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Nonlinear stability, hydrodynamical turbulence, and transport in disks
Steven A. Balbus
, John F. Hawley
, James McLellan Stone
Astrophysical Sciences
Princeton Institute for Computational Science and Engineering
Research output
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Contribution to journal
›
Article
›
peer-review
161
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Scopus citations
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Dive into the research topics of 'Nonlinear stability, hydrodynamical turbulence, and transport in disks'. Together they form a unique fingerprint.
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Keyphrases
Turbulence
100%
Nonlinear Stability
100%
Angular Momentum
75%
Mean Flow
75%
Velocity Fluctuation
75%
Shear Layer
50%
Numerical Code
50%
Keplerian Disc
50%
Effective Reynolds number
50%
Velocity Gradient
25%
First-principles
25%
Three-dimensional (3D)
25%
Non-axisymmetric
25%
Inviscid
25%
Rayleigh Instability
25%
Rayleigh
25%
Law
25%
Accretion Discs
25%
Free Energy
25%
Angular Velocity
25%
Nonlinear Simulation
25%
Shear Flow
25%
Spiral Wave
25%
Velocity Profile
25%
High Reynolds number
25%
Navier-Stokes
25%
Energy-momentum
25%
Self-generated
25%
Understanding Why
25%
Differential Rotation
25%
Turbulent Transport
25%
Pure Shear
25%
Analytic Analysis
25%
Momentum Gradient
25%
Rotational Shear
25%
Instability Waves
25%
Inward Transport
25%
Convectively
25%
Flow Gradient
25%
Specific Angular Momentum
25%
Azimuthal Velocity
25%
Physics
Transportation
100%
Angular Momentum
80%
Reynolds Number
60%
Reynolds' Number
60%
Shear Layer
40%
First Principle
20%
Shear Flow
20%
Angular Velocity
20%
Circumstellar Disks
20%
Turbulent Diffusion
20%
Free Energy
20%
Numerical Simulation
20%