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1.

図書
図書
1. Thermodynamics and statistical mechanics
John M. Seddon & Julian D. Gale
出版情報: Cambridge : Royal Society of Chemistry, c2001  viii, 161 p. ; 25 cm
シリーズ名: Tutorial chemistry texts ; 10
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Introduction / 1：
The Laws of Thermodynamics / 1.1：
Definitions / 1.2：
Exothermic and Endothermic Processes / 1.3：
The First Law / 2：
Internal Energy / 2.1：
Heat / 2.2：
Work / 2.3：
Heat Capacity, Enthalpy and Thermochemistry / 3：
Heat Capacity, C / 3.1：
Enthalpy / 3.2：
Thermochemistry / 3.3：
Reaction Enthalpy and Hess's Law / 3.4：
Temperature Dependence of Enthalpy Changes / 3.5：
The Second and Third Laws: Entropy / 4：
Spontaneous Processes / 4.1：
The Clausius Inequality / 4.2：
Temperature Dependence of the Entropy, S / 4.3：
Free Energy / 5：
Gibbs and Helmholtz Free Energy / 5.1：
Maximum Work / 5.2：
Pressure and Temperature Dependence of G / 5.3：
Phase Transitions / 6：
Stability of Phases / 6.1：
Effect of Pressure on the Boiling Point / 6.2：
Phase Diagrams / 6.3：
Clapeyron Equation / 6.4：
Clausius-Clapeyron Equation / 6.5：
Gibbs Free Energy and Chemical Potential / 6.6：
Chemical Equilibrium / 7：
Extent of Reaction and the Reaction Gibbs Free Energy / 7.1：
The Equilibrium Constant / 7.2：
Temperature Dependence of the Equilibrium Constant / 7.3：
Effect of Pressure on Equilibrium / 7.4：
Le Chatelier's Principle / 7.5：
The Statistical Definition of Entropy / 8：
Statistical Entropy / 8.1：
Microstates / 8.2：
Calculating the Entropy / 8.3：
Connecting Microscopic and Macroscopic Properties / 9：
Ensembles / 9.1：
Ensemble Averages / 9.2：
What is the Preferred State of a System? / 9.3：
The Boltzmann Distribution / 9.4：
The Partition Function / 10：
Definition of the Partition Function / 10.1：
The Internal Energy / 10.2：
The Helmholtz Free Energy / 10.3：
The Entropy / 10.4：
The Pressure / 10.5：
The Isochoric Heat Capacity / 10.6：
An Ideal Gas of Atoms / 11：
The Ideal Gas / 11.1：
The Molecular Partition Function / 11.2：
The Translational Partition Function / 11.3：
The Internal Energy of a Monatomic Ideal Gas / 11.4：
The Heat Capacity of a Monatomic Ideal Gas / 11.5：
The Pressure of a Monatomic Ideal Gas / 11.6：
The Entropy of a Monatomic Ideal Gas / 11.7：
An Ideal Gas of Diatomic Molecules / 12：
The Rotational Partition Function / 12.1：
Rotation and Symmetry / 12.2：
The Properties of a Rigid Rotor / 12.3：
The Harmonic Oscillator / 12.4：
Thermodynamic Properties of the Harmonic Oscillator / 12.5：
The Electronic Partition Function / 12.6：
Statistical Mechanics and Equilibrium / 13：
Thermodynamics of Gaseous Molecules / 13.1：
The Gibbs Free Energy / 13.2：
The Standard Gibbs Free Energy / 13.3：
The Equilibrium Constant, K[subscript p] / 13.4：
Glossary
Answers to Problems
Subject Index
Introduction / 1：
The Laws of Thermodynamics / 1.1：
Definitions / 1.2：
2.

図書
図書
2. Chemically reacting flow : theory and practice (hbk)
Robert J. Kee, Michael E. Coltrin, Peter Glarborg
出版情報: New York : J. Wiley, c2003  xxxiii, 848 p. ; 27 cm
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Preface
Acknowledgments
Nomenclature
Introduction
Fluid Kinematics
The Conservation Equations
Parallel Flows
Similarity and Local Similarity
Stagnation Flows
Channel Flow
Statistical Thermodynamics
Mass Action Kinetics
Reaction Rate Theories
Heterogeneous Chemistry
Molecular Transport
Reaction Mechanisms
High-Temperature Chemistry
Numerical Solution of Stiff Equations
Zero- and One-Dimensional Systems
Two-Dimensional Systems
Vector and Tensor Operations / Appendix A：
Navier-Stokes Equations / Appendix B：
Boundary-Layer Behavior / Appendix C：
Solving Differential Equations in Excel / Appendix D：
The Chemkin Approach / Appendix E：
References
Index
Preface
Acknowledgments
Nomenclature
3.

