Skip to content

The Viability and Simplicity of 3D Printed Construction (2020-04)

A Military Case Study

10.3390/infrastructures5040035

Jagoda Jeneé,  Diggs-McGee Brandy,  Kreiger Megan,  Schuldt Steven
Journal Article - Infrastructures, Vol. 5, Iss. 4

Abstract

In November 2019, U.S. Marines, Air Force, and Army Corps of Engineers personnel demonstrated the viability and simplicity of three-dimensionally (3D)-printed construction in a controlled environment at the U.S. Army Engineer Research and Development Center—Construction Engineering Research Laboratory in Champaign, Illinois. The tri-service exercise spanned three days and culminated in the construction of three 1 m × 1 m × 1 m (3 ft × 3 ft × 3 ft) concrete dragon’s teeth (square pyramid military fortifications used to defend against tanks and armored vehicles) and several custom-designed objects. The structural components were printed using a custom-built, gantry-style printer called ACES Lite 2 and a commercially available, proprietary mortar mix. This paper examines the viability of using 3D-printed construction in remote, isolated, and expeditionary environments by considering the benefits and challenges associated with the printing materials, structural design, process efficiency, labor demands, logistical considerations, environmental impact, and project cost. Based on the results of this exercise, 3D-printed construction was found to be faster, safer, less labor-intensive, and more structurally efficient than conventional construction methods: the dragon’s teeth were printed in an average of 57 min each and required only two laborers. However, the use of commercially procured, pre-mixed materials introduced additional cost, logistical burden, and adverse environmental impact as compared to traditional, on-site concrete mixing and production. Finally, this paper suggests future applications and areas of further research for 3D-printed construction.

12 References

  1. Agustí-Juan Isolda, Habert Guillaume (2016-11)
    Environmental Design Guidelines for Digital Fabrication
  2. Diggs-McGee Brandy, Kreiger Eric, Kreiger Megan, Case Michael (2019-04)
    Print Time vs. Elapsed Time:
    A Temporal Analysis of a Continuous Printing Operation for Additive Constructed Concrete
  3. Geneidy Omar, Ismaeel Walaa, Abbas Ayman (2019-04)
    A Critical Review for Applying Three-Dimensional Concrete Wall Printing Technology in Egypt
  4. Ghaffar Seyed, Corker Jorge, Fan Mizi (2018-05)
    Additive Manufacturing Technology and Its Implementation in Construction as an Eco-Innovative Solution
  5. Jassmi Hamad, Najjar Fady, Mourad Abdel-Hamid (2018-04)
    Large-Scale 3D Printing:
    The Way Forward
  6. Khoshnevis Behrokh, Russell Richard, Kwon Hongkyu, Bukkapatnam Satish (2001-09)
    Crafting Large Prototypes
  7. Kreiger Eric, Kreiger Megan, Case Michael (2019-04)
    Development of the Construction Processes for Reinforced Additively Constructed Concrete
  8. Ma Guowei, Zhang Junfei, Wang Li, Li Zhijian et al. (2018-06)
    Mechanical Characterization of 3D Printed Anisotropic Cementitious Material by the Electromechanical Transducer
  9. Paul Suvash, Zijl Gideon, Tan Ming, Gibson Ian (2018-05)
    A Review of 3D Concrete Printing Systems and Materials Properties:
    Current Status and Future Research Prospects
  10. Schutter Geert, Lesage Karel, Mechtcherine Viktor, Nerella Venkatesh et al. (2018-08)
    Vision of 3D Printing with Concrete:
    Technical, Economic and Environmental Potentials
  11. Tay Yi, Ting Guan, Panda Biranchi, He Lewei et al. (2018-05)
    Bond Strength of 3D Printed Concrete
  12. Tay Yi, Ting Guan, Qian Ye, Panda Biranchi et al. (2018-07)
    Time-Gap-Effect on Bond Strength of 3D Printed Concrete

