Nomenclature |
Aspect Ratio / 21: |
Introduction / 21.1: |
Horseshoe-swirl system / 21.2: |
Laminar boundary layer / 21.2.1: |
Oscillating horseshoe-swirl system / 21.2.2: |
Turbulent boundary layer / 21.2.3: |
Closed test section / 21.3: |
Steady laminar wake, L2 regime / 21.3.1: |
Periodic laminar wake, L3 regime / 21.3.2: |
Cylinder spanning the free jet / 21.4: |
Transition-in-shear layer, TrSL state / 21.4.1: |
End plates / 21.5: |
Laminar periodic wake, L3 regime / 21.5.1: |
Effect of a single end plate / 21.5.2: |
Effect of two end plates / 21.5.3: |
Transition-in-wake, TrW, state / 21.5.4: |
Transition-in-shear-layer, TrSL, state / 21.5.5: |
Small aspect ratio / 21.5.6: |
Fluctuating force / 21.5.7: |
Transition-in-boundary layer, TrBL, state / 21.5.8: |
Free water surface / 21.6: |
Towed cylinder in water at low Re / 21.6.1: |
Theoretical modelling / 21.7: |
The Landau model / 21.7.1: |
Extension of Landau's model / 21.7.2: |
Other theoretical models / 21.7.3: |
Free end / 21.8: |
Secondary flow at the free end / 21.8.1: |
Spanwise variation in mean pressure / 21.8.3: |
Spanwise variation in the local drag coefficient / 21.8.4: |
Spanwise fluctuating pressure and lift / 21.8.5: |
Strouhal number variation along the span / 21.8.6: |
Symmetric eddy street / 21.8.7: |
Short cylinder in a boundary layer / 21.8.8: |
Finite cylinder in the TrBL4 regime / 21.8.9: |
Eddy shedding near the free end / 21.8.10: |
Local fluctuating lift and drag / 21.8.11: |
Finite cylinder in natural wind / 21.8.12: |
Fuel storage tank / 21.8.13: |
Two free ends / 21.9: |
Drag variation in terms of the aspect ratio / 21.9.1: |
Asymmetric pressure distribution / 21.9.2: |
Small aspect ratio, L/D [less than sign] 1 / 21.9.3: |
Surface Roughness and Change in Diameter / 22: |
Nature of surface roughness / 22.1: |
Fage and Warsap's glass paper tests / 22.1.2: |
Skin friction distribution / 22.1.3: |
Strouhal number variation / 22.1.4: |
Correlation length and vorticity dispersion / 22.1.5: |
Surface roughness textures / 22.2: |
Pyramidal roughness / 22.2.1: |
Brick-wall roughness / 22.2.2: |
Wire-gauze roughness / 22.2.3: |
Marine roughness / 22.2.4: |
Partially roughened surface / 22.2.5: |
Roughness Reynolds number / 22.2.6: |
Tripping wires / 22.3: |
Historical introduction / 22.3.1: |
Fage and Warsap's tripping wire tests / 22.3.2: |
Effect of tripping wire location / 22.3.3.: |
Classification of flow regimes / 22.3.4: |
Staggered separation wires / 22.3.5: |
Tripping and separation wires / 22.3.6: |
Helical wires and strakes / 22.3.7: |
Stranded cables and conductors / 22.3.8: |
Tripping spheres / 22.4: |
Pairs of spheres / 22.4.1: |
Spanwise row of spheres / 22.4.2: |
Other surface disturbances / 22.5: |
Streamwise eddy generators / 22.5.1: |
Serrated saw-blade / 22.5.2: |
Dimpled surface / 22.5.3: |
Spanwise slit / 22.5.4: |
Fins / 22.5.5: |
Circumferential grooves / 22.5.6: |
Skin friction and boundary layer / 22.5.7: |
Partly grooved surface / 22.5.8: |
Spanwise grooves / 22.5.9: |
Change in diameter / 22.6: |
Laminar periodic wake, the L3 regime / 22.6.1: |
