Annual Review of Fluid Mechanics, ISSN 0066-4189, 01/2011, Volume 43, Issue 1, pp. 353 - 375
We review wall-bounded turbulent flows, particularly high-Reynolds number, zero-pressure gradient boundary layers, and fully developed pipe and channel flows....
pipe flow | boundary layers | turbulence structure | coherent motions | channel flow | ATTACHED-EDDY HYPOTHESIS | SHEAR FLOWS | ZERO-PRESSURE-GRADIENT | PHYSICS, FLUIDS & PLASMAS | DEVELOPED PIPE-FLOW | LARGE-SCALE MOTIONS | ATMOSPHERIC BOUNDARY-LAYER | TAYLORS HYPOTHESIS | DIRECT NUMERICAL-SIMULATION | PARTICLE IMAGE VELOCIMETRY | MECHANICS | Mechanical properties | Turbulence | Research | Analysis | Reynolds number | Boundary layer | Turbulent flow | Law | Fluid dynamics | Asymptotic properties | Fluid flow | Walls
pipe flow | boundary layers | turbulence structure | coherent motions | channel flow | ATTACHED-EDDY HYPOTHESIS | SHEAR FLOWS | ZERO-PRESSURE-GRADIENT | PHYSICS, FLUIDS & PLASMAS | DEVELOPED PIPE-FLOW | LARGE-SCALE MOTIONS | ATMOSPHERIC BOUNDARY-LAYER | TAYLORS HYPOTHESIS | DIRECT NUMERICAL-SIMULATION | PARTICLE IMAGE VELOCIMETRY | MECHANICS | Mechanical properties | Turbulence | Research | Analysis | Reynolds number | Boundary layer | Turbulent flow | Law | Fluid dynamics | Asymptotic properties | Fluid flow | Walls
Journal Article
Annual Review of Fluid Mechanics, ISSN 0066-4189, 1/2016, Volume 48, Issue 1, pp. 53 - 80
Taylor-Couette flow, the flow between two coaxial co- or counter-rotating cylinders, is one of the paradigmatic systems in the physics of fluids. The...
rotating flow | fully developed turbulence | quasi-Keplerian flows | transport properties | laminar and turbulent boundary layers | METIS-314768 | IR-99585 | Fully developed turbulence | Quasi-Keplerian flows | Rotating flow | Transport properties | Laminar and turbulent boundary layers | EIGENVALUE PROBLEM | ANGULAR-MOMENTUM TRANSPORT | PHYSICS, FLUIDS & PLASMAS | CONCENTRIC CYLINDERS | ROTATING CYLINDERS | TRANSIENT GROWTH | FLOW | DIRECT NUMERICAL-SIMULATION | MECHANICS | THERMAL-CONVECTION | ENERGY-DISSIPATION | RAYLEIGH-BENARD CONVECTION | Usage | Turbulence | Observations | Reynolds number | Boundary layer | Torque | Turbulent flow | Computational fluid dynamics | Fluid flow | Mathematical models | Angular velocity | Cylinders | Physics - Fluid Dynamics
rotating flow | fully developed turbulence | quasi-Keplerian flows | transport properties | laminar and turbulent boundary layers | METIS-314768 | IR-99585 | Fully developed turbulence | Quasi-Keplerian flows | Rotating flow | Transport properties | Laminar and turbulent boundary layers | EIGENVALUE PROBLEM | ANGULAR-MOMENTUM TRANSPORT | PHYSICS, FLUIDS & PLASMAS | CONCENTRIC CYLINDERS | ROTATING CYLINDERS | TRANSIENT GROWTH | FLOW | DIRECT NUMERICAL-SIMULATION | MECHANICS | THERMAL-CONVECTION | ENERGY-DISSIPATION | RAYLEIGH-BENARD CONVECTION | Usage | Turbulence | Observations | Reynolds number | Boundary layer | Torque | Turbulent flow | Computational fluid dynamics | Fluid flow | Mathematical models | Angular velocity | Cylinders | Physics - Fluid Dynamics
Journal Article
2008, Cambridge aerospace series, ISBN 0521882788, Volume 22, xviii, 177 p., [16] p. of plates
Low Reynolds number aerodynamics is important to a number of natural and man-made flyers. Birds, bats, and insects have been of interest to biologists for...