図書
図書
3. Introduction to thermal systems engineering : thermodynamics, fluid mechanics, and heat transfer (: [international ed.] ; : [international ed.] CD-ROM)
Michael J. Moran ... [et al.]
出版情報: New York : John Wiley & Sons, c2003  viii, 562 p. ; 27 cm.
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4.

図書
図書
4. Introduction to chemical engineering thermodynamics. 6th ed
J.M. Smith, H.C. Van Ness, M.M. Abbott
出版情報: Boston : McGraw-Hill, 2001  xviii, 789 p. ; 24 cm
シリーズ名: McGraw-Hill chemical engineering series
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Preface
Introduction / 1：
The First Law and Other Basic Concepts / 2：
Volumetric Properties of Pure Fluids / 3：
Heat Effects / 4：
The Second Law of Thermodynamics / 5：
Thermodynamic Properties of Fluids / 6：
Applications of Thermodynamics to Flow Processes / 7：
Production of Power from Heat / 8：
Refrigeration and Liquefaction / 9：
Vapor/Liquid Equilbrium: Introduction / 10：
Solution Thermodynamics: Theory / 11：
Solution Thermodynamics: Applications / 12：
Chemical-Reaction Equilibria / 13：
Topics in Phase Equilibria / 14：
Thermodynamic Analysis of Processes / 15：
Introduction to Molecular Thermodynamics / 16：
Appendixes
Conversion Factors and Values of the Gas Constant / A：
Properties of Pure Species / B：
Heat Capacities and Property Changes of Formation / C：
Representative Computer Programs / D：
The Lee/Kesler Generalized-Correlation Tables / E：
Steam Tables / F：
Thermodynamic Diagrams / G：
UNIFAC Method / H：
Newton's Method / I：
Author Index
Subject Index
Preface
Introduction / 1：
The First Law and Other Basic Concepts / 2：
5.

図書
図書
5. Maxwell's demon 2 : entropy, classical and quantum information, computing. 2[nd]
edited by Harvey S. Leff and Andrew F. Rex
出版情報: Bristol : Institute of Physics, c2003  xvi, 485 p. ; 25 cm
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6.

図書
図書
6. Thermal sciences : an introduction to thermodynamics, fluid mechanics, and heat transfer
Merle C. Potter, Elaine P. Scott
出版情報: Belmont, CA : Brooks/Cole, c2004  xviii, 772 p. ; 25 cm.
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Introduction to Thermal Sciences
Thermodynamics / Part 1：
Concepts, Definitions, and Basic Principles / Chapter 1：
Introduction / 1.1：
Thermodynamic Systems and Control Volumes / 1.2：
Macroscopic Description / 1.3：
Properties and State of a System / 1.4：
Equilibrium, Processes, and Cycles / 1.5：
Units / 1.6：
Density, Specific Volume, and Specific Weight / 1.7：
Pressure / 1.8：
Temperature / 1.9：
Energy / 1.10：
Summary / 1.11：
Properties of Pure Substances / Chapter 2：
The p-v-T Surface / 2.1：
The Liquid-Vapor Region / 2.3：
Properties of Steam / 2.4：
Steam Tables / 2.4.1：
TK Solver / 2.4.2：
Equations of State / 2.5：
Equations of State for a Nonideal Gas / 2.6：
Work and Heat / 2.7：
Definition of Work / 3.1：
Quasi-equilibrium Work Due to a Moving Boundary / 3.3：
Nonequilibrium Work / 3.4：
Other Work Modes / 3.5：
Heat Transfer / 3.6：
Conduction / 3.6.1：
Convection / 3.6.2：
Radiation / 3.6.3：
The First Law of Thermodynamics / 3.7：
The First Law Applied to a Cycle / 4.1：
The First Law Applied to a Process / 4.3：
Enthalpy / 4.4：
Latent Heat / 4.5：
Specific Heats / 4.6：
The First Law Applied to Systems / 4.7：
General Formulation for Control Volumes / 4.8：
