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March 1, 2026Revista Educação Direito e Sociedade0 citations

Experimental and ARX model-based prediction of concrete strength with waste marble powder as replacement of aggregates

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EAEssam AlthaqafiAÇAli İhsan Çeli̇kMKMemduh Karalar

Key Points

  • The research aims to assess the effects of replacing fine aggregates with waste marble powder on concrete strength.
  • Replaced fine aggregates with waste marble powder at 0%, 10%, 20%, 30%, and 40%.
  • Conducted compressive strength, splitting tensile strength, and flexural strength tests.
  • Performed microstructure analysis to evaluate binding properties of waste marble powder.
  • Developed predictive equation for concrete capacity using experimental results and literature.
  • 10% waste marble powder improved compressive strength by 2.2% compared to reference concrete.
  • Splitting tensile strength increased by 4.1% at 10% waste marble powder utilization.
  • 40% waste marble powder led to significant reductions in compressive and tensile strength.
  • Maximum flexural strength occurred at 10% waste marble powder, while the minimum was at 40%.

Abstract

In this study, waste marble powder (WMP) was employed replacing aggregates in certain quantities. To achieve this objective, fine aggregates were substituted with WMP at different percentages of 0%, 10%, 20%, 30%, and 40%. This was done to compare the effects of various tests on the compressive strength (CS), splitting tensile strength (STS), and flexural strength (FS). First, the CS test was performed on the specimens. It was measured that CS of MA10% (10% aggregates were replaced with WMP) was 2.2% larger than that of reference concrete (REF). Furthermore, a noticeable decrease in the strength were observed for 40% of WMP when compared with REF. Then, the STS test was conducted to compare the test results with those of CS. As expected, it was found that the results of STS ordinarily followed the similar trend as CS. For the 10% WMP utilized as stepped replacement for fine aggregates, the significant enhancement in STS of concrete was up to 4.1%. However, while the quantity of WMP was improved to 30% and 40%, it resulted that the values of STS were affected in a downward trend. The FS test was also done. It was revealed that the maximum FS was achieved with 10% adding of WMP, and the minimum FS was obtained with 40% adding of WMP. Additionally, microstructure analysis was performed. It was found that WMP is a good binder with cement and the use of 10% WMP, as replacement of aggregates, is recommended to increase the capacity. Moreover, 20% and 30% of WMP can be utilized without the loss of the strength, however, the use of 40% WMP should be avoided. Moreover, an equation was derived to predict the capacity of concrete with WMP employing the experimental results and findings presented in the literature. Additionally, an estimation method of ARX (autoregressive with external input) models was used to more accurately predict the mechanical behavior of concrete with WMP.

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Cite This Study

Althaqafi et al. (2025) studied this question.

synapsesocial.com/papers/69a3d8caec16d51705d2feechttps://doi.org/10.12989/sem.2025.95.1.015
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Utilizing recycled marble powder dust to part of the cement in concrete2024
  2. 2Investigating the Economic and Environmental Feasibility of White Marble Powder as a Partial Cement Replacement in Concrete2025
  3. 3Effects of waste marble as partial replacement of cement and fine aggregate on the mechanical, durability and microscopic properties of concrete2026
  4. 4Eco-Friendly Self-Compacting Concrete Incorporating Waste Marble Sludge as Fine and Coarse Aggregate Substitute2025
  5. 5Experimental study on the mechanical behavior of concrete incorporating fly ash and marble powder waste2024 · 10 citations