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D. V. Georgievskii and B. E. Pobedrya, "On the concept of stability of deformation in elastic and viscoelastic models," Mech. Solids. 37 (4), 37-46 (2002)
Year 2002 Volume 37 Number 4 Pages 37-46
Title On the concept of stability of deformation in elastic and viscoelastic models
Author(s) D. V. Georgievskii (Moscow)
B. E. Pobedrya (Moscow)
Abstract Numerous attempts have been made to provide the concept of stability with a rigorous mathematical definition allowing one to construct a mathematical model of the transition of a motion or an equilibrium (more generally, a process) from a stable state to an unstable one. Most of the attempts to propose a unified definition failed, since in each specific problem the physical meaning implied a specific interpretation of the term stability. For example, in statics of structures this term means the ability of the system to preserve equilibrium under the action of certain loads. In problems of dynamics and vibrations of rigid bodies, stability means that the perturbed motion deviates from the unperturbed one by no more than a certain quantity. In hydrodynamics, the stability is usually interpreted as the property of the flow to remain laminar. Accordingly, the loss of stability means the transition to a turbulent regime. One should also refer to this concept when considering the change of the internal structure of solids on micro, meso, and macro levels and nucleation of phase transitions [1].
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Received 30 April 2002
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