The First Law Applied to Control Volumes / 4.9：
Transient Flow / 4.10：
The First Law with Heat Transfer Applications / 4.11：
The Second Law of Thermodynamics / 4.12：
Heat Engines, Heat Pumps, and Refrigerators / 5.1：
Statements of the Second Law of Thermodynamics / 5.3：
Reversibility / 5.4：
The Carnot Engine / 5.5：
Carnot Efficiency / 5.6：
Entropy / 5.7：
Entropy for an Ideal Gas with Constant Specific Heats / 5.8：
Entropy for an Ideal Gas with Variable Specific Heats / 5.9：
Entropy Change for Substances Such As Steam, Solids, and Liquids / 5.10：
The Inequality of Clausius / 5.11：
Entropy Change for an Irreversible Process / 5.12：
The Second Law Applied to a Control Volume / 5.13：
Power and Refrigeration Vapor Cycles / 5.14：
The Rankine Cycle / 6.1：
A Possible Steam Carnot Cycle / 6.3：
Rankine Cycle Efficiency / 6.4：
The Reheat Cycle / 6.5：
The Regenerative Cycle / 6.6：
Effect of Losses on Power Cycle Efficiency / 6.7：
The Vapor-Refrigeration Cycle / 6.8：
The Heat Pump / 6.9：
Power and Refrigeration Gas Cycles / 6.10：
The Air-Standard Cycle / 7.1：
The Carnot Cycle / 7.3：
The Otto Cycle / 7.4：
The Diesel Cycle / 7.5：
The Brayton Cycle / 7.6：
The Regenerative Brayton Cycle / 7.7：
The Combined Brayton-Rankine Cycle / 7.8：
The Gas-Refrigeration Cycle / 7.9：
Psychrometrics / 7.10：
Gas-Vapor Mixtures / 8.1：
Adiabatic Saturation and Wet-Bulb Temperatures / 8.3：
The Psychrometric Chart / 8.4：
Air-Conditioning Processes / 8.5：
Combustion / 8.6：
Combustion Equations / 9.1：
Enthalpy of Formation, Enthalpy of Combustion, and the First Law / 9.2：
Adiabatic Flame Temperature / 9.3：
Fluid Mechanics / 9.4：
Basic Considerations / Chapter 10：
Dimensions, Units, and Physical Quantities / 10.1：
Continuum View of Gases and Liquids / 10.3：
Pressure and Temperature Scales / 10.4：
Fluid Properties / 10.5：
Density and Specific Weight / 10.5.1：
Viscosity / 10.5.2：
Compressibility / 10.5.3：
Surface Tension / 10.5.4：
Vapor Pressure / 10.5.5：
Conservation Laws / 10.6：
Thermodynamic Properties and Relationships / 10.7：
Properties of an Ideal Gas / 10.7.1：
First Law of Thermodynamics / 10.7.2：
Other Thermodynamic Quantities / 10.7.3：
Fluid Statics / 10.8：
Pressure at Point / 11.1：
Pressure Variation / 11.3：
Fluids at Rest / 11.4：
Pressures in Liquids at Rest / 11.4.1：
Pressures in the Atmosphere / 11.4.2：
Manometers / 11.4.3：
Forces on Plane Areas / 11.4.4：
Forces on Curved Surfaces / 11.4.5：
Buoyancy / 11.4.6：
Linearly Accelerating Containers / 11.5：
Rotating Containers / 11.6：
Introduction to Fluids in Motion / 11.7：
Description of Fluid Motion / 12.1：
Lagrangian and Eulerian Disciplines of Motion / 12.2.1：
Pathlines, Streaklines, and Streamlines / 12.2.2：
Acceleration / 12.2.3：
Angular Velocity and Vorticity / 12.2.4：
Classification of Fluid Flows / 12.3：
One-, Two-, and Three-Dimensional Flows / 12.3.1：
Viscous and Inviscid Flows / 12.3.2：
Laminar and Turbulent Flows / 12.3.3：
Incompressible and Compressible Flows / 12.3.4：
The Bernoulli Equation / 12.4：
The Integral Forms of the Fundamental Laws / 12.5：
The Three Basic Laws / 13.1：
System-to-Control-Volume Transformation / 13.3：
Simplifications of the System-to-Control-Volume Transformation / 13.3.1：
Conservation of Mass / 13.4：
Energy Equation / 13.5：
Work-Rate Term / 13.5.1：