Aerodynamics
Aerodynamics
Book
Experiments in Fluids, ISSN 0723-4864, 5/2018, Volume 59, Issue 5, pp. 1 - 29
The influence of unit Reynolds number ($$Re_1=17.5\times 10^{6}$$ Re1=17.5×106 –$$80\times 10^{6}\,\text {m}^{-1}$$ 80×106m-1 ), Mach number ($$M= 0.35$$...
Engineering | Engineering Fluid Dynamics | Fluid- and Aerodynamics | Engineering Thermodynamics, Heat and Mass Transfer | MECHANICS | DISTURBANCES | LEADING-EDGE RECEPTIVITY | STABILITY | PREDICTIONS | SOUND | FORWARD-FACING STEPS | FLOW | ENGINEERING, MECHANICAL | Analysis | Boundary layer
Engineering | Engineering Fluid Dynamics | Fluid- and Aerodynamics | Engineering Thermodynamics, Heat and Mass Transfer | MECHANICS | DISTURBANCES | LEADING-EDGE RECEPTIVITY | STABILITY | PREDICTIONS | SOUND | FORWARD-FACING STEPS | FLOW | ENGINEERING, MECHANICAL | Analysis | Boundary layer
Journal Article
Experiments in Fluids, ISSN 0723-4864, 08/2009, Volume 47, Issue 2, pp. 279 - 294
The present paper analyzes the features of a low-Reynolds number free submerged jet with special regard to statistical quantities on the jet centerline....
Fluid dynamics | Turbulence | Analysis | Fluid mechanics | Strömningsmekanik och akustik | Teknik och teknologier | Maskinteknik | Fluid Mechanics and Acoustics | Reynolds number; Spectrum analysis; Spectrum analyzers | TEKNIKVETENSKAP | Engineering and Technology | Engineering mechanics | Strömningsmekanik | Teknisk mekanik | Mechanical Engineering | TECHNOLOGY
Fluid dynamics | Turbulence | Analysis | Fluid mechanics | Strömningsmekanik och akustik | Teknik och teknologier | Maskinteknik | Fluid Mechanics and Acoustics | Reynolds number; Spectrum analysis; Spectrum analyzers | TEKNIKVETENSKAP | Engineering and Technology | Engineering mechanics | Strömningsmekanik | Teknisk mekanik | Mechanical Engineering | TECHNOLOGY
Journal Article
1983, ISBN 0891162542, viii, 1016
Book
1973, 2d rev. ed. -, ISBN 9001371159, 553
Book
Experimental Thermal and Fluid Science, ISSN 0894-1777, 09/2016, Volume 76, pp. 342 - 351
This study presents an experimental study of the effect of solid volume fraction and Reynolds number on heat transfer coefficient and pressure drop of...
Solid volume fraction | CuO–Water nanofluid | Heat transfer coefficient | Pressure drop | CuO-Water nanofluid | TRANSFER ENHANCEMENT | THERMOPHYSICAL PROPERTIES | PHYSICS, FLUIDS & PLASMAS | PERFORMANCE | CIRCULAR TUBE | ENGINEERING, MECHANICAL | REGION | THERMODYNAMICS | TURBULENT-FLOW | Copper oxide | Cuprite | Turbulence | Turbulent flow | Fluid dynamics | Volume fraction | Reynolds number | HEAT TRANSFER | Nanostructure | COPPER OXIDE | MICROSTRUCTURES | FLUIDITY | FLUID FLOW | Heat transfer coefficients | WATER
Solid volume fraction | CuO–Water nanofluid | Heat transfer coefficient | Pressure drop | CuO-Water nanofluid | TRANSFER ENHANCEMENT | THERMOPHYSICAL PROPERTIES | PHYSICS, FLUIDS & PLASMAS | PERFORMANCE | CIRCULAR TUBE | ENGINEERING, MECHANICAL | REGION | THERMODYNAMICS | TURBULENT-FLOW | Copper oxide | Cuprite | Turbulence | Turbulent flow | Fluid dynamics | Volume fraction | Reynolds number | HEAT TRANSFER | Nanostructure | COPPER OXIDE | MICROSTRUCTURES | FLUIDITY | FLUID FLOW | Heat transfer coefficients | WATER
Journal Article
Journal of Fluid Mechanics, ISSN 0022-1120, 11/2019, Volume 879
We study the dynamical system of a two-dimensional, forced, stratified mixing layer at finite Reynolds number $Re$, and Prandtl number $Pr=1$. We consider a...