Transition-in-shear-layer, the TrSL state / 22.6.3: |
Step interference in the TrSL3 regime / 22.6.4: |
Tapered cylinder / 22.7: |
Shedding cells along the span / 22.7.1: |
Theoretical model / 22.7.3: |
Turbulent wake, the TrSL state / 22.7.4: |
Tapered cylinder with free end / 22.7.5: |
Non-linear change in diameter / 22.8: |
Cooling towers / 22.8.1: |
Model tests / 22.8.3: |
Validity of Re extrapolation / 22.8.4: |
Surface roughness / 22.8.5: |
Meridional ribs / 22.8.6: |
Cooling tower model in a gust / 22.8.7: |
Full-scale tests in natural wind / 22.8.8: |
Possible causes of the Ferrybridge failure / 22.8.9: |
Blockage and Wall Proximity / 23: |
Laminar, L, state of flow / 23.1: |
Creeping flow, the L1 regime / 23.2.1: |
Closed near-wake, the L2 regime / 23.2.2: |
Instability of the near-wake / 23.2.3: |
Transition in shear layers, the TrSL state of flow / 23.2.4: |
Mechanics of blockage / 23.3.1: |
Mean pressure distribution and drag / 23.3.2: |
Strouhal number and fluctuating pressure / 23.3.3: |
Suppression of eddy shedding / 23.3.4: |
Strength and correlation of eddies / 23.3.5: |
Effect of free stream turbulence / 23.3.6: |
Transition in the boundary layer, the TrBL state / 23.4: |
Drag variation with blockage / 23.4.1: |
Strouhal number and fluctuating force / 23.4.3: |
Theoretical correction models / 23.5: |
Fage's blockage correction / 23.5.1: |
Lock's method of images / 23.5.3: |
Glauert's semi-empirical formula / 23.5.4: |
Allen and Vincenti's source model / 23.5.5: |
Maskell's correction model / 23.5.6: |
Modi and El-Sherbiny's streamline model / 23.5.7: |
Asymmetric blockage / 23.6: |
Laminar wake / 23.6.1: |
Turbulent wake / 23.6.2: |
Proximity to a boundary / 23.7: |
Contact regime / 23.7.1: |
Potential flow for a circle on a boundary / 23.7.4: |
Narrow-gap regime / 23.7.5: |
Wide-gap regime / 23.7.6: |
Effect of wall boundary layer / 23.7.7: |
Erodible boundary, scour / 23.8: |
Scouring mechanism / 23.8.1: |
Forces and Strouhal number / 23.8.2: |
Boundary Layer Control / 24: |
Rotating cylinder / 24.1: |
Magnus effect / 24.2.1: |
Classification of flow patterns / 24.2.2: |
Prandtl's concept of circulation / 24.2.3: |
Potential flow theory / 24.2.4: |
Bickley's potential model / 24.2.5: |
Effect of Reynolds number / 24.3: |
Laminar, L3, and transitional, TrW, wakes / 24.3.1: |
Pressure distribution in the TrSL state / 24.3.2: |
Inversion of the Magnus effect / 24.3.3: |
Boundary layer / 24.3.4: |
Strouhal number / 24.3.5: |
Effect of end plates / 24.3.6: |
Effect of surface roughness and fins / 24.3.7: |
Far-wake development / 24.3.8: |
Applications / 24.4: |
Flettner's rotor ship / 24.4.1: |
Rotor windmill / 24.4.2: |
Madaras Power Plant Project / 24.4.3: |
Wallis's 'dam-buster' / 24.4.4: |
Rotary angular oscillation of a surface / 24.5: |
Physical background / 24.5.1: |
Laminar L2 and L3 regimes / 24.5.2: |
A solution of Navier-Stokes equations / 24.5.3: |
Forced rotary oscillation eddy shedding / 24.5.4: |
Concentric rotating cylinders / 24.6: |
Taylor's theory and experiment / 24.6.1: |
Coles' further transitions / 24.6.3: |
