Advancing rapid visual screening method: An AI-integrated and automated data-driven approach for building vulnerability assessment

Abstract Buildings constructed prior to the implementation of seismic design standards or those built based on lower standards are susceptible to earthquake risks, resulting in substantial loss of life and property during an imminent earthquake. Although conventional rapid visual screening (RVS) methods have been extensively developed, both nationally and in the literature, they have limitations in accurately determining the vulnerability of buildings. Additionally, RVS methods developed on the basis of a single algorithm have limitations. Therefore, this study extends the existing body of work by integrating multiple AI algorithms, including fuzzy logic, machine learning, and neural networks, in the context of building damage data from the 2015 Gorkha earthquake, overcoming the limitations of previous studies by introducing an automated AI-based RVS methodology that enhances accuracy, transparency, and adaptability. The newly developed RVS method demonstrates an accuracy rate of 45.89% for testing in the three-class classification, while also delivering promising results in the two-class classification, with an accuracy rate of 60%, surpassing both conventional RVS methods and the baseline accuracy rate.

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Publication Details

Journal
Earthquake Engineering and Engineering Vibration
Published
2026-04-01
DOI
https://doi.org/10.1007/s11803-026-2381-5
Primary Topic
Infrastructure Maintenance and Monitoring
Type
article
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article

Advancing rapid visual screening method: An AI-integrated and automated data-driven approach for building vulnerability assessment

Nurullah Bektaş
Earthquake Engineering and Engineering Vibration
Infrastructure Maintenance and Monitoring
article

Advancing rapid visual screening method: An AI-integrated and automated data-driven approach for building vulnerability assessment

Nurullah Bektaş
article en

Abstract

Abstract Buildings constructed prior to the implementation of seismic design standards or those built based on lower standards are susceptible to earthquake risks, resulting in substantial loss of life and property during an imminent earthquake. Although conventional rapid visual screening (RVS) methods have been extensively developed, both nationally and in the literature, they have limitations in accurately determining the vulnerability of buildings. Additionally, RVS methods developed on the basis of a single algorithm have limitations. Therefore, this study extends the existing body of work by integrating multiple AI algorithms, including fuzzy logic, machine learning, and neural networks, in the context of building damage data from the 2015 Gorkha earthquake, overcoming the limitations of previous studies by introducing an automated AI-based RVS methodology that enhances accuracy, transparency, and adaptability. The newly developed RVS method demonstrates an accuracy rate of 45.89% for testing in the three-class classification, while also delivering promising results in the two-class classification, with an accuracy rate of 60%, surpassing both conventional RVS methods and the baseline accuracy rate.

Earthquake Engineering and Engineering VibrationVol. 25(2)
Széchenyi István University (HU)
Sustainable cities and communities
Openalex Percentile: Top 20%
Infrastructure Maintenance and Monitoring
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