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Choi Seongcheol

Information

ORCID
0000-0002-6450-2742
First Contribution
2023-05-30
Last Contribution
2026-02-19
Number Contributions
7
Number Citations
13

Top Co-Authors

  1. Oh Sangwoo (7)
  2. Lee Jinsuk (4)
  3. Kim Tae (2)
  4. Oh Gyujong (2)
  5. Shim Chang (2)

Persons This Author Cites the Most

  1. Kruger Jacques (16)
  2. Mechtcherine Viktor (12)
  3. Roussel Nicolas (10)
  4. de Schutter Geert (10)
  5. Moelich Gerrit (9)

Persons This Author Is Cited Most By

  1. Dong Won-Jun (2)
  2. Kim Tae (2)
  3. Mak Bunleang (2)
  4. Shim Chang (2)
  5. Rasel Risul (1)


  1. Oh Gyujong, Oh Sangwoo, Choi Seongcheol (2026-02)
    Carbonated Basic Oxygen Furnace Slag Fine Aggregate in Concrete:
    Laboratory Assessment and Sustainable Application in 3D-Printed Concrete Components
  2. Oh Sangwoo, Lee Jinsuk, Choi Seongcheol (2026-02)
    Enhancing the Buildability of CSA Cement/OPC-Blended Mortar in 3D Printing:
    Optimizing CSA Cement and Water Contents Using a Statistical Approach
  3. Oh Sangwoo, Lee Jinsuk, Oh Gyujong, Choi Seongcheol (2025-11)
    Effects of the Combined Incorporation of Superabsorbent Polymers and Polyvinyl Alcohol Fibers on Material Properties of 3D Printable Mortar:
    Rheology, Shrinkage, and Mechanical Behavior
  4. Kim Tae, Oh Sangwoo, Lee Jinsuk, Choi Seongcheol et al. (2025-10)
    Experimental Data-Driven Framework for Quality Control of 3D-Printed Concrete Permanent Formworks
  5. Kim Tae, Oh Sangwoo, Lee Jinsuk, Dong Won-Jun et al. (2025-05)
    Effects of 3D-Printed Concrete Permanent Formwork on the Flexural Behavior of Reinforced Concrete Beams:
    Experimental and Analytical Investigations
  6. Oh Sangwoo, Hong Geuntae, Choi Seongcheol (2023-05)
    Determining the Effect of Superabsorbent Polymers, Macrofibers, and Resting Time on the Rheological Properties of Cement Mortar Using Analysis of Variance:
    A 3D Printing Perspective
  7. Oh Sangwoo, Choi Seongcheol (2023-05)
    Effects of Superabsorbent Polymers (SAP) On the Rheological Behavior of Cement Mortars:
    A Rheological Study on Performance Requirements for 3D Printable Cementitious Materials