Predicting the strengths of basalt fiber reinforced concrete mixed with fly ash using AML and Hoffman and Gardener techniques

dc.contributor.authorKennedy C. Onyelowe
dc.contributor.authorViroon Kamchoom‬
dc.contributor.authorShadi Hanandeh
dc.contributor.authorAhmed M. Ebid
dc.contributor.authorJosé Luis Llamuca Llamuca
dc.contributor.authorJuan Carlos Cayán Martínez
dc.contributor.authorEvlin Rose
dc.contributor.authorPaul O. Awoyera
dc.contributor.authorSiva Avudaiappan
dc.date.accessioned2026-05-08T19:16:17Z
dc.date.issued2025-4-9
dc.description.abstractof 0.96 for training and validation phases. Its exceptionally low validation MAE of 0.124 MPa underscores its excellent generalization capabilities. Overall, XGBoosting and AdaBoost consistently demonstrate superior performance for both compressive and splitting tensile strength predictions, followed closely by KNN. These models benefit from advanced ensemble techniques that efficiently handle non-linear patterns and noise. SVR also performs admirably, whereas GEP and GMDHNN exhibit weaker predictive capabilities due to limitations in handling complex data dynamics. For the sensitivity analysis, the Hoffman and Gardener's method of sensitivity analysis proves instrumental in identifying key drivers of strength in fiber-reinforced concrete, guiding informed decision-making for material optimization and sustainable construction practices.
dc.identifier.doi10.1038/s41598-025-96420-w
dc.identifier.urihttps://dspace.kmitl.ac.th/handle/123456789/15445
dc.publisherScientific Reports
dc.subjectInnovative concrete reinforcement materials
dc.subjectConcrete and Cement Materials Research
dc.subjectInfrastructure Maintenance and Monitoring
dc.titlePredicting the strengths of basalt fiber reinforced concrete mixed with fly ash using AML and Hoffman and Gardener techniques
dc.typeArticle

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