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Comparison and assessment of time integration algorithms for nonlinear vibration systems

A corrected explicit method of double time steps (CEMDTS) was introduced to accurately simulate nonlinear vibration problems in engineering. The CEMDTS, the leapfrog central difference method, the Newmark method, the generalized-α method and the precise integration method were implemented in typical...

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Published in:Journal of Central South University 2017-05, Vol.24 (5), p.1090-1097
Main Authors: Yang, Chao, Yang, Bao-zhu, Zhu, Tao, Xiao, Shou-ne
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container_title Journal of Central South University
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creator Yang, Chao
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description A corrected explicit method of double time steps (CEMDTS) was introduced to accurately simulate nonlinear vibration problems in engineering. The CEMDTS, the leapfrog central difference method, the Newmark method, the generalized-α method and the precise integration method were implemented in typical nonlinear examples for the purpose of comparison. Both conservative and non-conservative systems were examined. The results show that it isn’t unconditionally stable for the precise integration method, the Newmark method and the generalized-α method in nonlinear systems. The stable interval of the three methods is less than that of the CEMDTS. When a small time step (Δt≤ T min /20) is employed, the precise integration method is endowed with the highest accuracy while the CEMDTS possesses the smallest computation effort. However, the CEMDTS becomes the most accurate one when the time step is large (Δt≥0.3 T min ) or the system is strongly nonlinear. Therefore, the CEMDTS is more applicable to the nonlinear vibration systems.
doi_str_mv 10.1007/s11771-017-3512-y
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The CEMDTS, the leapfrog central difference method, the Newmark method, the generalized-α method and the precise integration method were implemented in typical nonlinear examples for the purpose of comparison. Both conservative and non-conservative systems were examined. The results show that it isn’t unconditionally stable for the precise integration method, the Newmark method and the generalized-α method in nonlinear systems. The stable interval of the three methods is less than that of the CEMDTS. When a small time step (Δt≤ T min /20) is employed, the precise integration method is endowed with the highest accuracy while the CEMDTS possesses the smallest computation effort. However, the CEMDTS becomes the most accurate one when the time step is large (Δt≥0.3 T min ) or the system is strongly nonlinear. 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subjects Algorithms
Computation
Computer simulation
Dynamical systems
Engineering
Metallic Materials
Nonlinear dynamics
Time integration
Vibration control
title Comparison and assessment of time integration algorithms for nonlinear vibration systems
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