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Field Theoretic Renormalization Group in Fully Developed Turbulence [Kietas viršelis]

(St.Petersburg State University, Russian Federation), (St Petersburg State University, Russian Federation), (St. Petersburg State University, Russian Federation)
  • Formatas: Hardback, 208 pages, aukštis x plotis: 229x152 mm, weight: 522 g
  • Išleidimo metai: 08-Mar-1999
  • Leidėjas: Taylor & Francis Ltd
  • ISBN-10: 9056991450
  • ISBN-13: 9789056991456
  • Formatas: Hardback, 208 pages, aukštis x plotis: 229x152 mm, weight: 522 g
  • Išleidimo metai: 08-Mar-1999
  • Leidėjas: Taylor & Francis Ltd
  • ISBN-10: 9056991450
  • ISBN-13: 9789056991456
The renormalization group (RG) theory of fully developed hydrodynamical turbulence is a new and developing field of research. This book gives a detailed and comprehensive review of the results obtained using this theory over the past 20 years. The authors have systematically adopted the highly successful field theoretic RG technique, which has a reliable base in the form of quantum- field renormalization theory, involves powerful and convenient methods of calculation such as analytic regularization and minimal subtractions, and allows one to obtain results which are difficult to achieve using other methods.
In the first chapter the basic theory and technique are presented, while the next chapter deals with more advanced aspects of the theory, including the critical dimensions of various composite operators, infrared asymptotic behavior of scaling functions, the equation of spectral energy balance, and calculating the amplitudes in scaling laws. The third chapter presents a series of examples, such as turbulent convection of passive scalar admixture, the influence of anisotropy and gyrotropy, magnetohydrodynamical turbulence, and Langmuir turbulence of plasma.
In contrast to more established disciplines, such as the theory of critical phenomena, in the RG theory of turbulence there is as yet no unique and generally accepted calculation technique. For this reason the authors also present the necessary information on the renormalization theory of the RG technique, making the subject accessible to a wide range of readers. The book will therefore be a useful source of reference for students and researchers in turbulence, statistical mechanics, and related fields, including those with no prior experience of using quantum-field techniques.
Introduction 1(9)
The Renormalization Group Method in the Stochastic Model of Isotropic Turbulence
9(42)
The stochastic Navier-Stokes equation. The phenomenology of developed turbulence
9(10)
The quantum field formulation
19(4)
Infrared and ultraviolet singularities in the graphs of perturbation theory
23(2)
Ultraviolet renormalization. The RG equations
25(5)
RG analysis of stochastic hydrodynamics. IR scaling
30(6)
Solution of the RG equations. Invariant variables. RG representations of the correlation functions
36(6)
IR scaling at fixed g0 and v0
42(6)
IR scaling at fixed W and v0: Independence of v0 and freezing of the critical exponents for &epsis; > 2
48(3)
Composite Operators, Operator Expansions, and the First Kolmogorov Hypothesis
51(62)
Renormalization of composite operators. Schwinger equations and Galilean invariance
51(8)
Composite operators in the energy and momentum conservation laws
59(7)
Critical dimensions of senior operators
66(5)
IR-relevant operators and the calculation of nonuniversal amplitudes
71(5)
Study of the m → 0 asymptote using the operator expansion
76(5)
Justification of the first Kolmogorov hypothesis for 0 < &epsis; < 2 using infrared perturbation theory
81(7)
The IR asymptote of the triple velocity correlator
88(3)
The RG approach and the spectral energy balance equation
91(6)
Non-Kolmogorov solutions of the energy balance equation
97(2)
Singularities for &epsis; → 2 in the massless model. Calculation of the Kolmogorov constant
99(6)
Deviations from Kolmogorov scaling. The IR renormalization group
105(8)
Multicharge Problems in the Stochastic Theory of Turbulence
113(74)
Turbulent convection of a passive scalar
113(8)
A passive admixture with noise. Calculation of the Batchelor constant
121(4)
Turbulent convection of a chemically active scalar admixture
125(4)
Anisotropic turbulence
129(5)
Turbulent convection of a passive scalar in the presence of anisotropy
134(6)
The RG and magnetic hydrodynamics. Calculation of the RG functions
140(6)
Critical dimensions in magnetic hydrodynamics
146(7)
Anisotropy and critical regimes in magnetic hydrodynamics
153(2)
Helical turbulence. The turbulent dynamo as spontaneous symmetry breakdown
155(12)
The e expansion near d =
2. The Kolmogorov and thermal critical regimes
167(10)
Langmuir turbulence of a plasma
177(10)
Afterword 187(2)
Bibliography 189(12)
Index 201