Abstract
Data-driven approaches are gaining popularity in structural health monitoring (SHM) due to recent technological advances in sensors, high-speed Internet and cloud computing. Since Machine learning (ML), particularly in SHM, was introduced in civil engineering, this modern and promising method has drawn significant research attention. SHM’s main goal is to develop different data processing methodologies and generate results related to the different levels of damage recognition process. SHM implements a technique for damage detection and classification, including data from a system collected under different structural states using a piezoelectric sensor network using guided waves, hierarchical non-linear primary component analysis and machine learning. The primary objective of this paper is to analyse the current SHM literature using evolving ML-based methods and to provide readers with an overview of various SHM applications. The technique and implementation of vibration-based, vision-based surveillance, along with some recent SHM developments are discussed.
Highlights
Civil structures, including large bridges, dams, and highrise buildings, are becoming vulnerable to loss of serviceability as they fall apart from use
Different forms of modern systemic health monitoring (SHM) technologies can simplify frequent inspections and decreasing the direct and indirect costs associated with unnecessary ageing fails [8,9,10] in addition to traditional inspections and nondestructive tests
Structural health monitoring using vibration are based on the detection, location, classification, assessment, and prediction known as five levels of (SHM)
Summary
Civil structures, including large bridges, dams, and highrise buildings, are becoming vulnerable to loss of serviceability as they fall apart from use. This inescapable loop needs severe maintenance [1,2,3]. Structural Health Monitoring (SHM) is one of the main applications for new sensor growth. Different forms of modern SHM technologies can simplify frequent inspections and decreasing the direct and indirect costs associated with unnecessary ageing fails (use-echo impact, ultrasound surface waves, soil penetrating radar, electric resistance) [8,9,10] in addition to traditional inspections and nondestructive tests. Any SHM method and framework is based on sensors and sensor data (observable responses)
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