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Non-conservative stability problems of annular plater
Języki publikacji
Abstrakty
W niniejszym artykule: 1 - zbadano zależności krzywych charakterystycznych (tzn. zależności części rzeczywistej i części urojonej zespolonej częstości drgań od obciążenia) od współczynnika śledzenia dla pierścieniowej płyty o stałej grubości, ściskanej niekonserwatywnymi siłami równomiernie rozłożonymi na brzegu zewnętrznym płyty, w warunkach nieliniowego pełzania; 2 - wyznaczono zależności obciążenia krytycznego od współczynnika śledzenia; 3 - zbadano wpływ nieliniowych własności reologicznych materiału płyty na jej stateczność i drgania. Aby zastosować kinetyczne kryterium stateczności, analizowano małe, liniowe drgania ukła-du, nałożone na stan przedkrytyczny (stan membranowy) płyty. Obciążenie krytyczne okreś-lano na podstawie kryterium Lapunowa.
In the paper the following problems have been considered: 1 - the dependence of the characteristic curves (i.e. real and imaginary parts of complex frequencies of vibration versus the compressive force) on the tangency coefficient for an annular plate of constant thickness, compressed by uniformly distributed non-conservative loadings; 2 - the relationship between the critical loading and the tangency coefficient; 3 - the influence of non-linear rheological properties of material on vibration and stability of the plate. In order to use the kinetic criterion of stability, the small, linear vibrations superposed on the pre-critical membrane state have been analyzed. The critical loading has been determined on the basis of Lyapunov criterion.
Czasopismo
Rocznik
Tom
Strony
43--59
Opis fizyczny
Bibliogr. 39 poz.,Wykr., wz.,
Twórcy
autor
- Instytut Fizyki, Wydział Fizyki, Matematyki i Informatyki Stosowanej, Politechnika Krakowska
Bibliografia
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- [10] Gajewski A., Vibration and stability of a non-prismatic column compressed by non-conservative forces in non-linear creep conditions, Journal of Sound and Vibration 248(2), 2001, 315-327.
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- [20] Langthjem M.A., Sugiyama Y., Optimum shape design against flutter of a cantilevered column with an end-mass of finite size subjected to a non-conservative load, Journal of Sound and Vibration 226 (1), 1999, 1-23.
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- [23] Langthjem M.A., Sugiyama Y., Kobayashi M., Yutani H., Experimental Verification of Optimization of Cantilevered Columns Subjected to a Rocket Thrust, 4th EUROMECH Solid Mechanics Conference, June 26–30, 2000, Book of abstracts II, Metz, France, 662.
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- [28] Ringertz U.T., On the design of Beck's column, Structural Optimization 8, 1994, 120-124.
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- [32] Wróblewski A., Optimal design of circular plates against creep buckling, Eng. Optim. 20, 1992, 111-128.
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- [34] Yagn Yu.I., Parshin L.K., Experimental verification of stability of a column compressed by a follower force, Dokłady AN SSSR, 167(1),1966, 49-50 (in Russian).
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- [36] Zoriy L.M., Leonov Yu.Ya., Influence of damping on the stability of non-conservative system, Problems of Design and Strength in Machine Building 7(7), 1961, 127-136 (in Russian).
- [37] Życzkowski M., Optimal structural design under creep conditions, Appl. Mech. Rev. 49(9), 1996, 433-446.
- [38] Życzkowski M., Gajewski A., Optimal structural design in non-conservative problems of elastic stability, IUTAM Symposium on „Instability of Continuous Systems”, (Ed. H.H.E.Leipholz), Herrenalb 1969, Springer 1971, 295-301.
- [39] Życzkowski M., Kowalski A., Nonconservative stability problems for columns subject to nonlinear creep, Proc. EUROMECH Colloquium 190: „Dynamical Stability of Inelastic Structures”, Technische Universität Hamburg-Harburg Oct. 1–4, 1984, 109-111.
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Bibliografia
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