Density Gases

    • 3.7 The Compressibility Factor

    • 3.8 Equations of State

    • 3.9 Computerized Tables

    • 3.10 Engineering Applications

    • Summary

    • Problems

  • 4 WORK AND HEAT

    • 4.1 Definition of Work

    • 4.2 Units for Work

    • 4.3 Work Done at the Moving Boundary of a Simple Compressible System

    • 4.4 Other Systems that Involve Work

    • 4.5 Concluding Remarks Regarding Work

    • 4.6 Definition of Heat

    • 4.7 Heat Transfer Modes

    • 4.8 Comparison of Heat and Work

    • 4.9 Engineering Applications

    • Summary

    • Problems

  • 5 THE FIRST LAW OF THERMODYNAMICS

    • 5.1 The First Law of Thermodynamics for a Control Mass Undergoing a Cycle

    • 5.2 The First Law of Thermodynamics for a Change in State of a Control Mass

    • 5.3 Internal Energy—A Thermodynamic Property

    • 5.4 Problem Analysis and Solution Technique

    • 5.5 The Thermodynamic Property Enthalpy

    • 5.6 The Constant-Volume and Constant-Pressure Specific Heats

    • 5.7 The Internal Energy, Enthalpy, and Specific Heat of Ideal Gases

    • 5.8 The First Law as a Rate Equation

    • 5.9 Conservation of Mass

    • 5.10 Engineering Applications

    • Summary

    • Problems

  • 6 FIRST-LAW ANALYSIS FOR A CONTROL VOLUME

    • 6.1 Conservation of Mass and the Control Volume

    • 6.2 The First Law of Thermodynamics for a Control Volume

    • 6.3 The Steady-State Process

    • 6.4 Examples of Steady-State Processes

    • 6.5 The Transient Process

    • 6.6 Engineering Applications

    • Summary

    • Problems

  • 7 THE SECOND LAW OF THERMODYNAMICS

    • 7.1 Heat Engines and Refrigerators

    • 7.2 The Second Law of Thermodynamics

    • 7.3 The Reversible Process

    • 7.4 Factors that Render Processes Irreversible

    • 7.5 The Carnot Cycle

    • 7.6 Two Propositions Regarding the Efficiency of a Carnot Cycle

    • 7.7 The Thermodynamic Temperature Scale

    • 7.8 The Ideal-Gas Temperature Scale

    • 7.9 Ideal versus Real Machines

    • 7.10 Engineering Applications

    • Summary

    • Problems

  • 8 ENTROPY

    • 8.1 The Inequality of Clausius

    • 8.2 Entropy—A Property of a System

    • 8.3 The Entropy of a Pure Substance

    • 8.4 Entropy Change in Reversible Processes

    • 8.5 The Thermodynamic Property Relation

    • 8.6 Entropy Change of a Solid or Liquid

    • 8.7 Entropy Change of an Ideal Gas

    • 8.8 The Reversible Polytropic Process for an Ideal Gas

    • 8.9 Entropy Change of a Control Mass During an Irreversible Process

    • 8.10 Entropy Generation

    • 8.11 Principle of the Increase of Entropy

    • 8.12 Entropy as a Rate Equation

    • 8.13 Some General Comments about Entropy and Chaos

    • Summary

    • Problems

  • 9 SECOND-LAW ANALYSIS FOR A CONTROL VOLUME

    • 9.1 The Second Law of Thermodynamics for a Control Volume

    • 9.2 The Steady-State Process and the Transient Process

    • 9.3 The Steady-State Single-Flow Process

    • 9.4 Principle of the Increase of Entropy

    • 9.5 Engineering Applications; Efficiency

    • 9.6 Summary of General Control Volume Analysis

    • Summary

    • Problems

  • 10 IRREVERSIBILITY AND AVAILABILITY

    • 10.1 Available Energy, Reversible Work, and Irreversibility

    • 10.2 Availability and Second-Law Efficiency

    • 10.3 Exergy Balance Equation

    • 10.4 Engineering Applications

    • Summary

    • Problems

  • 11 POWER AND REFRIGERATION SYSTEMS—WITH PHASE CHANGE

    • 11.1 Introduction to Power Systems

    • 11.2 The Rankine Cycle

    • 11.3 Effect of Pressure and Temperature on the Rankine Cycle

    • 11.4 The Reheat Cycle

    • 11.5 The Regenerative Cycle

    • 11.6 Deviation of Actual Cycles from Ideal Cycles

    • 11.7 Cogeneration

    • 11.8 Introduction to Refrigeration Systems

    • 11.9 The Vapor-Compression Refrigeration Cycle

    • 11.10 Working Fluids for Vapor-Compression Refrigeration Systems

    • 11.11 Deviation of the Actual Vapor-Compression Refrigeration Cycle from the Ideal Cycle

