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The 79 pages that link to Turbulence, each with the reason it gives.

• Fire whirlRelated: Turbulence can generate and disrupt the rotating flows that shape fire whirls.

• Flow velocityCompared with: Its velocity fluctuates across space and time, unlike orderly laminar motion.

• Osborne ReynoldsRelated: Reynolds’s dye experiments made the onset of this regime visible in pipes.

• Astrophysical fluid dynamicsRelated: Turbulence transports energy and angular momentum in many cosmic flows.

• Coandă effectCompared with: Turbulence changes entrainment and attachment, so the effect depends on the jet's flow regime.

• Betz's lawCompared with: Real atmospheric flow departs from the steady, uniform assumptions behind the ideal limit.

• CurrentCompared with: Turbulent currents mix and fluctuate, unlike orderly laminar flow.

• Flow visualizationNarrower topic: Its multiscale structures make visualization both valuable and difficult.

• Space physicsRelated: Its role in heating and particle transport remains difficult to quantify in space plasmas.

• Cyclonic separationRelated: Turbulent fluctuations can return particles to the flow and reduce predictable collection.

• Edge of chaosCompared with: Turbulence is a prominent chaotic regime, rather than a boundary between order and chaos.

• Eulerian flow fieldRelated: Turbulent flow makes the Eulerian velocity field fluctuate across scales.

• Feigenbaum constantsCompared with: Period-doubling scaling is a specific route to chaos, not a universal account of turbulent onset.

• Fractional dimensionRelated: Fractal dimensions can describe the geometry of turbulent interfaces and concentrations.

• G. I. TaylorNarrower topic: Taylor’s experiments and theories helped make turbulence a quantitative science.

• Geophysical fluid dynamicsCompared with: Geophysical flows can be turbulent, but their rotation and stratification make that turbulence anisotropic.

• Interstellar cloudRelated: Turbulent motions create density structure and influence whether cloud regions collapse.

• Laminar flow reactorCompared with: It contrasts with the orderly layers and limited transverse mixing of this reactor.

• Cirrocumulus cloudRelated: Turbulent upper-level flow can break cloud sheets into small cirrocumulus patches.

• Complex fluidsCompared with: Turbulence is flow complexity from inertia, unlike material complexity arising from internal structure.

• Fractal dimension characterizationRelated: Scaling dimensions help describe spatial structure in turbulent fields.

• Hot-wire anemometryRelated: Hot wires can resolve rapid velocity fluctuations within turbulent flows.

• Interactions in fluidsRelated: Nonlinear momentum exchange redistributes energy across scales in turbulent flow.

• Low Reynolds number flowCompared with: It contrasts with the typically smooth, inertia-dominated behavior absent at very low Reynolds numbers.

• Physical phenomenaBroader topic: It illustrates complex behavior emerging from ordinary fluid forces.

• RapidsRelated: Turbulence distinguishes rapids from smoother stretches of river.

• Respiratory soundsRelated: Turbulence in narrowed airways can produce audible respiratory noise.

• Vertical draftCompared with: A draft is a coherent vertical motion; turbulence can disrupt or contain one.

• Wind (meteorology)Compared with: It describes chaotic fluctuations that can occur within otherwise organized wind.