General Energy Equation / 13.5.2：
Steady Uniform Flow / 13.5.3：
Steady Nonuniform Flow / 13.5.4：
Momentum Equation / 13.6：
General Momentum Equation / 13.6.1：
Momentum Equation Applied to Deflectors / 13.6.2：
Dimensional Analysis and Similitude / 13.6.4：
Dimensional Analysis / 14.1：
Motivation / 14.2.1：
Review of Dimensions / 14.2.2：
Buckingham [pi]-Theorem / 14.2.3：
Common Dimensionless Parameters / 14.2.4：
Similitude / 14.3：
General Information / 14.3.1：
Confined Flows / 14.3.2：
Free-Surface Flows / 14.3.3：
High-Reynolds-Number Flows / 14.3.4：
Compressible Flows / 14.3.5：
Periodic Flows / 14.3.6：
Internal Flows / 14.4：
Entrance Flow and Developed Flow / 15.1：
Laminar Flow in a Pipe / 15.3：
Laminar Flow between Parallel Plates / 15.4：
Laminar Flow between Rotating Cylinders / 15.5：
Turbulent Flow in a Pipe / 15.6：
Differential Equation / 15.6.1：
Velocity Profile / 15.6.2：
Losses in Developed Pipe Flow / 15.6.3：
Losses in Noncircular Conduits / 15.6.4：
Minor Losses in Pipe Flow / 15.6.5：
Hydraulic and Energy Grade Lines / 15.6.6：
Simple Pipe System with a Pump / 15.6.7：
Uniform Turbulent Flow in Open Channels / 15.7：
External Flows / 15.8：
Separation / 16.1：
Flow around Immersed Bodies / 16.3：
Drag Coefficients / 16.3.1：
Vortex Shedding / 16.3.2：
Streamlining / 16.3.3：
Cavitation / 16.3.4：
Added Mass / 16.3.5：
Lift and Drag on Airfoils / 16.4：
Potential Flow Theory / 16.5：
Basic Flow Equations / 16.5.1：
Simple Solutions / 16.5.2：
Superposition / 16.5.3：
Boundary Layer Theory / 16.6：
General Background / 16.6.1：
Von Karman Integral Equation / 16.6.2：
Approximate Solution to the Laminar Boundary Layer / 16.6.3：
Turbulent Boundary Layer: Power-Law Form / 16.6.4：
Turbulent Boundary Layer: Empirical Form / 16.6.5：
Convection Heat Transfer / 16.6.6：
Pressure Gradient Effects / 16.6.7：
Compressible Flow / 16.7：
Speed of Sound and the Mach Number / 17.1：
Isentropic Nozzle Flow / 17.3：
Normal Shock Wave / 17.4：
Shock Waves in Converging-Diverging Nozzles / 17.5：
Oblique Shock Waves / 17.6：
Isentropic Expansion Waves / 17.7：
Appendix / 17.8：
Units and Conversions / A.：
Material Properties / B.：
Thermodynamic Properties of Water (Steam Tables) / C.：
Thermodynamic Properties of Freon 12 / D.：
Thermodynamic Properties of Ammonia / E.：
Ideal-Gas Tables / F.：
Psychrometric Charts / G.：
Compressibility Chart / H.：
Compressible-Flow Tables for Air / I.：
Properties of Areas and Volumes / J.：
Vector Relations / K.：
Answers to Selected Problems
Index
Introduction to Thermal Sciences
Thermodynamics / Part 1：
Concepts, Definitions, and Basic Principles / Chapter 1：
7.

図書
図書
7. An introduction to thermal physics (international ed)
Daniel V. Schroeder
出版情報: San Francisco, CA : Addison Wesley, c2000  x, 422 p. ; 24 cm
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Fundamentals / I：
Energy in Thermal Physics / 1：
The Second Law / 2：
Interactions and Implications / 3：
Thermodynamics / II：
Engines and Refrigerators / 4：
Free Energy and Chemical Thermodynamics / 5：
Statistical Mechanics / III：
Boltzmann Statistics / 6：
Quantum Statistics / 7：
Systems of Interacting Particles / 8：
Elements of Quantum Mechanics / Appendix A：
Mathematical Results / Appendix B：
Reference Data
Suggested Reading
Fundamentals / I：
Energy in Thermal Physics / 1：
The Second Law / 2：
8.

