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9780521432245

Principles of Condensed Matter Physics

by
  • ISBN13:

    9780521432245

  • ISBN10:

    0521432243

  • Format: Hardcover
  • Copyright: 1995-06-30
  • Publisher: Cambridge University Press

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Summary

Now in paperback, this book provides an overview of the physics of condensed matter systems. Assuming a familiarity with the basics of quantum mechanics and statistical mechanics, the book establishes a general framework for describing condensed phases of matter based on symmetries and conservation laws. After surveying the structure and properties of materials with different symmetries, it explores the role of spatial dimensionality and microscopic interactions in determining the nature of phase transitions. Particular attention is given to critical phenomena and renormalization group methods. The properties of liquids, liquid crystals, quasicrystals, crystalline solids, magnetically ordered systems and amorphous solids are investigated in terms of their symmetry, generalized rigidity, hydrodynamics and topological defect structure. In addition to serving as a course text, this book is an essential reference for students and researchers in physics, applied physics, chemistry, materials science and engineering, who are interested in modern condensed matter physics.

Table of Contents

Preface xvii
Overview
1(28)
Condensed matter physics
1(2)
An example - H2O
3(14)
Gaseous and liquid states
3(1)
The liquid-gas phase transition
4(1)
Spatial correlations in the liquid state
5(3)
Ice - crystallized water
8(2)
Broken symmetry and rigidity
10(2)
Dislocations - topological defects
12(1)
Universality of the water example
13(2)
Fluctuations and spatial dimension
15(1)
Overview of book
16(1)
Energies and potentials
17(12)
Energy scales
17(1)
Van der Waals attraction
18(2)
Molecular hydrogen - the Heitler-London approach
20(2)
Hard-sphere repulsion
22(2)
Exchange interaction and magnetism
24(1)
The hydrogen molecule, molecular orbitals, and bands in metals
25(3)
Bibliography
28(1)
References
28(1)
Structure and scattering
29(79)
Elementary scattering theory - Bragg's law
29(4)
Photons, neutrons, or electrons
33(1)
The density operator and its correlation functions
34(4)
Liquids and gases
38(5)
hard-sphere liquids
40(3)
Crystalline solids
43(6)
Unit cells and the direct lattice
43(2)
The reciprocal lattice
45(1)
Periodic functions
46(1)
Bragg scattering
47(2)
Symmetry and crystal structure
49(9)
Two-dimensional Bravais lattices
50(3)
Three-dimensional Bravais lattices
53(3)
Close packed structures
56(1)
Space groups
57(1)
Liquid crystals
58(13)
Isotropic, nematic and cholesteric phases
58(3)
Smectics-A and -C
61(4)
Hexatic phases
65(3)
Discotic phases
68(1)
Lyotropic liquid crystals and microemulsions
68(3)
One-and two-dimensional order in three-dimensional materials
71(6)
Incommensurate structures
77(5)
Quasicrystals
82(3)
Magnetic order
85(5)
Random isotropic fractals
90(18)
Appendix 2A Fourier transforms
97(1)
One dimension
97(2)
dimensions
99(1)
Transforms on a lattice
100(1)
Bibliography
101(1)
References
102(1)
Problems
103(5)
Thermodynamics and statistical mechanics
108(36)
Thermodynamics of homogeneous fluids
108(9)
The first law of thermodynamics
109(2)
The second law of thermodynamics
111(1)
The third law of thermodynamics
111(1)
Thermodynamic potentials
112(1)
Stability criteria
113(2)
Homogeneous functions
115(1)
Equations of state
116(1)
Statistical mechanics: phase space and ensembles
