2022
DOI: 10.1016/j.conbuildmat.2022.126689
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A prediction model for compressive strength of CO2 concrete using regression analysis and artificial neural networks

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Cited by 50 publications
(8 citation statements)
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“…CO 2 concrete alleviates these problems by carbonizing RAs, reducing CO 2 emissions, reusing crushed masonry materials, and preserving virgin aggregates. Regression analysis and artificial neural networks have accurately predicted its compressive strength, which proves that the CO 2 concrete's compressive strength supports the widespread adoption of eco-friendly materials [40]. CO 2 concrete is the best at reducing carbon emissions compared to NAC and RAC, as the carbonization process helps retain CO 2 into recycled aggregates, reducing the environmental footprint and improving the mechanical properties and compressive strength of concrete [8].…”
Section: Locking Co2 In Waste Concretementioning
confidence: 64%
“…CO 2 concrete alleviates these problems by carbonizing RAs, reducing CO 2 emissions, reusing crushed masonry materials, and preserving virgin aggregates. Regression analysis and artificial neural networks have accurately predicted its compressive strength, which proves that the CO 2 concrete's compressive strength supports the widespread adoption of eco-friendly materials [40]. CO 2 concrete is the best at reducing carbon emissions compared to NAC and RAC, as the carbonization process helps retain CO 2 into recycled aggregates, reducing the environmental footprint and improving the mechanical properties and compressive strength of concrete [8].…”
Section: Locking Co2 In Waste Concretementioning
confidence: 64%
“…Machine learning (ML) has recently been introduced to calibrate sensors with nonlinear characteristics for data sensing. [60] The multilayer feedforward neural network is suitable and sufficient for multiple regression tasks and thus it is used to map the piezoelectric signal features to the continuous responses of the grip force and relative characteristics; [61][62][63] the support vector machine (SVM) exhibits excellent performance in classification tasks and is utilized to distinguish the deformation states and speed levels; principal component analysis (PCA) processing is the most commonly used unsupervised linear dimensionality reduction method (Note S5, Supporting Information). [64][65][66] In realtime monitoring, voltage signals of the prototype piezoelectric metamaterial with computational sensing capability are obtained by a real-time data-acquisition board (Figure 3b).…”
Section: Computational Multi-sensingmentioning
confidence: 99%
“…The neurons react to the information providing activations. The next step consists of recognizing shapes, for example, letters or numbers [26,27]. These processes described are mimicked by a technique used in artificial intelligence called artificial neural networks (ANNs).…”
Section: Artificial Neural Networkmentioning
confidence: 99%