Skip to content

Modelling, Analysis and Comparison of Robot Energy Consumption for Three-Dimensional Concrete Printing Technology (2024-05)

10.3390/robotics13050078

 Kajzr Daniel,  Myslivec Tomáš,  Černohorský Josef
Journal Article - Robotics, Vol. 13, Iss. 5, No. 78

Abstract

The technology used for the 3D printing of buildings from concrete is currently a very relevant and developing topic and appears to be especially advantageous in terms of sustainable production. An important aspect of the sustainability assessment is the energy efficiency of the printing robots. Printing robots consume a significant amount of energy when printing. It is important to analyse this energy thoroughly and to be able to predict it in order to optimise the movement and control of printing robots to reduce energy consumption. In that paper, we analyse in detail the energy consumption of printing robots, which has not yet been thoroughly investigated in the context of 3D printing building applications. We present a methodology to develop an energy consumption model for a printing robot, specifically developed and optimized for this technology. Our methodology incorporates an innovative approach to determine reduced-efficiency maps, allowing for the inclusion of difficult-to-measure drive efficiency parameters in the model. This results in a comprehensive model of the energy consumption of the printing robot, reflecting its operating characteristics in a real-world environment. An open control system of the printing robot is used for the measurement of energy quantities, and specially developed software tools are introduced. We also present the first direct comparison of the energy consumption of different printing robots when following a uniform printing trajectory. The comparison is made based on the presented methodology to obtain and compare actual energy data from workplaces with printing robots. The methodology combines measured data with energy simulations from ABB RobotStudio, enabling energy comparisons between industrially articulated robots and real printing robots, including the ABB IRB4600, the gantry printing robot, and the printing robot. The experiments clearly demonstrate that the kinematic structure of printing robots significantly affects their energy consumption in 3D printing concrete. Based on the conducted methodologies and analyses, we identify key aspects of energy consumption of printing robots in 3D Construction Printing or 3D Concrete Printing (3DCP) technology. In doing so, we bring a new perspective and provide a basis for further research and development in this previously understudied area.

10 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. Anton Ana-Maria, Reiter Lex, Wangler Timothy, Frangez Valens et al. (2020-12)
    A 3D Concrete Printing Prefabrication Platform for Bespoke Columns
  3. Barnett Eric, Gosselin Clément (2015-06)
    Large-Scale 3D Printing with a Cable-Suspended Robot
  4. Břoušek Josef, Petr Tomas, Beran Leoš, Myslivec Tomáš et al. (2022-03)
    Robotic Arm-Design, Development and Control for Printing Cement-Mixtures
  5. 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
  6. Kajzr Daniel, Myslivec Tomáš, Černohorský Josef (2023-07)
    An Open PLC-Based Robot-Control-System for 3D Concrete Printing
  7. Mohammad Malek, Masad Eyad, Ghamdi Sami (2020-12)
    3D Concrete Printing Sustainability:
    A Comparative Life Cycle Assessment of Four Construction Method Scenarios
  8. 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
  9. Vojir Martin, Myslivec Tomáš, Petr Tomas, Břoušek Josef et al. (2021-03)
    A New Way to Design Software for Industrial Automation:
    3D Printer Cement Mixtures
  10. 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

2 Citations

  1. Ngo Than, Li Shuai, Huynh Tien, Zhang Y. et al. (2025-10)
    3D Printable Hemp Concrete:
    Rheological, Mechanical, and Microstructural Properties
  2. Lopes de Aquino Brasil Alexander, Carmo Pena (2025-09)
    A Systematic Review of Robotic Additive Manufacturing Applications in Architecture, Engineering, and Construction

BibTeX
@article{kajz_mysl_cern.2024.MAaCoRECfTDCPT,
  author            = "Daniel Kajzr and Tomáš Myslivec and Josef Černohorský",
  title             = "Modelling, Analysis and Comparison of Robot Energy Consumption for Three-Dimensional Concrete Printing Technology",
  doi               = "10.3390/robotics13050078",
  year              = "2024",
  journal           = "Robotics",
  volume            = "13",
  number            = "5",
  pages             = "78",
}
Formatted Citation

D. Kajzr, T. Myslivec and J. Černohorský, “Modelling, Analysis and Comparison of Robot Energy Consumption for Three-Dimensional Concrete Printing Technology”, Robotics, vol. 13, no. 5, p. 78, 2024, doi: 10.3390/robotics13050078.

Kajzr, Daniel, Tomáš Myslivec, and Josef Černohorský. “Modelling, Analysis and Comparison of Robot Energy Consumption for Three-Dimensional Concrete Printing Technology”. Robotics 13, no. 5 (2024): 78. https://doi.org/10.3390/robotics13050078.