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Nonlinear Ordinary Differential Equations

An ideal companion to the student textbook Nonlinear Ordinary Differential Equations 4th Edition (OUP, 2007) this text contains over 500 problems and... more
Subtitle:
A Sourcebook for Scientists and Engineers
Author:
Peter Smith; Dominic Jordan
Format:
Softcover

Out of stock

  • Pintrest

Short description

An ideal companion to the student textbook Nonlinear Ordinary Differential Equations 4th Edition (OUP, 2007) this text contains over 500 problems and solutions in nonlinear differential equations, many of which can be adapted for independent coursework and self-study.

Long description

An ideal companion to the new 4th Edition of Nonlinear Ordinary Differential Equations by Jordan and Smith (OUP, 2007), this text contains over 500 problems and fully-worked solutions in nonlinear differential equations. With 272 figures and diagrams, subjects covered include phase diagrams in the plane, classification of equilibrium points, geometry of the phase plane, perturbation methods, forced oscillations, stability, Mathieu's equation, Liapunov methods, bifurcations and manifolds, homoclinic bifurcation, and Melnikov's method. The problems are of variable difficulty; some are routine questions, others are longer and expand on concepts discussed in Nonlinear Ordinary Differential Equations 4th Edition, and in most cases can be adapted for coursework or self-study. Both texts cover a wide variety of applications whilst keeping mathematical prequisites to a minimum making these an ideal resource for students and lecturers in engineering, mathematics and the sciences.

Product details

Imprint:
OUP
Publisher:
Oxford University Press
ISBN:
9780199212033
Publication date:
August 2007
Length:
246mm
Width:
172mm
Thickness:
33mm
Weight:
1028g
Audience:
Tertiary education
Illustrations:
figures throughout
Pages:
600
Illustrated:
True

Table of contents

Preface; 1. Second-order differential equations in the phase plane; 2. Plane autonomous systems and linearization; 3. Geometrical aspects of plane autonomous systems; 4. Periodic solutions; averaging methods; 5. Perturbation methods; 6. Singular perturbation methods; 7. Forced oscillations: harmonic and subharmonic response, stability, entrainment; 8. Stability; 9. Stability by solution perturbation: Mathieu's equation; 10. Liapunov methods for determining stability of the zero equation; 11. The existence of periodic solutions; 12. Bifurcations and manifolds; 13. Poincare sequences, homoclinic bifurcation, and chaos

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