Graduate ProjectFall 2025

Structural health monitoring with machine learning

Developed an artificial neural network to characterize vibration response and detect damage in a cantilever beam. Generated and processed large modal-frequency datasets, optimized MATLAB scripts for faster training cycles, and validated crack location and severity predictions against physical damage conditions.

Media showcase

Terminal output comparing predicted damage location and depth from polynomial regression and neural network models
Primary media: Terminal output comparing predicted damage location and depth from polynomial regression and neural network models

Overview

A graduate structural health monitoring project that uses machine learning to detect damage in a cantilever beam from its vibration response. An artificial neural network was trained on modal-frequency data to predict crack location and severity without physically inspecting the structure.

Key highlights

  • Generated and processed large modal-frequency datasets for network training.
  • Optimized MATLAB scripts to shorten training cycles on large datasets.
  • Trained an ANN to predict crack location and severity from frequency shifts.
  • Validated predictions against physical damage cases on the beam.