    • 11.12 Refrigeration Cycle Configurations

    • 11.13 The Ammonia Absorption Refrigeration Cycle

    • Summary

    • Problems

  • 12 POWER AND REFRIGERATION SYSTEMS—GASEOUS WORKING FLUIDS

    • 12.1 Air-Standard Power Cycles

    • 12.2 The Brayton Cycle

    • 12.3 The Simple Gas-Turbine Cycle with a Regenerator

    • 12.4 Gas-Turbine Power Cycle Configurations

    • 12.5 The Air-Standard Cycle for Jet Propulsion

    • 12.6 The Air-Standard Refrigeration Cycle

    • 12.7 Reciprocating Engine Power Cycles

    • 12.8 The Otto Cycle

    • 12.9 The Diesel Cycle

    • 12.10 The Stirling Cycle

    • 12.11 The Atkinson and Miller Cycles

    • 12.12 Combined-Cycle Power and Refrigeration Systems

    • Summary

    • Problems

  • 13 GAS MIXTURES

    • 13.1 General Considerations and Mixtures of Ideal Gases

    • 13.2 A Simplified Model of a Mixture Involving Gases and a Vapor

    • 13.3 The First Law Applied to Gas-Vapor Mixtures

    • 13.4 The Adiabatic Saturation Process

    • 13.5 Engineering Applications—Wet-Bulb and Dry-Bulb Temperatures and the Psychrometric Chart

    • Summary

    • Problems

  • 14 THERMODYNAMIC RELATIONS

    • 14.1 The Clapeyron Equation

    • 14.2 Mathematical Relations for a Homogeneous Phase

    • 14.3 The Maxwell Relations

    • 14.4 Thermodynamic Relations Involving Enthalpy, Internal Energy, and Entropy

    • 14.5 Volume Expansivity and Isothermal and Adiabatic Compressibility

    • 14.6 Real-Gas Behavior and Equations of State

    • 14.7 The Generalized Chart for Changes of Enthalpy at Constant Temperature

    • 14.8 The Generalized Chart for Changes of Entropy at Constant Temperature

    • 14.9 The Property Relation for Mixtures

    • 14.10 Pseudopure Substance Models for Real-Gas Mixtures

    • 14.11 Engineering Applications—Thermodynamic Tables

    • Summary

    • Problems

  • 15 CHEMICAL REACTIONS

    • 15.1 Fuels

    • 15.2 The Combustion Process

    • 15.3 Enthalpy of Formation

    • 15.4 First-Law Analysis of Reacting Systems

    • 15.5 Enthalpy and Internal Energy of Combustion; Heat of Reaction

    • 15.6 Adiabatic Flame Temperature

    • 15.7 The Third Law of Thermodynamics and Absolute Entropy

    • 15.8 Second-Law Analysis of Reacting Systems

    • 15.9 Fuel Cells

    • 15.10 Engineering Applications

    • Summary

    • Problems

  • 16 INTRODUCTION TO PHASE AND CHEMICAL EQUILIBRIUM

    • 16.1 Requirements for Equilibrium

    • 16.2 Equilibrium Between Two Phases of a Pure Substance

    • 16.3 Metastable Equilibrium

    • 16.4 Chemical Equilibrium

    • 16.5 Simultaneous Reactions

    • 16.6 Coal Gasification

    • 16.7 Ionization

    • 16.8 Applications

    • Summary

    • Problems

  • 17 COMPRESSIBLE FLOW

    • 17.1 Stagnation Properties

    • 17.2 The Momentum Equation for a Control Volume

    • 17.3 Forces Acting on a Control Surface

    • 17.4 Adiabatic, One-Dimensional, Steady-State Flow of an Incompressible Fluid through a Nozzle

    • 17.5 Velocity of Sound in an Ideal Gas

    • 17.6 Reversible, Adiabatic, One-Dimensional Flow of an Ideal Gas through a Nozzle

