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ویرایش: 2
نویسندگان: Brent Fultz
سری:
ISBN (شابک) : 1108485782, 9781108485784
ناشر: Cambridge University Press
سال نشر: 2020
تعداد صفحات: 609
زبان: English
فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود)
حجم فایل: 26 مگابایت
در صورت تبدیل فایل کتاب Phase Transitions in Materials به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب انتقال فاز در مواد نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
نسخه جدید این کتاب درسی پرطرفدار، رویکردی اساسی برای تبدیل فاز و ترمودینامیک مواد ارائه میکند. توضیحات در سطح اتم ها و الکترون ها تاکید می شود و به طور جامع موضوعات کلاسیک از متالورژی کلاسیک تا علوم نانو و انتقال فاز مغناطیسی را پوشش می دهد. این کتاب دارای سه بخش است که مبانی تبدیل فاز، منشاء انرژی آزاد گیبس و تحولات فاز اصلی در علم مواد را پوشش میدهد. بخش چهارم در مورد موضوعات پیشرفته به صورت آنلاین در دسترس است. بسیاری از محتوای نسخه اول گسترش یافته است، به ویژه تحولات بارش در جامدات، هسته زایی ناهمگن، و انرژی، آنتروپی و فشار. سه فصل جدید برای پوشش فعل و انفعالات درون ریزساختارها، سطوح و انجماد اضافه شده است. شامل بیش از 170 مسئله پایان فصل، همراه ارزشمندی برای دانشجویان تحصیلات تکمیلی و محققان در علوم مواد، مهندسی، و فیزیک کاربردی است.
The new edition of this popular textbook provides a fundamental approach to phase transformations and thermodynamics of materials. Explanations are emphasised at the level of atoms and electrons, and it comprehensively covers the classical topics from classical metallurgy to nanoscience and magnetic phase transitions. The book has three parts, covering the fundamentals of phase transformations, the origins of the Gibbs free energy, and the major phase transformations in materials science. A fourth part on advanced topics is available online. Much of the content from the first edition has been expanded, notably precipitation transformations in solids, heterogeneous nucleation, and energy, entropy and pressure. Three new chapters have been added to cover interactions within microstructures, surfaces, and solidification. Containing over 170 end-of-chapter problems, it is a valuable companion for graduate students and researchers in materials science, engineering, and applied physics.
Contents Preface Notation Part I Basic Thermodynamics and Kinetics of Phase Transformations 1 Introduction 1.1 What Is a Phase Transition? 1.2 Atoms and Materials 1.3 Pure Elements 1.4 Alloys: Unmixing and Ordering 1.5 What Is a Phase Transformation? 1.6 Brief Review of Thermodynamics and Kinetics Problems 2 Temperature–Composition Phase Diagrams 2.1 Intuition and Expectations about Alloy Thermodynamics 2.2 Free Energy Curves, Solute Conservation, and the Lever Rule 2.3 Common Tangent Construction 2.4 Continuous Solid Solubility Phase Diagram 2.5 Eutectic and Peritectic Phase Diagrams 2.6 Ternary Phase Diagrams 2.7 Free Energy of a Solid Solution 2.8 Unmixing Phase Diagram 2.9 Order–Disorder Phase Diagram 2.10 Alloy Phase Diagrams Problems 3 Diffusion 3.1 Processes of Atom Movements in Crystals 3.2 The Diffusion Equation 3.3 Gaussian and Error Functions in One Dimension 3.4 Fourier Series Solutions to the Diffusion Equation 3.5 Bessel Functions and Other Special Function Solutions Problems 4 Nucleation 4.1 Nucleation Phenomena and Terminology 4.2 Critical Nucleus 4.3 Heterogeneous Nucleation 4.4 Free Energy Curves and Nucleation 4.5 The Nucleation Rate 4.6 Time-Dependent Nucleation 4.7 Nucleation in Multicomponent Systems Problems 5 Effects of Diffusion and Nucleation on Phase Transformations 5.1 Nonequilibrium Processing of Materials 5.2 Alloy Solidification with Suppressed Diffusion in the Solid 5.3 Alloy Solidification with Suppressed Diffusion in Both Solid and Liquid 5.4 Time, Temperature, and Transformation 5.5 Glasses and Liquids 5.6 Kinetics near Equilibrium Problems Part II TheAtomicOriginsofThermodynamicsandKinetics 6 Energy 6.1 Atomic Schr ¨ odinger Equations and Formalism 6.2 Molecular Orbital Theory of Diatomic Molecules 6.3 Electronic Bands and the Tight-Binding Model 6.4 Free and Nearly-Free Electrons 6.5 Some Electronic Structures of Materials 6.6 Elastic Constants and the Interatomic Potential 6.7 Linear Elasticity 6.8 Misfitting Particle Problems 7 Entropy 7.1 Counting and Entropy 7.2 Short-Range Order and the Pair Approximation 7.3 Materials Structures and Properties Described by Clusters 