Intensity-Based Feature Selection for Near Real-Time Damage Diagnosis of Building Structures
Seyed Omid Sajedi, Xiao Liang

TL;DR
This paper introduces a rapid, sensor-based damage detection framework for buildings post-earthquake, utilizing support vector machines and Bayesian optimization to improve accuracy and safety in structural health monitoring.
Contribution
It presents a novel intensity-based feature selection method combined with probabilistic SVMs and Bayesian optimization for near real-time damage diagnosis of structures.
Findings
Achieved 83.1% accuracy in damage location prediction.
Developed a low-dimensional feature set for damage indicators.
Validated on a reinforced concrete frame with extensive simulations.
Abstract
Near real-time damage diagnosis of building structures after extreme events (e.g., earthquakes) is of great importance in structural health monitoring. Unlike conventional methods that are usually time-consuming and require human expertise, pattern recognition algorithms have the potential to interpret sensor recordings as soon as this information is available. This paper proposes a robust framework to build a damage prediction model for building structures. Support vector machines are used to predict the existence as well as the probable location of the damage. The model is designed to consider probabilistic approaches in determining hazard intensity given the existing attenuation models in performance-based earthquake engineering. Performance of the model regarding accurate and safe predictions is enhanced using Bayesian optimization. The proposed framework is evaluated on a…
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