31 Citations

  1. Diggs-McGee Brandy, Samouh Hamza, Garg Nishant (2025-11)
    Predicting Cementitious Set Times via Infrared Thermography:
    Potential Implications on Real-Time Quality Control During 3D Concrete Printing
  2. Yang Xinrui, Lakhal Othman, Belarouci Abdelkader, Merzouki Rochdi (2025-10)
    Adaptive Velocity Compensation for Optimal 3D Concrete Printing in Uncontrolled Environments
  3. Panchal Priyanka, Choi Myoungsung (2025-07)
    A Review on Effect of Natural Fibers to Mitigate CO2 Footprint and Enhance Engineering Properties of 3D Printing Concrete
  4. Zhang Chao, Ren Juanjuan, Zhang Shihao, Guo Yipu et al. (2025-07)
    Advanced Impact Resistance Design Through 3D-Printed Concrete Technology:
    Unleashing the Potential of Additive Manufacturing for Protective Structures
  5. Placzek Gerrit, Dahlberg Maike, Thormählen Jan, Schwerdtner Patrick (2025-06)
    How Productive Is 3D Concrete Printing?:
    A Systematic Review
  6. Khan Mirza, Ahmed Aayzaz, Ali Tariq, Qureshi Muhammad et al. (2024-12)
    Comprehensive Review of 3D Printed Concrete, Life Cycle Assessment, AI and ML Models:
    Materials, Engineered Properties and Techniques for Additive Manufacturing
  7. Loaiza Sebastián, Ortiz Albert, Gómez Daniel, García Alvarez José et al. (2024-11)
    3D Printing Applied to Building Development Around the World:
    A Systematic Literature Review
  8. Johnson Carol, Jordan Joseph, Kreiger Eric, Kreiger Megan (2024-09)
    Blast Response of Additively Constructed Concrete
  9. Kreiger Megan, Kreiger Eric, Mansour Stephan, Monkman Sean et al. (2024-09)
    Additive Construction in Practice:
    Realities of Acceptance Criteria
  10. Soto Rubio Mauricio, Mirza Muhammad, Kagdi Mustafa, Bisati Ahmad (2024-08)
    Examining the Role of Concrete 3D Printing for Housing Construction on Indigenous Reserves in Canada
  11. Vallurupalli Kavya, Libre Nicolas, Khayat Kamal (2024-04)
    Characterization of Extrudability Using Rheology and Desorptivity
  12. Pan Jinlong, Ping Pengxin, Ding Boyin, Zhu Binrong et al. (2024-03)
    Impact Behavior of 3D Printed Fiber-Reinforced Cementitious Composite Beams
  13. Rocha Douglas, Faria Paulina, Lucas Sandra (2023-12)
    Additive Manufacturing of Earth-Based Materials:
    A Literature Review on Mortar-Composition, Extrusion, and Processing Earth
  14. Li Haodao, Addai-NImoh Alfred, Kreiger Eric, Khayat Kamal (2023-12)
    Methodology to Design Eco-Friendly Fiber-Reinforced Concrete for 3D Printing
  15. Dijkers Hugo, Simon George, Bos Freek, Salet Theo et al. (2023-05)
    Material-Characteristics of 3D Printed Concrete Subjected to Highly Dynamic Loading
  16. Mogaji Iseoluwa, Mewomo Modupe, Toyin James (2023-05)
    Key Barriers to the Adoption of 3D Printing Innovation in Construction:
    A Review of Empirical Studies
  17. Simioni Fernanda, Rangel Bárbara, Campos Nadine, Teixeira João (2023-04)
    3D Printing for Construction:
    A Systematic Review of Its Sustainability
  18. 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
  19. Bazli Milad, Ashrafi Hamed, Rajabipour Ali, Kutay Cat (2023-02)
    3D Printing for Remote Housing:
    Benefits and Challenges
  20. Ahmed Ghafur (2023-01)
    A Review of 3D Concrete Printing:
    Materials and Process Characterization, Economic Considerations and Environmental Sustainability
  21. Žujović Maša, Obradović Radojko, Rakonjac Ivana, Milošević Jelena (2022-08)
    3D Printing Technologies in Architectural Design and Construction:
    A Systematic Literature Review
  22. Ahmed Ghafur, Askandar Nasih, Jumaa Ghazi (2022-07)
    A Review of Large-Scale 3DCP:
    Material-Characteristics, Mix-Design, Printing-Process, and Reinforcement-Strategies
  23. Guamán-Rivera Robert, Martínez-Rocamora Alejandro, García-Alvarado Rodrigo, Muñoz-Sanguinetti Claudia et al. (2022-02)
    Recent Developments and Challenges of 3D Printed Construction:
    A Review of Research Fronts
  24. Kreiger Megan (2021-07)
    Go Big or Go Home:
    Printing Concrete Buildings
  25. Rehman Atta, Kim Jung-Hoon (2021-07)
    3D Concrete Printing:
    A Systematic Review of Rheology, Mix Designs, Mechanical, Microstructural, and Durability Characteristics
  26. García-Alvarado Rodrigo, Moroni-Orellana Ginnia, Banda-Pérez Pablo (2021-06)
    Architectural Evaluation of 3D Printed Buildings
  27. Hoffmann Marcin, Żarkiewicz Krzysztof, Zieliński Adam, Skibicki Szymon et al. (2021-05)
    Foundation Piles:
    A New Feature for Concrete 3D Printers
  28. Khajavi Siavash, Tetik Müge, Mohite Ashish, Peltokorpi Antti et al. (2021-04)
    Additive Manufacturing in the Construction Industry:
    The Comparative Competitiveness of 3D Concrete Printing
  29. 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
  30. Mechtcherine Viktor, Buswell Richard, Kloft Harald, Bos Freek et al. (2021-02)
    Integrating Reinforcement in Digital Fabrication with Concrete:
    A Review and Classification Framework
  31. Kreiger Eric, Diggs-McGee Brandy, Wood Tanner, MacAllister Bruce et al. (2020-07)
    Field Considerations for Deploying Additive Construction

BibTeX
@article{jago_digg_krei_schu.2020.TVaSo3PC,
  author            = "Jeneé A. Jagoda and Brandy N. Diggs-McGee and Megan A. Kreiger and Steven J. Schuldt",
  title             = "The Viability and Simplicity of 3D Printed Construction: A Military Case Study",
  doi               = "10.3390/infrastructures5040035",
  year              = "2020",
  journal           = "Infrastructures",
  volume            = "5",
  number            = "4",
}
Formatted Citation

J. A. Jagoda, B. N. Diggs-McGee, M. A. Kreiger and S. J. Schuldt, “The Viability and Simplicity of 3D Printed Construction: A Military Case Study”, Infrastructures, vol. 5, no. 4, 2020, doi: 10.3390/infrastructures5040035.

Jagoda, Jeneé A., Brandy N. Diggs-McGee, Megan A. Kreiger, and Steven J. Schuldt. “The Viability and Simplicity of 3D Printed Construction: A Military Case Study”. Infrastructures 5, no. 4 (2020). https://doi.org/10.3390/infrastructures5040035.