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1.

図書

図書
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
D.Ya. Petrina, V.I. Gerasimenko and P.V. Malyshev ; translated from the Russian by P.V. Malyshev and D.V. Malyshev
出版情報: London : Taylor & Francis, 2002  ix, 338 p. ; 24 cm
シリーズ名: Advanced studies in contemporary mathematics ; v. 8
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Problem for the BBGKY Hierarchy
Equilibrium States
Canonical Ensemble
Grand Canonical Ensemble
Thermodynamic Limit for Non-equilibrium Systems
Stationary Solutions of the BBGKY Hierarchy of Equations / Appendix 1:
Existence of the Hamiltonian Dynamics of Infinitely Many Particles / Appendix 2:
References
Index
Problem for the BBGKY Hierarchy
Equilibrium States
Canonical Ensemble
3.

図書

図書
Gene F. Mazenko
出版情報: Hoboken, N.J. : Wiley-Interscience, c2003  xvi, 673 p. ; 25 cm
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Preface
Ordered Phases / 1:
Overview / 1.1:
Order Parameters / 1.2:
Symmetry Breaking / 1.3:
Ferromagnetic Case / 1.3.1:
Spontaneous Symmetry Breaking / 1.3.2:
General Treatment of Symmetries / 1.3.3:
Heisenberg Model and Rotational Invariance / 1.3.4:
Symmetry Breaking Fields / 1.3.5:
Global Gauge Symmetry / 1.3.6:
Local Gauge Symmetry / 1.3.7:
Reduced Symmetries and Solids / 1.3.8:
More Order Parameters / 1.4:
Heisenberg Magnets / 1.4.1:
Superfluid [superscript 4]He / 1.4.2:
Superconductivity / 1.4.3:
Phase Separation in Binary Alloys / 1.4.4:
Order-Disorder Transitions in Binary Alloys / 1.4.5:
Displacive Transitions / 1.4.6:
Ferroelectric and Antiferroelectric Transitions / 1.4.7:
Potts Models / 1.4.8:
Nematic Liquid Crystals / 1.4.9:
Solids / 1.4.10:
Smectic A Liquid Crystals / 1.4.11:
Liquid-Gas Phase Transition / 1.4.12:
Phase Separation of Binary Fluid Mixtures / 1.4.13:
Polymer Mixtures / 1.4.14:
Block Copolymers / 1.4.15:
Phase Transitions and Breakdown of Translational Invariance / 1.5:
Coarse Graining and Effective Hamiltonians / 2:
Introduction / 2.1:
Effective Hamiltonians / 2.2:
Overview of Calculations of Effective Hamiltonians / 2.2.1:
Coarse Graining in a System with a Single Macrovariable / 2.2.3:
Spatial Correlations and Cell Size / 2.2.4:
Effective Hamiltonian: Multiple Macrovariables / 2.3:
Reduced Effective Hamiltonians / 2.4:
Square Gradient Correction / 2.5:
Effective Hamiltonian in the Energy Representation / 2.6:
Mixed Basis Form for the Effective Hamiltonian / 2.7:
Simple Fluids / 2.8:
Examples of Characteristic Lengths / 2.9:
Correlations in a Low-Density Fluid / 2.9.1:
One-Dimensional Ising Model / 2.9.2:
Response Experiments / 2.10:
Microscopic Formulation / 2.10.1:
Example: Paramagnetic Systems / 2.10.2:
Example: Moving Coordinate Systems / 2.10.3:
Effective Hamiltonian Formulation / 2.10.4:
Coarse Graining, Effective Hamiltonians, and the Renormalization Group / 3:
Background / 3.1:
Coarse-Grained Effective Hamiltonians / 3.2:
Landau-Ginzburg-Wilson (LGW) Effective Hamiltonian / 3.3:
Mean-Field Theory / 3.4:
Generalized Equipartition Theorem / 3.5:
Example: Scalar Case / 3.6:
Renormalization Group Transformation / 3.7:
Coarse-Grained Average / 3.7.1:
Landau-Ginzburg-Wilson Example / 3.7.2:
Rescaling / 3.7.3:
Renormalization Group Specification / 3.7.4:
Fixed Points / 3.7.5:
Long-Range Interactions / 3.7.6:
Coarse-Grained Models on Intermediate Length Scales / 3.8:
Soft-Spin Ising Model / 3.8.1:
Treatment of Interactions / 3.8.2:
Evaluation of Coarse-Grained Entropy for a Fluid / 3.8.3:
Coarse-Grained Entropy for Ising Models / 3.8.4:
Fluid Mixtures / 3.8.5:
Density Functional Theory / 3.8.6:
Critical Phenomena / 4:
General Phenomenology / 4.1:
Critical Indices / 4.2:
Series Expansion Studies / 4.2.1:
Experimental Results / 4.2.2:
Universality / 4.2.3:
The Scaling Hypothesis / 4.2.4:
The Landau-Ginzburg-Wilson (LGW) Model / 4.3:
Coarse Graining / 4.3.1:
Role of Fluctuations / 4.3.2:
The Renormalization Group (RG) / 4.5:
Basic Ideas / 4.5.1:
Renormalization Group (RG) Phenomenology Near a Critical Point / 4.5.2:
The Renormalization Group Near Four Dimensions / 4.5.3:
Scaling and the RG / 4.5.4:
Comments on the [epsilon] Expansion / 4.5.5:
Nambu-Goldstone Modes / 5:
Mean-Field Treatment and Broken Continuous Symmetry / 5.1:
Longitudinal Correlations / 5.2.1:
Symmetry Breaking Field / 5.2.2:
Cubic Symmetry / 5.2.3:
Phase Fields / 5.2.4:
Goldstone Theorem / 5.3:
Hohenberg-Mermin-Wagner Theorem / 5.4:
Examples / 5.5:
Classical Magnets / 5.5.1:
Low-Temperature Quantum-Mechanical Implications / 5.5.2:
General Discussion / 5.6.1:
Nonrelativistic Particles / 5.6.2:
Photons / 5.6.3:
Spin Waves: Ferromagnets / 5.6.4:
Spin Waves: Antiferromagnets / 5.6.5:
Gauge Fields and Higgs Phenomena / 5.7:
Dielectric and Magnetic Materials / 6:
Dielectric Materials / 6.1:
Polarization and Maxwell's Equations / 6.2.1:
Experimental Configurations / 6.2.3:
Independent Variables / 6.2.4:
Variational Problem / 6.2.5:
Dipolar Energy / 6.2.6:
Electrostatics / 6.2.7:
Dielectric Slab / 6.2.8:
Materials Parameters / 6.2.9:
The Functional E[P] / 6.2.10:
Stability / 6.2.11:
Fluctuations / 6.2.12:
Thermodynamics / 6.2.13:
Magnetic Materials / 6.3:
Magnetization and Maxwell's Equations / 6.3.1:
Fixed External Currents / 6.3.3:
Fixed Magnetic Induction / 6.3.4:
Fixed External Field at Infinity / 6.3.5:
Cases with Macroscopically Uniform Internal Fields / 6.3.6:
Exchange Contribution to E[M] / 6.3.11:
Magnetostatic Energy / 6.3.12:
Fluctuation Spectrum / 6.3.13:
Phase Transitions and Ordering / 6.3.14:
Polymers / 6.3.15:
Flexible Polymer Chains / 7.1:
Random-Walk Model / 7.2:
Lattice Formulation / 7.2.1:
Continuum Formulation / 7.2.2:
Density Correlations for Ideal Chains / 7.2.3:
Self-Avoiding Walks / 7.3:
Continuous Formulation / 7.3.1:
Perturbation Theory / 7.3.2:
Flory Theory / 7.3.3:
Semidilute Polymer Solutions / 7.3.4:
Screening / 7.4.1:
Screening and Swelling / 7.4.2:
Diblock Copolymers / 7.5:
Neutral Superfluids / 8:
General Comments / 8.1:
Normal Flow / 8.2:
Superfluid Flow / 8.3:
Quantum-Statistical-Mechanical Treatment of Superflow / 8.4:
Interpretation of V[subscript 0] and F[subscript V subscript s] / 8.5:
Superfluid Thermodynamics / 8.6:
The Superfluid Velocity as a Slow Variable / 8.7:
The Effective Hamiltonian / 8.8:
Flow and the LGW Description / 8.9:
Second Sound / 8.10:
Superconductors / 9:
Ginzburg-Landau Effective Hamiltonian / 9.1:
Uniform Solutions and Condensation Energy / 9.2:
Fluctuation Effects and Higgs Phenomena / 9.3:
Meissner Effect and Penetration Depth / 9.4:
Upper Critical Field / 9.5:
Upper Critical Current / 9.6:
Persistent Currents / 9.7:
Dimensionless Variables / 9.8:
Surface Energy / 9.9:
Normal-Superconducting Transition / 9.10:
Liquid Crystals / 10:
Complex Systems / 10.1:
Order Parameter / 10.2:
Potential Part of the Effective Hamiltonian / 10.2.2:
The Gradient Part of the Effective Hamiltonian / 10.2.3:
Spontaneous Fluctuations / 10.2.4:
Walls and Nonuniform Configurations / 10.2.5:
Magnetic Fields / 10.2.7:
The de Gennes Model / 10.3:
Landau Theory / 10.3.2:
Fluctuations and Order / 10.3.3:
Theory of Freezing / 11:
Density Functional Theory of Freezing / 11.2:
Hard-Sphere Fluids / 11.2.1:
Numerical Solution for Face-Centered Cubic (FCC) Lattice / 11.3:
Nambu--Goldstone (NG) Modes and Elastic Theory / 11.4:
Defects / 12:
Scalar Order Parameter Systems and Interfaces / 12.1:
Mean-Field Solution / 12.2.1:
[Psi superscript 4] Theory / 12.2.2:
Asymmetric Case / 12.2.3:
Polymer Mixture / 12.2.4:
Liquid--Gas Interface / 12.2.5:
Broken Translational Symmetry and the NG Modes / 12.2.6:
Finite-Energy Defects / 12.3:
Singularities and Topological Invariants / 12.4:
Topological Stability and Escape to a Higher Dimension / 12.5:
Vortices in XY Models and Neutral Superfluids / 12.6:
Single-Vortex Solution / 12.6.1:
Energy of an Isolated Vortex / 12.6.2:
Phase Field Approximation and Multiple-Vortex Solutions / 12.6.3:
Vortices in Superconductors / 12.7:
Ginzburg--Landau Treatment / 12.7.1:
London Theory / 12.7.2:
Heisenberg Model / 12.8:
Winding Number for an n = 3 Order Parameter / 12.8.1:
LGW Model / 12.8.2:
Avoiding Derrick's Theorem / 12.8.3:
Disclinations and Monopoles in Nematic Liquid Crystals / 12.9:
Phase Field Approximation / 12.9.1:
Defect Core Considerations / 12.9.3:
Monopoles in a Nematic / 12.9.4:
Strings in a Nematic / 12.9.5:
Dislocations and Vacancies in Solids / 12.10:
Elastic Theory and Defects / 12.10.1:
Straight-Line Screw Dislocation / 12.10.3:
Straight-Line End Dislocation / 12.10.4:
Defects in Equilibrium / 13:
Defects in Low Dimension / 13.1:
Kinks in One Dimension / 13.1.1:
Kosterlitz--Thouless Transition in Two-Dimensional Systems / 13.2:
General Considerations / 13.2.1:
Quasi-Long-Range Order / 13.2.2:
Superfluid Density / 13.2.3:
Two-Dimensional Coulomb Gas / 13.2.4:
RG Treatment of Parameters / 13.2.5:
Order Parameter Correlations / 13.2.6:
Block Copolymer Microphase Separation / 13.3:
Ohta--Kawasaki Effective Hamiltonian / 13.3.1:
Lamellar Structure: Weak Segregation / 13.3.2:
Lamellar Structure: Strong Segregation / 13.3.3:
Two- and Three-Dimensional Structures / 13.3.4:
Domains in Ferromagnets / 13.4:
Domain Wall Solutions / 13.4.1:
Bloch Wall Solution / 13.4.3:
Domain Wall Arrays / 13.4.4:
Intermediate State for Type I Superconductors / 13.5:
Magnetic Field / 13.5.1:
Magnetic Energy / 13.5.2:
Minimum Energy / 13.5.3:
Mixed State in Type II Superconductors / 13.6:
Flux Lattice / 13.6.1:
Brief Review of Transformation Theory in Thermodynamics / A:
General Theory / A.1:
Example of a Simple Fluid / A.2:
Gaussian Averages / B:
Functional Differentiation and Integration / C:
Differentiation / C.1:
Integration / C.2:
Fluctuation Contribution to Free Energy / C.3:
Higher-Order Correlation Functions / C.4:
Parameters for the Effective Hamiltonian / C.5:
Quantum-Mechanical Linear Response / D:
Perturbation Theory for Self-Avoiding Walk (SAW) Problem / E:
Monopoles in the n = 3 LGW System / F:
Index
Preface
Ordered Phases / 1:
Overview / 1.1:
4.

