Embodied Carbon and Energy of Offsite 3D-Printed Concrete Walls (2026-04)¶
, ,
Journal Article - Journal of Building Engineering, No. 116001
Abstract
Construction 3D printing (C3DP) has emerged as a potential solution to the urgent need for housing around the world due to its promised advances in productivity. Similarly, offsite construction has gained traction for its ability to condense housing construction timelines and budgets. Combining these approaches could accomplish these improvements in tandem; however, the following case study shows that 3D-printed concrete walls have 54-99% higher embodied carbon and 33-45% higher embodied energy in comparison to the evaluated conventional methods (except for concrete block/brick exterior), largely due to material quantity and composition. Additionally, the transportation of C3DP wall panels can increase the offsite scenario’s total embodied carbon and energy beyond the on-site’s, depending on the number of truckloads, the material weight, and the shipping distance. Therefore, the sustainable adoption of offsite C3DP requires development of low-impact printable materials and the evaluation of these transportation metrics on a project-to-project basis.
¶
25 References
- Abdalla Hadeer, Fattah Kazi, Abdallah Mohamed, Tamimi Adil (2021-10)
Environmental Footprint and Economics of a Full-Scale 3D Printed House - Alabbasi Mohammad, Agkathidis Asterios, Chen Hanmei (2023-01)
Robotic 3D Printing of Concrete Building Components for Residential Buildings in Saudi Arabia - Anton Ana-Maria, Reiter Lex, Wangler Timothy, Frangez Valens et al. (2020-12)
A 3D Concrete Printing Prefabrication Platform for Bespoke Columns - Arunothayan Arun, Nematollahi Behzad, Ranade Ravi, Bong Shin et al. (2020-10)
Development of 3D Printable Ultra-High-Performance Fiber-Reinforced Concrete for Digital Construction - Babafemi Adewumi, Kolawole John, Miah Md, Paul Suvash et al. (2021-06)
A Concise Review on Inter-Layer Bond Strength in 3D Concrete Printing - Batikha Mustafa, Jotangia Rahul, Baaj Mohamad, Mousleh Ibrahim (2021-12)
3D Concrete Printing for Sustainable and Economical Construction:
A Comparative Study - Bhattacherjee Shantanu, Basavaraj Anusha, Rahul Attupurathu, Santhanam Manu et al. (2021-06)
Sustainable Materials for 3D Concrete Printing - Bianchi Iacopo, Volpe Stelladriana, Fiorito Francesco, Forcellese Archimede et al. (2024-01)
Life Cycle Assessment of Building Envelopes Manufactured Through Different 3D Printing Technologies - Bradford Katy, Gentry Russell, Alon Lola, Kurtis Kimberly (2025-08)
Construction 3D Printing Material Selection:
Minimizing Cost and Carbon Footprint of Residential Wall Assemblies - Cunha Jaime, Rangel Bárbara, Vilas-Boas Rodrigo (2026-01)
Evaluating the Environmental Efficiency of on-Site and Off-Site 3D Construction Printing:
A Roadmap Towards Sustainable Building Practices - Gnanaraj Anies, Moreno Leyla, Thabet Reham, Rangel Bárbara et al. (2026-01)
Comparative Analysis of Onsite Versus Offsite 3D Printing in Construction:
Benefits, Challenges, and Case Studies - Haar Bjorn, Kruger Jacques, Zijl Gideon (2023-05)
Off-Site Construction with 3D Concrete Printing - Hassan Habibelrahman, Rodriguez-Ubinas Edwin, Tamimi Adil, Trepci Esra et al. (2024-04)
Towards Innovative and Sustainable Buildings:
A Comprehensive Review of 3D Printing in Construction - Hossain Md., Zhumabekova Altynay, Paul Suvash, Kim Jong (2020-10)
A Review of 3D Printing in Construction and Its Impact on the Labor Market - Kuzmenko Kateryna, Ducoulombier Nicolas, Féraille Adélaïde, Roussel Nicolas (2022-05)
Environmental Impact of Extrusion-Based Additive Manufacturing:
Generic Model, Power-Measurements and Influence of Printing-Resolution - 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 - Moelich Gerrit, Kruger Jacques, Combrinck Riaan (2021-09)
Modelling the Inter-Layer Bond Strength of 3D Printed Concrete with Surface Moisture - Mohammad Malek, Masad Eyad, Ghamdi Sami (2020-12)
3D Concrete Printing Sustainability:
A Comparative Life Cycle Assessment of Four Construction Method Scenarios - Ramani Ayyagari, Chen Qian, Soto Borja (2023-08)
Quantifying the Impact of Concrete 3D Printing on the Construction Supply Chain - Rehman Atta, Kim Jung-Hoon (2021-07)
3D Concrete Printing:
A Systematic Review of Rheology, Mix Designs, Mechanical, Microstructural, and Durability Characteristics - Sayegh Sameh, Romdhane Lotfi, Manjikian Solair (2022-03)
A Critical Review of 3D Printing in Construction:
Benefits, Challenges, and Risks - Shahmirzadi Mohsen, Gholampour Aliakbar, Kashani Alireza, Ngo Tuan (2021-09)
Shrinkage Behavior of Cementitious 3D Printing Materials:
Effect of Temperature and Relative Humidity - 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 - Volpe Stelladriana, Sangiorgio Valentino, Petrella Andrea, Coppola Armando et al. (2021-08)
Building Envelope Prefabricated with 3D Printing Technology - Wang Xianggang, Jia Lutao, Jia Zijian, Zhang Chao et al. (2022-06)
Optimization of 3D Printing Concrete with Coarse Aggregate via Proper Mix-Design and Printing-Process
0 Citations
BibTeX
@article{brad_gent_kurt.2026.ECaEoO3PCW,
author = "Katy Bradford and Russell Gentry and Kimberly Kurtis",
title = "Embodied Carbon and Energy of Offsite 3D-Printed Concrete Walls",
doi = "10.1016/j.jobe.2026.116001",
year = "2026",
journal = "Journal of Building Engineering",
pages = "116001",
}
Formatted Citation
K. Bradford, R. Gentry and K. Kurtis, “Embodied Carbon and Energy of Offsite 3D-Printed Concrete Walls”, Journal of Building Engineering, p. 116001, 2026, doi: 10.1016/j.jobe.2026.116001.
Bradford, Katy, Russell Gentry, and Kimberly Kurtis. “Embodied Carbon and Energy of Offsite 3D-Printed Concrete Walls”. Journal of Building Engineering, 2026, 116001. https://doi.org/10.1016/j.jobe.2026.116001.