Skip to content

Stability of Steel-Slag as Fine Aggregate and Its Application in 3D Printing Materials (2021-06)

10.1016/j.conbuildmat.2021.123938

Dai Shuo,  Zhu Huajun, Zhai Munan, Wu Qisheng, Yin Zhifeng, Qian Hao,  Hua Sudong
Journal Article - Construction and Building Materials, Vol. 299, No. 123938

Abstract

Due to the shortage of natural materials, using steel slag (SS) as replacement for natural sand to manufacture mortar has attracted worldwide attention and becomes a promising technology. This study aims at employing SS as fine aggregate for natural sand substitute in cement mortar synthesis. The measurement of expansion value generated by fine SS aggregate was performed by autoclave test. On the basis of further tests, the optimum content of SS fine aggregate was 25%. The autoclave experiment results indicate that the mortar bar was seriously damaged with higher dosages of SS fine aggregate. The X-ray diffraction (XRD) technique was offered to identify the mineralogical phases of the autoclaved SS. Additionally, this work investigated the printability of 3D printing mortar by assessing its fluidity, slump and mechanical strength. The printing mortar mixed with 25% SS was used in the printing of an actual 3D structure, demonstrating its feasibility to be used in 3D printing field. The microstructure and elements distribution were characterized by scanning electron microscopy (SEM) and the energy dispersive spectroscopy (EDS) techniques. The results showed that it is feasible to incorporate SS in 3D printing mortar, which contributes to the improvement of working properties and the enhancement of mechanical strength. This study provides a novel 3D printing SS mortar with good economic and potentially great environmental benefits.

10 References

  1. Buswell Richard, Soar Rupert, Gibb Alistar, Thorpe Tony (2006-06)
    Freeform Construction:
    Mega-Scale Rapid Manufacturing for Construction
  2. Daungwilailuk Totsawat, Pheinsusom Phoonsak, Pansuk Withit (2021-01)
    Uniaxial Load Testing of Large-Scale 3D Printed Concrete Wall and Finite-Element-Model-Analysis
  3. Ding Tao, Xiao Jianzhuang, Zou Shuai, Wang Yu (2020-06)
    Hardened Properties of Layered 3D Printed Concrete with Recycled Sand
  4. Khalil Noura, Aouad Georges, Cheikh Khadija, Rémond Sébastien (2017-09)
    Use of Calcium-Sulfoaluminate-Cements for Setting-Control of 3D Printing Mortars
  5. Ma Guowei, Li Zhijian, Wang Li (2017-12)
    Printable Properties of Cementitious Material Containing Copper-Tailings for Extrusion-Based 3D Printing
  6. Ma Guowei, Salman Nazar, Wang Li, Wang Fang (2020-02)
    A Novel Additive Mortar Leveraging Internal Curing for Enhancing Inter-Layer Bonding of Cementitious Composite for 3D Printing
  7. Marchment Taylor, Sanjayan Jay, Xia Ming (2019-03)
    Method of Enhancing Inter-Layer Bond Strength in Construction-Scale 3D Printing with Mortar by Effective Bond Area Amplification
  8. Souza Marcelo, Ferreira Igor, Moraes Elisângela, Senff Luciano et al. (2020-09)
    3D Printed Concrete for Large-Scale Buildings:
    An Overview of Rheology, Printing Parameters, Chemical Admixtures, Reinforcements, and Economic and Environmental Prospects
  9. Wang Li, Tian Zehao, Ma Guowei, Zhang Mo (2020-02)
    Inter-Layer Bonding Improvement of 3D Printed Concrete with Polymer-Modified Mortar:
    Experiments and Molecular Dynamics Studies
  10. Xu Jie, Ding Lieyun, Love Peter (2017-01)
    Digital Reproduction of Historical Building Ornamental Components:
    From 3D Scanning to 3D Printing