Boundary layer control by suction and blowing / 24.6.4: |
Suction / 24.7.1: |
Porous surface suction / 24.7.2: |
Thwaites' flap / 24.7.3: |
Jet-blowing / 24.7.4: |
Lift and drag forces / 24.7.5: |
Dunham's theoretical model / 24.7.6: |
Yawed Cylinders / 25: |
Independence principle / 25.1: |
Laminar wakes in the L2 and L3 regimes / 25.2: |
Effect of end plate / 25.2.1: |
Free-ended and yawed cylinders / 25.2.3: |
Transition-in-shear layers, TrSL, state / 25.3: |
Eddy formation region and base pressure / 25.3.1: |
Elliptic cross-section / 25.3.2: |
Effect of the aspect ratio / 25.3.3: |
Skin friction / 25.3.5: |
Drag coefficient / 25.3.6: |
Turbulent wakes in the TrBL state / 25.4: |
Marine surface roughness / 25.4.1: |
High angle of incidence / 25.4.2: |
Impulsive cross-flow analogy / 25.5.1: |
Strength of detached vortices / 25.5.3: |
Normal and side force components / 25.5.4: |
Effect of Mach number / 25.5.5: |
Detachment instability / 25.5.7: |
Suppression of eddy detachment / 25.5.8: |
Two Cylinders / 26: |
Basic interference flow regimes / 26.1: |
Tandem arrangements / 26.2: |
Creeping flow regime, L1 / 26.2.1: |
Karman-Benard street, L3 regime / 26.2.2: |
Early research in the TrSL state of flow / 26.2.3: |
Modification of pressure distribution / 26.2.4: |
Drag coefficients / 26.2.5: |
Transition-in-boundary-layer, TrBL, state / 26.2.7: |
Effect of surface roughness / 26.2.8: |
Effect of finite height / 26.2.10: |
Effect of heat transfer / 26.2.11: |
Side-by-side arrangements / 26.3: |
Classification of interference regimes / 26.3.1: |
Laminar wakes / 26.3.2: |
Drag and lift forces / 26.3.3: |
Origin of biased gap flow / 26.3.5: |
Effect of partition plate and sound / 26.3.6: |
Landweber's theoretical model / 26.3.7: |
Staggered arrangements / 26.3.8: |
Classification of interference flows / 26.4.1: |
Mean pressure distribution in the TrSL state / 26.4.2: |
Lift and drag in the TrSL state / 26.4.4: |
Gap flow interference regime / 26.4.5: |
Wake displacement interference regime / 26.4.6: |
Stranded conductors / 26.4.7: |
Effect of the finite aspect ratio / 26.4.11: |
Twin cooling towers / 26.4.12: |
Two cylinders of unequal diameter / 26.5: |
Categorization of arrangements / 26.5.1: |
Tandem cylinders, D[subscript 1]/D[subscript 2] [less than sign] 1 / 26.5.2: |
Tandem cylinders, D[subscript 1]/D[subscript 2] [greater than sign] 1 / 26.5.3: |
Strouhal number for tandem cylinders / 26.5.4: |
Synchronization of eddy shedding / 26.5.5: |
Unequal side-by-side cylinders / 26.5.6: |
Control cylinder upstream / 26.5.7: |
Control cylinder outside laminar wake / 26.5.8: |
Boundary layer control / 26.5.9: |
Free shear layer control / 26.5.10: |
Two cylinders crossing at right angles / 26.6: |
Local pressure and forces along cylinders / 26.6.1: |
Tentative topology / 26.6.3: |
Two intersecting cylinders / 26.6.4: |
Effect of gap between cylinders / 26.6.5: |
Cylinder Clusters / 27: |
Three cylinders / 27.1: |
In-line clusters / 27.2.1: |
Effect of tripping wires / 27.2.2: |
Three cylinders of different diameters / 27.2.3: |
Side-by-side and staggered clusters / 27.2.4: |
