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Gaitonde, D.V.: Progress in shock wave/boundary layer interactions. While the position and structure of the interaction may change as a result of varying \(d/\delta \), the effects on the unsteady dynamics were minimal. The characteristic interaction variables (the maximum separation distance, S, and the triple-point height, \(h_\mathrm\)) content. This was found to be an appropriate scaling parameter for mean features. The primary interaction variable, the cylinder diameter ( d), and a secondary interaction variable, the boundary-layer thickness ( \(\delta \)), were varied to study the effects of the parameter \(d/\delta \). Scaling parameters of shock-wave/turbulent boundary-layer interactions generated by a semi-infinite standing cylinder were explored in a combined numerical and experimental effort, consisting of Reynolds-averaged Navier–Stokes simulations and high-speed schlieren imaging.
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