Amplitude | Aquatic reptiles | Amplitudes | Fluid dynamics | Velocity profiles | Reynolds number | Fluid flow | Billows | Bifurcations | Kelvin-helmholtz instability | Velocity distribution | Dynamical systems | Velocity | Equations | Flow stability | Prandtl number | Embedded systems | Dynamics | Profiles | Dynamic stability | Stratification | Richardson number
Amplitude | Aquatic reptiles | Amplitudes | Fluid dynamics | Velocity profiles | Reynolds number | Fluid flow | Billows | Bifurcations | Kelvin-helmholtz instability | Velocity distribution | Dynamical systems | Velocity | Equations | Flow stability | Prandtl number | Embedded systems | Dynamics | Profiles | Dynamic stability | Stratification | Richardson number
Journal Article
Journal of Fluid Mechanics, ISSN 0022-1120, 08/2018, Volume 849, pp. 57 - 75
Recent experiments have demonstrated that small-scale rotary devices installed in a microfluidic channel can be driven passively by the underlying flow alone...
MEMS/NEMS | microfluidics | slow-Reynolds-number flows | WALL | MECHANICS | BOUNDARIES | PHYSICS, FLUIDS & PLASMAS | low-Reynolds-number flows | Stability | Computer simulation | Computational fluid dynamics | Theory | Reynolds number | Fluid flow | Hydrodynamics | Rods | Stability analysis | Orientation | Rotation | Velocity | Equilibrium | Numerical analysis | Theories | Dependence | Mathematical models | Interactions | Configurations | Electric fields | Microfluidics | Framework | Symmetry | Fluid Mechanics and Acoustics | Engineering and Technology | Strömningsmekanik och akustik | Teknik och teknologier | Mechanical Engineering | Maskinteknik
MEMS/NEMS | microfluidics | slow-Reynolds-number flows | WALL | MECHANICS | BOUNDARIES | PHYSICS, FLUIDS & PLASMAS | low-Reynolds-number flows | Stability | Computer simulation | Computational fluid dynamics | Theory | Reynolds number | Fluid flow | Hydrodynamics | Rods | Stability analysis | Orientation | Rotation | Velocity | Equilibrium | Numerical analysis | Theories | Dependence | Mathematical models | Interactions | Configurations | Electric fields | Microfluidics | Framework | Symmetry | Fluid Mechanics and Acoustics | Engineering and Technology | Strömningsmekanik och akustik | Teknik och teknologier | Mechanical Engineering | Maskinteknik
Journal Article
PLoS ONE, ISSN 1932-6203, 10/2017, Volume 12, Issue 10, p. e0185832
This study numerically investigates the vortex-induced vibration (VIV) of an elastically mounted rigid cylinder by using Reynolds-averaged Navier-Stokes (RANS)...
OSCILLATING CYLINDER | LARGE-EDDY SIMULATION | MULTIDISCIPLINARY SCIENCES | DYNAMICS | SMOOTH | TURBULENT | VERY-LOW MASS | FLOW | Models, Theoretical | Elasticity | Vibration | Numerical analysis | Fluid dynamics | Analysis | Investigations | Turbulent flow | Direct numerical simulation | Fluid flow | Two dimensional models | Detached eddy simulation | Research | Reynolds averaged Navier-Stokes method | Large eddy simulation | Petroleum production | Mathematical models | Civil engineering | Fluid mechanics | Turbulence | Computer simulation | Computational fluid dynamics | Reynolds number | Fluid | Model accuracy | Circular cylinders | Studies | Researchers | Simulation | Vortices | Turbulence models | Computer applications | Software | Cost analysis | High Reynolds number | Three dimensional models | Navier-Stokes equations
OSCILLATING CYLINDER | LARGE-EDDY SIMULATION | MULTIDISCIPLINARY SCIENCES | DYNAMICS | SMOOTH | TURBULENT | VERY-LOW MASS | FLOW | Models, Theoretical | Elasticity | Vibration | Numerical analysis | Fluid dynamics | Analysis | Investigations | Turbulent flow | Direct numerical simulation | Fluid flow | Two dimensional models | Detached eddy simulation | Research | Reynolds averaged Navier-Stokes method | Large eddy simulation | Petroleum production | Mathematical models | Civil engineering | Fluid mechanics | Turbulence | Computer simulation | Computational fluid dynamics | Reynolds number | Fluid | Model accuracy | Circular cylinders | Studies | Researchers | Simulation | Vortices | Turbulence models | Computer applications | Software | Cost analysis | High Reynolds number | Three dimensional models | Navier-Stokes equations
Journal Article
Journal of Fluid Mechanics, ISSN 0022-1120, 05/2013, Volume 726, pp. 285 - 311
We use the boundary element method to study the low-Reynolds-number locomotion of a spherical model microorganism in a circular tube. The swimmer propels...
