Influence of Surface Rayleigh Waves on the Seismic Response of RC Buildings with Weak First-Story During the 2017 <i>M</i><sub><i>W</i></sub>7.1 Puebla–Morelos Earthquake in Mexico City

The influence of surface Rayleigh waves (SRWs) on the seismic behavior of three archetype nonconforming reinforced concrete (RC) buildings including weak first story with four, six, and eight stories when subjected to earthquake ground motions (EQGMs) recorded during the strong September 19, 2017 [Formula: see text]7.1 earthquake in Mexico City, is discussed in this paper. For this purpose, ground acceleration time histories corresponding to the retrograde and prograde components of SRWs were extracted from EQGMs collected at the accelerographic stations placed at the transition and soft soil sites. It was found that the SWRs contribute to about 50% of the median maximum IDR demand (IDR[Formula: see text]) triggered by the as-recorded earthquake ground motions at the ground level of the four- and six-story building models, while their contribution is about 30% of IDR[Formula: see text] for the eight-story building model. It should be noted that that SRWs induce median IDR[Formula: see text] demands to the four-story building model larger than about 11% and 49% than those to the six- and eight-story models, respectively, for soft soil sites. Moreover, the prograde component can trigger IDR[Formula: see text] demands in the four-story building model larger than 73% and 45% than those for the six- and eight-story models, respectively, for the transition sites. Particularly, it was shown that SRWs induce median IDR[Formula: see text] demands in excess of 0.35% at the first level of the archetype building models, which is associated to the light cracking damage state of nonductile RC columns, and even in excess of IDR[Formula: see text] of 0.71% associated to the severe cracking damage state when the record-to-record variability is considered in the IDR[Formula: see text] demand (i.e. the 84th percentile of IDR[Formula: see text]. Although the earthquake ground motion component of the surface Rayleigh waves was negligible in the median IDR[Formula: see text], this study showed that the effect of the directionality of IDR[Formula: see text] is important for the CH84 station, where significant polarity of spectral ordinates was identified in previous studies.

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Publication Details

Journal
Journal of Earthquake and Tsunami
Published
2024-12-31
DOI
https://doi.org/10.1142/s1793431124500416
Citations
1
Primary Topic
Nematode management and characterization studies
Type
article
Field-Weighted Citation Impact
0.60
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article

Influence of Surface Rayleigh Waves on the Seismic Response of RC Buildings with Weak First-Story During the 2017 MW7.1 Puebla–Morelos Earthquake in Mexico City

Eduardo Miranda, Jorge Ruiz‐García
1 citations
Journal of Earthquake and Tsunami
Nematode management and characterization studies
0.60
article

Influence of Surface Rayleigh Waves on the Seismic Response of RC Buildings with Weak First-Story During the 2017 MW7.1 Puebla–Morelos Earthquake in Mexico City

Eduardo Miranda, Jorge Ruiz‐García
article en
1 citations

Abstract

The influence of surface Rayleigh waves (SRWs) on the seismic behavior of three archetype nonconforming reinforced concrete (RC) buildings including weak first story with four, six, and eight stories when subjected to earthquake ground motions (EQGMs) recorded during the strong September 19, 2017 [Formula: see text]7.1 earthquake in Mexico City, is discussed in this paper. For this purpose, ground acceleration time histories corresponding to the retrograde and prograde components of SRWs were extracted from EQGMs collected at the accelerographic stations placed at the transition and soft soil sites. It was found that the SWRs contribute to about 50% of the median maximum IDR demand (IDR[Formula: see text]) triggered by the as-recorded earthquake ground motions at the ground level of the four- and six-story building models, while their contribution is about 30% of IDR[Formula: see text] for the eight-story building model. It should be noted that that SRWs induce median IDR[Formula: see text] demands to the four-story building model larger than about 11% and 49% than those to the six- and eight-story models, respectively, for soft soil sites. Moreover, the prograde component can trigger IDR[Formula: see text] demands in the four-story building model larger than 73% and 45% than those for the six- and eight-story models, respectively, for the transition sites. Particularly, it was shown that SRWs induce median IDR[Formula: see text] demands in excess of 0.35% at the first level of the archetype building models, which is associated to the light cracking damage state of nonductile RC columns, and even in excess of IDR[Formula: see text] of 0.71% associated to the severe cracking damage state when the record-to-record variability is considered in the IDR[Formula: see text] demand (i.e. the 84th percentile of IDR[Formula: see text]. Although the earthquake ground motion component of the surface Rayleigh waves was negligible in the median IDR[Formula: see text], this study showed that the effect of the directionality of IDR[Formula: see text] is important for the CH84 station, where significant polarity of spectral ordinates was identified in previous studies.

Journal of Earthquake and TsunamiVol. 19(03)
Universidad Michoacana de San Nicolás de Hidalgo (MX), Stanford University (US)
Sustainable cities and communities
Openalex Percentile: Top 20%
Nematode management and characterization studies
0.60
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