Reprint

Shock-Dominated Flow

Edited by
September 2024
212 pages
  • ISBN978-3-7258-2011-5 (Hardback)
  • ISBN978-3-7258-2012-2 (PDF)

This is a Reprint of the Special Issue Shock-Dominated Flow that was published in

Engineering
Summary

Shock-dominated flow is frequently encountered in high-speed aircraft and engines, and its flow characteristics directly determine the aerodynamic performance of the aircraft and engines. Due to the strong discontinuity and pressurization properties of shock waves, the shock-dominant flow exhibits strong non-linearity, strong inviscid–viscous interaction, and significant historical effects, making it difficult to predict the related flow structures and behaviors. With the development of aircraft towards higher speeds, better performance, and more intelligent control, shock-dominated flow is a key scientific issue, involving complex high-speed aerodynamics, flow stability, fluid–thermal structure–acoustic multi-fields interaction, flow control, and artificial intelligence. For this reason, this Special Issue focuses on the shock–boundary layer interaction, shock–shock interaction, shock–vortex interaction, shock oscillation, shock-dominated flow in high-speed aircraft/engines, computational fluid dynamics (CFD) and experimental methods in shock-dominated flow research, shock aerodynamic heating and cooling, shock–thermal structure interaction, etc.

Format
  • Hardback
License and Copyright
© 2024 by the authors; CC BY-NC-ND license
Keywords
dynamic micro-vortex generator; shock wave/boundary layer interaction; dynamic grid simulation; flow control; supersonic inlet; shock wave/vortex; muzzle jet; constrained boundary; reflection; dynamic mesh; cavity flows; noise prediction; flow control; delayed detached eddy; overexpansion state; flow separation; single-expansion ramp nozzle (SERN); external flow; numerical simulation; hypersonic; double compression corner; shock wave/boundary interaction; plasma actuation; flow control; wind shear; hypersonic inlet/isolator; shock wave/boundary layer interaction; shock train; unsteady simulation; hypersonic; surface arc discharge; plasma actuation; flow control; experimental research; micro-serration; separation control; shock wave/boundary layer interaction; dynamic mode decomposition; spiked-blunt body; flow unsteadiness; high-speed schlieren; spectral analysis; muzzle jet; initial jet; shock wave; vortex; dynamic grid; 3D; n/a