    • 17.7 Mass Rate of Flow of an Ideal Gas through an Isentropic Nozzle

    • 17.8 Normal Shock in an Ideal Gas Flowing through a Nozzle

    • 17.9 Nozzle and Diffuser Coefficients

    • 17.10 Nozzle and Orifices as Flow-Measuring Devices

    • Summary

    • Problems

  • CONTENTS OF APPENDIX

    • APPENDIX A SI UNITS: SINGLE-STATE PROPERTIES

    • APPENDIX B SI UNITS: THERMODYNAMIC TABLES

    • APPENDIX C IDEAL-GAS SPECIFIC HEAT

    • APPENDIX D EQUATIONS OF STATE

    • APPENDIX E FIGURES

    • APPENDIX F ENGLISH UNIT TABLES

  • ANSWERS TO SELECTED PROBLEMS

  • INDEX

Nội dung

[...]... Many countries have already banned the production of some of these compounds, and the search for improved replacement fluids continues These are only some of the many environmental problems caused by our efforts to produce goods and effects intended to improve our way of life During our study of thermodynamics, which is the science of the conversion of energy from one form to another, we must continue... excellent definition of thermodynamics is that it is the science of energy and entropy Since we have not yet defined these terms, an alternate definition in already familiar terms is: Thermodynamics is the science that deals with heat and work and those properties of substances that bear a relation to heat and work As with all sciences, the basis of thermodynamics is experimental observation In thermodynamics. .. first, second, and third laws of thermodynamics In addition to these laws, the zeroth law of thermodynamics, which in the logical development of thermodynamics precedes the first law, has been set forth In the chapters that follow, we will present these laws and the thermodynamic properties related to these laws and apply them to a number of representative examples The objective of the student should be... both chemical processing and cryogenics, thermodynamics is basic to an understanding of many phenomena and to the design and development of processes and equipment Air separation plants of many different designs have been developed Consider Fig 1.9, a simplified sketch of a type of plant that is frequently used Air from the atmosphere is compressed to a pressure of 2 to 3 MPa (20 to 30 times normal atmospheric... fuel tanks occupy the largest part of the volume of a rocket, and the range and payload of a rocket are determined largely by the amount of oxidizer and fuel that can be carried Many different fuels and oxidizers have been considered and tested, and much effort has gone into the development of fuels and oxidizers that will give a higher thrust per unit mass rate of flow of reactants Liquid oxygen is frequently... 4.3 Work Done at the Moving Boundary of a Simple Compressible System, 93 4.4 Other Systems that Involve Work, 102 4.5 Concluding Remarks Regarding Work, 104 4.6 Definition of Heat, 106 4.7 Heat Transfer Modes, 107 4.8 Comparison of Heat and Work, 109 4.9 Engineering Applications, 110 Summary, 113 Problems, 114 5 127 THE FIRST LAW OF THERMODYNAMICS 5.1 The First Law of Thermodynamics for a Control Mass... REACTIONS 15.1 Fuels, 615 15.2 The Combustion Process, 619 15.3 Enthalpy of Formation, 626 15.4 First-Law Analysis of Reacting Systems, 629 15.5 Enthalpy and Internal Energy of Combustion; Heat of Reaction, 635 15.6 Adiabatic Flame Temperature, 640 15.7 The Third Law of Thermodynamics and Absolute Entropy, 642 15.8 Second-Law Analysis of Reacting Systems, 643 15.9 Fuel Cells, 648 15.10 Engineering Applications,... from the application of thermodynamics Thermodynamics is relevant to many processes other than those cited in this chapter It is basic to the study of materials, chemical reactions, and plasmas The student should bear in mind that this chapter is only a brief and necessarily incomplete introduction to the subject of thermodynamics 1.1 THE SIMPLE STEAM POWER PLANT A schematic diagram of a recently installed... both a thorough understanding of the fundamentals and an ability to apply them to thermodynamic problems The examples and problems further this twofold objective It is not necessary for the student to memorize numerous equations, for problems are best solved by the application of the definitions and laws of thermodynamics In this chapter, some concepts and definitions basic to thermodynamics are presented... such equipment, and the solution of problems will be more meaningful when they have some familiarity with the actual processes and the equipment Second, this chapter will provide an introduction to thermodynamics, including the use of certain terms (which will be more formally defined in later chapters), some of the problems to which thermodynamics can be applied, and some of the things that have been accomplished, . matter of classical thermodynamics, and believe that the book provides adequate preparation for study of the application of thermodynamicsto the various professional fields as well as for study of. for each of us, the encouragement and patience of our wives and families have been indispensable, and have made this time of writing pleasant and enjoyable, in spite of the pressures of the project Modes, 107 4.8 Comparison of Heat and Work, 109 4.9 Engineering Applications, 110 Summary, 113 Problems, 114 5 THE FIRST LAW OF THERMODYNAMICS 127 5.1 The First Law of Thermodynamics for a Control

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