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Eco-Friendly, Set-on-Demand Digital Concrete (2022-02)

10.1089/3dp.2020.0350

 Boscaro Federica,  Quadranti Elia,  Wangler Timothy,  Mantellato Sara,  Reiter Lex,  Flatt Robert
Journal Article - 3D Printing and Additive Manufacturing, Vol. 9, Iss. 1, pp. 3-11

Abstract

Digital fabrication with concrete is considered to potentially revolutionize the construction sector and is often presented as a means to reduce its environmental footprint. However, at least in the case of concrete, it encounters significant challenges in terms of material design, since high paste volumes and Portland cement contents are normally used due to process requirements. In this article, the application to layered extrusion of a recently developed low clinker cement containing 50% Portland cement and 50% supplementary cementitious materials, such as limestone, burnt oil shale, and fly ash, is presented. It is found that an accelerator paste composed by Calcium Aluminate Cement (CAC) and anhydrite provides the required hydration and structural build-up for 3D printing, while not compromising the early and long-term compressive strength. Such a low clinker mortar can be successfully retarded, processed, pumped, and extruded just after mixing it in line with the accelerator paste. This accelerated mortar formulation contains only 303kg/m3 of Portland cement, which is roughly half the amount used in current accelerated formulations used for digital fabrication with concrete.

17 References

  1. Agustí-Juan Isolda, Habert Guillaume (2016-11)
    Environmental Design Guidelines for Digital Fabrication
  2. Anton Ana-Maria, Reiter Lex, Wangler Timothy, Frangez Valens et al. (2020-12)
    A 3D Concrete Printing Prefabrication Platform for Bespoke Columns
  3. Chen Yu, Figueiredo Stefan, Li Zhenming, Chang Ze et al. (2020-03)
    Improving Printability of Limestone-Calcined-Clay-Based Cementitious Materials by Using Viscosity-Modifying Admixture
  4. Chen Yu, Li Zhenming, Figueiredo Stefan, Çopuroğlu Oğuzhan et al. (2019-04)
    Limestone and Calcined-Clay-Based Sustainable Cementitious Materials for 3D Concrete Printing:
    A Fundamental Study of Extrudability and Early-Age Strength Development
  5. Chen Yu, Veer Frederic, Çopuroğlu Oğuzhan, Schlangen Erik (2018-09)
    Feasibility of Using Low CO2 Concrete Alternatives in Extrusion-Based 3D Concrete Printing
  6. Lloret-Fritschi Ena, Scotto Fabio, Gramazio Fabio, Kohler Matthias et al. (2018-09)
    Challenges of Real-Scale Production with Smart Dynamic Casting
  7. Marchon Delphine, Kawashima Shiho, Bessaies-Bey Hela, Mantellato Sara et al. (2018-05)
    Hydration- and Rheology-Control of Concrete for Digital Fabrication:
    Potential Admixtures and Cement-Chemistry
  8. Panda Biranchi, Ruan Shaoqin, Unluer Cise, Tan Ming (2018-11)
    Improving the 3D Printability of High-Volume Fly-Ash Mixtures via the Use of Nano-Attapulgite-Clay
  9. Panda Biranchi, Unluer Cise, Tan Ming (2018-10)
    Investigation of the Rheology and Strength of Geopolymer Mixtures for Extrusion-Based 3D Printing
  10. Reiter Lex, Wangler Timothy, Anton Ana-Maria, Flatt Robert (2020-05)
    Setting-on-Demand for Digital Concrete:
    Principles, Measurements, Chemistry, Validation
  11. Reiter Lex, Wangler Timothy, Roussel Nicolas, Flatt Robert (2018-06)
    The Role of Early-Age Structural Build-Up in Digital Fabrication with Concrete
  12. Roussel Nicolas (2018-05)
    Rheological Requirements for Printable Concretes
  13. Roussel Nicolas, Bessaies-Bey Hela, Kawashima Shiho, Marchon Delphine et al. (2019-08)
    Recent Advances on Yield-Stress and Elasticity of Fresh Cement-Based Materials
  14. Schutter Geert, Lesage Karel, Mechtcherine Viktor, Nerella Venkatesh et al. (2018-08)
    Vision of 3D Printing with Concrete:
    Technical, Economic and Environmental Potentials
  15. Vantyghem Gieljan, Corte Wouter, Shakour Emad, Amir Oded (2020-01)
    3D Printing of a Post-Tensioned Concrete Girder Designed by Topology-Optimization
  16. Wangler Timothy, Roussel Nicolas, Bos Freek, Salet Theo et al. (2019-06)
    Digital Concrete:
    A Review
  17. Wolfs Robert, Bos Freek, Salet Theo (2018-06)
    Correlation Between Destructive Compression Tests and Non-Destructive Ultrasonic Measurements on Early-Age 3D Printed Concrete

