Deep neural network‐based regional seismic loss assessment considering correlation between EDP residuals of building structures

Regional seismic loss assessment is essential for developing an emergency response plan in the event of an earthquake, which can reduce casualties and socioeconomic losses in an urban community. The uncertainties and correlations of structures’ engineering demand parameters (EDP) should be adequatel...

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Veröffentlicht in:Earthquake engineering & structural dynamics 2023-09, Vol.52 (11), p.3414-3434
Hauptverfasser: Kang, Chulyoung, Kim, Taeyong, Kwon, Oh‐Sung, Song, Junho
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creator Kang, Chulyoung
Kim, Taeyong
Kwon, Oh‐Sung
Song, Junho
description Regional seismic loss assessment is essential for developing an emergency response plan in the event of an earthquake, which can reduce casualties and socioeconomic losses in an urban community. The uncertainties and correlations of structures’ engineering demand parameters (EDP) should be adequately considered to evaluate the community‐level seismic risk. Recently, the authors proposed an incremental dynamic analysis‐based method and regression‐based models to estimate the variances and correlations of residuals in EDP termed “EDP residuals.” The quantified uncertainties of the EDP residuals facilitate the accurate evaluation of the regional seismic performance. Still, the computational cost required in the estimation process makes its application a challenge. This study proposes two frameworks for regional seismic loss assessment based on deep neural networks (DNNs) to extend the applicability of EDP residual estimation and improve its accuracy. The first framework estimates the EDP residuals of buildings by combining the EDP residuals of various single‐degree‐of‐freedom (SDOF) systems through the modal combination rules. Three DNN models are constructed to predict the EDP residuals of SDOF systems. The second framework predicts the EDP residuals of buildings directly using two DNN models. The proposed frameworks are verified by numerical examples of regional seismic loss assessment, for which time history‐based “exact” solutions exist. The supporting source code, data, and trained models are available for download at https://github.com/TyongKim/EDP_residual. Highlights The importance of considering EDP residual correlation in seismic system reliability analysis is demonstrated. Two DNN‐based frameworks are developed to estimate EDP residuals of building structures. Modal combination rule is employed to utilize EDP residuals of SDOF systems representing structural modes. DNN models are constructed to predict EDP residuals of SDOF and MDOF systems. Accuracy and applicability of DNN‐based frameworks are successfully demonstrated by example of regional seismic loss assessment.
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Three DNN models are constructed to predict the EDP residuals of SDOF systems. The second framework predicts the EDP residuals of buildings directly using two DNN models. The proposed frameworks are verified by numerical examples of regional seismic loss assessment, for which time history‐based “exact” solutions exist. The supporting source code, data, and trained models are available for download at https://github.com/TyongKim/EDP_residual. Highlights The importance of considering EDP residual correlation in seismic system reliability analysis is demonstrated. Two DNN‐based frameworks are developed to estimate EDP residuals of building structures. Modal combination rule is employed to utilize EDP residuals of SDOF systems representing structural modes. DNN models are constructed to predict EDP residuals of SDOF and MDOF systems. 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subjects Accuracy
Artificial neural networks
Buildings
Casualties
correlated failures
Correlation
deep neural network
Dynamic analysis
Dynamic structural analysis
Earthquakes
Emergency preparedness
Emergency response
engineering demand parameters
Environmental risk
Frameworks
Modelling
Neural networks
Regional analysis
Regional development
Regional planning
regional seismic loss assessment
Regression analysis
Reliability analysis
Seismic activity
Seismic engineering
Seismic hazard
seismic reliability analysis
Seismic response
Source code
Structures
System reliability
Uncertainty
Urban areas
title Deep neural network‐based regional seismic loss assessment considering correlation between EDP residuals of building structures
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