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Evaluation of Workability Parameters in 3D Printing Concrete (2018-10)

10.1016/j.prostr.2018.09.023

Papachristoforou Michail, Mitsopoulos Vasilios,  Stefanidou Maria
Journal Article - Procedia Structural Integrity, Vol. 10, pp. 155-162

Abstract

The aim of this paper was to examine workability of fresh concrete used as material for additive manufacturing. 3D concrete printing is an innovative construction method that promises to be highly advantageous in the construction field in terms of optimizing construction time, cost, design flexibility, error reduction, and environmental aspects. Quality of the final printed structure is significantly affected by the properties of fresh concrete which must possess adequate workability in order to be extruded through an extruder head (printability), maintain its shape once deposited and not collapse under the load of subsequent layers (buildability). In the present paper, workability of fresh concrete used as material for additive manufacturing was measured according to four different tests: flow table, ICAR rheometer, Vicat and an experimental applied in the laboratory by measuring the electric power consumption of the motor that rotates the screw extruder. By measuring a wide range of mixtures produced with different aggregates (limestone, river sand, combination of both) and binders (cement, fly ash, ladle furnace slag), printing them with a printing system with screw extruder and setting printable criteria, the range of printability was obtained. Flow table test was more consistent in relation to the other methods used. Printability range was found between 18 and 24 cm (flow table values). Time after mixing for moving from the upper limit to the lower was also measured and was highly depended on the type of aggregates and binders used. A maximum of 30 minutes was obtained without using any retarder additives. Electric power consumption was considered as a parameter of measuring real-time workability of the mixture, making it possible to modify it on time in real scale applications by adding chemical additives during printing. Regarding hardened concrete properties, density of concrete was measured, between 1.9 and 2.1 g/cm³, depending on the aggregate and binder. Compressive strength and Ultrasonic Pulse Velocity are significantly affected by the type and proportions of raw materials in the mixtures.

6 References

  1. Cesaretti Giovanni, Dini Enrico, Kestelier Xavier, Colla Valentina et al. (2013-08)
    Building Components for an Outpost on the Lunar Soil by Means of a Novel 3D Printing Technology
  2. Gosselin Clément, Duballet Romain, Roux Philippe, Gaudillière-Jami Nadja et al. (2016-03)
    Large-Scale 3D Printing of Ultra-High-Performance Concrete:
    A New Processing Route for Architects and Builders
  3. Kazemian Ali, Yuan Xiao, Cochran Evan, Khoshnevis Behrokh (2017-04)
    Cementitious Materials for Construction-Scale 3D Printing:
    Laboratory Testing of Fresh Printing Mixture
  4. Khoshnevis Behrokh (2003-11)
    Automated Construction by Contour Crafting:
    Related Robotics and Information Technologies
  5. Lim Sungwoo, Buswell Richard, Le Thanh, Wackrow Rene et al. (2011-07)
    Development of a Viable Concrete Printing Process
  6. Perrot Arnaud, Rangeard Damien, Pierre Alexandre (2015-02)
    Structural Build-Up of Cement-Based Materials Used for 3D Printing-Extrusion-Techniques