29 Citations

  1. Tushar Fazlul, Hasan Mehedi, Hasan Kamrul, Mawa Jannatul et al. (2026-01)
    Factors Affecting Flowability and Rheological Behavior of 3D Printed Concrete:
    A Comprehensive Review
  2. Gil-Lopez Tomas, Amirfiroozkoohi Alireza, Valiente López María, Verdu-Vazquez Maria (2026-01)
    The Impact of 3D Printing on Mortar Strength and Flexibility:
    A Comparative Analysis of Conventional and Additive Manufacturing Techniques
  3. Zhu Binrong, Qi Miao, Chen Wei, Pan Jinlong (2025-12)
    Anisotropic Mechanical Properties of 3D Printed Low-Carbon Concrete and Connection Strategies for Large-Scale Reusable Formwork in Digital Construction
  4. Liu Ruiying, Xiong Zhongming, Chen Xuan, Jia Qiong et al. (2025-09)
    Industrial Waste in 3D Printed Concrete:
    A Mechanistic Review on Rheological Control and Printability
  5. Mim Nusrat, Hosan Anwar, Shaikh Faiz, Sarker Prabir (2025-07)
    Rheological and Early Age Mechanical Properties of 3D Printed Concrete Containing Copper Heap Leach Residue as Fine Aggregate
  6. Tao Yaxin, Zhang Yi, Mohan Manu, Dai Xiaodi et al. (2025-05)
    Waste-Derived Aggregates in 3D Printable Concrete:
    Current Insights and Future Perspectives
  7. Ahadi Bahram, Valiente López María (2025-05)
    Zigzag Reinforcement Method for 3D Concrete Printing
  8. Mim Nusrat, Shaikh Faiz, Sarker Prabir (2025-03)
    Sustainable 3D Printed Concrete Incorporating Alternative Fine Aggregates:
    A Review
  9. Ambily Parukutty, Kaliyavaradhan Senthil, Sebastian Shilpa, Shekar Deepadharshan (2025-01)
    Sustainable 3D Printable Concrete-Mix Using Copper-Slag
  10. Irshidat Mohammad, Cabibihan John-John, Fadli Fodil, Ramahi Siraj et al. (2024-12)
    Waste Materials Utilization in 3D Printable Concrete for Sustainable Construction Applications:
    A Review
  11. Wu Mushuang, Wang Zixiao, Chen Yuxuan, Zhu Mengyu et al. (2024-11)
    Effect of Steel-Slag on Rheological and Mechanical Properties of Sulfoaluminate-Cement-Based Sustainable 3D Printing Concrete
  12. Murali Gunasekaran, Leong Sing (2024-11)
    Waste-Driven Construction:
    A State of the Art Review on the Integration of Waste in 3D Printed Concrete in Recent Researches for Sustainable Development
  13. Zhao Wanting, Zhao Yu, Zhu Lingli, Guan Xuemao (2024-10)
    Preparation of 3D Printed Concrete from Solid Waste:
    Study of the Relationship Between Steel-Slag Characteristics and Early Performance in 3D Printing
  14. Tran Nhi, Tran Mien, Tran Jonathan, Nguyen Anh et al. (2024-09)
    Eco-Friendly 3D Printed Concrete Using Steel-Slag-Aggregate:
    Buildability, Printability and Mechanical Properties
  15. Zhao Hongyu, Wang Yufei, Liu Xianda, Wang Xiangyu et al. (2024-08)
    Review on Solid Wastes Incorporated Cementitious Material Using 3D Concrete Printing-Technology
  16. González-Fonteboa Belén, Seara-Paz Sindy, Caneda-Martínez Laura (2024-06)
    3D Printing Concrete with Byproducts
  17. Tran Mien, Ly Duy-Khuong, Nguyen Tan, Tran Nhi (2024-05)
    Robust Prediction of Workability Properties for 3D Printing with Steel-Slag-Aggregate Using Bayesian Regularization and Evolution Algorithm
  18. Colyn Markus, Zijl Gideon, Babafemi Adewumi (2024-02)
