Skip to content

The Fresh and Hardened Properties of 3D Printing Cement-Base Materials with Self-Cleaning Nano-TiO2 (2022-10)

An Exploratory Study

10.1016/j.jclepro.2022.134804

Liu Qiang,  Jiang Quan, Huang Mojia, Xin Jie, Chen Pengfei
Journal Article - Journal of Cleaner Production

Abstract

Cement-based 3D printing (3DP) is going deep into the traditional civil construction due to its advantages, such as saving materials, reducing carbon dioxide emissions and lowering energy requirements. However, the printability of 3DP mortars is the main factor restricting the rapid development of cement-based 3DP technology. The nano-TiO2 (NT) performs obviously self-cleaning effect and has potential merit in improving the printability in cement-based 3DP as an additive. In this study, the printing pastes with different NT dosages and water-cement ratios are designed to reveal the fresh and hardened properties of cement-based 3DP. The test results show that NT has better thickening property and can shorten the setting time, thus reducing the slump and flow diameter. What's more, appropriate NT content can increase the static yield stress of pastes, and reduce the dynamic yield stress and plastic viscosity of pastes at the same time. The mortar with 3% NT dosage has better buildability, compared with undoped NT group, the deformation-rate of the sample increases by 32.4% and the inclination-rate decreases by 52.7%. The mortar with 3% NT dosage also has better density and compressive strength, compared with undoped NT group, the dry density increases by 19.6% and the compressive strength increases by 51.6%. Moreover, the results also indicated that when the water-cement ratio of paste is smaller, its fluidity is smaller, and its static yield stress, dynamic yield performance as well as plastic viscosity are higher. Micro-pores and hydration products of 3DP samples tested by SEM and XRD showed that the NT can refine the pore structure and reinforce the compactness of the mixtures, and the self-cleaning test verified that NT also had obvious self-cleaning performance for cement-based printed samples, which indicates the NT is an ideal 3DP cement additive for clean production and green development in civil construction.

