Longitudinal velocity difference moments in shear turbulence exhibit scaling exponent saturation at ζ_n ≈ 2.2 ± 0.1 for n ≳ 12, providing first experimental support for vortex filament dominance at high orders.
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Decomposing turbulent flow into outer and inner fields yields an analytical model that reproduces drop breakup statistics from direct numerical simulations and links turbulence intermittency to memoryless breakup.
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Experimental Evidence for Longitudinal Scaling Exponent Saturation in Shear Turbulence
Longitudinal velocity difference moments in shear turbulence exhibit scaling exponent saturation at ζ_n ≈ 2.2 ± 0.1 for n ≳ 12, providing first experimental support for vortex filament dominance at high orders.
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Causal mechanisms of drop breakup in turbulent flows
Decomposing turbulent flow into outer and inner fields yields an analytical model that reproduces drop breakup statistics from direct numerical simulations and links turbulence intermittency to memoryless breakup.