low-Reynolds-number flows | swimming/flying | boundary integral methods | biological fluid dynamics | microorganism dynamics | HYDRODYNAMIC INTERACTION | BACTERIA | PHYSICS, FLUIDS & PLASMAS | MODEL MICROORGANISMS | SOLID BOUNDARIES | MECHANICS | MOTION | VISCOUS ENVIRONMENTS | VISCOELASTIC FLUIDS | MOVEMENT | PROPULSION | MOTILITY | Teknik och teknologier | Engineering and Technology | Mechanical Engineering | Maskinteknik
low-Reynolds-number flows | swimming/flying | boundary integral methods | biological fluid dynamics | microorganism dynamics | HYDRODYNAMIC INTERACTION | BACTERIA | PHYSICS, FLUIDS & PLASMAS | MODEL MICROORGANISMS | SOLID BOUNDARIES | MECHANICS | MOTION | VISCOUS ENVIRONMENTS | VISCOELASTIC FLUIDS | MOVEMENT | PROPULSION | MOTILITY | Teknik och teknologier | Engineering and Technology | Mechanical Engineering | Maskinteknik
Journal Article
1986, 25
Book
Journal of Fluid Mechanics, ISSN 0022-1120, 02/2013, Volume 717, pp. 293 - 321
The interaction between isotropic turbulence and a normal shock wave is investigated through a series of direct numerical simulations at different Reynolds...
compressible turbulence | turbulent flows | shock waves | DIRECT NUMERICAL-SIMULATION | WAVE | MECHANICS | PHYSICS, FLUIDS & PLASMAS | ISOTROPIC TURBULENCE | FLOW | SCHEMES | Shock waves | Fluid mechanics | Flow velocity | Turbulent flow | Reynolds number
compressible turbulence | turbulent flows | shock waves | DIRECT NUMERICAL-SIMULATION | WAVE | MECHANICS | PHYSICS, FLUIDS & PLASMAS | ISOTROPIC TURBULENCE | FLOW | SCHEMES | Shock waves | Fluid mechanics | Flow velocity | Turbulent flow | Reynolds number
Journal Article
Angewandte Chemie International Edition, ISSN 1433-7851, 02/2019, Volume 58, Issue 8, pp. 2208 - 2228
Collective and emergent behaviors of active colloids provide useful insights into the statistical physics of out‐of‐equilibrium systems. Colloidal suspensions...
active systems | coupling | diffusion | heterogeneous catalysis | nanomotors | COLLECTIVE DYNAMICS | PHYSICAL-PROPERTIES | FLUID-DYNAMICS | ENHANCED DIFFUSION | PARTICLE DIFFUSION | SELF-ORGANIZATION | CHEMISTRY, MULTIDISCIPLINARY | ACTIVE PARTICLES | PHASE-TRANSITION | NUCLEOCYTOPLASMIC TRANSPORT | COHERENT STRUCTURES | Heterogeneous catalysis | Coupling (molecular) | Catalysts | Reynolds number | Colloids | Fluid flow | Coupling | Energy transduction | Energy transfer | Tracers
active systems | coupling | diffusion | heterogeneous catalysis | nanomotors | COLLECTIVE DYNAMICS | PHYSICAL-PROPERTIES | FLUID-DYNAMICS | ENHANCED DIFFUSION | PARTICLE DIFFUSION | SELF-ORGANIZATION | CHEMISTRY, MULTIDISCIPLINARY | ACTIVE PARTICLES | PHASE-TRANSITION | NUCLEOCYTOPLASMIC TRANSPORT | COHERENT STRUCTURES | Heterogeneous catalysis | Coupling (molecular) | Catalysts | Reynolds number | Colloids | Fluid flow | Coupling | Energy transduction | Energy transfer | Tracers
Journal Article