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ویرایش: 1
نویسندگان: Joginder Singh Galsin
سری:
ISBN (شابک) : 0128171030, 9780128171035
ناشر: Academic Press
سال نشر: 2019
تعداد صفحات: 636
زبان: English
فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود)
حجم فایل: 9 مگابایت
در صورت تبدیل فایل کتاب Solid State Physics: An Introduction to Theory به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
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Solid State Physics: An Introduction to Theory presents an intermediate quantum approach to the properties of solids. Through this lens, the text explores different properties, such as lattice, electronic, elastic, thermal, dielectric, magnetic, semiconducting, superconducting and optical and transport properties, along with the structure of crystalline solids. The work presents the general theory for most of the properties of crystalline solids, along with the results for one-, two- and three-dimensional solids in particular cases. It also includes a brief description of emerging topics, such as the quantum hall effect and high superconductivity.
Building from fundamental principles and requiring only a minimal mathematical background, the book includes illustrative images and solved problems in all chapters to support student understanding.
Cover Solid State Physics: An Introduction to Theory Copyright Dedication About the Author Preface 1 Crystal Structure of Solids Close Packing of Atoms in Solids Crystal Lattice and Basis Periodicities in Crystalline Solids Structural Periodicity Translational Symmetry Near Neighbors Primitive Unit Cell Rotational Symmetry Space Group Allowed Rotations in a Crystal One-Dimensional Crystals Two-Dimensional Crystals Three-Dimensional Crystals Simple Crystal Structures Simple Cubic Structure Body-Centered Cubic Structure Face-Centered Cubic Structure Hexagonal Structure Hexagonal Close-packed Structure Miller Indices Other Structures Zinc Sulfide Structure Diamond Structure Wurtzite Structure Perovskite Structure High-Tc Superconductors Quasicrystals Suggested Reading 2 Crystal Structure in Reciprocal Space X-Ray Diffraction Braggs Law of X-Ray Diffraction Electron Diffraction Neutron Diffraction Laue Scattering Theory Reciprocal Lattice Periodicity of Electron Density Periodicity of Atomic Density Monatomic Linear Lattice Two-Dimensional Square Lattice Three-Dimensional Cubic Lattice Primitive Cell in Reciprocal Space Linear Monatomic Lattice Square Lattice sc Lattice fcc Crystal Structure Hexagonal Crystal Structure Importance of Reciprocal Space and BZs Bragg Reflection Significant Wave Vectors Construction of Reciprocal Lattice Atomic Scattering Factor Geometrical Structure Factor sc Crystal Structure fcc Crystal Structure bcc Crystal Structure References Suggested Reading 3 Approximations in the Study of Solids Separation of Ion-Core and Valence Electrons Rigid Ion-Core Approximation Self-Consistent Potential Approximation The Born-Oppenheimer Approximation One-Electron Approximation Electron Exchange and Correlation Interactions Electron Exchange Interactions Intra-Atomic Exchange Interactions Interatomic Exchange Interactions Direct Interatomic Exchange Interaction Indirect Interatomic Exchange Interaction Conduction Electron-Conduction Electron Exchange Interaction Electron Correlation Interactions Coulomb Correlations Parallel-Spin Correlations Antiparallel-Spin Correlations References Suggested Reading 4 Bonding in Solids Interactions Between Atoms Cohesive Energy Equilibrium Distance Bulk Modulus and Compressibility Inert Gas Crystals Equilibrium Lattice Constant Cohesive Energy of Inert Gas Crystals Bulk Modulus Ionic Bonding Ionic-Bond Energy Lattice Energy Difference Between Bond Energy, Cohesive Energy, and Lattice Energy Bulk Modulus of Ionic Crystals Exponential Repulsive Potential Calculation of the Madelung Constant First Method Second Method Madelung Constant for NaCl Structure Covalent Bond Mixed Bond Metallic Bond Hydrogen Bond Suggested Reading 5 Elastic Properties of Solids Strain Tensor Dilation Stress Tensor Elastic Constants of Solids Elastic Energy Density Elastic Constants in Cubic Solids Elastic Energy Density in