Preparation and performance of steel slag and recycled brick aggregate modified concrete under the background of solid waste application

被引:0
作者
Wei, Lili [1 ]
机构
[1] Chifeng Univ, Sch Resources Environm & Architectural Engn, Chifeng 024000, Peoples R China
关键词
frost resistance; mechanical properties; permeable concrete; recycled brick aggregate; solid waste resources; steel slag;
D O I
10.24425/ace.2024.150989
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
Permeable concrete has the characteristics of breathability, permeability, and high heat dissipation. To improve its mechanical and frost resistance properties, this study optimized the preparation and performance of permeable concrete by adding materials to improve its performance. The performance analysis validate that epoxy resin owns a filling effect on the pores of permeable concrete. The internal curing agent, high water absorbent resin, has a good water absorption effect. The synergistic effect of these two increases the density and compressive strength of permeable concrete. When the two contents are 0.5%, the maximum compressive strength of modified permeable concrete at 7 and 28 days was 15.62 and 17.97 MPa, respectively. Under the action of freeze-thaw cycles, its mass loss rate show an upward trend By comparison, epoxy resin and high water absorbent resin are beneficial for improving the frost resistance of permeable concrete. The minimum value of relative dynamic modulus of elasticity remains stable at over 80%, and the loss rate of dynamic modulus of elasticity is all below 0.4. However, the influence of epoxy resin and SAP on the mass loss rate is relatively small, and the mass loss of all experimental groups is controlled below 2.5%. The binomial Fourier function model is the best predictive model for permeable concrete under freeze-thaw cycles. This study has positive significance for improving the performance of permeable concrete and maintaining the sustainable development of ecological cities.
引用
收藏
页码:373 / 386
页数:14
相关论文
共 16 条
[1]   Laboratory tests of solid and hollow concrete beams made with glass waste [J].
Alharishawi, Salam Salman Chiad ;
Rajaa, Nagham ;
Jabur, Aqeel Raheem .
ARCHIVES OF CIVIL ENGINEERING, 2023, 69 (04) :5-20
[2]   Thermo-mechanical stability of concrete containing steel slag as aggregate after high temperature thermal cycles [J].
Boquera, Laura ;
Ramon Castro, J. ;
Fernandez, Angel G. ;
Navarro, Antonia ;
Pisello, Anna Laura ;
Cabeza, Luisa F. .
SOLAR ENERGY, 2022, 239 :59-73
[3]   Residual properties of steel slag coarse aggregate concrete after exposure to elevated temperatures [J].
Ho, J. C. M. ;
Liang, Y. ;
Wang, Y. H. ;
Lai, M. H. ;
Huang, Z. C. ;
Yang, D. ;
Zhang, Q. L. .
CONSTRUCTION AND BUILDING MATERIALS, 2022, 316
[4]   A review of steel slag as a substitute for natural aggregate applied to cement concrete [J].
Li, Zhennan ;
Shen, Aiqin ;
Yang, Xuerui ;
Guo, Yinchuan ;
Liu, Yiwei .
ROAD MATERIALS AND PAVEMENT DESIGN, 2023, 24 (02) :537-559
[5]   Steel Slag and Recycled Concrete Aggregates: Replacing Quarries to Supply Sustainable Materials for the Asphalt Paving Industry [J].
Loureiro, Carlos D. A. ;
Moura, Caroline F. N. ;
Rodrigues, Mafalda ;
Martinho, Fernando C. G. ;
Silva, Hugo M. R. D. ;
Oliveira, Joel R. M. .
SUSTAINABILITY, 2022, 14 (09)
[6]   Artificial neural networks (ANN), MARS, and adaptive network-based fuzzy inference system (ANFIS) to predict the stress at the failure of concrete with waste steel slag coarse aggregate replacement [J].
Piro, Nzar Shakr ;
Mohammed, Ahmed ;
Hamad, Samir M. M. ;
Kurda, Rawaz .
NEURAL COMPUTING & APPLICATIONS, 2023, 35 (18) :13293-13319
[7]   Multifunctional computational models to predict the long-term compressive strength of concrete incorporated with waste steel slag [J].
Piro, Nzar Shakr ;
Mohammed, Ahmed Salih ;
Hamad, Samir M. ;
Kurda, Rawaz ;
Qader, Bootan S. .
STRUCTURAL CONCRETE, 2023, 24 (02) :2093-2112
[8]   Alkali-Activated Stainless Steel Slag as a Cementitious Material in the Manufacture of Self-Compacting Concrete [J].
Rosales, Julia ;
Agrela, Francisco ;
Diaz-Lopez, Jose Luis ;
Cabrera, Manuel .
MATERIALS, 2021, 14 (14)
[9]   Potential of Stainless Steel Slag Waste in Manufacturing Self-Compacting Concrete [J].
Rosales, Julia ;
Agrela, Francisco ;
Antonio Entrenas, Jose ;
Cabrera, Manuel .
MATERIALS, 2020, 13 (09)
[10]  
Tangadagi R.B., 2020, J. Green. Eng, V10, P2408