Frequency Methods in Oscillation Theory (Mathematics and Its Applications, 357)

Leonov, G.A.; Burkin, I.M.; Shepeljavyi, A.I.

ISBN 10: 0792338960 / ISBN 13: 9780792338963

Published by Springer, 1995

About this Item

Seller Inventory # I-9780792338963

Bibliographic Details

• Title: Frequency Methods in Oscillation Theory (Mathematics and Its Applications, 357)
• Publisher: Springer
• Publication Date: 1995
• Language: English
• ISBN 10: 0792338960
• ISBN 13: 9780792338963
• Binding: Hardcover
• Condition: New

About this title

Synopsis

The linear theory of oscillations traditionally operates with frequency representa- tions based on the concepts of a transfer function and a frequency response. The universality of the critria of Nyquist and Mikhailov and the simplicity and obvi- ousness of the application of frequency and amplitude - frequency characteristics in analysing forced linear oscillations greatly encouraged the development of practi- cally important nonlinear theories based on various forms of the harmonic balance hypothesis [303]. Therefore mathematically rigorous frequency methods of investi- gating nonlinear systems, which appeared in the 60s, also began to influence many areas of nonlinear theory of oscillations. First in this sphere of influence was a wide range of problems connected with multidimensional analogues of the famous van der Pol equation describing auto- oscillations of generators of various radiotechnical devices. Such analogues have as a rule a unique unstable stationary point in the phase space and are Levinson dis- sipative. One of the pioneering works in this field, which started the investigation of a three-dimensional analogue of the van der Pol equation, was K. O. Friedrichs's paper [123]. The author suggested a scheme for constructing a positively invariant set homeomorphic to a torus, by means of which the existence of non-trivial periodic solutions was established. That scheme was then developed and improved for dif- ferent classes of multidimensional dynamical systems [131, 132, 297, 317, 334, 357, 358]. The method of Poincare mapping [12, 13, 17] in piecewise linear systems was another intensively developed direction.

Language Notes

Text: English (translation)
Original Language: Russian