Journal of Structural Engineering · 2009 · 35 citations · 17 references
EngineeringCivil EngineeringGeophysicsStructural AnalysisStructural DynamicsStructural EngineeringEarthquake Ground MotionEarthquake Response Of StructuresEngineering SeismologyGround Motion CharacterizationNonlinear Structural AnalysisStructural Health MonitoringEarthquake ExcitationEmpirical Mode DecompositionInelastic Structural ResponseLong-period Ground Motion EffectsNear-field Ground MotionSeismic Signal ProcessingSeismic Waveform AnalysisStructural Damage Identification
Long-period pulse components in near-field ground motions have been known to cause significant damage to flexible structures. In this paper, an empirical mode decomposition (EMD) approach is used to identify and separate the dominant pulse, high-frequency, and long-period components in near-field ground motions. The pulses synthesized by an analytical pulse model recently proposed by the authors are compared to the extracted pulse components from recorded earthquake records using EMD, and the responses of linear and nonlinear structures subjected to these components are analyzed. The results demonstrate that (1) the characteristics and effects of the pulses generated by the analytical pulse model are similar to those of the extracted pulse components and (2) the pulse components are responsible for the peak responses of elastic structures subjected to near-field ground motions and govern the extent of inelastic structural damage in all frequency ranges.
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Norden E. Huang, Steven Long, Man‐Li C. Wu et al. · Proceedings of the Royal Society A Mathematical Physical and Engineering Sciences · 1998 · 23.3K citations · Full text
Computing, Computational Engineering, Biomedical Signal Processing +16
METHOD FOR RANDOM VIBRATION OF HYSTERETIC SYSTEMS.
Kwei Yi · 1976 · 1.1K citations