117(5)
The ideal gas
122(1)
Spatial correlations in classical systems
123(4)
Ordered systems
127(5)
Symmetry, order parameters, and models
132(12)
Discrete symmetries
135(2)
Continuous symmetries
137(2)
Models
139(1)
Appendix 3A Functional derivatives
140(2)
Bibliography
142(1)
References
142(1)
Problems
142(2)
Mean-field theory
144(69)
Bragg-Williams theory
146(5)
Landau theory
151(1)
The Ising and n-vector models
152(7)
The nonlocal susceptibility and the correlation length
154(2)
On symmetry
156(1)
Some mean-field transitions
157(2)
The liquid-gas transition
159(9)
The critical point and the critical isochore
162(3)
The coexistence curve
165(3)
The first-order nematic-to-isotropic transition
168(4)
Multicritical points
172(16)
Tricritical points
173(2)
Metamagnets and FeCl2
175(4)
He3 - He4 mixtures and the Blume-Emery-Griffiths model
179(2)
Bicritical and tetracritical points
181(3)
Lifshitz points
184(4)
The liquid-solid transition
188(10)
Are all crystals BCC?
189(3)
Criterion for freezing
192(1)
Improvements of the theory
192(2)
Changes in density
194(1)
Density functional theory
195(3)
Variational mean-field theory
198(15)
Two inequalities
198(2)
The mean-field approximation
200(1)
The s-state Potts model
201(1)
The On classical Heisenberg model
202(2)
Debye-Huckel theory
204(4)
Bibliography
208(1)
References
209(1)
Problems
209(4)
Field theories, critical phenomena, and the renormalization group
213(75)
Breakdown of mean-field theory
214(3)
Mean-field transitions revisited
216(1)
Construction of a field theory
217(9)
Coarse graining
217(2)
Lattice field theories and their continuum limit
219(2)
Gaussian integrals
221(2)
Mean-field theory from functional integrals
223(2)
Breakdown of mean-field theory revisited
225(1)
The self-consistent field approximation
226(4)
The n-vector model in the limit n → ∞
229(1)
Critical exponents, universality, and scaling
230(7)
Exponents and scaling relations
230(4)
Scaled equation of state
234(1)
Multicritical points
235(1)
Amplitude ratios
236(1)
Theoretical calculations of critical exponents and amplitude ratios
237(1)
The Kadanoff construction
237(5)
The one-dimensional Ising model
242(6)
Exact solution
242(3)
Decimation and renormalization
245(3)
The Migdal-Kadanoff procedure
248(8)
The Ising model on a hypercubic lattice
248(4)
General properties of recursion relations
252(1)
The Potts lattice gas and krypton on graphite
253(3)
Momentum shell renormalization group
256(32)
Thinning of degrees of freedom and rescaling
256(4)
Correlation functions
260(1)
The Gaussian model
261(2)
The &epsis;-expansion
263(4)
n-vector model with cubic anisotropy
267(2)
Quadratic anisotropy
269(1)
Crossover
270(3)
Dangerous irrelevant variables
273(2)
The utility of the &epsis;-expansion
275(1)
Appendix 5A The Hubbard-Stratonovich transformation
276(1)
Appendix 5B Diagrammatic perturbation theory
277(6)
Bibliography
283(1)
References
283(1)
Problems
283(5)
Generalized elasticity
288(65)
The xy-model
289(9)
The elastic free energy
289(1)
Boundary conditions and external fields
290(2)
The Josephson scaling relation
292(1)
Fluctuations
293(2)
Long-range order, quasi-long-range order, and disorder
295(2)
Resistance of a conducting medium
297(1)
On symmetry and nematic liquid crystals
298(10)
n-vector elastic energy
298(1)
The Frank free energy of nematic liquid crystals
298(2)
Cells with non-uniform n
300(2)
The Freedericksz transition
302(2)
The twisted nematic display
304(2)
Fluctuations and light scattering
306(2)
Smectic liquid crystals
308(8)
The elastic free energy
