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Selection of the Best 3D Printing High-Performance Mortars Using Multi-Criteria Analysis (2025-09)

10.3390/buildings15183307

 Alonso-Cañon Sara,  Blanco-Fernandez Elena,  Cuesta-Astorga Eva,  Indacoechea-Vega Irune,  Salas-Álvarez Joaquín
Journal Article - Buildings, Vol. 15, Iss. 18, No. 3307

Abstract

High-performance concrete for 3D printing has recently attracted significant attention due to its potential to create structural elements without the need for traditional reinforcement. While various formulations have been proposed by researchers, evaluations are often limited to mechanical performance and printability, while cost and environmental impact are generally overlooked. This study expands the analysis by also considering cost and environmental impact, aiming to identify the optimal mix using a multi-criteria decision-making analysis (MCDMA). In the first phase, several high-strength mortar formulations were developed and assessed based on mechanical strength, printability, environmental impact, and cost. In the second phase, the most promising mix from the initial evaluation was further modified by incorporating different types of fibers, including aramid, carbon, glass, cellulose, and polypropylene. Comprehensive testing—covering mechanical properties and printability—together with cost and a life cycle assessment were conducted to determine the most effective mortar formulations. One of the main findings is that adding 0.05% of 20 mm length cellulose fibers in weight to a mortar containing Cem I 42.5R can increase the compressive strength by more than 9% without affecting the cost or environmental impact, also allowing the obtainment of a mortar apt for 3D printing. This increase in the compression strength is presumably related to a lateral restriction in movements of the mortar, which makes it increase the maximal principal stresses, and thus, its strength.

