Exploring Architectural Language evolution as a consequence of 3D-Printed Concrete Technology

Authors

  • Juan Carlos Dall’Asta Xi’an Jiaotong – Liverpool University
  • Giancarlo Di Marco Xi’an Jiaotong – Liverpool University

Keywords:

3D-printed concrete, robotic fabrication, architectural language, materiality, 3d texture

Abstract

The convergence of innovative 3D printing technology
and high-performance concrete mixes introduces a
potential paradigm shift in architectural design and
the entire Architecture Engineering Construction
(AEC) industry, addressing important issues like the
implementation of Construction 4.0 (the equivalent of
Industry 4.0 for construction) and Sustainability The
ongoing research project forms part of an articulated
interdisciplinary and international endeavour at the
intersection of Architecture and Civil Engineering, with
three funded projects aiming to define firstly a rationale
for the industrial applications of 3D-printed concrete
(3DPC) and secondly the architectural value of this
relatively new technology. The research is conducted
in collaboration with an industrial partner specializing
in large-scale concrete 3D printing, making it possible
to assess the feasibility of the research outcomes at
the industrial scale. This article reports on the first
phases of the research, consisting in the production
and testing of 3DPC specimens with different types of
concrete mix, and explores the transformative impact
of 3DPC on the architectural language, considering its
aesthetic, functional, and cultural dimensions. Through
a literature review, examining case studies, theoretical
frameworks, and prototyping, this paper opens a
reflection on the implications of applying this innovative
technology to architectural expression and spatial
configurations.

Downloads

Download data is not yet available.

References

Aghaei Meibodi, M., Jipa, A., Giesecke, R., Shammas, D., Bernhard, M., Leschok, M., Graser, K. & Dillenburger, B. (2018). Smart Slab: Computational Design and Digital Fabrication of a Lightweight Concrete Slab. https://doi.org/10.52842/conf.acadia.2018.434

Alkadhim, H. A., Amin, M. N., Ahmad, W., Khan, K., Umbreen-us-Sahar, Al-Hashem, M. N. & Mohamed, A. (2022). An overview of progressive advancement in ultra-high-performance concrete with steel fibers. Frontiers in Materials, 9. https://www.frontiersin.org/articles/10.3389/fmats.2022.1091867

Brument, F., & Laugier, S. (2012). Voxel Chair. François Brument and Sonia Laugier.

Dillenburger, B., & Hansmeyer, M. (2017). Digital Grotesque. Michael Hansmeyer and Benjamin Dillenburger.

Di Marco, G. (2018), Simplified Complexity – Method for Advanced NURBS Modeling with Rhinoceros, Le Penseur, Potenza, Italia.

Di Marco, G. & Dall’Asta, J. C. (July, 2023). Architectural materiality as an image of the future past: 3D printed concrete at the intersection of aesthetic language evolution and technological development. IMG23 Atti del IV Convegno Internazionale e Interdisciplinare su Immagini e Immaginazione. L’Aquila.

Gosselin, C., & Duballet, R. (2016). Towards an Integrated Design Process in 3D Concrete Printing. Proceedings of the International Conference on Digital Fabrication. Fabricate.

Hadid, Z. (2019). Bespoke Vase Series. Zaha Hadid Architects.

Hansmeyer, M., & Dillenburger, B. (2015). Digital Grotesque II. Michael Hansmeyer and Benjamin Dillenburger.

LEAD. (n.d.). Wave Table. Laboratory for Explorative Architecture & Design.

Loos, A. (2014). Parole nel vuoto. Adelphi Edizioni spa.

Matter Design. (2019). Light Cave. Matter Design.

Melenka, G., Cheung, B., Schofield, J., Dawson, M. & Carey, J. (2016). Evaluation and Prediction of the Tensile Properties of Continuous Fiber-Reinforced 3D Printed Structures. Composite Structures, 153. https://doi.org/10.1016/j.compstruct.2016.07.018.

Monteiro, P. (2006). Concrete: microstructure, properties, and materials. McGraw-Hill Publishing.

Norberg Schulz, C. (2011). Genius loci: paesaggio, ambiente, architettura. Mondadori Electa.

Oxman, N., & Mediated Matter Group. (2016). Silk Pavilion II. Mediated Matter Group.

Quan, D., Herr, C., Lombardi, D., Gao, Z. and Xia, J. (September, 2022). Prototyping Parametrically Designed Fiber-reinforced Concrete Façade Elements Using 3D Printed Formwork. Proceedings of the IASS 2022 Symposium affiliated with APCS 2022 conference. Beijing.

Quinn, G. (2018). Curve Appeal. Gregory Quinn.

Sabate, J. (2003). Materiality. Carlos Ferrater, Barcelona: Actar publishers.

Schlueter, A., & Thomsen, M. R. (2017). Collaborative Design Strategies in Architectural Design. Proceedings of the 1st International Conference on Progress in Additive Manufacturing (Pro-AM 2016).

SHoP Architects. (2020). Bloom. SHoP Architects.

Tedeschi, A. & Lombardi, D. (2018). The Algorithms-Aided Design (AAD). In M. Hemmerling & L. Cocchiarella (Eds.), Informed Architecture: Computational Strategies in Architectural Design (pp. 33–38). Springer International Publishing. https://doi.org/10.1007/978-3-319-53135-9_4

United Nations Environment Programme. (2023). 2022 Global Status Report for Buildings and Construction: Towards a Zero emission, Efficient and Resilient Buildings and Construction Sector. Nairobi.

Xiao, J., Liu, H., Ding, T. & Ma, G. (2021). 3D printed concrete components and structures: An overview”, Sustainable Structures, 1(2), https://doi.org/10.54113/j.sust.2021.000006

Zumthor, P. (2006). Atmospheres: architectural environments, surrounding objects. Birkhäuser, Cop.

Published

2024-01-01

How to Cite

Dall’Asta, J. C., & Di Marco, G. (2024). Exploring Architectural Language evolution as a consequence of 3D-Printed Concrete Technology. Eidos, 17(23), 25–38. Retrieved from https://revistas.ute.edu.ec/index.php/eidos/article/view/1281