28 References

  1. Chen Yu, Veer Frederic, Çopuroğlu Oğuzhan, Schlangen Erik (2018-09)
    Feasibility of Using Low CO2 Concrete Alternatives in Extrusion-Based 3D Concrete Printing
  2. Chen Mingxu, Yang Lei, Zheng Yan, Huang Yongbo et al. (2020-04)
    Yield-Stress and Thixotropy-Control of 3D Printed Calcium-Sulfoaluminate Cement Composites with Metakaolin Related to Structural Build-Up
  3. Chen Mingxu, Yang Lei, Zheng Yan, Li Laibo et al. (2021-01)
    Rheological Behaviors and Structure Build-Up of 3D Printed Polypropylene- and Polyvinyl-Alcohol-Fiber-Reinforced Calcium-Sulphoaluminate-Cement Composites
  4. Chougan Mehdi, Ghaffar Seyed, Jahanzat Mohammad, Albar Abdulrahman et al. (2020-04)
    The Influence of Nano-Additives in Strengthening Mechanical Performance of 3D Printed Multi-Binder Geopolymer Composites
  5. 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
  6. Gomaa Mohamed, Jabi Wassim, Soebarto Veronica, Xie Yi (2022-01)
    Digital Manufacturing for Earth Construction:
    A Critical Review
  7. Heras Murica Daniel, Genedy Moneeb, Taha Mahmoud (2020-09)
    Examining the Significance of Infill-Printing-Pattern on the Anisotropy of 3D Printed Concrete
  8. Hou Shaodan, Duan Zhenhua, Xiao Jianzhuang, Ye Jun (2020-12)
    A Review of 3D Printed Concrete:
    Performance-Requirements, Testing Measurements and Mix-Design
  9. Jiang Quan, Liu Qiang, Wu Si, Zheng Hong et al. (2022-06)
    Modification Effect of Nano-Silica and Polypropylene-Fiber for Extrusion-Based 3D Printing Concrete:
    Printability and Mechanical Anisotropy
  10. Khan Mohammad, Sanchez Florence, Zhou Hongyu (2020-04)
    3D Printing of Concrete:
    Beyond Horizons
  11. Kondepudi Kala, Subramaniam Kolluru (2021-02)
    Formulation of Alkali-Activated Fly-Ash-Slag Binders for 3D Concrete Printing
  12. Liu Qiang, Jiang Quan, Huang Mojia, Xin Jie et al. (2022-03)
    Modifying Effect of Anionic Polyacrylamide Dose for Cement-Based 3DP Materials:
    Printability and Mechanical Performance Tests
  13. Liu Chao, Wang Xianggang, Chen Yuning, Zhang Chao et al. (2021-06)
    Influence of Hydroxypropyl-Methylcellulose and Silica-Fume on Stability, Rheological Properties, and Printability of 3D Printing Foam-Concrete
  14. Long Wujian, Tao Jie-Lin, Lin Can, Gu Yucun et al. (2019-08)
    Rheology and Buildability of Sustainable Cement-Based Composites Containing Micro-Crystalline Cellulose for 3D Printing
  15. Ma Guowei, Li Zhijian, Wang Li (2017-12)
    Printable Properties of Cementitious Material Containing Copper-Tailings for Extrusion-Based 3D Printing
  16. Mendoza Reales Oscar, Duda Pedro, Silva Emílio, Paiva Maria et al. (2019-06)
    Nanosilica-Particles as Structural Buildup Agents for 3D Printing with Portland Cement-Pastes
  17. Sikora Paweł, Chung Sang-Yeop, Liard Maxime, Lootens Didier et al. (2021-02)
    The Effects of Nano-Silica on the Fresh and Hardened Properties of 3D Printable Mortars
  18. Sun Junbo, Aslani Farhad, Lu Jenny, Wang Lining et al. (2021-06)
    Fiber-Reinforced Lightweight Engineered Cementitious Composites for 3D Concrete Printing
  19. Tay Yi, Qian Ye, Tan Ming (2019-05)
    Printability-Region for 3D Concrete Printing Using Slump- and Slump-Flow-Test
  20. Tobi A., Omar S., Yehia Z., Al-Ojaili S. et al. (2018-03)
    Cost Viability of 3D Printed House in UK
  21. Weng Yiwei, Li Mingyang, Ruan Shaoqin, Wong Teck et al. (2020-03)
    Comparative Economic, Environmental and Productivity-Assessment of a Concrete Bathroom Unit Fabricated Through 3D Printing and a Pre-Cast Approach
  22. Weng Yiwei, Li Mingyang, Tan Ming, Qian Shunzhi (2018-01)
    Design 3D Printing Cementitious Materials via Fuller-Thompson-Theory and Marson-Percy-Model
  23. Xiao Jianzhuang, Liu Haoran, Ding Tao (2020-11)
    Finite-Element-Analysis on the Anisotropic Behavior of 3D Printed Concrete under Compression and Flexure
  24. Xiao Jianzhuang, Zou Shuai, Ding Tao, Duan Zhenhua et al. (2021-08)
    Fiber-Reinforced Mortar with 100% Recycled Fine Aggregates:
    A Cleaner Perspective on 3D Printing
  25. Xu Jiabin, Chen Mingxu, Zhao Zhihui, Li Laibo et al. (2021-01)
    Printability and Efflorescence-Control of Admixtures-Modified 3D Printed White Portland-Cement-Based Materials Based on the Response-Surface-Methodology
  26. Yang Huashan, Che Yujun, Shi Mengyuan (2021-07)
    Influences of Calcium-Carbonate-Nano-Particles on the Workability and Strength of 3D Printing Cementitious Materials Containing Limestone-Powder
  27. Zhang Yifan, Aslani Farhad (2021-08)
    Development of Fiber-Reinforced Engineered Cementitious Composite Using Polyvinyl-Alcohol-Fiber and Activated Carbon-Powder for 3D Concrete Printing
  28. Zhao Zhihui, Chen Mingxu, Zhong Xu, Huang Yongbo et al. (2021-07)
    Effects of Bentonite, Diatomite and Metakaolin on the Rheological Behavior of 3D Printed Magnesium-Potassium-Phosphate-Cement Composites