Cubic Solids Bulk Modulus in Cubic Solids Elastic Waves in Cubic Solids Elastic Waves in the [100] Direction Elastic Waves in the [110] Direction Elastic Waves in the [111] Direction Isotropic Elasticity Experimental Measurement of Elastic Constants Suggested Reading 6 Lattice Vibrations-1 Vibrations in a Homogeneous Elastic Medium Interatomic Potential in Solids Square-Well Potential Harmonic Interaction Potential Lattice Vibrations in a Discrete One-Dimensional Lattice Monatomic Linear Lattice Diatomic Linear Lattice Excitation of Ionic Lattice in Infrared Region 7 Lattice Vibrations-2 Equation of Motion of the Lattice Restrictions on Atomic Force Constants Normal Coordinate Transformation Properties of Dynamical Matrix and Eigenvectors Quantization of Lattice Hamiltonian Simple Applications Linear Monatomic Lattice Linear Diatomic Lattice Simple Cubic Lattice Experimental Determination of Phonon Frequencies Neutron Diffraction Technique Time-of-Flight Method Constant Momentum Method References Suggested Reading Further Reading 8 Specific Heat of Solids Experimental Facts Thermodynamical Definition Phase Space Classical Theories of Lattice Specific Heat Free Atom Model One-Dimensional Solid Two-Dimensional Solid Three-Dimensional Solid Fixed Classical Harmonic Oscillator Model One-Dimensional Solid Three-Dimensional Solid Quantum Mechanical Theories Einstein Theory of Specific Heat Debye Theory of Specific Heat Linear Monatomic Lattice Two-Dimensional Lattice Three-Dimensional Lattice Effect of Electrons on Specific Heat Ideal Phonon Gas Interacting Phonon Gas Thermal Expansion of Solids Thermal Conductivity of Solids Thermal Conductivity for an Ideal Gas of Atoms Thermal Conductivity in Insulators and Dielectrics Thermal Conductivity of Metals Further Reading 9 Free-Electron Theory of Metals Free-Electron Approximation Three-Dimensional Free-Electron Gas Two-Dimensional Free-Electron Gas Cohesive Energy and Interatomic Spacing of Ideal Metal The Fermi-Dirac Distribution Function Specific Heat of Electron Gas One-Dimensional Free-Electron Gas Two-Dimensional Free-Electron Gas Three-Dimensional Free-Electron Gas Paramagnetic Susceptibility of Free-Electron Gas One-Dimensional Free-Electron Gas Two-Dimensional Free-Electron Gas Three-Dimensional Free-Electron Gas Classical Spin Susceptibility Reference Suggested Reading 10 Electrons in Electric and Magnetic Fields Equation of Motion Free Electrons in a Static Electric Field Free Electrons in a Static Magnetic Field Electrons in Static Electric and Magnetic Fields The Hall Effect in Metals Free Electrons in an Alternating Electric Field Quantum Mechanical Theory of Electrons in Static Electric and Magnetic Fields Quantum Hall Effect Two-Dimensional Electron System Classical Theory of Conductivity in a Magnetic Field Quantum Theory of a 2D Free-Electron Gas in a Magnetic Field Experimental Setup for QHE Silicon MOSFETs Semiconductor Heterojunctions Integral Quantum Hall Effect Fractional Quantum Hall Effect Wiedemann-Franz-Lorentz Law References Suggested Reading 11 Transport Phenomena Velocity Distribution Function Electric Current and Electrical Conductivity Electrostatic Interactions Collision Interactions Heat Current and Thermal Conductivity The Boltzmann Transport Equation Classical Formulation Quantum Formulation Linearization of Boltzmann Equation Electrical Conductivity Classical Theory Quantum Theory Thermal Conductivity Classical Theory Quantum Theory Hall Effect Mobility of Charge Carriers in Solids Suggested Reading 12 Energy Bands in Crystalline Solids Bloch Theorem One-Dimensional Solid Three-dimensional Solid The Kronig-Penney Model Nearly Free-Electron Theory Application to One-Dimensional Solid Different Energy Zone Schemes Extended Zone Scheme Periodic Zone Scheme Reduced Zone Scheme Tight-Binding Theory Linear Monatomic Lattice Two-Dimensional Square Lattice Three-Dimensional sc Lattice Orthogonalized Plane Wave (OPW) Method Augmented Plane Wave (APW) Method Dynamics of Electrons in Energy Bands Behavior of Electrons in Free-Electron Theory Behavior of Electrons in Tight-Binding Approximation Distinction Between Metals, Insulators, and Semiconductors References