図書

図書
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:
5.

図書

図書
Ralf Blossey
出版情報: Boca Raton : Chapman & Hall/CRC, 2006  251 p., 8 p. of plates ; 25 cm
シリーズ名: Chapman and Hall/CRC mathematical & computational biology series / series editors Alison M. Etheridge ... [et al.]
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Statistical Mechanics / I:
Equilibrium Statistical Mechanics / 1:
Z: The partition function / 1.1:
Relation to thermodynamics / 1.2:
Computing Z / 1.3:
Nonequilibrium Statistical Mechanics / 2:
Stochastic processes / 2.1:
The master equation / 2.2:
Fluctuation theorems / 2.3:
The Fokker-Planck and Langevin equations / 2.4:
Sequence alignment: a nonequilibrium phase transition / 2.5:
Biomolecules / II:
Molecules, Code and Representation
DNA and RNA: the building blocks
Representing RNA structure
Proteins
DNA
Thermal stability of DNA: the melting transition
The melting profiles of genomic DNA and cDNA
Hybridizing DNA
RNA / 3:
Computing RNA secondary structure: combinatorics / 3.1:
The RNA partition function / 3.2:
RNA phase behaviour and folding kinetics / 3.3:
Proteins: folding / 4:
Proteins: docking / 4.2:
Electrostatics / 4.3:
Chromatin / 4.4:
Bacterial chemotaxis: cooperativity once more / 4.5:
Networks / III:
Network Dynamics I: Deterministic
Deterministic dynamics: [lambda]-repressor expression
The Turing insight
The Min system
Network Dynamics II: Fluctuations
Noise in signalling
Stochastic cascades
Stochastic focusing
Fluctuating gene network dynamics
Extrinsic vs. intrinsic noise
Networks: Structure
Networks as graphs
Probability generating functions and network characteristics
Statistical mechanics of networks
Network growth / 3.4:
Index
Statistical Mechanics / I:
Equilibrium Statistical Mechanics / 1:
Z: The partition function / 1.1:
6.

図書

図書
David Ruelle
出版情報: Cambridge : Cambridge University Press, 2004  xx, 174 p. ; 23 cm
シリーズ名: Cambridge mathematical library
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Introduction to the 2nd edition / 1:
Introduction / 2:
Theory of Gibbs States / 3:
Gibbs States: complements / 4:
Translation invariance: theory of equilibrium states / 5:
Connection between Gibbs States and equilibrium / 6:
One-dimensional systems / 7:
Extension of the thermodynamic formalism / 8:
Miscellaneous definitions and results / Appendix A.1:
Topological dynamics / Appendix A.2:
Convexity / Appendix A.3:
Measures and abstract dynamical systems / Appendix A.4:
Integral representations on convex compact sets / Appendix A.5:
Open problems / Appendix B:
Flows / Appendix C:
Update of open problems / Appendix D:
Introduction to the 2nd edition / 1:
Introduction / 2:
Theory of Gibbs States / 3:
7.