11 Citations

  1. Jamjala Siva, Thulasirangan Lakshmidevi Manivannan, Reddy K., Kafle Bidur et al. (2025-10)
    A Critical Review on Synergistic Integration of Nanomaterials in 3D-Printed Concrete:
    Rheology to Microstructure and Eco-Functionality
  2. Liu Qiang, Zhang Xinwei, Jiang Quan, Xia Yong et al. (2025-07)
    Effects of Nano-Al2O3, Nano-MgO and Nano-Fe2O3 on the Properties of Cement-Based 3D Printing:
    A Comparative Study
  3. Li Qiyan, Su Anshuang, Gao Xiaojian (2025-06)
    Improvement of Interlayer Performance of 3D Printable Magnesium Oxysulfate Cement-Based Materials by Carbonation Curing
  4. Liu Qiang, Jiang Quan, Zhao Herui, Yu Yang et al. (2025-02)
    Porous Diatomite Promotes Lightweight and Low-Carbon Concrete 3D Printing:
    An Exploratory Study
  5. Lucas Sandra (2024-11)
    From 3D to 5D Printing:
    Additive Manufacturing of Functional Construction Materials
  6. Jin Peng, Hasany Masoud, Kohestanian Mohammad, Mehrali Mehdi (2024-10)
    Micro/Nano Additives in 3D Printing Concrete:
    Opportunities, Challenges, and Potential Outlook in Construction Applications
  7. Wang Xiangyu, Du Liangfen, Liu Zhenbang, Li Mingyang et al. (2024-09)
    3D Cementitious Composites Printing with Pretreated Recycled Crumb-Rubber:
    Mechanical and Acoustic Insulation Properties
  8. Liu Qiang, Jiang Quan, Yu Rang, Rong Yao et al. (2023-12)
    Extrusion 3D Printing Circular and Horseshoe Tunnel Physical Models:
    A Comparative Study of Deformation and Brittle Failure
  9. Liu Junli, Tran Jonathan, Ginigaddara Thusitha, Mendis Priyan (2023-06)
    Exploration of Using Graphene Oxide for Strength Enhancement of 3D Printed Cementitious Mortar
  10. Razzaghian Ghadikolaee Mehrdad, Cerro-Prada Elena, Pan Zhu, Korayem Asghar (2023-04)
    Nanomaterials as Promising Additives for High-Performance 3D Printed Concrete:
    A Critical Review
  11. Liu Qiang, Jiang Quan, Zhou Zhenhua, Xin Jie et al. (2023-02)
    The Printable and Hardened Properties of Nano-Calcium Carbonate with Modified Polypropylene-Fibers for Cement-Based 3D Printing

BibTeX
@article{liu_jian_huan_xin.2022.TFaHPo3PCBMwSCNT,
  author            = "Qiang Liu and Quan Jiang and Mojia Huang and Jie Xin and Pengfei Chen",
  title             = "The Fresh and Hardened Properties of 3D Printing Cement-Base Materials with Self-Cleaning Nano-TiO2: An Exploratory Study",
  doi               = "10.1016/j.jclepro.2022.134804",
  year              = "2022",
  journal           = "Journal of Cleaner Production",
}
Formatted Citation

Q. Liu, Q. Jiang, M. Huang, J. Xin and P. Chen, “The Fresh and Hardened Properties of 3D Printing Cement-Base Materials with Self-Cleaning Nano-TiO2: An Exploratory Study”, Journal of Cleaner Production, 2022, doi: 10.1016/j.jclepro.2022.134804.

Liu, Qiang, Quan Jiang, Mojia Huang, Jie Xin, and Pengfei Chen. “The Fresh and Hardened Properties of 3D Printing Cement-Base Materials with Self-Cleaning Nano-TiO2: An Exploratory Study”. Journal of Cleaner Production, 2022. https://doi.org/10.1016/j.jclepro.2022.134804.