27 References

  1. Alonso-Cañon Sara, Alonso-Estebanez Alejandro, Yoris-Nobile Adrian, Brunčič Ana et al. (2025-08)
    Rheological Parameter Ranges for 3D Printing Sustainable Mortars Using a New Low-Cost Rotational Rheometer
  2. Alonso-Cañon Sara, Blanco-Fernandez Elena, Castro-Fresno Daniel, Yoris-Nobile Adrian et al. (2024-08)
    Comparison of Reinforcement-Fibers in 3D Printing Mortars Using Multi-Criteria Analysis
  3. Arunothayan Arun, Nematollahi Behzad, Khayat Kamal, Ramesh Akilesh et al. (2022-11)
    Rheological Characterization of Ultra-High-Performance Concrete for 3D Printing
  4. Bazli Milad, Ashrafi Hamed, Rajabipour Ali, Kutay Cat (2023-02)
    3D Printing for Remote Housing:
    Benefits and Challenges
  5. Buswell Richard, Silva Wilson, Jones Scott, Dirrenberger Justin (2018-06)
    3D Printing Using Concrete-Extrusion:
    A Roadmap for Research
  6. Cho Eunsan, Gwon Seongwoo, Cha Soowon, Shin Myoungsu (2025-04)
    Impact of Accelerator on Rheological Properties of Cement Composites with Cellulose Microfibers:
    3D Printing Perspective
  7. Chu Shaohua, Li Leo, Kwan Albert (2020-09)
    Development of Extrudable High-Strength Fiber-Reinforced Concrete Incorporating Nano-Calcium-Carbonate
  8. Gomaa Shady, Irizarry Elmer, Ahmed Ayesha, Rosa Raul et al. (2024-11)
    3D Printing of Ultra-High-Performance Concrete:
    Shape Stability for Various Printing Systems
  9. Hambach Manuel, Möller Hendrik, Neumann Thomas, Volkmer Dirk (2016-08)
    Portland-Cement-Paste with Aligned Carbon-Fibers Exhibiting Exceptionally High Flexural Strength (>100 MPa)
  10. Hambach Manuel, Volkmer Dirk (2017-02)
    Properties of 3D Printed Fiber-Reinforced Portland-Cement-Paste
  11. Marchment Taylor, Sanjayan Jay (2020-09)
    Bond Properties of Reinforcing Bar Penetrations in 3D Concrete Printing
  12. Mohan Manu, Rahul Attupurathu, Dam Benjamin, Zeidan Talina et al. (2022-02)
    Performance Criteria, Environmental Impact and Cost-Assessment for 3D Printable Concrete Mixtures
  13. Nematollahi Behzad, Vijay Praful, Sanjayan Jay, Nazari Ali et al. (2018-11)
    Effect of Polypropylene Fiber Addition on Properties of Geopolymers Made by 3D Printing for Digital Construction
  14. Panda Biranchi, Paul Suvash, Tan Ming (2017-07)
    Anisotropic Mechanical Performance of 3D Printed Fiber-Reinforced Sustainable Construction-Material
  15. Pham Luong, Tran Jonathan, Sanjayan Jay (2020-04)
    Steel-Fiber-Reinforced 3D Printed Concrete:
    Influence of Fiber Sizes on Mechanical Performance
  16. Rajendran Naveenkumar, Runge Troy, Bergman Richard, Nepal Prakash et al. (2025-03)
    Economic and Environmental Impact Analysis of Cellulose Nanocrystal-Reinforced Cementitious Mixture in 3D Printing
  17. Salet Theo, Ahmed Zeeshan, Bos Freek, Laagland Hans (2018-05)
    Design of a 3D Printed Concrete Bridge by Testing
  18. Singh Amardeep, Liu Qiong, Xiao Jianzhuang, Lyu Qifeng (2022-02)
    Mechanical and Macrostructural Properties of 3D Printed Concrete Dosed with Steel-Fibers under Different Loading-Direction
  19. Sun Hou-Qi, Zeng Jun-Jie, Hong Guang-Yao, Zhuge Yan et al. (2025-01)
    3D Printed Functionally Graded Concrete Plates:
    Concept and Bending Behavior
  20. Sun Xiaoyan, Zhou Jiawei, Wang Qun, Shi Jiangpeng et al. (2021-11)
    PVA-Fiber-Reinforced High-Strength Cementitious Composite for 3D Printing:
    Mechanical Properties and Durability
  21. Wang Chaofan, Chen Bing, Vo Thanh, Rezania Mohammad (2023-07)
    Mechanical Anisotropy, Rheology and Carbon Footprint of 3D Printable Concrete:
    A Review
  22. Yoris-Nobile Adrian, Lizasoain-Arteaga Esther, Slebi-Acevedo Carlos, Blanco-Fernandez Elena et al. (2022-07)
    Life-Cycle-Assessment and Multi-Criteria Decision-Making-Analysis to Determine the Performance of 3D Printed Cement Mortars and Geopolymers
  23. Yu Kequan, McGee Wesley, Ng Tsz, Zhu He et al. (2021-02)
    3D Printable Engineered Cementitious Composites:
    Fresh and Hardened Properties
  24. Yu Qian, Zhu Binrong, Li Xuesen, Meng Lingqi et al. (2023-04)
    Investigation of the Rheological and Mechanical Properties of 3D Printed Eco-Friendly Concrete with Steel-Slag
  25. Zat Tuani, Schuster Sílvio, Schmitt Duarte Ester, Freitas Daudt Natália et al. (2025-03)
    Rheological Properties of High-Performance Concrete Reinforced with Microfibers and Their Effects on 3D Printing Process
  26. Zeng Jun-Jie, Hu Xianwen, Sun Hou-Qi, Liu Yue et al. (2024-10)
    Triaxial Compressive Behavior of 3D Printed PE-Fiber-Reinforced Ultra-High-Performance Concrete
  27. Zhou Yiyi, Jiang Dan, Sharma Rahul, Xie Yi et al. (2022-11)
    Enhancement of 3D Printed Cementitious Composite by Short Fibers:
    A Review

0 Citations

BibTeX
@article{alon_blan_cues_inda.2025.SotB3PHPMUMCA,
  author            = "Sara Alonso-Cañon and Elena Blanco-Fernandez and Eva Cuesta-Astorga and Irune Indacoechea-Vega and Joaquín Salas-Álvarez",
  title             = "Selection of the Best 3D Printing High-Performance Mortars Using Multi-Criteria Analysis",
  doi               = "10.3390/buildings15183307",
  year              = "2025",
  journal           = "Buildings",
  volume            = "15",
  number            = "18",
  pages             = "3307",
}
Formatted Citation

S. Alonso-Cañon, E. Blanco-Fernandez, E. Cuesta-Astorga, I. Indacoechea-Vega and J. Salas-Álvarez, “Selection of the Best 3D Printing High-Performance Mortars Using Multi-Criteria Analysis”, Buildings, vol. 15, no. 18, p. 3307, 2025, doi: 10.3390/buildings15183307.

Alonso-Cañon, Sara, Elena Blanco-Fernandez, Eva Cuesta-Astorga, Irune Indacoechea-Vega, and Joaquín Salas-Álvarez. “Selection of the Best 3D Printing High-Performance Mortars Using Multi-Criteria Analysis”. Buildings 15, no. 18 (2025): 3307. https://doi.org/10.3390/buildings15183307.