90 Citations

  1. Tushar Fazlul, Hasan Mehedi, Hasan Kamrul, Mawa Jannatul et al. (2026-01)
    Factors Affecting Flowability and Rheological Behavior of 3D Printed Concrete:
    A Comprehensive Review
  2. Ding Tao, Wei Jun, Sun Jingting, Feng Kaikai (2025-12)
    Experimental Study on Thermal Properties of 3D Printed Concrete with Recycled Sand and Powder
  3. Öztürk Ece, Ince Ceren, Borgianni Yuri, Nicolaides Demetris et al. (2025-12)
    Printability, Engineering Properties and Environmental Implications of 3D-Printed Cementitious Mortars Incorporating Hydrated Lime, Tile Powder and Accelerator
  4. Guerrero Ana, Asensio Eloy, Fernández Fernando (2025-12)
    Large‐Format Additive Manufacturing with Cement and Clays:
    Characterization Methods
  5. Tang Jiyu, Wang Zhihang, Gao Danying, Yang Lin et al. (2025-11)
    Research Progress on 3D Printed Geopolymer Concrete
  6. Wang Hailong, Song Xinlei, Shen Wenbin, Sun Xiaoyan et al. (2025-10)
    Evaluation and Optimization of 3D-Printed Concrete Based on Flowability Considering Printability and Micro-Pore Characteristics
  7. Tarhan Yeşim, Atalay Berrin (2025-09)
    Phosphogypsum and Borogypsum as Additives for Sustainable and High-Performance 3D-Printable Concrete
  8. Disu Oluwatimilehin, Ismail Sikiru, Wood Luke, Chrysanthou Andreas et al. (2025-08)
    Experimental Study on Buildability of 3D-Printed Cement-Based Structures Using Aluminium Sulphate
  9. Yang Xia, Wang Jiuyuan, Huang Han, Wu Gengchen et al. (2025-08)
    Anti-Washout Cement-Based Material for Under-Seawater 3D Concrete Printing:
    Design, Mechanical Properties and Microstructural Analysis
  10. Mani Aravindhraj, Sekar Muthu (2025-08)
    NDT Techniques for Evaluating Mechanical Properties in Green and Fiber-Reinforced 3D Printable Mixes
  11. Kravchenko Ekaterina, Raza Muhammad, Besklubova Svetlana, Lazorenko Georgy (2025-07)
    Transforming Construction Waste into Resources for 3D Printed Concrete
  12. 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
  13. Flor Juncal Luis, Scott Allan, Clucas Don, Loporcaro Giuseppe (2025-07)
    Ultrasonic Pulse Velocity for Real-Time Filament Quality Monitoring in 3D Concrete Printing Construction
  14. Joshi Arpan, Gaspar Florindo, Archbold Paul, Silvestre José (2025-07)
    Study on the Composition of Mortars Based on Forest Biomass Fly Ash for Sustainable 3D Printing
  15. Gerges Isabelle, Farraj Faten, Youssef Nicolas, Antczak Emmanuel et al. (2025-07)
    Methodologies to Design Optimum 3D Printable Mortar Mix:
    A Review
  16. Nayaka Ramesh, Kumar H., Sharif Ahamed, Zhang Y. (2025-05)
    Exploring Key Aspects and Sustainable Benefits of 3D Concrete Printing (3DCP):
    A Selective Review
  17. Salifu N., Bassuoni Mohamed, Guven Gursans (2025-05)
    Performance Evaluation of Limestone-Blended Cement and Cellulose Nanomaterials in 3D Concrete Printing
  18. Das B., Prathap Y., Sandeep Ankit, Vaghamshi Keval et al. (2025-05)
    Reviewing the Materials Selection, Rheology, Durability, and Microstructural Characteristics of 3D Printed Concrete
  19. Mishra Sanjeet, Snehal K., Das B., Chandrasekaran Rajasekaran et al. (2025-05)
    From Printing to Performance:
    A Review on 3D Concrete Printing Processes, Materials, and Life Cycle Assessment
  20. Maralapalle Vedprakash, Kumavat Hemraj, Nadaf Maheboobsab, Zende Aijaz et al. (2025-04)
    Optimizing 3D Geopolymer Concrete for Sustainable Construction:
    A Review of Material Selection, Printing Methods, and Properties
  21. Gulati Hemant, Lu Tianxing (2025-03)
    Customized 3D Printable Concrete:
    A Systematic Review of Challenges, Methodologies, and Adoption Strategies
  22. Araújo Rísia, Martinelli Antônio, Cabral Kleber, Nunes Ueslei et al. (2025-03)
    Effect of Lightweight Expanded Clay Aggregate (LECA) On the Printability of Cementitious Compositions for 3D Printing
  23. An Xuehui, Liang Qimin, Li Pengfei, You Wei et al. (2025-02)
    Experimental Assessment on Printing Performance and Mechanical Properties of Underwater Self-Protecting 3D Printing Concrete