図書
図書
8. Thermochemical processes : principles and models
C.B. Alcock
出版情報: Oxford : Butterworth-Heinemann, 2001  xiii, 386 p. ; 24 cm
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Introduction
Vapour deposition
Chemical vapour deposition
Gaseous reactions, Photochemical Reactions
Molecular decomposition
Adsorption and surface energies of metals
Catalysis of Metals
Solid State Kinetics
Charge and heat transport properties
Structure and diffusion properties of metals
Diffusion in non-metallic systems
Solid state processes in oxides
Gas-solid reactions
Processes involving liquids
Extraction Metallurgy
Appendices
Bibliography
Index
Introduction
Vapour deposition
Chemical vapour deposition
9.

図書
図書
9. Chemical thermodynamics : principles and applications
J. Bevan Ott and Juliana Boerio-Goates
出版情報: London : Academic Press, c2000  xxiii, 664 p. ; 25 cm
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Preface to the Two-Volume Series
Preface to the First Volume
Introduction / Chapter 1：
Thermodynamics--A Pre-eminent Example of an Exact Science / 1.1：
The Language of Thermodynamics / 1.2：
The Thermodynamic System / 1.2a：
Isolated, Closed, and Adiabatic Systems: Surroundings and the Universe / 1.2b：
Components and Mixtures / 1.2c：
Chemical Processes / 1.2d：
Thermodynamic Variables / 1.3：
Number of moles (n) / 1.3a：
Volume (V) / 1.3b：
Pressure (p) / 1.3c：
Temperature (T) / 1.3d：
The Zeroth Law of Thermodynamics
Temperature Scales
The Thermodynamic or Kelvin Temperature Scale
The Absolute Temperature Scale
The International Temperature Scale--ITS-90
Internal Energy (U) / 1.3e：
Entropy (S) / 1.3f：
Enthalpy (H) / 1.3g：
Helmholtz Free Energy (A) / 1.3h：
Gibbs Free Energy (G) / 1.3i：
The Mathematics of Thermodynamics / 1.4：
The Pfaffian Differential and the Test for Exactness / 1.4a：
Relationships Between Exact Differentials / 1.4b：
Derivation of Thermodynamic Equations using the Properties of the Exact Differential / 1.5：
Examples of the Application of Exact Differential Relationships / 1.5a：
Calculation of Changes in the Thermodynamic Variable / 1.6：
Use of Units / 1.7：
References
The First and Second Laws of Thermodynamics / Chapter 2：
The First Law of Thermodynamics / 2.1：
Work / 2.1a：
Calculation of Work / 2.1b：
The Isobaric Process
The Isochoric Process
The Isothermal Process
The Reversible Process
Calculation of Heat / 2.1c：
Heat Capacity
Relationships between U, H, q, C[subscript p], and C[subscript V]
Calculation of q for Other Processes / 2.1d：
The Second Law of Thermodynamics / 2.2：
The Carnot Cycle: A Hypothetical Engine of Fundamental Importance / 2.2a：
The Kelvin Temperature and Its Role in Calculating an Entropy Change / 2.2b：
The Second Law Expressed in Terms of an Entropy Change / 2.2c：
Caratheodory and Pfaffian Differentials / 2.2d：
Pfaffian Differential Expressions With Two Variables
Pfaffian Differential Expressions with Three or More Variables and the Conditions for the Existence of an Integrating Denominator
The Caratheodory Principle and Inaccessible States / 2.2e：
The Identification of the Absolute (Ideal Gas) Temperature as the Integrating Denominator / 2.2f：
Entropy Changes for Reversible and Irreversible Paths / 2.2g：
Calculation of an Entropy Change / 2.2h：
Calculation of [Delta]S for the Reversible Isothermal Expansion of an Ideal Gas
Calculation of [Delta]S for the Reversible Adiabatic Expansion
Calculation of [Delta]S for the Isobaric Temperature Change
Calculation of [Delta]S for the Isochoric Temperature Change
Calculation of [Delta]S for the Reversible (Equilibrium) Phase Change
Calculation of [Delta]S for the Mixing of Ideal Gases at Constant T and p