34 Citations

  1. Perrot Arnaud, Jacquet Yohan, Amziane Sofiane (2025-01)
    3D Concrete Printing
  2. Tarhan Yeşim, Tarhan İsmail, Şahin Remzi (2024-12)
    Comprehensive Review of Binder Matrices in 3D Printing Construction:
    Rheological Perspectives
  3. Prihar Arjun, Gupta Shashank, Esmaeeli Hadi, Moini Mohamadreza (2024-08)
    Tough Double-Bouligand Architected Concrete Enabled by Robotic Additive Manufacturing
  4. Perrot Arnaud, Jacquet Yohan, Caron Jean-François, Mesnil Romain et al. (2024-08)
    Snapshot on 3D Printing with Alternative Binders and Materials:
    Earth, Geopolymers, Gypsum and Low-Carbon Concrete
  5. Wangler Timothy, Tao Yaxin, Das Arnesh, Mahmoudi Matineh et al. (2024-08)
    Aluminate 2K Systems in Digital Concrete:
    Process, Design, Chemistry, and Outlook
  6. Zhang Nan, Sanjayan Jay (2024-07)
    Pumping-Less 3D Concrete Printing Using Quick Nozzle Mixing
  7. Hanifa Mohamad, Daruari Harish, Figueiredo Bruno, Mendonça Paulo (2024-07)
    Embodied Carbon of Structural Earthen Composites with Natural Materials and Byproducts Suitable for Robotic 3D Printing
  8. Assunção Badan Julie, Chadha Kunaljit, Vasey Lauren, Brumaud Coralie et al. (2024-06)
    Contribution of Production Processes in Environmental Impact of Low-Carbon Materials Made by Additive Manufacturing
  9. Kanagasuntharam Sasitharan, Ramakrishnan Sayanthan, Sanjayan Jay (2024-06)
    Encapsulation of Sodium-Silicate to Attain on Demand Buildability Enhancement in Concrete 3D Printing
  10. Jakob Cordula, Rudolph Jennifer, Wolf Julian, Neubauer Jürgen (2024-06)
    Hydration of a Two-Component CSA-OPC-Mix-Timing of Component Blending & Setting-on-Demand
  11. Basha Shaik, Nugraha Joshua, Rehman Atta, Choi Kichang et al. (2024-06)
    Structuration and Yield Strength Characterization of Hybrid Alkali-Activated Cement Composites for Ultra-Rapid 3D Construction Printing
  12. Birru Bizu, Rehman Atta, Kim Jung-Hoon (2024-06)
    Comparative Analysis of Structural Build-Up in One-Component Stiff and Two-Component Shotcrete-Accelerated Set-on-Demand Mixtures for 3D Concrete Printing
  13. Wangler Timothy, Vangen Kathrina, Burger Joris, Flatt Robert (2024-05)
    Digital Fabrication Material-Processing-Strategy for Bespoke Low-Clinker Mass-Concrete Components
  14. Cavalcante Tiago, Toledo Filho Romildo, Mendoza Reales Oscar (2024-05)
    Influence of Recycled Concrete-Powder on Rheology of Printable Cement-Based Matrixes
  15. Dvorkin Leonid, Marchuk Vitaliy, Mróz Katarzyna, Maroszek Marcin et al. (2024-04)
    Energy-Efficient Mixtures Suitable for 3D Technologies
  16. Chen Yu, Rahmani Hossein, Schlangen Erik, Çopuroğlu Oğuzhan (2023-11)
    An Approach to Develop Set-on-Demand 3D Printable Limestone-Calcined-Clay-Based Cementitious Materials Using Calcium-Nitrate
  17. Kanagasuntharam Sasitharan, Ramakrishnan Sayanthan, Sanjayan Jay (2023-10)
    Investigating PCM Encapsulated NaOH Additive for Set-on-Demand in 3D Concrete Printing
  18. Muthukrishnan Shravan, Ramakrishnan Sayanthan, Sanjayan Jay (2023-09)
    Rapid Early-Age Strength Development of In-Line Activated Geopolymer for Concrete 3D Printing
  19. Kanagasuntharam Sasitharan, Ramakrishnan Sayanthan, Muthukrishnan Shravan, Sanjayan Jay (2023-05)
    Effect of Magnetorheological Additives on the Buildability of 3D Concrete Printing
  20. Panda Biranchi, Tran Jonathan (2023-03)
    Material-Design, Additive Manufacturing, and Performance of Cement-Based Materials