  24. Mousavi Moein, Bengar Habib, Mousavi Fateme, Mahdavinia Pooneh et al. (2024-12)
    Inter-Layer Bond Strength Prediction of 3D Printable Concrete Using Artificial Neural Network:
    Experimental and Modeling Study
  25. Tarhan Yeşim, Tarhan İsmail, Şahin Remzi (2024-12)
    Comprehensive Review of Binder Matrices in 3D Printing Construction:
    Rheological Perspectives
  26. 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
  27. Mohemmi Morteza, Sadeghian Vahid, Panda Biranchi, Boyle Sheryl (2024-09)
    Numerical Modeling of Lateral Resistance of 3D Printed Concrete Walls
  28. Gao Jianhao, Wang Chaofeng, Li Jiaqi, Chu S. (2024-09)
    Data-Driven Rheological-Model for 3D Printable Concrete
  29. Rehman Saif, Riaz Raja, Usman Muhammad, Kim In-Ho (2024-08)
    Augmented Data-Driven Approach Towards 3D Printed Concrete Mix Prediction
  30. Yang Chao, Xu Xinglong, Lei Zuxiang, Sun Junbo et al. (2024-06)
    Enhancing Mechanical Properties of Three-Dimensional Concrete at Elevated Temperatures Through Recycled Ceramic-Powder Treatment Methods
  31. 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
  32. Rahman Mahfuzur, Rawat Sanket, Yang Chunhui, Mahil Ahmed et al. (2024-05)
    A Comprehensive Review on Fresh and Rheological Properties of 3D Printable Cementitious Composites
  33. Zaid Osama, Ouni Mohamed (2024-04)
    Advancements in 3D Printing of Cementitious Materials:
    A Review of Mineral Additives, Properties, and Systematic Developments
  34. Perales-Santillan M., Díaz-Aguilera Jorge, Mendoza-Rangel Jose (2024-02)
    Evaluation of the Rheological Behavior for Alkaline-Activated Cements of Metakaolin and Limestone for Its Potential Application in 3D Printing
  35. Polychronopoulos Nickolas, Sarris Ioannis, Vlachopoulos John (2024-01)
    Flow-Analysis of Screw-Extrusion in Three-Dimensional Concrete Printing
  36. Pavlin Majda, Horvat Barbara, Cerc Korošec Romana, Capuder Rok et al. (2024-01)
    Characterisation of a 3D Printed Alkali-Activated Material Based on Waste-Mineral-Wool at Room and Elevated Temperatures
  37. Eugenin Claudia, Cuevas Villalobos Karla, Navarrete Iván (2023-12)
    Temperature-Dependance of 3D Printed Concrete Produced with Copper-Tailings
  38. Şahin Hatice, Mardani Ali (2023-10)
    How Does Rheological Behavior Affect the Inter-Layer Bonding Strength of 3DPC Mixtures?
  39. Bayat Hamid, Kashani Alireza (2023-09)
    Analysis of Rheological Properties and Printability of a 3D Printing Mortar Containing Silica-Fume, Hydrated Lime, and Blast-Furnace-Slag
  40. Liu Dawei, Zhang Zhigang, Zhang Xiaoyue, Chen Zhaohui (2023-09)
    3D Printing Concrete Structures:
    State of the Art, Challenges, and Opportunities
  41. Ghosh Debalina, Anleu Paula, Pape Yann, Ma Zhonggoue (2023-07)
    Effect of Inter-Layer-Time-Lapse and Workability-Retention on Printed Concrete Performance
  42. Baldoceda Jordan, Silva Guido, Kim Suyeon, Ruiz Gaby et al. (2023-07)
    Preliminary Experimental Evaluation of Buildability Improvement Methods for Concrete for 3D Printing
  43. Ghasemi Alireza, Naser Mohannad (2023-07)
    Tailoring 3D Printed Concrete Through Explainable Artificial Intelligence
  44. Tu Haidong, Wei Zhenyun, Bahrami Alireza, Kahla Nabil et al. (2023-06)
    Recent Advancements and Future Trends in 3D Printing Concrete Using Waste-Materials
  45. Shenawa Amaal, Karoti Poonam (2023-06)
    3D Printing in Construction, Mixture Characteristics, Strength, and Thermal Performance-Review
  46. Anleu Paula, Pape Yann, Chen Qiyi, Advincula Rigoberto et al. (2023-06)
    An Innovative Carbonated Cementitious Material and Its Printability and Carbon Mineralization Capacity
  47. Ali Ammar, Riaz Raja, Malik Umair, Abbas Syed et al. (2023-06)
    Machine-Learning-Based Predictive-Model for Tensile and Flexural Strength of 3D Printed Concrete
  48. Samudrala Manideep, Mujeeb Syed, Lanjewar Bhagyashri, Chippagiri Ravijanya et al. (2023-05)
    3D Printable Concrete for Energy-Efficient Buildings