Triangle clusters at low Re / 27.2.5: |
Triangle clusters, forces / 27.2.6: |
Triangle clusters, Strouhal number / 27.2.7: |
Irregular triangle clusters / 27.2.8: |
Four cylinders / 27.3: |
Heat transfer / 27.3.1: |
Side-by-side clusters / 27.3.3: |
Square clusters, forces / 27.3.4: |
Square clusters, Strouhal number / 27.3.5: |
Cluster of n [greater than sign] 4 cylinders / 27.4: |
Five cylinders, side-by-side clusters / 27.4.1: |
Seven cylinders, side-by-side clusters / 27.4.2: |
Six and eight cylinders, polygonal clusters / 27.4.3: |
3 x 3, 4 x 4, ..., n x n clusters / 27.4.4: |
Satellite clusters / 27.5: |
Interference parameters / 27.5.1: |
Force on satellite clusters / 27.5.3: |
Effect of satellite tube spacing / 27.5.4: |
Multi-Tube Arrays / 28: |
Categorization of tube arrays / 28.1: |
Single row of tubes / 28.2: |
Gap flow jets / 28.2.1: |
Structure of non-uniform flow / 28.2.2: |
Mean pressure distribution and forces / 28.2.3: |
Transition to turbulence in the TrBL state / 28.2.4: |
Metastable states of flow / 28.2.5: |
Suppression of metastable states / 28.2.6: |
Effect of tube proximity / 28.2.7: |
In-line tube arrays / 28.3: |
Mean pressure distribution / 28.3.1: |
Fluctuating forces / 28.3.2: |
Acoustic resonance; historical background / 28.3.3: |
Speed of sound in tube arrays / 28.3.5: |
Acoustic excitation and suppression / 28.3.6: |
Owen's buffeting model / 28.3.7: |
Interstitial flow, transition eddies / 28.3.8: |
Instability of jet shear layers / 28.3.9: |
Acoustic synchronization mechanism / 28.3.10: |
Interstitial flow and turbulence / 28.3.11: |
Classification of in-line tube arrays / 28.3.12: |
Staggered tube arrays / 28.4: |
Proximity effects / 28.4.1: |
Mean and fluctuating pressure / 28.4.2: |
Structure of interstitial flow / 28.4.3: |
Effect of tube displacement / 28.4.4: |
Strouhal number; historical / 28.4.5: |
Parallel triangle tube arrays / 28.4.7: |
Rotated square arrays / 28.4.8: |
Normal triangle arrays / 28.4.9: |
New universal St; a proposal / 28.4.10: |
Maximum sound level and its prediction / 28.4.11: |
Non-uniform flow in and behind arrays / 28.5: |
Non-uniform interstitial flow / 28.5.1: |
Appendix |
Glossary of terms / A1: |
Non-dimensional similarity parameters / A2: |
Epitome of disturbance-free flow regimes / A3: |
Abbreviations / A4: |
D. References |
Author Index |
Subject Index |
Nominally Two-Dimensional Cylinder In An Almost Disturbance-Free Flow / A: |
Conceptual overview / 1: |
Steady laminar wake / 2: |
Periodic laminar regime / 3: |
Transition-in-wake state / 4: |
Transition-in-shear-layers state / 5: |
Transition-in-boundary-layers state / 6: |
Fully turbulent state / 7: |
Theoretical Models / B: |
Solutions of the N-S equations / 8: |
Boundary layer approximation / 9: |
Free streamline models / 10: |
Vortex models and stability / 11: |
Vortex sheet models / 12: |
Miscellaneous models / 13: |
Real Flow Effects / C: |
Free stream turbulence / 14: |
Non-uniform free stream / 15: |
Compressible flow / 16: |
Aerodynamic sound / 17: |
Cavitation / 19: |
Non-Newtonian fluids / 20: |