  21. Rehman Atta, Melesse Birru, Kim Jung-Hoon (2023-02)
    Set-on-Demand 3D Concrete Printing Construction and Potential Outcome of Shotcrete-Accelerators on Its Hardened Properties
  22. Lloret-Fritschi Ena, Choma Joseph, Scotto Fabio, Szabó Anna et al. (2023-02)
    In-Crease:
    Less Concrete More Paper
  23. Burger Joris, Aejmelaeus-Lindström Johan, Gürel Şeyma, Niketić Filip et al. (2023-02)
    Eggshell Pavilion:
    A Reinforced Concrete Structure Fabricated Using Robotically 3D Printed Formwork
  24. Melichar Jindřich, Žižková Nikol, Brožovský Jiří, Mészárosová Lenka et al. (2022-11)
    Study of the Interaction of Cement-Based Materials for 3D Printing with Fly-Ash and Superabsorbent Polymers
  25. Muthukrishnan Shravan, Ramakrishnan Sayanthan, Sanjayan Jay (2022-10)
    In-Line Activation of Geopolymer-Slurry for Concrete 3D Printing
  26. Burger Joris, Huber Tobias, Lloret-Fritschi Ena, Mata-Falcón Jaime et al. (2022-10)
    Design and Fabrication of Optimised Ribbed Concrete Floor Slabs Using Large-Scale 3D Printed Formwork
  27. Chen Yu, Toosumran Nuttapon, Chehab Noura, Spanjers Henri et al. (2022-10)
    Feasibility Study of Using Desalination-Brine to Control the Stiffness and Early-Age Hydration of 3D Printable Cementitious Materials
  28. Kalthoff Matthias, Raupach Michael, Matschei Thomas (2022-09)
    Investigation of Rheological Test-Methods for the Suitability of Mortars for Manufacturing of Textile-Reinforced Concrete Using a Laboratory Mortar-Extruder:
    LabMorTex
  29. Bischof Patrick, Mata-Falcón Jaime, Kaufmann Walter (2022-08)
    Fostering Innovative and Sustainable Mass-Market Construction Using Digital Fabrication with Concrete
  30. Reiter Lex, Anton Ana-Maria, Wangler Timothy, Dillenburger Benjamin et al. (2022-06)
    A 3D Printing Platform for Reinforced Printed-Sprayed Concrete Composites
  31. Flatt Robert, Wangler Timothy (2022-05)
    On Sustainability and Digital Fabrication with Concrete
  32. Lloret-Fritschi Ena, Quadranti Elia, Scotto Fabio, Fuhrimann Lukas et al. (2022-05)
    Additive Digital Casting:
    From Lab to Industry
  33. Chen Yu, Chang Ze, He Shan, Çopuroğlu Oğuzhan et al. (2022-04)
    Effect of Curing Methods During a Long Time-Gap Between Two Printing Sessions on the Inter-Layer Bonding of 3D Printed Cementitious Materials
  34. Wangler Timothy, Pileggi Rafael, Gürel Şeyma, Flatt Robert (2022-03)
    A Chemical Process Engineering Look at Digital Concrete Processes:
    Critical Step Design, In-Line Mixing, and Scale-Up

BibTeX
@article{bosc_quad_wang_mant.2022.EFSoDDC,
  author            = "Federica Boscaro and Elia Quadranti and Timothy Paul Wangler and Sara Mantellato and Lex Reiter and Robert Johann Flatt",
  title             = "Eco-Friendly, Set-on-Demand Digital Concrete",
  doi               = "10.1089/3dp.2020.0350",
  year              = "2022",
  journal           = "3D Printing and Additive Manufacturing",
  volume            = "9",
  number            = "1",
  pages             = "3--11",
}
Formatted Citation

F. Boscaro, E. Quadranti, T. P. Wangler, S. Mantellato, L. Reiter and R. J. Flatt, “Eco-Friendly, Set-on-Demand Digital Concrete”, 3D Printing and Additive Manufacturing, vol. 9, no. 1, pp. 3–11, 2022, doi: 10.1089/3dp.2020.0350.

Boscaro, Federica, Elia Quadranti, Timothy Paul Wangler, Sara Mantellato, Lex Reiter, and Robert Johann Flatt. “Eco-Friendly, Set-on-Demand Digital Concrete”. 3D Printing and Additive Manufacturing 9, no. 1 (2022): 3–11. https://doi.org/10.1089/3dp.2020.0350.