Academia.eduAcademia.edu

Figure 1 – uploaded by Esteban Ferrer

See full PDFdownloadDownload figure
Figure 1: Computational domain definition: wall profile (a); and part of the Spectral Element mesh employed (b, every other element shown) for ?/s* = 1.5. Axes are not to scale. Figure 1: Computational domain definition: wall profile (a); and part of the Spectral Element

Figure 1 Computational domain definition: wall profile (a); and part of the Spectral Element mesh employed (b, every other element shown) for ?/s* = 1.5. Axes are not to scale. Figure 1: Computational domain definition: wall profile (a); and part of the Spectral Element

Related Figures (12)

Figure 4: Indentation depth effect on global temporal spectra for both upstream Mach num- bers Maoo = 0.1 (a) and 0.5 (b). Figure 4: Indentation depth effect on global temporal spectra for both upstream Mach num-
Figure 4: Indentation depth effect on global temporal spectra for both upstream Mach num- bers Maoo = 0.1 (a) and 0.5 (b). Figure 4: Indentation depth effect on global temporal spectra for both upstream Mach num-
Figure 5: Grid study for Maco = 0.5, P/s* = 1.5 case: sensitivity to boundary size location (a) and polynomial order (b).
Figure 5: Grid study for Maco = 0.5, P/s* = 1.5 case: sensitivity to boundary size location (a) and polynomial order (b).
Table 2: Angular pulsation wr, temporal amplification wy and spatial amplification 4/Ao at x/5* = 120, and their relative changes with ?/s* and Mago for eigenfunction M1.
Table 2: Angular pulsation wr, temporal amplification wy and spatial amplification 4/Ao at x/5* = 120, and their relative changes with ?/s* and Mago for eigenfunction M1.
Figure 8: Amplification factors, for D/s* = 1.5 configuration at Mag = 0.1, 0.5. M« unstable (M1), most spatially amplified (M2) and high frequency (M3) modes considered.
Figure 8: Amplification factors, for D/s* = 1.5 configuration at Mag = 0.1, 0.5. M« unstable (M1), most spatially amplified (M2) and high frequency (M3) modes considered.
Related topics:
Turbulent FlowsCompressible Fluid Dynamics
580 California St., Suite 400
San Francisco, CA, 94104
© 2025 Academia. All rights reserved