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Thermal Performance Improvement of Brick Design via 3D Printing (2025-06)

10.1201/9781003658641-158

Saad E.,  Correa David
Contribution - Structures and Architecture, pp. 1329-1336

Abstract

Additive manufacturing via 3D printing enables precise control over the mechanical properties of a component through the geometric definition of its layered composition. In relation to the construction field, traditional solid clay bricks have been developed for mass manufacturing and therefore have lacked thermal efficiency in their design. This research leverages 3D printing technology to test the potential to improve and optimize the thermal properties of construction bricks. This is achieved by precisely manipulating the brick’s geometry to enhance its thermal conductivity, without changing the material itself. This work utilizes digital simulation in combination with 3D printing to create full-scale material models to evaluate the thermal efficiency of the proposed geometry. The key impact of this research is to advance the development of brick geometry while also assessing the potential for 3D-printed designs for construction. The findings from this paper can contribute towards the reduction of material waste and labor-intensive processes in traditional methods.

BibTeX
@inproceedings{saad_corr.2025.TPIoBDv3P,
  author            = "E. Saad and David Correa",
  title             = "Thermal Performance Improvement of Brick Design via 3D Printing",
  doi               = "10.1201/9781003658641-158",
  year              = "2025",
  pages             = "1329--1336",
  booktitle         = "Structures and Architecture",
  editor            = "Mario Rinke and Marie Frier Hvejsel",
}
Formatted Citation

E. Saad and D. Correa, “Thermal Performance Improvement of Brick Design via 3D Printing”, in Structures and Architecture, 2025, pp. 1329–1336. doi: 10.1201/9781003658641-158.

Saad, E., and David Correa. “Thermal Performance Improvement of Brick Design via 3D Printing”. In Structures and Architecture, edited by Mario Rinke and Marie Frier Hvejsel, 1329–36, 2025. https://doi.org/10.1201/9781003658641-158.