Entropy and Disorder / 2.2i：
Implications of the Laws / 2.3：
The Laws of Thermodynamics and Cyclic Engines / 2.3a：
Thermodynamic Relationships and Applications / Chapter 3：
The Gibbs Equations / 3.1：
Partial Differential Relationships / 3.2：
The Gibbs-Helmholtz Equation / 3.2a：
Observations About the Differential Relationships / 3.2b：
Applications of the Differential Relationships / 3.3：
Examples of the Application of the Differential Relationships / 3.3a：
Difference Between C[subscript p] and C[subscript V] / 3.3b：
The Reversible Adiabatic Expansion or Compression / 3.3c：
The Carnot Cycle / 3.3d：
The Joule-Thomson Expansion / 3.3e：
Relationship Between Free Energy and Work / 3.4：
The Third Law and Absolute Entropy Measurements / Chapter 4：
Verification of the Third Law / 4.1：
Exceptions to the Third Law / 4.2：
Implications and Applications of the Third Law / 4.3：
Attainment of Perfect Order at Low Temperatures / 4.3a：
Limiting Values for Thermal Properties at Zero Kelvin / 4.3b：
Coefficient of Expansion
Temperature Gradient of Pressure
G[subscript 0] and H[subscript 0]
Production of Low Temperatures and the Inaccessibility of Absolute Zero / 4.4：
Production of Low Temperatures / 4.4a：
Joule-Thomson Expansion and Evaporation Techniques
Adiabatic Demagnetization
Nuclear Alignment
Laser Cooling
Inaccessibility of Absolute Zero / 4.4b：
Thermodynamic Functions / 4.5：
The Chemical Potential and Equilibrium / Chapter 5：
Composition as a Variable / 5.1：
The Chemical Potential / 5.2：
Partial Molar Properties / 5.3：
The Gibbs-Duhem Equation / 5.4：
Determination of Partial Molar Properties / 5.5：
Numerical Methods / 5.5a：
Analytical Methods Using Molality / 5.5b：
Analytical Methods Using Mole Fractions / 5.5c：
Calculations of Partial Molar Properties From Apparent Molar Properties / 5.5d：
Criteria for Equilibrium / 5.6：
Criterion for Phase Equilibrium / 5.6a：
The Gibbs Phase Rule / 5.6b：
The Clapeyron Equation / 5.6c：
Criterion for Chemical Equilibrium / 5.6d：
Fugacity, Activity, and Standard States / Chapter 6：
Fugacity / 6.1：
Definition of Fugacity / 6.1a：
Determination of Fugacities / 6.1b：
Fugacity for Pure Condensed Phases / 6.1c：
Effect of Pressure and Temperature on the Vapor Fugacity / 6.1d：
Change of Fugacity With Pressure
Change of Fugacity With Temperature
Fugacity in a Mixture / 6.1e：
Fugacity of a Component in a Gaseous Mixture
Fugacity in Liquid Mixtures: Raoult's Law and Henry's Law
Raoult's Law and the Ideal Solution / a.：
Henry's Law / b.：
The Duhem-Margules Equation / c.：
The Activity / 6.2：
Effect of Pressure on Activity / 6.2a：
Effect of Temperature on Activity / 6.2b：
Standard States / 6.3：
Choice of Standard States / 6.3a：
Standard State of a Gas
Standard States for Pure Solids and Pure Liquids
Standard State of a Solvent in a Mixture
Standard States of Solutes in Solution
Activities of Electrolyte Solutions / 6.4：
Activities and Standard States of Strong Electrolytes / 6.4a：
Activities of Strong Unsymmetrical Electrolytes / 6.4b：
Determination of Activity / 6.5：
Activity from Vapor Pressure Measurements / 6.5a：
Activities from Freezing Point and Boiling Point Measurements / 6.5b：
Activity from Isopiestic Methods / 6.5c：
Solute Activities From Measurement of Partition Coefficients / 6.5d：
Calculation of the Activity of One Component From That of the Other / 6.5e：
The Thermodynamic Properties of Solutions / Chapter 7：
Change in the Thermodynamic Properties of Nonelectrolyte Solutions due to the Mixing Process / 7.1：
Change in Thermodynamic Properties Resulting from the Formation of Ideal Solutions / 7.1a：
