This study provides a robust, interpretable, and generalizable ML framework for optimizing nano-silica concrete mix design and highlights the strong potential of ML, particularly ensemble models combined with explainable AI techniques, to improve prediction reliability, reduce trial-and-error experimentation, and suppo...
Yousif J. Bas, Jamal I. Kakrasul, Kamaran S. Ismail et al.· Engineering Research Express· 0 citations
Sulfate attack progressively deteriorates concrete in marine, saline-soil, and sulfate-rich environments. This study developed an interpretable machine-learning and multi-objective optimization framework for sulfate-resistance-oriented concrete design. A literature-based dataset containing 744 records from 21 publicati...
Yi-Hang Guo, Jia-Yu Li, Li Li et al.· Canadian journal of civil en...· 0 citations
Developing reliable computational tools for durability and service-life assessment of concrete structures in aggressive environments is essential for advancing predictive modeling in structural engineering. This study introduces machine learning (ML)–based models for forecasting the sulfate and acid resistance of recyc...
P. Singh, Puja Rajhans· Engineering Research Express· 0 citations
This study develops and compares four machine learning and deep learning models, namely the Deep Gradient Boosting Machine, the Differentiable Neural Decision Tree, Long Short-Term Memory, and the Monte Carlo Dropout Neural Network, for the accurate and uncertainty-aware prediction of the compressive strength of red mu...
Pradeep Thangavel, D. R. Kumar, Prasoon Kumar et al.· Buildings· 1 citation
Sustainable concrete incorporating waste glass materials has emerged as a promising solution to reduce environmental impacts associated with cement production and natural aggregate depletion. Accurate prediction of compressive strength (CS) is essential for optimizing such mixtures and ensuring structural reliability....
Abdelrahman Shams, S. R. Wani, Eman Mousa et al.· Scientific Reports· 0 citations
An interpretable machine learning framework integrating Extreme Gradient Boosting with Shapley Additive Explanations to predict the 28-day compressive strength of fly ash-based geopolymer concrete (FA-GPC) is developed and experimentally validates.
Xiaoshuang Shi, Hao-Xiang Hu, Zhenhua Duan et al.· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.