- ISBN: 9780486458915 | 0486458911
- Cover: Paperback
- Copyright: 6/5/2007
Authors' Preface to the English Edition | p. iii |
Editor's Preface to the English Edition | p. v |
Mathematical Description of Turbulence. Spectral Functions | p. 1 |
Spectral Representations of Stationary Processes and Homogeneous Fields | p. 1 |
Spectral Representation of Stationary Processes | p. 3 |
Spectral Representation of Homogeneous Fields | p. 16 |
Partial Derivatives of Homogeneous Fields. Divergence and Curl of a Vector Field | p. 23 |
Isotropic Random Fields | p. 29 |
Correlation Functions and Spectra of Scalar Isotropic Fields | p. 29 |
Correlation Functions and Spectra of Isotropic Fields | p. 35 |
Solenoidal and Potential Isotropic Vector Fields | p. 49 |
One-Point and Two-Point Higher-Order Moments of Isotropic Fields | p. 58 |
Three-Point Moments of Isotropic Fields | p. 75 |
Locally Homogeneous and Locally Isotropic Random Fields | p. 80 |
Processes with Stationary Increments | p. 80 |
Locally Homogeneous Fields | p. 93 |
Locally Isotropic Fields | p. 98 |
Isotropic Turbulence | p. 113 |
Equations for the Correlation and Spectral Functions of Isotropic Turbulence | p. 113 |
Definition of Isotropic Turbulence and the Possibilities of its Experimental Realization | p. 113 |
Equations for the Velocity Correlations | p. 117 |
Equations for the Velocity Spectra | p. 123 |
Correlations and Spectra Containing Pressure | p. 130 |
Correlations and Spectra Containing the Temperature | p. 136 |
The Simplest Consequences of the Correlation and Spectral Equations | p. 141 |
Balance Equations for Energy, Vorticity, and Temperature-Fluctuation Intensity | p. 141 |
The Loitsyanskii and Corrsin Integrals | p. 146 |
Final Period of Decay of Isotropic Turbulence | p. 152 |
Experimental Data on the Final Period of Decay. The Decay of Homogeneous Turbulence | p. 162 |
Asymptotic Behavior of the Correlations and Spectra of Homogeneous Turbulence in the Range of Large Length Scales (or Small Wave Numbers) | p. 169 |
The Influence of the Spectrum Singularity on the Final Period Decay | p. 174 |
Self-Preservation Hypotheses | p. 177 |
The von Karman Hypothesis on the Self-Preservation of the Velocity Correlation Functions | p. 177 |
Less Stringent Forms of the von Karman Hypothesis | p. 181 |
Spectral Formulation of the Self-Preservation Hypotheses | p. 185 |
Experimental Verification of the Self-Preservation Hypotheses | p. 189 |
The Kolmogorov Hypotheses on Small-Scale Self-Preservation at High Enough Reynolds Numbers | p. 197 |
Conditions for the Existence of Kolmogorov Self-Preservation in Grid Turbulence | p. 204 |
The Meso-Scale Quasi-Equilibrium Hypothesis. Self-Preservation of Temperature Fluctuations | p. 210 |
Spectral Energy-Transfer Hypotheses | p. 212 |
Approximate Formulas for the Spectral Energy Transfer | p. 212 |
Application of the Energy Transfer Hypotheses to the Study of the Shape of the Spectrum in the Quasi-Equilibrium Range | p. 225 |
Application of the Energy-Transfer Hypotheses to Decaying Turbulence behind a Grid | p. 235 |
Self-Preserving Solutions of the Approximate Equations for the Energy Spectrum | p. 237 |
The Miliionshchikov Zero-Fourth-Cumulant Hypothesis and its Application to the Investigation of Pressure and Acceleration Fluctuations | p. 241 |
The Zero-Fourth-Cumulant Hypothesis and the Data on Velocity Probability Distributions | p. 241 |
Calculation of the Pressure Correlation and Spectra | p. 250 |
Estimation of the Turbulent Acceleration Fluctuations | p. 256 |
Dynamic Equations for the Higher-Order Moments and the Closure Problem | p. 260 |
Equations for the Third-Order Moments of Flow Variables | p. 260 |
Closure of the Moment Equations by the Moment Discard Assumption | p. 267 |
Closure of the Second- and Third-Order Moment Equations Using the Millionshchikov Zero-Fourth-Cumulant Hypothesis | p. 271 |
Zero-Fourth-Cumulant Approximation for Temperature Fluctuations in Isotropic Turbulence | p. 286 |
Space-Time Correlation Functions. The Case of Stationary Isotropic Turbulence | p. 290 |
Application of Perturbation Theory and the Diagram Technique | p. 295 |
Equations for the Finite-Dimensional Probability Distributions of Velocities | p. 310 |
Turbulence in Compressible Fluids | p. 317 |
Invariants of Isotropic Compressible Turbulence | p. 317 |
Linear Theory; Final Period of Decay of Compressible Turbulence | p. 321 |