Excess Thermodynamic Functions / 7.1b：
Nonpolar + Nonpolar Mixtures
Polar + Nonpolar Mixtures
Mixtures with Hydrogen Bonding
Excess Volume Comparison
Calculation of the Thermodynamic Properties of Strong Electrolyte Solutes: The Debye-Huckel Theory / 7.2：
Derivation of the Activity Coefficient Equations / 7.2a：
Comparison of the Debye-Huckel Prediction with Experimental Values / 7.2b：
The Debye-Huckel Prediction of the Osmotic Coefficient / 7.2c：
The Debye-Huckel Prediction of Thermal and Volumetric Properties of the Solute / 7.2d：
Relative Partial Molar and Apparent Relative Partial Molar Thermal Properties / 7.3：
Relative Partial Molar Enthalpies / 7.3a：
Calculation of [Delta]H from Relative Partial Molar Enthalpies / 7.3b：
Relative Apparent Molar Enthalpy / 7.3c：
Determination of Relative Apparent Molar Enthalpies / 7.3d：
Relative Partial Molar Heat Capacities / 7.3e：
Relative Apparent Molar Heat Capacity / 7.3f：
The Osmotic Pressure / 7.4：
Osmosis / 7.4a：
The Equilibrium Condition Applied to Phase Equilibria / Chapter 8：
Phase Equilibria for Pure Substances / 8.1：
The Phase Diagram and the Gibbs Phase Rule / 8.1a：
Solid + Liquid Equilibrium / 8.1b：
Equilibrium Involving a Condensed Phase and the Vapor Phase / 8.1c：
The Clausius-Clapeyron Equation
Vapor + Liquid Equilibrium: The Critical Point / 8.1d：
Solid + Solid Phase Transitions / 8.1e：
First-Order Phase Transitions
Phase Equilibria for Mixtures / 8.2：
Vapor + Liquid Equilibrium / 8.2a：
Liquid + Liquid Equilibrium / 8.2b：
Effect of Pressure on Solid + Liquid Equilibrium / 8.2c：
Solid + Liquid Equilibria in Less Ideal Mixtures
The Equilibrium Condition Applied to Chemical Processes / Chapter 9：
The Equilibrium Constant / 9.1：
Alternate Forms of the Equilibrium Constant / 9.1a：
Effect of Pressure and Temperature on the Equilibrium Constant / 9.1b：
The Effect of Pressure
The Effect of Temperature
Enthalpies and Gibbs Free Energies of Formation / 9.2：
Determination of Standard Enthalpies and Gibbs Free Energies of Formation / 9.2a：
Enthalpies of Formation
Gibbs Free Energies of Formation
Enthalpies of Formation and Gibbs Free Energies of Formation of Ions in Solution / 9.2b：
Examples of Chemical Equilibrium Calculations / 9.3：
Electrochemical Cells / 9.4：
Thermodynamic Applications of Electrochemical Cells / 9.4a：
Measurement of E[degree] and Activities
Measurement of Equilibrium Constants
Statistical Thermodynamics / Chapter 10：
Energy Levels of an Ideal Gas Molecule / 10.1：
Translational Energy Levels
Rotational Energy Levels
Vibrational Energy Levels
Electronic Energy Levels
Distribution of Energy Among Energy Levels / 10.2：
The Boltzmann Distribution Law / 10.3：
Evaluation of [alpha] / 10.3a：
Evaluation of [beta] / 10.3b：
The Partition Function / 10.4：
Relationship Between the Partition Function and the Thermodynamic Properties / 10.5：
Evaluation of the Partition Function for the Ideal Gas / 10.6：
Translational Partition Function / 10.6a：
Rotational Partition Function / 10.6b：
Vibrational Partition Function / 10.6c：
Electronic Partition Function / 10.6d：
Calculation of the Thermodynamic Properties of the Ideal Gas / 10.7：
Examples of the Derivation of the Contribution to the Thermodynamic Properties / 10.7a：
Translational Contribution to Entropy
Translational and Rotational Contributions to Enthalpy for a Linear Molecule
Vibrational Contribution to the Gibbs Free Energy for a Linear Diatomic Molecule
Calculation of Thermodynamic Properties
Corrections to Table 10.4 for Diatomic Molecules / 10.7b：
Rotational Partition Function Corrections
Anharmonicity and Nonrigid Rotator Corrections
