Computer Science & AI17 February 2026

AI Swarms and Resilient Modulus Prediction: Paving the Way for Smarter Infrastructure

Source PublicationScientific Publication

Primary AuthorsMishra, Yadu, Adhikary

Visualisation for: AI Swarms and Resilient Modulus Prediction: Paving the Way for Smarter Infrastructure
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Civil engineering often moves at the speed of, well, dirt. For decades, the foundational phase of road construction has suffered from a significant bottleneck: the physical testing of subgrade soil. Engineers must determine how soil behaves under the repeated stress of traffic. This process is slow. It is expensive. It requires elaborate laboratory setups that often delay critical infrastructure projects. We are effectively building twenty-first-century transport networks using twentieth-century diagnostics.

A new study suggests a shift is finally on the horizon. Researchers investigated the use of metaheuristic swarm intelligence—algorithms that mimic the collective behaviour of animals—to calculate soil strength parameters. Specifically, they focused on Resilient Modulus prediction, a vital metric for designing flexible pavement systems that do not crack under pressure. The team utilised a massive dataset comprising 2,813 soil samples, accounting for variables such as stress, moisture, and environmental conditions.

Accelerating Resilient Modulus prediction with Grey Wolves

The researchers did not merely apply standard machine learning. They orchestrated a competition between three models: Multivariate Adaptive Regression Splines (MARS), Extreme Learning Machine (ELM), and a Deep Neural Network (DNN). To refine these models, they deployed the Grey Wolf Optimiser (GWO). This algorithm mimics the hunting hierarchy of grey wolves to hunt down the optimal solution within the data.

The results were stark. The hybrid GWO-DNN model outperformed its competitors, achieving an R² value of 0.971. This indicates an exceptionally high correlation between the predicted and actual values. An independent test on 40 experimental specimens further validated the model's reliability. The study measured a Root Mean Square Error (RMSE) of just 4.05 MPa, suggesting that the digital predictions are precise enough to replace some physical testing.

Looking ahead, the implications extend far beyond a single strip of tarmac. If we can accurately model the chaotic nature of soil mechanics using biological algorithms, we open the door to fully automated infrastructure design. We are moving towards 'digital twins' for our physical world. In the future, an engineer might simply input basic environmental data into a handheld device, and an AI swarm will instantly compute the structural requirements for a highway, a bridge, or a runway. This reduces waste. It saves time. It allows us to build with a lighter touch on the environment, knowing exactly how the earth beneath will react before a single shovel breaks ground.

Cite this Article (Harvard Style)

Mishra, Yadu, Adhikary (2026). 'A Grey Wolf Optimized Deep Learning Framework for Robust Prediction of Subgrade Resilient Modulus'. Scientific Publication. Available at: https://doi.org/10.21203/rs.3.rs-8826415/v1

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Machine LearningEstimating resilient modulus using Grey Wolf OptimizerWhat is the role of resilient modulus in pavement engineering?Swarm Intelligence