Project Details
Description
This research addresses the critical need for more accurate, efficient, and objective methods for detecting and measuring cracks in concrete structures, a task traditionally prone to human error and limited by outdated image-processing techniques.
By developing an advanced deep learning-based approach, the project eliminates manual parameter selection in deep learning modelling and achieves precise crack-width measurement in millimetres using an innovative laser calibration method.
Additionally, the creation of a comprehensive dataset for deep learning model training overcomes a significant gap in crack detection resources. The highly accurate deep learning models developed here surpass traditional methods, offering a scalable framework for integration into structural health monitoring standards. This work not only enhances reliability in damage assessment but also paves the way for expanding these methods to detect a broader range of structural damage, with promising implications for safety and maintenance in infrastructure management.
By developing an advanced deep learning-based approach, the project eliminates manual parameter selection in deep learning modelling and achieves precise crack-width measurement in millimetres using an innovative laser calibration method.
Additionally, the creation of a comprehensive dataset for deep learning model training overcomes a significant gap in crack detection resources. The highly accurate deep learning models developed here surpass traditional methods, offering a scalable framework for integration into structural health monitoring standards. This work not only enhances reliability in damage assessment but also paves the way for expanding these methods to detect a broader range of structural damage, with promising implications for safety and maintenance in infrastructure management.
Status | Finished |
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Effective start/end date | 1/01/21 → 31/12/24 |