Stability, Instability and Chaos: An Introduction to the Theory of Nonlinear Differential EquationsBy providing an introduction to nonlinear differential equations, Dr. Glendinning aims to equip the student with the mathematical know-how needed to appreciate stability theory and bifurcations. His approach is readable and covers material both old and new to undergraduate courses. Included are treatments of the Poincaré-Bendixson theorem, the Hopf bifurcation and chaotic systems. |
Contents
I | xi |
II | 2 |
III | 8 |
V | 9 |
VI | 15 |
VII | 19 |
VIII | 21 |
IX | 26 |
LVII | 170 |
LIX | 173 |
LX | 174 |
LXI | 175 |
LXII | 178 |
LXIII | 182 |
LXIV | 186 |
LXV | 188 |
X | 34 |
XI | 40 |
XII | 41 |
XIII | 44 |
XIV | 45 |
XV | 48 |
XVI | 49 |
XVII | 51 |
XVIII | 60 |
XIX | 63 |
XX | 64 |
XXI | 67 |
XXII | 71 |
XXIII | 72 |
XXV | 77 |
XXVI | 83 |
XXVII | 84 |
XXVIII | 86 |
XXIX | 90 |
XXX | 94 |
XXXI | 96 |
XXXII | 103 |
XXXIII | 113 |
XXXIV | 118 |
XXXV | 120 |
XXXVI | 123 |
XXXVII | 124 |
XXXVIII | 126 |
XL | 131 |
XLI | 135 |
XLII | 139 |
XLIII | 140 |
XLIV | 144 |
XLV | 145 |
XLVI | 150 |
XLIX | 151 |
L | 152 |
LI | 155 |
LII | 156 |
LIII | 159 |
LIV | 164 |
LV | 166 |
LXVI | 191 |
LXVIII | 193 |
LXIX | 198 |
LXX | 200 |
LXXI | 205 |
LXXII | 207 |
LXXIII | 211 |
LXXIV | 214 |
LXXVI | 216 |
LXXVII | 230 |
LXXVIII | 236 |
LXXIX | 238 |
LXXX | 241 |
LXXXII | 242 |
LXXXIII | 247 |
LXXXIV | 251 |
LXXXV | 259 |
LXXXVI | 263 |
LXXXVII | 266 |
XC | 268 |
XCI | 270 |
XCII | 271 |
XCIII | 277 |
XCIV | 283 |
XCVI | 285 |
XCVII | 292 |
XCVIII | 294 |
XCIX | 305 |
C | 309 |
CI | 314 |
CII | 317 |
CIII | 326 |
CIV | 327 |
CV | 332 |
CVI | 334 |
CVII | 339 |
CVIII | 353 |
CIX | 359 |
CX | 363 |
CXI | 366 |
CXII | 370 |
Other editions - View all
Stability, Instability and Chaos: An Introduction to the Theory of Nonlinear ... Paul Glendinning No preview available - 1994 |
Common terms and phrases
A-graph a₁ asymptotically stable behaviour bifurcation theory centre manifold change of coordinates chaotic chapter coefficients consider defined definition differential equation e₁ eigenvalues eigenvectors example EXERCISE exists f-covers fixed point Floquet multipliers gives Hence homoclinic bifurcations homoclinic orbit Hopf bifurcation hyperbolic stationary point I₁ initial conditions interval invariant Jacobian matrix Lemma Liapounov function Liapounov stable linear map Manifold Theorem neighbourhood node non-hyperbolic nonlinear terms normal form obtain orbit of period origin oscillator period-doubling bifurcation periodic orbit periodic solutions phase portrait phase space plane Poincaré-Bendixson Theorem points of period proof prove region resonant return map saddle saddlenode bifurcation shown in Figure simple stable manifold theorem stationary point sufficiently small Suppose T₁ tangential tend terms of order trajectories transcritical bifurcation unimodal maps unstable manifold whilst x₁ Xn+1 zero μα μη
References to this book
Fluid-Structure Interactions: Slender Structures and Axial Flow, Volume 1 M. P. Paidoussis No preview available - 1998 |
Ordinary Differential Equations in Theory and Practice Robert Mattheij,Jaap Molenaar No preview available - 2002 |