Suggested Reading 13 The Fermi Surfaces Constant Energy Surfaces The Fermi Surfaces The Fermi Surface in the Free-Electron Approximation Type I Fermi Surface Type II Fermi Surface Electron Orbits Type III Fermi Surface Harrisons Construction of the Fermi Surface Nearly Free-Electron Approximation The Actual Fermi Surfaces Monovalent Metals Polyvalent Metals Experimental Methods in Fermi Surface Studies de Haas-van Alphen Effect Cyclotron Resonance References Suggested Reading Further Reading 14 Semiconductors Intrinsic Semiconductors Extrinsic Semiconductors n-Type Semiconductors p-Type Semiconductors Ionization Energy of Impurity Carrier Mobility Theory of Intrinsic Semiconductors Concentration of Charge Carriers Model for Extrinsic Semiconductors n-Type Semiconductors p-Type Semiconductors Effect of Temperature on Carrier Density Temperature Dependence of Mobility The Hall Effect Electrical Conductivity in Semiconductors Intrinsic Semiconductors Extrinsic Semiconductors Nondegenerate Semiconductors Degenerate Semiconductors Compensated Semiconductors Suggested Reading 15 Dielectric Properties of Nonconducting Solids Nonpolar Solids Polar Solids Electric Dipole Moment Macroscopic Electric Field Potential due to an Electric Dipole Depolarization Field due to Cuboid Polarization Dielectric Matrix Experimental Measurement of Dielectric Constant Local Electric Field at an Atom Polarizability Polarization Types of Polarizabilities Variation of Polarizability With Frequency Orientational Polarizability Classical Theory of Electronic Polarizability Suggested Reading 16 Ferroelectric Solids Classification of Ferroelectric Solids Tartrate Group Dihydrophosphates and Arsenates Perovskite Structure Theories of Ferroelectricity Atomic Models Electric Dipole Theory Polarization Catastrophe Thermodynamics of Ferroelectric Solids Second-Order Transition in Ferroelectric Solids First-Order Transition in Ferroelectric Solids Ferroelectric Domains Suggested Reading 17 Optical Properties of Solids Plane Waves in a Nonconducting Medium Reflection and Refraction at a Plane Interface Kinematic Properties Dynamic Properties Electric Field Perpendicular to Plane of Incidence Electromagnetic Waves in a Conducting Medium Reflectivity From Metallic Solids Reflectivity and Conductivity Kramers-Kronig Relations Optical Models Drude Model Lorentz Model for Insulators Lyddane-Sachs-Teller Relation Suggested Reading 18 Magnetism Atomic Magnetic Dipole Moment Orbital Magnetic Moment Spin Magnetic Moment Nuclear Magnetic Moment Magnetization Magnetic Induction Potential Energy of Magnetic Dipole Moment Larmor Precession Quantum Theory of Diamagnetism Paramagnetism Classical Theory of Paramagnetism Quantum Theory of Paramagnetism Hunds Rule Applications of Hunds Rule Rare-Earth Group Iron Group Crystal Field Splitting Quenching of Orbital Angular Momentum Suggested Reading 19 Ferromagnetism Weiss Molecular Field Theory Classical Theory of Ferromagnetism Quantum Theory of Ferromagnetism Comparison of Weiss Theory With Experiment Heisenberg Theory of Ferromagnetism Spin Waves Bloch Theory of Spin Waves Magnons in Monatomic Linear Lattice Magnons in Square Lattice Magnons in sc Lattice Quantization of Spin Waves Thermal Excitation of Magnons Hysteresis Curve Suggested Reading 20 Antiferromagnetism and Ferrimagnetism Antiferromagnetism Two-Sublattice Model Susceptibility for TTN Susceptibility for TTN Spin Waves in Antiferromagnetism Linear Monatomic Lattice Square Lattice Ferrimagnetism Structure of Ferrites Two-Sublattice Model Reference Suggested Reading 21 Magnetic Resonance Nuclear Magnetic Moment Zeeman Effect Relaxation Phenomena Spin-Lattice Relaxation Spin-Spin Relaxation Equation of Motion Magnetic Resonance in the Absence of Relaxation Phenomena Bloch Equations Free Precession in Static Magnetic Field Magnetic Broadening of Resonance Lines Effect of Molecular Motion on Resonance Electron Spin Resonance Hyperfine Interactions Knight Shift Quadrupole Interactions in Magnetic Resonance Nuclear Quadrupole Resonance Ferromagnetic Resonance Spin Wave Resonance Antiferromagnetic Resonance Reference Suggested Reading 22 Superconductivity Experimental Survey Electrical