    Fresh and Strength Properties of 3D Printable Concrete Mixtures Utilising a High Volume of Sustainable Alternative Binders
  19. Silva Maicon, Silva Lívia, Toralles Berenice, Cardoso Flávia et al. (2024-02)
    Building a Sustainable Future:
    The Role of Additive Manufacturing in Civil Construction
  20. Zhao Zengfeng, Ji Chenyuan, Xiao Jianzhuang, Yao Lei et al. (2023-11)
    A Critical Review on Reducing the Environmental Impact of 3D Printing Concrete:
    Material-Preparation, Construction-Process and Structure-Level
  21. Yue Hongfei, Zhang Zhuxian, Hua Sudong, Gao Yanan et al. (2023-09)
    Solid Waste-Based Set-on-Demand 3D Printed Concrete:
    Active Rheological-Control of Cement-Based Magneto-Rheological Fluids
  22. Riaz Raja, Usman Muhammad, Ali Ammar, Majid Usama et al. (2023-06)
    Inclusive Characterization of 3D Printed Concrete in Additive Manufacturing:
    A Detailed Review
  23. Gao Yanan, Hua Sudong, Yue Hongfei (2023-04)
    Study on Preparation and Rheological Properties of 3D Printed Pre-Foaming Concrete
  24. Valente Marco, Sambucci Matteo, Chougan Mehdi, Ghaffar Seyed (2023-04)
    Composite Alkali-Activated Materials with Waste-Tire-Rubber Designed for Additive Manufacturing:
    An Eco-Sustainable and Energy Saving Approach
  25. Fonseca Mariana, Matos Ana (2023-03)
    3D Construction Printing Standing for Sustainability and Circularity:
    Material-Level Opportunities
  26. Xu Zhuoyue, Zhang Dawang, Li Hui, Sun Xuemei (2023-02)
    Effects of the Distribution of Solid Particles on the Rheological Properties and Buildability of 3DPM Fresh Pastes with Different FA/GGBFS Content
  27. Zhou Longfei, Gou Mifeng, Zhang Haibo (2022-12)
    Investigation on the Applicability of Bauxite-Tailings as Fine Aggregate to Prepare 3D Printing Mortar
  28. Dey Dhrutiman, Srinivas Dodda, Panda Biranchi, Suraneni Prannoy et al. (2022-02)
    Use of Industrial Waste-Materials for 3D Printing of Sustainable Concrete:
    A Review
  29. Yue Hongfei, Hua Sudong, Qian Hao, Yao Xiao et al. (2021-12)
    Investigation on Applicability of Spherical Electric Arc-Furnace-Slag as Fine Aggregate in Superplasticizer-Free 3D Printed Concrete

BibTeX
@article{dai_zhu_zhai_wu.2021.SoSSaFAaIAi3PM,
  author            = "Shuo Dai and Huajun Zhu and Munan Zhai and Qisheng Wu and Zhifeng Yin and Hao Qian and Sudong Hua",
  title             = "Stability of Steel-Slag as Fine Aggregate and Its Application in 3D Printing Materials",
  doi               = "10.1016/j.conbuildmat.2021.123938",
  year              = "2021",
  journal           = "Construction and Building Materials",
  volume            = "299",
  pages             = "123938",
}
Formatted Citation

S. Dai, “Stability of Steel-Slag as Fine Aggregate and Its Application in 3D Printing Materials”, Construction and Building Materials, vol. 299, p. 123938, 2021, doi: 10.1016/j.conbuildmat.2021.123938.

Dai, Shuo, Huajun Zhu, Munan Zhai, Qisheng Wu, Zhifeng Yin, Hao Qian, and Sudong Hua. “Stability of Steel-Slag as Fine Aggregate and Its Application in 3D Printing Materials”. Construction and Building Materials 299 (2021): 123938. https://doi.org/10.1016/j.conbuildmat.2021.123938.