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Comparative Environmental Impact Assessment of 3D Concrete Printing and Precast Techniques in Bridge Construction (2025-10)

A Case Study Analysis

10.1061/jcemd4.coeng-16810

Ataei Sarah,  Jafari Amirhosein
Journal Article - Journal of Construction Engineering and Management, Vol. 152, Iss. 1

Abstract

This study conducted a comparative environmental impact assessment specifically investigating three-dimensional (3D) concrete printing (CP) and precast construction techniques applied to bridge construction. Using a cradle-to-site life-cycle assessment (LCA), including both Intergovernmental Panel on Climate Change (IPCC) 2013 global warming potential (GWP) indicators and ReCiPe Midpoint (H) impact assessment methods, the study evaluated key sustainability metrics such as GWP, human toxicity, particulate matter formation, freshwater ecotoxicity, material efficiency, and energy consumption. A case study of an 8-m-long pedestrian bridge constructed using 3DCP was compared directly with an equivalent precast concrete bridge modeled with identical dimensions. The results demonstrated that 3DCP offers substantial environmental advantages, reducing total CO2 emissions by 64.3% compared with precast techniques. This significant reduction is attributed primarily to the elimination of formwork, reduced steel reinforcement requirements, and precise material placement, which contribute to lower environmental impacts across multiple stages of construction. Conversely, precast construction results in higher emissions due to heavier structural components, increased material usage, and energy-intensive formwork production and handling processes. However, the continuous operation of 3D printing equipment leads to greater energy consumption during the off-site construction phase, presenting a notable challenge. Overall, this research specifically highlights the environmental advantages and limitations of 3DCP and precast methods, emphasizing the potential of 3DCP to substantially enhance sustainability in construction through improved material efficiency, reduced emissions, and innovative design approaches. The primary contributions of this research include quantifying the precise environmental benefits and challenges associated with 3DCP, offering insights into targeted optimization opportunities, and providing foundational evidence to guide sustainable construction decision-making.