  49. Bhushan Jindal Bharat, Jangra Parveen (2023-05)
    3D Printed Concrete:
    A Comprehensive Review of Raw Material’s Properties, Synthesis, Performance, and Potential Field Applications
  50. Joshi Arpan, Carvalho Tomás, Gaspar Florindo (2023-04)
    Incorporation of Forest Biomass-Based Fly-Ash in Cement for 3D Printing
  51. Razzaghian Ghadikolaee Mehrdad, Cerro-Prada Elena, Pan Zhu, Korayem Asghar (2023-04)
    Nanomaterials as Promising Additives for High-Performance 3D Printed Concrete:
    A Critical Review
  52. Cui Dong, Wu Yingxuan, Xie Xiaoying, Tian Guanfei et al. (2023-03)
    Investigation on the Micro-Structure of a 3D Printed Mortar Through a Novel Leaching-Subsidiary Tomography
  53. Harbouz Ilhame, Yahia Ammar, Rozière Emmanuel, Loukili Ahmed (2023-02)
    Printing Quality-Control of Cement-Based Materials Under Flow and Rest-Conditions
  54. Bazli Milad, Ashrafi Hamed, Rajabipour Ali, Kutay Cat (2023-02)
    3D Printing for Remote Housing:
    Benefits and Challenges
  55. Puzatova (nee Sharanova) Anastasiia, Shakor Pshtiwan, Laghi Vittoria, Dmitrieva Maria (2022-11)
    Large-Scale 3D Printing for Construction Application by Means of Robotic Arm and Gantry 3D Printer:
    A Review
  56. Alonso-Cañon Sara, Blanco-Fernandez Elena, Castro-Fresno Daniel, Yoris-Nobile Adrian et al. (2022-11)
    Reinforcements in 3D Printing Concrete Structures
  57. Puzatova (nee Sharanova) Anastasiia, Sokolnikova S., Dmitrieva Maria (2022-09)
    Polymer-Cement Concrete Based on Polyvinyl-Acetate Dispersion for Construction 3D Printing
  58. Zafar Muhammad, Bakhshi Amir, Hojati Maryam (2022-09)
    Toward 3D Printable Engineered Cementitious Composites:
    Mix-Design Proportioning, Flowability, and Mechanical Performance
  59. Pham Thi, Nguyen Thu, Trinh Thanh, Nguyen Anh et al. (2022-08)
    Development of 3D Printers for Concrete Structures:
    Mix Proportion Design Approach and Laboratory Testing
  60. Araújo Rísia, Martinelli Antônio, Cabral Kleber, Dantas André et al. (2022-08)
    Thermal Performance of Cement-Leca Composites for 3D Printing
  61. Jayathilakage Roshan, Rajeev Pathmanathan, Sanjayan Jay (2022-08)
    Rheometry for Concrete 3D Printing:
    A Review and an Experimental Comparison
  62. Danish Aamar, Khurshid Kiran, Mosaberpanah Mohammad, Ozbakkaloglu Togay et al. (2022-06)
    Micro-Structural Characterization, Driving Mechanisms, and Improvement-Strategies for Inter-Layer Bond Strength of Additive Manufactured Cementitious Composites:
    A Review
  63. Samad Nur, Abdullah Siti, Ibrahim Mustaffa, Shahidan Shahiron et al. (2022-05)
    Initial Properties of 3D Printing Concrete Using Rice-Husk-Ash as Partial Cement Replacement
  64. Saruhan Vedat, Keskinateş Muhammer, Felekoğlu Burak (2022-04)
    A Comprehensive Review on Fresh State Rheological Properties of Extrusion-Mortars Designed for 3D Printing Applications
  65. Uhlík Adam, Buch Mário, Unčík Stanislav (2022-04)
    Effecting the Rheological Properties of Composites for 3D Printing Technology in Construction
  66. Teixeira João, Schaefer Cecília, Maia Lino, Rangel Bárbara et al. (2022-03)
    Influence of Supplementary Cementitious Materials on Fresh Properties of 3D Printable Materials
  67. Sayegh Sameh, Romdhane Lotfi, Manjikian Solair (2022-03)
    A Critical Review of 3D Printing in Construction:
    Benefits, Challenges, and Risks
  68. Yue Hongfei, Hua Sudong, Qian Hao, Yao Xiao et al. (2021-12)
    Investigation on Applicability of Spherical Electric Arc-Furnace-Slag as Fine Aggregate in Superplasticizer-Free 3D Printed Concrete
  69. 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
  70. Souza Marcelo, Ferreira Igor, Moraes Elisângela, Senff Luciano et al. (2021-11)
    Role of Chemical Admixtures on 3D Printed Portland Cement:
    Assessing Rheology and Buildability
  71. Abudawaba Fareh, Gomaa Eslam, Gheni Ahmed, Gawady Mohamed (2021-09)
    Developing Mix Proportions for Class C Fly-Ash-Based Alkali-Activated 3D Printed Concrete Mixtures
  72. Nováková Kateřina, Vele Jiří (2021-09)
