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A comparison study of regression analysis for estimating the capillary water absorption of construction stones

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Abstract

Large-scale and time-consuming testing is required to establish the rock’s capillary water absorption (\({\text{CWA}}\)); however, predictive technologies may lessen these needs. In this study, the hybrid support vector regression (\({\rm SVR}\)) analysis was developed to predict the \({\rm CWA}\) of the building stones. \({\rm SVR}\)’s great performance depends on determining the main parameters of it, where for this aim, two optimization algorithms were considered named arithmetic optimization algorithm (\({ {\rm AOA}}\)) and sine–cosine algorithm (\({ {\rm SCA}}\)). The mentioned hybrid regression analysis has not been developed for predicting the \({\rm CWA}\) of building rock so far, which makes this study to be innovative. During the train and test rounds, there was a strong correlation between the observed and predicted \({\rm CWA}\) s, with \(R^{2}\) values of 0.9668 and 0.9497, respectively. \({\rm AOA} - {\rm SVR}\) may receive less data than \({\rm SCA} - {\rm SVR}\) network by decreasing from 24.478 to 21.759 \({\text{g}}/{\text{m}}^{2} /{\text{s}}^{0.5}\) in the train round and from 22.52 to 18.87 \({\text{g}}/{\text{m}}^{2} /{\text{s}}^{0.5}\) in the test round when using the root mean squared error (\({\rm RMSE}\)) measure. The performance index (\(PI\)) shows that the \({\rm AOA} - {\rm SVR}\) system's capacity to represent lower values than \({\rm SCA} - {\rm SVR}\), with train round values of 0.1554 lower than 0.1751 and test round values of 0.1892 lower than 0.227. In comparison with the earlier study, the coefficient of determination (\(R^{2}\)) values increased from 0.708 (multiple linear regression) to 0.9745 (\({\rm AOA} - {\rm SVR}\)), demonstrating a considerable improvement in workability. The created \({\rm AOA} - {\rm SVR}\) method may be called the outperformed approach since it can determine the \({\rm CWA}\) of building stones.

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BY: was involed in project administration, language review, and supervision. YW: contributed to conceptualization, methodology, and software.

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Correspondence to Bowei Yu.

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Yu, B., Wei, Y. A comparison study of regression analysis for estimating the capillary water absorption of construction stones. Multiscale and Multidiscip. Model. Exp. and Des. 6, 685–696 (2023). https://doi.org/10.1007/s41939-023-00168-7

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