7.4 Concept of Vibrational Entropy 7.5 Phonon Thermodynamics 7.6 Bond Proportion Model 7.7 Bond-Stiffness-versus-Bond-Length Model Problems 8 Pressure 8.1 Materials under Pressure at Low Temperatures 8.2 Thermal Pressure, a Step beyond the Harmonic Model 8.3 Free Energies and Phase Boundaries under Pressure 8.4 Chemical Bonding and Antibonding under Pressure 8.5 Pressure-Driven Phase Transitions 8.6 Activation Volume Problems 9 Interactions in Microstructures and Constrained Equilibrium 9.1 Solid-State Amorphization 9.2 Self-Trapping 9.3 Thermodynamics of Complex Materials 9.4 Partitioning of Energy in Polycrystals and Single Crystals 9.5 Coherency Strains in Chemical Unmixing 9.6 Coupling between Unmixing Processes 9.7 Factoring the Partition Function Problems 10 Atom Movements with the Vacancy Mechanism 10.1 Random Walk and Correlations 10.2 Correlation Factors for Atoms and Vacancies in Alloys 10.3 Phenomena in Alloy Diffusion 10.4 Diffusion in a Potential Gradient 10.5 Diffusion in a Temperature Gradient 10.6 Nonthermodynamic Equilibrium in Driven Systems 10.7 Vineyard’s Theory of Diffusion Problems Part III TypesofPhaseTransformations 11 ThermodynamicsandPhaseTransitionsatSurfaces 11.1 Surface Structure 11.2 Thermodynamic Roughening Transition 11.3 Surface Structure and Kinetics 11.4 Energies of Grain Boundaries and Interfaces 11.5 Anisotropic Surface Energy 11.6 Reactions at Surfaces 11.7 Gas Adsorption Problems 12 Melting 12.1 Structure and Thermodynamics of Melting 12.2 Chemical Trends of Melting 12.3 Free Energy of a Solid 12.4 Entropy of a Liquid 12.5 Thermodynamic Condition for the Melting Temperature 12.6 Glass Transition 12.7 Two Dimensions Problems 13 Solidification 13.1 Solidification Microstructures 13.2 Alloy Solidification with Suppressed Diffusion in the Liquid 13.3 Constitutional Supercooling 13.4 Cellular and Dendritic Microstructures 13.5 Dendrite Growth with Solute Segregation 13.6 Surface Energy 13.7 Developments in Solidification Science Problems 14 Phase Transformations with Interfaces: 1. Microstructure 14.1 Guinier–Preston Zones and Precipitation Sequences 14.2 Precipitation at Grain Boundaries and Defects 14.3 The Eutectoid Transformation and Pearlite 14.4 Heat Treatments of Steel 14.5 The Kolmogorov–Johnson–Mehl–Avrami Growth Equation 14.6 Coarsening Problems 15 Phase Transformations with Interfaces: 2. Energetics and Kinetics 15.1 Interface Thermodynamics and Kinetics 15.2 Atomistic Model of Interface Motion 15.3 Local Nonequilibrium at Fast Interfaces 15.4 Elastic Energy and Shape of Growing Plate-Like Precipitates 15.5 Elastic Energy and Solute Atoms Problems 16 Spinodal Decomposition 16.1 Concentration Fluctuations and the Free Energy of Solution 16.2 A Square Gradient Term in the Free Energy 16.3 Constrained Minimization of the Free Energy 16.4 The Diffusion Equation 16.5 Effects of Elastic Energy on Spinodal Decomposition Problems 17 Phase Field Theory 17.1 Spatial Distribution of Phases and Interfaces 17.2 Order Parameters as Field Quantities 17.3 Domain Boundary Structure 17.4 Domain Boundary Kinetics Problems 18 Method of Concentration Waves and Chemical Ordering 18.1 Structure in Real Space and Reciprocal Space 18.2 Symmetry and the Star 18.3 The Free Energy in k-Space with Concentration Waves 18.4 Symmetry Invariance of Free Energy and Landau–Lifshitz Rule for Second-Order Phase Transitions 18.5 Thermodynamics of Ordering in the Mean Field Approximation with Long-Range Interactions Problems 19 Diffusionless Transformations 19.1 Dislocations, Mechanisms, and Twinning 19.2 Martensite 19.3 Landau Theory of Displacive Phase Transitions 19.4 Crystal Instabilities and Phonons Problems 20 Thermodynamics of Nanomaterials 20.1 Energies of Atoms at Grain Boundaries in Nanocrystals 20.2 Gibbs–Thomson Effect 20.3 Atomic Structures of Nanocrystals 20.4 Electron Energies in Nanomaterials 20.5 Entropy of Nanomaterials 20.6 Magnetic Nanoparticles Problems 21 Magnetic and Electronic Phase Transitions 21.1 Overview of Magnetic and Electronic Phase Transitions 21.2 Exchange Interactions 21.3 Thermodynamics of Ferromagnetism 21.4 Spin Waves 21.5 Thermodynamics of Antiferromagnetism 21.6 Dzyaloshinskii–Moriya Interactions and Skyrmions 21.7 Thermodynamics of Ionic Crystals 21.8 Ferroelectric Transition 21.9 Domains Problems Further Reading References Index