The loop differential equations of any lossless, reciprocal electric circuit are integrated by the use of functions of matrices. It is shown how the transient analysis of such circuits is a generalization of the analysis of the simple single-loop circuit composed of a linear inductance in series wit
Matrix analysis of some linear gyroscopic systems
β Scribed by Leon Y. Bahar; Harry G. Kwatny
- Publisher
- Elsevier Science
- Year
- 1992
- Tongue
- English
- Weight
- 993 KB
- Volume
- 329
- Category
- Article
- ISSN
- 0016-0032
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β¦ Synopsis
Explicit solutions for some gyroscopic linear dynamical systems are obtained by selecting a change of the dependent vector variable, which eliminates the velocity term in the transformed equation of motion. The transformation corresponds to the vector counterpart of the technique usedfor the reduction of order in ordinary scalar dtxerential equations. The matrix coeflcients of the equations considered obey a certain commutativity condition, which can be expressed in terms of the vanishing of their Lie product or commutator. For purely gyroscopic systems, the results obtained are compared to a generalization of a method originally proposed by Gantmacher.
π SIMILAR VOLUMES
This paper studies the stability behaviour of a linear gyroscopic system parametrically perturbed by a (multiplicative) real noise of small intensity. To this end, its maximal Lyapunov exponent is calculated using the method of Sri Namachchivaya et al. [1]. The results derived are suitable for cases
## Abstract We establish some new oscillation criteria for the matrix linear Hamiltonian system __X__ β² = __A__ (__t__)__X__ + __B__ (__t__)__Y__, __Y__ β² = __C__ (__t__)__X__ β__A__ \*(__t__)__Y__ by using a new function class __X__ and monotone functionals on a suitable matrix space. In doing so,