Mathematical and Physical Theory of Turbulence, Volume 250

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advanced turbulence modeling methods
Angular Momentum
Anomalous Scaling
Category=PHDS
direct
DNS
DNS Data
DNS Result
eddy
Eddy Turnover Time
Eddy Viscosity
Eddy Viscosity Models
Enstrophy Cascade
eq_bestseller
eq_isMigrated=1
eq_isMigrated=2
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geophysical fluid dynamics
Inverse Cascade
Isotropic Turbulence
Kolmogorov Flow
Kraichnan Model
Lagrangian turbulence statistics
large
large eddy simulation
Les
magnetohydrodynamics
Mexican Hat Wavelet Transform
MHD Turbulence
Navier Stokes equations
Navier Stokes Turbulence
numerical
Ordinary Differential Equations
RDT
reynolds
Reynolds Shear Stress
Reynolds Stresses
simulation
stratified flow analysis
Stratified Turbulence
stress
times
Turbulent Kinetic Energy
turnover
viscosity
Wavelet Coefficients
Wavelet Transform

Product details

  • ISBN 9780824723231
  • Weight: 540g
  • Dimensions: 178 x 254mm
  • Publication Date: 15 Jun 2006
  • Publisher: Taylor & Francis Inc
  • Publication City/Country: US
  • Product Form: Hardback
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Although the current dynamical system approach offers several important insights into the turbulence problem, issues still remain that present challenges to conventional methodologies and concepts. These challenges call for the advancement and application of new physical concepts, mathematical modeling, and analysis techniques. Bringing together experts from physics, applied mathematics, and engineering, Mathematical and Physical Theory of Turbulence discusses recent progress and some of the major unresolved issues in two- and three-dimensional turbulence as well as scalar compressible turbulence.

Containing introductory overviews as well as more specialized sections, this book examines a variety of turbulence-related topics. The authors concentrate on theory, experiments, computational, and mathematical aspects of Navier–Stokes turbulence; geophysical flows; modeling; laboratory experiments; and compressible/magnetohydrodynamic effects. The topics discussed in these areas include finite-time singularities and inviscid dissipation energy; validity of the idealized model incorporating local isotropy, homogeneity, and universality of small scales of high Reynolds numbers, Lagrangian statistics, and measurements; and subrigid-scale modeling and hybrid methods involving a mix of Reynolds-averaged Navier–Stokes (RANS), large-eddy simulations (LES), and direct numerical simulations (DNS).

By sharing their expertise and recent research results, the authoritative contributors in Mathematical and Physical Theory of Turbulence promote further advances in the field, benefiting applied mathematicians, physicists, and engineers involved in understanding the complex issues of the turbulence problem.

John Cannon, Bhimsen Shivamoggi