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Structural Health Monitoring and Non-Destructive Testing for Large-Scale Structures (2nd Edition)

Topic Information

Dear Colleagues,

This Topic is a continuation of the previous successful Topic “Structural Health Monitoring and Non-Destructive Testing for Large-Scale Structures”, which was closed on 31 May 2023, and in which 44 papers were published. Structural health monitoring (SHM) and non-destructive testing (NDT) are of significant importance to civil, mechanical, aerospace, and offshore structures. Nowadays, we can find SHM and NDT applications being used on various structures with very different requirements. The SHM-NDT field involves a wide range of transdisciplinary areas, including smart materials, embedded sensors and actuators, damage diagnosis and prognosis, signal and image processing, wireless sensor networks, data interpretation, machine learning, data fusion, energy harvesting, etc. Since the 1970s, there has been a large and increasing volume of research on SHM and NDT; a great deal of effort has been focused on developing cost-effective, automatic, and reliable damage detection technologies. However, few industrial and commercial applications can be found in the literature. The practical implementation of strategies for the detection of structural damage to real structures outside of laboratory conditions is always one of the most demanding tasks for engineers. One reason for the rare transfer of research outcomes into industrial practice is that most of the methods that have been developed have been tested on simple beam and plate structures in the laboratory, while many practical problems only manifest themselves in complex structures. Another reason is the influence of environmental and operational variations (EOVs) on damage-sensitive features. Thus, for the successful development of SHM and NDT for large structures, techniques should be enhanced to toward having the capability of dealing with the influence of EOVs. In addition, signal/data processing plays an important role in the implementation of SHM and NDT technologies. The processing and interpretation of the massive amount of data generated through the long-term monitoring of large and complex structures (e.g., bridges, buildings, ships, aircrafts, wind turbines, pipes, etc.) has become an emerging challenge that needs to be addressed by the community. This topical collection brings together the most established as well as newly emerging SHM and NDT techniques that can be used for the detection and evaluation of defects and damage development in large-scale or full-scale structures. We cordially invite you to submit your cutting-edge research for consideration. Suitable topics include the following:

  • SHM and NDT for aerospace, civil, mechanical, and offshore infrastructures
  • Global monitoring of large structures
  • Large-area monitoring for a part/region of a larger structure
  • Localised monitoring and damage detection
  • SHM and NDT for composite, steel, and concrete structures
  • SHM and NDT of bridges, buildings, ships, aircrafts, wind turbines, pipes, and industrial machines
  • Novel algorithms for SHM and NDT
  • Strategies for the removal of EOVs for SHM and NDT
  • Advanced signal processing for SHM and NDT
  • Artificial intelligence and machine learning for SHM and NDT
  • Time series analysis and statistical approaches for SHM and NDT
  • Damage detection, diagnosis, and prognosis

Dr. Phong B. Dao
Prof. Dr. Lei Qiu
Dr. Liang Yu
Prof. Dr. Tadeusz Uhl
Topic Editors

Keywords

  • structural health monitoring
  • non-destructive testing
  • condition monitoring
  • damage detection
  • remaining useful life prediction
  • smart materials and structures
  • embedded sensors and actuators
  • composite structures
  • steel structures
  • reinforced concrete structures
  • ultrasonic testing
  • laser vibrometry
  • infrared thermography
  • terahertz testing
  • thermal and hyperspectral imaging

Participating Journals

Aerospace
Open Access
4,875 Articles
Launched in 2014
2.2Impact Factor
4.0CiteScore
21 DaysMedian Time to First Decision
Q2Highest JCR Category Ranking
Applied Sciences
Open Access
81,312 Articles
Launched in 2011
2.5Impact Factor
5.5CiteScore
20 DaysMedian Time to First Decision
Q2Highest JCR Category Ranking
Energies
Open Access
58,882 Articles
Launched in 2008
3.2Impact Factor
7.3CiteScore
16 DaysMedian Time to First Decision
Q3Highest JCR Category Ranking
Materials
Open Access
53,035 Articles
Launched in 2008
3.2Impact Factor
6.4CiteScore
15 DaysMedian Time to First Decision
Q2Highest JCR Category Ranking
Sensors
Open Access
73,522 Articles
Launched in 2001
3.5Impact Factor
8.2CiteScore
20 DaysMedian Time to First Decision
Q2Highest JCR Category Ranking

Published Papers