Skip to content

Behavior of 3D Printed Concrete Walls Exposed to High Temperatures (2025-09)

10.1061/jaeied.aeeng-2107

 Daungwilailuk Totsawat,  Pheinsusom Phoonsak,  Pansuk Withit
Journal Article - Journal of Architectural Engineering, Vol. 31, Iss. 4

Abstract

Fire accidents can occur in all types of buildings, even three-dimensional (3D) printed concrete structures. The 3D printed concrete exhibits increased susceptibility to interlayer delamination under high temperatures, a critical vulnerability that can undermine structural integrity. The behavior of 3D printed concrete walls under such conditions, however, has not yet been thoroughly investigated. Therefore, in this study, two patterns of large-scale wall specimens were constructed and exposed to temperatures of approximately 1,200°C for 4 h to monitor their behavior and determine the most effective pattern ofa 3D printed wall in a fire scenario. All wall specimens remained standing without failure, collapse, or fire penetration through cracks after heating. The inner truss of the wall mitigated the temperature gradient to the unexposed surface, where temperature reached 100°C. Finite-element analysis results revealed that vertical and horizontal cracking occurred due to thermal tensile stress exceeding the tensile strength of material. However, horizontal cracking was primarily due to delamination between interlayers in certain areas of the unexposed surface. This partial detachment facilitated the vaporization of internal moisture and prevented spalling and explosion ofthe surface during heating.

17 References

  1. Al-Qutaifi Sarah, Nazari Ali, Bagheri Ali (2018-07)
    Mechanical Properties of Layered Geopolymer Structures Applicable in Concrete 3D Printing
  2. Arunothayan Arun, Sanjayan Jay (2023-01)
    Elevated Temperature Effects on 3D Printed Ultra-High-Performance Concrete
  3. Asprone Domenico, Auricchio Ferdinando, Menna Costantino, Mercuri Valentina (2018-03)
    3D Printing of Reinforced Concrete Elements:
    Technology and Design Approach
  4. Baz Bilal, Aouad Georges, Rémond Sébastien (2020-01)
    Effect of the Printing Method and Mortar’s Workability on Pull-Out Strength of 3D Printed Elements
  5. Cicione Antonio, Kruger Jacques, Walls Richard, Zijl Gideon (2020-05)
    An Experimental Study of the Behavior of 3D Printed Concrete at Elevated Temperatures
  6. Daungwilailuk Totsawat, Pheinsusom Phoonsak, Pansuk Withit (2021-01)
    Uniaxial Load Testing of Large-Scale 3D Printed Concrete Wall and Finite-Element-Model-Analysis
  7. Dong Liang, Yang Yekai, Liu Zhongxian, Ren Quanchang et al. (2022-07)
    Microstructure and Mechanical Behavior of 3D Printed Ultra-High-Performance Concrete after Elevated Temperatures
  8. Falliano Devid, Domenico Dario, Ricciardi Giuseppe, Gugliandolo Ernesto (2020-04)
    3D Printable Lightweight Foamed Concrete and Comparison with Classical Foamed Concrete in Terms of Fresh State Properties and Mechanical Strength
  9. Holt Camille, Edwards Laurie, Keyte Louise, Moghaddam Farzad et al. (2019-02)
    Construction 3D Printing
  10. Moeini Mohammad, Hosseinpoor Masoud, Yahia Ammar (2020-05)
    Effectiveness of the Rheometric Methods to Evaluate the Build-Up of Cementitious Mortars Used for 3D Printing
  11. Pessoa Ana Sofia, Jesus Manuel, Guimarães Ana, Lucas Sandra et al. (2023-07)
    Experimental Characterisation of Hygrothermal Properties of a 3D Printed Cementitious Mortar
  12. Pham Luong, Tran Jonathan, Sanjayan Jay (2020-04)
    Steel-Fiber-Reinforced 3D Printed Concrete:
    Influence of Fiber Sizes on Mechanical Performance
  13. Wangler Timothy, Roussel Nicolas, Bos Freek, Salet Theo et al. (2019-06)
    Digital Concrete:
    A Review
  14. Weng Yiwei, Li Mingyang, Liu Zhixin, Lao Wenxin et al. (2018-12)
    Printability and Fire Performance of a Developed 3D Printable Fiber-Reinforced Cementitious Composites under Elevated Temperatures
  15. Wu Yun-Chen, Li Mo (2022-09)
    Effects of Early-Age Rheology and Printing Time Interval on Late-Age Fracture Characteristics of 3D Printed Concrete
  16. Zahabizadeh Behzad, Pereira João, Gonçalves Claúdia, Pereira Eduardo et al. (2021-03)
    Influence of the Printing-Direction and Age on the Mechanical Properties of 3D Printed Concrete
  17. Zhang Yu, Zhang Yunsheng, She Wei, Yang Lin et al. (2019-01)
    Rheological and Hardened Properties of the High-Thixotropy 3D Printing Concrete

0 Citations

BibTeX
@article{daun_phei_pans.2025.Bo3PCWEtHT,
  author            = "Totsawat Daungwilailuk and Phoonsak Pheinsusom and Withit Pansuk",
  title             = "Behavior of 3D Printed Concrete Walls Exposed to High Temperatures",
  doi               = "10.1061/jaeied.aeeng-2107",
  year              = "2025",
  journal           = "Journal of Architectural Engineering",
  volume            = "31",
  number            = "4",
}
Formatted Citation

T. Daungwilailuk, P. Pheinsusom and W. Pansuk, “Behavior of 3D Printed Concrete Walls Exposed to High Temperatures”, Journal of Architectural Engineering, vol. 31, no. 4, 2025, doi: 10.1061/jaeied.aeeng-2107.

Daungwilailuk, Totsawat, Phoonsak Pheinsusom, and Withit Pansuk. “Behavior of 3D Printed Concrete Walls Exposed to High Temperatures”. Journal of Architectural Engineering 31, no. 4 (2025). https://doi.org/10.1061/jaeied.aeeng-2107.