2004
DOI: 10.1023/b:nody.0000045510.93602.ca
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Random Vibrations with Impacts: A Review

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Cited by 153 publications
(67 citation statements)
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“…We next consider the response of a SDOF oscillator constrained by two rigid barriers; this type of system is often referred to in the literature as a vibro-impact system [7]. Let X denote the stationary response of a vibro-impact system to a stationary Gaussian white noise with zero mean and one-sided spectral density 1/π; the driving noise is denoted by W .…”
Section: Vibro-impact Systemmentioning
confidence: 99%
“…We next consider the response of a SDOF oscillator constrained by two rigid barriers; this type of system is often referred to in the literature as a vibro-impact system [7]. Let X denote the stationary response of a vibro-impact system to a stationary Gaussian white noise with zero mean and one-sided spectral density 1/π; the driving noise is denoted by W .…”
Section: Vibro-impact Systemmentioning
confidence: 99%
“…Many effective methods have been developed, for example, linearization method used by Metrikyn [2], quasistatic approach method used by Stratonovich [3], exponential polynomial fitting method proposed by Zhu [4], Markov process method used by Jing and Young [5], stochastic averaging method used by Xu et al [6,7], variable transformation method used by Zhuravlev [8], energy balance method used by Iourtchenko and Dimentberg [9], mean impact Poincaré map method used by Feng and He [10], path integration method used by Iourtchenko and Song [11], and numerical simulation method used by Dimentberg et al [12]. In [13], the authors tried to review and summarize the existing methods, results, and literature available for solving problems of stochastic vibroimpact systems. However, most researches focused on responses statistics, such as statistic moment and probability density function of the vibroimpact oscillator, and few are focused on the bifurcations and chaos of the stochastic vibroimpact dynamical systems.…”
Section: Introductionmentioning
confidence: 99%
“…Here stochastic averaging [31,32,33] leads to a simple stochastic differential equation for the energy. The work [29] has been extended to compliant impacts [34], Hertzian contacts [35], and nonlinear oscillators [36]. The presence of forcing adds significant difficulty to the problem but has recently been investigated numerically and via stochastic averaging [35,37] and analyzed with series expansions and mean Poincaré maps in the context of gear rattling [38,39].…”
Section: Introductionmentioning
confidence: 99%