Contributions of Internal Rotation to the Thermodynamic Properties / 10.7c：
Free Rotation (kT ] V[subscript 0])
Hindered Rotation (kT [approximate] V[subscript 0])
Calculation of the Thermodynamic Properties of Solids / 10.8：
The Einstein Heat Capacity Equation / 10.8a：
The Debye Heat Capacity Equation / 10.8b：
Contribution to the Heat Capacity of Solids from Low-lying Electronic Levels: The Schottky Effect / 10.8c：
Mathematics for Thermodynamics / Appendix 1：
Operations with Derivatives and Integrals / A1.1：
Total Differentials and Relationships Between Partial Derivatives / A1.2：
Intensive and Extensive Variables / A1.3：
State Functions and Exact Differentials; Inexact Differentials and Line Integrals / A1.4：
State Functions / A1.4a：
Exact and Inexact Differentials / A1.4b：
Line Integrals / A1.4c：
Pfaffian Differentials / A1.5：
Pfaffian Differential Expressions in Three Dimensions / A1.5a：
Maxwell Relations in Three Dimensions / A1.5b：
Differential Equations, Solution Curves, and Solution Surfaces / A1.5c：
Pfaffian Differential Expressions in Two Dimensions / A1.5d：
Euler's Theorem / A1.6：
Graphical Integrations / A1.7：
The Trapezoidal Rule / A1.7a：
Simpson's Rule / A1.7b：
Stirling's Approximation / A1.8：
The International Temperature Scale of 1990 / Appendix 2：
Fixed Points / A2.1：
Choice of Thermometer / A2.2：
Temperature Interval 0.65 to 5.0 K / A2.2a：
Temperature Interval 3.0 to 24.5561 K / A2.2b：
Temperature Interval 13.8033 to 1234.93 K / A2.2c：
The Deviation Function / A2.3：
Measurement of Temperatures Above 1234.93 K / A2.4：
Correction of Existing Data to ITS-90 / A2.5：
Equations of State for Gases / Appendix 3.：
The Ideal Gas / A3.1：
The Virial Equation / A3.2：
The Virial Equation Explicit in Pressure / A3.3：
Other Equations of State / A3.4：
Cubic Equations of State / A3.5：
Comparison of Cubic Equations of State / A3.5a：
Calculations from Statistical Thermodynamics / Appendix 4：
Thermodynamic Functions of an Ideal Gas / Table A4.1：
Moments of Inertia and Rotational Constants of Some Common Molecules / Table A4.2：
Fundamental Vibrational Frequencies of Some Common Molecules / Table A4.3：
Electronic Energy Levels of some Common Molecules or Atoms With Unpaired Electrons / Table A4.4：
Anharmonic Oscillator and Nonrigid Rotator Corrections / Table A4.5：
Contributions to the Thermodynamic Properties Due to Internal Rotation / Table A4.6：
The Debye Thermodynamic Functions Expressed in Terms of [theta subscript D]/T / Table A4.7：
Preface to the Two-Volume Series
Preface to the First Volume
Introduction / Chapter 1：
10.

図書
図書
10. Introduction to thermodynamics and heat transfer. 2nd ed
Yunus A. Çengel
出版情報: New York : McGraw-Hill, c2008  xxi, 858 p. ; 26 cm
所蔵情報: loading…
目次情報: 続きを見る
Introduction and Overview / 1：
Thermodynamics / Part 1：
Introduction and Basic Concepts / 2：
Energy, Energy Transfer, and General Energy Analysis / 3：
Properties of Pure Substances / 4：
Energy Analysis of Closed Systems / 5：
Mass and Energy Analysis of Control Volumes / 6：
The Second Law of Thermodynamics / 7：
Entropy / 8：
Heat Transfer / Part 2：
Mechanisms of Heat Transfer / 9：
Steady Heat Conduction / 10：
Transient Heat Conduction / 11：
External Forced Convection / 12：
Internal Forced Convection / 13：
Natural Convection / 14：
Radiation Heat Transfer / 15：
Heat Exchangers / 16：
Property Tables and Charts (SI Units) / Appendix 1：
Property Tables and Charts (English Units) / Appendix 2：
Intro to Thermodynamics and Heat Transfer 2e
Introduction and Overview / 1：
Thermodynamics / Part 1：
Introduction and Basic Concepts / 2：
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