309(3)
Fluctuations
312(2)
Nonlinearities
314(1)
The nematic-to-smectic-A transition
315(1)
Elasticity of solids: strain and elastic energy
316(14)
The strain tensor
316(2)
The elastic free energy
318(1)
Isotropic and cubic solids
319(2)
Fluctuations
321(1)
Mercury chain salts - one-dimensional crystals
322(2)
Xenon on graphite - a two-dimensional crystal
324(1)
Vacancies and interstitials
325(3)
Bond-angle order and rotational and translational elasticity
328(1)
Elastic constants from density functional theory
329(1)
Lagrangian elasticity
330(4)
Classical theory of elasticity
330(2)
Elasticity of classical harmonic lattices
332(2)
Elasticity of solids: the stress tensor
334(7)
The Lagrangian stress tensor
334(3)
Stress-strain relations
337(1)
The Eulerian stress tensor
338(3)
The nonlinear sigma model
341(12)
Bibliography
347(1)
References
347(1)
Problems
347(6)
Dynamics: correlation and response
353(64)
Dynamic correlation and response functions
354(5)
Correlation functions
354(1)
Response functions
355(4)
The harmonic oscillator
359(7)
The undamped oscillator
359(1)
The damped oscillator
360(2)
The response function
362(3)
Dissipation
365(1)
Elastic waves and phonons
366(3)
Sound waves in an elastic continuum
366(1)
Acoustic phonons in a harmonic lattice
367(2)
Diffusion
369(12)
Fick's law
369(1)
The Green function and dynamic response
370(1)
The response function
371(2)
External potentials and the Einstein relation
373(2)
Brownian motion
375(1)
Cooperative diffusion versus self-diffusion
376(2)
Master equation for diffusion on a lattice
378(3)
Langevin theory
381(9)
Random forces and thermal equilibrium
381(2)
Correlation functions for diffusion
383(2)
Short-time behavior
385(2)
Fluctuation-dissipation theorem for the harmonic oscillator
387(1)
The Fokker-Planck and Smoluchowski equations
388(2)
Formal properties of response functions
390(9)
Response to external fields
390(2)
Symmetry properties of response functions
392(2)
Dissipation
394(1)
Spectral representations of χ'' ϕ
395(2)
The fluctuation-dissipation theorem
397(1)
Sum rules and moment expansions
398(1)
Inelastic scattering
399(18)
Scattering geometry and partial cross-sections
399(1)
Fermi golden rule and neutron scattering
400(2)
The Fermi pseudopotential
402(2)
Coherent and incoherent scattering
404(1)
Cross-sections and correlation functions
405(1)
Neutron scattering from crystals
406(1)
Magnetic scattering
407(1)
How neutron scattering experiments are actually done
408(2)
Scattering of charged particles and photons
410(1)
Bibliography
411(1)
References
411(6)
Hydrodynamics
417(78)
Conserved and broken-symmetry variables
417(2)
A tutorial example - rigid rotors on a lattice
419(15)
Description of the model
420(1)
The disordered phase
421(5)
The ordered phase
426(4)
Excitations from the classical ground state
430(2)
The Goldstone therem
432(1)
Kubo formulae
432(1)
Summary
433(1)
Spin systems
434(6)
Spin dynamics
434(1)
Generalized Heisenberg models
435(1)
The planar magnet
436(2)
The isotropic antiferromagnet
438(1)
Isotropic ferromagnets
439(1)
Hydrodynamics of simple fluids
440(14)
Conservation laws
441(2)
Thermodynamics with mass motion
443(1)
The entropy production equation
444(1)
Dissipationless hydrodynamics
445(1)
Dissipation
446(2)
The Navier-Stokes equations
448(1)
Hydrodynamic modes
449(3)
Light scattering
452(1)
Two-component fluids
453(1)
Liquid crystals, crystalline solids, and superfluid helium
454(10)
Nematic liquid crystals
454(2)
Smectic-A liquid crystals
456(3)
Crystalline solids
459(1)
Superfluid helium
460(4)
