Compressive Strength and Modulus of Elasticity (2025-06)¶
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Journal Article - Materials and Structures, Vol. 58, Iss. 5
Abstract
Traditional construction techniques, such as in-situ casting and pre-cast concrete methods, have well-established testing protocols for assessing compressive strength and modulus of elasticity, including specific procedures for sample preparation and curing. In contrast, 3D concrete printing currently lacks standardized testing protocols, potentially contributing to the inconsistent results reported in previous studies. To address this issue, RILEM TC 304-ADC initiated a comprehensive interlaboratory study on the mechanical properties of 3D printed concrete. This study involves 30 laboratories worldwide, contributing 34 sets of data, with some laboratories testing more than one mix design. The compressive strength and modulus of elasticity were determined under three distinct conditions: Default, where each laboratory printed according to their standard procedure followed by water bath curing; Deviation 1, which involved creating a cold joint by increasing the time interval between printing layers; and Deviation 2, where the standard printing process was used, but the specimens were cured under conditions different from water bath. Some tests were conducted at two different scales based on specimen size—“mortar-scale” and “concrete-scale”—to investigate the size effect on compressive strength. Since the mix design remained identical for both scales, the only variable was the specimen size. This paper reports on the findings from the interlaboratory study, followed by a detailed investigation into the influencing parameters such as extraction location, cold joints, number of interlayers, and curing conditions on the mechanical properties of the printed concrete. As this study includes results from laboratories worldwide, its contribution to the development of relevant standardized testing protocols is critical.
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5 References
- Le Thanh, Austin Simon, Lim Sungwoo, Buswell Richard et al. (2012-01)
Hardened Properties of High-Performance Printing Concrete - Mechtcherine Viktor, Nerella Venkatesh, Will Frank, Näther Mathias et al. (2019-08)
Large-Scale Digital Concrete Construction:
CONPrint3D Concept for On-Site, Monolithic 3D Printing - Muthukrishnan Shravan, Ramakrishnan Sayanthan, Sanjayan Jay (2021-06)
Technologies for Improving Buildability in 3D Concrete Printing - Şahin Hatice, Mardani Ali (2021-12)
Assessment of Materials, Design Parameters and Some Properties of 3D Printing Concrete Mixtures:
A State of the Art Review - Wolfs Robert, Bos Freek, Salet Theo (2019-03)
Hardened Properties of 3D Printed Concrete:
The Influence of Process Parameters on Inter-Layer Adhesion
5 Citations
- Bharti Mrityunjay, Menon Arun, Santhanam Manu (2026-01)
Experimental Study of Hardened Properties of 3D-Printed Concrete Under Compression, Tension and Shear Considering Interlayer Influence - Liu Xingzi, Buswell Richard, Cavalaro Sergio, Xu Jie et al. (2026-01)
Influence of Inter-Filament Voids on the Failure Mechanism and Compressive Strength of 3D Printed Concrete - Subramaniam Kolluru, Maganty Sohanth, Kamakshi Tippabhotla, Ghandhi Dhruv et al. (2025-12)
Design and Deployment of a Functionally Efficient 3D-Printed Concrete Bridge Developed by Form Optimization - Giulivo Marco, Capozzi Vittorio, Menna Costantino (2025-10)
Experimental and Analytical Assessment of the in-Plane Behaviour of 3D Printed Concrete Walls Subjected to Cyclic Loads - Teng Fei, Yang Minxin, Yu Jie, Weng Yiwei et al. (2025-10)
Multi-Material 3D Concrete Printing:
Automated Hybrid Reinforcements Using Textile and Strain-Hardening Cementitious Composites
BibTeX
@article{mech_muth_robe_wolf.2025.CSaMoE,
author = "Viktor Mechtcherine and Shravan Muthukrishnan and Annika Robens-Radermacher and Robert Johannes Maria Wolfs and Jelle Versteege and Costantino Menna and Onur Ozturk and Nilüfer Özyurt and Josef Roupec and Christiane Richter and Jörg Jungwirth and Luiza R. M. de Miranda and Rebecca Ammann and Jean-François Caron and Victor de Bono and Renata Monte and Iván Navarrete and Claudia Eugenin and Hélène Lombois-Burger and Bilal Baz and Māris Šinka and Alise Sapata and Ilhame Harbouz and Yamei Zhang and Zijian Jia and Jacques Pienaar Kruger and Jean-Pierre Mostert and Mateja Štefančič and Lucija Hanžič and Abdelhak Kaci and Said Rahal and Manu Santhanam and Shantanu Bhattacherjee and Chalermwut Snguanyat and Arun Ravendran Arunothayan and Zengfeng Zhao and Inka Mai (née Dressler) and Inken Jette Rasehorn and David Böhler and Niklas Freund and Dirk Lowke and Tobias Neef and Markus Taubert and Daniel Auer and Christian Maximilian Hechtl and Maximilian Dahlenburg and Laura Esposito and Richard A. Buswell and John Temitope Kolawole and Muhammed Nura Isa and Xingzi Liu and Zhendi Wang and Kolluru V. L. Subramaniam and Freek Paul Bos",
title = "Compressive Strength and Modulus of Elasticity: Mechanical Properties of 3D Printed Concrete",
doi = "10.1617/s11527-025-02688-9",
year = "2025",
journal = "Materials and Structures",
volume = "58",
number = "5",
}
Formatted Citation
V. Mechtcherine, “Compressive Strength and Modulus of Elasticity: Mechanical Properties of 3D Printed Concrete”, Materials and Structures, vol. 58, no. 5, 2025, doi: 10.1617/s11527-025-02688-9.
Mechtcherine, Viktor, Shravan Muthukrishnan, Annika Robens-Radermacher, Robert Johannes Maria Wolfs, Jelle Versteege, Costantino Menna, Onur Ozturk, et al.. “Compressive Strength and Modulus of Elasticity: Mechanical Properties of 3D Printed Concrete”. Materials and Structures 58, no. 5 (2025). https://doi.org/10.1617/s11527-025-02688-9.