An Introduction to the Mathematics of Hydrodynamic Stability at High Reynolds Number
Jacob Bedrossian
University of California, Los Angeles, USA

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| Front matterDownload pp. i–iv | |
| Prefacepp. v–vi | |
| ContentsDownload pp. vii–ix | |
| 1 | The incompressible Navier–Stokes and Euler equationspp. 3–12 |
| 2 | An introduction to hydrodynamic stabilitypp. 13–19 |
| 3 | Spectral vs. linear stabilitypp. 23–25 |
| 4 | Basic considerations and case studiespp. 27–41 |
| 5 | Inviscid problems: Rayleigh's equationpp. 43–50 |
| 6 | Case study: Long wave instabilitiespp. 51–63 |
| 7 | Case study: Sharp inviscid damping estimates for strictly monotone shear flows in pp. 65–82 |
| 8 | Viscous problems: The Orr–Sommerfeld equationpp. 83–93 |
| 9 | Case study: Self-similar Oseen vortexpp. 95–97 |
| 10 | Case study: Couette flow in a channelpp. 99–103 |
| 11 | Case study: Boundary-driven instabilitiespp. 105–113 |
| 12 | A brief survey of other linearized resultspp. 115–116 |
| 13 | Variational methods for nonlinear stabilitypp. 119–126 |
| 14 | Case study: Nonlinear inviscid damping for the 2D Couette flowpp. 127–145 |
| 15 | Quantitative stability thresholdspp. 149–151 |
| 16 | Case study: Stability thresholds for 2D Couette flowpp. 153–162 |
| 17 | Case study: Subcritical transition in the 3D Couette flowpp. 163–176 |
| 18 | A brief survey of other nonlinear (in)stability resultspp. 177–178 |
| A | Fourier analysisp. 181 |
| B | Sobolev spacespp. 183–185 |
| C | Gevrey and analytic regularitypp. 187–188 |
| D | Airy functionsp. 189 |
| E | Theory of linear operatorspp. 191–195 |
| Referencespp. 197–208 |