図書

図書
Scott Sheffield, Thomas Spencer, editors
出版情報: Providence, R.I. : American Mathematical Society , [Princeton, N.J.] : Institute for Advanced Study, c2009  xii, 360 p. ; 27 cm
シリーズ名: IAS/Park City mathematics series / [Dan Freed, series editor] ; v. 16
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Lectures on the renormalisation group / D. C. Brydges
Statistical mechanics and random matrices / A. Guionnet
Lectures on dimers / R. Kenyon
Schramm-Loewner evolution $(SLE)$ / G. Lawler
Lectures on two-dimensional critical percolation / W. Werner
Lectures on the renormalisation group / D. C. Brydges
Statistical mechanics and random matrices / A. Guionnet
Lectures on dimers / R. Kenyon
8.

図書

図書
symposium editors: K. Binder, A.R. Khokhlov, S.L. Kuchanov
出版情報: Weinheim, Germany : WILEY-VCH, c2007  x, 154 p. ; 24cm
シリーズ名: Macromolecular symposia ; 252
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9.

図書

図書
Constantino Tsallis
出版情報: New York : Springer, c2009  xviii, 382 p. ; 25 cm
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Basics or How the Theory Works / Part I:
Historical Background and Physical Motivations / 1:
Introduction / 1.1:
Background and Indications in the Literature / 1.2:
Symmetry, Energy, and Entropy / 1.3:
A Few Words on the Foundations of Statistical Mechanics / 1.4:
Learning with Boltzmann-Gibbs Statistical Mechanics / 2:
Boltzmann-Gibbs Entropy / 2.1:
Entropic Forms / 2.1.1:
Properties / 2.1.2:
Kullback-Leibler Relative Entropy / 2.2:
Constraints and Entropy Optimization / 2.3:
Imposing the Mean Value of the Variable / 2.3.1:
Imposing the Mean Value of the Squared Variable / 2.3.2:
Imposing the Mean Values of both the Variable and Its Square / 2.3.3:
Others / 2.3.4:
Boltzmann-Gibbs Statistical Mechanics and Thermodynamics / 2.4:
Isolated System - Microcanonical Ensemble / 2.4.1:
In the Presence of a Thermostat - Canonical Ensemble / 2.4.2:
Generalizing What We Learnt: Nonextensive Statistical Mechanics / 2.4.3:
Playing with Differential Equations - A Metaphor / 3.1:
Nonadditive Entropy Sq / 3.2:
Definition / 3.2.1:
Correlations, Occupancy of Phase-Space, and Extensivity of Sq / 3.2.2:
A Remark on the Thermodynamical Limit / 3.3.1:
The q-Product / 3.3.2:
The q-Sum / 3.3.3:
Extensivity of Sq - Effective Number of States / 3.3.4:
Extensivity of Sq - Binary Systems / 3.3.5:
Extensivity of Sq - Physical Realizations / 3.3.6:
q-Generalization of the Kullback-Leibler Relative Entropy / 3.4:
Nonextensive Statistical Mechanics and Thermodynamics / 3.5:
About the Escort Distribution and the q-Expectation Values / 3.7:
About Universal Constants in Physics / 3.8:
Various Other Entropic Forms / 3.9:
Foundations or Why the Theory Works / Part II:
Stochastic Dynamical Foundations of Nonextensive Statistical Mechanics / 4:
Normal Diffusion / 4.1:
Lévy Anomalous Diffusion / 4.3:
Correlated Anomalous Diffusion / 4.4:
Further Generalizing the Fokker-Planck Equation / 4.4.1:
Stable Solutions of Fokker-Planck-Like Equations / 4.5:
Probabilistic Models with Correlations - Numerical and Analytical Approaches / 4.6:
The MTG Model and Its Numerical Approach / 4.6.1:
The TMNT Model and Its Numerical Approach / 4.6.2:
Analytical Approach of the MTG and TMNT Models / 4.6.3:
The RSTI Model and Its Analytical Approach / 4.6.4:
The RST2 Model and Its Numerical Approach / 4.6.5:
Central Limit Theorems / 4.7:
Generalizing the Langevin Equation / 4.8:
Time-Dependent Ginzburg-Landau d-Dimensional O(n) Ferromagnet with n = d / 4.9:
Deterministic Dynamical Foundations of Nonextensive Statistical Mechanics / 5:
Low-Dimensional Dissipative Maps / 5.1:
One-Dimensional Dissipative Maps / 5.1.1:
Two-Dimensional Dissipative Maps / 5.1.2:
Low-Dimensional Conserative Maps / 5.2:
Strongly Chaotic Two-Dimensional Conservative Maps / 5.2.1:
Strongly Chaotic Four-Dimensional Conservative Maps / 5.2.2:
Weakly Chaotic Two-Dimensional Conservative Maps / 5.2.3:
High-Dimensional Conservative Maps / 5.3:
Many-Body Long-Range-Interacting Hamiltonian Systems / 5.4:
Metastability, Nonergodicity, and Distribution of Velocities / 5.4.1:
Lyapunov Spectrum / 5.4.2:
Aging and Anomalous Diffusion / 5.4.3:
Connection with Glassy Systems / 5.4.4:
The q-Triplet / 5.5:
Connection with Critical Phenomena / 5.6:
A Conjecture on the Time and Size Dependences of Entropy / 5.7:
Generalizing Nonextensive Statistical Mechanics / 6:
Crossover Statistics / 6.1:
Further Generalizing / 6.2:
Spectral Statistics / 6.2.1:
Beck-Cohen Superstatistics / 6.2.2:
Applications or What for the Theory Works / Part III:
Thermodynamical and Nonthermodynamical Applications / 7:
Physics / 7.1:
Cold Atoms in Optical Lattices / 7.1.1:
High-Energy Physics / 7.1.2:
Turbulence / 7.1.3:
Fingering / 7.1.4:
Granular Matter / 7.1.5:
Condensed Matter Physics / 7.1.6:
Plasma / 7.1.7:
Astrophysics / 7.1.8:
Geophysics / 7.1.9:
Quantum Chaos / 7.1.10:
Quantum Entanglement / 7.1.11:
Random Matrices / 7.1.12:
Chemistry / 7.2:
Generalized Arrhenius Law and Anomalous Diffusion / 7.2.1:
Lattice Lotka-Volterra Model for Chemical Reactions and Growth / 7.2.2:
Re-Association in Folded Proteins / 7.2.3:
Ground State Energy of the Chemical Elements (Mendeleev's Table) and of Doped Fullerenes / 7.2.4:
Economics / 7.3:
Computer Sciences / 7.4:
Optimization Algorithms / 7.4.1:
Analysis of Time Series and Signals / 7.4.2:
Analysis of Images / 7.4.3:
PING Internet Experiment / 7.4.4:
Biosciences / 7.5:
Cellular Automata / 7.6:
Self-Organized Criticality / 7.7:
Scale-Free Networks / 7.8:
The Natal Model / 7.8.1:
Albert-Barabasi Model / 7.8.2:
Non-Growing Model / 7.8.3:
Lennard-Jones Cluster / 7.8.4:
Linguistics / 7.9:
Other Sciences / 7.10:
Last (But Not Least) / Part IV:
Final Comments and Perspectives / 8:
Falsifiable Predictions and Conjectures, and Their Verifications / 8.1:
Frequently Asked Questions / 8.2:
Open Questions / 8.3:
Useful Mathematical Formulae / Appendix A:
Escort Distributions and q-Expectation Values / Appendix B:
First Example / B.1:
Second Example / B.2:
Remarks / B.3:
Bibliography
Index
Basics or How the Theory Works / Part I:
Historical Background and Physical Motivations / 1:
Introduction / 1.1:
10.

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EB
Hidetoshi Nishimori
出版情報: Oxford : Oxford University Press, 2001  1 online resource (xii, 243 p.)
シリーズ名: The international series of monographs on physics ; 111
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