Quadratic Effects; Generation of Sound by Turbulence | p. 328 |
Locally Isotropic Turbulence | p. 337 |
General Description of the Small-Scale Structure of Turbulence at Large Reynolds Numbers | p. 337 |
A Qualitative Scheme for Developed Turbulence | p. 337 |
Definition of Locally Isotropic Turbulence | p. 341 |
The Kolmogorov Similarity Hypotheses | p. 345 |
Local Structure of the Velocity Fluctuations | p. 351 |
Statistical Characteristics of Acceleration, Vorticity, and Pressure Fields | p. 368 |
Local Structure of the Temperature Field for High Reynolds and Peclet Numbers | p. 377 |
Local Characteristics of Turbulence in the Presence of Buoyancy Forces and Chemical Reactions. Effect of Thermal Stratification | p. 387 |
Dynamic Theory of the Local Structure of Developed Turbulence | p. 395 |
Equations for the Structure and Spectral Functions of Velocity and Temperature | p. 395 |
Closure of the Dynamic Equations | p. 403 |
Behavior of the Turbulent Energy Spectrum in the Far Dissipation Range | p. 421 |
Behavior of the Temperature Spectrum at Very Large Wave Numbers | p. 433 |
Experimental Data on the Fine Scale Structure of Developed Turbulence | p. 449 |
Methods of Measurement; Application of Taylor's Frozen-Turbulence Hypothesis | p. 449 |
Verification of the Local Isotropy Assumption | p. 453 |
Verification of the Second Kolmogorov Similarity Hypothesis for the Velocity Fluctuations | p. 461 |
Verification of the First Kolmogorov Similarity Hypothesis for the Velocity Field | p. 486 |
Data on the Local Structure of the Temperature and other Scalar Fields Mixed by Turbulence | p. 494 |
Data on Turbulence Spectra in the Atmosphere beyond the Low-Frequency Limit of the Inertial Subrange | p. 517 |
Diffusion in an Isotropic Turbulence | p. 527 |
Diffusion in an Isotropic Turbulence. Statistical Characteristics of the Motion of a Fluid Particle | p. 527 |
Statistical Characteristics of the Motion of a Pair of Fluid Particles | p. 536 |
Relative Diffusion and Richardson's Four-Thirds Law | p. 551 |
Hypotheses on the Probability Distributions of Local Diffusion Characteristics | p. 567 |
Material Line and Surface Stretching in Turbulent Flows | p. 578 |
Refined Treatment of the Local Structure of Turbulence, Taking into Account Fluctuations in Dissipation Rate | p. 584 |
General Considerations and Model Examples | p. 584 |
Refined Similarity Hypothesis | p. 590 |
Statistical Characteristics of the Dissipation | p. 594 |
Refined Expressions for the Statistical Characteristics of Small-Scale Turbulence | p. 640 |
More General Form of the Refined Similarity Hypothesis | p. 650 |
Wave Propagation Through Turbulence | p. 653 |
Propagation of Electromagnetic and Sound Waves in a Turbulent Medium | p. 653 |
Foundations of the Theory of Electromagnetic Wave Propagation in a Turbulent Medium | p. 653 |
Sound Propagation in a Turbulent Atmosphere | p. 668 |
Turbulent Scattering of Electromagnetic and Sound Waves | p. 674 |
Fluctuations in the Amplitude and Phase of Electromagnetic and Sound Waves in a Turbulent Atmosphere | p. 685 |
Strong Fluctuations of Wave Amplitude | p. 704 |
Stellar Scintillation | p. 721 |
Fluctuations in the Amplitude and Phase of Star Light Observed on the Earth's Surface | p. 721 |
The Effect of Telescope Averaging and Scintillation of Stellar and Planetary Images | p. 729 |
Time Spectra of Fluctuations in the Intensity of Stellar Images in Telescopes | p. 733 |
Chromatic Stellar Scintillation | p. 737 |
Functional Formulation of the Turbulence Problem | p. 743 |
Equations for the Characteristic Functional | p. 743 |
Equations for the Spatial Characteristic Functional of the Velocity Field | p. 743 |
Spectral Form of the Equations for the Spatial Characteristic Functional | p. 751 |
Equations for the Space-Time Characteristic Functional | p. 760 |
Equations for the Characteristic Functional in the Presence of External Forces | p. 763 |
Methods of Solving the Equations for the Characteristic Functional | p. 773 |
Use of a Functional Power Series | p. 773 |
Zero-Order Approximation in the Reynolds Number | p. 783 |
Expansion in Powers of the Reynolds Number | p. 791 |
Other Expansion Schemes | p. 798 |
Use of Functional Integrals | p. 802 |
Bibliography | p. 813 |
Supplementary Remarks to Volume 1 | p. 853 |
References | p. 854 |
Errata to Volume 1 | p. 855 |
Author Index | p. 863 |
Subject Index | p. 871 |
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