Continua and Generalities About Their Equations | p. 1 |
Continua | p. 1 |
Equations of Motion of a Fluid in General. Ideal and Incompressible Cases. Incompressible Euler, Navier-Stokes and Navier-Stokes-Fourier Equations | p. 15 |
The Rescaling Method and Estimates of the Approximations | p. 24 |
Elements of Hydrostatics | p. 31 |
The Convection Problem. Rayleigh's Equations | p. 43 |
Kinematics: Incompressible Fields, Vector Potentials, Decompositions of a General Field | p. 53 |
Vorticity Conservation in the Euler Equation. Clebsch Potentials and Hamiltonian Form of Euler Equations. Bidimensional Fluids | p. 66 |
Empirical Algorithms | p. 83 |
Incompressible Euler and Navier-Stokes Fluid Dynamics. First Empirical Solutions Algorithms. Auxiliary Friction and Heat Equation Comparison Methods | p. 83 |
Another Class of Empirical Algorithms. Spectral Method. Stokes Problem. Gyroscopic Analogy | p. 99 |
Vorticity Algorithms for Incompressible Euler and Navier-Stokes Fluids. The d = 2 Case | p. 120 |
Vorticity Algorithms for Incompressible Euler and Navier-Stokes Fluids. The d = 3 Case | p. 128 |
Analytical Theories and Mathematical Aspects | p. 143 |
Spectral Method and Local Existence, Regularity and Uniqueness Theorems for Euler and Navier-Stokes Equations, d [greater than or equal to] 2 | p. 143 |
Weak Global Existence Theorems for NS. Autoregularization, Existence, Regularity and Uniqueness for d = 2 | p. 159 |
Regularity: Partial Results for the NS Equation in d = 3. The Theory of Leray | p. 176 |
Fractal Dimension of Singularities of the Navier-Stokes Equation, d = 3 | p. 197 |
Local Homogeneity and Regularity. CKN Theory | p. 205 |
Incipient Turbulence and Chaos | p. 227 |
Fluid Theory in the Absence of Existence and Uniqueness Theorems for the Basic Fluid Dynamics Equations. Truncated NS Equations. (The Rayleigh and Lorenz Models) | p. 227 |
Onset of Chaos. Elements of Bifurcation Theory | p. 239 |
Bifurcation Theory. End of the Onset of Turbulence | p. 259 |
Dynamical Tables | p. 275 |
Ordering Chaos | p. 287 |
Quantitative Description of Chaotic Motions Before Developed Turbulence. Continuous Spectrum | p. 287 |
Timed Observations. Random Data | p. 307 |
Dynamical Systems Types. Statistics on Attracting Sets | p. 319 |
Dynamical Bases and Lyapunov Exponents | p. 330 |
SRB Statistics. Attractors and Attracting Sets. Fractal Dimension | p. 351 |
Ordering of Chaos. Entropy and Complexity | p. 367 |
Symbolic Dynamics. Lorenz Model. Ruelle's Principle | p. 380 |
Developed Turbulence | p. 403 |
Functional Integral Representation of Stationary Distributions | p. 403 |
Phenomenology of Developed Turbulence and the Kolmogorov Laws | p. 412 |
The Shell Model. Multifractal Statistics | p. 431 |
Statistical Properties of Turbulence | p. 441 |
Viscosity, Reversibility, and Irreversible Dissipation | p. 441 |
Reversibility, Axiom C, Chaotic Hypothesis | p. 452 |
Chaotic Hypothesis, Fluctuation Theorem and Onsager Reciprocity. Entropy Driven Intermittency | p. 463 |
The Structure of the Attractor for the Navier-Stokes Equations. Dissipative Euler Equations. Barometric Formula | p. 477 |
Bibliography | p. 491 |
Name Index | p. 501 |
Subject Index | p. 503 |
Citations Index | p. 511 |
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