Unsteady analysis of jet impingement under vibration conditions

TL;DR: Acoustic vibrations enhance heat transfer in high-viscosity fluids by promoting convective flow and improving temperature uniformity, with heat transfer efficiency positively correlated with vibration frequency and amplitude, but not acceleration.

TL;DR: In this article, the authors present a comprehensive survey emphasizing the engineering applications and empirical equations, presented for the prediction of heat and mass transfer coefficients within a large and technologically important range of variables.

TL;DR: The intent of this document is to provide an introduction to modal analysis that is accessible to the larger fluid dynamics community and presents a brief overview of several of the well-established techniques.

TL;DR: The role of the concepts behind the SST model in current and future CFD simulations of engineering flows is outlined and the overall turbulence modelling strategy for ANSYS computational fluid dynamics (CFD) is outlined.

TL;DR: In this article, a review of recent impinging jet research publications identified a series of engineering research tasks that are important for improving the design and resulting performance of impinging jets: (1) clearly resolve the physical mechanisms by which multiple peaks occur in the transfer coefficient profiles, and clarify which mechanism(s) dominate in various geometries and Reynolds number regimes.