Stochastic models and dynamic critical phenomena
464(15)
Critical slowing down and the conventional theory
464(2)
Dissipative dynamics
466(3)
Dynamic scaling
469(3)
Poisson bracket terms
472(3)
Models with Poisson brackets
475(2)
Mode-mode coupling
477(2)
Nucleation and spinodal decomposition
479(16)
Nucleation with a nonconserved order parameter
480(3)
Symmetric unstable quench with model A dynamics
483(1)
Conserved order parameters and spinodal decomposition
484(7)
Bibliography
491(1)
References
491(1)
Problems
492(3)
Topological defects
495(95)
Characterization of topological defects
495(11)
Vortex pairs
499(1)
Order parameters with more than two components
499(2)
Order parameter spaces and homotopy
501(5)
Examples of topological defects
506(20)
Vortices in xy-models
506(1)
Dislocations in smectic liquid crystals
507(5)
Periodic solids
512(3)
Volterra construction
515(1)
Hexagonal and close-packed lattices
515(2)
Disclinations in crystals
517(1)
Strength of crystals
518(4)
Crystal growth
522(1)
Grain boundaries
522(2)
Nematic and hexatic liquid crystals
524(2)
Energies of vortices and dislocations
526(16)
Simple calculation of xy-vortex energies
526(4)
Analogy with magnetism
530(1)
Energies of dislocations in crystals
531(5)
Dislocations in smectic liquid crystals
536(6)
Vortex unbinding and the Kosterlitz-Thouless transition
542(13)
Vortices and the spin-wave stiffness
542(2)
Vortex unbinding in two dimensions - the Kosterlitz-Thouless transition
544(7)
Superfluid helium films
551(4)
Dislocation mediated melting
555(6)
Effects of a substrate
558(1)
Experiments and numerical simulation
559(2)
The twist-grain-boundary phase
561(29)
Structure of the TGB phase
561(3)
The thermodynamic critical field
564(1)
The lower critical field
565(1)
The upper critical field
566(2)
X-ray scattering
568(3)
Analogy with superconductivity
571(2)
Appendix 9A Notes on the Kosterlitz-Thouless transition
573(1)
Integration of the KT recursion relations
573(2)
Longitudinal and transverse response
575(2)
The spin correlation function
577(1)
Appendix 9B Duality and the Villain model
578(1)
Potts models
579(3)
The xy-, Villain, and lattice Coulomb-gas models
582(2)
Bibliography
584(1)
References
584(1)
Problems
585(5)
Walls, kinks and solitons
590(72)
Some simple examples
591(4)
Domain walls in mean-field theory
595(6)
The ϕ4 kink
597(2)
The sine-Gordon soliton
599(1)
Dynamics
599(2)
The Frenkel-Kontorowa model
601(19)
Introduction
601(1)
Discommensurations
602(1)
Devil's staircases and the FK phase diagram
603(2)
The continuum approximation
605(3)
Nature of solutions
608(2)
The minimum energy solution
610(3)
Repulsive interaction between discommensurations
613(1)
X-ray diffraction
613(1)
Compressional elastic constants
614(1)
Phasons
615(2)
Pinned phasons
617(1)
Extension to two dimensions
618(2)
Fluctuating walls
620(15)
Differential geometry and the total surface area
620(3)
Curvature
623(2)
Energy of a surface
625(1)
Fluctuations in the harmonic approximation
626(3)
Nonlinearities and renormalization in fluid membranes
629(1)
Polymerized membranes
630(5)
Arrays of fluctuating walls
635(8)
Fluctuating walls and steric entropy
635(3)
Honeycomb lattice of walls
638(1)
Elasticity of sterically stabilized phases
638(2)
Dislocations and the CI transition
640(3)
Roughening and faceting
643(19)
The solid-on-solid and discrete Gaussian models
643(3)
The roughening transition
646(2)
Faceting
648(7)
Bibliography
655(1)
References
656(1)
Problems
656(6)
Glossary 662(23)
Index 685

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