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Anisotropic Properties of Additively Manufactured Concrete Elements (2023-09)

10.1002/appl.202300035

 Lindner Marco,  Gliniorz Ralf,  Funke Henrik,  Gelbrich Sandra
Journal Article - Applied Research

Abstract

Robotic concrete extrusion is a novel additive manufacturing process (3D concrete printing) and is part of a continuously digitally controlled value chain. According to the state of the art, concrete is considered to be an isotropic material due to the manufacturing process. However, for the additive manufacturing process, the isotropic approach hast to be reconsidered due to the layered structure. It can be assumed that due to the layered structure, the material properties vary depending on the deposition direction and the geometry of the layers. The aim of the work was to record the material-technical characteristics of extruded elements manufactured according to standards in comparison with concrete recipes. Process-related influences on the mechanical parameters of additively manufactured concrete elements were examined and evaluated in more detail. Based on the findings obtained, the dimensioning, design and measurement of components can be carried out and thus guidelines for components can be derived. With these derived guidelines, the material utilization and economic efficiency can be improved.

3 References

  1. Lindner Marco, Scharf‐Wildenhain Ronny, Gliniorz Ralf, Vanselow Konrad et al. (2021-09)
    Calibration Method for Constant Strands of Material with Robotassisted Concrete Extrusion
  2. Mechtcherine Viktor, Mai (née Dressler) Inka, Empelmann Martin, Gehlen Christoph et al. (2021-09)
    Digital Concrete Construction by Means of Additive Processes:
    State of the Art and Research Needs
  3. Wolfs Robert, Bos Freek, Salet Theo (2019-06)
    Triaxial Compression Testing on Early-Age Concrete for Numerical Analysis of 3D Concrete Printing

6 Citations

  1. Senf Ferdinand, Javed Rezan, Funke Henrik, Gelbrich Sandra (2025-06)
    Enhanced Environmental Sustainability of 3D-Printed Concrete Mixtures Based on Calcium Sulfoaluminate (CSA) and Blast Furnace Cement (CEM III/B)
  2. Lindner Marco, Gliniorz Ralf, Funke Henrik, Männel Mike et al. (2024-10)
    Tool-Development for Pre-Cast Concrete Elements in Robot-Assisted Flow-Production
  3. Rudolph Enrico, Schönfelder Daniel, Funke Henrik, Gelbrich Sandra (2024-10)
    Efficient Production of Pre-Cast Concrete Staircases Using Additive-Manufactured, Component-Integrated Formworks Systems
  4. Lindner Marco, Gliniorz Ralf, Funke Henrik, Gelbrich Sandra (2024-09)
    Additive Flow Production of Lightweight Precision Concrete Elements
  5. Lindner Marco, Gliniorz Ralf, Funke Henrik, Gelbrich Sandra (2024-09)
    Development of a Tool for Generating a Constant Volume-Flow with Peristaltic Pumps for Robot-Controlled Concrete-Extrusion
  6. Rudolph Enrico, Schönfelder Daniel, Funke Henrik, Gelbrich Sandra (2024-09)
    Efficient Production of Reinforced Pre-Cast Concrete Elements Using Additive Manufactured, Integrated Formwork

BibTeX
@article{lind_glin_funk_gelb.2023.APoAMCE,
  author            = "Marco Lindner and Ralf Gliniorz and Henrik Funke and Sandra Gelbrich",
  title             = "Anisotropic Properties of Additively Manufactured Concrete Elements",
  doi               = "10.1002/appl.202300035",
  year              = "2023",
  journal           = "Applied Research",
}
Formatted Citation

M. Lindner, R. Gliniorz, H. Funke and S. Gelbrich, “Anisotropic Properties of Additively Manufactured Concrete Elements”, Applied Research, 2023, doi: 10.1002/appl.202300035.

Lindner, Marco, Ralf Gliniorz, Henrik Funke, and Sandra Gelbrich. “Anisotropic Properties of Additively Manufactured Concrete Elements”. Applied Research, 2023. https://doi.org/10.1002/appl.202300035.