Peak response of non-linear oscillators under stationary white noise

The use of the Advanced Censored Closure (ACC) technique, recently proposed by the authors for predicting the peak response of linear structures vibrating under random processes, is extended to the case of non-linear oscillators driven by stationary white noise. The proposed approach requires the...

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Bibliographic Details
Main Authors: Muscolino, G., Palmeri, Alessandro
Language:en
Published: 2008
Subjects:
Online Access:http://hdl.handle.net/10454/601
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spelling ndltd-BRADFORD-oai-bradscholars.brad.ac.uk-10454-6012019-08-31T03:01:52Z Peak response of non-linear oscillators under stationary white noise Muscolino, G. Palmeri, Alessandro Cencored Closure Computational Stochastic Mechanics First Passage Time Gumbel Distribution Poisson Approach Random Vibration Reliability Analysis Stochastic Averaging The use of the Advanced Censored Closure (ACC) technique, recently proposed by the authors for predicting the peak response of linear structures vibrating under random processes, is extended to the case of non-linear oscillators driven by stationary white noise. The proposed approach requires the knowledge of mean upcrossing rate and spectral bandwidth of the response process, which in this paper are estimated through the Stochastic Averaging method. Numerical applications to oscillators with non-linear stiffness and damping are included, and the results are compared with those given by Monte Carlo Simulation and by other approximate formulations available in the literature. 2008-09-22T07:26:09Z 2008-09-22T07:26:09Z 2007 Article Muscolino, G. and A. Palmeri (2007). Peak response of non-linear oscillators under stationary white noise. Computers and Structures. Vol. 85, No. 5-6, pp. 255-263. http://hdl.handle.net/10454/601 en http://dx.doi.org/10.1016/j.compstruc.2006.10.005 © 2007 Elsevier Ltd. Reproduced in accordance with the publisher's self-archiving policy.
collection NDLTD
language en
sources NDLTD
topic Cencored Closure
Computational Stochastic Mechanics
First Passage Time
Gumbel Distribution
Poisson Approach
Random Vibration
Reliability Analysis
Stochastic Averaging
spellingShingle Cencored Closure
Computational Stochastic Mechanics
First Passage Time
Gumbel Distribution
Poisson Approach
Random Vibration
Reliability Analysis
Stochastic Averaging
Muscolino, G.
Palmeri, Alessandro
Peak response of non-linear oscillators under stationary white noise
description The use of the Advanced Censored Closure (ACC) technique, recently proposed by the authors for predicting the peak response of linear structures vibrating under random processes, is extended to the case of non-linear oscillators driven by stationary white noise. The proposed approach requires the knowledge of mean upcrossing rate and spectral bandwidth of the response process, which in this paper are estimated through the Stochastic Averaging method. Numerical applications to oscillators with non-linear stiffness and damping are included, and the results are compared with those given by Monte Carlo Simulation and by other approximate formulations available in the literature.
author Muscolino, G.
Palmeri, Alessandro
author_facet Muscolino, G.
Palmeri, Alessandro
author_sort Muscolino, G.
title Peak response of non-linear oscillators under stationary white noise
title_short Peak response of non-linear oscillators under stationary white noise
title_full Peak response of non-linear oscillators under stationary white noise
title_fullStr Peak response of non-linear oscillators under stationary white noise
title_full_unstemmed Peak response of non-linear oscillators under stationary white noise
title_sort peak response of non-linear oscillators under stationary white noise
publishDate 2008
url http://hdl.handle.net/10454/601
work_keys_str_mv AT muscolinog peakresponseofnonlinearoscillatorsunderstationarywhitenoise
AT palmerialessandro peakresponseofnonlinearoscillatorsunderstationarywhitenoise
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