Properties Magnetic Properties Thermal Properties Entropy Specific Heat Isotopic Effect Occurrence of Superconductivity Theoretical Aspects of Superconductivity Failure of Ohms Law in Superconductors London Theory Penetration Depth Coherence Length Destruction of Superconductivity by Magnetic Field Stabilization Energy Classification of Superconductors Persistent Currents Thermodynamics of Superconductors Entropy Alternate Proof Specific Heat First-Order and Second-Order Phase Transitions Bardeen-Cooper-Schrieffer (BCS) Theory Electron-Phonon Interactions Cooper Pairs Generalization of Cooper Pair Formation The Energy Gap Criterion for the Existence of Superconductivity Why Do Magnetic Impurities Lower Tc? Superconducting Quantum Tunneling Single-Electron Superconducting Tunneling MOM Tunneling Junction MOS Tunneling Junction SOS Tunneling Junction Josephson Tunneling High-Tc Superconductivity Chevrel Phases and Superconductivity Perovskite Superconductivity Cu-Oxide Superconductors A2BX4 Superconductors Quaternary Copper Oxides Bismates and Thallates References Suggested Reading 23 Defects in Crystalline Solids Point Defects in Solids Solid Solutions Types of Solid Solutions Types of Point Defects Substitutional Point Defects Vacancies Interstitial Point Defects The Frenkel Defects Color Centers Excitons Types of Excitons Frenkel Excitons Wannier-Mott Excitons Atomic and Molecular Excitons Statistical Distribution of Point Defects Substitutional Point Defects Interstitial Point Defects The Frenkel Defects Dislocations Plastic Deformation of Crystals Definition of Dislocation Force Acting on Dislocations Critical Shear Stress Dislocation Density and Shear Strain Types of Dislocations Edge Dislocations Screw Dislocations Mixed Dislocations Conservation of the Burgers Vector Dislocation Energy Growth of Slips: The Frank-Read Source Grain Boundary Suggested Reading 24 Amorphous Solids and Liquid Crystals Structure of Amorphous Solids Continuous Random Network Model Random Close Packing Long-Chain Molecular Compounds Copolymers Plasticizers Elastomers Characteristics of Amorphous Solids Applications of Amorphous Solids Liquid Crystals The Building Blocks Small Organic Molecules Long Helical Rods Associated Structures Nematics and Cholesterics Proper Nematics Cholesterics Smectics Smectic A Smectic C Smectic B Long-Range Order in a System of Long Rods Uses of Liquid Crystals Temperature Sensitivity Optical Properties Membrane Biophysics Physics of Detergents Suggested Reading 25 Physics of Nanomaterials Reduction in Dimensionality Quantum Well Quantum Wire Quantum Dot Quantum Ring Quantum Tunneling Nanoparticles Magnetic Nanoparticles Structure of Nanoparticles Methods of Synthesis of Nanoparticles Laser Beam Methods Thermal Decomposition Chemical Methods Self-Assembly Techniques Nanostructured Materials Crystalline Nanostructured Materials Amorphous Nanostructured Materials Computer Simulation Technique Nanomaterials of Carbon Nanoparticles of Carbon Structure of C60 Molecule Structure of C70 Molecule Crystalline C60 Solid Alkali-Doped Crystalline C60 Solid Carbon Nanotubes Microscopes Used for Nanomaterials Scanning Tunneling Microscope Atomic Force Microscope Contact Mode Dynamic Mode Amplitude Modulation Frequency Modulation Magnetic Force Microscope Applications Basic Sciences Nanoelectronics Smart Materials Nanocomposite Materials Nanopharmaceuticals Future Thrust References Suggested Reading Appendix A Van der Waals-London Interaction Repulsive Interaction Appendix B Appendix C Appendix D: Bose-Einstein Statistics Appendix E: Density of Phonon States Three-Dimensional Solid Two-Dimensional Solid Appendix F: Density of Electron States Three-Dimensional Solid Two-Dimensional Solid Appendix G: Mean Displacement Appendix H Bound States for One-Dimensional Free-Electron Gas Bound States for Two- and Three-Dimensional Free-Electron Gas Appendix I: The Fermi Distribution Function Integral Appendix J: Electron Motion in Magnetic Field Appendix K One-Dimensional Solid Three-Dimensional Solid Appendix L: Atomic Magnetic Dipole Moment Appendix M: Larmor Precession Further Reading Index A B C D E F G H I J K L M N O P Q R S T U V W X Z Back Cover