32 References

  1. Agustí-Juan Isolda, Müller Florian, Hack Norman, Wangler Timothy et al. (2017-04)
    Potential Benefits of Digital Fabrication for Complex Structures:
    Environmental Assessment of a Robotically Fabricated Concrete Wall
  2. Alhumayani Hashem, Gomaa Mohamed, Soebarto Veronica, Jabi Wassim (2020-06)
    Environmental Assessment of Large-Scale 3D Printing in Construction:
    A Comparative Study between Cob and Concrete
  3. Asensio Javier, Josa Irene, Monserrat Andrea, Fuente Albert (2023-09)
    3D‐Printed Concrete Footbridges:
    An Approach to Assess the Sustainability Performance
  4. Bianchi Iacopo, Volpe Stelladriana, Fiorito Francesco, Forcellese Archimede et al. (2024-01)
    Life Cycle Assessment of Building Envelopes Manufactured Through Different 3D Printing Technologies
  5. Bos Freek, Ahmed Zeeshan, Jutinov Evgeniy, Salet Theo (2017-11)
    Experimental Exploration of Metal-Cable as Reinforcement in 3D Printed Concrete
  6. Bos Freek, Wolfs Robert, Ahmed Zeeshan, Salet Theo (2016-08)
    Additive Manufacturing of Concrete in Construction:
    Potentials and Challenges of 3D Concrete Printing
  7. Ghaffar Seyed, Corker Jorge, Fan Mizi (2018-05)
    Additive Manufacturing Technology and Its Implementation in Construction as an Eco-Innovative Solution
  8. Gislason Styrmir, Bruhn Simon, Breseghello Luca, Sen Burak et al. (2022-06)
    Porous 3D Printed Concrete Beams Show an Environmental Promise:
    A Cradle-to-Grave Comparative Life Cycle Assessment
  9. Liu Siyu, Lu Bing, Li Hongliang, Pan Zehua et al. (2022-03)
    A Comparative Study on Environmental Performance of 3D Printing and Conventional Casting of Concrete Products with Industrial Wastes
  10. Lloret-Fritschi Ena, Wangler Timothy, Gebhard Lukas, Mata-Falcón Jaime et al. (2020-05)
    From Smart Dynamic Casting to a Growing Family of Digital Casting Systems
  11. Long Wujian, Tao Jie-Lin, Lin Can, Gu Yucun et al. (2019-08)
    Rheology and Buildability of Sustainable Cement-Based Composites Containing Micro-Crystalline Cellulose for 3D Printing
  12. Ma Guowei, Li Yanfeng, Wang Li, Zhang Junfei et al. (2020-01)
    Real-Time Quantification of Fresh and Hardened Mechanical Property for 3D Printing Material by Intellectualization with Piezoelectric Transducers
  13. Marchment Taylor, Sanjayan Jay, Xia Ming (2019-03)
    Method of Enhancing Inter-Layer Bond Strength in Construction-Scale 3D Printing with Mortar by Effective Bond Area Amplification
  14. Miryousefi Ata Sara, Kazemian Ali, Jafari Amirhosein (2022-03)
    Application of Concrete 3D Printing for Bridge Construction:
    Current Challenges and Future Directions
  15. Mohammad Malek, Masad Eyad, Ghamdi Sami (2020-12)
    3D Concrete Printing Sustainability:
    A Comparative Life Cycle Assessment of Four Construction Method Scenarios
  16. Motalebi Arash, Khondoker Mohammad, Kabir Golam (2023-08)
    A Systematic Review of Life Cycle Assessments of 3D Concrete Printing
  17. Munir Qaisar, Peltonen Riku, Kärki Timo (2021-08)
    Printing Parameter Requirements for 3D Printable Geopolymer Materials Prepared from Industrial Side Streams
  18. Nan Bo, Qiao Youxin, Leng Junjie, Bai Yikui (2025-01)
    Advancing Structural Reinforcement in 3D Printed Concrete:
    Current Methods, Challenges, and Innovations
  19. Ngo Tuan, Kashani Alireza, Imbalzano Gabriele, Nguyen Quynh et al. (2018-02)
    Additive Manufacturing (3D Printing):
    A Review of Materials, Methods, Applications and Challenges
  20. Pons-Valladares Oriol, Casanovas-Rubio Maria, Armengou Jaume, Fuente Albert (2023-02)
    Approach for Sustainability-Assessment for Footbridge Construction Technologies:
    Application to the First World D-Shape 3D Printed Fiber-Reinforced Mortar Footbridge in Madrid
  21. Rehman Atta, Kim Jung-Hoon (2021-07)
    3D Concrete Printing:
    A Systematic Review of Rheology, Mix Designs, Mechanical, Microstructural, and Durability Characteristics
  22. Roux Charlotte, Kuzmenko Kateryna, Roussel Nicolas, Mesnil Romain et al. (2022-11)
    Life Cycle Assessment of a Concrete 3D Printing Process
  23. Salet Theo, Ahmed Zeeshan, Bos Freek, Laagland Hans (2018-05)
    Design of a 3D Printed Concrete Bridge by Testing
  24. Schuldt Steven, Jagoda Jeneé, Hoisington Andrew, Delorit Justin (2021-03)
    A Systematic Review and Analysis of the Viability of 3D Printed Construction in Remote Environments
  25. Schutter Geert, Lesage Karel, Mechtcherine Viktor, Nerella Venkatesh et al. (2018-08)
    Vision of 3D Printing with Concrete:
    Technical, Economic and Environmental Potentials
  26. Soto Borja, Agustí-Juan Isolda, Hunhevicz Jens, Joss Samuel et al. (2018-05)
    Productivity of Digital Fabrication in Construction:
    Cost and Time-Analysis of a Robotically Built Wall
  27. Wangler Timothy, Lloret-Fritschi Ena, Reiter Lex, Hack Norman et al. (2016-10)
    Digital Concrete:
    Opportunities and Challenges
  28. Weng Yiwei, Li Mingyang, Ruan Shaoqin, Wong Teck et al. (2020-03)
    Comparative Economic, Environmental and Productivity-Assessment of a Concrete Bathroom Unit Fabricated Through 3D Printing and a Pre-Cast Approach
  29. Weng Yiwei, Ruan Shaoqin, Li Mingyang, Mo Liwu et al. (2019-06)
    Feasibility Study on Sustainable-Magnesium-Potassium-Phosphate Cement-Paste for 3D Printing
  30. Wolfs Robert, Bos Freek, Salet Theo (2018-02)
    Early-Age Mechanical Behaviour of 3D Printed Concrete:
    Numerical Modelling and Experimental Testing
  31. Xu Weiguo, Gao Yuan, Sun Chenwei, Wang Zhi (2020-09)
    Fabrication and Application of 3D Printed Concrete Structural Components in the Boshan Pedestrian Bridge Project
  32. Yao Yue, Hu Mingming, Maio Francesco, Cucurachi Stefano (2019-08)
    Life Cycle Assessment of 3D Printing Geopolymer Concrete:
    An Ex‐Ante Study

0 Citations

BibTeX
@article{atae_jafa.2026.CEIAo3CPaPTiBC,
  author            = "Sarah Ataei and Amirhosein Jafari",
  title             = "Comparative Environmental Impact Assessment of 3D Concrete Printing and Precast Techniques in Bridge Construction: A Case Study Analysis",
  doi               = "10.1061/jcemd4.coeng-16810",
  year              = "2026",
  journal           = "Journal of Construction Engineering and Management",
  volume            = "152",
  number            = "1",
}
Formatted Citation

S. Ataei and A. Jafari, “Comparative Environmental Impact Assessment of 3D Concrete Printing and Precast Techniques in Bridge Construction: A Case Study Analysis”, Journal of Construction Engineering and Management, vol. 152, no. 1, 2026, doi: 10.1061/jcemd4.coeng-16810.

Ataei, Sarah, and Amirhosein Jafari. “Comparative Environmental Impact Assessment of 3D Concrete Printing and Precast Techniques in Bridge Construction: A Case Study Analysis”. Journal of Construction Engineering and Management 152, no. 1 (2026). https://doi.org/10.1061/jcemd4.coeng-16810.