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말뭉치

  1. The Lyapunov stability is a method that was developed for analysis purposes.[1]
  2. The Lyapunov stability theory can be generalized as follows.[1]
  3. ( x ) using the Lyapunov function method.[1]
  4. Notice that, for small systems, the construction of the Lyapunov function can be done manually.[1]
  5. This may be discussed by the theory of Aleksandr Lyapunov.[2]
  6. The mathematical theory of stability of motion, founded by A. M. Lyapunov, considerably anticipated the time for its implementation in science and technology.[2]
  7. Moreover Lyapunov did not himself make application in this field, his own interest being in the stability of rotating fluid masses with astronomical application.[2]
  8. More recently the concept of the Lyapunov exponent (related to Lyapunov's First Method of discussing stability) has received wide interest in connection with chaos theory.[2]
  9. The case represented by inequality (15b) was called by Lyapunov a “critical” case.[3]
  10. From the preceding definitions it follows that Lyapunov stability is only meaningful for solutions of ordinary differential equations.[3]
  11. Lyapunov stability of a point relative to a mapping is defined as Lyapunov stability relative to the family of non-negative powers of this mapping.[4]
  12. (Lyapunov's theorem on stability in a first approximation); to facilitate the verification of the condition in this theorem one applies criteria for stability.[4]
  13. For the study of stability in critical cases, A.M. Lyapunov proposed the so-called second method for studying stability (cf.[4]
  14. In automatic control, the main interest of the Lyapunov approach concerns the stability analysis of nonlinear systems.[5]
  15. This chapter provides an introduction to the Lyapunov stability of nonlinear fractional systems.[5]
  16. The introduction begins with the indirect Lyapunov method, based on a local approximation around the equilibrium point, which makes it possible to test system local stability.[5]
  17. The variable gradient method makes it possible to build a Lyapunov function.[5]
  18. A Lyapunov function is a scalar function defined on the phase space, which can be used to prove the stability of an equilibrium point.[6]
  19. The Lyapunov function method is applied to study the stability of various differential equations and systems.[6]
  20. Thus, Lyapunov functions allow to determine the stability or instability of a system.[6]
  21. The disadvantage is that there is no general method of constructing Lyapunov functions.[6]
  22. The stability of the proposed controller is proven by applying Lyapunov stability theory.[7]
  23. We present a Lyapunov-type approach and the Lyapunov-Floquet (L-F) transformation to derive the stability conditions.[8]
  24. It makes use of a Lyapunov function .[8]
  25. For a linear system with constant coefficients, it is rather simple to find a Lyapunov function.[8]
  26. Equation (2.7) is called the Lyapunov equation.[8]
  27. (17) to remain stable only for certain values of d and it appears to be much more difficult to find Lyapunov functionals that yield stability criteria.[9]
  28. Therefore, we start with the Laplace transform method to find sufficient conditions for stability and try to find similar conditions with the help of a Lyapunov functional.[9]
  29. (17), from which we retrieve a Lyapunov functional in Section 4.5.2.[9]

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