    Prvok:
    An Experiment with 3D Printing Large Doublecurved Concrete Structure
  73. Wang Yu, Jiang Yaqing, Pan Tinghong, Yin Kangting (2021-08)
    The Synergistic Effect of Ester-Ether Copolymerization Thixo-Tropic Superplasticizer and Nano-Clay on the Buildability of 3D Printable Cementitious Materials
  74. Rehman Atta, Kim Jung-Hoon (2021-07)
    3D Concrete Printing:
    A Systematic Review of Rheology, Mix Designs, Mechanical, Microstructural, and Durability Characteristics
  75. Zhang Chao, Nerella Venkatesh, Krishna Anurag, Wang Shen et al. (2021-06)
    Mix-Design Concepts for 3D Printable Concrete:
    A Review
  76. Song Hongwei, Li Xinle (2021-05)
    An Overview on the Rheology, Mechanical Properties, Durability, 3D Printing, and Microstructural Performance of Nanomaterials in Cementitious Composites
  77. 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
  78. Sikora Paweł, Chougan Mehdi, Cuevas Villalobos Karla, Liebscher Marco et al. (2021-02)
    The Effects of Nano- and Micro-Sized Additives on 3D Printable Cementitious and Alkali-Activated Composites:
    A Review
  79. Krishnaraja A., Guru K. (2021-02)
    3D Printing Concrete:
    A Review
  80. Kristombu Baduge Shanaka, Navaratnam Satheeskumar, Zidan Yousef, McCormack Tom et al. (2021-01)
    Improving Performance of Additive Manufactured Concrete:
    A Review on Material Mix-Design, Processing, Inter-Layer Bonding, and Reinforcing-Methods
  81. Antoni Antoni, Widjaya David, Wibowo Alexander, Chandra Jimmy et al. (2020-12)
    Using Calcium Oxide and Accelerator to Control the Initial Setting-Time of Mortar in 3D Concrete Printing
  82. Singh P., Sreerag K. (2020-12)
    Additive Manufacturing Through Digital Concrete by Extrusion- and Non-Extrusion-Method
  83. Muthukrishnan Shravan, Ramakrishnan Sayanthan, Sanjayan Jay (2020-09)
    Effect of Microwave-Heating on Inter-Layer Bonding and Buildability of Geopolymer 3D Concrete Printing
  84. Sambucci Matteo, Marini Danilo, Sibai Abbas, Valente Marco (2020-08)
    Preliminary Mechanical Analysis of Rubber-Cement Composites Suitable for Additive Process Construction
  85. Vishruthi M., Raghavendra S., Ravi Teja Y., Anand K. (2020-05)
    Evaluation of Cementitious Mixes for Printing
  86. Khan Mohammad, Sanchez Florence, Zhou Hongyu (2020-04)
    3D Printing of Concrete:
    Beyond Horizons
  87. Siddika Ayesha, Mamun Md., Ferdous Wahid, Saha Ashish et al. (2019-12)
    3D Printed Concrete:
    Applications, Performance, and Challenges
  88. Lafhaj Zoubeir, Rabenantoandro Andry, Moussaoui Soufiane, Dakhli Zakaria et al. (2019-12)
    Experimental Approach for Printability-Assessment:
    Toward a Practical Decision-Making Framework of Printability for Cementitious Materials
  89. Alghamdi Hussam, Nair Sooraj, Neithalath Narayanan (2019-02)
    Insights into Material-Design, Extrusion Rheology, and Properties of 3D Printable Alkali-Activated Fly-Ash-Based Binders
  90. Nair Sooraj, Alghamdi Hussam, Arora Aashay, Mehdipour Iman et al. (2019-01)
    Linking Fresh Paste Microstructure, Rheology and Extrusion-Characteristics of Cementitious Binders for 3D Printing

BibTeX
@article{papa_mits_stef.2018.EoWPi3PC,
  author            = "Michail Papachristoforou and Vasilios Mitsopoulos and Maria Stefanidou",
  title             = "Evaluation of Workability Parameters in 3D Printing Concrete",
  doi               = "10.1016/j.prostr.2018.09.023",
  year              = "2018",
  journal           = "Procedia Structural Integrity",
  volume            = "10",
  pages             = "155--162",
}
Formatted Citation

M. Papachristoforou, V. Mitsopoulos and M. Stefanidou, “Evaluation of Workability Parameters in 3D Printing Concrete”, Procedia Structural Integrity, vol. 10, pp. 155–162, 2018, doi: 10.1016/j.prostr.2018.09.023.

Papachristoforou, Michail, Vasilios Mitsopoulos, and Maria Stefanidou. “Evaluation of Workability Parameters in 3D Printing Concrete”. Procedia Structural Integrity 10 (2018): 155–62. https://doi.org/10.1016/j.prostr.2018.09.023.